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13
1 WESTON WAYWEST CHESTER, PA 19380-1499PHONE: 215-692-3030FAX: 215-430-3186
iESiGNERS CONSULTANTS
24 August 1992
Ms. Linda MartinU.S. EPA77 West JacksonHSRM6JChicago, IL 60604
RE: Final Bound/Signed Copy of Leaching Test Plan
Dear Ms. Martin:
We are transmitting a final signed and bound version of the Revision of Plan for Soil/WaterLeaching Tests of Contaminated Soils, June 1992. While you have a copy of the originalrevision draft and the final revised pages, this bound version should avoid any confusion andprovide a record copy.
Very truly yours,
ROY>F3WESTON<
Peter S. Puglione< P.E.Dover Project Coordinator
PSP/wmr
cc: S. Bergreen - OEPAD. Rankin - Dover ChemicalP. Rose - Brouse and McDowall (no encl.)W. Leis - WESTON (no end.)R. Johnson - WESTON (no encl.) EPA Region 5 Records Ctr.
234641
3190.wr
Ii
i
ROY F. W E S T O N , INC
REVISION TO PLAN FORSOIL/WATER LEACHING TESTS
OF CONTAMINATED SOILS
Dover Chemical CorporationDover, Ohio
June 1992
IIII
REVISION TO PLAN FORI SOIL/WATER LEACHING TESTS1 OF CONTAMINATED SOILS
I Dover Chemical CorporationDover, Ohio
! June 1992
?1 DavWL. Rankin '
Dover phelj^cal Corporai
'eter Puglionesi, P.E. //Dover Project Coordinator
James K. Van der KlootI U.S. EPA Remedial Project Coordinator
I X*- Scott Bergreen / . . .
. Ohio EPA Project Coordinator
1s Roy F. Weston, Inc.
Weston WayI West Chester, Pennsylvania 19380
TABLE OF CONTENTS
Section Title Page
ES EXECUTIVE SUMMARY ES-1
1 BACKGROUND 1-1
2 OVERVIEW 2-1
3 SAMPLE COLLECTION 3-1
3.1 Unsaturated Zone Soils - Near Surface 3-13.2 Saturated Zone Soils - Gravelly Sand 3-43.3 Canal Sediments 3-53.4 Soil Sampling Protocols 3-53.5 Groundwater Collection Protocols 3-6
4 TEST APPARATUS 4-1
5 PARTITIONING TEST PROCEDURE 5-1
6 SOIL AND LEACHATE CHARACTERIZATION 6-1
6.1 Physical Analysis 6-16.2 Chemical Analysis 6-1
7 DATA ANALYSIS 7-1
8 QUALITY ASSURANCE 8-1
9 REFERENCES 9-1
APPENDIX A - ADDENDUM TO EXISTING SITEHEALTH AND SAFETY PLAN
APPENDIX B - TOXICITY CHARACTERISTICLEACHING PROCEDURE
11
LIST OF TABLES
Table No. Jjllfi
3-1 Sampling Locations and Rationale 3-2
6-1 Analyses For Leaching Tests 6-3
7-1 Regulatory Levels for TCLP and 7-2Waste Extract
111
LIST OF FIGURES
Figure No. Title Page
3-1 Proposed Soil and Sediment Sample Locations 3-3for Leaching Tests
IV
EXECUTIVE SUMMARY
This document is a revision to the "Plan for Soil/Water Leaching Tests of Contaminated
Soils." The original plan detailed a laboratory investigation to evaluate soils from the Dover
Chemical site containing chlorobenzenes, chloroform, and carbon tetrachloride to determine
the leaching or soil/water partitioning behavior of these compounds in the unsaturated and
saturated zones. This revision outlines an extension of the laboratory investigation to
evaluate soils and sediments containing polychlorinated dibenzo-p-dioxins (PCDD) and
dibenzofurans (PCDF), hexachlorobenzene (HCB), and alpha-hexachlorocyclohexane (alpha-
BHC), as well as a modification of the investigation for the orginal parameters.
The objective of this investigation is to determine the distribution of these constituents
between the aqueous and solid phases using soil and groundwater collected from the site.
This information will be used to assess the potential impact of soils on groundwater quality
over an extended period of time and to help estimate the rate of groundwater remediation.
In addition, the information will be used to support the selection and implementation of a
remedial action alternative for soils at the Dover Chemical Plant.
Three soil samples will be collected from various areas of the plant. A site composite of
near-surface soil will be collected for leach testing of PCDD/PCDF, HCB, alpha-BHC, and
antimony. An additional sample will be collected near Building 21 for leach testing of
alpha-BHC at higher concentrations. One sample from the gravelly sands in Area H will
be collected in or near the saturated zone for leach testing of PCDD/PCDF, HCB and
alpha-BHC. In addition, a sediment sample from the inlet of the abandoned canal will be
leach tested for PCDD/PCDF, HCB, and alpha-BHC. Samples will also be analyzed for
volatile and semivolatile organic compounds, organic carbon (OC), and physical parameters.
The soil/water partitioning studies will utilize a modification of an extraction vessel and an
agitation device described in EPA's Method 1311 Toxicity Characteristic Leaching Procedure
(TCLP). In most of the tests, upgradient groundwater will be used to extract constituents
1091.wr ES-1
from the soil and sediment samples. The material in the bottle extraction vessel will be
separated into its aqueous and solid phases and both phases will be analyzed for the target
analytes. In addition, the solid phase will be analyzed for moisture.
An additional extraction will be used to evaluate the effect of chlorobenzenes in the
groundwater on the soil/water partition coefficients for the gravelly sand sample from Area
H. Groundwater collected from a well that contained the highest level of chlorinated
benzenes on-site (e.g., MW-11A or MW-11B) will be mixed with the soil sample to
determine the partition coefficient in the presence of a significant cosolvent concentration.
Where applicable, all field and laboratory QA/QC protocols in the "Sampling and Analysis
Plan to Complete the Remedial Investigation at the Dover Chemical Facility, Dover, Ohio"
(SAP) and the "Quality Assurance Project Plan for Additional Investigation Work, Dover
Chemical Facility, Dover, Ohio" (QAAP) will be followed for these soil/water partitioning
studies. In addition, the Safety Plan in the SAP and its addendum will be followed during
sampling activities, and the schedule for these studies will coincide with the overall RI/FS
work completion.
Each of the four soils from the various site areas sampled will also undergo a TCLP test
consistent with the approach discussed in the original plan. TCLP extract will be analyzed
for hazardous constituents that may render the soil hazardous and impact disposal options
if off-site disposal is required. Only hazardous constituents for which regulatory levels for
waste extract have been promulgated will be tested using the TCLP.
1091-wr ES-2
SECTION 1
BACKGROUND
Dover Chemical Corp. and Roy F. Weston, Inc. (WESTON) submitted the "Plan for
Soil/Water Leaching Tests of Contaminated Soils (Third Draft) in May 1989 to the U.S.
EPA and the Ohio EPA. The plan was approved in June 1989. Under the plan, soils
containing target chlorinated organic compounds would be evaluated in the laboratory to
determine the leaching or soil/water partitioning behavior of these compounds in the
unsaturated and saturated zones. This information was to be used to assess the impact of
soils on groundwater quality over an extended period of time and to help predict the rate
of groundwater remediation. In addition, the information was to be used to support the
selection and implementation of a successful remedial action alternative for contaminated
soils at the Dover Chemical Plant in Dover, Ohio. This included testing soil samples
according to Toxicity Characteristic Leaching Procedure (TCLP), as requested by OEPA,
to assess the applicability of landfilling/land ban requirements.
To date, soil and groundwater samples from the saturated zone have been collected from
MW-11C at the Dover Chemical Plant and analyzed for VOCs and selected SOCs. The
results of these analyses have been used to calculate preliminary soil/water partition
coefficients in a letter dated 20 July 1989. However, the unsaturated zone tests have not
been conducted.
Since the approval of the "Plan for Soil/Water Leaching Tests of Contaminated Soils,"
sampling and analysis for additional analytes were completed. These results, and the results
of follow-up testing, indicated that PCDD/PCDF, HCB, and alpha-BHC are present in site
soils. In order to meet the objectives of determining the impacts of soil concentrations on
groundwater quality, the partitioning behavior of PCDD/PCDF, HCB and alpha-BHC
should also be determined. While the original plan has provisions for analysis of additional
parameters, factors such as the sample size required make it necessary to conduct separate
tests for PCDD/PCDF, HCB, alpha-BHC, and antimony. Therefore, modifications to the
1091.W 1-1
original plan are required to include tests for these constituents. The necessary
modifications are described in this revision to the plan. Leaching tests of these soils will
also be conducted for the VOCs and selected SOCs identified in the original plan, and
TCLP tests will be conducted as well.
1091-wr
SECTION 2
OVERVIEW
As with the test procedures for volatiles (described in the original plan) the methodology
selected for the PCDD/PCDF, HCB, alpha-BHC, and antimony soil/water partitioning
studies is based on EPA's Method 1311 Toxicity Characteristic Leaching Procedure (TCLP).
However, the zero headspace apparatus used for volatiles will not provide the larger extract
volume needed for PCDD/PCDF analysis. Thus, the procedure for when volatiles are not
present (40 CFR Part 261, Appendix II, 7.2) will be used. To obtain soil/water partition
coefficients, the soil/sediment is first mixed with groundwater collected upgradient of the
site. The aqueous and solid phases are then separated and analyzed for each constituent.
A portion of the solid phase is also analyzed for moisture. The soil/water partition
coefficient (Kd) is calculated by dividing the concentration of the constituents in the solid
phase (corrected for moisture) by the concentration in the aqueous phase. The normalized
K^. value is calculated by dividing the Kd by the fraction of organic carbon in the
soil/sediment.
The effect of chlorobenzenes in the soil on the soil/water partition coefficients will also be
evaluated. In these studies, the gravelly sands from Area H (near soil boring SS-2) will be
mixed with groundwater collected from MW-11A, which contained the highest level of
chlorinated benzenes on-site during the Feasibility Study in 1986 (24.7 ppm). If groundwater
sample from MW-11A without pure phase material cannot be obtained, then a groundwater
sample from MW-11B, which contained 17.8 ppm of chlorinated benzenes, will be collected
for the study. The use of groundwater containing chlorinated benzenes is suggested because
the proposed soil samples may not contain enough chlorobenzenes themselves to affect
constituent partitioning. This information can be used to help estimate the potential
migration of PCDD/PCDF, HCB, and alpha-BHC through groundwater in the presence of
chlorobenzene concentrations.
1091.W 2-1
Since the organics will redistribute between the soil/sediment and water during the test, all
soil and sediment samples used in the soil/water partitioning studies will be analyzed for
VOCs and selected SOCs after mixing. Concentrations of chlorinated benzenes in the
mixing water also will be analyzed after all tests for correlation with the partition coefficient.
Soil/sediment from each of the four areas sampled will also undergo the TCLP test as
discussed in the original plan. TCLP extract will be analyzed for constituents that may
render the soil hazardous or impact disposal actions if off-site disposal is required. The
applicable waste types and analytes are discussed in Section 6. Site contaminants for which
regulatory levels have been established for a waste extract and which will be tested by the
TCLP are:
Chlorobenzene
Chloroform
Carbon tetrachloride
1,4-Dichlorobenzene
Hexachlorobenzene
Tetra-, penta, and hexachlorodibenzo-p-dioxins and furans will also be analyzed for potential
leaching.
Although EPA regulations as applied to the soil at the Dover site may not require analysis
of all of these constituents, the information could facilitate decision-making by potential
remediation vendors. Many of the other constituents (e.g., tri-, tetra-, and
pentachlorobenzene, benzene, and other dichlorobenzene isomers) are regulated based on
concentrations in the waste rather than the waste extract. See 40 CFR 261.24, 40 CFR
268.41, and 40 CFR 268.43 for additional information.
1091-wr 2-2
SECTION 3
SAMPLE COLLECTION
The soil sampling program in this investigation is one of the key factors to ensure that data
generated by the soil/water partitioning studies are representative of the leaching of
PCDD/PCDF, HCB, alpha-BHC, and antimony that could occur at Dover Chemical. Three
types of soil/sediments will be collected for testing:
Near-surface unsaturated zone soils (two samples)
Gravelly sand characteristic of the lower unsaturated zone and the saturated zone
Canal sediments
The location and description of each sample is given in Table 3-1 and the area for each
sample is shown on Figure 3-1. Detailed sampling and compositing procedures for all
samples are provided in the Quality Assurance Project Plan (QAAP, 1989).
3.1 UNSATURATED ZONE SOILS - NEAR SURFACE
Two types of near surface soils will be collected, as follows:
• A site-wide composite sample to test the partitioning of PCDD/PCDFs, HCB, alpha-
BHC, and antimony.
• A sample from Area G near the location of the highest alpha-BHC (soil sample G-6)
to test the partitioning of alpha-BHC.
The sitewide composite will consist of aliquots collected from eight locations across the site
as shown in Figure 3-1.
1091.wr 3-1
Table 3-1
Sampling Locations and Rationale
TestCase
laIb
2a2b
3
Notes:
Soil Type
Near Surface SoilsNear Surface Soils1
Gravelly sandGravelly sand
Canal sediment
Analytes
P/H/A/SbA
P/H/AP/H/A
P/H/A
SampleArea
Site-wideG
MH
Canal inlet
SampleDepth (in.)
6 to 1224 to 48
962
962
Oto 6
MixingWater
MW-4MW-4
MW-4MW-11A
MW-4
SampleRationale
Assess migration ofsurface soilcontamination
Assess migration inaquifer material andeffect of cosolvents
Assess migration incanal
TCLP3
Yes4
Yes
YesNo
Yes
*Sile surface soils may be a mixture of native clayey silts and fill material.
Sample to be collected from uppermost portion of gravelly sands. Estimated depth is eight feet.
'TCLP and zero headspace TCLP tests.
4No TCLP lest for VOCs.
P = PCDD/PCDFsH = HcxachlorobenzeneA = Alpha-BHCSb = Antimony
1091.WT 3-2
Dover Chemical Corporation
Figure 3-1Proposed Soil andSediment Sample
Locations forLeaching Tests
ABANDONED CAN\AL____y x x
CSD-2 lo-f. t.s 1
Alpha-BHC was detected in the previous site-wide composite at a much lower concentration
than in Area G and might not contain enough alpha-BHC for the partitioning tests. The
sample from Area G will be collected from a depth of 2 to 4 feet in an attempt to avoid
sampling pure alpha-BHC which is not adsorbed to soil.
Additional amounts of samples will be collected for analysis of organic carbon, physical
parameters, and TCLP testing, as described in Section 6. Two samples each are required
from Area G for the TCLP testing, since the VOC TCLP must be run using the zero
headspace procedure. A VOC TCLP test will not be conducted on the site-wide composite
because VOCs are likely to be lost during compositing, and VOC concentrations are
expected to be low to begin with. The parameters to be analyzed from the TCLP tests are
listed in Section 2. Except for the VOC samples collected for TCLP, no sampling
procedures specific for VOCs and SOCs will be necessary, since the purpose of the analysis
is to characterize the samples as they are in the experimental procedure, not in the field.
VOC and SOC levels will be determined after soil samples are subjected to leaching tests.
Concentrations of VOCs and selected SOCs are expected to be low in these samples such
that they will not influence the partitioning of the PCDD/PCDFs, HCB, or alpha-BHC.
3.2 SATURATED ZONE SOILS - GRAVELLY SAND
Area H is the only area of the site where PCDD/PCDFs have been found at significant
concentrations at depth (due to the presence of cosolvents). To characterize sorption of the
saturated zone soils and the effects of cosolvency on transport, a sample from the first-
encountered gravelly sand in a borehole in Area H will be collected (deeper gravelly sand
may not contain sufficient PCDD/PCDF concentrations to conduct a partition experiment.)
While this soil would preferably be above the water table at the time of sampling, its
characteristics are expected to be representative of the aquifer soils. The boring will be
located near soil boring SS-2, which contained the highest PCDD/PCDF concentrations at
this depth. The sample will be analyzed for the same additional parameters as the near-
surface soils. VOCs and selected SOCs were previously detected in subsurface samples from
1091.wr 3-4
Area H, and their concentrations will be measured at the end of the partitioning test.
Two additional samples will be collected for TCLP and zero headspace TCLP tests for the
parameters listed in Section 2. Sufficient sample volume will also be collected to conduct
an additional partitioning experiment to determine the effect of cosolvents such as
chlorobenzenes on the partitioning of PCDD/PCDFs, HCB, and alpha-BHC. The mixing
water for the additional partitioning test will be groundwater from the monitor well
containing the highest concentrations of chlorinated benzenes (MW-11A) (see Section 5).
Alpha-BHC concentrations in the gravelly sand may not be sufficient to calculate
partitioning coefficients, so the effect of cosolvency on alpha-BHC may not be measurable.
3J CANAL SEDIMENTS
One canal sediment sample will be collected from a depth of 0 to 6 inches near the canal
inlet (prior sample CSD-1). Based on the previous sampling an equivalent TCDD
concentration of 200 ppb is expected. HCB and alpha-BHC were detected in 1989 in canal
sediment at 190 ppm and 5.2 ppm, respectively. Since these compounds are expected to still
be present, their partitioning will also be investigated in these samples. Two additional
samples will be collected for TCLP and zero headspace TCLP tests for the parameters
identified in Section 2.
3.4 SOIL SAMPLING PROTOCOLS
Soil and sediment samples will be collected with a hand or rig-driven split-spoon sampler
(depending upon depth). After encountering the depth interval of interest, the soil sample
will be recovered from the split spoon. Samples to be composited will be mixed in stainless
steel bowls to produce a homogeneous sample. (VOC samples for zero headspace TCLP
tests will not be composited). Extra sample for matrix spike and matrix spike duplicate
analysis will be collected from the near surface soil composite for PCDD/PCDFs, HCB and
alpha-BHC after mixing.
I09i.wr 3-5
After each sample is collected, it will be properly contained, sealed, and shipped to ensure
safe transport. All sample containers will be labeled with the appropriate site designation,
sample number and location. In addition, soil sampling field personnel will follow U.S.
EPA/WESTON's standard chain-of-custody procedure. This procedure will be initiated at
the time of field sampling and followed through the sequence of shipment, laboratory
receipt, and chemical analysis. The sample containers, sample volumes, and preservation
and holding times for each analysis are given in Table 3-1 of the SAP.
Onsite sampling equipment will be decontaminated by steam cleaning and a hexane rinse
before use onsite and between each sampling location at an area set up onsite for this
purpose. The equipment will be inspected to ensure that all soil residues have been
removed. The decontamination will be performed to the satisfaction of the soil geologist
and will be documented in the field notebook. The procedure for decontaminating sampling
equipment is described in Section 4.12 of the QAPP.
The Site Health and Safety Plan in Appendix A of the SAP, and its addendum which is
included in Appendix A of this plan, will be followed during sampling activities. Both of
them will be read and understood by each of the sampling personnel prior to any activity.
Sampling personnel will sign both documents to verify their understanding of the Safety
Plan. This plan will be revised as necessary to ensure that relevant safety procedures are
incorporated. The Site Safety Officer will be responsible for enforcing all safety procedures
outlined in the Safety Plan.
3.5 GROUNDWATER COLLECTION PROTOCOLS
Approximately 10 liters of groundwater will be pumped from MW-4 (upgradient) into one-
liter glass bottles for use in the partitioning tests. The well will be first purged of a
minimum of three well volumes. A sample for total and dissolved organic carbon analysis
will be prserved with sulfuric acid. The sample for dissolved organic carbon will be filtered
prior to preservation.
1091.wr 3-6
Approximately 5 liters of groundwater from MW-11A will be collected by bailer to minimize
the loss of volatile organics. Purge water (at least three well volumes) from this well will
be collected and transported to the on-site air stripper for treatment. An oil/water interface
probe will be used to detect any pure phase material in the well. A clear bailer will also
be used to detect the presence or absence of any pure phase material in the sample from
MW-11A. If a non-aqueous phase is present, a sample will be collected from MW-11B
instead of MW-11A.
i09i.wr 3-7
SECTION 4
TEST APPARATUS
The test equipment that will be utilized in the soil/water partitioning studies are a bottle
extraction vessel and an agitation apparatus. This equipment is used in EPA's Method 1311
Toxicity Characteristic Leaching Procedure (TCLP), whic^ is included in this plan as
Appendix B.
The bottle extraction vessel is described in 40 CFR 261 Appendix II 4.2.2. Since at least
one liter of extract will be required for PCDD/PCDF analysis, a one-gallon borosilicate
glass bottle will be used. Because VOCs will be present in several of the tests, the tests will
be conducted with minimal headspace. Minimizing the loss of volatiles is most critical for
test case 2b. The zero headspace extraction apparatus (see Appendix B) will be used for
the TCLP tests on VOCs.
The filtration device for the bottle extraction vessel is discussed in 40 CFR 261 Appendix
II 4.3.2. This device will be any filter holder capable of supporting a glass fiber filter and
able to withstand the pressure needed accomplish the separation. A glass fiber filter that
meets the specifications in 40 CFR Appendix II 4.4 will be used. The filter diameter is 47
mm and the permissible effective pore size is 0.6 to 0.8 um.
The agitation apparatus is described in 40 CFR 261 Appendix II 4.1. This apparatus must
be capable of rotating the extraction vessel in an end-over-end fashion at 30 ± 2 rpm.
1091.wr 4-1
SECTION 5
PARTITIONING TEST PROCEDURE
The soil/water partitioning studies will require extractions and a post-extraction analyses of
soils/sediments and leachates. Groundwater will be mixed in the bottle extraction vessel
with each of the soil/sediment samples to achieve an equilibrium distribution of each
constituent between the water and the soil/sediment. Both the soil/sediment and leachate
will then be analyzed for each constituent of interest. The procedure for the tests will be
as follows:
1. Conduct physical testing on soil/sediment sample as specified in Section 6.
2. Carefully transfer 100 grams (minimum) of the soil/sediment sample from itscontainer to the one-gallon extraction vessel.
3. Analyze groundwater for total and dissolved organic carbon.
4. Slowly add 2 kilograms of upgradient groundwater (MW-4) to the vessel, minimizingheadspace.
5. Close the extractor bottle tightly, secure it in a rotary agitation device, and rotate at30 +. 2 rpm for 18 +_ 2 hours. It is recommended that Teflon tape be used to ensurea tight seal.
6. Maintain ambient temperature at 23 ± 2°C during the extraction period.
7. Following the 18 +. 2 hours extraction, separate the material in the extractor vesselinto its aqueous and solid phases by filtering through the glass fiber filter.
8. Analyze the aqueous and solid phases for VOCs, SOCs, PCDD/PCDF, HCB, andalpha-BHC (and antimony in Test Case la) according to methods specified in Section6 (HCB is analyzed using the SOC analytical method).
9. Carefully transfer 10 grams of solid phase into a preweighed crucible for moisturedetermination. Weigh crucible plus moist soil. Dry soil until a constant weight isachieved and record the final weight.
1091.wr 5-1
Although the TCLP procedure allows for the release of excess pressure from the reactor
vessel if necessary, this step will not be warranted for the types of soil and contaminants
found at the Dover Chemical site and will not be performed.
1091.wr 5-2
SECTION 6
PHYSICAL AND CHEMICAL ANALYSES
6.1 PHYSICAL ANALYSIS
Soil and sediment samples will by physically characterized to classify each soil type. The
methods employed will be as follows:
Physical Characterization Method
Soil Classification by the Unified ASTM D2487
Soil Classification System (USCS)
Liquid/Plastic Limit ASTM D4318-84
Particle Size Analysis ASTM D421/0422
62 CHEMICAL ANALYSIS
The soil/water partitioning studies require extensive analytical support to generate reliable
data on chemical characteristics of the soil and leachate. Therefore, standard analytical
procedures that conform to guidelines issued by the U.S. Environmental Protection Agency
and detailed in the approved SAP and QAPP will be used.
GC/MS analysis methods will be utilized for both soil/sediment and leachate analyses. For
soil and sediment analyses, EPA SW846 Method 8280 will be used to determine the
presence of tetra-, penta-, hexa-, hepta-, and octachlorinated dibenzo-p-dioxins and
dibenzofurans. This method is described in Appendix B of the QAPP. EPA SW846
Methods 8240 and 8270 will be used for VOCs and selected SOCs (1,2-dichlorobenzene, 1,3-
1091.wr 6-1
dichlorobenzene, 1,4-dichlorobenzene, 1,2,4-trichIorobenzene, and HCB), respectively. The
presence of alpha-BHC will be determined using Method 8080. Method 3050 will be used
to test for antimony in soil and water, respectively.
Total and dissolved organic carbon in the mixing water will be analyzed in accordance with
EPA Method 415.1. Organic carbon in the soil will be measured using EPA Method 9060.
VOCs will be analyzed in accordance with EPA Method 624. Moisture content will be
determined using ASTM D2216.
The total number of analyses anticipated for each parameter is presented in Table 6-1.
The proposed TCLP samples, which will be conducted on the site-wide composite, soil from
Area G, soil from Area H, and canal sediments, will each be analyzed for the parameters
listed in Section 2, using the same methods provided above. TCLP tests for the VOCs will
be run using ZHE; therefore, two separate TCLP test procedures are required on the
soil/sediment from each location except the site-wide composite, for which the ZHE will
not be conducted.
1091.WT 6-2
Table 6-1
Analyses For Leaching Tests
NUMBER OF ANALYSES
TESTCASE
laIb
2a2b
3
Duplicate*
TOTAL
Notes:
P/A
11"
11
1
1
6
VOCS
1lb
11
1
1
6
SOILS
SOCS Antimony
1 11
11
1
1
6 1
Physical
11
1
1
4
MoistureOC Content
1 11 1
1 11
1 1
1
4 6
VOCs
11
11
1
1
6
EXTRACT WATER
SOCs Antimony
1 11
11
1
1
6 1
P/A
1la
11
1
1
6
TOC/DOC
11
2
See Table 3-1 for Test Case descriptions.Does not include TCLP tests.All parameters will be analyzed after test except physical, OC and TOC/DOC.* = Alpha BHC only.
= Duplicate sample of soil and extract from la extraction.P/A = PCDD/PCDFs,and alpha-BHC. HCB will be analyzed on the SOC scan.VOC/SOC = VOCs, and selected SOCs. SOC scan also includes HCB.Physical = USCS classification, liquid/plastic limit, particle size analysis.
1091.WT 6-3
SECTION 7
DATA ANALYSIS
Data derived from the soil/water partitioning studies will be used to calculate the individual
soil/water partition coefficients for tetra-, penta-, hexa-, and octachlorinated dibenzo-p-
dioxins and dibenzofurans, as well as for HCB, alpha-BHC, and antimony, if present. These
calculations are described in Section 7 and Appendix B of the "Plan for Soil/Water
Leaching Tests of Contaminated Soils." The values of both Kd and K^ will be calculated
for use in future transport modeling to determine cleanup levels for soil and sediments that
will not produce significant leaching of chemicals to groundwater.
The TCLP tests will yield waste extract concentrations which will be compared to the TCLP
regulatory levels or to the allowable constituent concentrations in waste extract (CCWE).•
The TCLP regulatory values are presented in Table 7-1.
1091.W 6-4
Table 7-1
Regulatory Levels for TCLP
Parameters TCLP RegulatoryLevel (mg/L)
VOCsCarbon tetrachlorideChlorobenzeneChloroform
0.51006.0
SOCs1,4-DichlorobenzeneHexachlorobenzene
7.50.13a
aQuantification limit is greater than regulatory level. The quantification level thereforebecomes the regulatory level.
Source: 40 CFR 261.24.
1091-wr 6-5
SECTION 8
QUALITY ASSURANCE
A duplicate sample will be analyzed after Test Case la on both the soil and water extract.
A matrix spike analysis will be performed on a TCLP sample for bias correction.
All applicable laboratory QA/QC protocols in the SAP and QAPP will be followed for the
soil/water partitioning studies. This will ensure adequate quality assurance for the
laboratory data generated.
Laboratory analysis and decoumentation will consist of the standard QA package, except for
the analysis of PCDD/PCDFs in water samples, which uses the high resolution analysis.
1091.wr 8-1
SECTION 9
REFERENCES
Hardwood, J J., Yanders, A.F., Clevenger, T.E., Kapila, S. 1985. Role of dispersing medium
on the disposition of 2,3,7,8-TCDD in soii. presented at the ACS National Meeting, Miami,
Florida, April 1985.
Jackson, D.R. 1985. Solubility of 2,3,7,8-TCDD in contaminated soils. Presented at the
ACS National Meeting, Miami, Florida, April 1985.
Roy F. Weston, Inc. Quality Assurance Project Plan for Additional Investigation Work,
Dover Chemical Facility, Dover, Ohio, August 1989.
Roy F. Weston, Inc. Sampling and Analysis Plan to Complete the Remedial Investigation
at the Dover Chemical Facility, Dover, Ohio. April 1989.
1091.wr 9-1
APPENDIX A
ADDENDUM TO EXISTING SITE HEALTH AND SAFETY PLAN
1091.WT
APPENDIX A
ADDENDUM TO EXISTING SITE HEALTH AND SAFETY PLAN
1091.wr
1991 HASP - Addendum to 19P9 HASPSITE HEALTH AMD SAFETY PLAN (HASP)
Prepared By M.S. Bensinger
I. General Information
Date 7-1-91 W.O. # 2038-04-03
B,
2. Dept./Office Concept/GlenlochChemical Co. Plant 4. Client Dover Chemical Co.
159 Davis St.. Dover Ohio 44622
Project Identification1. Division PATD3. Site Name Dover5. Work Location Address
(Street Address) (City) (State) (Zip)Site History1. Describe briefly Active facility for the production of chlorinated
hydrocarbon products related to the manufacturing of pressure.lubricants, plasticizers. and flame retardants. .
C. Scope of Work1. Describe briefly Collection of soil sediment, fish, surface and
groundwater samples to complete the RI/FS and to conduct leachingtests for various chemical parameters.
2. Activities Covered Under This Plan
No. Task/SubtaskRI SamplingRI SamplingRI SamplingRI SamplingRI Sampling
DescriptionSampling of GroundwaterSampling of SoilSampling of SedimentsSampling of Surface WaterSampling of Fish
ScheduleSummer 1991Summer 1991Summer 1991Summer 1991Summer 1991
D. Hazard Assessment and Regulatory Status1. Indicate Yes (Y)/No (N) to types of hazards anticipated. (N) Physio-
Chemical; (Y) Chemically Toxic (N) Bio-hazards; (N) Radiation;(N) Physical; (N) Constr. type; (N) Industrial type; (N) Nuclear ind.type
2. Regulatory Status: CERCLA/SARA - (Y) U.S. EPA, (Y) State, (N) NPLSite; RCRA - (N) U.S. EPA, (N) State; OSHA - (Y) 1910, (N) 1926, (N)State; NRC - (N) 10 CRF 20; Other Fed. Agency - (N) DOE, (N) THAMA
E. Review and Approval Documentation
off below;
1. Reviewed By: a. P.M.b. P.D.
2. Approved By:
c. DSO/RSOd. SHSC
DateDateDateDate
Date 0-2-9( ) a. Corporate Health and Safety Director (CHSD)(X) b. DSO/RSO (Only with specific delegation bv CHSD)
Project Start Date 8/1/91 ; End Date 12/31/92. This Site HASP must beReifsued/Reapprovcd for any activities conducted after: Date
Amendment Date(s) 1.. 2. 3. 4. 5.
F. KEY PERSONNEL/! ETY PERSONNEL
1. Key Personnel
The following personnel and organizations are key to the activities at thissite (i.e., EPA or other regulatory Representatives, Other Contractors,Subcontractors, Other Branches of Weston, etc.).
Organization/Branch
EPA-ERT ICOM
-Ohio EPA
Name/Title/AddressTelephone
James Van Per Kloot230 S. Dearborn St.Chicago. IL
Roles and Responsibilities
Primary Regulatory Oversight
312-353-9309
Scott Bergreen2195 Front StreetLogan. OH614-385-8501
Secondary RegulatoryOversight
Drillers To be named Drill rig operation
WESTQN
WESTON
Site Health and SafetyCoordinator
Project Coordinator
Kim HarrizTriangle Park DriveSuite 3301Cincinnati. OH513-722-3444
Peter Puglionesi1 Weston Way G2SWest Chester. PA215-344-3790
2. Site Specific .Health and Safety Personnel
The SHSC for activities to be conducted at this Site is Kim Harriz .The Site Health and Safety Coordinator (SHSC) has total responsibility forensuring that the provisions of this Site HASP are adequate and implementedin the field. Changing field conditions may require decisions to be madeconcerning adequate protection programs. Therefore, the personnel assignedas SHSC's are experienced and meet the additional training requirementsspecified by OSHA in 29 CFR 1910.120.
Designated alternatives include;Brian Magee and
II. HEALTH AND SAFETY EVALUATION
A. Hazard Assessment
1. Background Review: Complete (X) Partial ( ) If partial, why? Knownon-site and offsite soil contamination. Previous soil and groundwatersampling onsite and offsite.
2. Types of Hazards: (Place a Y/N in each ( ) to indicate presence/absence of hazard)a. PhysioChemical (N) Flammable (N) Explosive (N) Corrosive
(N) Reactive (N) 02 Rich (N) 02 Deficient [1]*
b. Chemically Toxic (Y) Inhal. (Y) Ingest. (Y) Cont. (Y) Absorb.(Y) Carcin. (Y) Mutagen (Y) Terat. ( ) OSHA 1910.1000 Substance( ) OSHA Specific Hazard. Sub. Standard,DescribeLevels (N) >TLV-TWA, (N) >TLV-STEL, (N) >IDLH [I]*
c. Biological: (N) Etiol. Agent (Y) Other - Plant,insect,animal, [2]*
d. Radiation Ionizing - (N) Internal Exposure (N) External exposureNon-ionizing - (N) UV; (N) IR; (N) RF; (N) microW; (N) LASER [3]*
e. Physical Hazards (N) [4]*
f. Construction Activities (N) [5]*
* The number in the [ ] refers to one of the following hazard evaluationforms. Complete hazard evaluation forms for each appropriate Hazard Class.
B. Source/Location of Contaminants and Hazardous Substances
1. Directly Related to Tasks
(X) Air Dust ; (X) Soil ;( ) Other Surface ; (X) S. Water.(X) G. Water ; ( ) Other
Indirectly Related to Work - Nearby Process(s) which could affect teammembers:
(Y) Client Facility; (N) Nearby Non-client Facility.Describe Active production facility for chlorinated hydrocarbons.
(Y) Client briefing arranged. All must attend plant safety briefing onemergency public address system and escape routes.
[1] Chemical Hazards
[a] Identify and attach Material Safety Data Sheets for all reagent typechemicals, solutions or other materials identified as or which in normal usecould produce hazardous substances used in performing tasks related to thisproject. ( ) N/A
[b] Chemical Contaminants of Concern ( ) N/A If. present, provide followingdata.
HazardousSubstance/Tasks
Physical Properties andCharacteristics*
Exposure Route(s) of MonitoringLimits Exposure***/ InstrumentsPEL/TLV** Symptoms /IP+
% Response
1,2-Dichloro-(F* ) State liquidpH FP-22 LEL_22 UEL 9.2
benzene Auto. Ig__H9_a BP 18Q°C MP-17.°CIncompatible with -
1,3-Dichloro- explosive when sealed inbenzene aluminum container, reacts
with oxidizing materialsSp.Gr 1.307 Vap.D 5.05Vap.P 1.2 mmH,0 Sol.Oth.colorless to pale yellow
liquid, aromatic odor
50 ppm50 ppm(skin)
G,D
IDLH eye, nose1700 ppm irritant
HNu9.06eV
Best Response
1,4-Dichloro- (F* ) State solidbenzene pH FP 150°F LEL2.5 UEL
AutO.Ig BP 173.4°C MP53°C 75 ppmIncompatible with -Reacts with oxidizing IDLHmaterials 1000 ppm
Sp.Gr 1.4581Vap.D 5.OBVap.P 0.4 mmH,0 Sol.Oth.moth ball like odor
white crystals
G,I,S,C
eye irritant,constipation,headache,nauseau,vomiting
HNu8.94 eVBestResponse
*E - Explosive, F - Flammable, C » Corrosive,reactive, 0 - Oxidizer, Ra - Radioactive. Statesite/proj. temp.
R - Reactive, W » Water• •Normal physical state at
**Use lowest of two, if no TLV/PEL, use Toxicity data in following order:Lowest Toxic Cone, in humans (LTC-HMN), Lowest Lethal Cone, in humans (LLC-HMN), Lowest Toxic Dose in humans (LTD-HMN), Lowest Lethal Dose in humans(LLD-HMN) , LC50 or LD50 in humans, the Lowest Toxic Concentration or LowestToxic Dose in animals, the lowest LCjQ or LD50 in animals.*** I « Inhalation, G - Ingestion, S - Skin Absorption, C - Contact,D » Direct Penetration+ IP - lonization Potential
[l] Chemical Hazards
[a] Identify and attach Material Safety Data Sheets for all reagent typechemicals, solutions or other materials identified as or which in normal usecould produce hazardous substances used in performing tasks related to thisproject. ( ) N/A
[b] Chemical Contaminants of Concern ( ) N/A If present, provide followingdata.
Hazardous Physical Properties and Exposure Route(s) of MonitoringSubstance/ Characteristics* Limits Exposure***/ InstrumentsTasks PEL/TLV** Symptoms /IP+
% Response
\lpha BHC (alpha hexachlorocyclo-hexane)(* ) State solidpH FP LEL UELAuto. I g BP MPIncompatible with -
LD50 rat I1000 mg/kg
Sp.GrVap.POth.
Vap.DH.O Sol.
1,2,4-Tri-chlorobenzene (F* ) State liquid
pH FP23_0_1FLEL UELAuto.Ig BP213°CMP17°CIncompatible with -Can react vigorously CL 5 ppm G,Swith oxidizing materials C,I
Sp.Gr 1.454 Vap.D 6.26Vap.P 1 mm 38.4°H:0 Sol.lea Skin, eye irritantOth.colorless liquid nauseau, headache
*E - Explosive, F - Flammable, C » Corrosive, R - Reactive, W - Waterreactive, 0 - Oxidizer, Ra « Radioactive. State - Normal physical state atsite/proj. temp.
**Use lowest of two, if no TLV/PEL, use Toxicity data in following order:Lowest Toxic Cone, in humans (LTC-HMN), Lowest Lethal Cone, in humans (LLC-HMN) , Lowest Toxic Dose in humans (LTD-HMN), Lowest Lethal Dose in humans(LLD-HMN), LC50 or LD50 in humans, the Lowest Toxic Concentration or LowestToxic Dose in animals, the lowest LC50 or LD50 in animals.
*** I - Inhalation, G - Ingestion, S - Skin Absorption, C « Contact,D - Direct Penetration+ IP - lonization Potential
[1] Chemical Hazards
[a] Identify and attach Material Safety Data Sheets for all reagent typechemicals, solutions or other materials identified as or which in normal usecould produce hazardous substances used in performing tasks related to thisproject. ( ) N/A
[b] Chemical Contaminants of Concern ( ) N/A If present, provide followingdata.
HazardousSubstance/Tasks
Physical Properties andCharacteristics*
Exposure Route(s) of MonitoringLimits Exposure***/ InstrumentsPEL/TLV** Symptoms /IP+
% Response
2,3,7,8 TCDD(dioxin) (* ) State solid
pH FP LEL UELAuto.Ig BP>1292MP563Incompatible with -
Miniram/observationof dust
_Vap.D.Sp.GrVap.PO.OQQ017H..O Sol.Oth.
LD50g-pig5 ug/kg
S,I,C
skin eruptions,gastrointestionaldistrubances, eyenose, throat irritant,headache, nauseau,
industrial vomiting, chloroachestandard
0.01 ng/m3Ca20 ppm
*E - Explosive, F « Flammable, C » Corrosive, R - Reactive, W = Waterreactive, 0 » Oxidizer, Ra « Radioactive. State « Normal physical state atsite/proj. temp.
**Use lowest of two, if no TLV/PEL, use Toxicity data in following order:Lowest Toxic Cone, in humans (LTC-HMN), Lowest Lethal Cone, in humans (LLC-HMN) , Lowest Toxic Dose in humans (LTD-HMN), Lowest Lethal Dose in humans(LLD-HMN) , LC50 or LD50 in humans, the Lowest Toxic Concentration or LowestToxic Dose in animals, the lowest LCj0 or LD50 in animals.
*** I - Inhalation, G » Ingestion, S « Skin Absorption, C « Contact,D * Direct Penetration+ IP - lonization Potential
[2] Biological Hazards of Concern
No. HazardLocation/ Route of Team
Task Source Exposure Member(s) Immunization(Y/N) NO.(S)* (K.S)** (I.G.C.D)*AllerQic? Required?
1. Poisonous Plants (N)2. Insects (Y) 3,4,53. Snakes, Reptiles (Y) 3,4,54. Animals (N)5. Sewage (N)6. Etiologic Agents (N)(List)
SS
DD
YN
NN
* List all Task Nos. which would involve potential exposure to thesehazard(s).** K - Known, S « Suspect. *I - Inhalation, G - Ingestion, C - Contact,
D - Direct Penetration (Bite, Inject., Open wound or sore)
[3] Radiation Hazards of Concern
TYPE
1. Ionizing
Location/ TYPE TASK NO.(S) EXPOSURESource EMITER LIMITS
ProtectionProtocolREFERENCE
RadioNuclide
NONE
2. Non-ionizing
Location/Source
Ultra violet NONE
TASK NO.(S) EXPOSURE Protection ProtocolLIMITS REFERENCE
Infra RedMicrowaveRadio-Freq.LASER
[4] Physical Hazards of ConcernHazard(Y/N)
1. Noise (Y)2. Heat - ambient air (Y)
- Hot Process - Steam (N)- Hot Process - LT3 (N)- Hot Process - Incin. (N)
3. Cold (N)4. Rain (N)5. Snow (N)6. Electric Storms (N)7. Confined Space Entry (N)8. "Hot Work" (N)9. Heavy Manual Lifting/Moving (N)
>0. Rough Terrain (N)11. Housekeeping (N)12. Structural Integrity (N)13. Neighborhood (N)14. Remote Area (N)15. Compressed Gases (N)16. Diving (N)17. Using Boats (N)18. Working over Water (N)19. Traffic (N)20. Explosives (N)21. Heavy Equipment Operation • (Y)22. Lifting Equip. Operation - Cranes,(N)
- Manlifts(N)23. Working at Elevation (N)24. Using Ladders (N)25. Using Scaffolding (N)26. Excavating/Trenching (N)27. Materials Handling (N)28.HazMat. Use/Storage-flam.liq./gases(N)
-oxidizers (N)-corrosives (N)
29. Fire Prevent/Response plan reqd. (N)30. Fire Extinguishers required (N)31. Demolition (N)32. Utilities - Underground (Y)
- Overhead (Y)33. Electrical - General (Y)
- High Voltage (Y)34. Welding/cutting/burning (N)35. Hand tools (Y)36. Power Hand Tools (N)37. High Pressure Water (N)38. Other (N)39. Other (N)40. Other (N)
TASKNo(s)
1.21.2.3.4.5
Protection OP(s)Attached
FLDOl1989 HASP/FLD07
1.2 FLD22A.22B-DSG
1.21.21.21.2
1.2.3.4.5
FLD34FLD34FLD35AFLD35B
FLD38
8
C. TASK BY TASK RISK ANALYSIS
The preceding Tables identify the hazards known or suspected to be present inaccomplishing the tasks involved in this project.
Section II A.2. of this HASP describes the background of this site/projectand identifies the tasks involved.
Below briefly describe each task and the likelihood of exposure to thehazards identified and the protective protocols to be used.
1. Sampling of Groundwater-Task description: Sampling of GW from new and existing wells.Hazards: Direct contact, inhalation of VOCs in GW.Protection: Ambient Monitoring, usage of appropriate levels of
protection.
2 . Sampling pf Soil-Task description: Sampling of soil borings using drill rig.Hazards: Direct contact, inhalation of dust, heavy equipment
operation, overhead utilities.Protection: Ambient monitoring, usage of appropriate level(s)
of protection, following OP(s).
3. Sampling of Sediments -Task description: Sampling of sediment from canal, Goettge Run, and
Sugar Creek.Hazards: Direct contact, inhalation of dust, usage of hard
sampling tools, working in water, slipping,drowning, insect and animal bites.
Protection: Ambient monitoring, usage of appropriate level(s)of protection, following OP(s), wearing of lifepreserver if needed.
4. Sampling of Surface Water -Task description: Sampling of surface water in Sugar Creek.Hazards: Direct contact, inhalation of VOCs from SW, working
in water, slipping, drowning, insect and animalbites.
Protection: Ambient monitoring, usage of appropriate level(s)of protection, following OP(s), wearing of lifepreserver if needed.
5. Sampling of Fish from Surface Water -Task description: Collection of fish samples from Sugar Creek.Hazards: Direct contact, inhalation of VOCs from SW,
electroshock equipment, working in water curent,slipping, drowning, insect and animal bites.
Protection: Ambient monitoring, usage of appropriate level(s)of protection, following OP(s), wearing of lifepreserver if needed.
III. Personnel Protection Plan
A. Engineering Controls
l. Describe Engineering Controls used as part of Personnel Protection Plan:
Task(s)1.2 Fine water spray on ground may be used for dust supression.
B. Administrative Controls
1. Describe Administrative controls used as part of Personnel ProtectionPlan:
Tasks(a)1.2 Activities in Area H and gear SS-1 (see Figure 1) will be in
level C. Activities in Areas A-G and I will be in ModifiedLevel D. Activities in other areas will be in Level D.
C. Action Levels for Changing Levels of Protection
Task No. (s)/Air Monitoring Instrument:_l^2 / HNuFrequency/Location: Periodically during / downwind
boring, well samplingInstrumentReading Action
2.5 ppm Upgrade frorrr Level D to C100 ppm Level C to leave site
Task No. (s)/Air Monitoring Instrument; 1.2 / Mini-ramFrequency/Location: Periodically during /
dusty conditionsInstrumentReading Action
0.2 mg/nr Upgrade from Level D to C
Task No. (s)/Air Monitoring Instrument:.Frequency/Location:.
InstrumentReading Action
10
AOCAC cnp i PVFL C PROTPHTinw AT
D. Description of Levels of Protection
Task(s) 1,2
Head
Eye & Face
Hearing
Arms & Legs Only
Whole Body
Apron
Level
(X)hard hat ( ).
(X)safety glasses
( ) ( ).
Levels C and B
Level
( ) (
(X)Twek or Saranex Coverall
land - gloves- gloves- gloves
Foot - boots- boots- boots
APR-Neg. Pres.Half Face
Cart./Canister
Full Face
Cart./Canister
PAPR
Cart./CanisterType C
SAR - Airline
SCBA
Comb.Airline/SCBA
Cascade Syst.
Compressor
Fall Protection
Flotation
(X)Viton _ ((X)Neoprene (
(X)steel toe(X)overboots
(X)GMC-H
11
D. Description of Levels of Protection (Cont.)
Task(s)
Head
Eye & Face
Hearing
Arms & Legs only
Whole BodyApron
"Tland - gloves- gloves- gloves
Foot - boots- boots- boots
* For activities 3-5 when wading is necessary
** For activity 5 when electro-shock is used.
1.2.3.4.5
Level D
( ) ( }
( ) ( )
1.2
Level D (Modified)
(X)Hard Hat ( )
(X) §afety Glasses
( ) ( )
(X)Hip boots* ( ) ( ) ( )
( ) ( ) (X)Twex or Saranex Coverall(X) Cotton if needed
(X) Surgical ( )(X) Rubber** ( )( ) ( )
(X) steel toe ( )( ) ( )
( ) ( )
(X)Suraical I )( ) ( )( ) ( )
(X) Steel toe ( )( ) ( )
( ) ( ) ( ) ( )
12
IV. SITE OR PROJECT HAZARD MONITORING PROGRAM
A. Direct Reading Air Monitoring Instruments
1. Instrument Selection & Initial Check Record
No. Task No.(a)
Instrumentcheckeduon receict Initials
CGI-
CGI/02-CGI/02/tOX- PPM, H2S, H2, S/CO
1AD-GM,
-Nal
-ZnS-OTHER
PID - HNU 10.2
- HNU 11.7
- HNU 9.5-PHOTOVAC,TMA,OTHER
FID - FOX-128
- FOX-128GC
- HEALTH,AID, OTHER.RAM, Mini-RAM, OTHER
RAM, Mini-RAM, OTHER.
MONITOX-HCN
H2S
COCL,S02,
OTHER
(X) 1.2
(X) 1.2
13
Instrumentchecked
No. Task No.(s) upon receipt Initials
Bio-Aerosol Monitor ( ) ( ) ( )
Detector Tubes
Pump - MSA, Draeger, Sens idyne ( ) ( ) { )-Tubes (No.)/type ( ) { ) ( )
-Tubes (No.)/type ( ) ( )
Reporting Format
1. Field notebook2. Field data sheets3. Air monitoring log4. Trip report5. Other:
14
Direct Reading Air Monitoring Instruments Calibration Record
Instrument,Mfg.,Model,Calibs.Eqp.ID. No. Date Time MaterialInitials
15
B. Physical Hazard and Miscellaneous Monitors and Detectors
TASK(S) CALIBRATIONRQD? METHOD Location Frequency
SOUND LEVEL METER
NOISE DOSIMETER(S)
OCTAVE BAND ANALYZER
LIGHT METER
ELECTRIC CIRC. DETECTOR
Thermometer
'Wind Speed Indie.
Barometer
Psychrometer
Infra Red Thermom.
Micro Wave Detector
pH METER
C. Indicator Kits
pH PAPER ( ).
PEROXIDE PAPER ( ).
CHLOR-N-OIL KIT ( ).
HAZARD CATAGORIZING KIT ( ).
ASBESTOS TEST KIT ( ).
TASK(S) LOCATION FREQUENCY
16
V. DECONTAMINATION PLAN
1. Personnel Decontamination
Section III C. lists the tasks and specific levels of protection required foreach. Consistent with the levels of protection required, step by stepprocedures for personnel decontamination for each Level of Protection areattached.
2. Levels of Protection Required for Decontamination Personnel
The levels of protection required for personnel assisting withdecontamination will be [ Level B, Level C, X Level D] .( CHECK) Modifications include:
~3. Equipment Decontamination
A procedure for decontamination steps required for non-sampling equipment andheavy machinery follows: Place equiptment and machinery into sloped andbermed plastic lined area. Washwater that collects in bermed area will bepumped into drum.
4. Sampling Equipment Decontamination
Sampling equipment will be decontaminated in accordance with the followingprocedure: Large sampling equiptment will be deconned per step 3 above.No decon of sampling eouiptment such as HNu.
5. Disposition of Decontamination Wastes
(Provide a description of waste disposition including identification ofstorage area, hauler, and final disposal site if applicable.)Liquid and solid wastes generated from the decontamination of samplingequipment will be containerized for disposal bv Dover Chemical.
17
VI. CONTINGENCIES
A. Emergency Contacts and Phone Numbers
Agency Contact Phone Number
Local Medical Emergency FacilityWESTON Medical Emergency ContactWESTON Health and SafetyFire DepartmentPolice DepartmentOn Site CoordinatorSite TelephoneNearest Telephone
Local Medical Emergency Facility(s)
1. Primary
Name of Hospital Union HospitalAddress 659 Boulevard. Dover. OH
Union Hospital (216) 343-3311AGATHA (513) 421-3063
(215) 430-7406(216) 343-5551(216) 364-5533
(216) 343-7711
(Location)
Name of ContactPhone No. (216!Phone No.
343-3311
Type of Service - Physical Trauma only ( ) Chemical Exposure only ( )Physical Trauma & Chemical Exposure (X)Available 24 hrs.(X)
Route to Hospital: (Attach Map) From Dover Chemical take 15th street toWouster Avenue. Turn fight onto Wouster & follow it over bridge. Bearleft at fork in road onto Iron Avenue. Hospital is on left (see Figure 2)
Travel TimeFrom Site (Minutes]
Distance to Name/No, of 24 Hr. AmbulanceHospital (Miles )__2_ Service United Ambulance
(216) 339-12322. Secondary or Specialty Services Provider
Name of Hospital Akron Poison Control Center - Children's HospitalAddress Phone No.1-800 362-9922Name of Contact Phone No.
Type of Service - Physical Trauma only ( ) Chemical Exposure only (X)Physical Trauma & Chemical Exposure ( )Available 24 hrs.( )
Route to Hospital: (Attach Map)
Travel TimeFrom Site (Minutes)
Distance to_ Hospital (Miles).
Name/No, of 24 Hr. AmbulanceService
18
n,- -'0'
Mapped, edited, and published by the Geological Survey:ontrol by USGS »nd NOS/NOAAopograpny by ohotoirammetric m«thoOs from aerial
photographs taken 1960 Fma checked 1961Potyconic projection 10.000-toot gno ticks based onOhio coordinate »y«em. north zone1000-mettf Univimt Tr*nv«ne Merotor grid ticks.tone 17. mown in blue1927 North American DttumTo (Mac* on me predicted North American Datum 1983move the protection lines 3 meters south and14 meten west as shown by dasneo comer ticksAreas covered by dasned light-blue pattern are subiectto controlled inundation to 916 teelFine red dasned lines indicate selected fence and field lines wheregenerally visible on aerial photograons This information Is uncheckedRed tint indicates areas in which only landmarit buildings are shownEntire area lies within the United States Military DistrictLand lines based on tne Base Line of the United States Military DistrictThere may be private mhotdings within trie boundaries ofthe National or Statt fvaanotions shown on mis map
100C 1000
107 MILS rri75 MILS
UTM GRID AND 1984 MAGNETIC NORTHDECLINATION AT CENTER OF SHEET
DOTTECNATION
THIS MAP COMPL
FOR SALE BY U.SA FOLDER DESCRIBING TOP
ci«i IQP 9 pnUTE FROM DOVER CHEMICAL TO UNION HOSPITAL
V. CONTINGENCIES (CONTINUED)
C. Response Plans
1. Medical - General
Report all injuries, illness, chemical orsoil exposure to Dover, Chemical First Aid(dial 225 or 226) or to vour contact.
a. First Aid Kit - TypeField
LocationSite Vehicle
2. Special First Aid ProceduresHydrofluide on site (N)Y/Na. Attach HF procedure and
ensure solution is on site
Cyanides on site (N)Y/Nb. Confirm that Local Med.
Emerg. Facility hasantidote kit.
b. Eyewash required (Y)Y/NLocation LocationIdentified insafety meeting
c. Safety Shower (Y) Y/NLocation LocationIdentified insafety meeting
3. Plan for Response to Fire/ExplosionIn case of fire/explosion, evacuafearea. Go to nearest phone and dial 770(PA system) and announce the incident andyour phone tt. Contact Dover Plant SafetyOfficer.
4. Fire extinguisher
a. TypeABC
b. LocationSite Vehicle
5. Plan for Response to Spill/ReleaseIn case of spill/release, dike to preventrunoff into nearby stream. Contact DoverPlant Safety Officer or contact.
6. Spill Response GearDescription Location
7. Plan for Response to Security Problems.
19
VII. SITE PERSONNEL AND CERTIFICATION STATUS
A. WESTON
Nam
Mike Bensinger
Brian Magee
Gerald 0 ink ins
Title
Assistant Engineer
Project Engineer
Senior ProjectScientist
Task(s)
1.2,3,4
1,2,3,4
5
MedicalCurrent
a.
X
X
X
Fit TestCurrent
Qua I.b.
X
X
X
Quan.b.
X
X
X
TrainingCurrent
c.
X
X
X
Cert. Levelof
Description
B-T
B-T
B-T
Site Health & Safety Coordinator (SHSC)
|1 Kim Harriz Geologist 1,2.3,4 X X X X B-T
(a) Training - All personnel, including visitors, entering the exclusion orcontamination reduction zones must have certifications of completion oftraining in accordance with OSHA 29 CFR 1910 29, CFR 1926/1910 or 29 CFR1910.120.
(b) Respirator Fit Testing - All persons, including visitors, entering anyarea requiring the use or potential use of any negative pressurerespirator must have had a minimum, a qualitative fit test, administeredin accordance with OSHA 29 CFR 1910.134 or ANSI within the last 12months. If site conditions require the use of a full face negativepressure, air purifying respirator for protection from Asbestos or lead,employees must have had a Quantitative fit test, administered accordingto OSHA 29 CFR 1910.1002 or 1025 within the last 6 months.
(c) Medical Monitoring Requirements - All personnel, including visitors,entering the exclusion or contamination reduction zones must becertified as medically fit to work, and to wear a respirator, ifappropriate, in accordance with 29 CFR 1910, 29 CFR 1926/1910 or 29 CFR1910.120.
The Site Health and Safety Coordinator is responsible for verifying allcertifications and fit tests.
20
B. Subcontractor's Health and Safety Program Evaluation
Name and address of subcontractor: Bowser-Morner
Activities to be conducted by subcontractor: Soil Borings w/ Drill Rig
EVALUATION CRITERIA
Item
Medical Program meets OSHA/WESTON Criteria
Personal Protective EquipmentAvailable:a. meets OSHA criteria,b. is as specified in HASP
On-Site Monitoring EquipmentAvailable, Calibrated andOperated Properly
">afe Working ProceduresClearly Specified
Training meets OSHA/WESTONcriteria
Emergency ProceduresDecontamination ProceduresGeneral Health and SafetyProgram Evaluation
Additional Comments:
Acceptable Unacceptable Comments
(X)
(X)(X)
(X)
(X)
(X)(X)(X)
(X)
Evaluation conducted by: Kim Harri'z
C. Subcontractor
Date:8-1-91
Name Title Task(s)
MedicalCurrent
• .
Fit TestCurrent
Qua I.b.
Quan.b.
TrainingCurrent
c.
Cert. Levelof
Description
21
VIII. HEALTH AND SAFETY PLAN APPROVAL/SIGN OFF FORMAT
2. WOtt 2038-04-031. Site Name Dover Chemical Co. PlantWork Location Address 159 Davis St.
(Street Address)Dover Ohio 44622(City) (State) (Zip)
I have read, understood, and agreed with the information set forth in thisHealth and Safety Plan (and attachments) and discussed in the PersonnelHealth and Safety briefing.
Kim HarrizSite SafetyCo-ordinator
Mike BensingerName
Brian MageeName
lerald DinkinsName
Name
Name
Name
Name
Name
Name
Name
Name
Name
Name
Name
Name
Name
Name
Name
Signature
Signature
Signature
Signature
Signature
Signature
Signature
Signature
Signature
Signature
Signature
Signature
Signature
Signature
Signature
Signature
Signature
Signature
Signature
Date
Date
Date
Date
Date
Date
Date
Date
Date
Date
Date
Date
Date
Date
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22
IX. TRAINING AND BRIEFING TOPICS
The following items will be covered at the site specific training meeting,daily or periodically.
SiteSpecificTrainingMeeting Periodically
Site characterization and analysis,Sec. 3.0; 29 CFR 1910.120 i
Physical hazards, Table 3.2
Chemical hazards, Table 2.1
Animal bites, stings and poisonous plants
Etiologic (Infectious) Agents
Site control, Sec. 8.0;29 CFR 1910.120 d
Engineering controls and work practicesSec. 8.5; 29 CFR 1910.120 g
Heavy Machinery
Forklift
Backhoe
Equipment
Tools
Ladder 29 CFR 1910.27 d
Overhead and Underground Utilities
Scaffolds
Structural Integrity
Unguarded Openings-wall, floor ceilings (?)
Pressurized Air Cylinders
Personnel Protective Equipment, Sec. 5.0;29 CFR 1910.120 g; 29 CFR 1910.134
23
SiteSpecificTrainingMeeting Daily Periodically
Respiratory Protection Sec. 5.8;29 CFR 1910.120 g; Z288.2-1980
Level ALevel BLevel CLevel D
Monitoring, Sec. 7.0; 29 CFR 1910.120 h
Decontamination, Sec. 9.0;29 CFR 1910.120k
Emergency Response, Sec. 10.0;29 CFR 1910.120 1
Elements of an Emergency Response,Sec. 100; 29 CFR 1910.1201
Procedures for Handling Site EmergencyIncidents, Sec. 10.0; 29 CFR 1910.120 1
Off Site Emergency Response;29 CFR 1910.120 1
Handling Drums and Containers;2.9 CFR 1910.120 j
Opening Drums and Containers
Electrical Material Handling Equipment
Radioactive Waste
Shock Sensitive Waste
Laboratory Waste Packs
Sampling Drums and Containers
Shipping and Transport, 49 CFR 172.101
Tank and Vault Procedures
Illumination, 29 CFR 1910.120 m
Sanitation, 29 CFR 1910.120 n
24
Attachment l. Level D/Modified Level D Decontamination[Check indicated Functions or add steps as necessary]
STEP FUNCTION DESCRIPTION OFPROCESS, SOLUTION & CONTAINER
(1) Segregated equipment drop
(2) Boot cover and glove wash
(3) Boot cover and glove rinse
(4) Tape removal - outer glove and boot
(5) . Boot cover removal
(6) Outer glove removal
HOT- LINE•
( ) Suit/safety boot wash
( ) Suit/boot/glove rinse
( ) Safety boot removal
(7) Suit removal
( ) Inner glove wash
( ) Inner glove rinse
( } Inner glove removal
(8) Inner clothing removal
- CRC/SAFE ZONE BOUNDARY
(9) Field wash
( ) Redress
DISPOSAL PLAN:END OF DAY: Disgard clothing in drum
END OF PROJECT; Dispose with Dover Chemical waste hauler
25
Attachment 2. Level C Decontamination[Check indicated Functions or add steps as necessary]
STEP FUNCTION DESCRIPTION OFPROCESS, SOLUTION & CONTAINER
(1) Segregated equipment drop
(2) Boot cover and glove wash _
(3) Boot cover and glove rinse _
(4) Tape removal - outer glove/boot
(5) Boot cover removal
(6) Outer glove removal
HOT- LINE -
( ) Suit/safety boot wash
( ) Suit/boot/glove rinse
( ) Safety boot removal
(7) Suit removal
(8) Inner glove wash
(9) Inner glove rinse
(10) Face piece removal '
(11) Inner glove removal
(12) Inner clothing removal
- CRC/SAFE ZONE BOUNDARY
(13) Field wash
( ) Redress
DISPOSAL PLAN:
END OF DAY; Discard clothing in drum
END OF WEEK:
END OF PROJECT: Discard with Dover Chemical waste hauler
26
Attachment 3. Level B Decontamination[Check indicated Functions or add steps as necessary]
STEP FUNCTION DESCRIPTION OFPROCESS, SOLUTION & CONTAINER
( ) Segregated equipment drop
( ) Boot cover and glove wash
( ) Boot cover and glove rinse
( ) Tape removal - outer glove/boot
( ) Boot cover removal
( ) Outer glove removal
HOT- LINE•
( ) Suit/safety boot wash
( ) Suit/SCBA/boot/glove rinse
( ) Safety boot removal
( ) -Remove SCBA backpack w/odisconnecting
Splash suit removal
Inner glove wash
Inner glove rinse
SCBA Disconnect & face pieceremoval
( ) Inner glove removal
( ) Inner clothing removal
' CRC/SAFE ZONE BOUNDARY-
( ) Field wash
( ) Redress
DISPOSAL PLAN:
END OF DAY: .
END OF WEEK:
END OF PROJECT:
27
Attachment 4. Level A Decontamination[Check indicated Functions or add steps as necessary]
STEP FUNCTION DESCRIPTION OFPROCESS, SOLUTION & CONTAINER
Segregated equipment drop
Boot cover and glove wash
Boot cover and glove rinse
Tape removal - outer glove/boot
Boot cover removal
Outer glove removal
HOT-LINE-
Suit/safety boot wash
Safety boot removal
Fully encapsulating suit/hardhat remove
( ) SCBA backpack removal
( ) Inner glove wash
( ) Inner glove rinse
( ) Face piece removal
( ) Inner glove removal
( ) Inner clothing removal
CRC/SAFE ZONE BOUNDARY-
( ) Field wash
( ) Redress
DISPOSAL PLAN:
END OF DAY:
END OF WEEK:
END OF PROJECT:
28
AmericairBurdick & Jackson • • <• • i
Material Safety Data Sheetemergency telephone no
cnemtrec telephone no _
information teieonone no
I. Identification _chemical name
:?emicai 'arruy
Synonyms
312/353-3600 (American Scientific Products)800/0^4-9300616/726-3171 (American Burdick £ Jackson)
Hexane ~ciecuiarAliphatic Hydrocarbon
86.18
n-HexaneDOT orooer s":s;mg name Hexane
DOTnazardciass Flammable Liquid
DOT idemrtication nc 208 , CAS no 110-53-3
II. Physical and Chemical DataDOilmg point. 760mm Mg 68.7 C
vapor pressure at 20 C 1 24 mm Hq Vj00r oensity iair - i) 3.0
°o voiatiies By volume ca 1QQ
. fre«mg point. -95.3°C
MATERIAL SAFETYDATA SHEET
HEXANE
nazardous polymerization
appearance ana ooor
conations to avoid
specific gravity iH,0 = H 0 20°C 0.659 Mtt^.Not expected to occur.
(BuAc=l) ca 10.soiutHHtymwater 9 20°C O.OK96. evaporation rate
Stable
Clear, colorless liquid with a mild hydrocarbon odor.Heat, sparks, open flame, open containers, and poor ventilation.
materials to avoia. Strong oxidizing agents.
lazardous Decomposition products. Incomplete combustion can generate carbon monoxide and other toxivapors.
III. Fire and Explosion Hazard Data __^_^_^_^—iiasnpomi nestmetnodi -26°C (Tag closed cup) iuto,gmtipntemperature. 225°C
1.2 . upper limit.tiammaoie limits in air °o By volume lower limit.unusual lire and explosion nazaros Very volatile and extremely flammable.
7.7
extinguisnmg media.
special <ire tigntmg procedures.
Carbon dioxide, dry chemical or foam.
Water will not be effective in extinguishing a fire and may spread it,but a water spray can be used to cool exposed containers. Wear fullprotective clothing and self-contained breathing apparatus. Meatwin build pressure and may rupture ciosea storage containers.
IV. Hazardous Components ^^——^_Hexane and isomers . ca 100 TLV SO ppm .CAS no
110-54-3
American BlirdiCk & JackSOn'S Disclaimer: "The information and recommendations presented herein art based on sources Believed to BereiiaBte as of tne date hereof American Burden & jacuon makes no representation as to me completeness or accuracy thereof rt u the user s responsibilityto determine tne product s suitaOJiiy tor its intended use me product s sate use and tne product s proper disposal No representations or warranties not.•xpressty set tonn herein are made nereunder wnetner express or implied By operation of law or otherwise, including But not hmited to any implied warranties
of MERCHANTABILITY OR FITNESS American Burden & Jacuson neither assumes nor authorizes any other person to assume tor it. any other or ADDITIONALLIABILITY OR RESPONSIBILITY resulting from the use ol. or reliance upon this information
•••••* *•••••*« American Burdick & Jackson SubSMlary of AmericanHospital Supply Corporation
19S3 South Harvey StreetMuskegon Ml 49442
V. Health Hazard* ;
Occupational Expesyre Limits Concentration ImmediatelyI to Health
OSHA 8-hour PEL - 500 ppmCeiling - not listed OSHA/NIOSH 5,000 ppmPeak - not listed
Odor ThresholdACCIH TLV-TWA - 50 ppm
TLV-STEL - not listed NSC 5 OHS not listed(15-min) NIOSH not listed
NIOSH TLV-TWA - 100 ppmTLV-C - 510 ppm
Carcinogenic. Mutagenic. Teratogentc Data
Experimental carcinogen (NTP)Animal teratogen (RTEC)
Primary Routes of Entry
Hexane may exert its effects through inhalation, skin absorption, and ingestion.
Industrial Exposure: Route of Exposure/Signs and Symptoms
Inhalation: Exposure can cause dizziness, numbness of extremities, andintoxication.
Eye Contact: Liquid and high vapor concentration can be irritating.
Skin Contact: Prolonged or repeated skin contact can cause irritation anddermatitis through defatting of skin.
Ingestion: Can cause gastrointestinal tract discomfort.
Effects of Overexposure
Hexane is a mild eye and mucous membrane irritant, primary skin irritant, centralnervous system depressant and neurotoxin. Acute exposure causes irritation, narcosis,and gastrointestinal tract irritation. Chronic inhalation causes peripheral neuropathy.No systemic toxicity has been reported.
Medical Condition Aggravated bv
Preclude from exposure those individuals susceptible to dermatitis.
Emergency pjryt Aid
Inhalation: Immediately remove to Afresh air. If not breathing, administerJnouth-to-mouth rescue breathing. If there is no pulse administercardiopulmonary resuscitation (CPR). Contact physicianimmediately.
Eye Contact: Rinse with copious amounts of water for at least 15 minutes. Getemergency medical assistance.
Skin Contact: Flush thoroughly for at least 15 minutes. Wash affected skin withsoap and water. Remove contaminated clothing and shoes. Washclothing before re-use, and discard contaminated shoes. Getemergency medical assistance.
Ingestion: Call local Poison Control Center for assistance. Contact physicianimmediately. Aspiration Hazard - Do not induce vomiting.
VI. Safety Measures and Equipment.
Ventilation: Adequate ventilation is required to protect personnel from exposureto chemical vapors exceeding the PEL and to minimize fire hazards.The choice of ventilation equipment, either local or general, willdepend on the conditions of use, quantity of material, and otheroperating parameters.
Respiratory: Use approved respirator equipment. Follow NIOSH and equipmentmanufacturer's recommendations to determine appropriate equipment(air-purifying, air-supplied, or self-contained breathing apparatus).
Eyes: Safety glasses are considered minimum protection. Goggles orface shield may be necessary depending on quantity of materialand conditions of use.
Skin: Protective gloves and clothing are recommended. The choice ofmaterial must be based on chemical resistance and other userrequirements. Generally, Buna-N offers acceptable chemicalresistance. Individuals who are acutely and specifically sensitiveto hexane may require additional protective equipment.
Hexane should be protected from temperature extremes and directsunlight. Proper storage of hexane must be determined based on
Bother materials stored and their hazards and potential chemicalincompatibility. In general, hexane should be stored in an acceptablyprotected and secure flammable liquid storage room.
Other: Emergency eye wash fountains and safety showers should be availablein the vicinity of any potential exposure. Ground and bond metalcontainers to minimize static sparks.
VII. Spill and Disposal Data.
Spill Control: Protect from ignition. Wear protective clothing and use approvedrespirator equipment. Absorb spilled material in an absorbentrecommended for solvent spills and remove to a safe location fordisposal by approved methods. If released to the environment,comply with all regulatory notification requirements. •
Waste Disposal: Dispose of hexane as an EPA hazardous waste. Hazardous wastenumber: DOOKIgnitable).
Revision Date: 1/85
KEY
ca Approximately STEL Short Term Exposure Levelna Not applicable TLV Threshold Limit ValueC Ceiling TWA Time Weighted AveragePEL Permissable Exposure Level BuAc Butyl Acetate
NSC National Safety Council ("Fundamentals of Industrial Hygiene", 1983)OHS Occupational Health Services ("Hazardline")
Date Printed: 10-09-1990 Page 1J.T.BAKER MSDSMSDS for METHANOL
1 - Site Specific Information
No SITE SPECIFIC INFORMATION has been entered for this chemical
2 - PRODUCT IDENTIFICATION
PRODUCT NAME: METHANOLFORMULA: CH30HFORMULA WT: 32.04
3 NO.: 67-56-1i«.OSH/RTECS NO.: PC1400000COMMON SYNONYMS: METHYL ALCOHOL; WOOD ALCOHOL; CARBINOL; METHYLOL; WOOD
SPIRITPRODUCT CODES: 9074,9090,5536,9076,9049,9069,9070,9073,5217,9091,9075,9063
P704,9072,9071,9127,5370,9093,9068,9263
CHEMTREC # (800) 424-9300NATIONAL RESPONSE CENTER I (800) 424-8802J. T. BAKER INC.222 RED SCHOOL LANEPHILLIPSBURG, NJ 0886524-HOUR EMERGENCY TELEPHONE — (203J 859-2151
EFFECTIVE: 09/14/87REVISION #05
PRECAUTIONARY LABELLING~\KER SAF-T-DATA(*) SYSTEM
HEALTH - 3 SEVERE (POISON)FLAMMABILITY - 3 SEVERE (FLAMMABLE)REACTIVITY - 1 SLIGHTCONTACT - 1 SLIGHT
HAZARD RATINGS ARE 0 TO 4 (0 = NO HAZARD; 4 = EXTREME HAZARD).
LABORATORY PROTECTIVE EQUIPMENT
GOGGLES & SHIELD; LAB COAT & APRON; VENT HOOD; PROPER GLOVES; CLASS BEXTINGUISHER
PRECAUTIONARY LABEL STATEMENTS
POISON DANGERFLAMMABLE
HARMFUL IF INHALED
Date Printed: 10-09-1990 Page 2J.T.BAKER MSDSMSDS for METHANOL
2 - PRODUCT IDENTIFICATION (continued)
CANNOT BE MADE NON-POISONOUSMAY BE FATAL OR CAUSE BLINDNESS IF SWALLOWED
KEEP AWAY FROM HEAT, SPARKS, FLAME. DO NOT GET IN EYES, ON SKIN, ON CLOTHING.AVOID BREATHING VAPOR. KEEP IN TIGHTLY CLOSED CONTAINER. USE WITHADEQUATE VENTILATION. WASH THOROUGHLY AFTER HANDLING. IN CASE OF FIRE,USE ALCOHOL FOAM, DRY CHEMICAL, CARBON DIOXIDE - WATER MAY BE INEFFECTIVE.FLUSH SPILL AREA WITH WATER SPRAY.
SAF-T-DATA(*) STORAGE COLOR CODE: RED (FLAMMABLE)
^ - HAZARDOUS COMPONENTS
COMPONENT % CAS NO.
METHANOL 90-100 67-56-1
4 - PHYSICAL DATA
BOILING POINT:
MELTING POINT:
PECIFIC GRAVITY:(H20=l)
65 C ( 149 F)
-98 C ( -144 F)
0.79
VAPOR PRESSURE(MM HG): 96
VAPOR DENSITY(AIR=1): 1.11
EVAPORATION RATE: 4.6(BUTYL ACETATE=1)
SOLUBILITY(H20): COMPLETE (IN ALL PROPORTIONS) % VOLATILES BY VOLUME: 100
APPEARANCE & ODOR: CLEAR, COLORLESS LIQUID WITH CHARACTERISTIC PUNGENT ODOR.
5 - FIRE AND EXPLOSION HAZARD DATA
FLASH POINT (CLOSED CUP 12 C (
FLAMMABLE LIMITS: UPPER - 36.0 %
54 F) NFPA 704M RATING:
LOWER - 6.0 %
1-3-0
J.T.BAKER MSDSMSDS for METHANOL
Date Printed: 10-09-1990 Page 3
5 - FIRE AND EXPLOSION HAZARD DATA (continued)
FIRE EXTINGUISHING MEDIAUSE ALCOHOL FOAM, DRY CHEMICAL OR CARBON DIOXIDE.(WATER MAY BE INEFFECTIVE.)
SPECIAL FIRE-FIGHTING PROCEDURESFIREFIGHTERS SHOULD WEAR PROPER PROTECTIVE EQUIPMENT AND SELF-CONTAINEDBREATHING APPARATUS WITH FULL FACEPIECE OPERATED IN POSITIVE PRESSURE MODE,MOVE CONTAINERS FROM FIRE AREA IF IT CAN BE DONE WITHOUT RISK. USE WATERTO KEEP FIRE-EXPOSED CONTAINERS COOL.
T 1SUAL FIRE & EXPLOSION HAZARDS-VAPORS MAY FLOW ALONG SURFACES TO DISTANT IGNITION SOURCES AND FLASH BACK.CLOSED CONTAINERS EXPOSED TO HEAT MAY EXPLODE. CONTACT WITH STRONGOXIDIZERS MAY CAUSE FIRE.BURNS WITH A CLEAR, ALMOST INVISIBLE FLAME.
TOXIC GASES PRODUCEDCARBON MONOXIDE, CARBON DIOXIDE, FORMALDEHYDE
6 - HEALTH HAZARD DATA
TLV LISTED DENOTES (TLV-SKIN).
THRESHOLD LIMIT VALUE (TLV/TWA):
SHORT-TERM EXPOSURE LIMIT (STEL):
.RMISSIBLE EXPOSURE LIMIT (PEL):
260 MG/M3 ( 200
310 MG/M3 ( 250
260 MG/M3 ( 200
PPM)
PPM)
PPM)
TOXICITY: LD50 (ORAL-RAT) (MG/KG)LD50 (IPR-RAT) (MG/KG)LD50 (SCU-MOUSE) (MG/KG)LD50 (SKN-RABBIT) (G/KG)
CARCINOGENICITY: NTP: NO IARC: NO
- 5628- 9540- 9800- 20
Z LIST: NO OSHA REG: NO
EFFECTS OF OVEREXPOSUREINHALATION AND INGESTION ARE HARMFUL AND MAY BE FATAL.INHALATION MAY CAUSE HEADACHE, NAUSEA, VOMITING, DIZZINESS, NARCOSIS,SUFFOCATION, LOWER BLOOD PRESSURE, CENTRAL NERVOUS SYSTEM DEPRESSION.CONTACT WITH SKIN OR EYES MAY CAUSE IRRITATION. PROLONGED SKIN CONTACT MAYRESULT IN DERMATITIS. EYE CONTACT MAY RESULT IN TEMPORARY CORNEAL DAMAGE.INGESTION MAY CAUSE BLINDNESS.INGESTION MAY CAUSE NAUSEA, VOMITING, HEADACHES,DIZZINESS,
Date Printed: 10-09-1990 Page 4J.T.BAKER MSDSMSDS for METHANOL
6 - HEALTH HAZARD DATA (continued)
GASTROINTESTINAL IRRITATION, CENTRAL NERVOUS SYSTEM DEPRESSION ANDHEARING LOSS.CHRONIC EFFECTS OF OVEREXPOSURE MAY INCLUDE KIDNEY AND/OR LIVER DAMAGE.
TARGET ORGANSEYES, SKIN, CENTRAL NERVOUS SYSTEM, GI TRACT, RESPIRATORY SYSTEM, LUNGS
MEDICAL CONDITIONS GENERALLY AGGRAVATED BY EXPOSUREEYE DISORDERS, SKIN DISORDERS, LIVER OR KIDNEY DISORDERS
. JTES OF ENTRY^INHALATION, INGESTION, EYE CONTACT, SKIN CONTACT, ABSORPTION
EMERGENCY AND FIRST AID PROCEDURESCALL A PHYSICIANIF SWALLOWED, IF'CONSCIOUS, GIVE LARGE AMOUNTS OF WATER. INDUCE VOMITING.IF INHALED, REMOVE TO FRESH AIR. IF NOT BREATHING, GIVE ARTIFICIALRESPIRATION. IF BREATHING IS DIFFICULT, GIVE OXYGEN.IN CASE OF CONTACT, IMMEDIATELY FLUSH EYES OR SKIN WITH PLENTY OF WATER FORAT LEAST 15 MINUTES WHILE REMOVING CONTAMINATED CLOTHING AND SHOES.WASH CLOTHING BEFORE RE-USE.
7 - REACTIVITY DATA
STABILITY: STABLE HAZARDOUS POLYMERIZATION: WILL NOT OCCUR
EDITIONS TO AVOID: HEAT, FLAME, OTHER SOURCES OF IGNITION
INCOMPATIBLES: STRONG OXIDIZING AGENTS, STRONG ACIDS, ZINC, ALUMINUM,MAGNESIUM
DECOMPOSITION PRODUCTS: CARBON MONOXIDE, CARBON DIOXIDE, FORMALDEHYDE
8 - SPILL AND DISPOSAL PROCEDURES
STEPS TO BE TAKEN IN THE EVENT OF A SPILL OR DISCHARGEWEAR SELF-CONTAINED BREATHING APPARATUS AND FULL PROTECTIVE CLOTHING.SHUT OFF IGNITION SOURCES; NO FLARES, SMOKING OR FLAMES IN AREA. STOP LEAKIF YOU CAN DO SO WITHOUT RISK. USE WATER SPRAY TO REDUCE VAPORS. TAKE UP
Date Printed: 10-09-1990 Page 5J.T.BAKER MSDSMSDS for METHANOL
8 - SPILL AND DISPOSAL PROCEDURES (continued).__.*_•»______•___—.»_•..•«>•._ — •__ _«* — «».-..V««B4B.»W«»__-.__. _.«_____..__...»...._______.
WITH SAND OR OTHER NON-COMBUSTIBLE ABSORBENT MATERIAL AND PLACE INTOCONTAINER FOR LATER DISPOSAL. FLUSH AREA WITH WATER.
J. T. BAKER SOLUSORB(R) SOLVENT ADSORBENT IS RECOMMENDEDFOR SPILLS OF THIS PRODUCT.
DISPOSAL PROCEDUREDISPOSE IN ACCORDANCE WITH ALL APPLICABLE FEDERAL, STATE, AND LOCALENVIRONMENTAL REGULATIONS.
"'A HAZARDOUS WASTE NUMBER: U154 (TOXIC WASTE)
9 - PROTECTIVE EQUIPMENT
VENTILATION: USE GENERAL OR LOCAL EXHAUST VENTILATION TO MEETTLV REQUIREMENTS.
RESPIRATORY PROTECTION: RESPIRATORY PROTECTION REQUIRED IF AIRBORNECONCENTRATION EXCEEDS TLV. AT CONCENTRATIONSABOVE 200 PPM, A SELF-CONTAINED BREATHINGAPPARATUS IS ADVISED.
EYE/SKIN PROTECTION: SAFETY GOGGLES AND FACE SHIELD, UNIFORM,PROTECTIVE SUIT, RUBBER GLOVES ARE RECOMMENDED.
10 - STORAGE AND HANDLING PRECAUTIONS
SAF-T-DATA(*) STORAGE COLOR CODE: RED (FLAMMABLE)
SPECIAL PRECAUTIONSBOND AND GROUND CONTAINERS WHEN TRANSFERRING LIQUID. KEEP CONTAINERTIGHTLY CLOSED. STORE IN A COOL, DRY, WELL-VENTILATED, FLAMMABLE LIQUIDSTORAGE AREA.
11 - TRANSPORTATION DATA AND ADDITIONAL INFORMATION
DOMESTIC (D.O.T.)
Date Printed: 10-09-1990 Page 6J.T.BAKER MSDSMSDS for METHANOL
11 - TRANSPORTATION DATA AND ADDITIONAL INFORMATION (continued)
PROPER SHIPPING NAME METHYL ALCOHOLHAZARD CLASS FLAMMABLE LIQUIDUN/NA UN1230LABELS FLAMMABLE LIQUIDREPORTABLE QUANTITY 5000 LBS.
INTERNATIONAL (I.M.O.)
OPER SHIPPING NAME METHANOL_.ZARD CLASS 3.2, 6.1UN/NA UN1230LABELS FLAMMABLE LIQUID, POISON
(*) AND (R) DESIGNATE TRADEMARKS.N/A = NOT APPLICABLE OR NOT AVAILABLE
THE INFORMATION PUBLISHED IN THIS MATERIAL SAFETY DATA SHEET HAS BEEN COMPILEDFROM OUR EXPERIENCE AND DATA PRESENTED IN VARIOUS TECHNICAL PUBLICATIONS. ITIS THE USER'S RESPONSIBILITY TO DETERMINE THE SUITABILITY OF THIS INFORMATIONFOR THE ADOPTION OF NECESSARY SAFETY PRECAUTIONS. WE RESERVE THE RIGHT TOREVISE MATERIAL SAFETY DATA SHEETS PERIODICALLY AS NEW INFORMATION BECOMESAVAILABLE. J.T.BAKER INC. MAKES 'NO WARRANTY OR REPRESENTATION ABOUT THEACCURACY OR COMPLETENESS NOR FITNESS FOR PURPOSE OF THE INFORMATION CONTAINEDHEREIN.
COPYRIGHT 1988 J.T.BAKER INC.* TRADEMARKS OF J.T.BAKER INC.
DRAFHealth and Safety Plan Operating Pn
Field Operating Procedure. - FldOl - NOISE
Noise is defined as unwanted sound. Noise can causa sudden traumatic hearing loss,long fprm more slowly occurring sensory-neural hearing loss which is irreversible,disruption of comnunicatian and making of warning devices and alarms, increasedstress levels and effects on the cardie-vascular and nervous systems. These lattertwo effects nay occur at levels below that which cause damage to hearing and insituations where the conditions are more or less constant and daily.
OSHA regulations generally apply to 8 hour exposures and consider 85 dBA as an actionlevel for a Hearing Conservation Program.
Where feasible, noise «*pmKm> will be controlled by engineering controls. Wherehigh noise levels are encountered and where engineering controls are infeasible oruntil engineering controls can be •rirTl<gh*ri) hearing protection devices will beused for worker protection from noise induced hearing loss.
Some of the sources of noise on t »9»rt n» materials, construction and industrialsites of a magnitude to cause hearing «**"**y> are: compressor motors, drill nengine, hammer blows (from split spoon or other) , «.««n »•••««««"• motors, compressed air,
water, and heavy equipment. The list is not all inclusive.
Any sound level surveys indicating noise levels of 85 dBA or above, or, in theabsence of sound level measuring instrumentation, any noise/sound preventing normalvocal discussion between two individuals at arms length distance will dictate theneed for hearing protection.
Hearing protection will be afforded by either disposable ear plugs or ear muffs.Administrative time control is not an acceptable method for preventing noise exposuresince extreme noise for a short duration can cause severe, permanent hearing loss.
In addition to these protocols, WESTCN's Hearing conservation Program includesphysical examination and audiometric testing during annual po i monitoring.
The selection, use, maintenance and control of hearing protection is further definedin the WESTGN Personnel Protective Eguipment Program.
Health and Safety Plan Operating Procedures
Field Operating Procedure - FldOT - WET FEET
Under both hot and cold conditions, vet feet can lead to seriousproblems. Trench Foot, Paddy Foot and Inner si on Foot are footailments resulting from feet being vet for long periods of time aare similar in effect. In their more serious form, these ailmentresult in pain, sfcin loss and incapacitation.
Workers in vet conditions or when conditions result in sveating afeet becoming and remaining wet, must dry their feet and change sregularly to avoid these ailments.
Health and Safety Plan Operating
Field Operating Procedure - FUC2a - Heavy Equipment Operation - General
Related STOPS: FLD23 - CraneeFU&4 - Aerial Ufts/ManliftsFIDM - UtilitiesFLDQSa - Electrical Safety - GeneralFID35b - Eitrrri^'1 Safety - High Voltage
A.
Before any machinery or mechanized equipment is placed in use, it win be inspectedand tested by a competent mechanic and certified to be in safe operating condition.
The employer will designate a cuMjeteuL person to be rygrraiKI* for the inspectionof an machinery and equipment daily and during use to make sure it is in safeoperating condition. Tests will be made at the beginning of each shift during whichthe equipment is to be used to determine that the brakes and operating systems are inproper working condition.
Preventative maintenance procedures i «jM*H«*i by the manufacturer win be fonowed.
Any machinery or equipment found to be unsafe will be deadlined and its useprohibited until unsafe conditions have been corrected.
Inspections or determinations of road conditions and structures win be made inadvance to assure that clearances and load capacities are safe for the passing orplacing of any machinery or equipment.
Machinery and mechanized equipment win be operated only by designated personnel.Equipment deficiencies observed at any *••»*•» that affect their safe operation win be
ted before continuing operation.corr
Seats or equal protection win be provided for each -person required to ride en
Getting off or on any equipment while it is in motion is prohibited.
Machinery or equipment requiring an operator will not be permitted to run unattended.
Machinery or equipment win not be operated in a manner that win endanger personor property nor will the safe operating aponrK or loads be *~*
MACHINERY AND MBCSMQZED EqOXBfflHT SAFETY (Continued)
All machinery or equipment will be shut down and positive means taken to prevent it*operation while repairs or manual lubrications are being done. Exemption:
Equipment designed to be serviced while running.
All repairs on machinery or equipment will be made at a location which will provideprotection from traffic for repair
Heavy machinery, equipment, or parts thereof which are suspended or held apart byslings, hoists, or jades also will be substantially elected or cribbed beforepersonnel are permitbsd to week underneath or between then*
and •'''•!'•'• blades, end-loader hrr* *, dump bodies, and similarwill be either fully lowered or blocked when being repaired or when not in use. Allcontrols will be in a neutral position, with the engines stopped and brakes set,unless work being performed on the machine requires otherwise.
Stationary machinery and equipment will be placed on a firm foundation and securedbefore being operated.
All points requiring lubrication during operation will have fittings so located orguarded to be accessible without hazardous exposure.
Vhen necessary, all mobile equipment and the operating area will be adequatelyilluminated while work is in
Mechanized equipment will be shut down prior to and during fueling operations, dosedsystems, with automatic shut-off which will prevent spillage if connections arebroken, may be used to fuel diesel powered equipment left running.
All towing devices used en any combinations of equipment will be structurallyadequate for the weight drawn and securely mounted.
Persons win not be permitted to get between a towed and towing piece of equipmentuntil the towing equipment has been stopped.
All equipment with windshields will be equipped with powered wipers. Vehicles thatoperate under conditions that cause fogging or frosting of windshields will be«ryi-ippert with operable befogging or defrosting devices.
AU equipment left unattended at night, adjacent to a highway in normal use, oradjacent to construction areas where work is in progress, win have lights orreflectors, or barricades *7rtlT<f< with lights or reflectors, to identify thelocation of the equipment.
ttoenever the equipment is parked, the perking brake win be set. Equipment parkedon inclines will have the wheels chocked or track mechanism blocked and theparking brake set.
MBCffltfUCAL AND MBCHttHZH) EQOZHlENr SAFETY (Continued)
Lift trucks, stackers, etc., win have the rated capacity posted on the vehicle so asto be clearly visible to the operator. Vfcen auxiliary removable counterweights areprovided by tha manufacturer, corresponding alternate rated capacities also will beclearly shown on the vehicle. The ratings win not be exneertarl.
Steering or spinner knobs will not be attached to the steering wheel unless thesteering mertvinism pievmils road reactions from causing the steering handwheel tospin, ttoan prr-il*-^ the steering knob win be mounted within the periphery of the_ j «
An industrial trucks in use win meet the requirements of design, construction,stability, inspection, testing, maintenance, and operation, defined in ANSI B56.1,Safety standards for Powered Industrial Trucks.
The installation of live booms on material and personnel hoists is prohibited.
The controls of loaders, excavators, or similar equipment with folding booms or liftwin not be operated from a ground position unless so designed.
Personnel win not work or pass under the buckets or booms of loaders in operation.
Cranes and any other equipment used for lifting must be inspected as required andrecotus of inspection must be maintained.
Health and Safety Plan Operating Procedures
Field Operating Procedure - FIC22ll - Heavy Bquirnent Operation - Drill Rigs
Related SPOPS: FLD23 -PIIS4 - Aerial Lifts/ManliftsFID34 - UtilitiesFIB35a - Electrical Safety - GeneralFLD35b - Elr-tri"*! Safety - High Voltage
Drill Rig Safety
WESPCN van use the Drilling Safety Guide prepared by delegations of the Diamond CoreDrilling Manufacturers Association and the National Drilling Contractors Associationas published by the National Drilling Federation as the basic Safety Programs for allactivities involving drill rigs or similar apparatus for the purpose of weninstallation or ""IT borings*
Copies of this ouojuait are available from Cui.pui.ate Health and Safety.
Health and Safety Plan Operating Ft
Field Operating Procedure - FUO4 - Utilities
Related SPOPSFIDs - FID02 - Excavating and TrenchingFLD03 - Hot Pmnenenn - SteanFLD22a - Heavy Equipment Operation - GeneralFEJE2b - Heavy Equipment Operation - Drill RigsFIIP3 - Lifting Equipment OperationFID35a - Ely*Ti'-*il safety - GeneralFLDOSb - Electrical Safety - High Voltage
A. Survey for and Identification of Utilities
Prior to beginning work, on site or in or around facilities, or buildings or otherstructures which nmilrl be served by or connected to utilities, a search must be
by the SHSC, ideally in association with someone familiar with the facilityto identify any overhead, underground and in workplace utilities such as:
o electrical lines and appliao gas lines,o pipelines,o steam lines,o water lines,o jgper lines, ando pressured air lines.
Ihe location of any utility which onud pose a risk to workers must be nrrnimicntfrito all workers during site safety indoctrination. Utilites should be marked oraccess otherwise restricted to avoid chance of accidental contact.
Utilities shaU be considered "live" or active until a reliable source has documentedthem to be otherwise.
A. Overhead Utilities1 f\ ^ • ^U^MM^* J « M* « % jS-t • i-m^^^fc Hbh• U wPBTtt ^LOeTS /ifliqQBnC J.U
o Overhead transmission and distribution lines will be carried on towers andpoles which provide safe clearance over roadways and structures.
o Clearances will be adequate for the muveumt of vehicles and for theoperation of cumLtuction
overhead or above ground electric lines shall be considered "live" or active until areliable source has documented thea to be otherwise.
Elevated work platforms, ladders, scaffolding, nan-lifts, drill or vahiclt«H<«»r«>p*~t->rp«a shall be •!•»< y A TnliT?]1*"1 of 20 feet (The actual distance iidependant upon the voltage of the line) from overhead electrical lines until the lirais de-energized, grounded or shielded and a competent electrician has certified thatarcing can not occur between the work place or superstructure.
2.0 Other QuiBE*lMd or In Wbricpla u
Workers oust be instructed to use care in working under or around utilities to avoichot surfaces, loud noise*, pressured TMCTI or air, leaking of pipelines, discharge oistsaa or hot liquids and mist work to prevent accidental contact with or breakage.
No excavating, drilling, or boring shall be done until a thorough underground utilitysurvey, conducted by knovledgeable persons or agencies has been made and it is founcsafe to begin.
Even when a search is completed, drilling, boring and excavation shouldcarefully until past the depth at which such utilities are usually located.
All underground utilities shall be considered "live" or active until reliabledemonstrate otherwise.
The SHSC is responsible for ensuring underground utility searches are performed andprocedures are conformed with.
Health and Safety Plan Operating
Field Operating Procedure - FLD35a - Electrical Safety - General
Related SPOPSFLDs - FLD02 - Inclenent WeatherFIDOS - Ocnfined Spaces EntryFiD25a - Portable lettersFIZBSb - Fixed LaddersFID26a-d - All FOODS of ScaffoldingFID34 -UtilitiesFimSb - Electrical Safety - GeneralFID38 - Hand and Power Tools
IV. Electrical Safety
Work areas shall be cheete»A for the preaeim of high voltage and other hazardouselectricity sources. Sources shall be labelled and work areas provided withshielding or located at sufficient distance from the sources to pmvent contact orarcing to personnel or equipment.
and ensure there will be no adverse contact with overhead utilities, prior topositioning or moving any elevated work platform or rig superstructure.
ttoen hipfa vo-ltMH tiectrieal gflTYJt?* i* required for site or project activities,service shall be fUB^fyt by PBT fled «>T ffrtriff i*"8 ° accordance withapplicable local and National Electric
Ground Fault Circuit int-iffirnctCTff ehall be used in the absence of properly groundedciroutry or when portable tools must be used around wet areas.
Electric lines, cables and extension cords must be appropriately guarded andmaintained in good condition*
EQ_work win be done on electric lines or eleetrig«nv «etivat-«rl •nmnnent. until theverification that service has been Je cumulzad and/or the system has been jocm andtagged oat and each worker doing the work has sole possession of a key to a lode onthe lock-out hasp.
Health and Safety Plan Operating Procedures
Field Operating Procedure - FLD35b - Electrical Safety - High Voltage
Related SPOPSFIDs - FIC02 - Irclsment WeatherFIC08 - Confined Spaces EntryFI£25a - Portable laddersFin25b - Fixed laddersFUE6a-d - AU Faros of ScaffoldingFID34 - UtilitiesFI£35a - Electrical Safety - GeneralFLD38 - Hand and Power Tools
High Voltage
Whaiever posgible. electrical equipment and electric conductive equipmentor da evimaizgd as a means of engines!ing control. When it is necessary to workor around energized power transmission equipment, and use of permanent guarding isinfeasible, grounding and personnel protective equipment is required. Work oust bedone by personnel who have been specialy trained to work around High VoltageElectricity.
(1)Table V-l, 29 OR 1926.950
(2) Electrical personnel protective equipment oust be non-conductive rubbermaterial with electrical and mechanical protection equal to or better thanrubber.»<•Rubber protective equipment oust be in accordance with ANSI J6
of Standards. For:
o rubber insulated gloves (J6.6);o Rubber matting for use around electric equipment (J6.7);o Rubber insulated blankets (J6.4);o Rubber insulated hoods (J6.2);o Rubber insulated line hose (J6.1); ando Rubber insulated sleeves (J6.5)
Rubber or equivalent protective equipment must be:o visually inspected by a competent person before each use.o air tested before each use.o laboratory retested periodically, ando stored so sunlight or folding will not cause damage or
deterioration.
Field Operating Procedure - FLD35b - Electrical Safety - High Voltage (Continued)
(3) Hani hats worn around electrical >T*« « nust be f*i*«M* "B" accordingto ANSI Standard 289.2.
(4) Body belts, lanyards and lifelines used around electrical hazards oustbe able to:
o withstand an A.C dielectric test of not less than 25,000 voltsper foot "dry** for 3 minutes without visible signs ofdeterioration;
o allow less than one (1) millianpere leakage when 3000 voltspotention is applied 12 inches apart.
(5) Hot line tools wst be able to withstand voltages of 100,000 volts perfoot if fiberglass or 75,000 volts per foot if wood.
Health and Safety Plan Operating Pn
Field Operating Procedure - FID38 - Hand and Power Hand Tools
Related SPOTS: FLD01 - NoiseFID02 - Inclement WeatherFIDOS - Confined SpacesFID09 - Hot HorJcFIB10 - Heavy Manual Urting/MovingFIDU - Housekeeping
FID22a - Heavy Equipment OperationFID24 - Aerial Lifts/ManliftsFID29 - Materials HandlingFLD30 - Hazardous Materials Use/StorageFXD31 - Fire Prevention/Response Plan RequiredFID32 - Fire Extinguishers RequiredFID34 - UtilitiesFID35a - Electrical Safety - GeneralFUDSb - Electrical Safety - High VoltageFUSS - Hand and Power Hand Tools
Work with other than the simplest non-powered hand tool shall be performed only bythose persons uuajeLenL by reason of formal training or documented experience.
In addition to the above related Physical Hazard Safety Procedures the followingprocedures must be fonowed:
XV. VHAND AND POWER TOOLS SAFETY
Unsafe hand tools shall not be issued or used. An hand tools win be kept in goodrepair and used only for the purpose for which they were designed. Wrenches withsprung jaws where slippage raUrt occur, impact tools with mushroomed heads and woodenhandled tools with cracks or splinters are examples of unsafe hand tools.
Tools having defects that win impair their strength or render them unsafe win beor made inoperable and removed Tr'ffl service.
Guards must be in place during operatic on an power tools designed to accomodatethem. Guards and safety devices oust remain in place on power tools unless removedaccording to manufacturers instruction for maintenance by a cuoMtent person and mustbe replaced before use. Belts, gears, shafts, drums, fly wheels, chains or otherrotating, reciprocating or moving parts expocnrt to employee contact or representingother hazard must be guarded.
Proper PPE must be used when operating power tools or hand tools which may produceprojectiles, cuts or abrasions, dusts, fume, mists or light or which pose a nsx ofharm to arms, legs, or feet if dropped.
Health and Safety Plan Operating
Field Operating Procedure - FLD38 - Hand and Power Hand Tools (Continued)
Throwing tools or materials from one location to another, from one person to another,or dropping them to lower levels, is not permitted.
Only nonsparking tools will be used in locations where sources of ignition may causea fire or explosion.
Power tools will be inspected, tested, and determined to be safe for operation priorto use. Continued periodic inspections will be made to assure safe operating
Electric powered tools oust be approved double insulated or grounded in accordancewith 1926.404.
Rotating or reciprocating portable power t<r>ls will have a constant pressure switchthat will shut off the power when the tool is released by the operator. A nnrnthlepower tool may have a lock-or control provided turn-off can be accaoplished by asingle motion of the same finger or fingers that turned it on.
Hydraulic fluid used in powered tools will retain its operating characteristics atthe most exiieme tatneratures to which it will be
Manufacturers' safe operating pressures for hydraulic hoses, valves, pipes, filtersand other fittings will not be
All hydraulic or pneumatic tools which are used on or around energized lines orequipment will have nonconducting hoses having adequate strength for the normal
and frayed clothing, loose long hair, dangling jewelry, rings, chains, andwrist watches will not be worn while working with any power tool or machine.
All woodworking tools and machinery will meet applicable requirements of ANSI 01.1,Safety Code for Woodworking Machinery.
Extension curds;
o Must meet UL or other rating criteria according to OSHA.o use win be limited to essential tasks.o Must be tested for continuity before each use and must be connected to
grounded cutlets or ground fault current interrupters must be used,o Must be inspected daily for loose insulation, broken or missing plugs,
bared wires, etc.o Grounding of cutlets uoed for portable tools must be confirmed before use.o Must not be allowed to become tripping or slipping hazards,o Most not be used for lifting, tying off and shall be disconnected by
pulling on the plug.
Health and Safety Plan Operating
Field Operating Procedure - FLD38 - Hand and Power Hand Tools (Continued)
Any piece of equipment used for lifting materials or persuBiel shall be used andmaintained in strict accordance with manufacturers directions and applicable QSHAregulations.
Load Limits win be visibly posted en an lifting devices.
Only operators with i!••••! ml el competence shall be permitted to operate lifting
Lifting machinery and all elements of equipment involved in lifting or supportingloads must be inspected prior to use and at a *""<*"• monthly. Inspections must beperformed by a competent |j*>*nT * and must be documented.
APPENDIX B
TOXICITY CHARACTERISTIC LEACHING PROCEDURE
1091.wr
PPENDIX 11-METHOD tan TOXICITYCHARACTERISTIC LEACHING PROCEDURE<TCLP>
10 Scopr and Application
1 I The TCLP Is designed to determinei* mobility of both organic and Inorganicnalyles presrnt In liquid, solid. »nd multl-haslr wasles.12 I( » lottt analysts of Ihe waslr dem-
nslrales thai individual analyles are notresent In Ihr waste, or thai they arcresent but at sjch low concentrations thathe appropriate regulatory level* could notosslbly be exceeded, the TCLP need not beun.13 II in analysis o( any one of the liquid
raclltms ol the TCl.P extract Indicates thati reculaled compound Is present at suchilfh concentrations that, even after ac-ountlng (or dilution from the other IracIons of Ihr extract, the concentrationwould be equal to or above the regulatorycvel for that compound, then the waste Islazardotis and It Is not necessary to analyzehe remaining tractions of the extract
I 4 If an analysis ol extract obtainedusing a bottle extractor shows that the con-centration of any regulated volatile analyterquals or exceeds the regulatory level torthat compound, thru the waste Is hazardousand txlractlon using the ZHE Is not neces-sary. However, extract from a bottle extrac-tor cannot be used to demonstrate that the
•These methods are also described In"Samplers and Sampling Procedures forHazardous Waste Streams." EPA 600/2 80-018. January 1980
40 CFR Ch. I (7.1-90 Edition)
concentration of volatile compound* Isbelow the regulatory level.
2.0 Summary of Method
21 For liquid wastes (I.e.. those contain-ing less than 05% dry solid material), thewaste, after filtration through a 0.8 to 0.8jim glass fiber filter. Is defined as the TCLPextract.
2.2 Pur wastes containing greater than orequal to 05% solids, the liquid. It any. Isseparated from the solid phaae and storedfor later analysis, the particle size of thesolid phoe Is reduced. If necessary. Thesolid phase Is extracted with an amount ofextraction fluid equal to 20 limes the weightol the solid phase The extraction fluid em-ployed Is a function of the alkalinity of thesolid phase of the waste. A special extractorvessel Is used when testing for volatile ana-'lyles <see Table I for a Hat of volatile com-pouids). Following extraction, the liquid ex-tract Is separated from the solid phase byfiltration through a 0.6 to 0.8 pm glass fiberfilter.
2.3 If compatible (le . multiple phaseswill not form on combination>. Ihe Initialliquid phaae ol (he waste Is added to theliquid extract, and these are analysed to-gether. II Incompatible. Hie liquid* are ana-lysed separately and the results are mathe-matically combined to yield a volume-weighted average concentration.
3 0 Initrfrrrnctt
3.1 Potential Interferences that may beencountered during analysis ire discussed Inthe Individual analytical methods.
4.0 Apparatus and Mattrtati
4.1 Agitation apparatus: The agitationapparatus must be capable ol rotating theextraction vessel In an end over-end fashion(see Figure 1) at 30 » 2 rpm Suitable devicesknown to EPA are Identified In Table 2
4.2 Extraction Vessels.4 21 Zero-lleadspace Extraction Vessel
(7.HE) This device Is lor use nnly when thewaste Is being tested lor the mobility ofvolatile analytrs ( l e , those listed In Table1) The ZHE (depicted m Figure 2) allowsfor liquid/solid separation within thedevice, and effectively precludes headspace.This type of vessel allows for initial liquid/solid separation, extraction, and final ex-tract filtration without opening the vessel(see section 4 3 1 ) The vessels shall have anInternal volume of 500-600 mL. and beequipped >.o accommodate a BO 110 mmfilter. The devices contain V1TON' > O rings
1 VITON- Is a registered trademark ofDuPont.
Environmental Protection Agency
which should be replaced frequently. Sullalid' ZHK. devices known to EPA are Idenlllied in 1 Able 3
For tin ZHK lo be acceptable for use. thepiston w i t h i n the ZHE should be able to betnovi-il wi th approximately 15 pounds perMiuarr inch ipsi) or less If II lakes morepirssiirr lo move the piston. Ihe O rings Inthe device should be replaced If this doesnut solve the problem, the ZHE is unaoceplalilr lor TCLP analyses and the manufac-turer should be contacted
The ZHE should be checked for .leaksalter every extraction. If the device contain*R built in pressure' gauge, prfssurlie thedevice to SO DM. allow it to stand unattended(or I hour, and recheck the pressure. If theid uce does not have a built in pressuregauge, pressurize the device lo 50 pal. sub-merge it in water, and check for the pres-ence ol :ur bubbles escaping from any of thef in ings II pressure Is lost, check all fillingsanil mspeel and replace O rings. If necessary Retesl the device. If leakage problemscannot he solved, the manufacturer shouldhe rout acted
SOUK /.IIts use teas pressure to aclualei|.. /.Ill-: piston, while others u.sc mechanl< ,.l firr.v.urr i.see Table 3). Whereas the vola-nle.s piiH-edures (see section 7.3) refers lo(lonnd.s per stiuare Inch <psl). lor Ihe me< hanically actuated piston, the pressure applK-i l i measured In luique inch-pounds.If. h i i.. i he miintilactiirrr s Instructions as10 i In proper conversion
•I 2'2 I lot tic Kxlractlon Veawl. When the« ...ste i:. being evaluated using Hie nonvola-i ' i . e x t r a c t i o n , a jar with sufficient capacityn, I...M i he sample and the extraction fluidi.. urid <l Hi -ailspace is allowed In thisVC..S.-I
The « . . t r i l l i o n bottles may be ronstrucledf i v. inuns materials, depending on the; in , i ) \ t r . lo be analyzed and the nature ofIhr waste (see section 43.3). It Is recommended that boroslllcate (lass bottles beused instead of other types of class, espe-cial ly when Inorganics are of concern. Plaslie bot(Irs. other than polytetrafluoroethy11 ne. shall not be used If organlcs are lo beinvestigated. Bottles are- available from anumber of laboratory suppliers. When thistype of extraction vessel Is used, the Ultralion device discussed In section 4.3.2 I* usedlor Initial liquid/solid separation and finalextract nitration.
4.3 Filtration Devices: It to recommendedthat all nitrations be performed In a hood.
4.31 Zero Headspece detractor Veavel(ZHE): When the waste la evaluated lor vo-latlles. the sero-headgpace extraction vesseldescribed In section 4.3.1 le used for nitra-tion. The device shall be capable of supportIng and keeping In place the glaes fiberfiller and be able to withstand the pressureneeded lo accomplish separation (50 pal).
fart 261, App. II
Norr: When II Is SIIS|M>< led that the gla.ssfiller f i l ler has been ruptured, an In lineglass fiber tiller may Ite used lo fi l ler thematerial within the /UK
4 3.2 Kilter Holder When the wa-slr isevaluated for other than volat i le analvl rs .any tiller holder i-:ipable ol support un; aglass fiber . f i l ter ami able lo withstand (hepressure needed lo accomplish separationmay be used Siillahle t i l l e r holders rangefrom simple vacuum units lo relatively r»mplex systems capable of exerting pressuresol up lo SO psl or more Thr type of tillerholder used depends on the properties ofthe material to or filtered (see section 4 .1 3>These devices shall have a minimum internal volume of 300 ml, and be equipped lo accommodatr a minimum f i l l e r size of 47 mm(f i l t e r holders havinc an Internal capacityof 1.5 L or greater, and equipped lo accommodate a 142 mm diameter tiller, arr recommended). Vacuum fillratlon can only beused for wasles wi th low solids contenti < 10%) and for highly granular, liquid contaming wasles. All oilier types of waslesshould be filtered using positive pressure hit rat Ion. Suitable t i l ler holders known toF.I'A arr shown In Table 4.
4.3.3 Materials of Construction: Exlraclion vessels and fillratlon devices shall bemade of Inert materials which will not learhor absorb waste components Glass, polyle-trafluoroethylene (PTFE). or type 316 stainless steel equipment may be used when evaldating the mobility of both organic and Inorganic component. Devices made of highdensity polyethylene (HDPK), polypropylene (PI'i. or po lyv iny l chloride (PVC) maybe used only when evaluat ing the mobi l i tyof metals Bnrosihcate nlft-ss bottles are rerommended tor use ovri oilier types ol Klussbottles, especially when inorganics an analytes ol concern
4.4 Fillers Fillers shall be made ol boro.silicate glass liber, shall contain no bindermaterials, and shall have an rtfectlvr poresi/.e of 0 8 lo 0 8 |ini or equivalent Fillersknown lo EPA which meet Ihese specificslions are Identified in Table 5. Pre filtersmusl nol be used. When evaluating the mobilily of melals. filters shall be add washedprior lo use by rinsing with IN nitric acidfollowed by three consecutive rinses withdelonlzed distilled water (a minimum of 1 Lper rinse l» recommended). Olass fiber fi l terare fragile and should be handled with carr.
4.5 pH Meters: The meter should be accurate to ± 0 OS units al 2S'C.
4.6 ZHE Extract Collection DevicesTEDLAR<8>' bags or glass, stainless steel or
'TEDLARQ Is a registered trademark ofDuponl.
64B 65
Port 261, App. II
PTFE gag-light syringes are used to collectthe Initial liquid phase and the final extractof (he waste when using the ZHE device.The devices listed are recommended for useunder the following conditions:
48.1 if a waste contains an aqueousliquid phase or If a waste does not contain asignificant amount of normqueous liquid(i.e.. < 1% of total waste), the TEDLAR®bug or ft 000 ml, syringe should be used torolled and combine the Initial liquid andwlid extract.
462 If a waste contains a significantamount of nonaqueous liquid In the Initialliquid phase (I.e.. >1% of total waste), thesyrlngr or the TEDLAR® bat may be usedfor both the Intltlal solid/liquid separationand the final extract filtration. However.Analysts should use one or the other, notboth.
46.3 If the waste contains no Initialliquid phase (Is 100% solid) or ha* no slgnlfl-cant solid phase (Is 100% liquid), either theTEDLARg) bai or the syringe may be used.If the syringe la used, discard the first. S mLof liquid expressed from I he device. The re-maining allquots are used for analysis
4.7 ZHE Extraction Fluid Transfer De-vices: Any device capable of transferring theextraction fluid Into the ZHE withoutchanging the nature of the extraction fluidIs acceptable (e.g. a positive displacement orperistaltic pump, a ga» tight syringe, pres-sure filtration unit (see section 4.3.2), orother ZHE device)
4* Laboratory Balance: Any laboratorybalance accurate to within * 0.01 gramsmay be used tall weight measurements areIn he wllhln ' O.I grams)
4 9 Reakrr or Erlenmryer flask, glass.500 ml.
4.10 Watchglus. appropriate diameter tocover beaker or erlenmeyer flask.
411 Magnetic stlrrer.
50 Rrnyrnlt51 Reagent grade chemicals shall be
used In all tests. Unless otherwise Indicated.It Is Intended that all reagents shall con-form to the specifications of the Committeeon Analytical Reagents of the AmericanChemical Society, where such specificationsare available. Other grades may be used,provided It Is first ascertained that the rea-gent Is of sufficiently high purity to permitIts use without lessening the accuracy of thedetermination.
52 Reagent water. Reagent water Is de-fined as water In which an Interferanl Is notobserved at or above the methods detectionlimit of the analyte(s) of Interest. For non-volatile extractions. ASTM Type II water orequivalent meets the definition of reagentwater. For volatile extractions. It Is recom-mended that reagent water be generated byany of the following methods. Reagent
40 CFI Cn. I (7-1-90 Edition)
water should be monitored periodically forImpurities.
5.2.1 Reagent water for volatile extrac-tions may be venerated by passing Up waterthrough • carbon filter bed containingabout BOO grams of activated carbon(Calcon Corp.. Flllrasorb-KO or equivalent).
5.2.1 A water purification system (Mllll-pore Super-Q or equivalent) may also beused to generate reagent water for volatileextractions.
S.2.3 Reagent water for volatile extrac-tions may also be prepared by boiling waterfor 1ft minutes. Subsequently, while mainlalnlnf the water temperature at 90 v & de-grees C. bubble a contaminant-free Inert gaji(e.g.. nitrogen) through the water for 1hour. While still hot, transfer the water to anarrow mouth screw cap bottle under zero-headspoee and seal with a Teflon-linedseptum Mid cap.
S.3 Hydrochloric acid (IN). HC1. madefrom ACS reagent grade.
44 Nitric acid (IN). If NO,, made fromACS reaient grade.
5.5 Sodtum hydroxide (IN). NaOH. madefrom ACS reagent grade.
5.8 CUdal acetic acid. CH.CH.OOH. ACSreagent trade.
57 Extraction fluid5.7.1 Extraction fluid f I: Add 5.7 mL • la-
da) CTWTHtOOH to 500 mL of reagentwater (See section 5.2). add 84 3 mL of INNaOH. and dilute to a volume of I liter.When correctly prepared, the pH of thisfluid will be 4 »3±0 OS
5.7.] Extraction fluid »2 Dilute 57 mLglacial CH.CH.OOH with reagent water(See section 5.2) to a volume of I liter.When correctly prepared, the pH of thisfluid will be J.M±0 05
Norm: These extraction fluids should bemonitored frequently for Impurities. ThepH should be checked prior to use to ensurethat IhCM fluids are made up accurately. IfImpurltte* are found or the pH I* not withinthe above specifications, the fluid shall bediscarded and fresh extraction fluid pre-pared. .
56 Analytical standards shall be. prepared according to the appropriate analyti-cal method.
6.0 Sample Collection, Preservation, andHandling
6.1 All samples shall be collected usingan appropriate sampling plan.
6.1 The TCLP may place requirementson the minimal she of the field sample, tiepending upon the physical stale or states ofthe waste and the analytes of concern. Analiquot la needed for preliminary evaluationof which extraction fluid la to be used forthe nonvolatile analyte extraction proce-dure. Another aliquot may be needed to ac-
66
Environmental Protection Agency
tually conduct the nonvolatile extraction(see section 1.4 concerning the use of tinsextract for volatile organic*) If volatile orf antes are of concern, muilhrr aliquot maybe heeded. Quality control measures in By rrquire additional allquots Further, it Isalways wise to collect more samples just incase something goes wronK with tlio Initialattempt to conducl ihr tost
A3 Preservatives shall not be added IDsamples before extraction
6.4 Samples may br refrigerated unlessrefrigeration results In Irreversible physicalchange lo the waste If precipitation occurs.the entire sample (including precipitate)should be extracted
6 5 When the waste is to he evaluated forvolatile analytes. rare shall be laketi lo millImize the loss of volatile* Samples shall becollected and stored In a manner miendrdto prevent the loss of volatile analytes (e g .samples should be collected In Teflon linedseptum capped vials and stored at 4 CSamples should be opened only Immediatelyprior lo exit action).
6.6 TCI.P extracts should be preparedfor analysis and analyzed as soon as possiblefollowing extraction. Extracts or portions ofextracts for metallic analyle determinationsmust be acidified with nitric acid to a pH<2. unless precipitation occur* (see section7.2.14 If precipitation occurs). Extractsshould be preserved for other analyles ac-cording to the guidance Riven In the Individual analysis methods. Kxtracts or portionsol extracts for organic analyle delerminalions shall not be allowed lo corne Into runtart with the atmosphere ( Ic , no head.space) lo prevent losses See section R n <(JArequirements) for acceplahle sample and extract holding limes
70 rrnmlnrr
71 Preliminary Evaluations. Performpreliminary TCLP evaluations on a miiimum 100 gram aliquot of waste Thlj aliquol may not actually undergo TCLP extraction These preliminary evaluations inelude. (I) Determination ol the percentsolids (section 7 1.1). (2) determination ofwhether the waste contains Insignificantsolids and is. therefore. Its own extract af terfiltration (section 7 12). M> determinationof whether the solid portion of the waste requires particle size reduction (section 7 1 3 ) .and (4) determination ol which of the twoextraction fluids are lo lie used for Mir nonvolatile TCI.P extraction of Hie waMc (seclion 7 1 4 . ) .
7 1.1 Preliminary determination of percent solids Percent solid is defined as Dialfraction of a waste sample (as a percent;ageof the tola! sample) from which no litnndmay be forced out by an applied pressure, a.'.described below.
7.1 I I If the waste will ohvinusU yieldno liquid when subjccieil lo pressure (ilira
Port 261, App. II
lion (i c . Is 100"',. solids) proceed lo section7 13.
7.1 I 2 If the sample I.<| liquid or mult!phasic, liquid/solid separation to make apreliminary determination of percent solidsis required This Involves the filtrationdevice described in section 432 and Is outlined in sections 7 .11 3 through 7.1 I 9.
7 1 1 3 t'rc welKh the filler and the contamer that will receive the filtrate.
7 1 1 4 Assemble the filler holder and(liter following (he manufacturer's iiislruelions Place the filter on the support .screenand set tire
711 5 Weigh out a siibsamplc of thewjftlc HIM) gram minimum) and record theweight
7 1 1 6 Allow slurries to stand to permitthe solid phase lo settle. Wastes that settleslowly may be ccntrlluged prior lo flltralinn CenlrlfuRalion Is to be used only as anaid lo filtration If used. Ihe liquid shouldbe decanled and filtered followed by flllralion of the .solid portion of the wastethrough the same filtration system
7 117 Quantitatively transfer the wastesample to the filler holder (liquid and solidphases). Spread the waste sample evenlyover Ihe surface of the filler. If filtration ofthe waste al 4 'C reduces the amount of expressed liquid over what would be expressedat room temperature then allow Ihe samplelo warm up lo room temperature In thedevice before filtering
NOTF If waste maferi.il ( )";, of originalsample weight i has olniouslv adhered lothe container used lo transfer the sample loIhe fi l tration apparatus, determine theweight of t ins residue and subtract II fromthe sample weight determined in section7.1.1 S lo determine he weigh! of the wastesample that will be filtered.
Cradually applv vacuum or gentle pressure of 1 10 psl. until air or pressurizing ga_<;moves through Ihe filter If Ihls point Is notreached under 1(1 p«i. and If no additionalliquid has passed through the filter in any '2minute Interval, slowly Increase Ihe pressure In 10 psl increments lo a maximum ofSO psl Af ter each Incremental lnerea.se of 10psl if Ihe piessurl/.liiK gas lias not movciiIhroudi the filler, and If no additionallii|iiid 11 xx passed through (he filter In anv :'minute interval proceed to the ncxi 10 p-.iincrement When Ihe pressiirl/mg HA-liegins lo move through Ihe filler, or whnliquid flow has ceased at 50 psl < j c . f l l i rxlion does not result in any additional hiIrate within any '2 mnttile period), slop 11>,lillrallon
Norr. Instantaneous application ol lugdpressure tan degrade Ihe glass flher llll< iand may cause piemalure p'liKglrig
fart 2*1, App II
7 1 1 8 The material In the filter holder Udefined u the solid phase of the waste, andthe flllrmte li defined M the liquid phase.
NOTE Some wastes, iuch a> oily wastesand some paint waste*, will obviously con-tain some material that appears to be aliquid. Even after applying vacuum or pres-sure filtration, u outlined In section 7.1.1.7.this material may not filter. If thU Is therase, ihe material within the filtrationdevice Is defined a* a solid. Do not replacethe original filter with a fresh filter underany circumstance!. Use only one filter.
40 Cnt i . (7-1-90 fdttton)
7.1.1.* Determine the weight of theliquid phase by subtracting the weliht ofthe ffitraU container (see section 7.1.1.3)from the total weliht of the filtrate-filledcontainer. Determine UM weight of the wildphas* ttf trie wart* samftle by subtractingthe wMgltt' of the llquM phase from theweight of the total wait* sample, u deter-mined In section 7.1.1.6 or 7.1.1.7.
Record the welfht of the liquid and solidphases. Calculate the percent solids u fol-lows:
Percent solids - - - —Weliht of solid (section 7.1.1J)
Total weight of waste (section 7.1.1.5 or 7.1.1.7)<100
7.1.2 If the percent solids determined Insection 7.1.1.1 Is equal to or greater than0.5%. then proceed either to section 7.1.1 todetermine whether the solid material re-quires particle sb* reduction or to section7. l .2.1 If It Is noticed that a small amount ofthe filtrate Is entrained In wettlm of thefilter. It the percent solids determined Insection 7.1.l.t Is less than «.»%, then pro-ceed to section 7.1* If the nonvolatile TCLPIs to be performed and to section 7.9 with afresh portion of the waste If the volatileTCLP Is to be performed.
7.1.1.1 Remove the solid phase and filterfrom the nitration apparatus.
7 1.1.2 Dry the filter and solid phase at100* t«rC until two successive weighingsyield the same value within ± 1%. Recordthe final weight.
NOOK Caution should be taken to ensurethat the subject solid will not Hash uponheattag. It Is recommended that the dryingoven be vented to a hood or other appropri-ate device.
7.1.1.1 Calculate the percent dry solids asfollows;
% dry solids -(Welt hi of dry waste 4 filter K-Ured weliht of filler
Initial weight of waste (section 7.1.1.5 or 7.1.1.7).100
7 1.2.4 If the percent dry solids Is lessthsn 0.5%. then proceed to section 7.2.* Ifthe nonvolatile TCLP Is to be performed,and to section 7.1 If the volatile TCLP Is tobr performed. If the percent dry solids Isgreater than or equal to 0.5%. and If thenonvolatile TCLP Is to be performed, returnto the beginning of this section (7.1) and.with a fresh portion of waste, determinewhether particle slse reduction Is necessary(section 7.1.3) and determine the appropri-ate extraction fluid (section 7.1.4). If onlythe volatile TCLP Is to be performed, seethe note In section 7.1.4.
71.3 Determination of whether thewaste requires particle she reduction (pani-cle »lw Is reduced during this step): Usingthe solid portion of the waste, evaluate thesolid for particle size. Particle stae reductionIs required, unless the solid has a surfacearcs per gram of material equal to or great-er than 3.1 cm*, or Is smaller than I cm InIts narrowest dimension (I.e.. Is capable of
passing through a 9.6 mm (0.375 Inch)•tandard sieve). If the surface area Is small-er or the partkle size larger than describedabove, prepare the solid portion of thewaste (or extraction by crushing, cutting, orgrinding? the watte to a surface area or par-ticle ste as described above. It the solids areprepared for organic volatile* extraction.special precautions must be taken (see sec
Note Surface area criteria are meant forfilamentous (e.g.. paper, cloth, and r.lmllsr)waste materials. Actual measurement of sur-face area Is not required, nor Is It recommended, for materials that do not obviouslymeet th* criteria, sample-specific methodswould need to be developed and employedto measure the surface area. Such methodology la currently not available.
7.1.4 Determination of appropriate extraction fluid: If the solid content of thewatte Is greater than or equal to 0.5% and Ifthe sample will be extracted for nonvolatile
68
Environmental Protection Agency
constituents (section 7 '2.1. di leiminc Mir approprlale fluid (section SI' Im Ihe nonvnlatiles extraction n-s follows
NOT*. TCI,I* rxlf.irlion Im volatile runslltucnls uses only cxliarl ion Iliiul H\ isretion 5.71). Therefore, if HI.I' ex t rac t ionfor nonvoladles is nni rci|iiu.'l pruned insort ion 7 X
1 1 4 1 Weigh out a small nhsampli ofthe solid phasr of tin1 «a..ie rcdm e thesolid (if necessary) I" a pailirlr sr/.c of approximalrly I nun in diaineici or less, andtransfer SO grains of (l ie- solid rha.sc of Ihrwaste lo a SOU ml, hrnki i m Kilcnmeverflask
7 I 4.2 Add !>« 5 ml. of rr:irrnl wa te r lotin- beaker, rover with « wa« liiilass. and stirvigorously for S minutes using a magneticsllrrpr Measure and reroid ihr pit. If Hiepit Is <5.0. use extraction fluid »1 Prixecdto sect Ion 7.2
7 I 4.3 If Ihe pH from section 7 1.4 2 is>5.0. add 35 ml. IN NCI. slurry briefly,cover with a walrhglass. he:ii lo 50(7. andhold al fiO'C for 10 minutes
7.1.4.4 Let the solution ronl lo room temperalure and record the pi I If the pi I is< 50. use extraction fluid *l If the pli is>5.0. use extraction fluid #2 I'riireed to sectlon 7.2.
7.1.5 If the aliquot of the waste used (orthe preliminary evaluation i sections 7 I.I7.1.4) was determined lo be 100% solid atsection 7.1.1.1. then it ran IT used for thesection 7 2 extraction (assuming al least 100grams remain), and the serlion 7..1 exlrarlinn (assuming at least 25 grains remain) IIthe aliquot wax subjected to Die procedureIn section 71 I 7. (lien another aliquot shallbe used for the volatile extract ion proeeilureIn section 73. The aliquot ol Ihe waste Mil)Jccled lo Ihe procedure In section 7 1 1 7might be appropriate for use lor the scrliivi72 extraction If an adequate amount ofsolid (as determined by serlion 7.1 I 9) wasobtained. The amount of solid necessary isdependent upon whether a sufficientamount of extract will be produced lo support the analyses If an adequate amount olsolid remains, proceed lo section 7 2 1 0 olthe nonvolatile TCLP extraction
7.2 Procedure When Volnliles are not Involved. A minimum sample sr/.e of ion grams(solid and liquid phases) Is reeommended Insome cases, a larger sample si/.c may be approprlate. depending on the solids contentof the waste sample (percent solids. See seclion 7.1.1). whether the initial liquid phaseof the waste will be mlsclble with the aqucous extract of the solid, and whether inorganlcs. semlvolatlle organlcs. pesticides, andherbicides are all analytes of concern.Enough solids should be generated for extraction such that the volume of TCLP extract will be sufficient lo support all ol theanalyses required. If the amount of extract
Part 761, App. II
generated liv a simile TCI.I' extraction willmil lie st i f lN u MI lo iicrfmm all ol the analvscs. more Iti.'lli one ext rac t ion MiaV l)i- perfmmcd and lite e > l i a i t s from each comtimed and alni'inled tm :m:\lysis
7 'J I II Die was te Hill iillHIHI.lv VII III III)
liriiiiil u hen suliieileit lo piessuie f i l t rat ionl i e . is MM)1; solid si e si < don T i l l , weighnut a suhsamplc ol tin Ma.sle i IOO rimiiiiiniiiiiin» ami nun ceil lo section 7 2 itll'l II Ihe sample is luiiiid in iiiulliph.-i
sic. liituid, solid separation ts required This1
ininhcs (tie fill radon device described insei don 4 :t 'i ami is mil lined in sect inns 7 '1 :<In 7 2 B
72.1 I're neigh the i iml.imci that willreceive the f i l t rate
724 Assemble the filler holder nnd fillerfollriwini: the manufai I urer's instructionsPlace tin- filler on I lie support screen andsecure Acid wa-sh Hie fi l ter if evaluating Ihemobility of metals (sec section 4 4i
NOT* Arid washed f i l ters may be used forall nonvolatile extractions even when metalsare nol of concern
7.2 5 Weigh out a sue/sample of Ihe waste(IOO gram minimum) and record I lie weightIf the waste contains < U 5% dry solids (seclion 7.1 2). the liquid portion of the waste,after filtration. Is defined as the TCLP extract. Therefore, enough of the sampleshould be filtered so that ihe amount of fittered li<|i:id will support all of flic analysesrequired of the TCLP extract. For wastescontaining .05% dry solids (sections 7 1 Ior 7 I 2). use the perccni solids informationobtained In section 7 I I to determine theoptimum sample sine ill>0 KIBIII minimum!for fill rat Kin plnoiigli solids should he gencrated hv f i l t ial ion to support the analyseslo he performed on the ICI.P exliact
726 Allow slurries In sland to permitthe solid pha-se lo settle Wastes that settleslowly may tie cent rifiiKed prior to filtratlon Use centrifiigalion only as an aid lo fil(ration If the waste is centrlfuged. (heliquid slioiiM he decanted arid filtered followed by filtration ol the solid portion ofthe wa-slc through Ihe same filtrationsystem
727 Quantitatively transfer Ihe wastesample < liquid nnd solid phases) to the filterholder (see serlion 4 3 2 ) Spread the wastesample evenly over the surface of the filterIf filtration of the waste al 4 X' reduces theamount ol expressed liquid over whal wouldbe expressed al room temperature, thenallow Die sample lo warm up lo room temperalure In ihe device before filtering.
NOTE: If waste material ( > 1% of the orlglnal sample weight) has obviously adhered toIhe container used to transfer the sample (othe hltradon apparatus, determine theweight o( this residue and subtract It fromthe sample weight determined In serlion
69
Psjrt 961, App. II
7.2.9. to determine the weight of the wastesample that will be filtered.
Gradually apply vacuum or gentle pres-lure of I-IO psl. until air or pressurising gasmovps throufh the Niter. If into point I*reached under 10 psl. and If no additionalliquid has pasted through the filter In any 2minute Interval, slowly Increase the pres-sure in 10 put Increments to a maximum of50 psl After each Incremental Increase of 10psl. If the pressurizing (ai has not movedthrough the filter, and If no additionalliquid has passed through the filter In any 2minute Interval, proceed to the next 10 pslIncrement. When the pressurising gasbegins lo move through the filter, or whenthe liquid (low nan ceased at SO pal (I.e.. flltralinn does not result In any additional fil-trate wllhln a 2 minute period), stop the flltriil Ion
NOTE: Instantaneous application of highpresMirc ran degrade the glass fiber filterand mity cause premature plugging.
128 Thr material In the filter holder Isdefined as the solid phase of the waste, andthr rill rate Is defined ax the liquid phase.Weigh the filtrate. The liquid phase maynow be either analysed (See section 7.2.12)or stored at 4'C until time of analysts.
Korc: Some waste*, such a* oily wastesand some paint wastes, will obviously con-tain some material that appear* to be aliquid Even after applying vacuum or pres-sure filtration, as outlined In section 1.2.7.this material may not filter. If this Is thecane, the material within the filtrationdevice Is defined as a solid and la carriedthrough the extraction as a solid. Do not re-place the original filter with a fresh filterunder any circumstances. Use only onefiller
129 If the waste contains <0.»% drysolids (see section 7.1.2). proceed to section7.2.13 If the waste contains >0.5% drysolids (see section 7.1.1 or 7.1.2). and If parti-cle size reduction of the solid was needed Insection 7.1.3. proceed to section 7.X.10. If thewaste- as received passes a V.S mm sieve,quantitatively transfer (he solid materialInto the extractor bolde along with the(liter used to separate the Initial liquid fromthr solid phase, and proceed to section72 11
12 10 Prepare the solid portion of thewaste for extraction by crushing, cutting, orgrinding the waste to a surface area or par-ticle size as described In section 7.1.3. Whenthr surface area or particle slie has been ap-propriately altered, quantitatively transferthr solid material Into an extractor bottle.Includr the filler used to separate the Ini-tial liquid from the solid phase.
NOTE: Sieving of the waste Is not normallyrequired. Surface area requirements aremmnt for filamentous <e.g.. paper, cloth)
40 Cra Ch. I (7-1-90 Edition)
and similar waste materials. Actual meas-urement of surface area to nol recommend-ed. If sieving Is necessary, a Teflon-coatedsieve should be used to avoid contaminationof the sample.
7.2.11 Determine the amount of extrac-tion fluid to add to the extractor vessel asfollows:
Weight ofextraction -
fluid
MX percent solids (section7.1.l)xweight of wastefiltered (section 7.2.5 or
7.J.7)
100
Slowly add thto amount of appropriate ex-traction fluid (ace section 7.1.4) to the ex-tractor vessel. Close the extractor bottletightly (It to recommended that Teflon tapebe used to ensure a tight seal), secure Inrotary agitation device, and rotate at 30 • 2rpm for !• ± 2 hours. Ambient temperature(I.e.. temperature of room In which extrac-tion takes place) shall be maintained m 23i rC during the extraction period.
NOTE A* agitation continues, pressuremay build within the extractor bottle forsome type* of wastes (e.g.. limed or calciumcarbonate containing waste may evolvegaaea such as carbon dtoxMe). To relieveexcess pressure, the extractor bottle may beperiodically opened (e.g.. after IS minutes.30 minutes, and 1 hour) and vented Into ahood.
7.1.13 Following the U t 2 hour extrac-tion, separate the material In the extractorvessel Into Its component liquid and solidphasss) by filtering through a new glassfiber fitter, as outlined In section 7 2.1 Forfinal filtration of the TCLP extract, theglasa flbar filter may b« changed. If neces-sary, to facilitate filtration, Fllterts) shallbe acid-washed (ace section 4.4) If evaluatingthe mobility of metals.
7.2.1J .Prepare the TCtP extract as follows:
7 2 11.1 If the waste contained no initialliquid pha**. the filtered liquid material oblamed from section 7.2.11 to defined as theTCLP extract Proceed to section 7.2. M
7.2.11.1 If cosapatlble (e.g.. multiplephase* will not result on combination), com-bine the filtered liquid resulting from sec-lion 7.2,12 with the Initial liquid phase ofthe waste obtained In section 7.2.7. ThUcombined liquid to defined as the TCLP ex-tract. Proceed to section 7.2.14.
7.2.11.1 If the Initial liquid phase of thewaste, a* obtained from section 7.2.7. Is notor may not be compatible with the filteredliquid resulting from section 7.2.12. do notcombine tnese liquids. Analyse these liquids,collectively defined as the TCLP extract.
invlronmwntwJ Protoef Ion Agency
and combine the results mathematically Mdescribed In section 7.2.14
72.14 Following collection of thr TCI.Pextract, the pH of the extract should be rrcorded. Immediately aliquot and preservethe extract for analysis. Metals allquntsmust be addlfled with nitric acid to pll < 2If precipitation to observed upon addition ofnitric acid to a small aliquot of the extract,then the remaining portion ol the exlraclfor metals analyses shall not be acidifiedand the extract shall be analyzed as soon aspossible. All other ullquols must be storedunder refrigeration (4 'C> until analyzed.The TCLP extract shall be prepared andanalysed according to appropriate analyticalmethods. TCLP extracts to be analyzed formetals shall be acid digested except In thoseInstances where digestion causes loss ol melalllc analytes. If an analysis of the undlgested extract shows that the concentrationof any regulated metallic analyle exceedsthe regulatory level, then the waste Is hazardous and digestion of the exlracl Is nolnecessary. However, data on undigested extracts alone cannot be used to demonstratethat the waste Is nol hazardous. If the Indi-vidual phases are to be analyzed separately,determine the'volume of thr Individualphases (to ± 0.5*). conduct the appropriateanalyses, and combine the results mathe-matically by using a simple volume-weight-ed average:
Final AnalyteConcentration
(V.MCMi (V.KCi)
V, i V,
where:V, -The volume of the first phase <L>Ci~The concentration of the ftnalyle ol
concern In the first phase <mg/L>V,-The volume of the second phase (Li. >C, The concentration of the analyle of
concern In the second phase <mg/L>7.2.IS Compare the analyte concentra
tlons In thr TCLP exlracl with the levelsIdentified In the appropriate regulationsReler lo section BO (or quality assurance requlrrmentx.
73 Procedure When Volatile* are Involved. Use Ihe 7.11 F, device lo obtain TCI.Pcxlract for analysis of volatile compoundsonly. Exlracl resulting from Ihe use of tin2,11 E shall nol be used to evaluate the mublllly of nonvolatile analytes <e.g . mclal.vpesticides, elc.)
The ZHE device has approximately a 5OOml- internal capacity The /.IIF. can f inis accommodale a maximum ol 2r> grams n( solid(defined as that fraction of a sample fromwhich no additional luimd may be forced
Port 761, App. II
out by an applied pressure of 50 psl). due loIhe need lo aild an amount of extractionfluid equal to 1!" limes I lie weight of Hiesolid phase.
Charge the 7.IIE with sample only onceand do nol open the device until the finalexlract (of the solid) has been collected. Repealed (Illlng of the ZHE to obtain 25 gramsof solid Is not permitted
Do nol allow Ihe waste, the Initial liquidpha.se or the extract to be exposed lo theatmosphere loi any more lime than Is absolutely necessary Any manipulation of thesematerials should be done when cold <4 'C) tominimize loss <>( volatile*
7.31 Pre weigh Ihe (evacuated) f i l t ratecollect ion container (See section 4 6) and setaside II using a TEDLAR- bag. express allliquid from the ZHE device Into Ihr bag.whether for the Initial or final liquid/solidseparation, and lake an aliquot from theliquid In the bag for analysis. The containcrs listed In set lion 46 are recommended loruse under the conditions slated In sections46 I 463
7.3.2 Place Ihe ZHE piston wi th in thebody of the ZHE (it may be helpful first lomoisten Ihe piston O rings slightly with extraction fluid) Adjust the piston wllhln IhrZHE body to a height that will minimize thedistance the piston will have to move oncethe ZHE is charged with sample (basedupon sample size requirements determinedfrom section 7.3. section 7.1.1 and/or 7.1.2)Secure the gas inlet/outlet (lange (bottomflange) onto (he ZHE body In accordancewilh the manufacturers InstructionsSecure Ihe ulasis fiber (liter between thesupport screens and set aside Set liquidInlet/outlet f lange (top (lange) aside
7.33 If Ihe waste Is 100% solid (see seclion 1 1 1 ) , weigh out a subsample <25 grammaximum) ol the waste, record weight, amiproceed lo section 7 3.5.
7 34 II Ihe waste contains • 5% drysolids (section II 2), the liquid portion ofwaste, alter l i l lrf t t ion. is defined as theTCI.P extract Filler enough of the sampdso that the amount ol filtered liquid w i l lsupport hll ol the volatile analyses requiredFor wastes containing 5% dry solids <se<lions 7 1 1 and/or 1 I 2). use the pciccnisolids Informat ion obtained In section 7 I Ilo determine Ihe optimum sample size iicharge Into I lie /HE The rcciiiiimciulei 'sample siw is :is (ollows
7 . 1 4 1 For waste containing -5% solid(see Sen inn 1 1 1 ) , weigh out a SOO g r a nstiUsample fit *a.stc and record the weight
7 . 3 4 2 Fur wiMrs containing ?>"„ solid(sec Sect ion 7 1 1 ) . determine Ihe amount ov»asl< to r l i n r r i - in to the 7.HF. a.s fo l l ows
7071
Part 261, App II
Weight of waste lo charge ZHE
Weigh out a lubsample of the waste of theappropriate size and record the weight.
7.3.5 If particle lire reduction of the solidportion of the waste was required In section7.1.3. proceed lo section 7.3.0. If particle steereduction was not required In section 7.1.3.proceed to section 7.3.7.
7.3.6 Prepare the waste for extraction bycrushing, cutting, or grinding the solid por-tion of the wasle to a surface area or parti-cle size as described In section 7.1.3.1.Wastes and appropriate reduction equip-ment should he refrigerated. If possible, to4'C prior to particle size reduction Themeans used to effect particle she reductionmust not generate heat In and of Itself. Ifreduction of the solid phase of the waste Isnecessary, exposure of Ihe waste to the at-mosphere should be avoided lo the extentpossible.
Note: Sieving of the wasle to not recom-mended due to the pomlblllty that volalllesmay be lout. The use of an appropriatelygraduated ruler is recommended as an ac-ceptable alternative. Surface area require-ments are meant lor filamentous (e.g..paper, cloth) and similar wasle materials.Actual measurement of surface area Is notrecommended.
When the surface area or panicle size hasbeen appropriately altered, proceed lo sec-lion 7.3.7.
7.3.7 Waste slurries need not be allowedto stand to permit Ihe solid phaae to settle.Do not centrifuge wastes prior to filtration.
7.3.8 Quantllallvely transfer the entiresample (liquid and solid phases) quickly lothe ZHE. Secure Ihe tiller and supportscreens onto the top flange of the deviceand secure Ihe lop flange lo the ZHE bodyIn accordance with Ihe manufacturer's In-structions. Tighten all ZHE fittings andplace the device In Ihe vertical position (gasinlel/oullel flange on the bottom). Do nol•Horn the exlrarl collection device to thelop plale
NOTE: If waste material (>I% of originalsample weight) has obviously adhered tothe container used to transfer Ihe sample lothe ZHE. determine the weight of this resi-due and sublrarl It from the sample weightdetermined In section 7.3.4 to determine thewrlght ol I lie waste sample that will be fil-tered.
Attach a gas line to the gas Inlel/oiiHrlvalve (bottom llangr) and. with the liquidInlet/otitlrl valve (top llangr) open, beginapplying genllc pressure ol I 10 psl (ormore If necessary) to force all hcad.spacr
40 CFI Oi. I (7-1-90
35
percent wild* (section 7.1.1)xlOO
(lowly out of the ZHE device Into • hood. Atthe first appearance of liquid from theliquid Inlet/outlet valve, quickly close thevalve and discontinue praature. II durationof the waste at 4 *C reduce* the amount ofexpreaied liquid over what would be expieiatd at room temperature, then allowthe (ample to warm up to room temperatureIn the device before filtering. If the wade Is100% aolM ((ee section 1.1.1). (lowly In-crease the pressure to a maximum of 50 pslto force most of the headapace out of thedevice and proceed to section 7.3.12.
I.J.t Attach the evacuated pre weighedfiltrate collection container to the liquidInlet/outlet valve and open the valve. Beelnapplying tentle pressure of 1-10 psl to forcethe liquid phaae of the aample Into the fitirate collection container. If no additionalliquid ha* paved through the filter In any 2minute Interval, (lowly Increase the pres-sure In 10 psl increment* to a maximum of50 pat After each Incremental Increase of 10pal. If no additional liquid hax passedthrough the filter In any 2 minute Interval,proceed to the next 10 psl Increment. Whenliquid flow has ceased such that continuedpressure filtration al SO psl does not resultIn any additional filtrate within a 2 minuteperiod, stop the filtration. Close the liquidInlet/outlet valve, discontinue pressure inthe piston, and disconnect and weigh ihe fil-trate collection container.
Norr. Instantaneous application of highpressure can degrade the glass fiber filterand may cause premature plugging.
7.1.10 The material In the ZHE Is definedas the solid phase of the waste and the IIIIrate Is defined as the liquid phase.
NOTE; Some wastes, such as oily waste*and some paint waslea, will obviously conlain some material that appears to be aliquid. Even after applying pressure filtra-tion, this material will not filter. If this Isthe case, the material within the filtrationdevice I* defined as a solid and Is carriedthrough the TCL.P extraction as a solid.
If the original waste contained <0 5% drysolid* (see section 7.1.2). this filtrate I* tif-fined as the TCLP extract and Is analyzeddirectly. Proceed to section 7.3 15.
7.1.11 The liquid phase may now beeither analyzed Immediately iSee sections7 3 13 through 7315) or stored al 4'C underminimal headspace conditions until time o(analysis.
Determine the weight of extraction fluid»1 to add lo the ZHE as follows:
Environmental Protection Agency
Wright of extractionfluid
Part 261, App. II
20 • pc-rrrnl solids (section7 1 I > • weight <>l waste filt.-ird
ISfCllnii 7 :i 4 or 1 3 R)
lull
7 3 1 2 The lollowmi; sections detail howlo add llir appropriate amount ol extractionfluid lo Hie soli.I material wiilun the 7,llt:and agitation ol the /.UK VCS.M I Extractionfluid #1 is used in all eases (See section S 71
73 12.1 With Ihe ZIIK in Hi- vrrtiral posltion. attach a line from DM- extractionfliilrl reservoir lo the liquid inlel/oillIrlvalve The line used shall contain fresh extraction fluid and should be on-Hushed withfluid lo eliminate any air pockets In theline. Release gas pressure on the ZHEpiston (from the gas Inlet/outlet valve).open the liquid Inlel/oullel valve, and begintransferring extraction fluid <bv pumping orsimilar means) Into the ZHE. Continuepumping extraction fluid Into Ihe ZHE untilthe appropriate amount of fluid has beenIntroduced Into the device.
7.3.12.2 After the extraction fluid hasbeen added. Immediately close the liquidInlet/outlet valve and dlsronnecl the extrac-tion fluid line. Check the ZHE to ensurethat all valves are In their closed positions.Manually rotate the device In an end-over-end fashion 2 or 3 limes. Reposition theZHE In the vertical position with Ihe liquidInlet/outlet valve on lop. Pressurize theZHE lo 5-10 psl (If necessary) and slowlyopen Ihe liquid Inlel/oullel valve lo bleedout any headspace (Into a hood) that mayhave been Introduced due lo the addition ofextraction fluid. This bleeding shall be donequickly and shall be slopped at the first afpearanre of liquid from the valve Re-pressurlze the ZHE with 5 10 psl and check allZHE fillings to ensure that they are closed.
7.3.12.3 Place the ZHE in the rotary agltatlon apparatus (If It Is not already there)and rotate at 30 t 2 rpm for 18 • 2 hours.Ambient temperature (I.e.. temperature ofroom In which extraction occurs) shall bemaintained at 22 ± 3'C during agitation.
7.3.11 Following the 18 • 2 hour agita-tion period, check the pressure behind theZHE piston by quickly opening and closingthe gas Inlet/outlet valve and noting theescape of gas. If the pressure has nol been
Final AnallyeOmcenlrallon
where:Vi-The volume of Ihe first phases (L).
mi r:iN i« le:i.se obsnvdi.akniK ( l ink llir /lit: (01ted in M-cliim 4 2 1 . nnil prrmillion :ir..iin with .1 new
II the pressure within (heiii.iinlaiiii d. the material Inssel is once again sepniated
Ihe (let i«leakinr :i*form Ihe exlsample of u'.i.sdevice h.i-s nert he ext ntclnrInlu Its IOIIIDO nil liquid and solid phases.If Ihe wa.slr contained an initial liquidphase. Ihe liquid may he filtered directlyInlo the same lilt rate collection container(I.e.. TEDLAK- bag) holding the Initialliquid phase of Ihe waste A separate filtratecollection container must or usnl If comblninft would create mulllplr phases, or there isnol enough volume left within the filtratecollection container Filter through theglass fiber filter, using the ZHE device asdiscussed In section 7.39 All extract shallbe filtered and collected If the TEOLAR-bag Is used. If Ihe extract Is multlphaslc. orIf the waste contained an initial liquid phase(see sections 4.6 and 7.3.1 >.
NOTE: An In line glass fiber filler may beused lo filler the material within the ZHE IfIt Is suspected that Ihe glass fiber filter hasbeen ruptured.
7.3.14 If the original waste contained noInitial liquid phase, the filtered liquid material obtained from section 7.3.13 Is definedas the TCLP extract. II I he waste containedan Initial liquid phase, the filtered liquidmaterial obtained from section 7.3 13 andthe Initial liquid phasr (section 73.91 arecollectively defined as the TCLP extract.
7.3.15 Following collection of the TCI.Pextract. Immediately prepare the extract foranalysts and store with minimal headspaceal 4-C until analyzed. Analyze the TCLP extracl according to the appropriate analyticalmethods If the Individual phases are lo beanalyzed separately t i e . are not mlsclblei.determine the volume of the Individualphases (lo 05%). conduct the appropriateanalyses, and combine the results matheradically by using a simple volume weighted average:
I V . M C , ) i (V,)«:,)
V, < V,
73