63394 Federal Register / Vol. 85, No. 195 / Wednesday, October 7, 2020 / Rules and Regulations 
ENVIRONMENTAL PROTECTION 
AGENCY 
40 CFR Parts 51, 60, 61, and 63 
[EPA–HQ–OAR–2018–0815; FRL–10012–11– 
OAR] 
RIN 2060–AU39 
Test Methods and Performance 
Specifications for Air Emission Sources 
AGENCY : Environmental Protection 
Agency (EPA). 
ACTION : Final rule. 
SUMMARY : This action corrects and 
updates regulations for source testing of emissions. These revisions include corrections to inaccurate testing provisions, updates to outdated procedures, and approved alternative procedures that will provide flexibility to testers. These revisions will improve the quality of data and will not impose any new substantive requirements on source owners or operators. 
DATES : The final rule is effective on 
December 7, 2020. The incorporation by reference of certain materials listed in the rule is approved by the Director of the Federal Register as of December 7, 2020]. The incorporation by reference of certain other materials listed in the rule was approved by the Director of the Federal Register as of July 6, 2006. 
ADDRESSES : The EPA has established a 
docket for this action under Docket ID No. EPA–HQ–OAR–2018–0815. All documents in the docket are listed on the http://www.regulations.gov website. 
Although listed in the index, some information is not publicly available, e.g., confidential business information 
or other information whose disclosure is restricted by statute. Certain other material, such as copyrighted material, is not placed on the internet and will be publicly available only in hard copy. Publicly available docket materials are available electronically through http://www.regulations.gov. 
FOR FURTHER INFORMATION CONTACT : Mrs. 
Lula H. Melton, Office of Air Quality Planning and Standards, Air Quality Assessment Division (E143–02), Environmental Protection Agency, Research Triangle Park, NC 27711; telephone number: (919) 541–2910; fax number: (919) 541–0516; email address: melton.lula@epa.gov. 
SUPPLEMENTARY INFORMATION : 
The supplementary information in 
this preamble is organized as follows: 
Table of Contents 
I. General Information A. Does this action apply to me? 
B. What action is the Agency taking? C. Judicial Review 
II. Background III. Incorporation by Reference IV. Summary of Amendments 
A. Method 201A of Appendix M of Part 51 B. General Provisions (Subpart A) of Part 
60 
C. Standards of Performance for New 
Residential Wood Heaters (Subpart AAA) of Part 60 
D. Standards of Performance for Municipal 
Solid Waste Landfills That Commenced Construction, Reconstruction, or Modification After July 17, 2014 (Subpart XXX) of Part 60 
E. Standards of Performance for 
Commercial and Industrial Solid Waste Incineration Units (Subpart CCCC) of Part 60 
F. Emission Guidelines and Compliance 
Times for Commercial and Industrial Solid Waste Incineration Units (Subpart DDDD) of Part 60 
G. Standards of Performance for Stationary 
Spark Ignition Internal Combustion Engines (Subpart JJJJ) of Part 60 
H. Standards of Performance for Stationary 
Combustion Turbines (Subpart KKKK) of Part 60 
I. Standards of Performance for New 
Residential Wood Heaters, New Residential Hydronic Heaters and Forced-Air Furnaces (Subpart QQQQ) of 
Part 60 
J. Method 4 of Appendix A–3 of Part 60 K. Method 5 of Appendix A–3 of Part 60 L. Method 7C of Appendix A–4 of Part 60 M. Method 7E of Appendix A–4 of Part 60 N. Method 12 of Appendix A–5 of Part 60 O. Method 16B of Appendix A–6 of Part 60 P. Method 16C of Appendix A–6 of Part 60 Q. Method 24 of Appendix A–7 of Part 60 R. Method 25C of Appendix A–7 of Part 60 S. Method 26 of Appendix A–8 of Part 60 T. Method 26A of Appendix A–8 of Part 60 U. Performance Specification 4B of 
Appendix B of Part 60 
V. Performance Specification 5 of 
Appendix B of Part 60 
W. Performance Specification 6 of 
Appendix B of Part 60 
X. Performance Specification 8 of 
Appendix B of Part 60 
Y. Performance Specification 9 of 
Appendix B of Part 60 
Z. Performance Specification 18 of 
Appendix B of Part 60 
AA. Procedure 1 of Appendix F of Part 60 BB. Appendix B to Part 61—Test Methods CC. Method 107 of Appendix B of Part 61 DD. General Provisions (Subpart A) of Part 
63 
EE. Portland Cement Manufacturing 
(Subpart LLL) of Part 63 
FF. Method 301 of Appendix A of Part 63 GG. Method 308 of Appendix A of Part 63 HH. Method 311 of Appendix A of Part 63 II. Method 315 of Appendix A of Part 63 JJ. Method 316 of Appendix A of Part 63 KK. Method 323 of Appendix A of Part 63 
V. Public Comments on the Proposed Rule VI. Statutory and Executive Order Reviews 
A. Executive Order 12866: Regulatory 
Planning and Review and Executive Order 13563: Improving Regulation and Regulatory Review B. Executive Order 13771: Reducing 
Regulations and Controlling Regulatory Costs 
C. Paperwork Reduction Act (PRA) D. Regulatory Flexibility Act (RFA) E. Unfunded Mandates Reform Act 
(UMRA) 
F. Executive Order 13132: Federalism 
G. Executive Order 13175: Consultation 
and Coordination With Indian Tribal Governments 
H. Executive Order 13045: Protection of 
Children From Environmental Health Risks and Safety Risks 
I. Executive Order 13211: Actions 
Concerning Regulations That Significantly Affect Energy Supply, Distribution or Use 
J. National Technology Transfer and 
Advancement Act (NTTAA) and 1 CFR Part 51 
K. Executive Order 12898: Federal Actions 
To Address Environmental Justice in Minority Populations and Low-Income Populations 
L. Congressional Review Act (CRA) 
I. General Information 
A. Does this action apply to me? 
The revisions promulgated in this 
final rule apply to industries that are 
subject to the current provisions of 40 Code of Federal Regulations (CFR) parts 51, 60, 61, and 63. We did not list all of the specific affected industries or their North American Industry Classification System (NAICS) codes herein since there are many affected sources in numerous NAICS categories. If you have any questions regarding the applicability of this action to a particular entity, consult either the air permitting authority for the entity or your EPA Regional representative as listed in 40 CFR 63.13. 
B. What action is the Agency taking? 
We are promulgating corrections and 
updates to regulations for source testing 
of emissions. More specifically, we are correcting typographical and technical errors, updating testing procedures, and adding alternative equipment and methods the Agency has deemed acceptable to use. 
C. Judicial Review 
Under section 307(b)(1) of the Clean 
Air Act (CAA), judicial review of this 
final rule is available by filing a petition for review in the United States Court of Appeals for the District of Columbia Circuit by December 7, 2020. Under section 307(d)(7)(B) of the CAA, only an objection to this final rule that was raised with reasonable specificity during the period for public comment can be raised during judicial review. Moreover, under section 307(b)(2) of the CAA, the requirements that are the 
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subject of this final rule may not be 
challenged later in civil or criminal proceedings brought by the EPA to enforce these requirements. 
II. Background 
The EPA catalogs errors, corrections, 
and approved alternatives to test 
methods, performance specifications, and associated regulations in 40 CFR parts 51, 60, 61, and 63 and updates and revises these provisions periodically. The most recent revisions to testing regulations for air emission sources were proposed in the Federal Register on December 13, 2019 (84 FR 68069). The public comment period ended February 11, 2020, and 18 comment letters were received from the public; 13 of the comment letters were relevant, and the other 5 comment letters were considered beyond the scope of the proposed rule. This final rule was developed based on public comments that the agency received on the proposed rulemaking. 
III. Incorporation by Reference 
Consistent with the proposal, EPA has 
incorporated by reference various 
consensus standards. Specifically, the 
EPA has incorporated ASTM D 2369– 10, which covers volatile organic content of coatings, in Method 24. In addition, in response to comments the EPA has incorporated ASTM D5623–16 and ASTM D7039–15a in subpart KKKK of part 60, which involves procedures for determining the sulfur content of liquid fuels. These standards were developed and adopted by ASTM International and may be obtained from http://www.astm.org or from the ASTM 
at 100 Barr Harbor Drive, P.O. Box C700, West Conshohocken, PA 19428–2959. 
The EPA has incorporated by 
reference SW–846 Method 6010D and SW–846 Method 6020B in Method 12. Method 6010D covers inductively coupled plasma-atomic emission spectrometry (ICP–AES) analysis, and Method 6020B covers inductively coupled plasma-mass spectrometry (ICP–MS) analysis. These methods may be obtained from https://www.epa.gov or from the U.S. Environmental Protection Agency, 1200 Pennsylvania Avenue NW, Washington, DE 20460. 
The EPA has incorporated by 
reference Gas Processors Association (GPA) 2140 and GPA 2261 in subpart KKKK of part 60, which involve procedures for determining the sulfur content of gaseous fuels. The EPA also incorporated by reference GPA 2166 and GPA 2174 in subpart KKKK of part 60, which involve procedures for obtaining samples from gaseous and liquid fuels, respectively. These GPA standards were developed and adopted by the Gas Processors Association and may be obtained from https://gpamidstream.org/ or from the Gas 
Processors Association, 6526 East 60th Street, Tulsa, OK 74145. 
The EPA has incorporated by 
reference International Organization for Standardization (ISO) 10715 in subpart KKKK of part 60. This standard involves procedures for obtaining samples from gaseous fuels. This standard was developed by the International Organization for Standardization and may be obtained from https://www.iso.org/home.html or from the IHS 
Inc., 15 Inverness Way East, Englewood, CO 80112. 
The EPA incorporated by reference 
American Petroleum Institute (API) Manual of Petroleum Measurement Standards, Chapter 14—Natural Gas Fluids Measurement, Section 1— Collecting and Handling of Natural Gas Samples for Custody Transfer (MPMS 14.1) in subpart KKKK of part 60. This standard involves procedures for manually obtaining sampling from gaseous fuels. This standard was developed by the American Petroleum Institute and may be obtained from https://api.org/ or from the American 
Petroleum Institute, 1220 L Street NW, Washington, DC 20005. 
ASTM D4057–5 (Reapproved 2000), 
ASTM D4177–95 (Reapproved 2000), ASTM D5287–97 (Reapproved 2002), ASTM D6348–03, ASTM D6784–02 (Reapproved 2008), and ASME PTC 19.10–1981 were previously approved for incorporation by reference, and no changes were proposed. 
The EPA updated the ASTM 
standards referenced in Method 311, but these standards are not incorporated by reference. The EPA did not update the ASTM standards referenced in Performance Standard 18, which are not incorporated by reference. 
IV. Summary of Amendments A. Method 201A of Appendix M of Part 
51 
Consistent with our proposal, in 
Method 201A, section 1.2, the erroneous gas filtration temperature limit of 30 °C is revised to 29.4 °C. In section 1.6, the erroneous word ‘‘recommended’’ is corrected to ‘‘required.’’ Section 6.2.1(d) is revised to allow polystyrene petri dishes as an alternative to polyethylene due to the lack of commercially available polyethylene petri dishes. The polystyrene petri dishes offer similar chemical resistivity to acids and inorganics as polyethene and have been shown to transfer extreme low residual gravimetric mass to filters when used in ambient air applications. In section 8.6.6, the erroneous stack temperature of ± 10 °C is revised to ± 28 °C. In section 
17.0, the erroneous caption for Figure 7 is corrected from ‘‘Minimum Number of Traverse Points for Preliminary Method 4 Traverse’’ to ‘‘Maximum Number of Required Traverse Points,’’ and the erroneous y-axis label is corrected from ‘‘Minimum Number of Traverse Points’’ to ‘‘Maximum Number of Traverse Points.’’ 
B. General Provisions (Subpart A) of 
Part 60 
Consistent with our proposal, in the 
General Provisions, 40 CFR 60.17(h) is revised to add ASTM D2369–10 to the list of incorporations by reference and to re-number the remaining consensus standards that are incorporated by reference in alpha-numeric order. 
In 40 CFR 60.17(j) is revised to add 
SW–846–6010D and SW–846–6020B to the list of incorporations by reference and to re-number the remaining standards that are incorporated by reference in alpha-numeric order. 
In 40 CFR 60.17(k) is revised to add 
GPA Standards 2166–17 and 2174–14 to the list of incorporations by reference and to re-number the remaining GPA standards that are incorporated by reference in alpha-numeric order. 
In 40 CFR 60.17(l) is revised to add 
ISO 10715:1997 to the list of incorporations by reference. 
C. Standards of Performance for New 
Residential Wood Heaters (Subpart AAA) of Part 60 
In 40 CFR 60.534(h), the language is 
amended based on comments received in response to an Advance Notice of Proposed Rulemaking (ANPRM), for Standards of Performance for New Residential Wood Heaters, New Residential Hydronic Heaters and Forced-Air Furnaces (83 FR 61585, November 30, 2018). Several commenters stated that the final clause of these existing paragraphs would create loopholes that allow manufacturers and test labs to withhold critical testing data. The EPA recognizes that this provision was not intended to create an avenue for omissions and is clarifying these communications and their reporting. 
D. Standards of Performance for 
Municipal Solid Waste Landfills That Commenced Construction, Reconstruction, or Modification After July 17, 2014 (Subpart XXX) of Part 60 
In 40 CFR 60.766(a)(3), the text for 
calibration of temperature measurement is revised to provide clarity and 
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improve the consistency of 
implementation, as proposed. 
E. Standards of Performance for 
Commercial and Industrial Solid Waste Incineration Units (Subpart CCCC) of Part 60 
Consistent with our proposal, Subpart 
CCCC of Part 60 is revised to clarify that (1) initial and annual performance testing for particulate matter (PM) for waste-burning kilns and energy recovery units (ERU) is to be conducted using Method 5 or Method 29 of Appendix A of Part 60; (2) the required particulate matter continuous parameter monitoring system (PM CPMS) is used to demonstrate continuing compliance with the PM emission limit; and (3) heat input information must be reported for each ERU. The current language in 40 CFR 60.2110(i), (i)(1)(iii) and 60.2145(b), when read together, make it clear that for purposes of demonstrating compliance with the PM emission limit, there must be initial testing and subsequently, annually and for ongoing continuous demonstration of compliance, that data from the compliant performance test in turn must be used to set an operating limit for the PM CPMS. 
Paragraphs 60.2110(i)(1) and 
60.2145(j) are revised to clarify that the PM CPMS coupled with an operating limit is used for continuing compliance demonstration with the PM emission limit. Paragraphs 60.2110(i)(1)(iii) and (i)(2) are revised to include Method 29 as an alternative to Method 5 to measure PM in determining compliance with the PM emission limit. Paragraph 60.2145(j) is also revised to add PM to the list of pollutants for which performance tests are conducted annually. Paragraph (p) is added to 40 CFR 60.2210 to require that annual reports include the annual heat input and average annual heat input rate of all fuels being burned in ERUs in 
order to verify which subcategory of ERU applies. 
The required annual performance test 
timeframe is changed from ‘‘between 11 and 13 calendar months following the previous performance test’’ to ‘‘no later than 13 calendar months following the previous performance test’’ in paragraphs 60.2145(y)(3) and 60.2150. The current 2-month testing range can present operational and testing challenges for facilities that have multiple commercial and industrial solid waste incineration (CISWI) units. In addition, this revision is consistent with other rules, such as the National Emission Standards for Hazardous Air Pollutants from Hazardous Waste Combustors, that maybe applicable to CISWI units. Tables 6 (Emission Limitations for 
Energy Recovery Units) and 7 (Emission 
Limitations for Waste-Burning Kilns) are revised to clarify the performance test method for PM. The fourth column of the ‘‘Particulate matter (filterable)’’ row of Table 6 is revised to remove the requirement to use a PM CPMS as the performance test method for large ERU. The fourth column of the ‘‘Particulate matter (filterable)’’ row of Table 7 is revised to remove the requirement to use a PM CPMS and to instead specify Methods 5 and 29 as alternatives for measuring PM to determine compliance with the PM limit. The third column of the ‘‘Particulate matter (filterable)’’ row of Table 7 is changed from a 30-day rolling average to specify a 3-run average with a minimum sample volume of 2 dry standard cubic meters (dscm) per run. 
F. Emission Guidelines and Compliance 
Times for Commercial and Industrial Solid Waste Incineration Units (Subpart DDDD) of Part 60 
Consistent with our proposal, subpart 
DDDD of part 60 is revised to clarify that (1) initial and annual performance testing for PM for waste-burning kilns and ERU is to be conducted using Method 5 or Method 29 of Appendix A of part 60; (2) the required PM CPMS is used to demonstrate continuing compliance with the PM emission limit; and (3) heat input information must be reported for ERU. The current language in 40 CFR 60.2675(i) and (i)(1)(iii) and 60.2710(b), when read together, makes it clear that for purposes of demonstrating compliance for PM, performance testing must be used initially and then annually while for purposes of ongoing continuous demonstration of compliance, data from the compliant performance test is in turn to be used to set an operating limit for the PM CPMS. 
Paragraphs 60.2675(i)(1) and 
60.2710(j) are revised to clarify that the 
PM CPMS is used for continuing compliance demonstration with the PM emission limit. Paragraph 60.2710(j) is also revised to clarify that PM performance tests are conducted annually and 40 CFR 60.2675(i)(1)(iii) and (i)(2) are revised to include Method 29 as an alternative to Method 5 to measure PM in determining compliance with the PM emission limit. 
Also, the required annual 
performance test timeframe is changed from ‘‘between 11 and 13 calendar months following the previous performance test’’ to ‘‘no later than 13 calendar months following the previous performance test’’ in 40 CFR 60.2710(y)(3) and 60.2715. The current 2-month testing range can present operational and testing challenges for 
facilities that have multiple CISWI units. Additionally, we note that this revision is consistent with other rules, such as the National Emission Standards for Hazardous Air Pollutants from Hazardous Waste Combustors that might be applicable to CISWI units. 
Tables 7 (Emission Limitations for 
Energy Recovery Units) and 8 (Emission Limitations That Apply to Waste- Burning Kilns) are revised to clarify the performance test method for PM. The fourth column of the ‘‘Particulate matter filterable’’ row of Table 7 is revised to remove the requirement to use a PM CPMS as the performance test method for large ERU. The fourth column of the ‘‘Particulate matter filterable’’ row of Table 8 is revised to specify Methods 5 and 29 as alternatives for measuring PM to determine compliance with the PM emission limit. The third column of the ‘‘Particulate matter filterable’’ row of Table 8 is changed from a 30-day rolling average to specify a 3-run average with 
a minimum sample volume of 1 dscm per run. 
G. Standards of Performance for 
Stationary Spark Ignition Internal Combustion Engines (Subpart JJJJ) of Part 60 
In Table 2 of subpart JJJJ, text is added 
to clarify that when stack gas flowrate measurements are necessary, they must be made at the same time as pollutant concentration measurements unless the option in Method 1A is applicable and is being used. This revision is consistent with our proposal. 
H. Standards of Performance for 
Stationary Combustion Turbines (Subpart KKKK) of Part 60 
As explained at proposal, in 2006, the 
EPA promulgated the combustion turbine criteria pollutant NSPS, subpart KKKK of 40 CFR part 60 (71 FR 38482, July 6, 2006). This rule, which includes a sulfur dioxide (SO
2) emissions 
standard for all fuels, such as natural gas, also made provisions to minimize the compliance burden for owners/ operators of combustion turbines burning natural gas and/or low sulfur distillate oil. At the time, the Agency recognized that any SO
2testing 
requirements for owners/operators of combustion turbines burning natural gas would result in compliance costs without any associated environmental benefit. 
As explained at proposal, the initial 
and subsequent performance tests required in 40 CFR 60.4415 may be satisfied by fuel analyses performed by the facility, a contractor, the fuel vendor, or any other qualified agency as 
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described in 40 CFR 60.4415(a)(1). 
However, the allowed fuel sample and sulfur content measurement methods are not typically used by fuel vendors and, as a result, tariff sheets cannot be used without approval of an alternate method. We further explained that owner/operators of the combustion turbines were now conducting sampling and testing using a limited number of test methods, which is a burden that was not intended in the original rulemaking. 
To align the rule requirements with 
the original intent of subpart KKKK, the EPA proposed and solicited comment on additional sampling and sulfur content measurement methods in order to provide flexibility to the regulatory community for purposes of satisfying the SO
2performance testing 
requirements. Commenters supported both test methods the EPA specifically proposed and test methods the EPA solicited comments on as additional compliance options. Commenters also stated that the EPA should align the performance testing requirements in 40 CFR 60.4415 with the monitoring requirements in 40 CFR 60.4365 and allow the use of a fuel tariff sheet or contract to satisfy the performance testing requirements. Commenters further requested that the EPA should allow for the use of the fuel sampling procedures specified in section 2.3.1.4 or 2.3.2.4 of appendix D to part 75 to demonstrate compliance with the SO
2 
performance testing requirements. The EPA did not receive any comments opposing the proposed amendments. 
In this action, 40 CFR 60.4415(a) is 
amended, as proposed, to include GPA 2166 and ISO 10715 for manual sampling of gaseous fuels and GPA 2174 for manual sampling of liquid fuels. In addition, in response to comments supporting the EPA’s solicitation for comment on additional test methods, 40 CFR 60.4415(a) is amended to include API MPMS 14.1 for manual sampling of gaseous fuels. In response to comments supporting the EPA’s solicitation for comment for determining the sulfur content of liquid fuels, 40 CFR 60.4415(a) is amended to include ASTM D5623 and ASTM D7039. In response to comments supporting the EPA’s solicitation for comment for 
determining the sulfur content of gaseous fuels, 40 CFR 60.4415(a) is amended to include GPA 2140 and GPA 2261. The EPA has determined that these additional test methods will provide additional flexibility to the regulated community without any emissions increase. 
In addition, in response to comments, 
the EPA is amending 40 CFR 60.4415(a) to allow for the use of a purchase 
contract, tariff sheet, or transportation contract for the fuel as an option for demonstrating compliance with the SO
2 
performance testing requirements. Also, in response to comments, 40 CFR 60.4415(a) is amended to allow for the use of the fuel sampling procedures specified in section 2.3.1.4 or 2.3.2.4 of appendix D to part 75 to demonstrate compliance with the SO
2performance 
testing requirements. These amendments will align the performance testing requirements with the monitoring requirements in 40 CFR 60.4365 and are consistent with the original intent, including the estimated regulatory burden, of the rule. Therefore, the EPA considers these options sufficient to demonstrate compliance with subpart KKKK. The Agency notes that this approach is consistent with the SO
2performance 
testing requirements in other NSPS (e.g., 40 CFR 60.49b(r) in subpart Db). 
I. Standard of Performance for New 
Residential Wood Heaters, New Residential Hydronic Heaters and Forced-Air Furnaces (Subpart QQQQ) of Part 60 
In subpart QQQQ, in 40 CFR 
60.5476(i), the language is amended based on comments received in response to an ANPRM for Standards of Performance for New Residential Wood 
Heaters, New Residential Hydronic Heaters and Forced-Air Furnaces (83 FR 61585, November 30, 2018). Several commenters stated that the final clause of these existing paragraphs would create loopholes that would likely allow manufacturers and test labs to withhold critical testing data. The EPA recognizes that this provision was not intended to create an avenue for omissions and has now clarified these communications and their reporting. 
J. Method 4 of Appendix A–3 of Part 60 
In Method 4, the erroneous leak check 
procedures in section 8.1.3 are 
corrected. In response to comments, section 8.1.3.2.1 is revised to remove the erroneous probe nozzle language, and section 8.1.3.2.2 is revised to remove the erroneous reference to section 8.1.3.2.1. The erroneous section 8.1.4.2 is corrected, and in the table in section 9.1, the erroneous reference to section 8.1.1.4 is replaced with section 8.1.3.2.2. 
Method 4 is revised to standardize the 
constants between Methods 4 and 5, and more significant digits are added to constants to remove rounding and truncation errors. Also, the option for volumetric determination of the liquid content is deleted to remove the unnecessary density conversion. We believe most method users have moved to gravimetric measurement of the liquid contents in order to reduce testing costs and increase the accuracy of liquid measurement. Revisions occur in various sections (2.1, 6.1.5, 11.1, 11.2, 12.1.1, 12.1.2, 12.1.3, 12.2.1, and 12.2.2) and Figures 4–4 and 4–5. Also, in response to comments, the language in section 8.1.2.1 is revised to be consistent with our decision to disallow the option for volumetric moisture measurement. 
K. Method 5 of Appendix A–3 of Part 60 
In Method 5, sections 6.2.4 and 8.1.2 
are revised to allow polystyrene petri 
dishes as an alternative to polyethylene due to the lack of commercially available polyethylene petri dishes. The polystyrene petri dishes offer similar chemical resistivity to acids and inorganics as polyethene and have been shown to transfer extreme low residual gravimetric mass to the filters when used in ambient air applications. 
Method 5 is also revised to 
standardize the constants between Methods 4 and 5, and more significant digits are added to constants to remove rounding and truncation errors. Also, the option for volumetric determination of the liquid content is deleted to remove the unnecessary density conversion. We believe most method users have moved to gravimetric measurement of the liquid contents to lower the cost and increase the accuracy of the liquid measurement. Revisions occur in various sections (6.1.1.8, 6.2.5, 8.1.2.1, 8.7.6.4, 12.1, 12.3, 12.4, 12.11.1, 12.11.2, 16.1.1.4, and 16.2.3.3) and in Figure 5–6. All these revisions are consistent with the proposal. 
L. Method 7C of Appendix A–4 of Part 
60 
In Method 7C, in section 7.2.11, the 
erroneous chemical compound, sodium sulfite is corrected to sodium nitrite, as proposed. 
M. Method 7E of Appendix A–4 of Part 
60 
In Method 7E, section 8.5 is revised 
to ensure that the specified bias and calibration error checks are performed consistently. The results of the post-run system bias and calibration error checks are used to validate the run, as well as to correct the results of each individual test run for bias found in the sampling system. The more frequently these checks are performed, the more accurate the bias adjusted data will be. All these revisions are consistent with the proposal. 
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N. Method 12 of Appendix A–5 of Part 
60 
In Method 12, sections 7.1.2, 8.7.1.6, 
8.7.3.1, and 8.7.3.6 are revised to remove references regarding the use of silicone grease, which is no longer allowed when conducting Method 5, and section 12.3 is revised to correctly refer to the title of section 12.4 of Method 5. 
Sections 8.7.3.3 and 12.1 are revised 
based on a public comment to be consistent with the revision to eliminate the option for volumetric determination of the liquid content of impingers in Method 5. The language in section 8.7.3.3 is revised, and ‘‘r
w= Density of 
water, 0.9982 g/ml (0.002201 lb/ml)’’ is removed from section 12.1. 
Section 16.1 allows measurements of 
PM emissions in conjunction with the lead measurement but does not currently provide enough detail to ensure proper PM measurement. Revisions to section 16.1 provide testers with necessary procedures to execute PM and lead emissions measurements using one sampling train. 
Sections 16.3, 16.4.1, 16.4.2, 16.5, 
16.5.1, and 16.5.2 are revised to specify appropriate EPA analytical methods, as well as supporting quality assurance procedures, as part of allowed alternatives for the use of inductively coupled plasma-atomic emission spectrometry (ICP–AES) and inductively coupled plasma-mass spectrometry (ICP–MS) for sample analysis. Section 16.0 currently allows three alternatives to the atomic absorption analysis otherwise required in Method 12; specifically, ICP–AES in section 16.4, ICP–MS in section 16.5, and cold vapor atomic fluorescence spectrometry (CVAFS) in section 16.6. Regarding options to use ICP–AES and ICP–MS for analysis of lead, sections 16.4 and 16.5 currently do not include either specifics for applying these candidate analytical techniques, or procedures for assessing data quality. The revisions provide the needed specificity by referencing existing EPA methods for ICP–AES and ICP–MS along with supporting quality assurance requirements. The option to use CVAFS to measure lead (section 16.6) is removed since CVAFS for lead is not generally available and there is no existing EPA method for conducting it. These revisions are consistent with the proposal. 
O. Method 16B of Appendix A–6 of Part 
60 
In Method 16B, in section 2.1, the 
erroneous phrase ‘‘an integrated gas sample’’ is corrected to ‘‘a gas sample.’’ In sections 6.1 and 8.2, the reference to section 8.4.1 is changed to 8.3.1 since section 8.4.1 is renumbered to 8.3.1. The text in section 8.3, ‘‘Analysis. Inject aliquots of the sample into the GC/FPD analyzer for analysis. Determine the concentration of SO
2directly from the 
calibration curves or from the equation for the least-squares line.’’ is moved to section 11.1 to be consistent with EPA test method formatting. Sections 8.4, 8.4.1, and 8.4.2 are renumbered to 8.3, 8.3.1, and 8.3.2, respectively, since the text in section 8.3 is moved to section 11.1. In section 11.1, the sentence ‘‘Sample collection and analysis are concurrent for this method (see section 8.3).’’ is deleted. Section 11.2 is added so that a uniform set of analysis results would be obtained over the test period. These revisions are consistent with the proposal. 
P. Method 16C of Appendix A–6 of Part 
60 
In Method 16C, in section 13.1, ‘‘gas 
concentration’’ is replaced with ‘‘span’’ for clarity, as proposed. 
Q. Method 24 of Appendix A–7 of Part 
60 
In Method 24, section 6.2, ASTM D 
2369–10, which is the most recent version of ASTM D 2369, is added as proposed. 
R. Method 25C of Appendix A–7 of Part 
60 
We proposed to change the correction 
of non-methane organic compounds (NMOC) within the method. Currently, NMOC is to be corrected by using either nitrogen or oxygen content. The correction is through use of nitrogen unless the nitrogen content exceeds a threshold of 20 percent. When the nitrogen threshold is above 20 percent, the correction is through use of oxygen. We considered multiple options for revisions, based on data provided by industry. These options and data are available in the docket for this rulemaking, docket ID EPA–HQ–OAR– 2018–0815. The revisions to the correction that we considered are for when only oxygen is used as a NMOC correction, setting a rainfall threshold in lieu of a nitrogen percent threshold, and requiring a methane measurement and using methane only as the correction. We provided amendatory text for each option in docket ID EPA–HQ–OAR– 2018–0815. Based on comments we received on proposed options, we are finalizing Option 3 with revisions to the ambient air ratio quality assurance to alleviate the sampling issues in arid areas. Therefore, sections 8.4.2, 9.1, 12.5, 12.5.1, and 12.5.2 are revised. S. Method 26 of Appendix A–8 of Part 
60 
In Method 26, in section 8.1.2, the 
misspelled word ‘‘undereporting’’ in the next to the last sentence is corrected to ‘‘under reporting,’’ as proposed. 
T. Method 26A of Appendix A–8 of Part 
60 
In Method 26A, section 6.1.3, a 
reference to section 6.1.1.7 of Method 5 is added to make the filter temperature sensor placement consistent with the requirements in Method 5. Also, in section 6.1.3, the requirement that the filter temperature sensor must be encased in glass or Teflon is added because of the reactive nature of the halogen acids. In section 8.1.5, the misspelled word ‘‘undereporting’’ is corrected to ‘‘under reporting.’’ These revisions are consistent with the proposal. 
U. Performance Specification 4B of 
Appendix B of Part 60 
In Performance Specification 4B, the 
response time in section 4.5 is changed from ‘‘must not exceed 2 minutes’’ to ‘‘must not exceed 240 seconds’’ to be consistent with the response time in Performance Specification 4A, as proposed. 
V. Performance Specification 5 of 
Appendix B of Part 60 
In Performance Specification 5, 
section 5.0, the erroneous term ‘‘users manual’’ is replaced with ‘‘user’s manual,’’ and in the note in section 8.1, the sentence ‘‘For Method 16B, you must analyze a minimum of three aliquots spaced evenly over the test 
period.’’ is added to provide consistency with the number of aliquots analyzed in Method 16B, which may be used as the reference method. This revision is consistent with the proposal. In addition, the typo, ‘‘space’’ in the first sentence in the note in section 8.1 is corrected to ‘‘spaced’’. 
W. Performance Specification 6 of 
Appendix B of Part 60 
In Performance Specification 6, 
section 13.1 is revised to clarify that the calibration drift test period for the analyzers associated with the measurement of flow rate should be the same as that for the pollutant analyzer that is part of the continuous emission rate monitoring system (CERMS), as proposed. Section 13.2 is revised for clarity and to be consistent with the requirements in Performance Specification 2, as proposed, and the erroneous reference to Performance Specification 1 is corrected to Performance Specification 2 in response 
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to a public comment we received on the 
proposal. 
X. Performance Specification 8 of 
Appendix B of Part 60 
In Performance Specification 8, a new 
section 8.3 is added to require that an instrument drift check be performed as described in Performance Specification 2, and the existing sections 8.3, 8.4, and 8.5 are re-numbered as 8.4, 8.5, and 8.6, respectively. These revisions are consistent with the proposal. 
Y. Performance Specification 9 of 
Appendix B of Part 60 
In Performance Specification 9, the 
quality control and performance audit sections are clarified. In section 7.2, a requirement that performance audit gas must be an independent certified gas cylinder or cylinder mixture certified by the supplier to be accurate to two 
percent of the tagged value supplied with the cylinder is added. 
In section 8.3, an incorrect reference 
concerning quality control requirements that pertain to the 7-day drift test is clarified and corrected, and an incorrect reference to the error calculation equation is corrected. In section 8.4, a requirement to ensure that performance audit samples challenge the entire sampling system including the sample transport lines is added, and quality control requirements that must be met for performance audit tests are specified by adding references to sections 13.3 and 13.4. 
In section 10.1, the erroneous word 
‘‘initial’’ is deleted from the title, ‘‘Initial Multi-Point Calibration,’’ and the quality control requirements that must be met for multi-point calibrations are specified by referencing sections 13.1 and 13.2 in addition to 13.3. Sections 10.1 and 10.2 are clarified such that calibrations may be performed at the instrument rather than through the entire sampling system. The inadvertently omitted word, ‘‘by’’ is inserted in the sentence in section 10.2 that reads, ‘‘The average instrument response shall not vary more than 10 percent from the certified concentration value of the cylinder for each analyte.’’ 
In section 13.1, language is clarified to 
ensure that every time a triplicate injection is performed, the calibration error must be less than or equal to 10 percent of the calibration gas value. In section 13.2, language is clarified to specify that the linear regression correlation coefficient must be determined to evaluate the calibration curve for instrument response every time the continuous emission monitoring system (CEMS) response is evaluated over multiple concentration levels. Section 13.4 is added to describe the quality control requirements for the initial and periodic performance audit test sample. These revisions are consistent with the proposal. 
Z. Performance Specification 18 of 
Appendix B of Part 60 
In Performance Specification 18, 
section 2.3 is revised to clarify that Method 321 is only applicable to Portland cement plants. Also, in section 11.9.1, the reference to Method 321 is deleted because Method 321 is specific to Portland cement plants, and it is already specified in the applicable regulations. These revisions are consistent with the proposal. 
AA. Procedure 1 of Appendix F of Part 
60 
In Procedure 1, section 5.2.3(2), the 
criteria for cylinder gas audits (CGAs) as applicable to diluent monitors is specified for clarity, as proposed. 
BB. Appendix B to Part 61—Test 
Methods 
In the index to Appendix B to Part 61, 
the inadvertently omitted Method 114— Test Methods for Measuring Radionuclide Emissions from Stationary Sources and Method 115—Monitoring for Radon-222 Emissions are added in response to a comment on the proposed rulemaking. 
CC. Method 107 of Appendix B of Part 
61 
In Method 107, the erroneous 
Equation 107–3 is corrected by adding the omitted plus (+) sign, as proposed. 
DD. General Provisions (Subpart A) of 
Part 63 
In the General Provisions of Part 63, 
in 40 CFR 63.2, consistent with the proposal, the definition of alternative test method is revised to exclude ‘‘that is not a test method in this chapter and’’ because this clarifies that use of methods other than those required by a specific subpart requires the alternative test method review and approval process. 
EE. Portland Cement Manufacturing 
(Subpart LLL) of Part 63 
In subpart LLL, the units of 
measurement in Equations 12, 13, 17, 18, and 19 are revised to add clarity and consistency. Equations 12 and 13 are corrected so that the operating limit units of measurement is calculated correctly. The calculation of the operating limit is established by a relationship of the total hydrocarbons (THC) CEMS signal to the organic HAPs compliance concentration. As explained at proposal, in Table 1 in Part 63, Subpart LLL, the THC and organic HAP emissions limits units are in ppmvd corrected to 7 percent oxygen. Therefore, the average organic HAP values in equation 12 need to be in ppmvd, corrected to 7 percent oxygen, instead of ppmvw. The THC CEMS monitor units of measure are ppmvw, as propane and the variables are updated to reflect this. The variables in Equations 13 and 19 reference variables in Equations 12 and 18, respectively. Those variables are updated for consistency between the equations. 
The units of measurement in Equation 
17 should be the monitoring system’s units of measure. It is possible for those systems to be on either a wet or a dry basis. Currently, the equation is only on a wet basis, even though it should be on the basis of the monitor (wet or dry). The changes to the units of measure from ppmvw to ppmv takes either possibility into account. For Equations 17 and 18, the operating limit units of measure are changed to the units of the CEMS monitor, ppmv. These revisions are consistent with the proposal. 
FF. Method 301 of Appendix A of Part 
63 
In Method 301, section 11.1.3, the 
erroneous SD in Equation 301–13 is replaced with SD
d, consistent with the 
proposal. 
GG. Method 308 of Appendix A of Part 
63 
In Method 308, section 12.4, 
erroneous Equation 308–3 is corrected, and in section 12.5, erroneous Equation 308–5 is corrected, consistent with the proposal. 
HH. Method 311 of Appendix A of Part 
63 
In Method 311, in sections 1.1 and 17, 
the ASTM is updated. Specifically, in section 1.1, ASTM D4747–87 is updated to D4747–02, and ASTM D4827–93 is updated to D4827–03. Also, in section 1.1, Provisional Standard Test Method, PS 9–94 is replaced with D5910–05. In section 17, ASTM D4457–85 is updated to ASTM D4457–02, and ASTM D4827– 93 is updated to ASTM D4827–03. These updates are consistent with the proposal. 
II. Method 315 of Appendix A of Part 63 
In Method 315, in Figure 315–1, an 
omission is corrected by adding a ‘‘not 
to exceed’’ blank criteria for filters used in this test procedure. The blank criteria were derived from evaluation of blank and spiked filters used to prepare Method 315 audit samples. We set the allowable blank correction for filters 
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based on the greater of two criteria. The 
first criterion requires the blank to be at least 10 times the measured filter blanks from the audit study. The second criterion requires the blank to be at least 5 times the resolution of the analytical balance required in Method 315. The ‘‘not to exceed’’ value is, therefore, based on the second criterion (balance resolution) because it is the higher of the two criteria. These revisions are consistent with the proposal. 
JJ. Method 316 of Appendix A of Part 63 
In Method 316, section 1.0, the 
erroneous positive exponents are 
corrected to negative exponents. Also, the title of section 1.0, ‘‘Introduction,’’ is changed to ‘‘Scope and Application’’ to be consistent with the Environmental Monitoring Management Council (EMMC) format for test methods. These revisions are consistent with the proposal. 
KK. Method 323 of Appendix A of Part 
63 
In the title of Method 323, the 
misspelled word ‘‘Derivitization’’ is corrected to ‘‘Derivatization,’’ and in 
section 2.0, the misspelled word ‘‘colorietrically’’ is corrected to ‘‘colorimetrically.’’ These revisions are consistent with the proposal. 
V. Public Comments on the Proposed 
Rule 
Eighteen comment letters were 
received from the public on the proposed rulemaking; 13 of the comment letters were relevant, and the other five comment letters are considered beyond the scope of the proposed rulemaking. The public comments and the agency’s responses are summarized in the Response to Comments document located in the docket for this rule. See the 
ADDRESSES  
section of this preamble. 
VI. Statutory and Executive Order 
Reviews 
Additional information about these 
statutes and Executive Orders can be found at http://www2.epa.gov/laws- regulations/laws-and-executive-orders. 
A. Executive Order 12866: Regulatory 
Planning and Review and Executive Order 13563: Improving Regulation and Regulatory Review 
This action is not a significant 
regulatory action and was, therefore, not submitted to the Office of Management and Budget (OMB) for review. B. Executive Order 13771: Reducing 
Regulations and Controlling Regulatory Costs 
This action is considered an 
Executive Order 13771 deregulatory 
action. This final rule provides meaningful burden reduction by updating and clarifying test methods and performance specifications, thereby improving data quality and by providing source testers flexibility by incorporating approved alternative procedures. 
C. Paperwork Reduction Act (PRA) 
This action does not impose any 
information collection burden under the 
PRA. The revisions make corrections and updates to existing testing methodology and clarify testing requirements. 
D. Regulatory Flexibility Act (RFA) 
I certify that this action will not have 
a significant economic impact on a 
substantial number of small entities under the RFA. In making this determination, the impact of concern is any significant adverse economic impact on small entities. An agency may certify that a rule will not have a significant economic impact on a substantial number of small entities if the rule relieves regulatory burden, has no net burden or otherwise has a positive economic effect on the small entities subject to the rule. This action will not impose emission measurement requirements beyond those specified in the current regulations, nor does it change any emission standard. We have, therefore, concluded that this action will have no net regulatory burden for all directly regulated small entities. 
E. Unfunded Mandates Reform Act 
(UMRA) 
This action does not contain any 
unfunded mandate as described in UMRA, 2 U.S.C. 1531–1538, and does not significantly or uniquely affect small governments. The action imposes no enforceable duty on any state, local or tribal governments or the private sector. 
F. Executive Order 13132: Federalism 
This action does not have federalism 
implications. It will not have substantial 
direct effects on the states, on the relationship between the national government and the states, or on the distribution of power and responsibilities among the various levels of government. G. Executive Order 13175: Consultation 
and Coordination With Indian Tribal Governments 
This action does not have tribal 
implications, as specified in Executive Order 13175. This action simply corrects and updates existing testing regulations. Thus, Executive Order 13175 does not apply to this action. 
H. Executive Order 13045: Protection of 
Children From Environmental Health Risks and Safety Risks 
The EPA interprets Executive Order 
13045 as applying only to those regulatory actions that concern environmental health or safety risks that the EPA has reason to believe may disproportionately affect children, per the definition of ‘‘covered regulatory action’’ in section 2–202 of the Executive Order. This action is not subject to Executive Order 13045 because it does not concern an environmental health risk or safety risk. 
I. Executive Order 13211: Actions 
Concerning Regulations That Significantly Affect Energy Supply, Distribution or Use 
This action is not subject to Executive 
Order 13211, because it is not a significant regulatory action under Executive Order 12866. 
J. National Technology Transfer and 
Advancement Act (NTTAA) and 1 CFR Part 51 
This action involves technical 
standards. The EPA used ASTM D 2369 in Method 24. The ASTM D 2369 standard covers volatile content of coatings. The EPA used (but is not incorporating by reference) ASTM D 4457, ASTM D 4827, and ASTM D 5910 in Method 311. These ASTM standards cover procedures to identify and quantify hazardous air pollutants in paints and coatings. The EPA used ASTM D 5623 and ASTM D 7039 in subpart KKKK of Part 60. The ASTM D 5623 standard covers the determination of sulfur compounds in light petroleum liquids, and the ASTM D 7039 standard covers the determination of sulfur in 
gasoline and diesel fuel. The ASTM standards were developed and adopted by the American Society for Testing and Materials and may be obtained from http://www.astm.org or from the ASTM 
at 100 Barr Harbor Drive, P.O. Box C700, West Conshohocken, PA 19428–2959. 
The EPA used SW–846–6010D and 
SW–846–6020B in Method 12. Method SW–846–6010D covers inductively coupled plasma-atomic emission spectrometry (ICP–AES) analysis, and Method SW–846–6020B covers inductively coupled plasma-mass 
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spectrometry (ICP–MS) analysis. These 
standards were developed and adopted by the Environmental Protection Agency and may be obtained from http://www.epa.gov or from the U.S. 
Environmental Protection Agency at 1200 Pennsylvania Avenue NW, Washington, DC 20460. 
The EPA used API Manual of 
Petroleum Measurement Standards, Chapter 14—Natural Gas Fluids Measurement (Section 1) in Subpart KKKK of Part 60. This API standard involves the collecting and handling of natural gas samples for custody transfer. This API standard was developed and adopted by the American Petroleum Institute and may be obtained from https://www.api.org/ or from the 
American Petroleum Institute at 1220 L Street NW, Washington, DC 20005. 
The EPA used GPA 2166 in Subpart 
KKKK of Part 60, which involves procedures for obtaining samples from gaseous fuels. The EPA used GPA 2174 in Subpart KKKK of Part 60, which involves procedures for obtaining samples from liquid fuels. The EPA used GPA 2140 in subpart KKKK of Part 60, which involves liquefied petroleum gas specifications and test methods. The EPA used GPA 2261 in subpart KKKK of Part 60, which is a procedure for analyzing natural gas and similar gaseous mixtures. These GPA standards were developed and adopted by the GPA Midstream Association and may be obtained from https://www.gpamidstream.org/ or from the 
GPA Midstream Association, Sixty Sixty American Plaza, Suite 700, Tulsa, OK 74135. 
The EPA used ISO 10715 in subpart 
KKKK of Part 60. This standard involves procedures for obtaining samples from gaseous fuels. This standard was developed by the International Organization for Standardization and may be obtained from https://www.iso.org/home.html or from the ISH 
Inc., 15 Inverness Way East, Englewood, CO 80112. 
Multiple ASTM and GPA standards 
were previously approved on July 6, 2006, and are already included in the regulatory text. Therefore, the current the IBR is unchanged in this rule for the following methods: ASTM D129–00, ASTM D1072–90 (Reapproved 1999); ASTM D1266–98 (Reapproved 2003)e,1; ASTM D1552–03, ASTM D2622–05, ASTM D3246–05, ASTM D4057–95 (Reapproved 2000), ASTM D4084–05, ASTM D4177–95 (Reapproved 2000); ASTM D4294–03, ASTM D4468–85 (Reapproved 2000); ASTM D4810–88 (Reapproved 1999); ASTM D5287–97 (Reapproved 2002); ASTM D5453–05, ASTM D6228–98 (Reapproved 2003); ASTM D6667–04, and GPA 2377–86. 
K. Executive Order 12898: Federal 
Actions To Address Environmental Justice in Minority Populations and Low-Income Populations 
The EPA believes that this action is 
not subject to Executive Order 12898 (59 FR 7629, February 16, 1994) because it does not establish an environmental health or safety standard. This action is a technical correction to previously promulgated regulatory actions and does not have an impact on human health or the environment. 
L. Congressional Review Act (CRA) 
This action is subject to the CRA, and 
the EPA will submit a rule report to 
each house of the Congress and to the Comptroller General of the United States. This action is not a ‘‘major rule’’ as defined by 5 U.S.C. 804(2). 
List of Subjects 40 CFR Part 51 
Environmental protection, Air 
pollution control, Performance 
specifications, Test methods and procedures. 
40 CFR Part 60 
Environmental protection, Air 
pollution control, Incorporation by 
reference, Performance specifications, Test methods and procedures. 
40 CFR Parts 61 and 63 
Environmental protection, Air 
pollution control, Incorporation by 
reference, Performance specifications, Test methods and procedures. 
Andrew Wheeler, 
Administrator. 
For the reasons set forth in the 
preamble, the EPA amends 40 CFR parts 
51, 60, 61, and 63 as follows: 
PART 51—REQUIREMENTS FOR 
PREPARATION, ADOPTION, AND SUBMITTAL OF IMPLEMENTATION PLANS 
■1. The authority citation for part 51 
continues to read as follows: 
Authority: 23 U.S.C. 101; 42 U.S.C. 7401– 
7671q. 
■2. In appendix M to part 51, in 
Method 201A, revise sections ‘‘1.2’’, ‘‘1.6’’, ‘‘6.2.1(d)’’, and ‘‘8.6.6’’ and ‘‘Figure 7’’ to read as follows: 
Appendix M to Part 51—Recommended 
Test Methods for State Implementation Plans 
* * * * * Method 201A—Determination of PM 10and 
PM 2.5Emissions From Stationary Sources 
(Constant Sampling Rate Procedure) 
* * * * * 
1.2 Applicability. This method addresses 
the equipment, preparation, and analysis 
necessary to measure filterable PM. You can use this method to measure filterable PM from stationary sources only. Filterable PM is collected in stack with this method (i.e., the 
method measures materials that are solid or 
liquid at stack conditions). If the gas filtration temperature exceeds 29.4 °C (85 °F), then you may use the procedures in this method to measure only filterable PM (material that does not pass through a filter or a cyclone/ filter combination). If the gas filtration temperature exceeds 29.4 °C (85 °F), and you must measure both the filterable and condensable (material that condenses after passing through a filter) components of total primary (direct) PM emissions to the atmosphere, then you must combine the procedures in this method with the procedures in Method 202 of appendix M to this part for measuring condensable PM. However, if the gas filtration temperature never exceeds 29.4 °C (85 °F), then use of 
Method 202 of appendix M to this part is not required to measure total primary PM. 
* * * * * 
1.6 Conditions. You can use this method 
to obtain particle sizing at 10 micrometers and or 2.5 micrometers if you sample within 80 and 120 percent of isokinetic flow. You can also use this method to obtain total filterable particulate if you sample within 90 to 110 percent of isokinetic flow, the number of sampling points is the same as required by Method 5 of appendix A–3 to part 60 or Method 17 of appendix A–6 to part 60, and the filter temperature is within an acceptable range for these methods. For Method 5, the acceptable range for the filter temperature is generally 120 °C (248 °F) unless a higher or 
lower temperature is specified. The acceptable range varies depending on the source, control technology and applicable rule or permit condition. To satisfy Method 5 criteria, you may need to remove the in- stack filter and use an out-of-stack filter and recover the PM in the probe between the PM
2.5particle sizer and the filter. In addition, 
to satisfy Method 5 and Method 17 criteria, you may need to sample from more than 12 traverse points. Be aware that this method determines in-stack PM
10and PM 2.5filterable 
emissions by sampling from a required maximum of 12 sample points, at a constant flow rate through the train (the constant flow is necessary to maintain the size cuts of the cyclones), and with a filter that is at the stack temperature. In contrast, Method 5 or Method 17 trains are operated isokinetically with varying flow rates through the train. Method 5 and Method 17 require sampling from as many as 24 sample points. Method 5 uses an out-of-stack filter that is maintained at a constant temperature of 120 °C (248 °F). Further, to use this method in place of Method 5 or Method 17, you must extend the sampling time so that you collect the minimum mass necessary for weighing each portion of this sampling train. Also, if you are using this method as an alternative to a test method specified in a regulatory 
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requirement (e.g., a requirement to conduct a 
compliance or performance test), then you 
must receive approval from the authority that established the regulatory requirement before you conduct the test. 
* * * * * 
6.2.1 * * * (d) Petri dishes. For filter samples; glass, 
polystyrene, or polyethylene, unless otherwise specified by the Administrator. 
* * * * * 
8.6.6 Sampling Head. You must preheat 
the combined sampling head to the stack 
temperature of the gas stream at the test location (±28 °C, ±50 °F). This will heat the 
sampling head and prevent moisture from 
condensing from the sample gas stream. 
* * * * * 
17.0 * * * 
BILLING CODE 6560–50–P 
BILLING CODE 6560–50–C 
PART 60—STANDARDS OF 
PERFORMANCE FOR NEW STATIONARY SOURCES 
■3. The authority citation for part 60 
continues to read as follows: 
Authority: 42 U.S.C. 7401 et seq. 
■4. Amend § 60.17 by: 
■a. Removing the text ‘‘appendix A–8 
to part 60: Method 24,’’ and add in its place, ‘‘appendix A–7 to part 60: Method 24,’’ everywhere it appears; ■b. Revising the last sentence in 
paragraph (a); 
■c. Redesignating paragraph (e)(2) as 
(e)(3) and adding a new paragraph (e)(2); 
■d. Redesignating paragraphs (h)(192) 
through (209) as (h)(195) through (212), 
(h)(174) through (191) as (h)(176) through (193), and (h)(95) through (173) as (h)(96) through (174), respectively; 
■e. Adding new paragraphs (h)(95), 
(175), and (194); 
■f. Adding paragraphs (j)(3) and (4); 
■g. Revising paragraph (k) introductory 
text; ■h. Redesignating paragraphs (k)(2) and 
(3) as paragraphs (k)(5) and (6) and redesignating paragraph (k)(1) as paragraph (k)(3), respectively; 
■i. Adding new paragraphs (k)(1), (2), 
and (4); 
■j. Revising newly redesignated 
paragraph (k)(5); and 
■k. Adding paragraph (l)(2). 
The revisions and additions read as 
follows: 
§ 60.17 Incorporations by reference. 
(a) * * * For information on the 
availability of this material at NARA, 
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i 
LI.I 
~ 
LI.I I I­
L&. 
0 
a:: 
LI.I m 
:E ::::, z 
:E ::::, 
:E i DUCT DIAMETERS UPSTREAM FROM FLOW DISTURBANCE (DISTANCE A) 
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F:igure 7 • llax:l.munl Hmtber of Bequ:ired ~ra"Varse Po:ints 63403 Federal Register / Vol. 85, No. 195 / Wednesday, October 7, 2020 / Rules and Regulations 
email fedreg.legal@nara.gov, or go to 
www.archives.gov/federal-register/cfr/ 
ibr-locations.html. 
* * * * * 
(e) * * * 
(2) API Manual of Petroleum 
Measurement Standards, Chapter 14— 
Natural Gas Fluids Measurement, Section 1—Collecting and Handling of Natural Gas Samples for Custody Transfer, 7th Edition, May 2016, IBR approved for § 60.4415(a). 
* * * * * 
(h) * * * 
(95) ASTM D2369–10 (Reapproved 
2015)e1, Standard Test Method for 
Volatile Content of Coatings, (Approved June 1, 2015); IBR approved for appendix A–7 to part 60: Method 24, Section 6.2. 
* * * * * 
(175) ASTM D5623–19, Standard Test 
Method for Sulfur Compounds in Light 
Petroleum Liquids by Gas Chromatography and Sulfur Selective Detection, (Approved July 1, 2019); IBR approved for § 60.4415(a). 
* * * * * 
(194) ASTM D7039–15a, Standard 
Test Method for Sulfur in Gasoline, 
Diesel Fuel, Jet Fuel, Kerosine, Boideisel, Biodiesel Blends, and Gasoline-Ethanol Blends by Monochromatic Wavelength Dispersive X-ray Fluorescence Spectrometry, (Approved July 1, 2015); IBR approved for § 60.4415(a). 
* * * * * 
(j) * * * 
(3) SW–846–6010D, Inductively 
Coupled Plasma-Optical Emission 
Spectrometry, Revision 5, July 2018, in EPA Publication No. SW–846, Test Methods for Evaluating Solid Waste, Physical/Chemical Methods, Third Edition, IBR approved for appendix A– 5 to part 60: Method 12. 
(4) SW–846–6020B, Inductively 
Coupled Plasma-Mass Spectrometry, Revision 2, July 2014, in EPA Publication No. SW–846, Test Methods for Evaluating Solid Waste, Physical/ Chemical Methods, Third Edition, IBR approved for appendix A–5 to part 60: Method 12. 
(k) GPA Midstream Association 
(formerly known as Gas Processors Association), Sixty Sixty American Plaza, Suite 700, Tulsa, OK 74135. 
Note 1 to paragraph (k): Material in 
this paragraph that is no longer available from GPA may be available through the reseller HIS Markit, 15 Inverness Way East, P.O. Box 1154, Englewood, CO 80150–1154, https://global.ihs.com/. For material that is out- of-print, contact EPA’s Air and Radiation Docket and Information Center, Room 3334, 1301 Constitution Ave. NW, Washington, DC 20460 or a- and-rdocket@epa.gov. 
(1) GPA Midstream Standard 2140–17 
(GPA 2140–17), Liquefied Petroleum Gas Specifications and Test Methods, (Revised 2017), IBR approved for § 60.4415(a). 
(2) GPA Midstream Standard 2166–17 
(GPA 2166–17), Obtaining Natural Gas Samples for Analysis by Gas Chromatography, (Reaffirmed 2017), IBR approved for § 60.4415(a). 
* * * * * 
(4) GPA Standard 2174–14 (GPA 
2174–14), Obtaining Liquid 
Hydrocarbon Samples for Analysis by Gas Chromatography, (Revised 2014), IBR approved for § 60.4415(a). 
(5) GPA Standard 2261–19 (GPA 
2261–19), Analysis for Natural Gas and Similar Gaseous Mixtures by Gas Chromatography, (Revised 2019), IBR approved for § 60.4415(a). 
* * * * * 
(l) * * * 
(2) ISO 10715:1997(E), Natural gas— 
Sampling guidelines, (First Edition, 
June 1, 1997), IBR approved for § 60.4415(a) 
* * * * * 
Subpart AAA—Standards of 
Performance for New Residential Wood Heaters 
■5. Amend § 60.534 by revising 
paragraph (h) to read as follows: 
§ 60.534 What test methods and 
procedures must I use to determine compliance with the standards and requirements for certification? 
* * * * * 
(h) The approved test laboratory must 
allow the manufacturer, the 
manufacturer’s approved third-party certifier, the EPA and delegated state regulatory agencies to observe certification testing. However, manufacturers must not involve themselves in the conduct of the test after the pretest burn has begun. Communications between the manufacturer and laboratory or third- party certifier personnel regarding operation of the wood heater must be limited to written communications transmitted prior to the first pretest burn of the certification test series. During certification tests, the manufacturer may communicate with the third-party certifier, and only in writing, to notify them that the manufacturer has observed a deviation from proper test procedures by the laboratory. All communications must be included in the test documentation required to be submitted pursuant to § 60.533(b)(5) and must be consistent with instructions provided in the owner’s manual required under § 60.536(g). 
Subpart XXX—Standards of 
Performance for Municipal Solid Waste Landfills That Commenced Construction, Reconstruction, or Modification After July 17, 2014 
■6. Amend § 60.766 by revising 
paragraph (a)(3) to read as follows: 
§ 60.766 Monitoring of operations. 
* * * * * 
(a) * * * 
(3) Monitor temperature of the landfill 
gas on a monthly basis as provided in 
60.765(a)(5). The temperature measuring device must be calibrated annually using the procedure in 40 CFR part 60, appendix A–1, Method 2, section 10.3 such that a minimum of two temperature points, bracket within 10 percent of all landfill absolute temperature measurements or two fixed points of ice bath and boiling water, corrected for barometric pressure, are used. 
* * * * * 
Subpart CCCC—Standards of 
Performance for Commercial and Industrial Solid Waste Incineration Units 
■7. Amend § 60.2110 by revising 
paragraphs (i) introductory text, (i)(1), and (i)(2) introductory text to read as follows: 
§ 60.2110 What operating limits must I 
meet and by when? 
* * * * * 
(i) If you use a PM CPMS to 
demonstrate continuing compliance, 
you must establish your PM CPMS operating limit and determine compliance with it according to paragraphs (i)(1) through (5) of this section: 
(1) Determine your operating limit as 
the average PM CPMS output value recorded during the performance test or at a PM CPMS output value corresponding to 75 percent of the emission limit if your PM performance test demonstrates compliance below 75 percent of the emission limit. You must verify an existing or establish a new operating limit after each repeated performance test. You must repeat the performance test annually and reassess and adjust the site-specific operating limit in accordance with the results of the performance test: 
(i) Your PM CPMS must provide a 4– 
20 milliamp output, or digital equivalent, and the establishment of its relationship to manual reference 
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method measurements must be 
determined in units of milliamps; 
(ii) Your PM CPMS operating range 
must be capable of reading PM concentrations from zero to a level equivalent to at least two times your allowable emission limit. If your PM CPMS is an auto-ranging instrument capable of multiple scales, the primary range of the instrument must be capable of reading PM concentration from zero to a level equivalent to two times your allowable emission limit; and 
(iii) During the initial performance 
test or any such subsequent performance test that demonstrates compliance with the PM limit, record and average all milliamp output values, or their digital equivalent, from the PM CPMS for the periods corresponding to the compliance test runs (e.g., average 
all your PM CPMS output values for three corresponding Method 5 or Method 29 test runs). 
(2) If the average of your three PM 
performance test runs are below 75 percent of your PM emissions limit, you must calculate an operating limit by establishing a relationship of PM CPMS signal to PM concentration using the PM 
CPMS instrument zero, the average PM CPMS output values corresponding to the three compliance test runs, and the average PM concentration from the Method 5 or Method 29 performance test with the procedures in (i)(1) through (5) of this section: 
* * * * * 
■8. Amend § 60.2145 by revising 
paragraphs (j) introductory text and 
(y)(3) to read as follows: § 60.2145 How do I demonstrate 
continuous compliance with the emission limitations and the operating limits? 
* * * * * 
(j) For waste-burning kilns, you must 
conduct an annual performance test for 
particulate matter, cadmium, lead, carbon monoxide, dioxins/furans and hydrogen chloride as listed in Table 7 of this subpart, unless you choose to demonstrate initial and continuous compliance using CEMS, as allowed in paragraph (u) of this section. If you do not use an acid gas wet scrubber or dry scrubber, you must determine compliance with the hydrogen chloride emissions limit using a HCl CEMS according to the requirements in paragraph (j)(1) of this section. You must determine compliance with the mercury emissions limit using a mercury CEMS or an integrated sorbent trap monitoring system according to paragraph (j)(2) of this section. You must determine compliance with nitrogen oxides and sulfur dioxide using CEMS. You must determine continuing compliance with the particulate matter emissions limit using a PM CPMS according to paragraph (x) of this section. 
* * * * * 
(y) * * * 
(3) For purposes of determining the 
combined emissions from kilns 
equipped with an alkali bypass or that exhaust kiln gases to a coal mill that exhausts through a separate stack, instead of installing a CEMS or PM CPMS on the alkali bypass stack or in- line coal mill stack, the results of the initial and subsequent performance test 
can be used to demonstrate compliance with the relevant emissions limit. A performance test must be conducted on an annual basis (no later than 13 calendar months following the previous performance test). 
■9. Revise § 60.2150 to read as follows: 
§ 60.2150 By what date must I conduct the 
annual performance test? 
You must conduct annual 
performance tests no later than 13 
calendar months following the previous performance test. 
■10. Amend § 60.2210 by revising the 
introductory text and adding paragraph (p) to read as follows: 
§ 60.2210 What information must I include 
in my annual report? 
The annual report required under 
§ 60.2205 must include the items listed 
in paragraphs (a) through (p) of this section. If you have a deviation from the operating limits or the emission limitations, you must also submit 
deviation reports as specified in §§ 60.2215, 60.2220, and 60.2225: 
* * * * * 
(p) For energy recovery units, include 
the annual heat input and average 
annual heat input rate of all fuels being burned in the unit to verify which subcategory of energy recovery unit applies. 
■11. Table 6 to subpart CCCC of part 60 
is revised to read as follows: 
TABLE 6 TOSUBPART CCCC OFPART60—E MISSION LIMITATIONS FOR ENERGY RECOVERY UNITS THATCOMMENCED  
CONSTRUCTION AFTER JUNE4, 2010, ORTHATCOMMENCED RECONSTRUCTION OR MODIFICATION AFTER AUGUST 7, 
2013 
For the air pollutant You must meet this emission limitation1 
Using this averaging time2 And determining compliance 
using this method2 Liquid/gas Solids 
Cadmium ..................... 0.023 milligrams per dry stand-
ard cubic meter.Biomass—0.0014 milligrams per 
dry standard cubic meter. 
Coal—0.0017 milligrams per dry standard cubic meter.3-run average (collect a min-
imum volume of 4 dry stand-ard cubic meters per run).Performance test (Method 29 at 
40 CFR part 60, appendix A– 8). Use ICPMS for the analyt-ical finish. 
Carbon monoxide ........ 35 parts per million dry volume .. Biomass—240 parts per million 
dry volume. Coal—95 parts per million dry volume.3-run average (1 hour minimum 
sample time per run).Performance test (Method 10 at 
40 CFR part 60, appendix A– 4). 
Dioxin/furans (Total 
Mass Basis).No Total Mass Basis limit, must 
meet the toxic equivalency basis limit below.Biomass—0.52 nanograms per 
dry standard cubic meter. Coal—5.1 nanograms per dry standard cubic meter.3-run average (collect a min-
imum volume of 4 dry stand-ard cubic meters).Performance test (Method 23 at 
40 CFR part 60, appendix A– 7). 
Dioxins/furans (toxic 
equivalency basis).0.093 nanograms per dry stand-
ard cubic meter.Biomass—0.076 nanograms per 
dry standard cubic meter.3 
Coal—0.075 nanograms per dry standard cubic meter.3-run average (collect a min-
imum volume of 4 dry stand-ard cubic meters per run).Performance test (Method 23 of 
appendix A–7 of this part). 
Fugitive ash ................. Visible emissions for no more 
than 5 percent of the hourly observation period.Three 1-hour observation peri-
ods.Visible emission test (Method 22 
at 40 CFR part 60, appendix A–7).Fugitive ash. 
Hydrogen chloride ....... 14 parts per million dry volume .. Biomass—0.20 parts per million 
dry volume. Coal—58 parts per million dry volume.3-run average (For Method 26, 
collect a minimum volume of 360 liters per run. For Method 26A, collect a minimum vol-ume of 3 dry standard cubic meters per run).Performance test (Method 26 or 
26A at 40 CFR part 60, ap-pendix A–8). 
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TABLE 6 TOSUBPART CCCC OFPART60—E MISSION LIMITATIONS FOR ENERGY RECOVERY UNITS THATCOMMENCED  
CONSTRUCTION AFTER JUNE4, 2010, ORTHATCOMMENCED RECONSTRUCTION OR MODIFICATION AFTER AUGUST 7, 
2013—Continued 
For the air pollutant You must meet this emission limitation1 
Using this averaging time2 And determining compliance 
using this method2 Liquid/gas Solids 
Lead ............................. 0.096 milligrams per dry stand-
ard cubic meter.Biomass—0.014 milligrams per 
dry standard cubic meter. 
Coal—0.057 milligrams per dry standard cubic meter.3-run average (collect a min-
imum volume of 4 dry stand-ard cubic meters per run).Performance test (Method 29 at 
40 CFR part 60, appendix A– 8). Use ICPMS for the analyt-ical finish. 
Mercury ........................ 0.00056 milligrams per dry 
standard cubic meter.Biomass—0.0022 milligrams per 
dry standard cubic meter. Coal—0.013 milligrams per dry standard cubic meter.3-run average (collect enough 
volume to meet an in-stack de-tection limit data quality objec-tive of 0.03 ug/dscm).Performance test (Method 29 or 
30B at 40 CFR part 60, ap-
pendix A–8) or ASTM D6784– 02 (Reapproved 2008).
3 
Nitrogen oxides ........... 76 parts per million dry volume .. Biomass—290 parts per million 
dry volume. Coal—460 parts 
per million dry volume.3-run average (for Method 7E, 1 
hour minimum sample time per run).Performance test (Method 7 or 
7E at 40 CFR part 60, appen-
dix A–4). 
Particulate matter (fil-
terable).110 milligrams per dry standard 
cubic meter.Biomass—5.1 milligrams per dry 
standard cubic meter. Coal— 
130 milligrams per dry stand-ard cubic meter.3-run average (collect a min-
imum volume of 1 dry stand-ard cubic meter per run).Performance test (Method 5 or 
29 at 40 CFR part 60, appen-dix A–3 or appendix A–8). 
Sulfur dioxide ............... 720 parts per million dry volume Biomass—7.3 parts per million 
dry volume. Coal—850 parts per million dry volume.3-run average (for Method 6, col-
lect a minimum of 60 liters, for Method 6C, 1 hour minimum sample time per run).Performance test (Method 6 or 
6C at 40 CFR part 60, appen-dix A–4). 
1All emission limitations are measured at 7 percent oxygen, dry basis at standard conditions. For dioxins/furans, you must meet either the Total Mass Basis limit or 
the toxic equivalency basis limit. 
2In lieu of performance testing, you may use a CEMS or, for mercury, an integrated sorbent trap monitoring system to demonstrate initial and continuing compli-
ance with an emissions limit, as long as you comply with the CEMS or integrated sorbent trap monitoring system requirements applicable to the specific pollutant in 
§§ 60.2145 and 60.2165. As prescribed in § 60.2145(u), if you use a CEMS or an integrated sorbent trap monitoring system to demonstrate compliance with an emis-sions limit, your averaging time is a 30-day rolling average of 1-hour arithmetic average emission concentrations. 
3Incorporated by reference, see § 60.17. 
■12. Table 7 to subpart CCCC of part 60 
is revised to read as follows: 
TABLE 7 TOSUBPART CCCC OFPART60—E MISSION LIMITATIONS FOR WASTE -BURNING KILNS THATCOMMENCED  
CONSTRUCTION AFTER JUNE4, 2010, ORRECONSTRUCTION OR MODIFICATION AFTER AUGUST 7, 2013 
For the air pollutant You must meet this emission limitation1 Using this averaging time2 And determining compliance using this 
method2, 3 
Cadmium ....................... 0.0014 milligrams per dry standard cubic 
meter.3-run average (collect a minimum volume of 
4 dry standard cubic meters per run).Performance test (Method 29 at 40 CFR 
part 60, appendix A–8). Use ICPMS for 
the analytical finish. 
Carbon monoxide .......... 90 (long kilns)/190 (preheater/precalciner) 
parts per million dry volume.3-run average (1 hour minimum sample time 
per run).Performance test (Method 10 at 40 CFR 
part 60, appendix A–4). 
Dioxins/furans (total 
mass basis).0.51 nanograms per dry standard cubic 
meter.3-run average (collect a minimum volume of 
4 dry standard cubic meters per run).Performance test (Method 23 at 40 CFR 
part 60, appendix A–7). 
Dioxins/furans (toxic 
equivalency basis).0.075 nanograms per dry standard cubic 
meter.3-run average (collect a minimum volume of 
4 dry standard cubic meters).Performance test (Method 23 at 40 CFR 
part 60, appendix A–7). 
Hydrogen chloride ......... 3.0 parts per million dry volume .................... 3-run average (1 hour minimum sample time 
per run) or 30-day rolling average if HCl CEMS is being used.If a wet scrubber or dry scrubber is used, 
performance test (Method 321 at 40 CFR part 63, appendix A). If a wet scrubber or dry scrubber is not used, HCl CEMS as specified in § 60.2145(j). 
Lead ............................... 0.014 milligrams per dry standard cubic 
meter.3-run average (collect a minimum volume of 
4 dry standard cubic meters).Performance test (Method 29 at 40 CFR 
part 60, appendix A–8). Use ICPMS for the analytical finish. 
Mercury .......................... 0.0037 milligrams per dry standard cubic 
meter. Or 21 pounds/million tons of clink-
er3.30-day rolling average ................................... Mercury CEMS or integrated sorbent trap 
monitoring system (performance specifica-tion 12A or 12B, respectively, of appendix B and procedure 5 of appendix F of this part), as specified in § 60.2145(j). 
Nitrogen oxides ............. 200 parts per million dry volume ................... 30-day rolling average ................................... Nitrogen oxides CEMS (performance speci-
fication 2 of appendix B and procedure 1 of appendix F of this part). 
Particulate matter (filter-
able).4.9 milligrams per dry standard cubic meter 3-run average (collect a minimum volume of 
2 dry standard cubic meters).Performance test (Method 5 or 29 at 40 
CFR part 60, appendix A–3 or appendix– 8). 
Sulfur dioxide ................. 28 parts per million dry volume ..................... 30-day rolling average ................................... Sulfur dioxide CEMS (performance speci-
fication 2 of appendix B and procedure 1 of appendix F of this part). 
1All emission limitations are measured at 7 percent oxygen (except for CEMS and integrated sorbent trap monitoring system data during startup and shutdown), 
dry basis at standard conditions. For dioxins/furans, you must meet either the Total Mass Basis limit or the toxic equivalency basis limit. 
2In lieu of performance testing, you may use a CEMS or, for mercury, an integrated sorbent trap monitoring system, to demonstrate initial and continuing compli-
ance with an emissions limit, as long as you comply with the CEMS or integrated sorbent trap monitoring system requirements applicable to the specific pollutant in 
§§ 60.2145 and 60.2165. As prescribed in § 60.2145(u), if you use a CEMS or integrated sorbent trap monitoring system to demonstrate compliance with an emis-sions limit, your averaging time is a 30-day rolling average of 1-hour arithmetic average emission concentrations. 
3Alkali bypass and in-line coal mill stacks are subject to performance testing only, as specified in § 60.2145(y)(3). They are not subject to the CEMS, integrated 
sorbent trap monitoring system, or CPMS requirements that otherwise may apply to the main kiln exhaust. 
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Subpart DDDD—Emission Guidelines 
and Compliance Times for Commercial and Industrial Solid Waste Incineration Units 
■13. Amend § 60.2675 by revising the 
introductory text to paragraphs (i) introductory text, (i)(1), and (i)(2) introductory text to read as follows: 
§ 60.2675 What operating limits must I 
meet and by when? 
* * * * * 
(i) If you use a PM CPMS to 
demonstrate continuing compliance, 
you must establish your PM CPMS operating limit and determine compliance with it according to paragraphs (i)(1) through (5) of this section: 
(1) During the initial performance test 
or any such subsequent performance test that demonstrates compliance with the PM limit, record all hourly average output values (milliamps, or the digital signal equivalent) from the PM CPMS for the periods corresponding to the test runs (e.g., three 1-hour average PM 
CPMS output values for three 1-hour test runs): 
(i) Your PM CPMS must provide a 4– 
20 milliamp output, or the digital signal equivalent, and the establishment of its relationship to manual reference method measurements must be determined in units of milliamps or digital bits; 
(ii) Your PM CPMS operating range 
must be capable of reading PM concentrations from zero to a level equivalent to at least two times your allowable emission limit. If your PM CPMS is an auto-ranging instrument capable of multiple scales, the primary range of the instrument must be capable of reading PM concentration from zero to a level equivalent to two times your allowable emission limit; and 
(iii) During the initial performance 
test or any such subsequent performance test that demonstrates compliance with the PM limit, record and average all milliamp output values, or their digital equivalent, from the PM CPMS for the periods corresponding to the compliance test runs (e.g., average 
all your PM CPMS output values for the three corresponding Method 5 or Method 29 p.m. test runs). 
(2) If the average of your three PM 
performance test runs are below 75 percent of your PM emission limit, you must calculate an operating limit by establishing a relationship of PM CPMS signal to PM concentration using the PM CPMS instrument zero, the average PM CPMS output values corresponding to the three compliance test runs, and the average PM concentration from the Method 5 or Method 29 performance test with the procedures in (i)(1)through (5) of this section: 
* * * * * 
■14. Amend § 60.2710 by revising 
paragraphs (j) introductory text and 
(y)(3) to read as follows: 
§ 60.2710 How do I demonstrate 
continuous compliance with the amended emission limitations and the operating limits? 
* * * * * 
(j) For waste-burning kilns, you must 
conduct an annual performance test for 
the pollutants (except mercury and hydrogen chloride if no acid gas wet scrubber or dry scrubber is used) listed in Table 8 of this subpart, unless you choose to demonstrate initial and continuous compliance using CEMS, as allowed in paragraph (u) of this section. If you do not use an acid gas wet scrubber or dry scrubber, you must determine compliance with the hydrogen chloride emissions limit using a HCl CEMS according to the requirements in paragraph (j)(1) of this section. You must determine compliance with the mercury emissions limit using a mercury CEMS or an integrated sorbent trap monitoring system according to paragraph (j)(2) of this section. You must determine continuing compliance with particulate matter using a PM CPMS according to paragraph (x) of this section. 
* * * * * 
(y) * * * 
(3) For purposes of determining the 
combined emissions from kilns 
equipped with an alkali bypass or that exhaust kiln gases to a coal mill that exhausts through a separate stack, instead of installing a CEMS or PM CPMS on the alkali bypass stack or in- line coal mill stack, the results of the initial and subsequent performance test can be used to demonstrate compliance with the relevant emissions limit. A performance test must be conducted on an annual basis (no later than 13 calendar months following the previous performance test). 
■15. Revise § 60.2715 to read as 
follows: 
§ 60.2715 By what date must I conduct the 
annual performance test? 
You must conduct annual 
performance tests no later than 13 
calendar months following the previous performance test. 
■16. Table 7 to subpart DDDD of part 
60 is revised to read as follows: 
TABLE 7 TOSUBPART DDDD OFPART60—M ODEL RULE—EMISSION LIMITATIONS THATAPPLY TO ENERGY RECOVERY  
UNITS AFTER MAY20, 2011 
[Date to be specified in state plan]1 
For the air pollutant You must meet this emission limitation2 
Using this averaging time3 And determining compliance 
using this method3 Liquid/gas Solids 
Cadmium ..................... 0.023 milligrams per dry stand-
ard cubic meter.Biomass—0.0014 milligrams per 
dry standard cubic meter. 
Coal—0.0017 milligrams per dry standard cubic meter.3-run average (collect a min-
imum volume of 2 dry stand-ard cubic meters).Performance test (Method 29 at 
40 CFR part 60, appendix A– 8). Use ICPMS for the analyt-ical finish. 
Carbon monoxide ........ 35 parts per million dry volume .. Biomass—260 parts per million 
dry volume. Coal—95 parts per million dry volume.3-run average (1 hour minimum 
sample time per run).Performance test (Method 10 at 
40 CFR part 60, appendix A– 4). 
Dioxins/furans (total 
mass basis).2.9 nanograms per dry standard 
cubic meter.Biomass—0.52 nanograms per 
dry standard cubic meter. Coal—5.1 nanograms per dry standard cubic meter.3-run average (collect a min-
imum volume of 4 dry stand-ard cubic meter).Performance test (Method 23 at 
40 CFR part 60, appendix A– 7). 
Dioxins/furans (toxic 
equivalency basis).0.32 nanograms per dry stand-
ard cubic meter.Biomass—0.12 nanograms per 
dry standard cubic meter. Coal—0.075 nanograms per dry standard cubic meter.3-run average (collect a min-
imum volume of 4 dry stand-ard cubic meters).Performance test (Method 23 at 
40 CFR part 60, appendix A– 7). 
Hydrogen chloride ....... 14 parts per million dry volume .. Biomass—0.20 parts per million 
dry volume. Coal—58 parts per million dry volume.3-run average (for Method 26, 
collect a minimum of 120 li-ters; for Method 26A, collect a minimum volume of 1 dry standard cubic meter).Performance test (Method 26 or 
26A at 40 CFR part 60, ap-pendix A–8). 
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TABLE 7 TOSUBPART DDDD OFPART60—M ODEL RULE—EMISSION LIMITATIONS THATAPPLY TO ENERGY RECOVERY  
UNITS AFTER MAY20, 2011—Continued 
[Date to be specified in state plan]1 
For the air pollutant You must meet this emission limitation2 
Using this averaging time3 And determining compliance 
using this method3 Liquid/gas Solids 
Lead ............................. 0.096 milligrams per dry stand-
ard cubic meter.Biomass—0.014 milligrams per 
dry standard cubic meter. 
Coal—0.057 milligrams per dry standard cubic meter.3-run average (collect a min-
imum volume of 2 dry stand-
ard cubic meters).Performance test (Method 29 at 
40 CFR part 60, appendix A– 
8). Use ICPMS for the analyt-ical finish. 
Mercury ........................ 0.0024 milligrams per dry stand-
ard cubic meter.Biomass—0.0022 milligrams per 
dry standard cubic meter. Coal—0.013 milligrams per dry standard cubic meter.3-run average (For Method 29 
and ASTM D6784–02 (Re-
approved 2008)
4, collect a 
minimum volume of 2 dry 
standard cubic meters per run. For Method 30B, collect a min-imum sample as specified in Method 30B at 40 CFR part 60, appendix A).Performance test (Method 29 or 
30B at 40 CFR part 60, ap-pendix A–8) or ASTM D6784– 02 (Reapproved 2008).
4 
Nitrogen oxides ........... 76 parts per million dry volume .. Biomass—290 parts per million 
dry volume. Coal—460 parts per million dry volume.3-run average (for Method 7E, 1 
hour minimum sample time per run).Performance test (Method 7 or 
7E at 40 CFR part 60, appen-dix A–4). 
Particulate matter filter-
able.110 milligrams per dry standard 
cubic meter.Biomass—11 milligrams per dry 
standard cubic meter. Coal— 130 milligrams per dry stand-ard cubic meter.3-run average (collect a min-
imum volume of 1 dry stand-ard cubic meter).Performance test (Method 5 or 
29 at 40 CFR part 60, appen-dix A–3 or appendix A–8). 
Sulfur dioxide ............... 720 parts per million dry volume Biomass—7.3 parts per million 
dry volume. Coal—850 parts per million dry volume.3-run average (1 hour minimum 
sample time per run).Performance test (Method 6 or 
6c at 40 CFR part 60, appen-dix A–4). 
Fugitive ash ................. Visible emissions for no more 
than 5 percent of the hourly observation period.Visible emissions for no more 
than 5 percent of the hourly observation period.Three 1-hour observation peri-
ods.Visible emission test (Method 22 
at 40 CFR part 60, appendix A–7). 
1The date specified in the state plan can be no later than 3 years after the effective date of approval of a revised state plan or February 7, 2018. 
2All emission limitations (except for opacity) are measured at 7 percent oxygen, dry basis at standard conditions. For dioxins/furans, you must meet either the total 
mass basis limit or the toxic equivalency basis limit. 
3In lieu of performance testing, you may use a CEMS or, for mercury, an integrated sorbent trap monitoring system, to demonstrate initial and continuing compli-
ance with an emissions limit, as long as you comply with the CEMS or integrated sorbent trap monitoring system requirements applicable to the specific pollutant in 
§§ 60.2710 and 60.2730. As prescribed in § 60.2710(u), if you use a CEMS or integrated sorbent trap monitoring system to demonstrate compliance with an emis-sions limit, your averaging time is a 30-day rolling average of 1-hour arithmetic average emission concentrations. 
4Incorporated by reference, see § 60.17. 
■17. Table 8 to subpart DDDD of part 
60 is revised to read as follows: 
TABLE 8 TOSUBPART DDDD OFPART60—M ODEL RULE—EMISSION LIMITATIONS THATAPPLY TO WASTE -BURNING  
KILNS AFTER MAY20, 2011 
[Date to be specified in state plan]1 
For the air pollutant You must meet this emission limitation2 Using this averaging time3 And determining compliance using this 
method34 
Cadmium ....................... 0.0014 milligrams per dry standard cubic 
meter.3-run average (collect a minimum volume of 
2 dry standard cubic meters).Performance test (Method 29 at 40 CFR 
part 60, appendix A–8). 
Carbon monoxide .......... 110 (long kilns)/790 (preheater/precalciner) 
parts per million dry volume.3-run average (1 hour minimum sample time 
per run).Performance test (Method 10 at 40 CFR 
part 60, appendix A–4). 
Dioxins/furans (total 
mass basis).1.3 nanograms per dry standard cubic meter 3-run average (collect a minimum volume of 
4 dry standard cubic meters).Performance test (Method 23 at 40 CFR 
part 60, appendix A–7). 
Dioxins/furans (toxic 
equivalency basis).0.075 nanograms per dry standard cubic 
meter.3-run average (collect a minimum volume of 
4 dry standard cubic meters).Performance test (Method 23 at 40 CFR 
part 60, appendix A–7). 
Hydrogen chloride ......... 3.0 parts per million dry volume .................... 3-run average (collect a minimum volume of 
1 dry standard cubic meter), or 30-day 
rolling average if HCl CEMS is being used.If a wet scrubber or dry scrubber is used, 
performance test (Method 321 at 40 CFR part 63, appendix A of this part). If a wet scrubber or dry scrubber is not used, HCl CEMS as specified in § 60.2710(j). 
Lead ............................... 0.014 milligrams per dry standard cubic 
meter.3-run average (collect a minimum volume of 
2 dry standard cubic meters).Performance test (Method 29 at 40 CFR 
part 60, appendix A–8). 
Mercury .......................... 0.011 milligrams per dry standard cubic 
meter. Or 58 pounds/million tons of clinker.30-day rolling average ................................... Mercury CEMS or integrated sorbent trap 
monitoring system (performance specifica-tion 12A or 12B, respectively, of appendix B and procedure 5 of appendix F of this part), as specified in § 60.2710(j). 
Nitrogen oxides ............. 630 parts per million dry volume ................... 3-run average (for Method 7E, 1 hour min-
imum sample time per run).Performance test (Method 7 or 7E at 40 
CFR part 60, appendix A–4). 
Particulate matter filter-
able.13.5 milligrams per dry standard cubic meter 3-run average (collect a minimum volume of 
1 dry standard cubic meter).Performance test (Method 5 or 29 at 40 
CFR part 60, appendix A–3 or appendix– 8). 
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TABLE 8 TOSUBPART DDDD OFPART60—M ODEL RULE—EMISSION LIMITATIONS THATAPPLY TO WASTE -BURNING  
KILNS AFTER MAY20, 2011—Continued 
[Date to be specified in state plan]1 
For the air pollutant You must meet this emission limitation2 Using this averaging time3 And determining compliance using this 
method34 
Sulfur dioxide ................. 600 parts per million dry volume ................... 3-run average (for Method 6, collect a min-
imum of 20 liters; for Method 6C, 1 hour 
minimum sample time per run).Performance test (Method 6 or 6c at 40 
CFR part 60, appendix A–4). 
1The date specified in the state plan can be no later than 3 years after the effective date of approval of a revised state plan or February 7, 2018. 
2All emission limitations are measured at 7 percent oxygen (except for CEMS and integrated sorbent trap monitoring system data during startup and shutdown), 
dry basis at standard conditions. For dioxins/furans, you must meet either the total mass basis limit or the toxic equivalency basis limit. 
3In lieu of performance testing, you may use a CEMS or, for mercury, an integrated sorbent trap monitoring system, to demonstrate initial and continuing compli-
ance with an emissions limit, as long as you comply with the CEMS or integrated sorbent trap monitoring system requirements applicable to the specific pollutant in 
§§ 60.2710 and 60.2730. As prescribed in § 60.2710(u), if you use a CEMS or integrated sorbent trap monitoring system to demonstrate compliance with an emis-sions limit, your averaging time is a 30-day rolling average of 1-hour arithmetic average emission concentrations. 
4Alkali bypass and in-line coal mill stacks are subject to performance testing only, as specified in § 60.2710(y)(3). They are not subject to the CEMS, integrated 
sorbent trap monitoring system, or CPMS requirements that otherwise may apply to the main kiln exhaust. 
Subpart JJJJ—Standards of 
Performance for Stationary Spark Ignition Internal Combustion Engines 
■18. Table 2 to subpart JJJJ of part 60 
is revised to read as follows: As stated in § 60.4244, you must 
comply with the following requirements 
for performance tests within 10 percent of 100 percent peak (or the highest achievable) load]. 
TABLE 2 TOSUBPART JJJJ OFPART60—R EQUIREMENTS FOR PERFORMANCE TESTS  
For each Complying with the 
requirement to You must Using According to the following 
requirements 
1. Stationary SI internal 
combustion engine 
demonstrating compli-ance according to § 60.4244.a. Limit the concentra-
tion of NO
Xin the 
stationary SI internal combustion engine exhaust.i. Select the sampling port location 
and the number/location of tra-verse points at the exhaust of the stationary internal combustion engine; (1) Method 1 or 1A of 40 CFR part 
60, appendix A–1, if measuring flow rate.(a) Alternatively, for NO
X,O2, and 
moisture measurement, ducts ≤6 inches in diameter may be sam-pled at a single point located at the duct centroid and ducts >6 and ≤12 inches in diameter may 
be sampled at 3 traverse points located at 16.7, 50.0, and 83.3% of the measurement line (‘3-point long line’). If the duct is >12 inches in diameter and the sam-
pling port location meets the two and half-diameter criterion of Section 11.1.1 of Method 1 of 40 CFR part 60, Appendix A, the duct may be sampled at ‘3-point long line’; otherwise, conduct the stratification testing and select sampling points according to Section 8.1.2 of Method 7E of 40 CFR part 60, Appendix A. 
ii. Determine the O 2concentration 
of the stationary internal combus-tion engine exhaust at the sam-pling port location; (2) Method 3, 3A, or 3B
bof 40 
CFR part 60, appendix A–2 or ASTM Method D6522–00 (Re-approved 2005)
ad.(b) Measurements to determine O 2 
concentration must be made at the same time as the measure-ments for NO
Xconcentration. 
iii. If necessary, determine the ex-
haust flowrate of the stationary internal combustion engine ex-haust; (3) Method 2 or 2C of 40 CFR part 
60, appendix A–1 or Method 19 of 40 CFR part 60, appendix A–7.(c) Measurements to determine the 
exhaust flowrate must be made (1) at the same time as the measurement for NO
Xconcentra-
tion or, alternatively (2) according to the option in Section 11.1.2 of Method 1A of 40 CFR part 60, Appendix A–1, if applicable. 
iv. If necessary, measure moisture 
content of the stationary internal combustion engine exhaust at the sampling port location; and (4) Method 4 of 40 CFR part 60, 
appendix A–3, Method 320 of 40 CFR part 63, appendix A,
eor 
ASTM Method D6348–03de.(d) Measurements to determine 
moisture must be made at the same time as the measurement for NO
Xconcentration. 
v. Measure NO Xat the exhaust of 
the stationary internal combustion engine; if using a control device, the sampling site must be located at the outlet of the control device (5) Method 7E of 40 CFR part 60, 
appendix A–4, ASTM Method D6522–00 (Reapproved 2005),
ad 
Method 320 of 40 CFR part 63, appendix A,
eor ASTM Method 
D6348–03de.(e) Results of this test consist of 
the average of the three 1-hour or longer runs. 
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TABLE 2 TOSUBPART JJJJ OFPART60—R EQUIREMENTS FOR PERFORMANCE TESTS —Continued 
For each Complying with the 
requirement to You must Using According to the following 
requirements 
b. Limit the concentra-
tion of CO in the sta-
tionary SI internal combustion engine exhaust.i. Select the sampling port location 
and the number/location of tra-verse points at the exhaust of the stationary internal combustion engine; (1) Method 1 or 1A of 40 CFR part 
60, appendix A–1, if measuring flow rate.(a) Alternatively, for CO, O
2, and 
moisture measurement, ducts ≤6 inches in diameter may be sam-pled at a single point located at the duct centroid and ducts >6 and ≤12 inches in diameter may 
be sampled at 3 traverse points located at 16.7, 50.0, and 83.3% of the measurement line (‘3-point long line’). If the duct is >12 inches in diameter and the sam-
pling port location meets the two and half-diameter criterion of Section 11.1.1 of Method 1 of 40 CFR part 60, Appendix A, the duct may be sampled at ‘3-point long line’; otherwise, conduct the stratification testing and select sampling points according to Section 8.1.2 of Method 7E of 40 CFR part 60, Appendix A. 
ii. Determine the O 2concentration 
of the stationary internal combus-tion engine exhaust at the sam-pling port location; (2) Method 3, 3A, or 3B
bof 40 
CFR part 60, appendix A–2 or ASTM Method D6522–00 (Re-approved 2005)
ad.(b) Measurements to determine O 2 
concentration must be made at the same time as the measure-ments for CO concentration. 
iii. If necessary, determine the ex-
haust flowrate of the stationary internal combustion engine ex-haust; (3) Method 2 or 2C of 40 CFR 60, 
appendix A–1 or Method 19 of 40 CFR part 60, appendix A–7.(c) Measurements to determine the 
exhaust flowrate must be made (1) at the same time as the measurement for CO concentra-tion or, alternatively (2) according to the option in Section 11.1.2 of Method 1A of 40 CFR part 60, Appendix A–1, if applicable. 
iv. If necessary, measure moisture 
content of the stationary internal combustion engine exhaust at the sampling port location; and (4) Method 4 of 40 CFR part 60, 
appendix A–3, Method 320 of 40 CFR part 63, appendix A,
eor 
ASTM Method D6348–03de.(d) Measurements to determine 
moisture must be made at the same time as the measurement for CO concentration. 
v. Measure CO at the exhaust of 
the stationary internal combustion engine; if using a control device, the sampling site must be located at the outlet of the control device (5) Method 10 of 40 CFR part 60, 
appendix A4, ASTM Method D6522–00 (Reapproved 2005),
adeMethod 320 of 40 CFR 
part 63, appendix A,eor ASTM 
Method D6348–03de.(e) Results of this test consist of 
the average of the three 1-hour or longer runs. 
c. Limit the concentra-
tion of VOC in the stationary SI internal combustion engine exhaust.i. Select the sampling port location 
and the number/location of tra-verse points at the exhaust of the stationary internal combustion engine; (1) Method 1 or 1A of 40 CFR part 
60, appendix A–1, if measuring flow rate.(a) Alternatively, for VOC, O
2, and 
moisture measurement, ducts ≤6 inches in diameter may be sam-pled at a single point located at the duct centroid and ducts >6 and ≤12 inches in diameter may 
be sampled at 3 traverse points located at 16.7, 50.0, and 83.3% of the measurement line (‘3-point long line’). If the duct is >12 inches in diameter and the sam-
pling port location meets the two and half-diameter criterion of Section 11.1.1 of Method 1 of 40 CFR part 60, Appendix A, the duct may be sampled at ‘3-point long line’; otherwise, conduct the stratification testing and select sampling points according to Section 8.1.2 of Method 7E of 40 CFR part 60, Appendix A. 
ii. Determine the O 2concentration 
of the stationary internal combus-tion engine exhaust at the sam-pling port location; (2) Method 3, 3A, or 3B
bof 40 
CFR part 60, appendix A–2 or ASTM Method D6522–00 (Re-approved 2005)
ad.(b) Measurements to determine O 2 
concentration must be made at the same time as the measure-ments for VOC concentration. 
iii. If necessary, determine the ex-
haust flowrate of the stationary internal combustion engine ex-haust; (3) Method 2 or 2C of 40 CFR 60, 
appendix A–1 or Method 19 of 40 CFR part 60, appendix A–7.(c) Measurements to determine the 
exhaust flowrate must be made (1) at the same time as the measurement for VOC con-centration or, alternatively (2) ac-cording to the option in Section 11.1.2 of Method 1A of 40 CFR part 60, Appendix A–1, if applica-ble. 
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TABLE 2 TOSUBPART JJJJ OFPART60—R EQUIREMENTS FOR PERFORMANCE TESTS —Continued 
For each Complying with the 
requirement to You must Using According to the following 
requirements 
iv. If necessary, measure moisture 
content of the stationary internal 
combustion engine exhaust at the sampling port location; and (4) Method 4 of 40 CFR part 60, 
appendix A–3, Method 320 of 40 
CFR part 63, appendix A,
eor 
ASTM Method D6348–03de.(d) Measurements to determine 
moisture must be made at the same time as the measurement for VOC concentration. 
v. Measure VOC at the exhaust of 
the stationary internal combustion engine; if using a control device, the sampling site must be located at the outlet of the control device (5) Methods 25A and 18 of 40 CFR 
part 60, appendices A–6 and A– 
7, Method 25A with the use of a hydrocarbon cutter as described in 40 CFR 1065.265, Method 18 of 40 CFR part 60, appendix A– 6,
ceMethod 320 of 40 CFR part 
63, appendix A,eor ASTM Meth-
od D6348–03de.(e) Results of this test consist of 
the average of the three 1-hour 
or longer runs. 
aAlso, you may petition the Administrator for approval to use alternative methods for portable analyzer. 
bYou may use ASME PTC 19.10–1981, Flue and Exhaust Gas Analyses, for measuring the O 2content of the exhaust gas as an alternative to EPA Method 3B. 
AMSE PTC 19.10–1981 incorporated by reference, see 40 CFR 60.17 
cYou may use EPA Method 18 of 40 CFR part 60, appendix A–6, provided that you conduct an adequate pre-survey test prior to the emissions test, such as the 
one described in OTM 11 on EPA’s website (http://www.epa.gov/ttn/emc/prelim/otm11.pdf ). 
dIncorporated by reference; see 40 CFR 60.17. 
eYou must meet the requirements in § 60.4245(d). 
Subpart KKKK—Standards of 
Performance for Stationary Combustion Turbines 
■19. Amend § 60.4415 by revising 
paragraph (a) introductory text, redesignating paragraphs (a)(1) through (3) as paragraphs (a)(2) through (4), adding new paragraph (a)(1), and revising the newly redesignated paragraph (a)(2) to read as follows: 
§ 60.4415 How do I conduct the initial and 
subsequent performance tests for sulfur? 
(a) You must conduct an initial 
performance test, as required in § 60.8. 
Subsequent SO 2performance tests shall 
be conducted on an annual basis (no more than 14 calendar months following the previous performance test). There are four methodologies that you may use to conduct the performance tests. 
(1) The use of a current, valid 
purchase contract, tariff sheet, or transportation contract for the fuel specifying the maximum total sulfur content of all fuels combusted in the affected facility. Alternately, the fuel sampling data specified in section 2.3.1.4 or 2.3.2.4 of appendix D to part 75 of this chapter may be used. 
(2) Periodically determine the sulfur 
content of the fuel combusted in the turbine, a representative fuel sample may be collected either by an automatic sampling system or manually. For automatic sampling, follow ASTM D5287 (incorporated by reference, see § 60.17) for gaseous fuels or ASTM D4177 (incorporated by reference, see § 60.17) for liquid fuels. For manual sampling of gaseous fuels, follow API Manual of Petroleum Measurement Standards, Chapter 14, Section 1, GPA 2166, or ISO 10715 (all incorporated by reference, see § 60.17). For manual sampling of liquid fuels, follow GPA 2174 or the procedures for manual pipeline sampling in section 14 of ASTM D4057 (both incorporated by reference, see § 60.17). The fuel analyses of this section may be performed either by you, a service contractor retained by you, the fuel vendor, or any other qualified agency. Analyze the samples for the total sulfur content of the fuel using: 
(i) For liquid fuels, ASTM D129, or 
alternatively D1266, D1552, D2622, D4294, D5453, D5623, or D7039 (all incorporated by reference, see § 60.17); or 
(ii) For gaseous fuels, ASTM D1072, 
or alternatively D3246, D4084, D4468, D4810, D6228, D6667, or GPA 2140, 2261, or 2377 (all incorporated by reference, see § 60.17). 
* * * * * 
Subpart QQQQ—Standards of 
Performance for New Residential Hydronic Heaters and Forced-Air Furnaces 
■20. Amend § 60.5476 by revising 
paragraph (i) to read as follows: 
§ 60.5476 What test methods and 
procedures must I use to determine compliance with the standards and requirements for certification? 
* * * * * 
(i) The approved test laboratory must 
allow the manufacturer, the 
manufacturer’s approved third-party certifier, the EPA and delegated state regulatory agencies to observe certification testing. However, manufacturers must not involve themselves in the conduct of the test after the pretest burn has begun. Communications between the manufacturer and laboratory or third- party certifier personnel regarding operation of the central heater must be limited to written communications transmitted prior to the first pretest burn of the certification test series. During certification tests, the manufacturer may communicate with the third-party certifier, and only in writing to notify them that the manufacturer has observed a deviation from proper test procedures by the laboratory. All communications must be included in the test documentation required to be submitted pursuant to § 60.5475(b)(5) and must be consistent with instructions provided in the owner’s manual required under § 60.5478(f). 
■21. Amend Appendix A–3 to part 60 
by: 
■a. In Method 4, revising sections 
‘‘2.1’’, ‘‘6.1.5’’, ‘‘8.1.2.1’’, ‘‘8.1.3’’, ‘‘8.1.3.2.1’’, ‘‘8.1.3.2.2’’, ‘‘8.1.4.2’’, ‘‘9.1’’, ‘‘11.1’’, ‘‘11.2’’, ‘‘12.1.1’’, ‘‘12.1.2’’, ‘‘12.1.3’’, ‘‘12.2.1’’, and ‘‘12.2.2’’ and ‘‘Figure 4–4’’ and ‘‘Figure 4–5’’; and 
■b. In Method 5, revising sections 
‘‘6.1.1.8’’, ‘‘6.2.4’’, ‘‘6.2.5’’, ‘‘8.1.2’’, ‘‘8.7.6.4’’, ‘‘12.1’’, ‘‘12.3’’, ‘‘12.4’’, ‘‘12.11.1’’, ‘‘12.11.2’’, ‘‘16.1.1.4’’, and ‘‘16.2.3.3’’ and ‘‘Figure 5–6’’. 
The revisions read as follows: 
Appendix A–3 to Part 60—Test Methods 4 Through 5I 
* * * * * 
Method 4—Determination of Moisture 
Content in Stack Gases 
* * * * * 
2.1 A gas sample is extracted at a 
constant rate from the source; moisture is removed from the sample stream and determined gravimetrically. 
* * * * * 
6.1.5 Barometer and Balance. Same as 
Method 5, sections 6.1.2 and 6.2.5, respectively. 
* * * * * 
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8.1.2.1 Transfer water into the first two 
impingers, leave the third impinger empty 
and add silica gel to the fourth impinger. Weigh the impingers before sampling and 
record the weight to the nearest 0.5g at a minimum. 
* * * * * 
8.1.3 Leak-Check Procedures. 8.1.3.1 Leak Check of Metering System 
Shown in Figure 4–1. That portion of the sampling train from the pump to the orifice meter should be leak-checked prior to initial use and after each shipment. Leakage after the pump will result in less volume being recorded than is actually sampled. The following procedure is suggested (see Figure 5–2 of Method 5): Close the main valve on the meter box. Insert a one-hole rubber stopper with rubber tubing attached into the orifice exhaust pipe. Disconnect and vent the low side of the orifice manometer. Close off the low side orifice tap. Pressurize the system to 13 to 18 cm (5 to 7 in.) water column by blowing into the rubber tubing. Pinch off the tubing and observe the manometer for one minute. A loss of pressure on the manometer indicates a leak in the meter box; leaks, if present, must be corrected. 
8.1.3.2 Pretest Leak Check. A pretest leak 
check of the sampling train is recommended, but not required. If the pretest leak check is conducted, the following procedure should be used. 
8.1.3.2.1 After the sampling train has 
been assembled, turn on and set the filter and probe heating systems to the desired operating temperatures. Allow time for the temperatures to stabilize. 
8.1.3.2.2 Leak-check the train by first 
plugging the inlet to the filter holder and pulling a 380 mm (15 in.) Hg vacuum. Then 
connect the probe to the train, and leak-check at approximately 25 mm (1 in.) Hg vacuum; alternatively, the probe may be leak-checked with the rest of the sampling train, in one step, at 380 mm (15 in.) Hg vacuum. Leakage rates in excess of 4 percent of the average sampling rate or 0.00057 m
3/min (0.020 cfm), 
whichever is less, are unacceptable. 
8.1.3.2.3 Start the pump with the bypass 
valve fully open and the coarse adjust valve completely closed. Partially open the coarse adjust valve, and slowly close the bypass valve until the desired vacuum is reached. Do not reverse the direction of the bypass valve, as this will cause water to back up into the filter holder. If the desired vacuum is exceeded, either leak-check at this higher 
vacuum, or end the leak check and start over. 
8.1.3.2.4 When the leak check is 
completed, first slowly remove the plug from the inlet to the probe, filter holder, and immediately turn off the vacuum pump. This prevents the water in the impingers from being forced backward into the filter holder and the silica gel from being entrained backward into the third impinger. 
8.1.3.3 Leak Checks During Sample Run. 
If, during the sampling run, a component (e.g., filter assembly or impinger) change 
becomes necessary, a leak check shall be conducted immediately before the change is made. The leak check shall be done according to the procedure outlined in section 8.1.3.2 above, except that it shall be done at a vacuum equal to or greater than the maximum value recorded up to that point in the test. If the leakage rate is found to be no greater than 0.00057 m
3/min (0.020 cfm) or 
4 percent of the average sampling rate (whichever is less), the results are acceptable, and no correction will need to be applied to 
the total volume of dry gas metered; if, however, a higher leakage rate is obtained, either record the leakage rate and plan to correct the sample volume as shown in section 12.3 of Method 5, or void the sample run. 
Note: Immediately after component 
changes, leak checks are optional. If such leak checks are done, the procedure outlined in section 8.1.3.2 above should be used. 
8.1.3.4 Post-Test Leak Check. A leak 
check of the sampling train is mandatory at the conclusion of each sampling run. The leak check shall be performed in accordance with the procedures outlined in section 8.1.3.2, except that it shall be conducted at a vacuum equal to or greater than the maximum value reached during the sampling run. If the leakage rate is found to be no greater than 0.00057 m
3min (0.020 cfm) or 
4 percent of the average sampling rate (whichever is less), the results are acceptable, and no correction need be applied to the total volume of dry gas metered. If, however, a higher leakage rate is obtained, either record 
the leakage rate and correct the sample volume as shown in section 12.3 of Method 5 or void the sampling run. 
* * * * * 
8.1.4.2 At the end of the sample run, 
close the coarse adjust valve, remove the probe and nozzle from the stack, turn off the pump, record the final DGM meter reading, and conduct a post-test leak check, as outlined in section 8.1.3.4. 
* * * * * 
9.1 Miscellaneous Quality Control 
Measures. 
Section Quality control measure Effect 
Section 8.1.3.2.2 ............. Leak rate of the sampling system cannot exceed four 
percent of the average sampling rate or 0.00057 m3/ 
min (0.020 cfm).Ensures the accuracy of the volume of gas sampled. 
(Reference Method). 
Section 8.2.1 ................... Leak rate of the sampling system cannot exceed two 
percent of the average sampling rate.Ensures the accuracy of the volume of gas sampled. 
(Approximation Method). 
* * * * * 
11.1 Reference Method. Weigh the 
impingers after sampling and record the 
difference in weight to the nearest 0.5 g at a minimum. Determine the increase in weight of the silica gel (or silica gel plus impinger) to the nearest 0.5 g at a minimum. Record this information (see example data sheet, Figure 4–5), and calculate the moisture content, as described in section 12.0. 
11.2 Approximation Method. Weigh the 
contents of the two impingers, and measure 
the weight to the nearest 0.5 g. 
* * * * * 
12.1.1 Nomenclature. B
ws= Proportion of water vapor, by 
volume, in the gas stream. 
Mw= Molecular weight of water, 18.015 g/ 
g-mole (18.015 lb/lb-mole). Pm= Absolute pressure (for this method, 
same as barometric pressure) at the dry gas 
meter, mm Hg (in. Hg). 
Pstd= Standard absolute pressure, 760 mm 
Hg (29.92 in. Hg). 
R = Ideal gas constant, 0.06236 (mm 
Hg)(m3)/(g-mole)(°K) for metric units and 
21.85 (in. Hg)(ft3)/(lb-mole) (°R) for English 
units. 
Tm= Absolute temperature at meter, °K 
(°R). 
Tstd= Standard absolute temperature, 
293.15 °K (527.67 °R). 
Vf= Final weight of condenser water plus 
impinger, g. 
Vi= Initial weight, if any, of condenser 
water plus impinger, g. 
Vm= Dry gas volume measured by dry gas 
meter, dcm (dcf). Vm(std)= Dry gas volume measured by the 
dry gas meter, corrected to standard conditions, dscm (dscf). 
V
wc(std)= Volume of water vapor 
condensed, corrected to standard conditions, scm (scf). 
V
wsg(std)= Volume of water vapor collected 
in silica gel, corrected to standard conditions, scm (scf). 
W
f= Final weight of silica gel or silica gel 
plus impinger, g. 
Wi= Initial weight of silica gel or silica gel 
plus impinger, g. 
Y = Dry gas meter calibration factor. 
DV m= Incremental dry gas volume 
measured by dry gas meter at each traverse point, dcm (dcf). 
12.1.2 Volume of Water Vapor 
Condensed. 
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Where: 
K1= 0.001335 m3/g for metric units, 
= 0.04716 ft3/g for English units. 
12.1.3 * * * 
K3= 0.001335 m3/g for metric units, 
= 0.04716 ft3/g for English units. 
* * * * * 
12.2.1 Nomenclature. 
Bwm= Approximate proportion by volume 
of water vapor in the gas stream leaving the second impinger, 0.025. 
B
ws= Water vapor in the gas stream, 
proportion by volume. Mw= Molecular weight of water, 18.015 g/ 
g-mole (18.015 lb/lb-mole). 
Pm= Absolute pressure (for this method, 
same as barometric pressure) at the dry gas 
meter, mm Hg (in. Hg). 
Pstd= Standard absolute pressure, 760 mm 
Hg (29.92 in. Hg). 
R = Ideal gas constant, 0.06236 [(mm 
Hg)(m3)]/[(g-mole)(K)] for metric units and 
21.85 [(in. Hg)(ft3)]/[(lb-mole)(°R)] for English 
units. 
Tm= Absolute temperature at meter, °K 
(°R). 
Tstd= Standard absolute temperature, 
293.15 °K (527.67 °R). Vf= Final weight of condenser water plus 
impinger, g. 
Vi= Initial weight, if any, of condenser 
water plus impinger, g. 
Vm= Dry gas volume measured by dry gas 
meter, dcm (dcf). 
Vm(std)= Dry gas volume measured by dry 
gas meter, corrected to standard conditions, 
dscm (dscf). 
Vwc(std)= Volume of water vapor 
condensed, corrected to standard conditions, scm (scf). 
Y = Dry gas meter calibration factor. 12.2.2 Volume of Water Vapor Collected. 
K5= 0.001335 m3/g for metric units, = 0.04716 ft3/g for English units. 
* * * * * 
BILLING CODE 6560–50–P 
BILLING CODE 6560–50–C 
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ER07OC20.004</GPH> ER07OC20.005</GPH> ER07OC20.006</GPH>Clock Time 
Final 
Initial 
Difference (Vf-Vi)RTstd 
Vwc(std) = P. M, std w 
(Vf -Vi)RTstd 
Vwc(std) = p M std w 
= Ks(Vf -Vi) Eq4-1 
Eq4-5 
Gas Volume through meter (Vm), Rate meter setting 
(m3 or ft3) (m3/min or ft3/min) Meter temperature 
(°C or °F) 
Figure 4-4. Example Moisture Determination Field Data Sheet -Approximation Method 
lmpinger weight Silica gel weight 
(g) (g) 
Figure 4-5. Analytical Data -Reference Method 63413 Federal Register / Vol. 85, No. 195 / Wednesday, October 7, 2020 / Rules and Regulations 
Method 5—Determination of Particulate 
Matter Emissions From Stationary Sources 
* * * * * 
6.1.1.8 Condenser. The following system 
shall be used to determine the stack gas 
moisture content: Four impingers connected in series with leak-free ground glass fittings or any similar leak-free noncontaminating fittings. The first, third, and fourth impingers shall be of the Greenburg-Smith design, modified by replacing the tip with a 1.3 cm (
1⁄2in.) ID glass tube extending to about 1.3 
cm (1⁄2in.) from the bottom of the flask. The 
second impinger shall be of the Greenburg- Smith design with the standard tip. Modifications (e.g., using flexible 
connections between the impingers, using materials other than glass, or using flexible vacuum lines to connect the filter holder to the condenser) may be used, subject to the approval of the Administrator. The first and second impingers shall contain known 
quantities of water (Section 8.3.1), the third shall be empty, and the fourth shall contain a known weight of silica gel, or equivalent desiccant. A temperature sensor, capable of measuring temperature to within 1 °C (2 °F) shall be placed at the outlet of the fourth impinger for monitoring purposes. Alternatively, any system that cools the sample gas stream and allows measurement of the water condensed and moisture leaving the condenser, each to within 0.5 g may be used, subject to the approval of the Administrator. An acceptable technique involves the measurement of condensed water either gravimetrically and the determination of the moisture leaving the condenser by: (1) Monitoring the temperature and pressure at the exit of the condenser and using Dalton’s law of partial pressures; or (2) passing the sample gas stream through a tared silica gel (or equivalent desiccant) trap with exit gases kept below 20 °C (68 °F) and determining the weight gain. If means other than silica gel are used to determine the amount of moisture leaving the condenser, it is recommended that silica gel (or equivalent) still be used between the condenser system and pump to prevent moisture condensation in the pump and metering devices and to avoid the need to make corrections for moisture in the metered volume. 
Note: If a determination of the PM 
collected in the impingers is desired in addition to moisture content, the impinger system described above shall be used, without modification. Individual States or control agencies requiring this information shall be contacted as to the sample recovery and analysis of the impinger contents. 
* * * * * 
6.2.4 Petri dishes. For filter samples; 
glass, polystyrene, or polyethylene, unless otherwise specified by the Administrator. 
6.2.5 Balance. To measure condensed 
water to within 0.5 g at a minimum. 
* * * * * 
8.1.2 Check filters visually against light 
for irregularities, flaws, or pinhole leaks. Label filters of the proper diameter on the back side near the edge using numbering machine ink. As an alternative, label the shipping containers (glass, polystyrene or polyethylene petri dishes), and keep each filter in its identified container at all times 
except during sampling. 
* * * * * 
8.7.6.4 Impinger Water. Treat the 
impingers as follows: Make a notation of any color or film in the liquid catch. Measure the 
liquid that is in the first three impingers by weighing it to within 0.5 g at a minimum by using a balance. Record the weight of liquid present. This information is required to calculate the moisture content of the effluent gas. Discard the liquid after measuring and recording the weight, unless analysis of the impinger catch is required (see Note, section 6.1.1.8). If a different type of condenser is used, measure the amount of moisture condensed gravimetrically. 
* * * * * 
12.1 Nomenclature. A
n= Cross-sectional area of nozzle, m2 
(ft2). 
Bws= Water vapor in the gas stream, 
proportion by volume. 
Ca= Acetone blank residue concentration, 
mg/mg. 
cs= Concentration of particulate matter in 
stack gas, dry basis, corrected to standard conditions, g/dscm (gr/dscf). 
I = Percent of isokinetic sampling. L
1= Individual leakage rate observed 
during the leak-check conducted prior to the first component change, m
3/min (ft3/min) 
La= Maximum acceptable leakage rate for 
either a pretest leak-check or for a leak-check following a component change; equal to 0.00057 m
3/min (0.020 cfm) or 4 percent of 
the average sampling rate, whichever is less. 
Li= Individual leakage rate observed 
during the leak-check conducted prior to the ‘‘i
th’’ component change (i = 1, 2, 3 . . . n), 
m3/min (cfm). 
Lp= Leakage rate observed during the post- 
test leak-check, m3/min (cfm). 
ma= Mass of residue of acetone after 
evaporation, mg. 
mn= Total amount of particulate matter 
collected, mg. 
Mw= Molecular weight of water, 18.015 g/ 
g-mole (18.015 lb/lb-mole). 
Pbar= Barometric pressure at the sampling 
site, mm Hg (in. Hg). 
Ps= Absolute stack gas pressure, mm Hg 
(in. Hg). 
Pstd= Standard absolute pressure, 760 mm 
Hg (29.92 in. Hg). 
R = Ideal gas constant, 0.06236 ((mm 
Hg)(m3))/((K)(g-mole)) {21.85 ((in. Hg) (ft3))/ 
((°R) (lb-mole))}. 
Tm= Absolute average DGM temperature 
(see Figure 5–3), K (°R). 
Ts= Absolute average stack gas 
temperature (see Figure 5–3), K (°R). 
Tstd= Standard absolute temperature, 
293.15 K (527.67 °R). 
Va= Volume of acetone blank, ml. 
Vaw= Volume of acetone used in wash, ml. 
V1c= Total volume of liquid collected in 
impingers and silica gel (see Figure 5–6), g. 
Vm= Volume of gas sample as measured by 
dry gas meter, dcm (dcf). 
Vm(std)= Volume of gas sample measured 
by the dry gas meter, corrected to standard conditions, dscm (dscf). 
V
w(std)= Volume of water vapor in the gas 
sample, corrected to standard conditions, scm (scf). V
s= Stack gas velocity, calculated by 
Method 2, Equation 2–7, using data obtained 
from Method 5, m/sec (ft/sec). 
Wa= Weight of residue in acetone wash, 
mg. 
Y = Dry gas meter calibration factor. DH = Average pressure differential across 
the orifice meter (see Figure 5–4), mm H
2O 
(in. H 2O). 
ra= Density of acetone, mg/ml (see label 
on bottle). 
q = Total sampling time, min. 
q1= Sampling time interval, from the 
beginning of a run until the first component change, min. 
q
i= Sampling time interval, between two 
successive component changes, beginning 
with the interval between the first and second changes, min. 
q
p= Sampling time interval, from the final 
(nth) component change until the end of the 
sampling run, min. 
13.6 = Specific gravity of mercury. 60 = Sec/min. 100 = Conversion to percent. 
* * * * * 
12.3 * * * K
1= 0.38572 °K/mm Hg for metric units, 
= 17.636 °R/in. Hg for English units. 
* * * * * 
12.4 Volume of Water Vapor Condensed 
Where: 
K2= 0.001335 m3/g for metric units, = 
0.04716 ft3/g for English units. 
* * * * * 
12.11.1 * * * 
Where: K
4= 0.003456 ((mm Hg)(m3))/((ml)(°K)) for 
metric units, 
= 0.002668 ((in. Hg)(ft3))/((ml)(°R)) for 
English units. 
* * * * * 
12.11.2 * * * 
Where: K
5= 4.3209 for metric units, = 0.09450 for 
English units. 
* * * * * 
16.1.1.4 * * * 
Where: K
1= 0.38572 °K/mm Hg for metric units, = 
17.636 °R/in. Hg for English units. 
Tadj= 273.15 °C for metric units = 459.67 °F 
for English units. 
* * * * * 
16.2.3.3 * * * 
Where: K
1= 0.38572 °K/mm Hg for metric units, = 
17.636 °R/in. Hg for English units. 
* * * * * 
18.0 * * * 
Plant lll  
Date 
Run No. Filter No. 
Amount liquid lost during transport, mg 
Acetone blank volume, ml 
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ER07OC20.007</GPH>V, TT RTstd w(std) = v1c -MP w std Eq. 5-2 63414 Federal Register / Vol. 85, No. 195 / Wednesday, October 7, 2020 / Rules and Regulations 
Acetone blank concentration, mg/mg 
(Equation 5–4) Acetone wash blank, mg (Equation 5–5) 
* * * * * 
■22. Amend Appendix A–4 to part 60 
in Method 7C by revising section 7.2.11 
and in Method 7E by revising section 8.5 introductory text to read as follows: 
Appendix A–4 to Part 60—Test 
Methods 6 Through 10B 
* * * * * 
Method 7C—Determination of Nitrogen 
Oxide Emissions From Stationary Sources— Alkaline—Permanganate/Colorimetric Method 
* * * * * 
7.2.11 Sodium Nitrite (NaNO 2) Standard 
Solution, Nominal Concentration, 1000 mg 
NO 2¥/ml. Desiccate NaNO 2overnight. 
Accurately weigh 1.4 to 1.6 g of NaNO 2 
(assay of 97 percent NaNO 2or greater), 
dissolve in water, and dilute to 1 liter. Calculate the exact NO
2-concentration using 
Equation 7C–1 in section 12.2. This solution is stable for at least 6 months under laboratory conditions. 
* * * * * 
Method 7E—Determination of Nitrogen 
Oxide Emissions From Stationary Sources (Instrumental Analyzer Procedure) 
* * * * * 
8.5 Post-Run System Bias Check and Drift 
Assessment. 
How do I confirm that each sample I 
collect is valid? After each run, repeat the 
system bias check or 2-point system calibration error check (for dilution systems) to validate the run. Do not make adjustments to the measurement system (other than to maintain the target sampling rate or dilution ratio) between the end of the run and the completion of the post-run system bias or system calibration error check. Note that for all post-run system bias or 2-point system calibration error checks, you may inject the low-level gas first and the upscale gas last, or vice-versa. If conducting a relative accuracy test or relative accuracy test audit, consisting of nine runs or more, you may risk sampling for up to three runs before performing the post-run bias or system calibration error check provided you pass this test at the conclusion of the group of three runs. A failed post-run bias or system calibration error check in this case will invalidate all runs subsequent to the last passed check. When conducting a performance or compliance test, you must perform a post-run system bias or system calibration error check after each individual test run. 
* * * * * 
■23. Amend Appendix A–5 to part 60, 
Method 12 by: 
■a. Revising sections ‘‘7.1.2’’, ‘‘8.7.1.6’’, 
‘‘8.7.3.1’’, ‘‘8.7.3.3’’, ‘‘8.7.3.6’’, ‘‘12.1’’, 
‘‘12.3’’, ‘‘16.1’’ through ‘‘16.5’’; 
■b. Adding sections 16.5.1 and 16.5.2; 
and 
■c. Removing section 16.6. 
The revisions and additions read as 
follows: 
Appendix A–5 to Part 60—Test 
Methods 11 Through 15A 
* * * * * 
Method 12—Determination of Inorganic 
Lead Emissions From Stationary Sources 
* * * * * 
7.1.2 Silica Gel and Crushed Ice. Same as 
Method 5, sections 7.1.2 and 7.1.4, respectively. 
* * * * * 
8.7.1.6 Brush and rinse with 0.1 N HNO 3 
the inside of the front half of the filter holder. Brush and rinse each surface three times or more, if needed, to remove visible sample matter. Make a final rinse of the brush and filter holder. After all 0.1 N HNO
3washings 
and sample matter are collected in the sample container, tighten the lid on the 
sample container so that the fluid will not leak out when it is shipped to the laboratory. Mark the height of the fluid level to determine whether leakage occurs during transport. Label the container to identify its contents clearly. 
* * * * * 
8.7.3.1 Cap the impinger ball joints. 
* * * * * 
8.7.3.3 Treat the impingers as follows: 
Make a notation of any color or film in the liquid catch. Measure the liquid that is in the first three impingers by weighing it to within 0.5 g at a minimum by using a balance. Record the weight of liquid present. The liquid weight is needed, along with the silica gel data, to calculate the stack gas moisture content (see Method 5, Figure 5–6). 
* * * * * 
8.7.3.6 Rinse the insides of each piece of 
connecting glassware for the impingers twice with 0.1 N HNO
3; transfer this rinse into 
Container No. 4. Do not rinse or brush the glass-fritted filter support. Mark the height of the fluid level to determine whether leakage 
occurs during transport. Label the container to identify its contents clearly. 
* * * * * 
12.1 Nomenclature. A
m= Absorbance of the sample solution. 
An= Cross-sectional area of nozzle, m2 
(ft2). 
At= Absorbance of the spiked sample 
solution. 
Bws= Water in the gas stream, proportion 
by volume. 
Ca= Lead concentration in standard 
solution, mg/ml. 
Cm= Lead concentration in sample 
solution analyzed during check for matrix effects, mg/ml. 
C
s= Lead concentration in stack gas, dry 
basis, converted to standard conditions, mg/ dscm (gr/dscf). 
I = Percent of isokinetic sampling. 
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ER07OC20.008</GPH>Container number Weight of particulate collected, mg 
Final weight Tare weight Weight gain 
1. 
2. 
Total collected particulate 
Less acetone wash blank 
Weight of particulate matter 
Weight of liquid collected, g 
lmpinger weight Silica gel weight 
Final 
Initial 
Liquid collected 
Total weight collected 
Figure 5-6. Analytical Data Sheet 63415 Federal Register / Vol. 85, No. 195 / Wednesday, October 7, 2020 / Rules and Regulations 
L1= Individual leakage rate observed 
during the leak-check conducted prior to the 
first component change, m3/min (ft3/min). 
La= Maximum acceptable leakage rate for 
either a pretest leak-check or for a leak-check following a component change; equal to 
0.00057 m
3/min (0.020 cfm) or 4 percent of 
the average sampling rate, whichever is less. 
Li= Individual leakage rate observed 
during the leak-check conducted prior to the ‘‘ith’’ component change (i = 1, 2, 3 * * * n), m
3/min (cfm). 
Lp= Leakage rate observed during the post- 
test leak-check, m3/min (cfm). 
mt= Total weight of lead collected in the 
sample, mg. 
Mw= Molecular weight of water, 18.0 g/g- 
mole (18.0 lb/lb-mole). 
Pbar= Barometric pressure at the sampling 
site, mm Hg (in. Hg). 
Ps= Absolute stack gas pressure, mm Hg 
(in. Hg). 
Pstd= Standard absolute pressure, 760 mm 
Hg (29.92 in. Hg). 
R = Ideal gas constant, 0.06236 [(mm Hg) 
(m3)]/[(°K) (g-mole)] {21.85 [(in. Hg) (ft3)]/ 
[(°R) (lb-mole)]}. 
Tm= Absolute average dry gas meter 
temperature (see Figure 5–3 of Method 5), °K (°R). 
T
std= Standard absolute temperature, 293 
°K (528 °R). 
vs= Stack gas velocity, m/sec (ft/sec). 
Vm= Volume of gas sample as measured by 
the dry gas meter, dry basis, m3(ft3). 
Vm(std)= Volume of gas sample as measured 
by the dry gas meter, corrected to standard conditions, m
3(ft3). 
Vw(std)= Volume of water vapor collected 
in the sampling train, corrected to standard conditions, m
3(ft3). 
Y = Dry gas meter calibration factor. DH = Average pressure differential across 
the orifice meter (see Figure 5–3 of Method 5), mm H
2O (in. H 2O). 
q = Total sampling time, min. 
ql= Sampling time interval, from the 
beginning of a run until the first component change, min. 
q
i= Sampling time interval, between two 
successive component changes, beginning with the interval between the first and second changes, min. 
q
p= Sampling time interval, from the final 
(nth) component change until the end of the 
sampling run, min. 
* * * * * 
12.3 Dry Gas Volume, Volume of Water 
Vapor Condensed, and Moisture Content. Using data obtained in this test, calculate V
m(std), Vw(std), and B wsaccording to the 
procedures outlined in Method 5, sections 12.3 through 12.5. 
* * * * * 
16.1 Simultaneous Determination of 
Particulate Matter and Lead Emissions. Method 12 may be used to simultaneously determine Pb and particulate matter provided: 
(1) A glass fiber filter with a low Pb 
background is used and this filter is checked, desiccated and weighed per section 8.1 of Method 5, 
(2) An acetone rinse, as specified by 
Method 5, sections 7.2 and 8.7.6.2, is used to remove particulate matter from the probe and inside of the filter holder prior to and kept 
separate from the 0.1 N HNO
3rinse of the 
same components, 
(3) The recovered filter, the acetone rinse, 
and an acetone blank (Method 5, section 7.2) are subjected to the gravimetric analysis of Method 5, sections 6.3 and 11.0 prior to the analysis for Pb as described below, and 
(4) The entire train contents, including the 
0.1 N HNO
3impingers, filter, acetone and 0.1 
N HNO 3probe rinses are treated and 
analyzed for Pb as described in sections 8.0 and 11.0 of this method. 
16.2 Filter Location. A filter may be used 
between the third and fourth impingers provided the filter is included in the analysis for Pb. 
16.3 In-Stack Filter. An in-stack filter 
may be used provided: (1) A glass-lined probe and at least two impingers, each containing 100 ml of 0.1 N HNO
3after the 
in-stack filter, are used and (2) the probe and impinger contents are recovered and analyzed for Pb. Recover sample from the nozzle with acetone if a particulate analysis is to be made as described in section 16.1 of this method. 
16.4 Inductively Coupled Plasma-Atomic 
Emission Spectrometry (ICP–AES) Analysis. ICP–AES may be used as an alternative to atomic absorption analysis provided the following conditions are met: 
16.4.1 Sample collection/recovery, 
sample loss check, and sample preparation procedures are as defined in sections 8.0, 11.1, and 11.2, respectively, of this method. 
16.4.2 Analysis shall be conducted 
following Method 6010D of SW–846 (incorporated by reference, see § 60.17). The limit of detection for the ICP–AES must be demonstrated according to section 15.0 of Method 301 in appendix A of part 63 of this chapter and must be no greater than one- third of the applicable emission limit. 
Perform a check for matrix effects according to section 11.5 of this method. 
16.5 Inductively Coupled Plasma-Mass 
Spectrometry (ICP–MS) Analysis. ICP–MS may be used as an alternative to atomic absorption analysis provided the following conditions are met: 
16.5.1 Sample collection/recovery, 
sample loss check, and sample preparation procedures are as defined in sections 8.0, 11.1, and 11.2, respectively of this method. 
16.5.2 Analysis shall be conducted 
following Method 6020B of SW–846 (incorporated by reference, see § 60.17). The limit of detection for the ICP–MS must be demonstrated according to section 15.0 of Method 301 in appendix A to part 63 of this chapter and must be no greater than one- third of the applicable emission limit. Use the multipoint calibration curve option in section 10.4 of Method 6020B and perform a check for matrix effects according to section 11.5 of this method. 
* * * * * 
■24. Amend Appendix A–6 to part 60 
by: 
■a. In Method 16B by: 
■i. Revising sections 2.1, 6.1, 8.2; 
■ii. Removing section 8.3; 
■iii. Redesignating sections 8.4, 8.4.1, 
and 8.4.2 as 8.3, 8.3.1, and 8.3.2, 
respectively; ■iv. Revising section 11.1; and 
■v. Adding section 11.2; and 
■b. In Method 16C, revising section 
13.1. 
The revisions and addition read as 
follows: 
Appendix A–6 to Part 60—Test 
Methods 16 Through 18 
* * * * * 
Method 16B—Determination of Total 
Reduced Sulfur Emissions From Stationary Sources 
* * * * * 
2.1 A gas sample is extracted from the 
stack. The SO 2is removed selectively from 
the sample using a citrate buffer solution. The TRS compounds are then thermally oxidized to SO
2and analyzed as SO 2by gas 
chromatography (GC) using flame photometric detection (FPD). 
* * * * * 
6.1 Sample Collection. The sampling 
train is shown in Figure 16B–1. Modifications to the apparatus are accepted provided the system performance check in section 8.3.1 is met. 
* * * * * 
8.2 Sample Collection. Before any source 
sampling is performed, conduct a system performance check as detailed in section 8.3.1 to validate the sampling train components and procedures. Although this test is optional, it would significantly reduce the possibility of rejecting tests as a result of failing the post-test performance check. At the completion of the pretest system performance check, insert the sampling probe into the test port making certain that no dilution air enters the stack though the port. Condition the entire system with sample for a minimum of 15 minutes before beginning analysis. If the sample is diluted, determine the dilution factor as in section 10.4 of Method 15. 
* * * * * 
11.1 Analysis. Inject aliquots of the 
sample into the GC/FPD analyzer for analysis. Determine the concentration of SO
2 
directly from the calibration curves or from the equation for the least-squares line. 
11.2 Perform analysis of a minimum of 
three aliquots or one every 15 minutes, whichever is greater, spaced evenly over the test period. 
* * * * * 
Method 16C—Determination of Total Reduced Sulfur Emissions From Stationary Sources 
* * * * * 
13.1 Analyzer Calibration Error. At each 
calibration gas level (low, mid, and high), the calibration error must either not exceed 5.0 percent of the calibration span or |C
Dir¥C v| 
must be ≤0.5 ppmv. 
* * * * * 
■25. Amend Appendix A–7 to part 6 
by: 
■a. In Method 24, revising section 6.2. 
■b. In Method 25C, revising sections 
8.4.2, 9.1, 12.5, 12.5.1, and 12.5.2. 
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The revisions read as follows: 
Appendix A–7 to Part 60—Test 
Methods 19 Through 25E 
* * * * * 
Method 24—Determinaton of Volatile Matter 
Content, Water Content, Density, Volume Solids, and Weight Solids of Surface Coatings 
* * * * * 6.2 ASTM D 2369–81, 87, 90, 92, 93, 95, 
or 10. Standard Test Method for Volatile 
Content of Coatings. 
* * * * * 
Method 25C—Determination of Nonmethane 
Organic Compounds (NMOC) in Landfill Gases 
* * * * * 
8.4.2 Use Method 3C to determine the 
percent N 2and O 2in each cylinder. The 
presence of N 2and O 2indicate either 
infiltration of ambient air into the landfill gas 
sample or an inappropriate testing site has been chosen where anaerobic decomposition 
has not begun. The landfill gas sample is acceptable if the concentration of N
2is less 
than 20 percent. Alternatively, the oxygen 
content of each cylinder must be less than 5 percent. Landfills with 3-year average annual rainfalls equal to or less than 20 inches annual rainfalls samples are acceptable when the N
2to O 2concentration ratio is greater 
than 3.71. 
* * * * * 
9.1 Miscellaneous Quality Control 
Measures. 
Section Quality control measure Effect 
8.4.2 ................................ If the 3-year average annual rainfall is greater than 20 
inches, verify that landfill gas sample contains less 
than 20 percent N 2and 5 percent O 2.Landfills with 3- 
year average annual rainfalls equal to or less than 20 inches annual rainfalls samples are acceptable when the N
2to O 2concentration ratio is greater than 3.71.Ensures that ambient air was not drawn into the landfill 
gas sample and gas was sampled from an appropriate location. If outside of range, invalidate sample and re-peat sample collection. 
10.1, 10.2 ........................ NMOC analyzer initial and daily performance checks ...... Ensures precision of analytical resul ts. 
* * * * * 
12.5 You must correct the NMOC 
Concentration for the concentration of nitrogen or oxygen based on which gas or gases passes the requirements in section 9.1 or based on the 3-year average annual rainfall 
based on the closest NOAA land-based station. 
12.5.1 NMOC Concentration with 
nitrogen correction. Use Equation 25C–4 to calculate the concentration of NMOC for each 
sample tank when the nitrogen concentration is less than 20 percent. 
12.5.2 NMOC Concentration with oxygen 
correction. Use Equation 25C–5 to calculate 
the concentration of NMOC for each sample tank if the landfill gas oxygen is less than 5 percent and the landfill gas nitrogen concentration is greater than 20 percent, or 3-year average annual rainfall based annual 
rainfall of less than 20 inches. 
* * * * * 
■26. Amend Appendix A–8 to part 60 
by: 
■a. In Method 26, revising section 8.1.2; 
and 
■b. In Method 26A, revising sections 
6.1.3 and 8.1.5. 
The revisions read as follows: 
Appendix A–8 to Part 60—Test 
Methods 26 Through 30B 
* * * * * 
Method 26—Determination of Hydrogen 
Halide and Halogen Emissions From Stationary Sources Non-Isokinetic Method 
* * * * * 
8.1.2 Adjust the probe temperature and 
the temperature of the filter and the stopcock (i.e., the heated area in Figure 26–1) to a 
temperature sufficient to prevent water condensation. This temperature must be maintained between 120 and 134 °C (248 and 273°F). The temperature should be 
monitored throughout a sampling run to ensure that the desired temperature is maintained. It is important to maintain a temperature around the probe and filter in this range since it is extremely difficult to purge acid gases off these components. (These components are not quantitatively recovered and, hence, any collection of acid gases on these components would result in potential under reporting of these emissions. The applicable subparts may specify alternative higher temperatures.) 
* * * * * 
Method 26A—Determination of Hydrogen Halide and Halogen Emissions From Stationary Sources—Isokinetic Method 
* * * * * 
6.1.3 Pitot Tube, Differential Pressure 
Gauge, Filter Heating System, Filter Temperature Sensor with a glass or Teflon encasement, Metering System, Barometer, Gas Density Determination Equipment. Same as Method 5, sections 6.1.1.3, 6.1.1.4, 6.1.1.6, 
6.1.1.7, 6.1.1.9, 6.1.2, and 6.1.3. 
* * * * * 
8.1.5 Sampling Train Operation. Follow 
the general procedure given in Method 5, Section 8.5. It is important to maintain a temperature around the probe, filter (and cyclone, if used) between 120 and 134 °C (248 and 273 °F) since it is extremely difficult 
to purge acid gases off these components. (These components are not quantitatively recovered and hence any collection of acid 
gases on these components would result in potential under reporting these emissions. The applicable subparts may specify alternative higher temperatures.) For each run, record the data required on a data sheet such as the one shown in Method 5, Figure 5–3. If the condensate impinger becomes too full, it may be emptied, recharged with 50 ml of 0.1 N H2SO4, and replaced during the sample run. The condensate emptied must be saved and included in the measurement of the volume of moisture collected and 
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ER07OC20.009</GPH> ER07OC20.010</GPH>Eq.25C-4 
Eq.25C-5 63417 Federal Register / Vol. 85, No. 195 / Wednesday, October 7, 2020 / Rules and Regulations 
included in the sample for analysis. The 
additional 50 ml of absorbing reagent must also be considered in calculating the moisture. Before the sampling train integrity is compromised by removing the impinger, conduct a leak-check as described in Method 5, section 8.4.2. 
* * * * * 
■27. Amend Appendix B to part 60 by: 
■a. In Performance Specification 4B, 
revising section 4.5; 
■b. In Performance Specification 5, 
revising sections 5.0 and 8.1; 
■c. In Performance Specification 6, 
revising sections 13.1 and 13.2; 
■d. In Performance Specification 8, 
redesignating sections 8.3, 8.4, and 8.5 
as 8.4, 8.5, and 8.6, respectively; 
■e. Adding new section 8.3; 
■f. In Performance Specification 9, 
revising sections 7.2, 8.3, 8.4, 10.1, 10.2, 13.1, and 13.2; 
■g. Adding section 13.4; 
■h. In Performance Specification 18, 
revising sections 2.3 and 11.9.1. 
The revisions and additions read as 
follows: 
Appendix B to Part 60—Performance 
Specifications 
* * * * * 
Performance Specification 4B— 
Specifications and Test Procedures for Carbon Monoxide and Oxygen Continuous Monitoring Systems in Stationary Sources 
* * * * * 
4.5 Response Time. The response time for 
the CO or O 2monitor must not exceed 240 
seconds. 
* * * * * 
Performance Specification 5—Specifications and Test Procedures for TRS Continuous Emission Monitoring Systems in Stationary Sources 
* * * * * 
5.0 Safety This performance specification may 
involve hazardous materials, operations, and equipment. This performance specification may not address all of the safety problems associated with its use. It is the responsibility of the user to establish appropriate safety and health practices and determine the applicable regulatory limitations prior to performing this performance specification. The CEMS user’s manual should be consulted for specific precautions to be taken with regard to the analytical procedures. 
* * * * * 
8.1 Relative Accuracy Test Procedure. 
Sampling Strategy for reference method (RM) Tests, Number of RM Tests, and Correlation of RM and CEMS Data are the same as PS 2, sections 8.4.3, 8.4.4, and 8.4.5, respectively. 
Note: For Method 16, a sample is made up 
of at least three separate injects equally spaced over time. For Method 16A, a sample is collected for at least 1 hour. For Method 16B, you must analyze a minimum of three aliquots spaced evenly over the test period. 
* * * * * Performance Specification 6—Specifications and Test Procedures for Continuous Emission Rate Monitoring Systems in Stationary Sources 
* * * * * 
13.1 Calibration Drift. Since the CERMS 
includes analyzers for several measurements, 
the CD shall be determined separately for each analyzer in terms of its specific measurement. The calibration for each analyzer associated with the measurement of flow rate shall not drift or deviate from each reference value of flow rate by more than 3 percent of the respective high-level reference value over the CD test period (e.g., seven-day) 
associated with the pollutant analyzer. The CD specification for each analyzer for which other PSs have been established (e.g., PS 2 for 
SO
2and NO X), shall be the same as in the 
applicable PS. 
13.2 CERMS Relative Accuracy. Calculate 
the CERMS Relative Accuracy using Eq. 2– 6 of section 12 of Performance Specification 2. The RA of the CERMS shall be no greater than 20 percent of the mean value of the RM’s test data in terms of the units of the emission standard, or in cases where the average emissions for the test are less than 50 percent of the applicable standard, substitute the emission standard value in the denominator of Eq. 2–6 in place of the RM. 
* * * * * 
Performance Specification 8—Performance 
Specifications for Volatile Organic Compound Continuous Emission Monitoring Systems in Stationary Sources 
* * * * * 
8.3 Calibration Drift Test Procedure. 
Same as section 8.3 of PS 2. 
8.4 Reference Method (RM). Use the 
method specified in the applicable regulation or permit, or any approved alternative, as the RM. 
8.5 Sampling Strategy for RM Tests, 
Correlation of RM and CEMS Data, and Number of RM Tests. Follow PS 2, sections 8.4.3, 8.4.5, and 8.4.4, respectively. 
8.6 Reporting. Same as section 8.5 of PS 
2. 
* * * * * 
Performance Specification 9—Specifications and Test Procedures for Gas Chromatographic Continuous Emission Monitoring Systems in Stationary Sources 
* * * * * 
7.2 Performance Audit Gas. Performance 
Audit Gas is an independent cylinder gas or cylinder gas mixture. A certified EPA audit gas shall be used, when possible. A gas mixture containing all the target compounds within the calibration range and certified by EPA’s Traceability Protocol for Assay and Certification of Gaseous Calibration Standards may be used when EPA performance audit materials are not available. If a certified EPA audit gas or a traceability protocol gas is not available, use a gas manufacturer standard accurate to 2 percent. 
* * * * * 
8.3 Seven (7)-Day Calibration Error (CE) 
Test Period. At the beginning of each 24-hour period, set the initial instrument set points by conducting a multi-point calibration for 
each compound. The multi-point calibration shall meet the requirements in sections 13.1, 13.2, and 13.3. Throughout the 24-hour period, sample and analyze the stack gas at the sampling intervals prescribed in the regulation or permit. At the end of the 24- hour period, inject the calibration gases at three concentrations for each compound in triplicate and determine the average instrument response. Determine the CE for each pollutant at each concentration using Equation 9–2. Each CE shall be ≤10 percent. Repeat this procedure six more times for a total of 7 consecutive days. 
8.4 Performance Audit Test Periods. 
Conduct the performance audit once during the initial 7-day CE test and quarterly thereafter. Performance Audit Tests must be conducted through the entire sampling and analyzer system. Sample and analyze the EPA audit gas(es) (or the gas mixture) three times. Calculate the average instrument response. Results from the performance audit test must meet the requirements in sections 13.3 and 13.4. 
* * * * * 
10.1 Multi-Point Calibration. After initial 
startup of the GC, after routine maintenance or repair, or at least once per month, conduct a multi-point calibration of the GC for each target analyte. Calibration is performed at the instrument independent of the sample transport system. The multi-point calibration for each analyte shall meet the requirements in sections 13.1, 13.2, and 13.3. 
* * * * * 
10.2 Daily Calibration. Once every 24 
hours, analyze the mid-level calibration standard for each analyte in triplicate. Calibration is performed at the instrument independent of the sample transport system. Calculate the average instrument response for each analyte. The average instrument response shall not vary by more than 10 percent from the certified concentration value of the cylinder for each analyte. If the difference between the analyzer response and the cylinder concentration for any target compound is greater than 10 percent, immediately inspect the instrument making any necessary adjustments, and conduct an initial multi-point calibration as described in section 10.1. 
* * * * * 
13.1 Calibration Error (CE). The CEMS 
must allow the determination of CE at all three calibration levels. The average CEMS calibration response must not differ by more than 10 percent of calibration gas value at each level after each 24-hour period and after any triplicate calibration response check. 
13.2 Calibration Precision and Linearity. 
For each triplicate injection at each concentration level for each target analyte, any one injection shall not deviate more than 
5 percent from the average concentration measured at that level. When the CEMS response is evaluated over three concentration levels, the linear regression curve for each organic compound shall be determined using Equation 9–1 and must have an r
2≥0.995. 
* * * * * 
13.4 Performance Audit Test Error. 
Determine the error for each average 
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pollutant measurement using the Equation 9– 
2 in section 12.3. Each error shall be less than or equal to 10 percent of the cylinder gas certified value. Report the audit results including the average measured concentration, the error and the certified cylinder concentration of each pollutant as part of the reporting requirements in the appropriate regulation or permit. 
* * * * * 
Performance Specification 18—Performance 
Specifications and Test Procedures for Gaseous Hydrogen Chloride (HCl) Continuous Emission Monitoring Systems at Stationary Sources 
* * * * * 
2.3 The relative accuracy (RA) must be 
established against a reference method (RM) 
(e.g., Method 26A, Method 320, ASTM 
International (ASTM) D6348–12, including mandatory annexes, or Method 321 for Portland cement plants as specified by the applicable regulation or, if not specified, as appropriate for the source concentration and category). Method 26 may be approved as a 
RM by the Administrator on a case-by-case basis if not otherwise allowed or denied in an applicable regulation. 
* * * * * 
11.9.1 Unless otherwise specified in an 
applicable regulation, use Method 26A in 40 CFR part 60, appendix A–8, Method 320 in 40 CFR part 63, appendix A, or ASTM D6348–12 including all annexes, as applicable, as the RMs for HCl measurement. Obtain and analyze RM audit samples, if they are available, concurrently with RM test samples according to the same procedure specified for performance tests in the general 
provisions of the applicable part. If Method 26 is not specified in an applicable subpart of the regulations, you may request approval to use Method 26 in appendix A–8 to this part as the RM on a site-specific basis under §§ 63.7(f) or 60.8(b). Other RMs for moisture, O
2, etc., may be necessary. Conduct the RM 
tests in such a way that they will yield results representative of the emissions from the source and can be compared to the CEMS data. 
* * * * * 
■28. Amend Appendix F to part 60, in 
Procedure 1, by revising section 5.2.3(2) 
to read as follows: 
Appendix F to Part 60—Quality 
Assurance Procedures 
Procedure 1—Quality Assurance 
Requirements for Gas Continuous Emission Monitoring Systems Used for Compliance Determination 
* * * * * 
5.2.3 * * * 
(2) For the CGA, ±15 percent of the 
average audit value or ±5 ppm, 
whichever is greater; for diluent monitors, ±15 percent of the average 
audit value. 
* * * * * PART 61—NATIONAL EMISSION 
STANDARDS FOR HAZARDOUS AIR POLLUTANTS 
■29. The authority citation for part 61 
continues to read as follows: 
Authority: 42 U.S.C. 7401 et seq. 
■30. Amend Appendix B to part 61 by: 
■a. Adding the entries Method 114— 
Test Methods for Measuring Radionuclide Emissions from Stationary Sources and Method 115—Monitoring for Radon-222 Emissions at the end of the index for appendix B to part 61. 
■b. In Method 107, revising section 
12.3, equation 107–3. 
The additions and revisions read as 
follows: 
Appendix B to Part 61—Test Methods 
* * * * * 
Method 114—Test Methods for Measuring 
Radionuclide Emissions From Stationary Sources 
Method 115—Monitoring for Radon-222 
Emissions 
* * * * * 
Method 107—Determination of Vinyl Chloride Content of In-Process Wastewater Samples, and Vinyl Chloride Content of Polyvinyl Chloride Resin Slurry, Wet Cake, and Latex Samples 
* * * * * 
12.3 * * * 
* * * * * 
PART 63—NATIONAL EMISSION 
STANDARDS FOR HAZARDOUS AIR POLLUTANTS FOR SOURCE CATEGORIES 
■31. The authority citation for part 63 
continues to read as follows: 
Authority: 42 U.S.C. 7401 et seq. 
■32. Amend § 63.2 by revising the 
definition of ‘‘Alternative test method’’ 
to read as follows: 
§ 63.2 Definitions. 
* * * * * 
Alternative test method means any 
method of sampling and analyzing for an air pollutant that has been 
demonstrated to the Administrator’s satisfaction, using Method 301 in appendix A of this part, to produce results adequate for the Administrator’s determination that it may be used in place of a test method specified in this part. 
* * * * * 
Subpart LLL—National Emission 
Standards for Hazardous Air Pollutants from the Portland Cement Manufacturing Industry 
■33. Amend § 63.1349, by revising 
paragraphs (b)(7)(viii)(A) and (B), (b)(8)(vi), and (b)(8)(vii)(B) and (C) to read as follows: 
§ 63.1349 Performance testing 
requirements. 
* * * * * 
(b) * * * 
(7) * * * (viii) * * * (A) Determine the THC CEMS average 
value in ppmvw, and the average of 
your corresponding three total organic HAP compliance test runs, using Equation 12. 
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ER07OC20.011</GPH> ER07OC20.012</GPH>Eq.107 -3 
(Eq.12) 63419 Federal Register / Vol. 85, No. 195 / Wednesday, October 7, 2020 / Rules and Regulations 
Where: 
x¯= The average THC CEMS value in ppmvw, 
as propane. 
Xi= The THC CEMS data points in ppmvw, 
as propane, for all three test runs. 
y¯= The average organic HAP value in 
ppmvd, corrected to 7 percent oxygen. Yi= The organic HAP concentrations in 
ppmvd, corrected to 7 percent oxygen, 
for all three test runs. 
n = The number of data points. 
(B) You must use your 3-run average 
THC CEMS value and your 3-run average organic HAP concentration from 
your Method 18 and/or Method 320 compliance tests to determine the operating limit. Use equation 13 to determine your operating limit in units of ppmvw THC, as propane. 
Where: 
Tl= The 30-day operating limit for your THC 
CEMS, ppmvw, as propane. 
y¯= The average organic HAP concentration 
from Eq. 12, ppmvd, corrected to 7 
percent oxygen. 
x¯= The average THC CEMS concentration 
from Eq. 12, ppmvw, as propane. 9 = 75 percent of the organic HAP emissions 
limit (12 ppmvd, corrected to 7 percent 
oxygen) 
* * * * * 
(8) * * * 
(vi) If your kiln has an inline kiln/raw 
mill, you must conduct separate 
performance tests while the raw mill is operating (‘‘mill on’’) and while the raw mill is not operating (‘‘mill off’’). Using 
the fraction of time that the raw mill is on and the fraction of time that the raw mill is off, calculate this limit as a weighted average of the SO
2levels 
measured during raw mill on and raw 
mill off compliance testing with Equation 17. 
Where: 
R = Operating limit as SO 2, ppmv. 
y = Average SO 2CEMS value during mill on 
operations, ppmv. 
t = Percentage of operating time with mill on, 
expressed as a decimal. x = Average SO 2CEMS value during mill off 
operations, ppmv. 
1¥t = Percentage of operating time with mill 
off, expressed as a decimal. 
* * * * * (vii) * * * 
(B) Determine your SO 2CEMS 
instrument average ppmv, and the 
average of your corresponding three HCl compliance test runs, using Equation 18. 
Where: 
x¯= The average SO 2CEMS value in ppmv. 
X1= The SO 2CEMS data points in ppmv for 
the three runs constituting the 
performance test. 
y¯= The average HCl value in ppmvd, 
corrected to 7 percent oxygen. Y1= The HCl emission concentration 
expressed as ppmvd, corrected to 7 
percent oxygen for the threeruns constituting the performance test. 
n = The number of data points. 
(C) With your instrument zero 
expressed in ppmv, your SO 2CEMS three run average expressed in ppmv, 
and your 3-run HCl compliance test average in ppmvd, corrected to 7 percent O
2, determine a relationship of 
ppmvd HCl corrected to 7 percent O 2 
per ppmv SO 2with Equation 19. 
Where: 
R = The relative HCl ppmvd, corrected to 7 
percent oxygen ,per ppmv SO 2for your 
SO 2CEMS. 
y¯= The average HCl concentration from Eq. 
18 in ppmvd, corrected to 7 percent 
oxygen. 
x¯= The average SO 2CEMS value from Eq. 
18 in ppmv. 
z = The instrument zero output ppmv value. 
* * * * * 
■34. Amend Appendix A to part 63 by: 
■a. In Method 301, revising section 
11.1.3; 
■b. In Method 308, revising section 
12.4, equation 308–3 and section 12.5, 
equation 308–5; ■c. In Method 311, revising sections 1.1 
and 17; 
■d. In Method 315, revising Figure 
315–1; 
■e. In Method 316, revising section 1.0; 
and 
■f. In Method 323, revising the method 
heading and section 2.0. 
The revisions read as follows: 
Appendix A to Part 63—Test Methods 
Pollutant Measurement Methods From Various Waste Media 
* * * * * Method 301—Field Validation of Pollutant 
Measurement Methods From Various Waste Media 
* * * * * 
11.1.3 T Test. Calculate the t-statistic 
using Equation 301–13. 
***  
* * * * * 
Method 308—Procedure for Determination of Methanol Emission From Stationary 
Sources 
* * * * * 
12.4 * * * 
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ER07OC20.013</GPH> ER07OC20.014</GPH> ER07OC20.015</GPH> ER07OC20.016</GPH> ER07OC20.017</GPH>Ti = G) * i (Eq. 13) 
R• ()'•t)+z•(t-e) 
R = _t_ (Eq. 19) (x-z) (Bq.17) 
t = (i) (Eq. 301-13) 63420 Federal Register / Vol. 85, No. 195 / Wednesday, October 7, 2020 / Rules and Regulations 
12.5 * * * 
* * * * * 
Method 311—Analysis of Hazardous Air 
Pollutant Compounds in Paints and Coatings by Direct Injection Into a Gas Chromatograph 
* * * * * 
1.1 Applicability. This method is 
applicable for determination of most 
compounds designated by the U.S. Environmental Protection Agency as volatile hazardous air pollutants (HAP’s) (See Reference 1) that are contained in paints and coatings. Styrene, ethyl acrylate, and methyl methacrylate can be measured by ASTM D 4827–03. Formaldehyde can be measured by ASTM D 5910–05 or ASTM D 1979–91. 
Toluene diisocyanate can be measured in urethane prepolymers by ASTM D 3432–89. Method 311 applies only to those volatile HAP’s which are added to the coating when 
it is manufactured, not to those that may form as the coating cures (reaction products or cure volatiles). A separate or modified test procedure must be used to measure these reaction products or cure volatiles in order to determine the total volatile HAP emissions from a coating. Cure volatiles are a significant component of the total HAP content of some coatings. The term ‘‘coating’’ used in this method shall be understood to mean paints and coatings. 
* * * * * 
17. * * * 4. Standard Test Method for Determination 
of Dichloromethane and 1,1,1- Trichloroethane in Paints and Coatings by 
Direct Injection into a Gas Chromatograph. ASTM Designation D4457–02. 
5. Standard Test Method for Determining 
the Unreacted Monomer Content of Latexes Using Capillary Column Gas Chromatography. ASTM Designation D4827– 03. 
6. Standard Test Method for Determining 
Unreacted Monomer Content of Latexes 
Using Gas-Liquid Chromatography, ASTM Designation D4747–02. 
* * * * * 
Method 315—Determination of Particulate 
and Methylene Chloride Extractable Matter (MCEM) From Selected Sources at Primary Aluminum Production Facilities 
* * * * * 
BILLING CODE 6560–50–P 
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ER07OC20.018</GPH> ER07OC20.019</GPH>R Mtot Qstd E= 
Vm(std) 
Equation 308-5 Equation 308-3 63421 Federal Register / Vol. 85, No. 195 / Wednesday, October 7, 2020 / Rules and Regulations 
VerDate Sep<11>2014 18:39 Oct 06, 2020 Jkt 253001 PO 00000 Frm 00029 Fmt 4701 Sfmt 4725 E:\FR\FM\07OCR3.SGM 07OCR3
ER07OC20.020</GPH>Figure 315-1. Particulate and MCEM Analyses 
Particulate Analysis 
Plant 
Date 
Run No. 
Filter No. 
Amount liquid lost during transport 
Acetone blank volume (ml) 
Acetone blank concentration (Eq. 315-4) (mg/mg) 
Acetone wash blank (Eq. 315-5) (mg) 
Final weight Tare weight Weight gain 
(mg) (mg) (mg) 
Container No. 1 
Container No. 2 
Total 
Less Acetone blank 
Weight of particulate matter 
Final volume Initial volume Liquid collected 
(mg) (mg) (mg) 
Moisture Analysis 
Impingers Note 1 Note 1 
Silica gel 
Total 
NOTE 1: Convert volume of water to weight by 
multiplying by the density of water (1 g/ml). 
Final Tare of 
weight aluminum dish Weight Acetone wash Methylene chloride wash 
Container No. (mg) (mg) gain volume (ml) volume (ml) 
MCEM Analysis 
1 
2+2M 
3W 63422 Federal Register / Vol. 85, No. 195 / Wednesday, October 7, 2020 / Rules and Regulations 
Method 316—Sampling and Analysis for 
Formaldehyde Emissions From Stationary Sources in the Mineral Wool and Wool 
Fiberglass Industries 
1.0 Scope and Application 
This method is applicable to the 
determination of formaldehyde, CAS Registry number 50–00–0, from stationary sources in the mineral wool and wool fiber glass industries. High purity water is used to collect the formaldehyde. The formaldehyde concentrations in the stack samples are determined using the modified pararosaniline method. Formaldehyde can be detected as low as 8.8 × 10
¥10lbs/cu ft (11.3 
ppbv) or as high as 1.8 × 10¥3lbs/cu ft 
(23,000,000 ppbv), at standard conditions 
over a 1-hour sampling period, sampling approximately 30 cu ft. 
* * * * * 
Method 323—Measurement of 
Formaldehyde Emissions From Natural Gas- Fired Stationary Sources—Acetyl Acetone Derivatization Method 
* * * * * 2.0 Summary of Method. An emission 
sample from the combustion exhaust is 
drawn through a midget impinger train containing chilled reagent water to absorb formaldehyde. The formaldehyde concentration in the impinger is determined by reaction with acetyl acetone to form a colored derivative which is measured colorimetrically. 
* * * * * 
[FR Doc. 2020–18824 Filed 10–6–20; 8:45 am] 
BILLING CODE 6560–50–C 
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ER07OC20.021</GPH>3S 
Total Lmtotal OVaw LViw 
Less acetone wash blank (mg) (not to exceed 1 mg/I of acetone IWa = Capa L Vaw 
used) 
Less methylene chloride wash blank (mg) (not to exceed 1.5 !Wt = Ctpt L Viw 
mg/I of methylene chloride used) 
Less filter blank (mg) (not to exceed 0.5 mg/filter) lFb 
MCEM weight (mg) mMCEOM = Lmtotal -Wa -Wt-Jo