-------
r—I MOM-AQUEOUS DISPERSIONS - GREEN CONTAINING
I I COPPER AND/OR CYANIDES
HostaprintR Green 16-2008
Chemetron: "Phthalo" Green FS-784,- FS-958;
FS-1192, PS 1794
Microlith Green G--A, G-T, G-K
Alkytint Green S-317
Daniel: "Phthalo" Green - AL 703, UL 20-77,
UCS 10-7013, AC 66-78, UF 75-74, £P 30-71,
PF 4750, AL 745, UL 20-79,
Hilton-Davis: "Phthalo" Green - 5-24=A-400,
5-24-A-40S, 5-42-A-407, 5-42-A-411, 5-24-A-43S
S-83-P-401, 5-42-A-400, 5-83-P-401, 5-21-P-441,
5-21-P-444, Chroma Gr. 5-24-A-406
Auracote Phthalo 3-65-A-427
Innsont: chrome -Gruan l,'809t "Phthalo" Green
1083, 1168, 1199, 1245, 2330, 2610, 3035,
5412, 5447, 5412
Podall: 2000 Serins prafix AL, AM, AME, AV, C, CS, CD,
OU, LA, LC, S, VT, Y
Tenneco^ GPD-5503, GPD-4508-LF, AD-S503
Uni-Cal 66 - 6611R
Chroma-Cal Green 850-000-5001
Other Non-Aqueous Dispersions - araan containing
Copper and/or Cyanides:
[•J ASBESTOS
i 1 NON-AQUEOUS DISPERSION - BLUE CONTAINING COPPER
I j AND/OR CYANIDES
Microlith Blue 4G-K, 4G-T, A3R-K
Alkytint" 54215, 54557, S-182
Daniel: AL 201A, AL 281A, AL 296B, AC 66-27, UF 75-28,
EP 30-23, PF 4260, AL 297R, AL 298, UL 20-26,
UCS 10-20E
Hilton-Davis: "Chinese Blue" 5-24-A-304, 302; "Phthalo
Blue - 5-24-A-306, 304, 308, 309, 311,
5-21-P-335, 337, 5-42-A-312,' 305,
R S-83-P-300,301
Auracote Blue 5-65-A-39S
Inmont: 1190, 1202, 1211, 2609, 5444, 5475, 3034,
4914, 1077, 4916, 9024, 2327, 5498, 6150,
Podell: 6000 Series prefix AL, AM, AME, AV, C, CS, DU,
LC, S, SR, SK, VT, Y
Tenneco: GPD-7308, 7209,
Oni-CalK66 - 66O8P, 6614O
Chroma-Cal - 850-000-7202
Other Non-Aqueous Dispersions - Blue Containing Copper
and/or Cyanides:
D
BON-AQUEOUS DISPERSIONS - BLUE COHTAINING SILVER
AlJsytint 5448
Daniel: At. 221
Inmont: 6297
Tanneco: GPD 7504
Other:
CHEMICAL SPECIALTIES
I I DRIERS CONTAINING LEAD
Shepherd - La ad Tallates, Load Linoleates,
"HaxogenT, "Advasol", "Catalox", "Oetasol", "Qctoate",
Troychem , Troymax . Troykyd , Witco , Witcon ,
"Hex-Gem", "Tep-':e«", "Tallate", "Nuolata", "linorssinata",
"Lin-All", "Cem-All", "Interoar", "cyclodex", "Koury-Dry",
"BED", "Mao-Nap", "NuXtra"
Other Driers Containing Laad:
n
DRIERS CONTAIHmS ZINC
Shepherd - zinc Aeatate, Zinc Tallates,
"Hexooen", "Catalos", "Octasol", "Octoate", Troytax
Witco , Witcon , "E!ax-Cem", "Linorasinate", "Lin-All"
"Cam-All", "Noury-Dry", "HED", "Neo-Nap", "NuXtra",
Other zinc Containing Driers:
n
MISCELLANEOUS DRIERS
Shepherd - Copper Linoleataa: "Hexogen" - Copper Octoate;
"Advasol" - Copper; "Drytain-24"; "Saodecanoate" ,-
"Hex-Cem" - Nickel; "tinoraoinata" - Copper; "Huact"
n
DRIERS - NAPHTHENATE TYPE
Interstab Series, Fecro Sarios, "Nap-All" Series,
"UversoJ? Series, "Nuodsjs" Sarias, Shephord Series,
Troykyd Series, Troyaan Series, Hi too Series
Other:
D
METALLIC SOAPS MSO FLATTIMG AGENTS CONTAINING ZIKC
Aero No. 4S B.S.P.; Diamond "Zinc St. H", "Zinc St. USP",
"Zinc St. USP 603", "Zinc St. 639C"; Nuodait USP, DLB-1O, DLG-20.
Technical; Plymouth, XXX-H,- SI-36, SI-50, So. 21;
Witco Regular, Lacquer Grado No. 3, NB-60; NB-70;
"Zinc PalBitate"
Other:
I IPLASTICI2ERS COHTAimMG DI-N-BUTYL PHTHALATE
Allied "Dibutyl Phthalate",
ABSCO Dibutyl Phthalate
CSC - Dibutyl Phthalate
Xodaflex DBP
Santicizer 213 •
Buoplaz DBP
Sherwin Williams CP-907
Phthalic Acid; Dibutyl Ester; Ortho-Benzene-Carboxylic
Acid; Dibutyl Ester; Benzene-O-Dicarboxylic Acid DI-N-
Butyl Eater; DI-N-Butyl Phthalate, "Celluflex DBP";
"DBP", "Elaol", "Haxaplas H/B; "Palatinolc"; "Polycizer
DBP"; "PX-104"; "Staflex DBP"; "Witcizer 300"
Other Plasticizers containing DI-N-Butyl Phthalate:
I IPLASTICIZERS COMTAIHIKG DIMETHYL PHTHALATE
KodaflexR DOT
Others:
I IPLASTICIZEBS coBTAiiima DIETHYI. PHTHALATE
AESCO Oisthyl Phthalata
Kodaf lex DEP
Santicizer 885; Honsaato DEP
Formic Acid; Ethyl Eater; 1,2-Benzona Dicarbexylic
Acid; Diethyl Ester; Ethyl Formic Ester; Phthalic Acid;
Diothyl Ester; Ethyl Mathanoata; Ethyl Phthalate; Formic
Ether; "Anozol", "Areginal", "Haantine"; "Palatinol A";
"Phthalol"; "Plaeidola"; "Solvanol"
Other:
D
J METALLIC SOAPS AND FLAITIKG AGBMTS CONTAIHIBS ZSKD
Diamond - Lead Stearate
.Nuodex v-1 Precipitated, V2 Fused
Witco 30
Other:
225
n
PLASTICIZERS COHVAININS DI-2-ETHTLHEXYL PHTHALATE
R
Jayf lax OOP
Kodaflex OOP
Santicizar 215
Othar:
I I STABILIZERS COMTAIHIKG LEAD
All Halstab Lead
All NL Lead
"Laad Stearate"
Other:
-------
CHEMICAL SPECIALTIES (Cont.)
J STABILIZERS CONTAINING ZINC AMP/OR CADMIUM I I PRESERVATIVES CONTAINING COPPER
Inter»tab - EC-100S, EC-103, BC-103A, BC-103L,
BC-109, EC-110, BC-202, 761-28, 943-38, R-4023,
R-402S. 778-45, CZ-11, C2-11D, CZ-19A, CZ-10, ABC-1
ABO-7.
Ferro - 651I 1238, 703; 1241, 707X; 1701, 763, 1720, 760X,
1212A) 1776, 1237; 1777, 1827,, 5019, 184O, 5373,
2020; 5444, 2O3S; 5473, XV4s 5918, 2V4; 5919, 6V2;
S930, 6V6A, 19V1, 5002, S9V11
"Nuostabe" - VI; V1218, V2; V12SO, V12; V1255,
V133; V1277, V134; V1298, V152; V1399, V1026;
V1420. V1048; V1S03. V1204; V1S55, V1216; V1S72
Other Stabilizers Containing Zinc and/or Cadmium:
D
STABILIZERS CONTAINING LEAD OR PHENOL
Inters Cab LC—24
Troykydr Anti-Skin Special Hod.
Anti-Skin Odorless
Other:
I 1 WETTING AGENTS CONTAINING PHENOL
Diasond: "Hyonic" Series
Hitco "936, 960, 980
Other:
I [MISCELLANEOUS WETTING AGENTS
Aerosol* OS
Troysan zinc 8
r—t VISCOSITY SUSPENSION £ FLOW CONTROL AGENTS
I I CONTAINING TOLUEHE
PlioliteR AC-3
Otheri
I I MiTI-SKINNING AGENTS CONTAINING PHENOLS
•Cuaiacol Special^:"; TroykydR Anttiskin Special
Xodizied, Troykyd Antiskin Odorloss Liquid,
Troykyn Antiskin S; NeviUac 10, TS
Other;
Intorstab "Copper Naphthenate" 6», 8%
"Intercide" Copper 10%
Insotral CQ-A, CQ-WR, CN8
"Map-All" Copper Naphthenate
"UversoJ" Copper Naphthenate
Troysgn Copper 8
Hitco Copper Naphthenate
Nuodex Copper Naphthenate
"Quindex" ,
Other Preservatives Containing Copper:
I I PRESERVATIVES CONTAINING MERCURY
"Intercide" PMO 11», PMA 18», 60
Nuodex PMA-18, PMO-10
"Troyaan" CMP Acetate, PMA10 SEP, CMP 10 SEP, PMO 30,
PM8, Mercuric Oxide, PMA 30, PMA 100
"Super AD-It"
Other Preservatives Containing Mercury
D
PRESERVATIVES CONTAINING PENTACHLOROPHENOL (PCP)
Dowicide G, EC-7
"Santobrite"
"Penta"
"Santophen-20"
"PCP";
Other PCP Preservatives
I I PRESERVATIVES CONTAINING ZINC
"Interstab" zinc Naphthenate 8%
"Troysan" Zinc 8
"Vancide" 51Z
-Nap-All" Zinc Naphthenate
"Uversol" Zinc Naphthenate
Witco Zinc Naphthenate
Other Zinc Preservatives:
I I OTHER PRESERVATIVES
Dowacide A
I 1 DRYING OIL MODIFIED ALKYD SOLUBLE IN OR CONTAINING
! [NAPHTHALENE
AroplaiR 310-V-50; "Coroc" L-26-84, S-47-H4, S-.4700-H4;
Reliance ALJ43i3-HA-50, AL-3617-HA-50, AL-4409-HA-60,
AL-4313-HA-50,
Other:
i 1 DRYING OIL MODIFIED ALKYD .SOLUBLE IN OR CONTAINING
I I TOLUENE OR ETHYLB'ENZEHE . ,
Hopperst 1530-27, 7365-ES-70 :
Reliance!• AL 431O-T-50, AL 4323-T-60
"synrasate" D-3O36O-T, W-7170-T
Othert
D
NOK-ORYING C SEHI OXIDIZIHG OIL MODIFIED ALKYD SOLUBLE
IN OR COHTAIHIHC ETHYLBENZEHE OR TOLUENE
Conchencn 323-010
Xoppers 99-4, 99-ES-70; "Mitasol" 123-6-T, 131, 902,
RCI-12-010, 12-021; Reliance AL-2107-TX-60, AL-2313-TIBr6Q,
AL-41O6-TX-75,, AL-4129-T-60;. "Symresate" W-7170-T
Other:
D RESIN MODIFIED ALKYDS' SOLUBLE IN OR CONTAINING TOLUENE
OR NAPHTHALENE
AroplazR 1031-T-70; "Mirasol" 214, 202-A; HCI 10-010;
Reliance AL-3321-HA-50 Varkyd 310-SOHS
Other:
DCOPOLYMER ALKYDS-SOLUBLE IN OR CONTAINING TOLUEHE OR
NAPHTHALENE
"Cheapsl" 13-2444) "Synresate" D-9850-S, TP-134-DA;
Reliance SY-2003-VT-50; "Kelpol" D718-60E
Other:
D POLYESTER ALKYDS SOLUBLE- IN OR CONTAINING TOLUENE OR
NAPHTHALENE ,
AroplazR 6022-S-65, 6025-S-70, 6029-S-60; Cargill
6619/6619-70, 6620/6620-60; "Synrtaate" W83270EX03,
W8760S
Other:
J IEPOXY SOLUTIOMS SOLUBLE in OR CONTAINING TOLUENE
"EPI-REZ" - 2047; AralditeR S71-T-7S, 597-ET-55, ft
597-EX-5S, 597-KT-S5! Dow D.'E.R. 671-T7SS. GenEpoxy
S26T-I5; EpotufR 38-508, 38-507, 38"-519
Bpon B Resin 1001 BT 70, 1001 CX-7S, 1001 PT-75, 1001 T-'/S
1007-CT-S5, 1007-KT-55; Vanoxy •201-Tr75, 201-BT-70i
201-PT-75, 207-KT-5S, 207-CT-55 •
Other^Epoxy Solutions Soluble in or Containing Toluene:
D
POLYAMIDES SOLUBLE IN OR CONTAINING TOLUEHE
"CIBA Polyaraide" 800IT60, 815T-70) "Cropolamid" L-100 IT;
Emery'"Bnerez" 1500; Versanid 400; Epotuf 37-621, 37-648;
VanAmid 300 ET-60
Other:
226
-------
I I UREA RESINS SOLUBLE IN OR CONTAINING TOLUENE
elianca AM-.1008-IT-55, AM-1012-IT-SS
ther;
I 1 MELAHINB RESINS SOLUBLE IN OR CONTAINING NAPHTHALENE
BESZNS (Cent.)
Melmac 243-3
Othar:
D
VINYL SOLIDS, PVD (SYNTHESIZED FROM VINYL CHLORIDE)
APCI "PVC" Sur.iai; Goo-spar "Pliovic" Saries;
UCC - VYKH; Irene, VYHD; QYHV. VYLP; OYKV. VYNS; VLFV,
VYNW; OVJV, VAGH; QYOH, VAGO; QYNL. VMCH; QYNJ,
VMCC; E-2000J VMCAl VYDS, VROH< VYDS-66, VBRR;
"Saran Resin" F310
Other Vinyl Solids, PVC:
LJ POLYVINYL ACETATE (SYNTHESI-ED
Vinac" 87, BUS, BIS, 9100. BSOO, ASB516
Other:
aPOLYVINVL ALCOHOL, FORMAL £ BUTYRAL SOLUBLE IN
OR CONTOIHING PHENOL OR TOLUENE
FormvarR Series) OCC XYHL, XYSG, EDBC, EOBH
Other:
FROM VINYL CHLORIDE)
I I VINYL OiiLORIDE t VINYLIDENE CHLORIDE
"Poly<
Other:
Dj
"Polyco" Series; "S»L-an Latex" 143; PolideneR Series
Other:
J ACRYLIC SOLIDS SOLOBLE IN OR COKTAItllMG TOLUENE
AcryloidR B48N, B50, 066, B67, B72, 882
Other:
I 1 ACRYLIC SOLUTIONS SOLUBLE IN OR CONTAIHIHG TOLOENE
Conchemco 311-40S, 311-120; ElvaciteR 6011, 6012, 6013,
6014, 6016, 6024; G Cure 867 RNF 60, 868 RWP 60,
869 RHP SO; Acryloid A-21, A-21LV, 8-44, B-48N,
B-50, B-66, B-72, 8-82, 8-84, 8-99, C-10LV
Other:
I ISTYRENE S VINYL TOLUENE SOLUBLE IH TOLUENE
PicolastioR ft. Bronze Vehicle
other:
| 1 OLEORESINOUS VARNISHES SOLUBLE IN OR CONTAINING
I I PHENOL OR ETHYLBENZEN&
Conchenco 385-003; Tenneco 2-128; McCloakey
1282S-S4 END, 10424-55E, 11233-S5END, 11325-60 END,
73S-41E, 10917-S4END, 1633-58E, 1625-60N; Syncon GS-2-60,
3024-65END, 1335-56E, UlSOjSlND, 10731-46E, 10931-28E,
2211-46E, 820-50END; Kelvar G-638-40E, G-681-50M
Chempol 15-2509, 15-2518; Maxvar" 2516, 2598; Syncon"
Series, F-247, F-12L, Flora, RLC
Other Oleoresinous Varnishes Soluble in or Containing
Phenol or Ethylbenzene
i 1 SILICONES SOLUBLE IN OR CONTAINING TOLUENE OR
| 1 NAPHTHALENE
UCC-R-12; Cargill 6106-60
Other:
I IHALEIC SOLUTIONS SOLUBLE IN OR CONTAINING TOLUENE
ArocheraR S20T; Syncon MA560T
Other:
a
PHENOLIC RESIMS
teofene Saries; Anberol* ST-137, Super Beckacite
Seriesi Beichold (V) 29-000, 100, 400 Series:
OCC CJC-1282, CK-1634,
BLS-2700,
. -„- —' Series. CKSB-2001;
Pentalyn Series; NewilUe Series; "Synresol* Series;
"Shinco" Saries
Other Phenolic Resins:
| 1 CBI.mMSE RESINS SOLUBLE IN OR CONTAINIHG MEIHYL
I I CHLORIOE OR TOLUENE
Eastman "CA" Series, CAB 381-0.1, CAB 381-O.5,
CAB 381-20, CAB 4S1-1, CAP 482-0.5
Othar:
D
URETHANE RESINS SOLUBLE IN OR CONTAINING TOLUENE
"Spenfcel" F78-50T, Spencer XP 1857; "Synrasate" H83270
EX03; Spenlite L61-301; Spencer DV "2OOO" Series
Other:
1 1 MISCELLANEOUS SOLUBLE IN OR CONTAINING TOLUENE,
I I METHYL CHLORIDE. OR TRICHLOROETHYLENE
ElvaxR 40; "Vitez" PE207, PE207F, PE222, PE222F, PE307,
PE307F, VPE5545A, VPE 5571A,; RCI 10-714
Other:
SOLVENTS
D
BENZENE
Espesol Benzene; Benzene (Nitration Grade)
"Benzol", "Cyclohexattiene"
Other:
D
BENZENE AND TOLUEHB MIXTURES I
Ansco "Sglv'A, "Solvf A-8Q, -Solv* A-81, "Solv* A-100;
Cyclosol 27. 28; EsposolK 7200-A; Skally SK-69
Other:
a
TOLUENE
EspesolR 1° Toluene, 7200
Toluol; Methyl-Benzenoi Mathacide Phenylaathue; Toluonol
Other:
I [TOLUENE « ETHYLBEBZENE MIXTURES
ftmsco Solv 8; Circlosol1* 37
Other:
D
ETHYLBENiiENE
Espasol EthyJionzene; Ansco "Super Hi-Flash Naphtha";
Shell TS-288
Phenylethane
Other:
227
lIlSOPHORONE
3-S-5-Tri-ethyl-2-Cyclohexen-l-One
D
CARBON TETRACHLORIDE
Dow "Dowclane" EC; Methane Tetrachloride;
Tetrachloroonthana) Perchloro-ethane; Maeatorina;
Benzinofom; "Necatorina"; "Benzlnofora"
a
Monoehloro-Benzene; Benzene-Chloride; Phenyl Chloride
Ashland Monochloro Benzene; Dow Monochloro Benzene
Other:
I I 1,2,4 - TRICHLOROBENZENE
I I 1,2 - OICHLOROETHaNB
Ashland Ethylene Dichloride; Dow Ethylene Oichloride;
Olin Ethylene Dichloride
Other:
Di.i.1-
TRICHLOROETHANE
Methylchloroform; 1-1-1-iCE; Chlorothena; Vinyl
Trichloride; 1-1-1-Trichloroethane; 1-1-2 Trichloroethane
Dow "Chlorothene" NCL
"Triethone"; "Genklene"
n
1,1,2 - TRICHLOROETHANE
-------
SOLVBrtS (Cent.)
I bi« (i-oaonQgnKL) EIHZR
Dichloroathyl Eth«r
fl
D
HETHYLEHE CHLORIDE
TrichlorCTMthjne
I Ilr2 - DICHLOHOBIHZPIE
O-Dichlorob«nienej P-Dichlorolwnrene
DOM' Orthodlchloro Bensan*
I I 1.3 DIOn<»OgKOPVL£llE
Fropylen* Olchlorid*
Methane Oichloride; Dichloronuithanej Methylene
Bichloride) Mothylcno Dichloride
Ashland Perchloroethylenei Oovr Perchloroethylene
"Solaesthih"
D
TRICHLOROETOTLEHE
Trichloroethene; Sthinyl-Trichloride; Tri-Clene;
'Trielener Trilenei Trichloran; Trichloren; Algylen;
Trinarj Triline, Tri; Trethylont Trethylenei
Westrosol; Chlorylen; Gemalgene; Germalgen
Company Abbreviations Used
Alcan - Aluminum Co. of Canada
ABICO - Am«co oiv. - union Oil of California
APCI - Air Products and Chemicals, Inc.
CSC - Coanercial Solvents Corp.
RCI - Reichhold Chemicals Inc.
Reichhold (V) - Varcua Chemical Division of
Itoichhold Chemicals
DCC - Onion Carbide Corp.
228
-------
APPENDIX B
CROSS TABULATION
AGE OP PAINT MANUFACTURING FACILITIES
By
NUMBER OF EMPLOYEES
229
-------
-------
NO fi.-t \\_ i_ Ouh'SfiOi-i
Paint t.C*ErATluN i.'Alh ='
tttt^irtt^tttt-frtttftttttr
...j.. ;-CT i
Number of V^ "^ ! 'Oyar' 3°
Employees ' ' " (- ' J *"
• , 1 3-f
! 1 *<*.<:.
Over 150 I 8 . i
T 2.V
. 1 CV»
101 to 150 1 jV.t
,,-
1
I
1
I
I
I
, I
C K 0 S
S T A"« U L
AGE OE MAaOFACTURIMG FACUJCTIES
(Years)
20-30 10-20 5-10
t
/
13.2
2.6
0.5
l'?
i-3.^
1
1
I
I
1
1
I
L
7
1..1.2
<*.2
U.b
10
14.6
1
T
I
I
I
1
1
C ,
2
3.8
1.2
0.1
4
7.H
1
I
I
I
1
1
I
ATI
3-5
r}
?.
3.8
2.0
0.1
?
3.V
ON 0
PLANTAGE
-Under 3
I
I
T
I
1
1
I
A
1
1.9
1.5
•l.l
3
f
ftftftft
TOTAL
I
I
I
I
I
I ....
b.3
4.0
bl
3.1
90 to JOO
81 to 90
71 to 80
61 to 70
1.4
19
1.1
.in
51 to 60
.t_u >••
(CM-.
.'I i
267
19.^
J17
lt>7
12.S
102
».<•<
3.7
1339
loO.O
231 -
-------
FOK ALL QUESTIONS
= 12/28/771
****»*#.»* .»••»•* *
«»»•*»*.****
CROSSTAB^ L ,A. T, I 0 N OF
_8Y PLANTAGE
•»«•<}
PI
" COUNT I
HOW PCT I
Number of COL PCT I
Employees TUT HCT I
e- I
I
41 to 50 I
'„ I
-I-
I
I
c -i
1
21 to 30 I
I
-I-
rt I
I
10 to 20 I
-I-
A I
I
Less than 10 I
COLUMN
TOTAL
.ANT ARE
Over 30
F
23
35. A
S.5
1.7
40.6
6.2
1.9
51
38. J
12.1
3,8
84
29.5
20.0
6.0,
130
23.4
31.0
9.7
420
31.4
AGE OF
MANI
rparrtTPT
(Years)
l 20 to 30 10 to 20
I
T
I
I
I
-!<"
1
I
I
1
I
I
1
I
I
1
I
-1-
I •
T
I
1
E
17
26.2
6.4
1.3
17
26.6
6.4
1.3
19
14.3
7.1
1.4
47
16.5
17.6
3.5
116
20.9
43.4
B.7
267
19.9
1
I
I
I
I
I
I
1
I
I
I
I
1
I
I .
1
1
1
1
I
I
0
10
15.4
3.2
0.7
11
17.2
3.5
0.8
36
27.1
11.4
2.7
79
27.7
24. y
5.9
137
24.6
43.2
10.2
317
23.7
I
I
I
I
I
I
I
I
I
•T-
I
I
I
I
I
1
1
I
I
I
I
I
T7IK-TT.TT
5 to 10
C
8
12.3
4.8
0.6
6
9.4
3.6
0.4
16
12.0
9.6
1.2
36
12.6
21.6
82
..14.7
49.1
6.1
167
12.5
TBS
3
to 5
I 8 .
I
I
I
1
-I —
I
1
1
I
I
I
I
I
I
I
I
_!
I
'I
I
1
3
4.6
2.9
0.2
2.
3.1
2.0
0.1
8
6.0
7.8
0.6
28
9.8
27.5
.2.1
53
9.5
52.0
4.0
102
7.6
Under 3
I
I
t
I
I
I
I
. I
I
I
I
I
1
I
i
I
1
I
I
1
I
A
4
6.2
6.1
0.3
2
3.1
.0
0.1
3
2.3
4.5
mC.
11
3.9
16.7
o.a
38
6.8
57.6
2.8
66
4.9
1
T'
I
1
I
I
I
I
I
I
I
— 1
I
I
1
" "I
I
I
I
1
I
I
I
I
— 1
ROM
TOTAL
65
4.9
64
4.8
1J3
9.9
285
"21.3
556
41.5
1339
100.0
NU.-VEK OF MISSING OBSERVATIONS
232
-------
APPENDIX C
CROSS TABULATION
AMOUNT OF WATER USED TO
RINSE A PAINT TANK
BY
WATER PRESSURE OP RINSE WATER
233
-------
-------
BREAKDOWN
- w w-m • — *— #—
WATRPRES
i
Rl
Cl
Tl
WATRPRES
0
OVER 150
C
101 TO 150
»"-»—» — »-
WATER
*> * ^..^^t^^..^^^. -c-f^ e-S- STAB
PRESSURE USED FOR TANK RINSING
TNKSIZEl TANKS UNDER 250 Gfl
COUNT I WATER USED PER TAH
DW -PC-T- I OVER- 2 00- H-i -T-G-2- 61 TO--
DL PCT I GALS 00 GALS 0 Gi
3T PCT I . D 1C 18
PSI
PSI
8
50 TO 100 -PSI
4.
I
I
I
I
I
I
I
I
-T
*
I
I
I
I
0
0.0
0.0
0.0
— -0
0.0
0.0
0,0
0
— 0-.0
0.0
0,0
I
I
~l
I
I
I
I
-I
I
I
I — «•—• . -^.j .
A
LESS THAN
50 P
-e0L-UMN
I
I
I
I
-T
JL
TOTAL
COUNT
ROW PC?
1
0.2
100»0
0.1
1
0.1
I
I
- -I
I
•4»^»-«-K>-^^'
0
0.0
0-*0
0.0
0.0
0.0
•-•e-rO---
0
0-,0--
0.0
0.0
I
I
I
I
i .
*
I
I
I
I
I -
I
I
0
0.0
0.4
0.0
--2
11.1
16.7
- 0.3
5
2.-S-
41.7
0.7
iLLOI
K RJ
to (
*L C
I
_I-
I
I
IS
ENS ING
)-TO-60
5ALS
A
22
100.0
I 3.1
I
I
I
I
I
I
I
I
3.1
l-A
trO
88.9
2.3
2.2
175
9-7.2
24.9
24.3
•— —- — .^i— — _«^_. | .......
3
0.6
100.0-
0.4
3
0.4
I
I
-I
I
5
1.0
41. -7
0.7
1-2
1.7
I
I
I
I
491
98,2
•••69 .-7
68.2
704
97.8
-tt-
I
Ht
T
A
I
-I
I
I
I
-I
I
I
I
I
^_T
I
I
-I
I
TNKSIZE2 TANKS 251 - 500 GALLONS
1 WATER USED PER TANK RINSING
IOVER 200 1:01 TO-£ 61 TO -10 0 TO 60
COL PCT I GALS
TOT PCT I D
WATRPRES -— I
0
OVER 150
PSI
I
I
I
I
-T.
C
101 TO 150
A
I
PSI I
i
8
50 -TO- 100-PS-fr
I
I
I
I
I
I
— T.
A
LESS THAN
•»
I
50 P I
T
L
I
0
0.0
0*0
0.0
.. ...... 0
0.0
0.0
0-.-0
2
5o!o
0.4
2
0.7
—50 -.0-
0.4
00 GALS
I C
I
r
T
I
I
I
- -I-
I
-*
I
I
i
4 »-4 t-t
1
T
"i
I
0
0.0
0.0-
0.0
0
I
E~T *mtm
I
I
-I
I
- o — i
0.0 I
0.0
0.0-
4
-2.6--
44.4
0.9
5
1.9
•^^ ft
33 uO
1.1
I
!-..
I
I
GAL GALS
B I A I
0
0.0
0*0
0.0
20.0
9.4
0,7-
12
7^9-
I 37.5
I
I
2.6
17
6*3
I
I
I
I
I
I
I
I
I
I
I
I
T
I
I
17
100.0
4-,-2
3.7
80.0
2.9
2.4
134
S8-.-2--
32.8
29.5
246
91.1
I
I
I
I
-I
I
I
I
I
I
I
•I
I
I
*-5-3-Hr- I 60-,-i §
I
3.7
I
54.2
I
t--*-.iF- ION -e fc
ROW
TOTAL
22
C. b
3.1
1 Q
18
2.5
180
25.0
500
69.4
720
100,0
ROW
TOTAL
17
3.7
15
3.3
152
3-3*5
270
59.5
-I— — - — I- . — !„ ..._! ...j
TOTAL
0.9
9
2.0
7.0
^0-9
90.1
454
100.0.
-------
BREAKDOWN
C R 0-9- S--T-*-fl-U-tr-A
WATRPRES WATER PRESSURE USED FOR TANK RINSING
»*******»»*»»»»**»*»»*»«
-e~F-
COUNT
ROW -PCT
COL PCT
TNKSIZE3
I
-IOVER Z&Q-
I GALS
. TANKS 501 •
WATER USED
1-0-1 *0~2
00 GALS 0
• 1000 GALLONS
PER TANK RINSING
TO --i 0 0~-Ta 60
GAL GALS
WATRPRES
0
TOT PCT I
PSI
0 PSI
PSI
50
I
I
I
I
I
I
I
I
^
0
4
26.7
33.3
1.3
0
0.0
0.0
0.0
I
I
I
I
I
I
I
I
I
C
0
0.0
0.-0
0.0
&
0.0
0.0
0.-0
I
-I-
I
I
I
I
I
I
I
I
B
4
26.7
9.3
1.3
5
38.5
11.6
1.6
I 51 2 I 17
I 4.1 I 1.6 I 13.*
I 41,7 I 22.2 I 39.5
I 1.6 I a.6 I 5.5
I 3 'I 71 17
P I 1.9 I 4.3 I 10.6
I 25.0 I 77^8 I 39.5
I 1.0 I 2.3 I 5.5
I A
1 7
I 46.7
I 2.8
I 2.3
I
I
I
8-
61.5
3.2
I 98
I 80.3
I 39.7
I 31.5
-I
I 134
I 83.2
I S4.-3
I 43.1
I
I
I
I
I
I
I
I
I
I
I
I
I
-I
I
I
I
I
COLUMN
TOTAL
12
3.9
9
2.9
43
13.8
247
79.4
ROW-
TOTAL
15
4.8
13
4.2
122
39.2
161
51.8
3H
100.0
COUNT
I
TNKSIZE4
ROW PCT iOVER 200-
COL PCT I
TOT PCT I
WATRPRES
OVER
101
0
150
C
PSI
TO 150 HSI
B
50 TO- 100
PS*
i
i
i
i
-i
i
i
i
i
«T
1
I
I
I
I
GALS
0
2
25.0
25.0
1.2
--___..._
1-
14.3
12.5
-0.6
4
4.7
50.0
2.3
I
1
I
I
I
I
I
I
I
I
I
I
I
I
I
TANKS 1000
WATER USED
101 TO
00 GALS
C
w« «
0
0.0
0.0
0.0
—«•—•»•»
2
28.6
11.8
1^2
7
8-» 1
41.2
4.1
I---— --—I— »->•»---
LESS
A
THAN
50 P
I
I
f-
1
1
1.4
-t2-55
0.6
I
I
I
I
8
11.3
4-7H
4.7
- 1500 GALLONS
PER TANK RINSING
2 61 TO 10
0
I
-I-
I
I
I
I
— I —
I
I
I
I
I
3
I
I
-I-
I
I
A
I
GAL:
B
2
25.0
5.1
1.2
.•>._._
j.
14.3
2.6
0-.6-
19
22-* i
48.7
11.0
—
17
23.9
-4-3-* 6
9.9
- 1 1 ... x
/^rtt t IM*.»
CJUUUNri
TOTAL
8
4.7
t?
9i9
236
39-
'2.7
I
-I
I
I
I
I
•—I
I
I
I
I
I
I
I
I
I
I
T
i
0 TO 60
GALS
A
4
50.0
3.7
2.3
_______
3
42.9
2.8
1.-7
56
$5»i
51.9
32.6
45
63.4
4-1,-?
26.2
I
-I
I
I
I
I
-I
I
I
I
I
I
I
I
I
I
I
I
I
-i 1
1-frB
62.8
ROW
TOTAL
8
4.7
7
4.1
86
50.0
71
172
100.0
-------
BREAKDOWN
WATRPRES WATER PRESSURE USED FOR
1
WATRPRES
n
OVER 150
C
TNKSIZE6
COUNT
ROW- PG-T-
COL PCT
TOT PCT
I
-CROSS "T -A B 'U-i
TANK RINSING
b-ft T I 0-N- — fh-F
TANKS 2501 - 6000 GALLONS
WATER USED PER
IOVER
I
1
GALS
D
-_-.__ «..j.»
PSI
•101 TO 150 PSI
I
I
I
I
I
I
*
\2.
6.
1.
16.
200
—
1
5
3
0
1
7
4-01 TS--2
00 GALS
I C
I 2
I 25.0
I 10,5
I 2.0
I t
I 16.7
TANK RINSING
61r TO 40-
I
-I
I
I
I
I
I
I
0
B
37
-11
. 3
GAL
I
3 I
.5 I
.1- I
.0 I
0--TO £0
GALS
A .
T
ROW
TOTAL
^ A
•""•—" "* ~~I
2
25.0
5.3
2.0
.4- -L ..-&
66
.7 I
0.0
T
J>
I
I
I
I
I
8
8.0
_£
6.0
H
50- TO 100 PSI
A
LESS THAN 50 P
. TOTAL
COUNT
ROW -PET
COL PCT
TOT PCT
WATRPRES •*•- —
i)
OVER 150 PSI
•
C
101 TO 150 PSI
m
B
50- TO 100--PS4
•
A
LESS THAN 50 P
COLUMN
TOTAL
I 10
I 17-. 2-
I 62.5
I 10.0
I 4
I 14.3
-I -25*0-
I 4.0
I 12
I 29-«7
I 63.2
I 12.0
I 4.
I 14.3
I 2K1
I 4.0
1* 19
16.0 19.0
TNKSIZE5 TANKS
I WATER
IOVER 20 0 1-04 TO-
I GALS 00 GALS
ID 1C
I 11 I 25
I 19.0- I *-3.1
I 40.7 I 65.8
I 11.0 I 25.0
I 9 I 11
I 32.1 I 39.3
I -33.3 -I S8.9
I 9.0 I 11.0
27 3&
27.0 38.0
1501 - 2500 GALLONS
USED PER TANK RINSING
2- 61 TO 4-0 4 -TO 60
0 GAL GALS
IB I A
I 31 11 31 4
I 27.3 I 9.1 I 27.3 I 36.4
I 16.7 I S.-9 I 8.6 I 4.7
_I 1.9 I 0.6 I 1.9 I 2.6
4 11 01 6- .j. i"~
I 12.5 I 0.0 I 75.0 I 12.5
I 5.6 I 0.0 I 17.1 I 1.2
-4 -0,-6- I OrO I 3.9- I- 0.6
I 61 9 I 15 I 45
I B-.0 I 42r& -I 30.-0- -I -60. &
1 33.3 I 52.9 I 42.9 I 52.9
1 3.9 I 5.8 I 9.7 I 29.0
* 81 71 11 I 35
I 13.1 I 11.5 I 18.0 I 57.4
I 44,4 I -4W2 I 3-1.4-1 -4t.2
I 5.2 I 4.5 I 7.1 I 22.6
. j 1 ... , j j
i8 17 35 85
11.6 11.0 22.6 54.8
237
I
I
I
I
•I
r
i
i
i
i
i
i
i
i
i
i
i
i
i
i
i
i
i
i
i
i
i
58
58.0
28
28.0
100
.100.0
ROW
TOTAL
11
7.1
8
5.2
75
61
39.4
155
100.0
-------
-*
»-
-*-
R 0 5 4-f-A-B-
WATRPRES WATER PRESSURE USED FOR TANK RINSING
#»»»#»»*»»»***»*»***»»».<
*- *
A ••.•» * * * *
TNKSIZE7 TANKS OVER 6000 GALLONS
COUNT I WATER USED PER TANK RINSING
ROW POT fOVER 2-00- 1-0-1 TO 2 61 -TO -10 0 TO- 60
COL PCT I GALS 00 GALS 0 GAL. GALS
TOT PCT ID 1C 18 IA I
D I
OVER 150 PSI I
I
I
-I-
c- i
101 TO 150 PSI I
I
I
B I
50 TO 100 PSI I
I
I
-I-
A I
LESS THAN 50 P I
I
I
ml"
COLUMN
TOTAL
50
50
6
0
0
0
13
50
6
0
0
0
12
2 I
.0 I
.0 I
.3 I
0
.0
.0
.0
2
.3
.0
.3
0
.0
.0
.0
A
.5
I
I
I
1
I
I
I
I
I
r
i
i
0.
0.
o.
50.
25.
3.
20.
75.
9.
0.
0.
0.
12.
0
0
0
0
1
0
0
1
3
0
0
4
0
0
0
0
4
5
I
I
I
I
I
I
I
I
I
I
I
I
I
I
I
1
0
0.0
0.0
0.0
0
0.0
0.0
0.0
2
40.0
6.3
3
27.3
60-, 0
9.4
5-
15.6
I,
I ,
I
I
I
I
I
I
I
I
I
I
I
I
I
I
2
50.0
10,5
6.3
1
50.0
5.3
3.1
8
53^3
42.1
25.0
8
72.7
42 .-1
25.0
19
59.4
I
I ,
I
I
I
I
I
I
I
I
I
I
I
I
I
I
ROW
TOTAL
4
12.5
2
6.3
15
46.9
n
34.4
32
100.0
238
-------
APPENDIX D
PROCEDURES FOR METALS ANALYSIS
BY INDUCTIVELY COUPLED ARGON PLASMA
239
-------
-------
Determination of Total Metals in Water
and Wastewaters by Plasma Spectrometry
CRL Method Nos. 504-570
Scope and Application
This procedure is applicable to the determination of-calcium, magnesium,
sodium/ potassium^ aluminum, barium, berylium, boron, cadmium, chromium,
cobalt , copper, lead, manganese, molybdenum, nickel, silver, thallium,
tin, titanium., vanadium, ytrium and" zinc in water and industrial municipal
wastewaters.
Summary of Method
The sample is digested with 8 N nitric acid to near dryness followed by
additional heating with HC1 to solubilize transition and noble metals.
The sample is cooled, diluted to 50 ml and analyzed using Inductively
Coupled Argon Plasma Atomic Emission Spectrometry (ICAP). The alkali
metals concentrations are expressed in milligrams per liter, whereas
concentrations for other metals are expressed in micrograms per liter.
Twenty-two metals are routinely analyzed.
Scruipment
Jarrell Ash Atomcomp 750. Inductively coupled argon plasma emission
spectrometer consisting of:
a. RF generator
b. Plasma housing
1. Water-cooled induction coil
2. Quartz torch
3. Cross-flow nebulizer
4. Spray chamber
c« Direct reading spectrometer
1. Entrance slit
2. Refractor plate at entrance slit
3. Grating
4* Iix.it slits
5• Phototubes.
d. Computer for instrument control
e. Data output device.
300 ml tall form beakers
Mattler PR 700 Balance
Corning Hot Plates
241
-------
Reagents, Water, Glassware and Standards
Redistilled Nitric Acid (1:1-8 Normal).
Hydrochloric Acid (1:1), Reagent Grade.
Glassware; Beakers for digestion, after being run through diswasher, are
rinsed with distilled water and placed in an aqua regia bath for at least two
hours. They are then rinsed thoroughly and allowed !to air dry. The chemist
performing the digestion will select his or her beakers and give each a hot
acid wash by following then with 1:1 KCl and placing on the hot plate for at
least one half hour.
The laboratory distilled water is passed through an ultrapure mixed-bed resin
coluran before use. All water used unless otherwise stated,-has been passed
through the mixed-bed resin (Super Q Water).
Standards; All standards are diluted from Fisher 1000 pp-a Atomic Absorption
standards with the exception of silver and beryllium (varianj and Yytrium
(made from ytrium nitrate (Y(N03)3).
Standards used for the ICAP Calibration Procedure
SOOO: Mixed-bed resin water (super Q water)
SO01: One ppm in all elements except silver and
calcium
AGCA: 1 ppa silver and 10 ppm calcium, made fresh
daily.
1000: 1000 ppm calcium (Fisher)
XXXX: 1000 ppm iron (Fisher), FFFA matrix only.
Procedure
1. A designated aliquot (usually 50 ml) of well-shaken and preserved
sample (pH<2) is poured off into a 300 ml tall-form beaker. Normal
procedure is to place the beaker on an automatic-tare balance and
deliver 50 g - drawing off excess with a disposable pipet. (This
procedure assumes the sample is of sufficiently low concentration that
the specific gravity is not appreciably greater than one.. The purpose of a
mass determination rather than a volume one is to eliminate cross-contamina-
tion) . After the addition of 6 ml of 8N redistilled ENO3, to the
sample a ribbed beaker cover is placed on the beaker and the sample
is heated to near dryness. (The sample is not .taken to complete
dryness to avoid the loss of boron) . If the residue is dark colored
after cooling, an additional 6 ml of 8N HK03 is added and the sample
is reheated. This process is continued until no color change is
detected.
2. Following the digestion, 5 ml of 1:1 HCl is added and the residue is
dissolved and/or placed in suspension by warming on a hot plate.
After cooling, the sample is transferred to a pre—tared 2 ounce
polyethylene bottle and diluted up to 50 g. If some solids remain
undissolved, the sample is filtered into a 50 ml volxanetric and then
transferred to a polyethylene bottle for subsequent analysis.
242
-------
3. Operating Conditions
a.
b.
c,
d.
e.
f.
Incident RF power .1.1 kw
Reflected RF gower mimimized «10 w)
Plasma observation height 15 nun above load coil
Horizontal observation position...center
Aspiration Argon flow rate 0.6 L/min
Plasma Argon flow rate 22 L/min
4. ICAP Standardization Procedure and Sample Analysis.
Following startup, the instrument is profiled with the merczzry monitor.
The micrometer reading is recorded on the sheet with the interelement
correction values for the day.
The matrix is brooight-onto core and time and date established. The
available matrices are: '
CCAS: correction for calcium
FSAS: correction for calcium and iron
K1AS: correction for calcium and iron and
outputs potassium.
The Q-string QEGGGAB is set for standization. This string of-commands
will erase the burn buffers, execute three burns, average'them, and
. print the average on the teletype.
(It has been found that examining the standards in background mode allows
a better judgement of the noise in a given channel).
5. The standards cited above are run. Once it has been verified that the
standards check, the values for interelement correction for iron and
calcium are recorded and entered via the data base manager. In actual
operation it is possible that these may vary only slightly (5%) from day
to day, in which case they need not be entered.
Upon return to the operating system, the matrix is recalled and the
blank and 1 ppm standard are checked. If these remain with in standard-
zation, an instrument AQC solution is measured. *This AQC solution
is simply the waste from the drain of the nebulizer, collected and
held until it is deemed stable. The values for this solution are
recorded in a log book and compared with previous values. This is
a check for gross operator error during standardzation.
6. Once these criteria have been satisfied, the instrument is reacy
to run samples. The blank and 1 ppm standard should be checked
every 30-45 min £o establish that the instrument has not drifted.
The blank should also be checked if values above detection limits
are found for the field blanks or digested laboratory blanks.
243
-------
7.
8.
Samples are aspir-ited for 45 seconds before executing the Q string
QEGC Which perform a single burn followed by output in concentration
mode which includes interelement corrections. Longer flush times,
may be desired for ^samples which follow high (>500 ppm) iron samples
or high (>1000 ppm) sodium samples. No other elements have been
encountered in sufficient quantities in real samples to result in
noticeable memory effects.
Duplicates and spikes should be checked against the corresponding
sanoles before continuing. This is to establish whether deviations
occur in the digestion or measurement of samples on the ICAP. If
it is found that the digestion is not at fault, restandardization
on the 1C A? is recommended.
3« Samples at high 1-evels are routinely diluted 10 -fold to determine
if results for all elements are valid or the result of intererence
not accounted for by the matrix ISCC's.
The paper tape from the teletype is read into the DG KOVX and the
report plus QC check is performed by programs written in. BASIC.
Quality Control :
Four types of quality control' samples are put through the digestion
process" at the same time as the samples. In a1 typical run of forty
samples there are in addition, four blanks, 4 AQC solutions, 2 dupli-
cates* 2 spikes.
1. Blanks: These are simply the laboratory super Q water carried
through the same digestion process as the samples. 13ie blank
data is summarized periodically and is used to determine detec-
tion XiEiits for the method (average and 2 standard deviations).
2.
3.
AQC Solutions: A series of solutions were made to cover the
ranges measured for each parameter. These were arranged in
Youden pairs approximately as follows: 10 ppm - 8 ppaj 1 ppm -
800 ppb; 100 ppb - 80 ppb. Two 'pairs of these solutions are
digested as part of the run. This is separate from the instru-
ment AQC and calibration procedure mentioned earlier.
Duplicates: Two samples are chosen to be analyzed as duplicate? are
carried through the digestion process. The results for these are
expected tc be within 10% of each other for each element, for concen
trations in the working range (blank one + 10 standard deviations).
Soikes: Two samples are chosen, to be analyzed as spikes. A table
of sp'ike concentrations in terms of final concentrations is formulated
Spike recoveries are determined if the sample is less than 200% of
the added spike.,
244
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Routine Maintaiaance
Following four days of operation the torch and nebulization spray chamber
should be acid washed. Before the torch is removed and after"it*is replaced,
statistical programs are run to determine the standard deviation of all the
lines when aspirating blank water. Dark currents are also examined in this
manner. A reading of the profile meter is taken for each element both before
and after cleaning while aspirating both blank water and the 1 ppm standard."
When the torch is replaced, coarse alignment is made using a 1000 pixn yttrium
standard to center.the image on the slit. Fine adjustment of the mirror is
made by maximizing the signal to noise ratio on the lead line.
Once a month, statistical programs are run to maintain an historical record of
intensities obtained on each line for the series of standards.
Calculations
These are done by the computer program (written in basic) including
insertion of dilution factors to give results in mg/1 for calcium,
magnesium and sodium and ug/1 for the other metals.
1.
2.
Reference
Manual of "Methods for Chemical Analysis of Water and Wastes",
U.S. Environmental Protection Agency, Office of Technology Transfer,
1974, Washington, DC, pp 78-155.
"Simultaneous Multielement Analysis of Liquid Samples, by Inductively
Coupled Argon Plasma Atomic - Emission spectroscopy", U.S. Environmental
Protection Agency.. Region V, Central Regional Laboratory, Chicago,
Illinois, (unpublished).
245
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Ag
Al
B
Ba
Ca(l)
Ca(2)
Cd
Co
Cr
Cu
Fe
— i
Name \ in nm
Silver 328.1
Aluminum 396 ,.2
Boron 249,7
Barium 233.5
Calcium 393.4
Calcium 364 ,.4
Cadmium 226.5
Cobalt 238.9
Chromium 267.7
Copper' 324.8
Iron 259.5
Mg
Mn
Mo
Ni
Pb
Sn
Ti
V
Y .
Zn
Name x in nm
Magnesium 279.6
Manganese 257.6
Molybdenum 203.8
Nickel 341.5
Lead', 220.3
Tin : 190.0 .
Titanium 334.7
Vanadium 309.3
Yttrium 417.8
Zinc ; 213.9
ELEMENT LIST AND ANALYTICAL LINES
TABLE I
A list of the elements currently analyzed by the CRL ICAP-AES instrument and
the emission line chosen for each element. :
246
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Ag
Al
B
Ba
Ca
Cd
Co
Cr
Cu
Fe
D.L. LQD
yg/1 yg/1
4 20
7 35
3 15
1 5
<0.5 l
2 10
4 20
1 5
1 5
2 10
Mg
Mn
Mo
Ni
Pb
Sn
Ti
V
y
Zn
D.L. LQD
ug/1 wg/1
<0.5 1
1 5
5 25
15 75
12 60
12 60
1 5
1 5
-1 5
1 5 '•
*Five Runs over Three Months
MEAN*DETECTION LIMITS
AND LOWEST QUANTITATIVELY DETERMINABLE CONCENTRATIONS (LCD)
TABLE 2
The detection limit (D.L.) is the amount of material that will produce
a signal ;that is twice as large as the standard deviation of the noise.
The lowest quantitative detemiinable concentration (LQD) is 5 tines the
D.L. and is the lowest concentration one can expect to report.
247
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APPENDIX E
LIST OF PRIORITY POLLUTANTS
249
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r
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APPENDIX E
List of 129 Priority Pollutants
Compound Name
1. *acenaphthene
2. *acrolein
3. *acry1on1trils
4. *benzene
5. *benzidine
6. *carbon tetrachloride (tatraehloromethane)
^Chlorinated benezenes (other than
dTChlorobenzenes}
7. ehlorobenezene
8. Is2,4-triehlorobenzena
9. hexachlorobenzene
*Ch1orinated ethanes (including 1,2-
dichloroethane, 181,1-tri chloro»
ethane and hexachloroethane)
10^ 1,2-dichloroethane
11. 18.18l-trichloroethane
12.. hexachloroethane
13. T,1I-dichloroethane.
H. 7,1,2-trichloroethane
15. T,1S2,2~tetraehloroethane
16. chloroethant
*ChloroaTkyl ethers (chloromethyl,
cfTforoethyl and mixed ethers)
17. bis(chloromethyl) ether
*Specific compounds and chemical classes as listed
in the consent degree.
251
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18.
19.
20.
21.
22.
23.
24.
25,
26.
27.
28.
29.
30.
3K
32.
"33..
"34.
bis(2-chloroethly) ether
2-chloroethyl vinyl ether (mixed;
*Chl ori na ted naphtal ene
2-chloronaphthalene
*Chlorinated phenols (other than: those,
listed elsewhere; includes trichloro-
phenols and chlorinated cresols)
2,4,6-trichlorophenol
.parachlorometa cresol
*ch1oroform (trichloromethane) ;
*2-chlorophenol :
*DichTorobenzenes
1,2-dichlorobenzene
1,3-dichlorobenzene
1,4-dichlorobenzene
*DichlorQbenzidine ;
3,3'-dichlorobenzidine
*Dichloroethylenes (1 ,1-dichloroethylene
and 1 ,2-di chloroethyl ene)
1,1-di chloroethyl ene
1,2-trans-dichloroethylene
*Dichloropropane ind dichloropropene
1,2-dichiorL.^ropane
1,2-dichloropropylene (1,3-di.chloropropene)
^2,4-dimethyl phenol
252
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*D1nitrotoluene
35. 2»4<-dinitrotoluene
36. 2,6,-dinitrotolueric
37. *l,2»diphenylhydrazine
38. *ethylbenzene
39.. *fluoranthene
*HaToethers (other than those listed
"elsewhere)
40. 4-chlorophenyl phenyl ether
41. 4-bromophenyl phenyl ether
42. bis(2-chloroisopropyl) ether
43- bis(2"-chloroethoxy) methane
*Halpmethanes (other than those listed
elsewhere)
44. methylene chloride (dichloromethane)
45. methyl chloride (chloromethane)
46. methyl bromide (bromomethane)
47. broraoform (tribromomethane)
48. dichlorobromomethane
49. trichlorofluoromethane
50. dichlorodifluoromethane
57» chlorodibromomethane
5Z. *hexachlorobutadiene
53. *hexachlorocyclopentadiene
54. *isophorone
253
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55. *naphthalene
56. *nitrobenzene
*Nitrophenols (including 2,4-dinitrophenol
and cnnTtrocresol)
57. 2-nitrophenol
58. 4-nitraphenol
59. *2',4-dinitrophenol
60. 4,6-dinitro-o-cresol
*Nitrosannnes>
61. N-ni trosodimethylamine
62. N-nitrosodiphenylamine
63. N-nitrosqdi-n-propylamine
64. *pentachlorophenol
65. *pheno!
*Phthalate esters
66. bis(2L-ethylhexyl) phthalate
67. butyl benzyl phthalate
68. di-n-butyl phthalate
69.. dl-n-octyl phthalate t ;
70. diethyl phthalate
71. dimethyl phthalate
*Polvnuclear aromatic hvdracarbons:
72. benzo(a)anthracene (1,2-benzanthracene)
254
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73. benzo (a) pyrene (3,4-benzopyrene)
74. 3,4-benzofluoranthene
75. benzo(k)f!uoranthane (11,12-benzofluoranthene)
76. chrysene
77. acenaphthylene
78 anthracene
79.. benzo(ghi)perylene (1,12-benzoperylene)
80. fluroene 1 .,
81.. phenathrene
82. dibenzo (a,h)anthracene (1,2,5,6-dibenzanthracene)
83.. . indeno (l,2,3-cd)pyrene (2,3-o-phenylenepyrene)
84. pyrene
85. *tetrach1oroethylen&
8ff.. *toluene
87. *trich1oroethylene
88. *vinyl chloride (chloroethylene)
Pesticides and Metabolites
89. *aldrin
90. *dieldrin
9T. *chlordane (technical mixture & metabolites)
*ODT and metabolites
9Z. 4,4'-DDT
9J. 4,4'-DDE (p,p'-DDX)
94. 4,4'-DDD (p,p'-TDE)
255
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*endpsu1fan and metabolites
95. a-endosul fan-Alpha
96. b-endosul fan-Beta
97. endosulfan sulfate
*endrin and metabolites
98. endrin
99-.. endrin aldehyde
*heptachlor and metabolites
TOO. heptachlor
TOT. heptachlor epoxide
*hexachlorocyclohexane (all Isomers)
T02~ a-BHC-Alpha
T03- b-BHC-Beta
104-'.. r-BHC (lindane)-Gamma
T05r g-BHC-Delta
*polychlorinated biphenyls (PCB's)
106. ' PCB-1242 (Arochlor 1242)
PCB-1254 (Arochlor 1254}
PCB-T221 (Arochlor 1221)
PCB-1232 (Arochlor 1232)
PCB-1248 (Arochlor 1248)
PCB-1260 (Arochlqr 1260)
TCB-1016 (Arochlor 1016)
113. "*Toxaphene
114. *Antirtony (Total
115. *Arsenic (Total)
108.
109>.
111.
112.
256
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115.
117.
118.
119.
120.
121.
122V
123.
124.
125.
126.
127,
128,,
129.
*Asbestcs (Flbrcvs)
"Beryllium (Total)
*Cadmium (Total)
*Chromium (Total)
*Copper (Total)
*Cyan1de (Total)
*Lead (Total)
*Mercury (Total)
*N1ckel (Total)
*Selenium (Total)
'Silver (Total)
*Thallium (Total)
*Zinc (Total)
**2,3,7,8'- tetracnlorodibenzo-p-dioxin (TCDD)
*Specffic compounds and chemical classes as listed
1rr the consent degree.
**This compound was specifically listed in the consent
degree.. Because of the extreme toxicity (TCOD). We are reconmending
that laboratories not acquire analytical standard for
this compound.
257
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APPENDIX F
SAMPLING PROCEDURES
259
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SAMPLING PROCEDURES
Following the selection of sampling sites, final prepa-
rations were made for the field activities. The sampling
protocol developed by EPA (Draft EPA Sampling Protocol for
Measurement of Toxics, October 1976)" was used as a basii~Tor
sample collection. However, due to the nature of wastewater
treatment at the sites selected, some modifications to the
EPA protocol were required. These modifications, which were
approved by the Project Officer, are described below.
Additionally, all samples analyzed for toxic substances were
run in accordance with EPA Draft Analytical Protocol for
the Measurement of Toxic Substances, October 1976.
Protocol Modifications
The protocol developed for priority pollutant sampling
recommends the collection of composite samples. Since most
paint process wastewater is collected over a period o'f time
for batch treatment, the recommended composite sampling
method was not necessary. Consequently, grab samples were
taken at the majority of the sampling plants. At the remain-
ing plants, composite samples were taken since the wastewater
streams were either continuous or semicontinuous.
Beside the collection of grab samples,, some modifications
of the protocol's sample preservation methods were required.
In order to correlate the data between this sampling program
and the one conducted during the 1976 study, the preservation
method recommended in the protocol for the phenol fraction
was changed. The protocol shows phosphoric or sulfuric acid
alone being used for phenol sample preservation. For the
1976 study, samples were preserved in accordance with the
guidelines established under section 304g of the Act (Methods
for Chemical Analysis of Water and Wastes, U.S. EPA, Monitoring
and Support Laboratory, 1974). Specifically, the phenol
fractions were preserved with copper sulfate plus phosphoric
acid. To maintain uniformity, copper sulfate and phosphoric
acid were also used to preserve phenol samples collected
during the 1977 sampling program.
An additional variation related to the protocol required
precautions against the presence of residual chlorine in
samples. Sample fractions collected during the 1977 sampling
program were riot checked for residual chlorine in the field.
This procedure was deemed unnecessary because all of the
plants sampled discharge to publicly owned treatment works
precluding the need for effluent chlorination. This fact
was verified in the field by the sampling teams.
261
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Sample Collection , . . •
Table F-l summarizes the samples taken during the 1977
sampling program. The.five possible sampling points at each
plant were as followss
(1) Intake Water or Plant water supply: These samples were
collected and analyzed to obtain background measurements.
(2) Untreated wastewater: Process wastewater (tank and
equipment cleaning wastewater) collected before treatment. In the
batch treatment operations, the wastewater collected in the
treatment tank was mixed to insure a representative sample for the
collection period. The length of the collection period ranged
from a few hours to over a week, depending upon each plant's
production schedule. At the two plants that did not have batch
treatment, composite samples were taken of the untreated waste-
water as it flowed into the treatment system.
(3) Treated wastewater: Sampled at the end of the plant's
normal treatment and settling period, usually the following day.
The samples were taken immediately before or, as the supernatant
was being discharged to the sewer-
(4) Sludge: Sampled, if available, and if the consistancy
was sufficiently fluid to allow analysis.;
(5) Sampler Blanks: Deionized water was run through the
automatic samplers used when taking composite samples 4 This was
done to ascertain the amount of hydrocarbon contamination intro-
duced by the sampler tubing. :
At a majority of plants, more than one treatment batch was
sampled to account for possible variability in wastewater com-
position. After the samples were taken, they were properly
labeled, packed in ice, and shipped to the appropriate labora-
tories for analyses. The samples were shipped by air freight and
received at the labs within 24 hours after sampling. A chain of
custody form, signed by the samplers, accompanied each set of
samples back to the labs.
Sampling Teams
For each sampling, plant, a two-man team collected the appro-
priate samples. During the initial visit to a plant, the engineer
would determine the location of sampling points and set up the
sampling schedule with the plant representative.
Inventory of Sampling Points
Table F-2 presents pertinent information regarding each
sample taken during the 1977 study.
262