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2F7d-D3fe-28E2-8831.Pub (Read-Only) TECHNICALTECHNICAL DATA BULLETIN SHEET TRIMET ® TME TRIMET ® TME in Short Oil Alkyd Resins Containing Phthalic Anhydride CH 2OH | CH 3 — C — CH 2OH | CH 2OH CAS Number: 77-85-0 TRIMET ® TME Trimethylolethane, manufactured by GEO Specialty Chemicals Inc., is a polyol useful in the preparation of alkyd resins. This bulletin contains a comparison of three polyols in a suggested starting formulation for both air-dry and baking enamels incorporating phthalic anhydride. TRIMET ® TME was evaluated against two alternative polyols: glycerol and Trimethylolpropane (TMP). EUROPE Charleston Road, Hardley, Hythe, Southampton, Hampshire Specifications SO45 3ZG UK Call +44 2380 245 437 Technical Property Pure Grade Grade NORTH AMERICA 300 Brookside Avenue, Hydroxyl content, wt % 41.0 min 41.75 min Building #23, Suite 100 Ambler, Ash as NA 2O, wt % 0.01 max 0.01 max PA 19002 USA Moisture, (Karl Fisher), wt Call +1 215 773 9280 Toll 0.3 max 0.3 max % Free 888 519 3883 Water insoluble, ppm 50 max 50 max Email: [email protected] Colour, APHA 250 max 100 max www.geosc.com TECHNICAL BULLETIN TRIMET ® TME Industrial finishes based on alkyd resins produced with TME possess outstanding performance characteristics. Quality coatings are proving attractive to many customers because better industrial finishes are necessary to meet the increasingly severe demand of many applications. Formulators who want to provide high-quality coatings find that alkyds containing TME afford the desired product improvements. Short oil alkyds vehicles are well accepted in industrial finishes as they are characterized by good drying properties, low cost and good solvent resistance. Short oil baking vehicles possess the additional benefits of excellent metal adhesion, good tolerance for over-bake, impact resistance and good flexibility. The air-dry data show the two resins to have a comparable viscosity, while the TME-based resin offers greater initial hardness. The TME-based resin also provides improved resistance to salt spray, stain, detergent, and water immersion when compared against the glycerol resin. The comparative baking data show the TME-based resin to have excellent flexibility, impact and adhesion characteristics. It also provides for improved resistance to stain, water immersion, humidity and salt spray. Table 1—Resin Preparation SO101 SO102 SO103 TRIMET ® TME 258 - - Glycerol - 218 - Trimethylolpropane 1 - - 333 Phthalic Anhydride 2 377 419 359 Ethylene Glycol 43 43 - Tall Oil Fatty Acid 322 320 308 1 TMP, Celanese Inc 2 BP Amoco Chemical Co. All information and data, including the formulations and procedures discussed herein, are REVISION DATE: OCTOBER 2020 believed to be correct. However, this should not be accepted as a guarantee of their TRIMET ® is a registered trademark of GEO accuracy, and confirming tests should be run in your laboratory or plant. No statement Specialty Chemicals, Inc. should be construed as a recommendation for any use which would violate any patent rights. Sales of all products are pursuant to terms and conditions included in GEO Specialty Chemicals sales documents. Nothing contained therein shall constitute a guarantee or warranty with respect to the products described or their use. Safety information regarding these products is contained in their Safety Data Sheets. Users of these products are urged to review and use this information. TECHNICAL BULLETIN TRIMET ® TME Processing: Charge all resin ingredients into the reactor and heat to 200°C. Hold at reaction temperature for ½ hr. Increase heat to 242°C and hold for resin characteristics. Reduce to 50% Non-volatile matter (NVM) with xylene. Resin Properties SO101 SO102 SO103 Viscosity, Gardner U+ V-W V- Colour, Gardner 4-5 5-6 4+ Acid Value (AV), mgKOH / 6.9 8.2 6.1 g Non-volatile matter (NVM) 50 50 50 % Cure @ 200°C 15 sec. 21 sec. 15 sec. A. Short Oil Air-Dry Enamel Two white air-dry short oil enamels were prepared as follows: Resin Properties Quantity, g Alkyd Resin (50% NVM in Xylene) 598.0 Wetting Agent 1 2.0 Titanium Dioxide 2 264.0 12% Cobalt Naphthenate 1.25 4% Calcium Naphthenate 3.70 18% Zirconium Naphthenate 5.0 Anti-skin Agent 3 0.5 VM&P Naphtha 58.2 Xylene 67.3 1 Yelkin ® TS, Ross & Rowe Co 2 Ti-Pure ® R-960, EI Du Pont de Nemours & Co 3 Exkin ® No 2, Nuodex All information and data, including the formulations and procedures discussed herein, are REVISION DATE: OCTOBER 2020 believed to be correct. However, this should not be accepted as a guarantee of their TRIMET ® is a registered trademark of GEO accuracy, and confirming tests should be run in your laboratory or plant. No statement Specialty Chemicals, Inc. should be construed as a recommendation for any use which would violate any patent rights. Sales of all products are pursuant to terms and conditions included in GEO Specialty Chemicals sales documents. Nothing contained therein shall constitute a guarantee or warranty with respect to the products described or their use. Safety information regarding these products is contained in their Safety Data Sheets. Users of these products are urged to review and use this information. TECHNICAL BULLETIN TRIMET ® TME Table 3 - Viscosity and Dry Film Tests SO101 SO102 SO103 TRIMET ® Polyol Glycerol TMP TME Paint Designation PSO101 PSO102 PSO103 Viscosity #4 Ford Cup @ 222 sec. 164 sec. 216 sec. 25°C Pencil Hardness 24 hrs. < 2B < 2B < 2B Pencil Hardness 72 hrs. B < 2B < 2B Pencil Hardness 1 week B < 2B < 2B 60° Gloss 94 94 93 Cross Hatch Adhesion, 100 100 100 Pass % Stain Resistance Paint was sprayed to dry film thickness of 0.02 - 0.03 mm on Bondrite 1000 panels. The panels were allowed to dry for three weeks at ambient temperature. All materials, except xylene and water and patted dry with paper towels. Table 4—Stain Resistance SO101 SO102 SO103 Polyol TRIMET ® TME Glycerol TMP Paint Designation PSO101 PSO102 PSO103 badly stained badly stained and badly stained and 2% Iodine and blister- blistering blistering ing stained and stained and blis- stained and slight Mustard slight blis- tering blistering tering Ketchup very slight stain slight stain very slight stain Oil no effect no effect no effect slight blistering Xylene slight blistering severe blistering and softening Gasoline slight blistering slight blistering slight blistering All information and data, including the formulations and procedures discussed herein, are REVISION DATE: OCTOBER 2020 believed to be correct. However, this should not be accepted as a guarantee of their TRIMET ® is a registered trademark of GEO accuracy, and confirming tests should be run in your laboratory or plant. No statement Specialty Chemicals, Inc. should be construed as a recommendation for any use which would violate any patent rights. Sales of all products are pursuant to terms and conditions included in GEO Specialty Chemicals sales documents. Nothing contained therein shall constitute a guarantee or warranty with respect to the products described or their use. Safety information regarding these products is contained in their Safety Data Sheets. Users of these products are urged to review and use this information. TECHNICAL BULLETIN TRIMET ® TME Detergent Resistance Procedure: Panels were prepared in the same way as for the stain resistance test. They were allowed to dry for 21 days at ambient temperature, and then were immersed in a 2% laundry detergent solution for one hour at 83°C. Table 5—Detergent Resistance SO101 SO102 SO103 Polyol TRIMET ® TME Glycerol TMP Paint Designation PSO101 PSO102 PSO103 Original Gloss 93 94 92 Final Gloss 87 53 87 Loss in Gloss 6 41 5 Water Immersion Procedure: Panels were prepared in the same way as in the previous tests. They were then backed with a primer. One panel of each paint (*) was scribed with a sharp razor to expose the bare metal. All edges were coated with paraffin. The panels were allowed to dry for 7 days at ambient temperature and then were immersed in distilled water for 200 hours. Table 6—Water Immersion SO101 SO102 SO103 Polyol TRIMET ® TME Glycerol TMP Paint Designation PSO101 PSO101* PSO102 PSO102* PSO103 PSO103* Film Thickness, mm 0.025 0.025 0.025 0.025 0.025 0.025 Original Gloss 93 91 96 91 92 91 Final Gloss 56 53 56 55 46 49 Loss in Gloss 37 38 40 36 46 42 All information and data, including the formulations and procedures discussed herein, are REVISION DATE: OCTOBER 2020 believed to be correct. However, this should not be accepted as a guarantee of their TRIMET ® is a registered trademark of GEO accuracy, and confirming tests should be run in your laboratory or plant. No statement Specialty Chemicals, Inc. should be construed as a recommendation for any use which would violate any patent rights. Sales of all products are pursuant to terms and conditions included in GEO Specialty Chemicals sales documents. Nothing contained therein shall constitute a guarantee or warranty with respect to the products described or their use. Safety information regarding these products is contained in their Safety Data Sheets. Users of these products are urged to review and use this information. TECHNICAL BULLETIN TRIMET ® TME Humidity Resistance Procedure: panels were air dried at ambient temperature for 7 days and then were placed in a panel with each paint (*) was scribed with a sharp razor down to bare metal. Table 7—Humidity Resistance SO101 SO102 SO103 Polyol TRIMET ® TME Glycerol TMP Paint Designation PSO101 PSO101* PSO102 PSO102* PSO103 PSO103* Film Thickness, mm 0.025 0.025 0.025 0.025 0.025 0.025 Original Gloss 93 91 96 91 92 91 Final Gloss 56 53 56 55 46 49 Loss in Gloss 37 38 40 36 46 42 Salt Spray Resistance Procedure: Paint was applied to Bondrite 1000 panels to a film thickness of 0.02 - 0.03 mm.
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