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CAC  DOCUMENT  NO.  198 


TECHNIQUES  FOR  THE  ANALYSIS  OF 

TOTAL  ENERGY  AND  LABOR 

OF  INDUSTRIAL  PLANTS 

*y 

Richard  E.  Klein 
Hasan  Sehitoglu 
Bruce  M.  Hannon 

May  1976 


°f  the 


it  UrbaM.Ctam,  ^ 


Digitized  by  the  Internet  Archive 

in  2012  with  funding  from 

University  of  Illinois  Urbana-Champaign 


http://archive.org/details/techniquesforana198klei 


CAC  DOCUMENT  No.   198 


TECHNIQUES  FOR  THE  ANALYSIS  OF  TOTAL  ENERGY 
AND  LABOR  OF  INDUSTRIAL  PLANTS 


by 

Richard  E.  Klein 
Hasan  Sehitoglu 
Bruce  M.  Hannon 


Center  for  Advanced  Computation 
University  of  Illinois  at  Urbana-Champaign 
Urbana,  Illinois    6l801 


May  1976 


This  work  was  conducted  under  support  from  the  National  Science  Foundation 

Grant  No.  NSF  SIA  72-03530 


ABSTRACT 

A  method  is  developed  for  determination  of  the  total  energy 
(direct  plus  indirect)  and  the  lahor  requirements  to  produce  a  unit  of 
output  from  an  industrial  plant  or  facility.   The  total  energy  and  labor 
requirements  are  determined  by  accounting  for  all  energy  and  labor  as  the 
product  or  raw  materials  flow  from  the  mine  or  other  natural  resource 
through  all  production  and  manufactures  to  a  given  production  status. 
In  this  way,  each  manufacturing  step  is  accounted  for  in  its  contribution 
to  the  total  energy  to  produce  a  unit  of  product.   The  work  requires  an 
examination  and  evaluation  of  the  input-output  structure  of  the  plant 
or  facility  in  question,  usually  from  the  viewpoint  of  cost  accounting 
data  sources.   To  illustrate  the  method,  several  specific  plants  are 
studied. 


TABLE  OF  CONTENTS 

Page 

Introduction 1 

Previous  Studies 3 

Theory 5 

Description  of  General  Procedure ' 8 

Applications  and  Conclusions 10 

References 2\ 

Appendix  A: 

Calculations  for  a  Sample  Plant 37 

Appendix  B: 

A  Sample  Program  \2 


Figure  LIST  OF  FIGURES  Page 

1.  Sector  3702  =  Iron,  Steel  Foundries,  1967  National  Average 

Energy  Flow 11 

2.  Energy  and  Labor  Analysis  of  an  Iron  Foundry 12 

3.  Input  Purchases  of  the  Iron  Foundry 13 

h.   Energy  and  Labor  Analysis  of  an  Iron  Foundry ll+ 

5.  Input  Purchases  of  the  Iron  Foundry 15 

6.  Sector  2902  =  Cleaning  Preparations,  1967  National  Average 

Energy  Flow 17 

7.  Energy  and  Labor  Analysis  of  a  Soap  Plant 18 

8.  Input  Purchases  of  the  Soap  Plant 19 

9.  Sector  3000  =  Paint  Products,  1967  National  Average  Energy  Flow.  .  20 

10.  Energy  and  Labor  Analysis  of  a  Paint  Plant  21 

11.  Input  Purchases  of  the  Paint  Plant 22 


LIST  OF  TABLES 
Table  Page 

1.  367-Level  Sector  Names  -  Industry  Classification  of  the 

1963  Input-Output  Tables 25 

2.  Sector  Aggregation  Scheme  (368  to  k2   sectors) 36 


INTRODUCTION 

A  complete  energy  "balance  of  a  plant  or  manufacturing  facility  in- 
volves both  direct  and  indirect  energy  flovs.   For  years,  the  importance 
of  indirect  energy  has  been  largely  neglected  or  avoided  and  attention 
has  been  focused  on  only  direct  energy  balances  and  thus  the  measures 
that  have  been  taken  to  conserve  energy  involved  largely  direct  energy 
concepts.   This  led,  for  example,  to  turning  down  thermostats,  better 
insulating,  closing  doors,  and  similar  measures.   Previous  research  done 
at  the  Center  for  Advanced  Computation  (CAC),  University  of  Illinois 
at  Urban a- Champaign  [1,2]  indicates  that  the  percentage  of  indirect 
energy  in  the  total  energy  required  to  produce  a  product  is  often  con- 
siderably greater  than  that  of  direct  energy  for  many  industry  types . 
Again,  for  many  industries  the  portion  of  indirect  energy  is  comparable 
to  or  greater  than  direct  energy.   The  consideration  of  conserving  total 
energy,  of  course,  adds  a  new  dimension  to  energy  conservation  concepts 
for  several  reasons. 

A  total  energy  balance  for  a  given  plant  stems  from  the  idea  of 
"energy  intensity".   Specifically,  it  is  now  known  [1,2]  that  the 
majority  of  industrial  commodities  produced  in  the  United  States  and 
similar  economic  societies  require  typically  from  50%   up  to  90$  of  the 
energy  in  the  indirect  form.   Consequently,  energy  conservation  efforts 
related  to  reducing  indirect  energy  hold  considerably  greater  potential 
for  a  larger  net  savings  in  energy  per  unit  of  final  output  made  available 
to  the  public  sector.   A  second  and  equally  important  reason  to  concen- 
trate on  reducing  total  energy  per  unit  of  final  output  is  that  minimi- 
zation of  direct  energy  by  a  single  plant,  for  example,  involved  in  only 

-1- 


one  of  the  many  steps  required  to  produce  a  unit  of  final  product  does  not 
necessarily  lover  the  total  energy  to  produce  the  unit  of  final  output. 
In  fact,  the  converse  is  often  times  true  in  that  a  direct  energy  minimi- 
zation at  a  given  step  of  manufacture  can  result  in  an  increase  in  the 
total  energy  content  in  the  final  output. 

This  point  may  "be  illustrated  by  any  of  many  examples  ,  and  all  of 
them  fall  under  the  description  of  what  is  called  exporting  one's  (direct) 
energy  requirements.   In  the  manufacture  of  automobiles,  consider  a  manu- 
facture X  who  not  only  assembles  the  final  components  comprising  the  fin- 
ished automobile,  hut  also  performs  many  preliminary  manufacturing  steps 
including  the  process  of  steel  making.   If  one  considers  merely  the 
energy  intensity  of  X  (direct  energy)  as  the  energy  added  during  the 
final  manufacturing  step  in  X's  factory  per  unit  produced,  then  X  can  re- 
duce his  direct  energy  requirements  merely  be  electing  to  purchase  steel 
rather  than  manufacture  it.   Thus,  X  has  made  himself  look  better  instant- 
ly, on  paper  at  least,  because  X  requires  now  fewer  energy  units  per  unit 
of  final  output.   Of  course,  the  deeper  conservation  question  is  unre- 
solved but  it  suffices  to  state  that  X's  decision,  in  the  national  in- 
terest with  respect  to  conservation,  should  be  predicated  on  the  issue  of 
minimizing  the  sum  of  energy  inputs  in  the  total  of  all  manufacturing  steps. 
This  thus  requires  a  method  to  evaluate  total  (direct  plus  indirect)  energy 
required  to  produce  a  unit  of  final  output.   In  the  above  we  have  defined 
indirect  energy  as  the  sum  of  all  energy  inputs  due  to  prior  manufactures, 
shippers,  supplies  and  the  like. 


-2- 


Previous  Studies 

The  determination  of  total  energy  in  producing  a  unit  of  final  output 
has  long  been  a  topic  of  discussion,  but  its  determination  has  been  elusive. 
First  attempts  have  amounted  to  tampering  with  and  making  ad  hoc  adjust- 
ments on  available  direct  energy  figures.   Specifically,  a  direct  energy 
study  in  a  plant  is  achieved  by  metering  or  counting  all  forms  of  direct 
energy  purchased  such  as  electricity  (KWH),  propane  (gallons),  natural  gas 
(therms  or  CCF's),  fuel  oil  (gallons),  and  possibly  steam  (BTU's).   In 
order  to  reduce  these  to  a  common  unit,  BTU's  are  usually  selected. 
Unfortunately,  the  conversion  factor  selected  for  electricity  is  often 
at  the  discretion  of  the  user.   The  plant  manager  prefers  to  use  3^1^  BTU/KWH 
from  the  heat  equivalent  in  physics,  however  the  concerned  environmentalist 
wishes  to  use  10,000  or  11,000  BTU/KWH  which  is  the  usual  amount  of  fossil 
fuel  heat  value  required  by  a  previous  manufacturer,  in  this  case  the 
electrical  power  utility.   Obviously,  the  net  difference  is  substantial 
and  the  adjustment  is  made  so  as  to  make  the  direct  energy  seem  more 
realistic.   Actually,  this  is  where  the  attempt  to  include  indirect  energy 
usually  stops. 

Now,  if  a  concerned  plant  manager,  of,  say,  a  pencil  factory,  wished 
to  actually  perform  a  total  (direct  plus  indirect)  energy  analysis  on  his 
manufacturing  facility  or  plant,  he  might  contemplate  doing  the  following. 

He  would  contact  each  previous  supplier  and  determine  the  direct  energy 
supplied  per  unit  of  say,  wood,  glue,  pencil  lead,  paint,  erasers,  sheet 
metal.   Now,  each  of  these  manufacturers  would  need  to,  in  turn,  calcu- 
late their  direct  energy  and  then,  contact  each  of  their  previous  suppliers. 

-3- 


The  paint  manufacturer  would,  for  example,  have  to  contact  his  suppliers 
of  spirits,  dyes,  resins,  and  the  like.   This,  of  course,  would  be  the  case 
for  the  suppliers  of  glue,  pencil  lead,  etc.   It  is  not  difficult  to  imagine 
that  this  procedure  leads  to  a  number  of  problems.   In  summary,  the  main 
difficulties  are 

1.  The  attempt  to  backtrack  to  each  supplier  and  to  their 
suppliers,  ad  nauseum  leads  one  to  an  overwhelming  book- 
keeping task  with  regard  to  the  geometric  progression  of 
numbers  until  reaching  the  original  mines,  farms,  and  forests. 

2.  The  geometric  progression  backward  leads  one  outside  of  one's 
domain  of  authority  in  that  many  (or  most)  companies  refuse 
to  respond  to  inquiries  regarding  manufacturing  process  in- 
gredients, quantities,  and  other  proprietary  data. 

3.  The  backward  search,  involves  some  inquiries,  possibly,  back 

to  the  original  pencil  manufacturer  in  that  his  company  supplied 
pencils  to  the  paint  manufacturer,  the  glue  factory,  and  so  forth. 
This  phenomena  constitutes  implicit  loops  and  thus  it  is  diffi- 
cult to  resolve  which  came  first,  the  pencil  or  the  paint. 

The  above  cited  difficulties  obviate  all  direct  energy  backtracking, 
except  in  all  but  the  simplist  and  vertically  arranged  industries. 
Other  techniques  for  total  energy  based  on  physics  and  theoretical 
values  have  been  considered,  however,  in  order  to  become  workable,  signi- 
ficant inaccuracies  occur  because  of  the  estimation  procedures  required. 


-k- 


In  what  follows,  a  summary  of  the  theory  behind  energy  intensity  is  given. 
A  more  extensive  description  of  the  basics  of  the  theory,  as  well  as  its 
limitations  and  assumptions,  can  be  found  in  a  series  of  CAC  reports 
[1],  [2]. 


THEORY 


By  definition,  the  total  output  of  an  industry  or  a  sector  is  the  sum 
of  its  sales  to  other  industries  plus  its  sales  for  final  consumption. 
Mathematically,  this  definition  is  described  by  the  following  equation. 

N 
XJ   =  I,    XJK  +  Yj  (1> 

IV— 1 


where 


X*      =     Total  output   of   »th  sector  in  dollars. 


X*        =     Amount  of  product      •    sold  to  sector  K  in 
Jiv  J 

dollars . 


Y*  =  Amount  of  product  sold  to  final  consumption 
in  dollars. 

N  =  Total  number  of  sectors.   In  this  study  367  sectors 
have  been  used  which  conforms  to  previous  works  in 
this  area  [3],  [h]. 
By  retaining  the  same  line  of  reasoning,  the  total  energy  embodied 
in  a  sector's  output  is  equal  to  the  sum  of  all  indirect  energy  embodied 
in  its  purchased  inputs  from  other  sectors  plus  energy  extracted  from 


-5- 


earth  by  that   sector.      Thus 


5   N 


5 

5 

"     ^  *  ** 

z    E_    £1P  xiJ 


where 

P  =  Energy  types  (i.e.  which  are  defined  as  coal,  crude  petroleum, 
refined  petroleum,  natural  gas  and  electricity,  respectively). 

e.p  =  P  type  energy  intensity  of  sector  i 

E*   =  P  type  energy  extracted  from  earth  by  sector  • . 

Theoretically,  e._  represents  the  P   type  of  energy  needed  to  pro- 
duce one  unit  of  product  i  if  all  inputs  were  obtained  domestically. 
Treatment  of  the  role  of  the  imports  and  exports  in  total  energy  analysis 
is  straightforward  and  is  presented  in  the  previously  cited  references. 
It  has  been  shown  in  previous  works,  however,  that  the  energy  impact 
of  noncompetitive  imports  is  negligible.  Thus,  only  competitive  im- 
ports need  be  considered  in  a  total  energy  analysis. 

The  approach  described  so  far  has  a  direct  relationship  to -the 
well  known  input-output  theory  through  the  definition  of  a  technologi- 
cal coefficient  matrix  A  which,  in  this  case,  is  equal  to 

X.T 
A.T  =   -l£  (k) 

Throughout  this  study,  the  matrix  A  is  assumed  to  be  independent  of 
time  and  scale  which  is  a  commonly  used  assumption  of  static  input-output 
theory.   The  errors  associated  with  the  assumption  of  static  coefficients 

-6- 


and  methods  to  minimize  them  are  discussed  briefly  later  and  are,  in 
addition,  the  subject  of  continued  investigation. 

The  energy  dependence  of  a  given  sector  on  the  rest  of  sectors 
of  the  economic  unit  can  be  best  understood  by  defining  a  set  of  energy 
input  coefficients,  as  below, 

.  .   ePiXiJ  (5) 

PiJ  ~   ePJXJ 

where,  G^,  •,  is  defined  to  represent;  the  total  amount  of  energy  type  P 

rlu 

required  to  produce  one  unit  of  product  •   ,  in  that  a  percentage 
Gp  •   entered  through   *'s  purchase  of  i  . 

Thus,  with  the  introduction  of  the  above  definition,  the  equation 
(2)  becomes 

5   N  5    E  • 

1    l    Gpij    +    l     r^F    =    x  (6) 

p=i  i=i  PlJ        p=i  £pjxj 

The  theory  that  is  explained  above  is  applicable  to  any  economic 
unit,  e.g.,  the  U.S.  economy,  a  state  economy,  a  group  of  industries  pro- 
ducing a  similar  item,  a  corporation,  a  single  plant,  etc.   The  Energy 
Research  Group  at  CAC  has  applied  this  theory  to  the  U.S.  economy  by 
using  the  data  base  collected  by  the  Department  of  Commerce.   The 
results  for  the  years  1963  and  19&7  are  available  in  various  CAC 
publications.  The  publication  CAC  Document  105,  [3],  for  example, 
contains  the  detailed  analyses  of  energy  use  in  the  367  commercial  and 
industrial  sectors  of  the  U.S.  economy  in  1963.   Sectors  are  also 
ranked  according  to  several  energy  use  criteria  like  direct  energy 
and  energy  intensity.   Another  related  CAC  publication  is  the  document 

-7- 


lUO,  [^]»  which  presents  a  more  recent  improved  method  of  calculating 
energy  intensity.  Reference  [k]   contains  recalculated  1963  values  and 
1967  values  for  the  first  time.   Because  the  historical  data  for  two 
times  is  now  available,  researchers  have  focused  considerable  attention 
on  the  time  varying  behavior  of  the  linear  model  coefficients  and  on 
the  task  of  extrapolating  the  energy  trends  into  the  future  for  a  par- 
ticular sector. 

DESCRIPTION  OF  GENERAL  PROCEDURE 

The  input-output  approach  described  above  can  be  applied  to  a  single 
plant's  total  energy  and  labor  analysis.  Due  to  the  homogenity  of  the 
U.S.  industrial  society,  it  is  reasonable  to  assume  that  a  single  plant's 
inputs,  energy  wise,  are  approximately  the  same  as  the  national  energy 
and  labor  coefficients.   Specific  figures  are  available  for  the  years 
1963  and  1967.   Each  coefficient  in  the  University  of  Illinois  model  re- 
presents the  inherent  energy  (and  labor)  required  by  each  sector  to  bring 
its  product  to  final  demand.   The  energy  coefficient  matrix  is  a  357  x  357 
matrix  and  its  units  are  BTU/$  except  for  the  five  energy  sectors  which 
are  dimensionless.  Thus  the  data  concerning  the  purchased  inputs  for 
a  plant,  except  for  its  energy  inputs,  must  be  in  terms  of  dollar  figures. 
In  order  for  a  firm  to  obtain  a  total  energy  balance  in  a  fixed  time  per- 
iod all  input  purchases  made  by  the  plant  are  to  be  classified  in  one  of 
the  economic  sectors  found  in  Table  1.   If  difficulty  arises  in  assign- 
ing a  particular  purchase  to  a  sector,  one  may  refer  to  the  Standard 
Industrial  Classification  manual  [5]  which  gives  a  much  more  general 
description  of  where  products  are  assigned.  The  numbering  code  in  the 
SIC  can  then  be  converted  to  particular  sectors  by  utilizing  the  extreme 

-8- 


right  hand  column  of  Table  1. 

Because  the  energy  coefficients  are  based  on  producers'  price  data, 
all  purchases  must  be  converted  to  the  producers '  price  and  thus  trade 
and  transportation  margins  must  be  applied  to  the  appropriate  input 
sectors. 

As  mentioned  above,  the  total  energy  coefficient  matrix  is  avail- 
able for  the  year  1967  at  the  latest .  Thus ,  dollar  input  purchases  of 
the  plant  must  be  deflated  to  this  base  year.  The  best  price  deflators 
appear  in  the  "Survey  of  Current  Business",  [6],   This  journal  publishes 
the  implicit  price  deflators  for  most  of  the  sectors  of  U.S.  economy  in 
its  July  edition  every  year.  The  "Monthly  Labor  Review",  [7],  has  also 
price  deflators  for  a  large  number  of  sectors  and  they  are  presented 
under  SIC  format.   Similarly,  in  the  labor  intensity  analysis,  the 
change  in  productivity  between  the  year  in  question  and  the  base  year 
must  be  taken  into  account.  Hence,  direct  and  indirect  labor  inputs 
to  the  plant  must  be  multiplied  by  the  productivity  index  which  can 
be  found  in  the  reference  [7]. 

After  preparing  the  data  in  the  above  manner  what  remains  is  to 
multiply  the  dollar  figures  of  each  input  purchase  by  its  corresponding 
energy  and  labor  coefficient  to  get  the  energy  and  labor  levels  embedded 
in  that  particular  purchase.   In  particular,  application  of  the  equation 
(6)  yields  the  sectorwise  percentage  impact  of  the  five  energy  sectors 
and  labor  on  the  plant's  energy  and  labor  flow. 


-9- 


APPLICATIONS  AND  CONCLUSIONS 

The  theory  has  "been  applied  to  a  number  of  selected  industries. 
Three  different  selected  industries  are  discussed  below.   In  each  case, 
as  the  analysis  shows,  the  energy  and  labor  content  of  the  unit  of  output 
entered  into  plant  mostly  as  indirect  energy  due  to  the  purchase  of  supplies, 
materials  and  other  inputs.  Again,  in  each  case,  indirect  energy  and  labor 
concentrated  at  certain  of  the  sectors.  This,  of  course,  suggests  that 
efforts  to  conserve  energy  most  effectively  should  be  directed  at  reducing 
these  indirect  inputs. 

In  the  first  case  an  iron  foundry  plant  producing  a  variety  of  general 
purpose  castings  is  investigated.   In  Fig.  (l),  19&7  national  average 
energy  flow  of  the  iron  foundry  sector  is  given.   The  national  average 
figures  should  be  compared  to  the  actual  plant  figures  which  are  shown  in 
Fig.  (2).  As  it  can  be  seen,  the  energy  inputs  are  larger  at  certain  spots 
with  similar  percentages.  Most  of  the  zero  values  appearing  in  the  energy 
flow  of  the  actual  plant  are  due  to  lack  of  data,  but  were  assumed  &   priori 
to  negligible.  According  to  the  analysis  this  particular  plant  is  doing 
better  energy  wise  than  an  average  foundry  because  its  primary  energy 
intensity  (BTU/1967  $)  is  less  than  the  national  average  figure.   In  ad- 
dition to  energy  figures,  Fig.  (2)  gives  labor  analysis  of  the  same  plant. 
It  indicates,  for  example,  that  in  the  case  of  a  wage  increase  in  the 
primary  metal  sector,  this  particular  plant  will  be  faced  with  the  prob- 
lem of  increasing  its  dollar  expenditure  by  a  predictable  amount  for  the 
associated  input  purchases.  This,  in  turn,  may  force  the  plant  manager 
to  increase  the  price  of  the  product  manufactured  by  the  plant  under  study. 

-10-- 


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SECT.     NO 


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0.84903400E  12 

0.92286480E  06 

0.10560000E  06 

0.27840000E  04 

0.20172000E  06 

0.14820000E  06 

0.99867180E  05 

0.17748360E  07 

G.23169590E  07 

0.24968280E  08 

0.30225050E  05 

0.74640000E  05 

0.52998230E  05 


Fig.    3.      INPUT   PURCHASES   OF  THE  IRON  FOUNDRY 


-13- 


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-14- 


SECT.  NG 

SECTOR  NAME 

700 

COAL  WINING 

3101 

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68  0  1 

ELECTRIC  UTIL 

6802 

GAS  UTILITIES 

500 

STONE  CLAY  MIN 

1414 

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1415 

SUGAR 

2701 

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2704 

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2eoi 

PLASTICS 

3616 

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361  5 

TREATED  MINERALS 

3701 

STFEL  PROD 

3704 

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3805 

PRIM  NONFER  MET 

6e03 

WATERiSANIT  SLR 

PURCHASE (J) 

0.26535420E  13 

0.42310740E  12 

0.55699950E  12 

0-94303400E  12 

C.93031480E  06 

0.16S60000E  06 

0.27840000E  04 

0.168120C0E  06 

0.26900000E  06 

0.73627180E  05 

0.17748360E  07 

0.23169590E  07 

0.24968280E  08 

0.30225050E  05 

0.74640000E  05 

0.53014190E  05 


Fig.    5.      INPUT   PURCHASES   OF  THE  IRON  FOUNDRY 


-15- 


Fig.  (3)  shows  the  annual  sectorwise  input  purchases  of  this  iron  foundry 
in  dollars.  When  this  study  was  going  on,  the  plant  was  planning  to  change 
one  of  the  processes  in  the  production  line.  Fig.  (k)    shows  the  energy 
map  of  the  same  plant  if  the  planned  process  change  is  carried  on.  The 
analysis  shows  the  plant  will  achieve  a  degree  of  energy  savings  in  natu- 
ral gas  sector.   Thus  this  kind  of  total  energy  analysis  gives  an  idea  to 
the  decision  maker,  such  as  the  plant  manager,  to  decide  on  the  possible 
energy  savings  through  certain  process  changes.  Fig.  (5)  shows  the  pro- 
jected annual  input  purchases  of  the  iron  factory  if  the  process  change 
is  implemented. 

The  second  industry  investigated  in  this  study  is  a  soap  factory. 
The  energy  analysis  of  the  factory  yielded  an  energy  map  similar  to  the 
1967  national  average  energy  map  of  the  cleaning  preparations  sector  in 
which  soap  production  falls.   Fig.  (6)  and  Fig.  (7)  show  national  average 
and  actual  plant  energy  flow,  respectively.   In  Fig.  (8)  annual  input 
purchases  of  the  soap  plant  is  given. 

Finally,  energy  and  labor  analysis  of  a  paint  manufacturing  plant 
is  presented.   A  comparison  between  the  national  paint  production  energy 
flow  shown  in  Fig.  (9)  and  the  actual  plant  energy  flow  shown  in  Fig. 
(10)  results  in  the  same  conclusions  as  stated  above.   Fig.  (ll)  gives 
the  dollar  input  purchases  of  the  paint  plant . 

This  study  has  shown  that  the  input-output  energy  and  labor  analysis, 
as  given  above,  closes  the  gap  between  decision  makers  and  the  problems 
associated  with  energy  and  labor  flows  in  an  economic  unit.  An  industry 
can  lessen  its  dependence,  for  example,  on  critically  short  energy  types 
by  making  practical  substitutions  from  high  energy  intensive  materials 


-16- 


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-21- 


SECT.  NO 

SFCTOR  NAME 

PURCHASE ( S) 

700 

COAL  MINING 

0  .355255  10E 

12 

3101 

PETRC  REF  I  N  PROD 

0 .255641 I0E 

13 

680  1 

ELECTRIC  UT IL 

0.22726650E 

12 

206 

GIL  BEARING  CHOP 

0.171 12550E 

07 

500 

IRON  ORE  MINING 

C .915222C0L 

06 

602 

NCNFERR  MINING 

0 • 18652320E 

C7 

QOO 

STONE  CLAY  MIN 

0 .24456310E 

07 

142C 

CCNFECT  IONERY 

C.87666800E 

06 

1426 

VEG  OIL  MILLS 

0.20677400b 

06 

2407 

CCNV  PAPER  PRJC 

0.21256760E 

07 

2701 

INCRG-URG  CHEM 

0. 147564C0E 

06 

2704 

MISC  ChLM  FROO 

0.24227000E 

07 

280  1 

PLASTICS 

0.10473770b 

08 

2902 

CLEANING  PREP 

0  .71 21  1500E 

06 

3203 

MI  EC  RUBLER  PROD 

0  .533  70000E 

06 

3204 

MI SC  PLAST  ICS 

0.456748U0F 

06 

361  6 

ABRASIVE  PRODUCT 

0.48842100b 

0  6 

370  1 

STEEL  PROD 

0  .60  700500E 

06 

3602 

PRIMARY  LL AD 

0.676801 20b 

07 

3603 

PRIMARY  ^INC 

0.11 463240E 

07 

3901 
3902 

ME  TAL  CANS 

0 .381 10CC0E 

07 

METAL  EARPELb 

0. 207250 7 OE 

07 

4206 

PIPF 

0  .  13702040L 

07 

500C 

MACH  SHCP  PROD 

C  .462203COF 

06 

641  2 

MISC  Ml- G 

0.67S777tiOE 

07 

6501 

RA IL  RCAU 

0  .31476000E 

07 

690  I 

VkHOLSALE  TRADE 

0  •  157790C0L 

07 

7C01 

BANK  I NG 

0.52000500E 

06 

7102 

t-LAL  LTTATl 

0  .57862200E 

0  6 

7302 

ADVtRTI SING 

0.  13220040b 

07 

Fig.  11.   INPUT  PURCHASES  OF  THE  PAINT  PLANT 


-22- 


and  services  purchased  "by  the  plant  to  low  energy  intensive  ones.  Hence, 
the  industry  will  ideally  be  able  to  reduce  the  energy  intensity  of  its 
outputs  in  spite  of  fluctuations  and  other  changes  in  the  energy  supply 
situation. 

Appendix  A  contains  a  brief  user's  handbook  which  summarizes  the  steps 
involved  in  the  method  developed  for  analyzing  total  energy.  Appendix  B 
consists  of  a  sample  listing  of  the  Fortran  program  used  in  the  total 
energy  analysis. 


-23- 


REFERENCES 

1.  C.  W.  Billiard  and  R.  A.  Herendeen,  'Energy  impact  of  consumption 
decisions'.  Document  No:  135,  Center  for  Advanced  Computation, 
University  of  Illinois,  Urbana,  Illinois  6l801 

2.  Herendeen,  R.  A.,  "An  energy  input-output  matrix  for  the  United 
States  1963  User's  Guide'.   Document  No.  69,  Center  for  Advanced 
Computation,  University  of  Illinois,  Urbana,  Illinois  618OI. 

3.  Bullard,  C.  W.  and  Herendeen,  R.  A.,  "Energy  use  in  the  commercial 
and  industrial  sectors  of  the  U.S.  economy  1963'.   Document  105, 
Center  for  Advanced  Computation,  University  of  Illinois,  Urbana, 
Illinois  6l801. 

k.      Herendeen,  R.  A.  and  Bullard,  C.  W.,  'Energy  cost  of  goods  and  services, 
1963  and  1967'.   Document  1^0,  Center  for  Advanced  Computation,  Univer- 
sity of  Illinois,  Urbana,  Illinois  6l801. 

5.  Standart  Industrial  Classification  Manual,  Bureau  of  the  Budget, 
Executive  Office  of  the  President,  1957- 

6.  Survey  of  Current  Business. 

7.  Monthly  Labor  Review. 


-2U- 


TABLE    1. 
367-LEVEL    SECTOR   NAMES 

Industry  Classification  of  the  1963  Input-Output  Tables 

The  underlined  titles   represent  the  groupings  of  industries  used  for  the   summary 
version  of  the  1963  tables  and  were  also  used  in  the  1958  and  1961  input-output 
tables  prepared  by  the  Office  of  Business  Economics. 


Industry  number  and  title 


Related  SIC  code: 
(1957  edition) 


vACRICULTURAL,   FORESTRY  &  FISHERIES 

1  Livestock  h.  livestock  products 

J..01  Dairy  farm  products 0132,  pt.  Oik,  pt.  02 

1.02  Poultry  &  e.7gs - .- 0133,  pt.  Oik,  pt.   02 

1.03  Meat,  animals  L  miscellaneous  livestock  products 0139,  pt.  Oik,  0193,   pt. 


■0729,   pt.   02 


2  Other  agricultural  products 


2.01  Cotton 0112,  pt.  Oik,  pt.  02 

2.02  Food  feed  grains  &.  grass  seeds 0113,  pt.  Oil'),  pt.  Oik, 

pt.  02 

2.03  Tobacco pt.  0119,  pt.  Oik,  pt.  02 

2.0k      Fruits  &  tree  nuts 0122,  pt.  Oik,  pt.  02 

2.05  Vegetables,  sugar  &  miscellaneous  crops 0123,  pt.  0119,  pt.  Oik, 

pt.  02 

2.06  Oil  bearing  crops pt.  0119,  pt.  Oik,  pt.  02 

2.07  Forest,  greenhouse  &  nursery  products— — — -—  0192,  pt.  01k,  pt.  02 

3  Forestry  &  fishery  products 

3.00      Forestry  &  fishery  products 07k,  08l,  082,  05k,  036,  091 

k  Agricultural,  forestry  &  fishery  services 

i».00      Agricultural,  forestry  &  fishery  services 071,  0723,  073,  nt.  0729. 


MINING 

5  Iron  L   ferroalloy  ores  mining 

5*00      Iron  &  ferroalloy  ores  mining — —  1011,  106 

6  Nonferrous  nvstal  ores  rinirjr 

6.01  Copper  ore  mining — 102 

6.02  Nonferrous  metal  ores  mining,  except  copper —  103,  10k,  105,  108,  109 

7  Coal  mining 

7.00      Coal  mining H,  12 

8  Crude  petrolem  &  natural  gas 

8.00      Crude  petroleum  &  natural  gas 1311,  1321 

P   Stone  &  clay  reining  &  quarrying 
9.00      Stone  &  clay  mining  &  quarrying lkl,  lk2,  lkk,  lk-5,  lkS,  lk9 

10  Chemicals  &  fertiliser  mineral  mining 
20.00      Chemical  &  fertiliser  mineral  mining ' lk7 

-25- 


Industry  number  and  title 


Related  SIC  codes 
(1957  edition) 


CONSTRUCTION 

11  New  construction 

11.01  Hew  construction,  residential  buildings  (nonfarm)  —  pt.  15,  pt.  l6,  pt.  17, 

n.t.  6561 

11.02  Hew  construction,  nonresidential  buildings —  ,  pt.  15,  pt.  17 

11.03  Nov  construction, public  utilities--—— — - — — — —  '  pt.  15,  pt.  l6,  pt.  17 

11.04  New  construction,  h.'glivays pt.  16,  pt.  17 

11.05  New  construction,  ail  other pt.  15,  pt.  l6,  pt.  17,  138 

1!?  Maintenance  &•  re-pair  construction 

12.01  Maintenance  &,   repair  construction,  residential 

buildings  (nonfarm) — -—  pt.  15,  pt.  17 

12.02  Maintenance  &  repair  construction,  all  other pt.  15,  pt.  16,  pt.  17 


MANUFACTURING 


13.01 
13.02 
13.03 
13-04 
13.05 
13.06 

13.07 


1U.01 

14.02 
14.03 
14.04 
14.05 
14.06 
14.07 
14.08 
14.09 
14.10 
14.11 
14.12 
14.13 
14. 14 
14.15 
14.16 
14.17 
14.18 
14.19 
14.20 
14.21 

14.22 
14.23 
14.24 
14.25 
14.26 
14.27 
14.23 
14.29 
14.30 
14.31 
14.32 


13  Ordnance  &  accessories 

Complete  guided  missiles ■ —  1925 

Ammunition,  except  for  snail  ams,  n.e.c. — -  1929 

Tanks  &  tank  components — 1931 

Sighting  &  fire  control  equipment — 194l 

Small  arms —  1951 

Small  arms  ammunition •■ — — -  1961 

Other  ordnance  &  accessories- — — — —  1911,  1999 

14  Food  &  kindred  products 

Meat  products — — -— — -  201 

Creamery  butter —  2021  " 

Cheese,  natural  &  processed — —  2022 

Condensed  &  evaporated  milk 2023 

Ice  cream  &  frozen  desserts-*- —  2024 

Fluid  milk —  2026 

Canned  &  cured  sea  foods — 2031 

Canned  specialties 2032 

Canned  fruits  &  vegetables 2033 

Dehydrated  food  products 2034 

Pickles,  sauces  &  salad  dressings 2035 

Fresh  or  frozen  packaged  fish —  2036 

Frozen  fruits  &  vegetables 2037 

Flour  &  cereal  preparations 2041,  2043,  2045 

Prepared  feeds  for  animals  &  fowls 2042 

Rice  milling 2044 

Wet  corn  milling 2046 

Bakery  products 205 

Sugar 206 

Coiifectionery  &  related  products 207 

Alcoholic  beverages ■ 2082-5 

Bottled  &  canned  soft  drinks 2086 

Flavoring  extracts  &  6irups,  n.e.c. 2087 

Cottonseed  oil  mills - - 2091 

Soybean  oil  mills 2092 

Vegetable  oil  mills,  n.e.c. 2093 

Animal  &  marine  fats  &  oils 2094 

Roasted  coffee 2095 

Shortening  &  cooking  oils 2096 

Manufactured  ice 2097 

Macaroni  Sc  spaghetti 2098 

Food  preparations,  n.e.c. 2099 


-26- 


Industry  number  and  title 


Related  SIC  codes 
(1957  edition) 


15  Tobacco  rranufactures 

15.01  Cigarettes,  cigars,  etc. 2111,  "2121,  2131 

15.02  .     Tobacco  stemming  &  redrying «■ 2l4l 

16  Broad  &  narrow  fabrics,  yarn  &  thread  mills 

16.01  Broadwoven  fabric  mills  &  faerie  finishing  plants—  2211,  2221,  2231,  226l,  2262 

16.02  Narrow  fabric  mills 2241 

16.03  Yam  nill3  &  finishing  of  textiles,  n.e.c 2269,  2281-3 

16.04  Thread  mills - 226% 

17  Miscellaneous  textile  goods  &  floor  covering's 

17.01  Floor  coverings —  227 

17.02  Felt  goods,  n.e.c. 2291 

17.03  Lace  goods 2292 

17.04  Paddings  &  upholstery  fillings 2293 

17.05  Processed  textile  vaste ; 2294 

17.06  Coated  fabrics,  not  rubberized 2295 

17.07  Tire  cord  L   fabric 2296 

17.08  Scouring  &  combing  plants 2297 

17.09  Cordage  &  twine 2298 

17.10  Textile  goods,  n.e.c. — 2299 

18  Apparel 

18.01  Hosiery - 2251,  2252 

18.02  •  Knit  apparel  mills —  2253,  2254,  2259 

18.03  Knit  fabric  mills - 2256 

18.04  Apparel  made  from  purchased  materials 23  (exc.  239),  3992 

19  Miscellaneous  fabricated  textile  products 

19.01  Curtains  &  draperies 2391 

19.02  Hcusefurnishings,  n.e.c. 2392 

19*03      Fabricated  textile  products,  n.e.c 2393-9 

20  Lumber  &  wood  -products,  except  containers 

20.01  Logging  camps  &  logging  contractors 2411 

20.02  Sawmills  &  planing  mills,  general 2421 

20.03  Hardwood  dimension  &  flooring- 2426 

20.04  Special  product  sawmills,  n.e.c. 2429 

20.05  Mlllwork 2431 

20.06  Veneer  &  plywood 2432 

20.07  Prefabricated  wood  structures 2433 

20.08  Wood  preserving 2491 

20.09  Wood  products,  n.e.c. 2499 

21  Wooden  containers 

21.00  Wooden  containers 244 

22  Household  furniture 

22.01  Wood  household  furniture 2511,  2519 

22.02  Upholstered  household  furniture 2512 

22.03  Metal  household  furniture 2514 

22.04  Mattresses  &  bedsprings . 2515 

23'  Other  furniture  &  fixtures 

23.01  Wood  office  furniture 2521 

23.02  Metal  office  furniture 2522 

23.03  Public  building  furniture 2531 

23.04  Wood  partitions  &  fixtures 254l 

23.05  Metal  partitions  &  fixtures 2542 

23.06  Venetian  blinds  &  shades 2591 

23.07  Furniture  &  fixtures,  n.e.c. 2599 

-27- 


Industry  number  and  title 


Related  SIC  codes 
(1957  edition) 


2U.01 
2U.02 
2h.03 
2U.0U 
2U.05 
2k.06 
2k.0J 


25.00 


26.01 
26.02 
26.03 
?6.0k 
26.05 
26.06 
26.07 
26.08 


2h  peper  &  allied  products  except  containers  ft  bcxes 

Pulp  nulls 

Paper  mills,   except  building  paper 

Paperbcard  millr. 

Envelopes 

Sanitary  puper  products 

Wallpaper  &  building  paper  ?<  board  mills 

Converted  paver,  products  n.e.c.  except  containers 
&  boxes 

25  Paperboard  containers  fc  boxes 

Paperboard  containers  &  'boxes 


26  Printing  &   publishing 

Newspapers 

Periodicals 

Book  printing  2;  publishing 

Miscellaneous  publishing 

Cornoercial  printing . - 

Manifold  business  forms,  blankbooks  &  binders- 

Greeting  card  publishing 

Miscellaneous  printing  services 


2611  • 

2621 

2631 

26U2 

261*7 

2Ckh,   2661 

261*1,  26»*3,  26U5,  261*6,  261*9 


265 


2711 

2721 

273 

271*1 

2751,  2752 

2761,  2782 

2771 

2753,  2789,  279 


27-01 
27.02 
27-03 
27.01* 


28.01 
28.02 
28.03 

28. 01* 


27  Chemicals  &  .selected  chemical  products 

Industrial  inorganic  &  organic  chemicals- 
Fertilizers 

Agricultural  chemicals,  n.e.c. 

.  Miscellaneous  chemical  rroducts 


28  Plastics  3:  synthetic  materials 
Plastics  materials  &  resins — 

Synthetic  rubber 

Cellulosic  man-nade  fibers 

Organic  fibers,  noncellulosic- 


28l  except  28195 
2871,  2872 
2879 
2861,  289 


2821 
2822 
2823 
2821* 


29  Drugs,  cleaning  T<  toilet  preparations 

29.01  Drugs 

29.02  Cleaning  preparations 

29.03  Toilet  preparations 


283 

281*  except  281*1* 

23kh 


3O.OO 


30  Paints  &  allied  products 

Paints  &  allied  Droducts- 


2851 


31.01 
31.02 
31.03 


32.01 
32.02 
32.03 

32.01* 


33.00 


31  Petroleum  refining  &  related  industries 
Petroleum  refining  cc  related  prcJJucts- 

Paving  mixtures  5c  blocks 

Asphalt  felts  &  coatings 


32  Rubber  &  ;nisce]laneov.s  "plastics  products 

Tires  it   iru>er  tuees 

Rubber  footwear 

Reclaimed  rubber  &  miscellaneous  rubber  products, 

n.e.c. '■■ 

Miscellaneous  plastics  products 


33  Leather  tapjiin.g  &  industrial  leather  products 

Leather  taiuiing  &  industrial  leather  products- 

-28- 


2911, 
2951 
2952 

299 

3011 
3021 

3031, 
3079 

3069 

3111, 

3121 

Industry  number  and  title 


Related  T.IC  codes 
(1957  edition) 


3^  Foot/year  L  other  leather  products 

34.01  Footwear  cut   stock 313I 

3'*«02      Footwear  except  rubber 31^ 

34.03      Other  leather  products 3151,  3l6l,  317,  3199 

35  Glass  &  glass  -product: 3 

35.01  Glass  it   glass  products  except  containers 3211,  3229,  3231 

35.02  Class  containers 3221. 

36  Stone  &  clay  products 

36.01  Cement,  hydraulic 321*1 

36.02  Brick  St   structural  clay  tile 3251 

36.03  Ceramic  wall  &  floor  tile 3253 

36.0^      Clay  refractories 3255 

36.05  Structural  clay  products,  n.e.c 3259 

36.06  Vitreous  pitching  fixtures — — 326l 

36.07  Food  utensils,  pottery 32o2,  3263 

36.08  Porcelain  electrical  supplies-- 3264 

36.09  Pottery  products,  n.e.c. 3269 

36.10  Concrete  block  u,  brick 3271 

36.11  Concrete  products,  n.e.c. . 3272 

36.12  Heady-mixed  concrete 3273 

36.13  Line - — — 327U 

36.14  Gypsum  products 3275 

36.15  Cut  stone  &  stone  products 3281 

36.16  Abrasive  products 3291 

36.17  Asbestos  products 3292 

36.18  Gaskets  &  insulations 3293 

36.19  Minerals,  ground  or  treated 3295 

36-20      Mineral  wool 3296 

36.21  Nonclay  refractories 3297 

36.22  Nonmetallic  mineral  products,  n.e.c. 3299 

37  Primary  iron  &  steel  manufacturing 

37.01  Blast  furnace  i  bacic  steel  products 331 

37.02  Iron  &  steel  foundries 332 

37.03  Iron  St   steel  forgings 3391 

37.04  Primary  metal  products  n.e.c 3399 

38  Primary  nonferrous  petals  manufacturing 

38.01  Primary  copper 3331 

38.02  Primary  lead 3332 

38.03  Primary  zinc 3333 

38.04  Primary  alunir.ua> 333^,  28195 

38.05  Primary  nonferrous  metals,  n.e.c. 3339 

38.00  Secondary  nonferrous  metals 334l 

38.07  Coprer  rolling  a  drawing 3351 

38.08  Aluminum  rolling  St   drawing 3352 

38.09  Nonferrous  rolling  &  drawing,  n.e.c. 3356 

38.10  ITcnfcrrous  wire  drawing  &  insulating 3357 

33.11  Aluminum  castings 336l 

38.12  Bror.c,  bronze  &  copper  castings 3362 

38.13  Nonferrous  castings,  n.e.c 336? 

38.  xk  Nonferrous  forging s 3392 

39  Metal  containers 

39.01  Metal  cans 31*11 

39-02  Metal  barrels,   dnoas  &  pails 3I+9I 

-29- 


Industry  number  and  title 


Related  SIC  codes 
(1957  edition) 


frO  Heating,    plumbing  £  fabricated   structural  metal  products 

frO.Ol  Metal   sanitary  vv.re 3^31 

tO. 02  Plumbing  fittings  &  brass  goods 3^32 

frO. 03  Heating  equipment  except  electric — - — - —  3**33 

frO.Ofr  Fabricated  structural  steel 3Wtl 

frO. 05  Metal  doors,  sash  &  trim 3frfr2 

frO. 06  Fabricated  plate  work  (boiler  shops) —  3frfr-3 

frO. 07  Sheet  metal  work 3frfrfr  ' 

frO. 08  Architectural  metal  work 3^fr6 

frO. 09  Miscellaneous  metal  work 3fri+9 

frl  Screw  machine  products,  bolts,  nuts,  etc-  &  metal  stampings 

frl.01  Screw  irachiue  products  &  bolts,  nuts,  rivets  !c 

washers 3^5 

frl.02  Metal  stampings — —  3fr6l 

1*2  Other  fabricated  metal  -products 

fr2.01  Cutlery 3fr21 

fr2.02  Hand  &  edge  tools  including  saws 3fr23,    3fr25 

fr2.03  Hardware,   n.e.c 3fr29 

fr2.0fr  Coating,   engraving  &  allied  services 3^71,   3^79 

1*2.05  Miscellaneous  fabricated  wire  products 3fr8l 

1*2. 06  Safes  &  vaults 3^92 

fr2.07  Steel  springs-— - - 3^93 

fr2.08  Pipe,  valves  &  pipe  fittings - 3U9U,  31*98 

fr2.09  Collapsible  tubes 3*96 

fr2.10  Metal  foil  &  leaf - - 3U97 

fr2.11  Fabricated  metal  products,  n.e.c 3^99 

fr3  Engines  &  turbines 

1*3.01  Steam  engines  &  turbines 3511 

'^■^•02  Internal  combustion  engines,  n.e.c 3519 

frfr  Farm  machinery 

frfr.00  Farm  machinery-- 3522 

1*5  Construction,  mining,  oil  field  machinery,  equipment 

fr5-01  Construction  machinery 3531 

fr5.02  Mining  machinery 3532 

1*5.03  Oil  field  machinery 3533 

1*6  Materials  handling  machinery  &  equipment 

1*6.01  Elevators  &  moving  stairways 353fr 

1*6.02  Conveyors  &  conveying  equipment 3535 

1*6.03  Hoists,  cranes  L   monorails 3536 

fr6.0fr  Industrial  trucks  &  tractors 3537 

1*7  Metalvarking  machinery  &  equipment 

1*7.01  Machine  tools,  metal  cutting  types 351*1 

1*7-02  Machine  toolj,  metal  forming  types 35fr2 

1*7.03  Special  dies  &  tools  &  machine  tool  accessories 35frfr,  35fr5 

l*7«0fr  Metalworking  machinery,  n.e.c 35I18 

fr8  Special  industry  machinery  &  equipment 

fr8.01  Food  products  machinery 3551 

1*8.02      Textile  machinery 3552 

1*8.03  Woodworking  machinery ^553 

1*8. Ofr  Paper  industries  machinery 355fr 

1*8.05  ■  Printing  trades  machinery 3555 

fr8. 06  Special  industry  machinery,  n.e.c 3559 

-30- 


Industry  number  and  title 


Belated  SIC  codes 
(1957  edition) 


1*9  Gcperol  Industrial  necMnery  h  equipment 

1*9.01  Punps  ft  canpressGi-s — — -  35"1 

1*9.02  Bill  L  roller  bearings 3^6P 

1*9.03  Blowers  &  fans- — :-  3:6U 

1j9-0U  Industrial  patterns — — , 3565 

1*9.05  Power  transmission  equipment ———»——.—  3566 

1*9. 06  Industrial  furnaces  &  ovens 3567. 

I19.O7  General  industrial  machinery,   n.e.c 3569 

50  Machine  shop  croquets 

50.00  Machine  shop  products — —  359 

51  Office,  computing  &  accounting  machines 

51.01  Computing  &   related  machines 3571 

51.02  Typewriters - 3572 

51.03  Scales  &  balances 3576 

51. Oh  Office  machines,  n.e.c 3579 

52  Service  industry  machines 

52.01  Automatic  merchandising  machines — --  358l 

52.02  Comrrercial  laundry  equipment 3582 

52.03  Refrigeration  machinery 3585 

52. OU      Measuring  &  dispensing  pumps 3586 

52.05      Service  industry  machines,  n.e.c. 3589 

53  Electric  transmission  &  distribution  equipment  &  electrical 

industrial  ar,rara:u:; 

53»01      Electric  measuring  instruments 36ll 

53.02  Transformers-- —  3612 

53.03  Switchgear  L   switchboard  apparatus 36l3 

53-Ci*      Mctors  &  generators 3621 

53.05  Industrial  controls 3622 

53.06  Welding  apparatus 3623 

53.07  Carbon  &  graphite  products 362U 

53«08      Electrical  industrial  apparatus,  n.e.c. — -  3629 

5^  Household  appliances 

5^.01      Household  ceokifig  equipment 363I 

5^.02      Household  refri  ;erators  &  freezers 3632 

5l».03      Household  laundry  equipment 3633 

5U.0U      Electric  housewares  &  fans * 363U 

5^.05      Household  vacuum  cleaners ■ 3635 

5i».0o       Sewing  machinos 3636 

5I+.O7      Household  appliances,  n.e.c. 3639 

55  Electric  llfhtimg  't  wiring  equipment 

55-01      Electric  lamps 361*1 

55.02  Lighting  fixtures - - 361*2 

55.03  Wiring  devices 361*3,  36kk 

56  Radio,  television  h   CCTnuinicatlon  equipnent 

56.01  Radio  &  TV  recei'/in,:  sets 3651 

56.02  Phonograph  records 3652 

56.03  Telephone  i  telegraph  apparatus 3661 

56. 0l*      Radio  &  TV  communication  equipment 3662 

57  Electronic  components  &•  accessories 

57-01      Electron  tubes 367I,  3672,  3673 

57.02      Seniconductcrs 367U 

57*03      Electronic  components,  n.e.c- 3679 

-31- 


Industry  number  and  title 


Related  SIC  codes 
(1957  edition) 


50  Miscellaneous  electrical  machinery,  equipment  &  supplieo 

58.01  Storage  batteries 3691 

58.02  Primary  batteries,  wet  &  dry 3692 

58.03  X-rny  r.ppirat.t;-!  &  tubes -3693 

58.04  Engine  cluctrlcal  equipment 3694 

58.05  Electrical  equipment,  n.e.c. — -— — — 3^99 

59  Motor  vehicles  ft  equipment 

59.01  Truck  &   bus  bodies - 3713 

59.02  Truck  trailers — —  3715 

59.03  Motor  vehicles  &  parts ■ 3717 

60  Aircraft  ft  parts 

60.01  Aircraft 3721 

60.02  Aircraft  engines  &  parts .  3722 

60.03  Aircraft  propellers  &  parts 3723 

60.04  Aircraft  equipment,  n.e.c 3729 

61  Other  transportation  equipment 

61.01  Shipbuilding  &   repairina 3731 

61.02  Boatbuilding  2;  repairing ! 3732 

61.03  Locomotives  &  parts 3741. 

6l. Ok  Railroad  ft  street  cars 3742 

61.05  Motorcycles,  bicycles  ft  parts 3751 

61.06  Trailer  coaches 3791 

61.07  Transportation  equipment,  n.e.c.-- 3799 

62  Profession?.!,  scientific  ft  controlling  instruments  ft  supr.lies 

62.01  Engineering  &  scientific  instruments •  3&11 

62.02  Mechanical  coeasurinr;  devices 3821 

62.03  Automatic  temperature  controls -. 3822 

62.04  Sureical  ft  medical  instruments 38U1 

62.05  Surgical  appliances  &  supplies 3842 

62.06  Dental  equipment  ft  supplies 3SU3 

62.07  Watches,  clocks  8:  parts 387 

63  Optical,  /3t->M6fl3Kict  &  photograph: c  equipment  ft  supplies 

63.01  Optical  instruments  &  lenses 3^31 

63.02  Ophthalmic  goods - 3851 

6°-03      Photographic  equipment  ft  supplies 3861 

64  Miscellar.eou."  ~anuTacturln~ 

64.01  Jcvelry,    inclutlins  cos^use  i  silverware 391,    396l 

64.02  Musical  instruments  ft  parts —  -  3931 

64.03  Games,   toys,   etc - 39^1 

64.04  Sporting  ft  athietic  goods,   n.e.c. 3949 

64.05  Pens,  pencils,   etc 395 

64.06  Artificial  flowers - - 3962 

64.07  Button^,   needles,   pins  &  fasteners 3963,    3964 

64.08  Ercoais  ft  brushes 398l 

64.09  Hard  surface   floor  coverir.,3 39-2 

64.10  Morticians  goods 39&3 

64.11  Signs  ft  advert! sin/3:  displays 3993 

64.12  Miscellaneous  Manufactures,   n.e.c— — 3983,   3984,   3987,    3995,    3999 


-32- 


Industry  number  and  title 


Related  SIC  codes 
(1957  edition) 


TRANSPORTATION,  COMMUNI CATION,  ELECTRIC,  CAS,  &  SANITARY  SERVICES 

65  Tr^.nr.r^rtntlon  'j  ••archvvislu* 

65.01  Railroads  Sc  related  -trvicon- i»0,   kjk 

6^*02  Local,    suburban  <t  interurban  highway  passenger 

transportation — -  1»1 

65.03  Motor  freight  trs.nsporta.tion  &  warehousing 1*2,  1*73 

65. Ok  Water  transportation W* 

65.05  Air  transportation 1*5 

65.06  Pipe  line  transportation 1*6 

65.07  Transportation  services —  1*7,   except  1*73,   kjk 

66  Comurric.t lo:y  "xcept  radio  ft  television  broadcasting 

66.00  CoeeuuI cat  ions,   except  radio  u  television *»8,  except  1*83 

67  R-dio  ft  TV  rroadc-'v'-.frv; 

67.00  Radio  &   television  broadcasting 1*83 

68  Electric,  7a  s,  water  ft  sanitary  services 

68.01  Electric  utilities 1*91,  pt.  1*93 

68.02  Gas  utilities— 1*92,  pt.  1*93 

68.03  Water  &  sanitary  services l»9l*,  1+95,  1*96,  1*97,  pt.  1*93 

WHOLESALE  ft  RETAIL  TRADE 

69  Wholesale  S-  retail  trade 

69.01  Wholesale  tradj -» 50  (except  manufacturers  * 

sales  offices) 

69.02  Retail  trade- -.- 52,  53,  51*,  55,  56,   57,  58, 

59,  7396 

FINANCE,   INSURANCE  &  REAL  ESTATE 

70  Finance  ft  insurance 

70.01  Banking 60 

70.02  Credit  agencies 6l,   67 

70.03  Security  &  coiocodity  brokers 62 

70.04  Insurance  carriers -- 63 

70.05  Insurance  agents  ft  brokers > — — — —  6h 

71  Real  estate  ft  rental 

71.01  Ovmer-oecupied  dwellings NA 

71.02  Real  estate - 65  (except  pt.   6561),   66 

SERVICES 

72  Hotels  &   locg^ne,  ylace?;  personal  ft  repair  services, 

excent  automol'i  lg  repair 

72.01  Kotelfi  ft  lodging  pieces 70 

72.02  Personal  L  repair  services,   except  auto  repair, 

barber,   ft  beauty  shops 72  (except  723,   72U),  76 

(except* 7694  ft  pt.   7699) 

72.03  Barber  &  beauty  shops 723,   T2k 

73  Business  Services 

73*01  Miscellaneous  business  services 73  (except  732,  7396),  769I*, 

pt.  7699 
73*02  Advertising — 731 

73*03  Miscellaneous  professional  services 3l,   8$  (except  8921) 

-33- 


Industry  number  and  title 


Related  SIC  codes 
(1957  edition) 


Jh_  Research  &   ^o-re Torrent 

74.00  Eliminated  u;;  a  sur.nrute  Industry  in  the  1963  etudy. 
Research  Sc  dcvolcnncnt  performed  for  sale  is  dis- 
tributed to  thu  purchaser  fay  each  of  the  inductriec 
performing  the  research  &  development. 

75  Automobile  ycreir  t<   s^rvlcpn 

75«00      Automobile  repair  u.   services— ———————  75 

76  Amur.errents 

76.01  Motion  pictures- — — 78 

76.02  Amusement  &  recreation  cervices— — — 79 

77  E-edicn] ,  educational  servicer,  &  nonrrcflt  organizations 

77.01  Doctors  &  dentists - 801,  802,  803,  SOk 

77.02  Hospitals 806l 

77.03  Other  medical  &  health  services '• 0722,  807,  809 

77.04  Educational  services 82 

77.05  Nonprofit  organizations 84,  86,  8921 

GOVERIIMENT  ENTERPRISES 

78  Federal  Government  enterprises 

78.01  Fost  Office - 

78.02  Federal  electric  utilities 

78.03  Commodity  Credit  Corporation 

78.04  Other  Federal  Government  enterprises — - — - 


79  State  &  local  government  enterprises 

79*01      Local  government  passenger  transit — - — : 

79«02      State  &-   local  electric  utilities 

79.03  Other  state  &  local  government  enterprises- 


IMPOKTS 

80  Grers  ir.rorts  of  .roods  &  services 

80.^1      Directly  allocated  imports 

80.02      Transferred  imports — 


DIMMY.  INDUSTRIES 

81  Business  travel,  entertainment  ?■:  rifts 

8l.00       Business  travel,  entertainment  &  gifts — 

82  Office  supplies 

82.00  Office  supplies 

83  Scrap,   used  &  secondhand  goods 

83.OO  Scrap,    used  &  secondhand  £ocds — 


SPECIAL  IIDUSTRIES 

84  Government  industry 

84.00      Government  industry 

85  Rest  of  the  world  industry 

85.OO      Rest  of  the  vorld  industry 

86  Household  industry 

86.00  Household  industry 

-3k. 


Industry  number  and  title 


Feinted  GIC  codes 
(1957  edition) 


87  Inventory  valuation  odjur.tr.cnt 
87*00      Inventory  valuation  adjustment — ----- - — 

88.00  Total  intermediate  output -< 

Person*!  consurrpticn  expenditures 
96.60      Personal  consumption  expenditures — — -----—. 

Gross  private  fixed  capital  formation 
96.7O      Gross  private  fixed  capital  formation — 

Ket  inventory  change 
96.8O      Ket  inventory  change — 

Ret  exports 
96.90      Net  exports — — -• 

Federal  Governr.ent  purchases 

97«10      Federal  Gover.v.ent  purchases,  defense 

97*20      Federal  Government  purchases,  other 

State  and  local  po-|rerr.-:ent  purchases 
98.6O      State  and  local  government  purchn.ses,  education- 
98.7O      State  and  local  government  purchases,  health, 

welfare  and  sanitation 

98.80      State  and  local  government  purchases,  safety 

98.9O      State  and  local  government  purchases,  other 

99.02  Total  final  demand 

99.03  Total  output 

99.01  Transfers 

I  Total  intermediate  inputs --- 

V.A.  Value  added ■ 

T  Total  inputs ■ 

TR  Transfers 


-35- 


TABLE  2. 
SECTOR  AGGREGATION  SCHEME  (368  to  1+2  sectors) 


1+2 

-LEVEL  TITLE 

368 -LEVEL  SECTORS  CONT 

1. 

COAL  MINING 

7.00 

2. 

CRUDE,  GAS  EXTRACT 

8.00 

3. 

REFINED  PETROL. 

31.01  - 

k. 

ELEC.  UTIL. 

68.01 

5. 

GAS  UTIL. 

68.02 

6. 

AGRIC . ,  FORESTRY 

1-1+ 

7. 

OTHER  MINING 

5,6,9,10 

8. 

NEW,  MAINT.  CONSTRUCT. 

11,12 

9. 

ORDNANCE 

13 

10. 

FOOD,  KINDRED  PROD. 

lU,15 

11. 

TEST,  APPAREL 

16-19 

12. 

LUMBER,  WOOD,  PAPER 

20, 21, 2U, 25 

13. 

FURNITURE 

22,23 

lU. 

CHEMICALS,  PAINTS 

27-30,31.02,31.03,32 

15. 

LEATHER,  FOOTWEAR 

33-31+ 

16. 

STONE,  CLAY,  GLASS 

35,36 

IT. 

PRIMARY  METALS 

37,38 

18. 

FABR.  METAL  PROD. 

39-1+2 

19. 

HEAVY  MACH. 

1+3-50,52 

20. 

COMPUT.  MACH. 

51 

21. 

ELECT.  EQUIPT. 

53,55,58 

22. 

APPLIANCES 

5l+,56,57 

23. 

MOTOR  VEHICLES 

59 

2k. 

OTHER  TRANSP.  EQPT. 

60,61 

25. 

INSTRUMENTS 

62,63 

26. 

MISC.  MANUF. 

61+ 

27. 

RAIL  TRANSP. 

65.01 

28. 

LOCAL  TRANSP. 

65.02 

29. 

TRUCK  WAREHSE. 

65.03 

30. 

WATER  TRANSP. 

65.0U 

31. 

AIR  TRANSP. 

65.05 

32. 

PIPELINE  TRANSP. 

65.06 

33. 

TRANSP.  SERVICES 

65.07 

3U. 

PRINT,  PUBLISHING 

26,66,67 

35. 

WATER,  SANIT.  SERVICES 

68.03 

36. 

W'SALE,  RETAIL 

69 

37. 

FINANCE 

70-73 

38. 

AUTO  REPAIR 

75 

39. 

AMUSEMENTS 

76 

1+0. 

MEDICAL,  EDUC. 

77 

1+1. 

GOV'T. 

78,79 

1+2. 

MISC. 

80-87 

*When  sectors  are  denoted  by  an  integer,  all  sectors  with  that  integer  to 
left  of  decimal  point  are  included.   Thus  ordnance,  13,  contains  13.01-13.07 


-36- 


APPEND IX- A 

CALCULATIONS  FOR  A  SAMPLE  PLANT 

The  method  described  earlier  in  this  study  will  be  applied  to  a 
plant  which  is  assumed  to  purchase  all  its  inputs  needed  to  operate 
the  plant  from  seven  different  sectors  of  the  367  level  eaonomy .   It 
is  again  assumed  that  100  units  of  output  were  produced  by  this  plant 
in  1974.   Let  the  same  plant  purchase  the  following  amount  of  inputs 
in  1974. 


Sector  Name 

Sector  No 

COAL 

1 

ELECTRICITY 

4 

GLASS 

151 

STEEL 

175 

ELECTRIC  MOTORS 

257 

Amount 

150000  BTU 

110000  BTU 

10.5   $ 

31.5   $ 

14.5   $ 


An  analysis  in  the  accounting  department  of  the  plant  has  shown 
that  the  plant  paid  the  following  amount,  for  railroad  transportation 
and  wholesale  trading  in  purchasing  its  inputs. 

RAIL  ($)  WHOLESALE  ($) 

COAL  1.5  2.0 

ELECTRICITY  0.0  0.0 

GLASS  0.0  0.5 

STEEL  1.0  1.5 

EL.  MOTORS  0.5  1.0 


TOTAL 


3.0 


5.0 


-37- 


Hence,  the  plant  has  an  imput  purchase  matrix,  x,  as  shown  below; 


x  = 


150  000 

BTU 

110  000 

BTU 

10 

$ 

29 

$ 

13 

$ 

3 

$ 

5 

$ 

where  the  last  two  rows  are  now  the  railroad  transportation  sector  and 
the  wholesale  trade  sector  with  sector  numbers  320  and  330  respectively. 
The  total  energy  coefficients  of  the  seven  input  sectors  can  be  selected 
from  the  national  data  prepared  by  CAC  for  the  year  1967.   Therefore, 
the  total  energy  coefficient  matrix  for  this  plant  is; 


e  = 


1.0025 
1.9336 

19704.0 

159600.0 

26248.0 

83  74.0 

5912.4 


0.0040  0.0023   0.0004  0.0016  1.0068 

1.1797  0.3112   1.1078  0.8384  3.7963 

78960.0  10886.0   7032.9  65866.0  103000.0 

99796.0  26383.0  13030.0  70729.0  267430.0 

32912.0  11020.0   5781.1  20977.0    62725.0 

68235.0  55674.0   1593.8  10783.0    77592.0 

28515.0  19702.0   1985.2    8021.0    35651.0 


Similarly,  the  total  labor  coefficient  matrix  is; 


L   = 


0.14278 
0.26115 
0.10453 
0.83780 
0.90575 
0.85412 
0.98654 


10 

10 

10 

10" 

10 

10 

10 


-10 

-9 

-3 


-4 

-4 
-4 


-38- 


and  the  implicit  price  deflators  (IPD)  of  the  seven  input  sectors, 
based  on  the  year  1958  (IPD  =  100)  for  the  years  1967  and  1974  are; 


SECTOR  NO 


1 
4 
151 
175 
257 
320 
330 


1967    IPE 

>                  1974    IPD 

Tl2.7~ 

~39.2~ 

103.0 

128.6 

109.7 

129.7 

107.4 

131.4 

102.5 

113.4 

102.3 

136.0 

98.5 

111.3 

RATI°  (lilf) 


0.80963 
0.80093 
0.84580 
0.81735 
0.90388 
0.75221 
0.88500 


Now,  all  the  input  purchases  will  be  deflated  back  to  1967  using 
the  ratio  between  1967  IPD'S  and  1974  IPD'S.   Hence,  the  deflated  input 
purchases  become 


121443.90 

BTU 

88102.60 

BTU 

8.45 

$ 

DEFLATED      = 

23.70 

$ 

11.75 

$ 

2.25 

$ 

4.42 

$ 

Then,  total  energy  consumed  in  BTU  by  the  plant  by  energy  type  will 
equal  to 


COAL 


CRUDE  OIL   REF.  PET.   ELEC . 


GAS 


PRIM.ENERGT 


x 


DEF 


=  QT.459-107   0.380-107   0.108-107   0.546-106   0.261-107  0.873-107t 


Energy  intensity  of  the  product  by  energy  type  can  be  obtained  by 
dividing  the  total  energy  consumed  by  the  total  output  of  the  plant. 
Hence,  energy  intensity  matrix,  in  BTU/unit  output,  is 


COAL 
ET4 


CRUDE  OIL   REF. PET. 


ELEC. 


GAS 


PRIM. ENERGY 


0.459-105   0.380-105   0.108.105   0.546-104   0.261-105  0.873-105 


-39- 


Energy 

input 

coefficients,    c 

[iven  by   the 

EQ. (5) 

are 

calculated   as 

COAL 

CRUDE   OIL 
0.01 

REF.PET. 
0.03 

ELEC. 
0.01 

GAS 
0.01 

PRIM.ENERG 

1.40 

COAL 

2.65 

ELEC. 

3.71 

2.73 

2.52 

17.87 

2.83 

3.83 

GLASS 

3.63 

17.55 

8.47 

10.89 

21.30 

9.97 

STEEL 

82.32 

62.17 

57.50 

56.54 

64.14 

72.55 

EL.    MOTORS 

6.71 

10.16 

11.91 

12.43 

9.43 

8.44 

RAIL 

0.41 

4.05 

11.55 

0.66 

0.93 

2.00 

WHOLESALE 

0.57 

3.32 

8.02 

1.61 

1.36 

1.81 

.00.00 

100.00 

100.00 

100.00 

100.00 

TOTAL                ] 

100.00 

It  is  know  that  121443.9  BTU  equivalent  of  coal  and  88102.62  BTU 
equivalent  of  electricity  entered  directly  into  the  plant.   Then, 
percentage  of  the  coal  energy  entered  directly  becomes; 

%  Direct  coal  =4590000 [q  *  100-0  =  2.64 


and  similarly  for  electricity; 

3800000.0 


%   Direct  electricity   =  ,  °°'^'°    x   100.0   =   16.13 


Direct  primary  energy  input  is: 

0/    r.-    ^          •                (121443.9+88102.62)  ,  __  n  0  .  _ 

u/0   Direct  primary  energy  =  -1 8730000  0 100.0=2.40 

Hence,  the  plant  has  the  following  direct  and  indirect  energy  inputs 


COAL 

CRUDE 

REF.PET. 

ELEC. 

GAS 

PRIM. EN. 

DIRECT 

r~2.64 

0.0 

0.0 

16.13 

0.0 

2.4~o| 

INDIRECT 

97.36 

100.0 

100.0 

83.87 

100.0 

97.601 

Similar  calculations  can  be  easily  done  for  total  labor  analysis 
of  the  same  plant.   From  reference  [7],  it  is  found  that  output  per 
man-hour  in  manufacturing  sector  has  increased  to  129.2  in  1974  from 
100.0  in  1967.   Hence,  the  productivity  index  is  equal  to  1.292.   The 
total  labor  put  into  the  production  in  1974,  then,  becomes 

1.292  -  (xT         .  L)  =  0.005928  man-year 
DEFLATED 


-1+0- 


Labor  intensity  is  equal  to  the  total  labor  divided  by  the  total 
output.   Thus, 

Labor  intensity   =   0.592  8>10~   man-year/unit  output 


The  calculated  labor  input  coefficients  are; 


COAL 

0.04 

ELECTRICITY 

0.50 

GLASS 

19.27 

STEEL 

43.28 

ELEC.    MOTORS 

23.20 

RAIL 

4.20 

WHOLESALE 

9.51 

TOTAL 

100.00 

_J 


-111- 


APPENDIX  B 


A  SAMPLE  PROGRAM 


$  JCB 

1 DIMENSION         NUil  (SO  )   .  KLN|  7  ) 

2  rZJZTP.     SN(7  4,5.2),RSN1(42)  .NGN  2(42)  .  SN  1  ,SN2 

2  UtAL*a     SN3< 3)  »SN4(  3  ) 

4  INTEGER         SL  C ( 3 5 7 ) ,  S I O ( 357 )  ,  NRG  I  NT (  5  )  ,  I NTL E S ( 6 ) 

5 RLAL*4      CEN(  O  )   .   INO(  C  )  

6  i(tA  L*4      T  I  NT  ( 7  )  ,C(J57),lPr.6  7(357),lRD74(  35  7 )  , CL cC ( 35  7,o  ) 
lDEF(357).P(357),PLPC<J5  7,7),RSYST(42,7),CLLC(j>b7> 

7  NN=  1 

£  DU     301      1=1,12 

9  RLAC(S,30C)      RSN  1  (  I  )  ,HSN2  (  I  ) 

10  300     FORMAT (  ?A6) 

11  30  1     COM  INUE 

12  REAC(5.66C)      (  I P067  (  I  )  » I  =  1  ,  35 7 ) 

13  REAC(C,660)      (  I P C 74  (  I  )  ,  I  =  1  , 357 ) 

14  f.60     FORMAT  (  36  (  1  C  (F  ti  .2  )  /  )  ) 
If  DO     67     1=1,357 

_1 6 REAK5,  1  C  )      3EC(I).SIO(I),(CtEC(I,J),J=l.'S) 

17  10    FURMAT(I^.lX,I4,f_12.5> 

lc  67     ClMIMe 

19  DU     63     1  =  1  ,74 

20 R  E  A  I.  (5.20)      (  (  ?  N(  I  .  J  ,K)  ,K=I  .^  )  .  J=l  . 5  ) 


2  1  2  0  FQhVAl  (lOAfj) 

22  6£  CONTINUE 

23  RE  AD  (5,  35)   (  CL  nC.  (  I  )  ,  I  =  I  ,  35  7  ) 

_2A 35  F  0_  __._(_  0  (6  (  El  2,7.  1  X  )/  )  ) 

25  READ(5 ,  19  )SN3(  1  )  ,SN4(  1  )  ,SN3( 2 )  ,SN4 (2  )  ,SN3(3  )  ,SN4( J ) 

26  1  9  FORMAT  (6AcJ  ) 

27  LL  =  0 

2E 77  H--LL+1 , 

25  REAU(5,333)  NO  SEC  ,  £M  .  SN2  ,  (  NRG  I  NT  (  J  )  ,  J  -  1  ,  c  )  ,  CU  T  PUT 

30       333  F JRMAT (  15  ,2 Ae  ,6  17, F  17  .  1  ) 

3  1  DO  44  M= 1 , 42 

32 REAC(5.41)   (h5YST(M,I),l=1.6) 

33  41  FORMAT ( 6F5. 2 ) 

34  44  CONTINUE 

35  PRINT  545  .NCSECSN  1  ,bN2 

_3  6 545  FORMAT  ('  1  ',  37X  .  '   SECTUR',15.'  =  '  ,  ?  A  8  t  /  ) 

3  7  IF(NN.EG.l)  PRINT  54  6 

3£        546  FORMAT  (  35X,  •   lvfj7  NATIONAL  AVERAGE  ENERGY  FLOW  ',//) 

39  PR  I  NT  1  10 

40 110  FCPMAT('   ',  UX  ,  1  3H  INPUT  bE  C I CR S . 8X , 5h  COAL  .  7X . SHCRUuE  .  5 X , 7 F REF  PbT 

1  ,  bX,4HELEC,  7x  .  <*HGA  S  ,  3X  ,  1  1  hPR  I  M  ENERGY,/) 

4  1  DO  202  I-  1  ,42 

42  PRINT  109,  RSN1  (  I  )  ,  RSM2  (  I  )  ,  (RSYSM  I  ,K  )  ,K  =  1  ,6  ) 

4  3 109  FORMAT(*   '  .  10 X  . 2  AH  . 6 ( 6X . F 5  « 2  )  ) 

4  4        20  2  CONTINUE 

45  PR  I  NT  400 

46  40 C  FORMAT  (•   •  ,  2  7X  ,  6  (  b  X  ,  6H )) 

47 PRINT  401 

4fcJ        401  F0PMAT(«   •  ,  1 0 X  , 6HT  C 1  AL 3  .  1 0 X . 6 ( 6 X . 5 F  1  0 C . 0 )  ) 

4  9  PRINT  302 

5C       302  FORMAT  (  1  OX, 99(  1H*)  ) 

_5_ PRINT  303 

52  303  FORMAT!'   • . 10X , 1 6HE NERGY  INTENSITY) 

53  PKINT  304  ,(  NRGINT(  J  )  ,  J=  1  ,6  ) 

54  304  FORMAT!*   •  ,  1 2X , 1 2H ( OTU/ 1 96 7  I )  ,?X.6(4X, 17  )  ,/ ) 

__5 4  CONT  INUE 

5  6  0  0  4  9  1=1,7 
57  TINT(  I  )  =  0  .0 


-k2- 


58 
59 
60 
61 


49 


DO  49  M=l,42 
R5YST (  M  ,  I  )  =  0.0 
CONTINUE 

TP=0.0 


62 
63 
64 
6  5 


"7T 
75 
76 
77 
78 
79 
80 
81 


DO  644  K= 1,357 

P( K  )-0.0 

DO  644   1=1.7 

PhfiC(K,  I  )-0.0 


66  644     CONTINUE 

67  NSfcC=0 

68  179  NSEC=NSEC+1 

69  RFAD(S.e)   NOM< NSEC  )  ,C(NSEC  ) 


7  C  6  FJhMAT ( I  3  ,  6  X ,tl6.c  ) 

7  1  IF(hUV(NSEC).£C.O)  GC 

72  GO  TO  179 

73  160  NStC=NSEC-l 


TO  1  80 


L= 
P( 

TP 
CO 
SI 
DO 
DO 


6S8- 
SUM  (  K 
L  )=IP 
=  TP  +  P 
NT  INU 
N  T  t •■=  T 

ei  j 

82  K 


K  = 1 , NSLC 

) 

D6  7( 

(L  )* 
E 

P/OU 
=  1  ,( 
=  1  ,N 


658 


L)/  IPC74  (L 
CL3C( L)  *  1  . 

ITPUT 

lSt:C 


)+C(K  ) 
295 


82 

L=NUM(K ) 

83 

TIM(J)  =  TINT(J>+P(L)*CEiiC(L.J> 

34 

82 

CONT INUE 

85 

NRGINT(J)=TINT(J)/CUTPOT 

86 

81 

CONTI NUE 

87 

DO     83     J  = 1 .7 

ea 

DO     83      1=1 ,NSEC 

89 

K=NUM( I ) 

90 

IKJ.FC.7)     GO     TO    7 

91 

PEkC(K,J)=P(K)*CEE.C(K,J)/TINT(J)*100.0 

92 

IF  (  J.NE.  7)      GO     TO     17 

93 

7 

Pt"RC(K,J)-f'(K)*CLoC{K)*1.2^?/TP*100.0 

94 

17    CONTINUE 

95 

IF (K  .EG.  1   )     FbYST ( 1 , J  )=Pr kC  <K.J)+kSYbT(l.J) 

96 

IF(K.EC.2  >      RSY3T(2  *  J) -PtkC  (K, J  1+kbYSl  ( 2, J  ) 

97 

IF(K.EC.3)     HSY3T (j  ,J)=PFFC(K,J)+RSYST(3,J) 

98 

IF(K.EO.'t)      RSY3T(4  ,  J  }=PEP.C  (K.J)+i5bYST(4,J) 

9  9 

IF  (K.fc  C.5  )      NSYST<5,J)-Pt«C(K,J)*KSYST(5.J) 

100 

IF  (K.GE.6.AND.K.LE  .  17)RSYST(6,  J  )=PERC(  K,  J)+RSYS1"(6,  J  ) 

10  1 

IF  (  K  .GE  .  1  b.  ANO  .K  .L.  t  .  22  )      k 

SY3T( 7,J)=PLKC(K,J)tKSYbT(7,J) 

102 

IF(K.GE.23.AND.K.LF.29)     RSYST(8,J)=PERC(K,j)+koYST(b,J) 

103 

IF(K.GL.30.ANU.K.I_c.3  6)     kSYST(9.J)=PERC(K.J)+>VoYbl  (9,  J) 

104 

I  F  ( K  .Gt  .  3 7. ANC  .<  ,LE  .7C  )      k 

SYST(  10,J)-PLwC(K,J)  +  KiYjI(  10. J) 

105 

IF  (K  .GE.7  1  .  AND  .  K  .L  t  .9  I  )     r< 

5YST(  I  1  ,J)  =  PERC(K,J)  +  RbYST(  i  1  ,J] 

loe 

IF (K  .GE   .9  2.AND.K.LE..1C1)  RbYST(   12.J)=PtWC(K,J)  +  ni>Ybr(l^,JJ 

107 

IF(K.GE.113.AN0.K.Lt.l20) 

R S  YS  T  (  1  2  .  J  )  =  PEfc  C  (  K  *  J  )  FKS  YST  (  1  i. , 

J  ) 

108 

IF  (K  .GE  .  1  0<£  .ANu  .N.LE.  112) 

RSYST( 13. J)=PERC(K.J )+hSYS1  (  Un 

J  ) 

109 

IF(K.GE.  129.AKC.K..LF.146) 

RSYSTI 14, J )=PERC(K ,J )+kSYST( 14, 

J  ) 

1  1  0 

IF (K.GE.147.ANC.K.LE.150) 

RSYST  (15.  J)  =  P6KC(K,J  )+I<bYST(  15, 

J  ) 

1  1  1 

IF (K.GE. 151  .AND.K.Lt • 1  74  ) 

r)SYST(  16  ,  J  )  =  PERC  (  K  ,  J  ).+  k  jYbT  (  It., 

J  ) 

1  12 

IF(K.GF.175.ANC.K.LE.183) 

RbYST<17.J)=PERC(K,J)+rSYbl ( 17, 

J  ) 

1  1  3 

IF(K.GF.18  4.ANC.K.LE.216) 

RSYST ( 18  « J )-PERC(K , J  )+P5YST (  lb. 

J  ) 

1  14 

IF(K.GE.217.ANC.K.LE.  .24  4) 

RSYST(14»J)=PEWC(K.J)4-kbYST(  19, 

J  ) 

1  IE 

1F(K.GE.245.AN0.K.LL.^5  3) 

KjYi.I(20,J)=PtKC(K,J)+loYST(20i 

J  ) 

1  16 

IF  <K.Gr.254.ANU.K.Lt  .26  1  ) 

RSYST  (2  1  •  J)=PFRC(K,  J  )+R3  YST  i.d.1  . 

J  ) 

117 

lF(K.GE.269.ANi:.K.Lt-.2b3) 

RSYST(21  •  J  )=PERC(K,  J  ) +k  jYST(  21  i 

J) 

1  18 

IF(K.GE.2  6  2.ANC.K.LE.26  3) 

RSYST (22, J)=PERC(K, j )+PSYST(22. 

J  ) 

119 

IF  (K.GE.2  8  4.ANC.K.LL  .290) 

RSYST(23,J)=PEkC(K,J  >+P.SYSI  (23. 

J  ) 

120 

IF  (K.GE. 291  .ANC.K.Lh  .29  7) 

RSYST(24,J)=PERC(K.J)+kSYST(24, 

1) 

12  1 

IF (K.GE.2  98.AND.K.LF.30  6) 

PS  YST  (  25,  J)=PEPC(K,J  )+f-  3  YSI  (  2f-, 

J  ) 

122 

IF(K.GE.307.AND.is.Lt  .319) 

l<SYST(26,J)=PFKC(K,J)+HoYSl{2c. 

J  ) 

123 

IF  (K.EQ.3^0  )     RbYST  (27, J)=PLhC(K. J )+HSYST(  27. J) 

124 

IF (K.  EG. 321  )     kSYST  (?fl,J)=PERC ( K, J)  +  KSYSf (2£ . J) 

125 

IF(K.EQ.322)     RSY5T(29.J)=PERC(K,J)+KSYST(29,J) 

12fc 

IF  (K.  EG.  3  2 3  )     KSYST  (30,J)=PEKC( K, J )+HSYST(30 , J) 

127 

IF  (K.  EG.  324)     f!SYST(3l,J)  =  PE«C(K,J)+RSYST(31,J) 

-U3- 


lie 

129 
1J0 
13  1 


12? 
133 
134 
135 


IF  (K. 

IF(K. 
IF  (K. 

if  (  k  . 


EC. 3 

FQ.3 
GL.  I 

EO.J 


201 
26  ) 
Z\  . 
29  ) 


U  S'Y  S  T 

PSYST 

A  N  f")  .  K  . 

R  SYSI 


IF(K. 
IF(K.. 
IF  (K. 

if  (k. 


GF.3 
GE.3 

E  O  .  3 
EQ.3 


30  . 
32  . 
45  ) 

17) 


AND  .  K. 

a  n  r; .  K.  . 
KSYST 
PSYST 


(32,  J 
(3r*.  J 

LF  .  12 
(35. J 
Lf  .33 
LF  .33 
(38.  J 
(  39  ,  J 


)=I»ERC(K,  J)+«SYST<32.  J  J 

)=PERC(K,J>+RSYST(JJ,J) 

cO      f'SYSr(34iJ)=Pr.K!C(K,J)t-hjYbII3t,J) 

) -HEKCiK ,J)+RSYbT(3  5.J) 


LL  .35 
LE.3t; 
(  42,  J 


I  )      RSYST(36,J)=PEWC(K,J)+hSYSI  (36.  J) 
9  )     foybT(37,J)=PLKC(K,J)tKbVSl(3/,J) 
)=PL«C(K,  J  )  +RSYST138«  J) 
)=PERC( K . J)+RSYST(39»  J) 


SYbT(40.J)=PF.RC(K.J)+hjYST(*0.J) 


136 
137 
138 
139 


63 


IF  (K. 
IF  (K. 
IF  (K  . 

CCM  I 


GF.3 
Gt  .3 
GL  .3 

NUt 


46  . 
63  . 
56  ) 


ANU.N. 

AND. K. 

KSYST 


1  ) 
6)      « 
)=PE 


SYST(41  ,J  )=PtRC  (K  ,J  )+. 
RC(K,J)+RSY5T(42.J) 


YSI  (  4  1  .  J  ) 


[EC 

156 
157 

15a 


159 
16C 
161 
U2 


.5 

I  )/T  INT (  1  )  <  100.0 

0.0-UEN(  1   ) 

(1)+P(2)+P(3)+P(4)+P(5))/TINT(6)*100.0 
0  .0-DtN (6  ) 

5 ♦ SM3 (LL )  ♦  SN4(LL  ) 


•1,.30X,«      LNEKGY      AND     LAECR     ANALYSIS     LF 


•  .2Ao ./  ) 


420 
421 


PR  INT 
FOPWA 
PR  INT 
Fut-VA 


420 
T  (  • 

421 
T  (  ' 


• » 1 1 X , 1 3h INPU1      SECTORS  .6X  .  5h     C  0  AL  .  7  X  .  bHCn  U  Lit  .  o  X  •  7  F  i<  tt-      PET 

C  .7X.4HGA3      i3a,1  IHPRII-:     ENFhGY.oX.5HL  AfcitH  ,  /  ) 

1  .42 

.      RSNl(l),hSN2(l).(RSYST(I,K),K=l,7) 

•  ,  10X  ,2Ab,6(6X,F5.2).7X,Fb.2) 

•  .27X  ,6(5X  ,6H )  .  6  >  .6H ) 

«.10X.6HTCTALS.10X.6(6X,5F100.0).7X.SF1C^.Q) 


PRINT  302 

PRINT  303 

PRINT  304  , (  NRG  INT (  J  >  . J=l  .6  ) 

PPINT  500 


163  50C    FORMAT  (  1  1  X  .  t 1  FitNuKGY      LStL,     DIRECTLY     AND  INOIhECTi_Y(      /. 

lUfcL     TYPE) ) 

164  PHINT  f 02  .  ( LEN (  I  )  ,  1  =  1  .6) 
165 502  FORMAT  (  '   '  .  1  0  X  .  3  H  U  IFLCTLY.6X.6(6X.F5.2)  ), 


166 
167 

i6e 

169 


UF  1UTAL  -Y  F 


503 
70C 


PR  INT 
FORMA 
PR  INT 
FORMA 


f  03 
T  (  • 

700 
T  (  ' 


( INU(  I  )  ,1  =  1.6) 

•  ,  10X  ,lChINDIRLCTLY,6X,6(5X,F6.2)  ./) 

•  ,  I  OX .  15HLAHGR  INTENSITY) 


170 
171 
172 
173 


PR  I  NT  701.SINTS 

701  FORMAT<»   «,  10X  .•  (MAN- YEAR/ 1967  S  )  •  ,  4  X  ,  E  1  2  .  6  ) 
PRINT  64 , SN3(LL ) ,SN4( LL ) 
54  FO P  V  AT  (  »  1  '  ,  IPX  ,  '   INPUT  PURCHASES  bF  TFL  «  . 2AB.//) 


174 
175 


:54 


PR  INT 
FORMA 


554 
T(0X,«SECT.  NC«  ,4X, • SECTOR  NA ME •  ,  1  5 X ,  » PLKCHAbt ( $ )  •  ./  ) 


176 
177 

176 
_17  9 


NJ=1 
N=  1 
DO  5  1 
DO  51 


1=1  .72 

J=l  .5 


180 
161 

182 
IfcLL 


52 


IF(N.GT.357)  GO  TO  51 

IF (N.NE .NUM (NJ ) )  GL  TO  53 

PR  INT  52,olC(N).(oN(I,J,K),K=l,2),C(NJ) 

FORMAT('   ',10X.I4,SX,2AS,dX,E16.e) 


164 
185 
166 
167 
168 
189 
190 
19  1 
192 


53 
51 


5f 


NJ=NJ+  1 
N=N+  1 
CONTINUE 
IF (LL .NE. 2) 


GO  TO  7  7 


PR  INT  se 
FORMAT  (  •  1 

COM  INUE 

STCP 

END 


) 


$  E  N  T  R  Y 


-kk-