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HINTS TO YOUNG ARCHITECTS 



00MPBI8IKO 

ADVICE TO THOSE WHO, WHILE YET AT SCHOOL, ABE DE8TINBD T< 

THE PBOFESSION 

TO SUCH AS, HAVINGPASSEDTHEIRPUPILAGE, ABE ABOUT TO TBAVE] 

AND TO THOSE WHO, HAVING COMPLETED THEIB EDUCATION, 

ABE ABOUT TO PEACTISE 



TOOHTHBS WITH 

A MODEL SPECIFICATION 

INVOLVING A GKEAT .VAEIETT OF INSTBUCTIVE AND SUGGBBTIVI 

MATTEB 



By GEORGE WIGHTWICK, Architect 

AUTHOB OF "tHB PALACE OF ABCHXTBCTUIIE," ETO., ETC. 



^ ^rtu (£bitix)n 
bevised and considerably enlarged 

compbising tbeatises on the pbinciples op constbuction 

and design 

By G. HUSKISSON GUILLAUME, Abohiiect 

lUTHOB OF "the TUBOBT OF ABT," "OBSZaK, CONSTBUGTIVB AKD JI6THBTIC,'' BTO. BTG 




Gi*'\V'» . MAR TS 



LONDON 

CEOSBY LOOKWOOB A"S^"a CQ. 

r, BTATIONESS' HALL COTJET, li'O'DQiL'Sa TOaA. 

1880 



loni>on: 

minted by virtue and co., limiied, 

citt road* 



AUTHOE'S PEEFACE, 



The Antlior lias been frequently asked, ** What ehoold be 
the later school education of a youth intended for the 
architectural profession?'' In answer to this he would 
refer to the earlier pages of his work as in themselves alone 
of much importance, in aiding the parents of such a youth to 
form some judgment as to his fitness, and the proper studies 
for his last year at school ; while to him the entire book is 
useful in affording a general idea of those numerous acquire- 
ments, and of that untiring study, which may happily disabuse 
his mind of the notion that a mere aptitude for drawing is all 
that is required of him. This book will enable the parent 
to test the son's earnestness in reference to the scientific and 
arithmetical, necessities of the practising architect, too 
frequently regarded with distasteful impatience by pupils 
when they come to the study of construction and the 
drudgery of cross-multiplication, the composition of a sp6<»- 
fication, and the computation of an estimate. 

In fine, to the young man who is an architect, the practical 
portions of this work must needs be of much value, in at 
least directing his attention, and methodizing the process of 
his labours ; while the general perusal of it will either con- 
firm a youth in his determination for the profession, or serve 
to dissuade him from what might occasion only loss of time 
and useless cost to his parents. 



PREFACE TO THE PRESENT EDITION. 

Another edition of this enlarged and highly appreciated 
work having heen called for, my aim has heen to make it 
more worthy of the acceptance of the student and young 
architect, and of the favourahle opinions that were expressed 
when the last edition was issued. In matters of fact few 
alterations have heen rendered necessary: my attention 
therefore has been given to modify any crude expressions 
as far as the condensation necessary permitted. A note or 
two have heen added on the change in architectural taste, 
and new matter substituted here and there in the Sanitary 
section. Parts IV., V., and VI. have, I need hardly remind 
the reader, been entirely added to the original work as left 
by Mr. Wightwick, and comprise those principles of science, 
construction, and architectural design with which the young 
architect should be familiar, and which it is hoped will lead 
him to pursue their study in other works of a more special 
kind. The new matter introduced in the original text is dis- 
tinguished by being enclosed within brackets, thus [ ] > or made 
as foot-notes. The model specification has been thoroughly 
revised, and considerable additions have been made to it. 
At the particular desire of many readers, and with the object 
of rendermg the book more complete, I have appended a 
form of Conditions of Contract to the specification, which 
will be found to contain all necessary clauses. In its pre- 
paration I have consulted the forms approved by the master 
builders and council of the Royal Institute of British 
Architects and other authorities. Of course, special circum- 
stances in every case will dictate to the architect modifica- 
tions cither in matter or phraseology. 

G. H. a. 



CONTENTS. 



PART I.— SCHOOL STUDIES. 

X Inclinations 1 

CATicAL Studies 2 

ra 4 

ON OP Habits 6 

I School Studies — ^Wmting 7 

38 OP Drawing 9 

3 OP Study 11 

ON FoBM Delineation 12 

ctitb 1* 

crrvB Projection 16 

)N Perspective 21 

AND Shadows 19 

HADOWS ...•••...• 18 

mc Projection 25 

cal Studies 23 

lEMENT OF Builder's Work 29 

c AND Latin 30 

sibility 31 

Remarks on Education 32 

?LES OP Study 33 

ro Pupils during Pupilage 87 



PAKT II.— STUDIES ABROAD. 

42 

r Gothic • <ft 

ccupiED IN Travel ...•••• ^^ 

to AnCHITECTURAL ToURISTS .,%••* ^^ 

nr Francs • * ^^ 



VIU CONTENTS. 

PART III.— EAELY PRACTICE. 

PAOB 

HiNTg oy Plannino 68 

Reference op Plan to Elevation 60 

Adyantaoes op Perspectivb 61 

Angulab PEBSPEtrrrvE . . - 63 

Solids and Voids 60 

Junction op House and Oppioes 67 

Chimneys 68 

Connection in Composition 69 

Position op Watek-closets 70 

Plumbebs' Wobk 71 

Dbains 72 

Views op Employebs 73 

Ocular Impbessions 74 

Value op Cobnices 76 

Windows 76 

Abchitect's Duties 79 

Clebk op Wobks 80 

Details 81 

Hints on Comfobt and Conybnience — ^Double Doobs . . 83 

Position op Fibeplace 84 

Wabming and Ventilation 85 

Kitchen and Oppices 85 

Stabling 88 

Lodges 92 

Building Committees 93 

Altebations and Additions ....... 94 

Quantities .......... 95 

Drawing up Contracts 95 

FoBiki OP Agbeement ......... 96 

Giving Cbbtificates 97 

Abchitect's Position .07 



PART IV.— PRINCIPLES OF CONSTRUCTION. 

Section I. — Equilibbium op Fobces • . . . .99 

Moments .......... 104 

Pbinciple op the Lever 106 

Centbb of Gravity . 108 

Section II. — Balance and Stability op Structures . .110 

Stability op Walls, &c Ill 

Modes of Failure 113 

The Line of Resistance 115 

-PitssevuB OF Wind • • ^^^ 



FsESeVBI OF WlTBB UO 

Bbtainiho Walls 116 

Buck and Bxovb Ascbis IIS 

ABtrTMEHTS 122 

DOKBB 123 

gTBKXaTH IKD StABIUTT OF BeA»B .... 123 

£lFIOT OF FoBinoH 12fi 

Fbahbs and Tbdsseb 126 

TUIAKQULAB FqAMBS 127 

EoaF Tiiu/^sEs 128 

Arcued I(iit3 130 

Etiies-gtu of TiMBEn 133 

JorNTS A>D FisrEsmaa 133 

Wbioht or Peamiso 136 

LOAOS ON BOOFS 13Q 

StBBNOTH of MaTSRIAU — TlMBBB AND IllON BbAKB , 136 

Dbfihitioks 

TeMBIOH AMD CoUFBESBlOX 133 

Ijono Pni-AJis . . ' . I3S 

ItESlSTAHCB TO CrOSB StUAIN 140 

SriFFKUa OF BSAMS 140 

Stkbhgih of Bbame 112 

Flooks anu Buofs H2 

Ilui.ia iOR SCANTLIMOB 113 

StCTIOK m. — InON-CoKSTBHCTlOS 141 

Oast-Ikon Beams 14S 

WnOVGJIT-IjtOS 3)E4513 14U 

ROLLED-IUON BbAUS 140 

8TEE1. 14S 



PAET V.-SAN1TART COKSTEUCTIOK. 
Section I. — Waumino 

FlBBFLACEB 

CoNSBBVATIOH OF HeaT 

Hollow Walls . 

WmDOWB 

Sktion II. — Vbntilation 

ClBCTILATlOH OP AlB 

Bktioh III. — HocsD Bjuixaob 

8Bw*BAae Oases 

SEXBDnia ... 



X CONTENTS. 

PAoa 

YXNTILATINO TrAPS, &C 165 

Closbt Appliances 170 

Sanitabt CoNDinoMB OP HovBE Construction . .171 

PART VI.— DESIGN. 

Sfction I. — Arch i t e c'X' uk al Taste 173 

Section II. — Principles of Design 179 

Laws op Design 181 

Mechanical Principles 181 

Materials and their Functions 184 

Iron and Timber 186 

Wood-work 187 

Plastic Substances 188 

Cast Metal Work 189 

Beauty op Form 190 

Proportion — ^Unity — Variety — Contrast— Optical Re- 
finement — ^Expression — Colour 196 

Addenda on Construction 197 

PART Vn.— MODEL SPECIFICATION. 

Index to Model Specification 203 

Model Specification 213 

Conditions of Contract 310 

Miboellaneoub Hints and Cautions 313 

General Index . • . • 325 



HINTS 



TO 



YOTJNG ARCHITECTS. 



PART L 

SCHOOL STUDIES. 

It is my object to supply a course of hints which 
may prove serviceable^ in the first instance^ to the 
youth who is destined for the profession ; and, in the 
second, to the young man who is about to enter upon 
the practice of it on his own account. 

[Natural Inclinations. — The direction of a young 
man's natural bent at so critical a period of his career 
as the last few years of his schooling, must in a great 
measure depend on a variety of considerations which a 
wise, parent or guardian should well ponder. A young 
man's first choice is not always to be regarded as the 
right one. It may, as it often does, proceed from 
youthful aspirations which after-reflection shatters ; 
from tastes which are based on mere sentiment; or 
from a notion prevalent among school-boys that some 
professions are exempt from application, hardship, or 
drudgery, — or that they open easy means of gaining a 
livelihood. The writer has frequently foimd the motive 
of choice to have been this hastily conceived uotloTL^ 
which eahsequent knowledge or expeiieivcQ ^^^soj^ ^\&- 

B 



2 HINTS TO YOUNG ARCHITECTS. 

pelled, or whicli a due and careful consideration at the 
onset would have corrected.] 

Mathematical Studies. — ^And, first, for the mere 
candidate who has yet to complete the last two years 
of his school studies. We presume that he has 
achieved a certain i-espectable quantum of classical 
attainment, with, at least, such a knowledge of the 
French language as it is now usual to afford in all 
well-ordered schools. Still cultivating these, it now 
becomes essential that peculiar care be given to the 
promotion of practical mathematics, geometrical draw- 
ing, and perspective. By the former we mean all that 
relates to the formation and measurement of superficial 
and soKd figures, and those parts of arithmetic which 
have reference to square and cubical estimate and 
valuation ; plane trigonometry, essential to the opera- 
tions of the surveyor ; and mechanics, necessary to 
compute the strength and strain of materials. By 
geometrical drawing is meant the free use of the com- 
passes and steel pen, the drawing-board and T square, 
the camel-hair brush and Indian ink : this to be 
followed by an industrious application to linear per- 
spective. 

[The branches of mathematics more essentially ne- 
cessary to the yoimg architect, and which he should 
assiduously cultivate at school, are the following,— 
arithmetic as ordinarily taught, especially proportion, 
vulgar and decimal fractions, duodecimals, problems 
relating to square and cubical measurement, mensura- 
tion of lines, surfaces, and solids ; geometry, or so much 
of Euclid as will give the student facility in construct- 
ing geometrical figures, erecting perpendiculars, setting 
off angles with or without the aid of instruments, 
besides a general knowledge of the more important 
theorems of£luclid ; plane trigonometry, or the science 



HATHEHATICAL SXTDIES. 3 

of the relations sabsistmg between the sides and angles 
of triangles^ a study of very wide application^ applic- 
able to all questions connected with constructive science 
as well as to surveying ; and we may add an acquaint* 
ance with algebra, at least as far as the solution of 
simple equations. Among the branches of mixed 
mathematics the student should study mechanics ; the 
principles known as the "Parallelogram of Forces/* 
"Moments," and the "Lever," being particularly 
important and useful in the subsequent studies of 
an architect, as upon them the most elementary con- 
structions in masonry, timber or ironwork depend. 
The elements of hydrostatics, hydraulics, and pneu- 
matics should also be known, as many subsidiary 
questions involving such knowledge continually occur 
in the practice of an architect.*] 

* To afford the student who is in quest of suitable works on the 
above subject a selection of some of the most desirable, we append the 
following list : — 

Geometry. — "Geometry and Conic Sections,'* by Hann (Weale's 
Series). Todhunter's " EucHd/' " Descriptive Geometry," by 
Heather : Lockwood & Co. 

Trigonometry. — " Plane Trigonometry," by Hann (Weale's Series). 
"Trigonometry for Beginners," by Todhunter: Macmillan & Co. 
Griffin's "Algebra and Trigonometiy : " Longmans. 

Algebra, — ^Haddon's "Algebra" ("Weale's Series). Todhunter's 
" Algebra for Beginners : " Macmillan. Griffin's " Algebra : " Long- 
mans. *<Integr{d. Calculus," Budiments of, by Cox: Lockwood & Co. 

Mensuration. — " Mensuration," by T. Baker, published in Weale's 
Series: Lockwood & Co. ; also "Land and Engmeering Surveying," 
by same author: Lockwood & Co. Todhunter's "Mensuration for 
Beginners : " Macmillan & Co. 

Mechanics, — " Rudimentary Mechanics," by Tomlinson : Lockwood 
& Co. For an elementary introduction, "Statics," by H. Good- 
win, D.D., Dean of Ely (published in the Cambridge School Text 
Series), is recommended ; or Todhunter's " Mechanics for Beginners." 
As advanced works on the subject, the student is recommended 
Twisden's " Practical Mechanics," Professor Eankine's " Mechanical 
Text Book ; " " A Text Book of Applied Science," by G. H. Guillaume. 

For students who require advanced Text Books on the above 
subjects, Gregory's " Mathematics for Practical Men " ^ TLock- 
woodj, edited by Mr. Lawj or Professor Eankine's "Applied Me- 
chanics " (Griffin & Co.), are highly valuable handbooks, as containing 
a digest of those parb oi mixed mathemaUcd QS^^n^AxiX V^ *C^^ 
practitioner. \\x!l 

b2 



4 HINTS TO YOUNG ARCHITECTS. 

Nothing is more common than for a young gentle- 
man to enter an architect's office incapable of striking 
a circle without, at least, two ends ; or of describing 
an octagon with any two sides alike ; equally ignorant 
of cross multiplication — that leading essential of valua- 
tion practice, and bugbear of indolent reluctance ; with 
no knowledge whatever of the use of the theodolite or 
spirit level ; and having no idea that mechanics have 
any immediate reference to the permanent adaptation 
of stone and timber. A superficial reading of Euclid, 
and a course of algebra, may have gained a silver 
medal to be worn triumphantly on the last " breaking- 
up day ; " but the peculiar application of the study to 
such matters as especiaUy concern the architect wiU 
not have been thought of; and a thousand facilities, 
which might have been readily afforded before the day 
of apprenticeship, have been omitted to the great pre- 
judice of subsequent pursuit. The self-flattering notion 
of manhood, natural to the emancipated youth, no 
longer a school-boy, is disgustingly corrected by the 
necessary incipient drudgery which makes him feel a 
child again — or leaves him the alternative of thinking 
himself too much a man for "task work'' so elementary. 

Drav^^ing. — His knowledge of drawing is illustrated 
by a series of rather free copies of very picturesque 

In the subjects of Construction, Materials, &c., the student is referred 
to "Rudiments of Art of Building," by Dobson; the "Elementary 
Principles of Carpentiy and Joinery," deduced from the works of 
Robinson and IVedgold; "Construction of Roofs," "Masonry and 
Stone- cutting," by E. Dobson; "Arches, Piers, and Buttresses," 
by W. Bland, in same series; "Limes, Cements, Mortars, &c.," 
by G. R. Bumell, C.E. ; Humber's " Handy-Book for the Calculation 
of Strains in Girders," "Barlow on the Strength of Materials," 
edited by his Sons and W. Humber; "A Complete and Practical 
Treatise on Cast and Wrought Iron Bridge Construction," by W. 
Humber, Assoc. Inst. C.E., " The Application of Iron to the Construc- 
tion of Bridges, Girders, Roofs, &c.," by Francis Campin, C.E., &c. 
Tbe above works are published by Lockwood & Co., Stationers' Hall 



DRAWING. D 

origmals, in which there is but little of the formality 
of Yertical or horizontal lines, and still less of lines 
perspectively convergent. Significations of trees, cot- 
tages, cows, and ploughmen home returning, all beau- 
tiftdly mounted, with gold lines ruled around, are 
exhibited to his future master, as proofs of certain 
removes from nature without any approach towards 
art. If he have any artistical feeling for landscape, the 
chances are he will not be architecturally inclined. If 
architecturally given, it is not imlikely that his "draw- 
ing-master " will have done his best to counteract the 
impulse. His geometrical drawing has been probably 
confined to a clumsy imitation of the figures of his 
Euclid, with letters that are capital only in a typo- 
graphical sense. His writing: — ah, there indeed he 
flourishes! Words stretching out like race-horses, 
with long heads and tails raking into the lines above 
and below, so as to preserve a perplexing connection 
between whole sentences, past, present, and to come I 

[We may add here, that a prevalent idea exists that 
"a taste for drawing '' is the ultimatum or chief con- 
sideration iu deciding on the architectural profession as 
the fixture calling of a youth. Greatly as it may afibrd 
faciKties for the expression of ideas as the vehicle of 
design, it not unf requently leads to a habit of cribbing 
prejudicial to that thorough independence of thought 
so necessary to the art of conceiving and working out 
the structural problems which engage the architect. A 
mere aptness for copying originals, drawing landscape 
and figures, while it may make an artist in the Imita- 
tive arts, must not be confounded with the creative 
function necessary to adapt various kinds of material 
for special purposes. It must not be forgotten that 
design, not drawing, is the main object, tTaa rniud T\a\ 
less tiian the hand being required .^ 



b HINTS TO YOUNG ARCHITECTS. 

Precision of Habits. — Now, whatever may be 
necessary to other professions, or to any other branch 
of science or art, unquestionably there is no one which 
has more decidedly among its first principles the im- 
perative law of precision than that of an architect, 
whether it regards the operations of the mind or the 
hand. The responsibilities which attach to him who 
may have to erect a large and important edifice, in 
which the economy of construction is to afford giant 
strength with graceful lightness, are such as should be 
considered from the very first moment of his architec- 
tural aspiration. Precision, then, in advancing, step 
by step, through all the gradations of initiatory study, 
demands the closest care. Architectural beauty is, in 
fact, the result of constructive perfection ; and this can 
only be secured by laying down the first stone with a 
caution anticipating the pride that will attend the ele- 
vation of the crowning pinnacle. Each intermediate 
grade of operation will be also fulfilled with prospective 
and retrospective reference to all the others. The pur- 
pose and beauty of a building are indeed important; 
but the " very life of the building " is the foundation — 
most important, though afterwards to remain unseen. 
Many are the young architects who, on getting into 
practice, have had suddenly to make good with hasty, 
anxious, and health-destroying application, the omis- 
sions of their student years; and all, we maintain, from 
the early disregard of that precision of habit which, ia 
the mind, means close and systematic study, and which 
indicates itself in the neatness and care of the hand. 

But, while the young aspirant is not expected to have 
an intuitive sense of all this, neither is it to be sup- 
posed that he can, unaided, duly weigh its importance ; 
and we therefore, through him, address those who have 
^Iie care of his school studies after his ^jrofession may 



WRITING. 7 

have been suggested. It will, at least, be unsafe, 
whether reasonable or not, to reckon upon any especial 
personal supervision at the hands of his professional 
master. His premium will be paid for the opportunities 
which he will have of learning — as his master learned 
before' him ; and in consideration of his ultimately 
securing to himself some of that remunerative practice 
which will be consequently forfeited by the senior pro- 
fessor. Moreover, it will assuredly be an all-sufficient 
answer for those who expect personal instruction, to 
say that all existing practitioners of any note have do- 
pended on their own employment of the mere oppor- 
tunity for self-tuition. 

It is, therefore, in regard to the duty which the 
student owes to himself (for he may, to a sufficient 
extent, do his master's business, and yet neglect his 
own) that we emphasise the necessity of a certain 
amount of school training preparatory to the deed" of 
apprenticeship. During the term of his articles, we 
presume not to meddle with him further than to call 
on him to do his best, as he may rest well assured tho 
more he serves his master the more he will serve him- 
self. After that, we shall venture to take him up 
again; for circumstances may prevent his gathering 
from his more competent adviser those extra-official in- 
structions which it will be our hope to affi)rd him. 

Closing Sc^lool Studies, Writing. — To recur, then, 
to his closing school studies. We begin with the most 
simple. 

The writing-master is first in request. The hand 
which usually wins the silver pen is about the worst 
that can be cultivated. We were ourselves nearly suc- 
cessful in the trial, and the mortification we expe- 
fenced in having afterwards to curtail our caijitala and 
mtrol the comet-like eccentricitiea ot owx^^'^V^^sA 



8 HINTS TO YOUNG ARCHITECTS. 

P'b is not forgotten to this day. It was long before we 
could achieve the credit of being competent to write 
out the " fair copy " of a " specification ;'' and many 
were the plans we rendered slovenly by a want of neat- 
ness and clearness in our figurings. The desire to give 
an ojficial-like character to a "detailed estimate'' was 
frustrated during almost the whole of our apprentice- 
ship ; and as to *^ printing '' the titles of the fair draw- 
ings with the relative designation of the plans, ekva- 
tions, and sections, there was a charity-school office-boy 
who ever maintained in this particular an envied ascen- 
dancy. Our good master used truly to say, that the 
writing and lettering would make respectable an indif- 
ferent drawing, and spoil a good one.* 

The acquirement of a neat, close, and uniform 
character of writing, with practical ability in the 
several modes of lettering employed on drawings, is 
of immediate and of no unimportant use in an archi- 
tect's office. The student, thus prepared, comes inta 
the instant participation of advantages which otherwise 
he must wait for. The perfecting of his penmanship 
may be fully acquired at school, and he might there 
also so practise it as to make it still more essentially 
serviceable by copying out, for instance, a compendious 
architectural glossary, and giving to each leading word 
the particular letter which typographically expresses it. 
Thus, terms having exclusive application to classical 
architecture might be in the Eoman character ; those 
exclusively coi^ned to gothic architecture in the 
@3ir§ (B|[(S2!f|SP ; and all others of common meaning 
in ITALICS: the description being of course appended 
in the best kind of Sflunmng SfCand. As a further 

• We improved, however, marvellously, in our ordinary hand- 
writing, and it was the mere penmanship of a letter of solicitation that 
a few years after obtained employment for as in the office of the late 
Sir John Soane, 



• METHODS OF DRAWING. 9 

exercise in tlie latter character, it wonld be well to 
copy out a dictionary of the technical terms of ma- 
sonry, carpentry, &c. ; the whole of which form no 
Tery lengthy operation, and would leave the practical 
illustrations of the office to be in their turn more 
interesting, because more readily comprehended.* 

Methods of Drawing. — The drawing-master comes 
next. What may be now his practice in schools we 
know not ; but, in our own time, he did but very little 
in the promotion of artistical truth, and nothing at all 
in the way of practical utility. If the intended archi- 
tect have — as indeed he should have — a feeling for the 
pictorial of art, it will not ultimately suffer und6r the 
requirement of its more anatomical and geometrical 
necessities. A decision of hand in outline delineation 
is the very first desideratum in an architectural 
draughtsman. This applies not less to curved than to 

[* While we fully concur in the above suggestions, we may casually 
notice that the lettering now employed in most architects' offices has 
' somewhat deteriorated in respect of the correctness and precision 
adyocated by our author. In some offices, drawings are only written 
to in an ordinary hand; in others, a kind of fancy text is employed — a 
modified kind of German or Mediaeval style, ^e append a few 
specimens : — 

aHQRccH I DO use : 

Longitudinal Section 3 — ^ 

In ground plans, sections, and general drawings, an intelUgiblo 
Hock letter or plain italic lettering is recommeixdeaL aa mot^ ^^Titosw^ 
to clcamesB ana appearance than any ornamental ot ^\fi»njQ»a^V3^ 

B 3 ^ 



10 



HINTS TO YOUNG ARCHITECTS. 



direct lines ; nor can a better study be suggested than 
tbat of the human figure, beginning with the skeleton, 
combined with the representation of plain solids of 
regular form, without (in the first instance) any shad- 
ing or attempt at effect. 

When the hand has acquired some independent 
precision and firmness, the use of the mathematical 
instruments, drawing board, T square, and parallel 
ruler should be carefully attended to ; and all this will 
be sufficiently induced in the study of perspective. The 
pupil will first draw the plan of his subject, 
then the elevation, 
and finally work out 
its perspective ap- 
pearance under cer- 
tain prescribed con- 
ditions. 

Plan. Elevation. 









View. 



.•vw^e^Ti*' 



a.v 




His previously required precision of hand is now regu- 
lated by the knowledge of rule; and both will work 
together to make a correct and ready sketcher. The 
study of the finished human figure (which should 
alternate with the more formal process), while in itself 

We may remark here the strong feeling for or affectation of MedisBval 
character shown in the above specimens — a tendency which appears 
*''' approach the ridiculous in some instances, and la Yo "b^ «vq\\^^,'\ 



METHODS OF DRAWING. 11 

most valuable in respect to statuesque architecture 
will equally facilitate the drawing of mouldings and 
their enrichments; and we may here add^ that a 
careM copying of the leading frieze ornaments, Greek 
and Boman and Gothic, will be infinitely more to the 
purpose than any attempts at that mediocrity in 
picture which never afterwards aspires to more than 
a place in my lady's album. 

[Method of Study. — Since our author's remarks 
were first published, the Governmental schools of 
art which have sprung into existence have materiaUy 
improved the mode of instruction in drawing. Our 
author's drawing-master, no doubt a veritable reci- 
pient of art patronage in the past, has, happily for 
the advancement of art, given place to teaching, or 
rather a system that promotes the training of art 
faculty in contradistinction to the mere penmanship 
of the art. Instead of a series of pencil sketches 
or crayon drawings of landscape or the human 
figure being thrust upon the young beginner, he is 
taught by a graduated system of instruction to acquire 
a decision of hand in copying the simplest outlines 
and geometrical forms before he proceeds to the repre- 
sentation of the concrete picture in its complete detail 
and expression. He is thus, by a rational process, led 
to represent form and solidity under their varied 
phases of complexity and perspective appearance, and 
so to grasp intellectually and ocularly the changes 
which objects undergo in Nature by their relative 
position, and the efiects of light and shadow. By these 
means the student really learns not only how to copy 
Nature perfectly, but how to present her to the best 
effect. "We would suggest here to the student who 
is pursuing this branch of his education to trust more 
to his eye and mind than to his imagmaliOTi* ^^ ^^^ 



12 HINTS TO YOUNG ARCHITECTS. 

thus learn never to draw a line unless lie understands 
its effect, nor to make a touch where it is not needed. 
Copies from drawings are to be steadfastly withheld, 
until facility in expressing the simplest outlines and 
solid forms is acquired. We would earnestly recom- 
mend the following method of study : — 

1. Take the easiest and least tedious forms first, e.g. 
lines vertically, obliquely, and horizontally drawn ; 
trinngles, squares, parallelograms, and polygons; 
curvilinear figures, circles, ovals, ellipses. These 
representations should be made first as planes. 

2. The efiects of position in relation to the eye 
should next be studied as a preliminary and tentative 
to scientific perspective. 

3. The solids — as cubes, pyraniids, prisms of various 
bases, cylinders, cones, and polyhedrons, may follow. 
These should first be drawn geometrically with regard 
to the eye, and afterwards in different obHque positions 
and levels, perspectively. 

4. The effects of light should next be carefully 
studied, the cast shadows being drawn in outline, and 
then the varied gradations of shading and reflected light 
upon solids, as octahedrons, cylinders, spheres, cones, &c. 

5. Plain shading in pencil, Indian ink, or sepia 
may be succeeded by flat washes of colour, artistic 
accessories and finishes. In a word, begin with the 
simple and proceed to the compkx, the abstract and then 
the concrete. Model drawing or construction, or real 
object delineation, should always precede or be combined 
with the generalised efiects of Nature, or the complete 
picture. Sketching directly from Nature, however 
crude the first attempts may be, is recommended the 
student in preference to any course of fiat cppies. 

Hints on Form Delineation. — We . ofier a few 
^/a^s on the delineation of those forma which puzzle 



DELINEATION OF FORM. 



13 



the begiimer in drawing, and which are of perpetual 
recurrence in architectural design. To assist the eye 
and hand, the student should endeavour to grasp the 
proposed form constructively, ue. to reduce it if pos- 
sible to a simpler outline ; thus a circle generally per- 
plexes the novice, and few even expert draughtsmen 
can draw a perfect circle merely by the hand without 
aid. The eye requires some means of judging dis- 
tances and boundaries, and hence it is easier to in- 
scribe a circle within a square than without such help. 
Let it be required to draw a circle of a certain dia- 
meter. Denote the centre by a point. Through this 
point draw two diameters crossing each other at right 
angles, and mark by the eye as nearly as possible the 
required radius on each from the centre; if further 
aid be wanted, the four equal right angles may be 





Fig. 2. 

bisected by two other lines, and radii marked as before 
(see fig. 1). The hand can now trace the curve. A 
circumscribing square is 
another good plan, as in 
fig. 2. When a circle has 
to touch a certain bound- 
ary, as in the circle of a 
traceried window, imite 
the points of contact by 
diameters, as in fig. 3. To 
draw a polygon by the 
eye : If it contain a regular nuinber o5 ^vSia^, ^% wl 




Fig. 3. 



14 



HINTS TO YOUNG ARCHITECTS. 



octagon, draw four intersecting diameters as for a 
circle, and mark equidistant poiats from centre. 

Then draw at riffht 

7~\ 



angles through each 
poiat or extremity 
the respective side ; 
another plan is to 
form a circumscrib- 
ing square, cutting 




X 




Fig. 5. 



Kg. 4. 

off equal distances by the eye (fig. 4), 

Curves. — Segments of circles and curvilinear forms 
frequently perplex. In these cases fix by the eye the 

limits of space or 
chord line and the 
rise (fig. 5), or circum- 
scribe the boimdaries 
by rectangular lines. 
(For fiirther remarks 
on curved lines, see section on Design.) 

Eye Perspective. — To draw forms perspectively by 
the eye. Consider the level and position of the eye in 
respect to it. Draw a horizontal line to denote the 
former, and a point in it for the latter ; from the boun- 
daries of the form draw convergent lines to the point of 
sight. Thus, to put a circle in perspective, either hori- 
zontally or vertically, draw the converging lines and 
set off the width as nearly as can be judged by the eye, 
thus forming a perspective square. Draw the curve 
touching the centres of the respective sides, as in 
fig. 6. 

An octagon is drawn also by cuttiug off the angles 

of a perspective square (fig. 7). Cylinders and other 

solids are drawn by first forming the circumscribent 

parallelopidedon by combining six perspective squares, 

Mad then forming the required solid by the rules given 



SKETCHING IN PERSPECTIVB. 



15 



above. Bemember that circles become ellipses^ and 
squares oblongs in perspective. 



-^r 



—• ^ 



'^-^H^. 



Xevel of 






\ \ ^ 



\ s 

\ \ 

\ 




FsZ! 



vM / 







m I, 



Fig. 6. 

These hints are simply in reference to eye drawing 
or sketching, and assume no instrumental aid ; but of 




Fig. 7. 



course the student destined for the profession should 
acquire from suitable treatises the Bystemat\fi'5'nsi^^^^'ek 
o! geometrical drawing, Projection and PeT«g^Oi\N^» 



16 HTNTS TO TODNG ARCHITECTS. 

Perspective pROJBCnoH, — Perspective is a word 
which excites a dread or despair in some minds, but 
without just ground. It is nothing more than a know- 
ledge of form in its relation to the sense of sight, or of 
the visible effects of lines and planes in different posi- 
tions, and the means of representing them on flat sur- 
faces, as paper. Many young students are inclined to 
halt at what they imagine requires great trouble and 
mathematical skill. The eSects of Perspective are 
either linear or aerial, the first depending upon position 
and distance, the latter upon distance or atmospheric 
agencies. It is necessary the student should remember 
that all receding surfaces are modified both in shape 
and tint, or diminish by the laws of perspective to 
certain points in the horizon opposite the eye called 
the points of sight and distance, and also that as they 
recede they fall into a half-shade. 

Lights and Shadows. — The parts of surfaces nearest 
the illuminating power receive the light, and thence 
graduate through a series of half-tints to the opposite 
or farthest side which falls into shadow. It is to be 
noticed, however, that these extreme shadows are 
modified considerably by refiected light from objects 
near, and therefore it must be observed that the 
extreme ontlinesof an object seldom receive the brightest 
light or the deepest shade (see fig. 8). All unpolished 
surfaces as they recede become darker, 
or Ml into "half -tint," thus retiring 
surfaces are indicated pictorially by 
shadow. To illustrate these principles : 
Horizontal planes recede more from the 
eye than many vertical surfaces, though 
they generally receive greater illnmi- 
■^' *' nating effect, and must therefore he 
modiSed accordingly. But when, the -vi^ipftt ftvofese of 




LIGHTS AND SHADOWS. 



17 




, building, receive i 



an object is nearly level witb the eye, it will recede 
more rapidly than the front retires from the light, and 
the latter should be made ,, 

lightest (fig. 9), 

Receding vertical faces fall - 
into half-tint or shade still 
more by receding both from 
the light and from the spec- 
tator (fig. 10). Surfecee in- 
clined to the light, aa the 
side of a roof or front of b 

light directly than any other sides, and the contrast 
between the lighted and shaded sides, as when an 
angle is presented to 
the spectator, pro- 
duces a stronger 
shade nearest the 
angle between them, 
a8m(ag. 11). This 
18 chiefly due to the 
effect of contrasted 
light and shade, and 

is useful in producing architectural effect. 
which are perpendicular, as walls, and recede, will be 
lightest at the upper comer nearest the spectator, 
graduating thence into half-tint, 
and if in shadow, the neai'est edge | 
will be the darkest. 

Cylindrical surfaces, as columns, | 
receivereflectedlightontheshaded | 
aide and close to its boundary, and 
the highest light at a correspond- 
ing position on the opposite side, ^' 
the deepest shade being attained 'between.-, ^;»&ss».'»Si% 
in delicute tinta to the extremes (see &£■ ^'^^ 





18 



HINTS TO YOUNG ABCHTTECTS. 



surfaces, as niches, domical ceilings, &c., are to be 
treated similarly, except that the light and shaded 
sides are reversed, the deepest shade being nearest 
the light, the haK-tints and reflected lights being 
graduated between ; the extreme edges receiving either 
a delicate half-tint or reflection. The reflections on a 
concave surface are stronger than on convex surfaces. 

Cast Shadows are shadows thrown by objects in- 
teccepting the light in the direction opposite to that of 
the light. Cast shadows are modified variously by 
reflection, atmospheric refraction, source of light, 
opacity or transparency of the objects casting them, 
surface upon which they fall, &c. When the light 
proceeds from a lamp or flame of a candle, the shadow 
is strong and defined ; but when it is from the sun the 
shadow is modified by refiected light. Again, the 
shadow is stronger in proportion to the nearness of the 

object to the source of 
light, and is more defined 
upon that portion of the 
ground or surface upon 
which it falls which ig 
nearest to the object. 
Shadows are modified in 
intensity by their contrast 
with the lighted surface 
or ground. They are 
deepest and most defined 
when in contact with the 
brightest light, or that 
part of surface which re- 
ceives the greatest light. 
Cast shadows par- 




/ Plan/ 



FJg. 12. 



TAKE OF THE FORM OF THE SURFACE UPON WHICH 

^H^F ARE THJKOWN. — ^Flat surfecea teeeive the form 



CAST SHA3X)WS. 



19 



\\ 







Fig. 13. 

parts which are not 



of the object, modified only according to the angle which 
the rays of light make with the plane. Thus, when 
the plsuae is perpendicular to the 
rays of light, and the object in- 
terposed also perpendicular or 
parallel to the plane, the shadow 
resembles the shape of the object, 
and when cast by the- sun, also 
in size. When the plane is in- 
clined, or the object is obliquely 
situated in regard to the plan, 
the shadow is increased in pro- 
portion to such obliquity (see 
fig. 12). 

Upon convex surfaces, the 
directly perpendicular 
to the rays or the re- ^ 
ceding portions, pro- "vp 
duce an exaggerated 
shadow, as the shadow 
cast by the abacus of a 
column upon the cir- 
cular shaft which as- 
sumes a concave or 
elliptical outline, un- - 
less the rays of light 
and the eye of the spec- J^<^ '^ 
tator are coincident 
(figs. 13,14). The cur- 
vature of the shadow 
will be greater or less 
as the angle formed by ' 
the rays of. light are ^^^^ 
more or less oblique. Fig. 14. 

In concave surfacea these effects axo xe^^'Wfcdi^ ^^i'^ 




20 HINTS TO TOTJNG ABCHXTBCTS. 

deepest part of the shadow being cast upon the extr&me 
depth of the concavity. 

Upon irregular surfaces made »ip of projecting and 
receding planes, convexities and hollows, the form of 
the shadow partakes of the varied surfaces (see fig. 15). 

It must be observed that the value of cast shadows is 
to give relief and express the surfaces upon which they 
are thrown. As a rule, it is preferable that they should 
follow the projections and irregularitiea of the surfaces 




Fig. 16. 

simply, and thus become expressive of ground or other 
surroundings of the objects. In cast shadows of towers, 
pinnacles, chimney-stacks, &c., upon the iacUned sur- 
faces of roofs, this rule becomes of much value, as afford- 
ing evidence of proj ection and depth ; though of course 
regard should bIbo be had to the shape of the objects 
themBelves, Sometimes, in the cases of curved or 
moulded BoirSaceB, the only evidence oi deeciiption of 



HINTS ON PERSPECTIVE. 21 

snch parts can be given by bearing in mind the above 
rule, and hence for architectural reasons it is to be 
preferred. This kind of projection and relief becomes, 
when adentificalhj employed, a valuable accessory to the 
architect, though it is too frequently, from ignorance 
or carelessness, or what is more censurable, a love of 
deception, misemployed, or worse than useless. 

Hints on Perspective. — Wq do not propose here 
to write a treatise on the art of Perspective, but simply 
to aid the student in his comprehension of it, and to 
lay down a few rules. 

Linear Perspective has for its object the determina- 
tion of various points and lines of given objects upon 
a plane surface, and is purely a geometrical projection. 
It is really the projection of the section of a pyramid 
whose vertex and base are given — the first being the 
eye of the spectator, the latter the boundaries and sur- 
faces of the objects to be placed in perspective ; the 
cutting plane is the picture. 

If in fig. 16, A, B, c, D, E, be the plan or horizontal 
plane of projection of a pyramid of which a", b, c, d, e, 
is the vertical projection ; and if t" t t' be the traces 
of the vertical plane of the picture in these respective 
planes ; let it be required to find the position on the 
picture of any point as a, or a, these being the points 
where the vertex a of pyramid cuts the traces of the 
picture plane t" t t'. 

Fix on the picture two lines as axes x x and y y to 
which to refer all other points, these axes being fixed 
also on the planes of projection. Let them be chosen 
to pass through the eye, or as representing two planes 
drawn through the eye, one horizontal and the other 
vertical, and both perpendicular to the picture as o x, 
o Y. These lines mil cut the picture planes in x and y 
respectiyelj* Then ednce these axes ate di»\^Tii^<^ 



22 



HINTS TO YOUNG ARCHITECTS. 



both on the picture and on the planes of projection, it 
is easy to detennine the position of d both horizontally ^ 
namely, y «, which will give the vertical for the vertex of 




pyramid; and verti- 
cally also, since x a 
gives the distance 
from the axis x x on 
the picture. Thus 
the distances from the 
respective axes x x 
and Y Y are deter- 
mined and the point 
a" fixed. Any other 
Fig' 16. point may be deter- 

mined in the same manner, and the pyramid completed. 
Theory of Lines and Planes. — ^The perspective re- 
presentation o£ a straight line is a straight line in 




HINTS ON PERSPECmVE. 23 

eyery position, and it is sufi^cient to determine the 
perspective positions of two points in it and join them. 

Plams or lines parallel to the plane of picture have no 
vanishing points, or are assumed to have none. 

Planes or lines inclined to the picture plane vanish in 
that point where a parallel line, drawn from the eye, 
would meet the same plane. 

All planes and lines parallel to each other hut not to 
the picture plane have a common vanishing point. 

The perspective representation of all vertical lines 
will be parallel and vertical. 

The centre of the picture is the vanishing point of all 
lines perpendicular to the picture plane, and is always 
where a perpendicular line from the plane would pro- 
ject and touch the eye, or where a line drawn from the 
eye perpendicular to picture plane meets it, and is 
called the " point of sight/' 

The distance of the point of sight or station point ^row 
the picture when placed on either side upon the hori- 
zontal line, is the vanishing point of all lines inclined 
to the picture at an angle of 45^. 

The line drawn from the eye of a spectator to the 
plane of projection, gives a vanishing point, and is 
always parallel to the plane of the object for which it 
is the vanishing point. All parallel sections produce 
similar figures ; thus all circles situated in vertical 
or horizontal planes (not parallel to the picture plane) 
are ellipses; all squares so situated become oblongs, 
diminishing in width in proportion to the acuteness 
of the angle they make with the line of sight. 

Spheres, — The perspective representation of a sphere 
is an ellipse, except when the line of sight coincides 
with the centre of the sphere, when it is a circle. This 
is evident from considering the definition of perspec- 
tive before laid down, namely, that tb.e coiv^ oi t^^^ 



24 HINTS TO y6unq architects. 

proceeding from tlie outKne of any object as a globe if 
cut by a plane (as the picture plane) obliquely, the 
section produced will be an ellipse. A globe thus pre- 
sents its longest diameter in a direct line to the eye if 
the rays are cut obliquely. 

Columns standing in a line parallel to the plane of 
picture, will, according to the rules of perspective, be of 
equal heights, but their diameters will appear greater 
on the said plane as they recede from the eye to the 
right or left. 

The two latter theorems appear paradoxical, though 
by the arbitrary definition of perspective, which 
supposes lines parallel to the pi nne of delineation not 
to vanish as they recede froni the station or point of 
sight however distant, are quite correct. Fe\^ artists 
would, moreover, think of making such a row of columns 
present larger diameters as they receded ; nor would 
they tolerate making globular forms spheroidal. A 
little consideration, however, will convince the student 
that such an assumption is purely conventional, and 
made for simplicity's sake. It is evident distances, 
whether vertical or horizontal, must equally diminish 
as they recede from the eye of the spectator, whether 
they be geometrically presented or not. Perspective, as 
we have said, assumes planes and lines parallel to the 
picture to be unaffected or not to vanish, and conse- 
quently cannot take cognizance of exceptions ; but, cor- 
rectly and theoretically, the assumption is erroneous, 
as all distances, and of course diameters of cylinders 
and globes, must imexceptionally obey the law of dimi- 
nution which perspective teaches.* This is certainly 

* If we suppose the cutting plane or picture plane to be equidistant 
from the eye of the spectator everywhere, or the concave surface of a 
hollow sphere instead of a plane, all distances would be correctly 

represented on it, as the visual rays would always be cut at right- 

an^les instead of obliquely. 



ISOMETRIC PROJECTION. 25 

an inconsistency in tlie theory of perspective as usually 
practised, though the practical inconveniences resulting 
may be small. Correctly also, by the same law, vertical 
lines, as the lines of towers and lofty buildings, must 
vanish upwards to a point perpendicularly above the 
point of sight, and long fa9ades should for the like 
reason diminish laterally, even when they are parallel 
to the plane of picture. The latter theory implies a 
flat catenary or hyperbola, or certain points in tho 
horizontal lines in the vertical plane of the eye where 
the convergence begins. Such considerations, however, 
are not practically of much value. 

The problem presented by perspective reduces itself 
to this ; namely, the construction or determination on 
the picture plane of the point in which the visual ray 
drawn from the eye to a particular point of the object 
meets it. It is for the draughtsman to use in each par- 
ticular instance the least troublesome means of resolv- 
ing it, which may be considered as follows : — 

Conceive two different planes drawn through the 
proposed point to be put in perspective and the eye, 
the visual ray being their intersection ; if these planes 
or their lines of intersection with the picture plane be 
drawn, then the point of intersection of the visual ray 
with the plane of picture will be obtained also. Tho 
draughtsman can choose those planes which can most 
readily be drawn through the eye and the point to bo 
placed in perspective. 

Isometric Projection. — One of the most useful and 
elegant systems of projection applicable in an especial 
manner to architectural constructions andgroupa^ may 
be noticed here, though seldom used by the architect to 
the extent its value merits. The principle of this system, 
called isometric projection, invented by the late Pro- 
fessor Farish, of Cambridge, consists m ae\^\»\X!L%l^\ ^^ 

c 



26 



HINTS TO YOUNG ARCHITECTS. 



plane of projection a plane equally inclined to three prin- 
cipal axes at riglit angles to each other. These are called 
the isometric axes, and all lines and planes parallel to 
them are representable to the same scale. The lines are 
called isometric lines, and the planes the isometric planes^ 
The isometric projection of a cube will convey the 
principles of this system. 

Let A B^ A c^ A D be the isometric axes^ and a the 
"regulating point/' or origin of the axes; then the 
plane of projection makes equal angles with them^ as 

also with the other edges paral- 
lel to these, and is perpendicular 
to A F, the diagonal of cube ; the 
projection of this diagonal being 
the point a, the projections of 
the edges of the cube will be 
equal lines. Also the edges or 
axes A B, A c, A D being equally 
inclined, the angles between them 
are equal, being each equal to 
120°. 

Moreover the projections of 
all the diagonals from the points 
A and F are coincident with the 
projections of the cubical edges ; 
and the points b, c, d being 
equally distant from the plane, 
the diagonals joining these points 
are parallel to the plane of pro- 
jection, and their projections are 
consequently equal to the diago- 
nals. It is evident also that the 
angles which the projected edges 
make with the diagonals of each of the three projected 
■^es of the cube are each equal to 30°, 





Fig. 17. 



ISOMETRIC PROJECTION. 27 

To construct the projection of a cube isometrlcally. 
Let F £ D H be the face of the cube and h e its diago- 
nal. Frcmi e and h draw e c' and h b'^ making angles 
of 80° with H E. These lines will meet in f'. Tben 
complete the upper face of the cube f e' d' h'. Pro- 
duce a diagonal v! f' to a', making it equal to one of the 
axes f' e*, f' d' or f' h', complete the adjacent sides of 
the parallelograms^ and the projected sides of the cube 
are completed. The projections of the farther edges of 
the cube are coincident with the diagonals already drawn. 

Along the isometric axes may be set off by any given 
scale the dimensions to be represented in the directions 
of those axes. Thus distances can be set off along all 
isometric lines as required. 

If the length of an edge of the cube be 1, the 
diagonal of a face is represented by V 2 and the 
diagonal of the cube by >/3. Then since af : f d : : 
A D : A M (diagram 2, fig. 17) ; am the isometric pro- 
jection of an edge of the cube = — j^ — = i \/6 

= -81649. 

The student is recommended to practise himself in 
this useful kind of projection by putting the blocks of 
any buildings into isometric perspective ; for designs 
of unions, hospitals, prisons, coUeges, and other assem- 
blages of detached buildings, it offers many advantages 
of delineation, enabling a better idea to be formed of 
enclosed spaces and areas, and answering the double 
purpose of a block and roof plan. It is sometimes 
called " bird's eye " perspective.*] 

* The student should study Jopling's *' Isometric Perspective." 
Descriptiye geometry should also be carefully studied, as aiding him 
in adopting the easiest and most practical methods of projecting solids 
iqx>n flat surfaces. The chapters on << Stereography,'* in Newland'a 
** Carpenters* and Joinera' Assistant," afford also eVooiQSiV^ >ssiss^- 
iedge. 

c2 



28 HINTS TO YOUNG ARCHITECTS. 

A certain advance being thus made in linear draw- 
ings (which, by the way, haying been first carefully 
pencilled, should then be more carefully perpetuated 
with the steel or reed pen in Indian ink), the camel- 
hair brush will be introduced. To produce a smooth 
and imiform tint, accurately terminating with the 
boundary lines, is the first step : to practise the 
" softening ofE " necessary to give effect to a circular 
pillar or a sphere, the next. The distinctions between 
positive and reflected light, shade and shadow, will 
succeed ; and then will follow the leading rules by 
which shadows are accurately projected. After this, it 
will be time to indulge in the charms of colour ; and 
when the student has mastered the means of dealing 
with superficies and solids, his drawing-master may 
then do his best to make an artist of him. 

[The late Mr. Peter Nicholson's, and the many other 
treatises on architectural drawing, projection and the 
mechanical principles of architecture, have placed within 
the reach of school tutors means of instructing pupils 
destined for this profession, which, if neglected for the 
dead languages, betrays on the part of the tutors a 
want of discernment, and becomes a serious hindrance 
to their pupils.] 

Technical and Mechanical Studies. As a mere 
act of mental discipline, a course of the classics will be 
of equal value with mechanics ; but the practical value 
of the latter will be at once apparent when it is con- 
sidered that the means of constructing every building 
involve the use of all the mechanical powers, and that 
a knowledge of the properties of the simplest of these — 
the lever — is of the utmost importance as affecting the 
laws of the resistance of timber, the composition and 
resolution of forces. The construction of roofs, over- 
hanging partition framings, and truaaed teaxas^ becomes 



TECHNICAL STUDIES. 29 

a matter of prominent interest when the mechanical 
principles on which it depends are understood ; and all 
we contemplate, in speaking of the young architect in 
embryo, is the guidance of his mind into that train of 
practical thought which the obvious utility of his early 
studies will promote. There is nothing to prevent a 
school-boy jErom mastering such brief elementary articles 
as those of Mr. Gwilt on " the Equilibrium of Arches " 
and the necessary magnitude of their piers ; or such as 
Mr. Bartholomew's Chapters on Gravity, "the source 
of all principle and defect in architectural construc- 
tion ; '* nor can we resist an allusion to the articles on 
masonry and carpentry published in a separate form 
from the " Encyclopaedia Britannica.*'* 

Measurement of Builders' Work.— Allusion has 
been made to the arithmetical and mathematical 
studies of the intended architect. It is most due to 
the value of his time when he first enters the office of 
his professional master, that he should be already fully 
practised in all that relates to square and cube measure; 
quick and sure in the working of cross multiplication, 
and in carrying out the sums, or what is termed the 
"moneying '* of quantities at difEerent prices. It will 
not be his business, until he is apprenticed, to learn the 
different ways in which the differing branches of arti- 
ficers' work are measured ; or their value per yard, per 
foot, per rod, or per perch, superficial or cube ; but he 
ought to have at his finger ends the mere calculative 
process, so that his attention may be given, from the 
first day of his entering an office, to acquiring a know- 
ledge of the nature and value of labour and materials, 
and of the varied way in which the mason, bricklayer, 
plasterer, carpenter and joiner, plumber and painter, 

• The student is referred to Part IV. of thifl "woxk iot IYl^ ^eoii^TiJuKrj 
principJesf of the above Buhjecta ; and tlie Tudimeulox^ \ltQ»^3i&^ ^"i^ 
"Carpentry, Masonry," &c. (Lock wood and Co.") 



30 HINTS TO YOUNG ARCHITECTS. 

compute their perfected operations. All the ordinary 
rules of arithmetic are of course of absolute necessity. 
We only speak of those in reference to which the 
utmost practical readiness is immediately required. He 
who can square the greatest number of dimensions in 
the least possible time, in like maimer multiply quan- 
tities by prices, and " add up " a foot long of closely 
written poimds, shillings, and pence, has received, as it 
were, an impetus which will carry him upwards on the 
ascent of early practice, and vastly alleviate the tedium 
of this most imperatiye drudgery. 

His mathematical studies should in the same degree 
facilitate the construction, with his compasses and steel 
pen, of circles, squares, triangles, pentagons, octagons, 
and so on to polygons, divided and subdivided, — of 
parallels that have no chance of meeting, and truncated 
isosceles triangles that have their apex in some unat- 
tainable point beyond the other end of the school-room. 
Trigonometrical practice, too, might be carried on at 
least so far as to produce a map of the play-ground, 
including "the duck-pond and three elm-trees beyond,'* 
with the respective levels of the several angle points. 
He should be enabled to raise a perpendicular line with- 
out his drawing board and T square, and to draw a 
raking line at any required angle. Of the many things 
which are generally only touched upon at schools, such 
leading ones as we have mentioned should be fairly 
grasped. A three years' term would be thereby ren- 
dered equal to the usual five ; and, at the end of the 
five, a salary might be commanded, where a mere inter- 
val of anxious incompetency is the common instigation 
to forfeit more time, in making good the loss of time 
X)ast. 

French and Latin. — ^We have spoken of some 
knowledge of French as usually afforded at schools. 



JlESPOiJSlBtLiTY. 31 

The more of it that can be there attained, without 
injury to the immediate essentials before onimiorated, 
the better ; because, in conjunction with Latin, it pro- 
motes those facilities of travel of which we sincerely 
hope our intended yoimg architect may be enabled to 
avail himself. At all events, then, what can be learned 
at school should not afterwards be forgotten ; and this 
prompts us to make the only reference in which we 
shall indulge as to the duty of the student during his 
apprenticeship. After Latin and French, Italian is 
easily acquired. The study of this simple and beautiM 
language (speaking of it as a medium of communica- 
tion, and plain literary instruction) will prove a mere 
pastime. The writer of these hints (though naturally 
slow at languages) learned sufficiently, by two months' 
excltisive application, to read simple prose readily, and 
to make his way through Italy tolerably well. 

Responsibility. — ^Lastly, we would impress upon the 
young aspirant to architectural honours, our repetition 
of the respomibilities which will attach to him from the 
first hour of his unaided practice. It may be some 
time before he will be enabled to purchase assistance ; 
and during that state of individual probation, he will 
have — if he have employment— duties relatively more 
arduous and more harassing than when commissions 
shall thereafter pour upon him to the hoped-for ad- 
vancement of his fame and fortime. He must be for a 
time " grand master,'' assistant surveyor, and drudgery 
clerk, of his own establishment : at once designer art- 
istical, constructor practical, copying draughtsman, 
measurer, valuer, and more— with which we would 
not frighten him. He must cultivate resolution on 
the groimd of knowledge, endurance on that of patience, 
and modesty in the full assurance, that, when, he ehall 
hare practised to the last day of his occu"gat\ssvi^\xa ^^rfiSt 



32 HINTS TO YOUNG ARCHITECTS. 

have learned the more to know how much he has yet to 
learn. His profession is a noble one, based on palpable 
science, and beautified by the poetry of art. It is most 
gratifying in respect to the society to which it may 
lead, and the rank it may confer. It is more especially 
so in regard to the pride which an architect cannot but 
feel in contemplating the material and enduring majesty 
of the structures he may have to raise. Paintings must 
be sought in the gallery ; statues may indeed preside 
in the open square ; but it is architecture only which 
towers into the sky — alike commanding, far or near; 
and combining the graces of form, proportion, and 
decoration, with picturesque charm and massive gran- 
deur. 

We now take leave of our school student, to meet him 
again some five years hence. 

[Some Remabks on Education. 

We cannot pass from this initial stage of the student's 
career without offering a few observations. If our school 
training in some respects has imdergone a change for the 
better since our author's time, it has also a great deal more 
to accomplish, in theway of rejecting anunnatural system 
of education, iand helping the spontaneous development 
of the mental faculties. From some experience in the 
teaching of young men, and the observation and reflec- 
tion which have been the result, as well as the study we 
have given to this subject, we offer these remarks. An 
able and philosophic writer observes the maxim of the 
school has been, "believe, and ask no questions.'* 
Spontaneous activity of mind has been too much checked 
in llie past, and parents ^nd teachers are beginning to 
understand that the tastes and inclinations of pupils 
must, to a hrger extent than suppoaeA, -^x^siSL^ o^«t 



HniTB ON educahok. 33 

and determine the fatnre, as well as the studies and 
kind of training, of each mind. In its restrictions and 
dogmatic notions, the old rigime of education and 
society have been exactly counterparts. It is true, 
also, our modem ideas of culture haye changed with 
our religious and political ideas. The grammar-school 
routine of half a century back placed implicit fedth in 
authority and classical oracles ; and a fictitious reyerence 
for the gods of fable and history asserted a supremacy 
oyer all the more natural instincts and Acuities of the 
scholar. The decline of such tutorial authority is the 
natural result of that slow rebellion of intellect which 
has lately giyen rise, in its turn, to new systems, and 
the accumulation of methods. Such a diyersity of 
methods and systems cannot fail by a general law tc 
approximate towards a truer course. Let us briefly 
revert to the errors of our forefathers in this important 
subject, and lay down the principles of a more rational 
method of study which the architectural student espe- 
cially should be led to follow. 

Principles op Study. — 1. The reciprocal action of 
mind and body. — ^It has been truly observed by our 
greatest physiologists and psychologists* that body 
and mind must be both cared for and sustained to 
their mutual help. The old school rigime notably 
was one*sided in this respect, giving an undue pro- 
minence to book-learning without perceiving the 
necessary co-operation of the physical and mental 
powers; hence we find the reaction of one leading 
to extravagance in the opposite direction. The old 
method of " forcing '' and rote-learning, the mechanical 
way of teaching languages by mere rule and repetition ; 
the absence of technical instruction^ and the substi- 

» See Dr. Spnrzheim on "Education;" Herlwrt B^«w»t'«s wA 
Professor "Bmnfa work on **Body and Mind/' &0. 

C 3 



34 HINTS TO YOUNG ABCHITECrrS. 

tution of mere formulsD and symbols, are now happily 
beginning to be superseded. Sign-knowledge instead 
of facts, and correct literalism instead of understanding, 
were evils which led to a neglect of essentials both in 
literature and the arts. Montaigne has said, S^avoir 
par cceur n'est pa% sgavoir. The mind absorbed by the 
mere symbols of knowledge cannot attend to the things 
signified. Herbert Spencer aptly says, "Between a 
mind of rules and a mind of principles there exists a 
difference as that between a confused heap of materials 
and the same materials organised into a complete and 
compact whole.'* We cannot impress this too forcibly 
upon the student of architecture, whose school-taught 
rules avail him little when confronting the actual facts 
of practice, when the special requirements of each case 
demand a wider and more generalised knowledge. A 
mind limited to rules is at sea in emergencies. 

One phase of the question especially concerns 
young architects. It is that the mere symbolism of 
art-knowledge — " styles " or modes of art expression- 
has been the wreck of architecture during the last four 
centuries. Instead of studying principles, architects 
have been studying rules and forms ad nameam, the 
eonsequence being they have been obliged to copy and 
repeat the past. In one word, the mind requires 
experimental acquaintance, or the senses to go hand 
in hand with the mind. This leads us to our second 
principle. 

2. Particulars should precede generalisation. 

The substitution of principles for rules is now admitted 
to be the right course. 

The inquiry and independent thought of the pupil 
is awakened by the calling up of experiences and 
facts. The mere verbal envelope of ideas is of Kttle 
use uzdeaa accompanied by previous experiences 



HINTS ON EDUCATION. 35 

learnt througli the senses. The scientific formula 
mnst follow the attainment of simple facts; in other 
words^ the particulars should be learnt before the 
general truth. Science is, in fact, a collection of 
rules, the result of induction and comparison of facts. 
Neither nations nor individuals arrive at science first. 
Hence the absurdity of making the grammar and 
syntax of language precede the acquirement of ideas 
and words. The young pupil - should thus get an 
accurate knowledge of the visible and tangible pro- 
perties of form, quantity, weight, &c., before his infer- 
ences can become just or methodical. Especially is 
this the case in the learning of mathematics, geometry, 
mechanics, and the like. With the artist no less than 
the physicist, the old d priori method of enquiry 
should give place to intuitive notions of form, number, 
and a correct diagnosis. The relationships of scientific 
facts should be discovered experimentally by models or 
objects; and thus, in teaching geometry and me- 
chanics, the facts should first be taught experimentally 
by the use of models and apparatus before the demon- 
strative proofs are given. Knowledge is thus rendered 
attractive and pleasurable instead of irksome. 

The routine of school hours might be broken by 
lectures on physics, experimental instruction, and excur- 
sions into the fields of ITature. The method of Nature 
should be closely followed, and vigorous thought will 
be the certain reward. 

These principles lead to what we have before recom- 
mended in speaking of drawing. Children prefer 
colouring pictures to copying lines; more advanced 
pupils prefer landscapes to drawing geometrical forms. 
Now the only reasonable course of following this 
natural bent of mind is to impart such instruction 
through the instrumentality of modeh and. real objecUi 



36 HINTS TO YOUNG ARCHITECTS. 

instead of copies, or a dry analysis of elements, which 
in the case of languages has been condemned. Thus, 
geometrical definitions of lines, points and angles, 
should be taught after a sufficient practical knowledge 
of form in the concrete. In no other way can some 
pupils acquire this branch of education. Cubes and 
solids should be presented before planes ; the construc- 
tion of pasteboard models of the solids should be 
encouraged, as the cube, pyramid, octahedron, &c., in 
all cases proceeding from simple to complex forms. 
Thus, by a course of empirical geometry, constructive 
art of the most useful kind may be learnt by a series 
of tentative efforts, employing both the intellect and 
interest of the pupil. It is also better before learning 
Euclid demonstratively, that the pupil accustom himself 
to bisect lines and angles, to describe squares and 
polygons. The same remarks extend to perspective ; 
and trigonometry and conic sections become both enter- 
taining and valuable in exercising the inventive 
capacity of the young pupil, if pursued in a like 
manner. Thus habituated to contemplate relationships 
of form, quantity, weight, and other abstract ideas, the 
pupil will at once estimate the value of demonstration 
when he begins, and will regard it as supplementary to 
the practical problems he has learnt. We are led to 
the third great principle. 

3. Self-discipline and technical training. 

It the young pupil were earlier taught to Investigate 
and discover for himself as much as possible, there 
would be fewer mediocrities, and less of that slavish 
adherence to precedent which hampers often the finest 
intellect. By the tentative processes we have incul- 
cated, the pupil is led by degrees to discover relation- 
ships, and to test the correctness of his eye, and other 
perceptions. By cutting out paper forms, and forming 



STUDUSS BUBINO FUPILAOB. 37 

solids^ the scientific conceptions of the pupil become 
clearer, and evince a desire to substitute something 
more rational for his ocular guesses ; hence he proceeds 
from indefinite to definite ideas, he progresses from the 
concrete to the abstract ; and eventually attains, by a 
natural order of induction, that power of generalisation 
which should be the great end and aim of his school 
studies and the direction of his professional skill. 

Auguste Comte has shown conclusively that the 
process of historical evolution is precisely that of the 
development of the faculties of the individual, and the 
progress of knowledge from the initial to the positive 
stage of science ; in other words, that the order and 
subordination of study should follow the same course 
as the evolution of mankind, " every science having been 
evolved out of its corresponding art." 

Hints to Pupils during their Term of Article- 
ship. — Our pupil during his three or five years of 
office training will have occasional opportunities 
afforded by slackness of business, as well as the leisure 
hours of his daily work, to devote himself to such 
studies as he may have neglected or only partially 
acquired at school. We have pointed out those most 
essential to his future vocation ; they may be summed 
up as mathematical and general knowledge. He may 
alternate his reading in these important subjects by 
acquiring a general knowledge of chemistry, geology, 
light, acoustics, heat, and other physical laws bearing 
upon his profession. Fergusson^s " Handbook of Archi- 
tecture," Eickman^s, Sharpens, Scott's and other works 
on Gothic architecture may also be studied now to 
advantage. They will enable him to keep pace with the 
more mechaoical routine of his daily work by informing 
his mind upon the historical development and vicissitudes 
of his art^ and thus making far more iixteie&tvQL^ tk<^ 



38 HINTS TO YOUNG ARCHITECXS. 

otherwise irksome routine of his labours. Too often 
the pupil neglects these opportunities of collateral 
study ; he fancies his office work too laborious to devote 
any of his evenings or leisure to such reading, forgetftd 
that it enhances the interest of his work, and imparts 
pleasure and attractiveness to what he regards with 
distaste. His indoor gratification or amusement may 
also be promoted by procuring a set of tools, and 
exercising his ingenuity in forming models of a con- 
structive kind, such as frames, roof-trusses; or in 
making sections of the cone, and other solids, in wood ; 
forming in cardboard the coverings of solids, especially 
those which are of most interest in domical and roof 
construction-..^, the hemisphere, and various forms of 
pendentive, pyramids, truncated solids, &c. The sections 
produced by planes, cutting cylinders, prisms, and 
other solids, will enable him to intelligibly understand 
the principles of vaulting, groining, and domical con- 
struction, and the intersections of various forms of roof, 
far better than a course of reading unaccompanied by 
such practical illustrations. His mind will get habi- 
tuated to grasp the geometrical difficulties of sections, 
and the working drawings of such constructions he 
may be entrusted with, while the aid afforded will lend 
a zest to his studies at the office. As a rule there is a 
sad deficiency of this practical discernment among 
young men in architects* offices, especially those who, 
confined in London offices, seldom have opportunities 
of seeing for themselves actual works in progress ; and 
hence the need for such an alliance of the practical and 
theoretical. 

But his leisure hours may be frequently relieved, 
especially in the summer months, by rambles out of 
doors, excursions into the country for the purpose both 
of pleasure and profit. His sketching-book, pencil, fsiid 



CrrUDIBS DURING PUFILAGB. 39 

rule should be his inyariable companions. The remains 
of any ancient building shonld be examined^ and those 
parts measured and sketched which seem to afford any 
new idea or mode of constmction. Details and mould- 
ings are generally of more value to the student of 
mediaeval remains than their arrangements as a whole. 
They may be carefully measured and drawn, and notes 
appended explaining any particular part. The student 
is particularly recommended to observe closely nud prac- 
ticalfy, not with the eye of ~an artist or sketcher only ; 
he should observe and take notes of the material, stone, 
&c., used ; the age and state of preservation of the 
work ; the joints and mode of construction being care- 
fully noted and drawn. Mere sketches and shaded 
drawings are of little value for reference ; free illustra- 
tions hj plan and section should invariably accompany 
the notes. But while he may spend his holidays in these 
rambles over the tenantless monastery, mediaeval church, 
or ruined abbey, they should not entirely engross his 
attention ; his profession is one of ceaseless progress — 
he has to meet modern not ancient requirements ; hence 
the zeal and ardent enthusiasm of the connoisseur and 
archaeologist should be carefully kept in check. To 
this end our student should study modern buildings of 
merit more sedulously than ancient shrines ; he should 
take as much pains with and as careAilly take notes and 
sketches of the commonest things, the arrangement of 
cottages, the fitting and contrivances of joiners' work, 
framing of roofs, construction of floors of iron and 
wood, window-sashes, casements, and all details which 
are of everyday use, and upon which the health and 
comfort of occupiers depend, as he would in drawing 
the most elaborate piece of architecture. If he have 
facilities, as those afforded by the visiting and sketching 
classes of the Architectural Association) ioi ^iL^TQis^\i% 



40 HINTS TO YOUNG ARCHTTECrrS. 

buildings and works in progress, he should be par- 
ticularly observing; and note all he sees. Details of 
masonry, plumbing, and ironwork, no less than the 
finishing trades, should be carefully studied. In all his 
out-of-door studies let the useful take precedence of the 
ornamental: ornamental accessories maybe learnt from 
books and copies, but constructive art only can be 
acquired by a course of practical and theoretical train- 
ing. Schools of art aflPbrd ample means to the young 
student in perfecting his freehand drawing. The ex- 
cellent lectures of the London University, and other 
colleges, and the societies of architectural and engi- 
neering bodies, afford also the means for acquiring a 
thorough knowledge of the theoretical principles of 
architecture and its allied branches.* 

We would also recommend the young pupil one very 
necessary aid to self-improvement for which the majority 
of architects' oflBces do not afford the time or means — 
to make notes of any difficulty or question that arises 
in the course of each day's work, and to solve or 
endeavour to master the subject at home. Never be 
above asking questions of your companions ; they, like 
you, benefit by the inquiry. One word more : keep a 
note-book as well as a sketch-book, and jot down under 
proper heads every passing thought that ^occurs and is 
worth retaining, and every valuable fact or principle 
you acquire in reading and study ;— -while it aids the 
memory, it also serves to give your ideas clearness and 
precision.] 

* The lectures and classes of Univenity or King's College are 
valuable to the student as preparatory to habits of thought and obser- 
vation, and enable him to take the full advantages of practice. Such 
courses of study are also afforded at Liverpool, Manchester, South- 
ampton, and elsewhere, and in the technical classes in connection with 
architectural societies and provincial schools. 



PART 11. 

STUDIES ABROAD. 

Our quondam school-boy is now> in reality, a " young 
architect." He has " served his time '* in the office of 
some established professor and practitioner, and we 
haye only to hope that his time has served him. 
Presuming that it has done so, even to a greater degree 
than is usual, he must still consider, not only that he 
has much to learn, but something to t^nleam ; for 
the manimHsma of his master have, most likely, a 
present influence upon him to the prevention of the 
due development of his native taste and feeling. He 
must consider that he has been hitherto exercised only 
in those particular styles of the art which his tutor 
has been called upon to practise, and that he (the 
pupil) may have, in his future career, to deal with 
other styles, and even with the same styles in a novel 
manner. He may have not only new combinations to 
effect, but also original, or hitherto imrevived, features 
to study. He has to get the wheels of his mind out of 
the ruts of habitual office practice, and to drive the 
coursers of his imagination over the free common 
ground of varied and speculative design. He has, no 
doubt, acquired much artistical knowledge that is true, 
and muchjfrac^fea/attAinmejit that is valwfl^Aft ^'W* *Oaa 



42 HINTS TO YOUNG ARCHITECTS. 

very conditions of his pupilage have enforced an 
obedience, which, though most wholesome in respect to 
discipline, has yet trammelled his invention and checked 
his fancy. Young architects will be generally found 
to criticize the works of others by the standard of their 
master's ; and, by the way, they are usually much given 
to criticism, with a greater aptitude for censure than 
eulogy — the natural result of limited knowledge bear- 
ing upon comprehensive variety. 

Travel. — Now, to get rid of the mere bonds of habit, 
there is, unquestionably, nothing so certainly efiGicacious 
as travel. 

** Home-keeping youth have ever homely wits. 
I rather would entreat thy company 
To see the wonders of the world abroad ; 
For it may be impeachment to thy age 
In having known no travel in thy youth. 
Experience is by industry achieved, 
And perfected by the swift course of time ; 
Nor can he hope to be a perfect man, 
Not being tried nor tutor d in the world." 

Submissive obedience has been already sufficiently 
practised. A lively and acute observation has now to 
be cultivated. What is sterling in the range of former 
acquirement will not be lost nor diminished. The ever 
fresh air of changing scenes and differing countries, 

*' Puffing at all, winnows the light away, 
And what haUi mass, or matter, by itself 
Lies rich in virtue, and unmingled." 

Corrective in respect to past studies, travel will prove 
also highly suggestive in regard to the studies which 
are to follow ; and the young artist, instead of remain- 
ing a critic over others, will find enough to do in criti- 
cizing himself. 

Nor let it be supposed that the benefits of travel 

are less than they formerly were, because books have 

multiplied to us the labouiB of former travellers. 



TRAVEL. 43 

The object of travel^ it is true, is not so elementary 
as it was, ere Stuart and Revett, Denon, Taylor, 
Cresy, and others, had afforded all necessary infor- 
mation as to the details of Oreek, Egyptian, and 
Roman design; but it is, as ever, important in 
expanding the taste for the beautiful and picturesque, 
and in stimulating that professional enthusiasm which 
can only be excited by beholding the actual realities 
whose distant features we have previously learned to 
appreciate. 

Apart from the more professional and technical 
matters of a yoimg architect's travel, are others of a 
moral and social kind not less to be considered. It has 
been said that '^ manners make the man," and in no 
case is the saying worthier than in that of an architect 
who depends not more on his ability to answer the 
duties of employment than on the address and conduct 
necessary to form and secure a connection. Of all men 
engaged in the polite arts, he is the most frequently 
and continuously in personal commimication with his 
patron. The sources of conversation which travel 
affords, and the polish which it may be reasonably 
expected to occasion, are obviously of no mean value to 
one who may be constantly the table guest and resident 
visitor of his employer. An accomplished architect is 
necessarily a man competent to talk at least, if not to 
evince in some measure a practical attainment, of Art 
in general. A feeling for elegant literature is also a 
natural concomitant of the critical refinement which 
his reading should have secured to him. The know- 
ledge of the continental languages will not have been 
acquired without some acquaintance with the leading 
authors who have employed them ; and an experience 
of continental society will not have been effected with- 
out an improvement in hia behaviour. M-aTi"^ ^x^ ^^ 



44 HINTS TO YOUNG ARCHITECTS. 

instances of young men haying formed those intimacies 
among their own countrymen abroad^ which have 
subsequently proved most productive at homo ; and 
certain it is, that he who has enriched his portfolio 
with evidences of his industry in Rome, Florence, and 
Venice, will find an advantage in its mere possession as a 
credential, though otherwise it may serve him but little. 

[The studies of the architectural tourist whose means 
are limited may now be more profitably directed to the 
northern side of the Alps. The exhaustive works and 
photographs published illustrative of Roman art ; and 
the doubtful value of Italian Gothic, which has recently 
received an undue impetus, and has been so profusely 
illustrated, render a trans-alpine study of less impor- 
tance to the student who would confine himself to the 
more direct and practical advantages of travel.] 

The truth is, there is no longer any occasion for him 
to risk his neck in clambering the arcades of the Coli- 
seum, or to spend his time in measuring the portico 
of the Pantheon. So far, at least, as it regards the 
details of Egyptian, Greek, Roman, Gothic, Moorish, 
and Byzantine architecture, his work is already done 
for him. If he cannot possess himself of the books 
themselves, he may have ready access to libraries in 
which every important feature of these varieties of 
design is elaborately and truthfully delineated. It 
is his sketch and note book, rather than his measur- 
ing-rod, which should occupy his foremost attention. 
He requires less to fill his paper with dimensions 
than his mind with ideas. He now wants feelings 
rather than facts [it would be juster to say the 
student wants principks rather than facts] ; correc- 
tives rather than corroborations ; motives rather than 
materials ; speculative freedom rather than academi- 
cs/ precision. This is the time tot \x\m to o>alt\yatQ 



TRAVEL. 46 

the poetry of his art, ever attentive to those high 
and catholic principles of design, which, though the 
same in essence, develop themselves in different forms 
suitable to the climate, the manners, the religious or 
social state of the different countries through which he 
successively passes. He will by no means confine him- 
self, as was the case formerly, to antiquity. He will 
take observant cognizance of the numerous illustrations 
of medisBval modification ; and still more of all examples 
of more modem excellence. In two instances only will 
he remain exclusive in his devotion ; viz., to ancient 
sculpture and the old masters of historical art. Let him 
remember, that Architecture raises the temple which 
Painting and Sculpture are to occupy as their own 
loved home ; and that, as he may have to co-operate 
with the painter and sculptor in the production of 
"one entire and perfect" work, it is a duty he owes 
to his fellow-labourers to cultivate an adequate feeling 
for their respective portions of it. He alone, who is 
in some degree a painter and sculptor (t.^. critically), 
can be competent to the honour of their copartnership. 
K the yoimg architect be inclined to carry it further 
than criticism, the period of his travel is the time for 
his operations. Then may he well vary his pursuits 
with drawings from the antique and with sketches from 
the grand frescoes of Raphael and Buonarotti ; but, 
especially, with exercises in water colour from Italy's 
own Nature, in her combinations with architectural 
forms. Highly advantageous is it for every architect 
to become a correct and ready sketcher, a master of 
eye-perspective, and a creditable performer with his 
brush and colours. The fascinations of smart and 
lightly managed effects of sun, shadow, and tint, will 
some day " teU " in his favour ; and he may now be 
engaged in preparing for his future Aiwmi^-xSiQffiL 



46 HINTS TO YOUNG ABCHITECTS. 

pictorial decorations^ wliicli sliall also be of important ser* 
vice to him as so many official insignia, '* flags and signs " 
of the love he bears to the profession he has adopted. 

[Though our author^s advice was well intended at a 
time when academical precision absorbed so much of 
the young architect's mind, it is less needM at the 
present day when the various and practical demands 
made upon the profession necessitate on the young 
practitioner's part some abatement of his taste for the 
antique and merely archaeologicaL] 

His more practical drawing will be well applied to 
choice selections from the architectural fragments which 
may excite his admiration in the several great Italian 
museums, all of which are prodigal in the exhibition of 
decorative art. The experience already acquired at 
home will teach him where such things may be here- 
after suitable for application ; and his employer will 
not be the less pleased on learning that the vase on his 
balustrade or the frieze in his chimney-piece are fac- 
similes of some valued importation from the '^Museo 
Vaticano." 

Italian Gothic. — ^Italian Gothic he will carefully 
eschew — at least as a model. [Since these *' Hints *' 
have been published, Italian Gothic has received an 
amoimt of popular adoration which would have justly 
shocked both our author and his contemporaries.] To the 
great cathedrals of Germany, France, and Normandy 
his continental Gothic studies will be confined ; nor will 
he forget, even in perusing them, that England is, 
after all, more especially the school in which Gothic 
architecture develops itself with the most essential 
truth. In Normandy, the Norman Gothic is im- 
questionably better and more fully illustrated than 
with us; and in many of the foreign pointed ex- 
amplea he will see certain indiyidual ^rta of a &r 



OONTINBNTAL GOTHia 47 

greater magnitnde and more elaborate richness than 
any he can meet with at home ; bat it is still from an 
untiring study of the cathedrals^ churches, and old 
mansions of England, that the true principles of Oothio 
design, the laws of its proportion, and the most effectiye 
results of its combinations, are to be deduced. 

The growing feeling in our country for the palatial 
style of mediaeval Home and of Venice, and for the villa 
of modem Italy, will, of course, direct him to give 
more than common attention to such examples as best 
exhibit them; so that he may co-operate with his 
numerous improving contemporaries in working out a 
worthy Anglo-Italian school of design. Scientific and 
literary professors, travellers. High Church conserva- 
tives, and others, have all built their club-houses in 
pursuance of the aim started by the Buonarottis and 
Palladios. The Palladian palace of Stowe, and the 
grand piles of Blenheim and Castle Howard, still 
maintain their ascendancy over all modem attempts 
at the castellated or Tudor mansion. [The castellated 
and Tudor styles here alluded to have given place to 
a less pretentious and extravagant species of domestic 
Gk)thic. Here, as in ecclesiastical Gothic, however, 
there is a tendency to mimic literally peculiarities 
and quaintness of feature and to affect mere ^'pic- 
turesqueness,'' a common vice of the ultra-Gothic 
school which should be steadfastly resisted] ; and, 
while the Church Architectural Societies are effecting 
much good in the reatoration of a pure and correct 
taste for Christian Pointed Architecture as applied 
to churches and other buildings ecclesiastically con- 
nected, there can be little doubt of the propagation 
and continued durability of a reviving love for the 
modifications of Greek and Roman design. [The hoi^^ 
here expressed has, at Jeast in the directioii oi ^^^viW 



48 HINTS TO YOUNG ARCHITECTS. 

buildings^ been realised to a greater extent of late 
yearS; since tbe present fever of MedisBval ultraism in 
taste has abated.] * 

Time occupied in Travel. — ^As to the time which 
should be occupied in travel, two years should be the 
utmost ; while one, employed with devotional industry, 
may be sufficient. [Six months, if studiously devoted, 
will now suffice.] At all events, a longer period than 
the former may too much interfere with the business 
habits of a young architect who only has his profes- 
sion to depend upon. The writer of these " Hints " was 
limited in time because limited in means. Impressed 
with the fear of debt, and anxious to relieve those 
by whose kind aid he was advantaged, his *' travel's 
history '* scarcely filled the twelvemonth. The cost 
of his travelling, lodging, and other incidentals, did 
not exceed ninety-two pounds, about twenty more 
having been expended in books and other articles of 
professional utility. To him the pleasures of society 
(save those he enjoyed at the common mess- table of 
his brother-artists) were denied. Excursions of re- 
laxation and mere enjoyment were out of the ques- 
tion. He witnessed one opera at Milan, because it 
was his duty to inspect the grand Scala theatre ; and 
made pleasure and profit tell together in seeing at 
once the interior of a French theatre and the acting 
of Talma. But he feared the expense of venturing 
south of Bome ; forfeited the desired gratification of 
seeing Vesuvius and the disentombed cities of its 
vicinity, the gay beauties of Naples, and the solitary 
grandeur of Paestum; and, after all, returned home 
with as much preserved cash as would have enabled 
him to accomplish what he had not dared to attempt. 

* Since this note was added, a reaction of taste towards a more 
Benaisaance feeling has taken place — a Bpedoa oi^^ Q,\\!&esv Axma ** style, 
which baa affected both buildings and fumitviie. 



hints to tourists. 49 

[Hints to Architectural Tourists. 

Comparative Value of Travel. — Since the time of 
our author that very necessary finish or supplement to 
the education of the young architect, " travel/' has to 
a great extent at least been superseded. The numerous 
sketches and drawings which have during the last 
thirty years been published upon almost every con- 
ceivable branch and style of foreign architecture, par- 
ticularly the Gothic or Mediaeval examples of Italy, 
Germany, and France, and the facilities afforded to 
the student to acquire such additions to his library ; 
the casts and examples of the various art exhibitions 
and architectural societies, and the easy reference to 
such works, have considerably lessened the necessity 
there once existed for the young architect to personally 
yisit and examine the remains of ancient art. Not 
only have architectural works brought home to the 
student the most famous of continental and classical 
examples; but the art of photography has with 
Nature's own pencil revealed with unerring truth the 
beauties of detail of every object upon which dili- 
gent artists and dilettanti have devoted their whole 
lives to depict. Yet we advise those who have means 
and time at their disposal, either before their entrance 
upon practice, or occasionally during those holidays 
which custom has especially set aside for tour-making, 
to avail themselves of those pleasant rambles abroad 
which serve to enlarge the scope of their ideas, and 
bring home to their daily vocation fresh vigour and 
more catholic views of society and art. 

Italy. — ^Rome, Florence, and Venice, although 
hackneyed resorts of the architectural tourist, may 
be visited with profit. Comparatively exhausted as 
Italy maj he, there jet remains am]^\Q ^^^^ iicrssv. 

D 



50 HINTS TO YOUNG ARCHITECTS. 

wliicli an unbiassed artist may glean some materials 
left untouched by those who have tracked them before. 
But there are other lands besides " fair Italy " to attract 
him. He may gather much from more northern routes; 
the Spanish peninsula, and even the capitals of Russia, 
comparatively untouched ground, may afford him an' 
unexplored field for his researches. To profit by tour- 
making, the young tourist should become acquainted 
by previous reading with the localities he is about to 
visit, both historically and topographically. Their geo- 
logical and other peculiarities should be known before- 
hand. Such preparatory knowledge, so far from de- 
tracting, materially aids the mind to an independent 
opinion and estimate of the place and buildings visited; 
it enhances the interest of actual sensible gratification. 

One word to the architectural tourist may save him a 
regretful retrospect upon his return home. Provide 
yourseK with both a sketch-book and note-book, and 
let every excursion and ramble be not only fully de- 
scribed but freely commented upon. Let the pen as 
well as the pencil speak. One or two other hints should 
be carefully kept in view by young tourists. 

If you go to any church or ruined abbey, let not the 
mere sentimental side of your convictions overbalance 
your stronger reason or the higher duties of your call- 
ing. Let not the devotion to a shrine, or piece of 
mosaic work, however lovely in your eyes, or a bit of 
sculpture, carving, or embroidery or metal work, absorb 
too much of your attention, or wean the mind from any 
of those constructive peculiarities of the work which 
are worth noticing. 

Try to discover the cause of any beautiful effect in 

construction and design. If proportions strike you, 

measure them carefully, and study them on paper. 

Take note of any particular mode of construction, and 



CONTINENTAL STUDIES. 51 

do not rest content with a general outline or sketch. Con- 
stantly keep before your mind the fact that the most 
beautiful and stirring work of architecture is the result 
of constructed art, arising out of necessity and thought. 
Another important point should be kept in view. 
The fascination of travel, the associations of an 
emotional kind awakened when contemplating scenes 
rendered classical by literature and song, often with 
bewitching enticement, induce a blind infatuation for 
everything foreign from which the young enthusiast 
seldom recovers. The writings of Euskin on Venetian, 
Veronese, and Florentine art have already captivated 
the popular mind, and led, siren-like, some of our 
" fSusiliionable " architects to reject their calmer reason 
and to reproduce styles absurdly out of place in this 
northern climate. Let the student beware of this 
allurement, and while admiring the beauties of the 
South, the land of classic art, of painting, mosaics, 
sculpture and marble, remember that he is working in 
Englandy not across the Alps, and that the benefit ho 
derives from such works will be in proportion to the 
amount of original thought he bestows upon them, and 
the means they afford of enabling him to grasp the 
more completely the immutable principles of his art. 
A wise eclecticism in art is preferable to wholesale 
copyism, though the stock of ideas acquired by travel 
should enable its possessor to generalise and perfect 
more completely the elements of art. "What he sees 
should not be considered as giving him principles or 
methods, but simply certain remits, the products of par- 
ticular social and material conditions. A critical mind 
should be brought to their investigation. Let not 
peculiarities be mistaken for beauties, nor the imagi- 
nation run wild in drawing poetical analogies between 
fiict and sentiment 

D 2 



i 



52 HINTS TO YOUNG ARCHITECTS. 

France. — The arcliitectural student whose means 
are limited cannot take a more pleasant ramble than 
one into Normandy. Its contiguity to England, the 
facilities of conveyance, and the valuable and prolific 
examples it contains of the continental development of 
Pointed architecture, from the simple beauty and ex- 
pression of the early Romanesque, through the various 
phases of the style to the transition into the Renais- 
sance, make it a favourite tour with the young archi- 
tect. Though our own country is rich in the Roman- 
esque or Norman style and the transitional Early 
Pointed, we have not the means of studying those earlier 
germs and modifications of Gothic which especially adapt 
themselves to the requirements of ordinary build- 
ings in this style. The forms of the Early Pointed 
churches are well worth study for simplicity and 
purity. French Pointed work in the north is more 
nearly like our own, as at Lisieux, St. Ouen, while the 
introduction of the classic forms are less prejudicial 
than they are in more southern parts of France. 
Rouen, dirty as it is, demands the attention of 
the student, especially its cathedral, where the history 
of the Pointed style can be traced. The Palais de 
Justice and St. Maclou exhibit the admixture of Gothic 
with Renaissance forms. St. Ouen shows also the florid 
character of the fourteenth and fifteenth centuries, its 
proportions being second to none in France, while the 
choir and transepts are perfect of their kind, both in 
design and richness. Mr. Fergusson thinks it the most 
beautiful church in Europe, and it certainly is one of the 
purest of its style. St. Maclou displays the gorgeous 
and elaborate detail of a less pure Flamboyant type, 
where the student may learn to discriminate between 
the elegance and defects of fifteenth-century French 
Gothic, which cannot compete with our own florid 



STUDIES IN FRANCE. 63 

specimens of the style, — ^Henry VII/s chapel to wit. 
St. Jacques at Dieppe is another work of the class 
which the student will do well to avoid, though he 
cannot fail to be struck with its overwrought detail. 

For earlier examples, St. Stephen's, St. Nicolas, Caen, 
will r^ay study. Coutances, Bayeux, Honfleur, Cau- 
debec, Jumi^ges, Bocherville, may be visited en route. 

If the student can afford time, a tour through the 
southern provinces of France will give him an idea of 
the mixture of pure Frankish and the Romanesque or 
Romance styles. In Provence he will take cognisance 
of the pure Romanesque or Roimd-Arched Gothic, 
verging indeed to classical Roman ; such is the cathe- 
dral at Avignon ; or mixed with Pointed features, as 
the cathedral at Vienne. The circular form of church 
found here is worthy the student's attention, as also the 
mode of vaulting seen at the church at Fontif roide, near 
Narbonne. Aquitaine possesses many examples of a 
style partaking both of the round-arched, and a domi- 
cal pointed style of an Eastern character, well worth 
study. The internal buttressing of the walls, as at 
Albyy is suggestive to the architect ; so also the cathe- 
drals at Bordeaux and Toulouse, with their grand 
aisleless naves. The Round Gothic of Auvergno ex- 
hibits a pure style which Fergusson rightly regards 
among the perfected styles of Europe. 

But whichever part of France the student's rambles 
may take, his attention should be directed especially 
to the magnificent development of thirteenth-century 
examples as exhibited in some of her cathedrals. The 
thirteenth century was to Gothic art what the Peri- 
clean and Augustan were to Greek and Roman. The 
cathedrals of Chartres, Rheims, Amiens, Coutances, 
Beauvais, Troyes, Noyon, Paris, are, in the order hero 
given^ especially deserving study. One oV\i<et, ^Jsi^ 



54 HINTS TO YOUNG ARCHITECTS. 

purest and finest after the first three mentioned, 
namely, the cathedral of Bourges, must not be for- 
gotten. Its proportions, its aisles, its symmetrical 
plan, its chevet, make it a model of French Gothic* 

For further remarks on " style '' in design the reader 
is referred to Section 3, Part VI. The student who de- 
sires to avail himself of the labours of brother tourists 
in this field is recommended to study the works of 
Messrs. Norman Shaw, Nesfield, and the beautiftd 
drawings of Johnson's " Early French Architecture/' 

The brick architecture to be found in Italy, Ger- 
many, Spain, and France is particularly worthy of 
the attention of the architectural tourist, and Mr. 
Street's elaborate " Brick and Marble Architecture of 
North Italy " may be read. (See also Ruskin's works.) 

While we thus refer to Continental studies, let not 
the young architect neglect his own country. England 
possesses by far the purest examples of Middle-Age 
architecture ; and we recommend the student to study 
well the principles of development and design observ- 
able in the thirteenth and earlier fourteenth century 
buildings. For purity of outline and form, in vault- 
ing, pillar-clustering, and mouldings, no foreign ex- 
amples can compete with the English. The student 
is recommended to study, 1st, Masses or Forms ; 2nd, 
Lines ; and to observe that in the best periods of art 
both had equal • attention bestowed upon them. A 
careful study of Mr. Edmund Sharpens admirable 
"Architectural Parallels," and his work on the "Seven 
Periods of English Gothic," is recommended. Many 
of the Cistercian monasteries of the twelfth and thir- 
teenth centuries are excellent models for study.] 



♦ The student of French Gothic should note especially the develop- 
ing/?/ of vaulting, as seen in the earlier examples. 



PART in. 

EARLY PRACTICE. 

)uR traveller has now returned. His brass plate is 
ipon his door. He has indentures to prove his 
.ppr^iticeship^ a portfolio to assert his subsequently 
xsqnired accomplishment ; and he is ready to begin. 

The probability is that he'll have to wait awhile. 
le will have nothing to do,— or what he does will bo 
lone for nothing. Some one will kindly give him an 
►pportunity of showing what he can do, the favour 
hown and the labour given being mutually gratuitous. 
Ldvertisements will invite him to compete for a Town 
lall, or a " New Bridewell,*' a Market House, or a 
!Tew Poor TTnion ; and he will send his plans forward, 
md they will be sent back ; and some one already well 
o do in his profession will, as he is informed, either 
)y favour, or job, or otherwise, win the premium and 
)e commissioned to carry on the work : and thus, with 
he rejected among many, sit down disconsolate, and 
^uote from Jaques — 

" Thou mak'st thy testament as worldlings do. 
Giving thy sum of more to that which had too much." 

And then will he be stimulated by a promise from some 
STorthy friend of his father, who expresses vague ideas 
)f " some daj adding a new dining-room to ^\s \\aws»^ " 



56 HINTS TO YOUNG ARCHITECTS. 

under the inspiration of wliich, visions of a sideboard 
recess, flanked by Corinthian columns, suggest them- 
selves ; and lastly, he who has promised nothing shows 
his friendly indignation in abusing him whose promise 
has turned out to be nothing worth. 

Hopes, disappointments, and efforts (for the present) 
unavgdling, will (unless he be wondrously fortunate in 
chance or connection), mark his career for some time 
at least; mats le hon temps viendra, and we propose 
filling up the leisure of the interval by putting before 
him such matters for consideration as may make him 
rather value than otherwise the spare time which yet 
lies upon his hands. 

The duty he now owes to himself is twofold. In the 
first place, he has to form and increa^e his connection 
by constantly availing himself of every opportunity for 
manifesting his professional claims to desert. In the 
second place, he has to prepare himself for an efEective 
and perfect fulfilment of the duties which his first 
engagement will impose upon him. "We have already 
sought to impress upon him the heavy responsibility 
which will be his when he is no longer the mere agent 
of a professional superior. Let him not postpone this 
reflection until the day of employment arrive. Every- 
body is always in a hurry to have everything done. 
His patron will take six months to think of what he 
desires to have accomplished in as many hours. When 
the commission arrives, immediate work will be 
required — ^not preparatory study ; and if there be not 
a ready foresight to pierce through all contingencies, 
the progressive and ultimate perplexity will be propor- 
tionally bewildering. To anticipate possible objections 
is greater policy in an architect than to give immediate 
answer to requirement. Of all professions, his is the 
one most subjecting its professor to meddling inter- 



EARLY PRACTICE. 57 

ference, and a thoughtless disregard of trouble taken 
and obedience unrequited. 

" Double, double. 
Toil and trouble," 

is indeed the chant of the sister Fates who are hostile 
to an architect's peace. The graces of the portico, the ' 
beauties of decoration and proportion, the triumph ' 
over a hundred contending desiderata, shall be all 
forgotten in my lady's passion for — a housemaid's 
closet! It ayaQeth not as an excuse that you can 
put it under the back stairs. *'It should have been 
thought upon before. An architect ! and not think of 
a housemaid's closet ! It ought not to be an extra." 
" Extra ! " Fearful word ! The builder's aim, and 
the architect's dread ! Let our young friend think of 
it betimes; and let him bear in mind, that the best 
guard against the overwhelming censure which follows 
it, is to habituate the mind to a foresight, which, 
during the study of the nearest and most important 
things, should penetrate into the most remote and 
trifling. AU the grand principles of design, conveni- 
ence, and enduring strength, may have been perfectly 
answered by the most artistical ability, by ingenious 
arrangement, and constructive skill ; but if chimneys 
smoke, gutters leak, or drains choke ; if windows prove 
not in all trials weather-tight ; if all the little conve- 
niences of the former house be not added to all tho 
krger ones of the present ; if a shelf, a cupboard, or a 
rail and pins be omitted where custom might expect to 
find them ; if the whims of old servants be not 
considered, or the carelessness of new ones anticipated ; 
— ^if, in short, the genius of a Michael Angelo be not 
followed close up with the care of a cabinet-maker, the 
BLTchiteot will yet have a toil of vexation to ^Ti'^yvfl&'m 

D 3 



58 HINTS TO YOUNG ARCHITECTS. 

which may make him almost repent tlie choice of his 
profession. 

Practical Hints. 

Hints on Planning. — ^We shall begin our practical 
hints with some remarks in reference to plans^ or 
internal arrangement, as affecting elevations, roofs, and 
chimneys. 

The young architect too frequently concentrates his 
attention on those portions of his plan which concern 
one or more particular fa9ades. Thus, he is carefiil of 
his entrance front and his lawn elevation, as those 
alone which will be visible to a stranger approaching 
from the lodge, or walking in front of the sitting-room 
windows ; and no sooner is the building roofed in than 
he discovers that the " return fronts '' are provokingly 
more generally visible to the public eye from without 
the boundary of the premises than the others which 
have had his too exclusive care. One of his " architec- 
tural " elevations is seen in continuous connection with 
a surface of unstudied masonry, the respective parts of 
which neither harmonise in position nor in decoration : 
or, at the best, he exhibits a display of blank architec- 
ture, the falseness of which is proved by certain promi- 
nent necessities which will not be either concealed or 
modified. The oiEces and other inferior appendages to 
the mansion cling to it, and proclaim themselves with 
all the humiliating impertinence (or rather pertinenoe) 
of poor relations bent on the declaration of their con- 
sanguinity. The idea of *' planting them out," which 
originally existed in the mind of the designer, still 
exists in his mind only. The trees he requires will 
take at least fifty years to grow ; and, even then, winter 
will in its turn disrobe them of their foliage to leave 
diaplayed an obstinate range of axdaitectvvTal -poverty. 



HINTS ON PLANNING. 59 

Evergreens will never grow lugh enough. The whole 
thing must remain as it is — ^a handsome countenance 
with an ugly profile : — a beggar in a velvet waistcoat, 
and no coat to cover his sides. 

This oversight is still more commonly committed in 
town houses and street architecture. Nothing is more 
frequent among builders and young architects than 
the exhibition of a mere mask, which only deceives 
while the spectator is directly opposite on the other 
side of the street, or so far as there may be houses of 
equal height continuing on either hand. Otherwise, 
directly the front is passed, the blank masonry or 
naked gables of the returns show themselves like the 
mere party- walls in the transverse section of an un- 
finished range ; and these, be it remembered, are often 
seen for a much greater length of time than is given 
in passing, to the main front, since we may have thom 
before us during the whole of our progress tdong a 
street of half a mile extent. Perhaps only a portion of 
the return ends may be seen above the roofs of the 
lower houses adjoining : but it is not the less necessary 
to continue along this portion the architectural charac 
ter of the front. In the many instances which occur 
of houses rising successively one above the other on 
the side of an ascending street, too much care cannot 
be taken to give a finished perspective effect. Tho 
means will readily suggest themselves. Architecture, as 
we have before said in the first section of our " Hints," 
has a peculiar privilege among the arts in commanding 
observation from the distance, and no town or range of 
buildings will ever have an imposing or oven a tidy 
appearance, while it shows itself to be composed of 
independent fragments jostling one against another. 
The beggarly habit of carrying a cornice or parapet, 
with dressed doors, windows, pilaBteia, &Q.^ ^^^u^ ^i. 



60 HINTS TO YOUNG ARCHITECTS. 

twenty-feet front, leaving in barn-Kke nakedness a 
thirty or forty-feet end, is an abomination which even 
the most vulgar country builder should eschew. In- 
finitely better that the whole should be consistent in 
the absolute perfection of nudity. 

Reference of Plan to Elevation. — Oversights, ^ 
however, sufficiently unpardonable are often exhibited 
by architects of more established repute, in settling 
their 'plmis without due regard to the final appearance 
of their exteriors. [Among some leading Gothicists this 
is painfully evident. Want of balance, unequal dis- 
tribution of windows, awkward intersections of roofs 
and gables, and other irregularities are the result. In 
designing a plan the block outline of the ground, if 
confined, should be carefully studied and kept in view. 
The position of the entrance and principal apartments 
as regards aspect or front should then be considered 
and laid down as the key-note of the plan ; the distri- 
bution of the other rooms and offices should be made 
to agree with such an outline, at the same time the 
outline or disposition of the main masses of the build- 
ing should be constantly in view, as regards the roofing 
and elevations. In fact, experience has shown us that 
the ground plan, principal elevations , and roof plan must 
be simultaneously studied to produce a satisfactory 
whole. The natural order of arrangement appears to 
be: — 1. Position of entrance. 2. Communication. 
3. Aspect of apartments. As regards the elevations, 
the roof plan must first be considered in disposing 
of the projections, gables, and other features after 
the general arrangement has been hit upon, and in 
complex buildings the cross section should also be 
drawn.] 

Arrangement should suggest Style. — Let it, 
then, be the firat care of tlio yowng architect in 



ADVANTAGES OF PERSPECTIVE. 61 

designing his plauy to do it with especial reference to 
the \_fitne88 ov purpose of his structure, disregarding the 
mere " style '* of architecture]. In strictness the stylo 
should be suggested by the internal arrangement ; but, 
either way, it is equally an architect's duty to see 
that convenience and external expression be true to 
one another. A ground plan may be exactly adapted 
(by certain equally convenient differences of arrange- 
ment) either to a Greek or Roman, a Gothic or Italian 
elevation ; and whichsoever of these may be decided 
on, the arrangements of the walls, with their breaks, 
recesses, and projections, and the position of the fire- 
places, must be thought of in close conjunction with 
the ranges and intersections of the roof, and the satis- 
factory position of the chimneys, as objects in the 
general view of the building. It is not, in fact, until 
a plan of the roof is made, with its stacks of flues well 
located and accurately drawn, that the masonry of the 
floors beneath can be decided on : nor should the plan 
of any one floor be finished until those of the floor or 
floors above are perfected. 

These points being all considered, the young archi- 
tect will take care to make his elevations honestly ex- 
hibit their crowning roof and chimneys. The custom 
of omitting these features is seriously reprehensible, 
and worthy only of a Pecksniff. 

Advantages of Perspective Sketching. — He will 
be equally careful also to show all the fronts, and to 
give at least such perspective sketches as may prevent 
those common misconceptions which geometncal ekva- 
tiom occasion in not truly showing the projecting or 
receding of the different portions. Even architects 
deceive themselves by the pleasing effect of fa9ade8 
geometrically developed; an effect which is rarely 
Been in reality, except at such a diatanfi^ ^% T^"vy^s?t% 



62 



HINTS TO YOUNG ARCHITECTS. 



indistinct all the decorative details of the building. 
What^ false idea, for instance, does the geometrical 



y yK K 



D 
D 



<-rf> 





n 



D 
D 



<f"— <? — > 



III 



<-«&-♦ 




figure A give of the perspective figure b ! It is not 
enough to show, by the plans or by description, that c 
projects and that d d recede. The strict truth is, that, 
in the perspective view most generally visible, the 
building will lose all the expression of length which 
pleases in the geometrical elevation, and will become a 
short squat building, with only one visible wing instead 
of two. 

[Fa9ades or elevations of buildings in which promi- 
nent projections do not occur may be sufficiently repre- 
sented by shadows projected at an angle of 45°. By 
this means all slight projections vertical and horizontal 
can be at once discerned, and their real projection also 
obtained on elevation.] 

The geometrical elevation of a circular temple is 
most deceptive in its appearance, and will occasion 
expectations of much greater width than a near per- 
spective view will exhibit : thus, the building which 
will show geometrically as fig. 1, will show perspec- 
tively as fig. 2. In the elevation of the west front of 

St. Paul's Cathedral, 
the tambour of the 
dome looks overwhelm- 
ingly large; in the view 

„. , ^. « of the real buildine 

JFig. 1. Fig. 2. ^ J i. J- 

irom a moderate dis- 

tance it exhibits no such excess. 




VALUE OF ANGULAR PERSPECmVE. 63 

Value of Angular Perspective. — ^Agaln, the geo- 
metrical elevation of a square tower, in wliicli the 
expression of great altitude is required, should be 
made with reference to the increased bulk it will 
exhibit, when viewed diagonally, to the prejudice of 
its loftiness. The habit, in short, of considering the 
elevations of parallel planes, without equal regard to 
their "returns," and without studying the diagonal 
view of both imited, is the cause of infinite disap- 
pointment; and equally so is that of only looking 
point-blank against edges and vertical surfaces, with- 
out duly reflecting on the additional effect of under, 
or upper, horizontal surfaces. For example ; what a 
light and simple effect has the common cantilever cor- 
nice, fig. A, compared to the same cornice seen in per- 
spective, as fig. B. Features, which in the geometrical 
drawing may appear light ■ • . 

and well-proportioned, may i i 




in execution prove ill-pro- ^ 

portioned and heavy. Again, 
what may seem well deve- 
loped in the drawing, may 
wholly or partially disap- 
pear in the work itself, as 

in the case of a parapet or blocking course concealed 
from the near view by the projection of the cornice. 
A dome which, geometrically, has a sufficient height, 
may, from the point of most frequent view, seem 
offensively flat. Sir 0. "Wren, aware of this, has 
formed the outline of St. Paul's dome 
by segments of circles struck from two 
centres like a Gothic arch, the point of 
meeting being concealed by the base 
of the lantern. Its appearance^ how- 
ever, 18 that of a perfect semisplieTe. I^^et^ \^ ^^^ 




64 



HINTS TO TOUNG ARCHITBCTS, 



another precaution to be always carefully taken in the 
management of circular buildings, and tliis refers to 
the unpleasant effect of 
overhanging segmental 
architraves or soffite. A is 
the elevation of a window 
in a bow projection, b is 
its perspective appearance from one side. This is not 
less objectionable in respect to its constructive weakness 
than in regard to its ugliness ; for it is only by con- 
cealed management that a flat so£St arch on a curved 
plan can be made to stand at all. The case is still 
worse when the window-head is a curve, and, in short, 
this practice is only allowable when the curve of the 
plan is so large, and the openings so narrow, as not to 
leave perceptible the defect of the overhanging seg- . 
ment.* Thus, in the vast curved outline of the Coli- 
seum the arched colonnade is unobfectionable. In the 
closely set peristyles of St. Paul's dome, and of the 
Temples of Vesta at Rome and Tivoli, it is equally so; 
but where the curve of the plan is small, and the 
openings, or spaces between the columns, propor- 
tionally large, it is a grievous fault. Where small 
bay projections are desired, they 
should always bo semi-hexagons 
or semi-octagons, with the win- 
dows in the fiat faces, unless 
■ indeed the required bow window 
may be so subdivided hy mul- 
lions or pilasters as to remedy the objections stated. 
The semicircular portico, fig. 1, may be sufficiently 
pleasing in its front view ; but a glance at fig. 2 will 




Fig. 1. 



r^.2. 



[• For Bimilar refteans, circular oomers 
are very objectionuhh, and arches oonsti, 
Btability, 8uoh coraen sbonld be canted.'^ 



boildioffs of flmall radiuB 
constructed in Sum defectire in 



TRIANGTJLAB PLANS SOLIDS AKD VOIDS. 



G5 




show the necessity of studying, not fronts only, but 
profiles also. 

Triangular Plans, — ^Whfle on the subject of the 
different appearance of objects in different points of 
view, it may be as well to refer to the triangle as a 
form of plan frequently, and most injudiciously, adopted 
in pyramids, obelisks, 
and pedestals. Viewed 
directly in front, on the 
lines a — h or c — rf, it is 
well enough, as shown 
by figs. 1 and 2 ; but 
who that sees its ap- 
pearance on the line 
e— fl, as shown by fig. 3, 
does not at once observe 
that no pyramid or 
obelisk should ever have 
an odd number of sides? 
For the same reason, 
tripod pedestals should 
be most cautiously used ; 
for, whatever 
may be said 
in favour of 
fig. 4, it is ob- 
vious nothing 
can be ad- 
duced in de- 
fence of so ill- 
balanced a 
composition as 
fig. 5. 

All this goes to prove the necessity — if not absolutely 
of models— of the perspective effects wlaich. \sv3L\^&xsi^^ 




Fig. 2. 




Fig. 4. 




Fig. 3. 




Fig. 6. 



66 HINTS TO YOUNG ARCHITECTS. 

Will have from all points of view. The architect, 
pleased with his front elevation, may find reason to 
alter it the moment he turns the comer. 

Solids and Voids. — ^A different proportion in the 
solids and voids of a main and return elevation will be 
fatal to good effect. A material difference in the dis- 
tances between the common angle and the windows of 
the front and return fa9ades, or a much more crowded 
position of windows in the one than the other, will be 
offensive ; and it may be here remarked, that the pro- 
portions of solid and void which hold good in the case 
of a simple fa9ade with no dressings to its doors and 
windows, wiU not equally serve when those dressings 
are to be supplied, since it is only the plain part of 
the pier, or of the space between the lower and upper 
apertures, which will " tell " in the matter of breadth, 

"Window Dressings. — The architraves and flanking 
columns of a window must be regarded as the window 
itseK; and as a general rule, it may be said that 
there cannot be an adequate expression of breadth, 
unless the plain part of the pier be equal to the entire 
width of the window and its dressings united. The 
same law holds good in the horizontal spaces, which 
should exhibit, in a large and ornate building, the 
same amount of plain masonry above and below the 
architraves, strings, cornices, &c., which, in a small 
and plain building, would intervene between the sills 
and soffits of the windows and the strings or cornice 
below or above them. This, it may be remarked, 
amounts to little less than saying that architectural 
decoration is more appUcable to large than email 
buildings, and it is true ; for doors and windows do 
not increase in the same ratio that the size of the 
building increases. On the contrary, they generally 
bear a much greater relative proportion in small houses 



WINDOWS— CHIMNEYS. 67 

than in princes' palaces; and assuredly, where they 
do not leave, at the very leasts such a breadth of pier 
as will allow the width of the opening to intervene 
between the dressings of two adjacent windows, the 
latter had better be left without dressings. On no 
occasion whatever ought the breadth of a pier to bo 
less than the width of a window opening ; Le. of 
course supposing the window to be a single one, and 
not triple with intervening mullions. 

Junction of Main House and Offices. — If the 
error of making a discordant difference between the 
fronts of the main house be so serious, not less so 
is the total discordancy often seen between the main 
house and the offices. Now it is, in fact, very rarely 
that the offices are not, from several important points 
of view, seen in conjunction with the principal, mass of 
the structure; and the difference therefore between the 
two should strictly be one of degree only. A hand- 
some cornice along the eaves of the one will be ill- 
accompanied by a common eaves gutter along those of 
the other. Correctly speaking, it should be of the 
same form, reduced proportionally in scale, and — if 
required — ^without the enrichments of the main cornice. 
Above all things, the young architect should avoid 
the common mistake of reducing the beauty of the 
chimneys; for those of an office range, springing 
usually from a lower roof and having a greater relative 
altitude, will very likely be more conspicuous than the 
others. In short, an aptitude for chimney design is 
most important to an architect engaged in villa build- 
ing. Let not the anticipation of chimney-pots escape 
his consideration. On the contrary, let him design 
them, and show them in his elevations, as likelihoods, 
which, if ultimately necessary, may not be absolutely 
disfiguring. He will further rememlaeT, ttvsA^ Vsifc\^ 



68 HINTS TO YOUNG ARCHITECTS. 

the flues in any one stack are numerous, it may be 
better to place them in imited parallels than in one 
continuous range ; and he will be also cautious in so 
arranging his fire-places as that the various flue-stacks 
may be as nearly as possible of one size. This uni- 
formity, at all events, should be observed in corre- 
sponding pairs of stacks. 

Chimneys. — He need not be reminded, that, in 
Gothic structures, chimneys are not only admissible, 
but are often advantageous in their attachment to outer 
walls — especially when they rise with the gables. In 
the free and irregular style of the Italian villa they 
may also occasionally be connected with the outer 
walls. In the severer Roman style they may rise from 
the angles (as shown in Barry's Reform Club House) ; 
but in no style (saving only the Gothic) should they 
rise from the eaves if it can possibly be avoided.* The 
inordinate height required to raise them above the 
ridge of the roof, their insecurity (involving often the 
application of iron struts to sustain them), the difficulty 
of a satisfactory management of the main cornice 
beneath them, and the plumbing required to make 
weather-tight their union with the slates ; — all these 
circumstances make it most desirable the plans should 
be so arranged that the chimneys may ride, as it were, 
upon the ridges of the roof. 

Flues ^ — The occasional practice of making flues run 
a long raking course in the thickness of walls, and of 

[* These observations and restrictions as regards chimney-stacks are 
correct as far as they agree with the conventional rules of taste laid 
down by architects, though the young practitioner is advised to 
exercise his own common sense and discretion in designing such 
important functions of a building untrammelled by the mere pedantry 
of academic rule. Stacks should be collected as much as possible, 
and placed in positions whence they can rise uninterruptedly, without 
sudden bends, through the roof. Chinmeys attached to walls, and 
projecting therefrom, often relieve a blank froTit.*\ 



CONNECTION IN COMPOSITION. 69 

making them even turn comers to conduct them to a 
desirable position of exit, cannot be too seriously repre- 
hended. Underground flues, too, which must bo 
periodically opened to be cleaned, should never bo 
adopted save under those imperative circumstances 
which the most industrious ingenuity cannot avoid. 
Never allow two flues to unite in becoming one ; and 
above aU things, so arrange the floor and roof timbers, 
that there shall be no chance of their being carried 
(even by carelessness itself) into the flues, or within at 
least nine inches of them. Here let us remark, while 
the occasion so seriously calls for it, on the necessity of 
an architect never trusting to the sagacity of workmen 
— especially in the country. The common carpenter 
and rubble mason will each do hia work irrespective of 
the other's ; and, on visiting your building, you will 
very likely find that a joist or a purlin has little to 
divide it from the fury of a chimney on fire, except the 
plaster pargetting which lines the inside of the flue ! 
With equal care, look to the work which receives the 
hearths of the fire-places. " Brick trimmer arches '' may 
have been inserted in the specification ; but if there 
be not a clerk of the works to look after the building, 
it is by no means certain they will be constructed. 

Connecting Lines in Composition. — To recur to 
the subject of the offices and inferior buildings attached 
to the main structure. It may require some care to 
make a good: junction between the lower roof of the 
former with the higher one of the latter, unless the 
ridge of the one can be brought under the cornice or 
eaves of the other. Again, the union of the main and 
inferior structures should be so harmonized, by the use 
of certain string-courses or linos, common to both, as 
to show that the two or more parts are component 
features of one whole, the extension. o£ 'w^\Ocv.\a tv'^X* ^ 



70 HINTS TO YOUNG ARCHITECTS. 

much that of connection as continuity. Finally, it will 
be well to avoid the probability of future appended 
additions, as out-houses, lean-to's, &c. ; and never to 
put off the consideration of wood and coal houses, shoe 
and knife houses, dustholes and privies, until the mass 
of the building is up. 

Position of "Water-closets. — ^There is one par- 
ticular necessity in every good house which the young 
architect should consider from the very first. It is a 
necessity not often very successftilly met, because it is 
rarely considered until too late for. efficient manage- 
ment. "Water-closets are generally so placed as to 
make it a very difficult matter for ladies and gentlemen 
to conceal from one another the more humiliating 
circumstances of their common nature. It may be, 
that we are in England too nice on this point; but 
it is nevertheless a point on which an architect is 
privileged to exert his ingenuity. So place a water- 
closet that any one going in its direction, or returning, 
is not necessarily going to or coining from it. Secondly, 
let it be so located that its door cannot be seen from 
the hall, the staircase, or any important part of the 
house where the inmates are likely to be passing. 
Avoid, under any circumstances, putting it at the end 
of a long passage. Be still more particular in so 
placing the closet that the operations of the occupant 
and the apparatus shall not audibly announce them- 
selves to the sitters in the day-rooms or the sleepers in 
the bed-chambers. But, above all, let not the vicinity 
of the closet be made known by any offence to the nose 
of nice gentility. [One of the most desirable positions 
for a water-closet is on a landing, recessed, if possible, 
from the staircase. It there answers, in small houses, 
all the purposes of day and night use ; and if attached 
to a sink and lavatory as an isolatrng cihambervit be* 



POSITION OF WATER-CLOSETS. 71 

comes a higUy advantageous adjunct, adding materially 
to tlie comfortof a house. Itmay also frequently be placed 
at the side of the entrance accompanied by the same 
conveniences. As to the avoidance of noxious effluvia, 
the reader is referred to Part V., Section 3, Home 
Drainage.l On this last most important matter we would 
call particular attention to the following precautions. 
Avoid placing the cesspit within the building. See to 
the certain efficacy of the stench-trap at the foot of 
the soil-pipe. Let not the waste-pipe from the cistern 
enter the cesspit without the water first passing through 
a trap which shall prevent the ascent of effluvia into the 
locality of the cistern.* If the soil-pipe can be carried 
outside the wall, let it be so ; only take every care to 
prevent any of the pipes from being injured by frost, t 
Let not the cistern be uncovered to the air, lest the 
mouths of the pipes, &c., be choked with leaves or 
other matter carried there by wind or rain. 

Plumbers' "Work. — ^While on the subject of 
plumbers* work let us impress upon our young practi- 
tioner its foremost importance, and the necessity of 
giving the fullest description of it. It is usually too 
much generalised. Always employ rolls and drips to 
unite the sheets of lead. Do not use solder where it 
can be avoided. Leave the lead free to expand and 
contract. Cover the gutters with raised boarding. 
Provide capacious receiving-boxes at the heads of 
water-pipes. Take every precaution to prevent leaves 
and rubbish from collecting in the boxes and choking 
the pipes, and be equally carefiil to carry the water 
from the feet of the pipes immediately clear of the 
building and into the drains, otherwise they will only 
prove most injurious to the very stability of the 
building by soaking the foundations. 

* See page 201, 

t SoU-pipoB gbonld be encased eitliex in bxic'k. ox n?oq^ 



72 HINTS TO YOUNG AECHITECTS. 

Drains. — In constructing drains have a close regard 
to tlie facility of cleansing them, especially where they 
unite with the pipes; [at all junctions capped pipes 
should be used, J and be equally careful in the supply 
of traps to prevent the progress of rats and vermin. 
It is too commonly supposed that workmen will have 
an eye to all these obvious necessities, but workmen 
might as well imagine that ^heir tools will work 
of their own accord as might architects conceive 
that workmen are to be trusted without accurate descrip- 
tion and scrutinising supervision. "We thus mix up 
m.QTQ practical matters with matters of pure taste, as an 
example of the combined process which should ever be 
going on in the mind of the architect. 

In connection with the subject of drains we should 
not forget to mention the frequent advisability of con- 
structing a dry drain to preserve the face of the under- 
ground walling from damps ; * and, as a matter of equal 
importance, the young architect will not forget .the 
mischief of dry-rot, and the noisome exhalations of foul 
and stagnant air from beneath such grgund-floor or base- 
ment rooms as have not a free ventilation beneath their 
joists, effected by apertures and gratings in the outer 
walls. [Basements may be effectually ventilated by flues 
carried up from them at the side of other flues. By 
having hollow walls (see Part V., Sanitary Comtruetion) 
ventilation can easily be secured by providing apertures 
under basement ceiling into the hollow. These hollows 
also keep basement- walls thoroughly dry and supersede 
the necessity of dry areas.] 

We have 3Jlow disposed of the leading considerations 
which should be entertained by the young architect in 

* [A drj/ area formed by a wall slightly battered against the earth, or 
a semi-arched Tault resting against tiie walls of house, is best in some 
cases.] 



VIEWS OF EMPLOYERS. 73 

forming his plans and elevations of the general carcass 
of a dwelling-house, alluding to such paramount prac- 
tical matters as are necessary to ensure the comfort of 
its occupiers, without which all merits of architectural 
propriety and decorative beauty will be regarded as 
the mere impositions of taste to conceal defective con- 
venience and careless construction. People whoso 
tempers are disturbed by leaks, and offensive smells, 
by damps and smoky houses, or even by partial failures 
in design, will become proportionally blind to the 
numerous merits which may still remain ; and the 
architect, at the moment of signing his last certificate, 
" that the contractor has fulfilled all his duties in the 
most complete and workmanlike manner,'* may be, in 
effect, signing the declaration of his own inefficiency, 
and unconsciously entering on a period of much 
trouble and perplexity, when he imagines the comple- 
tion of a pleasing labour which is to establish his 
professional competency, and produce much future 
employment. To call his attention to the remaining 
numerous details of his work, the copious stock specifi- 
cation which forms the substantial worth of this volume 
will, we trust, be found sufficient ; or, at least, suffi- 
ciently assistant, in conjunction with his own acquired 
knowledge and sagacity. A studious and repeated 
perusal of Bartholomew's "Practical Architecture,'' 
Part I., will supply all that is hero omitted, and will 
afford not less information on the subject of the Beau- 
tiful than on that of the Constructive. 

Views of Employer. — It will now be as well to 
afford a few hints as to the relative position of the 
architect and his employer. The former usually errs 
in giving to the other a credit for thoroughly under^ 
standing his drawings ; while the latter equally errs 
in thinking that his architect is omuiscieut, uot owl^ m 



74 HINTS TO YOUNG ARCHITECTS. 

the general laws of design, but also in the particular 
fancies of individual patronage. Now the correction 
of the employer is out of the question. He must be 
taken as he is found; and the architect must then 
find out what he is, "hanging clogs on the nimble- 
ness of his own soul, that his patron may go along 
with him." What the employer sai/s is not invariably 
what he means ; and he does not always think that he 
is bound to say much to a professor who is supposed to 
know everything. He gives vague ideas of form and 
size and arrangement which the architect too hastily 
receives as positive instruction ; and, the result proving 
wrong, he is abused for not having acted in correction 
instead of obedience. 

Be cautious, then, in the first instance, of receiving 
as law the dimensions which are given for the required 
size of rooms. Show your employer an existing room 
of the form and size he describes, and learn that he 
means such a room. If you have not assured yourself 
of this, your troubles will begin before the walls are 
twelve inches above ground ; for he will then declare 
that the room is much less than the model chosen, and 
will hardly believe it to be otherwise, in spite of the arith- 
metic which shall be conclusive that it is so. Nothing 
is more deceptive than the appearance of comparative 
smallness in the rooms of a building only plinth higL 

Ocular Impressions. — Consider, secondly, that the 
mode of finishing rooms, — ^with a heavy, or light, 
cornice, — a dado, or only a simple skirting, — ^a plain 
or a richly decorated ceiling, — ^materially affects their 
apparent size ; the space taken from the plain part of 
the walls and ceiling being, in effect, equal to a 
diminution of actual capacity ; or, at least, to an 
alteration of its proportions. The annexed figures 
wiU iliu/Strate this fact. Seen in close proximity. 



OCVLAS, IMPEEaSIOWS. 



their sizes are observed to be the same; bat, looked 
at in separate 




your 
real dimension, 
— a question 
touching only his 
carpet - room, 
table, and chairs, 
— ^yoa may dis- 
appoint him in 
the expression of 
apparent dimen- 
sion, which is a 
qnefition of optics. 




Fig. 2. 



Real and Apparent Size. — The expresaion of rela- 
tive sizes and proportions ^ill, in fact, be the only 
certain assurance of the patron's complete approval, 
and thorougbly to effect this, a differing altitude, in 
rooms, &c,, of differing magnitudes in the same house, 
should be given where readily practicable. If, for 
instance, corridors of only six feet wide lead to rooms 
of sixteen feet wide, and both be of the same height, 
the former will appear too narrow, the latter too low. 
Both will be advantaged by diminishiag as much as 
may be the height of the corridor; and where the 
actual ceiling of the latter cannot (on account of tbe 
corresponding height of the doors or windows of both) 



s 2 



:elB3. 



76 



HINTS TO TOUKG ABCHITECl-S. 



be flufficiently lowered, a frieze, or entire entablature, 
with a higlier skirting, or a dado, may ep diminish the 
. , apparent height of the corridor 
"" -^ J: — ^' as to give it seeming width, 
and preserve undiminished the 
■ height of the room. Here in 
fact is the legitimate use of 
false or psendo- architecture; 
and there is no doubt that of 
two houses, the one well studied 
in these particulars, and the 
other not, the former vrill leave 
a general impression of spaciousness in all its rooms 
which m the latter will be wanting. 

Talue of Cornices. — Cornices will therefore be 

thrown flat on the ceiling; brought down upon the 

v^^^^«i wall ; with friezes ; or complete entah- 

f ^Z^ ^ latures ; either immediately connected , 
with the level ceiling, separated from 
it by a cove, or forming the imposts of 
a segment or circular ceiling, as the 
rooms and passages shall be relatively 
higher or lower. It is not merely to 
) please the eye of the critic that this is 
done He will indeed have the double 
pleasure of seeing it, and of knowing 
why he sees it ; but it is sufficient that 
your employer is well satisfied with the 
result, without any knowledge of the 
wherefore. 

WiNDOvrs. — Another point of frequent 
disappointment to your employer is the 
width or the height of windows, and 
more particnlarly of the position of their 
sills in relation to the iloot. 




I" 



WINDOWS. 77 

He may be pleased by their appearance in your 
elevations^ but he may have such particular notions of 
his own as to their effect inside the rooms, that a 
material and costly alteration may subsequently in- 
crease the bill of extras and affect the beauty of your 
exterior. Be clear, then, in the beginning, whether 
sliding sashes or French casements are to be insisted 
on. Whether the sitting or other room windows are 
to reach or nearly reach the floor, or whether there are 
to be backs and elbows ; and at what height the glazing 
is to commence. Forewarn him that French case- 
ments are, in this country, scarcely to be rendered 
weather-tight : that if they open outwards, they are 
liable to be dashed to pieces by the wind ; if inward, 
they interfere with curtains and defy falling Venetian 
blinds. Again, if there are to be outer folding shutter 
blinds^ your architraves or other dressings will be in 
the way ; outer shutters, in short, are most hostile to 
decorative dressings.* In large bay or triple windows, 
the management of the shutters should be considered 
even in the first sketch of your plan. They may be 
too wide to allow of the ordinary folding shutters in 
side boxings only ; there may be objections to form 
additional boxings against the muUions ; lifting shut- 
ters, from casings beneath the sill or the room floor, 
may be required. Leave not these considerations " for 
the future.'* Think of them at once. In domestic 
Oothic windows, especially, bo careful to anticipate. 
Midlions and transoms of stone demand the greatest 
care in forming a weather-tight meeting with case- 
ments of metal ; and muUions and transoms of wood 
will be tortured with the alternations of heat and wet. 
They are fearful contrivances to catch the beat of 

* Oatdde sliding sliaitera, or the kind of \)lixid caXL^d. ^^YiJ^Vo^^w.^^^ 
JU9 more impermeable to the ami and heat. 



78 I|INTS TO YOUNG ABCHITECTS. 

weather, and to hold it when caught, till it bubbles 
through the sash or casement joints, and calls for the 
housemaid to bring pots and pans to catch the unwel- 
come stream. Are casements, or sashes, to be used P If 
the former, the framing will be solid; if the latter, hollow 
cased. Are the sashes to rise through the transoms P 
Are the casements to open inwards or outwards P No- 
thing may be easier to the architect than such a sketch 
of a Gothic front as wiU fascinate his employer's eye. 

[The position and design of windows need the most 
careful thought on the part of an architect. As regards 
position in a room, they should be designed with 
especial reference not only to lighting but outlook.* A 
proportion of 2 to 1 or nearly that height Is reqiured for 
single openings in principal rooms, though a less height 
may be given in upper stories. The inter-fenestral 
spaces or piers should as a rule not be less than the 
width of clear opening, except in cases where wide 
centre windows are required to give b'ght, or to pro- 
duce effect. Jambs should be well splayed, and in 
dark confined neighbourhoods, the heads also should be 
splayed externally. In bedrooms, windows should be 
placed as high as possible both for ventilation and 
appearance; a deep dead space of walling over a 
window is oppressive and objectionable. As to the 
fiUing-in, sliding sashes are preferable to casements in 
all exposed situations, though they lend themselves 
with more difficulty to architectural appearance than 
French or midlioned casements. We have occa- 
sionally used horizontally sliding casements instead of 
hinged ones, and with good effect.] 

Sharp and vigorous touches of the pencil, pic- 
turesquely showing the moulded recesses of a Tudor 
window, are readily done ; but not so the contrivance 

* -Far principal windows, the south-eaBt ib poshsL^^ >ihft\se8\. ^^^^\>« 



architects' duties. 79 

of such working details as shall in execution preserve 
the pictorial and keep out the rain. Consider the cost 
of the long rod-bolts, and other expensive articles of 
copper and metal, which the pelting of the storm wiU 
render imperative. If these "appliances" be not 
thought of at the first, your employer will surely 
regard them, in their subsequent adoption, as remedial 
extras to make good radical defect. Our own per- 
plexities in these particulars have been j&equent and 
harassing, and we would put our yoimger brethren on 
their guard. Let them recollect, that, in a smart sketch, 
they draw out and sign a promissory note, which may re- 
quire all the wealth of their practical attainment to pay. 
Architects' Duties. — ^A gentleman, in employing 
an arehUect, will not fail to consider that he might do 
without one; and it is, therefore, under the impres- 
sion of something over and above what the builder 
could do for him, that he incurs the expense of pro- 
fessional advice and assistance. The least he has a 
right to expect, is the value of the artistical, in addi- 
tion to that of the practical; and he may reasonably 
expect yet more. Superiority of taste, and of in- 
genuity in arrangement, he wiU look for as a matter of 
course ; and it must be admitted that he has also a 
right to superior knowledge in respect to the econo- 
mical (and at the same time fully efficient) manage- 
ment of material and general construction. But he 
win frequently (and not with so much reason) look for 
more still, and be inclined to visit upon his architect 
those failures in particular construction which only 
good workmen can insure, imder the direction of the 
contracting builder, and the supervision of an ever- 
watchfiil clerk of the works, exclusively occupied on 
one job. It will be well, therefore, for the architect 
at once to undeceive hia employer in t\iia \as»\) ^"iixMv 



80 HINTS TO YOUNG ARCHITECTS. 

cular. He cannot be always present to see that the 
interior of the walls is well compacted with solid filling 
and sufficient mortar ; that foundations and drains, 
which are concealed as soon as laid, have been exe- 
cuted in thorough obedience to his specifications ; that 
every slate is properly nailed, and every piece of lead 
flashing inserted sufficiently in the masonry ; that all 
the carpentry is thoroughly sound and seasoned ; that 
all the joinery is properly " framed, glued, and 
blocked ; " that the plastering has been mixed in 
the prescribed proportions, and efficiently worked up ; 
that the flues are all of the full size and properly 
pargetted; that paving has been laid on a well-pre- 
pared bottom ; in short, he cannot, during only the 
occasional visits of inspection which he engages to 
afford, see into those parts of the work which have in 
the intervals been concealed; nor can he anticipate 
those future deficiencies, either in work or material, 
which may not show themselves in any degree until 
some time after the occupation of the premises. He 
will have done much in observing, that all, which 
from time to time remains developed to him, is effected 
to his satisfaction ; and his drawings and specifications 
will stiU remain, to justify, under any future chance of 
impeachment, their sufficiency as a means towards a 
satisfactory end. Even a contractor^ however-prac- 
tically competent, cannot be always on the spot ; and 
no merely ordinary foreman can be trusted in his 
stead, — ^because if he be so trustworthy, he is worthy 
of the double pay which will leave him an " ordinary 
foreman" no longer. 

Clerk of Works. — ^When an employer will not 

take upon himself the responsibility of trusting to the 

efficiency of the contractor and his men, the architect 

18 bound to insist on the engagement o5 «i. '^oil-tried 



DETAILS. 81 

clerk of the works. The author of these " Hints '* has 
suffered so much, from a too ready desire to save his 
employer the charge of a constant supervisor, that he 
cannot too strongly urge upon those whom he now 
addresses the advisability of having i^ clear imder- 
standing with their patrons on this point. 

Details. — ^To recur to a few inatters of taste in the 
interior finishings of houses. We recommend the 
young architect to provide a good and varied supply 
of specimen drawings for the enrichments of cornices, 
ceilings, internal dressings and panellings of doors and 
windows ; chimney-pieces of marble, for sitting and 
best bed rooms; of wood, combined with stone or 
marble, for bedrooms; of wood, with slate slips, to 
keep the former from the heat of the fire ; and of 
cheap simple chimney-pieces of Portland or slate, for 
kitchens, offices, and inferior rooms; designs for 
columned screens, dividing a long sitting-room into 
two compartments, and supporting a partition wall, or 
stack of chimneys, in the rooms above ; for columned 
or pilastered decorations for dining-room recesses ; for 
staircase or other lanterns, with their cornices, and 
the enriched soffits round their openings in the main 
ceiling ; for turned wood, or cast iron, stair balusters ; 
for cast-iron lights over entrance-door transoms. 

All these are matters in which the individual fancy 
of the architect, and the whim of his employer, may 
be more indulged than in those severer and more con- 
ventional features which constitute external architec- 
tural decoration and character; and the young pro- 
fessor, during the leisure of his yet only partially 
occupied time, may advantageously keep up his hand 
as a draughtsman, and invigorate his imagination as 
an artist, by studying them, and providing a series of 
such examples as will, hereafter at least, iproN^ ^vx^^'SiV 

£ 3 



82 HINTS TO YOUNG ARCHITECrrS. 

tive, if not ready at once for adoption. Employers can 
rarely see what they desire unless they first see some- 
thing like it. The slight sketches of these things 
which appear in small sections and elevations, or which 
are vaguely described in specifications, will merely 
serve as postponements of available consideration, and 
this wiU arrive at a period when you may regret not 
having entertained it before. Against a sketch or 
slight description, a contractor puts a low and uncon- 
sidef ed price ; and when your working drawings are after- 
wards made out, he considers them as much beyond the 
thing intended, as the employer thinks them beneath it. 
Ornament. — The economy of ornament is not so 
much shown in employing it only where most needed, 
as in sparingly employing it, with due relative pro- 
portion, in every place where it is needed at all. Thus, 
in all parts of a house which are seen in immediate and 
unconcealed connection with the principal rooms, theii* 
relationship to those rooms should be marked. As an 
instance of prevailing defect in this particular, we may 
allude to the application of bold and handsome cornices 
to staircases and the ceilings of staircase landings, 
while the plastered soffit of the stairs forms a plain and 
mean-looking junction with the face of the wall. You 
need not, it is true, continue the modillions of a land- 
ing cornice down the rake of the stair soffit to the floor; 
but you should imquestionably continue down it one 
or more of the upper mouldings of that cornice.* 
White plastered soffits are not, in fact, the most 
suitable to a range of wainscot stairs. Plaster ex' 
presses stone :t and no one would think of casing the 
ends, risers, and treads, of a flight of stone steps with 

* lit is Btrange that architects overlook the relief of their stair-soffita 
yVbjrebould they not have rakiug comioes? 
+ The inference here ia hardly logical ^soe DeAg^V^ 




DOUBLE DOORS. 83 

wood. The soffit of a wooden flight of stairs should, 
therefore, either be formed of wood panelling, or of 
plaster, papered orpainted 
in imitation of it : bat, 
under any drcomstances, 
forget not the raking , 
moulding. *£ven when 
the stairs are of stone, 
with under-cut mould- 
ings, we would still show the moulded work stopping 
short of the part of the stone inserted in the wall, 
forming the interrening part into a continuous raking 
line, and running under it the plaster moulding we 
have alluded to.* 

Hints on Comfort and Conveitiencb. 

Double doors.— In allusion to a few matters of com- 
fort and cottveHienec, we would hint at the Tirtuo of 
being a match for the occasional violence of gusty 
weather, in so contriving that two doors shall be passed 
before you are fairly in the body of the house. Thus 
on enclosed porch will enable you to shut the outer or 
porclt door, before the inner or passage door is opened. 
An entrance vestibule should, if possible, have only 
one outer door, and one inner door leading into the 
staircase or hall of common internal communication. 
The interception of through draughts cannot be too 
attentively considered. A range of doors, all openiiig 
one way, in a long passage with a window at each end, 
will often exhibit the very perfection of the evil ; and 
you may not expect your lady patroness to give much 
eulogy to the perspective of your corridor if she loses 
her cap in passing through it, and only gains in return 

• [Or the ends o£ ttew near the wall could ^n l«fb \n ^'n ^!D.^ 
B-iole section, the soffit oefog couDtefsank.'] 



84 



HINTS TO TODHQ ABCHXTECTS. 



a BOre tliroat. The air that can quietly and courteously 
insinuate itself into rooms under the bottoms of the 
doors, in the chinks between the casements and rebates, 
and through the fire-place, is a welcome and necessary 
guest ; but when it takes to slamming doors, breaking win- 
dows, and carrying hearth-rugs up the chimney, it is a 
symptom of some great want of caution in the architect. 
Position of Fire-place. — The best situation for fire- 
places in a large room is, unquestionably, in the centre 
of the longer side; and, for doore, close to the ex- 
tremity of the same. The worst position for doors is 
at the extremities of the walls at right angles to the 
fire-place side, looking directly over the length of the 
hearth. Where doors communicate between rooms, 
they wiU bo best placed in that part of the partition 
walls nearest the window side and furthest ^m the 
fire. In smaller rooms, where there is scarcely suf- 
ent room for a central fire-place, 
and itco doors equidistant from it 
on the same side, it is often better 
to put the fire opening in the 
centre of the length between the 
one door and the end of the wall. It is not only more 
comfortable, but, where there is no projecting chimney 
breast, more sightly, TJader some 
circumstances a perfect preservation 
of centrality may be obtained by 
the use of breaks or pilasters and 
ceiling beams, as the adjoined figure 
csomplifies. 

[Doors should be placed in such positions as will least 
destroy the privacy and comfort of a room. To place 
a door opposite a fire-place and in the centre of the 
wail of a room is manifestly bad ; it creates a direct 
draught oyer the most frequented, -gait of a room, 





FIREPLACES ^KITCHEN OFFICES. 85 

besides the inconyenience of intruding upon those 
seated round the table or fire. It should therefore be 
placed either at one end or in one of the comers of the 
room opposite the fireside.*] 

Warming and Ventiiation. — ^If any method of 
general warming and ventilation be required, it will be 
for the architect to choose from the number of patents 
and practices in vogue, and to prepare for them in his 
first plans. An early conference with the patentees or 
professors of these methods should be of course secured, 
and their proposed operations duly provided for.f 

Kitchen and Offices. — The perfection of kitchen 
and office comfort is, perhaps, a "consummation'* 
more ** devoutly to be wished'' than any other; for 
all others are especially dependent on it. Expect no 
master or mistress to be happy, while a cook, house- 
keeper, and butler are discontented. Keep the smell 
of the mutton fat, cabbage water and chopped onions 
out of the main house, for the sake of the hostess and 
her guests; but, for the united sake of all parties, 
make your kitchen, scullery, larder, store-room, and 
pantry replete in all the sufficiency of space, fittings, 
and communication. Old servants may have accom- 
modated themselves to old defects ; but the success of 
new and better arrangements will, for a length of 
time, remain problematical. Your only chance is to 
flatter old servants by consultation. Learn from them 
the merits and demerits of their present accommoda- 
tion ; submit the result of your ingenuity, and of their 
exactions, to the upper house ; and thence deduce a 
well-studied plan, to be again modified till you think 
both houses are satisfied. Forget not the cook's closet, 
the still-room, the china closet. Remember that, 

* Take care in planning 'bedrooms that the door does not occupy the 
bedstead's place, and that the door be hinged so as to screen the bed. 
t See SaniUuyr Construction, Warming, &o.,Parl\« 



86 HINTS TO YOUNG ARCHITECTS. 

besides a larder for cooked meat^ anotlier for hung 
meat, and a salting-room, may be required. The dairy 
may be insufficient without a scalding-room and a 
chuming-room. The butler's pantry may be incom- 
plete without a separate glass-washing and plate- 
cleaning room, and a strong closet for the security of 
plate not in constant use. Enable the housekeeper to 
have an eye on the cook, and the means (by a sliding 
door) of communicating with the kitchen without 
necessarily going into it. Keep the servants' hall 
and back entrance out of the way of the operations 
and runnings to and fro during the bustle of dinner ; 
but, at the same time, " handy '' for a speedy advance 
to the front door of the main house. Remember that 
a butler's satisfaction is improved by well-arranged 
cellars for beer, strong ale, wine in casks, and ditto in 
bins; and that a master's comfort is enhanced by ready 
access to the said cellars from his own part of the 
building. Forget not that it will be well if the brew- 
house is connected by pipes with the cellars; and 
especially bear in mind that pipes of wine which are 
from five to six feet long have to go lengthwise down 
an inclined plane and through doorways into the cask 
cellar. A corking-room and a bottle-room follow of 
course. Let your coal and fuel stores be prompt for 
the supply of offices and main house, and consider that 
coals are of at least two qualities, and must exist 
divided. Let your gallantry think of pretty maids 
carrying coal-scuttles in their hands without bonnets 
on their heads, and provide covered ways for their 
benefit. To the boot and knife house it may be well 
to add a brushing-room with a good stove in it, or a 
drying-closet for wet clothes. Let the wash-house 
j^JeM ita cleansed linen readily to the laundry, and the 
laundry its mangled and ironed, ditto to AJsi^ \ixiau- 



OONVBNIENCES ^LIFTS, ETC. 87 

room. Consult propriety in keeping the maids and the 
men-servants in a state of respectful separation, with 
separate staircases to their respective dormitories. 
Let the housekeeper's and butler's sleeping-rooms 
respectiyely command those of the former. 

Returning into the main house, we may mention the 
convenience of a waiting-room connected with the 
master's private room ; and again, connected with the 
latter, a fire-proof strong closet and a grm closet. A 
gentleman's bath and water-closet will be well added 
to this nest of conveniences : a second bath and closet 
for ladies being provided on the floor next above. On 
each floor a housemaid's closet will be most welcome, 
with a pipe jfrom the great reservoir in the roof, to 
supply each with water for the bedrooms. The conve- 
nience of a ready supply of water from one or more 
reservoirs (to be filled, when not supplied by the rain; 
with water ejected from the tank below by a force- 
pump) will be obvious. The water-closets, baths, 
butler's room, &c., will be jointly dependent on it. 
The matter of water, though mentioned late in this 
essay, will be among the first things considered by the 
young architect, who has, no doubt, an adequate know- 
ledge of well-sinking and steining. It only remains 
to hint at the policy of providing ordinary closets 
wherever a recess in the masonry may allow it ; for 
among the stronger impulses of woman is a passion for 
closets, shelves, rails, and pegs. To crown the ridge of 
this part of our fabric of hints we simply allude to a 
good and well-located dinner-bell. 

[In large establishments, and especially in towns 
where several stories are superimposed, the convenience 
of service lifts is great, and should not be improvided 
for. It is easy to provide a comer, a recess, or an 
irregular space witbin the kitchen, or &QiN\ii%-Ti^^xo.,Hsst 



88 HINTS TO YOUNG AKCHITECTS. 

sucli a purpose. Sometimes^ if the kitchen is on tlie 
ground-floor, a hatchway for serving to the dining- 
room obviates the necessity of the servants traversing 
the passages and, perhaps, entrance hall, coming in 
collision with visitors and guests, and not unfrequently 
rendering the dinner cold. It is a singular instance of 
English obstinacy and stubborn adherence to old usage, 
that the employment of lifts is so uncommon in private 
houses.] 

Stabling, &c. — The usual accompaniment of a good 
house is a good stable building ; and for many useful 
particulars on this subject, as well as in respect to farm 
buildings in general, we cannot do better than recom- 
mend Loudon's " Encyclopaedia of Cottage, Farm, and 
Villa Architecture.'' 

Let the young architect deny to none of his out- 
buildings the same amount of care which the main 
structure has had. All should show themselves to be 
of the same family. The stable court will often afford 
an opportunity for an advantageous display of simple 
and expressive architecture. The interior of the quad- 
rangle may exhibit the rough sketch of the more 
finished external fafades, which will admit of much 
characteristic decoration. For instance, the entrance 
into the court forming the centre-piece of a range of 
stables is a most legitimate opportimity for adopting 
the general form of the Roman triumphal arch ; * and, 
in fact, as good and handsome stables are becoming, more 
and more, one of the signs of squirearchical importance, 
the young architect will take the subject into his best 
consideration. The following hints may be of service. 

Space enough for a carriage to drive in, turn, and 

* however pardonable in its day we cannot approve our author's 
analogy. 



STABLES, ETC. 



89 



be backed easily into the coach-bouse, not less tban 
thirty feet wide. Large open porch before stable door 
for cleaning dirty horses in wet weather. Harness- 
room between the stable and coach-house, with an 
opening in the partition wall for an Arnott's stove, 
common to the coach-house and harness-room. It is 
most essential that both of these should be dry, and 
capable of being heated. Boxes not less than the 
width of two stalls; each stall and box having an 
efficient ventilating aperture close to the ceiling over 
the horse's head. In the loft over, avoid flat collar- 
beam roofe which thrust out 
the walls. The annexed is 
the ordinary roof adopted 
by the author. Let not 
your smallest stables be less 
than ten feet high to the 
under edge of the loft joists. 
Give larger stables one or 
two feet more. Avail your- 
self of the additional air 
space afforded by the depth 
of joists, by having no plastered ceiling; but be 
careAil that your floor boarding above is close, with 
ploughed and tongued joints. [It is a good plan to 
ventilate stables by carrying up wooden trunks through 
roof, with caps.] Let your stall^posts run up to take a 
head-piece to support the joists of the loft. If one side 
of your extreme stall be necessarily a wooden partition 
(which is not well), board it to the top : the kicking and 
movements of a restless horse will shake down plaster- 
ing. In coach-houses place guard stones, and form tram 
courses and stops, to prevent the wheels, &c., from 
rubbing against the walls and one another, and the 
backs of carriages from being injured agamefc \Ji\a\i^OK. ^1 




J 



d 



p^ 



90 HINT8 TO TOUNa ABCHITBCTS. 

the coach-house. Guard your doorposts with hard etone 
plinths to direct the wheels on being backed in. Seven 
feet clear space is ample for a carriage to paee through. 
Width of Slabks, Sfc. — Widfli of stables and 
depth of coach-houses not less than fifteen, commonly 
sixteen, and need not exceed eighteen feet. Entrance 
carriage-way into court not leas than ten feet clear. 

Stable Fiitings. — Gentlemen and iieir grooms 
didbr in the ideas to which tho following queries refer. 
The young architect will therefore inquire — General 
dimensions as to widths, depths, and heights? Are 
the stalls to have sucrfaco drainage to trickle into the 
open gutter at foot of stalls, 
as 1 P or a central cesspit 
and under gutter, as 3 ? 
and are they to be flat-paTed 
or pitch-paved ? (N.B. Be 
careful that the open gutter 
be not a trap to catch tho 
hoof. It should be so wide 
and shallow as to prevent 
this danger, or be covered with a grating.) Are the 
rack and manger to be of wood, level, and near the 
ground, as 1 P or one above 
the other, as 2 P or of cast 
iron, and placed as 3 P Is 
the hay to be thrown down 
from the loft into the rack, 
or brought to it irom a store 
on the groimd level ? Is 
the com to be in a chest 
below P or to be supplied into the stable by a 
trough connected with the com store in the loft? 
(N.B. Case your com chest with tinned sheet iron, 
or the rats and mice will work in.to it.) Is any 



Ln 


m 


.^ 



STABLE FimNGS. 91 

portion of tlie loft to be employed for men's 
sleeping-rooms P If so, there must be regular stairs ; 
otherwise a step-ladder may serve. Consider the 
position and provision of a door for admitting bay 
and com into the loft. Is there to be a crane^ or 
bracket with pulley, &c. ? Agree upon the position of 
the dung-pit, as convenient for the removal of the dung 
to the gardens or fields. Is it to be so constructed and 
cemented as to hold liquid manure P Can you unite 
the sewerage of the house with that of the stables P 
(Do not conduct the water from the roof pipes and the 
surface of yard into the liquid-manure tank.) Will 
the pebble stones of the vicinity afford good paving P 
or must you procure granite or other spalls for itP 
Bemember that the tread and kicking of horses will 
Boon disturb it, if it be not well bedded, close set, and 
well rammed. Defects in this particular are of great 
annoyance. Is a clock-tower required P a pigeon-house P 
a dog-kennel P Stable privies will, of course, be placed 
near the dung-pit. Are any open sheds required P 
carpenter's shop P smithery P well P watering-tank P 
separate horse infirmary P 

[Iron fittings, racks, mangers, open gutters, stall 
posts, ventilating ramps of cast iron, &c., now generally 
supersede wooden fittings in stables ; they take up less 
room, are cleaner and less absorbent, and far more 
durable than wood. One of the best improvements is 
the adoption of glazed or enamelled iron tiles for 
lining the heads of stalls and boxes. Iron casements 
and ventilating openings, and valves underneath the 
roof or ceiling, should be employed in all cases. For 
further information the yoimg architect is referred to 
the various catalogues and works issued by well-known 
manufacturers of stable fittings.] 

For more detailed information on ihis «vi^^^\)^ ^3Cl^ 



92 HINTS TO YOUNG ARCHITECTS. 

for abondant instruction in regard to farm buildings, 
&c., we again refer to Mr. Loudon's publications [or 
Mr. Repton's valuable works]. 

Lodges : their Style. — ^A word on the subject of 
lodges. They are too frequently more pretending in 
tbeir architectural appearance than perfect in their 
internal comfort. A living-room and a little closet of 
a sleeping-room are crammed into a Portland stone 
case ; and while the Greek order in its full external 
development emulates an Athenian Propyleum, there 
is little but dhovAQV within from the lack of those 
absolute conveniences which even the humblest 
cottager cannot do without. To preserve in cleanly 
neatness the day-room (in which nobility itself some- 
times takes shelter), and to prevent pots and pans 
from showing in the front of our Doric portico, there 
must be back rooms and back premises in reasonable 
sufficiency. The poor lodgekeeper is rarely admitted 
into those preparatory consultations which are open to 
the housekeeper, butler, and cook ; and it therefore 
behoves the architect to be his especial advocate. A 
lodge, in fact, should be a little home, and not a little 
temple.* There is not that difference between the lord 
of the mansion and the keeper of the gate that there is 
between a Christian and a house-dog. No man, who 
is in the service of his wealthier fellow, should live in 
a kennel, however smart its " complement extern." 
Occupy, then, that space which will allow of subdivi- 
sion into room for sitting and sleeping in comfort ; for 
stowage of food, crockery, and fuel ; for cooking and 
cleansing, and other necessary matters. Give the lodge- 
keeper his well and pump, or, at least, his tank and 

* Since our author's day, a less pretentious and more characteristic 
ireatment ia eyinced in these buudings, happily for the dignity of 
Art, 



BtTILDING COMMITTEES. 93 

filterer, tliat lie may not be denied the luxury allowed 
by teetotalism. 

In respect to the styky we tbink tbe principal en- 
trance lodge should be a fitting prologue to the 
'^swelling act of the imperial '^ mansion : true to it, in 
architectural character, as the mansion portico to the 
mansion itself. In the secondary and other lodges or 
cottages, the caprice of a taste for variety may be in- 
dulged. The lodge at the opening of the grand 
avenue should, assuredly, be prophetical of the grand 
structure at the end of it ; but there may well be, in 
other parts of the ground, the Gothic lodge, the Italian 
lodge, the thatched lodge, and the Strns cottage. The 
strictest epic poem admits its episode ; and the 
different pictorial aspects of different situations on a 
gentleman's estate may be suggestive of differing 
architectural models. 

Btjiij)ing Committees. — In regard to all public 
BUILDINGS, it would be impossible, in a work of this 
limited extent, to give anything like the detailed 
instruction which we have ventured to afford in 
respect to domestic buildings. A few cautionary hints 
on the manner of dealing with building committees 
will prove valuable. 

We suppose a case. 

You have, either by successful competition or 
immediate commission, obtained the opportunity of 
executing a church, or any other important structure, 
in which the opinions of a Board of Directors are to 
be collected and consulted. The most respectful 
attention, and the most penetrating efforts to discover 
the substance of those opinions, is, of course, your 
duty ; and it is not impossible that you may succeed 
in obtaining some manageable stuff to mould into 
form; hut, under any circumstanoea, \\. \^ ^^^tvssJ^^ 



94 HINTS TO YOUNG ARCHITECTS. 

you should "oppose your patience** to their per- 
plexities, and " arm yourself with a quietness of spirit 
to meet the probable tyranny of theirs." That they 
may have chosen your plan as the best of many, or 
that they may have approved your design on general 
grounds, must not leave you to imagine that the 
" working drawings" are all you have now to prepare, 
and the cares of uninterrupted supervision the only 
ones you have to encounter ; since all the raw ideas of 
improvement, which may successively and suddenly 
suggest themselves to the various members of the 
committee, must be disposed of either by the labour 
of incorporating them with your own, or by long and 
weighty arguments to prove them " frivolous," if not 
" vexatious." 

Necessity of authorised Instructions. — ^Take 
pains, then, to explain your drawings fully before full 
committee, and to get the signature of the chairman 
attached to them before you proceed with the execu- 
tive. Take especial care that the plans, to which your 
first estimate had reference, be preserved ; and that 
you obey no injunctions for increasing or altering those 
plans, without first giving in writing (of which you 
have a copy) a statement of the addition or deviation 
which will be thereby occasioned in the cost. Improve- 
ments will be constantly desired by unauthorised autho- 
rity, of which chairmanship takes no current note ; 
and, in the end, memory will only recognise the archi- 
tect's original estimate. 

Alterations and Additions. — Of course your 
alterations and additions will be shown in a new set 
of drawings ; the original set being put aside with its 
proper estimate. Be urgent in again and again 
begging the fullest consideration of your drawings and 
specidoationB before you go to public tender, impress- 



DRAWING XJP CONTRACT. 95 

ing upon the committee the impolicy of making altera- 
tions after a tender has been accepted. 

Detailed Quantities. — ^Make it, however, a con- 
dition with persons competing, that the one whose 
tender is accepted shall give ia his detailed quantities 
and prices. Before it is accepted, require him to abide 
by any mistakes he may haye made in the former, and 
to allow of any additions or reductions, at their Ml 
amount of quantity, and at the prices which he now 
gives in. It is his business to see that the quantities 
are sufficient ; i/ours, that the prices are not too high. 

It may be, on the reception of his tender, that there 
appear reasons for reducing or augmenting the work. 
If, however, this be not very important in its amount, 
it may not be necessary to make fresh drawings, &c., 
as the contract may be concluded iu reference to those 
already prepared, the deviations being shown iu making 
the working drawings, being only careful that, before 
the works commence, the diflference of cost be regularly 
recorded by the treasurer, and that the order for 
prbceeding be signed by the chairman. 

Drawing up Contract. — ^We may here remark on 
the advisability of an architect's being very clear in his 
notice to contractors, and in his instructions to the 
lawyer who draws up the contract. As a suggestion 
for the former we submit the following : — 



''To Builders and others. Persons 'willing to contract for the 

erection of a at , in the parish of , county 

of , may inspect the drawings and specifications at 

, from the day of until the 

—day of now next ensuing. Tenders to be givon in not 

later tlum o'clock on the . The advertisers do 

not engage to take the lowest tender ; nor will any he accepted unless 
the character, means, and sureties of the person oftering it be satis- 
factory, and the amount of the tender wiUiin a certain sum. All 
further particulars or explanation will be given by the Architect at 
his office ." 



Dated Siga^' ' 



96 HINTS TO YOUNG AECHITECTS. 

In addition to tlus^ many further cautions and inti- 
mations may be necessary, or, at least, advisable ; but 
these may be confined to the architect's office, or the 
room where the drawings are deposited : and it may be 
also urged, that all the parties tendering be required 
to put down their questions on a paper to which all 
shall have access, so that the replies attached shall by 
all be seen : the object being, that, in fairness, all may 
understand the architect's intention alike. State how 
the legal expenses are to be borne. 

Form of Agreement. — As lawyers invariably differ 
in their way of wording an agreement, an architect 
need be cautious how he ventures to act without their 
assistance. It is the author's practice to submit to 
the legal adviser of his employer a printed form, such 
as experience has enabled him to prepare. It has been 
often adopted at once, but still he ventures no further 
than to give its general substance, devoid of legal 
technicality. 

" John Stokes, of , in the parish of , in the comity 

of , having determined to erect a — at , in the 

parish of , county of , according to the drawings and 

specifications prepared by George Wightwick, Architect ; and William 

Styles, of , in the parish of , in the county of , 

Builders, being willing to contract for the execution of the works, the 

said Styles agrees for the sum of £ to perform them in a complete 

and workmanlike manner, agreeably, not only with the letter of the 
specification, and in conformity with the drawings now given, but also 
with the full intention of the specification, and conformably with other 
future drawings implied by the present, to the satisfaction of the Archi- 
tect of the said Stokes ; it being understood that Stokes will have the 
right of making any alterations or additions without vitiating the 
contract, and that the difierence in the cost, so occasioned, shall be 
estimated by his Architect : That, in the event of the Contractor's 
bankruptcy, or of his failing to proceed satisfactorily, either as it 
regards time, materials, or workmanship, his employer shall be at 
liberty to employ other workmen, and to pay them out of tho money 
which may yet remain unpaid to the Contractor, who will acknowledge 
that the amount of money he may have received before his bankruptcy 
is to be regarded as full payment for all the work he has done, as well 
as for all the materials, &c., which may be on the premises at the 
lime; and that if such remaining money and materials are insufficient, 
the residue must ho paid on demand out of the bankrupt's estate : that 



CERTIFICATES. 97 

no money aball be at any time paid, except under the Architect's certi- 
ficate that the works have been done satisfactorily; and that the 
Contractor, under certain penalties, shall bind himself to complete tho 

works on or before the day of y unless the Architect 

shall justify delay : that at certain stated periods of the work the 
Contractor shall receive money to the amount of two-thirds (or three- 
fourths) the yalue of work &ne, as the Architect G^all estimate it, 
and that the residue one-third (or one-fourtli) shall be paid within 

months after the completion of the works, provided no 

defects of workmanship or materials shall have shown themselves in 
that time ; such defects to be remedied by the Contractor before it b0 
paid." 

Giving Certificates. — ^We need hardly caution the 
young architect, before he gives a certificate, to be 
very scrutinising in valuing the executed work accord- 
ing to the proportional quantity , or, rather, with reference 
to the retention of a sum assuredly adequate to com- 
plete the building in the event of the contractor's 
failure. Bodies of men acting for the public have but 
little compassion for errors of judgment, still less of 
arithmetic. It is here that the detailed tender is of 
value. Try it, however, before you trust to it, and 
learn by the trial how to treat it in justice to yourself. 
Is it hard in an architect to bind a builder to his 
deficiencies of quantity or price ? It is equally hard 
upon himself; for he receives his percentage only on the 
amount of the deficient estimate ! It is a point of in- 
terest and honour in the contractor to take care that 
he has a proper price : it is a point of honour only in 
the architect — ^and against his interest — ^to see that the 
contractor keeps to his price though it be too low. 

Architect's Position. — The position which an archi- 
tect occupies relatively to his employer and the con- 
tractor is often very painful; and the very possible 
conclusion of a rupture with one, or the dissatisfaction 
of both, should so constantly be borne in mind, as to 
prevent too liberal a construction of the contract on 
the one hand, and too limited an one on the other. 
There is a natural tendency in all young and ardent 

P 



98 HINTS TO YOUNG ARCHITECTS. 

minds to trust to tlie generosity of their patrons, the 
liberal intentions of their builders, and the favour of 
circumstMices ; and it ia therefore the more necessary 
to impress upon the mind of the directing professor, 
that the patron and the contractor are equally trustful 
in the acuteness of the architect's foresight and in the 
clearness of his intentions. It is well to insert in the 
contract such a " saving clause " as the following : — 

** And the Contractor doth hereby admit that the said specifications 
and drawing are all-sufficient for me substantial and efficient erection 
of the buildings, &c. : " — 

but it will be worse than useless unless the architect, 
in the event of a dispute, is enabled to show and to 
prove that they really are so. A builder may justly 
conceive that what he ^understands is what you mean ; 
and he therefore unhesitatingly signs the admission 
you require. Be careful, then, that you do not wrong 
him by such vague clauses as may, in truth, be little 
more than concealments of your own practical de- 
ficiencies. 

With this we conclude our series of miscellaneous 
hints, and proceed in an attempt to facilitate the ope- 
ration of the young architect in drawing his atten- 
tion to such a methodical arrangement of practical 
detail as may enable him the more assuredly to perfect 
that most important of all means towards a " binding 
contract,'* — a complete specification. 

Only let him remember, that we profess to aid his 
experience, and not to supply his ignorance. 

* [It has been ruled that the architect is the agest of the employer 
for all purposes relating to the building, but it has not been decisively 
settled whether an architect has authority to order quantities and to 
bind the employer to pay for them. Architects have by custom an 
implied authority to do so, but this must always be proved. (See 
Hoon V. Guardians of Witney Union.)] 



PART IV. 

PRINCIPLES OF CONSTRFCTION. 

Section L 

The Mechanical PRiNaPLES of Construction. 
Equilibrium of Forces. — The foUowing is a summary 
of the most important principles upon which ,the 
balance and stability of structures depend ; and which 
is here given for the convenience of the young architect. 

1. Composition and Resolution of Forces. — If two 
forces acting upon a point be represented in magnitude and 
direction by tioo straight lines draicn from the pointy 
then the diagonal of the parallelogram described upon 
these lines will represent the resultant in magnitude and 
direction. 

Let the forces act along lines ox, oy (fig. 18), and let 
them be represented by oa and ob. Complete the 
parallelogram oacb, then the resultant force will act 
in the direction of the diagonal oc and be equal to it 
in magnitude. These three forces are consequently in 
equilibrium if we suppose the resultant oc to act in an 
opposite direction in the same line. When we thus 
find a single force which is equivalent to two others 
the parallelogram of forces becomes a rule for the com- 
position of foTcee, 

f2 



100 HINTS TO YOUNG ARCHITECTS. 

Now the resultant oc may be found by trigonometry 
thus:— 

oc = V OA^ + OB^ + 2 OA - OB COS. AOB. 

Its direction may be found by the formulae, 

o,. . OB . . OA 

Sin Aoc = 8%n AOB — . sm boc = sin aob — 

oc' oc 

When the two forces act on a point in directions 
which include a right angle, the case is one deserving 



>^:^ 




i^^ 



Fig. 18. 

particular notice of the architect, as in the thrusts of 
two arches or frames at right angles to each other. 
The solution is then simply by Euc. I. 47. 

where R represents resultant, p the force oa, and q the 
force ob. For example, if p be 15 lbs. and q be 8 lbs., 
then 

ii2 = (15)2 + (8)2 = 225 + 64 289, 

therefore R = 17. 

The above proposition may be stated in another way, 
which, from its simplicity and constant use, is of great 
value in designing structures. 



TRIANGLE OP FORCES. 101 

2. If three forces acting on a point he represented in 
magnitude and direction by the sides of a triangle taken in 
order, they mil keep the point in equilibrium. 

Let ABC be the triangle^ and let p,q and r be throe 
forces proportional to the sides bc, ca, ab, and re- 
spectively parallel to them — ^p parallel to bc, q parallel 



->7« 



to CA, and r parallel to ab. Then forces represented 
by bc, ca, and ab will keep the point at rest. The 
dotted lines show how the proposition may be proved 
by the parallelogram of forces, ab, ad, and ca being 
three forces in equilibrium. 

The above proposition is called ''The Triangle of 
Forces." 

The same question may be solved by calculation. 
Let p, Q and b be the magnitudes of the three forces, 
and dab, bac, cad the angles between their direc- 
tions ; then. 

Sin BAC : sin cad : sin dab : : p : r : q. 

Each of these forces is equal and opposite to the 
resultant of the other two ; or if three forces as above 
keep a point in equilibrium, each force is proportional 
to the sine of the angle between the directions of the 
other two. 

Another way of stating the same principle of great 
use in determining the strains upon frames, as roof 
trusses and the thrust of arches, is aa to\io^^\— 



102 HINTS TO YOUNG ARCHITECTS. 

If three forces acting on a point keep it in equi- 
librium, a triangle having its sides perpendicular to the 
directions of the forces may be drawn, the sides being 
respectively proportional to the forces perpendicular to 
them. 

Note, — Sometimes cases occur where it is easier to 
apply the latter method of finding the proportionate 
strains than that by parallel lines. The principle may 
be applied in determining the weights for arch stones 
in equilibrium (see section on Stability). 

3. If any number of forces act at a point and he 
represented in magnitude and direction by the sides of a 
polygon taken in order, they will be in equilibrium. 

Let p,Q,R,s be forces acting at a point. From any 
point A draw ab to represent p in magnitude and 
direction, draw bc to represent q, cd to represent r, 
and DE to represent s. Then ea will represent the 







p 



resultant in magnitude and direction, and these forces 
will be in equilibrium. This method is applicable to 
any number of forces, and is called " The Polygon of 
Forcea*' It is often necessary to determine the re- 
sultant of a system of forces acting at or through a 
point, or the thrusts of a polygonal frame of bars (see 
section on Stability). 

Note. — It is not necessary that the forces should 
lie in one plane. 
4. As wo can compound two forces into one so we 



RESOLUTION OP FORCES. 103 

can resolve one force into two others in given 
directions as ox, oy (fig. 18), For let oc represent 
a force. Draw a parallelogram obca having oc as a 
diagonal, then the force represented by oc is equal to 
two forces represented by ob and oa respectively. 
Thus, if we assign the directions of the two com- 
ponents we can readily resolve any force into them. 

One case deserves special notice. 

To resolve a force into two others at right angles to 
each other. 

Let AX, AY (fig. 21) be at right angles, and let a 
denote the angle rax, and r the force to be resolved, 
X and Y the required components, then, 

AX = AR cos a; ay = ar sin a ; 

X2 ^ \^ 3= r2 . ^^g^ ^ ^ ^^^2 ^J _. r2 

since sin^ a + cos^ a = 1. 

Thus any force p may be resolved 
into two others, f cos a and f sin a, 
which are rectangular components of 
the force p. 

One very general rule of great 
importance may be stated here. 

To find the resolved part of a force ^^S- 21. 

in any given direction. Multiply the expression for 
the force by the cosine of the angle between the given 
direction and that of the force. 

Ex. — Let a weight of one ton be drawn up an in- 
cline, and let its inclination to the horizon be 4°, then 
the resolved part of the weight parallel to the incline 
will be 1 X sin 4°, or 156-25 lbs., which will be the 
necessary force required, neglecting friction. The re- 
solved part of the weight, supported by the plane, will be 

1 ton X cos 4P = 2234-5 lbs. 

B, Another general case may be uo^^^il^ ^Q ^is^ 




104 HINTS TO YOUNG ARCHITECTS, 

the direction and magnitude of the resultant of any 
number of forces acting in a plane at one point. 

Assume any two directions at right angles as axes ; 
resolve each force into two components x,y, along 
those axes ; take the resultants of the components along 
the axes separately, and they will be the rectangular 
components of the resultant r of all the forces, thus — 

Let AX, AY denote the rectangular components, then 

R = Vax^ + AY^ 
and if 6 be the angle which ii makes with x 

cos 6 = — ; sin 6 = — ; ,•, tan 6 = — 
R R A x 

When the forces act in different planes. Assume any 
three directions at right angles to each other and 
resolve the forces along those axes, proceeding as 
before, or the resultant may be found graphically (3). 
6. Moments. — This is a principle of constant occur- 
rence and of great utility in construction, and one 
which the architect should be perfectly familiar with. 

The moment of a force 
^ with respect to any 

point, is the product of 
that force into the per- 
pendicular drawn from 
its line of action to the 
^^' ' point. Thus if ab be 

the line of action of a force, o any point, and p denote 
the force, its moment with respect to o is 

P X OM 

A coupk consists of two equal and opposite forces 
acting at right angles to a rigid rod. Thus ff repre- 
sent a couple of equal parallel and o]^ipo«vie ioT^<i^\ \.^ 



Mr 



2'^ 



F 



MOMEMTS. 105 

the perpendicular distance between tliem^ is called the 
arm or leverage, and the product, force x leverage, or f 
X t. is the moment of the couple. The tendency of a 
couple is to cause the plane of the couple to revolve, or 
to make a rigid rod twist about its middle point. 

The following important laws relating to moments 
should be known : — 

Anf/ number of forces acting in the same plane, and 
any point being taken in that plane, the sum of the 
moments of the forces tending to turn the plane in one 
direction about that point is equal to the sum of the 
moments of those tending to turn it in the opposite 
direction. 

It will be found moreover that if the forces acting 
upon different points of such a system be transferred 
to a single point and applied there, parallel to their 
original directions, they will hold it at rest. Thus 
forces acting as above are subject to the same con* 
ditions as those necessary to the equilibrium of forces 
at one point ; and also that the sums of their opposite 
moments about a given point are equal. 

Another interesting property may be noticed : since 
the area of any triangle is equal to half the product of 
the base into the altitude, the moment of a force may 
be geometrically represented by tunce the area of a 
triangle having for its base the given force, and for 
its altitude the perpendicular drawn from it to the apex. 
The following law results : — 

If any number of forces acting in one plane, and being 
in equilibrium, be represented by lines, and their ex- 
tremities be joined with any point, then the sum of the 
areas of the triangles formed which have for their bases 
forces tending to turn the system in one direction shall be 
equal to the sum of those tending to turn it in the other 
direction. 

f3 



J^... 



^r 



c --^, 



I 

1' 



106 HINTS TO YOUNG ARCHITECTS. 

The same truth may be stated thus : — The alge- 
braical sum of the moments of two forces round any 
point in their plane is equal to the moment of their 
resultant. 

Parallel Forces. 

7. The Principle of the Lever. — This principle 
rests upon the preceding, and is one of paramount 
importance. 

Let us take three parallel forces in one plane which 
2t balance each other. The sim- 

plest illustration of this is a rigid 
^ rod suspended from a point c as 
B in the common balance, and hav- 
ing two weights p and q attached 
\ to its extremities a and b. Then 
Fig. 23. if CA =jf? and cb = g^, we shall 

have the proportion — 

V : Q : : q : 2^, OT 
p X p= Q X q; 

or the relation may be expressed by saying that the 
moments of p and q about c are equal. 

This relation holds when the rod is not horizontal, 
for by similar triangles 

CA : CD : : cb : ce, or 

P X CA = Q X CB. 

The tension exerted by the third force, or the suspend- 
ing string (omitting weight of rod), will be equal to 
p + Q. 

Thus to find the relative proportions of three parallel 
forces in one plane which balance each other we draw 
a straight line across the lines of action of the forces ; 



PARALLEL FORCES ^THE LEVER. 107 

then each force will be proportional to the distance 
between the lines of action of the other two ; or in 
symbols— 

AB : BC : CA : : R : p : Q, and 
P + Q + R = o 

The proposition thus shown is true also of forces not 
parallel. 

Now a lever, which is a rod turning about a fixed 
point or fulcrum, is acted upon by three forces : viz, 
the weight to be raised, the power applied, and the 
reaction of the fulcrum. We may distinguish three 
kinds of lever : — 

1st. When the fiilcrum is between the ])ower and 
the weighty or a lever of the first kind. 

2nd. When the tceight acts between the fiJcrum 
and power y or a lever of the second kind. 

3rd. When the power acts between the tceight and 
the fulcrum, or a lever of the third kind. 

In each case we must have moment of power about 
fulcrum = moment of weight about same point, or 
in all three cases by the principle of the equality of 
moments (6). 

p X perpendicular from fulcrum = 
w X perpendicular from fulcrum. 

In levers of the first and second kinds the resistance 
generally exceeds the power; in the third it is less 
than the power. 

Since the lever in each case is held at rest by three 
forces, it follows that the directions of these forces 
must meet in a point ; thus if we produce the direc- 
tions of the power and weight to meet in a point, the 
direction of the third force or the reaction of fulcnun 
is through that point. 

Note. — The principle of the lever msc^ \i^ ^'^i^'^ifc^ 



108 HINTS TO YOUNG ARCHITECTS. 

from the parallelogram of forces, tliough it may inde- 
pendently be made the basis of statics. 

8. Centre of Gravity. — The centre of gravity of a 
body is a point through which the resultant of the 
weights of its elements passes in every position of the 
body. Now every body is composed of a number of 
forces acting in directions parallel to one another but 
not always in the same plane. To find the magnitude 
and direction of the resultant of such a system of 
parallel forces: Find the resultant of any two forces 
in one plane. Then, considering this resultant as a new 
force, let us find its resultant with a third force. This 
will be the resultant of the first three forces, and may be 
combined with a fourth, and so on. The amount of the 
last resultant found is the sum of the component forces. 

To determine the position of the centre of gravity 
of any system of bodies we have simply to assume 
three difierent planes at right angles to each other, 
and take the moments of those bodies from these three 
planes; the point of intersection of the three resultants 
thus obtained will be the centre required; for the 
moment of the resultant of any number of parallel 
forces, taken from any given plane parallel to them, is 
equal to the sum of the moments of all those forces 
from the same plane. 

9. Centres of Gtramty of Symmetrical Figures. — ^If a 
plane divides a figure into two symmetrical halves, 
the centre of gravity will be in that plane ; if it can be 
divided by two planes, the centre is in the line where 
the two planes cut each other ; if the figure can be 
symmetrically divided by three planes, the centre of 
gravity will be their point of intersection. A circle, a 
sphere, an ellipse, ellipsoid, &c., have their centres of 
gravity at their geometrical centres. These cases 

suppose the body to be of uniform density and weight. 




CENTRE OF GRA\^TY. 109 

Compound Figure. — ^In a figure of 
two parts, whose centres are known, 
A and B, draw a line a b. Multiply 
its length by the magnitude of either 
of the parts and divide by the whole 
magnitude ; the quotient will be the 
distance of the centre, c, from the centre 
of the other part ; or, ^. ^, 

^ BXAB F^ff-24. 

A C = 

A + B 

To find the centre of gravity of two heavy particles or 
weights : Join the particles by a line ab, and divide it at 
L, so that A L may be to l b as the weight at b is to that at a. 

A Parallelogram. — The centre of a parallelogram 
is at the intersection of the straight lines which join 
the middle points of opposite sides, or of the diagonals. 

A Triangle. — ^The centre of gravity of a triangle is 
found by following rule : Join the vertex or any angu- 
lar point with the middle point of the opposite side, 
then the centre is on this line at one-third of its 
length from the side. The centre coincides evidently 
with the centre of gravity of three equal heavy par- 
ticles placed at the angles of triangle. 

Triangular Pyramid. — ^The centre of gravity of a 
pyramid is determined thus : Join any angular point 
with the centre of gravity of the opposite face, then the 
centre is on this straight line at one-fourth its height 
from base. The same result holds for any pyramid 
having a polygonal base, and also for a cone. 

[For more extensive information on the subject of 
Mechanics and the demonstrative part of Statics, the 
reader is referred to Todhunter's "Mechanics for 
Beginners,'' Goodwin's " Statics," Twisden's " Practical 
Mechanics," and the more exhaustive works of Canon 
Moseley and Professor Rankine.} 



110 HINTS TO YOUNG ARCHITECTS. 

Section II. 

10. Balance and Stability of Structures. — "No 
part of the young architect's education, nor the natural 
gifts with which he may be endowed, which more 
especially fit him for an artist, as expertness with his 
pencil and brush, will compensate or make amends for 
a deficiency in the important subject of the present 
section, which lies at the very threshold of archi- 
tectural knowledge, and is the very basis upon which 
fine-art architecture rests. 

A thorough acquaintance with the preceding section, 
and the application of those principles to actual struc- 
tures in brick, stone, timber, iron, &c., is necessary 
before any attempt is made to design structures upon 
whose safety depend the lives of many engaged in 
their erection, as well as of those who occupy them. 

For a complete knowledge of construction, the reader 
is referred to Professor Rankine's works, or he may 
consult with advantage the various works on construc- 
tion in Weale's Series, and afterwards make himself 
familiar with the able treatises of Tredgold, Barlow, 
Hodgkinson, and others, on their special branches. 

It is simply proposed here to ofier a few hints and 
simple methods of testing the stability of structures, as 
abutments, walls, piers, arches, and the means of find- 
ing the strains on timber and iron constructions in a 
few ordinary cases. Practical architects, it is true, 
seldom resort to such methods of testing their work, 
and others do not take that trouble : in the former 
case actual experience and precedent is relied upon ; 
in the latter the indifierence proceeds from ignorance, 
or what is often the case, from a repugnance to what is 
deemed irksome and laborious. The young architect 
cannot be too forewarned against this snare. It pro- 



STABILITY OF WALLS, 



111 



ceeds from an ardent enthusiasm for the more artistic 
part of his profession, which often despises the critical, 
mathematical, and precise for the ideal result ; it allows 
the merely emotional to dominate, frequently to the 
neglect of truth and science. Let him, however, never 
neglect the essential, the mathematical, and exact for 
the sensuous impression, which is often unreliable ; the 
trouble the exeonination gives tends to verify and cor- 
rect the a)sthetic ideas, and may save the yoimg archi- 
tect the remorse of an unexpected failure or the ruin of 
his reputation. These remarks are more called for 
now, when the young enthusiast is so apt to consult 
his eye and imagination solely, and to place an unre- 
served faith in them. 

11. Stability of "Walls, &c. — The application of 
the Principle of Moments (Section I.) to the equili- 
brium and stability of walls is one of great importance. 

Let a B c D (fig. 25) be a section of a wall, acted on by a 





Fig. 25. Fig. 26. 

pressure p, in the direction p n ; it is clear that if wo 
neglect the adhesion of the mortar at any bed-joint as 
A B, and consider the wall as a continuous mass, there 
will be a certain pressure of p, which will just tend to 
turn it round the point a, and this pi^.^xjct^ ^'^ \i^ 



112 HINTS TO YOUNG ARCHITECTS. 

the greatest the wall can support. This pressure is 
determined by the rule that its moment about th« point 
A shall equal the moment of the weight of the wall 
about the same point. 

Ez. — Let a wall of brickwork (fig. 25), 18 inches thick 
and 25 leet high, sustain on the inner edge of its summit 
a pressure on each foot of its length at an angle of 60'^ 
with the horizon. To find the greatest pressure that 
the wall can bear without being overturned proceed as 
follows : — Draw the section of wall to scale. Make the 
angle b n n equal 30^ which the direction of pressure 
makes to the wall, draw a n perpendicular to p n, and 
through the centre of gravity of wall g draw the ver- 
tical G M, cutting its base in m, then by the Principle 
pf Moments, pxan = v^xam;w being the weight, 
which if ,we put at 4200 lbs., the pressure p will equal 
by construction 286 lbs., or that force which just 
balances the weight of wall. From such a determination 
it is easy to increase the thickness of wall at its base, 
especially to ensure the requisite amount of stability. 

Buttresses. — It will be observed that by placing 
buttresses at intervals along the wall the effect is to 
diminish the moment of p, and to increase the weight 
of wall ; also if the weight of the buttresses is consi- 
dered, the moment of the weight of wall is increased. 
In most buildings the thrust at the simimit of wall is 
concentrated at the buttresses, as in the case of groined 
vaults, and the intervening walling bears little or no 
pressure ; in such cases, if in equilibrio, the moment of 
lateral thrust equals that of the weight of buttresses. 
The plates upon which the rafters of a roof pitch, 
however, tend to equalise the thrusts, and each but- 
tress with its adjacent halves of walling must be taken 
into the calculation in finding the moment of weight. 
The pressures to which walls are generally exposed 



STABILITY OF WALLS. 113 

are tliose occasioned by the thrust of arches, yaults^ 
and roof principals. 

Modes of Failure. — Walls may yield in different 
ways ; 1st, by one portion sliding upon the other ; 
2nd, by some portion turning over about one of the 
edges or bed-joints ; 3rd, by crushing of the material, 
the pressure exceeding its cohesive strength. In the 
method above given, the second of these failures only 
is considered, the resistance offered by the friction of 
the mortar being generally sufficient to prevent the 
mere sliding of the material ; therefore, in taking the 
moments, the lowest bed-joint should be taken, or that 
just above the ground. Walls often fail from the 
ground yielding under the pressure caused by a thrust ; 
the wall then becomes a powerful lever. 

Another way of regarding the stability of walls is as 
follows : — 

Let A B c D (fig. 26) be a wall sustaining a pressure 
p, acting in the direction p g, and let g ^i be the direc- 
tion of the weight of wall, acting through its centre 
of gravity, intersecting the former pressure in g. Set 
off G I to represent the weight of wall, and gf the 
pressure; then the diagonal gh will bo their re- 
sultant, acting in the line g h k. 

Let NO be a joint; then if the angle kgm, which 
the resultant makes with the perpendicular, be greater 
than the limiting angle of resistance,* the upper 
portion will slide upon the lower, noab (friction 
being neglected) ; if, on the contrary, the angle made 
by the resultant is less than the limiting angle of 
resistance, the parts cannot slide upon each other, and 

• The " limiting angle of resistance " is the greatest angle which the 
reaction of a surmce in contact makes with the normal to it, without 
motion. Its value varies for different materials. It is of great im- 
portance in the investigation of stuhility oi aicVvc^^ «ciA ^vsi^ Vy:^ 



114 HINTS TO YOUNG ARCHITECTS. 

the stability will be greatest if the resultant, g k, is 
perpendicular to this joint, or ensured if it passes 
within the base of wall. If it passes tvithout, the 
wall will be weakest at the nearest joint, as no, the 
upper part tending to turn on its outer edge n. 

It is evident the pressure upon such a joint, when 
the resultant acts near one edge of the wall, is one of 
varying intensity; and in designing abutments and 
lofty towers, or chimney shafts, the resistance offered 
by the material at such an edge must be sufficient to 
prevent its crushing ; hence the stability of walls and 
piers, &c., depends upon the magnitude and direction 
of the resultant of the pressure from without, as thrust, 
force of wind, &c., and the weight of structure itself 
combined. Inattention to this, or the supposition that 
the whole base or section of a wall receives the pressures, 
has been the source of many lamentable failures, and 
accidents to life and property. 

Professor Rankine gives the following rules : — 

Given the load on a bed-joint and the position of the 
centre of pressure, to find approximately the intensity 
of pressure at the nearest edge. 

In abutments of arches, divide ttcice the load by the 
area of the bed ; in retaining- walls multiply the breadth 
of the bed by once and a half the distance of the centre 
of pressure from the nearest edge, and with the product 
divide the load ; the quotient is the required intensity. 

The intensity thus found should not exceed one" 
eighth of the crushing strength of material. The 
moment of stability of an abutment may be calculated 
thus: Multiply the superincumbent weight of mass 
above bed-joint by the distance of the vertical line 
through centre of gravity, from the limiting position* 
of the centre of pressure of the bed-joint. 

* i.e. safety against ovexlxmmis. 



LINE OF RESISTANCE. 



115 



Practical experience has fixed the greatest deviation of 
the centre of pressure from the centre of wall or pier at from 
0*3 to 0*375 the whole thickness of wall at the bed-joint. 

The Line of Resistance. — It is obvious that the 
stability of a wall or pier, under any pressure, depends 
on two conditions being fulfilled — 1st, that its 
surfaces of contact, or joints, should not slide upon one 
another ; and 2nd, that the pressure should not be 
such as to cause any portion to turn upon its edge. 

Let A BCD represent any structure with horizontal 
courses, 1 2, 3 4, 5 6, &c., and let it be subjected to any 
pressure p, along the line p a. Now this pressure at 
every joint is compounded with 
the weight of the stone, or mass, 
above it. Thus the pressure p a 
produced would cut the joint 1 2, 
in d^ but the weight of mass 
AB 1 2 is another pressure, and 
the resultant (r) of these two 
pressures would evidently cut 
the joint 1 2 at some determinate 
I)oint as J. Now the direction 
of a & is J', but the total pressure 
will be as before, the resultant 
(Rj) of Ri and the weight of mass 12 3 4, and so 
on, the original force, p, being deflected from the 
straight line at every joint, forming a polygonal 
line, a,b,c,d,e, as the resultant of the insistent 
pressures. This line has been called by Professor 
Moseley the " line of resistance,'' the resisting points of 
the different surfaces being all in that line. 

Now it is a condition of stability that this line of 
resistance shall intersect every joint of the structure 
and pass mithtn the mass of it. The line of resistance 
continually approaches the extrados or owtet ^vxtfaa^ ^1 




Fior. 27. 



116 HINTS TO Y0X3NG ARCHITECTS. 

a wall ; hence, if its lowest joint is cut by this line the 
wall is stable ; if it cuts the extrados, unstable. The 
line may be shown to be a hyperbola, though its deter- 
mination in walls of ordinary section is seldom required. 

12. Pressure of Wind. — ^The usual allowance for 
the force of wind in Great Britain is 65 lbs. per square 
foot. To find the pressure against a circular chimney 
or tower, take half the area of its vertical cross-section 
and multiply by the above pressure per square foot of 
area; the resultant of this pressure will act at the 
centre of magnitude of the vertical area exposed. The 
moment of the pressure may be found by multiplying 
its amount by the height of its resultant above base. 

13. Pressure of Water. — The pressure of water 

against each foot in breadth of a vertical plane is found to 

depth^ 
= — ^ — X the weight of water (62 '5 lbs. per cubic foot). 

14. Retaining Walls. — The centre of pressure of 
a rectangular vertical wall, subjected to the pressure 
of earth or water, is at two-thirds of the total depth 
from the upper surface, and the direction of the 
pressure is horizontal. 

To find the thickness for a vertical retaining wall of 
rectangular section supporting a bank of earth of the 
same height, 

Let If/ be the weight of earth ; (f) its angle of repose 

or natural slope ; - the ratio of lateral to vertical 

P 
pressure of the layers of earth ; h = height of wall, 

w = its weight ; and q = ratio of intended deviation 
of centre of pressure from centre of base to the re- 
quired thickness, t. For bank in horizontal layers— 

Fanciaons of 0. 

/ . t . ^ 25° 30° 35° 
p J — Sin (b 

- = , ~j—T~ = -406 -S^^ *^1\ 



-: = V(- 



RETAINING WALLS. 
iJp' \ .. 3 



6qtap 



j; if s' = -, then 



117 






Ra& 




In a reservoir wall - = 1.* 

or brickwork of 
retaining walls 
should be di- 
minished by steps, 
the diminution 
being filled with 
solid material of 
equal weight. The 
fax5e of the wall ^»- 28. 

should be battered (straight or curved). 

Table of Natural Slopxs of Eabth. 

Angle of repoEO0. 

Dry sand, clay, and mixed earth 37'' to 21° 

Damp clay 45° 

Wetclay 16° 

Shingle and gravel 48° to 35° 

The most usual dopes are 1^ to 1, and 2 to 1. 

F&E88UBE ON FOUNDATIONS. 

Tons on square foot. 

Bock, moderately hard 9*0 

Good concrete 3*0 

Soft rock 1-8 

Firm earth, clay, clean dry. gravel, 
sharp sand prevented from spread- ) 1 to 1*5 
ing. 



* Fig. 28 shows a retaining wall supporting a hank of earth just on 
the point of slipping ; h b is tiie plane at which the earth d h b sepa- 
rates. The pressures acting upon this wedge of earth are its weight 
denoted by oi, and the resistance of wall r, the resultant of these 
being the pressure against the plane h b, this resultant making with 
the perpendicular to s b, the limiting angle of resistance. The greatest 
pressure is found to be when tlie angle dbh = ^dbk; hence it 
is, as the weight of earth is to its pressure against the wall, so is 

the height of wall to bh; and the pressure against wall= — ^ x 

weight of cubic foot of earth acting at a point one-third from base. The 

formula usually employed iS| Horizontal resistance = — r- tan^ \ a ; 

w being weight j^er cubic root of bank *, ^ => Vqi^I q1 '^^^ ^ti\ q. ^=:> 
angle ofropose with vertical* 



118 HINTS TO YOUNG ARCHITECTS. 

Dams, Dock and Quay "Walls*. — The pressure of 
water increases with its depth simply ; therefore, to 
determine the pressure against any surface, whatever 
its position, vertical, inclined, or horizontal, multiply 
the area of surface by the depth, in feet, of its centre 
of gravity, below surface of water, and by 62*5 lbs., 
the weight of a cubic foot. The pressure at any point 
= depth in feet x 62^. 

15. Aeches of Brick and Stone. — ^Few structures 
have received so great an amount of attention and learned 
theory from mathematicians as the arch. Various 
theories have been propounded, though generaUy the 
practical conditions have been neglected ; thearch stones, 
or " voussoirs," being regarded as smooth bodies devoid 
of cement and free from friction. The elaborate theories 
of such writers, while interesting, as evincing much 
ingenuity and mathematical investigation, and as a 
study of a speculative kind, must be regarded by the 
young architect as useful only in directing his mind to 
conceive the mechanical conditions involved, and to 
enable him to distribute his weights, and to proportion 
his structiire to the greatest advantage. 

Arch of Eqtiilihrium, — The arch of equilibrium is 
thus far a useful problem. Perhaps the best theory on 
the subject is that of Canon Moseley, published in his 
able work on" The Mechanical Principles of Engineering 
and Architecture," to which the young architect is re- 
ferred for a complete investigation of the subject of the 
arch. 

In actual practice the element of the cohesion of the 
cement must be taken into account, and the mode in 
which an arch actually fails gives us the best means of 
determining the stability required. 

When an arch is not in a condition of equilibrium, 
or overloaded, and . the action of the cement is con- 








THEORY OF THE ARCH. 119 

sidered, it is found to yield by turning upon certain 
joints, and separating into four segments, or portions, 
as in fig. 29. This mode of failure is caused by the line of 
pressure * cutting the .4 

extradoB at the crown 
A, and iAieintrados at 
the points b and c, 
called the " points of 
rupture," the arch 
separating at the 
nearest or weakest 
joints to such places. Fig. 29. 

some portions turning upon their inner edges, b and 
c, as on a pivot, and some upon their outer edges, as 
at A^ thus causing the arch to sink at the crown and 
rise at the haunches. Experiments have shown this 
to be precisely the case. It is evident that the line of 
pressure is dependent upon the weight or amount 
of the horizontal force at the crown. The greatest 
value of this force consistent with equilibrium is that 
which causes the line of pressure to touch the extra- 
dos ; its least value when it touches the intrados, and 
when the pressure upon the keystone is the least 
possible which would support either semi-arch. It is 
evident also that the horizontal force at the crown is 
increased by the load over it, and that the stability of 
the arch is dependent upon the depth of keystone and 
he cohesive resistance of the material. 

Again, if there be a deficiency of weight at the 
crown, the line of pressure falls below the intrados at 
the crown and rises above the extrados at b and c, 
causing a depression at the haunches and a rising at 

* The Une of pressure is the direction of the resultant^ of the pres- 
sures on the different joints of arch stones (see equilibrium of poly- 
gonal frame of bars). 



120 HINTS TO YOUNG ARCHITECTS. 

the crown. It is thus seen that there are certain limits 
within which the stabihty of an arch is secure, as when 
the line of pressure is within the substance of the arch 
ring, or does not pass without its boundaries ; but that 
when this line deviates so far as to cut the extrados 
and thus destroy the equilibrium, the stability is 
endangered. The greatest stability is ensured, there- 
fore, by the line of pressure being made to cut all the 
joints, or to pass within the middle portion of the arch 
ring. Professor Rankine observes it should be within 
the middle third of the arch thickness.* 

Hence the stability of an arch is directly propor- 
tional to the depth of its keystone multiplied by the 
crushing strength of the material, and is inversely pro- 
portional to its radius of curvature multiplied by the 
weight on each square foot of the keystone. 

Professor Rankine gives a rough approximation to 
the horizontal thrust of an arch as follows : — 

Take the weight of the vertical load supported 
between the crown of arch and that point in the arch 
ring where its inclination to the vertical is 45°. 

The stability of an arch may be tested as follows : — 

Let ABC be a semi-arch, def its abutment, and c 
the joint of rupture. Through the centre of gravity of 
the load between the crown a and the point of rupture, c, 
draw a vertical line. Then, if from a point as m in that 
line, two lines can be drawn, one as a tangent to the 

* The line of pressure in an arch is generally that of an equili- 
brated or inverted catenary, or ** curve of equilibrium,** and under 
vertical loads it is very suitable. If a linear arch or rib balanced 
under the real forces which act on the real arch can bo drawn within 
the middle portion of the arch ring, the stability of the arch is secure. 
The linear^ rib or ideal curve so drawn may be the hydrostatic arch 
or that suited for equal pressures. It is necessary to assume such 
linear arch parallel to the intrados of the proposed arch. For methods 
of describing these the reader is referred to Rankine's "Applied 
Mechanics.'* Such precautions are, however, unnecessary in design- 
ing arches of ordinary span, in which the bond of brickwork and 
mortar are taken into account. A pointed arch requires a greater load 
at ibe crown than a circular or flat aich, "bxxtl^&a iXjuVxaRroX.* 



THEORY OF THE ARCH. 



J21 




Pig. 80. 



assumed arch curve or centre line at tbe joint of rupture, 

and the other horizontal, so that the former line shall 

cut the joint of 

rupture, and the 

latter the yertical 

joint at the crown 

in points which 

are both within 

the middle third of 

the arch ring, the 

stability of the arch 

is secure. In this 

case the stability is tested to the point of rupture 

only ; bolow that point it is assumed to be stable. 
For the stability of the abutments, the rule for 

finding that for piers (Sect. II. 11) is applicable ; the 

horizontal pressure of the arch being first found, 

the stability of the abutment will be measured by 
the moment of its weight about its outer edge at the 
base ; or, to ensure stability, the moment of its weight 
about the said point added to that of upper segment, 
should exceed the moment of the thrust or weight of the 
opposite semi-arch, taken acting at the point of rup- 
ture ; or the sum of the moments of the weight of pier 
and surcharge should exceed moment of thrust. 

Practically, and regarding the 
bond and cohesion of mortar, the 
active thrust of an arch is as 
the horizontal component, ab, of 
the load on an inclined rigid bar, 
AC, fig. 31, from the point of 
rupture to the extrados at the 
crown, or as the thrusts of two 
inclined beams. 

The chief object in investi- Fi%« ^^« 

gnting the BtabUity of the arch ia to ftnSc \)tia \^^^;assJM5i 




122 HINTS TO YOUNG ARCHITECTS. 

thickness of tlie abutments to resist the thrust, it being 
premised that the pressure upon any joint between 
the voussoirs should be such as not to exceed a safe 
resisting power of the materials of the voussoirs. 

For an investigation into the subject of arches and 
domes the reader is also referred to the concise work of 
Mr. Tarn on the " Science of Building.'' * 

Angle of Rupture, — In circular arches the angle of 
rupture is found to lie between 45° and 65° ; and hence, 
if the squared backing is carried up to an angle of 45° 
to the horizon it will be sufficient. 

Depth of -ffeys^ow^.-^Rankine gives from 20 to 40 
as good medium values of the excess which should 
exist beyond the depth of keystone necessary to resist 
the crushing of the material, as founded on the best 
existing examples. He also gives the following 
empirical rule : — 

Take a mean proportional between the radius of 
curvature of the intrados at crown, and a constant 
whose values are as under for the depth of keystone, or 
Depth of keystone for a single arch in feet 

= ^/ ('12 X radius at crown). 

Depth for an arch of a series as an arcade, 

= \/ ('17 X radius at crown), 

or " for equally intense external loads and equal angles 
of rupture, the square of the thickness of keystone 
should vary as the radius of intrados.'* 

Abutments. — ^In some of the best examples of 
bridges the thickness of the abutments ranges from 
l-3rd to l-5th of the radius of curvature of arch at its 
crown. 

Piers. — For piers of a series of arches, the com- 
mon thickness is from l-6th to l-7th of span. All 

* Lockwood & Co. 



STABILITY AND STKENGTH OF BEAMS. 123 



• 
» 



large abutments should be built hollow, with "jack 
arches, and have inverted arches at the foundations to 
distribute the pressure. 

16. Cupolas ob Domes depend upon similar principles 
for their stability as the arch, ai^ a dome may be con- 
sidered to be composed of a number of portions, or 
vertical ribs, cut by planes whose intersections are in 
the vertical axis of the dome. All domes exercise a 
horizontal thrujst upon their supporting walls or 
" drum," and therefore require iron bands, or chains, 
inserted at, or just above, the springing. The 
weakest joint of a hemispherical dome is found to be 
that which makes 20° with the horizontal ; and it is at 
this joint the thrust is greatest. 

In Gothic or Pointed domes, the angle is smaller. 

Stability and Strength op Beams. 

17. Case I. — Suppose a beam (fig. 32) supported at 
its ends, A and b, and loaded at some intermediate 
point, l. Let the supporting pressures and direction 
of the load be parallel to each other, as in figure, 
where p represents the resultant of the load, including 
weight of beam. Then, according to the principle of 
the lever (Sect. I. fig. 23), each of the three forces is 
proportional to the distance between the lines of action 
of the other two, the load being the sum of the two 
supporting pressures, or — 

p : Rj : Kg • • A.B : lb : la, and — 

p = Rl + R2 

Case II. — Let the beam be inclined (fig. 33) so that 
the pressures and load are not parallel as ab. As the 
forces are in equilibrium, their lines of action must 
meet in one pointy o, and are pTopoitioi\sl \j^ \!s^<^ *^^^ 

g2 



124 



HINTS TO YOUNG ARCHITECTS. 



sides of a triangle respectively parallel to tlieir 

directions. 

To find the directions and magnitudes of the 

f^ ^ ^ supporting forces. — Let p be 



M 



I. 



the resultant of load or weight 
of beam acting through its 
centre of gravity, l, and a and 
B the supporting forces. Pro- 




Fig. 32. 

duce the line of action of b or r^ till it cuts the ver- 
tical line CLP in o. Join oa and it will be the line 
of action of the support a. 

To find the forces. — Set off on the vertical line op 

j^ the weight as ol to scale, and 

y • ^xj^^d f ^lirough L draw a line parallel 

^1 to the horizontal pressure, r^, 

meeting oa in Rg, then the sides 

'^ of the triangle thus formed will 

give the ratios of the forces 
Fig. 33. thus — 

OL = weight; ORg = supporting pressure, a; and LR2 = 
supporting pressure, b. Or, algebraically, if a and b 
denote the angles made by the lines of action of the 
supports with the vertical line of load, then — 

p : Rj : Rg : : sin (a + b) : sin b : sin a. 

Case III. — One of the most useful cases is that of 

two beams abutting against 

each other at their upper 

ends, and against two walls 

or supports at their lower 

ends, and loaded at the apex, 

as AB, AC, fig. 34. 

Fig. 34. To find the strains along 

each beam and the thrust against walls, — ^By the paral- 

lelogram of forces (Sect. I.) xeaolve the load along the 




EFFECT OF POSITION. 



125 




Fig. 35. 



beams thus : make Ae equal the load ; draw ca i)arallel 
to AC and ed parallel to ab ; also draw ab, cd pcrpen* 
dicular to a« ; then the strain on 
AB = a A. or edy and that on ac = 
Adorae. Each of these strains can 
be resolved also into vertical and 
horizontal components thus: — a a 
into Ab acting vertically, and into 
a b acting horizontally ; also a d can 
be resolved into ac acting vertically, and cd horizon- 
tally ; or, by symbols, putting a and b for the respective 
angles made by the beams with the vertical or load — 

P : 14 : Rj : : «m (rt + J) : sin b : sin a. 

The amount of weight on each wall depends on the 

inclination of the two beams; 

in the figure the wall at c sustains j 

the greatest weight; the hori- | 

zontal strains, however, will bo ^ 

found equal. - 

18. Effect of Position. — ^In 
designing any assemblage of ^^ 
beams or bars, the relative posi- |--^ 
tions of the pieces must be con- V 
sidered. For example, in the case Fig. 36. 

of a crane, we have a strut and tie, one piece sustaining 
a compressive and the other a tensile strain ; and these 
will depend on their relative inclination to the action of 
the load. 

Thus in fig. 35, ab sustains compression, and ac 
tension, but both strains are equal. 

In fig. 36, the strains are greatest with the same 
weight, and the piece ba has the greatest strain, as 
will be seen by the dotted parallelogram. 

The young architect cannot be too "^^vcsviJax \^ 




126 HINTS TO YOUNG ARCHITECTS. 

considering the relative strains wliicli different posi- 
tions create, by constructing the parallelogram of 
strains for himself, and thus determining the kind of 
joints or abutment necessary, and the sectional areas of 
his timbers to support these strains. 

It will be readily seen that the last case noticed, that 
of a crane, is of common occurrence in roof-framing, 
as in the instance of a principal rafter and strut, or 
that of a hammer-beam and strut. It is particularly 
necessary to discriminate carefully between pieces 
subject to compression, tension, or cross strain. 

Note. — ^It will be observed that there are two 
methods available for finding the strains in structures, 
the first and simplest being that by constructing the 
parallelogram or triangle offerees called the " graphical" 
method ; the second and most accurate by the applica- 
tion of trigonometry, or by calculation (see Sect. I.). 
For all practical purposes the graphical method is 
suflBciently accurate, is less liable to error, and one 
preferable for the architect from the facility it can be 
used upon the working drawings themselves. In the 
other method tables of sines and tangents are required. 

Frames and Trusses. 

19. A frame is composed of bars or beams connected 
together at their ends, the beams being thus fixed in 
their relative positions. It is clear that the joints 
themselves offer little aid to the rigidity of such a frame, 
so that we may consider the pieces capable of turning 
about them unless fixed at both ends. The points 
about which such movement would take place are 
called the centres of resistance of the joints, the straight 
lines joining these centres being the lines of resistance 
o£ the beams, along which tlie tlarxista ot t^wsvons are 



TRIANGULAR TRUSS. 127 

propagated. If subject to a thrust the beam or bar is 
a struty if to a pull a tie. In the design and construction 
of firames or trusses it is essential to avoid cross strains, 
and so to dispose the pieces composing a frame that 
they shall be struts and ties only ; this is the science 
of good framing, as it is evident, by confining each 
piece to compressive and tensile strains, the material is 
most economically employed, the sections or scantlings 
of the pieces being designed to meet such strains only. 

Triangular Frame. — The ordinary form of a frame 
is that in which the pieces form a triangle or a system 
of triangles.* 

Let ABC (fig. 37) represent a frame of three bars or 
pieces connected at the 
angles. Let a load p be 
applied at the apex, and 
the supporting forces q 
and R be those of the 
walls or supports, then 
their lines of action 
must either be parallel ^'^' ^^• 

or intersect in one point. It is evident these three 
forces balance each other, and are therefore proportional 
to the three sides of a triangle respectively parallel 
to their directions. 

When the three forces are parallel to each other, as 
in the case of an ordinary roof frame, the triangle of 
forces becomes a straight line, ca. 

Draw OA parallel to a, ob to b, and oc to c, then if 
the load ca be applied at the apex of frame, ab applied 
at R, and bc applied at q, are the supporting forces, and 
the lines oa, ob, oc represent the strains on the bars 
a, b, c respectively. 

♦• The triangle is the fiimplest and only figure^ the form of which is 
perfectly rigid, its sides remaining imaltetea. 




128 HINTS TO YOUNG ARCHITECTS. 

From o draw oh perpendicular to ca, then that line 
represents a component of the strain which is equal in 
each piece, and is the horizontal thrust of the frame. 
The trigonometrical relations are as f oUows : — 
Let a, b, c denote the respective angles of the bars 
A, B, c to the horizontal line oh, then — 

load CA 

Horizontal stress oh = 7 ^—7 (1) 

tan c + tan a ^ * 

Supporting forces ab = oh (tan a — tan h) ,^. 

Bc = oh (tan h + tan c) ^ ' 

!0A = oh , sec a 
OB = OH . sec i (3) 

oc = OH , sec c 

In a polygonal frame a similar method is to be 
used, the strains on the several pieces or bars being 
found by drawing radiating lines parallel to the bars 
from a point to the vertical straight line representing 
the parallel forces or the load and supporting reactions ; 
the segments into which these radiating lines divide 
the vertical line will then represent the forces which 
respectively act at the joints of every two consecutive 
bars, and the whole vertical line represents the total 
load. 

The relations of the forces are as follows : — 
Let the horizontal component be denoted by h, and 
let a and h denote the angles of inclination of any two 
bars to the horizontal; and r, Rj the respective strains 
along the two bars ; and p the resultant of the external 
forces acting through the joint between the two bars, 
then — 

p = H (tan a + tan h) 

R = H . sec a ; and Rj = h • sec 5. 

20. Roof Trusses. — ^It is often xeq^iired to dstermine 




A 7 € 



ROOF TRUSSES. 129 

the strains wbich the several pieces of a roof truss are 
suhject to, for the pur- 
pose of ascertaining 
the requisite scant 
lings of the timbers * 
or, in the case of an 
iron roof, the sectional *^* 

areas of the rafters, struts, and ties. 

Let figure 38 represent an ordinary king and queen 
rod truss either of iron or timber. 

The strains on the main triangle can be found by 
diagram as before, making the vertical line represent 
half the gross weight on the roof (see Art. 19) ; or, 
algebraically, let w be gross weight of truss, together 
with the division of roof which it carries, or from 
middle to middle of adjacent bays : — ^Let c = half span 
of truss; k = its rise; i = inclination of rafters ; h 
= tension along tie beam ; t = thrust along each raf- 
ter; then 



4 tan 


-.or,H 
t 

o A/ 


WC 

- "A/ 


T = 


V H« + 


w2 _ 
16 


'n.+ 


/r 


+ tan H = 


: H sec i. 



These give the strains on the primary truss. For the 
aecondury trussing we must find the load on the points 
2 and 3 ; the secondary trusses being a 2 6 and b 3 6. 

Distribution of Load. — The weight of roof is 
distributed over the points a, 1, 2, c, 3, 4, b ; one' 
twelfth resting on each point of support a and b, and 
one-sixth on the five points 1, 2, c, 3, 4. The loads at 
2 and 3 are each ^ w, or half of load between 2 and c, 
and half of load between 2 and a, or owe-Aa^ between 
A and c. The strains to be found by equations 
(1) (2) (3) of article 19. Tho smaller ^^^-vi^ssrj 

G 3 



130 HINTS TO YOUNG ARCHITECTS. 

trusses are A 17 and b 45, and each of the points 1 and 
4 sustains -i^th w. 

Tensions. — The main suspension rod c 6 sustains -^ w, 
and l-12th w hangs by the queen rods 2, 7, and 3, 5. 

The tension between 7 and 5 of tie beam is the sum 
of the tensions due to the primary and secondary 
trusses ; the tensions at the ends between a and 7 and 
B and 5, are those due to all three trusses. 

Thrusts. — ^Again, the thrust on c 2 is due to large 
truss; that on 2, 1 to the primary and secondary 
trusses ; and that on 1 a to all three trusses. 

In trussing roofs, &c., the following maxims should 
be observed : — 

1. — The main truss should be composed of one or 
more large triangles, the simpler the arrangement the 
better. 

2. — ^Avoid multiplicity of joints, and give to each 
piece its proper joints. 

3. — Design the frame so that every load or strain 
should be met by a direct support or line of resistance, 
either compressive or tensile. 

4. — ^Avoid cross strains. 

5. — ^Throw the greatest loads at the points of 
support. 

21. Arched Ribs. — ^When under a vertical load 
distributed on each side of the crown of the arch : 
To find the total horizontal pressure against the rib 
below a given point, graphically — 

Let c be any point in the rib. In the diagram of 
strains, draw oc parallel to a tangent to rib at c. 
Draw vertical line oA as scale of loads, and take oh to 
represent vertical load on arc ac. Draw he horizontal, 
cutting oc in c, then oe will be thrust along rib at c, 
and he will be the horizontal pressure exerted against 
CB, the part of rib below c. 



ARCHED RIBS. 



131 



Or algebraically, let h = horizontal pressure or 
thrust; p = vertical load supported by rib ac; t = 





Fig. 39. 

thrust along rib at c ; also let ox = (g, and oy = xc 
= y be the co-ordinates of point c ; and let a be 
inclination of arch at c or oc to the horizon, then — 

H = p - = p cotan a ; and 

X 



T = v^ p2 + H^ = i/pH P^ cot 'a = P V 1 + cot ^a 

= p cosec a. 

At the crown a, the following^ rule is to be used. To 
find the thrust at crown of rib : Multiply the radius 
of curvature at the crown by the vertical load per 
lineal unit of span there. 

Ribs under Normal Pressure. — ^In a circular or 
other rib under a normal pressure, ue. pressure equal 
in all directions, as in the case of the hydrostatic arch, 
or an arch sustaining liquid pressure of a given depth, 
we have the following condition :— 

The thrust at any normally pressed point of a rib is 
the product of the radius of curvature by the intensity 
of the pressure, the thrust being constant at every 
point of the rib. 

The figure of a hydrostatic aick \a \dL<gviSlvi'5!5L"^^ 



a;^ 



HIXIS TO TOrXO ASCHITECrS. 



v^iutsOtt^ <narre^ «s that of an unifomi spring wlien bent, and 
dt$;ipplficatioQ to the intrados of an arch-ring is useful.* 
SvTUtJt^ found graphically. — ^As an example of the 
gcaqphic method of finding the strains on trusses we 
gire the following (fig. 40), as illostrating Professor 
Maxwell's method of reciprocal figures. Let the load 
be reduced to vertical loads f^, y^ ... on the joints of 
rafters; g^ Oj . . « on joints of tie. Let f^ P2 be the 




Fig. 40. 




Fig. 41. 

reactions of walls (shown out of the perpendicular, 
' to avoid overlapping of the lines). To draw the dia- 
gram of stresses (fig. 41), the polygon of external 
fcroes is first drawn by making f^, Fj, . . . p^, Pi, 
fi|, G2 • • • parallel to the corresponding lines in the 

* For a fall inyestigation of this subject, bqq BAnkine's ** Applied 
MfotAatoa/' pp, 182, &P- 



JOINTS IN CABFENTRT. 133 

diagram of tmss^ aad equal to tlie forces taken in order 
on any scale. At the right hand joint the forces acting 
F^ Fj 6^, and the stresses on a^, b^ at a point are repre- 
sented in the stress diagram by a polygon. Complete 
this polygon by drawing lines parallel to a^, 6^, at the 
unclosed extremities of lines representing the other 
forces. At the next joint the forces acting are Fj ; 
and the stresses Oi^ 02, c^ ; of these, Fj and the stress on 
«i are already drawn. Complete polygon by drawing 
lines parallel to a^y c^. This process will give the stress 
diagram, the lengths of the lines will then give the 
strains on the corresponding bars.* 

22. Strength of Timber. — ^In fixing the scantlings 
of timbers of good pine, fir, or oak, the proper sectional 
area for the compressive and tensile strains shotdd be 
calculated. 

The greatest strain (compressive and tensile) is 
generally taken at 1,000 lbs. per square inch, and the 
factor of safety averages from 8 to 10. Timber and 
iron are exposed to these several strains : — 

Longitudinal (E^'^^-on 

{Distortion. 
Twisting. 
Bending. 

23. Joints and fastenings in Carpentry. — These 
are of several kinds, and the reader is referred to the 
works of Tredgold and Nicholson for information of 
the various joints used. 

In designing joints, &c., the following principles 
should be attended to : — 

(1.) To avoid weakening the pieces of timber by 
cutting or notching too deeply, 

(2.) Each abutting joint or surface should be perpen- 
dicular to the pressure it receives. 

* The letters of referenoe in the diagrams explaia t\i^ ^TX^ysiL^xsi'^ 
strains* 



134 HINTS TO YOUNG ARCHITECTS. 

(3.) The area of surface abutted on should be propor- 
tioned to the pressure, so that it may not indent. 

(4,) The surfaces of contact should befitted accurately, 
in order that the pressure should be evenly borne. 

(5.) All fastenings, as nails, spikes, bolts, straps, &c., 
should be of equal strength with the pieces connected. 

In lengthening beams, the scarfing should be placed 
where the bending moment is small. At the com- 
pressed side of a beam the two pieces should have a 
square shotdder ; oblique surfaces are bad, and apt to 
splinter. 

The surfaces oi a scarf should be parallel to the 
direction of load, or " up and down," not flatwise. 

Notching beams, as a joist or purlin upon a, girder 
or principal, should be efiected without cutting deeply 
into the piece ; it is best to cut a square notch in the 
angles of both, so that the full depth of both pieces 
remains unimpaired. 

Mortises and Tenons. — ^In mortising a beam the 
mortise should be cut at the middle of the depth of 
beam, so that the fibres subject to compression and 
tension at the upper and under side should be left. 

A shouldered tenon should be used, so that the 
shoulder should bear upon the edge of the beam, 
instead of a long and deep tenon, which imduly 
weakens the beam ; the tenon proper should be only 
l-6th of the depth of cross beam. 

Post and Beam-joints. — When a beam is to rest on 
the top of a post or posts, a "notch and bridle" joint 
is to be used, the bridle being an uncut portion in the 
middle of the bearing beam into which the post is 
fitted by a groove. The same joint is applicable when 
a post rests on a beam. 

Instead of the ordinary method of framing a 
iiDg post between ends of rafters, it is best to let 



WEIGHT OF FRAMING. 135 

rafters i(^ut against eacli otlier^ and to notch a piece 
on each side, bolted together to form the suspending 
pieces (see Tredgold's " Carpentry "). 

Abutment 'Joints. — ^When an oblique strut, as a 
principal rafter, abuts on the end of a tie-beam, the 
shoulder and end of strut should be cut at right angles 
to the pressure or direction of strut, and this abutment 
should be of sufficient area to transmit the thrust with- 
out splintering the timber. Sometimes this is effected 
by a simple notch on tie-beam, or by a tenon on the 
strut fitting into a mortise on the tie ; or a bridle on 
the tie fitting into a groove made in the shoulder of 
strut. Iron straps or bolts are often used to keep the 
pieces in their places. 

Tredgold gives the following rule for finding 
the length between shoulder and end of beam to 
prevent the shearing of fibres in the direction of 
beam. Divide four times the horizontal thrust of 
rafter in lbs. by breadth in inches multipKed into 
shearing force of a square inch in lbs. in direction of 
the fibres, and quotient will give length in inches. 
The resistance to shearing may be taken at 510 lbs. 
per square inch ; in practice, four is the factor of 
safety. 

Bule to find horizontal thrust of inclined beams is 
given by the formula — 

w X half span 

pr^=n = thrust. 

2 Else 

The above rule for shearing is applicable in ascer- 
taining lengths of tenons from pin-holes, scarfs, and 
other joints subject to tensile strains. 

24. Weight of FRAmNG. — ^Tredgold gives the fol- 
lowing approximate weights :— 



136 HINTS TO YOUNG ARCHITECTS. 

lbs. lbs. 

Weight of a square of partitioning from . 1,480 to 2,000 

"Weight of a square of single joisted floor- ) ^ -^ gQO 2 000 

mg without counterfloorinff. . ^ ' ' " * 

"Weight of a square of framed flooring ^ g 50O 4 000 

with, counterfloonng. j * " ' 



Per square. 
7 cwt. 


Minimum Slope. 
4'' 


3 „ 
7J to 9 „ 

36 „ 
5 to 6 „ 

2i „ 


4*» 
4' 
25 J to 30"^ 



The highest numbers give weight in large buildings 
and long bearings. 

One cwt. per super foot is ample allowance for the 
probable load on floor of an ordinary dwelling-house, 
exclusive of floor itself. 

Two cwt. per foot is suflBcient in ordinary warehouses 
and factory floors. 

25. LoABs ON KooFS — ^Data tor Design. 

Lead covering 

Zinc „ ^ 

Corrugated iron 

Slates 

Load for pressure of wind 

Timber framing 

Boarding f inch 

The weight of slates per square foot = 8 lbs., tiles 
13 lbs., pressure of wind about 8 lbs. 

It is usual to take 40 lbs. per square foot as the basis of 
calculation in designing roofs. In calculating for the 
weight supported on each truss, the load must be taken 
from centre to centre of trusses. 

Half load rests on each principal rafter, and may be 
considered as collected at apex and bearings; under 
this supposition ^ of whole load will be the weight to 
provide for. 

Strength of Materials. 

26. Beams of Timber and Iron. — For a full inves- 
tigation of the theory of the resistance of beams, the 
reader ia referred to the works of Tredgold, Barlow, 



STRENGTH OF MATERIALS. 137 

Rankine^ and otlier writers. We shall here content our- 
selves with a few of the most useful principles and rules. 

Definitions : Factor of Safety. — ^Is the ratio 
which the breaking load bears to the working load^ and 
varies for different materials. 

Dead Load. — Is a steady load, as the weight of a walL 

A Live or Moving Load. — Is a load applied sud- 
denly, and accompanied by change and vibration, as 
the load which floors and bridges are subject to. 

The factors of safety followed in practice, and de- 
duced from experiments made by Mr. Fairbairn and 
others, are for — 



l^fetals 

Timber 

Masonry 


Dead load. 

3 

4 to 5 
4 


lire load. 

6 
8 to 10 
8 



Neutral Axis. — ^When a beam is subjected to a 
cross strain, its upper fibres are compressed, and its loicer 
extended. It follows there is a layer of the material 
between these portions which is not exposed to either 
of these strains ; this is called the "neutral surface " of 
the beam. Where this surface or layer is intersected 
by a vertical plane at section of rupture, the line of 
intersection is called the " neutral axis " of the beam. 
The position of the neutral surface varies for different 
degrees of resistance to compression and tension. 

Modulus of Elasticity. — Is the value of stiffness 
a material possesses within the limits of its elasticity, 
or it is the strain it can bear without sensible alteration. 
If / be the original length of a prism of any material, x 
the change in length produced by a longitudinal force f ; 
£ A constant depending on the material, then, 

a? : / : : F : e, or e = f - ; e is called the " modulus of 

X 

elasticity.** 



138 HINTS TO YOUNG ARCHlTECrTS. 

Motnent of Inertia. — If we conceive a body to con- 
sist of a number of heavy particles, and we multiply 
the mass of each by the square of its perpendicular 
distance from a given line or axis, the sum of all these 
products is the " moment of inertia " of the body with 
respect to that axis. In a rectangle of depth d and 
breadth b the moment of inertia = A hd^» 

Tension: To find the intensity of direct. — ^Divide 
the load by the sectional area of the bar. 

To find the sectional area of a bar to bear a given 
had. 

Divide the load by the proper modulus. 

27. Resistance to Compression. — This is sensibly 
equal to the resistance to tension. Direct crushing 
takes place only when the material compressed oflPers 
to the force a length not exceeding a certain ratio to 
its diameter ; when this limit is exceeded, there is a 
tendency to give way by bulging and bending laterally. 
The cases included in compression are — 

Stone and brick columns of ordinary proportions ; 
pillars and struts of cast iron, when length does not 
exceed about 6 times diameter; pillars and struts of 
wrought iron, when length does not exceed 10 times 
diameter ; pillars and struts of dry timber, in which 
length does not exceed 20 times diameter. 

Above rules for tension are applicable to these cases, 
using the proper modulus of resistance to crushing. 

Resistance to Direct Crushing. — Crushing load of 
material = f x s, f being resistance of material in 
lbs. on square inch, and s area of section in square 
inches. 

When the load is not uniform, or its resultant does 
not coincide with the axis of pillar, the strength of the 
joillar is diminished in the same ratio as the mean 
intensity of strain is less than the maximum. 



PILLARS. 139 

Stone and brick columns should never exceed in 
height 12 times their least thickness at base. 

Long Pillars and Struts. — ^When the length greatly 
exceeds the diameter^ failure or fracture takes place 
by cross-breaking. 

Mr. Hodgkinson^s formulae for cast-rron cylindrical 
pillars which yield in this manner are as under : — 

Solid Pillars whose length is not less than 30 
diameters^ 

Let d = diameter in inches ; l = length in feet ; 
A = constant multiplier^ theu^ 

Breaking load in tons = a ^ 

Hollow Columns. — ^Let n = external diameter, and 
d = internal diameter in inches, then breaking load 

D 3-6 ^ 3-6 

= A r-= when L exceeds 25 d. 

l1-7 

Values of constant a, 

tons. 

For solid pillars, fixed ends . . . 4416 
Hollow pillars, fixed ends . . . 44*3 

ft X c 
For short pillars the formula is w = —-——-, 6 = 

6 + f c 

breaking load for long pillars (see above) ; and c = 
crushing load for section = 49 tons per square inch. 
For Solid Square Red Deal (dry). 

Breaking weight = 7*81 = a — ^ 

L 

Safe load should not exceed one-tenth breaking load. 
Resistance of timber to crushing when dry is from 
i to |- of its tenacity. Moisture weakens the adhesion 
of the fibres to about one-half oi that in dry state. 

« d*'^ and l^^ means that the diameter in inches has to he raised to 
3-6tti power and the length in feet to the l-7th power. These powers 
are readil/ fonnd hy logarithms. (See Table.^ 



140 HINTS TO YOUNG ARCHITECTS. 

For long soUd columns the cylindrical section is 
found to be rather stronger than the square, and the 
triangular section stronger than the cylindrical, the 
areas of section being equal. 

28. Resistance to Cross Strain. — Moments of Rup- 
ture. — (1.) The moment or strain at any point of a beam 
fixed at one end and loaded at the other, is proportional 
to the distance from the weight. The resistance of a 
loaded beam to fracture depends upon the equaKty of 
two moments — one the leverage, or Bending Moment, 
the other the area of section at point of rupture, called 
Moment of Resistance due to the molecular reaction of 
the fibres, or when rupture takes place — 

Breadth X depth *X conatantss: Weight X leverage. 

(2.) When the weight is distributed uniformly, the 
resultant of weight acts at the middle of the beam, so 
that the leverage in this case is only half the former, 
and therefore such a beam uniformly loaded will bear 
twice as much as when loaded at one end. 

(3.) When a beam is supported at both ends, and 
loaded at some intermediate pointy s, putting p and q to 
represent the supporting reactions at ends a and b, the 
strain at any point s will be same as in first case, or 

Q X B s. If 8 be the middle of beam the strain will be 

^ weight X A B. 

(4.) When the weight is distributed^ the strain at 
middle of beam is only half as much as when weight is 
concentrated there. 

The strains at any points may be found graphically 
by drawing a vertical at the point s, and making it 
equal strain at that point, and drawing straight lines or 
curves to ends of beam ; these will determine the ordi- 
nates at any points. In cases (2) and (4) parabolas 
determine the ordinates. 



STIFFNESS OF TDfSBR — ^EITLES. 141 

29. Stiffness.* — Beams supported at ends and 
loaded in middle. The effect of a load to produce de- 
flection in a beam is, as we haye seen (28), as the 
leverage and load^ or the ''bending moment." The 
force producing extension is also as the kngih and weight 
directly f and the resistance to this force is inversely as 
the breadth and square of the depth. But, combining 
the equivalents of the extending and resisting forces, 
deflection is as the weight and cube of length directly y and 
as the breadth and cube of the depth inversely , that is, the 
resistance to deflection is directly as the breadth into the 
cube of depths and inversely as the weight into the cube 
of length. 

Let L = length of bearing in feet ; w = weight in 
lbs. ; B = breadth in inches ; d = depth in inches ; 
a = a constant determined by experiment for the 
material ; s = deflection in inches then — 

L* X w X a , 40XbXd*Xs* ,., 

s = 3 — and a = 3— . (1) 

B X D^ L^ X w 

Deflection should not exceed l-40th of an inch for 

every foot in length, therefore dividing above formula 

by 40 

l' X w X a /o\ 

s = i • • (2) 

40 X B X D^ 

Tredgold gives the following rules for the stifihess of 
beams: — 

To find the scantling of a piece of timber to sustain a 
given weight when supported at ends. 

Case 1. When breadth is given. 

Bule. — Multiply the square of length in feet by the 
weight in lbs., and this product by value of a. Divide 
product by breadth in inches, and cube root of quotient 
will give depth in inches. 

♦ The foUoXiring are the most useful rules for the architect, as the 
undue deflection of beams would serioualy affect a attu.ctvucQ« 



142 HINTS TO YOUNG ARCHITECTS. 

Case 2. When depth is given. 

Rule. — Multiply the square of length in feet by 
weight in lbs., and multiply this product by value of a. 
Divide last product by cube of depth in inches, and 
quotient will be required breadth. 

It will be obvious a certain proportion between depth 
and breadth is desirable to give a maximum rigidity. 
Tredgold gives this when the breadth is to depth 

L 

as 0*6 is to 1 ; thus —^ X 0*6 = least breadth required 

to prevent beam yielding sideways. The stiflfest beam 
that can be cut out of a round tree gives breadth to 

depth as 1 : \/3 or '58 : 1. 

Strength of Beams. — The weight a beam will carry 
without fracture depends upon the relation which exists 
between the moments of " rupture " (28) and " resist- 
ance'^ or the equality of the moments. The moment of 
resistance is evidently due to the sum of forces of the 
fibres of the beam at section of rupture, or a compound 
action of resistance to tearing the lower fibres asunder 
and crushing the upper fibres, the " neutral axis " being 
the limiting extent of each action. Hence the resist- 
ance of a beam at any section is directly as the moment 
of inertia (26) about the neutral axis of the section, and 
inversely as the distance of that axis from the farthest 

cbd'^ 
edge of the section, or . The formula is reduced 

6 

to a simple one where the length of beam is given in 

feet, the other dimensions being in inches, or 



B X D^ 

* 

L 



X c = breaking weight ; and 



B VC D 

X c when beam is inclined. 

1.008 ifi 



BULES FOR SCAirrLINGS. 



143 



Values of constants a and c in above formulsD are for 
the timber ordinarily used — 



Fir, Riga . 

„ Memel . 
Oak, English 
Fine, Red . 

„ Yellow . 



Oo]ie8.foToe 

Per sq. inch. 

lbs. 

12,600 

12!000 
10,000 

n 



StiftoeflsCa) 

•0114 
•0089 
•0119 
•0148 
•019 



Strength (e) 

359 
545 
557 
447 
383 



(The above constants are based on experiments made 

by most eminent authorities.) 

When a beam is fixed at one end and loaded at the 

w 
other the breaking weight as found above = — ; when 

weight is uniformly distributed it = 2 w ; when beam 

is fixed at both ends and loaded in middle, breaking 

weight = 1^ w. 

30. Floors and Roofs. — ^To find the depth of a joist 

when length of bearing and breadth are given, the 

distance apart being 12 inches from centre to centre. 
Rule. — Divide the square of the length in feet by 

the breadth in inches, and cube root of quotient 

multiplied by 2*2 for fir will give depth in inches. 
Girders for House Floors ten feet apart. 
JRule. — ^Divide square of length in feet by breadth 

in inches, and cube root of quotient X by 4*2 for fir 

wiU give depth in inches. 

Flitched Beams. — ^Wooden beams with flitches of 

wrought-iron plate slightly increase the strength- 
Hurst gives the following formula : — 

B = breadth in inches. 

D = depth in inches. 

t = thickness of iron flitch in inches. 

L = bearing in feet. 

w = breaking weight in centre, in c\9i». 

c = constant = 3-662 for oak ; 3-024 for Baltic fir. 



144 HINTS TO YOUNG AKCHITECTS. 

w = - (CB + 30 t). 

L 

One-twelfth is assumed as thickness of flitch. 

31. Principal Rafters. — To find scantling when 
there is a king post, length, breadth, and span in feet 
being given 

•096 X ^ — = depth in inches. 

B^ 

When there are two queen posts multiply by decimal 
0-155 instead. 

Common Rafters. — Depth is found by following 
rule, breadth being 2 to 2^ inches. 

0-72 X -; — = depth in inches. 
\/b 

Purlins with long bearings may be trussed with 
wrought-iron rods. Depth may be l-12th the span, 
and distance of stays apart l-8rd span. 

Section III. 

32. Iron Construction. — The same principles and 
formulae which determine the stability of timber 
frames are applicable to iron structures. The young 
architect should make himself thoroughly conversant 
with the experimental researches of Tredgold, Barlow, 
Hodgkinson, Fairbaim, Kirkaldy, and others who 
have investigated the principles of iron structures, 
as this material must ultimately take the place of 
timber in all important structures. The neglect of iron 
among architects has given engineers a great start in 
the art of construction ; and the architect who wishes 
to keep pace with modern invention and science must 
jealously guard all encroachments upon those materials 
which are reckoned among the great resources of the 

present age. 



CAST IRON. 145 

Among the many uses for whicli iron may be 
employed we may enimierate flooring, roofing, either 
partially or wholly, supports as columns, bracketed 
structures, stairs, window-casements, besides the multi- 
farious purposes where rigidity and strength are required 
in the least space. 

Cast iron affords the architect a material which he 
can readily adapt in innumerable cases in which timber 
or stone is inadmissible, as in balustrades, crestings, 
spandrels, brackets, verandahs, balconies, &c., &c. It 
can be cast or moulded into every conceivable form or 
pattern, as in moulded gutterings, pillars, &c. 
' Wrought iron, though less plastic, is even more 
valuable as a constructive material, and may be 
employed in all cases where heavy weights are to be 
carried, or light structures, as roofs, erected. For 
girders, simple or trussed, domical construction, and 
where extreme lightness and rigidity are to be com- 
bined, no material, or mode of construction, can super- 
sede it. As a fireproof material it is preferable to cast 
iron ; and when cased in concrete, or plaster, or protected 
from the direct action of fire, it may ultimately be made 
the most resistant of all materials. 

Cast Iron should be limited to the action of 
stationary loads. Its brittleness, from the carbon it 
possesses, renders it necessary to confine its use to 
purposes where great changes of temperature are not 
felt. Its crushing resistanjce is about six times as great 
as its resistance to cross strain ; hence it should be 
used only for beams, columns, struts of short length, 
sockets, and castings which are not exposed to sudden 
cross strains. 

The best kinds of cast iron for large structures are 
Nos. 2 and 3 of grey cast iron ; granular white cast 
iron is the hardest, but more brittle. 

H 



146 HINTS TO YOUNG ARCHITECTS. 

Iron is sounder by being cast under pressure and 
in a vertical position ; the air bubbles ascend to the 
head. Allowance should be made for expansion and 
contraction of the castings. In designing patterns for 
castings all abrupt variations in the thickness of metal 
should be avoided, so as to prevent unequal contraction 
in cooling, and thereby injury or fracture of the iron. 

Strength of Cast-iron Beams. — ^From experiments 
made by Prof Hodgkinson it has been found that the 
strongest form of section for a beam of given depth is 
that in which the top and bottom flanges are to one 
another in the same proportion as the ratio of resistance 
of extension to crushing, or aa 1 to 6. 

For the strength of an iron beam we have the follow- 
ing approximate formula ; putting a for sectional area, 
in inches, of bottom flange, d for depth in inches, / for 
bearing in inches, w breaking weight in centre, in tons, 
and c, a constant, we have — 

a d 
/ 

The constant generally taken in practice is 25 tons. 
The central web between flanges should be made to 
taper upwards, and the lower flange be made 
to contain the most metal, its width being 
three times, or twice, as great as the upper 
^ flange, since the latter is subject to compres- 
sion and the lower to tension. A strain of more 
than 1^ ton per inch is injurious on lower flange. 
The depth of cast-iron beams should be from l-12th 
to 1-1 6th of the span. 

For a girder of uniform strength in every part of its 

length, it may be diminished towards the ends in the 

proportion of the rectangles of the segments at every 

point Thua if depth at ends equals % of centre depth. 



WROUGHT-IRON BEAMS. 147 

an elliptical curve may be drawn for tlie web and 
upper flange. Or a similar diminution may be made 
in the plan of lower flange by making it a double 
parabola, or of segmental curves. It is evident a 
uniform section tbrougbout entails a waste of metal at 
the extreme ends.* 

Wrought -IRON Beams. — Wrought, or malleable, 
iron is made by the abstraction of carbon and other 
impurities from pig iron. It is more fibrous, tougher 
in quality, and more compact than cast iron. Its 
resistance to compression is about two-thirds of its 
resistance to extension, and its tenacity recommends it 
for resisting cross and tensile strains. Kirkaldy gives 
25 tons per square inch for the tensile strength of 
wrought iron in bars, and 22 tons for plate iron. In 
designing pieces of forged iron subject to sudden 
shocks, angles and irregularities should be avoided, as 
they induce fracture. 

For Wrought'iron Piute Girders the following 
formula is approximately correct. 

Let / = length of girder in feet, w = distributed 
load in tons ; d = depth in feet ; s = strain on top 
and bottom flange, at centre, in tons. Then 

"Yf I . • "W I 

s = — ; and when total load is in centre — * 
8d 4:d 

Wrought iron may be strained in compression to four 
tons per square inch, and in tension to five tons ; so 
the effective sectional areas of top and bottom flanges 
should be determined accordingly, the rivet holes being 
taken into account. 

Depth taken at l-12th span is regarded as economical 
for a straight girder. 

* Cast-iron beams should not be loaded with a permanent load q1 
more than ooe-sizth of breaking weight. 

h2 



148 HINTS TO YOUNG AECHITECTS. 

The " box ** girder is found to be stronger than the 
I-shaped of the same weight, in the proportion of 100 
to 93. For large girders the '* lattice" principle is 
most economical ; it exposes less surface to wind than 
the solid web. 

In large plate girders the web must be stiffened at 
intervals by angle irons and stay ribs.* Width of 
bottom flange may be taken about § depth. The top 
flange is generally made of larger sectional area than 
the lower, to provide for the comparative weakness of 
wrought iron under compression. Brunei ingeniously 
effected this by giving the top flange a curved shape 
without increasing area of metal. 

(For detailed particulars the reader is referred to 
Hodgkinson's work, and other treatises on wrought- 
iron plate girders.) 

Rolled Iron Beams, or joists, are now generally 
used for ordinary floors and short bearings. The metal 
is rolled in one piece. Sometimes, for additional 
strength, two rolled beams are bolted one on the other, 
or horizontally combined by additional flange-plates, 
which constitutes a very effective beam. Steel is now 
often used where great tenacity is required, or the 
action of fire is to be withstood, t 

Dr. Fairbaim has, in a series of experiments, found 
that the effects of long-continued vibratory action, and 
changes of load upon wrought-iron bridges and girders 
seriously affect the material, and that five tons per 
square inch should be the maximum strain produced by 
both permanent and moving load. 

♦ The web or part between flanges has to resist the shearing force. 
When a beam supported at ends is loaded in centre, the shearing force 
at every point=jw; when load is distributed it is greatest at sup- 
ports, and nothing in centre. 

t Iron beams and columns should be cased in earthenware or 

Jilaster as a non-conductor. These casings could be moulded to any 
ea^. Plaster hollow pots between joista ceiled underneath are 
equally fre-reaistiDg. 



ROLLED IRON BEAMS. 149 

The cliemical action induced by moisture and smoke 
on iron renders it necessary to provide a due thickness 
of metal in all permanent structures, as well as the 
necessity of a coating of paint, which shall arrest 
corrosion.* 

Steel, as a building material, is now, for special 
purposes of construction, superseding malleable iron. 
It is compounded of pure iron and carbon ; the propor- 
tion of the latter varying according to the requirements 
for ductility or hardness. Bessemer's process has 
greatly facilitated the manufacture, and it can be 
rolled or hammered into joists, railway bars, &o. 

Girders, and joists, and pillars made of steel are less 
liable to fracture or twist than iron under the action of 
fire. For roof framing, too, it ofEers extreme lightness 
and durability. Its resistance to tension is only half 
its resistance to compression ; so the lower flanges of 
girders should be twice the area of top. The strength 
of steel columns is said to be double that of solid cast- 
iron ones of equal size, and about 30 diameters. For 
steam boilers steel plates of ^V ^^^ ''^ ^®^^ ^ pres- 
sure of 100 lbs. on the square inch. Mr. Earkaldy's 
experiments have shown that a high breaking strain 
ma]/ be due to hard unyielding quality, and a low one 
to softness. The contraction of area at fracture is 
an essential element in judging of quality. It appears 
also thiat the breaking strain of puddled steel plates 
and iron is greatest in the direction in which they have 
been rolled ; in cast steel, the reverse. 



♦ See Mr. Matheson's " Works in Iron." The author recommends 
oxide of iron paints for aU iron work, and bituminous paint for tho 
inside of pipes. BarflTs process of exposing iron to superheated steam 
has been well spoken of. 



PART V. 

SANITARY CONSTRUCTION. 

The questions involved in tlie Drainage, Ventilation, 
and Warming of buildings demand the serious atten- 
tion of tlie young architect. Next to the stability 
and arrangement of his structures, their sanitary 
condition is the most important of the various func- 
tions he is called upon to provide for. Here an 
extended knowledge of physical science, as regards 
the phenomena of heat and atmospheric changes, 
the origin, distribution, weight, and elasticity of 
gases, the chemical properties of air and water, the 
principles of hydrostatics, pneumatics, and thermo- 
dynamics will be of infinite service to him. He should 
remember that his profession entails upon him more 
direct and responsible duties than those of design in 
the abstract. He really becomes the administrator of 
public health or disease. Whole families depend on 
his careM attention to matters of drainage and ventila- 
tion, and public health is in a large degree entrusted to 
his control in the design and construction of large 
public buildings, as workhouses, schools, factories, 
churches, and the Hke, where human beings congre- 
gate in large numbers, and disease and death itself ar(? 
frequently propagated by infection or otherwise. 



OPEN FIREPLACES. 151 



Section I. — ^Warming. 



To regulate temperature is one of the greatest 
secrets of the art of warming. The laws of heat 
belong to a special branch of natural philosophy, 
to which the student is referred. Combustion is 
the chief source of artificial heat, and consists of the 
rapid union of the oxygen of the air with various 
substances for which it has a strong chemical attrac- 
tion. Our ordinary combustibles or fuels are composed 
chiefly of two simple elements, carbon and hydrogen. 
The carbon of the fuel unites with a certain proportion 
(2|^ times) of its weight of oxygen, and forms carbonic 
acid gas, and the hydrogen unites with about 8 times 
its weight, forming water or vapour. The complete 
combustion of a pound of coals requires about 230 cubic 
feet of air. The nitrogen of this air, which forms four- 
fifths of its bulk, mingling with the carbonic acid and 
vapour, ascends in a gaseous form from the fire. Smoke 
from coal is the vapour which rises from the carbon 
and hydrogen or bitumen in it when the heat is only 
about 600°, a greater heat constituting carburetted 
hydrogen, or coal gas. 

Open Fireplaces. — ^The open English fireplace, 
with its air of cheerfulness and comfort, has a claim 
upon our social life which it would be difficult to dis- 
place. It is, however, with all its advantages, very 
wasteful of fuel. It is estimated that about one-half of 
the heat produced ascends with the smoke and is wasted. 
About a fourth part of the heat which is radiated is lost 
also in the space between the fire and mantel ; indeed, 
Dr. Amott calculated that only about one-eighth part of 
the power of the fuel is realised, the rest being dissi- 
pated. Another great objection to it is the creation of 
draughts. Various improvementa haN^ ^^«si ifiaia \si 



152 HINTS TO YOUNG ARCHITECTS. 

obviate these evils, first, by diminisliing the conductive 
power of the metal. Fire-bricks are now generally 
used in the backs and sides of grates to radiate the 
heat into the room, instead of metal which conducts 
the heat to the walls ; secondly, by forming the sides 
or covings of the chimney-mouth in such a manner 
as to throw the heat into the room, and to impede its 
entrance into the chimney, a still greater advantage is 
attained. Thus, instead of the fire recess being square, 
the sides should be inclined to the back at an angle of 
about 130°. Fire-n^rick slabs moulded in ribs are often 
placed in these positions in lieu of metal plates polished, 
and are preferable in retaining and throwing out the 
heat. Plates of rough metal being good conductors of 
heat, absorb it by passing through to other materials 
the heat they receive, and hence they lose heat instead 
of retaining it. Radiant heat does not affect the sur- 
rounding air; the rays of heat pass through without 
directly warming the room; the warmth afterwards 
felt is due to the reflection and absorption of the rays of 
heat by the surrounding objects — the walls, floor, fur- 
niture, &c., which being in contact with the air give 
out their heat. It is thus explained how a large room 
or massive stone building requires a considerable time 
before its chilling effect is subdued by heat, a great 
quantity of such heat being lost in the transmission 
of it from one body to the other. Hence cold glass 
and stone surfaces take a considerable time before they 
are sufficiently warmed to throw off the required amount 
of heat, and during this time strike chills to persons 
near them. 

Grates should on this account present a large surface 

of heat in front, surface rather than depth of fire is 

desirable. The shape of fire-box or grate should be 

designed in reference to these prixicijlea, and many 



VEKTILATIK6 GBATES. 153 

modem gprates attain the desired effect in a certain 
measure. 

Again^ the chimney-throat or month for the exit of 
the products of combustion should be only of sufficient 
capacity to allow these to pass, instead of a large space 
which is continually drawing in the warm air of the 
room^ and creating draughts from doors and windows 
towards the fireplace. ^^ Register '^ stoves answer this 
end to a certain degree^ and Dr. Amott's smokeless 
grate was constructed to meet it. Many of the recent 
attempts to improve fire-grates are really based on 
the principle he adopted. Dr. Amott's grate has no 
bottom, but is fed by a box open at top, into which the 
coal or fuel is placed (about 20 or 30 lbs. per day). 
The wood is ignited at the top of the fuel, a layer of 
cinders being above this. The ignition of the wood 
ignites both the coal below and the cinders above, the 
pitchy vapour from the fresh coal rising through the 
wood, flame, and cinders. When the cinder is once 
ignited, the rising bitrmien is burnt. The fuel as it 
bums is raised by a lever acting on a false bottom to 
the box. The valuable quality of this fire is its tenacity 
to bum without attention. The draught can also be 
regulated by a small slide at the bottom of coal-box, 
which also forms the outlet for the ashes. 

The Amott grate is also provided with a cover or 
hood of metal over the fire-grate to prevent the egress 
of the warm air of the room up the flue, the only air 
being admitted through the fire in front. The hood is 
furnished with a throttle-valve or damper, having an 
external index, so as to further regulate the current. 
A saving of from one-third to one-half of the fuel is 
claimed for this grate by the inventor. 

Instead of the metal hood, however, a simpler means 
of reducing the chimney-mouth, ia 'Vi'j ^o\!L\»T^»a^svsl'S|^ ^^ 

H 3 



154 HINTS TO YOUNG ARCHITECTS. 

brick throat of the chimney. It is evident that this 
grate combines the requirements for regulating the 
temperature of a room as far as the fuel is concerned. 
Various means have more recently been devised for 
economizing fuel and utilising the heat of open fire- 
grates. The principles upon which nearly the whole 
of these inventions are based may be summed up as 

follows : — 

1. An open projecting fire and large heating surface. 

2. Fire-brick sides and back. 

3. Contracted chimney opening to avoid the rapid 
escape of the warm air of room into flue. 

4. A separate and distinct ingress for the cold air to 
feed the combustion and to prevent draughts from other 
sources. 

5. Hot-air chambers behind and at the sides of the 
fire, communicating by open gratings or valves in front, 
or over grate, 

6. Consumption of smoke. 

The "Wharncliffe" grate, Captain Galton's stove, 
the stoves patented by Messrs. Shillito and Shorland, 
and other patent fire economizers, more or less meet the 
requirements we have alluded to, though they cannot 
claim the originality asserted, but are all modifications 
of the inventions introduced by Cardinal Polignac, 
Count Rumford, and others in the beginning of the 
last century, and the later stoves of Sylvester, &c.* 

It will be seen, then, that upon the construction no 
less than the materials used to radiate the heat of the 
fire depends the economical distribution of heat ; that 
direct radiation is wasteful of fuel, and that the desired 
object is to be attained by increasing the surface of 

* The openings or inlets in all these grates should be placed high, 
or the warmed air would find its way into the chimney ; especially is 
this the case where no proper outlets are proyided. 



VENTILATING GRATES. 155 

metal or nre-brick so as to diffase the heat of the fire 
both ty radiation and conduction ; to prevent conduc- 
tion of heat to walls or its current up the smoke flue, 
which can best be done by hot-air chambers, with or 
without gills ; or by a combination of the two principles, 
a warm-air stove with an open fire. The patents 
recently brought out, especially those noticed above, 
seem to fulfil these desiderata, and are worthy the 
attentive study of the architect. 

Warming by close stoves, though a preferable mode 
to the simple open fire, is open to objections; the 
metal becomes so heated as to scorch the air and dust 
in contact, and render it imwholesome.* It may be 
stated that air to be wholesome requires a certain pro- 
portion of vapour ; a cubic foot of air heated to 80° is 
capable of absorbing five times as much moisture as the 
same quantity at 32°. Thus it becomes necessary to 
supply to such stoves a water-pan, so that the heated 
air should be moistened by the evaporation. A stove 
in which the fire-box is surrounded by brick or cased 
so as to allow an intervening chamber of hot air is 
preferable, and the heating surface is thus increased in 
proportion. 

Gills placed within the two metal cases, or radiat- 
ing plates, as in the Ghimey stove, may further be 
employed in increasing the heating surface. The 
" Cockle'* stove. Dr. Amott's, and various modifica- 
tions of the same principle, too numerous to mention 
here, placed in basement, may be used in the heating 
of halls, public buildings, &c., and the warm air be 
conveyed by flues to difierent parts. 

Whatever system of warming b© employed, it is 

* Objections to water-pipes heated on the high-pressure system have 
also been raised for similar reasons, though we think fot Us%<^ «^i^i«si&ai^ 
of heating it answers. 



156 HINTS TO YOTJNG ARCHITECTS. 

necessary that the fresh cold air should he admitted 
in a gentle and diffused manner, and not in sudden 
currents from chinks and crevices of doors, &c., as is 
generally the case, giving rise to draughts and the 
concomitant results, colds, influenzas, and the sharper 
pangs of nerve pain. This can be effected by allowing 
the fresh air to enter through some channel or flue into 
the hot-air chamber heated by fire-gills, or coils of pipe, 
as the case may be, and, having become heated in its 
passage, allowed to enter the apartment through perfo- 
rations in the stove or around it in an equable flow 
of fresh warm air ; or otherwise be conducted through 
flues in th^ skirtings, &c., to various parts of the room.* 
The admission of external air may easily be regulated by 
valves or "hit and miss" slides. 

Conservation of Heat. — ^Warming to be effectually 
applied to buildings requires not only the distribution 
of heat by fire-places, stoves, hot water, or other 
apparatiw, but such a construction of the building as 
will prevent the undue waste or escape of the heat 
generated. Indeed, we consider the conservation of 
heat or warmth the secret of the art. 

Hollow Walls. — To this end all walls should be as 
retentive as possible, that is, should be built of non- 
conducting materials. As brick or stone is the ordinary 
material employed, it is, we think, desirable to con- 
struct walls, especially in cold or exposed situations, 
with a hollow, or in two thicknesses, a plan frequently 
adopted in southern parts of England. The layer or 
stratum of air between the outer and inner parts 
becomes an effectual barrier to the passage of the heat, 
and forms a non-conducting medium of great value 
in equalising the interior temperature under extreme 
changes. Damp walls absorb heat to a great extent 

* This last method the writex B\iggee.tB «a ^T^ietable. 



VENTILATION. 157 

by tlie evaporation of moisture from their surface, but 
by Having boUow walls perfect dryness is insured. 
Even iron walls built on the cellular plan with a 
" lining or plaster may be made impervious to heat or 
cold. Cold walls, the surfaces of windows, floors, &c., 
create currents of air which rob the heat that should 
be made available. 

Windows. — These become a great source of waste of 
heat. Besides the currents of air ordinary sash and 
casement windows allow to pass through crevices and 
imperfect fitting, their cold glass surfaces absorb the 
heat, or allow it to pass by conduction. Currents of 
cold air are continually formed, and descending on the 
heads of those who sit near windows, are a continual 
source of discomfort in houses and public rooms. To 
avoid this waste of heat, double windows may be 
employed in all cold situations ; they also, near streets 
and roads, shut out the noise and dust. Double sashes 
may be used, or two sheets of glass in the same sash or 
casement frame may be adopted with great advantage. 

Doors. — For the same object double doors should 
always be placed at entrances or lobbies, and in every 
passage subject to cold currents. 

Roofs should have felt, plaster pugging, sawdust, 
or some non-conducting material inserted under the 
slates, or between the rafters. The advantages of such 
roofs are great. They retain heat in cold weather, and 
effectually resist the penetration Or conduction of heat 
in summer-time. 

Section II. — ^Ventilation. 

The principles of heating and retaining warmth 
and a free ventilation are frequently irreconcilable, 
and the means adopted to ensure the one oftav 
counteract those employed for ttie secioiifiL ^-^"eicX*, 



158 HINTS TO YOUNG ARCHITECT^. 

Circulation of air. — ^The circulation of pure air at a cer- 
tain degree of warmth is the desideratum. If an efficient 
system of heating be adopted without adequate means 
for the escape of the products of respiration or combus- 
tion, a house becomes an oven ; or if free inlets are pro- 
vided through the apertures of doors and windows, in- 
tol'erable draughts render it uninhabitable. But if the 
inlets are so arranged as to avoid the inconvenience of 
direct down or cross draughts ; or if the pure air is 
first warmed by passing through hot-air chambers, hot- 
water coils, or round stoves before its admission to the 
apartments, and, further, a sufficient means of escape be 
provided for it after it has been respired, the object of 
ventilation is attained. A continual circulation of one 
part of a house with the other is requisite, and the 
best method of efiecting this desirable object is still 
a vexed question among architects. Captain Galton's 
ventilating fire-place, adopted in barracks and hos- 
pitals, to some degree effects the object as regards 
ordinary rooms.* The warm-air currents are admitted 
high up in the chinmey breast. The inventor claims 
for his method an equable temperature in all parts of 
the room; that it saves one-third the fuel, is free from 
smoke, and prevents down-draughts if placed with an 
imlighted fire in same room. With properly regulated 
inlets for the fresh air behind the grate, this means 
would aflford all that was necessary for warming. The 
foul air must, however, be drawn off. This may be 
accomplished by valved outlets, as Dr. Arnott's, enter- 
ing a fire flue, or, better still, a flue purposely made for 
this object, either combined with or near the smoke flue. 
We think the cornice of a room admirably lends 

♦ Various other ventilating^ stoves, as the " Manchester/' Boyd's, 
Pierce'B, 8teer*8, Langdon, have recently been introduced, and are 
more or leas succeaBfid approaches. 



ClRCTTLi^TION OF AIR. 159 

itself to this purpose if made " hollow '* connecting with 
a flue. Sun-burners are efficient extractors when lighted. 
The extraction of the foul air at the floor level, advo- 
cated by some theorists, is, we think, objectionable, and 
unsound in principle ; as it is a law of physics that a gas 
expands and ascends when heated, the colder strata of 
air taking its place, we therefore think a system of 
ventilation which follows this natural order the best, 
and the ceiling level is for this reason the place for the 
exit of the vitiated air. The carbonic acid gas mixed 
with the air does not by its greater weight separate 
and fall to the lower level, as imagined by many 
writers, but tends by the law of diffusion of gases 
to diffuse itself throughout the room. To increase 
the circulation of this upward current in flues with- 
out fire, the draught may be maintained by gas- 
jets or the flues warmed by other means. By the 
laws of hydrostatics, there is always a column of 
ascending air in a chimney or warm flue, the heavier 
column of colder air outside tending to take its place.* 
Hence, a fire-place offers the best means for perfect 
ventilation, and should be adopted in preference to 
openings in windows, &c., through which currents of 
cold air are continually entering, especially if no special 
admission is afforded at lower levels ; and for the in- 
gress of fresh air we would arrange openings either in 
the floor or through skirtings which may be warmed 
by flues or pipes in large buildings ; or in the case of 
small apartments, inlets at the fire-grates, as noticed 
before. The '* Manchester grate " is one of the best 
means yet devised of warming and ventilating several 
rooms by the waste heat of a single fire, and this is 

♦ The draught or velocity of air i n chimne ys is found by formula:— 
Velocity in feet per second='365\/H {T—tj; H being height of shaft 
n feet ; T temperature of room ; and i ditto oi cnL\.^xvi^ ^W<;^'s^^^^« 



160 HINTS TO YOUNG ARCHITECTS. 

effected by warm-air flues of metal being carried np 
from the hot-air chambers surrounding the fire-box. 
By these warm-air flues good ventilation can be secured 
by valves or gratings in aU the rooms so warmed. 

But another mode of making the circulation com- 
plete in a house, is by converting the inner haUs or 
staircases into warm-air chambers by stoves or hot- 
water coils, and thus diffusing through the rooms 
which open from those halls an equable flow of fresh 
warm air.* 

By thus confining the heating apparatus to the halls 
in the first instance, the necessary supply of cold air is 
warmed before admission into the apartments, and the 
evils of draughty rooms averted, as there wiU not then 
exist that continual rushing in of air to supply the fire- 
places under this system. We have adopted this 
system with success in some cases, and great economy 
of fuel is the result. 

It will thus be seen a perfect system of ventilation is 
inseparable from wanning, and both objects may be 
effected at the same time. It is the neglect of the 
mutual relation between the two objects which has been 
instrumental in impeding the advance of this great 
hygienic branch of construction. 

The great principle may be shortly stated to be to 
provide means for the entrance of fresh air at a warm 
temperature and at a low level, and its extraction at a 
higher. Its removal is in proportion to the warmth 
of the apartment compared to the external air, if the 
natural system is adopted ; or if heat is applied to 
accelerate, it will depend on the degree of heat, the 
law of equiKbrium between the cold and warmer 

* Pipes or channels behind the skirting may be provided for the 
passage of the warm air. A diffusion of warmed air from a basement 
chamber through prober flues opening into haUs and rooms I believe 
tc Ifo the moat economical system of waTimng\arg^"\i>ai\dm^ft, 



VENTILATION. 161 

atmospheres always tending to create a pressure 
towards the vacuum. So long as the incoming 
currents are rendered warm and imperceptible by enter- 
ing through small and well-distributed apertures, the 
rapid circidation is harmless and promotive of health, 
and the evils of a strained, unprovided admission 
liirough crevices is perhaps more destructive to health 
than the want of egress. In summer-time these eflfects 
are not so apparent, though the two operations of venti- 
lation — ^the removal of the foul air and the admission of 
the fresh — are still required.* 

It may be useful to note that the respiration of one 
individual requires at least 500 cubic feet of air per 
hour ; f and every cubic foot of gas requires 10 cubic 
feet of air and produces about 1 foot of carbonic acid. 

In unions, hospitals, prisons, &c., it is usual to allow 
for day-rooms about 300 cubic feet of air to each inmate, 
and 1,000 or more cubic feet in the dormitories. 

An excellent method of extracting the vitiated air of 
hospital wards, public rooms, &c., is worth the atten- 
tion of the architect. Its action depends on the suction 
created in a tube if it be blown across at one end. The 
principle has been applied to ventilating tubes Carried 
up from the upper part of rooms. Deflecting plates are 
fixed at the upper end at an angle, and the horizontal 
currents of air produce a partial vacuum at the top, and 
cause an up draught to take place. Tredgold first 
introduced the plan, but recent inventors have improved 
upon it by using vertical corrugated plates or horizontal 
ones ; such are the patents known as Boyle's air-pump 
ventilator, and Messrs. Banner's cowls. These can be 
made to suit buildings in any style, and the system has 

♦ In warm weather, the current of air is often reversed, as the air is 
more rarified outside. 

t Dr. Amott thinks 20 cuhic feet per minute necessary in BQldi.<ss^ 
sleeping-rooms. In houses 600 cubic feet oi spa^ft ^x a^i^ ^Ss^^-vs^^si^ 
allowed. 



162 HINTS TO YOUNG ARCHITECTS. 

been applied to ridges and dormers of roofs, as well as 
to the ventilation of soil pipes and drains. Sheringham's 
ventilators are frequently used with success. 

Section III. — House Drainage, &c. 

As the object of these remarks is chiefly confined to 
the consideration of drainage as it affects our houses, it 
will be unnecessary to enter into any detail of the main 
question of sewage other than its bearing on this subject. 

General Sewerage: Gases. — There is doubtless 
much room for improvement here ; the pressing evils 
of the present system seem to me easily averted by proper 
means of provision in connection with our house drains, 
and I allude chiefly to large town systems of drainage, 
where it is more than ever necessary to exercise pre- 
caution. Especially is this necessary in low-lying 
districts and seaport towns, where sewers and drains 
frequently become tide or " water locked " during 
several hours every day, till the tide allows the escape 
of the pent-up sewage. Under the diluent system of 
disposing of our sewage — and this is at present the 
only practicable system of drainage available in large 
towns— there must ever be a large though varying 
volume of gas generated in the sewers, and pent up 
within them with no means of escape or relief, except 
through imperfect gullies, man-holes, and house-traps 
and drains. Through such vents this gas sometimes 
escapes, often to the injury of the public health, but 
especially to the occupants of houses. The pressure of 
this gas is very powerful at certain times, either from 
the displacement caused by the sewage water, heavy 
rainfalls, or by the temperature of the sewers. Now 
it is evident that the more air-tight and perfect the 
traps and pipes are that prevent the escape of this 
noxious gas, the more compressed and concentrated 



REMEDIES. 163 

is the gas, and the more eagerly it finds a vent 
through a weakly guarded passage or trap. Again, 
the modem system of draining our houses invites 
the admission of these poisonous gases in two ways. 
By virtue of the greater lightness of these gases (as 
nitrogen, sulphure4t)d hydrogen, ammonia, &c.), in- 
creased hy the ascc nsional force created by the higher 
temperature of our houses, the cold drains empty 
their dangerous product into our water-closets and 
through our sinks, &c. Secondly, the anwigement 
of the pipes within our houses is another and perhaps 
greater source of evil. Our soil-pipes, for example, are 
generally in an upright position, and, stupidly enough, 
are by the present mode of construction actually 
stopped under our very noses by a water check, or 
"trap,** as it is called, which is placed under every 
closet-pan, sink, &c. This water check, or seal, which 
is generally ineflfectual, and often inoperative from 
various causes, becomes useless every time the closet 
action takes place, the downrush of matter allowing 
the free escape of foul gas through it. What a piti- 
able piece of human ingenuity, that permits admission 
to the most dangerous foe every time our closets are 
called into use I 

Bemedies. — ^Now what are the remedies proposed or 
existing for this crying evil, the most dangerous and 
deadly of our modem sanitary regulations? They 
may be summarised into three classes: — Ist. Those 
remedies that remove the eause of mischief; 2ndly, those 
which deal with the main system of sewers and their 
outlets in relieving them of the gas, &c. ; 3rdly, those 
remedies which may be applied to house-drains. They 
are either chemical or mechanical in operation. 

Now one of the most important examples of the first 
class is that known as " Moule'a Pateofc "Ejax^Jsi ^\a'^u^ 



164 HINTS TO YOUNG ARCHITECTS. 

System/' in whicli, instead of water used as the flushing 
and cleansing agent, dry earth or ashes are employed to 
absorb the noxious portion of excrementary matter and 
deodorise it. In country districts where no water sys- 
tem exists, or where ready means of utilisation of the 
product is at hand, this disinfecting process is both 
valuable and economical ; but in large towns I do not 
see, under present circumstances, that it can come into 
general operation.* 

Several plans exist or are proposed imder the second 
class. These embrace various schemes for the dis- 
infection and the deodorisation of sewage matter by 
chemical agencies. Charcoal, chloride of calcium, 
lime, and other substances, either to absorb or prevent 
the generation of ammonia, to destroy the products of 
decomposition, or to act as precipitants (as the alum, 
blood, and clay of the a b c process), are used for the 
deodorisation and utilisation of the sewage matter. 

Other plans employ mechanical means of sewer ven- 
tilation either by the erection of ventilating shafts, or 
by using the up-cast shafts of factories as extractors. 
The latter mode is perhaps the most direct and prac- 
tical for the disposal of these sewer gases, although 
attended with some difficulty. There can be no ques- 
tion as to the desirability of ventilating our sewers, 
along the main arteries or at the highest and lowest 
points ; and such means, in conjunction with a general 
system of house-drain ventilation, as will be next 
discussed, cannot fail to have a marked influence on 
the health of large populations. The noxious effluvia, 
however, arising from man-holes and entrances to 
sewers in our public streets, is often detrimental, and 
proper means of egress or disinfection of the gas should 

' Carboiaaed, refuse, or charcoal, is a good absorbent and deodorant, 
and baa been adopted lately with the ** pail &y&lem." 



VENTILATING TRAPS. 165 

in all cases be provided : some charcoal filters get 
saturated and do the latter imperfectly.* 

The third class of remedies deals with the evil at our 
houses or through our house drains. Several plans 
have been suggested, all more or less depending on 
suction or on the natural tendency of such gases to rise. 
Some propose that the flues of houses should be made 
up-cast shafts; others that rain-water pipes should 
connect with the drains, and thus carry away the 
noxious effluvia above our roofs. Again, the most 
general remedy adopted is that of carrying ventilating 
pipes from the upper ends of our soil-pipes or closet 
syphon-traps to the roofs, or connect them with our 
stacks or fire flues. The last remedy is perhaps the 
most practicable of the kind, answers the purpose 
tolerably well, and can be readily applied.t A still 
more efficient plan, however, remains to be noticed — 
that of intercepting or giving free escape to the sewer 
gas before entering the house drains. This may be 
done by having a kind of cesspool or shaft outside the 
house open to the air, and communicating with the 
trap or syphon between sewer and house. Such a plan 
is pi:oposed by Professor Reynolds, and is one of the 
best and simplest means yet devised. I think this plan 
one of the best, inasmuch as it cuts off all gas or effluvia 
communication with the sewer outside our houses 
instead of dealing with it after finding a channel for its 
escape inside ; for it must be observed, there is little 
gas, comparatively, generated within our house drains, 
the products of decomposition not having time to 
become very noxious. It may be observed here also 
that this class of house remedy is more thorough than 

♦ Mr. Baldwin Latham's charcoal trays fixed at the summits of 
manholes or shafts have been used advantageously when a sufficient 
number is employed. 

t Many of these plans have been adopted with. moiiQ ot \<^»8i ^sof^^^'^^^ 



166 HINTS TO YOUNG ARCHITECTS. 

any of the sewer remedies, and for tliis reason, — that in a 
large system of sewerage, the house drains and outlets 
become naturally, by virtue of the laws of pneumatics, 
the only places for egress of the pent-up sewer air. 

Ventilating Junctions. — ^A still more efficient and 
ready means of disengaging the sewer gas as well as 
any effluvia that is generated within the house drains, 
I now bring before my readers. It is based on the 
principle above enunciated — that of intercepting the 
sewer gas and giving it free escape externally before 
entering our houses. Now all flue and pipe ventilators, 
however fixed, have the objection that they are costly 
and complicated, and often not so effectual as could be 
wished, by reason of their length. The invention or 
method which I propose is free from these objections, 
and the simplicity of it, and the variety of ways in 
which it can be appKed, claim for it attention from all 
sanitary authorities, boards, urban or rural, medical and 
scientific men, and especially architects, builders, and 
house plumbers. I have called it the "Ventilating 
or open Junction " because this designation seems to 
convey best its use and application. Its simplest form 
maybe described as a small trough open to the external 
air and inserted between the soil or waste-pipe and the 
syphon or other trap of the closet or sink. Its more 
perfect or developed form combines the syphon-trap 
Ld ventilator, aJd may further be provid'^d with I 
tray for charcoal or some disinfecting substance through 
which the deleterious properties of the gas are de- 
stroyed. The last alternative, however, is not neces- 
sary under ordinary circumstances, for as the escape of 
gas is constant and not intermittent, as in ordinary 
closed Boil-pipes, there is no time for the generation of 
the noxious products of decomposition. 
It 18 evident any ordinary water-closet or soil-pipe 



"trough ventilator.'* 167 

can be provided with a ventilator by simply cutting 
out a portion of the pipe under the trap, and intro- 
ducing the open trough or gas outlet, which is simply 
a trap open to the air. 

It is a well-known fact, and recently brought before 
the notice of the British Medical Association by 
Dr. Andrew Fergus, that lead soil-pipes, where they 
are nearly horizontally placed, and the upper bends of 
syphon-traps of the same metal, become under the 
corrosive action of the gas evolved from decomposing 
excretal matter, literally eaten through. Several speci- 
mens of decayed leaden pipes were exhibited, showing 
that the lower half of the pipes, being in contact with 
the soil and liquid, were not affected. In all cases 
which Dr. Fergus attended for diphtheria or typhoid, he 
had found escape of sewer gas from soil-pipes. Such 
evidence shows that the egress for gas shoidd be ample, 
and be at the uppermost points, and be provided as 
often as possible in the length of the pipes. All bends 
and unnecessary elongations should be avoided, hence 
small ventilating-pipes, by their friction, retarding the 
gas, are ineffectual. A ventilating-pipe should never 
be less than an inch and half in bore. 

It may possibly be objected against the "ventilating 
trough outlet *' that it allows escape of sewer gas to 
take place at inconvenient points, which may be dis- 
agreeable. This objection I have shown above to be 
ill foimded, as gas is only dangerous when it is confined. 
The quantity continually discharged through the outlet 
would of course be infinitesimal. It is only by a 
system of sealed or closed traps and air-tight pipes as 
now used, and so persistently advocated by plumbers, 
that gas becomes dangerous, and in proportion to the 
free escape provided does it cease to be so. Our 
engineers too often insist on fius aix-^i^V ^oTL$CL>stfsck viS. 



168 HINTS TO YOUNG ARCHITECTS. 

sewers and drains, but the evidence of the last half- 
century, and the increasing mischief of sewer emana- 
tions, show that this is wrong, and that our present 
glazed socketed earthenware and iron pipes and brick 
sewers, in. which few vents exist, require safety vents, 
and these points of relief to our gas-charged systems 
are highly necessary. 

Summing up the advantages of the "open junc- 
tion " over the ordinary pipe ventilation, we have the 
following :— 

1. Cheater efficiency. — The escape is provided just 
where required, over and in a line with the soil-pipe, 
and before it enters the syphon-trap, and it provides 
an aperture of the same area as the pipe. 

2. Facility for cleaning the trap or pipe. — ^By simply 
removing the perforated top or grating access is readily 
obtained to both trap and pipe, and any stoppage re- 
mcvod. 

3. Economy. — It saves the expense of a lead or 
iron ventilating-pipe carried up to the roof. A venti- 
lating-pipe, unless carried up a fire flue, frequently 
creates a cold descending current, particularly under 
certain states of the atmosphere, and then checks the 
escape of gas or forces it through water- trap. 

The ingenuity of inventors has generally been 
directed in making gas-tight traps, as if the pressure 
of gas could be limited. The present invention secures 
the water-trap as a useful secondary check, at the same 
time affording that relief for the confined gas without 
which a thin layer of water is of no avail. Giving free 
escape to the insidious foe, it at the same time makes 
the water-trap of greater use and efficiency, for it should 
be known, that water absorbs gas under pressure, and 
when saturated or impregnated with gas must evolve 
it Cistern water has been poisoned in a like manner 



SANITARY HINtS. 169 

by the gases conveyed through waste-pipes. These 
are some of the manifest advantages afforded by 
the "trough ventilator/* Giving to every house 
perfect immunity from the poisonous effluvia of the 
sewers^ it also affords ready means of cleansing 
pipes. 

We may caution the young architect against the 
employment of all complicated arrangements which the 
ingenuity of patentees has devised^ and to content him- 
self with the simpler contrivances which commend 
themselves to his common sense and good judgment. 
Many very excellent ventilating traps and systems of 
house drainage are before the public ; we prefer those 
which are easily accessible and allow free escape to the 
gas. The germ of the best ventilating traps is an open 
syphon, and we may mention Buchan's ventilating 
drain trap as an effective appliance based upon this 
principle. It can be used to ventilate the sewer and to 
allow a current of fresh air to pass through the house 
drains. Messrs. Doulton supply stoneware traps for 
the same purpose, the object in all cases being the dis- 
connection of the house drains from the sewer. .All drain 
pipes should be true in bore and smooth, and a good 
fall is 1 in 60 or 2 in. in 10 ft., the inclination for the 
branches being somewhat more. Their size should 
seldom be less than 4 in. in internal diameter, but 6 in. 
is necessary in most cases, so that solid matters may 
find an easy passage. A 6-in. drain is sufficient for 
several houses when the rain-water area is not large. 

For the admission of fresh air to buildings we 
recommend the conical-shaped perforations lately intro- 
duced by Mr. Ellison of Leeds, by which the air is 
arrested and diffused as it enters the apartment. Bricks 
and skirtings are manufactured on this principle. For 
outlets we have already mentioned tha d&^<^\I\sv^ ^^ 

I 



170 HINTS TO YOUNG ARCHITECTS. 

extaust ventilators, of which there are several in the 
market, applicahle for every variety of purpose. 

The excellent closets of Mr. Jennings, Doulton, 
and some others, are recommended for simplicity of 
construction, cleanliness in action, and freedom from 
the liability to corrosion. They are made of one piece 
of earthenware, and have in most cases a syphon-trap 
combined with the pan. In all instances the old- 
fashioned pan closet is to be avoided ; the plug valve 
and direct pull being preferable. In the case of waste- 
preventers, simplicity of action should govern the 
choice, and many excellent patents are to be obtained. 

Since the foregoing observations were written, I have 
had several opportunities of examining the corrosive 
action of sewer gas on lead ; in some instances, the traps 
(especially the old D trap) were found honey-combed, 
or perforated, at the upper part by the action of the gas. 

These observations lead to the conclusion that — 

1st. Lead is not altogether so desirable a material as 
plumbers would have us believe. Plumbers prefer lead 
because it is the material they are most acquainted with ; 
and because it admits of easy jointing, and is more 
pliable than iron, &c. Some of our sanitary manufac- 
turers are, however, wisely giving preferencefor earthen- 
ware and tin-encased lead pipes for traps, and the pipe 
and drains for the conveyance of soil, &c. Glazed earth- 
enware closet traps are decidedly cleaner than lead, and 
not liable to corrode. Closet pans and syphons are now 
made in one piece of ware. (See Jenning's patent.) 

2nd. We are led to the conclusion that any trap or 
pipe which harbours the gas, or encloses any space or 
corner where it can collect, is defective ; hence D traps, 
when unventilated, are more liable than S or syphon 
traps, to be corroded or eaten through by the gas. 

Closet Appliances. — ^It may not be out of place 
here to speak of the closet appliaivfiea m wjaa, Tt^st^ ^a 



SANITARY CONDITIONS. 171 

the "pan closet/* so called from its having a large pan 
and container under the basin. It has disadvantages 
from which its rival, the " valve closet " is free. The 
container or receiver below the basin is apt to become 
foul, and quickly corrode, and it is ftirther open to the 
objection that it collects gas in its upper part. In 
cases where it is used a small ventilating-pipe may 
be inserted, communicating with the soil-pipe venti- 
lator or shaft. To remedy this liability to become 
foul, Messrs. Warner, of Cripplegate, London, have 
provided china containers in lieu of cast iron, which so 
soon rusts and becomes coated with offensive matter. 

The "valve closet/' having no enclosing pan, is 
more direct and clean in its action, the soil at once 
entering the trap, and the flushing is more concen- 
trated and perfect. There is, also, no space for the 
accumulation of foul air as in the "pan.** India- 
rubber-faced valves are sometimes fitted to these closets, 
making the apparatus noiseless — a great desideratum. 
The overflow-pipe usually provided to basins of this 
class is often an injurious addition better avoided, as, 
unless ventilation be provided qa recommended, it 
only conveys eflGluvia into the house. The Hopper closet, 
consisting of a simple basin and trap, or Jennings' 
earthenware closet is the best. 

The overflow-pipes of cisterns are a fruitful source of 
mischief. They often are untrapped, and connect with 
imventilated soil-pipes. A small bell-trap is often 
used, which is of no value whatever, as it soon gets 
empty by evaporation. A self-acting trap is essential 
in these cases, especially where the cistern supplies 
drinking-water, though a separate cistern is best for 
the latter purpose. 

, Sanitary Conditions. — We may sum up the 
necessary conditions of house constructioxi «k& iO^Qr«^\ — 

i. I?ry subsail — Houses should iio\) \iQ '>^^^ 

I 2 



172 HINTS TO YOUNG ARCHITECrrS. 

against the foot of a slope, especially where a bed of 
clay crops out. Basements should be cut o£E from the 
surrounding ground by a bed of concrete or asphalte, or 
dry areas below level of basement floor, so as to ensure 
an open air space all round. Basement floors should be 
hollow, well ventilated over damp soils. Damp-proof 
courses should be provided in walls. Drains should 
never be under a house, but should be accessible; if 
under, they should be covered with concrete to make them 
air-tight. Sinks and wash-houses of cottages should be 
outside walls. Waste-pipes should empty into trapped 
gratings, so as to leave air-space between outlet and trap. 

2. Pure air, — All drain and soil pipes should be 
trapped and ventilated. Cesspools should, in all cases, 
be ventilated separately, and formed in the lower sur- 
face of strata to prevent percolation into live wells. 

3. Warmth. — ^Walls and roofs shovld be of hollow 
construction, and non-conducting materials, and be 
provided with air gratings. Floors should be 
rendered fireproof and sound-proof by concrete fiU- 
ing-in between joists or by pugging. "Windows in 
exposed sides should be double ; entrances should 
be protected by double doors. 

4. Ventilation, 8fc. — ^Ventilation should be provided 
in all rooms by a proper provision of inlets and 
outlets so as to circulate the air without draught; 
attics, and apartments in roofs, and staircase lanterns 
should particularly be ventilated. Trap-doors should 
be provided to roofs. 

Cisterns should be covered by felt, also all pipes that 
are external, with means of access for repairs. Hall's 
water- waste cistern avoids liability to frost. All drains 
at junctions and bends should have movable lids. 

6. Lofty buildings should be protected by lightning- 

condnctora; aXL stoYea and ironwork being connected by 

fnre to a well in the earth, or to tlio N7a\At oxidL^g^Tx^akc^. 



PART VI. 

DESIGN. 

Section I. — Architectural Taste, 

Before proceeding to consider the principles upon 
which Architectural Design is based, it may be as well 
to make some remarks upon the general tendency of 
art-thought and the transition of taste which the last 
century has witnessed. These changes or " fashions " 
cannot be too thoughtfully considered by the young 
architect, as indicating both the natural tendency, or 
reactionary impulse, of the mind for variety ; and also 
as affording a very reliable means of testing the 
fictitious, and discriminating between truth and error; 
between mere sentiment and the immutable laws of 
design in art. Since the publication of the first 
editions of these " Hints " architecture has undergone 
considerable changes in regard to its manner or style. 
Greek art, and the traditions of classic Italy, were at 
one time the "rage.'' Architects pinned their faith 
to the " five Orders," and few ventured to depart from 
those proportions which the finest examples of Ghreece 
and Eome afforded. 

Every column, moulding, and intercolumn was 
nicely proportioned by the " module '* or diameter of 
the column to within a "minute," or sixtieth part; 
and the student who could accurately dii^^ ^<5i ^^ S^;^^ 



174 HINTS TO YOUNG ARCHITECTS. 

orders/* and define every detail, was considered to have 
acquired the rudiments of his art, which were equally 
applicable to churches and theatres, the nobleman's 
mansion, to the interior finishing of a room, or a 
garden temple. Stuart and Eevett's "Athens," 
Vitruvius, and Palladio, were accounted indisputable 
authorities, and their dicta were followed and laid 
down with a precision that now appears ridiculous. A 
just admiration for the beauty and proportions of the 
columnar structures of Athens — ^the Propylaea, the Par- 
thenon, the Erechtheum, and others ; the consummate 
art and intellectual refinement shown in the sub- 
divisions of architrave, frieze, and cornice, and the finer 
gradations of the entablature — the triglyphs, mutules, 
&c. ; the entasis, or swell of the column, and the other 
niceties of adjustment in the forms and mouldings 
which learned and painstaking explorers have dis- 
covered; all these excellences, no doubt, fired the 
enthusiasm of the architect, and were sought after and 
reproduced with an untiring zeal by a generation of 
artists who have left an imperishable name. 

While we are compelled to admire the matchless 
proportions and arrested lines of Grecian architecture, 
we cannot altogether overlook the error of reproducing 
with mechanical correctness the features and peculiari- 
ties of a style which were not the most suitable to our 
climate and wants. An untiring devotion and enthu- 
siasm for this exquisite refinement of art, and a keen 
perception df the merits of the style, led to a closer 
adherence to precedent than was consistent with our 
wants and correct judgment; and hence a reaction 
of a difierent kind followed. Eoman models became 
fashionable ; a less rigid style succeeded, and eventually 
gave place to the Gothic Revival. 

Willie correotnesB and method were observed almost 



ARCHITECTURAL TASTE. 175 

to a faulty and the dogmas of classic art and its forms 
repeated ad natiseam, a change began which entirely- 
set aside rule and precedent for a mode of thought and 
expression in which, a picturesque irregularity and a sen- 
timental disregard for order and critical perception were 
the predominant characteristics. Both in literature and 
art the change was marked. A love of the marvellous 
and chivalrous^ the associations of a romantic life, 
incited by the writings of Sir Walter Scott and 
Byron, displayed the general tendency of the popular 
taste. 

Again, in art, rectilinear severity gives place to 
curved forms, and graduation to picturesque fancies and 
broken masses. We find a complete transformation 
both in thought and art expression. The unbending 
dialect of Johnson is succeeded by a vernacular idiom. 
The Greek or B>oman temple is replaced by the 
medisoval abbey or cathedral. Buttressed walls take 
the place of porticoes and colonnades, pointed arches of 
square lintels ; and the fritter of meaningless adjuncts, 
pinnacles, and crocketted spires, exchange the rigidity 
and rectangularity of unbroken sky-lines. 

A frivolous seeking after effect became as painfully 
apparent as the monotony of columnar fa9ades, and the 
concealment of roofs and gutters by false parapets, pedi- 
ments, and balustrades. 

From the toy-like Gothic of Walpole*s time,* with 
its gabled, castellated, or pinnacled features, the conven- 
tional type of church, with its attenuated windows and 
western embattled tower, of which there are many ex- 
amples still existing, to the later type of fashion in which 
the continental Gothic is predominant— a noticeable 
change of character and a considerable leap is manifest. 

• Known as *♦ Strawl)eiTy Hill" Goibic, iulxodjaa^ Vj ^^^^ 
there in 1770, 



176 HINTS TO YOUNG ARCHITECTS. 

From overwrought and ornate examples, based on tte 
Tudor, or Late Perpendicular, we were lately deluged 
with the revival of foreign varieties of Gothic ; crude, 
meagre, and frequently devoid of any of the higher and 
more intellectual beauties and refinements of Gothic. 

After ransacking English Gothic examples, and 
studying Pugin's, Rickman's, «,nd Parker's works, 
hurried and thought-grudging architects have left our 
own shores for examples and types less pure, or the 
contemptible motive of mimicking Italianisms or 
French forms of Gothicesque. 

The student is earnestly invited to consider thought- 
fully these changes in the architecture of our era ; to 
discard the poetic romanticism and extravagances of 
the art, even though under the sanction of our most 
fashionable pseudo-Mediaevalists ; to weigh well the 
merits of those several schools of art-thought which the 
last three centuries have revived ; to consider what 
elements in them are worth adopting, irrespective of 
narrow prejudice and sectarian ideas ; and so to evolve, 
from a generalised study of the past, that particular 
mode of construction and expression which best fulfils 
the requirements of the present age. Let the word 
''style'' be banished from his mind — his practice at 
least — so that he mscy follow out his thoughts without 
a conventional rendering or phraseology borrowed from 
a bygone age. Let him discard the traditions and 
dogmas of Mediaevalism as regards the arrangements, 
forms, and accessories of his churches ; and, trusting 
ovXy to his common sense of fitness, adapt his materials 
without reference to mere type, restrained only by a 
rational use of the fittest material and the most 
scientific method of construction. "We do not mean 
that novelty should usurp experience, or be sought 
wJjon a certain type or precedent can be found equally 



ARCHITECTURAL TASTE. 177 

adapted to our wants. This would be rasliness and 
presumption. 

Let the student particularly avoid affectation or 
mannerism as the very curse of Art. Every true 
artist must henceforth be a school in himself. The 
styles of the Greeks and Komans^ the Bomanesque 
and Gothics of the "West, the styles of the East, of the 
Srcnaissance, or the schools of the Bevival, have all 
served their time and departed. If we recall them^ 
we can only affect their manner without adding to our 
art one idea. The Periclean and Augustan ages, the 
thirteenth and fourteenth centuries, with their wondrous 
arts, cannot be brought back ; we may as reasonably 
expect to roll back the tide, or recall the past. These 
great phases of architectural thought were the results 
of working priesthoods or classes — ^the thinking y simple, 
honest-minded mason, craftsman, or artist. There was 
not the art-cant and thoughtless hurry and affectation 
we have now. Our modem taste is vastly different. 
"We copy because we will not think for ourselves ; our 
national architecture is a reflex of our multifarious 
ideas and tastes, rather than of our wants. Unlike 
the arts under Pericles and our Edwards, ours has 
no basis or belief to repose upon ; it belongs to a 
nation, not a class, or society, or dominant Church ; it 
has all the elements of discord, it adopts anachronisms 
and styles of the most opposite and incongruous descrip- 
tion ; chiefly, from a want of agreement between the 
material, mental, and moral states of our civilisation. 

Instead of resting on a subjective basis, modern inven- 
tion, as respects art, is utterly feeble, and has failed to 
realise that balance of the intellect and f cQling which 
alone can produce the true and beautiful. Thought, 
then, should preside, and influence all our architecture ^ 
it should be freely not grudgingly \)e&Ww^\3^^'^ *^^ 

I 3 



178 HINTS TO YOUNG ARCHITECrS. 

smallest detail, no less than npon the general design of 
a structure. We should take nothing without this 
crucial test — ^nothing without its sanction. True Art is 
the combination of the constructive and (esthetic — in- 
tellect and moral power; its object must be attained 
in the simplest and most unaffected manner, not by fol- 
lowing, as our pseudo-Classicists and Mediaevalists have 
done, any past style, nor by mistaking barbarism and 
crudity for simplicity, as our ultra-RevivaKsts are now 
doing. Whatever may be the principles we take for 
our guidance, we may be sure nothing will atone for 
the want of thought in our designs. Thought-sparing 
art has been the source of our decline in constructive 
and decorative truth. We are flooded with Conti- 
nental works of art ; our students have been taught to 
copy and follow instead of work and think for them- 
selves. Italian and French Gothicisms are thrust upon 
the young architectural aspirant before he can master 
the materials and principles of his art ; he is apt to 
follow this or that leader of " fashion,'' as his imagina- 
tion tends, and thus his future career is fettered and 
cramped by a false system of conventionalism and 
slavery, instead of prompted and dictated by a free 
and independent power of thought, the result of a catho- 
lic and nobler view of art, and a generalization of nature. 
Let the student of this art regard the mutations 
which have successively marked its history during the 
last century — the Grecisms, Italicisms, of the Adamses, 
Soane, Nash, Wilkins, Barry, and a host of departed 
classicists, the Gothics of Walpole and Pugin, and our 
own ultra-MediaBvalists — ^the ages of pseudo-temples 
and lath-and-plaster pagodas, as merely passing and 
reactive changes, resting his taste on the broader prin- 
ciples which underlie all true art— the primitive im- 
pulsee that create it. * 



PRINCIPLES OF DESIGN. 179 

Section II. — ^Principles op Design. 

Every perfect work of art should satisfy and corre- 
spond to the necessities of our nature, namely, the Phy- 
sical, Intellectual, and Emotional states.* The two first 
of these may be considered as embraced under Construc- 
tion, and include the principles of Utility and Fitness^ 
which lie at the root of all good design. The emo- 
tional or aesthetic spring from or grow out of these. 

In the present brief section we will lay down some 
of those general laws which should determine the 
design of various functions of architecture, and also the 
legitimate employment and use pf materials. 

The multifarious uses and purposes to which Archi- 
tectural Design is applied are not now considered, as 
they belong to a wider view of the subject than can be 
discussed here, and further imply questions of indi- 
vidual and special requirement, discipline, and the 
ever-changing and progressive notions which com- 
merce, science, hygiene, and improvements in mechani- 
cal appliances and materials call into existence ; as in 
the arrangements of our domestic and commercial 
buildings, educational institutions, structures devoted 
to public worship, as churches and chapels, and the 
various buildings erected for sanitary purposes, hos- 
pitals, asylums, unions, prisons, and the like. All 
these kinds of structure, it is evident, demand special 
wants, which only the experience gained from an 
examination and study of actual works of merit of their 
several kinds can supply. They all require a know- 
ledge of the best arrangements and other concrete kinds 
of information with which the young architect should 
make himself familiar by the study of works specially 

* See a work entitled " Theory of the AxtB " ^\i\s^ ^^\. v^^^'Xt'i^ 
in the JBuiidin^ News, 



180 HINTS TO YOUNG AECHITECTS. 

devoted to their consideration, and tlie statistics and 
reports of parliamentary evidence contained in various 
Blue-books. Our duty now will be confined to those 
abstract principles of architecture proper, which deal 
with structural and technical facts and requirements. 

Different conditions and circumstances demand solu- 
tion in every case in which an architect is consulted. 
Thus, the extent of land, its shape and surroundings, 
special wants, as entrances, and modes of lighting, 
contiguity of buildings, accommodation, materials of 
neighbourhood, and not least, cost, must in every case 
determine the arrangement, position, and construction 
of a building, in all of which cases it would be impos- 
sible to lay down any general rules. 

Design is not dependent on abstract form merely, 
such as implied in those theories which are foimded on 
plant form, geometrical ratios or proportion, harmonic 
laws, &c., which all err in not regarding the concrete 
nature of architecture. 

The very complexity of conditions the architect has 
to deal with, is the main cause of his neglecting, as too 
often he does, the dictates of direct science. The deduc- 
tions of science required by the engineer can be directly 
applied, immediate utility being the only end sought ; 
hence he works by more exact laws, and the results are 
therefore more satisfactory and determinate. On the 
contrary, the architect, besides utility, has to gratify 
the emotions, and thus he too often works more by his 
imagination than his reason, more by custom and pre- 
cedent than science. His art stands in much the same 
position as that of medicine, half empirical, half exact ; 
and the laws of his art are in the same undefined 
category as those of moral science, occupying a middle 
ground between the exact and indefinite. Thus he is 
continually waging a war between advanced theories 



MECHANICAL PRINCIPLES. 181 

and tlie demands of science and those of conventional 
art — ^between the progressive and unprogressive ele- 
ments of his art. 

Laws of Design. — ^The laws which should govern 
architectural design are— 

1st. Physical Laws in which the senses of weight, 
strength, security, and comfort are concerned. 

2nd. Intellectual or Discriminative Laws. These 
control and adapt the materials and construction of a 
building so as to present to the mind a sense of fitness 
and adaptation of means to ends. Professor Bain^ in 
his able work on " The Senses and Intellect/* shows 
that our feelings for "differences and agreements*' 
constitute the functions necessary in the performance 
of the intellect, and the discrimination has been ex- 
pressed as the law of "relativity.** Thus it is our dis- 
criminating perception of weight and support, which we 
call just proportion, that enables us to give to a struc- 
ture an appearance of fitness, the mind being satisfied 
with the result. Such is the justness of proportion 
between the entablature and columns, or betweqn 
arches and abutments, height or mass of wall and its 
supports, lengths and widths of apartments, &c. The 
adaptation of a material to its use is another example 
of this faculty of design. 

Mechanical Principles of Design. — All architec- 
tural construction involves ideas of rest and motion, or 
static and dynamic conditions direct and indirect 
support. In the vertical wall or pier we have the 
first typified ; in the arch, dome, roof, and vault the 
second typified. The lintel, although usually placed 
in the first or static condition, is really more significant 
of the latter.* The Egyptian and Greek architecture 

* Some writers, incorrectly I think, confound the abstract exnre&s.\a^ 
of lines and masses with their relative du^iiea. l.\.Taa.'^\i^ wi^^t^'i^^ 



182 HINTS TO YOUNG ARCHITECTS. 

are eminently symbolic of the static principle ; wliile 
the Boman, Eomanesque^ the Gbthic, and all arched 
styles, of the dynamic. Correctly, we think the latter 
styles and all true architecture show equally both prin- 
ciples. Now it may be noticed that the static principle 
was the earliest developed, as it was founded upon the 
law of gravity in its simplest form ; it was in fact the 
simplest mechanical condition of building and the easiest 
lesson of experience, and one favourable, as we have shown 
elsewhere, to the subjective law of thought. It was 
extremely monumental, easily lent itself to this form of 
composition, as it did also to the decorative, for the con- 
ditions necessary to ornament were speedUy attained. 

To span a chasm, or cover a large area, with few 
points of support, required a new principle of construc- 
tion, an economical balance of counteractive forces. 
The arch was the simplest and earUest expedient which 
answered this purpose. It enabled small stones to be 
used, and we find the columnar and monolithic con- 
struction gradually giving place to a system in which 
the arch and buttress became the leading elements. 
We have here the static and dynamic principles com- 
bined, each co-operating with the other. The con- 
structions of the Romans first developed this system, 
which was perfected during the Middle Ages, and our 
own modem works have carried the arched system to 
a very advanced state. 

The highest forms of architecture — ^the Romanesque 
and Gothic — ^have therefore both the static and dij- 
namic conditions in a state of balance and agreement ; 
the coliunnar and vertical masses (static) being every- 
where in conjunction or acting together with the active 

that horizoniality can only imply the idea of rest when connected with 
pfirtieal snjtport, and that a long unsupported beam is anything but 
0table. 



MECHANICAL PRINCIPLES. 183 

weightor thrust principle of the arch and vault (dynamic) 
— ^never, however, In a state bordering on a tottering 
equilibrium, but so far removed from It as to evince 
mutual counteraction and aid ; thus we have the but- 
tress sustaining the nave or aisle vaulting, and yet 
aiding In reality and emphasizing In effect the static 
repose of the structure or the vertical parts. The 
graduated or staged buttress (which modem Gothicists 
are surrendering in favour, of the pilaster or Italian 
buttress) exemplifies this principle. While it performs 
the office of abutment or counterfort to an unseen but 
still-evident force created by the arched opening, vault, 
or roof (the graduated increase of thickness as It reaches 
the ground agreeing with the theoretical "line of pres- 
sure'*), it also affords economic support and expression. 
The pyramidal outline of Gothic buildings displays 
mutual and co-operative support of the two principles 
which we fail to observe in the simple static structures 
of Greece.* 

As characteristic or symbolic of these principles it 
may be noted, that while the static or columnar forms 
are simply rectangular^ as in the Greek temples, the 
dynamic Is evidenced In triangular and curvilinear 
forms. The economical adjustment of material and 
forces has thus. In all true composition, shown or 
expressed Itself In the leading and dominating lines of 
features and mass, and indirectly also Influenced and given 
form to every detail. The mechanical framework or con- 
trivance has also been the chief impulse to decoration, 
and has controlled imagination. Under our present 
system or fashion of design, the forms are repeated 
without the correspondence of this initial or motive 
impulse. The following conclusions may be deduced : 

* It may be observed that in Grecian architecture the predominant 
lines were horizontal and continuous, and the BTjiboTtoki^\ft\vx^^^^^TJ^^^ 
and dJBcoDtinnous, 



184 HINTS TO YOUNG ABCHITECTS. 

1st. The lugliest forms of arcliitecture are those in 
which the static principle (or repose) predominates 
with the least amount of material^ or in which the 
static and dynamic forces and expressions are pleas- 
ingly balanced^ as in the Greek and Gothic. 

2nd. The correspondence of the mechanical and 
decoratiyO; or the intellectual and imaginative, ele- 
ments is necessary. 

The Egyptian and other primitive structures fail in 
the first: the material preponderates. In the Par- 
thenon the static principle is more evident to the senses 
than the mere mass of the pyramids or the Hall of 
Eamak, which expresses only weight and immovable- 
ness. In the mediseval cathedral, as our Salisbury, 
Lincoln, or Amiens, we have the balance still more 
delicately expressed. The Indian and some other forms 
show the dynamic condition only. 

Materials and their Functions, — ^We have three 
distinct structural elements, which play important 
parts in architecture : — 1st, the column ; 2nd, the 
beam or arch ; 3rd, the tie. Each of these has been 
developed under different systems of art. The first we 
find in the columnar expressions of Egyptian, Assyrian, 
and Greek examples combined with the beam. The 
second, or the arch, we have in the Eoman, Roman- 
esque, Byzantine Moresque, and Gothic developments ; 
while the third, the principle of the tie, has been 
reserved for the latest necessities of architecture, and 
exemplified in the Ti^ms. 

It is evident there are certain materials that lend 
themselves to these special elements. For example, 
stone, brick, and all homogeneous granular substances 
are peculiarly adapted to compressive action, as in 
columns and arches ; other tenacious substances, such 
as timber, iron, and metals, adapt themselves to tensile 



MATERIALS AND THEIR FUNCTIONS. 185 

action more favourably than tlie former materials. The 
beam, however, Is subject to two separate actions or 
strains--a compressive, in the upper section, and a 
tensile in the lower part. This double action makes it 
necessary that a beam should be of a material which can 
equally resist both these strains. On this account, a stone 
beam, if too long in proportion to its depth, is out of 
place, and weak; it would be liable to open below 
from want of cohesive resistance, the resistance of stone 
or brick to tension being only about a fifth of its resist- 
ance to compression. For lintels and very short bear- 
ings, as exemplified in the classic entablature, stone may 
be used ; but its legitimate purpose as a material is for 
walls, piers, and arches, and for columns whose height 
does not exceed ten or twelve times the diameter. 
Timber and iron are the materials which combine 
the compressive and tensile resistances to the greatest 
extent, and therefore are chiefly adapted for beams and 
other uses, in which these two kinds of strain are called 
into exercise. Compound beams of brick and iron or 
concrete and iron are sometimes used with advantage, 
as in flooring, roofing, &c., but in these cases the 
materials are combined so that each may have its 
proper function. From these considerations, then, it 
appears that all stone and brick work should be designed 
in conformity to the following principles : — 

1st. They should be placed in positions, and perform 
offices, in which only weight or compressive strains are 
concerned, as in walls, piers, columns, arches, &e. 

2nd. In designing stonework or brickwork, mass and 
weight are required, and forms should be given which 
best meet compressive action. Tensional stress should 
be avoided. Thus in buttresses we require depth as 
well as thickness. Piers and columns of stone or brick 
are best of rectangular, square, ootagoinsiiX., ^\x^\iJL^ix^ ^"^ 



186 HINTS TO YOUNG ARCHITECTS. 

other figure of section wbose geometric centre is sym- 
metrical, or nearly, and so designed as to produce 
at «very bed-joint uniform pressure. The piers and 
cluster^ shafts of Romanesque and Early Pointed 
work illustrate this principle. The arch moulds, 
though often complicated, are in good examples de- 
signed in section within rectangular outlines, as are also 
the engaged and detached shafts which follow the simple 
square outline of Norman recessed jambs and archi- 
volts. The plans of mullions also illustrate this prin- 
ciple ; in the early and better examples, the sections 
are nearly square with the angles taken off, or boldly 
beaded or shafted, while in late and debased work 
hollows, fine fillets, and deep quirks destroy the real 
stability and apparent strength. 

Where the pressure is one of varying intensity, as in 
the case of a pier supporting a thrust, this should be 
considered, and sufficient projection and mass given to 
that part of work upon which the greatest pressure is 
thrown. In the case of an abutment or jamb, against 
which an arch abuts, visible as well as actual security 
should be given, or the apparent effect will be to make 
the pier weak, if not bent to the eye; flat segment 
arches springing from narrow piers always give a 
crooked appearance to the piers, although architects 
seldom seem to notice or heed it. 

3rd. Acute angles or arrises should be avoided. No 
angle should be less than a right angle in constructive 
masonry or brickwork, and sharp angles are incon- 
sistent with the nature of such materials, even when 
used decoratively.* 

Iron and Timber, when used to resist compressive 
forces, admit of somewhat wider limitations, being 

* For further details the student is referred to the excellent treatise 
Ify Vobaon, '^Masonry and Stonecutting " (JjoOctjoo^ & Co.^ 



IRON AND TIMBER. 187 

less friable in their nature. Moulded forms may be 
employed more consistently. For tensile strains sec- 
tions of less area are allowable, tbougb in all these 
cases, square, round, or polygonal figures are more 
suitable. In the section on *' Construction '* we have 
indicated the best forms for beams, columns, and girders. 
The following principles should be observed in design- 
ing ironwork : — 

1. Columns, struts, and other constructive ironwork 
subject to compression, should be of cast iron, of uni- 
form or symmetrical section, either solid or hollow, 
round, cross-shape, square, or y-shape section. 

2. Beams subject to cross strain shoidd be designed 
with special reference to the material. Cast iron, 
having a greater resistance to compressive than tensile 
strains, should be designed with larger sectional areas 
or flanges at those parts subject to the latter. In- 
equalities of thickness in the metal, and sudden changes 
of form, should be avoided. 

3. For work subject to sudden jars, changes of 
temperature, cross-strains, and where tensile strength 
is chiefly required, wrought iron should be used. The 
same sections may be adopted for beams, having regard, 
however, to the ratio of tensile to compressive strength. 
Lightness rather than mass should be observed in 
designing all wrought-Iron work. 

For Woodwork the following rules should be 
observed : — 

1. Columns and all pieces subject to pressure should 
be of square or rectangular section, plain, chamfered, 
or simply moulded. Circular and octagonal sections 
may also be employed, but are not so suitable or cha- 
racteristic of the material. For example, in frame- 
work, turned pillars, with caps a-nd bases of wood, are 
not so rational a treatment as chai£kS.eT^^ ox tc^ssk^^ 



188 HINTS TO YOUNG AKCHITECTS. 

work, as such forms do not lend themselves to the 
natural fibre and grain of the material. 

2. The ornamental treatment of woodwork should 
invariably be dictated by its fibrous nature. Cut, per- 
forated, or turned work should only be applied to orna- 
mental purposes, and on a small scale. Deeply indented 
or cut timber, in which the grain of the material is 
vreakened or impaired, is improper ; deep quirks, or 
deeply cut members, should be avoided. Mouldings, 
chamfers,' and bevels are admirable for decorative pur- 
poses, while deep quirks and undercuttings are un- 
suitable as harbouring dust and dirt, and for external 
woodwork are injurious on account of retaining mois- 
ture, and tending to accelerate decay. 

For carving and turning, the denser kinds of wood, 
as oak, are more suitablei 

Plastic Substances, such as cement, plaster, and 
other compounds of a tenacious kind, carton pierre, 
papier-machiy &c., should be treated in the manners 
following : — 

1. Casting, as in the cast or moulded enrichments 
and accessories of building. 

2. Bunning, as in moulded work, cornices, strings, 
&c. 

3. Stamping or impressing, as in ornamental panels 
and shallow surface relief. 

Cast work should never be too deeply undercut. Bas- 
relief is more adapted to these materials and the mode 
of manufacture than alto-relievo. On the whole, we 
think running or moulding and stamped work the most 
characteristic treatment for cements and plasters, as 
high or deeply cut relief is evidently inconsistent with 
the brittle nature of such substances. 

Ceramic materials, as terra-cotta, earthenware, por- 
celain, &c., admit of higher xeliei &t oYn^mental pur- 



CAST AND STAMPED METAL WORK, 189 

poses, being employed in small pieces as panels, string- 
courses, &c. 

Cast akd Stamped Metal "Work, as zinc and other 
alloys, should be designed as indicative or expressive of 
such modes of manufacture, and not made to represent 
carvings and chisel sculpture. 

In short, every material, natural or artificial, should 
firstly, be adapted to its proper function and purpose ; 
and secondly, the artistic or decorative treatment it 
receives should express rather than conceal or counter- 
feit its nature. 

The tirade against shams of " stucco " and " compos,'' 
which devices prevailed during the early part of this 
century, has called forth a more truthful exhibition 
of material ; yet it must be confessed we employ our 
materials often more regardless of structural condi- 
tions, as, for instance, when we use soft brick for label 
mouldings and other exposed parts in a stone build- 
ing, or condemn cement and plaster where they would 
be of service. 

Having discussed the functions of architecture, the 
concrete conditions of design, and laid down general 
principles which should govern all constructive mem- 
bers of buildings, we may now briefly recapitulate those 
abstract elements of design which have reference to 
Form only, and which please the eye, and through it 
the mind, by awakening the emotions. These may 
be classed as purely aesthetic elements, and occupy the 
border-ground between the Sensuous, and Intellectual, 
and Emotional. Such principles constitute all forms of 
beauty, and are — 

I. Proportion. 
II. Unity, or Symmetry. 
III. Variety. 



190 HINTS TO YOUNG ARCHITECTS. 

IV. Contrast and Gradation. 
V. Optical correction. 
VI. Expression. 
Vn. Colour. 

Beauty of Form.— Without discussing tlie various 
hypotheses of philosophers and writers on art as 
to what constitutes Beauty, we may say that it de- 
pends on a combination of properties which appeal to 
the higher emotions rather than upon anyone pecu- 
liarity or element inherent in the material, as Burke 
propounds ; on any associations of a pleasmg kind, as 
attempted to be laid down in Alison's theory ; or upon 
any distinct principle of an abstract kind, as a line of 
double flexure, arbitrarily defined by Hogarth and 
others. All these able theorists, however, have ad- 
vanced hypotheses more or less near the truth, and 
their works may be studied by all architects and 
others engaged in the arts of design. In our own 
day, Mr. Fergusson, in his " Principles of Beauty," 
who classifies all beauties under the three heads 
of (1) Technic, (2) ^Esthetic, (3) Phonetic, thinks 
architecture (as the Greek) combines in equal pro- 
portions these three kinds of beauty or merit. As 
justly observed by another writer on the " Principles 
of Design,'* * this categorical theory does not define the 
kind of merit, only the degree, and that we must look 
for a class of art possessing an expression peculiar to 
itself, not associative, as, for example, in confounding 
Gothic art with Religion, or Italian with the Secular, as 
commonly done. The great point is to distinguish the 
accidental and local from the universal and essential, or the 
generalised expression of merits which aptly find their 

♦ See the able work on " Design *' by E. L. Garbett. (Lockwood 
4& Co.) 



PROPORTION. 191 

counterparts in our physical, intellectual, and emotional 
faculties. 

Professor Bain, in Ms work on "The Senses and 
Intellect," and his "Manual of Mental and Moral 
Science,*' has shown clearly the dependence of our 
emotions upon organization, and we refer our readers 
to these works for a philosophical investigation of the 
causes of heauty.* 

Briefly, the beauty of form depends upon an 
agreeable balance of those qualities which satisfy the 
mind and emotions. A work of art may be striking 
from its size, outline, or some sensible property it 
possesses, yet it may not be beautiful, — some other 
quality may be needed. If it have in addition certain 
qualities or attributes which combine to give it ex- 
presdon, grace, and fitness, a^d which may depend 
on various merits and sensible properties, we then call 
it beautiful, or perfect. It is evident every one cannot 
realise the same standard of beauty, though there are 
some abstract properties which are universally regarded 
as beautiful. Some see beauty in the Greek Parthe- • 
non, others in the MedisBval cathedral. We must 
therefore look for other elements which are necessary 
to the beautiful. 

I. Proportion is one all-pervading influence. By 
proportion we mean the adjustment of weight and 
support, ratio of height to breadth, or fitness of size and 
bulk for the intended purpose.! Constructive fitness 
lies at the basis of it. Attempts have been mad^ by inge- 
nious theorists to apply certain arbitrary ratios to archi- 
tecture, founded upon analogies of sounds, colours, &c. 
Thus Vitruvius gives a certain ratio for the height 
and breadth of a window, because two strings of a like 

♦ See Herbert Spencer's works. 

t A room whose length and breadth have eom^ i&DLjV^T^^^^A^Na 
1 or 3 to 2, 18 more agreeable than 'when tlo toX^q V^ ^^cscc£^Sl^« 



192 HINTS TO YOUNG ARCHITECTS, 

ratio will give harmonious notes. The analogy is far- 
fetched, yet talent has been misspent in attempts 
to lay down definite forms and proportions founded 
upon harmonic laws, botanical geometry, &c. Some 
mental cause must be found for all preference of one 
proportion over another.* 

II. XTnity and Symmetry are important elements 
of beauty. Correspondence and connection of parts, 
equal spacing, &c., may be embraced within this 
category. Oneness of form, number, ratio, succession, 
are equivalent terms implying method or order. Dr. 
Hutcheson remarks as regards formal beauty, that 
when imiformity is equal, the beauty of forms is in 
proportion to their variety; and when their variety 
is equal, it is in proportion to their uniformity. A 
curved line of irregular flexure is not so beautiful as a 
regular one, as an arc of a circle whose direction 
though changing does so uniformly. 

ni. It is the combination of Unity with Variety 
which is needed, and this we get in the simple and 
varying curves, as the circle seen perspectively, the 
ellipse, hyperbola, parabola, catenary, spiral, &c. 
Gradation is another term for this combination. 

IV. Contrast may be defined as a change of resem- 
blance, either as a change of shape, position, &c., but 
resemblances must e;2dst as well as difierences. 
Hogarth's line of beauty, being a curve of contrary 
flexure, is an apt example of the principle of variety, 
gradation, or contrast. It has been well remarked in 
the case of curves of opposite curvature, the best 

• Mr. D. E. Hay has applied the Pythagorean system of harmonic 
numbers to architectural proportions, the basis of the theory being that 
a figure is pleasing to the eye in proportion as its primal angles bear to 
each other analogous proportions to those of vibrations in a chord of 
music, and that harmony of form 'arises from a simple division of a 
gnadrant or right angle into harmonic parts, as }, f , i, f, and their 
mtdtiplea. 



CONTRAST AND GRADATION. 193 

contrast is obtained by equality of curvature, or when 
the curves are both equally deflected from a common 
tangent. The most graceful Greek kinds of ovoid form 
exhibit this equality in the opposite curves. 

Nature expresses force, strength, and exciting 
qualities by angularities and contrasts; the more 
delicate feelings and qualities by curvature and 
gradation (see Alison on " The Sublimity and Beauty 
of the Material World," ch. iv., part 2). One 
general and valuable principle may be deduced, viz. — 
all structural parts of a building or work of art should 
have the more forcible elements of expression, and the 
minor and ornamental portions the most graceful and 
elegant kinds of form. 

Thus the perfect Greek and Gothic show a remark- 
able contrast ; in pure Greek we have interrupted vertical 
lines, in Gothic interrupted horizontal one&. In all com^ 
position both vertical and horizontal connection is 
necessary to preserve unity of parts. 

Other considerations should govern the kind of form 
best suited, such as the destination of the building, 
whether it be of a grave or light class, and tho 
relative position and importance of the features. Some 
of the principal kinds of expression in abstract form 
arising from the principles of Contrast and Gradation 
are— 

(1) Rectangular forms, or forms bounded by planes 
or lines at right angles (a right angle being tho 
strongest contrasted angle). 

(2) Forms bounded by oblique lines or planes, 
expressing an intermediate state between strength and 
force and delicacy or grace. 

(3) Curvilinear forms more or less contrasted, as 
in geometrical or flowing traceries, forms of arches 
and roofs exemplifying gradation and ^'a.^^^ ^cc^ 



194 HINTS TO YOUNG ARCHITECTS. 

all the lighter and more soothing qualities of expres* 
eion. 

(4) Mixtilinear forms, in wHcli the above expres- 
sions are blended, as in the combined bead and square 
or roll and concavity. 

V. Optical oh Ocular Refinement can hardly 
be called an aesthetic principle of abstract form, 
yet it plays an important part in design. Straight 
lines joining curves, as in some Tudor or flat-pointed 
arches, always look concave, and have an apparent 
deflection at their junction very disagreeable. Straight- 
sided shafts, as columns, spires, chimneys, &c., look 
weak and concave-sided, which is corrected by a slight 
swell, or convexity (entasis), which the Greeks applied 
to all the horizontal and vertical lines of their temples. 

Again, a slight camber, or rise, to flat-headed 
openings, prevents the sunken appearance a perfectly 
straight lintel always has, and is necessary in all hori- 
zontal and level lines and surfaces.* 

Height is obtained by the predominance of vertical 
lines, and lessened by horizontal lines. Apparent size 
or magnitude is obtained by multiplicity of details, or 
small patterns, forming a kind of scale to the eye, and 
vice versd. Contrasts always tend to exaggerate the 

diflference.t 

Decided contrasts of form or direction are often 

necessary to correct ocular impressions by making 

difierences appear greater.^ 

The irradiation of light, or the effect of luminosity 

in spreading the lighter parts of objects, is an im- 

* These efifecis are partly due to the spreading influence of light 
(irradiation^. 

t Careful measurements have shown that the axes of the comer 
columns of Greek temples slightly converged. 

} Thus, imless exact centrality or uniformity^of features be ohtainoi' 
Ufa more pleashig to increase the departoro or difTcrcnco. 



COLOUR, 196 

portant principle in optics. On this principle the 
drops of the Greek taenia were made conical^ and 
larger at the lower end, where they are seen against 
a bright surface. Various other instances may be 
noticed, but the reader is referred to other treatises, 
especially Mr. F. C. Penrose's able investigations on 
the optical refinements of the Parthenon. 

VI. Expression. — ^Although placed here, this is one 
of the principal attributes of true art, but seldom 
heeded by architects unless mixed up with associations. 
The grave and festive, the majestic or playful, should 
be expressed by architecture to the simplest individual. 
The stem majesty of the hall of justice, the aspiring 
tendency of the religious temple, the festive place of 
amusement, and the urbanity of the domestic residence, 
should proclaim their respective purposes, at least in 
general terms. 

VII. Colour. — This belongs to the last and lowest 
class of eflfect. Primitive nations have invariably, 
like children, been attracted by colour of the brightest 
hue. Forms, especially of a natural or sensuous kind, 
are next appreciated ; and, lastly, those of a mental or 
conventional order. Monochrome decoration has con- 
sequently been only appreciated by a few ; the positive 
colours of the polychromist being the most popular, 
because most pleasing and sensuous. 

Children and savages have, as observed by eminent 
authorities, always shown a preference for positive 
colours ; the nicer and less sensuous distinctions of shades 
and tones requiring greater mental discrimination. 

Hence it may be laid down that nature offers the 
best rule for our guidance, namely, unity of colour, 
neutral tints, or secondaries and tertiaries for large 
and retiring surfaces and masses, and varied primitive 
colours in the smaller and pxommQU\» "^osXa* ^^ ^^^ 

k2 



196 HIHTS TO YOUNG AKCHITECrrS. 

duce tlie effect of light and hanuony, there shoTild be 
ft balance of colours according to the proportions of the 
solar spectrum. The eye exposed to one colour is most 
satisfied and pleased with its complementary ; thus red 
harmonizes mth green, blue with orange, yellow with 
tioki ; and these colours are harmonic^ and arc shown 
by physicists to have a simple ratio of.yibrations to one 
another as between two musical notes. This ratio is 
4 to 6 or 5 to 4. According to this law, the primaries 
should be employed in a certain proportion to one 
another, e. g. 3 yellow, 5 red, and 8 blue, the latter 
as the retiring colour being used in the concave 
sur&ces, yellow which advances on the convex, and 
red as the middle-distance colour. 

Classification of beauties, — ^All beauties or merits 
are resolvable into ocular or sensuous impressions, as 
the lower sort of elements, and the intellectual or 
ideal dass. Many philosophers have denied that there 
exists any one form more pleasing than another in the 
abstract, i.e. inherently, intrinsically, and that any 
preference is simply the result of mutual inference and 
association with certain emotions. We have shown, 
however, certain elements or pleasing combinations to 
exist, though there is always the difficulty of entirely 
setting aside the idea of their association with certain 
objects; in other words, there are certain properties 
which affect the senses and mind independently of 
their awakening any extraneous emotion, e,g, a curved 
line is always more pleasing than a straight line, and a 
circle than a square. 

The young artist will perceive that the higher kinds 
of expression spring from those qualities which are the 
result of discrimination and cultivated taste. 



ADDENDA ON CONSTRUCTION. 

Mortar and Cement. — ^Limes are either ricli or 
hydraulic, according as the limestones are of carbonate 
of lime, such as chalk, or contain from 15 to 30 per 
cent, of silicates or magnesia. Rich limes slake freely, 
and augment largely in bulk. They harden slowly in 
air, but not at aU in water. Mortar made of them is 
soon affected by damp, &c. Hydraulic lime slakes 
slowly, and hardens under water ; hence is adapted for 
damp situations. Some stones produce cements which 
do not slake, but when ground and mixed with water, 
will set in air or water almost immediately. Such 
stones contain from 40 to 60 per cent, of silicates. The 
hardening or setting of mortar is due to the gradual 
absorption of carbonic acid from the atmosphere, thus 
forming a crystallized carbonate of lime. In hydraulic 
limes the induration is effected, probably, from a union 
of the lime with silica and alumina, forming an 
insoluble crystallized double silicate. For concrete and 
thick walls, and damp places, through which air cannot 
permeate, hydraulic limes should be used. The blue 
lias is one of the most hydraulic and strongest of limes. 
Sand for mortar should be sharp, clean, and gritty, and 
not too fine. Good pit sand, or clean road grit, is best. 
Salt sand should be avoided Water for mixing should 
be free from organic matter, and used sparingly. For 
ordinary mortar for brickwork t\iO '5iT0^QtNAss'Q& ^<3Si^ 



198 HINTS TO YOUNG ARCHITECTS. 

be, 1 of slaked lime, 1 sand^ and 1 smithy ashes. Fo» 
rubble masonry: 1 slaked lime, 2 parts sand; and one- 
third part smith's ashes. The admixture of ashes 
&cilitates absorption, and makes mortar stronger. 
Mortar should be used fresh. Portland Cement is 
generally used where strength is required. It is made 
of clayey mud pounded under water, dried, and burnt. 
It is three times stronger than Eoman cement, and 
improves by age. The patent *' Selenitic *' cement can 
be used as a substitute for mortar and cement. It saves 
lim^ and sets rapidly. It is a species of cement-mortar, 
and is an approved method of using prepared quick- 
lime. 

Bricks, Stone, Walls, and Arches.*— Vitreous 
and glazed facing materials should be avoided in 
ordinary walls. They conduct heat rapidly, and 
condense moisture to an impleasant extent. Hollow 
walls, tied with cramps, obviate this, and allow of the 
use of non-absorbent vitreous facings to a larger extent. 
Hollow bricks, or cellular walls, are better than solid 
ones. Hollow bricks, or stoneware, make capital arches 
and vaults, light and non-conductive. Floors may 
also be constructed of such materials rebated or joggled 
together, supported upon encased rolled iron joists—- 
the encasing being of the plaster, concrete, or some 
non-conducting material, moulded externally. The 
author has used this method with success. (See Guil- 
laume's " Economic Building Brick.'') 

Stone. — Stones should be selected with caution, and 
be placed upon their natural quarry beds when used. 
Laminated stones should not be used in work exposed 
to weather, or in highly relieved mouldings. Gothic 
mouldings deeply cut are most liable to decay from 
this cause. Delicate mouldings should be executed in 
etonea whose grain is favourable to them. Coarse 



COMBINATION OF MATERIALS. 199 

sandstones are often unadapted for highly moulded 
work. Long stones set on end as in inullions, archi- 
traves, (Sc, are to he avoided as false construction. 

The greater the numher of beds the better, and all 
good Middle Age masonry conforms to this rule. 
When large or deep stones are used the bed-joints 
should he proportionately thick. This is strangely 
ignored by architect? and builders. Stones expand and 
contract by heat and cold, and in large masses, or long 
lengths, as in columns, copings, steps, &c., frequent 
joints should be allowed, or they will fracture, or be 
forced out of line. A combination of ashlar and rubble 
makes bad walling; concrete and ashlar, or brick 
facings, are to be preferred if proper bond courses are 
used. 

Combination of Materials. — The different conduc- 
tivities and unequal rates of expansion and contraction 
of different substances, caused by changes of tempera- 
ture, oxidation, &c., are a serious cause of disrupture, 
fracture, and derangement in building, which architects 
seldom heed. Care should betaken to combine and adjust 
these materials, so as to prevent this cause of failure. 
Modes of joining, free space at bearings, and means of 
adjustment shoidd be considered. Thus metals expand 
more than stone, and all girders and iron framework 
should have free play at bearings. Sockets should be 
provided for their ends, instead of being allowed to 
impair the stability of the supporting walls by entering 
and being fixed rigidly to them. Columns and girders 
of iron should also be encased in non-conducting 
materials, such as porous plaster containing animal 
charcoal or earthenware. Fillets of wood banded round 
with iron, perforated plating or netting, covered with 
plaster, will prevent the destructive action of intense 
heat or fire, and render the mateimla \io\i-^Qrei4»s^^kKi% 



200 HINTS TO YOUNG ARCHITECTS. 

and less subject to tlie inconyenience of condensed 
moisture. 

Mr. Homblower's patent fire-proof flooring is formed 
on this principle, and is to be higUy recommended. 

The stability of masonry and brickwork should 
depend mainly upon the pressure of weight and static 
equilibrium. Iron employed as dowels, cramps, &c., 
frequently does more harm than good in corroding or 
expanding. Homogeneous materials and construe- 
tion are the best ; and when different materials are 
combined, they should be made to act and react upon 
each other without destroying the structure in which 
they are used. Good conductors should be encased 
in bad ones with air spaces between; and movable 
bearings should be used in all long lengths of materials. 

Bond. — ^In bonding walls, hoop-iron, or courses of 
bricks in cement, are preferable to wood bond. 

Concrete "Walls. — Walls of concrete, either built 
in blocks or by the filling-in process, as by Henley's 
patent, are cheaper and more impervious to moisture, 
vermin, &c., than brick walls. They may be reheved 
by panelling, impressed ornament, and faced with stucco 
or cement. The compressive resistance of concrete 
may be usefully employed in combination with iron tie 
rods for floors and beams, as in Hyatt's system. The 
statistics of Captain Shaw, of the Metropolitan Fire 
Brigade, show concrete to be one of the best and most 
fire-resisting materials. 

Roof Coverings. — Tiles corrugated or ribbed make 
one of the best roof coverings. The Broomhall tiles 
are recommended for appearance. Slate is more con- 
ductive of heat. All roofs should be either felted or 
pugged. In large open roofs, as those of churches, 
the pnprging may be filled in between the lathing of 
inside plastering or the boarding and the slate bat- 



DRAINS. 201 

tens, by placing diagonal strips or battens over the 
laths two or three inches in thickness, and then nailing 
the slate battens horizontally upon those, thus leaving 
a space for the pugging. A good and cheap roof can 
be formed in this way. Plastered ceiKngs and roofs 
are better than boarded ones, being less resonant of 
sound and more fire-resisting. An open air space 
above collared roofs and ceilings is desirable for venti- 
lation, and also for preventing the passage of heat and 
retaining warmth in the building. 

CisTEKNS. — ^All drinking-water cisterns should be 
placed in readily accessible positions for cleansing (not 
over water-closets), and be covered with felt to prevent 
effects of frost. Overflow and waste pipes should not 
lead into soil-pipes, but discharge into stacks or exter- 
nally. All water-pipes should be cased in felt or saw- 
dust, and be easily got at by pocket pieces or doors in 
wood casings. 

"Water-closets, Pipes, &c. — The common glazed 
earthenware syphon closet-pan is the cheapest and 
best ; no overflow should be allowed into valve- 
chamber or soil-pipe, as in some old apparatuses, 
which allow the sewer air to escape. Lead-encased 
pipes (Haines' patent) are better than lead pipes ; and 
wrought-iron pipes with screw joints are next best. 
All water-closets should be placed in external positions 
or projections, and have an intermediate or isolating 
lobby for ventilation, &c. Stack pipes may be used as 
ventilating-tubes to soil-pipes, &c. 

Basement Floors. — Sleeper walls of earthenware 
are better than brick for joists, as it checks the rise of 
damp from ground. 

Drains. — ^Invert of main sewer should be at least 
nine inches or a foot below, that of house or branch 
drain. Doulton's patent invert blod^ ^t^ Xi^Xi^ x^^rrso^- 

K a 



202 HINTS TO YOUNG ARCHITECTS. 

mended. Jimction blocks of stoneware should be in- 
serted in main drains or sewers to prevent bungling 
jointing by incompetent hands^ and caps, or movable 
lids, should be provided to house drains at every bend 
to facilitate cleaning the drains. Pipes should be 
jointed with clay, or tarred gaskin inserted in the 
sockets. Earthenware soil-pipes built into the wall 
may be used, but not zinc. Connection between sinks 
and house drains should be cut off by allowing the 
waste to discharge upon an open outside gully. All 
drains should be ventilated at cesspools or dead walls, 
and disconnected on both sides of the building by 
proper ventilating gullies (see Sanitary Construction, 
Part v.). 



PART VII. 
MODEL SPECIFICATION. 



(General ) 
Clauses, j 



Founda- ) 
lious, &c. / 



Well. 

ArtlGcial 
founda- 
tions. 



Indents. 

General 
clauses. 

Damp-proof ) 
course. / 

Arches. 



INDEX. 

Xotico to local authorities. Payment of fees 
Protective inclosures. Bestoration of pavements 
Removal and shoring. Old materials . 
Clearing, excavating, re-filling 

Drainage of site 

Underpinning 



No. 
1 

I 

2 

3 

4 

5 



Trenches for footings ...... 6 

Artificial levels for pavements. Ground-making 

round building 7 

"Well-digging and building 8 

Concrete foundations 9 

Piling and planking 10 

Brickwork. 
Indents in old work, and making good . 



11 



Bough 
Arches 



.1 



Brick-facing. 
Brick 
strings, 
cutting8,&c. 
Fire-places, "( 
flues, &c. 3 



Bond — quality of bricks — mortar — ^riso of courses 
— ^flushing — grouting — footings — outsido and 
inside work — ^hollow walls — facing and point- 
ing 

Slate or asphaltc damp course 

Gauged arches to windows, &c. 

Bough arches — ^relieving arches 

Inverted arches 
Common brick facing . 



12 
13 
U 
15 

16 
17 

Brick strings — ^fascias — cornices — cuttings, &c. . 1 8 

Fire-openings — arohes — trimmer ditto— flues, stacks, 
&c ^^ 



204 HINTS TO YOUNG ARCHITECTS. 

No. 

Fire-places. Chimney bars ••...,, 20 

Fixing grates 22 

Coping, &c. Tile — or brick on edge 21 

Bedding ) t> jj* 

timber, } Bedding-pointing— backing timber— stone-work— 

stone, &c. J frames, &c 22 

^X&c] D--rf walls-piers 23 

QO^^ng. } Srick-nog partitions 24 

Rough ) 

brick pa- > Paving— flat— on edge— asphalte paving . . 25 

ring, &c. j 

Tile paving. Encaustic tile paving 26 

paving, j Clinker paving to stables 27 

Vaults. Vaults of brick or masonry — filling in, &c. . . 28 

Groined ditto 29 

Corbelled skew-backs 30 

Concrete filling in of vaults 31 

Cemented outside 32 

Lime-whiting 33 

Hoop-iron bond 34 

Extra brickwork 35 

Party wall 36 

Drainage. Cesspit — cover stsono, &c 37 

Glazed stoneware pipe drains .... 38 

Dip traps or syphon traps 39 

Privy drains 40 

Outlets from soil pipes, &c 41 

Drain pipes from ditto 42 

Bubble drains 43 

Main drain of brick or sewer . . . .44 

Soil pit 45 

Dry area of brick or rubble to prevent damp . . . .46 

Water-tank .47 

Ventilation under floors . • • .... 48 

Jobbing and fittings 49 

Bubble Masonry and Brick. 

General ) Limestone — slate or other material — mortar- 
clause, j bond, &c .60 

Facing. Bandom coursed 51 

Begular coursed 52 

Trimmed and coursed .53 



INDEX TO MODEL SPECIFICATION. 



205 



No. 
Arched 1 Rough — common hrick — ^hammer-dressed — gauged 

soffits. / skew-hack 64 

Eeveals. Trimmed rough — common brick — neat dressed . 65 

Arches. Rough— coimter arches — ^relieving ditto . . 66 

Inverted ditto (see No. 16) . . . . . 57 

Rough projections— cores— corhellings 68 

Fire-openings — flues — stacks 69 

Coping. Rough saddle-hack 60 

Cement ditto 60 

Footing of paving-stone 61 

Rough stone worked in walls, &c. . ... . . .62 

Wrought stone built in 63 

Stonb-gottino — Classic, Italian, or Gothic. 

Door-steps. Common 64 

Stair-flights, common 66 

Ditto better 66 

Paving-stone stairs .67 

Out-door stops, plain rubbed 68 

Stairs. Stone stairs, superior moulded .... 69 

Moulded stairs 70 

Stone steps and iron risers 71 

Sills. Common window-sill 72 

Superior ditto 73 

Gothic sills 74 

Dressingp, ) ^ , ^. 

architraves, J To doors 76 

^^•' * Ditto and entablatures 76 

Ditto ditto and pediment ... 77 

Door dressings 78 

Window "> Dressings— architraves— sills, &c. .... 79 

dressings. ) 

Archivolls. ^^ doorways or windows — ^imposts — caps, &c. . 80 

Gothic door \ Plinths— jambs — archivolts 81 

G^othicTudor. ^^*^° ^^ 

window i I*linths— jambs — archivolts 83 

dicsdings. } rr It. Ri 

Tcrra-cotta ..••«..* o«$ 

Superior ditto . . t . . • • 84 

rv i^« A\u^ Ditto 86 

1 iiuor ditto. 

r>;iy or oriel ) Dressings 86 

v.iudows. 1 „ , . ' ft- 

Balconies ... • • . * ^^ 



206 HINTS TO YOUNG ABCHITECT8. 

No. 

PUnths 87 

String conrso 88 

Ck>mice 89 

Blocking course. Parapet — ^balustrade 90 

Chimney stacks ^1 

Quoin stones 92 

Kusticated \ 

doors and •) Arcades .,..,... 93 

windows. ) 

Ashlaringy common 94 

Ditto best 95 

Ditto fixing 96 



Gothic Wobk. 

Window-sills 74 

Door dressings 81, 82, 83, 84, 85, 86 

Plinth 97 

String course 98 

Ck>mico 99 

Parapet 100 

Chimneys 101 

Quoins • • 192 

Ashlaring 193 

Buttresses 194 

Cappings to ditto 105, 106 

Buttress pinnacles 107 

Gables 109 

Corbels to gables HO 

Pediment. Greek or Italian 108 

Gothic gables 109 

Ditto corbels HO 

Portico. Plinth base to columns— cased . . . .Ill 

Ditto soUd 112 

BackpUnth 113 

Columns, &o. 114 

Architrave 115 

Return ditto 116 

Ceiling beams 117 

Stone soffit '.118 

Frieze 119 

Comico 120 



INDEX TO MODEL SPBCIPICATIOM. Wl 

No. 

Portico. Blocking — pampet — baliutrailo .... 121 

Pediment 122 

Various pavomcals, stepa, &>i. . ■ • • 123 

ArcodcB 124 

Gothic 12fi 

Plugs, ciamp», lead, &a., to srlone-worlt genomlly .126 

MlSCFIJ.AmOD8 Stosb-wouk. 

Coping 127 

Cuiba 128 

Heartlia— baoli and front 129 

Chimney-piecofl 130 

Paving, common 131 

Better . . ." 132 

Superior 133 

Marllo 13i 

Enoauetic or teraelatcd 136 

Kttangs in cellar 138 

Sinla 137 

Bath 138 

Vaiiooa fittings 186 

Stables, mieceUaueouB stoDO-worlc in 140 

CoBch-houaoa ditto Ill 

Stablc-yarda, ko., pitch paving, cntbB, hinge-Btoues, &c. . • 142 

Blatino. 

Slating, common 143 

Better 144,145 

Superior 149 

To iron rooti 147 

Modes of covering iron too& (bo(») 147 

Slating fo circulnrroot 148 

Flat pitclied slating 149 

Oataido pointing 160 

61b1« ridjjQsandbipa 151,162 

£411etlng 1G3 

Qaeon alating 1S4 

Final clause 166 

Tiling, plain 166 

Bidge and hip tiles 167 

FantiUng 168 

Final clause 169 



208 HINTS TO YOUNG ARCHITECTS. 

No. 

Flasteb and Cembnt Work. 

Patent cement, uuide work 160 

Parian or Keene's cement, ditto 161 

Common internal plastering 162 

Common three-coat work for ceilings and papering . . . 163 

Three-coat work for painting or colour 164 

Best three-coat work for paint or paper 165 

Whiten ceilings 166 

Colonr walls, &c. 167 

Beads, quirks, &c 168 

Sides, backs, soffits, &c., not cased with joinery . . . .168 

Cornices and enrichments 169 

Cement skirting 170 

Scagliola work and Keene's patent, &c 171 

Patent cement outside brickwork 172 

Ditto ditto common, on rubble . . . . .173 

Ditto ditto superior, on rubble 174 

Kough-cast on rubble 175 

Two coats common and ono Aberthaw, on rubble . . .176 
One coat ditto and two ditto ditto . . . .177 

Portland or Aberthaw, on brick 178 

Cement or moulded work 179 

Parapets and damp-proof <}ourse 180 

Carpenters* Work. 

Inclosnres 181 

Shoring and old material 182 

Piling and planking . 183 

Sundries 184 

Bond and lintels 185 

^tory-posts . 186 

Bressummers 187 

Quarter partitions 183 

Ground joists 189 

Common joisting 190 

Binders and girders 1^1 

Single-framed floors ,....,... 192 

Double-framed floors 193 

Floor trusses 194 

Cross straining 195 

Floor pugging to prevent sound 195 

Ceiling battens 196 

FlaU 197 



INDEX TO MODEL SPECIFIC ATIOX. 209 

No. 

Lanterns 198 

Roofs, Italian 199 

Ditto, Gothic 200 

Dormer doors and windows 201 

Boarding and battening for lead and slates, and felting . . 202 

Open roof, Gotbic 203 

Curb roof 204 

Garrets 205 

Ceiling floors 206 

Projecting eaves 207 

Troughs, cisterns, &c. 208 

Joists, wrought fair 209 

Sundry rough work 210 

Battening on walls 211 

Cradling and firring 212 

Columns, and coved ceilings 213 

Final clause 214 

Sliding doors 215 

JoiNEns' Work. 

Ventilator to roof . 216 

Sky-lights 217 

Ceiling or dome inner lights 218 

Light and ventilation of water-closets 219 

Dormer door 220 

Ditto windows 221 

Trapdoor 222 

Gutter cornice and cantilevers 223 

Ditto Italian 224 

Eaves gutter cornice, Gothic 225 

Barge boards 226 

Ditto Gothic 227 

Lanterns 228 

Floor boarding, common 229 

Ditto better 230 

Ditto superior 231, 232 

I)itto best 233 

Ditto wrought underside 233 

Very superior floor of deal and wainscot, or of wainscot wholly . 234 

Inlaid floors, parquetry ditto 235 

Skirting, flush 236 

Ditto plugged to wall, common 237, 238 

Ditto on fillet and grounds 239,240 

Ditto ditto ditto and grooved into floox Vi^\^va^*WiVA*^ 



210 11IHT8 TO YOUNG ARCHITECTS. 

No. 

Doot, common, lodged and tmced 2^3 

Ditto framed, lodged and braced 24* 

Ditto for coach-houBes 2*6 

Ditto panoUod, common 246 

Ditto ditto bettor 2*7 

Ditto ditto euporior 3*8 

Ditto ditto boat 249 

Doors, folding 2fi0 

Ditto, sliding 251 

Outer dooiB 262 

Ditto foldioE 253 

Back doom 25* 

Ditto folding 263 

Doors with side and top lighta 266 

Ditto udo lighte only 26T 

Ditto segment, semicircnlar, or pointed-headed . . . 258—260 

Doors, Gutiic 261 

Sundry doore, borrowed lighta, &v 262 

Lantern light (eoo 228) 263 

Ditto with curved heads to lighta 26* 

Window, saah, simplest 266 

Ditto common 268 

Ditto better 267 

Ditto improved 268 

Ditto best 269 

Space for Venetian blinds 270 

Hinging and furniture of ehulttTa 271 

Saeh window with Ufting ehuttets 272 

Improved pulley stilo 273 

Ditto Buperior 274 

Ditto triple light 275 

Bow sash window 276 

Bay sash windows 277 

Venetian window 278 

'Wooden casing pilusters 1« windows ...... 279 

Segment, circular, or pointed beads to windows .... 230 

Casement windows, leaded glazing 281 

Ditto «ol leaded . . . . ' . . .282 

IfBhattors,&c.,inBido, or outside, &C. 2S3 

If Gothic cBsomenfs 284 

Trench caaomonls 285 

Swing cjiBemonts 286 

Coin beads and window boards 287 

Windom with lufTcr boarding 288 



INDEX TO MODEL SPECIFICATION. 211 

No. 

Clock or bell-lurret .289 

Stairs, common 290 

Ditto better 291 

Ditto best . 292 

Iron stiffening balustci'S 293 

Fascia of landing 294 

Panelled soffit to stairs 295 

Inclosure under stairs 296 

Cast-iron balusters 297 

Step ladder 298 

Panelled framed spandrils 299 

Casings of carpentry, &c 300 

Board linings, &c., panelled ditto, &c 301 

Wooden columns and pilasters 302 

Ditto entablature, &c . . 303 

Wood carved-work . . . 304 

Papier-mach6 work, &c 305 

Water-closet fittiogs 306 

Privies 307 

Sundry fittings . . . . 308 

Stables. Miscellaneous joinery 309 

Coach-houses. Ditto 310 

Loose boxes 311 

Outhouses . 312 

Stable, coach-house, and outhouses, doors and windows . • 313 ' 

Final clause to joinery . . . . * . . . 314 

Ibon anp Metal Work. 

Window guard-bars .315 

Windows of dairies and larders, fly wire 316 

Metal sky-lights 317 

Iron chimney bars . . . 318 

Binding bolt to hearth arch 319 

Iron columns 320 . 

Iron girders 321 

Iron joists 322 

Fire-proof floors 323 

Sundries 324 

Iron roofs 325 

Cantilever gutters 326 

Iron gutters 327 

Water-pipes 328 

Gratings 329 

Fixed ditto » * ^^^ 



212 HINTS TO YOUNO AECH1TECT3. 

No. 

SnndrieH 331 

It&llj, baloBten, and palisadmg 332 

Iron gated 333 

Iran doors 331 

Wood and iron doors 336 

Iron casements 336 

Sundries to windows 337 

Iron shutters 338 

Iron mangers and racks 339 

CoLtam nndCo/Balalle-filtiaga 340 

Terandali, &c 341 

Bnndiies .•..,. 342 

General clause for iron work 343 

GralBB, Btoves, ranges, coppers, &c. 344 

DuUluingmg 34S 

Heating apparatus 346 

PLnMBins' WoRS, 

Lantern top 347 

Kidges and Lips 343 

Botmers, tops Si9 

Sides of ditto 350 

Valleys 861 

Chimney gutters 362 

Parapet gutters 363 

Flals 364 

Boofs 366 

Flashings 366 



Iffljing on water 369 

Supply-pipoa from cistern 380 

WntBr-cloaota 361 

Linings of washing troughs, baths, &c 362 

Pnmp 363 

Sundries 361 

Qeneral clause 366 

Glazier 366 

Painter and stuiner yij7, 368 

Zina worker 369 



MODEL SPECIFICATION. 

Specification of works to be done in tJie constmction of . . , , ^ 

agreeable to the Drawings herewith 

furnislud, and numbered \ to . , . inclusive. 

No. 1. To give to tho Metropolitan Board of Works, 

Notice to local local Commissioners and Surveyors, &c., all 
authorities, requisite notices ; to obtain all official licenses 
for temporary obstructions, inclosures, openings 
into common sewers, water-pipes, &c. ; and to 
Payment of pay all proper and legal fees and charges to 
fees. public officers and neighbouring proprietors, 

making good any damage occasioned to adjoin- 
ing premises, and keeping up Hghts,^ &c., re- 
Protective in- quired by night. Construct proper inclosures 
closures. and fences for the protection and convenience oi 

Restoration of the public during the progress of the works; 
pavements, and perfectly reinstate pavements, &c., to the 

perfect satisfaction of the Town Surveyors. 
Clerk of the ^ of^(iQ for Clerk of the Works, with fire- 
Works' office, place and flue of brick or masonry (see 200). 

No. 2. Carefully take down the old buildings, effectu- 

Removal and ally shoring up as may be necessary fiie adjoin- 
oid""^f . ing properties; and entirely remove the old 
materia s. j^j^^^gj-jajg^ rubbish, &c., to the satisfaction of all 
parties. The old materials to become the pro- 
perty of the Contractor, who shall be allowed to 
re-employ only such portions thereof as tho 
Architect under his handwriting «\i^\\ ^^yok^». 



214 HINTS TO YOUNG ARCHITECTS. 

^0, 3, Clear away all rock, soil, or rubbish, necessary 

Clearing, ex- to leave the site of the intended bnilding clear 
sayating, ro- and unincumbered ; and excavate for basement 
^^"*&* story, areas, footings of walls, cesspits, drains, 

tanks, vaults, &c., as shown by drawings. 
Properly refill, ram down, and level as re- 
quired ; and remove all superfluous matter ex- 
cavated, to the satisfaction of all parties. 

No. 4. Bale out, draw off, pump away, and remove 

Drainage of all water and soil which may come into the 
b^ii^^ ^®^°^® excavations from springs, currents, drains, cess- 
"^* pools, rain, or otherwise; and effectually com- 
plete the drainage of the excavations and foot- 
ings before any masonry or brick- work be carried 
up. Shore up ground as required. 

No. 5. Underpin in the most careful manner all walls. 

Underpin- partitions, or buildings, surroundiug the site 
ning. q£ ^g intended new buildings in any way en- 

dangered by the excavations of the latter. 

No. 6. Make perfectly level, and hard, the bed of all 

Trenches for trenches for footings ; and consolidate the earth 
footings. about the same, and against all walls, drains, 
pits, &c. The depth of the footings to be con- 
tracted for, as shown by the drawings. Should 
a less depth be admissible, or a greater depth be 
required, the deviation will be made, under the 
written permission of the Architect, and ac- 
counted for accordingly. 

No. 7. To provide, bring in, spread over, and well 

Artificial ram and consolidate, any dry hard ground or 
levels for rubbish which may be necessary to form the 
and^ground- pj*oper level for internal pavements, or paving of 
making round courts, areas, pits, &c. ; or which may be re- 
building, quired to raise the ground level to the lines 
shown on elevations or sections : the said made 

ground to extend feet from the fronts, 

and thence to fall to the natural, or now-exist- 
ing, surface, in an angle of • . degrees. 



PILING AND PLASKINO. 215 

No. 8. ^o ^S ^ ^Q'Ii ^^ ^^ situation marked on plan, 

•U diKgins foar feet diamober, and feet deep below 

L buiHiDg. the level of The Bame to bo 

properly steined round with and 

domed over with 



Ho. 10. 

ngand 
ikiag. 



To make an artificial foundation for (either 

certain parts of, or) the entire building, 

feet in width, and feet in depth ; the 

EQme to he composed of one part of the best fresh 
quick Btone Ume, beaten to fine powder, and sis 
parts of nnsorecncd gravel (or fine and coarse 
Btone ballast), mixed thoroughly with each other 
in small qnantitiea at a time, the lime being 
moderately slaked with water at the moment of 
admixture ; and the concrete, when properly 
compounded, and yet hot, to be thrown &om an 
elevation of not less than ten feet into the 
trenches, where it will form in layers of six 
inches deep [or to be rammed in layers] to he re- 
peated one above tlie other, ontil the full depth 
of the required substratum is attained. 

[Here specify concrete walling, if any.] 

To make an artificial foundation for (either 



certain parts of, or) the 
footings of entire build- 
ing, with sound fir piles, 

feet long, .... 

inches square, pointed vrith 
iron, and hooped vnth 
ditto ; each pile to bo 
firmly driven hy means of 
ft proper apparatus ; the 
relative situation and dis- 
tance of the piles, as 
Bhown hy adjoining figured 
sketch. Bleepers 
" X " over each sioopec^ 
transverse row of 

piles, and 

planking . . . inches 
thick; the whole 



Planking. 




oSiiS'SS^ 



216 



HIKT8 TO YOUNG ARCHITECTS. 



No. 11. 
Indents. 



No. 12. 
Brickwork. 
General 
clauBe. 

Mortar, &c. 



Grouting. 
Footings, &c. 
See also 
No. 69. 



Hollow walls. 



Pointing. 



properly gpiked, &c., &e. [For farUier informa- 
tion as to fonndations, see '< FotmdationB and 
Concrete Works/' by Dobson (Lockwood and 
Co.).] 

Bbicewobk. 

To cut and parget in the old brickwork 
perpendicnlar indents to receive the new work, 
and make good the distnrbance in the old work 
occasioned thereby. 

The whole of the work, shown by 

tint on plans and sections, to be constructed 

with bricks, laid in English bond ; 

the said bricks to be the best of their kind, 
hard-bomt, square, and perfectly sound ; laid 
in mortar, compounded of one-third well-burnt 
stone lime and two-thirds of clean sharp sand, 
free from salt, well beaten and worked up 
together. (See Part VI., Addenda.) No four 
courses to rise more than one inch beyond the 
collected height of the bricks. Every course to 
bo filled in and fully flushed up with mortar, and 
every second (or third course) to be grouted with 
liquid mortar of hot lime and sand. The footings 
and walls to be of the varying thicknesses and 
heights figured on the drawings ; and no varia- 
tion to be made between the outside work and 
inside work, except that the work intended to be 
plastered is to have the joints thereof left rough. 
(See 50.) [Or, 

The walls to be built hollow with a space of 
2V or 8", the thicknesses being tied together by 
galvanized iron or tarred cramps set in cement it 
necessary, and placed every sixth course in 
height, and about 2' 6" apart.] 

The visible exterior of walls above ground to 
be finished with a neat flat ruled joint (see 51). 



No. 13 [Lay throughout the length and thickness of all 
Slate or Damp walls and jambs a course of slate in cement, or 
course. ^ Itiyei of pitch or asphalte i inch in thickness, 



ARCHES. 



217 



No. 14. 
G-auged and 
other archeB, 
&c. 



No. 16. 
Brick rough 
arches. 

Kelieying 
arches, &c. 



No. 16. 
Inverted 
arches, &c. 



No. 17. 
Brick f&cing. 



No. 18. 
Brick strings 
and cutting. 



to prevent the damp rising, 4 lb. lead to be 
laid over all walls, &c. [The Broomhall Tile 
Company's patent vitrified perforated damp- 
proof coarse is also recommended.] 

All front windows and to have 

the best ganged arches, abutting on proper 
skew-backs, the soffits and reveals being 

^, > inches deep. All other outer openings 

to have plain axed (and slightly cambered) 

arches closely set and pointed. 
[Note. — ^A good wall may be formed with 
facings of brick filled in between with 
concrete, through courses being placed 
every four or six courses to bond the 
work.] 

Turn rough arches and counter-arches, wher- 
ever practicable, through the entire thickness of 
walls, except where it may be inexpedient to 
show them externally (in which case they will 
be concealed by four- 
inch facing), and con- 
struct nine or four-inch^ 
relieving arches, over all 
lintels or bressummers, 
as sketch. 

Inverted arches, the whole thickness of walls, 
under ( — external openings, — chimney open- 
ings, — and other openings, — from pier to 
pier, — or) such openings (beneath the ground 
level) as are shown to have them on the 
drawings. 

To face the visible exterior of the walls of the 

with facing bricks 

of uniform colour, properly bonded into back- 
work, and finished with a neat flat ruled joint. 

Properly form the string courses, fascias, 
pilasters, cornices, breaks, recesses, &c., shown 
by drawings (cutting and rubbing 8uch of the 
work as may be moulded,) (and neatly splaying 
angles, plinths, &c.). 

1* 




218 HINTS TO YOUNG ARCHITECTS. 

[Moulded bricks and terra-cotta are generally 
used in lieu of cutting, &c.] 

No. 19. Properly form all fire openings, mth camber 

Brick fire- arches over the same, and trimmer arches 
BtacS' &c?^* where required for front hearths. Carefully 
gather in the chimney throats, and carry up 
flues of not less than fourteen inches by nine in 
the clear ; well pargetted [or pipe flues of fire- 
clay about eighteen inches long]. The stacks 
to be carried above roof to the heights shown 
in drawings, with salient courses, &c. ; and 
properly fix the chimney tops hereafter de- 
scribed. 

No. 20. Put chimney bars of wrought iron, 2i" x i"i 

Chimney bars, and 18'' longer than chimney opening, properly 
caulked at the ends. 

No. 21. The walls of to be finished with 

Tile coping on a top course of brick on edge [or half-round] 
^^^^ ^^ ^^^^ i^^^ coped with double plain tile cresting), set 
on go* jjj Q^jj^ jointed with new Portland cement and 

clean sand mixed in equal proportions. 



No. 22. To bed in mortar all the bond timber, plates, 

Bedding, lintels, wood bricks, templates, stone and other 
pointing, and ( masonrv 1 

backing. work requiring to be set in the < SJ^ • t k I * 

To bed in the point round with lime and hair, 
mortar all door and window frames, and back up 

and fill in with solid | ?^^^^^^^t, 1 all stone 

Fixing grates, ^^^ iron work demanding it. Coppers, stoves, 
&o. and grates, to be properly set with fire-bricks. 

[Form all warm- air flues and fresh-air inlets 
as shown.] 

No. 23. Build all dwarf walls, piers, &c., necessary to 

Dwarf receive sills of partitions and sleepers or joists 

masonry or of ground floor, as shown on plans [and lay a 
Dnckwork. course of slate in cement", or an asphalte damp- 
proof course at proper level]. 



PA^^NG, VAULTS. 



219 



No. 24. 
Brick- 
nogging. 



Bricknog all partitions which are marked od 
plans with a red hatching, thus : WM^M^^Mf*. 



No. 25. 

Outer yard 



I I- 1 

dzcbr 



ii 



Pave the with hard 

^ bricks laid (flat, or on edge, as the case may 

Brick paving, allow) in mortar ; and grout between the joints 
with liquid mortar. 
The bricks to be laid 
according to pattern 
here sketched, on a 
good and Arm bot- 
tom previously pre- 
pared. 

[The " Limmer " asphalte, " Claridge's " and 
other patent asphalte pavings are preferable.] 







No. 26. 
Tilepaving, 



Encaustic 
Tiles. 



No. 27. 
Clinker 
paving. 



Pave the with 12" (red or white 

paving tiles, laid (square or anglewise) (either oi 
one colour or hoih^ alternating) in mortar upon 
full 8'' deep of (fine coal ashes, dry brick, stone 
rubbish, lime core, or concrete) bedding ; and 
the joints thereof pointed with cement. 

[Or, 

Lay on a bed of concrete 8" thick properly 
floated in cement Minton's or Maw's En- 
caustic Tiles (here state description or cost per 
foot).] 

Pave the (stables, &c.) with real 

Dutch or approved clinkers of approved sample, 
laid herring-bone fashion or square upon coarse 
gravel 6'^ deep, and grouted three times over 
completely with stone lime and sand. The 
paving to be laid with proper currents, &o. 



No. 28. 

Vaults of 



Construct over the (pointed, seg- 
ment, or semicircular, or elliptical) vaults 
brick- work or ( jo niasonrv 12 ) 
ro masonry, of < jj^ck-work 9 J ^^^^^ *^^^' ^*^® ^P^" 

drils being filled to within 9" of the crown of vault- 
ing with *{ j^/jvjkats f grouted inliquidmortw:. 

1.2 



220 



HINTS TO YOUNG ARCHITECTS. 



Constrnct over tho arched and groined 

vaultings, as drawings (with the groin points [if 
brick] accurately cut to a regular arris^, and the 



up 



No. 29. 
Groined 
vaults of 

brick-work or " ' / jo masonry brick- ) 

r- masonry, spandrils filled With j work concrete / 

to the internal crown of the vault. The whole 
to be completely grouted with hot liquid mortar ; 
and, after the removal of centering, the whole to 
be neatly pointed. 



No. 30. 
Corbelled 
skew-backs. 



No. 31. 
Concrete 
spandrils. 

No. 32. 
Vaults ce- 
mented out- 
side. 

No. 33. 
Lime-whitlng. 

No. 34. 
Iron hooping. 



No. 36. 
Extra brick- 
work or 
rubble. 



The skew-backs of vaults to be formed by a 
corbelling (as o in adjoining 
sketch), so that the arch does 
not encroach upon the main 
substance of the piers or 
springing walls. 

Construct vaults, &c., &c., &c., and fill up 
spandrils with concrete. 

Construct vaults, &c., and coat the outside of 
vault and walls with Portland cement i" thick. 




Stop and lime-whiten twice the 



To employ . . . cwt. of iron hooping as may 
be directed, as a bond for the brickwork. 



Allow for. 



{perch of extra rubble-work ) 
rod of extra brickwork j 
to be used, or not, as shall appear necessary, 
and accounted for accordingly. 



No. 36. Party- walls. (Make arrangements with Con- 

Party-walls, tractor and adjoining Proprietors.) 



No. 37. 
Cesspit of 
brick, or ma- 
sonry. 



To construct, where shown on plan, a cess- 
pool, ' " internal diameter, and ' " from the 
bottom to the springing of (arched or domed) 
top. The same to be steined round, and vaulted 
with (4" brickwork, or good compact rubble 
masonry), closely pitch-paved, and lined with 
Portland cement up to ttx^ Bi^iinging of vault. 



DRAINS. 



221 



A man-hole 20'' diameter to be left in the top ; 
the same to be covered in with a (Yorkshire, 
Purbeck, or granite) stone having a s;trong iron 
ring therein. Attend Plumber in the admission 
of water-closet pipes. 

No. 38. [Provide and lay ... . feet of glazed stone- 

Glazed Stone- ware socketted pipes free from fire cracks, &c. 
ware pipes. q^^^.^ describe whether of Doulton's or other 
manufacture, and if with socket caps for clean- 
ing,, &c.), laid to a proper fall, and jointed with 
clay, tarred gaskin, or cement. Provide and fix 
all proper junctions, syphons, bends, invert 
blocks, &c., to make connections with sewers.] 

No. 39." Construct dip-traps where shown on plan ; the 
Dip^aps or ^^^^^ ^^ j^q rendered water-tight with cement ; 
yp on- raps. ^^^ provide and fix sink stones over the same. 

No. 40. Put from privy to drain a large and complete 

Privy drain, brick funnel ; or form small trap cesspit under 

the same, cemented to hold water, and glazed 

stoneware drain " diameter from thence into 

larger drain. 

[Drains within a building should be avoided if 
possible, or if necessary they should be enclosed 
within a brick channel or filled in with asphalte 
or Portland cement concrete.] 

Form at the feet of soil-pipes, waste-pipes, 
and rain-water pipes, stoneware bends set in 
Portland cement, delivering into drains [or a 
trapped open-grated cesspit] . 

Lay, from the to the ... a drain of 

strong, glazed, stoneware pipes " diameter 

clear, and " diameter from the into 

the ... . same to be jointed in fine clay or 
cement. 



No. 41. 
Outlets. 



No. 42. 
Drain-pipes. 



ble, &c. 



No. 43. Construct, and continue, from the 

P,^5"^^- to the .... a drain '' by " 
formed of good close rubble 
masonry at sides, slate bottom, 
and strong cover stone. The 
whole well bedded in mortar. 




HINTS TO TOTTNG AKCHITECTB. 

(Qy. need a portion of it ba lined ^th cement ?) 
[These sqnare-bailt drains anperseded. Glazed 
Btonemire pipes can now be obtained of STifficient 
bore for all purpoees.] 




*^^' a main drain of 

" (brick, or good rubble ma- j 

sonry in mortar} tlie form 

and size shown and figured 

in the annexed sketch. [The 

invert or bottom of sewer 

maybe formed in concrete, 

or of invert blocks, and c[i=ab 

junction blocks of stoneware inserted for i 

Poolton'a hollow stoneware segment sewers are 

also reconimeuded.] 

No. 45. CoEstnict a soil or dnng pit, &c., &e. Do- 

loil or dung scribe its size, form, material, and what drains it 

"*■ ia to receive: whether open; with parapet? 

arched 1 with man-hole, ic. ? or if covered with 

slate or stone slabs ? whether lined (in part, or 

wholly) with cement, to hold Uijaid a 



Dry area 
ble,&c. 



Form a dry area round the 

walla of (as ahown 

' on drawinga), of (brick, or 
stone mbble-work) and of the 
sectional form and size shown 
and figured in the annexed 
sketch; the same to be 
(covered with flat stone, or 
arched with hrick or mbble) 
Man-holes where shown on 
drawings ; and provide and 
fix stone curb and gratinga 
of iron tberein, 20" sqnare 
The bottom to have a fall to 
the drain, and to be pitch 
paved. 




RUBBLE MASONRY. 



223 



No. 47. 



Construct a water-tank below the floor of 

plan, and of the se- 




Water-tank, as shown on 

brick or rub- tional form and size 
®' here shown and figured. 

The same to be covered 
with a semicircular 4" 
brick arch, having a 
man-hole, with stone 
therein, 20" diameter, 
and iron ring. The sides 
to be of " (rubble, or 
brick- work), the bottom, 
of (ditto), and forming 
an inverted segment. 
The ground outside the sides and below the 
bottom to be thoroughly rammed and consoli- 
dated ; the outside of said sides and bottom to 
be laid against a clayed backing, and the inside 
to be lined with fresh Portland cement. 

Leave proper and sufl&cient openings for venti- 
lating under the joists of ground floor, and pro- 
vide and fix neat gratings [of cast iron or glazed 
earthenware] in said openings. Form air flues, 
where shown, in thickness of walls. 

(See Sanitary Construction, Part V.) 

No. 49. Attend upon the Stone-masons, Carpenters, 

Jobbing, and Plumbers, and Smith, aiding, and making good 
after them, and to perform all jobbing necessary 
to the perfect completion of the works. 

Brick fittings. Hajf-brick piers to stone or slate shelves of 
cellar, dairy, larder, &c. (See 148.) 



No. 48. 
Ventilation. 



No. 60. 
Rabble ma- 
3onry. 



Mortar. 



Bubble Masonby and Bbice. 

The whole of the work, shown by . . . tint, 
on plans and sections, to be constructed of good 

( lime- stone, \ 

< slate, > rubble masonry, properly bedded 

( or other j 
in mortar, compounded of one-third well-bxixiSLi 



334 



HINTS TO YOVSQ ARCHITECrS. 



Qroatiug, 



No. 62. 

coureed 

conrsed 
rabble. 




stone lime and two-thirda of dean sharp sand, 

free from eaJt, well beaten and worked up togs- 
FooUngB. (See ther. The footings of walls (see No. 
also No. 68.) be formed of large flat ~ 

Btonea, (having their 

length not lees than the . 

width of the masonry i 

above,) laid traDBversely, 

as shown by sketch, a being the footing 'stone. 
Bond and ^ BufBoiency of bond stoneB, 
quoiiu. aa BBB in the oimezed figore 

(having an oxcesB of length 

only, and no( of height), at 

all qaoins, and where else 

required to bind the work, 

and insure its uniform com- 

pactnesB, especial care being 

taken to make the t " 

through by well filling the ii 




equal Bolidity all 
_ ler part with eniBlI 

Btones and mortar ; and the work to be grouted 
with hot lime and sand at every riae of . . . 
inches. The stones to be bedded as found in 
the quarry. The walling to be carried np, and 
preBerved, both vertically and horizontally true, 
and of the varying heights and thicknesses 
shown or figured on the drawings. 

The visible exterior of 

walla above ground to be ^ — \ 
finiehed in neat random |-~\ J— \~ 
conrsed work, the stoncB j ' 
being hammer-dresBed to a l,— 
fair surface and neat joint, 
and well pointed. 

The visible exterior of — i 

walls above ground to be — 

finished in neat and regu- --f- 

courBed work ; no course r_ 
to be more than 



J~L 



T-T~ 



d 



. incbea high ; ham- 
mer dreBsed to a fair surface ; the Joiuta to be 
close and true, both vertically and horizontally, 
and pomted with Aborthaw mortar. 



ECBBLB WORK. 225 

No. 63. The viaible exterior of the walla 

rimmed and above ground to be faoed with a neatly trimmed 

lorsed ashlaring of — ^^ " 

'*'"*■ Btone, in courseB of ?^ 

equal height, nor leas f=T= 

t&n inches, not more J 



than inches. The . 
vertical jointa tooled L_ 



close, and the horizontal joints bevelled ( 
"^ so as to throw the water from the top of i 
course, and pointed with {qy. Aberthaw ?) a neat 
flat mled joint. (Qy. sboi^d this ashlaring be 
bedded and backed with Aberthaw ?) 

[The joints may bo all square and close.] 

Uo 54 All the openings to have — (trim- 

mon brick arches)— (neatly hammer-dreaaed 
arches) — (ganged arches corresponding with the 
- ashlaring) to form their soffits outside wood 
frames ; the soffita of windows being ^ . , > 
inches deep ; and proper skew-backs being 
formed in all cases. Alt such arches to be close 
set and pointed. [Stone or terra-cotta skew- 
backs and lintels may be substituted.] 

No. 55. All reveals of the said openings to be^(trim- 

EteTenli. med to a neat face) — (also of brick) — (neatly 
dressed as arches) — (wrought to a neat sharp 
arris, as soffits). 

No. 58. TnmroQgharohesaEdcOunter-flrcheswherever 
lioDgharcbea, practicable, throngh the 
thickness of walls, ex- 
cepting where they may . 

not show in the external "^ 

facing ; and construct 

12-inch rough relieving ^ches over all lintels, or 

breBBummcrs, as sketch. 

&o. 57. Inverted arches, &c. (8eft■&o."\.'o^ 



226 



HINTS TO YOUNG ARC?HITECTS. 



No. 58. 
Aou^h pro* 
jectioiu. 



Properly form all rough projections, cores, 
corbellings, &c., for cement striDg-conrses, fascias, 
pilasters, cornices, &c. Or, see No. 18, altering 
the word ** brick "for 

No. 59. Properly form all fibre openings, with brick 

Fire openiogs arches over the same ; and brick trimmer arches 

and flues. where reqnired for front hearths. Carefolly 

gather in the chimney throats, and carry up 

flues round cylinders of not less than 9" or 12^ 

Chimney diameter in the clear, well pargetted. The 

stacks. chimney stacks above roof to be carried up in 

brick to the heights shown in drawing; and 

properly flx the chimney heads or pots hereafter 

described. (See No. 20.) 

No. 60. The walls of to be 

Koughcoping. finished with a top course of large 
rough stones, partially hammer- 
dressed to a circular top edge or 
saddle back; bedded on their j^at 
edge, and well flush pointed with Abertha^v 
mortar [or cement]. 




Kongh 
coping and 
cement. 



The walls of to be 

finished with a top course of 
stone on edge, well bedded and 
jointed ; to overhang the faces 
of wall 2 inches, and (when the 
masonry shall have perfectly settled) to cover 
the said coping with Portland cement, as adjoin- 
ing sketch. 





No. 61. 
Footing of 
paving stone. 



No. 62. 
Hough stone- 
work in ma- 
soniy or brick' 



Provide and lay beneath the footiugs of . -. . 
two complete courses of (Yorkshire) stone, of the 
several widths shown on drawings. The stones 
to be 8" thick, each averaging 10 ft., and none 
less than 6 ft. superficial. 

Provide and fix — (here mention and describe 
the form and size of any roxigh or roughly wrought 
stonework which has lo "b^ ^otV^^ ydXq 'Csi'^ 



STONE-WORK. 227 

brickwork or masonry, — such as corbels for 
overhanging chimney breasts, or other masonry ; 
for gurders or other timbers; rough lintels for 
windows or doors where flat arches are not 
practicable, and which are to be plastered; 
rough lintels over intercolumns ; rough plinths 
to receive iron or wood columns and story- 
posts ; rough templates to receive iron beams ; 
&c.) (in short, dl stone-work that is to be 
hereafter concealed). 

No. 63. Provide and fix — (here mention and describe 

Wrought the form and size of any wrought-fair stone-work 

buSt^to ma- ^^^^ ^^^ *^ ^® worked into the solid brick- 

sonry, &c., or work or masonry at the time of its buildings — 

brick-work, such as hinge-stones, lintels, solid plinths, bases, 

corbels, &c., which are unconnected with any 

other stone-work, uncovered by plaster, and 

used in plain buildings, which, in all other 

respects, are of common brick- work or rubble 

masonry). (Example. — The hinge-stones and 

lintel of a strong closet rebated for iron-doors ; 

the plinths under the piers of a shop front ; &c.) 

(In short, all stone-work which does not partake 

of the nature of ashlar ; which cannot, like stone 

steps or window-siUs, be worked in after the 

masonry or brick-work has been carried up ; and 

without the previous fixing of which the common 

walling cannot in any degree proceed.) 

Stone-woek. 

No. 64. To put to the . . . doors as shown 

common. ' on plan, plain solid tooled steps of < ^^^ ^i, \ 

stone 12" x 8", properly back-jointed, and 
mortised for door-posts. Also a piece of paving 
of the same, to extend from step to outside face 
of plinth. 

No. 65. To put from the .... to the .... a flight 

ajr*"^' of solid {^f^^} steps. 12" X 8", properly . 
tooled (and mortised foi \toii \i^T\.^\»^t'^^\i'5v.^- 



228 



HINTS TO YOUNG AKCHITECTS. 



jointed, and securely (bedded on | ^j^^^^rk } 

or (pinned into walls). (If there are landingSi 
describe them.) 



No. 66. 
Better stair 
flights. 



No. 67. 
Stairs of 
paying stone. 



To put from the .... to the •••• a flight 
- ,., fPurbeck ) 
°f «°^^ i Portland } 
steps, wrought and rub- 
bed smooth on all faces 
and soffit ; back-jointed 
as sketch, the treads 
mortised for balusters, 
and the steps securely pinned into walls. Land- 
ings of the same inches 
thick, rebated on fo last 
riser (and, if required, to 
have joggled joints run with 
lead). 




r 



LANDING 



V 



To put from the .... to the .... a flight 
of risers, treads, and landings, of inch tooled 
. . . . stone, (securely pinned into walls) or 
(bedded on brickwork or masonry). The treads 
mortised for balusters. 




No. 68. To put to the 

Out-door ^oors of ... . 

steps, occ, -i.T tj J 

better quality, ^ohd wrought and 
rubbed Portland 
stone steps (qy. 
with moulded nos- 
ings). Each step, out of a stone inches by 
. . inches, properly jointed and bedded on the 
substructure (and flanked with Portland curbs, 
• . inches by . . inches, wrought, with rounded 
top, rubbed, and properly mortised for balusters). 
(If landing, state it.) 

No. 69. To put from the .... to the .... flights of 

Stone stairs, the best and hardest Portland stone steps, with 

superior. moulded nosings, returned at ends, the soffits 

(as well as the rest) wrought and rubbed fair 



STEPS AND STAIRS. 



229 




CAD 



bead flash-jointed, as sketch, and tailed fall 
9 inches into the walls ; or resting on corbelling. 
The bottom step having 
its section a solid sqaare, 
and finished with hand- 
some car tail. The land- 
ings thereof to be full 
inches thick, with edge 
moulding to correspond with nosings of steps ; 
the mid-landings being in one slab each, and the 
upper landing of . . . stones, tailed inches into 
walls, and joggle-jointed with lead. Each step 
and landing mortised for balusters. [In buildings 
exposed to risk of Are, stone is apt to crack and 
splinter under great heat; concrete steps are 
here preferable, carried on corbelling or iron 
carriages.] 



No. 70. 
•tone stairs, 
.andsome. 



No. 71. 
•tone steps 
nd iron 




isers. 



To put from the . • • . to the . . • . flights of 
the best and hardest 
Portland stone steps, 
with moulded nos- 
ings along the front, 
outer end, and also 
along the back of 
each step ; the soffit of each step (except those 
at bottom and landings) to be moulded as shown 
by sectional profile, and the whole tailed 9 
inches into walls. Landings . . inches thick, 
having their soffits moulded and panelled as 
drawings, and their edges moulded to cor- 
respond with the nosings of steps. Handsome 
curtail to bottom step, whose •section will be a 
solid square. The whole lapped and jointed as 
drawings. The mid-landings to be in one slab 
each, and the upper landing in ... . stones, 
tailed inches into walls, and joggle-jointed with 
lead. All required holes for balusters. 

To put from . . • . . to • . • • . a flight of 
Portland ^ 

Purbeck > stone treads, with (rounded) (or 
Yorkshire j 



230 , HINTS TO TODNG ARCHITECrS. 

moulded) noeinga ; the risera thereof to be of 
open cast iron-work (see Smith), &c., &is. 

No. 72. To pnt to the windows of good common 

Window-mile, giUa of ... . stone, inches by inches ; stmk, 
weathered and throated, and 4 inches longer 

than the width , , Wim, 

of openinga. '■■ -■ — '' "1 (H^^^ 



No. 73. To pnt to windows of . 

Window^iUs, (and rubbed) Bills of . 



finely wrongbt 
stone, inches by 



inches, (qy. moulded as drawings ?) and snnk, 
weathered and throated. The siila to be 4 inches 
longer than the (width of openings) (or than the 
united width of openinga and jamh dressings). 
(Qy. whether corbels under the sills, &c. ?) 



No. 74. To put to windows of ... - common sills of 

Window-sills, (slate, Yorkshire stone, or Pnrbeck) paving 

^J^°" stone, inches wide, 2J or 8 inches thick, 

wrougbt-fair edge and ^ 

ends, and laid sloping. 

(The above will do, — 
either for Italian or ~ 
Gothic.) 

Or 



i 



s, to put to windows of 

sills of stone, properly 

wrought, (throated, if prcjecting 
(specify if in one or 
more heights, and 
make the top sill of r- 
one length, if pos- f 
Bible). I 

Note, if two sills 
may be cut out of 
one stone, as sketch. 




DOOR ARCHITRAVE. 



231 



Or 



[put to windows of ... . 
monlded brick or terra-cotta 
sills of the section in margin, 
also lintels as shown.] 




No. 75. To put to the doorway of .... an architrave 

rchitrayes to of the best solid stone, moulded, and of 

^"^ the scantling shown by fig. drawing No. . 

The lintel to be of one stone; the jambs of 

one ] 

three >stone(s) down to plinth. [It is a fallacy 

or more j 

to imagine one stone stronger 

than several. Constructively 

it is better to have several 

joints in a great length of jamb 

or mullion, especially where 

brick walling is used, the 

settlement of work being 

more uniform and the weight of superincumbent 

masonry does not bear entirely on the jamb 

or mullion, causing fracture at joints, &c.] 

The whole to be rebated, as drawings. (State 

if any of the jamb stones are to bond into the 

walls.) 




No. 76. 
)or archi- 
ive, and 
tablature. 



To put to the doorway of . . . .an architrave, 
&c. (See No. 75.) Put over the architrave a 
frieze of similar stone and quality ip . . . . 
piece(s), not less than inches thick, of the 
height shown in drawing; and, above the 
frieze, a cornice of the sectional scantling and 
moulded profile also shown (o^ud. m « « . . 
stone (s). 



232 



HINTS TO YOUNG ARCHITECTS. 



No. 77. To put to the doorway of ... . (all that is 

Door archi- mentioned in Nos. 76 and 76) a pediment of the 
trave, entabU- ^^^^ ^^qj^q ^n^ quality, the tympanum of one 

m^l^ '" (<>' ^®®) stone(s) not less than inches thick, 
™^ and the raking cornices to correspond with that 

helow, having the additional moulding shown on 

drawing. 



No. 78. To put to the doorway of 

Door dress- pilasters, architraves, &c., 

some. 



or 



engaged columns, archi- 
traves, &c., 



If any other 
parts of the 
bailding are 




or 

pilaster dressings, as draw- 
ings, 

or 

columns and jambs, as 
drawings, 

with 
moulded bases, and capitals, 

or with 
Ionic, Corinthian, or enriched capitals, 

• or with 
consoles plain or enriched, as drawings : 

the pilasters, engaged columns, &c., to be of the 
best solid .... stone, in ... . piece(s) (ex- 
clusive of caps and bases) and of the sectional 
form and scantling shown on drawings. The 
architraves, &c. (see Nos. 75 and 76), and, if 
pediments are required (see No. 77). 

Or, 

the capitals (and, if there be such, the enrich- 
ments, of architraves, iri^z^a, coim^^^, <;.QtiaQU«^ 



DOOR AND WINDOW DRESSINGS. 



233 



to be en- &c.) to be executed in the very best style, after 

riched, this models of the full size, provided at the cost of 

may be re- the Contractor, and only adopted under the 

senred till the expressed satisfaction of the Architect, 
end as a gene- ^ 

Or 

[instead of stone, moulded brick pilasters, archi- 
traves, columns, &c„ may be employed. In this 
case state manufacturer's name and give detail 
of the same. 
Stone or concrete heads or lintels to windows 

and doorways 
may be substi- 
tuted for 
architrave -^ 



ral clause. 

Moulded 
brick dress- 
ings. 




dressings or 
pediments, the 
Soffits being 
simply splay- 
ed, or moulded, or of segmental or pointed shape.] 
(See sketch.) 



No. 79. 
Window 
dressings, 
various. 



To put to the window openings of the 
architraves, &c. (See No. 75, sub- 
stituting the word " sill," or " blocking course,*' 
or " string course,'' for plinth) (or as the case 
may be.) 

[The dressings specified for doors may be 
here repeated, describing any variations.] 



No. 80. To put to dooi'way of or the windows 

Archivolts, q£ g^jj archivolt, or archivolts of 

the best solid stone, moulded, and of the 
scantling shown in drawing No. , with joints 
only, as shown on the elevation thereof by blue 
Imposts, &c., lilies. (If a key-stone, describe it.) The 
&c., &o. imposts to said archivolt of similar material and 

quality, and of the substance and profile shown 
in drawings. (Qy. forming caps to pilasters or 
jambs ? which pilasters or jambs will extend in 
.... piece(s) to base, plinth, sill, string or 
blocking course, and be of the sectional sub- 
stance shown on plan.) 



334 HINTS TO YOUNO AXCUITHCTH. 

No. 81. To pnt to doorway of a plinth, jamba, 

Ootbie door and arcUvolts of solid stone, wronjH 

'' ""* moulded, and of the Bee^onal form and Bcaatiii^ 
shown by draving No. . 




J 



The jamba to be of stoiie(s), alter- 
nately bonding into valla; the arehivolts of 

.... etone(s^ ; and the eama to be of 

stone(s) in their recessed depth, as indicated in 
sections. (If there be imposts, caps, bases, 
plain -moulded or carved) other eoriohments, and 
label or drip-stones, state theiA.) 

No. 62. To put to doorway of a plinth 

Qotliio Todor and jambs of solid stone, with aqnare head 

^r dress- ^jjj spandrils inclosing an archivolt, wronght, 

^^' moulded, &c., and of the sectional forms and 

scantling shown by drawing No. . (See 

No. 81, and add thereto a description of the 

spandrils.) 

No, 83, To pal to window openings of jambfl 

^^P'W" J and archivolts of solid atone. (See 

Moulded [In any of the above cases monlded brides or 

terra-cotta. teira-cottft may be used instead of stone.] 

No. 84. To pat to window openings bf . . . . jambs 

Oothiowin- and archivolts of solid .... stone {see No. 
itawB,ropo- 81 j_ and properly cut, carve, and fix the 

fcolnmns, mnllionH, transoms, mnllion arches 
(plain or foliated), spandrils, and the tracery 
complete), as shown on drawings. The (col- 
nnms, molliona, &e.) to be of the sectional form 
and scantling shown in details, and to have 



GOTHIC DRESSINGS. 235 

joints only where marked by blue line on 
elevation. 

0. 85. To put to window openings of 

io Tudor jambs and square head of solid .... stone, 
^^^' (^y« inclosing mullions, transoms, mullion arches 
(plain or foliated), spandrils, and tracery) com- 
plete, as shown on elevation. The jambs, heads, 
(mullions, &e.), to have the sectional form and 
scantling shown in details, and to have joints 
only where marked. Properly cut and fix also 
the labels or drip-stones. 

0. 86. Bay or Oriel windows, Italian or Gothic, will 

)r ^Oriel • P^*^^® ^^ *^® same general description as already 

n or ' given, to which it will be necessary to add a 

ic. description of the plinth (under the sill), the 

angular piers or jambs, the blocking course, 

balustrading, &c. (if Italian) : or the cornice 

and battlemented or pierced parapet (if Gothic). 

It may be, also, that the Gothic oriel may rest on 

a moulded corbel (which must be accurately 

described as to construction); and that the 

nies. Italian windows may have balconies before them 

(continuous, or attached separately), in which 

case they must be described, as formed of 

...... stone landing, 

inches thick (how wrought and 
moulded?), tailed inches into 
wall ; supported by carved brack- 
ets or consoles (as drawings) 
securely pinned inches into ^ 
wall ; and supporting a blocking 
course, with pedestals, balusters, 
capping, &c., wrought moulded, &c., &c., as 
drawings. 

[Terra-cotta or cast-iron balustrade may be 
employed in lieu of stone.] 




I. 



87. To put along the a plinth of 



stone (neatly wrought) (wrought fine) (how 
tooled ?) (qy. rubbed ?) . . fee\. . . m<3sv^^\sN3^;^si. 



236 



HINTS TO TODKG ABCHTTECTS. 



I 



chamfered 



one 

two V stone(s) inches thick. Thetopcham 

or more j 

fered, and no stone to be less than . . feet . . inches 

long. (See No. 97.) 

No. 88. To put along the a 

String course, nought moulded ) 

plain wrought / 

and throated (say what stone ?) 

string course, of the sectional 

form and scantling shown in 

details. No stone to be less 

than feet in length. (See 

No. 98.) [Very effective terra-cotta string 

courses may be employed.] 



No. 89. 
Cornice. 



No. 90. 
Blocking 
course. 



Parapet. 









To put along the ..... a cornice of 

stone (qy. in | ^^ ^^^^ | layers), of the sectional 

form and scantling shown in details, and no stone 
to be less than feet in length. (Enrichments 
to certain mouldings ? Modillions, plain or 
enriched ? Soffits sunk panelled, &c. ? Dentils ? 
AntefixdB?) All the said enriched parts to be 
carved in the best style out of the solid, after 
models of the full size, provided at the cost of 
the Contractor, and only adopted under the 
expressed satisfaction of the Architect. (See 
No. 78.) The plain parts wrought in the best 

*««*.«/^« (r.^ \ i and rubbed ? 
manner, (qy.) | ^^ ^^^^^^^ 

To fix above the cornice, all 

along the , a blocking 

course of stone, 



or 



a parapet having a plinth, dado, and 
capping. 




BALUSTRADE, QCOIN STOHES. 



a balustrade conrBe, composed of 
plinth, pedestals, balnatera, and cap- 
ping, as drawing ; the same (or the 
several parts of the same) to be solid, 
and of tiie sectional form and scant- 
ling shown in detailed drawings. 
The plinth and capping to be in 
stones of not less tiian feet long. 

j" square ) 

The balusters < turned V and half-balasters 

( or otherwise J 
to pedestals. The whole to 1 
(tooled ?) (rubbed ?) (See No. 

[In the geuerahty of cases 
it is preferable to let the 
roofing ran over the cornice 
and to form a sunk gutter, i 
or to provide a moulded 
cast-iron one. See sketch.] 




The chimney stacks of .... to be capped 
with stone,' moulded, and of the sec- 
tional form and scantling shown in drawing. 
(Qy. whether the shafts shall be also of stone 
entire; or stone ashlar.) (See No. 101.) 



No. 92. The .... angles of ... . 

loin stonefl. to be finished with (roughly 

wrought) or (wrought, part rough, ^ 

part tooled) or (wrought fair) and iwf«>M(n 
chamfer channelled quoins of sohd ^5^ 

stone, of the heights, i^^ 

and lengths, sectional form shown 
and figured on detailed drawing, 
two quoins being cnt out of one 
stone thus : 



H1KT8 TO TOCNG AACHITE(?rS. 

(See No. 114.) 



H 







Cjambfl heads ) 

No. S3. The ■< reveala and soffits > of the (arehoi] 

Buetioated I ^g arcHvolta ) 

arcades. .... to be formed with 

rnstic-work of eolid atone, 
correaponding, in materi&l 
and workmanship, with the 
mstic quoins of main bnild- 
iug ; and of the form, size, 
and scantling shown on 
detailed diawinga. 



To face with atone aahlaring, (ron^y 

wrought) (wrought neat and tooled) (wronght 
fair and rubbed) and (square- chunfer- or 
moulded-) channelled, aa Bhown by elevation, the 
whole of the , properly forming the 

(flat ) 
radiating channels of < segment > arches, and 

[ circnlai j 
returning the channelling under soffits and 
against jamhs or reveals of doors, windows, 

i recesses ?) and all ronad (qy. insulated piers ?). 
See No. 96.) 



No. 96. 
Aalilariiig, 
tliebeAt. 



Or 

to face with atone aehlaring, 

wronght ^r (qy. mbbed) and worked cloge 
joint, the whole of the (If there be 

no architraves, mention the radiating joints of 

flat 1 

segment > arches, &c.) ahown by eleYation(s). 

circular ) 

(See Noa. 96 and 103.) 






I nearly as 



STONE ASHLASING. 

The Bald ashlaring to consist, 
circomatances will 
admit., of conises 

' "high form 
ed, with headers 
having a honzon 
talbedof by [ 

' "; and stretch I 
ere, havuig a hon ' 
zontal bed of 
by ' the 

qnoin stones being 
in no direction less 
than " on their bed All horizontal [ 
joints to have a slight chamfer on the ^ 
npper edge of each stone (See No lOS ) f 




1 1 1 1 



No. 97. Gothic basement or phnth For 

;hia plinth, general description eee No 87 Add 
description of moulding and enb 
plinth (if required) the same to 
be of 'the sectional form &c shown ^ 
in details 



h oonrse. Hame de T ^ 

Bcription as No 88 Sji^ 



Gothic oomioe. Same 




desciintion sa 



HINTS TO YOUNG AHCHTTECTS. 




Gothic parapet. To fix above the conuce (or 
string course) all along the i 




(plain capped) or (embattled and capped) or 
(embattled and moulded) or (open worked and 
capped) parapet of ... . stone, as drawings. 
The several parts of the same to be of Qie 
sectional form and scantling ehown by details 
(the cappbg, if continnons, in atoneB of not less 
than ' " long) (the open or ennk ornamental 
work carved in ^^^ f^=^^ W^ 




moolded) (i 



(rp7\j 



BUTIIIE88ES. 241 

battled) (panelled) (or otbemiae decorated) as 

drawinga ; the same to be of . . . stone, of the 
Bectiohal form and scantlmg shown by details. 

{Qy. whether the plain parts of the plinths, 
and shaHs, may not be of brick ; the moidd^d 
work only being of atone ?) 

[Terra-cottft chimney stacks may be used 
instead of atone.] 



Gothic qnoiua. 
No. 92. 

Ditto to doors, windows, Ac, 



Same general deBcription as 
No. 93.) 



No. 103. Gothic asblaring. Same general description 
aoOio afiikr. as Noe. 96 and 96, 

No. 104. Describe bnttresses. Whether formed with 



ashlar (as 1) ? or with solid work (as 2) ? or 
part BoM and part ashlar ? or with heading and 



inoine, (as 

c^y tvnduier wrought 
at angles ? panelled on 
face? or otherwise de- 
corated ? 

Th, 
levera 

buttresses, to 
pod with (plain 
moalded) wati 
tables (of one oi 
stones), as drawings. 




Ifo. IDS. 
Qablet 
capping. 



HINTS TO YOXn*G ABCHITECTB. 

The same to be of tlie sune material a&d qualify 
SLB . . . and of the sectional profile and Bcantling 
shown in details. 

Or 
(same general de- 
scription bh No. 105), 
Bnbetitaiing for 
" water-tablea" gab- 
leta (plain monldodj 
(topped with finialB) 
(with carved finials 
and crockets), &o 



Or 

(same general deacription 

Ko, 107. « No. 106), Bnbstitating 

PinniLcles, ftc for " water-tablee " gabletB 

(as described in No. 106) 

(and adding,) 

The top gablet to ba 
crowned with (plain 
monlded) (moulded crock- 
eted) (panelled) pinnacles, 
having carved finials, tee. 
INote.—Ihe Gothic de- 
tails here given are 
somewhat effete ; 
crockets and other | 
einberasoes of the 
style are best avoided 
in this climate in < 



No. 108. 
Podimont, 
Graekor 




Princi^es of Design- 
Stonework.] 

The aahlaring in the tympannm of pediment 
to be precisely accordant, in the height of its 
conraes, and constraction, with that of the (walls 
below, or general face of boilding). The 
horizontal cornice to be a continuation of (main 



PEDIMENTS. 



cornice), omitting the top moulding; and the 
npper layer thereof to be of single etonea from 




front to back, Bocniely tailed into the maaonry 

not lesa than inches, and no 

stone having a &ont length of 

less than ' ". The nking 

oomicea to be of the same form 

and acantling as that of (main 

cornice). The apex or meeting 

mouldings at top to be out of 

one block, having a horizontal 

bed on tympanum ; and the ' 

raking cornice at the lower 

angles of pediment to be ont of 

the same undivided block mtii 

the end of horizontal cornice. 

The hidden part of raking 



to 1 



cut 



1 the 



form of Btepe, bo as to 
have a aeries of horizontal 
beda npou the back ma- 
sonry. The top stones 







to be of one piece transversely and no stone 
having a front length of leas than ' " 
u2 



244 



HINTS TO TOUNG ARCHITECTS. 



No. 109. 
Gables, 
Qothic. 



If blocks, pedestals, or acroteria, describe 
them. 

The gables of to be capped with a 

(plain) (moulded) coping of ... • stone, of the 




sectional form and scantling shown by detailed 
drawings, in lengths of not less than * ", 
(back-notched for horizontal beddings,) and with 
springing stones and apex-saddle stones cut 
of the solid, as also shown. 



corbels. 



No. 110. (The springing 
Gothic gablo Btones to be sup- 
ported by cut 
flush corbels, of 
the face and pro- 
file shown by 
drawings ;) 

or 

(the springing 
stones to have a 
return face, sup- 
ported by corbels 
of the face and 
profile shown by 
drawings) (the 
said cdrbels to 
be of stone, serving 
to stop the eaves 
cornice or gutter.) 






COPNir! 





PORTICOS, 345 

Portico Seo Note bolow 
Portico, Greek ™, , , - i 

orltelidD ^be plmtu under 

the colnmng of the - ' 

No 111 portico to be formed 
riinth caaed ^f j^p ^^ ^^^^ ^^^^^ 

of stoDe of 

the sectional form and 

scantling, and vertical 

jointing, shown in 

drawings, properly bedded on the (bnck, or 

rabble) basement and core The sub plinth 

bonded into said core, having its bonding stones 

under the axes of colnmns ; 




No. 113. the plinth under the 
riinUi, solid, colnmns of portico 
to be formed solid, 
of . , . stone, ^ 
of the sectional 
form and scanthng 
and vertical jomtmg, shown on drawings ; 

Ko. 113. a plinth, of ashlanng, to match the atone work 

Back plinth, ^^^^j colnmns, to be earned roand the inside 

recess, or hack of portico, aa drawing 

No. 114. The colnmns (ants) and pilasters to be of. 
Colnmiw, &o, , , . . stone, with (moulded, or moulded and 
enriched) bases and capitals, and (plain, or fluted) 
shafla, as detailed on drawinga. The shafts 
to be in (one stone, or three atones^, and the 
pilaatera properly bonded into the main walling. 
[A layer of felt, sheet-lead, &o., is sometimes 
interposed between the beds when there is great 
weight of anperstraotaio or tendency to une<iaal 
settlement.] 



Note. 

The portico will either he constructed with .1 

subatructnre of common rabble, or l^n^k-, «. 



246 



HINTS TO YOUNG ARCHITECTS. 



Arcade. 



No. 116. 
Architrave. 



plinth of brick, or rubble covered with cement; 
columns of brick covered with cement; an 
entablature, &c., of rubble or brick (with rough 
stone lintels over columns), also cemented ; 



or 

the visible portions will be partly stone, as 
1st. Stone plinth only ; 
2nd. Stone plinth and columns ; 
drd. Stone plinth, columns, and architrave ; 

or 

the visible portions vnll be wholly stone, with 
backings and fillings of rubble or brick, as the 
locality may require. 

It will therefore be necessary, 

under the heads of < Bricklayer,' 
or ' Bubble Mason and Bricklayer,' 
to describe the foundations and the core of the 
work ; whether there are to be fL2ii stone footings ^ 
inverted arches under the columns, wood bonds 
and cores to the brick columns, relieving arches 
over the same, &c., &C.''' 

The same remarks will also apply to arcades. 
Such portions, therefore, as are not to be stone, 
will be described under the heads of * Bricklayer,* 
or * Bubble Mason and Bricklayer.' 



The architrave to be of stone (solid) 

2 3 

(or solid up the first, or first two faces) (or solid 

4 
up to the crown moulding) {describe the casing to 
the part which is not solid), of the sectional form 
and size shown by details, and vertically (or 









m 




m 



otherwise) jointed, as marked on elevations, or 
♦ See Bartholomew'ff Specifications, No. 4600. 



ARCHITRAVES. 



247 



shown or described on detailed drawings. If 

enriched, describe it. 
Note, — ^It is impossible to make any general 
description sufficiently accurate for this 
important member of a colonnade. A 
reference to a fully detailed drawing, 
showing the stones separately, the mode 
of uniting them by arched or vertical 
joggled joints, the copper chain tie and 
hanging bar, and the relieving arches of 
the concealed brick- work or masonry, is the 
only way of insuring a clear understanding.* 



No. 116. 
Ketum or 
back archi- 
trave. 



No. 117. 
Beams in 
ceiling. 



An architrave of ashlaring, to match that over 
the columns, to be carried (round and) along the 
inside (or back) recess of portico, as drawing. 
Qy. enriched ? 

If there be any inner longitudinal and trans- 
verse beams to form the ceiling of portico, they 
must be carefully studied, and here described. 
Qy. enriched ? 



' No. 118. 
Stone soffit. 



If there be a stone ceiling altogether, here 
describe it. Qy. enriched ? 



No. 119. 
Frieze. 



No. 120. 
Cornice. 



No. 121. 
Blocking, 
parapet, 
balustrade. 



The frieze to be formed of . • • ; • stbne 
ashlaring, in no case less than inches thick, 
jointed as drawings ; and the quoins to be cut 
out of solid stone, so as to show a return of not 
less than ' ". Qy. enriched ? 



To put along the front and returns of portico 

a cornice of stone. (See No. 89.) 

Qy. enriched ? 

If the portico, instead of the pediment, &c., is 
to have a plain blocking course — or parapet with 
capping and plinth — or open balustrade (see 
No. 90). Qy. enriched ? 



See Bartholomew's SpQci&c»iU<^iA>'^^> ^^'V^* 



248 



HINTS TO YOUNG ARCHITECTS. 



No. 122. 
Pediment. 



No. 123. 
Yarioas. 



No. 124. 
Arcades, 
Roman. 



Adopt the general description given at No. 108. 
If the portico be surmonnted by blocks, pedestals, 
or acroteria, describe them. Qy. enriched ? 

Complete the description oi the portico by 
explicit references to its landing, pavement, 
steps, guard-stones to preserve the pUnth from 
carriage-wheels, &c. 

Describe the plinths; whether solid or not. 
The piers ; whether soHd or of ashlar ; whether 
plain or rusticated (see No. 92) ; whether there 
be plain or moulded imposts. The arches; 
whether with archivolts, or radiating stones, 
plain, or rusticated as piers ; whether key-stones, 
plain or carved, &c., &c. 



No. 126. 
Arcades, 
Gothic. 



Describe the plinths; whether solid or not. 
The pillars (their bases, capitals, if any) and the 
number of stones to compose the shafts; the 
number of stones in the archivolts ; and the 
quality of the work filling up the spandrils. 



No. 126. 
Bugs, 
cramps, 
and lead. 



Note. — M the conclusion of the wrought orna- 
mental cut stone-work insert a fall description of 
the manner in which it is to be secured together 
by plugs of slate, marble, stone, galvanised iron, 
or copper ; copper cramps ; and lead plugging, 
and running ; bearing also in mind the channel- 
ling and lead running of water joints on the 
upper surfaces of cornices, &c. ; the safe appli- 
cation of chain bars ; the provision of sheet lead 
in the joints, and under caps and bases of 
columns, as well as between any other stones 
which, without lead, may have their meeting 
arrises crushed by vertical pressure. 

Particularly specify also the required accu.- 
raoy, sharpness, &c., in the cutting of all 
enrichment, and the prior provision of satis- 
factory models (see No. 78) ; and expressly 
state that the work shall be cased over, and 

FinS perfec- ^^^^Y ^^^^ perfect and clean at the conclusion of 

Hon, the whole. 



Enrichments. 



Casing. 



COPING, CXJKBS, ETC. 

Miscellaneous Stone-work. 



. 127. 



249 



stone 



Cover the with 

coping, of the sectional form 
and scantling shown by 
annexed sketch, throated 
nnder (one or both) edge(s) 
(qy. cramped with copper 
or galvanised iron?) and 
plugged at the joints with (^M |g^^^^^^ 




. 128. 




lead or slate. (Qy. chased 

to receive flushing?) (Qy. 

tooled, or rubbed ?) No stone less than 

long. 



Put round the a curb of 

stone, of the sectional form and 

scantling shown by annexed 

sketch (qy. how wrought?) 

(qy. cramped?), plugged at 

joints with lead or slate (and 

properly mortised for iron railing). No stone 

less than ' " in length. (See Plumber, 

No. 864.) 



. 129. Put to flre-places proper back hearths of 
hearths. stone inches thick. 

ditto. Put to the flre-places of front 

slabs of (qy. slate ? — Portland ? — marble ?) 
(rubbed or polished, as the case may be) not 
less than inches thick; and inches longer 
than their respective flre-openings. The same 
to be inches wide. 

.130. Provide and fix to the fire opening of 

i®y- a (slate) chimney-piece, valued at 

M ; to that of a Portland ditto, 

value M ; and to that of a 

marble ditto, value £ ; the Proprietor being 
at liberty to purchase all or any of these 
himself; the Contractor keeping distinct the 
allowance he has made for carriage and fixing. 
[Devonshire supplies verj \i^w3L\i&c\> ^'^'^ij^, 



230 



HINTS TO YOUNG ARCHITECTS. 



and varied marbles for these purposes. Enam' 
elled slate, or ** Marezzo " marble may be used 
as sabstitntes.] 



No. 131. 
Paving, com- 
mon. 



Pave the with 



(Yorkshire \ 
Purbeck f . ^ 
slate ( P"""?' 

limestone / 
not less than inches thick, and no stone less 
than feet superficial; the same to be well 
bedded on a good bottom (of dry rubbish) and 
jointed in mortar. 



No. 132. 
Better paving. 



Pave the with 



No. 133. 
Superior 
paving. 



No. 134. 
Marble 
paving. 



Yorkshire \ 
Purbeck f . ^ 
Hmestone ( P^^^' 
slate J 

(rubbed or tooled) surface ; and rubbed joints 
not less than inches thick, and no stone less 
than feet square; well bedded on a well-rammed 

bottom, and close-jointed in < ^^ ^* 

Pave the with Portland stone, inches 

thick, surface and joints rubbed fine ; laid 
(square ? or diagonally ?) in stones not less than 

' " square, (or, as shown on drawings,) with 
cement under the joints, on a course of brick- 
flat, as sketch; the bricks being well flush- 

bedded in dry and well-rammed rubbish. (Qy. 
if any marble introduced with the stone ?) 

Lay the with a paving, formed of 

the different marbles, and of the size and pattern 
shown and described on drawing ; the whole to 
be executed with the finest possible joint, and 
geometrical exactness, and to be left thoroughly 
and uniformly polished. (N.B. If the marble be 
valuable, state the minimum thickness it may 
have as a veneer upon Yorkshire or slate stone.) 
The paving to be not less than inches thick, 



PAVING, A BATH. 



251 



No. 135, 
Encaustic 
tesselated or 
Mosaic 
paving. 

No. 136. 
Stone fittings 
to cellar. 



Larder. 
Dairy. 

No. 137. 
Trough, or 
sink. 



No. 138. 
A bath. 



and the joints laid in cement, on courses of brick 
flat, firmly flush-bedded in dry well-rammed 
rubbish. 

Lay the with the encaustic tile 

paving of . • . &c., allowing the sum oi£ for the 
same, or at the prime cost of . . . per foot super. 

f Paving for ornamental purposes is now manu- 
actured with marble tessersa laid in concrete.] 

( slate \ 

Form wine-bins in cellar with -; Yorkshire J 

(&c. ) 

slabs inches thick, on half-brick piers, as sketch, 
having neatly 
vnrought edge. 



Ess^nss^ 




each slab the i^i-:^>V'^A~ 

fuU length and K^ 

depth of bin; - 

and provide ^t' 

and fix also neatly wrought shelves of similar 

stone in the larder and dairy, cutting water 

channel, as described on drawing. [Or iron racks.] 

Put in the scullery a neatly cut sink of ... • 
stone, having a clear hollow of by and 
inches deep, with hole for waste water-pipe. 
[Doulton's stoneware sinks are preferable.] 

Put in the a bath, formed of 

slabs of slate, 
grooved into 
each other, and 
bolted with 
iron, as sketch, 
and of the clear 
internal dimen- 
sions thereon 
shown ; the 
same to be internally lined with white glazed 
tiles bedded in cement; the top edges capped 
with (mahogany or marble) capping, and the 
exterior painted in imitation of white-veined 
marble. Form all necessary holes for supply 
and waste pipes. 




HlV r^ lO lOCSG ASCBHEnS 



G-ei ihit. or " 



■r ^ fittmgs; H 

J the Tietoiia Co.';- 

^oiK fox cbinLiifiv-pi^ciJ- 

.li otiwr aMfoX and ona- 



JT^ "• ^— Plincii tJ sttn-poate, 8 inches 

?*?™* ' rf. 13 iiK^a at caa*. neftUy wrot^ht 

J""™" .'jgfotihe ground, acd 12 inches boriea. 

■i6« gutter along front of stalls out of 

y',-xfi''- a^^ in lengtha of not r r-^^ n 

BetCarpRTng. d^^-ftODH and gnbngs ov«r dnuos. '" '' 
irtio*"*- Pit^"h pebble-paving in sand. 
jjb. of dresEed refdse Etooe. no stone 
bss than aTxe-xG', clo&« bedded 

in s&ad. 



Do. cltLii 

oaving- no stone lesa than 
f. . . Those in stalls ehan- 
nalled to canr off wet ; the 
n«t roagh too'.^, and tbo 
whole well bedded and jointed 
on mortar. [Hard-bomt bricks 
or clinkers, pmposely made for 
stable paving, are to be pre- : 
fened to Btone.] 




Con chest in loft, of skte or slabs, 

groored into and bolted to one another, inclnd- 
ing a bottom ' 'by ' ', and sides and end 

feet high. — A chimney-pieco in 

saddle-room. (Qy. eaddle-room pared '?) 

CoAcs-EorBEB, Aliscellaneons Stone-Trork in 

Plinths of stone to the coach door or 



COACH HOD8E8. 353 

Biory-poeta or piera of the size and form ehown 
and figured m ^etch 




Sectioii Flan. 

(If Btone piers : state whether wftoHyo^iorowjAl 
ttone? — in one? or how many stones ? or whe- 
ther hinge stonet aidy are required to be built 
into brick- work or rubble ?) 

Btone to receive bolts of meeting doors. 

Curb stone onder doors from plinth to plinth. 
(Qy. whether pebhU paved? paved with dretsed 
refuse? or fiat-paved? Guard stonea to keep 
the wheels of different carriages apart, and to 
stop them at back.) (If there be a story of 
masonry above the coach-house door -openings, 
there will of course he pien instead of wood 
posts, and, instead of a wood bressnmmer, there 
will be lintels of atones, as a, b, c, d, e, jointed 



as drawings, and of the scantling thereon figured ; 
with relieving arches provided under the head of 
'Bricklayer' or 'Bubble Mason'). Describe any 
rebating there may be in the stone-work, and 
how the wrought stone-work is to be finished on 
the face — cramps, plo^, lead runniug, &a. 8te^., 



254 HINTS TO YOUNG ABCHITECrS. 

sills, &c. Also any corbels wliicli may be built 
into walls to take the ends of girders. 

Stable and otheb Yabi>s. 
No. 142. Pitch-paving in sand, properly laid to a cur- 
rent, widi sink and gratings. — Coping stones to 
dung-pit. — Coping to walls and boondary walls. — 
Stone caps to gate piers. — Gate piers, either 
partly, or wholly, of wrought stone. — Stones for 
hinges, bolts, &c. — Plinths to posts of sheds. — 
Curbs from plinth to .plinth, and under gates. — 
Stone drinking-troughs. — Curb and cover stone 
to man-hole of tank. — ^Pebble or flat paving to 
cow-houses, piggeries. — Feeding - troughs to 
ditto. — PHnths to posts, and open stone gutters, 
&c., to cow-house. — Coping to outer pigsty, 
&o., &c. — ^Hinge stones to pigsty doors. — Curb 
stone under ditto. — Steps and sills to cow-houses, 
and other out-buildings having doors and win- 
dows. 

slating. 

No. 143. Cover the roofs with good scantle slate, on 
Slating, com- sound heart of oak or fir single or double laths, 
°^°°* and oak pins ; no slate to be less than " by ", 

and the whole to be well 

plastered against the pin with 

lime and hair mortar. The ^^>s>^a 

lap of upper slates over the ^^^^^^^^ 

lower to be not less than 2 

inches. Properly cut double rag hips and eaves, 

and cut heading course. 

No. 144. Cover the roofs with | ^^^ i lady slates 

slating. f 16 ^ X 8 ^ \ j^^jiq^ ^-^^^ cast-iron nails (boiled 

oil) to battens 2"xi", and 
well plastered underneath 
with Hme and hair mortar. 
The lap of upper over lowest 
slate to be not less than 2^ 
inches. Properly cut double 
rag valleys, hips, eaves, and heading course 





SLATING. 



255 



No. 145. 
Improved 
slating. 



No. 146. 
Superior 
slating 



Cover the roofs with | ''T*'''', ^«»,''°*«««' ] 

\ or large lady slates, ) 

" by ", nailed with cast-iron nails (boiled in 
linseed oil) to battens 2" 
by i", and pointed outside 
with putty of whiting, oil, 
and sand. The lap of up- 
per over lowest slate to be 
not less than 3 inches. 
Properly cut hips^ eaves, and heading course. 

queen 

princess 




Cover the roofs with« 



rag 

duchess \* slates,* 

marchioness 

countess 

^viscountess 

"X '\ nailed with copper nails to battens 

"x ". [Mixed metal or zinc nails are now 

generally used.] No slate to have less than a lap of 

\qx\ inches over the lowest slate beneath it ; 



♦ Queens, 3' X 2', or 27" to 36" by irregular widths. 
1 ton will cover about 2\ squares. 

Ladies, 16" by 8'. 1200 will cover 5 squares : weight 
Ijton. 

Princesses, 26 inches long, varying in width from 13 
to 20 inches, averaging not less tlmn 16 inches wide, 
weighing about 5 ton 3 cwt. per 1200, and covering 
about 16 squares. 

Ditto, 28 inches long, varying in width from 14 to 

21 inches, averaging not less than 17 inches, weighing 
ahout 6 tons per 1200, and covering about 18 squares. 

Ditto, 30 inches long, dififerent widths, from 15 to 

22 inches, averaging not less than 18 inches, weighing 
about 7 tons per 1200, and covering about 21 squares. 

Ba|^ of large size, 17 dozen weighing a ton, and 
covering 2^ squares. 

Duchesses, 24 hy 12 inches, weighing about 3 ton 
7 cwt. per 1200, and covering about 11 squares. 

Marchionesses, 22 by 11 inches, weighing 2 tons 
14 cwt. per 1200, and covering about 9 squares. 

Countesses, 20 by 10 inches, weighing about 2 tons 
3 cwt. per 1200, and covering about 7f squares. 

Vicoontesses, 18 by 9 inches, weighing about 1 ton 
13 cwt. per 1200, and covering about 6 squares. 



256 



HINTS TO YOUNG ARCHITECTS. 



No. 147. 



No. 148. 



No. 149. 
Best slating 
for very flat- 
pitched roofs. 




All the horizontal 



and every slate to have at 
least two nails. Eaves, 
hips, and heading courses 
to be formed of cut slates, 
so that their bond may be 
uniform with all the rest, 
over-lays to be well bed- 
ded {H inch up, from 
the edge) in (the stucco 
paint cement of Johns 
and Co., Coxside, Ply- 
mouth) or other cement. 
The raking or vertical 
meeting edge joints to 
be laid on a bedding of the same cement 8 inches 
wide. 





c 3— — 



If the skeleton roof be of iron, the last descrip- 
tion will serve, substituting wrought-iron laths, 
** strong copper wire *' for hanging the slates, 
instead of ** nails." 

[Note. — Iron roofs may be covered, 1st, by 
slating on wrought-iron laths ; 2nd, corru- 
gated or plain sheet-iron upon same ; 8rd, 
by cast-iron galvanised plates fixed to 
rafters ; 4th, plain sheet-iron on boarding.] 

If the roof be over a circular building, state 
that the slates are to be cut to radiating joints 
from apex to eaves. 

Cover the roof of vnth imperial 

slates not less than 2 feet 6 inches by 2 feet 



<3> 




SP^W^ 



each, and full inch thick : uniformly laid, with 
their ends meeting in a close joint along the 



SLATING. 



257 



JTo. 150. 

tside 

nting. 



'Ho. 161. 
.te ridges, 
Qmon. 



^0. 152, 
te ridges, 
)orior. 



upper fiurface of each rafter; each superior 
course to lap over the course below at least 
2 inches ; and the vertical or meeting joints to 
be covered with imperial slate slips not less than 
8 inches wide. The over-lap of slates, and the 
slate slips, to be well bedded in (the stucco paint 
cement of Johns and Co., Coxside, Plymouth). 
Each slate screwed to the rafters with two 1^^'' 
screws, and two 2" screws to each slip. All 
visible edges of the slates and the slips to be 
sawn or rubbed to a perfect smoothness ; and 
make uniformly close the cement pointing at the 
finish of the whole [or slate slabs, tongued and 
covered at joints by fJlets or rolls]. 

Where the slates are not laid in cement, they 
may be externally pointed, after laying, as fol- 
lows : The over-laps and meeting joints Uirough- 
out, to be made close with Johns's patent cement 
and sand, worked in with a stump brush, and 
the whole coloured as slates. 



i to 



be covered with imperial slate 
inches thick, and in 



Hips? 
(and) 

Eidges 
slips, inches wide, 
lengths of not less 
than ' ", securely 
screwed to rafters ; 
close stopped at all 
meeting joints, and 
bedded on the slates 
H inch up from the 
bottom edge with 
(Johns's patent paint) cement. 

Hips? ] 
(and) V covered with impe- 

Bidges j 

rial slate saddle-cut capping, of the size and 
sectional form figured and shown in sketch, and 
in lengths of ' * ; securely screwed to rafters 
with screws, and jointed and laid iiLC^TCL^\ii^^*«ss^^ 





258 HINTS TO YOUNG ARCHITECTS. 

as the rest of the slating [or specify Robinson's 
patent ridge and hip roll bedded in oil cement 
and screwed]. 

No. 153. Fillet the slating, wherever reqidsite, against 

*^^ } nmsoiorv^ i ^^*^ (Johns's patent paint 
cement, mixed with eqnal parts of sand). 

No. 164. Cover the roofs with The 

Queen slating, slates to be inches wide. Their length to com- 
of various mence (say 86 inches) long, at the gutters, and 
sizes. ^^ diminish gradually to (say 80 inches) at the 

ridges ; the same hond, being observed through- 
out. 

No. 155. Examine, and perfectly make good, the whole 
Final clause, of the slating, at the close of the works. 

\Note, — Slate cisterns, shelves, screeds for hol- 
low walls, &c., &c., should be specified 
here.] 



TILING. 

No. 156. Cover the roofs with good plain tiles on double 

Tiling, plain. f cement, 

lime and 
hair 
(^mortar, 
in each plain tile secured by an oak peg. 



heart laths, laid to a proper gauge- 



No. 157. The ridges (and hips ?) to be covered with 

Ridge and proper ridge (and hip ?) tiles, secured by T nails 
hip tiles. dipped in pitch, and hip-hooks also pitched, and 

i . r cement. 
^ ( lime and hair mortar. 

No. 158. Cover the with the best sound 

Pantiling. pantiling, laid to a proper gauge, on pantile 
laths, and effectually pointed on the inside with 
lime and hair mortar. (iVbi«. — ^If for the roof ol 
a brewery, or other building, requiring ventila- 



PLASTERING. 



259 



No. 159. 
Final clause. 



tion, or escape for steam, &c., tbe pantile laid 
dry is excellent.) Ridges and hips, as No. 157. 
[Ribbed Italian tiles, or those of the Broomhall 
Company, are recommended for appearance.] 

The whole of the tiling to be left perfect at the 
close of the works, and no mortar to show ex- 
ternally to the disfigurement of the surface. 



PLASTER AND CEMENT- WORE. 

No. 160. Cover the partitions and battened walls with 

Johns & Co.'s one coat of the paint cement, mixed with very 

cemwl't ^* fine sharp and clean sand, on lath and first coat 

side work.' ^^ common lime and hair plaster. Cover the 

rubble walls with the said paint cement, on a 

render of common plaster, as aforesaid. Cover 

the brick walls with simply one coat of the said 

{fair ) 
« r 

., J- float; and the whole 

to be carefully applied according to the printed 
instructions of the Patentees. 



No. 161. 
Parian and 
Keene's 
cement. 

No. 162. 
Commonest 
internal plas- 
tering. 

No. 163. 
Common 
S-coat work 
for ceilings 
and papering. 

No. 164. 
3-coat work 
for painting 
or colour. 



Parian or Keene's cement may supersede 
wooden angle beads, &c., &c. 

Lath, lay, and set the ceilings and partitions 
of , and render, set, the walls of • . • • 

Lath, lay, float, and set the ceilings and 

partitions of , and the battening 

against walls; and render, float, and set the 
unbattened walls. 

Lath, lay, float, and rough stucco the parti- 
tions and battened walls ; and render, float, and 

rough stucco the unbattened walls of 

(Qy. whether jointed to imitate ashlar V\ 



260 HINTS TO YOUNG ARCHITECTS. 

No. 165. Lath, lay, float, and finish with trowelled 
Bests-coat stucco, the partitions and battened walls; and 
OTww^ &^"* render, float, and finish vdth troweUed stucco, , 

r paper, ^^ unbattened walls of the (Qy. if ] 

jointed 7) 

Ko. 166. To whiten all the ceilings. 




No. 167. Colour the walls and partitions of . 
a colour. 

No. 168. Bun all beads, quirks, &c., to angles of arched ^ 
soffits, and where else required. 

To properly plaster all sides, backs, soffits, 
&c., of window or other recesses, arches, ceilings 
under stairs, and other parts not cased with 
joinery, so that they may finish in conformity 
with ihe adjoining plastering. 

No. 169. Bun, all round the ceilings of the varions 
Cornices and rooms, the cornices, and exectte the various 
enrichments, enrichments, as shown and described on the 
drawing of " Plasterer's Details,'* sheet No. . 
Models of all enrichments to be first made, (qy. 
at the expense of the Contractor?) and casts 
therefrom finally approved by, and deposited 
with, the Architect, before the enriched work be 
commenced. [Give girth or width of cornices.] 

No. 170. Bun round the floors of askirtiog 

Cement of Portland (Keene*s patent ? — Boman ? — Johns 

skirtmg. ^^^ Co.'s?) cement, of the 

size and sectional form shown 

by annexed figure. 



No. 171. Execute, in the best Scagliola composition, the 

Scagliola, &c. shafts of the columns, pilasters, &c., in the 

. . . . ; the Scagliolist engaging to provide the 

wood firring and cradling necessary to receive 

his work. The shafts to be in imitation of 



CEHENTINO. 



261 



} 



No. 172. 
Cement, out- 
side brick- 
work. 



No. 173. 
Common, on 
rubble. 



No. 174. 
Superior, cm 
rubble. 



No. 175. 
Eough casti 
on rubble. 



No. 176. 
2 coats, com- 
mon, and 1 
Aberthaw, 
on rubble. 



No. 177. 
I coat, com- 
mon, and 2 
Aberthaw, 
on rabble. 



( verde antique ; 

< sienna ; )- the caps and bases to be exe- 

(jasper; 

cuted in Keene's patent cement, (qy. whether the 
entablature, or any part of it, is to be Scagliola, 
Parian, or Keene's cement ?) and the whole 
brought to th|B utmost polish, and left perfect. 

Cover the whole of the external surface of the 
brick walls with one coat of the patent stucco 
paint cement, mixed with sharp clean sand, and 
applied according to the printed instructions of 
the Patentees, [or with Portland cement in the 
proportion of one of cement and three of sand.] 

Or, 

Cover the whole of the external surface of the 
rubble walling with a render of common lime 
and hair, and one coat of the patent stucco, &c., 
&c. (See No. 172.) 

t/over the whole of the external surface of the 
rubble walling with a first coat of the patent 
stucco paint cement, mixed with very coarse 
sand ; and a second coat of ditto mixed with a 
finer sand. (Qy. jointed ?) 

Cover the external walls of the ..... . 

with a render and float of common lime and 
hair, slap-dashed with a rough-cast of fine clean- 
washed gravel and lime water. (Coloured ?) 

Cover the external walls, where not other- 
wise covered, of the , with a render 

and float of common lime and hair, and a stucco 
of Portland or Aberthaw lime and fine sharp 
clean sand. (Qy. jointed ?) (Coloured ?) 

Cover the external walls, where not other- 
wise covered, of the , with a render of 

common lime and hair, a float of Aberthaw lime, 
&c., and a stucco of Aberthaw or Portland^ 
jointed to imitate ashlar. 



262 HINTS TO TOUKG ABCHITECTS. 

No. 178. Cover the external brick walls, where not 

Portland, on otherwise covered, with a float of Portland, &c., 
bnck. j^^ ^ stucco of the same, jointed to imitate 

ashlar. 

( Aberthaw lime 
Ko. 179. Bon, in properly prepared < cement, 

( Portland cement, 
all parts of the external work hereinafter do- 
scrihed, viz. — 

a. The moulded cappings and plinths of 

chimney shafts. 

b. The top front and inside (to flashing) of 

parapets. 

c. The rail, balusterSi and plinth of balustrade. 

d. The entire cornice, including the top surface 

thereof. 

e. The mouldings, enrichments, &o., &c., of 

the frieze and architrave. 
/. The strings, edges of rustics, channels of 

rusticated parts. 
g. The architraves of 

doors and windows 

of the 

fronts, including 

the whole girth 

from the back of moulding at ▲, to the 

wood frame at b. 
A. The moulded work of the entablatures, 

pediments, of doors and windows. 
i. The cornices, trusses, &c., to doors and 

windows. 
;'. The pilasters, columns, bases, and capitals, 

of doors and windows. 
k. The sills of windows. 
I. The top of main plinth, or the plinth 

entirely. 
971. The parapet and moulded work of portico, 

as cornice, architrave moulding, caps, 

bases, and (if fluted) shafts of columns, 

plmth, &c., and such other parts as are 

not to be executed in stone, or which 

cannot be as well finished in stucco. 




carpenters' work. 



263 



The whole of the aforesaid Portland or Roman 
cement-work to be coloured in imitation of the 
other plastering. 

[All the above features may be of terra-cotta, 
Eansome's patent stone, or other approved 
material, the architect selecting the designs, or 
they are to be modelled <from his own designs.] 



y, 180. All parapets, having lead 
flashings, to have a bed of 
cement right through them 
immediately above and touch- 
ing the flashing. 

[All brick and stonework 
above roofs to have damp-proof 
courses of slate in cement, 
sheet-lead, or asphalte to prevent damp drawing 
downwards.] 




0. 181. 
centers' 
k, inclo- 
s, &c. 



CARPENTEES WORK. 

Provide and fix all the timbers, boarding, &c., 
necessary to form the protective inclo3ures. (See 
No. 1.) 

Construct also an office feet by feet clear, 
and feet high to the springing of roof, for the 
Clerk of the Works, (see No. 1), the same to be 
formed of weather-boarding on stout framing, 
having a properly hung and glazed window, 
also a door in frame, with strong hinges and 
good lock ; a drawing-desk feet long by feet 
deep, with drawer under ; a stool ; rail and pegs 
for cloak and hat; a corner cupboard with 
brass-knobbed latch. Floor properly boarded 
on joists. 



;o. 182. 

tring and 
materials. 



Provide and fix all required timber for shor- 
ing, &c. (See No. 2.) 

No old timber to be used in the new works, 
unless permitted under the handwriting of the 
Architect. 



264 



HINTS TO YOUNG ARCHITECTS. 



No. 183. 
Piling and 
planMng. 

No. 184. 
Sundries. 



No. 185. 
Bond, &c. 
Lintels. 



Provide all the timber nec^ssaiy for the piling 
and planking of the fonndations, as described 
before. (See No. 10.) 

Provide and fix all required scaffoldage, cen- 
tering, turning pieces, beads, stops, fillets, tilt- 
ing fillets, backings, blocks, cradlings, firrings, 
bearers, and all other minor articles of carpentry 
necessary to the perfect and efficient completion 
of the various works particularised under the 
heads of Carpenter, Joiner, Mason, Bricklayer, 
Slater, Plasterer, and Plumber. 

Provide all necessary woodbrieks and tem- 
plates of sound Memel or red pine, with every 
required preparation for fixing grounds, battens, 
and joinery; also the various courses of bond 
timber and wall plates, described, shown, and 
figured on the drawings ; also lintels of Memel 
or red pine over all square-headed window, 
door, or other openings, within the brick or 
stone arched soffits, it being clearly understood, 
with reference to external doors and windows, 
that no lintel shall appear outside the head of the 
wood frame. The said lintels to have a vertical 
depth of li inch for every foot of opening be- 
tween the templates, and not to be longer than 
sufficient to cover the templates. One or more 
lintels, as re- 
quired, to fill up 
for the thickness 

of the wall above; | iframe 

and the Carpen- 
ter to see that R^v^^l 
the relieving Section. 



STONE OR 
BRICK. 

eOFFIT 





m 



'^<3 



T 



i 




Elevation. 



arches 'before described (see No* 56) are turned 



ORESSUMHEBfi. 265 

Ity tho Mason, lemplatea to ItiitelB not to 
exceed the Hcantling of 4" x 3*. 

Provide and fix the stoty-post (or poala) aa 
shown in drawings ; the same to be of the 
Bonndest Memel fir, and of the fall fignred scant- 
lings, with cast-iron boxed and tenoned caps 
and bases, as sketch, |ths thick. 




Lr- 



Stone base. 

To. 187. Bressnmmera of the sonndoBt Memel fir to 

'■ extend over (here deacribe, whether from pier 
to pier, or over atory-poata, or iron columns, or 
otherwiae, wherever they have to he constructed 
contemporaneously aud for the aappoit of 
masonry) . . . . ; the same to be of the full 
fignred BoantUngs, and formed of single timber, 
halved, reveraed, trusaed with wrought- iron 
(king or queen) holts, abutment ditto, atmts, 
and straining piece, and bolted together with 
proper nnte, screws, &c., as shown by drawings 
[or a plate of wrought iron to be bolted between 
Elevotioii. Plan. 




pieces]. The whole screwed up to a camber, 
and mortiaed for the tenons oi A.W ^ViT^-'^^vi^ 



abO inNTS TO youmq AacHiTBtTrs. 

(of iron colTtmns), taking care to loave the 

mortise free for a lateral thmst in the event of 

tbe camber settling again to a perfect hoii- 

zontal. 

N.B. — It is possible the bearing between the 

snpportH may be so small aa to require no 

iron trnssing. Tbe Architeot vnll here use 

hia own discretion ; as the weight above, oi 

the flooring bearing on the bressmoiner 

mat/ require his serious coaaideration. (See 

Fart IV., Sect. 2, Strength of materials.) 

No. 188. Silla of quarter partitions, resting on maaonr;, 
Qoarter parti- to be of sound old English oak, 4" x 8" (in very 
tio"* large bnildinge 6''x4". The scantlings for tlie 

usual partition are here stated. When the pai- 
"c'oMtai tition exceeds 12 feet high, an increased size 
tion" (P^'t should be given). Heads and braces 4"x8''. 
IV. Sect 2). Principal quarters, as door-posts, king or queen- 
posts, straining-pieces, &c., to be not less than 
i"x,i"- Common quarters 4"x2i", and 12 (16 
or 18) inches from middle to middle (as the 
importance of the building, or of any partionlar 
part of it, may require). No quarter to have a 
length of more than feet, with- 
out horizontal stiffening pieces, 
as a, a. The whole, except the 
sills resting on walls as afore- 
said, to be of (Memel fir on 
gi'onad floors. They may be, 
if economy require it, of sound 
American red pine on the upper 
floors). All partitions hanging 
over voids to be tmss-framed 
in the most careful manner with king or qneen- 
; posts, bolted with wrought iron to the sills or 

ties ; struts and straining pieces to be properly 
framed into the same, and tbe whole rendered 
perfectly independent of the floor level with 
their sills. 

N.B. — In particular cases sketches or draw* 

inga of these trussed partitions should bo 

_ made ; and it vrill be sometimes advis- 




TRUSSING, ETC. 267 

able to have the king and qneen quarter 
of oaJe» 
All required quarter partitioning to form 
closets, &c. 

189. Ground joists to be of sound old English oak or 
d joists. |'12] 

Memel fir ''x "and -< 14 > inches apart, on oak 

(16) 
plates 4" X 3". [Space under ground floors should 
be concreted and ventilated.] 

190. The rooms and passages, landings, &c., of (dc- 

on scribing them with reference to the plans) 

S' { Memel fir \ 

to be laid with < red pine > joists ; those of 

( yellow fir j 
(such and such rooms) ^'x ^ and inches 
mid to mid, &c., &c., &c. The whole to be 
properly framed into binders or trimmers, and 
to have a 6-inch hold in walls, bearing on plates 
4"x8". All trimmer joists to have an excess of 
1 inch in thickness over the others. 

. 191. Here describe any binders or girders that are 
OT and to be employed in connection with the common 
floor joists, as to landings in staircases, or over 
any other internal openings where the joists can- 
not rest on walls or partitions. 



"S 



. 192. The floors of to be formed of 

^" Memel fir binders " x ", and not more than 

floors. Q £.^g|. q^p^jI;, on oak templates 4"x4", and having 

a hold of 9 inches on walls, with bridging joists 

inches apart, and ceiling joists thereunder 
2i" X li", and 12 inches mid to mid. 

. 193. The floors of to be formed of Meme 

le- fir girders " x ", not more than 10 feet apart, 

d floors. Q^ Q^^ templates 6"x4'', having a hold of 12l 
inches on walls, with bmdeta ^*y.ll* ^txr?v» ^si^-^^ 



268 



HINTS TO YOUNG ABCHITECTS. 



than 6 feet apart, framed into girders, and rest- 
ing on oak templates ^''x^", with a 9-inch hold 
on walls. (Bridging and ceiling joists as No. 
192.) If the girder exceed 20 feet long it 
must be trussed, as described for Bressummers, 
No. 187. 

No. 194. In churches, theatres, public rooms, &c., where 
Moor trusses, ^gj,Q g^j.^ galleries and floors rising in steps to 
different levels, accurate drawings must be given 
of the main trussed framework ; and the speci- 
fication will therefore specially refer to these 
drawings, as thus : — 

The rising floors of to be supported 

on trussed framework, as drawings. The trusses 
in such or such positions, — or not more than 
eet apart) of the full figured scantlings, put 
together in the most workmanlike manner, and 
with wrought-iron bolts, straps, nuts, screws, &c., 
as drawings. The king or queen timbers of sound 

oak ; the remaining timbers of j V^^. . ' | 

binders for floor and ceilings ; bridging joists or 
firrings for diflerent levels of floor, and ceiling 
joists ; the whole as drawings. Breast-work to 
front of galleries trussframed, as drawings, of 
material corresponding with the floor trusses, 
with iron bolts and straps as shown, and of the 
full scantling figured. 



i 



No. 195. All (single-joist unframed) floors to have a 
Cross strain- range of cross 
ingandSound bonding of fir 
Boarding. pieces2inches 

square (as 







U 






sketch), closely butted and firmly nailed between 
the joists at parallel distances not exceeding 6 
feet. (This will not be done in inferior buildings, 
nor where the joists are to be visible. See No. 
209.) [Properly fill in upon rough boards on 
fillets a inch layer of pugging to prevent pas- 
sage of sound. (See sketch.) Pugging may be of 
chopped hay and lime mortar.] 



KOOFS. 



269 



Sound board- 
ing. 



The spaces between the joists of the floors of 
. . . rooms to be fitted in with sound boarding 
on proper fillets ; and the Carpenter to see that 
the space between the said boarding and the 
floor boards be filled, in with proper pugging of 
sufficient thickness. 



No. 197. 
Plats. 



No. 198. 
Lanterns. 



No. 196. The joists of (such and such) floors to have 
Stt^ ceiling , battens U"xi\ and 12 inches mid to 

mid, underneath thern^ to insure a good ceiling 
for the rooms below. 

Here introduce a description of the girders, 
binders, bridging and ceiling joists, — or of the 
binders, bridging and ceiling joists, — or of the 
simple joists only, — ^which may be required to 
support the lantern and lead flats of staircases, 
or the flats over porticos, bay windows, or other 
parts of the buUding; either making explana- 
tory sketches on the specification, or referring 
to detailed drawings whereon the scantlings are 
all figured. 

Here introduce a description of the rough 
carpentry necessary to raise the sill of &e 
lanterns above the flats ; also of the joisting or 
rafters necessary to form the flat or roof over the 
lantern. Scantlings as drawings. 

No. 199. The roof over the to be supported 

Uoofa, Italian, by trusses, as shown and figured on drawing 
No. , These trusses to be not more than 

110 \^^^^ apart, with half trusses at the ends 

of corresponding form and scantling ; hip rafters 

"hy '', properly framed into a dragon piece of 

oak " by ", the said dragon piece dovetailed 

into an angle tie of Memel fir, feet long, and 

inches square. The tie-beams to have a hold of 

18) 

12 > inches on the walls, notched on oak tern- 

plates, inches long and inches Bc^pA.^^^. '^^xcss^ 



270 HINTS TO YOUNG ARCHITECTS. 

or queen posts of wrought-iron rods or oak ^th 
wrought-iron step straps or bolts (or both), to 
unite them with the tie-beam. Principals of 

1 Mei^l fir I ^^^^ united to tie - beam with 
wrought-iron bolts, straps (or both), and the 
remaining timbers of roof, viz. the (assistant 
principals ?) struts, (straining beams ?) (strain- 
ing sills ?) ridge-piece, ridge-roll, purlins, pole- 
plate, and common rafters, to be likewise of 

1 MemTfi' • } *^® whole framed in the most 

workmanlike manner, and the tie-beam to be 
wedged and bolted up to a camber of inches. 
Valley rafters " by ". 

\Note, — ^Iron is frequently and economically 
combined with timber in large roof trusses ; 
all suspension pieces as kings and queens 
being of iron rods, with cast-iron socket 
heads and shoes to receive the ends of 
struts, &c.] 
Continue to describe the secondary and collar- 
beam, lean-to ropfs, &c., in their turn. For curb 
roof, see No. 204. For projecting eaves, see 
No. 207. 



No. 200. Note, — In these, it is likely there will be no 
Roofa, Gothic. tie-beam, nor any angle tie or dragon 

pieces. Collar - beams, hammer - beams, 
brackets, springing pieces, &c., will super- 
sede the tie-beam. The valley rafters may 
remain ; but there will be no half trusses 
at the ends. An accurate drawing of the 
roof must be made, the reference to it in 
the specification being only general. (See 
No. 203.) For curb roof, see No. 204. 
[Curved and moulded ribs bolted or grooved 
to principals are often used.] 

No. 201. Provide, frame, and fix all the rough carpentry 
Dormer doors necessary to form the dormer doors and windows 
and windowB, fji the roofs, as Bhown otx di:2i.mtig8. 



No. 202. 
Boarding and 
battening 
for lead and 
slates, and 
Felting. 



No. 203. 
Open or 
Gothic roof. 



HOOFS. 271 

Lay the roof with | • ^^ } rough Memel 

boarding for slates. Inch gutter boarding on 
proper bearers to parapets, and boarding for 
valley gutters, &c. ; 2-inch drips. (See No. 
203.) [All roofs not ceiled underneath should 
have felt inserted under slates as a non-con- 
ductor of heat and cold. Pugging with chopped 
hay and plaster is as good.] 

Or, 

Lay the roof with Memel fir battens 2"xl'', 

for slates. Lich gutter boarding, &c., &c., as 

before: 

N.B. — ^If the roof have projecting eaves, 

there will be no parapet gutter boarding 

required. 

Lay the several flats, roof of lantern, &c., with 

l^^-^l rough boarding for lead, forming proper 

rolls for joints and drips. 

It may so happen in the case of an Italian 
roof, and it will most likely occur in that of a 
Oothic roof, that the timbers are to be left 
visible from below ; and that the specification 
must therefore describe whether they are 
to be "wrought fair,*' **cut," ** chamfered," 
" moulded," or " decorated " as drawings. In 
a church, chapel, or Gothic hall, for instance, 
which has no plastered ceiling, ** the roof," or 
"so much of it as is visible," would be so 
described; and the slates, or lead covering, 
instead of being laid on "rough boarding" (as 
in No. 202), would be laid on " inch deal board- 
ing with (rebated and beaded) (or ploughed, 
tongued, and beaded) joints, and wrought fair 
underside." 



No. 204, Curb roof over the as drawings. 

C"'^ 'oot Raking side, or sides, of { ^Tf^^^ } formed by 
framed and braced quartering, as described for 



272 



HIKTS TO YOUNG ARCHITECTS. 



No. 206. 
Garrets. 



quarter partitions, No. 108 : the tie-beams, long 
or qneen posts, principals, purlins, stmts, rafters, 
&c., &c., together witii the iron bolts or straps, 
necessary to the strength of the work, to be 
referred to "as shown on drawings," and the 
description of the Italian roof, No. 199, to be 
followed out as far as it is suitable ; also the 
suitable particulars in Nos. 201 and 202. 

Bed pine binders from (tie-beam to tie-beam) 
or (collar to collar) " x ", and ceiling joists 

'' X "; not more than inches mid to mid. 
Fir ashlaring from the (raking quarters, or the 
rafters) to the floor joists, as section. Dormer 
doors and windows, as No. 201. Trap doors, 
No. 206. 



No. 206. Bed pine bmders " x "9 arid not more 
<:j«iliiig floors, than feet apart, framed into tie-beams ; and 
ceiling joists " x '', not more than inches 
mid to mid. Chase-mortised into the binders. 
Openings for trap doors into roof where marked 
on plans ; and a rough boarded foot- way to be 
formed from the trap to the dormer doors, win- 
dows, or ventilators in roof. 



No. 207. 
PrqjectiDg 
JBaves. 



No. 208. 
Troughs, cis- 
terns, &c. 



No. 209. 
Joists, 
wrought fair. 



Provide and fix all rough carpentry necessary 
to form the projecting eaves, the finishings of 
which will be described under the head of 
Joiner. 

Construct rough red deal water-troughs for 

lead lining, to conduct from through 

the roof to the cistern, or cisterns, at ; 

the said trough to be inches wide and inches 
deep in the clear. Construct also the cistern, or 
cisterns, of the sizes and in the situations figured 
and shown in drawings, fixing the same on 
proper bearers. Cover to cistern, if it be out- 
side, and feet same. 

Note. — In some cases, as in cottages, stables, 
&c., &c., the upper joists of floors and lofts will 



ROUGH WORK. 273 

be wronght fair with chamfered edges or beaded 
angles ; also the girders, binders, &c. (See 
No. 203.) 

No. 210. Provide and fix all required fir bearers and 
Sundry rough rough carpentry to the stair flights, &c., &c., &c. 
work. "Eere go over the plans very carefully, from 

the roof through every floor downwards, and 
make as particular allusion as you can to the 
numerous minor features which may be peculiar 
to the design under consideration; and ^hich 
cannot be considered in this general outline. 
Thus, in roofs and ceilings, ventilating apertures 
may be required. Skylights are to be prepared 
for, and quartering for rough boarded linings. 
Preparations may be required for hanging pic- 
tures ; for hanging lamps to ceilings ; for com- 
pleting certain forms, which can only be done 
partially with real masonry ; for forming jambs, 
arches, inclosures, roofing to porticos, porches, 
sheds, covered ways, or projecting windows, 
&c., &c., &c. 

No. 211. The internal surface of the several walls, 
Battening. marked by a yellow line on the plans, to be 
prepared for Uie Plasterer with Memel deal 
battens 2''xl", and 12 inches mid to mid. 

No. 212. Prepare for the arched, groined, or coved 
Cradling and ceilings ; for the cornices, beam- work, panelled 
"^^* ditto ; for the entablatures, pilasters, and all 

other work that is to be finished by the Plas- 
terer, with good and sufficient cradling and 
firring. 

No. 213. Provide and fix also all required rough car- 
Columns, &c., pentry to form the cores of Scagliola or wood 
cdUnM^^^ columns, with whatever framing or trussed 
^' work may be necessary above them ; and all 

binders and joists that may be required to such 
ceilings as are lowered beneath Uie floor joists 
above. 



274 HINTS TO YOUNG AKCHITECTS. 

No. 214. The whole of the aforesaid Carpenters* work 
Final clause, to be executed with sound and well-seasoned 
timber, free from sap, shakes, and injurious 
knots, and to be framed together with workman- 
like skill and accuracy. The scantlings to be 
full, aft&r the saw; and the iron bolts, straps, 
trusses, screws, nuts, &c., employed in the 
roofs, partitions, and bressummers, to be of the 
best iron, well hammered and wrought. The 
ends of all tie-beams, girders, binders, and other 
important bearing timbers, to be left free from 
mortar on all sides, so that the air may circulate 
around ; and all joists, and the plates on which 
they rest, to have their concealed ends well 
coated with coal tar. Wherever the fir timber 
is not described as of Memel or Baltic, it will 
be taken up as American or best Swedish. 

No. 215. N.B. — In the event of sliding doors bemg 
desired between rooms, the quarter partitioning 
must be prepared accordingly with double fram- 
ing, leaving the required space between. 



JOINEBS' WOEK. 



No. 216. Here let the specification allude to any draw- 
Ventilator to ing there may be for ventilator, turret, or other 
^^'* piece of joinery rising on the roof, and all venti- 

latiug hoppers, trunks, &c. 

No. 217. Prepare and fix sky-lights,^ as drawing, of 2i- 
Sky-b*ghts. inch Memel casement and bars in proper rebated 
and beaded frame, with all required means for 
rendering the same weather-tight. 




[The rafters for sash sky-lights to be grooved 
in rebates to let off water.] 



JOINERS WORK. 



276 



No. 216. 
Geilin j^, or 
dome inner 
lights. 



Prepare and fix a 2-inch 
red deal neatly motdded light, 
in proper rebated and beaded 
frame, as sketch, in the ceil- 
ing floor under the sky-light, 
(qy. whether it is to open ?) 
and inclose the space between 
the two lights with a neat 
deal boxing, leaving 
a door properly hung 
in one of the sides to 
allow of cleaning. 
Or, 

Prepare and fix a 
neat deal dome-light, 
in proper rebated and 
beaded frame, as 
sketch, in the ceiling 



Plan. 




ft \i 



ih: 



Section. 




CEILINO LIGHT 



&c., &c., &c., as before. 



floor. 



No. 219. It is well, when practicable, 
Light and ia light, and at the same time 
ventilation of yentflate, water-closets by an 
water-dosetfl. adaptation of Nos. 217 and 
218, lifting the sky-light on 
blocks so as to admit of air 
passing under the lower 
edge of the casement, and 
raising also the inner light 
for the same purpose. A 
dome-light would be best for 
a water-closet. 




CBIUNO 



No. 220. Provide and hang in proper heads and jambs 

Dormer door. 2-inch Memel deal bead-butt and square dormer 

doors, as shown on drawings, with hingeing and 

fastenings complete. 



No. 221. 
Dormer win- 
dows. 



» { S Jt »a } f™»e» l»vi»8 »«k .Ub to. 



276 



No. 222. 
Trap door. * 



HINTS TO "XOUNG ARCHITECTS. 

mnllions ?) the dormer window openings, and fix 
window board ; the whole as drawings. 

Frame and fix an 1^-inch bead flash and 
square trap door, in proper rebated frame, for 
ascent into the roof where shown on plans, with 
hinges and fastenings. 



No. 223. Provide inch Memel 

Gutter cornice eaves, also deal canti- 
to eaves, levers, cut, moulded, and 

le^ framed, at intervals of 

' " apart, into an inch 
Memel deal fascia board, 
having moulding to cor- 
respond. 



deal cornice to 




No. 224. Cornice to eaves to 
Eaves cornice, be formed of Memel 
Italian. ^^^1, framed, glued, 

blocked, and moulded 
as drawing, with cut 
modillions at intervals 
of inches apart ; and 
a gutter, of the clear 
dimensions shown in 
section, and having a 




falling bottom, to be formed behind the upper 
mouldings of the cornice. 



No. 225. Cornice to eaves to be formed 
Ditto, Gothic, of Memel deal, framed, glued, 
blocked, and moulded as drawing, 
with rain-water gutter, of the 
clear dimensions figured, and hav- 
ing a falling bottom formed in the 
upper part. 




[Cast-iron gutters, plain and moulded, are now 
invariably used in preference to wood.] 



No. 229. 
booids. 



The raking eaves of 
gables to be fitted with 
iuobUemel deal, moulded 
and chamfered or beaded 
barge -boards, as drawing, 
to coTei the ends of pnr- 



ITo. 227. The raking eaves of ga- 
Baive-boaidB, bles to be fitted with -inch 



f oak ■ 



cnt and monlded 



tdeal 

bai^-boards, as drawing 
the same to cover the ends 
of purlins. 



Lantern-light over 

the to be 

formed of 2- inch Heme 1 
deal casements, la solid 
Memel fir rebated and 
beaded frame, with oak 
sill rebated, double 
snnk, weathered and 
throated, and &Bcia 
with monlding all 
roTind the top, from 
nnder the lead, to li 
inch over the joint be- 
tween the head-piece 
and the casement. 
The whole to be 
wrought and moulded 
as shown b; the draw- 




278 HINTS TO YOUNG ARCHITECTS. 

ings. (See No. 268.) (Qy. if any of the lights 
are to Imng 9) 

[If it is intended to stain or simply varnish the 
inside woodwork, the framing of doors, skirtings, 
and other parts must be specified to be of selected 
deal, or pitch pine; the framing may be of yellow 
and the panels of red deal, all dead or loose knots 
and shakes being carefully avoided.] 

No. 229. Lay the floors of with inch .... 

Floors. deal folding ; no board to exceed inches wide. 

Boarding, 

common. , . . 

No. 230. Lay the floors of with | i'V' . ^f [ 

tto. better. ^ . X IJ-mch ) 

deal, straight joint, face-nailed headings splayed; 
no board to exceed inches wide. 



Ditto, better. 



No. 231. Lay the floors of m\h ^ U-hich } 



Ditto, 
superior 



{wainscot, ] 
deal, > straight joint, skew-nailed 

oak, j 



on one 



edge, and joints rebated : 

or, 

No. 232. — and joints ploughed and tongued : 
Ditto. 

or, 



No. 233. — and joints dowelled with oak pins, atf q | 
Ditto, best. '^ I o J 

inches apart : 

(add to either of the foregoing three, viz. Nos. 

231,232, or 233,) 

headings ploughed and tongued, and no board to 

exceed inches wide; neatly mitred margins 

to hearths, and the boarding grooved for skirting. 

State where floor boarding is to be wrought 
No. 234. fair underside. 

Very superior 

floor of deal ^ ^ /• -v^ainscot ") 

and wainscot, Lay the floors of . . . with li-inch i ^^ tit«,v»^i f 
or of wainscot lorMemelJ 

wboUjr, best boarding, free from knots, and no board to 



FLOODS. 279 

exceed i - > inches ^ide, Bkew-nftiled on 
one edge, dowollcd with oak pins 6 inches apart ; 
' headings ploughed and tongned : and wainscot 
margin feet wide (measuring from the skirting, 
which will be grooved into Uie same) all round 
the rooms, accnrately mitred at all angles, with 
grain ranning paralld to the ends and sides of the 
room respectively, 

No. 2SB. If the floors are to be laid in panellings and 
Parquetry and fancy patterns, an accurate drawing must bo 
inlaid floors, m^de and referred to. 

[Parquetry floors may be laid of any design ; 
or parquetry borders only. In this case spooify 
mannfaotnrer'a name.] 



No. 236. The rooms and passages 

qSSIT^' *° ''*™ ^'"^"^ ^^^ ''^^'^^^ skirting, ,| 
4 inches high, and flash with plaster. 



No. 237. 
Common 
skhtiufia 



'. , . . . I -inch deal hollow- 

moulded skirting, plugged to 
walls, i inches high. 



{-inch deal skirting, 

6 inches high ; fillet and toms 
moulded, and plogged to walls. 



280 



HINTS TO YOUNG AECHITECTS, 



Or, 



No. 23D.r f -inch deal skirting, with 

SkirtingB and plinth 6 inches high, nailed to fillet 
grounds. ^^^^ grooved grounds, and hollow and 
torus moulding above plinth. 




Or, 



No. 240. 
Ditto. 



inch deal skirting ; 

plinth 8 inches high, nailed to fillet 
and grooved grounds, and moulding 
above plinth, as drawing. 




Or, 



No. 241. 
Ditto. 



inch deal skirt- 
ing ; plinth 10 inches high, grooved 
into floor boarding, nailed to fillet 
and to IJ grooved grounds, and 
moulding above plinth, as drawing. 




DOOBS. 

Or, 

IJ-inoh deal akirting ; 

pibith ischeB high, with i-inch 

sinking to form double feoe, grooved 

into fioor, nailed to fillet and to 1^ 

grooved gionndB, and moulding 

above plintit, as drawing. 

[Note. — For kitchens, ont-ofBces, 

&c., oement skirtings are beat 

and cleanest.} 



The . 



f li-inch \ j oak 
{ or inch J | doal 
in door, formed with vertical ledges, re- 

bated and headed joints, nailed to 
three back braces, and hung with 
strong hook and twist hicges to solid 
rebated and beaded frame, 4" x 8", 
housed witii iron shoe into step. Nor- 
folk thnmb-latch — wood stock lock, 

214. The : to have door formed of 2-ineh 

b^od Memel deal stiles and top r^, filled 
"*"" in with inch deal battens, rebated 
and beaded joints, and backed with 
two horizontal (and, if necessary, 
two diagonal) braces framed into 
stiles, &c., the same hung with 

( hook and twist ^ 
strong < cross garnet > hinges 

( wronght-iron J 
to solid Memel fir &ame, rebated and 
twice beaded, and housed with iron shoe into 
step. Norfolk thumb-latch to each door — fine 
plate 8-inch stock lock. 
US. Ooach-honse folding doors will be the same as 
lu)me the last described ; rebated in their meeting stiles, 
hung with strong wronght-iron hinges, and hav- 
ing bolts and swing bar, 

1-Inch or 
i-incb. 



The 



...h.™(>j; 



t yellow 



No. 248. 
Ditto, 
saporior. 



IIIMT8 TO lOUNG AKCUITECTa. 

deal foar-panel bead butt and square 
(or bead Jiuah aud sqnaie) doors, 

hung with cast-iron [^ ^ 

buttB to 1 J-incb jambs [\y| [ K=H 
and heads ; moulding |/\J ~J 
( one or ) ., '— r^ 

""{toll, i"^" 

to cover tbe plaster joint ; 
iron rim braaa-uiobbed lock. 

The to have 

Ij-incb yellow deal fonr- 
panel, monlded (both sides ; 
or one aide, and the other 
sqnare ;) hung with iron 
butts in l^-inch single re- 
bated jambs, with 21-inch 

moulding on (^gtu* I sides 
to cover plaster joint; and 
(morti.e orl^^,.,^„t. 
(.iron nm J 
bed lock. 

Ihe to have doors formed of inch 

panels, in 2-inch stiles and tails, monlded both ] 
sides ; (one side and square, in closets, io.,) 1 
hung with two 8^-inch best iron butts, in 11- 
inch jambs double lebated and beaded, and 
i K ■°p>i , moulded architrave on framed and 
splayed grounds. Good mortise lock with ebon;, 
china, or brass knobs to latch and bolt. 

The . . to have doors 
formed of 14-inch panels, 
having sank margins, 




or nnkii^in centre 



in 2-inch stiles and rails, 
the central style being 
donble and beaded u£ the 




DOORS. 



283 



No. 250. 

)lding 

ors. 



middle, and the panels ogee and bead both sides. 
Door hung with best 4-inch lifting | ?^ | 
bntts, in 1^-inch double rebated jambs, and 
{ 7-bch *" }^omei axchitrave on framed and 

splayed grounds. Best mortise lock with .... 
knobs to latch and bolt of approved manufacture. 

The opening between rooms to have 

doors corresponding with the others in respect to 
their general character and mouldings, but hung 
folding, and having three panels in their height. 
Brass flush bolts top and bottom of one half, and 
the other furnished with mortise lock, &c., as 
other doors. 



No. 251. The opening between . . . : . rooms to have 
ding doors, sliding doors, corresponding with the others in 
respect to their general character and 
mouldings, only that they will have an 
additional panel in height. The said 
doors to be hung by metal suspenders, to 



^ 



nn 



f=f 



nn 
nn 




5^0. 252. 
fcer doors. 




the axles of brass rollers, which will traverse 
a strong iron rail-rod. The 
whole to be executed in the 
best manner, and conformable 
to the drawings. 

[Sometimes they are made 
to slide by friction rollers on 
metal rod let into floor.] 

The door-opening .... 
to be fitted with door formed 
of li-inch Memel deal ogee 
or ovolo bead and raised 
panels, three beads flush 
inside, in 2 J -inch Memel stiles 



^ 








HINTS TO TOUHO ABCHITECIS. 



and rails, hnng with two strong 41-incli butts ta 
solid Memel fir &ame, 41' X 8 . rebated and 
twice beaded, housed with iroc shoe lato step, 
with transome, 4V' X 8", filled in with cast-iron 
rebated framework for glazing, aa drawing : beet 
lO-incb iron rim biasB-knobbed lock, baviog 
draw-back latch, barrel, and chain. Wooden 
architrave on the inside, as drawing. 



variation) "hung folding, with two strong 4}-' 
inch butts to each half," — " one half to have » 
2-feet barrel bolt at top, and 12-inoh ditto ii( 
bottom; the other a best 10-iuch iron rim look, 

The door-opening to be fitted with 

dooT formed of IJ^-inch Memel deal bead flnsh 
and square panels, in 2i-iuoh stiles and rails, 
hung with 4-inoh bntts in solid Memel fir &ame, 
&e., &e., as No. 252. 

J the foregoing, varying as 



No. 256. 
Doom irith 
■Ida lights. 



No. 253 from No. 252. 
To either of the four foregoing doors, add 



K^IKE 


3 


D nn 


< 



" side lights to the said door, as drawing, having 



cast-iron rebated lattice- work for glazing, Bet in 
BoM fir frame, correBponding -with the rest, with 
2V' panelled work below the lights," 

Door as the laet, with aide, but no top lights, 
and therefore no tiansome. 



If segment headed 
door, desoribe it, as 
drawing. 




headed, desoribe it, 
drawing. 



Ho. 260. If pointed arched, 
desoribe it, as draw- 
ing. 

The top lights of the three latter may be 
termed fan-Ughts, 

No. 961. If the doors be Gothic, tlie " ovolo and bead " 
or "ogee and bead" monldings mnst be sttp- 
' planted by " Qothic moulded, as drawings." It 
ia impossible to specify for Gothic joinery, except 
as it regards the substance of the frames, tran- 
somes, stiles, and panels. Distinct drawings 
must be made for each parlicolar case. 
[Details of monldings, &o. most be given in all 



No. 262. Be earefnl that 
Sundry doon. the general head- 
*"■' ingof "doorB"in- 

clnde all dormer 
doors, trap-doors, 
blank doors, &c. 
Doors to casings of 
water-closet pipe s, 
cnpboard and 
dwarf doors, slid- 



II 



HINTS TO TOUNG AHCHITKCTS. 

i&g doorfl to baiteiy hatch, baized or cloths 
covered doore, with self-cloBing Bpring binges; 
whether to open one or both ways ? whether 
panel -glazed, as a, or caBoment- glazed, ae b? 
and whether any of the inner doors are to be 
prepared for borrowed lights above tbem. 



Lantern- li 

drawings. 
siU6" X 4'. 
bated, snnk, wea- 
thered, throated, 
and grooved for 
lead. An^e stan- 
dards of Memel 
or yellow deal 
4" X 4", rebated 
and beaded ; mnl- 
lions 4" X 8", re- 
bated and beaded; 
head ditto ditto. 
2-inch Memel .— 
casements finah 
with the ontaide 
of frame (state if 
any are to open, 
and how 9). Inch r 
Memel fascia board ^ 
and moulding for S 
lead covering ^ 
Baking board 
grooved into sill 
to cover plaster 
cornice, &c. 



ght over the , ss 

Oak ^; 



!g 



So. 264. As above, with Hegmental, semicircnlar, or 
arched pointed heads, to the lights and &ameE, 
with spandril fillings, &a., as drawing. 

No. 365. The window-openings of ... to have S-inob 

■Windowa, or 2J-ioch Memel deal sashes (doable, or single, 
^ «mj.leflf, jj^jjgj^ ^(j^ best flax, catgnt, or other lines, iron 



WINDOW SASHES. 



287 



weightSi and iron axle pnlleye, io proper decde 
cased frames, having oak double sunk Bills 
6" X 8". Good Baah-fastenings, Inch angle 
bead to plastered jamba and so^ta ; inoli ronnded 
ledge to tSkp the plastered back, and skirting of 
room carried ronnd the recess, 




No. 266. . . . same as foregoing to the word " soffita," 
Wmdowfl, contiuning thus : — inch deal back, moulded and 
B«ih,comi<K)a. gjjgj to match doors, and skirting carried 
home to the same. 

No. 267. same as No. 265 to the words " sash- 

Ditto, better- fastenings," continning thus : — soffit, jambs, backs 
and elbows of inch deal, panelled and moulded 
to match doors, and moulding fixed on framed 
and beaded gronnds to form architrave. [3raaB 
axle pnlleys instead of iron to be provided.] 



No. 268. ■ . • same as 

last with the ad- 
dition of the mar- 
gin M, for Vene- 
tian blind. 



No. 269. 
Ditto, im- 
proved. 



Same as No. 
266 to the words 
" BOsh fatten- 
ings," continu- 
ing thus: — soffit, 
back, elbows, 
and properly 
hong folding shatters ; the 




MINTS TO VOtJNO AltCHITECrS. 

moulded to match doors, except the back flap!, 
which will be bead butt and square, to fall huk 
against plastered jambs, in boxing formed by the 
gronods, and moulding fixed on the latter to 
form arobitraveB as to doors. (Qy. if the addi- 
tion No. 26S ?) 8ee No. 271. 

Same'aslast to the word "square," adding:— 
to fall back against proper bead bait and square 
back linings forming boxing with the gromids, 
and architraves complete as to doors. (Qy. if 
the addition No. 268 ?) See No. 271. 

The shatters and bock flaps to be properly 
hnng with strong butt hinges ; shnttei latches, 
with famiture to match doors ; and strong 
wroaght-iron locking bar. 



Same as No 265 to the 
words " sash-fastentngs," con- 
tinuing : addiUonal cased frame 
for lifting shatters to be hnng 
OS the aashea, and to descend 
into a proper deal casing, as 
drawing, having hmged ledge 
at top. The shutters bead 
butt and sqaare, with brass- 
headed iron screw m brass 
a crew-hole, to 
fasten them, as 
shown by {( 
sketch. The 
front of shutter 
casing panelled 
as doors, and architrave also 
to match. 




Ko, 273 [An improved kind of palley stile, in wUich the 

Improyed weights may be taken out by a movable pocket- 
piece fitted with brass flash, ring, Ac, and new 
lines introdaced, or the sashes easily removed 






WINDOW SASHES. 



289 



and reversed for cleaning, has been patented, 
known as ** Gorman's patent/'] 



No. 274. Same at last, with the )additlon of soffit jambs 
and elbows, panelled as front of shatter casing. 



No. 276. 
Three light 
windowB. 



No. 276. 
Bow ditto. 



The window- ' | 
opening of . . 
to be fitted with 



3 



f 2-m, or-) „ 
t2i-iii. ) ^® 



L_I 



K 



S 



« 



'I 

6 



mel deal sashes, in triple-light cased frame, as 
drawings ; the central sashes double hnng with 
best lines, iron weights, and brass pulleys: — 
continuing to describe the rest of the inside 
joinery, as maybe selected fromNos. 265 to 274 
inclusive. (See No. 279.) 



If a bow win- 
dow, describe it 
such. 
(See No. 279.) 




No. 277. 
Bay, ditto. 



Ka bay window, say, " the openings of bay to 
be fitted withj oi!|^«h^' JMemel deal sashes, 
in proper cased frames," &c., stating whether the 






t.::;inr 






C'///.' ///jW m 




central sashes only, or the whole of the sashes, 
are to be double hung, &c., &c. (Boo l^o. ^^^>\ 

o 



290 HINTS TO TOTIWO ABCHITECIS. 

No. 278. If a Venetian window. Bay, " the openings of 

VenetiftQ Venetian window to be fitt^," &o., Ac., &c., sB 

**"*»'• before. (See also No. 279.) 




The windows, Noa. 275 to 278, may havs 
■'wooden casing pilasters" at a, a, a, ke., 
which mast be described "as shown in drawings." 

If the frames and sashes have " segment," 
<< semicircnlar," or " pointed arched heads," de- 
scribe " as drawings." 

Fit up window- 
openings in 

with -inch deal case- 
ments, Med in with 
iron bars and lead 
fqy, diamond?) work for glazing; 
(certain of them to be) hnng with 
strong butt hinges, in solid fir, wronght, rebated, 
and beaded fimaea, and oak sills, as drawing 
(state if there bo muZfions or troiMomei). Inchde^ 
window-boards. Good fastenings to close, and 
approved means for holding open, the casements. 



eNo. ; 



*■) 



Ho. 232. 8ame as last, omitting "filled inwithironbar 
and lead for glazing." (See No. 284.) 

No. 2S3. If inside shatters, soffits, backs, or elbowB, 
select from No. 26S to 279. If ontside shntters, 
make them conform with the doors described in 
Nos. 248 to 246, adding the required fastenings 
for secaring them when open or shat. 

No. 264. If the windows he Qothic, the casements will 
be described as hong in solid frames (muUionE) , 
(transomes) and oak sills, moulded, as drawings, 
with their hinges, bolts (top and bottom), latches. 



CASEMENTS. 



291 



No. 285. 
ench caso- 
ints. 



No. 286. 



and fastenings, stating whether pointed headed, 
&c. Soffits, shatters, backs, elbows, &c., as from 
No. 265 to 279. 



The win- 
dow-open- 
ings of 



to be fitted i?^ 
with 2-inch "^^'^'^ 





or 2i-inch Memel moulded 
and rebated casements, hay- 
ing vertical (and transverse ?) 
meeting stiles (and rails?) 
as drawings. The same to 
be hung in solid Memel fir, 
wrought, rebated, and beaded 

^^ ^ gv V in oak 

double sunk sills, with strong 4-inch butts : good 
brass-knobbed latches, and (brass bolts top and 
bottom of the opening casement) (or) patent rod- 
bolt to make the meeting casements, when closed, 
perfectly tight. For soffits, shutters, backs, el- 
bows, pilasters, &c., &c., see Nos. 265 to 279. 

[The stiles of all casements should be tongued 
to fit into grooves made in the frames, or vice 
vei'sdy meeting stiles should also have a hook re- 
bate joint to prevent wet driving through, and 
galvanised iron sill bars inserted in groove with 
white lead.] 

The windows of to 

be fitted with .... deal swing 
casements to hang on centres, as 
drawing, with apparatus for open- 
ing, closing, and fixing the same, 
in solid rebated and beaded frames 
and oak sills, as drawings. 




[Iron casements and frames with check rebated 
joints are preferable in many c«k&ei^.\ 

o2 



292 HINTS TO YOUNG ARCHTTECTS. 

No. 287* Note. — ^Be careful that all common windowfl 
and doors, which have no fittings of joinery in- 
side, be famished with coin-beads, and that such 
windows have window-boards. 





No. 288. Fit np the window-openings 

with neatly wrought luffer - boarding, 
(state whether fixed, — or if it is to 1^ 
made to close or open at pleasure, by 
each board revolving on a wood pin at 
each end,) in solid Memel fir frame and 
oak sill. (If the boarding is 
to open and close, a rod and 
peg, as sketch, mnst be made 
to revolve on pins in the 
head-piece and sill, with a 
handle, or other means for 
turning it.) C^l 

No, 289. Frame and fix a clock or bell-turret over the 
...... ; the same to be of Memel fir, and 

agreeable to the drawings and the descriptions 
thereon. 

No. 290. The .... staircase to be fitted with inch 
Stairs, ^^jj gtepg having rounded nosings, on J-inch 

sornmon. risers, framed into skirting and outer strings, 
with neatly turned or square newels and inch- 
square balusters, two on each step, and neat 2^- 
inch rounded hand-rail. (See Nos. 298 and 294.) 

No. 291. The .... staircase to be fitted with 1^-inch 
Stairs, better, deal steps, having moulded nosings, framed into 
skirting and outer string; the latter wrought, 
moulded, and capped, as drawing, with 1^-inch 
balusters ; wainscot, hand-rail, and newels, cut 
and moulded as pattern. (See Nos. 298 and 
294.) 

No. 292. The .... staircase to be fitted with 1^-inch 

Stairs, best, deal steps, with moulded nosings along fronts 

and returns ; inch deal risers ; end-casing of 

steps cut as pattern, and fascia moulded as draw- 



STATES. 293 

ing; handsome curtan step, {^Xo^ny} 

hand-rail, and turned | ^^^ganv 1 ^^^^*®'^» 
two to each step. (See Nos. 293 and 294.) 

No. 293. A sufficiency of cast-iron balusters oi corre- 
sponding pattern, to give stiffness to the hand-rail. 
[Cast-iron balusters may be used instead of 
wood.] 

No. 294. The face of landing to have nosing and fascia 
corresponding with the steps and balusters also. 

No. 295. The staircase of : . . to be fitted (as No. 291 
or No. 292), adding, << and the soffit of stairs to 
be panelled with wood, as shown and described 
on drawings.*' 

No. 296. The .... staircase to be fitted with (as No, 
291 or No. 292), adding, << and the space (or a 
certain part of it) under stairs to be inclosed 
with wood-panelled spandril, moulded outside as 
drawings, and square on the inside." 

No. 297. The staircase of . to be (as No. 291 

or No. 292), excepting that ** cast-iron orna- 
mental balusters" will supersede the wooden 
ones. 

No. 298. The to be approached by a flight of 

inch I ^ , I treads framed into l^-inch string- 
bearers. 

No. 299. Frame and fix at and . . . . , &c. 

spandrels. r^^^^^ . , 

< li-inch y wainscot i panelled spandrils, 

(2-mch j aeal ; 

moulded or square, so as to correspond with the 
doors or other joinery with which they are seen 
or connected. (State whether there are to be 
skirtings or cornices, and if any borrowed lights 
therein.) 



294 HINTS TO YOUNG ABCH1TECT3. 

Ko. 800. Specify whatever carings (plain, panelled, oi 
Oasisgs. beaded) there may be, not before mentioned, 
snch as to beams, lintels, bressommers, story- 
posts. 

No. 301. Specify if any boarding (plain, grooved, 
tongaed, and beaded, or otherwise) on battens 
against walls, or against qnarter partitions; or 
whether any panelled casings against the same, 
as dados, or wainscoting ; and whether base and 
sorbase mouldings. 

No. 302. The coinnms and pilasters in the • • • • to be 
formed of 2-inch yellow deal staves, glued and 
blocked with turned yellow deal bases, and caps 
(if Tuscan or Doric). (If the caps are Corin- 
thian or Ionic, they will be described as '' carved 
according to the drawings.") 

Ko. 303. Moulded architrave, &c., frieze, and glued, 
blocked, and moulded cornice (describe whether 
enriched, or with modillions, dentils, &c.). 

No. 304. Describe all other carved work. 

No. 306. Describe papier-mache, carton-pierre, or gutta- 

Papier-mach6 percha work in connection with joinery. Where 

work, &c. mouldings of panels, architraves, cornices, &c., 

&c., in the joinery, are to be gilded, they should 

always be enriched ; and papier-mache is the best 

. way of preparing for it. See published Book of 

Ornaments, and Tariff of Prices. 

f deal 1 
No. 306. Fit up the water-closet with -inch 4 mahgny |- 

[ cedar J 

pierced seat, and properly framed < /j-Qn. j 

hinged) clamped flap of the same material, with 
moulded nosing to range with fixed sides, having 
boxed sinking for handle in one, and larger ditto 
ditto for paper in the other. Back and elbow 
beaded boards, B mcVieB \^^, q^ ^fiime material 



STABLES. 295 

as flap, &c. The riser to be of pan- 
elled, and casing for pipes, with doors, &c., as 
plan. 

No. 307. Privies fitted with deal riser, seat, and cover, 
and back and elbow boards. 

No. 308. Sundry fittings — as glass-washing troughs in 
butler's pantry, dish-washing ditto in scullery, 
and all such presses^ shelvings, cupboards, &c., 
&c., as are positively connected with the per- 
manent building; wooden chimney-pieces; rails 
and pins in closets, passages, and halls, &c., &c., 
&c. ; fittings in butler's pantry, housekeeper's 
room, china closets, store rooms; knife and shoe, 
drying and brushing rooms ; wash-houses, laun- 
dries, brew-houses, cook's closets, housemaid's 
closets, larders ; salting-rooms, dairies, scalding- 
rooms, still-room, &c., &c. [Specify wrought 
and dovetailed inch deal cistern case.] 



Stables. — ^Miscellaneous Joinery ; as 

No. 309. Stall-posts 6 inches square, chamfered, with 
iron shoes ; head-piece to match ; stall divisions 
of -inch vertical oak boarding, ploughed and 
tongued joints, grooved into bottom rail ^ x y, 
and into rounded top rail ^ x 5". — Backs frds 
width of stall, formed of rounded oak bars 1^ 
inch diameter, in rounded top rail 5" x 4", and 
bottom ditto 8'^ x ^'^ Boxed oak mangers, 
occupying |rd width of stall; standard-post 
properly fixed in ground, with halter -pidley 
therein : the backs of stalls boarded as high as 
the stall divisions, and boarding round all the 
walls beside, ranging with the stall boarding. — 
Lockers for com, &c. — Traps for letting down 
hay. — ^Harness-room boarded top to bottom, v. ith 
harness-pegs and saddle-trees, closets, &c. — 
Steps or ladders to loft. — ^Doors, windows, hay- 
loft doors, &c. — ^Ventilating trunks. — The loft- 
joists and boarding wtoti^^\. isSa ^V<st^ -TNssi^^ 



296 HINTS TO YOUNG ARCHITECTS. 

from below. — ^Tronk and apparatus for obtaining 
com from the chest above. (See No. 818.) 

No. 310. Coach -Houses. — Folding doors in jambs, 
heads, &c. — Story-posts. — ^Bressummer over . . 
. . door from saddle-room. (See No. 818.) 

No. 311. Loose boxes boarded round as stables, with 
angular quadrant racks and mangers, of the same 
general character as to stalls. (See No. 818.) 

No. 312. All required joinery to outhouses and coach 
gates, sheds, &c., cow-houses, piggeries, &c., &c. 
(See No. 818.) 

No. 313. The doors and windows suited to stables, 
coach-houses, outhouses, &c., will be found 
against Nos. 248, 244, 245, 246, 281, 282, 286, 
287, 288 ; stable clock turret, 289. [The best 
stable windows are of iron, pivot hung case- 
ments in small squares.] 

No. 314. The whole of the aforesaid joinery to be exe- 
Final Clause, cuted with sound and well-seasoned timber, free 
from sap, shakes, and large or loose knots, and 
to be so early prepared tifiat, after its fixing, it 
may remain secure from serious shrinkage. All 
obviously necessary or usually required iron- 
mongery to be supplied and fixed by the Joiner, 
whether specified or not ; and all hinges, locks, 
latches, bars, catches, bolts, &c;, to be left per- 
fect at the close of the works, easy in their 
action, and free from rust. 



IBON AND METAL WOBE. 

No. 315. T^^ windows of .... (i. e. such as have no 

Window shutters, but where security by night is required) 

guard bars, to be fortified by strong wrought-iron bars, firmly 

screwed into the sills and heads [or provide 

Moline's patent wrought-iron windows]. 



IRON AND METAL WORK. 



297 



No. 316. 



No. 317. 
Metal lights. 



No. 318. 
Chimney 
bars. 

No. 319. 



The windows and .... of ... , (dairies 
and larders, for instance) to be fitted with ny-wire 
or perforated zinc instead of glazing ; 

Or, 

The windows of .... to have separate frames 
filled in with fly- wire, so that the glazed case- 
ments or sashes may open independent of them. 

Fix over the opening of .... a skylight of 

cast-iron, or i f !?1*„2^ I formed as shown 
C copper, ) 

by drawing, the bars being of the section 

as sketch. 

(EoUed iron moulded ribs are now used.) 

Put to the fire-places of ... . wrought-iron 
chimney-bar 2^' x i", properly caulked at the 
ends. 

Qy. bolts to prevent brick hearth trimmers 
from spreading. 




No. 320. Provide and fix cast-iron columns to support 
Iron columns, the . . . . ; the same to be of the best iron, 
cast hollow ; the entire diameter being inches, 
and the thickness of the iron being not less than 
ith of that entire diameter. Cast-iron plate as 
drawing on the top. 









J-i i »( K 



9«. 331. 



S<x 3S. 



Ko. 323. 
Fire-proof 

floon. 



tip. badUbad, 

Or- 



18 



. • • . ; ftfi SBBBS to W of Ae 
Oe fijon ami fiiH mmffing (i 
in ' 



over the 
best iron, of 




J. 





Provide and £x cast-iron joists (to 
lecexre eftfcer bziek azcbes, stozie fioois, 
4e. ?) ; the ssme to lie (^ ih& best iron, 
and of the fizll M^wtKng (afttf coolii^) 
sbowii by section. 

Or, 

[Provide snd fix rolled>iron joists of section 
^own.] 

Or, 

[ProTide and fix mroo^t-iron nretted plaie 
girdeis of the scantlings a2id section given (here 
specify whether '^ box," or lattice, or I-shaped 
sections are reqnired, also maker's name and 
required net strength. An^e irons, rivetting, 
stiffening pieces, &c., should be acenrately shown 
and described).] 

Or, 

[The fire-proof floors to be eonstraeted as per 
drawings, and to have wrought, cast, or rolled 
iron girders (here describe particnhurs of con- 
stroetion, as distances apart, fixing, &c.), to rer 
eeiye brick arches or concrete^ 



ROOFS, GUTTERING. 299 

Or, 

Provide and fix (state here name of some par- 
ticular system of fire-proof flooring or patent, as 
the "Dennett" arch; Phillips & Go's; Shaw 
& Oo*s, Hornblower's, &c.)] 

[The girders to be tested to within two-thirds 
or one-half of their calculated breaking weight. 
(See " Iron Construction," Part r?".)] 

u 324. Wrought-iron tie-bolts ? cast-iron plates ? 
ries*! chain bars. 

). 325. Iron roofs can be only generally described as 
roofs. " of the best wrought and cast iron, and of the 
forms and full scantlings (after shrinkage) shown 
by the drawings," which cannot be too much 
detailed and described thereon. (See Bartholo- 
mew's Specifications, chap. 47.) [See section on 
Ironwork.] 

). 326. Provide and fix .... cast-iron cantilevers to 
3r match with the wooden ones of ... . cornice ; 

levers, the same to be cast hollow to act as gutters in 

conveying the water from the gutter in front to 

the heads of water-pipes. 

>. 327. Provide and fix along the eaves 
5"^fi»* of ... . roofs a cast-iron gutter, as 

sketch, with proper bracket supports, ^ 

&c. 

[Provide and fix to eaves of roof cast-iron 
guttering of the section shown (or here specify 
the castings of some approved manufacturer, 
Macfarlane's, Smith & Go's., &c.). Gutters are 
made of various moulded forms ; also stack pipes.] 

Or, 

Zinc shuting may be used. 

3. 328. Provide and fix the various cast-iron watet- 
)r-pipes. pipes shown on plana ', \.\io%^ ol • * * Vi \^ ^"^^ 




300 



HINTS TO YOUNG ARCHITECTS. 

inches clear bore, those of .... of inches 
ditto, and those of .... of inches ditto. All 
these pipes to have proper receiving heads, with 
roses or gratings to prevent the descent of leaves 
or rubbish, and proper shoes at the bottom to 
torn off the wet from walls. The inside of pipes 
to be painted three times before fbdng. 



I 



No. 329. 
GratiDgs. 



No. 330. 
No. 331. 







L. 
























1 








i 




T ' » 



Provide and f wrought-") 
fix X or cast-) 

iron gratings over the areas 

of ; the same to 

open (single or folding) on 
centres, with means for 
securing the same when 
closed. 

Or, 

[Provide and fix patent prismatic psk^ement 
lights. (Specify the kind, such as Hyatt's.)] 

Qy. any fixed gratings ? 

Provide and fix the various cast-iron gratings 
to air-holes for ventilating underground joists; 
also those required over cesspools, to the gutters 
or drains of .... ; also the several coal plates, 
with means for securing the latter inside, and 
iron stench traps. 



No. 332. Provide and fix the iron railing or palisading, 
Rails and wrought plain, or cast ornamental, as indicated 
balusters, &c. ^^ plans, and shown in detailed drawing ; also 
the rail and balusters, wrought plain, or cast 
ornamental, to the areas, landings, balconies, 
steps, stairs, &c., &c. ; the whole to be properly 
fixed, with screws, &c., in wood, or with lead 
running in stone-work, as the case may be. 



No. 833. 
Gtitci. 



Provide and hang with proper wrought-iron 
hinges and centres (qy. revolving in brass cups ?) 
the wickets or gates, single or folding, of wrought- 



DOORS, SHUTTERS. 



301 



iron plain, or of cast-iron ornamental^ shown in 
drawings; and with the bolts, stops, latches, 
locks, &c., thereon described. 



No. 334. 
Iron doors. 



The opening into strong closet, plate closet, 
&c., to be fitted with an iron door and lock valued 
at£ . 



No. 335. 
"Wood and 
iron ditto. 



A good door may be formed by sheet 
iron panels, screwed and rebated into 
wronght-iron stiles and rails, moulded 
in front and flush at back, the latter 
having fixed to them wooden stiles and 
rails to form panels like the front. The 
whole to be hung with strong 5-inch 
butts in iron rebated head and jambs ; 
and brass lock on the iron side. 




No. 336. 
Iron case- 
ments. 



The windows of .... to be fitted with cast 
or wrought iron casements, as fully shown and 
detailed on drawings. (The drawings will show 
the frames or outer rims, the meeting bars, the 
common bars, the part to open, and the me^ins 
of opening and closing.) Wheliier the windows 
open, or only ventilators in them ? 



No. 337. 
Sundries to 
^Nindows. 



If any particular bolts to make weather-tight 
the casements, or any metal slips to cover meet- 
ing joints of ditto, or to prevent water from 
passing over sill, describe them accurately: with 
any copper tubing that may be necessary to carry 
off wet or condensed moisture. 



No. 338. 
Shutters. 



In Banking-houses, business premises, or other 
buildings where fire-proof security is required, 
Bunnett's revolving shutters may be advanta- 
geously used, or Clark & Co*s self-coiling ditto. 



No. 339. Provide and fix cast-iron mangers and racka^ o.^ 
per drawings, in Btablea. 



302 



HINTS TO YOUNG ARCHITKCrrS. 



Ko. 340. 



No. 341. 



No. 342. 
Simdiies. 



No. 343. 
General 
clause. 



Or, 

[Provide and fix complete (here state maker^s 
name as) Cottam & Co*8 stable fittings, harness 
brackets, &c. .. v 

Provide and fix verandah and covered way . . • 
of wrought-iron sash bars and cast-iron supports 
covered with lead or zinc (here describe weight 
of lead or number of gauge of zinc ; also details 
and manufacturer's name). 

Specify any special iron-work, as school desks, 
revolving shutters or hinges, ventilators, door 
springs, iron casements and frames, cellular iron 
bins, lightning conductors, &c.] 

Provide all the cast and wrought iron-work 
necessary to the completion of the Carpentry, 
according to common usage, whether herein 
specified or not, as spikes, nails, screws, hold- 
fasts ; also all cast and wrought iron or brass- 
work necessary to the doors, windows, shutters, 
lantern or sky-lights, and the joinery in general, 
as iron shoes to door-posts, hinges of the re- 
quired varying description, locks ditto, latches 
ditto, bolts, bars, and chains ditto, and brass- 
knobbed handles. 

Here proceed more minutely to describe the 
more important and particular Smith's work, 
as — 

Wrought-iron abutment, king or queen bolts, 
struts, straining-bars, and coupling-bolts, with 
their washers, nuts, and screws, to trussed beams 
or girders ; wrought-iron stirrups or straps and 
bolts, with their wedges, washers, nuts, and 
screws, to unite the king and queen posts and 
principals with the tie-beams of roofs. — Cast-iron 
shoes and cappings to wood story-posts. — Cast- 
iron box, sockets, or casings, to receive the ends 
of girders, binders, or tie-beams. Also any par- 
ticular iron-work necessary to Stonemason's 
work. All castings to be clean, sound, free from 
air-flaws, &c., and, Vn ^ Ysxi^otVasit <i««ea^ as with 



GRATES, STOVES, ETC. 803 

columns and bearing-beams, thoroughly proved 
before fixing. All wrought iron to be thoroughly 
welded and hammered. 

0. 344. Provide grates of approved construction for 
jes, stoves, the various sitting and bed rooms, of the follow- 

;es»&c. jjjg pri^eg respectively, viz The 

grates in the .... rooms to have hobs. 

Provide stoves for the . . . . , of the follow- 
ing descriptions and prices respectively, viz. . . . 

Provide and superintend (including all 

carriage, men's time, and expenses) the fixing of 
a cooking apparatus and range for the kitchen, 
valued in themselves separately at £ • Fix 
smoke-jack of approved construction in kitchen 
flue. Qy. range or stove, or both, in back kitchen 
or scullery, valued at £ • Hot-plates, &c. ? 
Stove with oven, &c., valued at £ ,in still-room. 
Scalding-stove in dairy scullery, valued at £ . 
Stoves and coppers in back kitchen or scullery, 
wash-house and bake-house, valued at £ . Iron- 
ing stove in laundry, valued at £ . Amott's 
stoves in ... . and harness-room, valued at 
£ • Qy. coppers and stoves in boiling-houses, 
brew-houses, &c., &c. 

[Grates with fire lump backs and sides, warm- 
air chambers at back with inlets into the room 
either in the jambs or top of grate, are now gene- 
rally adopted in good houses. Such are Captain 
Galton's stoves manufactured by Yates, Haywood 
& Co., of Upper Thames Street; Steer & Co.*s 
patent grate ; and the ** Manchester grate *' 
manufactured by Shillito and Shorland, Duke 
Street, Westminster, &c.] 

[ w^^' Hang, on a proper board, painted and num- 
=^°^' bered, .... bells of varying tones, having 
springs and pendulums ; the same to communi- 
cate, by means of copper wire passing through 

{ copper ^^ } *^^^^^^» (concealed in plastering,) 

with .... pulls, to be fixed where indicated Ck\s. 
plans. The wires to be co\\e(i\.^^m'0aftx^'A>^6sA 



304 



Ko. 346. 
Heaimg. 



No. 347. 
Lantern top. 



No. 348. 
Kidges and 
Hips. 



No. 349. 
Dormers. 



HINTS TO YOUNG AKCHITECTB. 

to be attached with the ntmosi eare to a suf- 
ficiency of cranks and coil-springs. The pnlls 
to be of the best suitable kinds, with knobs or 
lever-pulls, as here described. The pulls in . . 
to be of . . . • ; those in • • • • to be, &c., &c. 

[Or, 

Provide and fix electric bells of approved mana- 
factore. 

Provide and fix all necessary speaking-tabes, 
with ivory or other month-pieces.] 

[Heating. — Here provide the mode of heating 
by hot air, water, &c., whether high pressure or 
not, and specify engineer*s name or apparatus ; 
also provide for boiler, furnace, and all necessary 
fittings. 

State number of coil boxes or chambers. 

Or, 

Specify the required kind of stove, " Gumey*s" 
or other gill stove, flues, &c.] (See page 151.) 




No. 350. 
Ditto. 



Plumbebs' Wobk. 

Cover the roof over lantern with 
6-lb. lead, to fold round and under 
the edge moulding on top of fascia. 



Cover the ridges and hips of roof or roofs 
with I J;}J; lead } { 2S *^ } i^c^es wide, se- 

curely fastened with lead-headed nails (and metal 
cramps if necessary), and closely dressed round 
ridge-roll and on to the slates. 

Cover the (ridges and hips — or the tops) of 
dormer doors and windows with 6-lb. lead. (If 
ridges f say **as to roof," — if topsy say ** as top 
of lantern," — or, if no lantern, describe the work 
similarly.) 

Qy. Cover the sides of dormer doors and win* 
dows vriith 5-lb. lead,. 



PLUMBERS WOBK. 



305 



No. 361. 
Valleys. 



No. 352. 
Chimney 
gutters. 



No. 353. 
Parapet 
gutters. 



No. 354. 
Flats. 



No. 355. 



No. 356. 
FlashiDgs. 



No. 857. 
Gutter 
cornices. 



Lay the valley gutters with 7-lb. lead, IG 
inches wide, properly dressed under slates. 

Lay guttering at back of (and, in superior 

work, at sides of) chimney-stacks, of < 'y,' 

milled lead, to turn up against the stacks, and 
properly dressed under slates. 

Lay the parapet gutters with j tj]^^^' \ ^^^^^ 



'U 




lead, to tarn up < 6 > inches np the parapets, and 

( 5 J 

to reach at least as high 

under slates. The gutter 

to have a medium width 

of inches, and 2-inch drips every feet, with 

a fall of not less than 2 inches in 10 feet. 

Lay the flats with | Z'' \ lead, with all re- 
quired roll-joints, to turn up against the walls, sill 
of lantern, &c., and (where there is no vertical 
boundary) dressed round and under the edge 
moulding of eaves fascia. The lead to have a fdl 
of 2 inches in 10 feet, and drips if required. 
[Rolls should not exceed 27 inches apart.] 

Roofs covered with lead, described, as flats. 
(See Zinc Worker.) 

Flashings of 4 or 5 lb. milled lead to be applied 
wherever the lead coverings of gutters, flats, or 
roofs turn up against vertical masonry or wood- 
work. Said flashings to be chased into walls at 
least 8 inches, and be dressed down over the lead 
turn-ups at least 4 inches. It is often advisable 
to carry the flashing quite through the parapet. 

Line the gutters in eaves-wood cornices with 
5-lb. lead (see Joiner) to fold over and under the 
front moulding, and turn u^ uivdax ^^a^««. *v?^^ 



304 HINTS TO YOUNG ABGHITECTS. j 

to bo attached with the vtir ~' jig. Pieces 
ficicncy of cranks and coD carry vraiei 

to be of the best snitabl': j. i^eads. 

lover-pulls, as here desr galvanised iron, 

to be of . . . . ; the Ji overflow-pipes 

One cubic foot of • 
Provide and fix "ons of water; a ^ 

facturo. nifl for supply of the 



Provide ar 
withivoiyr 



jTom that for domestic 



Or, 

No. 346. [H^r ..stems with lead, the bottoms of 
Uoatmg. by hot .^^ ^^ the sides of 5-lb. miUed ditto ; 
^,°*' ' ^e the troughs conducting through the 
™*^ with 6.1b. lead, or zmo. 

y^^pecify charcoal or other cistern filter, as 
Mds!b or Bansome's filter.] 

Pescribe the pipes that may be necessary to 
^f conduct water into the cisterns from the town or 
J^^ Clompany 's supply , the outer reservoir, or the force 
jr pump in ground-floor: also the waste-pipe re- 
quired to prevent overflow, the dimensions there- 
of, the place into which it is to discharge, and any 
I trap that may be required to prevent the ascent of 

effluvia from the drains below. 

[Specify Tye and Andrew's or other approved 
sink traps to all sinks, &c.] 

jfo. 360. Describe any pipes required to conduct water 

WPP^gj^^ to the pans of water-closets, or to any other 

fi^ ' parts of the building, as washing-places, baths, 

butlers* pantries, or housemaids' closets ; stating 

such as are to have brass cocks, &c. 

No. 361. Provide and fix approved and complete valvo 
w to' 1 t lioppcr, or pan apparatus to water-closet, with 
a -c 080 . ^jj j.Q^Qij.Q^ brass pulls, levers, wires, cranks, 
copper ball-cocks, plugs, &c. Also soil-pipo, 
with ventilating outlet or pipe with trap to pre- 
vent the ascent of effluvia from the cesspit or 
drain. [Soil-pipes should be drawn or cast, not 
^ soldered. Iron ox cacWieii'^wt^ \|\^^'s^ ^x<^ boat."! 



PIPES AND PUMP. 307 

Specify Jenning's earthenware valve closet in 
one piece, or Underhay's patent regulating, 
Tyler & Co*s. or Lambert's apparatus!] 

"dne the washing trough in butler*fl pantry, or 

Nther into which a pipe conducts from the 

in roof; also bath (if of wood), &c., &c., 

1|. lead of I g ^' I lbs. to the foot : each 

, &c., &c., to have a brass plug and chain, 
. pipe to conduct therefrom into drains. 
VVhere water is brought down to supply jugs, 
pitchers, or pails, a shallow trough should be 
supplied to catch the droppings, with trapped 
pipe therefrom into drains or some movable 
vessel beneath. 

Provide and fix a (draw and) force-pump in 

the where shown on plau, with -inch 

pipe thereto from the (well, tank, or reservoir), 
and pipe therefrom into the cistern in roof. 

Describe any sheet lead that may be required 
in the joints of masonry, or for the covering of 
any parts thereof ; also any necessary to cover 
the joinery, as the tops of wood cornices, para- 
pets, &c. All nails used in Plumbers' work to 
be of copper. Outhouses and inferior buildings 
will require lead- work, as flashings, &c., occa- 
sionally, though there may be no lead on their 
ridges, hips, &c. Bell and clock turrets will bo 
covered with lead in any circumstances. 

[Specify all lavatories, urinals, &o., of approved 
manufacture, Mansergh's or other traps for waste- 
pipes, &c. ; charcoal or other ventilators. Pro- 
vide Tyler and Sons' or other approved copper or 
galvanised tin bath, with copper pipes and l^-in. 
framing panelled with Honduras Mahogany top.] 

The lead- work to be laid and dressed down in 
the most careful manner, with as little soldering 
as may be, and with every regard for ita eiL^wi- 
Bion and contraction. 



I 



308 HINTS TO YOUNG ARCHITECTS. 

[Provide and fix complete all approved appli- 
ances.] 

The work to be left by the Contractor perfect 
and complete, without any charge for the labour, 
solder, nails, holdfasts, joints, &c., which may 
be necessary to the efficient completion of the 
works herein generally described and partially 
particularized. 

Glaziebs' Wobe. 

Ko. 866. Glaze the windows of the ... . with best 
patent plate glass (or the upper sashes thereof 
with sheet glass and the lower with plate) ; the 
windows of the ... . with sheet glass (or the 
lower sashes thereof with flatted and the upper 
with best crown glass) ; the windows of the . . . 
with best crown glass ; the windows of the . . • 
with glass of second quality ; the windows of 
.... with third glass : the whole to be perfect 
in its kind, well puttied, and Uft perfect at the 
end of the works. 

[Specify kind of plate glass, its thickness; 
also state quality or No. of sheet and crown 
glass. For horticultural buildings, Bendle'8 
glazing is preferable to the common kind.] 

Painters' Work. 

No. 367. Paint the whole of the outside wood and iron 

work I ^^^^ I times in oil to finish a warm 

stone colour, and the inside do. do. (which it is 

usual to paint) i ^Iq^ } *^^®s in oil to finish a 

.... colour. 

[Paint an approved light olive, grey, or other 
tint, the stucco walls (if any).] 

Paint also, in like manner (here state the 
extra painting, as) the treads and risers of stairs 
of . . . . up to the stair-carpet rings : the floors, 
from the skirling to the carpet line ; continuing 
to particularise all such sashes, frames, shutters, 
soffits, backs, elbows, doors, jamb and soffit lin- 
ings, frames, skirtingja) panelled inclosures and 



\ 



ZINC WORKER. 309 

linings, as are to be finished with any particular 
colonr, or to be grained in imitation of some 
fancy wood and twice varnished. Finally, 
specify what wnpainted joinery (as real wainscot, 
&c.) is to be twice varnished or polished. 

[Specify the " silicate," "petrifying,'* "oxide," 
or other approved pamt for iron and external 
work,] 

[Or, 

No. 368. Stain of an improved shade and twice varnish 

liner. with the best copal all interior wood-work. 

[Sometimes simply varnishing is preferred, in 
this case the panels and framework should be of 
picked deal or pitch pine of different shades.] 

ZiNo Worker. 

No. 369 [Here specify any flats, roof coverings, or 

other work to be executed in zinc. State kind 
of zinc, as that of the " Yieille Montague Zinc 
Company," and the No. of gauge or thickness 
to be used ; the kind of joint ; ornamental hipping 
or cresting. No. 15, 24-oz. zinc should be used 
for flats ; No. 18, 20-oz. for gutters. No. 14 
gauge is better for good work.] 

[Note, — ^In laying zinc particular care must be 
exercised in giving room for free expansion and 
contraction of metal, by adopting a roll over 
which the sheets may lap joint. No solder or 
naUs should be used to connect the sheets ; 
galvanised iron wall hooks to secure the flash- 
ings.] 

[Note. — For buildings within the jurisdiction 
of the " Metropolitan Building Act " the young 
Architect must consult the rules, schedules, &c.] 



310 HIBTS TO TOUHG ABCHITBCIS. 



OONDinONS OP OONTEACr. 



We append here an outline fonn for General Oon- 
ditions for Building Contracts 

Ho. L '^^ works are to be ezeenied m the best and 

most workmanlike maimer^ and in accordance 
with the tme and reasonable intent of the plans, 
drawings, and specifications taken together, i»diieh 
are to be signed by the architect and contractor, 
and in case of any discrepancy between the 
drawings and spedfieations the architect is to 
decide which is to be followed. 

Ho. 2. No extra work is to be executed except by the 

express order of the architect in writing, and any 
variation made in carrying out the works is not 
to vitiate the contract, but all additions, omissions, 
or variations made in carrying out the works for 
which a price may not have been agreed upon, 
are to be measur^ and valaed and certified for by 
the architect, and added to or dedacted from the 
amount of contract as the case maybe, according 
to a schedule of prices or at fidr measure and value. 

Ko. 3. Should any of the works be in the opinion of 

the architect executed with improper materials 
or workmansliip, the contractor is when required 
by the architect forthwith to pull down and re- 
execute the same, and to substitute proper mate- 
rials and workmanship, and in case of default of 
the contractor within a reasonable time, the 
architect is to have full power to employ other 
persons to re-execute the work, and the cost 
thereof is to be borne by the contractor. 

No. 4. Any defects or other faults which may appear 

within. . • months from,the completion of the build- 
ing are, upon the direction of Uie architect, to be 



CONDITIONS OF CONTRACT. 811 

amended and made good by the contractor at his 
own cost; and in case of default, any cost incurred 
by the employer in so making good may be re- 
covered by the employer from the contractor, the 
amount thereof in case of dispute to be settled as 
provided hereafter. 

Ko. 5, The contractor is to insure the building against 

loss or damage by fire in an office to be approved, 
and the building is to be under the contractor's 
charge, who shall be responsible for, and make 
good, all damages occasioned by fire or otherwise, 
over which the contractor shall have control. 

No. 6. The architect is to have at all times access to 

the works, which are to be under his own con- 
trol, and he may require the contractor to dismiss 
any workman or workmen whom he may think 
incompetent or improper to be employed. 

No. 7. The contractor to complete the whole of the 

works (excepting painting or papering, or other 
work, as the architect shall decide) within .... 
calendar months after the commencement, unless 
the works be delayed by reason of inclement 
weather, or causes not under control. In cases of 
default the contractor is to pay or allow the pro- 
prietor as by way of liquidated damages the sum 
of £ ... . per week for every week during which 
the works shall remain incomplete. 

No. 8. If the contractor shall become bankrupt, or 

make any arrangement for the benefit of his 
creditors, or shall delay the performance of his 
part of contract from whatever cause, the pro- 
prietor or his architect may give to the contractor 
or his assignee notice requiring the works to be 
proceeded with: and in default it shall be lawful for 
the proprietor or his architect to enter upon and 
take possession of the works, and to employ any 
other person or persons to carry on and complete 
the same. The costs and charges incurred in the 
said works are to be paid to the T^io^i\fc\»QtVi*^^ 



312 HINTS TO YOUNG ARCHITECTS. 

contractor, or may be set off against money dne 
or to become due to the contractor. 

No. 9. All work and materials intended to form part 

of the btiilding are to be considered the property 
of the proprietor, and are not to be removed 
without consent of the architect. 

No. 10. Any question or difference that may arise 

between the proprietor or architect and the con- 
tractor as to any additions made, or as to the 
meaning of the signed drawings and specification 
or any other matter or thing arising out of this 
contract, except as hereinbefore described, is to be 
referred to the arbitration and final decision of 
the architect, or in the event of his death and 
unwillingness to act, then of ... . architect, or 
a Fellow of the Institute of British Architects, to 

be appointed on the request of either pai-ty. 
No. 11. 

(Here insert 
clause as to 
payments to bo 
made on cer- 
tificate of 
architect. 
Payments are 
usually made 
at the rate of 
80 per cent, 
upon the value 
01 works exe- 
cuted and 
materials 
deliyered.) 



niHTS 10 rOTJKG ABGHITE(rr9. 



MISCELLANEOUS HINTS AND CAUTIONS. 




lion of new In attaching any new work to a buSdiag, 

1 old work, eveiy allowance mnat be 
made for the sinking of the 
footings nnder preBsnre, and 
foi the setttemont of the 
masonry itself. Thus, while 
it is necessary that a vertical 
groove, or indent, be made 
in the old work, to reeeivo a 
corresponding piece of the 
new, it is still more essential 
that a freedom for the down- 
ward motion of the latter 
shonid he secured : otberwiso, if it be tightly 
toothed and bonded into the old work, the result 
illnstrated in the annexed sketch may bo antici- 
pated. 

ion of The same cantion required in the latter ease 

lapfacins must be here equally obBerved. The hacking 
h^bnck or (composed of small material and mnch mortar) 
king. ^i" settle more than tho/iTM; 

and the latter will cosse 

quently bulge This is easily 

remedied by compntmg, and 

allowing for, the difference of 

Bettlement , and by a duo 

regard to the occasional bond 

mg of the ashlar, so as to 

make the wall o»e snbstance, 

instead of tiLo differently con 

ditioned The preceding 

sketch illustiates the consequence of weight 

pressing upon unbonded ashlar aud on ^iel<Lk% 

rubble. 




314 



DRAINAGE. 



loverlod 
arches. 



[In thick walls concrete of Portland cement 
forms the hest filling in bond, or ihrongh courses 
being introduced at intervals.] 

Inverted arches must be used cautiously. Here 
is an instance, in 
which the points a 
and A were pre- 
vented by the in- 
verted arch from 
sinking with the 
points B B, which 
latter sunk the 
more from the pres- 
sure of the arch o 
in the direction of 
the dotted lines. It is not uncommon for the 
young Architect to affect precautionary science^ 
without a due consideration of the peculiar cir- 
cumstances of his case. 

pEnvertcd arches should only be employed 
under a series of openings to equalise pressure 
of piers. Concrete foundations are best in other 
cases.] 




Drainage, &c. Always endeavour, if possible, to get your 
water-closet cesspit outside the building, so that 
it may be approached for cleansing vdtbout dis- 
turbing the interior. Be careful in the efficient 
use of dip-draps to prevent the ascent of rats 
from the outer sewer into the drains which are 
under the floors of the house. Bats are destruc- 
tive in their operations, and if they die in the 
drain, prove, for a length of time, an unbearable 
nuisance. Drains may serve every purpose of 
carrying off soil and water; but the slightest 
opening in their upper part will allow the escape 
of cflluvia into the space under the ground floor- 
ing, and thence into the rooms, unless that space 
be thoroughly ventilated with grated openings, 
allowing a thorough draught, — or, at least, a free 
ingress of fresh air and equal egress of foul. In 
the applicatioxx oi (covered dry areas round the 



HINTS TO YOUNG ARCHITECTS. 316 

excavated basements of bnildings, on no account 
omit their entire ventilation. If this be not at- 
tended to, the main walling, which they are in- 
tended to preserve from damp, may remain even 
more continually moist than if in immediate con- 
nection with the natural ground. Moisture fre- 
quently rises up the walling from below its 
foundation, and, exuding from the face of the 
masonry, remains confined, unless it evaporate 
and escape. Without means to this end, a 
covered area will be merely a receptacle for 
damp, and may keep the masonry continually 
wet, even when the ground outside is perfectly 
dry. Be especially cautious that the water from 
the rain-pipes of the roofs and flats be not con- 
ducted by them into the foundations. 

[No drains should be placed under floors, and 
every trap should also be a ventilator. 

Sewers and drains should have increased fall 
at their junctions and at all curves ; the latter 
should be in the direction of the flow.] 

>pcnisg8. It will save much subsequent trouble and dis- 
turbance of masonry, to be assured as to the 
size and character of the stoves, grates, ranges, 
&c., which the proprietor will employ. In the 
kitchen and cooking-rooms, especially, precau- 
tionary care should be taken in suiting the open- 
ings to the intended apparatus. Do not forget to 
be prepared for a smoke-jack, &c. 

eror In constructing these, do not omit the holes, 

f walls. &c., necessary for under-floor ventilation. 

)g. Be careful that the bottom, on which fine pav- 

ing is laid, be dry and free from staining material. 
Common lime mortar is often injurious to pave- 
ments. Portland paving is especially liable to be 
disfigured by it. 

[Wooden blocks bumetised, about 9" x 4^'', 
and laid on concrete, make a good floor ; hollow 
tiles or pots may be also U8ed.\ 

p 2 



316 

Wronght 
Btone-work. 



dlatingf. 



STONE- WORK, ETC. 

In patting wrought stone-work together, iron 
is to be avoided as the certain cause of its subse- 
quent destruction. 

[Galvanised iron may be used, but not in great 
mass or long lengths. Space at ends should be 
allowed for free expansion.] 

The stone cornices, architraves, and dressings 
of many a noble mansion have been brought into 
premature ruin by the contraction and expansion 
of iron under the effects of cold and heat. Bat 
there are careless Contractors who will allow 
their Corinthian capitals and fluted ^afts to be 
ruined, even before the entablature surmounts 
them ; and the young Architect will not, there- 
fore, omit to insert a clause in his Specification 
(and to be peremptory in its enforcement), that 
all cut stone-work be securely preserved, during 
the progress of the building, with wood casing. 
It is surprising how grossly indifferent each 
class of artificers is to the work of the others. 
It is still more surprising to observe, how fre- 
quently they seem indifferent to the preservation 
of their own. 

Get rid of the Masons and Plasterers, — aye, 
and, as much as possible, of the Plumbers,— 
before your Slaters begin. The injury done to 
slating by the afterwork of chimney^tops, &c., is 
much to be dreaded. The cementitious << stop- 
ping ** to a roof will not be efficiently done with- 
out close supervision : the ridge, hip, and valley 
courses will not be properly formed of large cut • 
slates, — nor will every slate have its two nails, 
unless the Architect see to it. 



Plastering. 



Clear may be your Specification in forbidding 
salt sand, but, if your work be carried on in the 
vicinity of any estuary, the chances are (unless 
you be deemed cruelly strict) that the suiface of 
your internal walls will vary with the weather, 
from damp to dry, like a sea-weed, and throw 
out salt in such abundance that you may sweep 
off a cellar {u\\. 



HISTS TO YOUHG ABCHITECTS. 317 

[Clean road drift or coarse pit sand shonld only 
1m naed ; fine gravel may be mixed.] 

iBmi, joists. It IB the office of walls to cony beams, &e. ; 
d oth«c and that of beams to stay tlte w^s from falling 
nt^bopd, °°'^'"'^3 °^ inwards: bnt it is the duty of Archi- 
TtitioDB. '^"^^^ *° ^^^ '^^ *^*> wood-work which supplants 
masonry does not weaken the latter; i.e. that 
the ends of timbers inserted into walls may not, 
by compression, or decay, leave the superincum- 
bent masoDry to loosen downwards. Thus, the 
" beam a, though . j , --j _ m-, ' 

entering only a " TP^ S ^ ^^.j r:''^???" 

portion of tho illgfKlfltl ~ 

wall, presses up- t^^^^^I 
on the thorough - 
stone e, which 
throws the weight upon the whole wall, and has, 
by means of an iron plate/, a hold to secure its 
perpendicularity. The cover-stone' o presses on 
the surface of the timber to confirm its security : 
but should the timber rot, the cover-stone will 
not sink, because sustained by the side-stonea 
d d. lo prevent rot, the backiog and side-stones 
are left free of the timber, so that air -[- ■■ | - 
may traverse round it. The habit of _|M-Tr 
placing the ends of beams oa a tem- ' mi^ 
plate, aa a, is bad. The only juatifi- l^^^^S 
cation of the employment of wood, so ^- 

built into the walls, is when it forms a continuous 
plate, that it may act as a bond to preserve tho 
perfect horizontal level of joists, which, how- 
ever, should extend a little beyond the plate, so 





ns to hare a bearing also on the solid 



[A good plan is to form brick or stone corbel- 
ling to receive the pinto and joists, 1 



318 BEAMS AND LINTEIJS. 

Beams Joists, Careful inspection will then so manage the 
apd o^er constraction of the wall in this part, as to leave 
LintS bond ^^ ^^^ ^^^® weakened by the air hollows required 
partitions. ' ^^^ ^® P^^ ^^^ joists ; unless, indeed, it be 
very thin, — as only one brick, for instance,— 
when no law of common sense can justify tho 
use of continuous bond. Where i iiM 

joists uninterruptedly cross a r- I II J-'- — . 
thin wall, which is to support | ||[ [ 

another story of masonry, let 
there only be one plate, thin. 



and on its edge, in the centre of i ||| i 

the wall, so that at least a brick 
on edge may be placed on each 
side of it, to fill up the intervals ^s 
between the joists, and give ^^ 
solid support to the superin- 
cumbent masonry. On no ac- 
count let the upper part of the 
wall be separated from the lower by a mere layer 
of perishable wood, or supported by a range of 
joists on their edge. It has often occurred to us 
that iron hooping should be more used than it is 
as the internal bonding of walls. At the same 
time, it must be remembered, that bond timber- 
ing is necessary, at intervals, to receive the nails 
of the battening. When, however, the wall is 
thin, it may be imperative to avoid its use, 
employing old oak bats for that purpose. 

[We think it best in the case of a thin wall to 
have brickwork corbelled out on both faces to 
receive ends of joists — joists running through 
walls conduct sound, also fire, &c.] 

In short, let it be the care of the young ArcLI- 
tect, so to contrive the union of his masonry and 
carpentry, as that the entire removal of the latter 
may leave the former secure in its own strength. 
In the use of lintels especially, ho should be cau- 
tiousv They are useful as bonds to unite tho tops 
of piers, and as means for the fixing of the 
joinery ; but they ought never to be trusted to as 
a lasting support of masonry, — that support being 
always really afforded by the relieving segment 



HINTS TO YOUNG ARCHITECTS. 



319 



Yearns, jouls, arch above the lintel. We are aware, that a 
nd other bressummer may be termed a large lintel ; and 
'™tek V d *^^*' here, at least, the support of the masonry 
«rtitioiis." ' ^^ iTxHy intended. The use of the bressummer, 
in shop-front openings, is an evil necessity to 
which we must often submit ; and all that an Ar- 
chitect can do, is to make the best of a bad job, by 
wrought-iron trussing, which will at least give 
adequate strength, though it may not insure per- 
manent durability. If time spare it, fire may 
destroy it ; and the latter evil is not to be met 
even by iron, which, if wrought, will bend, — ^if 
cast, will crack, with heat. Let the arch, then, 
or some modification of it, be always used — ^if 
possible. 

[A self-tied arch of brick, tied by an iron flitch 
plate in centre, is recommended, or tie rods and 
cast-iron skewbacks may be used.] 

Partitions of wood should not be left to the 
sagacity of the Carpenter. Under all circum- 
stances where they have to support themselves 
over voids, or to bear, or participate in the bear- 
ing of, a pressure from above, they should be 
considered by the Architect in his Specification, 
and carefully studied in making the working 
drawings. It is not enough, merely to say, that 
<< they are to be trussed so as to prevent any 
injury to ceilings by their own pressure, or that 
of the roof above them ; ** — ^marginal sketches 
should be made, showing the disposition of the 
skeleton framing, with whatever iron-work is 
necessary to its security. 
See, for instance, what a 
Carpenter may do, unless 
well directed: a roof c, 
bearing partly on the par- 
tition A, when it should have 
borne only on the walls ; 
and, instead of distressing 
the partition, should have 
rather held it suspended ; 
the partition a bearing down 
with its own weight, and that of the roof, on the 




320 



FLOORS. 



Beams, joidU, floor B, instead of being so truss-framed in ita 

and other length as to leave the floor nnconscioos of ita 

Lrfcd**bo d ©^stence. We presume no ignorance in the 

partitions. ' young Architect as to the manner of doing these 

things ; and only call on him not to suppose they 

are so obvious as to be done without his guidance. 

[All partitions should be trussed by braces 

springing from the supports, iron king-bolts being 

used to prevent centre portion sagging.] 

In the framing of roofs, give a maximum strength 
to the purlins : 
the undulating 
surface of a 
weakly purlined 
roof will soon 
proclaim its de- 
fect in this par- 
ticular. The position of the principals should 
not be observable from without. 

[All principals should be self-sustaining and 
rest on walls.] 




Floors ; 
simple and 
framed, &c. 



For permanent and uniform strength, there is 
no floor so good as one composed of simple joists, 
stifi'ened by cross bonding : but, in very large 
rooms, there is more economy in the compound 
floor of binders and joists, or of joists, binders, 
and girders. There may be particular reasons 
for girders, &c, ; as, when the weight of the floor 
has to be thrown upon piers, and not on a con- 
tinuous wall of uniform strength : but the usual 
motive to the use of the compound floor, in 
rooms which exceed 18 or 20 feet in width, is a 
legitimate economy of materials. It is only 
necessary to caution the young practitioner on 
the necessity of considering, that girders have to 
perform the duty of cross walls ; that they should 
be trussed to prevent their ** sagging," even with 
their own weight; that their scantling should 
allow for the weakening efiect of the cuttings 
made into their substance to receive the timbers 
they support ; that their trusses should be wholly 
of iron (and not partially of oak, for the Author 



HINTS TO YOUNG ABCHITECrS. 



321 



!loors; 
imple & 
ramed, &c. 



toofd. 



dealings. 




has seen the bad effects of the shrinkage of oak 
struts) ; and, especially, that the end of each 
girder, instead of being notched on perishable 
templates of wood, and close surrounded with 
mortar and masonry, should be housed in a cavity 
(as we have already described) with an iron 
holding plate; or in- 
serted into a cast-iron 
boxing, notched into 
a thorough-stone, 
leaving a space (how- 
over small) for air to 
circulate about it, and 
prevent rot. The fail- 
ure of a girder involves the failure of all the rest 
of the floor ; and, though all timbers inserted in 
masonry should have a more careful regard to 
their preservation from decay than it is usual to 
bestow, it will be readily admitted, that too much 
care cannot be given to those leading bearing 
timbers, without the permanent duration of 
which the durability of the large remainder is of 
no avail. 

[Boiled iron joists with cross joists or hollow 
rebated tiles or brick arches are best for large 
floors. (See Fireproof Construction.)] 

The same remarks, applying to the extremities 
of girders, apply also to tie-beams. 

To procure a good ceiling in sin^Io joist floors, 
it is necessary there should be ceiling joists cross- 
ing below the others : and it is a question whether 
the ceiling joists, under double-framed floors, 
instead of being chase-mortised into the binders, 
should not be in unbroken lengths nailed under 
the binders. Where the ceiling joists (as under 
roofs) are likely to be trodden upon, they must 
be well secured. 



Sound 
oarding. 



Always consider whether the occupants of any 
particular room will be annoyed by the noises of 
the rooms below or above. Sound boarding and 



322 



COLUMNS AND BEAMS. 

pngging considerably increase the weight of the 
floor, the scantling of whose timbers should there- 
fore be thought upon. Water-closet partitions 
should be well pugged. 

[Pugged floors with mortar and hay should 
always be adopted.] 



Mice in par- 
titions and 
Bkirtings. 



The space behind the skirtings is oflen 
thoroughfare for mice, which also con- 
trive to travel from floor to floor in the 
hollows of the quarter-partitions, and 
become in several ways a great nui- 
sance. Plaster or wood stopping is 
not always so efficacious as the use of 
broken glass in those secret passages 
which they are prone to frequent. 



J 



a ! 



CTT 



1 



Coverings to 
gutters, 
cisterns, &c. 



The liability of gutters and cisterns to become 
choked with snow, or infested with leaves, &c., 
renders it advisable to protect them with a 
boarded covering, which may preserve the under 
current of water from receiving what may speedily 
produce a chokage or overflow. 

[It is a good plan to have two cisterns, one for 
drinking purposes, and the other for' flushing 
drains. Cisterns should be of slate or earthen' 
ware glazed, or of galvanised iron.] 



Iron columns, On this most important subject we say but 
beams, &c. little, that we may signify the more. Here, the 
young Architect should not move a step wiihout 
carefully consulting the experienced knowledge 
of the Engineer. Tredgold's ** Practical Essay 
on the Strength of Cast Iron,** Hodgkinson*s and 
Fairbaim's works, should be well studied when- 
ever necessity compels the support of heavy and 
loaded superstructures by iron colunms and 
beams. A careful computation of the weight of 
the mere building, added to that of its possible 
burthen, with allowance for theoretical fallacy, 
and a due estimate of the increased strength of 
the hollow pillar, as compared with a solid one 
having the same amount of metal, must be made, 



HINTS TO YOUNG ARCHITECTS. 323 

[ion columns, examined, and re-examined, before the Speoifica- 
ie ims, &c. tion be issued. 

[Under the bearing parts of all columns, sheei 
lead or a packing of iron and Portland cemeni 
grouting should be laid.] 



GENEEAL INDEX. 



^BUTMENTS, stabiKty of, 114, 
121 ; thicknesB of, 122. 

Additions and alterations, 94. 

JEsthetic elements, 179, 189. 

Agreements, drawing up, 95 ; 
form of, 96. 

Air, heated, 155; circulation of, 
159 ; quantity necessary to re- 
spiration, 161. 

Alison on Beauty, 190, 193. 

Angle, limiting, of resistance, 113 ; 
of repose, 116, 117 ; of rupture, 
122. 

Angular perspective, 63. 

Apparent and real size, 75. 

Arch, equilibrium of, 118 ; Gwilt 
on, 29; angle of rupture in, 
122; inverted, 300; theory of 
the, 118; line of pressure in, 
120; arched ribs, 130 (see 
Specification, No. 56 et teq,). 

Architects, duties of, 79 ; educa- 
tion of young, 32 ; inclination 
of those intended for, 2 ; posi- 
tion of, 97; responsibility of, 
31. 

Architecture, its claims as an 
art, 32 ; abstract principles of, 
180 ; principles of design in, 
179 ; laws of design in, 181 ; 
mechanical principles of, 181 ; 
taste in, 173 ; style in, 177* 



Architectural studies, 37 ; abroad, 
41 ; tourists, 49. 

Architrave (see Specification, No. 
75, &c.). 

Archivolte (see Specification, No. 
80, &c.). 

Art, affectation in, 177 ; classifi- 
cation of, 190; expression in, 
190; knowledge of, 45, 51; 
qualities necessary to, 191. 

Articleship, hints to pupils during, 
37. 

Ashlar, 227 (see Specification, 
No. 94). 

Asphalte for damp proof course, 
216 ; for paving, 219 (see Speci- 
fication). 

Axis, neutral, 137* 

"gAIN on Beauty in Art, 191. 
Balance and stability of struc- 
tures, 110. 

Barge board (see Specification, 
No. 226, &c.). 

Baths (see Specification, Nos. 
138, 362). 

Beams, strength of, 123, 142; 
position of, 125; stiffness of, 
140; timber and iron, 136; 
cast iron, 145; wrought iron, 
146; rolled iron, 147-; flitch, 
143. 



326 



GENEBAL INDEX. 



Beauty, definition and hypotheses 
of, 190; Bain on, 191; of 
form, 190. 

Bond (see Specification, No. 12) ; 
hoop iron, 34, 185. 

Brick and stone arches, 118; 
brickwork, 216; paving, 219 
(see Specification, bricknog- 
ging. No. 24). 

Bressummers, 143 (see Specifica- 
tion, No. 187). 

Building committees, 93 ; sanitary 
conditions o^ 171; builder's 
work, measurement of, 29. 

Buttresses, 112 (see Specification, 
No. 104). 

QARPENTRY, 133 (see Specifi- 
cation). 
Casements, 77 (see Specification, 

No. 281 et seq.). 
Cast iron, 145 ; beams, 145 ; 

columns, 138; design in, 187; 

cast metal- work, &c., 189. 
Cast shadows, 21. 
Ceilings, 307 (see Specification, 

No. 163, &c.). 
Cement, 197 ; selenitic, 198 ; 

cement work (see Specification). 
Centre of gravity, 108 ; of pres- 
sure, 116. 
Ceramic materials, 188. 
Chimneys, 68 (see Specification). 
Cistern, 201 ; connection with 

soil pipe to be avoided, 171 ; 

waste pipes from, 71 ; covered, 

172. 
Classic architecture, 174 ; stone- 
work (see Specification, No. 

64, &c.). 
Colour, 195. 
Columns, appearanco of, 24 ; stone 

and brick, 138 ; cast iron, 139 ; 

hollow, 139 ; resistance of, 138 ; 

steel; 148. 



Combination of materials, 199. 
Composition, connection in, 69. 
Concrete walls, 200 ; foundations, 

215 (see Speciiication) ; value o( 

as fire-resisting, 200. 
Construction, principles o( 99, 

197. 
Contracts, drawing up, 95, 310. 
Contrast, 192. 
Cornices, value of, 76 ; stone (see 

Specification, No. 89, &c.). 
Cramps, 198 (see Specification, 

Nos. 12, 126). 
Crushing strength of columns, 

139. 
Curve, circular, 13 ; to draw, 14 ; 

curvilinear forms, 192, 193. 

J) AMP-PROOP course (see Spe- 
cification, No. 13). 

Dams, pressure of water against, 
118. 

Details, 81. 

Dining-room, 88. 

Domes, stability of, 123. 

Doors, double, 157; sliding (see 
Specification, No. 251). 

Doorways, position of, 84. 

Drains, 72 ; main brick (see Spe- 
cification, No. 44) ; rubble (No. 
43) ; stoneware, 38. 

Drawing, 4; methods of, 9; of 
forms, 13. 

Dressings (see Specification, No. 
75, &o.). 

■pJAJtTH, angle of repose, 117; 

earthwork (No. 3, &c.). 
Eaves (see Specification, Nos. 

207, 225). 
Egg-shaped sewers (see Specifica* 

tion, No. 44). 
Elasticity, modulus of, 137. 
EngHsh Gothic, 46, 176. 
Entasis of columns, &c., 193. 



GENETIAL INDEX. 



327 



Expansion ot materials, 199. 
Expression in arc5hitecture, 194. 

JTREPLACES, position of, 84 ; 
open, 151. 

Fittingp, stable (see Specification, 
Nos. 140, 309, 340.) 

Flashings (see Specification, No. 
356). 

Flats (see Specification, Nos. 197, 
354). 

Floors, 142; weights of, 135, 
fireproof, 306 (see Specification, 
Nos. 192, 194). 

Forces, equilibrium of, 99; mo- 
ments of, 104. 

Forms, delineation of, 12 ; boanty 
of, 190. 

France, studies in, 52; French 
language, 31; French case- 
ments. No. 285. 

Frieze (see Specification, No. 119). 

riABLES (see Specification, No. 

^ 109). 

Generalisation of facts necessary, 

34. 
Geometry, useful study of, 2; 

works on, 3. 
Girders, cast iron, 145 ; wrought 

iron, 146 ; box, 147 ; lattice, 147. 
Gothic compared with Greek, 

183; English, 176; continental, 

176 ; Italian, 46, 151, 178 ; roof 

(see Specification, No. 203). 
Gradation, 192. 
Gravity, centre of, 108 ; of various 

figures, 109. 
Greek, 174 ; static element in, 

181 ; character of, 183. 
Gutter cornice (see Specification, 

No. 223). 

JJARMONY, 191; harmonic 
proportions, 191. 



Hearths (see Specification, No. 
129). 

Heating, 151 ; conservation of 
heat, 156 (see Specification, 
No. 346). 

Height, apparent,- obtained, 194. 

Hints on perspective, 21 ; to 
tourists, 49; on form delinea- 
tion, 12; miscellaneous, 299. 

Hogarth's principles of beauty, 
190. 

Hollow columns, 139 ; ditto walls, 
156, 198 (see Specification, No. 
12). 

Hoop iron, 200 (see Specification, 
No. 34). 

Hydraulic lime, 197. 

p^ERTIA, moment of, 138. 
Inverted arches, 300 (see Spe- 
cification, No. 16). 

Iron, cast, 145 ; cast beams, 145 ; 
ditto colunms, 139; construc- 
tion, 144; wrought, 146 (see 
Specification, No. 322) ; cover- 
ings, 136 ; galvanized, 302 (see 
Specification, '' Ironwork '*) ; 
fittings of stables (No. 340) ; 
expansion of, 199; iron and 
metal work, 283 ; gutters (No. 
327). 

Isometric projection, 25. - 

Italian studies, 31, 49 ; Gothic, 
46, 178. 

JOINERY (see Specification). 
Joints in carpentry, 133 (see 

Specification). 
Joists, depth of, 142 ; iron, rolled, 

147 (see Specification, Nos. 

190, 209, 322). 
Junction of house and offices, 67 ; 

ventilating, 165 ; drain, 72 (seo 

Specification). 



328 



GENERAL INDEX. 



LATIN, 30. 

Lattice girders, 147. 
Leadwork (see Spedfioation). 
LeYer, principle of the, 106. 
light, 78 ; light and shadows, 16. I 
Limo, 197 (see Specification). 
Limiting angle of resistance, 113. 
Loads on floors and roofiB, 136. 
Lodges, 92. 

]y£AGNITUDE, centre o^ 108. 
Masonry (see Specification). 

Materials, their functions, 184; 
strength of, 136. 

Mathematical studies, 2. 

Measurement of huilder's work, 
29. 

Mechanical principles, 99. 
Do. of architectural design, 181. 

Metal-work, 189. 

Methods of study, 11 ; drawing, 9. 

Modes of failure of walls, 113. 

Modulus of elasticity, 137. 

Moments of forces, 104 ; of in- 
ertia, 138. 

Mortar, 197. 

XTATURAL inclinations, 1. 
Natural slopes, 117. 

QCULAE correction, 193; im- 
pressions, 74. 
Optical correction, 193. 
Ornament, proper use of, 82. 
Oval sewer, method of describing, 
211 (see Specification). 

pAINTINO (see Specification). 

Parallelogram of forces, 99. 

Parapets (see Specification, Nos. 

90, 100). 
Parian cement (see Specification). 
Parthenon, its proportions, 174; 

static principle in, 184. 
Partitions, 305 (see Specification). 
Fapier-macho, design in. 



Paving (see Spedfication, Nos. 
25, 131, &c.). 

Pediment (see Spedfioation, No. 
108). 

Perspective, eye, 14; projection, 
16; hints on, 21; isometric, 
25. 

Pillars, strength of, 139. 

Pipes, drain, 201; supply, 201 
(see Specification, No. 38, &c.). 

Planning, hints on, 68 ; reference 
of, to elevation, 60. 

Plastering, 302. 

Plastic substances, 188. 

Plate girders. 

Plinth (see Specification, Nos. 
87, 97). 

Plugs (see Specification, 126). 

Plumbing, 71 (see Specification). 

Pointed arch, 121 ; domes, 123. 

Polygons, to draw, 13. 

Portico (see Specification, Nos. I 
111,112). 

Portland cement, 198 (see Specifi- 
cation). 

Precision of habits, 6. 

Pressure, centre of, 116; vof 
earth, 116; wind, 116; water, 
116, 118. 

Principles of study, 33 ; of con- 
struction, 99 ; mechanical, 181. 

Projection, perspective, 16; iso- 
metric, 25. 

Proportion in design, 191 ; of ' 

rooms. 
Pump (see Specification, No. 363). 
Pupils, 7 ; hints during pupilage, 

37. 
Purlins, scantlings of, 143. 

QUANTITIES, 95. 
Quarter partitions, No. 188. 
Queen truss, 129. 
Queen slating (see Specification, 
\ "So. \64V 



GENERAL INDEX. 



329 



Quoins (see Specification, No. 92). 

J^AFTERS, 143 (see Specifi- 
ation, No. 199, &c.). 

Resistance, limiting angle of, 1 13 ; 
to compression, 138 ; to cross- 
strains, 140 ; line of, 115. 

Responsibility, 31. 

Retaining walls, 116. 

Reveals (No. 65). 

Rolled iron joists, 147. 

Roman architecture, 47, 49, 174. 

Roofs, trusses, 129 ; loads on, 136 ; 
coverings of, 136 (see Specift- 
cation. No. 199, &c.) ; open, 
203, 366, &c. ; Gothic roof. 
No. 203 ; coverings, 200. 

Rubble masonry (see Specifica- 
tion, No. 50, &c.). 

Rusticated work (No. 93). 

gANITARY construction, 161 ; 

conditions, 171. 
Sash windows (No. 256, &c.). 
Scagliola work (No. 171). 
Scantlings of timber, rules for, 

141 (see Specification, No. 181 

et seq,). 
School studies, 1, 7. 
Selenitic cement, 198. 
Sewerage, 162. 
Shadows, 16. 

Sinks (see Specification, No. 137). 
Sketching, 16 ; advantages of, 61 ; 

abroad, 45, 60. 
Skylights (No. 217, &c). 
Slating (No. 143 et aeq,) 
Solids and voids, 66. 
Sound boarding (No. 195). 
Spire, entasis in, 193. 
Stability of structures, 110; of 

beams, 123. 
Stables, 88 (see Specification, 

Nos. 309, 339, &c.). 



Stairs (see Spocificationi No. 
290, &c.). 

Statical design, 181. 

Steel, 148. 

Steps, 216 (see Specification). 

Stiffiiess of beams, 140. 

Stone, 198; stonework (No. 61 
et seq.). 

Strength of materials, 136, 142. 

Studies, method of, 11; mathe- 
matical, 2 ; principles of study, 
3^ ; in France, 62. 

Style, arrangement should sug- 
gest, 60. 

'pASTB, architectural, 173. 

Technical studies, 28. 
Tension, 138. 
Timber, 136, 186. 
Tiles (No. 166, &c.) ; encaustic, 

(No. 26). 
Tourists, hints to, 49. 
Tracery, to draw, 13. 
Traps, drain, 71, 165. 
Travel, 42 ; benefits of, 43 ; time 

occupied in, 48 ; hints on, 49. 
Triangle of forces, 101 ; centre of 

gravity of, 109 ; triangular 

plans, 66 ; firame, 127. 
Trusses, 126. 

UNIFORMITY in design, 192. 

■y ALLEYS (see Specification, 
No. 351). 

Vaults, 112 (see Arch) (see Speci- 
fication, No. 28, &c.). 

Venetian windows (No. 278). 

Ventilation, 157 ; ventilating 
traps, 165 (see Specification) ; 
under floors (No. 48) ; of water- 
closets (No. 219\. 



330 



GENERAL INDEX. 



Y^ALLS, Blability of, 111; re- 
taining, 116; hollow, 156 
(see Specification)'; sleeper, 23, 
&c. 

Water-closets, position of, 70; 
fittings to, 201 (see Specifica- 
tion, Nos. 306, 361) ; ventila- 
tion of (see Specification). 

Water-pipes (No. 360). 

Water-tank, 47. 

Well-digging (soe Specification, 
No. 8). 

Windows, 76 ; proportion of, 78 j 



sash (see Specification, No. 
266, &c.) ; bay, 276 ; dressings, 
79, 83, &c. 

Woodwork 187 (see Specification, 
under ''Carpenter and Join- 
er's " work). 

Wrought iron, 145 ; ditto beami, 
147 ; plate girders, 147. 



2IN0, 136. 

Zinc worker (see Specifica 
tion)« 



THE END. 



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" Mr. Humber has done the profession cood and true service, by the fine ooUeclkm 
of examples he has here brougnt before me profession and the public."— /'^or/iiai/ 
AfecAamcf y<mmaL 



PUBLISHED BY CROSBY LOCKWOOD ft CO. 3 

Humder's Modem Engineering. Third Series. 

A RECORD of the PROGRESS of MODERN ENGINEER- 
ING, 1865. Imp. 4to, with 40 Double Plates, dntwn to ■ laive 
scale, and Photo. PortrBil of J. R. M'Clean, Esq., late Predtot 
ol the Institution of Civil Engineers. 3/. y. half moroccoL 
ZMt ofPliita and Diagramt. 
HAIK DRAINAGE, METROPOLIS 1 MAIN DRAINAGE, METROPOLIS, 



Eltvmtioii and derails. ^ 7. Ou) 
Sewci. Bridge over Marsh Lane, N< 
WoohriehRilway.andP ■■ *— '■ 



ly lunelion.-6,9, and io."Outf»fi 
. Bridge '■ ■ - - ■ 



Senr. Bridge over Bon and Baridng 
Rjulinr. Elevation nod peuUt— 



Outfall Semr. 






i6anda7- Sleai .. , 

ElevadoD and Detailfl, — 7B. LaDdiD|C 
Stairs between Chiirmg CroH and Watei- 
1™ Bridges. ^9 anJ la Votlt Gate. 
■a=r tie- I '^™" fflevati™. Skft Elevation and 
u. buCfiU ""nil".— y. 3', »nti 31- OvErflmr and 
4"«iinn^ 0"1" " Savo, Sa«t S™er. Detail. ; 
aection^^i^p^ -'■ -■ -- --■*-' ^- 



ij. Outfil] Sewer. Tumbling 
Outlot.— 16. Ont&U SewET. Fe 

Plata t7 and iS. Ouli^ Sewer, 
mondKy branch.— 19, 10, m, and ai. I and Iron f om. 

With copious Desciiptive Letterpress, &c. 

Humberts Modem Engineering. Fourth Series. 

A RECORD of the PROGRESS of MODERN ENGINEER- 
ING, 1866. Imp. 4I0, with 36 Double Plates, drawn to a lat^ 
scale, and Photographic Portrait of John Fowler, Esq., President 
of the Institution of Civil Engineers. 3/. 3t. half morocco. 
Ust of Iht Plates and Diagram!. 

HAHB AND msCRlPTIOM. PIATM. Null OF KBCIHKKH. 

Abbe<r Umi PominnE Station, Main Dnunage, 

MeDcn^ I to 4 Hi. BaiatiRtte, CE. 

Banow Docks Itog Mom.M'Claui&Slillinui, 

Manquia Viaduct, Sactiaeo and Valparaiso [C.E. 

Riilwa)' ,0, II Mr. W. Lord, CE. 

Adami'Locomalrn, St. Helen'i Canal Riilw. ta, 13 Mi. H. Crlni, CB. 

Ciiaun Stnet StalioD RosT 14 to i« Mr. I. Hawkshav, C.E. 

Road Bridge tm the River Hoka 17. tS Mr. H. Wakefield, C E. 

Tclcgniphic Apparatus for Mesopotamia .... ig Mr. Siemena, C.E. 
\naduct ova tbe River Wye, Midland Rallw. so to sa Mr. W. H. Barlow, CE. 

St. Oenuni Viaduci, Cornwall Railway a}, 14 Mr. Bmnd. CE. 

Wiou^^l-IniD Cytindeifoi Divine BeU sj Mr. J. Coode, CE. 

Millwall Docki >6 to 31 Mean. J. Fowls, CE.,and 

William Wilson, CK. 

HilniT's Patent Eicavalor ji Mr. Milroy, C E. 

Metnpolilaii District Railway jj tojS Mr. J. Fowler, and Mr, T. 

M. Johnson, CK. 
Hiiboiin, Ports, and Bieikwiten A to e 

mtA Copisiii Biier^Hvt LtOtrpratt SfeciJUotioni, &k. 



4 WORKS IN ENGINEERING, SURVEYING, ETC., 

Humberts Great Work on Bridge Construction. 

A COMPLETE and PRACTICAL TREATISE on CAST and 
WROUGHT-IRON BRIDGE CONSTRUCTION, including 
Iron Foundations. In Three Parts — Theoretical, Prsictical, and 
Descriptive. By William Humber, Assoc Inst C. E., and M. Inst 
M. E. Third Edition, revised and much improved, with 1 15 Double 
Plates (20 of which now first appear in this edition), and numerous 
additions to the Text. In 2 vols. imp. 4to, 6/. i6x. 6^. half* bound 
in morocco. 

*' Mr. Humber's stately volumes lately issued — in which the most Iraportant bridges 
erected during the last five jrears, under the direction of our most eminent engineers, 
are drawoi ana specified in great detail** — Engineer, 

** A book — and particularly a large and costly treatise like Mr. Humber's — wluch 
has reached its third edition may certainly be said to have established its own 
reputation. " — Engineentig, 

Strains, Formula & Diagrams for Calculation of. 

A HANDY BOOK for the CALCULATION of STRAINS 
in GIRDERS and SIMILAR STRUCTURES, and their 
STRENGTH ; consisting of Formukeand Corresponding Diagrams, 
with numerous Details for Practical Application, &c. By William 
Humber, Assoc. Inst C.E., &c Second Edition. Fcap. 8vo, 
with nearly 100 Woodcuts and 3 Plates, *js. 6d, doth. 

'* The arrangement of the matter in this little volume b as convenient as it wdl 
C3uld be. • • ,• • The system of employing diagrams as a substitute for complex 
computations is one justly coming into great favour, and in that respect Mr. Humber's 
volume is fully up to the times.**— Eftgtnefrtfig'. 
"The formulae are neatly expressed, and the diagrams good.** — Athefueum, 
"Mr. Humber has renderea a great service to the architect and engineer by pro- 
ducing a work especially treating on the methods of delineating the strains on iron 
beams, roofs, and bridges by means of diagrams."— ^»/^^r. 

Barlow on the Strength of Materials. 

A TREATISE ON THE STRENGTH OF MATERIALS, 
with Rules for application in Architecture, the Construction oif 
Suspension Bridges, Railways, &c. ; and an Appendix on the 
Power of Locomotive Engines, and the effect of Inclined Planes 
and Gradients. By Peter Barlow, F.R.S. A New Edition, 
, revised by his Sons, P. W. Barlow, F.R.S., and W. H. Barlow, 
F.R.S. The whole arranged and edited by W. Humber, Assoc. 
Inst. C.K 8vo, 400 pp., with 19 large Plates, and numerous 
woodcuts, i&r. cloth. 

"The best book on the subject which has yet appeared. .... We know of 
n3 work that so completely fulfils its mission.** — English Mechanic. 

" The standard treatise upon this particular subject." — Engineer. 

Tables of Curves. 

TABLES OF TANGENTIAL ANGLES and MULTIPLES 

for setting out Curves from 5 to 200 Radius. By Alexander 

Beazeley, M. Inst. C.E. Second Edition. Printed on 48 Cards, 

and sold in a cloth box, waistcoat-pocket size, Jx. dd, 

" Each table is printed on a small card, which, being placed on the theodolite, leaves 

the hands free to manipulate the instrument — no small aavantagc as regards the rapidity 

of work. They are clearly printed, and compactly fitted into a small case for the 

pocket— sm amoigtmtni waX will recommend Uvem to aYL v^nicxkal men.** — Engittetr. 



PUBLISHED BY CROSBY LOCKWOOD & CO. 5 

Tramways and their Working. 

TRAMWAYS: their CONSTRUCTION and WORKING. 
Containing a Comprehensive History of the System ; an exhaus' 
tive Analysis of the Various Modes of Traction, including Horse 
Power, Steam, Heated Water, and Compressed Air ; a Description 
of the varieties of Rolling Stock ; and ample Details of Cost and 
Working Expenses, with Special reference to the Tramways of the 
United Kingdom. By D. Kinnear Clark, M. I. C. E., Author 
of * Railway Machinery,* &c., in one vol. 8vo, with numerous illus- 
trations and thirteen folding plates, \%s, cloth. 
" All interested in tramways must refer to it, as all railway engineers have turned 
to the author's work ' Railway Machinery/ but the more^ moderate dimensions of 
' Tramways ' will place it withm the means of every individual, instead of limiting 
its purchase to institutions or to those having a large practice."— 7!^^ Engineer. 
Mr. Clark's b3ok is indispensable for the students of the subiect."— 7^ Builder. 
^ ** An exhaustive and practical work on tramways, in which the history of this 
kind of locomotion, and a description and cost of the various modes of laying tram- 
ways, are to be found- . . . The other parts of Mr. Clark's valuable treatise relating 
to cost and expenditure, and tramway cars, are handled in the same thorough 
manner." — Buiidin£ News. 

Iron and Steel. 

*IRON AND STEEL': a Work for the Forge, Foundry, 
Factory, and Office. Containing Ready, Useful, and Trustworthy 
Information for Ironmasters and their Stocktakers ; Managers of 
Bar, Rail, Plate, and Sheet Rolling Mills ; Iron and Metal 
Founders ; Iron Ship and Bridge Builders ; Mechanical, Mining, 
and Consulting Engineers ; Arclutects, Contractors, Builders, and 
Professional Draughtsmen. By Charles Hoare, Author of 
•The Slide Rule,' &c Eighth Edition. Revised throughout and 
considerably enlarged. With folding Scales of "Foreign Mea- 
sures compared with the English Foot," and **fixel Scales of 
Squares, Cubes, and Roots, Areas, Decimal Equivalents, &&** 
Oblong, 32mo, leather elastic-band, dr. 

" For comprehensiveness the book has not its equaL" — Iron. 

" One of the best of the pocket books, and a useful companion in other branches of 
work than iron and steel." — English Mechanic. 

" We cordially recommend this book to those engaged in con^erii^ the details 
of all kinds of iron and steel works." — Naval Science, 

Iron and Metal Traded Calculator. 

THE IRON AND METAL TRADES' COMPANION: 
Being a Calculator containing a Series of Tables upon a new and 
comprehensive plan for expeditiously ascertaining the value of any 
gooos bought or sold by weight, from 15. per cwt. to II2J. per 
cwt., and from one farthing per pound to one shilling per poimd 
Each Table extends from one pound to lOO tons ; to which are 
appended Rules on Decimals, Square and Cube Root, Mensuration 
of Superficies and Solids, &c. ; also Tables of Weights of Materials, 
and other Useful Memoranda. By Thomas Downie. Strongly 
bound in leather, 396 pp., 91. 
" A most useful set of tables, and will supply a want, for nothing like them before 

existed." — Building News. 

" Will save the possessor the trouble of making numerous intricate calculations. 

Although specially adapted to the iron and metal trade&t dwe ^\An& c»OL\acAR^\&.'^vk 

handy little companion will be found useful in every o\h«x \w*vnft»»N».^'^^ ''»*''*" 

chandise is bought and sold by weight."— /Sai/xoay Nevoi. 



WORKS IN ENGINEERING, SURVEYING, ETC., 



Pioneer Engineering, 

PIONEER ENGINEERING. A Treatise on the Engineering 

Operations connected with the Settlement of Waste Lands in New 

Countries. By Edward Dobson, Assoc. Inst. C.E., Author of 

"The Art of Building," &c. With numerous Plates and Wood 

Engravings. Crown 8vo, lOr. 6c/. doth. 

'*A most useful handbook to engineering pioneers. "^/nwr. 

" The author^s experience has been turned to good account, and the boolc is likely 
to be of considerable service to pioneer engineers."— ^«<A/i»jf News. 

Metallurgy of Iron. 

A TREATISE ON THE METALLURGY OF IRON : con- 

taining Outlines of the History of Iron Manufacture, Methods of 

Assay, and Analyses of Iron Ores, Processes of Manufacture of 

Iron and Steel, &c. By H. Bauerman, F.G.S., Associate of the 

Roval School of Mines. With numerous Illustrations. Fourth 

Edition, revised and much enlarged. i2mo, doth boards, 5j. 

" Carefully written, it has the merit of brevity and conciseness, as to less important 
/pdnts, while all material matters are very fully and thoroughly entered into."— 
Stctndard, 

Sanitary Work, 

SANITARY WORK IN THE SMALLER TOWNS AND 
IN VILLAGES. Comprising : — i. Some of the more Common 
Forms of Nuisance and their Remedies ; 2. Drainage ; 3. Water 
Supply. A useful book for Members of Local Boards and Rural 
Sanitary Authorities, Health Officers, Engineers, Surveyors, 
Builders, and Contractors. By Charles Slagg, Assoc Inst C.E. 
Crown 8yo, 3^. cloth. 

"This is a very useful book, and may be safely recommended. • > • ; The author, 
Mr. Charles Slagg, has had practical experience in the worki of which he treats. 
There is a great deal of work required to be done in the smaller towns and villages, 
and this little volume will help those who are willin^^ to do \t."— Builder. 

Steam Engine, 

TEXT-BOOK ON THE STEAM ENGINE. By T. M. 
GooDEVE, M.A., Barrister-at-Law, Author of ** The Principles 
of Mechanics," "The Elements of Mechanism," &c Second 
Edition. With numerous Illustrations. Crown 8vo, 6j. cloth. 

[Just pt^lished. 

" Professor Goodeve has given us a treatise on the steam engine, which will bear 
comparison with anything written by Huxley or Maxwell, and we can award it no 
higher praise." — Engineer. 

** Mr. Goodeve's text-book is a work of which every young engineer should poj»- 
sess himself." — Mining Journal, 

Strains. 

THE STRAINS ON STRUCTURES OF IRONWORK; 
with Practical Remarks on Iron Construction. By F. W. Sheilds, 
M. Inst. C.E. Second Edition, with 5 plates. Royal 8vo, 5j. cloth. 

**The student cannot find a better little book on this subject than that Mrritten by 
Mr. Sheilds.*'-^! Ac Engineer. 



PUBLISHED BY CROSBY LOCKWOOD & CO. 7 

Locomotives. 

LOCOMOTIVE ENGINES, A Rudimentary Treatise on. Com- 
prising an Historical Sketch and Description of the Locomotive 
Engine. By G. D. Dempsky, C.E. With large additions treat- 
ing of the Modern Locomotive, by D. Kinn ear Clark, C.E., 
M.LC.E. Author of "Railway Machinery," "A Manual of 
Rules, Tables, and Data," *' Tramways, their Construction and 
Work," &c., &C. With numerous Illustrations. i2mo. 35. dd, 
cloth boards. \jfust published. 

Fuels, 

FUEL, its Combustion and Economy ; consisting of Abridgments 
of ** Treatise on the Combustion of Coal and tne Prevention of 
Smoke." By C. W. Williams, A. I. C.E. , and "The Economy 
of Fuel," by T. Symes Prideaux. With extensive additions on 
Recent Practice in the Combustion and Economy of Fuel — Coal, 
Coke, Wood, Peat, Petroleum, &c. ; by D. Kinnear Clark^ 
C.E., M.I. C.E. With numerous Illustrations. i2mo. 5^. cloth 
boards. [Just published. 

Steam, 

STEAM AND THE STEAM ENGINE, Stationary and Port- 
able, an Elementary Treatise on. Being an Extension of Mr» 
John Sewell's Treatise on Steam. By D. Kinnear Clark, 
C.E., M.I.C.E., Author of "Railway Locomotives," &c. With 
Illustrations. i2mo, 41. cloth. 

" Every essential part of the subject is treated of competently, and in a popular 
style." — Iron, 

Roads and Streets, 

THE CONSTRUCTION OF ROADS AND STREETS. In 
Two Parts. I. The Art of Constructing Common Roads. By 
Henry Law, C.E. Revised and Condensed by D. Kinnear 
Clark, C.E. — II. Recent Practice in the Construction of Roads 
and Streets : including Pavements of Stone, Wood, and Asphalte. 
By D. Kinnear Clark, C.E., M.I.C.E. With numerous- 
Illustrations. i2mo, 5^. cloth. 

" A book whlcl? every borough surveyor and engineer must possess, and which will 
be of considerable service to architects, builders, and property owners generally. ** — 
Building News. 

" The volume is suggestive, and will be an acquisition not only to engineers but to- 
the greater number of people in this country on whom devolves the administration of 
roads as a part of the system of local government/' — TA* Architect. 

" To highway and town surveyors wis book will have the utmost value, and as con- 
taining the largest sunount of information in the shortest space and at the lowest price^ 
we may predict for it a wide curculation." — Journal ^Gnx Lighting. 

Steam Boilers. 

A TREATISE ON STEAM BOILERS : their Strength, Con- 
struction, and Economical Working. By R. Wilson, C.E, 
Fifth Edition. I2mb, df. cloth. [Just published. 

** The best work on boilers which has come under oux tiolCvcfc?* — Engin*«riw«. 
'• The best treatise that hzs ever been pub^hed on sXearnVMLexv'* — Engineer, 



I 



8 WORKS IN ENGINEERING, SURVEYING, ETC., 



Practical Tunnelling. 



PRACTICAL TUNNELLING: Explaining in detaU the Setting 
out of the Works, Shaft-sinking and Heading-Driving, Ranging 
the Lines and Levelling under Ground, Sub- Excavating, Timbering, 
and the Construction of the Brickwork of Tunnels with the amount 
of labour required for, and the Cost of, the various portions of the 
work. By Frederick Walter Simms, M. Inst. C.E., author 
of "A Treatise on Levelling." Third Edition, Revised and Ex- 
tended, with additional chapters iUustrating the Recent Practice of 
Tunnelling as exemplified by the St Gothard, Mont Cenis, and 
other modem works, by D. Kinnear Clark, M. Inst. C.E 
Imp. 8vo, with 21 Folding Plates and numerous Wood En- 
gravings, 30J. cloth. 

I' It is the only practical treatise on the great art of ttninelling. Mr. Clark's work 
brings the exigencies of tunnd enterprise up to our own time. The great length of 
modem tunnels has led to a new difficuhv in the art, which the last generation was 
iznorant of, namely, the difficulty of ventilation. In Mr. Clark's supplement we find 
this branch of the subject has been fully considered. Mr. Clark's additional chapters 
on the Mont Cenis and St. Gothard Tunnels contain minute and valuable experiences 
and data relating to the method of excavation by compressed air, the heading 
operations, rock-boring machinery, process of enlargement, ventilation in course of 
construction by compressed air, labour and cost, &.C.— Building NeTvs, 

" The estimation m which Mr. Simms' book on tunnelling luis been hdd for over 
thirty years cannot be more truly expressed than in the woras of the late Professor 
Rankine : — ' The best source of information on the subject of timnds is Mr. F. W. 
Simms' work on " Practical Tunnelling." ' — The Architect, 

Levelling. 

A TREATISE on the PRINCIPLES and PRACTICE of 
LEVELLING ; showing its Application to Purposes of Railway 
and Civil Engineering, in the Construction of Roads ; with Mr. 
Telford's Rules for the same. By Frederick W. Simms, 
F.G.S., M. Inst. C.E. Sixth Edition, very carefully revised, with 
the addition of Mr. Law's Practical Examples for Setting out 
Railway Curves, and Mr. Traut wine's Field Practice of Laying 
out Circular Curves. With 7 Plates and numerous Woodcuts. 8vo, 
%s, dd. doth. %* Trautwine on Curves, separate, 5j. 

'* One of the most important text-books for the general surveyor, and there is 
scarcely a question connected with levelling for which a solution woula be sought but 
that would be satisfactorily answered by consulting the volume." — Mining yourtud. 

" The text-book on levelling in most of our engineering schools and collies,"— 
Engineer, 

The High-Pressure Steam Engine. 

THE HIGH-PRESSURE STEAM ENGINE ; an Exposition 
of its Comparative Merits, and an Essay towards an Improved 
System of Construction, adapted especially to secure Safety and 
Economy. By Dr. Ernst Alban, Practical Machine Maker, 
Plau, Mecklcnberg. Translated from the German, with Notes, by 
Dr. Pole, F.R.S., M. Inst C.E., &c., &c. With 28 fine Plates, 
8vo, i6kr. (td. cloth. 

" A work like this, which goes thoroughl^r into the examination of the high-pressure 
engine, the hoUer, and its appendages, &c.^ is exceedingly useful, and deserves a place 
j'n etenr scientific }ibrary.'*-^team Shipping ChronicU. 



PUBLISHED BY CROSBY LOCKWOOD & CO. 9 

Locomotive-Engine Driving. 

LOCOMOTIVE-ENGINE DRIVING ; a Practical Manual for 
Engineers in charge of Locomotive Engines. By Michael 
Reynolds, Inspector, Locomotive and Carriage Department, 
London, Brighton, and South Coast Railway. Third Edition, 
greatly enlarged. Comprising, besides other additional matter, 
A KEY TO THE LOCOMOTIVE ENGINE. With Illuslra- 
tions and Portrait of Author. Crown 8vo, 4J. 6</. cloth. 

*' Mr. Reynolds deserves the title of the engine driver's friend." — Railway News. 

" Mr. Reynolds has supplied a want, and has supplied ic well. We can confidently 
recommend the book not only to the practical driver, but to every one who takes 9u\ 
interest in the performance of locomotive engines." — The Engineer. 

"The work is as novel as it is useful, and if drivers and nremen will but take as 
much pains in reading it as the author has in writing it, there can be no question as 
to the benefit they willderive." — English Mechanic. 

" Mr. Reynolds has opened a new chapter in the literature of thie day. This 
admirable practical treatise, of the practical utility of which we have to speak fii 
terms of warm commendation." — Athenautn. 

Hydraulics. 

HYDRAULIC TABLES, CO-EFFICIENTS, and FORMUL^K 
for finding the Discharge of Water from Orifices, Notches, Weirs, 
Pipes, and Rivers. With New Formulae, Tables, and General 
Information on Rain-fall, Catchment-Basins, Drainage, Sewerage, 
Water Supply for Towns and Mill Power, By John Neville, 
Civil Engineer, M.R.I.A. Third Edition, carefully revised, with 
considerable Additions. Numerous Illustrations. Cr. 8vo, 14J. cloth. 

" Undoubtedly an exceedingly useful and elaborate compilation." — Iron, 
" Alike valuable to students and engineers in practice." — Mining Journal, 

Strength of Cast Iron^ &c. 

A PRACTICAL ESSAY on the STRENGTH of CAST IRON 
and OTHER METALS. By Thomas Tredgold, M.I.C.E., 
Author of ** Elementary Principles of Carpentry." Fifth Edition, 
Edited by E. Hodgkinson, F.R.S. ; to which are added EX- 
PERIMENTAL RESEARCHES on the STRENGTH and 
OTHER PROPERTIES of CAST IRON. By the Editor. 
With 9 Engravings and numerous Wocdcuts. 8vo, 12s, cloth. 

\* Hodgkinson on Cast Iron, separately. Price dr. doth. 

Minings Surveying and Valuing. 

THE MINERAL SURVEYOR AND VALUER'S COM- 
PLETE GUIDE, comprising a Treatise on Improved Mining 
Surveying, with new Traverse Tables ; and Descriptions of Im- 
proved Instruments ; also an Exposition of the Correct Principles 
of Laying out and Valuing Home and Foreign Iron and Coal 
Mineral Properties. By William Lintern, Mmmg and Civil 
Engineer. With four Plates of Diagrams, Plans, &c., i2mo, 4^. cloth. 

"Contains much valuable information given in a small compass, and which^ as far 
as we have tested it, is thoroughly trustworthy." — Iron and Coal Trades Revuw, 

*^* The above, bound with Thoman's Tables. CSea ^-wat -rvV 
Price ys. 6d, cloth. 



lo WORKS IN ENGINEERING, SURVEYING, ETC., 

Slate and Slate Qtcarrying. 

A TREATISE ON SLATE AND SLATE QUARRYING, 
Scientific, Practical, and CommerciaL By D. C. Davies, F.G.S., 
Mining Engineer, &c. With numerous Illustrations and Folding 
Plates. Crown 8vo, dr. cloth. 

"A useful and practical hand-book on an important industry." — Engiieering. 

" There is no other book which contains so much information concerning tne pro- 
cedure obsoved in taking quarries, the processes employed in working uiem, and 
such full statistics of the present and past position ot the great slate trade of 
Wales."— TVfer Architect. 

Earthwork. 

EARTHWORK TABLES, showing the Contents in Cubic Yards 
of Embankments, Cuttings, &c., of Heights or Depths up to an 
average of 80 feet By Joseph Broadbent, C.E., and Francis 
Campin, C.E. Cr. 8vo, oblong, 5^. cloth. 

"The^ way in which accuracy is attained, by a simple division of eadi cross 
section into three elements, two of which are constant and one variable, is vor 
geDioa%.**'—'AtA^fugum, 

** Cannot fail to come into general use." — Mining youmoL 

Surveying (Land and Marine). 

LAND AND MARINE SURVEYING, in Reference to the 

Preparation of Plans for Roads and Railwa3rs, Canals, Rivers, 

Towns' Water Supplies, Docks and Harbours ; with Description 

and Use of Surveymg Instruments. By W. Davis Haskoll, C. E 

8vo, I2J. dd, doth, with 14 folding Plates, and numerous Woodcuts. 

"A most useful and well arranged book for the aid of a student" — Builder. 
" Of the utmost practical utiUty, and may be safely recommended to all students 
who aspire to become clean and expert surveyors."— J/miint; Journal. 

Coal and Coal Mining. 

COAL AND COAL MINING : a Rudimentary Treatise on. By 
Wabington W. Smyth, M.A., F.R.S., &c, Chief Inspector 
of the Mines of the Crown and of the Duchy of ComwalL New 
edition, revised and corrected. i2mo, with numerous Illustra- 
tions, 4r. doth boards. 

" Every portion of the volume appears to have been prepared with mndi care, and 
as an outlme is given of every known coal-field in this and other countries, as well as 
of the two principal methods of working, the book will doubtless interest a very 
large number of readers." — Mining Jouimal. 

Trigonometrical Surveying. 

AN OUTLINE OF THE METHOD OF CONDUCTING A 
TRIGONOMETRICAL SURVEY, for the Formation of Geo- 
graphical and Topographical Maps and Plans, Military Recon- 
naissance, Levelling, &c., with the most useful Problems m Geodesy 
and Practical Astronomy, and Formulae and Tables for Facilitating 
their Calculation. By Lieut-General Frome, R.E., late In- 
spector-General of Fortifications, &c. Fourth Edition, Enlarged, 
thoroughly Revised, and partly Re-written. By Captain Charles 
Warren, R.E., F.G.S. With 19 Plates nnd 115 Woodcuts, 
rojaJ 8vo, lbs. cloth. 



PUBLISHED BY CROSBY LOCKWOOD & CO. ii 

Fire Engineering. 

FIRES, FIRE-ENGINES, AND FIRE BRIGADES. With 
a History of Fire-Engines, their Construction, Use, and Manage- 
ment ; Remarks on Fire-Proof Buildings, and the Preservation of 
Life from Fire; Statistics of the Fire Appliances in English 
Towns ; Foreign Fire Systems ; Hints on Fire Brigades, &c., &c. 
By Charles F. T. Young, C.E. With numerous Illustrations, 
handsomely printed, 544 pp., demy 8vo, i/. 4J. doth. 

" We can most hesurtily commend this book. " — Engmeermg, 

'* We strongly recommend the book to the notice of all who are in any way in- 
terested in fires, fire-engines, or fire-brigades." — Mtckaniaf Magaami, 

Mantial of Mining Tools. 

MINING TOOLS. For the use of Mine Managers, Agents, 
Mining Students, &c By William Morgans, Lecturer on Prac- 
tical Mining at the Bristol School of Mines. Volume of Text. 
i2mo, jj*. With an Atlas of Plates, containing 235 Illustrations. 

4to, dr. Together, 91. cloth boards. 

" Students in the Science of Mining, and Overmen, Captains, Managers, and 
Viewers may gain practiod knowledge and useful hmts by the study ot Mr. 
Morgans' Manual." — Collury Guardian. 

"A very valuable work, which will tend materially to improve our mining \iXxx9r 
tax^"—Mimng Journal, 

Common Sense for Gas-Users. 

COMMON SENSE FOR GAS-USERS: a Catechism of Gas- 
Lighting for Householders, Gasfitters, Millowners, Architects, 
Engineers, &C., &c. By Robert Wilson, C.E., Author of **A 
Treatise on Steam Boilers." Second Edition. Crown 8vo, sewed, 
with Folding Plates and Wood Engravings, 2J. dd. 

Engineering Fieldwork. 

THE PRACTICE OF ENGINEERING FIELDWORK, 
applied to Land and Hydraulic, Hydrographic, and Submarine 
Surveying and Levelling. Second Edition, revised, with consider- 
able additions, and a Supplementary Volume on WATER- 
WORKS, SEWERS, SEWAGE, and IRRIGATION. By W. 
Davis Haskoll, C.E. Numerous folding Plates. Demy 8ivo, 2 
vols, in one, cloth boards, xl. ^s, (published at 2I. 4s,) 

Waterworks for Cities and Towns. 

WATERWORKS for the SUPPLY of CITIES and TOWNS, 
with a Description of the Principal Geological Formations of 
England as influencing Supplies of Water. By Samuel Hughes, 
F.G.S., Civil Engineer. New and enlarged edition, i2mo, with 
numerous Illustrations, 4J. dd, cloth boards. 
" One of the most convenient, and at the same time reliable works on a subject, 
the vital importance of which cannot be over-estimated.** — Bratt/^rd Observer, 

Steam. 

THE SAFE USE OF STEAM : containing Rules for Unpro- 
fessional Steam Users. By an Engineer. Fourth Edition. i2mo. 

Sewed, 6d, 
" If steam-users would but learn this little book by heart, and then band it te 
their stokers to do the same, and see that the Vauct Ao \\, \>«SkKt «x^«»ss«»'««^» 
become sensations by their rarity.**—- £it^/tsA Mechanic, 



la WORKS IN ENGINEERING, SUR^^YING, ETC, 

FUld-Book for Engineers. 

THE ENGINEER'S, MINING SURVEYOR'S, and CON- 
TRACTOR'S FIELD-BOOK. By W. Davis Haskoll, C.E. 
lliird Edition, enlarged, consisting of a Series of Tables, with 
Roles, Explanations of Systems, and Use of Theodolite for Traverse 
Survejring and Plotting the Work with minute accuracy by means 
of Straight Edge and Set Square only; Levelling with the Theodo- 
lite, Casting out and Reducing Levels to Datum, and Plotting Sec- 
tions in the ordinary manner; Setting out Curves with the Theodo- 
lite by Tangential Angles and Multiples with Right and Left-hand 
Readings of the Instrument ; Setting out Curves without Theodolite 
on the S}*stem of Tangential Angles by Sets of Tangents and Off- 
sets ; and Earthwork Tables to & feet deep, calculated for every 6 
inches in depth. With numerous wood-cuts, i2mo, I2J. doth. 

"The book is ▼ery handy, and die author might have added that the sepaxate tables 
of sines and tangents to every minute vill make it useful for many, other puxposes, the 
genuine traverse tables existmg all the same.** — Aihemtum, 

•• A very useful work for the practical engineer and surveyor.**— i?a«/wfl[y Nmt. 

" The work forms a handsome pocket volume, and cannot fail, from Its portability 
and utility, to be extensively patronised by the engineering profcssiotL, —Mimmg 

Earthwork, Measurement and Calculation of. 

A MANUAL on EARTHWORK. By Alex. J. S. Graham, 
C.E., Resident Elngineer, Forest of Dean Central Railway. With 
numerous Diagrams. iSmo, 2J. 6</. doth. 



** As a reaDy handy book for reference, we know of no work equal to^ it ; and the 
railway engineers and others employed in the measurement and calculation of earth- 
work will find a great amount (M practical information very admiraUy arranged, and 



available for general or rough estimates, as well as for the more exact calculations 
required in the engineers' contractor's offices." — ArtUan, 

Bridge Construction in Masonry^ Timber^ & Iron. 

EXAMPLES OF BRIDGE AND VIADUCT CONSTRUC- 
TION OF MASONRY, TIMBER, AND IRON ; consisting ol 
46 Plates from the Contract Drawings or Admeasurement of s^ect 
Works. By W. Davis Haskoll, C.E. Second Edition, wiA 
the addition of 554 Estimates, and the Practice of Settii^out Works, 
illustrated with 6 pages of Diagrams. Imp. 4to, 2/. I2x. M half- 
morocco. 

" One of the very few works extant descending to the level of ordinary routine, and 
treating on the common every-day practice of the railway engineer. ... A work of 
present nature by a man of Mr. HaskoU's experience, must prove invaluaUe to 
oreds. The tables of estimates appended to this edition will considerably enhance 



the 

huni 

its value." — Enguuerin^, 



Pocket' Book for Marine Engineers, 

A POCKET BOOK FOR MARINE ENGINEERS. Con- 
taining useful Rules and Formulae in a compact form. By Frank 
Proctor, A.I.N.A. Second Edition, revised and enlarged. 
Royal 32mo,' leather, gilt edges, with strap, 4J. 

"We recommend it to our readers as going iax to supply a long-felt want."— 
Naval Science. 

"A most useful companion to all marine engineers." — United Service Gazette. 
"Scarcely stnything required by a naval engineer appears to have been for> 
gotten, "^/ron. 



PUBLISHED BY CROSBY LOCKWOOD & CO. 13 

Drawing for Engineers, &c. 

THE WORKMAN'S MANUAL OF ENGINEERING 

DRAWING. By John Maxton, Instructor in Engineering 

Drawing, Royal Naval College, Greenwich, formerly of R. S. N. A., 

South Kensington. Third Edition, carefully revised. With upwards 

of 300 Plates and Diagrams. i2mo, cloth, strongly bound, 4J. 

** Even accomplished draughtsmen will find in it much that will be of use to then^. 
A copy of it should be kept for reference in every drawing office.** — Engitteering. 
" Indispensable for teachers of engineering drawing.'* — Mechanics* Magasifu, 

Oblique Arches. 

A PRACTICAL TREATISE ON THE CONSTRUCTION of 
OBLIQUE ARCHES. By John Hart. Third EcUtion, with 
Plates. Imperial 8vo, %s, cloth. 

Oblique Bridges. 

A PRACTICAL and THEORETICAL ESSAY on OBLIQUE 

BRIDGES, with 13 lai^e folding Plates. By Geo. Watson 

Buck, M. Inst. C.E. Second Edition, corrected by W. H« 

Barlow, M. Inst. C.E. Imperial 8vo, \2s. cloth. 

"The standard text book for all engineers r^farding skew arches b Mr. Buck's 
treatise and it would be impossible to consult a \ittXja"'—En£^uer, 

Granthanis Iron Skip-Building. 

ON IRON SHIP-BUILDING; with Practical Examples and 
Details. Fifth Edition. Imp. 4to, boards, enlarged from 24 to 40 
Plates (21 quite new), including the latest Examples. Together 
with separate Text, i2mo, cloth limp, also considerably enlarged. 
By John Grantham, M. Inst. C.E., &c. 2/. 2j. complete. 

" A very elaborate work.^ . . . It forms a most valuable addidon to the history 
of iron shipbuilding, while its having been prepared by one who has made the subject 
his study for many years, and whose qualifications have been repeatedly recognised, 
will recommend it as one of practical utiUty to all interested in shipbuildmg."— ^rmr^ 
a$ui Navv Gazette. 

" Mr. Grantham's work is of great interest. • . . It is also valuable as a record 
of the progress of iron shipbuilding. ... It will, we are confident, command an 
extensive circulation among shipbuilders in eeneral. . . . By^ order of the Board 
of Admiralty, the work will form the text-bocMc on which the examination in iron ship- 
building of candidates for promotion in the dockyards will be mainly based."— 
Engineering. 

Wealds Dictionary of Terms. 

A DICTIONARY of TERMS used in ARCHITECTURE, 
BUILDING, ENGINEERING, MINING, METALLURGY, 
ARCHEOLOGY, the FINE ARTS, &c By John Weale. 
Fifth Edition, revised and corrected by Robert Hunt, F.R.S., 
Keeper of Mining Records, Editor of " Ure*s Dictionary of Arts," 
&c. i2mo, cloth boards, 6s. 

" The best small technological dictionary' in the language." — Architect. 

** The absolute accuracy of a work of this character can only be judged of after 
extensive consultation, and from our examination it appears very correct and very 
complete."— ^i«///^ yournal. 

" Inhere is no need now to speak of the excellence of this work ; it received the ap- 
proval of the community long ago. Edited now by Mr. Robert Hunt, and published 
in a cheap, handy form, it wul ht of the utmost service as a bookoC t«.C«x«Q!CA viwl^^^i 
to be exceeded in value." — Scotsman, 



WORKS IN ARCHITECTURE, ETC., 



ARCHITECTURE, &c. 

Constrtution. 

THE SCIENCE of BUILDING : An Elementary Ttcatise w 
the Principles of Constraction. Bt E. Wyndham Ta&n, lii. A, 
Architect. With 47 Wood EngraYings. Demy 8to. &r. 6d/l doth. 

*' A Tory Tsduable book, wfaidi we stronsly recommeiid to all students."— JVtnUrr. 

'* No architectural student should be without this hand-book."— ^nolcjte^ 

Beaton's Pocket Estimator. 

THE POCKET ESTIMATOR FOR THE BUILDING 
TRADES, being an easy method of estimating the varioiis parts 
of a BuilcQng collectively, more especially applied to Carpenteis^ 
and Joiners' work, priced according to the present value of material 
and labour. By A. C. Beaton, Author of "Quantities and 
Measurements." Second Edition. Carefully revised. 53 Wood- 
cuts. Leather. Waistcoat-pocket size. u. 6d, 

Beaton's Builders^ and Surveyors' Technical Guide. 

THE POCKET TECHNICAL GUIDE AND MEASURER 
FOR BUILDERS AND SURVEYORS: containing a Complete 
Explanation of the Terms used in Building Construction, Memo- 
randa for Reference, Technical Directions for Measuring Work in 
all the Building Trades, &c By A. C. Beaton. Second Edit. 
With 19 Woodcuts. Leather. Waistcoat-pocket size. is. dd. 

Villa Architecture. 

A HANDY BOOK of VILLA ARCHITECTURE ; being a 
Series of Designs for Villa Residences in various Styles. With 
Detailed Specifications and Estimates. By C. Wickes, Architect, 
Author of " TheSpiresand Towersof the Mediaeval Churches of Eng- 
land," &c. 31 Plates, 4to, half morocco, gilt edges, i/. \s, 
*«* Also an Enlarged edition of the above. 61 Plates, with Detailed 

Specifications, Estimates, &c. 2/. 2j. half morocco. 
'* The whole of the designs bear evidence of their beine the work of an artistic 
architect, and they will prove very valuable and suggestive. — BuUtUn^ Nrm$, 

House Painting. 

HOUSE PAINTING, GRAINING, MARBLING, AND 
SIGN WRITING : a Practical Manual of. With 9 Coloured 
Plates of Woods and Marbles, and nearly 150 Wood Engravings. 
By Ellis A. Davidson, Author of ** Building Construction," &c 
Second Edition, carefully revised. i2mo, 6s, cloth boards. 
'* Contains a mass of information of use to the amateur and of value to the practical 
man." — English Mechanic, 

Wilson's Boiler and Factory Chimneys. 

BOILER AND FACTORY CHIMNEYS ; their Draught-power 
and Stability, with a chapter on Lightning Conductors. By Robert 
Wilson, C.E., Author of ** Treatise on Steam Boilers," &c., &c. 
Crown 8vo, y, 6d. cloth. 
"A most valuable book of its kind, full of useful information, definite in statement 
end thoroughly practical in treatment." — The Local Government Chronicle, _»;>>» . . 



PUBLISHED BY CROSBY LOCKWOOD & CO. 15 

A Book on Btdlding, 

A BOOK ON BUILDING, CIVIL AND ECCLESIASTICAL. 

By Sir Edmund Beckett, Bart., LL.D., Q.C., F.R.A.S., 

Author of "Clocks and Watches and Bells," &c. Crown 8vo, 

with Illustrations, 7j. 6d, cloth. 
*' A book which is always amusing and nearly always instructive. Sir E. Beckett 
will be read for the raciness of his style. We are able very cordially to recammend 
all persons to read it for themselves. The style throughout is in the highest degree 
conaensed and epigrammatic."— 7Y«K«r. 

" We commend the book to the thoughtful consideraticm of all who are interested 
in the building axu**— Builder. 

Architecture^ Ancient and Modem. 

RUDIMENTARY ARCHITECTURE, Ancient and Modem. 
Consisting of VITRUVIUS, translated by Joseph Gwilt, 
F.S.A., &c., with 23 fine copper plates; GRECIAN Archi- 
tecture, by the Earl of Aberdben ; the ORDERS of 
Architecture, by W. H. Leeds, Esq.; The STYLES of Archi- 
tecture of Various Countries, by T. Talbot Bury; The 
PRINCIPLES of DESIGN in Architecture, by E. L. Garbett. 
In one Yolume, half-bound (pp. i»ioo), copiously illustrated, I2j. 
*^* Sold separately^ in two vols,j as folUms— 

ANCIENT ARCHITECTURE. Contaming GwUt's Vitruvius 
and Aberdeen's Grecian Architecture. Price 6j. half -bound. 

N. B. — This is the only edition of VITRUVIUS procurable at a 
moderate price, 

MODERN ARCHITECTURE. Containing the Orders, by Leeds ; 
The Styles, by Bury; and Design, by Garbett. 6s, half-bound. 

The Young Architect's Book. 

HINTS TO YOUNG ARCHITECTS. By George Wight- 
WICK, Architect, Author of " The Palace of Architecture," &c., &c. 
New Edition, revised and enlarged. By G. Huskisson Guil- 

LAUME, Architect. Numerous illustrations. i2mo, cloth boards, 45. 

" Will be found an acquisition to pupils, and a copy ought to be considered as 
necessary a purchase as a box of instruments." — Architect, 

" Contains a laree amount of information, vrhich young architects will do well to 
acquire, if they wish to succeed in the everyday worlc of their ^miessiou**'— English 
Mechanic. 

Drawing for Builders and Students. 

PRACTICAL RULES ON DRAWING for the OPERATIVE 
BUILDER and YOUNG STUDENT in ARCHITECTURE. 
By George Pyne, Author of a " Rudimentary Treatise on Per- 
spective lor Beginners." With 14 Plates, 4to, 7x. 6d, boards. 

Builder's and Contractor s Price Book. 

LOCKWOOD & CO.'S BUILDER'S AND CONTRACTOR'S 
PRICE BOOK for 1879, containing the latest prices of all kinds 
of Builders' Materials and Labour, and of all Trades connected 
with Building, &c., &c. The whole revised and edited by 
Francis T. W. Miller, Architect and Surveyor. Fcap. 8vo, 
strongly half-bound, 4X. 



I 



i6 WORKS IN architecture; etc. 

Handbook of Specifications. 

THE HANDBOOK OF SPECIFICATIONS; or, Piactical 
Guide to the Architect, Engineer, Snnrejror, and Builder, in drawing 
np Speci6cations and Contracts for Works and ConstmctioDS. 
lUustrated by Precedents of Buildings actnally executed \ff emineDt 
Architects and Engineers. Preceded by a Preliminary Essay, and 
Skeletons of Specifications and Contracts, &c., &c. By Professor 
Thomas L. Donaldson, &LLB.A. With A Review of the 
Law of Contracts. By W. Cunningham Glen, of the 
Middle Temple. With 33 Lithographic Plates, 2 vols., 8yo, 2/. Ts, 
*' In these two volumes of z,xoo pazes (together), for^-^our specifications of execmed 



works aregi ven, including the specincatioas for parts of the new Hovses of P^rfiancBt, 
by Sir Qiarles Barry, and tor the new Royal Exchange, by Mr. Tite, M.P. 
Donaldson's Uandbodc of Specifications must be boo^ by all ardiitects.'*-^^«<*&fer. 

Taylor and Cresys Rome. 

THE ARCHITECTURAL ANTIQUITIES OF ROME. By 
the late G. L. Taylor, Esq., F.S.A., and Edward Cresy, Esq. 
New Edition, thoroughly revised, and supplemented under the 
editorial care of the Rev. Alexander Taylor, M.A. (son of 
the late G. L. Taylor, Esq.), Chaplain of Gray's Inn. This is 
the only book which gives on a large scale, and with the precision 
of architectural measurement, the principal Monuments of Ancient 
Rome in plan, elevation, and detail. Large folio, with 130 Plates, 
half-bound, 5/. 3i-. 
*«* Originally published in two volumes, folio, at iS/. i&r. 

Specifications for Practical Architecture. 

SPECIFICATIONS FOR PRACTICAL ARCHITECTURE: 

A Guide to the Architect, Engineer, Surveyor, and Builder ; with 

an Essay on the Structure and Science of Modem Buildings. By 

Frederick Rogers, Architect With numerous Illustrations. 

Demy 8vo, 15J. doth. (Published at i/. lOr.) 

*«* A volume of specifications of a practical character being greatly required, and the 

old standard work of Alfred Bartholomew bemg out of print, the author, on the basis 

of that work, has produced the above. He has also inserted specifications of worics 

that have been erected in his own practice. 

The House-Owner^ s Estimator. 

THE HOUSE-OWNER'S ESTIMATOR ; or. What will it 
Cost to Build, Alter, or Repair? A Price- Book adapted to the 
Use of Unprofessional People as well as for the Architectural 
Surveyor and Builder. By the late James D. Simon, A.R.I.B. A 
Edited and Revised by Francis T. W. Miller, Surveyor. With 
numerous Illustrations. Second Edition, with the prices carefully 
corrected to present time. Crown 8vo, doth, 3J. 6</. 
In two years it will repay its cost a hundred times over." — Field. 
" A very nandy book for those who wane to know what a house will cost to build, 
alter, or xc^axc.**— English Mechanic. 

Useful Text- Book for Architects. 

THE ARCHITECT'S GUIDE : Being a Text-book of Useful 

Information for Architects, Engineers, Surveyors, Contractors, 

Clerks of Works, &c,&c. By Frederick Rogers, Architect, 

Anthot of ** Specifications fox PtaclicaV KTc>\VvtcX?Qx^," &5u With 

numerous Illustrations. Crown Svo, 6s. dcAiyu 



PUBLISHED BY CROSBY LOCKWOOD & CO. 17 

CARPENTRY, TIMBER, MECHANICS. 

4 

TredgolcTs Carpentry, new and cheaper Edition, 

THE ELEMENTARY PRINCIPLES OF CARPENTRY : 
a Treatise on the Pressure and Equilibrium of Timber Framing, the 
Resistance of Timber, and the Construction of Floors, Arches, 
Bridges, Roofs, Uniting Iron and Stone with Timber, &c. To which 
is added an Essay on the Nature and Properties of Timber, &c., 
with Descriptions of the Kinds of Wood used in Building ; also 
numerous Tables of the Scantlings of Timber for different purposes, 
the Specific Gravities of Materiids, &c. By Thomas Tredgold, 
C.E. Edited by Peter Barlow, F.R.S. Fifth Edition, cor- 
rected and enlarged. With 64 Plates (i I of which now first appear 
in this edition). Portrait of the Author, and several Woodcuts. In 
I vol., 4to, published at 2/. 2J., reduced to i/. 5^. cloth. 

" Ought to be in every architect's and every builder'* library, and thoee who 
3 not already possess it ought to avail themselves of the new vatx^. —Buildtr. 
"A work whose monumental exoellenoe must commend it wherever ficilful car- 
sntry is concerned. The Author's principles are rather confirmed than impaired by 
me. The additional plates are of great intrinsic value."— vffaM&/tiM^ Ntwt, 

Irandy^s Timber Tables. 

THE TIMBER IMPORTER'S, TIMBER MERCHANTS, 
and BUILDER'S STANDARD GUIDE. By Richard E. 
Grandy. Comprising : — An Analysis of Deal Standards, Home 
and Foreign, with comparative Values and Tabular Arrangements 
for Fixing Nett Landed Cost on Baltic and North American Deals, 
including all intermediate Expenses, Freight, Insurance, &c, &c. ; 
together with Copious Information for the Retailer and Builder. 
Second Edition. Carefully revised and corrected. i2mo, 31. td, 
doth. 

" Everything it pretends to be : built up gradually, it leads one from a forest to a 
eenail, and throws in, as a makeweight, a host of material concerning bricks, columns, 
stems, &c. — all that the class to whom it appeals recjuires."— ii'MeZiM Mtckanic. 

** The oi^y difficulty we have is as to what is not in its pages. Vfhait we have tested 
r the contents, taken at random, is invariably correct."— /^w/fw/A/^Mft/U!rr'# JounuU. 

Tables for Packing-Case Makers. 

PACKING-CASE TABLES ; showing the number of Superficial 

Feet in Boxes or Packing-Cases, from six inches square and 

upwards. Compiled by William Richardson, Accountant. 

Second Edition. Oblong 4to, 3J. 6d. cloth. 

" Will save much labour and calculation to packing-case makers and those who use 
icking-cases."-— £^wvr. " Invaluable labour-saving tables."— /r^MMM^fvr. 

Vicholson^s Carpentet^s Guide. 

THE CARPENTER'S NEW GUIDE ; or, BOOK of LINES 
for CARPENTERS : comprising all the Elementary Principles 
essential for acquiring a knowledge of Carpentry. Founded on the 
late Peter Nicholson's standi^ work. A new Edition, revised 
by Arthur AshpItel, F.S.A., together with Practical Ruk& <yo^ 
Drawmg, by George Pyne. "With 'j^'P\aXt&, ^\o^ \l» 'v*- e^^^viB* 



iS WORKS ON CARPENTRY, TIMBER, ETC., 

Dowsing' s Timber Merchants Companion. 

THE TIMBER MERCHANTS AND BUILDER'S COM- 
PANION ; containing New and Copious TaUes of the Reduced 
Weight and Measurement of Deals and Battens, of aU sizes, from 
One to a Thousand Pieces, and the lelatiYe Piice that each size 
bears per Lined Foot to any giyen Price per Petersburgh Standard 
Hundred ; the Price per Cube Foot of Square Timber to any given 
Price per Load of 50 Feet; the proportionate Value of Dads and 
Battens by the Standard, to Square Timber by the Load of 50 Feet ; 
tha readiest mode of ascertaining the Price of Scantling per Lineal 
Foot of any size, to any given Figure per Cube Foot. Also a 
variety of other valuable information, ay William Dowsing, 
Timber Merchant Third Edition, Revised and Corrected. Crown 
8vo, 3^. cloth. 
"Everything is as concise and dear ai it can possibly be made. There can be no 
doubt that erery timber merchant and Imilder ought to possess it." — HiUl Adoertiur, 

Timber Freight Book. 

THE TIMBER IMPORTERS' AND SHIPOWNERS' 
FREIGHT BOOK : Bemg a Comprehensive Series of Tables for 
the Use of Timber Importers, Captains of Ships, Shipbrokeis, 
Builders, and all Dealers in Wood whatsoever. By William 
Richardson, Timber Broker. Crown 8vo, dr. doth. 

Hortoris Measurer. 

THE COMPLETE MEASURER ; setting forth the Measure- 
ment of Boards, Glass, &c, &c. ; Unequal-sided, Square-sided, 
Octagonal-sided, Round Timber and Stone, and Standing Timber. 
With just allowances for the bark in the respective species of 
trees, and proper -deductions for the waste in newing the trees, 
&c. ; also a Table showing the solidity of hewn or eight-sided 
timber, or of any octagonal-sided column. By Richard Horton. 
Third edition, with considerable and valuable additions, l2mo, 
strongly bound in leather, 5^. 
"Not only are the best methods oH. measurement shown, and in some instances 
illustrated by means of woodcuts, but the erroneous sjrstems pursued by dishonest 
dealers are fully exposed The work must be considered to be a valuable addi- 
tion to every gardener's library.— Glanilwf. 

Superficial Measurement 

THE TRADESMAN'S GUIDE TO SUPERFICIAL MEA- 
SUREMENT. Tables calculated from i to 200 mches in length, 
by I to 108 inches in breadth. For the use of Architects, Surveyors, 
Engineers, Timber Merchants, Builders, &c. By James Haw- 
KINGS. Fcp. 3J. dd, cloth. 

Practical Timber Merchant. 

THE PRACTICAL TIMBER MERCHANT, beinjg a Guide 
for the use of Building Contractors, Surveyors, Builders, &c., 
comprising useful Tables for all purposes connected with the 
Timber Trade, Marks of Wood, Essay on the Strength of Timber, 
Remarks on the Growth of Timber, &c. By W. Richardson. 
Fcsiji. 8vo, jj-. 6d, cloth. 



PUBLISHED BY CROSBY LOCKWOOD & CO. 19 

The Mechanic's Workshop Companion. 

THE OPERATIVE MECHANIC'S WORKSHOP COM- 
PANION, and THE SCIENTIFIC GENTLEMAN'S PRAC- 
TICAL ASSISTANT. By William Templeton. Twelfth 
Edition, with Mechanical Tables for Operative Smiths, Millwrights, 
Engineers, &c. ; and an Ejctensiye Table of Powers and Roots, 
&c, &c. II Plates. i2mo, 5^. bound. 

" As a text-book of reference, in which mechanical and commercial demands are 
judiciously met, Tbmplbton's Companion stands unrivalled. " — Mechanic^ Magazine, 

" Admirably adapted to tlie wants of a very lar^e class. It has met with great 
success ia the engineering workshop, as we can testify ; and there are a great many 
men who, in a great measure, owe tbcor rise in life to this Httle work. " — Buiiding NezM, 

Engineer's Assistant 

THE ENGINEER'S, MILLWRIGHTS, And MACHINIST'S 
PRACTICAL ASSISTANT ; comprising a Collection of Useftd 
Tables, Rules, and Data. Compiled and Arranged, with Original 
Matter, by William Templeton. 6th Edition. i8mo, 2J. dd, 
doth. 
" So much varied information compressed into so small a space, and published at a 
price which places it within the reach of the humblest mechanic, cannot fail to com- 
mand the sale which it deserves. With the utmost confidence we commend this book 
to the attention of our readers." — Mechanics* Magazine. 

"A more suitable present to an apprentice to any of the mechanical trades could not 
possibly be made."— ^»</(^^iV<wf. 

Designing, Measuring^ and Valuing. 

THE STUDENT'S GUIDE to the PRACTICE of MEA- 
SURINGand VALUING ARTIFICERS' WORKS; containing 
Directions for taking Dimensions, Abstracting the same, and bringing 
the Quantities into Bill, with Tables of Constants, and copious 
Memoranda for the Valuation of Labour and Materials in the re- 
spective Trades of Bricklayer and Slater, Carpenter and Joiner, 
Painter and Glazier, Paperha^er, &c. With 43 Plates and Wood- 
cuts. Originally edited by Edward Dobson, Architect. New 
Edition, re-written, with Additions on Mensuration and Construc- 
tion, and useful Tables for facilitating Calculations and Measure- 
ments. By E. Wyndham Tarn, M.A., Svo, lor. 6^. cloth. 

" We have failed to discover anything connected with the buildinff trade, from ex- 
cavating foimdations to bell-hanging, that is not fully treated upon.]*— Tli^ ArUzan. 

" Altogether the book is one ^madi well fulfils the promise of its tide-pa^^ and we 
can thoroughly recommend it to the class for whose use it has been compded. Mr. 
Tarn's additions and revisions have much increased the usefulness of the work, and 
have especially augmented its value to sXxiAitDXs,**— -Engineering, 

Plumbing. 

PLUMBING ; a text-book to the practice of the art or craft of the 
plumber. With supplementary chapters upon house- drainage, em- 
bodying the latest improvements. By William Paton Buchan, 
Sanitary Engineer. i2mo, with about 300 illustrations. 3;. (>d, 
cloth. 
"There is no other manual in existence of the plumber's art ; and the volume will 
be welcomed as the work of a practical master of nis trade." — Public Health. 

" The chapters on house-dramage may be usefully consulted, not onlv by plumbecs, 
but also by engineers and all engaged or interested in house-building. — Iron. 

" A book containing a large amount of practical mfoTma^ctCL,'^>]X\A<^<tf^«x\&.^^«»:^ 
muXiigent msumer, by one who is weU quali&ed ios \Vu& isjk?^ — Cit^r Prcu. 



30 WORKS IN MATHEMATICS, ETC., 

MATHEMATICS, &c 

Gregory s Practical Mathematics. 

MATHEMATICS for PRACTICAL MEN ; being a Common- 
place Book of Pure and Mixed Mathematics. Designed chiefly 
for the Use of Civil Engineers, Ardiitects, and Surveyors. Part I. 
Pure Mathematics — comprising Arithmetic, Algebra, Geomedy, 
Mensuration, Trigonometry, Conic Sections, Properties of Corves 
Part II. Mixed Mathematics — comprising Mechanics in general, 
Statics, Dynamics, Hydrostatics, Hjrdrodynamics, Pneumatics, 
Mechanical Agents, Strength of Materials. With an Appendix df 
copious Logarithmic and other Tables. By Olinthus Gregory, 
LL. D. , F.R, A. S. Enlarged by Henry Law, C. K 4th Edition, 
carefully revised and corrected by J. R. Young, formerly Profes- 
sor of Mathematics, Belfast College ; Author of " A Course of 
Mathematics," &c. With 13 Plates. Medium 8vo, i/. U. doth. 

" The engineer or architect will here find ready to his hand, rules for s<^ving neariy 
every mathematical difficulty that may arise in his practice. The rules are in all cases 
explained by means of examples, in which every step of the process is clearly wcwked 
out."— ^«/^^. 

"One of the most serviceable books to the practical medianics of the country. 

In the edition just brought out, the work has again been revbed 07 

Professor Yoimg. He has modernised the notation throughout, introduced a few 

Earafi^raphs here and there, and corrected the numerous typographical erron wfaidi 
ave escaped the eyes of the former Editor. The book is now as complete as it is 
possible to make it. It is an instructive book for the student, and^ a Text- 
book for him who having once mastered the subjects it treats of, needs occasionally to 
refresh his memory upon them." — Building News. 

" As a standard work on mathematics it has not been excelled. " — Artisan, 

The Metric System. 

A SERIES OF METRIC TABLES, in which the British 
Standard Measures and Weights are compared with those of the 
Metric S)rstem at present in use on the Continent By C. H. 
DowLiNG, C. K Second Edition, revised and enlarged. 8vo, 
loj. (id. strongly boimd. 

" Mr. Bowling's Tables, which are well put together, come just in time as a ready 
reckoner for the conversion of one system into tiie other.** — Athemtum. 

"Their accuracy has been certified by Prof. Airy, Astronomer-RoyaL '•—5«rtA//r. 

" Resolution 8. — ^That advantage will be derived from the recent publication of 
Metric Tables, by C H. Dowling, C.^"— Report 0/ Section F, Brit. Assoc., Bath. 

Comprehe7isive Weight Calculator. 

THE WEIGHT CALCULATOR; being a Series of Tables 
upon a New and Comprehensive Plan, exhibiting at one Reference 
the exact Value of any Weight from lib. to 15 Ions, a': 300 Pro- 
gressive Rates, from i Penny to 168 Shillings per cwt., and con- 
taining 186,000 Direct Answers, which with their Con-binations, 
consisting of a single addition (mostly to be performed at sight), 
will afford an aggregate of 10,266,000 Answers ; the whole being 
calculated and designed to ensure Correctness and promote 
Despatch. By Henrv Harben, Accountant, Sheffield, Author 
of **The Discount Guide." An entirely New Edition, carefully 
revised. Royal 8vo, strongly ba\i-\>o\ind, ^ps. 



PUBLISHED BY CROSBY LOCKWOOD & CO. a i 

Comprehensive Discount Guide. 

THE DISCOUNT GUIDE : comprising several Series of Tables 
for the use of Merchants, Manufacturers, Ironmongers, and others, 
by which may be ascertained the exact profit arising from any mode 
of using Discounts, either in the Purchase or Sale of Goods, and 
the method of either Altering a Rate of Discount, or Advancing a 
Price, so as to produce, by one operation, a sum that will realise 
any required profit after allowing one or more Discounts : to which 
are added Tables of Profit or Advance from i| to 90 per cent.. 
Tables of Discount from i J to 98I per cent., and Tables of Commis- 
sion, &c., from \ to 10 per cent. By Henry Harben, Accountant, 
Author of ** The Weight Calculator." New Edition, carefully Re- 
vised and Corrected. Demy 8 vo. (544 pp.), half-bound,;^ I 5j. 

rnwoocTs Tables, greatly enlarged and improved. 

TABLES FOR THE PURCHASING of ESTATES, Freehold, 
Copyhold, or Leasehold; Annuities, Advowsons, &c., and for the 
Renewing of Leases held under Cathedral Churches, Colleges, or 
other corporate bodies ; for Terms of Years certain, and for Lives ; 
also for Valuing Reversionary Estates, Deferred Annuities, Next 
Presentations, &c., together with Smart's Five Tables of Compound 
Interest, and an Extension of the same to Lower and Intermediate 
Rates. By William Inwood, Architect. The 20th edition, with 
considerable additions, and new and valuable Tables of Logarithms 
for the more Difficult Computations of the Interest of Money, Dis- 
count, Annuities, &&, by M. Fia>OR Thoman\ cf the Society 
Cr^t Mobilier of Paris. i2mo, &r. cloth. 

" Those interested in the purchase and sale of estates, and in the adjustment of 
ompensation cases, as well as in transactions in annuities, life insurances, &c., wi'l 
nH the present edition of eminent service." — Et^neering. 

** * Inwood's Tables' still maintain a most enviable reputation. The new issue has been 
nriched by large additional contributions by M. Fddor Thoman, whose carefully 
■ranged Tables cannot fail to be of the utmobt utHity. " —Miumg youmal. 

Geometry for the Architect, Engineer^ &c. 

PRACTICAL GEOMETRY, for the Architect, Engineer, and 

Mechanic ; giving Rules for the Delineation and Application of 

various Geometrical Lines, Figures and Curves. By E. W. Tarn, 

M.A.y Architect, Author of. ** The Science of Building," &c. 

With 164 Illustrations. Demy 8vo. 12^. 6df. cloth. 

*' No book with the same objects in view has ever been published in which the 
eamess of the rules laid down and the illustrative diagrams have been so satL<- 
\.cxx>x^,**— Scotsman, 

Compound Interest and Annuities. 

THEORY of COMPOUND INTEREST and ANNUITIES ; 
with Tables of Logarithms for the more Difficult Computations of 
Interest, Discount, Annuities, &c., in all their Applications and 
Uses for Mercantile and State Purposes. With an elaborate Intro- 
duction. By FfcDOR Thoman, of the Society Credit Mobilier, 
Paris. 3rd Edition, carefully revised and corrected. f2mo,4f. 6^. cl. 

A very powerful work, and the Author \c£a a very remarkable command of hj^ 
{tA^eL^-^rro/essor A. de Morgan, 
"We ncookmcod it to the notice of actuaries 9sA »ic»oun.tKOLXa?*--A<Ktw««m. 



22 WORKS IN SCIENCE AND ART, ETC, 

SCIENCE AND ART. 



Dentistry. 

MECHANICAL DENTISTRY. A Practical Treatise on the 
Construction of the various kinds of Artificial Dentures. Com- 
prising also Useful Formulae, Tables, and Receipts for Gold 
i'late. Clasps, Solders, etc, etc. By Charles Hunter. With 
numerous Wood Enc^ravings. Crown 8vo, 7j. dcL Cloth. 
" The work is very practicsu." — MontMy Revuw of Dental Surpny. 

** An authoritative treatise Many useful and practical hints are scattered 

throughout the work, while its value as a text book is enhanced by numerous iUos- 
trations. We can strongly recommend Mr. Hunter's treatise to all students ne- 
parinff for the profession of dentistry, as well as to every mechanical dcntisL — 
Dublin youmal ^Medical Science, 

Brewing. 

A HANDBOOK FOR YOUNG BREWERS. By Herbert 
Edwards Wright, B.A. Crown 8vo, 35. 6d. cloth. 

"A thoroughly scientific treatise in popular language. It is evident that the 
author has mastered his subject in its scientific aspects." — Morning Adver tise r. 

** We would particularly recommend teachers of the art to place it in every pupil's 
hands, and we feel sure its perusal will be attended with advantage." — Brevter, 

The Military Sciences. 

AIDE-M£M0IRE to the MILITARY SCIENCES. Framed 
from Contributions of Officers and others connected with the dif* 
ferent Services. Originally edited by a Committee of the Corps of 
Royal Engineers. Second Edition, most carefully revised by an 
Officer of the Corps, with many additions ; contaimng nearly 350 
Engravings and many hundred Woodcuts. 3 vols, royal 8yo, eztn 
cloth boards, and lettered, 4/. lar. 
" A compendious encyclopaedia of ndlitary knowledge.**— i?<i£K^«y2^ Review, 
" The most comprehensive work of reference to the military andcolbaeial adenccs." 
— Volunteer Service Gazette, 

Field Fortification. 

A TREATISE on FIELD FORTIFICATION, the ATTACK 
of FORTRESSES, MILITARY MINING, and RECON- 
NOITRING. By Colonel I. S. Macaulay, late Professor of 
Fortification in the R. M. A., Woolwich. Sixth Edition, crown 
8vo, cloth, with separate Atlas of 12 Plates, 12^*. complete. 

?- Wares and Colours. 

THE MANUAL of COLOURS and DYE- WARES : their 
Properties, Applications, Valuation, Impurities, and Sophistications. 
For the. Use of Dy^ers, Printers, Drysalters, Brokers, &c. By J. 
W. Slater. Post 8vo, 7^. (id, cloth. 

** a ct>mplete encyclopaedia of the materia tinctoria. The information is full 
and precise, and the methods of determining the value cf articles liable to sophistica- 
tion, are practical as well as valuable."— CA^ir^ emd Druggist, 

Storms. 

STORMS : their Nature, Classification, and Laws, with the 
Means of Predicting them by their Embodiments, the Clouds. 
]3y William Blasius. With Coloured Plates and numerous 
'Wood Engravings. Crowiv ^vo, 10s. 6d. c\o>iJcv>oci^^v 



Dye- 



PUBLISHED BY CROSBY LOCKWOOD & CO. as 

Light-Houses. 

EUROPEAN LIGHT-HOUSE SYSTEMS ; being a Report of 
a Tour of Inspection made in 1873. ^7 Major George H. 
Elliot, Corps of Engineers, U.S.A. Illustrated by 51 En- 
gravings and 31 Woodcuts in the Text 8vo, 21s, cloth. 

Electricity. 

A MANUAL of ELECTRICITY ; including Galvanism, Mag- 
netism, Diamagnetism, Electro-Djmamics, Magno-Electricity, and 
the Electric Telegraph. By Henry M. Noad, Ph.D., F.C.S., 
Lecturer on Chemistnr at St. George's HospitaL Fourth Edition, 
entirely rewritten. Illustrated hy 500 Wooacuts. 8vo, i/. 4r. doth. 
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uer thing, lupe popular and interesting.**— Z^mtt/. 

Text-Book of Electricity. 

THE STUDENTS TEXT-BOOK OF ELECTRICITY. By 
Henry M. Noad, Ph.D., F.R.S., F.C.S. New Edition, care- 
fully Revised. With an Introduction and Additional Chapters 
by W. H. Pr£EC£» Vice-President of the Society of Teleg^ph 
Engineers, &c. Illustrated with 470 Illustrations. Crown 8vo, 
125. 6d, cloth. [Just Published. 

Rudimentary Magnetism. 

RUDIMENTARY MAGNETISM : being a concise exposition 
of the general principles of Magnetical Science, and the purposes 
to which it has been applied. By Sir W. Snow Harris, F.R.S. 
New and enlarged Edition, with considerable additions by Dr. 
Noad, Ph.D. With 165 Woodcuts. i2mo, doth, 4r. 

"As concise and lucid an exposition of the phenomena of magnetism as we believe 
. is possible to write. " — English Mechanic. 

** The best possible smnual on the subject of magnetism.** — Mechanics* Magasine. 

Zhemical Analysis. 

THE COMMERCIAL HANDBOOK of CHEMICAL ANA- 
LYSIS ; or Practical Instructions for the determination of the In- 
trinsic or Commercial Value of Substances used in Manufiactures, 
in Trades, and in the Arts. By A. Normandy, Author of " Prac- 
tical Introduction to Rose's Chemistry," and Editor of Rose's 
" Treatise on Chemical Analysis." New Edition. Enlarged, and 
to a great extent re-written, by Henry M. Noad, Ph. D., F.R.S. 
With numerous Illustrations. Cr. 8vo, \2s. 6d. cloth. 
" We recommend this book to the careful perusal of every one ; it may be truly 
ffirmed to be of universal interest, and we strongly recommend it to our readers as a 
uide^ alike indispensable to Uie housewife as to the pharmaceutical practitioner."— 
fedtcal Times, 

" Essential to the analysts appointed under the new Act. The most recent results 
re given, and the work is well edited and carefully written." — Nature. 

Mollusca. 

A MANUAL OF THE MOLLUSCA ; being a Treatise on 
Recent and Fossil Shells. By Dr. S. P. Woodward, A.L.S. 
With Appendix by Ralph Tate, A.L.S.,¥.G.^. '^SjOcwToawNRx- 
oxis Viates and yx> Woodcuts. 3rd EdiWon. Cx . %^Ot is . W» ^^"^cu 



24 WORKS IN SCIENCE AND ART, ETC., 

Gold and Gold-Working. 

THE PRACTICAL GOLD- WORKER ; or. The Goldsmith's 
and Jeweller's Instructor. The Art of Alloying, Melting, Re- 
ducing, Colouring, Collecting and Refining. 1 he processes of 
Manipulation, Recovery of Waste, Chemical and Physical Pro- 
perties of Gold, with a new System of Mixing its Alloys ; Soldos, 
Enamels, and other useful RiUes and Recipes, &c. 6y George 
£. Gke. Crown 8vo, *J5. bd, cloth. 

** A g^ood, sound, technical educator, and will be g e nerally accepted as ao 
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fur the workshop, and exactly fulfils the purpose intended." — Horological Jounud. 

" The best work yet prmtol on its subject for a reasonable price. We have bo 
doubt that it will speedily become a standard book which few will care to be with- 
out. " — ycweUer and Metalworker. 

Silver and Silver Working. 

THE SILVERSMITH»S HANDBOOK, containing full In- 
structions for the Alloying and Working of Silver, including the 
different modes of refining and melting the metal, its solders, the 
preparation of imitation alloys, methods of manipulation, preven- 
tion of waste, instructions for improving and finishing the surface 
of the work, together with other useful information and memoranda. 
By George E. Gee, Jeweller, &c. Crown 8vo, with numerous 
illustrations, ^s. 6d. cloth. 

" This work is destined to take up as good a position in technical literature as the 
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Clocks, Watches y and Bells. 

RUDIMENTARY TREATISE on CLOCKS, and WATCHES, 
and BELLS. By Sir Edmund Beckett, Bart, (late E. B. 
Denison), LL.D., Q.C., F.R.A.S., Author of "Astronomy with- 
out Mathematics," &c Sixth edition, thoroughly revised and 
enlarged, with numerous Illustrations. Limp doth (No. 67) 
Weale's Series), 4J. td, ; doth boards, 5j. dd. 

'* As a popular and practical treatise it is unapproached.*' — Englisk Mechanic. 

*' The best work on the subject probably extant. The treatise <mi bells is tin* 
doubtedly the best in the language. To call it a rudimentary treatise is a nusnmner, 
at least as respects clocks and bells. It is the most important work of its kind in 
finglish." — Engineering. 

The only modem treatise on clock-making.** — Horological youmal, 

" This admirable treatise on clocks, by the most able authority on such a subject, 
is completely perfect of its \axA,*'—Standard, 

Science and Scripture. 

SCIENCE ELUCIDATIVE OF SCRIPTURE, AND NOT 
ANTAGONISTIC TO IT ; being a Series of Essays on— i. 
Alleged Discrepancies; 2. The Theory of the Geologists and 
Figure of the Earth ; 3. The Mosaic Cosmogony ; 4. Mirades in 
general — Views of Hume and Powell ; 5. The Mirade of Joshua- 
Views of Dr. Colenso : The Supematurally Impossible ; 6. The 
Age of the Fixed Stars— their Distances and Masses. By Professor 
J. R. Young. Fcap. 8vo, 5j. cloth. 

" Distinj^uished by the true spirit of scientific inquiry, by great knowledge, by leeea 
logical ahihty, and by a style peculiaxYy dear, easy, and «aM,x^XMj^— Noncoi^/Wmw/. 



PUBLISHED BY CROSBY LOCKWOOD & CO. 25 

DR. LARDNER'S POPULAR WORKS. 
Dr. Lardners Museum of Science and Art. 

THE MUSEUM OF SCIENCE AND ART. Edited by 
DiONYSius Lardner, D.C.L., formerly Professor of Natural Phi- 
losophy and Astronomy in University College, London. With up- 
wards of 1200 Engra^dngs on Wood. In 6 Double Volumes. 
Price £\ IJ., in a new and elegant cloth binding, or handsomely 
bound in half morocco, 31J. 6^. 

"The 'Museum of Science and Art' is the most valuable contribution that has 
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** Whether we consider the liberality and beauty of the illustrations, the charm of 
the writing, or the durable interest of the matter, we must express our belief that 
there is hardly to be found among the new books, one that would be welcomed by 
people of so many ages and classes as a valuable prcscnu"—£xafMtfter. 

*^* Separate boohs formed from the above, suitable for Workmen* s 

Libraries, Science Classes, &*c, 

COMMON THINGS EXPLAINED. Containmg Air, Earth, Fire, 
Water, Time, Man, the Eye, Locomotion, Colour, Clocks and 
Watches, &c. 233 Illustrations, cloth gilt, 5/. 

THE MICROSCOPE. Containmg Optical Images, Magnifying 
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Objects, the Solar Microscope, Microscopic Drawing and Engrav- 
ing, &c. 147 Illustrations, cloth gilt, 2s, 

POPULAR GEOLOGY. Containing Earthquakes and Volcanoes, 
the Crust of the Earth, etc. 201 Illustrations, cloth gilt, 2x. 6^. 

POPULAR PHYSICS. Containing Magnitude and Minuteness, the 
Atmosphere, Meteoric Stones, Popular Fallacies, Weather Prog- 
nostics, the Thermometer, the Barometer, Sound, &c. 85 Illus- 
trations, cloth gilt, 2r. 6d, 

STEAM AND ITS USES. Including the Steam Engine, the Lo- 
comotive, and Steam Navigation. 89 Illustrations, cloth gilt, 2s. 

POPULAR ASTRONOMY. Containing How to Observe the 
Heavens. The Earth, Sun, Moon, Planets. Light, Comets, 
Eclipses, Astronomical Influences, &c 182 Illustrations, 4s, 6d. 

THE BEE AND WHITE ANTS : Their Manners and Habits. 
With Illustrations of Animal Instinct and Intelligence. 135 Illus- 
trations, cloth gilt, 2f. 

THE ELECTRIC TELEGRAPH POPULARISED. To render 
intelligible to all who can Read, irrespective of any previous Scien- 
tific Acquirements, the various forms of Telegraphy in Actual 
Operation. 100 Illustrations, cloth gilt, is. 6d, 

Scientific Class-Books^ by Dr. Lardn^r. 

NATURAL PHILOSOPHY FOR SCHOOLS. By Dr. Lardner. 

328 Illustrations. Sixth Edition, i vol. 3J-. td, cloth. 
"Conveys, in clear and precise terms, general notions of all the principal divisions 
of Physical Science."— Bn/wA Quarterly Review. 

ANIMAL PHYSIOLOGY FOR SCHOOLS. By Dr. Lardner. 
With i^ Illustrations. Second Edition, i vol. y, 6d. cl<itK. 
"Qearly written, well arranged, and excellenxVy VWosxnMe,^.^ — Gordeneri CKro-»».\c\e, 



26 WORKS IN SCIENCE AND ART, ETC., 

DR. LARDNER'S SCIENTIFIC WORKS. 
Astronomy. 

THE HANDBOOK OF ASTRONOMY. 4th Edition. Edited 
by Edwin Dunkih, F.R.S., RI. Observatoiy, Greenwidi. Whh 
38 plates and upwards of 100 Woodcuts. Cr. 8vo, 91. td, doth. 
" Probably no ocber Dock contain* the same amount of inlbrmation in so oon* 
pendious and well-arranged a form." — Atketutum, 

Animal Physics. 

THE HANDBOOK OF ANIMAL PHYSICS. With 520 
Illustrations. New edition, small 8vo, cloth, *js. 6d, 732 pages. 
*' We have no he^tation in cordially recommending it." — Educatiaiud Times. 

Electric Telegraph. 

THE ELECTRIC TELEGRAPH. New Edition. ByK B. 
Bright, F.R.A.S. 140 Illustrations. Small 8vo, 2j. 6r/. doth. 
' ' One of the most readable books extant on the Electric Telq;raph.'' — E»g. Medumk. 

LARDNER'S COURSE OF NATURAL PfflLOSOPHY. 
Mechanics. 

THE HANDBOOK OF MECHANICS. Enlarged and almost 

reiJVTilten by Benjamin Loewy, F.R.A.S. With 378 Illastia- 

tions. Post 8vo, dr. cloth. 

" The perspicuity of the original has been retained, ' and diapters which had 

become obsolete, have been replaced by others of more modem character. Iht 

explanations throughout au% studiously popular, and care has been taken to show 

the application of the various branches of physics to the mdustrial arts, and to 

the practical business of life." — Mining Journal. 

Heat. 

THE HANDBOOK OF HEAT. Edited and almost cntirdy 
Rewritten by Benjamin Loewy, F.R.A.S. etc. 117 Ulustni- 
tions. Post 8vo, 6j. cloth. 
** The style is always clear and precise, and conveys instruction without leaving 
any cloudiness or lurking doubts behind." — Engineering. 

Hydrostatics and Pneumatics. 

THE HANDBOOK of HYDROSTATICS and PNEUMATICS. 
New Edition, Revised and Enlarged by Benjamin Loewt, 
F.R.A.S. With 236 Illustrations. Post 8vo, 51. cloth. 
" For those * who desire to attain an accurate knowledge of physical scienoe with- 

out the profound methods of mathematical investigation,' this work is not nwrdy in* 

tended, out well adapted." — Chemical News, 

Electricity, Magnetism, and Acoustics. 

THE HANDBOOK of ELECTRICITY, MAGNETISM, and 

ACOUSTICS. New Edition. Edited by Geo. Carey Foster, 

B.A., F.C.S. With 400 Illustrations. Post 8vo, 5j. doth. 

" The book could not have been entrusted to an^ one better calculated to p re se r v e 

the terse and lucid style of Lardner. while correcting his errors and brin^;ing up his 

work to the present state of scientific knowledge." — Popular Scienc* Eetntw, 

Optics. 

THE HANDBOOK OF OPTICS. New Edition. Edited by 
T. Olver Harding, B. A. 298 Illustrations. Post 8vo, 5^. doth. 

" Written by one of the ablest English scientific writers, beautifully and elabocately 
Ultistrated, **— Mechanics' Magazine. 

\* 21k£ above 5 Vols, form A Comp-let-r Co\3"rs«. 015 '^iccM^ft.XL 

Phii.osopv\\'. 



PUBLISHED BY CROSBY LOCKWOOD & CO. 27 

Voods and Marbles {Imitation of). 

SCHOOL OF PAINTING FOR THE IMITATION OF 
WOODS AND MARBLES, as Taught and Practised by A. R. 
and P. Van der Burg, Directors of the Rotterdam Painting 
Institution. Illustrated with 24 full-size Coloured Plates; also 
12 Plain Plates, comprising 154 Figures. Royal folio, bound, 
2/. I2J. 6d. [Just Published. 

^ictures and Painters. 

THE PICTURE AMATEUR'S HANDBOOK AND DIC- 
TIONARY OF PAINTERS : being a Guide for Visitors to 
Public and Private Picture Galleries, and for Art-Students, in- 
cluding an explanation of the various methods of Painting ; In- 
structions for Cleaning, Re-Lining, and Restoring Oil Paintings; 
A Glossary of Terms; an Historical Sketch of the Principal Schools 
of Painting ; and a Dictionary of Painters, giving the Copyists 
and Imitators of each Master. By Philippe Daryl, B. A. Crown 

8vo, 3J. 6^. cloth. 
" Useful as bringing together in a compendious form an almost complete bio- 
raphical stock of information respecting the painters of the world." — May/air. 
" The bulk of the book is occupied by a dictionary of painters which, considering 
i small compasn, is really admirable : the utility of a table of dates of painters in so 
^rtable a form is unquestionable. We cordially recommend the hook, —BuiUier, 

^Cfputar Work on Painting. 

PAINTING POPULARLY EXPLAINED; with Historical 

Sketches of the Progress of the Art. By Thomas John Gullick, 

Painter, and John Times, F.S.A. Fourth Edition, revised and 

enlarged. With Frontispiece and Vignette. In small 8vo, dr. clotb. 

%* TTiis Work has been adopted as a Prize-book in the Schools 0/ 

Art at South Kensington, 

" Much may be learned, even by those who fancy they do not require to be taught, 

*om the careful perusal of this onpretendmg but comprehensive treatise. " — A rt JoumaL 

** Contams a krge amount erf* original matter, agreeably conveyed." — Builder, 

Grammar of Colouring. 

A GRAMMAR OF COLOURING, appUed to Decorative 
Painting and the Arts. By George Field. New edition, en- 
larged and adapted to the use of the Ornamental Painter and 
Designer, by Ellis A. Davidson. With new Coloured Diagrams 
and numerous Engravines on Wood. i2mo, y, 6d. cloth boards. 

" One of the most useful of student's books, and probably the best known of the 
ew we have on the subject." — Architect. 

'* The book is a most useful risumi of the properties of pigments." — Builder. 

Wood- Carving. 

INSTRUCTIONS in WOOD-CARVING, for Amateurs; with 
Hints on Design. By A Lady. In emblematic wrapper, hand- 
somely printed, with Ten large Plates, 2J. dd, 
" The handicraft of die wood-carver, so well as a book can impart it, may be learnt 
rem * A Lady's ' publication."— w4^Atf«<p«»f. 

Geology^ Physical and Historical. 

A CLASS-BOOK of GEOLOGY, PHYSICAL and HIS- 
TORICAL. With more than 250 Woodcuts. By R^.\,\j«.Ttc^^.» 

A.L.S., F.G.S. i2mo, 55. cloth boards. 
" The fulness of the matter has elevated the\>ook.\xao 9tmMv>\oJi'*— SclwoX Board. 
?A/v/rur/e. 



28 WORKS IN SCIENCE AND ART, ETC., 

Delamotte's Works on Illumination & AlphaJbek, 

A PRIMER OF THE ART OF ILLUMINATION ; for the 
use of Beginners : with a Rudimentary Treatise on the Art, Prac- 
tical Directions for its Exercise, and numerous Examples taken 
from Illuminated MSS., printed in Gold and Colours. * By F. D£U- 
MOTTE. Small 4to, 9J. Elegantly bound, cloth antique. 

*' A handjr book, beautifully iUustrated ; the text of which is well written, and cal- 
culated to be usefuL . . . The examples of ancient MSS. recommended to the student, 
which, with much g^ood sense, the author chooses from collections accessible to all, axe 
selected with judgment and knowledge, as well as taste." — Atherueuwi. 

ORNAMENTAL ALPHABETS, ANCIENT and MEDIAEVAL; 
from the Elighth Century, with Numerals ; including Gothic, 
Church-Text, large and small, German, Italian, Arabesque, Initiak 
for Illumination, Monograms, Crosses, &c. &c., for the use of 
Architectural and Engineering Draughtsmen, Missal Painters, 
Masons, Decorative Painters, Lithographers, Engravers, Carvers, 
&c &c. &c. Collected and engraved by F. Dslamotte, and 
printed in Colours. Royal 8vo, oblong, 4J. cloth. 

" A well-known engraver and draughtsman has enrolled in this useful book the 
result of many years' study and research. For those who insert enamelled sentences 
round gilded chalices, who blazon shop legends over shop-doors, who letter church 
walls with pithy sentences Atom the Decalogue, this book wul be usefuL" — Athewxum. 

EXAMPLES OF MODERN ALPHABETS, PLAIN and ORNA- 
MENTAL ; including German, Old English, Saxon, Italic, Per- 
spective, Greek, Hebrew, Court Hand, Engrossing, Tuscan, 
Riband, Gothic, Rustic, and Arabesque ; with several Original 
Designs, and an Analysis of the Roman and Old English Alpha* 
bets, large and small, and Numerals, for the use of Draughtsmen, 
Surveyors, Masons, Decorative Painters, Lithographers, Engravers, 
Carvers, &c. Collected and engraved by F. Delamotte, and 
printed in Colours. Royal 8vo, oblong, 4.r. cloth. 

" To artists of all classes, but more especially to architects and engravers, this very 
handsome book will be invaluable. There is comprised in it every possible shape into 
which the letters of the alphabet and numerals can be formed, and the talent which 
has been expended in the conception of the various plain and ornamental letters is 
wonderful. ** •-Standard, 

MEDIEVAL ALPHABETS AND INITIALS FOR ILLUMI- 
NATORS. By F. Delamotte, Illuminator, Designer, and 
Engraver on Wood. Containing 21 Plates, and Illuminated Title, 
printed in Gold and Colours. With an Introduction by J. Willis 
Brooks. Small 4to, dr. cloth gilt 

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