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Category:Report
MONTHYEARML23055A2842023-02-24024 February 2023 Proposed Alternative to the Requirements for Repair/Replacement of Saltwater (SW) System Buried Piping NMP1L3469, Constellation Energy Company, LLC, Request for Use of Honeywell Mururoa V4F1 R Supplied Air Suits2022-06-30030 June 2022 Constellation Energy Company, LLC, Request for Use of Honeywell Mururoa V4F1 R Supplied Air Suits ML22178A1722022-06-27027 June 2022 Long Term Coupon Surveillance Program ML22147A1782022-05-27027 May 2022 Owner'S Activity Report (Form OAR-1) for the Calvert Cliffs Nuclear Power Plant Unit 1 Spring 2022 Refueling Outage ML21263A1862021-09-20020 September 2021 Proposed Alternative Concerning Pressure Testing of ASME Section XI Class 2 Portions of the Auxiliary Feedwater System RS-21-093, R. E. Ginna, Proposed Alternative for Examinations of Examination Category C-B Steam Generator Nozzle-to-Shell Welds and Nozzle Inside Radius Sections2021-09-0101 September 2021 R. E. Ginna, Proposed Alternative for Examinations of Examination Category C-B Steam Generator Nozzle-to-Shell Welds and Nozzle Inside Radius Sections ML21210A3252021-07-30030 July 2021 Submittal of the Reactor Vessel Material Surveillance Program Capsule Technical Report RS-21-056, Proposed Alternative for Examination of Pressurizer Circumferential and Longitudinal Shell-to-Head Welds and Nozzle-to-Vessel Weld2021-05-12012 May 2021 Proposed Alternative for Examination of Pressurizer Circumferential and Longitudinal Shell-to-Head Welds and Nozzle-to-Vessel Weld ML21077A1802021-03-18018 March 2021 10 CFR 50.46 Annual Report and 30-day Report for Framatome'S Protect Enhanced Accident Tolerant Fuel (Eatf) Lead Test Assembly (LTA) ML21013A5302021-01-13013 January 2021 Reactor Vessel Level Monitoring System Special Report RS-21-001, Revised Proposed Alternative to Utilize Code Cases N-878 and N-880 for Carbon Steel Piping2021-01-0404 January 2021 Revised Proposed Alternative to Utilize Code Cases N-878 and N-880 for Carbon Steel Piping ML20303A1752020-10-23023 October 2020 Proposed Relief Request from Section XI Repair/Replacement Documentation for Bolting Replacement of Pressure Retaining Bolting ML20280A5082020-10-0606 October 2020 Submittal of Relief Request CISI-03-01 Concerning Containment Unbonded Post-Tensioning System Inservice Inspection Requirements ML20034E3462020-02-0707 February 2020 Review of the Spring 2019 Steam Generator Tube Inspection Report ML19347A7792019-12-12012 December 2019 License Amendment Request to Utilize Accident Tolerant Fuel Lead Test Assemblies ML19228A0232019-08-15015 August 2019 Proposed Alternative to Utilize Code Case N-879 ML19072A0962019-03-11011 March 2019 Information Regarding Dissimilar Metal Weld 2-CV-2005-30 Flaw Characteristic and Repair Weld Overlay ML17324B3692017-12-20020 December 2017 Flood Hazard Mitigation Strategies Assessment RS-16-181, Mitigating Strategies Flood Hazard Assessment (Msfha) Submittal2016-11-0909 November 2016 Mitigating Strategies Flood Hazard Assessment (Msfha) Submittal ML16061A0162016-02-26026 February 2016 ISFSI - Report of Changes, Tests, and Experiments - 10 CFR 50.59 and 10 CFR 72-48 ML16057A0022016-02-25025 February 2016 Report Concerning Dissimilar Metal Weld Flaw in Pressurizer Safety Relief Nozzle-to-Safe-End Weld ML16076A3522016-02-24024 February 2016 Plants, Units 1 and 2 - E-mail Re. Draft Report Concerning Dissimilar Metal Weld Indication on Pressurizer Safety Relief Nozzel to Safe End Weld ML15350A1082016-01-19019 January 2016 Review of the 2015 Steam Generator Tube Inspections ML15281A2182015-10-21021 October 2015 Supplement to Staff Assessment of Response to 10 CFR 50.54(f) Information Request - Flood Causing Mechanism Reevaluation RS-15-095, Report of Full Compliance with March 12, 2012 Commission Order Modifying Licenses with Regard to Reliable Spent Fuel Pool Instrumentation (Order Number EA-12-051)2015-04-30030 April 2015 Report of Full Compliance with March 12, 2012 Commission Order Modifying Licenses with Regard to Reliable Spent Fuel Pool Instrumentation (Order Number EA-12-051) ML15077A1032015-04-16016 April 2015 Staff Assessment of Response to 10 CFR 50.54(f) Information Request - Flood-Causing Mechanism Reevaluation ML15075A3392015-03-10010 March 2015 NUH32PHB-0101, Revision 4, Design Criteria Document (DCD) for the Nuhoms 32PHB System for Storage ML15062A0432015-02-27027 February 2015 Report of Changes, Tests, and Experiments - 10 CFR 50.59 and 10 CFR 72.48 ML15042A1372015-02-0303 February 2015 Gesc, NAC International, Atlanta Corporate Headquarters, 655 Engineering Drive, Norcross, Georgia (Engineering Report #NS3-020, Effects of 1300F on Unfilled NS-3, While Bisco Products, Inc., 11/84), Enclosure 4 L-14-036, Response to NRC Request for Information Pursuant to 10 CFR 50.54(f) Regarding Recommendation 2.1 of the Near-Term Task Force Review of Insights from the Fukushima Dai-ichi Accident2014-12-17017 December 2014 Response to NRC Request for Information Pursuant to 10 CFR 50.54(f) Regarding Recommendation 2.1 of the Near-Term Task Force Review of Insights from the Fukushima Dai-ichi Accident RS-14-277, Proposed Alternative to Utilize Code Case N-513-4, Evaluation Criteria for Temporary Acceptance of Flaws in Moderate Energy Class 2 or 3 Piping Section XI, Division 12014-09-24024 September 2014 Proposed Alternative to Utilize Code Case N-513-4, Evaluation Criteria for Temporary Acceptance of Flaws in Moderate Energy Class 2 or 3 Piping Section XI, Division 1 ML14212A3072014-07-25025 July 2014 NUH32PHB.0101, Rev. 2, Design Criteria Document (DCD) for Nuhoms 32PHB System for Storage. ML14212A3082014-07-25025 July 2014 NUH32PHB-011, Rev 3, Design Report for 32PHB Dsc. ML14170B0222014-06-26026 June 2014 Staff Assessment of Flooding Walkdown Reports Supporting Implementation of Near-Term Task Force Recommendation 2.3 Related to the Fukushima Accident ML14206B0072014-05-19019 May 2014 Considerations for Using Marinite in Refined GSI-191 Chemical Effects Testing. CCNPP-CHLE-009, Revision 4 ML14206B0092014-05-12012 May 2014 Considerations for Using Zinc in Refined GSI-191 Chemical Effects Testing. CCNPP-CHLE-008, Revision 4 ML14099A1962014-03-31031 March 2014 Constellation Energy Nuclear Group, LLC - Seismic Hazard and Screening Report (CEUS Sites), Response to NRC Request for Information Pursuant to 10 CFR 50.54(f) Regarding Recommendation 2.1 of the Near-Term Task. ML14071A4782014-02-21021 February 2014 Response to Nrc'S Request for Cashflow Statements Regarding Application for Order Approving Transfer of Operating Authority and Conforming License Amendments ML13225A5662013-12-17017 December 2013 Interim Staff Evaluation Relating to Overall Integrated Plan in Response to Order EA-12-049(Mitigation Strategies) ML13338A6462013-12-0909 December 2013 Mega-Tech Services, LLC Technical Evaluation Report Regarding the Overall Integrated Plan for Calvert Cliffs Nuclear Power Plant, Units 1 and 2, TAC Nos.: MF1142 and MF1143 ML13319B0802013-11-14014 November 2013 Proposed 10 CFR 50.55a Request for Repair of Saltwater Piping Leak (RR-ISI-04-09) ML13319A9322013-11-11011 November 2013 CCNPP-BPPlan-002, Rev 0E, Small Scale Debris Bypass-Penetration Test Plan for Calvert Cliffs Nuclear Power Plant. ML13319A6792013-10-31031 October 2013 CCNPP-CHLE-007, Appendix 1, Alkyd Coatings in Refined GSI-191 Chemical Effects Testing. ML13319A6702013-10-18018 October 2013 CCNPP-CHLE-007, Rev. G, Coatings Bench-Top Autoclave Experiment Test Plan for Calvert Cliffs Nuclear Power Plant. ML13319A6212013-10-0404 October 2013 CCNPP-CHLE-003, Rev. 0d Chemical Effects Pirt Considerations for Calvert Cliffs Nuclear Power Plant. ML13301A6742013-09-24024 September 2013 Enclosure 1 - Transition to 10 CFR 50.48(c) - NFPA 805 Performance-Based Standard for Fire Protection for Light Water Reactor Electric Generating Plants, 2001 Edition ML13224A1032013-08-0808 August 2013 CCNPP-CHLE-007, Revision 0c, Coatings Bench-Top Autoclave Experiment Test Plan for Calvert Cliffs Nuclear Power Plant. ML13224A0942013-08-0606 August 2013 Chemical Effects Pirt Considerations for Calvert Cliffs Nuclear Power Plant, CCNPP-CHLE-003, Revision 0c ML13149A4052013-05-23023 May 2013 Metals BENCH-TOP Autoclave Experiment Test Plan for Calvert Cliffs Nuclear Power Plant, CCNPP-CHLE-006, Revision 0, May 23, 2013 ML13149A3992013-05-20020 May 2013 Chemical Effects Autoclave Experiment Test Plan for Calvert Cliffs Nuclear Power Plant CCNPP-CHLE-005, Revision 2, May 20, 2013 2023-02-24
[Table view] Category:Technical
MONTHYEARML23055A2842023-02-24024 February 2023 Proposed Alternative to the Requirements for Repair/Replacement of Saltwater (SW) System Buried Piping NMP1L3469, Constellation Energy Company, LLC, Request for Use of Honeywell Mururoa V4F1 R Supplied Air Suits2022-06-30030 June 2022 Constellation Energy Company, LLC, Request for Use of Honeywell Mururoa V4F1 R Supplied Air Suits ML22178A1722022-06-27027 June 2022 Long Term Coupon Surveillance Program ML22147A1782022-05-27027 May 2022 Owner'S Activity Report (Form OAR-1) for the Calvert Cliffs Nuclear Power Plant Unit 1 Spring 2022 Refueling Outage RS-21-093, R. E. Ginna, Proposed Alternative for Examinations of Examination Category C-B Steam Generator Nozzle-to-Shell Welds and Nozzle Inside Radius Sections2021-09-0101 September 2021 R. E. Ginna, Proposed Alternative for Examinations of Examination Category C-B Steam Generator Nozzle-to-Shell Welds and Nozzle Inside Radius Sections ML21210A3252021-07-30030 July 2021 Submittal of the Reactor Vessel Material Surveillance Program Capsule Technical Report RS-21-056, Proposed Alternative for Examination of Pressurizer Circumferential and Longitudinal Shell-to-Head Welds and Nozzle-to-Vessel Weld2021-05-12012 May 2021 Proposed Alternative for Examination of Pressurizer Circumferential and Longitudinal Shell-to-Head Welds and Nozzle-to-Vessel Weld ML21077A1802021-03-18018 March 2021 10 CFR 50.46 Annual Report and 30-day Report for Framatome'S Protect Enhanced Accident Tolerant Fuel (Eatf) Lead Test Assembly (LTA) RS-21-001, Revised Proposed Alternative to Utilize Code Cases N-878 and N-880 for Carbon Steel Piping2021-01-0404 January 2021 Revised Proposed Alternative to Utilize Code Cases N-878 and N-880 for Carbon Steel Piping ML20280A5082020-10-0606 October 2020 Submittal of Relief Request CISI-03-01 Concerning Containment Unbonded Post-Tensioning System Inservice Inspection Requirements ML20034E3462020-02-0707 February 2020 Review of the Spring 2019 Steam Generator Tube Inspection Report ML19347A7792019-12-12012 December 2019 License Amendment Request to Utilize Accident Tolerant Fuel Lead Test Assemblies ML19228A0232019-08-15015 August 2019 Proposed Alternative to Utilize Code Case N-879 ML19072A0962019-03-11011 March 2019 Information Regarding Dissimilar Metal Weld 2-CV-2005-30 Flaw Characteristic and Repair Weld Overlay ML15077A1032015-04-16016 April 2015 Staff Assessment of Response to 10 CFR 50.54(f) Information Request - Flood-Causing Mechanism Reevaluation ML15075A3392015-03-10010 March 2015 NUH32PHB-0101, Revision 4, Design Criteria Document (DCD) for the Nuhoms 32PHB System for Storage ML15042A1372015-02-0303 February 2015 Gesc, NAC International, Atlanta Corporate Headquarters, 655 Engineering Drive, Norcross, Georgia (Engineering Report #NS3-020, Effects of 1300F on Unfilled NS-3, While Bisco Products, Inc., 11/84), Enclosure 4 RS-14-277, Proposed Alternative to Utilize Code Case N-513-4, Evaluation Criteria for Temporary Acceptance of Flaws in Moderate Energy Class 2 or 3 Piping Section XI, Division 12014-09-24024 September 2014 Proposed Alternative to Utilize Code Case N-513-4, Evaluation Criteria for Temporary Acceptance of Flaws in Moderate Energy Class 2 or 3 Piping Section XI, Division 1 ML14212A3072014-07-25025 July 2014 NUH32PHB.0101, Rev. 2, Design Criteria Document (DCD) for Nuhoms 32PHB System for Storage. ML14212A3082014-07-25025 July 2014 NUH32PHB-011, Rev 3, Design Report for 32PHB Dsc. ML14206B0072014-05-19019 May 2014 Considerations for Using Marinite in Refined GSI-191 Chemical Effects Testing. CCNPP-CHLE-009, Revision 4 ML14071A4782014-02-21021 February 2014 Response to Nrc'S Request for Cashflow Statements Regarding Application for Order Approving Transfer of Operating Authority and Conforming License Amendments ML13338A6462013-12-0909 December 2013 Mega-Tech Services, LLC Technical Evaluation Report Regarding the Overall Integrated Plan for Calvert Cliffs Nuclear Power Plant, Units 1 and 2, TAC Nos.: MF1142 and MF1143 ML13319B0802013-11-14014 November 2013 Proposed 10 CFR 50.55a Request for Repair of Saltwater Piping Leak (RR-ISI-04-09) ML13319A9322013-11-11011 November 2013 CCNPP-BPPlan-002, Rev 0E, Small Scale Debris Bypass-Penetration Test Plan for Calvert Cliffs Nuclear Power Plant. ML13319A6792013-10-31031 October 2013 CCNPP-CHLE-007, Appendix 1, Alkyd Coatings in Refined GSI-191 Chemical Effects Testing. ML13319A6702013-10-18018 October 2013 CCNPP-CHLE-007, Rev. G, Coatings Bench-Top Autoclave Experiment Test Plan for Calvert Cliffs Nuclear Power Plant. ML13319A6212013-10-0404 October 2013 CCNPP-CHLE-003, Rev. 0d Chemical Effects Pirt Considerations for Calvert Cliffs Nuclear Power Plant. ML13301A6742013-09-24024 September 2013 Enclosure 1 - Transition to 10 CFR 50.48(c) - NFPA 805 Performance-Based Standard for Fire Protection for Light Water Reactor Electric Generating Plants, 2001 Edition ML13224A0942013-08-0606 August 2013 Chemical Effects Pirt Considerations for Calvert Cliffs Nuclear Power Plant, CCNPP-CHLE-003, Revision 0c ML13149A4052013-05-23023 May 2013 Metals BENCH-TOP Autoclave Experiment Test Plan for Calvert Cliffs Nuclear Power Plant, CCNPP-CHLE-006, Revision 0, May 23, 2013 ML13149A3992013-05-20020 May 2013 Chemical Effects Autoclave Experiment Test Plan for Calvert Cliffs Nuclear Power Plant CCNPP-CHLE-005, Revision 2, May 20, 2013 ML13149A3942013-05-20020 May 2013 Chemical Effects Head Loss Experiment (Chle) Test Protocol for Calvert Cliffs Nuclear Power Plant, CCNPP-CHLE-002, Revision 0 May 20, 2013 ML13113A2332013-04-23023 April 2013 Technical Letter Report, PNNL Evaluation of Licensee'S Alternative for Volumetric Inspection of Dissimilar Metal Butt Welds at the Calvert Cliffs Plant ML13088A2202013-03-18018 March 2013 MC4672 & MC4673 - CCNPP-CHLE-005, Rev 1 Chemical Effects Autoclave Experimental Plan with Respect to GL2004-02, GSI-1 91 ML13086A5502013-03-0101 March 2013 MC4672 & MC4673, CCNPP-CHLE-002, Rev 0e Chemical Effects Experimental Protocol with Respect to GL2004-02, GSI-191. ML13038A5432013-01-24024 January 2013 Chemical Effects Head Loss Experiment (Chle) Test Protocol for Calvert Cliffs Nuclear Power Plant (CCNPP-CHLE-002, Revision 0d) ML13086A5512013-01-24024 January 2013 MC4672 & MC4673 - CCNPP-CHLE-003, Rev 0c Chemical Effects Pirt Considerations Excerpts with Respect to GL2004-02, GSI-191 ML12339A3562012-11-27027 November 2012 Attachment (3 Cont.) Walkdown Checklists. Part 2 of 8 ML12339A3542012-11-27027 November 2012 Attachment (3 Cont.) Walkdown Checklists. Part 3 of 8 ML12339A3502012-11-27027 November 2012 Attachment (1) Seismic Walkdown Report, Attachment (2) Equipment Lists and Attachment (3) Walkdown Checklists. Part 1 of 8 ML12339A3662012-11-27027 November 2012 Attachment (3 Cont.) Walkdown Checklists. Part 6 of 8 ML12339A3672012-11-27027 November 2012 Attachment (3 Cont.) Walkdown Checklists. Part 4 of 8 ML12339A3682012-11-27027 November 2012 Attachment (3 Cont.) Walkdown Checklists. Part 5 of 8 ML12339A3692012-11-27027 November 2012 Attachment (4 Cont.) Area Walk-By Checklist, Attachment (5) Inaccessible Equipment and Peer Review and Attachment (6) Regulatory Commitments. Part 8 of 8 ML12339A3702012-11-27027 November 2012 Attachment (4) Area Walk-By Checklist. Part 7 of 8 ML12349A2822012-11-27027 November 2012 Seismic Walkdown Report - Cover Page, Table of Content - Page C-50 ML12349A2872012-11-0909 November 2012 Seismic Walkdown Checklists, Engineering Safeguards Control - Page C-340 - Page C-434 ML12349A2932012-11-0909 November 2012 Area Walk-by Checklist, Page 91 - Page End ML12349A2922012-11-0909 November 2012 Area Walk-By Checklist, Page 1 - Page 90 2023-02-24
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Alkyd Coatings in Refined GSI-191 Chemical Effects Testing CCNPP-CHLE-007, Appendix 1 October 31, 2013 Prepared by: Reviewed by: Approved by:
Kevin Hafera Craig Sellers, John Swailes, Steve Kinsey Tom Konerth
Alkyd Coatings White Paper Introduction This white paper documents the findings of the type of chemicals found in typical industrial grade alkyds that could be applied on various pieces of equipment, fire-protection system components, piping, and structures inside containment at Calvert Cliffs Nuclear Power Plant.
Recommendations about appropriate alkyd coating brands and types to be used in representative testing of potential chemical effects also are provided.
An alkyd coating is considered an unqualified coating and therefore could fail during a LOCA.
Once failed, it could be transported to the sump pool. Once in the sump pool, chemicals in the alkyd coating could contribute to chemical effects. To test these effects, the typical chemicals in alkyds must be known.
Typically inside containment there are many different pieces of equipment and systems in which a part will be coated to protect it from the environment (generally, to prevent or reduce corrosion). During the manufacture or installation of the part or system, there can be cases where the coating used on the given part or system may not be documented or known. Since they are unknown and there is a vast number of different manufacturers of parts, equipment, and alkyd coatings, a typical chemical composition of alkyd coating must be determined.
Assumption It will be assumed that the void percentage of ingredients by weight listed in various Material Safety Data Sheets (MSDS) is the alkyd resins or alkyd polymer used in the alkyd coating. This is a reasonable assumption as the alkyd resin is the ingredient that gives the coating its specific characteristics and is usually not listed in the MSDS. The combinations of resins are considered proprietary by the manufacturer and generally are not be listed in the MSDS.
Discussion A typical alkyd paint consists of the oil-modified polyester to form the coating film, a solvent such as hexane or mineral spirits to aid in application, metal naphthenates to catalyze the drying reaction, and pigment to provide color and hide the coated surface. Numerous industrial alkyd coatings from several manufacturers were examined. The top four chemicals of each coating were examined.
Major manufacturers of paints and coatings were researched to determine what types of industrial alkyd coatings they provided. Once the types of industrial alkyds produced were identified, each product's MSDS provided the chemicals used to manufacture each type of alkyd coating. See Table 1 for the results of this investigation. It is worth noting that only the top four chemicals are shown in Table 1 as they were the major ingredients to the alkyd coating. The Total Represented column refers to the total percentage of ingredients represented in the Page 1 of 6
MSDS and takes into account all ingredients listed in the MSDS. Frequently, the alkyd resin is listed as a proprietary ingredient and is not clearly listed in the MSDS.
The main chemicals found in the MSDS consistently in most types of industrial alkyds are mineral spirits and titanium dioxide. Xylene is an ingredient consistently found in some alkyd coatings at a lower level.
Solvents added to oil-based coatings are designed to evaporate evenly and totally as the coating dries; allowing the resin to produce a film and allow the coating to dry rapidly. Mineral spirits, xylene, and others are solvents that will evaporate during the drying process. Due to this, the study was adjusted to address only chemicals that would remain behind after the alkyd coating dries. According to each product's MSDS, the non-solvent ingredients are listed in Table 2 for each product. Again, the alkyd resin[s] are not generally listed.
Comparing the information contained in Tables 1 and 2, one can see that solvents and chemical ingredients only account for approximately 50-75% of the alkyd coating weight, the majority of the remaining amount is assumed to be alkyd resin[s]. Once the coating has dried, the solvent, approximately 25-45% of the total weight, will have evaporated. The remaining material for the most part will be the alkyd resin[s] and titanium dioxide.
Titanium dioxide is a white solid chemical that will give the coating its white color. A majority of alkyd coatings will come from the factory in white and then mixed with a pigment in order to get the desired color. The amount of pigment needed is negligible when compared to amount of titanium dioxide it requires to give the alkyd coating its white color. To prove this, a few alkyds offered in color by some companies were studied. Since fundamentally coating colors, for the most part, consist of three different amounts of red, yellow, and blue pigments; only these three colors were studied.
As shown in Table 3, the chemical composition of major ingredients does not change significantly based on color.
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Conclusion In conclusion, after researching various industrial alkyd coatings of various colors and produced by major manufacturers, Alkyd resin is by far the most consistent and major chemical throughout all alkyd types with titanium dioxide being the second most major contributor when considering dried coatings.
Recommendations In order to cover any additional manufacturers or colors; additional contributing chemicals also need to be studied. It is recommended that the alkyd resins, titanium dioxide, talc, calcium carbonate, kaolin, limestone, and quartz be studied in testing.
A combination of Glidden Professional Alkyd and KRYLON Industrial Enamel 100 series is recommended to be used for testing. This is reasonable as these two industrial alkyd coatings combined have almost all the major typical chemicals found through all the major manufacturers of industrial alkyd coatings.
KRYLON Industrial Enamel 100 series has the fourth highest percentage of alkyd resin seen in the study and various typical chemical ingredients in alkyd coatings. While Glidden Professional alkyd may not have a larger percentage of alkyd resin it does have a type of kaolin, which contains aluminum, and could contribute to chemical effects.
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Table 1. Top Compounds in Alkyd Coatings Coating Name Chemical #1 Chemical #2 Chemical #3 Chemical #4 Total Ingredients Percent Alkyd Represented in Resin MSDS Valspar P6 Mineral Spirits - Titanium Oxide - 15% Kaolin - 10% Xylene - 1% 61% 39%
35%
Valspar P14 Mineral Spirits - Kaolin - 20% Xylene - 1% N/A 56% 44%
35%
Glidden Professional Limestone Alkyd Resin (polymers Alkyd Resin (polymers with Mineral Spirits - 100% 20-40%
Alkyd 40% with glycerol, ethylenediamine, 10-20%
pentaerythritol and phthalic pentaerythritol, phthalic anhydride)- anhydride and tall oil fatty 10-20% acids) -
10-20%
KRYLON Industrial Mineral Spirits - Titanium dioxide - 21% Calcium Carbonate - 5% Ethylbenzene - 63.1% 36.9%
Enamel 53 Series 37% 0.1%
KRYLON Industrial Titanium dioxide - Butyl Acetate - 11% Calcium Carbonate - 6% Mineral Spirits - 56.2% 43.8%
Enamel 100 Series 32% 3%
Pratt Industrial Alkyd Mineral Spirits - Titanium dioxide - 16% Quartz - 8% Butoxyethanol - 50.2% 49.8%
24% 2%
Rust-Oleum V7400 Stoddard Solvents Titanium Dioxide - 20% Mineral Spirits - 15% Limestone - 10% 82% 18%
- 25%
Sherwin Williams Mineral Spirits - Mineral Spirits 140 - Titanium Dioxide - 11% Xylene - 2% 48.3% 51.7%
Industrial Enamel VOC 21% 14%
Sherwin Williams Mineral Spirits - Titanium Dioxide - 14% Talc - 6% Ethylbenzene - 60.1% 39.9%
Industrial Enamel 40% 0.2%
Sherwin Williams HS Mineral Spirits - Titanium dioxide - 16% Quartz - 8% Butoxyethanol - 50.2% 49.8%
Industrial Enamel 24% 2%
Martin Senour Tough Mineral Spirits Titanium Dioxide - 19% Xylene - 1% Ethylbenzene - 62.3% 37.7%
Coat 140 - 42% 0.2%
Corotile High Solids Stoddard Solvent - Distillates - 10% Kaolin - 10% Xylene - 2% 66% 34%
Enamel 40%
Devguard 4306 Titanium dioxide - Limestone 20% Solvent Naphtha Alkyd Resin 95% 11-25%
Industrial Alkyd 10-20% 20% 20%
Note - Percentages are given in percent by weight Page 4 of 6
Table 2. Non-Solvent Compounds in Alkyd Coatings Coating Name Chemical #1 Chemical #2 Chemical #3 Chemical #4 Chemical #5 Chemical #6 Valspar P6 Titanium Oxide - Kaolin - 10% N/A N/A N/A N/A 15%
Valspar P14 Kaolin - 20% N/A N/A N/A N/A N/A Glidden Limestone Alkyd Resin (polymers with Alkyd Resin (polymers with Calcined Titanium Magnesium Professional Alkyd 40% glycerol, pentaerythritol and ethylenediamine, pentaerythritol, phthalic Kaolin Clay - Dioxide 5% Carbonate -
phthalic anhydride)-10-20% anhydride and tall oil fatty acids)-10-20% 5-10% 1-5%
KRYLON Industrial Titanium dioxide Calcium Carbonate - 5% N/A N/A N/A N/A Enamel 53 Series - 21%
KRYLON Industrial Titanium dioxide Calcium Carbonate - 6% Quartz - 2% Talc - 2% N/A N/A Enamel 100 Series - 32%
Pratt Industrial Titanium dioxide Quartz - 8% N/A N/A N/A N/A Alkyd - 16%
Rust-Oleum V7400 Titanium Dioxide Limestone - 10% Talc - 10% N/A N/A N/A
- 20%
Sherwin Williams Titanium Dioxide N/A N/A N/A N/A N/A Industrial Enamel - 11%
VOC Sherwin Williams Titanium Dioxide Talc - 6% N/A N/A N/A N/A Industrial Enamel - 14%
Sherwin Williams Titanium dioxide Quartz - 8% N/A N/A N/A N/A HS Industrial - 16%
Enamel Martin Senour Titanium Dioxide N/A N/A N/A N/A N/A Tough Coat - 19%
Corotile High Solids Kaolin - 10% N/A N/A N/A N/A N/A Enamel Devguard 4306 Titanium dioxide Limestone 20% Alkyd Resin (polymers with Clay 5% Alkyd Resin Quartz -
Industrial Alkyd 20% ethylenediamine, pentaerythritol, phthalic (polymers with 0.1-1%
anhydride and tall oil fatty acids) glycerol, 20% pentaerythritol and phthalic anhydride)-
1-5%
Note - Percentages are given in percent by weight Page 5 of 6
Table 3. Compounds in Alkyd Coatings of Various Colors Red Sherwin Williams Industrial Enamel Mineral Spirits - 25% Talc - 10% Titanium Dioxide - 2% Xylene - 1%
Sherwin Williams Pro Industrial Enamel Mineral Spirits - 25% Talc - 10% Titanium Dioxide - 2% Xylene - 1%
Martin Senour Tough Coat Mineral Spirits - 47% Xylene - 1% Titanium Dioxide - 0.2% Ethylbenzene - 0.2%
KRYLON Industrial Enamel 53 Series Mineral Spirits - 26% Calcium Carbonate - 24% Titanium Dioxide - 1% Ethylbenzene - 0.2%
Yellow Sherwin Williams Industrial Enamel Mineral Spirits - 25% Titanium Dioxide - 12% Talc - 4% Xylene - 2%
Sherwin Williams Pro Industrial Enamel Mineral Spirits - 25% Titanium Dioxide - 12% Talc - 4% Xylene - 1%
Martin Senour Tough Coat Mineral Spirits - 42% Titanium Dioxide - 8% Xylene - 1% Ethylbenzene - 0.2%
KRYLON Industrial Enamel 53 Series Mineral Spirits - 16% Calcium Carbonate - 16% Titanium Dioxide - 11% Xylene - 5%
Blue Martin Senour Tough Coat Mineral Spirits - 44% Titanium Dioxide - 9% Xylene - 1% Ethylbenzene - 0.2%
KRYLON Industrial Enamel 53 Series Mineral Spirits 140 - 44% Titanium Dioxide - 9% Xylene - 1% Ethylbenzene - 0.2%
Note - Percentages are given in percent by weight Page 6 of 6