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^PS. DEPARTMENT OF AGRICULTURE.
BUREAU OF CHEMISTRY— BULLETIN No. 86.
H. W. WILEY, Chief of Bureau.
ARSENIC m PAPERS AM) FABRICS.
BY
^ J. K. HAYWOOD,
Chief, Insecticide and Agricidtural Water Laboratory,
WITH THE COLLABORATION OF
H. J. WARNER,
Assistant Chemist.
WASHINGTON:
GOVERNMENT PRINTING OFFICE,
1904.
U. S. DEPARTMENT OE AGRICULTURE.
BUREAU OF CHEMISTRY— BULLETIN No. 86.
H. W. WILEY, Chief of Bureau.
ARSENIC IN PAPERS AND FABRICS.
BY
J. K. HAYWOOD,
Chief, Insecticide and Agricultural Water Laboratory,
WITH THE COLLABORATION OF
H. J. WARNER,
Assistant Chemist.
WASHINGTON:
GOVERNMENT PRINTING OFFICE.
19 04.
LETTER OF TRANSMITTAL.
IT. S. Department of Agriculture,
Bureau of Chemistry,
Washington, D. C. , August 4, 1904..
SIR: I have the honor to transmit for your approval the results of
an investigation, made in the Insecticide and Agricultural Water
Laboratory of this Bureau, of the arsenic content of papers, especially
wall papers, and fabrics used for clothing and draperies. The mate-
rials which are the subject of these investigations are made from
important agricultural products, and the results of these studies have
intimate relations to the public health. A compilation of those laws
of the United States and of foreign countries which bear upon this
question is included. I recommend that this report be published as
Bulletin No. 86 of the Bureau of Chemistry.
Respectfully,
H. W. Wiley, Chief.
Hon. James Wilson,
Secretary of Agriculture.
3
Digitized by the Internet Archive
in 2007 with funding from
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http://www.archive.org/details/arsenicinpapersfOOhaywrich
CONTENTS.
Page.
Introduction 7
Investigations of the causes of poisoning by arsenical papers 8
Cases of poisoning by arsenical wall papers and fabrics 14
Arsenic content of wall papers and fabrics sold on the American market- . . 21
Compiled investigations 21
Investigations made in the Bureau of Chemistry 25
Method of determining arsenic 25
Description of samples and analytical results .' 27
Conclusions _ . 44
Laws governing sale of arsenical papers, fabrics, etc 45
Austria 45
Belgium 46
Canada 46
Denmark . 46
England 46
France . . 46
Germany 46
Italy 49
The Netherlands 49
Russia 49
Sweden 50
Switzerland 52
Canton of Geneva 52
Canton of Zurich L 52
United States . 53
Massachusetts _ _ _ 53
5
ARSENIC IN PAPERS AND FABRICS.
INTRODUCTION.
While it is undoubtedly true that many cases of arsenical poisoning
have been caused by the use of arsenical compounds, or compounds
containing arsenic as an impurity, in the coloring of papers and
fabrics, the question as to the form in which the arsenic leaves the
paper or fabric and the form in which it is absorbed by human beings
has been much discussed. Some assert that the arsenic is simply set
free as a dust or powder which upon being breathed gives rise to
symptoms of arsenical poisoning, while others maintain that the
arsenic is set free as a volatile compound which upon being breathed
causes even more serious symptoms. As long as wall papers were
colored with green pigments, consisting almost entirely of arsenical
compounds, it was easy to understand how the dust of arsenic might
be rubbed off of the paper and thus inhaled with the air of the room ;
but when indisputable cases of poisoning were discovered^ where the
paper containing arsenic was covered by another one which was free
from arsenic, or where the paper in question only contained arsenic
in very small quantities as an impurity in the dye used, it became
necessary to assume that some volatile compound of this metalloid
was formed.
It may be as well to state at the beginning of this article that the
writers are fully convinced from data which have been published
that volatile compounds of arsenic can be set free from wall papers,
and, therefore, that cases of poisoning by this class of substances are
due both to the formation of a volatile compound and to the actual
dusting off of arsenic into the air of dwelling places, or to either of
these causes. While practically all cases of poisoning by arsenical
dress goods, playing cards, and like articles are due to a continued
absorption of arsenic from such articles by the pores of the skin,
there may be a few cases in which the arsenic dusts off into the air
and is breathed.
The following brief historical sketch is given to show upon what
grounds the opinions expressed above are based.
7
8 ARSENIC IN PAPERS AND FABRICS.
INVESTIGATIONS OF THE CAUSES OF POISONING BY ARSENICAL
PAPERS, a
In the following brief sketch no attempt will be made to present a
complete survey of the literature, but only those cases will be men-
tioned which at the time of their publication seemed to throw light
on the subject in question.
In 1852 Krahmer* performed a series of experiments to determine
whether arsenic could be set free from wall paper or organic matter
as a volatile compound. He first mixed an arsenical compound with
paste and lime and placed this mixture in a double-necked flask. At
the end of nineteen days he could not detect the odor of arsenic. He
next drew air through the bottle for twenty-one days and passed it
through a potash solution. He was not able to find arsenic in the
potash solution. Silver nitrate solution was then substituted for pot-
ash and it was not discolored after fifteen days, but no test for arsenic
was made in the solution. Next the air was passed through a heated
glass tube for five days, but no arsenic mirror was observed. Krah-
mer states that he lived in a room for eight years the walls of which
were painted with arsenical pigment, and during that time suffered
no inconvenience, and, further, that he could detect no arsenic in the
dust of the room. The method of examination used, however, was
such that he very likely would not have found arsenic even if it had
been present. From these experiments he concluded that arsenic was
not set free from wall paper either in the form of dust or as a volatile
compound.
During the year 1858 Abelc made some experiments along this line,
using a room whose walls were covered with a paper containing 259
grains of arsenious oxid per square yard. He first closed the room
for thirty-six hours, then passed the air of the room through a silver
nitrate solution and then through asbestos saturated with ammoniacal
silver nitrate for several hours. At the end of this time no arsenic
could be found in either of the solutions. Then gas jets were burned
in the room and the experiment was conducted just as before, but
again no arsenic could be detected. He next performed several
experiments by filling glass tubes with arsenical paper and passing
(1) the air of the room, (2) the air of the room with gas jets burning,
and (3) the concentrated gases coming from burning gas, etc., through
the tube and thence through the silver nitrate and ammoniacal silver
nitrate mentioned above, but arsenic could not be detected in the solu-
tions in any of the experiments. Decomposing paste was then com-
0 The authors had partially collected the references on this subject when an
article by Sanger was found (Proc. Amer. Acad, of Sci., 1894), which contained
a very complete resume of the literature. A number of the cases quoted by Sanger
which had not been already found are given.
b Deutsche Klinik, 1852, 43: 481, through Sanger, loc. cit.
^Pharm. J. and Trans., 1858, p. 556.
CAUSES OF POISONING BY ARSENICAL PAPERS. 9
bined with arsenical paper and hot air passed through the tube for a
number of days, but no arsenic could be detected in either of the silver
solutions. Here again was evidence that the arsenic of wall papers
is set free neither as dust nor as a volatile compound. .
In 1869 Sonnenscheina tested the air from a room where the paper
was arsenical and the occupant was suifering with symptoms of
arsenical poisoning. He passed the air through a heated glass tube
and obtained a mirror which appeared to be arsenic.
The above paper is especially important in that it seems to be the
first case in which a true indication was obtained of the presence of
a volatile arsenical compound in the air of rooms papered with arsen-
ical paper.
In 1874 Hamberg6 tested the air of a room which was papered with
an arsenical paper, for the presence of this compound. The appara-
tus was so arranged that both arsenical dust and gaseous compounds
of arsenic could be determined. It was found, after the air of the
room had run through this apparatus for a month, that both arseni-
cal dust and volatile arsenic compounds were present, as shown by
the Marsh test.
In 188G Hambergc published another paper on the action of decay-
ing animal matter on arsenious oxid. A general outline of his scheme
is as follows: Mix 1 gram of arsenious oxid with a mixture of sand,
broken glass, and various parts of the body (lungs, liver, etc.), and
place the whole in a large flask. To this attach a system consisting
of a tube containing cotton, then a tube containing test paper, then
one containing silver-nitrate solution, and finally a guard tube.
Draw air through this apparatus from outside the laboratory.
This experiment was continued for about nine years, the air of the
flask and the silver-nitrate solution being tested at intervals for the
presence of arsenic. Mold began to grow after about two weeks.
The total amount of arsenious oxid found in the silver solution dur-
ing the whole course of the experiment amounted to only about 1.5
milligrams actually determined and various smaller amounts deter-
mined qualitatively, but upon analyzing the residue in the flask it
was found that only 551 milligrams of arsenious oxid remained, so
that 449 milligrams must have passed off as a volatile arsenic com-
pound, only 1.5+ milligrams of which was caught by the silver-
nitrate solutions. During the experiment the air of the flask was
often tested. It was found to possess a very disagreeable odor,
which at times resembled the odor of arsin or kakodyle.
In 1894 Sanger d mentioned some work performed by Kinnicutt in
1888, which indicated that in a room with wall paper containing 0.1
"Handbuch d. gerichtlichen Chem., p. 153.
&Pharm. J. and Trans. (3), 5: 81, through Sanger, loc. cit.
cPharm.'Ztschr. f. Rnssland, 25: 779.
(/ Loc. cit.
10 ARSENIC IN PAPERS AND FABRICS.
grain of arsenic per square yard no arsenic was set free either as a
volatile compound or as a dust during the course of seven days.
In 1893 Gosio published a paper upon the "Action of some molds
upon the fixed compound of arsenic." a This is the most important
article that has ever appeared upon the probable formation of vola-
tile compounds of arsenic from arsenical wall papers, and serves as a
basis for our present conception of this subject, which is so important
from a hygienic standpoint. The outline of Gosio's work is as follows :
(1) To determine whether a gaseous compound of arsenic can be
developed by means' of cultures containing arsenic and exposed to
spontaneous inoculation.
(2) If the affirmative be proved, to isolate the organisms which are
capable of so doing and to characterize them.
(3) To point out the compounds in which this activity of arseno-
organisms is most marked and to determine whether this activity
extends to arsenical products emploj^ed in the arts and industries
(colors), and what conditions cause the organisms to increase or
decrease.
(4) To study the volatile compound, using pure cultures with
arsenical media.
(5) To study the means by which these gases are produced.
The results of these investigations are contained in the following
summary:
It is confirmed beyond dispute that the growth of molds in contact
with fixed arsenical compounds can develop arsenical gas. Among
the molds some play this role in such a way that they may be consid-
ered as a special class of arseno-molds.
There are four molds which up to the present time have been
shown to be capable of energetic action upon fixed arsenical com-
pounds, viz, Mucor mucedo, Aspergillum glaucum, Aspergillum virens,
and Penicillium brevicaule, the last being the most important. It
does not follow that because an organism grows well in the presence
of fixed compounds of arsenic it will produce arsenical gas. A large
number of the organisms flourish without producing this decompo-
sition.
The arseno-molds can grow very well in contact with certain arsen-
ical compounds without actively transforming them. The action
depends on the salt used. For example, in the experiments upon
Mucor mucedo the action was very doubtful for the sulphides of
arsenic, and this doubtless depends on the insolubility of the material.
In all cases an exception must be made to the general law just enun-
ciated under the following conditions, namely : When the compounds
just mentioned have been in culture for a long time, by virtue of
indirect forces inherent in the life of the molds themselves their
"Archives Italiennes de Biologie, 1893, vol. 18.
CAUSES OF POISONING BY ARSENICAL PAPERS. 11
chemical structure may be modified and thus they may be transformed
by the molds into gaseous arsenical compounds.
The conditions which facilitate the production of arsenical gas by
the arseno-molds may be grouped as follows :
(1) Those conditions which favor the life of all fungi, namely,
abundance of oxygen, humidity, nutritive material, and amounts of
arsenic which are not toxic.
(2) Such conditions as depend upon the ease with which the com-
pounds can be transformed. For example, arsenic acid and arsenates
and arsenites of sodium and potassium are more easily transformed
than copper arsenite.
(3) Presence of carbohydrates and especially of mixtures of glucose
and albumen.
In the experiments upon Mucor mucedo it was shown that the
arseno-molds can decompose the arsenite of copper used in wall paper
even when they grow upon the paste which is used to make the paper
stick to the wall.
In the action of the arseno-molds upon the fixed compounds of
arsenic, arsin may be developed, but only a small amount is formed
in comparison with the quantity of a much more important compound
which probably results from the combination of the metalloid with
alcohol, aldehyde, or other organic radicles.
Without excluding the probability of some reducing and hydrogen-
ating action of certain molds upon traces of fixed arsenical com-
pounds, it is probable that in a great majority of cases the gasification
of such compounds is intimately associated with the development of
special chemical substances (the work of biological activity) capable
of combining with the metalloid. The power to form such compounds
is not possessed by all molds.
These conclusions are based chiefly upon researches made on the
Mucor mucedo, but the Penicillium brevicaule is of much more im-
portance by reason of its biochemical activity and sensitiveness.
The cultures of this mold in the presence of fixed compounds of
arsenic develop the arsenical gas in such quantities that it is danger-
ous to approach. A rat upon being exposed to these gases died in
convulsions in a very short time.
In the number of the Archives Italiennes de Biologie mentioned
above, on page 299, Gosio discusses the detection of arsenic in wall
paper, dress goods, the stomachs of animals, etc. , by growing Peni-
cillium brevicaule in contact with these substances and a suitable
medium for growth and observing the garlic-like odor that is given
off. The following paragraphs from this paper are worthy of particu-
lar note in connection with a study of arsenic in wall papers:
I experimented upon wall papers colored with Scheele and Paris greens, realgar,
and orpiment, with the result that the Penicillium brevicaule, unlike other arseno
molds, attacked all the ordinary compounds of arsenic energetically (arsenic and
12 ARSENIC IN PAPERS AND FABRICS.
arsenious acids, alkaline arsenates, and arsenites, chlorids, and snlphids of arsenic,
and even arsenic itself) .
The reaction of these molds on compounds of arsenic is extremely delicate; it
is sensitive to infinitesimal traces. For amounts of any importance, provided
that they are not so large as to be toxic to the molds, the phenomenon lasts for
months and can be perceived even at a distance. After breathing the gas with this
odor of garlic for a long time one feels ill, as I have had occasion to discover in
experimenting on myself.
It would appear that this paper settled beyond a doubt the possi-
bility of the formation of gaseous arsenical compounds from wall
papers containing this element, yet because of the many conflicting
results which had been obtained in times past even this most con-
vincing paper could not be accepted without substantiation. To
Sanger a is due the credit of substantiating Gosio's results and defi-
nitely settling this vexed question. He obtained from Gosio cultures
of Penicillium brevicaule upon strips of potato containing different
amounts of arsenic. In one of Sanger's experiments 1 gram of arseni-
ous oxid was mixed with flour and water in a liter flask and the mix-
ture inoculated from the tube marked "patata essente di arsenico"
(potato impregnated with arsenic). Air was first passed through a
silver nitrate solution, next through the flask, and then through a
system of which two absorption bulbs containing silver nitrate solution
were the essential part. After two weeks' passage of air through the
flask the growth of mold was abundant, but on opening it there was
no odor of garlic and the silver nitrate solutions gave no test for
arsenic. This was doubtless due to the fact that the P. brevicaule
could not endure the large amount of arsenic present and died out
while other more resistant but nonarseno molds flourished. That
this assumption was true was shown by an examination of the molds
present, no P. brevicaule being found.
In another of Sanger's experiments three Erlenmeyer flasks were
fitted with double-hole rubber stoppers, through which passed two
tubes, one reaching just below the stopper and one to the bottom of
the flask. Potato pulp was added to each flask and moistened with
a solution of sodium arsenate, so that each flask contained about 0.1
gram of arsenic oxid. They were thoroughly sterilized and inocu-
lated from the Gosio tube marked "patata bagnata in una soluzione
di As205" (potato bathed in a solution of arsenic oxid). The flasks
were joined in a system, and, as in the previous experiment, both the
incoming and outgoing air was passed through a silver nitrate solu-
tion. At the end of twelve days, when the flasks were disconnected,
an alliaceous odor could be observed, and the silver nitrate solution
through which the air of the flasks had passed showed a well-defined
mirror of arsenic amounting to about 0.01 milligram when tested in
the Marsh apparatus. In this and other experiments all the reagents
used were carefully tested and found to be free from arsenic. The
" Proc. Amer. Acad, of Sci., 1S04.
CAUSES OF POISONING LY ARSENICAL PAPERS. 13
experiment was continued further, and abou\0.11 milligram more of
arsenic was obtained from the two silver solutions. The silver-nitrate
solution that had been used to wash the incoming air was tested for
arsenic, but none could be found, showing that no arsenic could have
entered the flasks from the air of the room.
In another experiment 3 square decimeters of wall paper containing
115 milligrams of arsenious oxide per square meter were placed
between slices of potato, and after sterilization in flasks similar to
those mentioned above they were inoculated with one of the Gosio
cultures. Without going into the details of the experiment, which
was similar to the one just described, it suffices to say that an alli-
aceous odor was developed and a mirror of arsenic obtained from the
silver-nitrate solutions.
The papers by Gosio and Sanger just quoted establish beyond ques-
tion the fact that certain molds can set volatile compounds of arsenic
free from fixed compounds of this element, which may be present in
wall paper or other materials in case a suitable medium for growth is
present, such as the paste used in putting on wall paper. The fact
that Penicittium brevicaule, one of the most active molds in producing
such effects, has been found upon moldy wall paper Avould almost be
proof of the formation of arsenical compounds in rooms papered with
arsenical paper. The work of Hamberg, who actual!}' found volatile
arsenical compounds in rooms papered with arsenical paper, seems to
complete the chain of evidence.
In 1896 a Emmerling made an investigation of the action of bacteria
and molds upon the fixed compounds of arsenic. He came to the
conclusion that neither of these classes of organisms could set arsenic
free as a volatile compound. In his work, however, he used such large
amounts of arsenic acid, i. e. , 0. 5 per cent and 0. 2 per cent, that it is pos-
sible, in fact probable, that the arseno molds were killed off. In his
original paper Gosio especially calls attention to the fact that these
molds are most active in media containing from 0.01 per cent to 0.05 per
cent of arsenic acid, and that as the media become stronger in arsenic
the activity of the molds becomes less intense until with quite large
amounts of arsenic the molds cease to grow entirely, unless they have
been habituated to arsenic by a progressive augmentation of this sub-
stance in the medium. Since Emmerling does not mention any of the
details of his experiment, we have no method of judging of the
accuracy of his determination of arsenic, etc.
Having now established the fact that fixed arsenic can be set free
from organic substances containing this element as a gaseous com-
pound, or from wall papers containing it as a fine dust, and that
arsenic in both these forms has been found in the air. of rooms the
walls of which were covered with an arsenical paper, it becomes neces-
sary, as the next link in the chain of evidence, to show that persons
«Ber. d. chem. Ges., 1896, 2J): 2728.
14 ARSENIC IN PAPEKS AND FABRICS.
have been poisoned by lining in such surroundings. Scores of cases of
arsenic poisoning caused by wall papers, playing cards, dress goods,
etc., have been published, but only those cases are quoted here which
appear to be very convincing in character. No cases previous to 1880
will be cited, since a very complete account of the ones previous to
that date can be found in a paper by Professor Wood." In selecting
typical cases preference has been given to those in which a chemical
examination of the patient's urine appears.
CASES OF POISONING BY ARSENICAL WALL PAPERS AND
FABRICS.
Case I.
A lady 47 years of age Degan to be affected with supraorbital neuralgia on the
right side six weeks after occupying a room papered with a dull grayish artistic
green, with red pomegranates. The neuralgia steadily increased in severity, and
no benefit was derived from open air exercise and quinine. It was made worse
by Fowler's solution. Finally the wall paper was suspected and found upon
examination to contain arsenic in large quantity. This paper was removed and
a nonarsenical one put on, when the neuralgia speedily disappeared without
medicine. h
Case II.
Dr. George Garlick reports several cases of poisoning in members of the same
family by a red wall paper. Two children were brought to the out-patient depart-
ment of the Children's Hospital, Great Ormond street. Their mother, who
brought them, gave the following account: The elder, a boy of 8 years, had been
suffering some time from pains in the eyes, nose, and different parts of the body;
he passed restless nights and during the day was depressed and inert. His diges-
tion was feeble, and he had flatulence after food; his tongue was furred, pale,
tremulous, and silvery; and the motions were described as offensive. There was,
besides, a small patch of ill-developed psoriasis on the face. The other child, a
little girl, also had pains in the eyes, nose, and shoulders, described as of a shoot-
ing character. Her tongue was also furred, and she had, like her brother, dys-
peptic symptoms.
This remarkable combination of symptoms — viz, the local pains in the eyes and
nose, with the presence of dyspepsia — suggested to me the possibility of arsenical
poisoning, and, on further inquiry, this supposition was much strengthened by
the statement of the mother that she was much surprised at her children, as they
described exactly the same symptoms that she herself felt and that two of her
other children at home suffered the same way. In fact, with the exception of the
father and one child, all suffered the same way. She was accordingly directed to
bring some of the wall paper of the rooms they inhabited.
A sitting-room paper which had been on the wall two years was found to be
arsenical. It was an inferior paper and consisted of red stars stamped on a ground
of pale yellow and gray brown. The arsenic was contained in the red pigment.
After the paper was removed the pain complained of in the eyes and nose at once
ceased. The dyspeptic symptoms were slower in mending. <"
« Report of State Board of Health of Massachusetts for 1883, p. 213.
&Wood, Case 16, Report Mass. State Board of Health, 1883; Practitioner 1880,
24: 110.
« Wood, Case 30, Report Mass. State Board of Health, 1883; The Lancet, Jan. 3,
1880, p. 12.
CASES OF POISONING. 15
Case III.
Doctor Kelsey related some facts regarding arsenical poisoning from wall paper
as it had recently occurred in his own person. The last two years he had suffered
from occasional attacks of gastric and intestinal disturbance, attended with slight
fever, and from inability to do hard work, either mental or physical. The walls of
his office were papered with a very rich green " velvet. library paper." During a
recent house cleaning the paper was thoroughly swept down, and as a result a
green powder was observed on the floor all around the edge of the room. On test-
ing this he found it to be almost pure Paris green. A paper hanger was sent for
to remove the paper, and after working a few hours he was seized with all the
symptoms of acute arsenical poisoning and was obliged to desist. Another who
took his place to finish the job suffered the same way on the following day. It
was discovered that at some former time the ceiling had been covered with Paris
green and subsequently a coat of another color had been laid over it. The servant
who attempted to wash this was confined to his bed for three days with cramps
and diarrhea. Finally the two members of Doctor Kelsey's household who had
taken considerable interest in what was being done were attacked with similar
symptoms, and he himself had one of his old familiar attacks. Since repapering,
now six months ago, he has had none of his old trouble. «
Case IV.
A child in Troy, N. Y., while playing with some water-color paints, used a small
book, attracted by the bright green color of its cover, for a palette. He mixed
the paints on the cover of the book for some time. Then he was suddenly taken
with convulsions. Physicians who were hastily summoned declared that he had
been poisoned. They administered antidotes, but the child went into convulsion
after convulsion, and it was only after three days' incessant labor that the physi-
cians saved his life. They afterwards investigated the manner of his being
poisoned. They discovered that the dye with which the bright-colored book was
covered contained the poison. In wetting the paints on the book cover the child
innocently wet also the dye and soon transferred some of the poison to its own
lips. b
Case V.
About the middle of September, 1886, my patient, Mrs. S., changed her resi-
dence from the country to the city. She very soon discovered that some ferns in
her parlor were withering, but not from neglect nor improper care, since, although
ultimately dying, they revived for a brief season on being removed to another part
of the house. In the early part of November she suffered from an attack of
nausea and dizziness so intense, especially when she attempted to stoop, that for
several days she was obliged to keep in bed. These symptoms persisted in thei*
intensity for about a fortnight and were followed by a sharp attack of facial
neuralgia which lasted about a week. In the latter part of December the dizzi-
ness reappeared, but in far milder form than it had been the month before. At
about the same time she began to complain of extreme lassitude and a loss of
pleasure in pursuits that formerly gave her pleasure. The quiet of her own room
was the one thing that she eagerly sought.
Although she suffered from continual nausea, her appetite was usually good;
there was, as she expressed it, an almost constant ' ' gnawing in the stomach. ' ' After
the eating of food the nausea would increase, and she would complain of a feeling
«N. Y. Med. Jour., 1881, 33: 102.
&Wood, Case 32, Report Mass. State Board of Health, 1883.
5050— No. 86—04 2
16 ARSENIC IN PAPERS AND FABRICS.
of heaviness and uneasiness throughout the bowels, especially in the umbilical
region. Her increase of adipose tissue began to be distressing to her. Although
she had always before drank very little water, she was now thirsty all the time.
The patient herself was disposed to think her symptoms malarial in their nature,
although , contrary to her expectations, quinine gave her no relief. Occasionally she
would speak of her eyes smarting and watering if she tried to use them. Suddenly
on March 16, 1887, she was taken without any apparent cause with headache,
extreme nausea, and uncontrollable vomiting. The usual antiemetic remedies
internal and external, dietary and medicinal, were tried in turn, but all without
relief. On the contrary, they seemed rather to increase her distress. I remem-
bered the withering of the ferns and began to suspect some form of irritant
poisoning to be the cause of the sickness. I accordingly sent samples of all wall
papers in the house (except, of course, plain cartridge papers, which I knew to be
practically free from suspicion) to Dr. Edward S. Wood for examination. Upon
analysis he pronounced only one paper arsenical, but found such an amount of
arsenic therein that he advised its immediate removal. To settle decisively the
question of poisoning, the urine was also examined for arsenic. Six ounces col-
lected on March 23, the eighth day of the incessant vomiting, yielded numerous
crystals of arsenic after resublimation in the tube, while a quart of urine collected
three days later yielded a very dark deposit upon the tube, but after resublima-
tion scarcely a trace of arsenic crystals. This seemed to indicate not only that
there had been a very large amount of arsenic in the system of my patient, but
also that a rapid elimination of the poison was taking place. The dangerous wall
paper was removed while the patient was convalescent. She insisted that she
was not yet strong enough to venture from home, and so remained in the house
confined strictly to her room, while .the work went on. After the wall had been
scraped and washed and the room thoroughly cleaned preparatory to the laying of
the new paper she ventured to look into the room, but remained there scarcely
ten minutes. She soon had a return of nausea and vomiting, which lasted nearly
twenty-four hours. I therefore insisted that she go into the country and that in
her absence the entire house be entirely cleaned and dusted. This was done, and
since her return she has presented no further symptons of arsenic poisoning.
Another member of the family was affected by the removal of the paper, his
symptoms taking the form of sharp diarrhea. The other two members did not
at any time present marked symptoms of arsenical poisoning, except a noticeably
sallow complexion and a pretty constant feeling of lassitude all winter. They
had, however, had more exercise in the open air than my patient/'
Case VI.
A well-known Boston physician had two or three attacks of sore fingers. He
consulted Dr. J. C. White, who asked him whether he had anything to do with
arsenic. He could think of nothing except some playing cards which he had
used. They were found to be loaded with arsenic, were discarded, and he has
not had any similar trouble since. 6
Cask VII.
When Doctor Putnam went on duty at the Massachusetts Infant Asylum in the
spring of 1890 he found the babies looking very pale without any apparent reason.
He then noticed suppurations on the fingers and a slight discharge from the ears-
Occasionally a nurse had sores on the fingers. One had an aural discharge, and
a J. Amer. Med. Assn., 1887, 9: 699.
^Shattuck, Trans. Path. Soc. of Phila, 1891-93, 1<>: 285.
RY
Vo<
A
X<
CASES
17
other skin eruptions were noticed. Arsenl^jl j3Dteo^ji*gwas thought of as pos-
sible, but there was no wall paper, no carpets, or other suspicious articles. The
health of the inmates of the asylum grew worse. Bronchitis appeared, and two
children died from inflammation and ulceration of the air passages, involving the
pleura. Some blue dresses recently furnished by the asylum to all the nurses fell
under suspicion and were found to contain much arsenic. They were discarded,
and the health of the institution was reestablished. Much of the arsenic was
found to be loose in the cloth. The dresses were therefore thoroughly washed in
the winter of 1901 and resumed by the nurses. Very soon after both nurses and
babies began to have sores on their fingers and other signs similar to those which
had appeared before. The dresses were again discarded, the symptoms again
disappeared and have not recurred in the past two years. a
Case VIII.
W., a clerk in a large dry-goods house, entered my service in the Massachusetts
Hospital, in the fall of 1891 , with poor general health and marked neuritis in all the
extremities. It was with much difficulty that he could pick a pin from the table.
Neither alcohol, rheumatism, lead, nor gout could be considered as causative of
neuritis. The physician under whose care he had been, a gentleman well known
to me, had given him no arsenic. His bedroom wall paper, which had been
applied for eight years, was highly arsenical, and arsenic was found in his urine.
He soon began to improve, was discharged from the hospital, and after a time
resumed work, discarding the arsenical wall paper. I saw him very recently
again, and found his general condition still below par, with some neuritis still
present, though not enough to seriously interfere with his work. An electric
examination, which Dr. K. J. Putnam was kind enough to make, confirmed the
diagnosis of neuritis. &
Case IX.
In the autumn of 1883, Mr. A. and wife took a house in Cambridge, of which
four rooms had been recently papered. In the spring of 1885 the halls of the
house were covered and either in 1883 or 1885 the other rooms. The papers con-
tained the following amounts of arsenic, calculated as arsenious oxid:
Determination of arsenious oxid in wall papers.
Room.
Arsenious
oxid per
square
yard.
Room.
Arsenious
oxid per
square
yard.
Parlor
Grains.
0.830
1.340
(a)
6.130
1.230
.013
3.280
.040
1.960
Another bedroom:
Walls
Grains.
Hall .
0.000
Hall border.
Ceiling..
Border
.026
Dining room
7.630
Bedroom walls
1.480
Bedroom ceiling
Frieze
Servants' room
Storeroom
7. 130
Study walls
.940
Study ceiling
.339
Study border
"Large amount.
For several months after taking the home no trouble was experienced, but
toward the summer of 1884 Mr. A. and his wife, together with a gentleman who
occupied the house with them, began to feel some discomfort. This disappeared
during the absence of the family from the house during the summer, but began
«Shattuck, Trans. Path. Soc. of Phila., 1891-93, 1G: 285.
&Shattuck, Trans. Path. Soc. of Phila., 1891-93, 16: 285-300.
18 AESEN1C IN PAPEES AND FABEICS.
again soon after they returned in the autumn. The plumbing was in good con-
dition and the furnace was a new one. From the fact that the discomfort was
worse when the latter was in action the source of the trouble was attributed to
it. No immediate increase of symptoms followed the papering of the halls, but
the health of the family grew worse during the spring of 1885. The chief symp-
toms were trouble with the digestive organs and insomnia. The tongue was
heavily coated and the food seemed to " sour " in the stomach. Nausea was fre-
quent. There was much languor and dizziness, and the eyelids were badly
inflamed. In July the family moved away to the seashore and there was a
marked improvement, but on going back to the house for August the symptoms
appeared again , while return to the seashore for September brought immediate
relief. In the early autumn the symptoms returned, but were not at their height
until the furnace was used. The air of the room was tested for carbon monoxid
with negative results. Mr. A.'s symptoms increased to a greater extent than
those of the others and were accompanied by soreness of the abdomen and
abdominal pains at night.
During the last week of December, 1885, the source of the trouble was discov-
ered by a qualitative analysis of the papers. Pending the removal of the papers
the family left the house and experienced immediate relief, especially in sleeping,
but many of the symptoms continued for some time afterward. On January 7,
1886, a week after leaving the house, 1,750 cc of Mr. A.'s urine were analyzed and
contained 0.01 mg arsenious oxid per liter. The papers were replaced by abso-
lutely nonarsenical paper, and the health of the family gradually came to its
normal condition, although there was occasional digestive disturbance. The
elimination of arsenic from the system was apparently very slow. Eight hundred
cubic centimeters of the urine, analyzed March 31, contained about as much as
before, and 820 cc, analyzed May 26, contained 0.007 mg per liter. Some time
after this another sample of urine was sent to me at Annapolis, and was set aside
with several others until I could find time to take up the subject again. So much
time elapsed, however, before the analysis could be made that I do not consider
the results worthy of record. a
Case X.
Mr. D., after living in a room which contained no wall paper, removed to
another house and occupied a room in which the paper, a dark red, contained 1.42
grains [of arsenic] per square yard. About a month after moving Mr. D. began
to be troubled with severe headaches, which were attributed by one physician to
change of locality. These headaches continued for some weeks, and in addition
there was trouble with the eyes and throat. Another physician suspecting arsenic
poisoning, the paper was examined. Other papers in the house contained arsenic,
but were only qualitatively analyzed, and contained less than that of the room in
question. February 12, 1886, the urine contained 0.015 mg arsenious oxid per
liter. The paper was removed and a nonarsenical paper substituted. Improve-
ment began at once and the headaches soon disappeared. Here again was an
apparently slow elimination, as on June 18 the urine contained 0.003 mg per
liter. &
"Sanger, Case 1, Proc. Amer. Acad, of Arts and Sci., 1894, 29:112.
& Sanger, Case 3, loc. cit. In this and the following cases taken from Sanger's
paper the urine was always examined in the most careful manner, careful tests
being made to insure the absolute purity of the reagents.
CASES OF POISONING. 19
Case XI.
Mr. F. for six years previous to 1886 had occupied a large, sunny room and
generally spent sixteen to eighteen hours each day in it. Two or three years
before the report of the case several stuffed birds and animals, preserved by the
application of arsenious oxid, were placed in the room. The wall paper contained
0.073 grain per square yard and the border 0.005 grain. The paper of an adjoin-
ing bedroom contained 0.3 grain per square yard. The analysis of the last was
made from a sample taken from the wall, with portions of an old, adhering, under-
lying paper. Mr. F. for nine months previous to April, 1886, noticed perceptibly
a train of nervous disturbances, as occasional attacks of dizziness and unsteadi-
ness, a feeling of depression, and loss of muscular power. He suffered also from a
constant coryza and dry cough. He had no gastric or intestinal disturbance. The
presence of the birds suggested a possible explanation of the symptoms; 1,500 cc
of urine were analyzed April 12, 1886, and contained 0.03 mg arsenious oxid per
liter. The birds were removed and the walls and room cleaned, but the papers
were left on the walls. April 26, 1,350 cc showed 0.026 mg per liter. Mr. F.
improved in general health after removal of the birds, but the elimination of
arsenic was apparently slow. June 14, Mr. F. began to take 5 grains potassic
iodide three times daily, which seemed, as in the above cases of Lorinzer and
Miiller, slightly to increase the elimination, as on June 21 the amount from 1,320
cc was at the rate of 0.006 mg per liter. Yet on July 16 there was still a trace,
1,270 cc giving 0.002 mg per liter. This is possibly explained by the presence
of the wall papers or by the fact that the carpets had not been shaken. The
iodide was discontinued, and Mr. F. went away for two months, returning feeling
very well physically, the symptoms alluded to having mainly disappeared. «
Case XII.
Doctor G-. had a patient who, he said, suffered from malarial toxaemia. This
patient was medicated with quinine, but the symptoms still persisted. The patient
was then placed upon the solution of potassium arsenite, 3 drops three times a
day. The first dose aggravated the symptoms to such an extent that the physician
became alarmed and brought the vial to me for analysis. Analysis proved the
contents of the vial to be standard United States Pharmacopeia solution of potas-
sium arsenite. During the conversation I elicited the fact that a sojourn over the
lake for a day or two was quite sufficient to ameliorate the symptoms without the
use of medicine. I suggested that the cause might be chronic arsenical poisoning,
and recommended that the wall paper be analyzed. The paper contained 4.5
grains of arsenic per square foot.
The objectionable paper was removed, other paper that was nonarsenical in
character was hung instead, and the patient rapidly recovered from her ailment,
has not been away from the city, and has occupied the same sleeping room since. h
Case XIII.
Charles W. was born August 15, 1900, about three weeks premature; he was the
first child and weighed about 5 pounds. He was normal at birth, but an hour or
two later became blue and collapsed. As it was warm weather he was not placed
in an incubator, but was put at once into his baby basket. This was lined with
bine sateen and had a canopy of the same material. He Was fed from the beginning
on modified milk * * *. Although the heart was examined repeatedly noth-
a Sanger, Case 5, loc. cit.
6 Trans, of the La. State Med. Soc, New Orleans, 1898, p. 118, Case 3.
20 ARSENIC IN PAPERS AND FABRICS.
ing abnormal was found until September 30, when a faint systolic murmur was
heard at the apex. About the 1st of February he ceased to gain and lost his appe-
tite. About the middle of February he began to lose color rapidly, and by the
1st of March the pallor was very marked. Two or three days later he began to
pass his urine often, but in small amounts; it stained the diapers red. At this
time, March 8, Doctor Ogden found a trace of arsenic in the urine. Almost every-
thing in the room was at once examined for arsenic. The blue sateen with which
the basinette was lined contained a trace of arsenic; nothing else contained an
appreciable amount. There seemed no doubt that the source of the arsenic in
the urine was to be found in the blue lining of the basinette. He was taken
March 12 and put in another room that contained no arsenic; after this he
improved. a
• Numerous cases of arsenical poisoning brought about through the
agency of wall papers, fabrics, etc., are cited by Wood, Sanger, Put-
nam,6 and others, but will not be quoted further, since enough typical
cases have been given to show that arsenical poisoning from these
sources is of common occurrence, and that often only a small amount
of arsenic is necessary to cause symptoms of poisoning. It will also
be noted that several of the cases quoted occurred during the last few
years, so that this constant source of danger to the community may
be considered to be still in existence.
Of the thirteen cases cited above, examinations of the urine were
made in six instances. It was found where the case was followed up
that the urine first contained relatively large amounts of arsenious
oxid (from about 0.01 to 0.03 mg per liter0) and that this quantity
very gradually decreased, so that at the end of from two to four
months 0.002 to 0.003 mg of arsenious oxid per liter was excreted.
None of the cases quoted above were followed for a sufficiently long
time to see if the elimination of arsenic would entirely cease. In one
of the cases quoted by Sanger, but not mentioned here, it was found
that about eight months after removing a patient from arsenical sur-
roundings the elimination of arsenic had ceased.
In the recently published work of Gautier and Bertrand it is stated
that arsenic is a normal constituent of the body.'* If such be the case,
it is extremely likely that a very minute amount is constantly excreted
in the urine. In this case it would appear that if Sanger had had
sufficiently large quantities of urine and had followed the extremely
delicate modification of the Marsh-Berzelius method devised by Gau-
tier and Bertrand he would very likely have found that the excretion
of arsenic never ceased entirely. Even if arsenic is always present
« Morse, Archives of Pediatrics, New York, 1901, 18: 702.
* Putnam, Boston, Mass., Med. and Surg. J., 1889, 120: 235.
cIn some of the cases quoted by Sanger as much as 0.068 mg of arsenious oxid
per liter was eliminated in the urine.
<* While the two authors differ to some extent in their opinion concerning
arsenic, one believing that it is localized in certain organs and the other that it
occurs in all living tissues, yet they both believe that it is a normal constituent
of at least some of the living tissues.
CASES OF POISONING. 21
in urine, however, its determination therein is not robbed of any of
its diagnostic value, for the following reasons: (1) It is not excreted
normally in anything like the quantities in which it is found in the
urine of persons poisoned by this substance, (2) the usual methods of
analysis will not detect it at all, and (3) it will not gradually decrease
unless more than the normal amount has been stored up in the body.
The presence of arsenic as a normal constituent of the body, if such
be the case, helps to explain why its elimination from patients suffer-
ing from wall-paper poisoning is so slow. It might easily happen
that the ingestion of minute quantities of arsenic dajr by day would
lead to an increased production of those arsenical compounds nor-
mally present in the tissues, just as a constant diet of fat would lead
to a storing up of this substance in the organism. Such being the
case, the excess of arsenic would only be excreted as fast as the tissues
containing it were broken down and replaced by new material. In
case this deposition was principally in those tissues that are more
slowly changed, such as bone, nervous tissue, etc., the elimination
of arsenic would be correspondingly slow.
Having established the fact that arsenic can be set free from wall
papers, either as a gaseous compound or as a powder, and having
cited numerous instances to show undoubted cases of poisoning by
arsenical wall papers, fabrics, playing cards, etc., the next point of
interest to the public is to ascertain whether papers and fabrics as
now sold contain sufficient quantities of this poisonous substance to
be dangerous, and to point out whether the general tendency is toward
a betterment of these conditions or the reverse.
ARSENIC CONTENT OF WALL PAPERS AND FABRICS SOLD ON
THE AMERICAN MARKET.
COMPILED INVESTIGATIONS.
In 1872 Draper a published an article calling attention to the wide-
spread use of Paris and Scheele greens as pigments in coloring arti-
ficial flowers, articles of dress, pastry ornaments, toys, house paints,
glazed papers, and paper hangings. He published the analysis of
three such papers. The first, a green glazed paper for covering
boxes, contained 78.03 grains of arsenic per square yard; the second,
an unglazed light-green wall paper, 48.78 grains per square yard, and
the third, a brilliant green glazed wall paper, 203.88 grains per square
yard. b It is evident from the above analysis and from the personal
investigations of Draper carried out in manufacturing plants that the
employment of Paris and Scheele greens, either alone or diluted with
« Report Mass. State Board of Health, 1872, p. 18.
6 It is not plain whether metallic arsenic or arsenions oxid (commonly called
arsenic) is meant. In all analyses made by the authors the term " arsenic " refers
to metallic arsenic.
22
ARSENIC IN PAPERS AND FABRICS.
some material to change the tint, to color such articles as are men-
tioned above, was very common in this country some thirty years ago.
In 1883 Wood" published a paper on Arsenic as a Domestic Poison.
He mentioned the fact that Paris and Scheele greens are often used
as pigments, and called attention to the use of colors which contain
arsenic as an impurity because of the use of this substance in their
manufacture, such as fuchsin, magenta, safranin, and some analin
maroons and browns. He also mentioned several mordants which
contain arsenic and are used to fix purple and red colors. Following
is a list, description, and analyses of several papers and fabrics
examined by this investigator.
Table I. — Analyses of wall papers and fabrics, 1882 (Wood).
No.
Description.
Price per
roll.
Arsenious
oxid per
square
yard.
1
Wall paper:
Brown, green, and white
$0.75
.75
.60
.75
.75
1.50
.50
.60
3.00
.60
.75
1.50
.60
.60
.35
.50
.35
.50
.20
1.75
2.00
2.00
Grains.
1.25
?
Blue and white
1.25
a
1.67
i
5
Blue, gold, and green
1.25
6.74
6
6.27
7
2.09
8
.84
9
Blue, gold, brown, and green
1.67
10
Brown, gold, and red
.59
11
Drab
2.50
1?
Variegated brown and green
2.93
13
.84
It
.84
15
2.50
16
1.25
17
Do
2.50
18
Brown and black
1.67
19
3.76
20
Do.
2.50
21
Variegated brown and gold
5.48
??,
Do
3.58
23
Maroon
3.99
24
Green, blue, and brown
.20
0.00
?5
Glazed paper:
Green
22.65
26
Do
55.88
91
Do
40.70
?8
Blue
(a)
?I9
Red
(6)
an
Do
31
Do
1 8.89
3*
Do...
(b)
33
Do
6
34
Purple
1.24
85
Calico, white, yellow, red, green, and brown
1.05
36
Cloth, turkey red
1.25
« Considerable amount. *> Large ar
Qount.
It is evident from the above table that in 1882, when the analyses
were made, the presence of comparatively large quantities of arsenic
in papers was very common, and that not only the greens but other
colored papers contained this objectionable substance. It also
appears that the arsenic was not usually present as one of the con-
stituents of the pigment (for the figures for this substance under such
"Report Mass. State Board of Health, 1883, p. 213.
COMPILED INVESTIGATIONS.
23
circumstances would have been much higher), but was introduced as
an impurity in the pigment or in the mordant used. In only one case
was the arsenic as low as is now required by the laws of Massachu-
setts, namely, 0.1 grain of metallic arsenic per square yard for papers
and 0.01 grain for dress goods.
In 1891 the legislature of Massachusetts authorized the State board
of health to make investigations in regard to the existence of arsenic
in papers, fabrics, and other commonly used articles. In compliance
with this authorization Hills a made an investigation, which was pub-
lished the same year. He found from analyses previously made by
him of 1,914 wall papers, during the years 1879, 1880, and 1881, that
67.9 per cent were nonarsenical, and 32.1 per cent arsenical, while
from analyses made during 1889, 1890, and 1891, of 2,142 wall papers,
67.9 per cent were found to be nonarsenical, 26.1 per cent to contain
less than 0.05 grain6 per square yard, 3.1 per cent to contain 0.05 to
0.10 grain per square yard, and 2.9 per cent to contain over 0.10 grain
per square yard. He called attention to the fact that the first series
of papers was examined by a much less delicate method than the
second series, so that many papers which were reported as non-
arsenical the first time would doubtless have been found to contain
arsenic if the more delicate method had been used. Besides the
above samples of wall papers, 92 collected from all parts of Massa-
chusetts during 1891 were examined. It was found that 47.8 per cent
were nonarsenical, 41.3 per cent contained less than 0.05 grain per
square yard, 6.5 per cent contained between 0.05 and 0.10 grain per
square yard, and 4.3 per cent contained more than 0.10 grain per
square yard.
Of 88 samples of "glazed and plated" papers 69.3 per cent were
nonarsenical, 21.6 per cent contained less than 0.10 grain of arsenic
per square yard, and 9.1 per cent contained more than 0.50 grain per
square yard. Of 32 samples of tissue paper (especially reds and
greens) 56.3 per cent were nonarsenical, and 43.7 per cent contained
only minute traces.
The results of the examination of textile fabrics are given in the
following table:
Table II. — Determination of arsenic in textile fabrics, 1891 (Hills).
Nature of sample.
Number
examined.
Non-
arsenical
samples.
Less than
0.05 grain
per square
yard.
Between
0.05 and
0. 10 grain
per square
yard.
Above 0.10
grain per
square
yard.
House furnishings
300
393
33
30
Per cent.
66.3
56.3
100.0
93.3
Per cent.
14.3
23.1
Per cent.
2.7
4.8
Per cent.
16.7
Prints and ginghams
16.8
Woolens
Silks
6.7
1
a Report of Mass. State Board of Health, 1891, p. 701.
b Estimated as arsenious oxid.
24
ARSENIC IN PAPERS AND FABRICS.
In 1900 the State legislature of Massachusetts passed a law limiting
the amount of arsenic" in papers and woven fabrics other than dress
goods to 0.10 grain per square yard, and the amount in dress goods
and articles of dress to 0.01 grain per square yard. Leach6 has pub-
lished the results of his investigations during 1901 carried cut in
accordance with the provisions of the law. The
summarize the results of his work:
following tables
Table III. — Arsenic in paper
and woven fabrics other than dress goods, 1901
(Leach).
Character of sample.
Bed ticking .-
Carpeting
Colored paper for box covers
Cotton drapery
Crepe paper
Upholstery goods
Wallpaper
Number ; Free from
examined, arsenic.
| Arsenic i Arsenic
above legal below legal
! amount, j amount.
14
Per cent.
100.0
44.4
90.0
ioo.6"
79.3
74.3
Per cent.
100.0
Per cent.
55.6
10.0
5.7
20.7
20.0
Table IV. — Arsenic in dress goods and articles of dress, 1901 (Leach).
Character of sample.
Number
examined.
Free from
arsenic.
Arsenic
above legal
limit.
Arsenic
below legal
limit.
1
73
22
9
14
19
11
39
31
1
1
1
2
2
Per cent.
Per cent.
Per cent.
100.0
Cotton dress goods, prints, etc . . .
60.3
95.5
55.6
57.1
88.9
100.0
15. 4
8.2
31.5
Cotton linings, cambrics, etc
4.5
Cotton, single color-
44.4
Fancy sleeve and vest linings _
28.6
14.3
Miscellaneous
11.1
Silk ribbons
Stockings:
Black cotton
28.2
100.0
100.0
56.4
Blue cotton
Brown cotton
Red cotton
100.0
Blue woolen
100.0
50.0
Turkey red
50.0
Cotton gloves, black..
100.0
The above figures for wall paper can not be compared with those
obtained ten years earlier by Hills, since some of them were obtained
upon wall papers from old stock which had been withdrawn from the
market because of their high arsenic content. It can be seen, how-
ever, that the percentage of honarsenical papers had increased
markedly during ten years.
On comparing the "glazed and plated" papers of Hills with the
"colored papers for box covers" of Leach it will be noted that the
nonarsenical papers had increased materially, while the papers con-
taining more than 0.10 grain of arsenic per square yard had decreased
from 9.1 per cent to nothing.
"By the term " arsenic " is meant metallic arsenic.
''Report of Mass. State Board of Health, 1901, p. 695.
METHOD OF DETERMINING ARSENIC. 25
A comparison of the figures given by Hills on prints and ginghams
with those on cotton dress goods, prints, etc., as tabulated above,
Shows that the nonarsenical had increased only slightly, while the
goods containing more than 0.01 grain of arsenic per square yard had
decreased to a marked extent. A comparison of other figures can not
be made because of different methods of reporting the results.
INVESTIGATIONS MADE IN THE BUREAU OF CHEMISTRY.
In consequence of the great importance of this question, the pro-
found influences which even minute doses of arsenic exert upon health,
as shown by the cases cited above, and the investigations recently
carried on in England in regard to " arsenical beer," the authors have
made a further study of wall papers, fabrics, furs, etc., both to ascer-
tain the present state of the American market in some locality other
than Massachusetts, where nearly all previous work has been done,
and to warn persons against certain goods which are probably injurious.
A large number of wall papers were purchased from merchants in
Washington, D. C, the idea being to obtain the goods of as many
manufacturers as possible. Both large department stores and smaller
stores were visited and samples of hangings, dress fabrics, stockings,
furs, etc. , obtained. It is believed that a representative collection of
most of these classes of goods has been obtained.
Method of Determining Arsenic.
In determining arsenic a modification of the method published by
Sanger a was used, by which the determination of as small an amount
as 0.005 mg is possible. Any amount below 0.G mg per square meter
is reported as a trace in the tables which follow. It would of course
have been possible to use the various precautions and methods of
procedure recently published by Bertrand, Gautier, and others, and
so to carry out the method that 0.0005 mg or less of arsenic could be
determined ; but it was thought that the method chosen was sufficiently
sensitive, since the most minute quantities of arsenic in papers and
fabrics have no significance. Following is an account of the method
as finally adopted :
REAGENTS.
The zinc, sulphuric acid, and nitric acid used in this experiment
must be strictly free from arsenic. To test their purity, run a blank
experiment using the reagents exactty in the proportions given below
for the actual determination. Allow the apparatus to run for at least
two hours, and at the end of this time, if no arsenic has been deposited,
the reagent is fit for use.
"Proc. Amer. Acad, of Arts and Sci., New Series, 1891, 18: 24.
26 ARSENIC IN PAPERS AND FABRICS.
METHOD.
Iii the case of wall papers, cut out a pattern measuring 4 inches by
3.25 inches (0.01 square yard) and in the case of dress goods a piece
measuring 12 by 10.8 inches (0.1 square yard). Cut up the piece so
obtained into smaller pieces and treat in a porcelain dish with 1 to 5
cc of a mixture of concentrated sulphuric acid and nitric acid (30 to
1). Allow the action to take place for a few minutes and add a few
drops of water, which from the heat generated will cause the paper to
be quickly attacked. Heat with a low flame until all of the sulphuric
and nitric acids are driven off, or at least until the residue has granu-
lated and the fumes of sulphuric acid become slight. Break up the
charred mass thoroughly, add a little water, and boil to get rid of
sulphurous acid. Filter through a small filter and wash to about 40
cc. Transfer this filtrate to the apparatus, which has previously been
prepared in the following manner.
APPARATUS.
This consists of a small flask witli a wide mouth, holding about 100
cc. Through one hole of a rubber stopper a separatory funnel passes
to the bottom of the flask. Through another hole in the rubber
stopper passes the exit tube, which is in turn joined to a Liebig bulb
containing a small amount of a solution of lead acetate to absorb any
selenium, tellurium, or sulphur. This in turn is joined to a calcium
chlorid tube, which is then attached to a long tube of very resistant
glass. This glass tube is drawn out at one point rather small, nearly
capillary, and the heat is applied about 0.5 inch before the drawn-
out portion. Heat with two Bunsen burners, neither of which plays
upon the glass directly but upon a piece of fine wire gauze wrapped
around the glass. When preparing this apparatus for use, add about
3 grams of arsenic-free granulated zinc to the wide-mouthed bottle
and then about 30 cc of arsenic-free sulphuric acid (1 to 8). Let
the apparatus run for fifteen minutes, after which apply heat for
approximately twenty minutes to be sure that no arsenic is present.*
The apparatus is now ready for the addition of the extract from the
wall paper or fabric previously mentioned. This is run in, and the
action is allowed to continue for one hour. The mirror thus formed
is compared with mirrors containing known amounts of arsenic, which
have been previously prepared with the same apparatus. The stand-
ard mirrors usually contain the following amounts of arsenic: 0.005,
0.01, 0.02, 0.03, 0.04, 0.05, 0.06, 0.065 (or 0.001 grain), and 0.07 mg of
arsenic. These mirrors should be in sealed tubes and be remade
about every three weeks, as they tend to fade a little upon standing.
When not in use they should be kept in a dark place.
In case a larger amount than 0.07 mg of arsenic is obtained, that
METHOD OF DETERMINING ARSENIC. 27
part of the tube where the mirror is deposited is cut off, carefully
wiped and placed in a desiccator. It is then weighed on an assay
balance capable of weighing to the fifth place. After this the tube is
dipped in a sodium hypochlorite solution to dissolve the arsenic,
washed with distilled water, then with alcohol, and finally with ether,
dried, placed in a desiccator, and weighed again. The difference in
the two weights represents the arsenic from the amount of material
taken. Both of these weighings must be made with the utmost care,
as a small error at this point will cause a large error in the result.
STANDARD SOLUTION.
The standard solution from which the mirrors are prepared is made
in the following way : Dissolve 0.0855 gram of dry C. P. arsenious
oxid in a sodium bicarbonate solution (free from arsenic) by boiling,
weakly acidify with sulphuric acid, and make up to 1 liter. Each cubic
centimeter of this solution contains 0.0855 mg of arsenious oxid,
equivalent to 0.0648 mg, or 0.001 grain, of arsenic, and is used to pre-
pare the standard mirror of 0.001 grain. Place 15.4 cc of this solu-
tion in a 100 cc flask and add water to the mark. Each cubic
centimeter of this solution represents 0.01 mg of arsenic. Aliquot
portions are used for making the remaining standard mirrors.
REMARKS.
The extra apparatus for generating hydrogen, such as is described
by Sanger in his article, was not used. It was found that by placing
the hydrogen-generating flask in a casserole of cold water the rate of
flow could be very nicely regulated. A Liebig potash bulb containing
lead acetate solution was also placed in the series. This was to rid
the gas of any of the hydrides of sulphur, selenium, or tellurium that
might be formed and afterwards broken up by heat and deposited
with the arsenic. No trouble was experienced in recovering all
arsenic, even though the arsin had been passed through a lead acetate
solution, since the tremendous flow of hydrogen, as compared with
the arsin, drove all of this substance which might have been dissolved
during the first part of the determination out of the solution before
the operation was completed.
Description of Samples and Analytical Results.
- In Tables V to XIII are given the data in regard to the samples col-
lected, their description, price, the country in which manufactured,
and the analytical results obtained as to arsenic content, expressed
both in grains per square yard and in milligrams per square meter.
Table V contains the results of the examination of Avail papers.
28
ARSENIC IN PAPERS AND FABRICS.
Table V. — Arsenic content of wail paper*.
Description of sample.
Country of origin.
Arsenic.
Serial
num-
ber.
Grains
per
square
yard.
Milli-
grams
per
square
meter.
Price
per
roll.
75
Wall paper:
France
England
0.046
.031
.046
.031
.023
.031
.031
.012
.012
.009
.015
.046
.023
a. 108
''Trace.
.031
. .046
.061
.054
.023
.007
.046
.061
.023
.085
.023
.031
Trace.
.000
.000
Trace.
.015
Trace.
.012
.038
.038
.023
.031
Trace.
.000
Trace.
.015
.023
Trace.
.012
.000
.031
.008
.046
.015
.031
.000
Trace.
.023
.000
.015
Trace.
.000
.131
.000
.008
.008
.023
.046
Trace.
.031
.015
.015
Trace.
Trace.
.000
.015
3.6
2.4
3.6
2.4
1.8
2.4
2.4
.9
.9
.7
1.2
3.6
1.8
8.4
Trace.
2.4
3.6
4.8
4.2
1.8
.6
3.6
4.8
1.8
6.6
1.8
2.4
Trace.
.0
.0
Trace.
1.2
Trace.
.9
3.0
3.0
1.8
2.4
Trace.
.0
Trace.
1.2
1.8
Trace.
.9
.0
2.4
.6
3.6
1.2
2.4
.0
Trace.
1.8
.0
1.2
Trace.
.0
10.1
.0
.6
.6
1.8
3.6
Trace.
2.4
1.2
1.2
Trace.
Trace.
.0
1.2
76
77
do
78
Red
...do
79
do
80
Do
do....
81
do
82
Germany
do
83
84
Yellow-
...do....
85
...do...
86
do...
87
Green, pink, white
England
$0.60
88
Do
do
.50
89
do....
.38
90
do
1.44
91
Germany
do
f r. 8. 00
92
5.00
93
Light green, brown . .
do
10.00
94
do. .
4.00
95
Blue
do
:.' on
96
Do
do....
3. 50
97
do...
5.50
98
Brown
France
1.30
99
Brown, red, yellow
do
9,00
100
Germany
France
2.50
101
Pink
102
s. 1 . 50
159
United States
do
$0.70
.40
160
161
Variegated green
do
.70
162
Do.
do
.50
163
Variegated red.
do..
.50
164
Do.
do
.40
165
...do....
.24
166
Frieze, pink, green
do
.24
167
Wall paper:
Variegated green
do
.22
168
Red, green, yellow
do
.40
169
Do
do
.50
170
White, blue
do...
.24
171
Variegated pink
do
.24
172
Variegated green
do
.24
173
Variegated red
.. do...
.24
174
Red, green, brown
...do....
.46
175
Frieze, red, green
do...
.24
176
Wall paper, green, red, brown
do
.46
177
...do...
.34
178
Wall paper:
do
40
179
Pink, blue, yellow
...do ...
.34
180
Red, brown
do
40
181
Brown, red, green
...do
24
182
Variegated green
...do .
40
183
Red, gold
do
24
184
Red, green
...do
34
185
Blue, red, yellow, green
...do...
.50
186
Pink, white
...do
24
187
Green, red, yellow
do
50
188
Variegated red
do
46
189
Green, red, white
...do...
34
190
Pink, white
do
:'l
191
Variegated blue
...do
24
192
Variegated red
do...
40
193
Green, brown, pink
...do
34
194
Green, gold
...do...
.24
195
Brown, Dlue, red, green
do..
.46
196
Blue, white
.do.
26
203
Pink, gold
....do
.10
204
Green, gold, pink, white
...do
.15
205
Green, gold, purple
do
.20
206
Blue, gold, pink
...do...
.26
207
Blue, gold, brown
....do
. 88
208
Green , red , gold
do
.20
« Figures in bold-faced type are above the Massachusetts limit.
t> If less than 0.6 milligram of arsenic per square meter is present, it is reported as a trace.
RESULTS OF ANALYSES.
29
Table V. — Arsenic content of watt papers — Continued.
Description of sample.
Country of origin.
Arse'iic.
Serial
num-
ber.
Grains
per
square
yard.
Milli-
grams
per
squaro
meter.
Price
per
roll.
309
210
Wall paper— Continued.
Variegated red, gold
Variegated blue, gold, yellow
Green, gold, yellow .- - .-.
Olive, gold, brown-
Gray, gold, pink .
Blue, gold, brown
Green, gold, brown
Red2 gold, pink..
Variegated red, gold
Yellow, gold
Green, gold, silver
Red, green
Green, gold, silver
Yellow, gold, red, green
United States....
do
0.023
.008
Trace.
Trace.
Trace.
.023
.031
.015
Trace.
Trace.
Trace.
Trace.
Trace.
.023
.015
.015
Trace.
.015
Trace.
Trace.
.000
Trace.
.038
.012
.000
Trace.
Trace.
.000
.015
Trace.
Trace.
.000
Trace.
Trace.
Trace.
Trace.
Trace.
Trace.
Trace.
Trace.
Trace.
Traca.
Trace.
Trace.
Trace.
Trace.
.000
.000
.000
.000
.000
Trace.
Trace.
.000
.000
.000
' .000
.000
.012
.023
.046
.023
Trace.
Trace.
.OCX)
Trace.
.015
.015
.012
.008
Trace.
.000
Trace.
Trace.
.000
.031
1.8
.6
Trace.
Trace.
Trace.
1.8
2.4
1.2
Trace.
Trace.
Trace.
Trace.
Trace.
1.8
1.2
1.2
Trace.
1.2
Trace.
Trace.
.0
Trace.
3.0
.9
.0
Trace.
Trace.
.0
1.2
Trace.
Trace.
.0
Trace.
Trace.
Trace.
Trace.
Trace.
Trace.
Trace.
Trace.
Trace.
Trace.
Trace.
Trace.
Trace.
Trace.
.0
.0
.0
.0
.0
Trace.
Trace.
.0
.0
.0
.0
.0
.9
1.8
3.6
1.8
Trace.
Trace.
.0
Trace.
1.2
1.2
.9
.6
Trace.
.0
Trace.
Trace.
.0
2.4
10.20
.20
211
do
.20
212
do.
.24
213
....do...
.24
214
do...
.28
215
do.
.28
216
do..
.28
217
...do..
21 8
do....
.14
219
do.
.16
220
. .do--
.16
221
do..
.16
222
do.
.14
223
. do
.12
224
225
Red, green, gold
Green, gold
Brown, red, green, gold
Blue
Green..
Pink
Green, white
Green, white, gold
Red, pink, gold
Blue, silver
Green
Silver, yellow, red, green
Violet, red, green
Pink, gold
Variegated brown , green
Variegated brown, blue
Variegated brown, green
Green, brown, red, black
Red , yellow , blue, black
Brown, green
Blue, green, red
Red, green
Red, blue, yellow, black...
Green, brown.
Blue, green
Yellow, green
White, green
Blue, white
Red, white...
Green, red, brown
Variegated blue
Pink, green
Green, red
White,red.
Green , white
do ......
do
.16
.20
226
do
.24
227
do.
.30
228
...do..
.30
229
do....
.30
230
.....do
.30
231
.do...
.35
232
....do...
.28
233
....do....
.30
234
do.
.16
235
.do..
.20
236
....do....
.20
237
....do
.30
238
do
.40
239
-do.
.40
240
....do
.30
241
do
.40
242
.do...
.40
243
....do
.50
244
do
.50
245
..do...
.50
246
....do
.40
247
do
.40
248
...do...
.18
249
....do
.20
250
do.
.22
251
. .do...
.20
252
do
.24
253
do
.22
254
. .do...
.24
255
....do
.16
256
.do...
.20
257
...do...
.25
258
....do
.18
259
.do.
.15
260
Pink, green, gold, silver
. ..do
.10
261
Blue, green, purple
....do ..
.12i
262
..do...
.12*
287
Green, gold
....do
.35
288
do
.40
289
Brown, green, gold
. .do
.32
290
Red, green, gold
....do
.35
291
.do.
.30
292
Red, green, gold
....do...
.28
293
.do...
.40
294
Variegated blue , gold
...do
.35
- 295
do
.30
296
White , gold, yellow
...do
.18
297
do
.30
298
299
Red, pink, gold, green
do.
do...
.35
.30
300
Blue, gold
...do..
.25
301
Green, gold. .
do...
.20
302
Red, gold
...do
.20
303
Green, gold.
do ..
.20
304
Green, gold, yellow
...do
.30
305
Red, gold
do
.25
306
-do
.25
307
Green, pink, gold
...do
.25
308
Blue, gold
do
.24
30
ARSENIC IN PAPERS AND FABRICS.
Table V. — Arsenic content of wall papers — Continued.
Serial
num-
ber.
310
311
Description of sample.
Country of origin.;
Arsenic.
Grains
Milli-
per
grams
per
yard.
square
meter.
Trace.
Trace.
0.015
1.2
.015
1.2
Trace.
Trace.
.023
1.8
.000
.0
Trace.
Trace.
.015
1.2
Trace.
Trace.
.046
3.6
Trace.
Trace.
.038
3.0
.000
.0
.046
3.6
.015
1.2
.015
1.2
Trace.
Trace.
.000
• .0
.015
1.2
.000
.0
.031
2.4
Trace.
Trace.
.031
2.4
.008
.6
.008
.6
.081
2.4
Trace.
Trace.
.046
3.6
.031
2.4
.015
1.2
Trace.
Trace.
Trace.
Trace.
Trace.
Trace.
Trace.
Trace.
Trace.
Trace.
.061
4.8
.015
1.2
.031
2.4
.108
8.4
.015
1.2
Trace.
Trace.
.031
2.4
.000
.0
Trace.
Trace.
Trace.
Trace.
.031
2.4
.015
1.2
.031
2.4
Trace.
Trace.
.015
1.2
.031
2.4
.031
2.4
Trace.
Trace.
.031
2.4
.008
.6
.015
1.2
Trace.
Trace.
.015
1.2
Trace.
Trace.
.000
.0
Trace.
Trace.
Trace.
Trace.
.000
.0
.000
.0
1342
343
344
345
347
348
349
350
351
352
353
354
355
356
357
358
359
360
361
:*52
363
•m
365
366
367
370
*371
3,2
373
374
375
376
377
378
379
380
381
382
436
437
439
440
441
442
443
444
445
446
447
448
449
450
451
452
468
454
455
Wall paper— Continued.
Brown, green, gold
Pink, green, gold
Blue, gold, red
Border paper:
Blue, gray, gold
Pink, green
Gold, green, silver
Wall paper, blue...
Border paper:
Red, green. . .
Green, silver, gold .
Green, gold..
Wallpaper, green
Border paper, red green, gold
Wall paper, green
Border paper, green, gold, white
Wallpaper, green
Border paper, blue
Wallpaper, blue
Border paper:
Blue, gold, white
Blue, gold, pink
Wallpaper, blue..
Border paper, green, red, brown
Wall paper, olive
Border paper:
Yellow, pink, gold.
Green, brown, gold
Wallpaper, gray
Border paper:
Green, brown, gold, yellow
Pink, blue, brown, gold
Pink, green
Green, red, gold, pink
Green, red, gold.
Wall paper, green
Border paper, green, red
Wall paper:
Green
Flesh
Border paper, pink, gold, green
Wall paper, brown
Border paper:
Red, green, gold
Do
Wallpaper, red .,
Border paper, red, pink, gold
Wallpaper, brown.
Border paper, green, red, gold
Wall paper, green
Border paper, green, pink, gold
Wall paper, green, brown, gold
Border paper, pink, blue, green, gold.
Wall paper:
Pink, blue, green, gold
Green, gold, brown
Red, gold
Green, gold
Red, gold
Green, gold, black
Green, gold, pink
Red, gold, green
Red, brown, green
Green, red, gold
Do
Border paper, blue, red, gold
Wallpaper:
Blue, red, gold
Blue, pink, green
Red, gold + ...
Green, red, gold
Pink, silver
Green, silver
United States.
....do
.—do..
....do
....do
....do
—do
....do
....do
....do
....do
....do
.—do
....do
—do
....do
—do
....do
do
....do
—do
— .do
.do...
.do.,
.do..
.do...
.do.-,
.do.,
.do...
.do...
.do.,
.do..
.do.,
.do...
.do...
.do...
.do.,
.do.,
-do...
.do.,
.do.,
.do.-
.do..
.do_-
.do.o .
.do..
.do...
.do...
.do.,
-do.,
.do.,
.do.,
.do.,
.do...
:do..
.do.,
.do...
.do..
.do.,
.do.,
.do.,
do.,
.do.,
.do..
I
«Nos. 436-468, inclusive, Nos. 595-641, inclusive, and No. 858 are samples from Massachusetts,
the only State which has enacted a law restricting the use of arsenic in papers and fabrics.
RESULTS OF ANALYSES.
Table V. — Arsenic content of wall papers — Continued.
31
Country of origin,
Arsenic.
Grains
per
square
yard.
Milli-
grams
per
square
meter.
Price
per
roll.
456
457
458
459
460
481
462
463
464
465
466
467
468
468
4711
471
472
473
474
47.">
476
477
478
479
480 J
481
482
483
4>'4
4^5
486 I
487
488
489
490
49L
519
520
521
522
523
524
525
526
527
528
529
530
531
532
533
534
;>:*;
537
538
559
540
541
542
54:5
544
545
546
547
54s
549
55 1
551
.do
.do.
.do
do
.do
.do
.do
.do
.do.
.do
.do
Wall paper— Continued.
n, gre
Blue, red ! do . .
Red, green, brown. do,.
Red , green ' do . .
Red. green, blue, black ! do . .
Red, green, black do . .
Red, white.. ' do..
Green, white i do..
Green, yellow ' do . .
Green, pink ( do..
Green, brown ' do..
Red, green do..
Yellow, green do . .
Variegated green j do . .
Vari?gated red do . .
Border paper, blue, brown, yellow, green do ..
Wall paper:
Blue, silver j do .
Pink, silver ( do..
Ceiling paper, brown, green ...! do
Wall paper:
Green, white
Red
Blue, pink, green, yellow
Purple, green, yellow
Border paper, pink, blue, green, yellow.
Wall paper:
Blue, silver
Red, silver
Green, white
Ceiling paper, variegated pink
Wall paper, variegated red
Border paper, green, pink*
Wall paper:
Green, silver
Brown, silver
Green, silver
Blue, silver
Green, silver
Variegated green
Border paper, pink, white
Wall paper:
Gray , white
Light green, white
Do
Brown, white
Pink, white
Light green, white
Brown, white
Variegated red
Brown, white j do.
Green, white _ do.
Do do.
Ceiling paper, variegated red do.
Wall paper:
Variegated red do .
Green, white do.
Gray, white do .
Green, brown ' do.
Brown, red do.
Blue, white ' do.
Variegated green ' do.
Green, yellow | do.
Variegated red do.
Silver, yellow do.
• Silver, green ; do .
Silver, blue.. , J do.
Silver, yellow ! do.
Silver, dark green do .
Silver, pink do.
Green, white , do.
Blue, white do.
Red. white ' do.
Purple, white - - I do .
.do
.do.
.do.
.do.
.do.
.do.
.do
.do
.do
.do
.do
.do.
.do,
.do
.do
0.000
0.0
Trace.
Trace.
.(M)0
.0
.000
.0
.000
.0
Trace.
Trace.
Trace.
Trace.
.000
.0
.023
1.8
Trace.
Trace.
.000
.0
.000
.0
.000
.0
.000
.0
000
.0
.000
.0
.000
.0
.000
.0
.000
.0
.000
.0
.000
.0
.coo
.0
.000
.0
.000
.0
.000
.coa
.000
.000
.000
.000
.000
.000
.000
.000
.000
.000
.077
.062
.031
.015
.015
.000
.015
.000
.000
.015
.015
.031
.015
.0
.0
.0
.0
.0
.0
.0
.0
.0
.0
.0
.0
6.0
4.8
2.4
1.2
1.2
.0
1.2
.0
.0
1.2
1.2
2.4
1.2
$0. 12£
.18
.18
.15
.16
.14
.18
.16
.10
.12}
.10
.15
.15
.20
.25
.50
.20
.20
.20
.20
.25
.20
.20
.50
.20
.20
.20
.20
.20
.20
.15
.15
.15
.15
.15
.15
3.95
3.79
3.79
3.79
3.79
3.79
3.79
3.79
3.81
3.79
3.79
3.79
3.81
.000
.0
3.81
.061
4.8
3.79
.031
2.4
3.79
.015
1.2 j
.09
Trace.
Trace.
.09
.000
.0
.124
.000
.0
.124
.000
.0
.124
Trace.
Trace.
.124
.000
.0
.10
.000
.0 i
.10
.000
.0
.10
.000
.0 1
.12|
.000
.0 !
.124
.000
.0
.124
.000
.ol
.10
Trace.
Trace.
.10
.000
.0
.10
Trace.
Trace, i
.10
5050— No. 86—04-
32
ARSENIC IN PAPERS AND FABRICS.
Table V. — Arsenic content of ivall papers — Continued.
Serial
num-
ber.
552
553
554
555
556
557
558
559
560
561
562
563
564
565
536
567
568
569
570
571
572
573
574
575
576
577
578
579
580
581
582
583
584
585
595
596
597
598
599
600
601
602
603
604
605
608
607
608
609
610
611
612
613
614
615
616
617
618
619
G22
623
625
627
630
681
csa
631
Description of sample.
Country of origin.
Wall paper — Continued.
Old rose, white United States..
Pink, flesh _. do
Variegated blue do
Green, brown do
Variegated pink do
Variegated yellow.. do
Variegated green do
Green, yellow c!o
Variegated pink do
Do. do
White, blue do
White, green.. do
Variegated red do
Purple, white do
Blue, white j do
Variegated pink do
Green, white do
Variegated green.. \ do
Purple, white I do
Olive, whit >. do
Variegated green do
Variegated xe.l do
Variegated green do
Do do
Variegated blue ! do
Brown, red do
Variegated green. do
Green, yellow d j
Red, black ; clo
Do do
Blue, yellow j do
Variegated yellow. do
Variegated green do ... «.
Variegated red ' do
Brown, green ...do." ...
Blue, white do
Green, white do
Yellow, white, pink do
Do do
Blue, white, yellow do
Green, pink, white do
Red, brown, green, white do
Blue, pink, green, white do
Blue, pink, green, yellow do
Pink, green, white, blue do
Do do
Blue, white do
Green, purple, brown, white ..do
Green, pink, brown, white do
Green, yellow, white... do
Green, red, white \ do
Green, purple, while, yellow do
Green, purple, white, brown do
Pink, green, purple, white do
Blue, pink, green. do
Pink, green, blue, white do
Blue, white do
Green, red do
Variegated green do
Yellow, green, brown, white do
Blue, green, brown, white | do
Red, blue, brown, white .
Green, white
Do
Pink, white
Blue, green, white
Yellow, green, white
Blue, white
Pink, green, white, gray.
Blue, pink, green, white, gray.
Yello w, brown
Blue, gray
Pink, white
Pink, green, white
. d< ■
.do
.do
.do
.do
.do
.do
.do
.d i
.do
.do
.do.
do
Arsenic.
Grains
Milli-
per
square
yard.
grams
per
square
met^r.
0.000
0.0
.000
.0
.000
.0
.000
.0
.000
.0
.000
.0
Trace.
Trace.
Trace.
Trace.
.000
.0
.015
1.2
.031
2.4
.031
2.4
.000
.0
.031
2.4
.000
.0
.000
.0
.000
.0
.000
.0
.031
2.4
Trace.
Trace.
Trace.
Trace.
.000
.0
.000
.0
.000
.0
.000
.0
.000
.0
.000
.0
.015
1.2
Trace.
Trace.
Trace.
Trace.
Trace.
Trace.
.000
.0
Trace.
Trace.
.000
.0
Trace.
Trace.
.000
.0
.000
.0
.015
1.2
.015
1.2
.000
.0
.000
.0
Trace.
Trace.
Trace.
Trace.
.000
.0
.000
.0
Trace.
Trace.
.023
1.8
.046
3.6
Trace.
Trace.
Trace.
Trace.
Trace.
Trace.
.000
.0
.111.-.
1.2
Trace.
Trace.
.000
.0
.000
.0
.000
.0
.000
.0
.031
2.4
.000
.0
.000
.0
.000
.0
.000
.0
.000
.0
.000
.0
Trace.
Trace.
.000
.0
.000
.0
.000
.0
Trace.
Trace.
.081
2.4
.015
1.2
.000
.0
.000
.0
"Nos. 436-468, inclusive. Nos. 595-641, inclusive, and No. 853 are samples from Massachusetts,
the only State which has enacted a law restricting the use of arsenic in papers and fabrics.
RESULTS OF ANALYSES.
33
Table V. — Arsenic content of wall papers. — Continued.
Serial
num-
ber. |
Description of sample.
635
636
637
638
638.'.
my
640 |
641 i
655 |
656
657 I
658
659
660
661
662
663
664
665
670
671
673
674
675
676
677
678
679
680
681
682
683
684
685
686
700
701
702
708
704
705
706
707
70S
709
710
711
712
713
714
715
il6
717
721
722
723
7:.' \
7:>5
72i»
727
728
"Wall paper— Continued.
Pink, green, white .
Variegate :1 green
■ lack,
Country of origin
United State?.
.....do
Arsenic.
Grains J££;
per g™ms
*ES! square
J""u* meter.
Brown, black, blue, red, green do .
Do do
Green, pink, brown, white do .
Green, pink, red, white do.
Green, pink, purple, yellow do .
Pink, wnite j do .
Oil wallpaper, green, white.. do.
Oil border paper, green, white ' do
Oil wall pap3i\ green, white, blue do .
Oil border paper, blue, yellow, white ; do
Oil wall paper, blue, brown, white.. do
Oil border paper, yellow, blue, white j do.
Oil wall paper:
Blue, green, white I do
Red, green, white ; do .
Oil border paper, brown, green, white | do.
Oil wall paper, brown, green, white do.
Oil border paper, green, white do .
Oil wall paper, green, white ! do .
Oil border paper, blue , green , yellow, white . j do .
Oil wall paper:
Blue, green, brown, white ..' do .
Green, blue, white ' do .
Oil border paper:
Green, brown, white do .
Brown, white do.
Oil wall paper, variegated brown, green, j do.
white.
Oil border paper:
Blue, green. white j do.
Green, white i do .
Oil wall paper:
Green, white ! do .
Do.. | do.
Blue, yellow, white. '' do .
Green, blue, white ' do .
Brown, blue, white do .
Oil border paper:
Blue, green, white. ' do.
Green, white do .
Oil wall paper:
Green, white do .
Green, brown, white do .
Do.. do.
Blue, brown, white do .
Oil border paper, brown, green, white do.
Oil wall paper, green, white do
Wall paper:
Red, yellow, brown England
Green, red, brown do
Blue, brown, yellow do
Green, pink, red do
Yellow, purple, pink, gr^en do
Variegated red < do
Brown, blue d >
Variegated blue '■• do
Variegated red do
Brown, red, blue do
Blue, white... do
Pink, white .do
Pink, white, green do
Blue, white, yellow do
Blue, green, pink -t do
Yellow, white do
Green, white •„ do
Red, white do
Green, pink do
Green, brown, pink do
Brown, yellow.. do
Red, green, white do
Blue, brown, pink do
Variegated red do
Blue, white do
Pink, white do
0.000
.000 i
.015 I
.ooo j
.000 I
.000
.ooo •
Trace.
.000
.000
Trace.
.000 i
.000
Trace.
.000
.000
.000
.000
.000
Trace.
.000
.000
Trace.
.000
.000
.000
Trace.
Trace.
.000
Trace.
.000
.000
.000
.000
.000
.000
.000
.000
.000
Trace.
Trace.
.015
.077
.046
.015
.031
.031
.107
.015
.015
.077
.015
.015
Trace.
Trace.
Trace.
Trace.
.046
.031
.000
.031
.000
Trace.
.000
.015
.031 j
Trace.
0.0
.0
1.2
.0
.0
.0
.0
Trace.
.0
.0
Trace.
.0
.0
Trace.
.0
.0
.0
.0
.0
Trace.
.0
.0
Trace.
.0
.0
.0
Trace.
Trace.
Trace.
.0
.0
.0
.0
.0
.0
.0
.0
.0
Trace.
Trace.
1.2
6.0
3.6
1.2
2.4
2.4
8.4
1.2
1.2
6.0
1.2
1.2
Trace.
Trace.
Trace.
Trace.
3.6
2.4
.0
■2.4
.0
Trace.
.0
1.2
2.4
Trace.
34
ARSENIC IN PAPERS AND FABRICS.
Table V. — Arsenic content of tvall papers — Continued.
Description of sample.
Country of origin.
Arsenic.
Serial
num-
ber.
Grains
per
square
yard.
Milli-
grams
per
square
meter.
Price
per
roll.
729
Wall paper— Continued.
England
0.031
Trace.
Trace.
.000
.000
Trace.
.000
.000
.000
.000
.000
.015
Trace.
Trace.
.015
.015
.000
.015
.000
.00;)
.000
.015
.046
.000
.015
Trace.
.031
.015
.031
.046
.031
Trace.
Trace.
.000
.000
.015
.015
.031
.031
.000
.046
.015
.015
.031
.015
.015
.015
.008
Trace.
.015
.077
.031
.015
.031
Trace.
.000
Trace.
.015
Trace.
Trace.
.015
Trace.
.031
.015
.061
.015
.015
Trace.
Trace.
Trace.
.000
Trace.
.046
Trace.
.031
Trace.
2.4
Trace.
Trace
.0
.0
Trace.
.0
.0
.0
.0
.0
1.2
Trace.
Trace.
1.2
1.2
.0
1.2
.0
.0
.0
1.2
3.6
.0
1.2
Trace.
2.4
1.2
2.4
3.6
2.4
Trace.
Trace.
.0
.0
1.2
1.2
2.4
2.4
.0
3.6
1.2
1.2
2.4
1.2
1.2
.6
Trace.
1.2
6.0
2.4
1.2
2.4
Trace.
.0
Trace.
1.2
Trace.
Trace.
1.2
Trace.
2.4
1.2
4.8
1.2
1.2
Trace.
Trace.
Trace.
.0
Trace.
3.6
Trace.
2.4
Trace.
$0.60
730
Red, blue, yellow ..
do
.4''.
731
do
.40
732
Yellow, green, pink
Green, pink, white
Variegated green
Variegated red
Blue, pink, green
Yellow, green, pink
Green, pink, brown..
Brown, red
Blue, brown .
Variegated pink
Variegated green
Red, green, white
Brown, blue, green, red
Blue, white
Yellow, green, white
Green, pink
Green, white
...do...... .
.40
733
do..
.50
734
735
do
do...
.40
.40
736
...do...
.78
737
do
.48
738
do
.60
739
do
.80
740
do
.80
741
. do...
. gfl
742
...do...
.56
743
...do....
1.04
744
do
.4t»
715
do
.40
746
747
--do
do...
.40
.44
748
. do...
.40
749
.40
751
Green, brown...
France
.90
752
Green, brown, Yellow
do
1.76
753
Green , yellow , pink
do.
.42
754
Brown, blue
do
.94
7.55
. do...
.76
756
Brown, blue, yellow
...do....
.72
757
Brown, green, pink
...do...
.50
758
Red, brown, blue
...do.
.80
759
Do
do —
.70
760
Red, brown, green
Germany
do
.50
761
Pink, brown, blue
.34
762
Blue, brown, vello w
do
.92
763
Brown, green, red
do
.50
764
do....
.30
765
Variegated red
do
.40
766
Green, pink, yellow
do....
.40
767
Green, red, brown
do
.86
768
Blue, red, brown
do
.86
769
Blue, red, green, brown
do
.60
770
Red, blue, brown
do
.70
771
Red, yellow, brown
do
.90
772
Blue, pink, brown
....do.
.60
773
Do
do
.60
774
Red, green, brown.
do..
.50
775
Brown, red, blue
...do...
.50
776
Variegated green
do
.50
777
Variegated red
do
.40
778
Variegated green
...do...
.25
779
Blue, brown, pink
...do.
.50
780
Red, yellow, blue
do
.50
781
Brown, yellow, purple .'
do
.80
782
Yellow, brown, blue
...do....
.60
783
Green, brown, blue
do
.70
784
Variegated red
.-do...
.72
785
Variegated green
do
.50
786
Do
. do...
.60
787
Variegated pink
...do
.60
788
Yellow, green, pink
do..,
.72
789
Green, brown
...do
.70
790
Purple, green, yellow
do
1.92
791
Brown, green, red
do
1.04
792
Brown, green, blue
...do
2.25
793
Variegated green
do
1.30
794
Blue, brown, red
...do
1.76
795
Green, pink
England ..
.52
796
Green, pink, brown.. .
...do
.50
797
Green, red, yellow
do
.7n
798
P.urple, green, yellow
.do
.76
799
Green, pink, yellow
...do
.76
800
Red, green, blue, yellow
do
.60
801
Yellow, green, brown
. .. do . . .
.50
802
Variegated green
...do
.50
803
Green, yellow
do
.56
804
Red, green, blue.
...do
.70
805
Green, red, yellow
do
.76
KESULTS OF ANALYSES.
35
Table V. — Arsenic content of wall papers — Continued.
Serial
num-
ber.
Description of sample.
ms
807
808
809
810
811
812
813
814
815
816
817
818
819
820
821
822
823
824
827
830
831
832
835
834
835
836
837
8:38
856
857
858
859
860
861
862
Country of origin
Arsenic.
Grains
per
square
yard.
England .
do
Germany
do
do....
do....
do....
.do.
Wall paper— Continued.
brown, blue, yellow
Green, pink, yellow
Green, pink, blue
Green, yellow, pink
Brown, blue
Pink, white
Green, brown, gold
Glazed wall paper:
Green, pink, blue
Blue, white I do
Do I do
"Wall paper:
Green, pink, yellow
Blue, white
Yellow, white
Green, pink, brown
Brown, green, blue
Purple, yellow, green, pink
Blue, green, yellow
Red
Blue, white
Yellow, white
Purple, green
Variegated blue
Variegated red
Brown, blue, green
Brown, blue, green, pink..
Yellow, green, pink.
Green, pink, blue
Red, brown, white
Green, pink, blue, white ...
Yellow, pink
Green, brown
Green, brown, _pink, blue
Pink, white
Variegated green
Variegated red
Green, red, white ___
Green, brown, p:nk, gold
Variegated green ] do
Green, pink. gold. I England
Green, yellow, silver United States
England
do
....do
....do..
....do
Germany
do
....do
....do
....do
....do
....do
....do
....do
....do
....do
....do
....do
....do.
....do
....do
....do
....do
England
do.
United States".
....do
0.000
.000
.015
.015
Trace.
.015
.031
Trace.
Trace.
.000
.008
.000
.000
Trace.
Trace.
Trace.
.031
.046
.046
.031
.046
.031
.031
.046
.046
.015
.015
.031
.038
Trace.
Trace.
.031
.061
.031
.015
.000
Trace.
.046
.000
.000
Milli-
grams
per
square
meter.
0.0
.0
1.2
1.2
Trace.
1.2
2.4
Trace.
Trace.
.6
.0
.0
Trace.
Trace.
Trace.
2.4
3.6
3.6
2.4
3.6
2.4
2.4
3.6
3.6
1.2
1.2
2.4
3.0
Trace.
Trace.
2.4
4.8
2.4
1.2
.0
Trace.
3.6
.0
.0
Price
per
roll.
$0.90
.64
1.40
1.30
1.84
1.04
1.84
.76
.76
1.72
1.00
.48
.48
.76
.90
3.00
4.25
1.25
1.75
1.50
1.50
1.60
1.60
2.50
3.00
1.50
1.50
3.00
5.00
4.00
3.75
2.75
1.25
.80
1.25
1.00
.60
.60
1.25
.20
"Nos. 436-468, inclusive, Nos. 59V641, inclusive, and No. 858 are samples from Massachusetts, the
only State which has enacted a law restricting the use of arsenic in papers and fabrics.
Of the 537 samples of wall paper examined four of them, or 0.75 per
cent, contain more than 0.1 grain per square yard (7.8 mg per square
meter), the maximum amount allowed by the laws of Massachusetts.
It will be noted that two of these four samples are colored at least
partially with a red dye, two are partially colored with a green d}Te,
while one is colored neither red nor green, but has brown as the pre-
dominating color. It is also a fact worthy of notice that two of the
- four samples came from England, one of the foreign countries which
has no laws limiting the amount of arsenic in papers and fabrics.
Five of the samples, or 0.93 per cent, contain between 0.077 and 0.1
grain per square yard (0 and 7.8 mg per square meter). Here again
it will be noted that red is one of the predominating colors in four of
the samples and further that four of the samples are of foreign make,
36 ARSENIC IN PAPERS AND FABRICS.
two being imported from England, one from France, and one from
Germany.
Thirty- two of the samples, or 5.96 per cent, contain between 0.046
and 0.077 grains of arsenic per square yard. The remaining 92.36 per
cent of the samples is made up of 32.22 per cent containing less than
0.046 grains of arsenic per square yard and more than a trace; 26.44
per cent containing a trace, and 33.70 per cent containing no arsenic.
A comparison of these figures with those obtained by Hills in 1891
and Leach in 1900 shows that the percentage of samples containing
more than 0. 1 grain per square yard has decreased to a very gratify-
ing extent. This is probably due to the law passed by Massachusetts
in 1900. As far as the other figures can be compared' it would appear
that the percentage of papers containing between 0.05 and 0.1 grain
per square yard is about the same as it was in 1891, while the percent-
age of papers containing no arsenic has decreased.
It will be noted in Table V that none of the samples from No. 469
to No: 491, inclusive, contains any arsenic, yet nearly all of the ordi-
nary colors are represented, viz, white, green, red, blue, brown, yel-
low, silver, pink, and purple. These are all the papers of one firm
that were examined, and are interesting in that they show the possi-
bility of coloring wall papers with all of the ordinary colors without
the presence of even a trace of arsenic. To summarize the results
obtained on wall papers it may be said that four points are especially
brought out:
(1) The number of papers containing more than 0.1 grain per square
yard is very small, and has been very much reduced since the passage
of the Massachusetts law of 1900.
(2) Most of the papers containing more than 0.1 grain per square
yard are of foreign make.
(3) There seems to be no reason why papers can not be manufac-
tured that contain no arsenic at all.
(4) Since it is very doubtful whether 0. 1 grain of arsenic per square
yard is entirely harmless, it would appear that if any be present the
amount should not exceed 0.05 grain per square yard. This would
not seem to work any great hardship to manufacturers, since over 90
per cent of the above samples contain less than 0.046 grain per square
yard, and the goods of one firm contain no arsenic.
In Table VI are given the results of the analyses of crepe, shelf,
and glazed papers.
RESULTS OF ANALYSES.
Table VI. — Arsenic content of miscellaneous samples of paper.
37
Serial
num- !
ber.
144
145
146
147
148
405
406
407
408
409
410
411
412
413
414
415
416
417
Description of sample.
Crepe paper: <*
Green, yellow, red .
Green, black
Green, blue, yellow
Black, red
Purple, white
Shelf paper: c
Green
Yellow
Blue
Lightpink
Darkpink
Glazed paper: d
Red
Dark blue
Light yellow
Green
Dark yellow
Dark brown.
Light blue
Pink
Country of origin.
United States b .
dofc
....dob
....do*>
....dob
.do.
.do
.do.
.do.
.do
.do
.do
.do
.do
.do
.do
.do
.do
Arsenic;.
Grains per Milligrams
square per square
yard. , meter.
Price.
Trace.
0.015
.015
Trace.
Trace.
.000
.000
.000
.000
.000
.008
.000
Trace.
.008
.000
.008
.008
.000
Trace.
1.2
1.2
Trace.
Trace.
.0
.0
.0
.0
.0
.0
Trace.
.6
.0
.6
$0.15
.15
.15
.15
.15
.10
.10
.10
.10
.10
.02
.02
.02
.02
.02
.02
.02
.02
"Price per roll is given.
b Sample from Massachusetts.
c Price per quire is given.
(I Price per sheet is given.
It will be noted that although a great variety of colors are repre-
sented, neither the crepe nor glazed papers contain large enough
amounts of arsenic to be objectionable, while the shelf papers contain
none at all. The improvement in glazed papers from the time when
Hills examined 88 samples in 1891 is marked, and indicates that the
manufacturers have stopped using Paris and Scheele greens as color-
ing matters in this class of goods.
In Table VII are given the results of the analyses of 72 samples of
fabrics, some of which are invariably and others occasionally used in
making articles of dress. This class of goods according to the laws
of Massachusetts should not contain more than 0.01 grain of arsenic
per square yard (0.78 mg per square meter).
Table VII. — Arsenic content of fabrics to be used as dress goods.
Description of sample.
Country of origin.
Arsenic.
Serial
num-
ber.
Price
per
yard.
121
122
Calico:
Blue
Black
United States « - -
do.
0.0000 0.00
.0080 .60
Trace. Trace.
.0JOO 1 .Of)
Trace. I Trace.
.0000 ! .00
.0000 .00
.0015 J .12
.0015 ! .12
$0.06
.06
123
Gingham:
Blue
...do .
.12*
124
Red
do
.12*
125
Blue and white..
.. do
.124
126
127
128
Silk and cotton madras, blue, yellow, and
white.
Dimity, pink and white
Mohair s wiss, blue and white
do..
Ireland..
Switzerland .
.75
.25
1.50
129
Madras, light blue, yellow, and white
England
.65
a Sample from Massachusetts.
38 ARSENIC IN PAPERS AND FABRICS.
Table VII. — Arsenic content of fabrics to be iised as dress goods— Continued.
Description of sample.
Country of origin.
Arsenic.
Serial
num-
ber.
Grains
per
square
yard.
Milli-
grams
per
square
meter.
Price
per
yard.
Gingham:
Pink -
130
United States a .
do....
Trace.
0.0000
Trace.
.0000
,0000
Trace.
0.00
Trace.
.00
.00
$0.12*
131
. in"
132
Blue
do
.06*
133
do
. m
134
Gingham, green and white
England
135
Swiss, pink
Germany
Trace.
Trace.
.66
136
United States
do. a
.0000
.0000
.00
.00
.12*
137
Do
.12)
Percale:
138
Blue
do
.0000
.0000
.00
.00
.12*
139
Red
do
.12*
140
Blue
do
Trace.
.0460
Trace.
3.60
.121
141
do...
.121
954
...do
.0230
1.80
.05
Gingham:
955
do.
Trace.
Trace.
Trace.
Trace.
.07
956
Red
do
.10
Percale:
957
Blue
.do
.0000
.0000
.0015
.00
.00
.12
.12
958
...do
.12
959
Calico, "black
do
.07
963
:....do
.COOO
.00
.10
Outing flannel:
964
Blue, green, black..
Red..
.do
.0000
.00
.06
96S
do.
.0000
.00
.10
971
do.
.0012
.09
. 25
972
Alpaca, dark red
Flannel, green.
....do.
Trace.
.0200
Trace.
1.60
.25
973
do
.50
974
Duck, black
Plaid, green, purpl9
do
.0310
.0015
2.40
.12
' .10
988
do...
.25
989
Ribbon:
Trace.
.0000
Trace.
.00
.121
990
Yellow
.124
991
Brown
Trace.
Trace.
.12)
992
Black
.0015
.OOCO
Trace.
.0000
.12
.00
Trace.
.00
.15
993
Blue
.15
994
Red
.15
995
.60
996
Mohair, black
Flannel:
do
.0107
.84
.39
997
Red
do
.0015
.12
998
Do...
Calico:
do
.0031
.24
.12
999
.0000
.00
.06
1000
Red, black, yellow
do
.0540
4.20
.05
1001
Serge, blue..
do
.0015
.12
.39
1002
Flannelet, pink, black
Lining, pink
do
.0000
.00
.16
1003
do
.0000
.00
.10
1004
Plaid, green, red
Serge, blue
Cashmere, red
do.
.0015
.12
.15
1005
do
Trace.
Trace.
.15
1006
do
.0080
.60
1039
Calico, green, pink
Lawn, blue, white
.0450
3.50
.ft",
1040
.0031
.24
.08
1041
Outing flannel, green, red...
Calico, red, black i
.0062
.48
.05
1042
.0031
.24
.06
1043
Gingham, blue, green, yellow
.0046
.m
.in
1045
\ Sateen, red
.0015
.0015
.12
.12
12*
1046
! Flannel, green
1047
Cotton cashmere , black
.0031
.24
. lfi
1048
Cashmere, red _•___
.0031
.24
. V>
1049
Plaid, blue, red, yellow
.0000
.•00
1050
Cashmere, black.
.0062
.48
. 61 1
1051
Nearsilk, light red
Flannelet, blue, green
.0046
.36
.25
1052
.0107
.S4
10
1053
Lawn, pink, green...
Flannelet, red, white
.0016
.12
1054
.0046
.82
1066
Manila cord, green, white
.0046
.36
M57
.0015
.009
.12
24
12
1068
Lawn, green
.124
1060
Crepon, green
.0(131
.24
.12
i Sample from Massachusetts.
RESULTS OF ANALYSES. 39
Of the 72 samples examined, 8, or 11 per cent, contain more than
0.01 grain of arsenic per square yard; 8, or 11 per cent, contain
between 0.004(3 and 0.01 grain per square yard; 33, or 45.8 per cent,
contain less than 0.0046 grain per square yard, and 23, or 32 per
cent, contain none. The presence of large amounts of arsenic does
not seem to be confined to any particular class of goods, since those
containing the largest amounts include calicos, cashmeres, outing
flannels, ducks, mohairs, and flannelets. It does seem, however,
that certain colors are more apt to contain arsenic than others,
namely, black, red, and grepn.
Goods colored with anilin dyes are apt to contain small amounts of
arsenic for several reasons :
(1) In preparing the dyes and substances from which the dyes are
made arsenic acid, as well as sulphuric, nitric, and hydrochloric acids,
and other compounds apt to contain arsenic, are used. Some of the
arsenic will remain in the dye unless it is carefully purified.
(2) Some dyes are sold in the form of a paste, which is preserved
by the use of arsenious oxid.
(3) Substances used as assistants, fixes, or mordants in the dyeing
process may contain arsenic, either as an accidental or as an inten-
tional ingredient.
Sodium phosphate and turkey-red oil are examples of substances
which maj* contain arsenic as an accidental ingredient because of
their method of manufacture. In dyeing turkey-red cloth sodium
arsenate is often used as one of the constituents of the bath. Natu-
rally red-colored goods are extremely apt to contain arsenic, since
they are most often colored with magenta (sometimes made by the
action of arsenic acid on anilin) or its derivatives. It is more diffi-
cult, however, for authors who are not familiar with the details of the
various processes used in dyeing to understand why black and green
goods should contain more arsenic than those of other colors. On
looking over the methods of preparation of a number of the black and
green dyes it was found that most of them were prepared either from
anilin or from its direct derivatives or by treating certain organic
compounds with sulphuric acid. These two facts help to explain the
presence of arsenic, since both anilin and sulphuric acid are apt
to contain small quantities of arsenic because of their method of
manufacture.
It is difficult to make a comparison of the results given in Table
VII with those obtained by Hills in 1891 because of the different
methods of expressing the results and carrying out the work, but it
can at least be seen that articles of dress Jiave improved to a great
extent in regard to their arsenic content, since when Hills examined
prints and ginghams he found over 20 per cent containing more than
0.05 grain per square yard, while now only 11 per cent of all dress
goods examined contain more than 0.01 grain per square yard.
40
ARSENIC IN PAPERS AND FABRICS.
A comparison of the data given in Table VII with the results
obtained by Leach in Massachusetts in 1900 on dress goods, exclusive
of stockings, is given in Table VIII.
Table VIII. — Comparison of results obtained in 1900 and 190S on dress goods.
Source.
Bureau of Chemistry, 1903.
Leach. Massachusetts, 1900
Below 0.01 AboveO.Cl
Free from | grain grain
arsenic, per square per square
yard. yard.
Percent. ! Percent.
32.0 56.9
68.5 ' 23.7
Per cent.
11.1
7.8
It would appear from this that no efforts have been made by man-
ufacturers during the last three years to improve their method of dye-
ing certain classes of dress goods so as to eliminate arsenic, or that,
at least, if such efforts have been made they have been chiefty con-
fined to those goods which are to be sold in the State of Massachu-
setts, which has laws governing this subject.
Although, as mentioned above, there has been an improvement in
dress goods during the last thirteen years, yet with 11 per cent of
our dress goods containing enough arsenic to be injurious to health
the situation is far from satisfying. When it is taken into consid-
eration that, next to food, dress goods are used more largely than
practically &ny other manufactured article, it will be seen how far-
reaching the consequences may be of allowing such a practice to
go on unchecked.
In Table IX are given the results of the examination of samples of
stockings which would be classed as " fabrics to be used as articles of
dress."
Table IX. — Arsenic content of stockings.
Serial
num-
ber.
Description of sample.
Country of origin.
Arsenic.
Grains per Milligrams
square per square
yard. meter.
149
Ladies' :
Red, black
G ermany
United States
0.0015 it 12
150
Blue
.0015
Trace.
Trace.
.0015
.0015
.0081
.0046
.0015
Trace.
.0200
.0015
.0015
.12
151
Green
do
Trace.
152
153
154
155
263
Red..
Bluish green
Brown
Black
Do
do
do
do
do
...do ..
Trace.
.12
.12
.24
.3*'.
264
Do
...do...
.18
497
Do
Trace.
498
Do
1.55
499
Do
.12
946
Do..
ia
947
Do
.11012
948
Do ;...
;:;::do::::::::::::::::::::::
.0015
Trace.
.0150
Trace.
Trace.
.0061
.0000
.12
949
Do
..do. .
Trace.
950
Do
Germany
United States
do
1.2
951
Blue
Trace.
952
Red.
Trace.
977
Children's:
Red
.48
978
Light blue
.00
RESULTS OF ANALYSES.
41
Table IX. — Arsenic content of stockings — Continued.
Description of sample.
Country of origin.
Arsenic.
Serial
num-
ber.
Grains per
square
yard.
Milligrams
per square
meter.
979
Children's— Continued.
Pink
Trace.
0.0107
.0890
.0046
.0107
.0107
.0062
.0230
.0062
.0077
.0031
.0046
.0138
.0430
.0012
.0077
.0108
.0108
.0380
.0031
Trace.
980
Black
0.84
981
Do
6.93
982
Do
.36
983
Ladies' :
Black
.84
984
Do
.84
985
Do
.48
986
Blue
1.80
1027
.48
1028
Red
.60
1029
Blue
.24
1030
.36
1031
Ladies' :
Black
1.07
1032
Blue.
3.34
1033
Pink
.09
1034
Black
.60
1035
Black, white
.84
1036
Children's:
Black
.84
1037
Do i
3.00
1038
.24
Of the 41 samples examined, 12, or 29.3 per cent, contain more than
0.01 grain of arsenic per square yard; 21, or 51.2 per cent, contain
determinable amounts; 7, or 17.1 per cent, contain a trace, and 1
only, or 2.4 per cent, contains none. These results are very much
like the ones obtained by Leach in 1900 and show that no attempt has
been made by the manufacturers to change their method of procedure
so as to eliminate arsenic. The presence of arsenic in this class of
goods is even more reprehensible than in dress materials, since they
are worn directly against the skin and the arsenic may be most
readily absorbed. Further than this, it will be noted that some of the
stockings examined were intended for children, who would naturally
be more susceptible to poisons than persons of more mature years.
Doubtless many of the cases of sore feet and even some of the cases
of death from poisoning through excoriated surfaces on the feet have
been due to the presence of arsenic in the hose. While black stock-
ings seem to be the ones which are most likely to contain an excess of
arsenic, it will be noted that two of the pairs containing excessive
amounts of arsenic were colored blue.
In Table X are given the results of the examination of miscellane-
ous fabrics other than dress goods, such as upholstery, draperies,
bunting, etc. Of the 23 samples examined, 1, or 4.3 per cent, contains
more than 0.1 grain of arsenic per square yard. It will be noted that
here, as elsewhere, the predominating colors in the arsenical cloth are
red and black. An examination of the colors of the various other
samples shows that red and green may predominate and yet no arsenic
be present.
42
ARSENIC IN PAPERS AND FABRICS.
Table X. — Arsenic content of miscellaneous fabrics other than dress goods.
Serial
num-
ber.
113
114
115
116
117
118
119
120
953
•960
961
967
969
970
975
976
1044
1056
Description of sample.
Hungarian cloth, green, red, yellow
Denim, green, blue
Art ticking, red, yellow
Sateen, light green, purple
Silkaline:
Pink, green
Green,.red
Green, pink
Art ticking, green, purple, white
Gilt Japanese drapery, pink, blue
Bunting:
Light green
Red
Oil print calico, red
Cretonne, red, green
Drapery print:
Green, blue, red
Do.....
Silkaline, green, red, yellow
Canton plush, red, yellow...
Drapery print, red, black, yellow, blue-
Denim, blue
Drapery:
Green, yellow, pink
Green, red, white
Green, blue
Table linen, red
Country of origin.
Arsenic.
Grains
per
square
yard.
United States.... 0.0310
do I Trace.
....do I ■ .0000
....do .0000
.do
.do.
.do.
.do.
.do
.do.
.do
.do
.do
.do
.do.
.do
.do.
.do
.do
.do
.0000
Trace.
.0000
.0150
.0046
.0000
.0000
.0015
.0000
.0015
.0031
.0000
.0000
.3380
.0000
.0046
.0015
.0046
.0000
Milli-
grams
per
square
meter.
2.40
Trace.
.00
.00
.00
Trace.
.00 i
1.20
.00
.00
.12
.00
.12
.24
.00
.00
18.40
.00
.36
.12
.36
.00
Price
per
yard.
SO. 20
.18
.30
.18
.12*
.121
.121
.25
.10
.05
.05
.08
.14
15
.15
,06
,10
.07
.05
.12*
.25
In Table XI are given the results of analyses of 21 samples of car-
pets. None of the samples contained more than 0.1 grain of arsenic
per square yard. This is practically the same result as that obtained
by Leach when he examined carpets sold on the Massachusetts market,
and indicates that this class of goods is not so liable to contain large
amounts of arsenic as are many other woven fabrics.
Table XI. — Arsenic content of carpets purchased in Washington, D. C.
Serial
num-
ber.
1187
1188
1189
1190
1191
1192
1193
1194
1195
1196
1197
1198
1199
1200
1201
1202
1208
1209
1210
1211
1212
Description of sample.
Velvet, red, green, brown
Tapestry:
Green, red, brown
Green, yellow, brown
Velvet:
Green, red, black
Green, black, pink
Axminster, red and yellow
Velvet, green, red
Body Brussels, green, black, yellow
Wilton, dark and light green
Axminster, light green, red
Moquette, green, yellow, blue
Velvet Wilton, blue, yellow, brown
Body Brussels, blue, brown, green .
Tapestry, green, red, brown
Body Brussels, red, black, yellow...
Tapestry Brussels, brown, "blue
Wilton velvet, green
Axminster, green, brown, pink
Royal Wilton, green
Axminster, reel
Axminster, light brown, yellow
Arsenic.
Grains
per
square
yard.
Milli-
grams
per
square
meter.
Price per
yard.
0.015
.015
.061
.015
.046
.031
.015
.000
.000
.015
.031
.031
.015
.061
.015
.015
.031
.046
.061
.015
.046
1.2
1.2
4.8
1.2
3.6
2.4
1.2
.0
.0
1.2
2.4
2.4
1.2
4.8
1.2
1.2
2.4
3.6
4.8
1.2
3.6
$O.75-$1.00
.50-
.60-
1.25- 1.50
1.10- 1.2.1
1 . .'.'a
.75- 1.25
1.25 l.«J
1.75- 2.00
1.35- 1.50
1 . ss
1.75- 2.00
1.25- 1.50
.90-1.00
L.3S l.o.-)
1.00-2.00
1.6S LIB
1.&5-2.00
2.75 8. «
1.85-2.00
1.50- 1.75
RESULTS OF ANALYSES.
48
Table XII contains the results of the examination of furs to be used
as articles of dress in the form of neck pieces, muffs, coats, or robes.
Of the 42 samples examined, 11, or 2G.2 per cent, contain from 20 to
1,700 times as much arsenic as would be allowed by the laws of Mas-
sachusetts; 4, or 9.5 per cent, contain only a trace, while 27, or 64.3
per cent, contain no arsenic. This excessive amount of arsenic is
doubtless added during the process of preparing the fur, either to
preserve it or to repel injurious insects. Here again, as in the case
of stockings, are articles which, worn around the neck and hands, are
apt to come in extremely close contact with the skin. The presence
of arsenic in such articles as these is as injurious if not more so than
in hose, since it is usually present in much larger quantities; further-
more it is an intentional rather than an accidental constituent.
Table XII. — Arsenic content of furs for dress purchased in Washington, D. C
Serial
num-
ber.
Description of sample
1067
1068
1069
1070
1071
1072
1073
1074
1075
1076
1077
1078
1079
1080
1081
1082
1083
1084
1085
1086
1087
1088
1089
1090
1091
1092
1093
1094
1095
1098
1099
1103
1104
1105
1106
1107
1108
1109
1110
1111
Ladies' furs:
Natural-plucked otter
Natural Siberian squirrel .
Natural plucked beaver . .
White unborn lamb
Dyed Persian lamb
Natural wild cat
Dyed hair seal
Natural black skunk
Natural seal
Natural chinchilla.
Natural white Thibet.
Natural squirrel belly, white
Natural mink
Nttural American squirrel
Natural white fox
Dyed Thibet
Natural gray fox
Natural stone martin
White fox (dyed black)
Dyed Hudson Bay sable (martin)
Natural otter
Dyed and plucked sealskin
Unborn Persian lamb (dyed)
Dyed and plucked electric seal. . .
Natural black bear
Natural lynx
Natural Russian sable
Gray coones (China)
Natural sea otter
Natural krimmer ( Russia )
Dyed otter.
Dyed raccoon
Dyed astrakhan
Rug or robe, caribou
Ladies' fur, white hare
Rug or robe:
Common calf
Virginia deer
Grizzly bear
Brown bear
American bison
Indian tiger
Gray fox
Arsenic.
Grains
Milli-
per
square
yard.
grams
per
square
meter.
Trace.
Trace.
0.000
0.0
Trace.
Trace.
.000
.0
.000
.0
.000
.0
.000
.0-
.000
.0
.000
.0
.000
.0
.000
.0
.000
.0
Trace.
Trace.
.000
.0
.000
.0
.000
.0
.000
.0
.000
.0
.000
.0
.000
.0
.199
15.5
.oo:)
.0
.199
15.5
.000
.0-
Trace.
Trace.
.000
.0
.000
.0
.000
.0
.000
.0
.000
.0
.000
.0
.000
.0
.000
.0-
1.50
116.4
.50
38.7
.35
27.1
1.29
100.8
.89
69.8
16.99
1,317.6
2.00
155.0
5.20
403.1
1.60
124.0.
In Table XIII are given the results of the examination of three fur
rugs, which may be considered in connection with eight samples
44 ARSENIC IN PAPERS AND FABRICS.
recorded in Table XII intended to be used either as rugs or as robes.
The arsenic content of each of these eleven samples is above 0.1 grain
per square yard, varying from 5 to 170 times as much as should be
allowed.
Table XIII. — Arsenic content of furs for rugs purchased in Washington, D. C.
Serial
num- , Description of sample,
ber. i
1100 Natural polar bear
1101 Lynx
1102 Black sheep
Arsenic.
Grains
per
square
yard.
2.50
.50
.85
Milli-
grams
per
square
meter.
193.6
38.7
66.0
Such rugs as these are extremely dangerous, in that they contain
such large quantities of arsenic that there is great danger of this sub-
stance being mingled with the dust of the room and breathed in com-
paratively large quantities. In fact, the presence of arsenic in rugs
in large quantities would appear to be even more dangerous than its
presence in wall papers in like quantities, since there is much more
chance of its appearing in the dust of the room.
Conclusions.
Stated briefly, the following conclusions regarding the arsenic con-
tent of papers and fabrics sold on the American market may be
drawn from the data collected :
(1) If 0.1 grain per square yard is considered as the maximum
amount of arsenic allowable in wall papers, the condition of the mar-
ket is quite satisfactory, but if for reasons previously mentioned the
limit is reduced to 0.05 grain per square yard some improvement
should be made.
(2) The arsenic content of glazed, shelf, and crepe papers is as
small as could be reasonably expected.
(3) Entirely too large a percentage of the dress goods, dress furs,
and fur rugs sold on the American market contain excessive amounts
of arsenic.
(4) The presence of excessive amounts of arsenic in such goods as
are described in paragraph 3 is dangerous to the health of a large
number of people, especially those who are susceptible to arsenic
poisoning.
(5) The arsenic content of miscellaneous fabrics other than dress
goods — sucli as pillow covers, hangings, carpets, etc. — is in the main
satisfactory with the present limit for arsenic; but if this limit were
reduced to 0.05 grains per square yard, as advocated for wall papers,
a considerable number of carpets would be without the pale.
COMPILATION OF LAWS. 45
LAWS GOVERNING SALE OF ARSENICAL PAPERS, FABRICS, ETC.
In the following pages are given those portions of the laws of for-
eign countries and of the United States which deal with the presence
of arsenic in papers, fabrics, etc. Those sections which deal indirectly
with the question or with the presence of arsenic in foods are omitted.
AUSTRIA.
Ordinance of the minister of state of May 1, 1886, concerning the employment of
poisonous colors and substances injurious to health in different objects and the
sale of the same.
Sec. 2. Colors and preparations that contain the following substances [arsenic,
antimony, lead, cadmium. copper, cobalt, nickel, mercury (pure cinnabar excepted ) .
and zinc] must not be used for coloring children's toys. The employment of other
metallic colors is allowed, but the color on the object must be entirely covered
with a coat of resistant varnish which withstands the action of moisture.
Sec. 4. Artificial flowers may be colored with arsenical preparations and parts
of plants may be dipped in arsenical baths only wh n the dusting off of the poison-
ous colors is entirely prevented by a coating of varnish.
Sec. 5. The use of colors containing arsenic to paint walls of living rooms and
places used for the accommodation or for the congregation of people is forbidden.
Sec. 6. The preparation of foods, of eating and cooking utensils, and every
article of the toilet with substances which in the manner and form in which they
1 may be used might endanger health is forbidden.
Decree of the minister of the interior in agreement with the minister of commerce,
June 2, 1877, concerning the employment of colored paper as ivrapping for
candy, coffee substitutes, and other similar articles of food.
Concerning the circumstances that at present not only green, but also other
gaily colored papers, dyed with materials known to be harmful to health, are used
in trade and for wrapping articles of food, the minister of the interior, in agree-
ment with the minister of commerce, in accordance with the order of the minis-
ter of state of May 1, 1886, ordered that common white paper or paper with the
color fixed in the fiber (im Zeug gefarbte) is to ba used for wrapping confections,
candies, coffees, and such articles of food. It is further decreed that the employ-
ment of otherwise colored paper is allowable only as a second outside covering,
and only in those cases where the food is of such a kind that it will remain dry
and neither soften nor melt so that the paper will stick and the food become
impregnated with the extract from the wrapper.
Decree of the minister of the interior, in agreement with the minister of commerce,
November 20, 1877, in which is given an explanation of the order of June 2,
1877.
Industrial houses differ as to the meaning of " im Zeug gefarbte Papiere." On
account of this the following order is promulgated to indicate exactly the employ-
ment of colored paper as wrapping for food material:
'• Besides the usual white paper, only such paper is to be used as is made from
colored rags, or the pulp of which is colored during its manufacture. All paper
colored in other ways is to be used as a 'second outside covering, as indicated in
the previous order. * '
46 ARSENIC IN PAPERS AND FABRICS.
BELGIUM.
This country has no law which specifically deals with the arsenic
content of wall papers, fabrics, etc. By a decree of the King of
February 19, 1895, which went into force Ma}r 1, 1895, however, the
employment of children was forbidden in shops where poisonous su In-
stances are used in the process of manufacture, such as the manu-
facture of paper and wall papers, hangings, printed woven stuffs, etc.
CANADA.
This country has no laws governing the arsenic content of wall
papers, fabrics, etc
DENMARK.
Penal law of February 10, 18S6.
Sec. 290. In case anyone uses poisonous or other deleterious substances in goods
intended to be sold or iised by others in such manner that another's health is
exposed to danger by the use thereof, such person is, in the absence of provisions
for a severer penalty, to be punished with imprisonment, or. under aggravating
circumstances, with hard labor, especially if some one has been injured or has
come to his death thereby. The same penalty applies to persons offering for sale
goods which they know contain substances as aforesaid. In case such acts are
due to negligence, a fine is to be imposed.
ENGLAND.
This country has no official regulations as to the quantity of arsenic
permitted in wall papers, papers, dress goods, tapestries, etc.
FRANCE.
This country has no laws governing the amount of arsenic in wall
papers, fabrics, etc. By a decree of May 13, 1893, the emplo3Tment of
children under 18 in industries involving the use of arsenic acid,
white lead, etc., is prohibited. By a decree of June 29, 1895, certain
regulations are made for the protection of workmen who are engaged
in manufacturing Schweinfurt green.
GERMANY.
Law of July 5. 1887, concerning the employment of dyes injurious to health in the
preparation of food, food materials^ and other articles of common use.
Article I. Dyes harmful to health must not be used in the production of foods
and food materials exposed for sale.
Harmful colors in this sense are those that contain antimony, arsenic, barium,
lead, cadmium, chromium, copper, mercury, uranium, zinc, tin, corallin, picric
acid.
The chancellor is empowered to proceed according to law upon proof of the
existence of arsenic and tin.
COMPILATION OF LAWS. 47
Art. II. Vessels, wrappers, and covers which are colored with the dyestuflfe
mentioned in Article I mnst not be used for covering or packing food that is to be
offered for sale.
This decree does not apply to the use of barium sulphate; barium containing
varnishes that are free from barium carbonate; oxids of chromium, copper, tin,
zinc, and their combinations as metallic colors; cinnabar; oxidoftin; tin sulphide
as gold bronze, or to glass materials which are glazed or enameled by having the
color burned in; nor does it apply to other coloring of vessels with waterproof
materials.
Art. IV. The colors mentioned in paragraph 2, Article I, must not be used for
the preparation of playthings (especially picture cards, picture books, and water
colors for children) , flowerpots, and artificial Christmas trees.
This decree does not apply to the materials mentioned in paragraph 2, Article
II, nor to the following: Antimony sulphide and cadmium sulphide as coloring
matter of substances made of gum; lead oxid in varnishes; lead white as an
ingredient of the so-called wax molds in so far as it is not more than 1 part by
weight to 100 parts of the mass; lead chromate (by itself or in combination with
lead sulphate) as an oil or lacquer color or with a lacquer or varnish coating;
zinc combinations insoluble in water where they are used for gum toys, as a color
for the gum, as an oil or lacquer color, or with a lacquer or varnish covering;
glass or enameled wares when the color is burned in.
Art. V. In the preparation of prints and lithographs from the materials men-
tioned in Articles II, III, and IV only such colors must not be used as contain
arsenic.
Art. VI. No paint must be offered for sale as free from injurious materials
unless it agrees with the text in paragraphs 1 and 2, Article IV.
Art. VII. Colors that contain arsenic must not be used in the manufacture of
wall papers, upholsteries, curtains, hangings, clothing materials, masks, candles;
also artificial leaves, flowers, and fruits which are to be offered for sale.
This decree does not apply to the use of fixes or mordants containing arsenic
for the printing of textile or woven goods. However, such textile or woven
goods can not be used in the manufacture of articles mentioned in paragraph 1
if they contain arsenic in a water-soluble condition or in such amounts that more
than 2 mgis present in 100 sq. cm. of the made-up goods. .
The royal chancellor is empowered to issue more detailed directions for deter-
mining the arsenic content.
Art. VIII. The text of Article VII applies also to the manufacture of writing
materials, lamp and light shades, and candle safes that are to be offered for sale.
The production of sealing wafers comes under the decree in Article I, but. as
they are not used for a food, the employment of barium sulphate, chromium
oxid, and cinnabar is allowed.
Art. IX. Water or lime water colors containing arsenic must not be used in
the production of paints for floors, decks, walls, doors, windows, residence or
business rooms, shades, shutters, furniture, and such articles of household use.
Art. X. The text of Articles II to IX does not apply to the employment of colors
which contain the substances mentioned in Article I, paragraph 2. not as a con-
stitutional ingredient, but as an impurity which can not be avoided by the usual
method of manufacture, and are really present only in small amounts.
Art. XI. The text of this law does not apply to the coloring of skins.
Art. XII. He who produces, wraps, packs, sells, or exposes for sale foods, food
materials, and other articles of common use contrary to the text of Articles I to
V, VII, VIII, and X: he who conducts trade contrary to the text of Article VI;
5050— No. 86—04 4
48 ARSENIC IN PAPERS AND FABRICS.
he who produces, sells, or exposes for sale materials contrary to the text of Arti-
cle IX will be punished with fines up to 150 marks or with imprisonment.
Art. XIII. In addition to the punishment prescribed in Article XII, goods or
materials which have been illegally produced, wrapped or packed, sold or exposed
for sale, may be seized, whether the sentence has been pronounced or not.
If the prosecution of certain persons is not practicable the confiscation can be
ordered independently.
Art. XIV. The text of the laws concerning the commerce in foods, food mate-
rials, and articles in common use of May 14, 1879 (Reichs-Gesetzblatt, S. 145),
remains in force.
Art. XV. This law goes into force May 1, 1888; on the same day the imperial
order concerning the use of poisonous colors of May 1, 1882 (Reichs-Gesetzblatt,
;S. 55), goes out of force.
Enactment concerning the investigation of dyes, spun goods, and woven goods for
arsenic and tin, April 10, 1888. {Office of the Interior.)
On the basis of the text of Article I, paragraph 3, and Article VII, paragraph
2, of the law concerning the use of health-injuring dyes in the production of
foods, food materials, and articles of common use, of the 5th of July, 1887
(Reichs-Gesetzblatt, S. 277) , it is decreed that for the proof of the use of arsenic
and tin in the production of foods and food materials and for the ascertainment
o- the arsenic content of spun and woven goods where an arsenic-containing mor-
dant was used, the directions in the adjoining text are to be followed.
DIRECTIONS. — METHOD FOR DETECTION OF ARSENIC IN WOVEN AND SPUN GOODS.
Art. XIII. Thirty grams of the goods to be tested is cut up, heated for two or
four hours in distilled water at 70° to 80° C, filtered, washed, the filtrate evap-
orated to 25 cc, allowed to cool, 5 cc of concentrated sulphuric acid added, and the
fluid put into the Marsh apparatus with arsanic-free zinc. If an arsenic mirror
is obtained , then the arsenic was in a water-soluble form in the cloth.
Art. XIV. If the results under XIII were negative, then 10 grams more is taken
and its surface area determined.
Art. XV. If the necessary amount of spun or woven goods is not available for
XIII and XIV, then the investigation may be made upon smaller amounts. Also
the experiment under XIV can be carried out on a part of the goods used for
XIII, which has been extracted with water and then dried.
Art. XVI. The spun or woven goods are cut up in small pieces, which are trans-
ferred to a tubular retort of potassium glass of about 400 cc capacity, with 100 cc
pure hydrochloric acid, sp. gr. 1.19. The neck of the retort is drawn out and
bent at an obtuse angle. It is placed so that the neck projecting from the flask
slopes upward and the main part slopes downward. Then a Liebig condensing
tube is connected and joined with a piece of rubber tubing. The air-tight tube
of the cooling apparatus leads to a 500 cc receiver. Two hundred cubic centi-
meters of water are placed in the receiver, which is kept cool by being placed in a
receptacle containing water. The side tube of the receiver is connected in the
usual way with a Peligot tube containing water.
Art. XVII. In the course of an hour 5 cc of a saturated solution of arsenic-
free ferric chlorid crystals, saturated at room temperature, is added to the con-
tents cf the retort and then heated. After the excess of hydrochloric acid is given
off the temperature is raised and the fluid is distilled over until the contents
begin to foam badly. It is allowed to cool, 50 cc hydrochloric acid, sp. gr. 1.19,
is added to the retort, and it is distilled again in a like manner.
Art. XVIII. The fluid in the receiver, colored brown by organic matter, is
united with the contents of the Peligot tube, diluted with distilled water to 600
COMPILATION OF LAWS. 49
or 700 cc, and pure hydrogen sulphid is passed through, at first with a little
heating, then in the cold.
Art. XIX. After twelve hours the precipitate, consisting wholly or in part of
brown organic matter, is filtered on an asbestos filter. The filter is prepared by
suitable layers of asbestos in a funnel with a glass stopcock. After a short wash-
ing of the precipitate the stopcock is closed and the precipitate is treated with a
few cubic centimeters of brom-hydrochloric acid, under cover of a watch glass
or glass plate. The brom-hydrochloric acid is prepared by dissolving bromin in
hydrochloric acid, sp. gr. 1.19. After a half hour's action the solution is allowed
to flow through the stopcock into a precipitating flask. The residue upon the
asbestos filter is washed down with hydrochloric acid, sp. gr. 1.19.
Art. XX. The contents of the precipitating flask are treated again with an
excess of ferric chlorid and washed by means of hydrochloric acid, sp. gr. 1.19,
into a second smaller retort, which is in other respects the same as the one
described under XVI. It is distilled as described in XVII, allowed to cool, treated
with hydrochloric acid, sp. gr. 1.19, and distilled again.
Art. XXI. The distillate is now as a rule as clear as water. It is diluted with
distilled water to about 700 cc, treated with hydrogen sulphide as in XVIII, fil-
tered after twelve hours through a filter that has been washed with di ute hydro-
chloric acid, then water, then alcohol, dried at 100° C, and weighed. The pre-
cipitate is then washed, first with water, then with absolute alcohol, then with
warm carbon bisulphid, and finally again with absolute alcohol, dried at 110° C,
and weighed.
Art. XXII. From the arsenious sulphid is calculated the arsenic, and taking
into consideration the area contents according to XIV the amount of arsenic per
100 sq. cm. is determined.
ITALY.
This country has no laws which limit the quantity of arsenic in
wall papers, fabrics, etc. However, by a royal decree of September
17, 1886, which ratifies the law of February 11, 1886, the employment
of children in certain industries, such as those in which poisonous
substances such as arsenic, etc., are used in large quantities, is pro-
hibited.
THE NETHERLANDS.
This countiy has no laws regulating the use of arsenic or substances
containing it in the manufacture of wall papers, fabrics, etc.
RUSSIA.
The following extracts are taken from the Russian code of 1902:
Page 654: The introduction from foreign countries as well as the sale and manu-
facture in Russia of dyestuffs consisting chiefly of an arsenical base is absolutely
prohibited.
Page 655: The introduction from foreign countries as well as the sale and manu-
facture in Russia of delicate fabrics such as organdie, tarlatan, muslin, etc.,
which are dyed uniformly with an arsenical dye is absolutely prohibited.
Page 656: The prohibitions contained in pages 654 and 655 do not extend to
the introduction and sale of materials which contain isolated figures, flowers,
leaves, patches, streaks, etc., produced by the use of arsenical dyestuffs, while
the greater portion is dyed with other nonarsenical materials.
Page 65T: The introduction from foreign countries, sale, and manufacture in
50 ARSENIC IN PAPERS AND FABRICS.
Russia of children's playthings of any sort that are colored with an arsenical dye-
stuff, or of wrapping papers for confectionery, other sweetmeats, and food
materials, is absolutely prohibited.
Page 658: In painting children's playthings the use of other nonarsenical but
more or less injurious coloring materials is permitted.
SWEDEN.
Proclamation of November 18, 1892, regarding a change in the royal ordinance of
January 7, 1876, concerning the sale of arsenic and other poisonous materials
and articles.
I, Oscar, by the grace of God King of Sweden, Norway, Goths, and Wends,
make known the following: That I have deemed it well to annul the proclamation
of April 10, 1885, regarding a change in the ordinance of January 7, 1876, as to
the keeping and sale of arsenic and other poisonous materials and articles, and
decree that section 20 in said ordinance is to have the following changed form:
Section 1. Wall paper, shades, half shades, artificial flowers, or other articles
in water colors (with gum, starch, dextrin, albumen, and such like), printed or
painted with colors containing arsenic, must not be kept or offered for sale, pro-
vided there can be obtained from 200 sq. cm or less of the goods, by reduction
with potassium cyanid and sodium carbonate, a metallic arsenic mirror which
will give a black or brown-black at least partly impervious mirror in a glass tube
of from f.5 to 2 mm inside diameter.
Sec. 2. The same prohibition holds also regarding cloths, textiles, yarn, lamp
shades, wafers, stearin candles, and other candles which contain colors with
arsenic or other materials containing arsenic, provided metallic arsenic can be
produced in this way and to the amount mentioned above from 100 s^. cm. or less
of cloth, textiles, lamp shades, or from 8 grams or less of yarn or from 21 grams
or less of other materials mentioned here.
Sec. 3. Certificate regarding the nature of the article is to be prepared by a
trained chemist, and should contain a statement of the weight and surface con-
taining samples of all the colors in the article and be accompanied not only by
the metallic arsenic produced, inclosed in a glass tube closed at both ends, but
also by as large a sample of the tested article (containing not less than 500 sq.
cm.) as is, needed to recognize it or for a possible retest in case the question comes
up again. The glass tube as well as the sample of the article should be securely
joined by seal either to the certificate or to a paper containing the experimenter's
signature and number, which is referred to in the certificate, which in other
respects should be worded according to formula appended.
All concerned must conform strictly to this.
The health commission at Christiania decided at a meeting July 24,
1883, that until further notice it would follow the rules given below for
the examination of and decision regarding objects containing arsenic:
Of cloths, paper window shades, wall paper, and similar objects, 200 sq. cm.
are to be used.
Remark: In the case of large figured cloths and tapestries, etc., the experi-
menter is to see to it that all the colors used in the pattern are present in the
sample used in testing. It should for this purpose be taken from a large piece
(for example, 1,000 sq. cm.), which is first weighed and then cut into very small
pieces, of which again an amount corresponding in weight to 200 sq. cm. is taken.
Of dry colors 1 gram is used. Of lace, yarn, colored candles, colored flowers,
wafers, and similar objects, 5 grams. Of paint, that quantity is used which can
be scraped from a surface of 200 sq. cm.
COMPILATION OF LAWS. 51
Remark: If a color is so scant (for example, on toys, lamp stands, candies, etc.)
that you can not find 1 gram, perform the experiment with the material on hand
and judge the result in accordance with the following directions in the same way
as though the amount prescribed had been used.
The experiment is to be performed according to the methods described below,
and the following apparatus and tests are to be used:
1. A Marsh-Berzelius apparatus, consisting of a gas-generating flask of 200 cc,
with a calcium-chlorid tube and heating tube of heavy fusible glass, which at
the point of expansion where the arsenic, if any, would gather, has a diameter of
1.5 to 2 mm.
2. Flat-b3ttomed retort (Erlenmeyer's) of about 250 cc.
3. Porcelain crucible of 50 to 60 cc.
4. Hydrochloric acid without arsenic (about 15 per cent).
5. Ditto zinc.
6. Ditto potassium chlorate.
7. Ditto anhydrous sodium chlorate.
S. Alkaline solution of sodium hypochlorite containing about 2 per cent of
this salt.
The purity of the reagent is tried in the Marsh apparatus by using a blank of
100 cc of hydrochloric acid, 25 grams of zinc, 5 grams of potassium chlorate, 5
grams of sodium chlorate, and 5 cc of the sodium hypochlorite.
When these quantities of the reagents in the Marsh apparatus do not produce a
dark coating in the tube after being heated 35 minutes, accompanied by a produc-
tion of gas which produces at the end of the tube a flame 4 to 8 mm long, it is to
be considered free from arsenic.
As a measure in case of experiments for arsenic, an arsenic mirror is used,
which is prepared by means of an arsenic solution containing 0.1 of mg arsenic in 1
cc. The measuring mirrors are produced by adding to the Marsh apparatus, after
it is started and -the, tube has been heated not less than five minutes, 1 cc of arsenic
solution, and thereupon heating the tube twenty minutes with a gas generation of
the power mentioned above. The tubes in which these arsenic mirrors are pro-
duced, each of which thus corresponds to 0.1 mg arsenic, are fused while yet
connected with the gas-generating flask in such a way that they become filled
with hydrogen gas.
In order to obtain a solution suitable for a test in the Marsh apparatus, one
treats the different objects in the following way:
A. Cloths and yarn, artificial flowers, dry colors, and water colors that have
been scraped off are treated, in the quantity mentioned above, in a flat-bottomed
retort with 30 to 60 cc of muriatic acid and 0.5 to 2 grams of potassium chlorate.
The retort is heated while constantly shaken till its contents approach the boiling
point. When the colors are destroyed as far as possible, the solution is poured
from the insoluble residue into another retort and is boiled till there is no smell
of chlorin.
B. As for articles of paper, oil-coated cloths, and oil colors scraped off, it is
necessary to burn the organic matter. In order to do this, one heats in one of the
porcelain crucibles mentioned among the apparatus 6 to 10 grams of a mixture of
two parts potassium chlorate and one part sodium chlorate. When the heating
has gone so far that a bit of the article pressed down into the crucible with a
glass stick begins to burn immediately, one removes the lamp and adds little by
little parts of the sample which have been cut into not less than ten bits, stirring
now and then the contents of the crucible with a glass stick, taking care that there
is always on hand a surplus of oxidizing material. The contents of the crucible are
now dissolved in muriatic acid and the solution boiled till it ceases to smell of
chlorin.
52 ARSENIC IN PAPERS AND FABRICS.
Now the hydrogen stream is started in the Marsh apparatus and the tube is
heated five minutes in order to be sure no arsenic is present. In case there is no
dark coating in the bulging part of the tube, the solutions mentioned after A and
B are added to the Marsh apparatus, and the tube is now heated twenty minutes
with a gas generation of the above-mentioned power. If after this lapse of time
there appears in the tube a dark coating which corresponds in size to or surpasses
the prepared mirrors of 0. 1 mg mentioned above, and entirely disappears when
the solution of sodium hypochlorite is sucked into the tube forward and backward
over the mirror, the article is declared to contain arsenic, and it is forbidden to
be kept for sale.
In case no mirror is formed of the size mentioned, or if the mirror which has
appeared remains entirely unchanged by the treatment with sodium hypochlorite,
the sale of this article is not forbidden.
Remark: If it happens that an article in passing through the treatment here
described produces a mirror which in size evidently surpasses the limit above
stated and at the same time appears partly soluble in sodium hypochlorite, the
solution of the mirror brought about in this way is boiled with hydrochloric acid
until it does not smell of chlorin, and is then treated in the Marsh apparatus.
If, now, after heating the tube twenty minutes, there appears in it a clear coating
of arsenic, the article is declared to contain arsenic.
SWITZERLAND.
The Swiss Confederation as a whole has no laws regulating the
amount of arsenic in wall papers, fabrics, etc., but some of the Can-
tons have passed such laws, which are given below.
CANTON OF GENEVA.
The following extracts were taken from the police regulations of
April 26, 1878:
Article I. Confectioners are forbidden to sell or use tinted papers or tapes-
tries colored with arsenical substances, notably with Scheele and Schweinfurt
greon.
The use of these substances for dyeing fabrics is also prohibited.
Art. II. Arsenical paper and fabrics exposed for sale in stores and by dyers
will be seized by the authority of the police.
Art. III. Offenders against these rules will be liable to the penalty of the police,
and to damage if there be occasion.
CANTON OF ZURICH.
Ordinance of August 25, 1892, concerning the employment of dyes containing
po'sonous substances.
Art. V. Articles of dress — such as clothing, textile fabrics, woven fabrics, paper
collars and cuffs — leather linings and tapestries, carpets, curtains, window shades,
colored paper, and all such manufactured articles must bs free from arsenic and
its compounds. «
a The Federal inspector of factories interprets this paragraph as follows: " The
expression ' free from arsenic ' must be understood as referring to a percentage
artificially imparted to the objects in question, but not to slight traces of arsenic,
such as are naturally contained in such objects."
COMPILATION OF LAWS. 53
A paragraph practically identical with Article V is contained in the
laws of the Cantons of Berne, Basel, St. Gallen, and Thurgan.
UNITED STATES.
The United States has no Federal law regulating the amount of
arsenic in wall papers, fabrics, etc. One State, Massachusetts, has
passed the following law :
MASSACHUSETTS.
An act relative to the manufacture and sale of textile fabrics and papers contain-
ing arsenic. {Chapter 325 of the acts of May IS, 1900.)
Section 1. Any corporation, person, firm or agent who directly or by an agent
manufactures, sells, or exchanges, or has in his custody or possession with intent
to sell or exchange, any woven fabric cr paper containing arsenic in any form, or
any article of dress or of household use composed wholly or in part of such woven
fabric or paper, shall on conviction thereof be punished by a fine of not less than
$50 nor more than $200: Provided, however, That this section shall not apply to
dress goods or articles of dress containing not more than one-hundredth grain or
to other materials or articles containing not more than one-tenth grain of arsenic
per square yard of the material.
Sec. 2. The State board of health shall make all necessary investigations as to
the existence of arsenic in the materials and articles mentioned in section 1 of this
act, may employ inspectors and chemists for that purpose, and shall adopt such
measures as it may deem necessary to carry out the provisions and to facilitate
the enforcement of this act.
Sec. 3. This act shall take effect on the 1st day of January in the year 1901.
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