Bio-Based Polyurethanes That Work. Zero VOC

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Bio-Based Polyurethanes That Work Zero VOC

Polyurethanes: The Case For Renewable Polyester Polyols Consumers of bio-based intermediates enjoy more stable costs than their competitors using petroleum-based intermediates. Myriant s Developmental Polyester Polyols are made from bio-succinic acid, and will allow polyurethane manufacturers to make products with a smaller environmental footprint and no performance penalty, at a competitive cost. Polyester PolyolS - BUILDING BLOCKS FOR THE THINGS YOU USE EVERYDAY Petroleum-based polyester polyols are in everything from couches and mattresses to packaging and toys. As consumer demand grows for greener products, manufacturers seek solutions for producing polyester polyols that reduce their reliance on petroleum. Myriant has that solution. Myriant has produced a line of developmental polyester polyols using bio-succinic acid as a raw material. While Myriant will not be manufacturing or selling polyester polyols, we are offering these materials in an effort to assist polyol formulators in exploring the advantages of bio-succinic acid in polyurethanes. Page 1

Polyester Polyol Chemistry Making Polyurethanes Greener Myriant s Bio-Succinic Acid Can Replace Adipic Acid in Polyols, Which Increases the Renewable Content Up to 100% Based on the Choice of Diol. Adipic acid is the most common aliphatic diacid used to make polyester polyols. Succinic acid has the same chemical properties as adipic acid and thus can generally be used without changes to the manufacturing process. Myriant s bio-succinic acid can replace adipic acid in polyols, which increases the renewable content up to 66%. The renewable content of Myriant s Developmental Polyester Polyols available for sampling are shown in the table below. Using bio-based diols can increase the bio-carbon content to 100%, resulting in even higher renewable content in the finished polyurethane. Also shown are the corresponding adipic acid-based polyester polyols used for comparison, along with their bio-based carbon content. Product Code Succinic Polyols Diol Adipic Polyols Bio-Based Carbon Content Control Sample ID Diol Bio-Based Carbon Content DGTA-56 DEG/PEG/TMP 47 APTA-56 DEG/TMP 0 DGTB-56 DEG/PEG/TMP 47 ABTB-56 DEG/TMP 0 EG-110 EG 66 APEG-110 EG 0 DG-110 DEG 50 APDG-110 DEG 0 HD-110 HDO 40 APHD-110 HDO 0 Page 2

Bio-Based Polyurethanes Higher Renewable Content With Equal Performance All of Myriant s Developmental Polyester Polyols Work as Drop-In Replacements for Their Adipic Acid-Based Counterparts. Polyester polyols, typically produced from adipic acid, are used to produce polyurethanes with good mechanical properties, abrasion resistance and chemical resistance. Succinic acid can be directly substituted for adipic acid in these polyester polyols. The polyols are then used to make polyurethanes with a higher renewable content that can be incorporated into standard formulations to give predictable performance in specialty foams, coatings, adhesives, elastomers and TPUs. The tables below show the characterization of the succinic acid and adipic acid polyols. Myriant s Developmental Polyester Polyols - Based on Bio-Succinic Acid Product Code Diol Type OH Number Viscosity (60 C, cps) DGTA-56 DEG/PEG/TMP Branched, f ~ 2.4 61 3150 DGTB-56 DEG/PEG/TMP Branched, f ~ 2.7 64 4000 EG-110 EG Linear, f = 2.0 107 400 (80 C) DG-110 DEG Linear, f = 2.0 113 440 HD-110 HDO Linear, f = 2.0 108 450 Adipic Polyester Polyols Control Sample ID Diol Type OH Number Viscosity (60 C, cps) APTA-56 DEG/TMP Branched, f ~ 2.4 76 440 APTB-56 DEG/TMP Branched, f ~ 2.7 60 1340 APEG-110 EG Linear, f = 2.0 90 415 APDG-110 DEG Linear, f = 2.0 116 250 APHD-110 HDO Linear, f = 2.0 95 450 Page 3

Bio-Based Polyurethanes Higher Renewable Content With Equal Performance Myriant s Developmental Polyester Polyols Have Similar Thermal and Mechanical Properties to Adipic Acid Polyols. To evaluate the performance of the higher renewable content Developmental Polyester Polyols, polyurethane plaques were made using Bayer MaterialScience Desmodur 3200, a liquid aliphatic isocyanate based on hexamethylene diisocyanate with an NCO content of 23.0%, a viscosity of 2500 cps and a functionality of 3.2. Elastomer samples were prepared by preheating the components to 70 C, mixing for one minute, pouring the mixture into a preheated dog bone mold and curing overnight at 85 C. Test specimens from Myriant s Developmental Polyester Polyols and control specimens from the adipic acid polyester polyols were prepared. These formulations were not optimized for any specific application but were chosen to give the most direct physical property comparison between succinic acid and adipic acid when used in a polyurethane application. Thermal Properties The thermal properties of the polyurethanes made from Myriant s Developmental Polyester Polyols, as well as the corresponding adipic acid controls, are shown in the table below. Two of the polyurethanes crystallized: Myriant s EG-110, with a melting point (T m ) of 60 C, and the adipic acid version of HD-110, with a melting point of 30 C. In general, polyurethanes made from succinic acid-based polyester polyols have slightly higher glass transition temperatures than the adipic acid-based controls. This is the result of the slightly shorter four-carbon diacid causing a small increase in the rigidity of the backbone. Succinic Polyols Adipic Polyols Product Code T g (T m ) - C Control Sample ID T g (T m ) - C DGTA-56-17 APTA-56-28 DGTB-56-16 APTB-56-29 EG-110-6 (60) APEG-110-30 DG-110-12 APDG-110-26 HD-110-33 APHD-110-44 (30) Page 4

Bio-Based Polyurethanes Higher Renewable Content With Equal Performance Mechanical Properties The data shown in the table below illustrates the similarity in properties between the succinic and adipic-based polyols. The Shore A and D hardness values were essentially the same, with the exception of the materials that showed crystallinity. In those cases, the crystalline elastomers exhibit higher hardness values than their amorphous counterparts. Succinic Acid Adipic Acid Product Code Shore A Shore D Control Sample ID Shore A Shore D DGTA-56 55 16 APTA-56 54 17 DGTB-56 54 16 APTB-56 66 20 EG-110 87 31 APEG-110 55 17 DG-110 61 21 APDG-110 65 20 HD-110 56 16 APHD-110 68 25 Tensile properties for the polyurethanes derived from Myriant s Developmental Polyester Polyols are shown below. Succinic Acid Adipic Acid Product Code Break Strain (%) Break Stress (MPa) Tensile Modulus (MPa) Control Sample ID Break Strain (%) Break Stress (MPa) Tensile Modulus (MPa) DGTA-56 39 0.9 3.0 APTA-56 25 0.6 2.9 DGTB-56 36 0.7 2.7 APTB-56 14 0.7 6.0 EG-110 44 2.9 36 APEG-110 33 0.9 3.4 DG-110 26 0.9 4.3 APDG-110 23 1.0 5.5 HD-110 16 0.5 4.0 APHD-110 25 1.1 5.6 Theoretically, the shorter backbone of succinic acid should result in better abrasion resistance, giving succinic polyols an advantage in applications where abrasion resistance is required. Page 5

Bio-Based Polyurethanes Long Term Price Stability With No Green Premium Raw Material Cost for Myriant s Developmental Polyester Polyols is Lower and More Stable Than Petroleum-Derived Polyols. Traditionally, polyurethanes are derived from raw materials that use petroleum as their carbon source, Corn WTI Crude for which crude oil price is a primary cost driver. Myriant s Developmental Polyester Polyols are based on bio-succinic acid, which uses industrial sugar as its carbon source. Corn pricing is an historic indicator of the cost of these sugars. This chart shows the price of crude oil over a seven year period compared to the price of corn. The price of crude oil has had very large price peaks and valleys, with a generally increasing trend. The price line for corn is much flatter, indicative of a more Jan-05 Jul-05 Jan-06 Jul-06 Jan-07 Jul-07 Jan-08 Jul-08 Jan-09 Jul-09 Jan-10 Jul-10 Jan-11 Jul-11 Jan-12 Jul-12 stable pricing history. Myriant s Developmental Polyester Polyols Use Raw Materials That are Cost Competitive With Adipic Acid. Many chemical intermediates used to produce Adipic Acid polyurethanes are priced based on an index relating Succinic Acid to their primary raw material cost drivers. As an example, adipic acid is typically priced based on a formula tied to benzene and ammonia prices, both of which follow crude oil prices. As the chart shows, the resulting price is highly volatile, driven primarily by fluctuations in oil prices. To illustrate the advantage of agricultural-based feedstocks, we used an example of a succinic acid price formula based on corn prices. This results in a more stable long term price and predictable cost for May-06 Nov-06 May-07 Nov-07 May-08 Nov-08 May-09 Nov-09 May-10 Nov-10 May-11 Nov-11 May-12 Nov-12 users of chemical intermediates. The result? Consumers of bio-based intermediates will enjoy more stable costs than their competitors using petroleum-based intermediates. Page 6

Bio-Based Polyurethanes Smaller Environmental Footprint Polyurethanes Made From Renewable Raw Materials Will Have a Smaller Environmental Footprint Than Those Made From Petroleum-Based Raw Materials. The life cycle analysis of Myriant s bio-succinic acid process shows that the carbon dioxide emissions of the bio-based process are substantially lower than either the existing petroleum-based process to make succinic acid from maleic anhydride, or the process to make adipic acid from benzene. Polyester polyols made from bio-succinic acid will enjoy a similar reduction in their environmental footprint compared to those made from adipic acid. 3.5 CO 2 Emissions, kg CO 2 -eq/kg Succinic Acid 3 2.5 2 1.5 1 0.5 0 2.98 2.6 0.18 Petroleum-SAC Petroleum Adipic Bio-SAC Page 7

APPENDIX: DEVELOPMENTAL POLYESTER POLYOLS Product Data Sheets Linear Polyester Polyols DG-110 Developmental Polyester Polyol EG-110 Developmental Polyester Polyol HD-110 Developmental Polyester Polyol Branched Polyester Polyols DGTA-56 Developmental Polyester Polyol DGTB-56 Developmental Polyester Polyol Page 8

DG-110 DEVELOPMENTAL POLYESTER POLYOL For Elastomers, Coatings and Adhesives Consumers of bio-based intermediates enjoy more stable costs than their competitors using petroleum-based intermediates. Myriant s Developmental Polyester Polyols are made from bio-succinic acid, and will allow polyurethane manufacturers to make products with a smaller environmental footprint and no performance penalty, at a competitive cost. Derived From Succinic Acid and Diethylene Glycol CAS No. 26183-02-8 Myriant s DG-110 developmental linear polyester polyol, made from bio-succinic acid and diethylene glycol, provides renewable content and good properties for elastomers, coatings and adhesives. As with any product, the performance of Myriant s DG-110 polyol in any application must be verified by the end user. Product Properties Value Hydroxyl Number 113 Functionality 2.0 Viscosity (60 C, cps) 440 Moisture (wt%) 0.04 Acid Value 0.8 Color (APHA) 300 Calculated Bio-Based Carbon Content (%) 50 Storage and Handling Myriant s DG-110 developmental linear polyester polyol is hygroscopic and may absorb water. Containers should be kept tightly closed and protected from contamination, especially by moisture. The product should be stored in a cool, dry location. The product may be heated prior to use to reduce the viscosity for processing. Health and Safety Information Before working with this product, read and become familiar with the hazards, proper use and handling characteristics of the product. When using this product, the information and advice given in the Material Safety Data sheet should be observed. Normal precautions for the handling of chemicals, including wearing proper personal protective equipment, should be followed at all times. A Material Safety Data Sheet is available on request. Packaging Samples are available in 1-quart containers. Page 9

EG-110 DEVELOPMENTAL POLYESTER POLYOL For Elastomers, Coatings and Adhesives Consumers of bio-based intermediates enjoy more stable costs than their competitors using petroleum-based intermediates. Myriant s Developmental Polyester Polyols are made from bio-succinic acid, and will allow polyurethane manufacturers to make products with a smaller environmental footprint and no performance penalty, at a competitive cost. Derived From Succinic Acid and Ethylene Glycol CAS No. 25569-53-3 Myriant s EG-110 developmental linear polyester polyol, made from bio-succinic acid and ethylene glycol, provides renewable content and good properties for elastomers, coatings and adhesives. As with any product, the performance of Myriant s EG-110 polyol in any application must be verified by the end user. Product Properties Value Hydroxyl Number 107 Functionality 2.0 Viscosity (80 C, cps) 400 Moisture (wt%) 0.01 Acid Value 0.52 Color (APHA) 245 Calculated Bio-Based Carbon Content (%) 66 Storage and Handling Myriant s EG-110 developmental linear polyester polyol is hygroscopic and may absorb water. Containers should be kept tightly closed and protected from contamination, especially by moisture. The product should be stored in a cool, dry location. The product may be heated prior to use to reduce the viscosity for processing. Health and Safety Information Before working with this product, read and become familiar with the hazards, proper use and handling characteristics of the product. When using this product, the information and advice given in the Material Safety Data sheet should be observed. Normal precautions for the handling of chemicals, including wearing proper personal protective equipment, should be followed at all times. A Material Safety Data Sheet is available on request. Packaging Samples are available in 1-quart containers. Page 10

HD-110 DEVELOPMENTAL POLYESTER POLYOL For Elastomers, Coatings and Adhesives Consumers of bio-based intermediates enjoy more stable costs than their competitors using petroleum-based intermediates. Myriant s Developmental Polyester Polyols are made from bio-succinic acid, and will allow polyurethane manufacturers to make products with a smaller environmental footprint and no performance penalty, at a competitive cost. Derived From Succinic Acid and 1,6-Hexanediol CAS No. 27516-89-8 Myriant s HD-110 developmental linear polyester polyol, made from bio-succinic acid and 1,6 Hexanediol, provides renewable content and good properties for elastomers, coatings and adhesives. As with any product, the performance of Myriant s HD-110 polyol in any application must be verified by the end user. Product Properties Value Hydroxyl Number 108 Functionality 2.0 Viscosity (60 C, cps) 450 Moisture (wt%) 0.02 Acid Value 0.7 Color (APHA) 110 Calculated Bio-Based Carbon Content (%) 40 Storage and Handling Myriant s HD-110 developmental linear polyester polyol is hygroscopic and may absorb water. Containers should be kept tightly closed and protected from contamination, especially by moisture. The product should be stored in a cool, dry location. The product may be heated prior to use to reduce the viscosity for processing. Health and Safety Information Before working with this product, read and become familiar with the hazards, proper use and handling characteristics of the product. When using this product, the information and advice given in the Material Safety Data sheet should be observed. Normal precautions for the handling of chemicals, including wearing proper personal protective equipment, should be followed at all times. A Material Safety Data Sheet is available on request. Packaging Samples are available in 1-quart containers. Page 11

DGTA-56 DEVELOPMENTAL POLYESTER POLYOL For Foams Consumers of bio-based intermediates enjoy more stable costs than their competitors using petroleum-based intermediates. Myriant s Developmental Polyester Polyols are made from bio-succinic acid, and will allow polyurethane manufacturers to make products with a smaller environmental footprint and no performance penalty, at a competitive cost. Derived From Succinic Acid, Diethylene Glycol and Polyethylene Glycol CAS No. 380894-87-1 Myriant s DGTA-56 developmental non-linear polyester polyol, made from bio-succinic acid, diethylene glycol and polyethylene glycol, provides renewable content and useful properties for foams. As with any product, the performance of Myriant s DGTA-56 polyol in any application must be verified by the end user. Product Properties Value Hydroxyl Number 61 Functionality 2.4 Viscosity (60 C, cps) 3150 Moisture (wt%) 0.03 Acid Value 1.4 Color (APHA) 430 Calculated Bio-Based Carbon Content (%) 47 Storage and Handling Myriant s DGTA-56 developmental non-linear polyester polyol is hygroscopic and may absorb water. Containers should be kept tightly closed and protected from contamination, especially by moisture. The product should be stored in a cool, dry location. The product may be heated prior to use to reduce the viscosity for processing. Health and Safety Information Before working with this product, read and become familiar with the hazards, proper use and handling characteristics of the product. When using this product, the information and advice given in the Material Safety Data sheet should be observed. Normal precautions for the handling of chemicals, including wearing proper personal protective equipment, should be followed at all times. A Material Safety Data Sheet is available on request. Packaging Samples are available in 1-quart containers. Page 12

DGTB-56 DEVELOPMENTAL POLYESTER POLYOL For Foams Consumers of bio-based intermediates enjoy more stable costs than their competitors using petroleum-based intermediates. Myriant s Developmental Polyester Polyols are made from bio-succinic acid, and will allow polyurethane manufacturers to make products with a smaller environmental footprint and no performance penalty, at a competitive cost. Derived From Succinic Acid, Diethylene Glycol and Polyethylene Glycol CAS No. 380894-87-1 Myriant s DGTB-56 developmental non-linear polyester polyol, made from bio-succinic acid, diethylene glycol and polyethylene glycol, provides renewable content and useful properties for foams. As with any product, the performance of Myriant s DGTB-56 polyol in any application must be verified by the end user. Product Properties Value Hydroxyl Number 64 Functionality 2.7 Viscosity (60 C, cps) 4000 Moisture (wt%) 0.01 Acid Value 1.2 Color (APHA) 480 Calculated Bio-Based Carbon Content (%) 47 Storage and Handling Myriant s DGTB-56 developmental non-linear polyester polyol is hygroscopic and may absorb water. Containers should be kept tightly closed and protected from contamination, especially by moisture. The product should be stored in a cool, dry location. The product may be heated prior to use to reduce the viscosity for processing. Health and Safety Information Before working with this product, read and become familiar with the hazards, proper use and handling characteristics of the product. When using this product, the information and advice given in the Material Safety Data sheet should be observed. Normal precautions for the handling of chemicals, including wearing proper personal protective equipment, should be followed at all times. A Material Safety Data Sheet is available on request. Packaging Samples are available in 1-quart containers. Page 13

Bio-Based Polyurethanes Higher Renewable Content, Equal Performance, No Green Premium Summary Myriant s Developmental Polyester Polyols perform as direct drop-in replacements for adipic acid polyols in polyurethanes with applicability to specialty foams, elastomers, coatings, adhesives and TPUs. The long-term cost advantage of renewable feedstocks compared to crude oil results in more stable prices for polyurethane raw materials. The real environmental benefit of renewable chemicals comes from the reduced emissions during manufacture, a benefit that provides end products with smaller environmental footprints. Storage and Handling Myriant s Developmental Polyester Polyols are hygroscopic and may absorb water. Containers should be kept tightly closed and protected from contamination, especially by moisture. The product should be stored in a cool, dry location. The product may be heated prior to use to reduce the viscosity for processing. Health and Safety Information Before working with this product, read and become familiar with the hazards, proper use and handling characteristics of the product. When using this product, the information and advice given in the Material Safety Data Sheet should be observed. Normal precautions for the handling of chemicals, including wearing proper personal protective equipment, should be followed at all times. A Material Safety Data Sheet is available on request. SAMPLES AVAILABLE! Order today by calling + 1 855.MYRIANT or visiting www.myriant.com. CO2 LOWER CARBON FOOTPRINT NO GREEN PRICE PREMIUM NON-FOOD BASED HIGH PERFORMANCE Page 14

Not All Chemicals Are Created Equal TM CORPORATE OFFICE Myriant Chemistry Refined...Naturally 3 Batterymarch Park, 3rd Floor Quincy, MA 02169 +1 617.657.5200 To order samples, contact productinfo@myriant.com Phone: + 1 855.MYRIANT www.myriant.com