Cereplast is a leading manufacturer of bio-resins that are more sustainable alternatives to petroleum-based plastics. They have developed two families of bio-resins - compostable resins for single-use items and hybrid resins for durable applications. Cereplast aims to reduce dependence on fossil fuels and promote sustainability through bio-based and renewable resins.
The document discusses Synterra, a second generation poly lactic acid produced from plant waste that is biodegradable and bio-based. It notes that Synterra has improved heat resistance compared to traditional PLA through the use of stereocomplex PLA (sc-PLA) which allows cups to withstand temperatures up to 190 degrees Celsius without distortion. The document outlines Synterra's production process and target markets as well as its end-of-life options including industrial composting, recycling, and incineration. It highlights Synterra's advantages of being biobased, non-GMO, having a low carbon footprint and biodegradability.
Digelis Turbo - Reduce the volume of the sludge by 50% with boosting digestionDegrémont
The document describes Digelis Turbo, a process for enhanced digestion of biological or mixed sludge that uses thermal hydrolysis. Thermal hydrolysis disintegrates bacterial cells and exopolymers, making the sludge more easily digestible. This boosts digestion and reduces sludge volumes by 50% compared to conventional mesophilic digestion. Digelis Turbo increases biogas production which can be used to generate renewable energy and heat needed for the thermal hydrolysis process.
This document discusses how to assess the sustainability of products using three key pillars: society, ecology, and economy. It provides an overview of life cycle assessment (LCA) methodology for evaluating products from raw material extraction through production, use, and disposal. As an example, it summarizes an LCA comparing the sustainability of biodiesel to conventional diesel, finding biodiesel has small environmental advantages but higher production costs depending on oil prices. Finally, it demonstrates how eco-efficiency analysis can evaluate the sustainability tradeoffs between products like standard versus fluff-reduced diapers.
The document discusses the future prospects for bioplastics. It notes that while demand for bioplastics is projected to increase significantly in the coming years, current bioplastics mainly serve disposable applications and do not meet the needs for durable applications due to issues with hydrolytic stability, heat resistance, and other properties. However, blends of PLA and PHBV show promise for improving heat resistance over pure materials. The development of new renewable building blocks and monomers may open up new frontiers for high-performance bioplastics that can serve durable applications. The future of bioplastics will depend on moving beyond single-use applications and improving performance and prices through technology and infrastructure developments.
This document describes a study that used Aspen and SimaPro software to analyze the life cycle of producing liquid biofuel from fast pyrolysis of woody biomass. The study adapted an existing Aspen model of a 2000 tonne/day pyrolysis facility to develop a life cycle inventory. The SimaPro analysis found biofuel from pine chips had significantly lower greenhouse gas emissions than refined fuel oil. It also showed biofuel production was near carbon neutral and could reduce CO2 emissions by substituting for refined oil. Energy required for biofuel production was mostly self-generated.
Metabolix - Mirel® PHA Polymeric Modifiers and AdditivesMetabolix, Inc.
This document summarizes a presentation given by Mike Andrews about Mirel PHA polymeric modifiers and additives. It discusses Metabolix's PHA technology platform for producing bio-based polymers from sugar feedstocks using fermentation. The PHA family of copolymers can modify polymers like PLA and PVC to improve flexibility, toughness, and reduce brittleness. Applications highlighted include PLA modification, PVC modification, aqueous dispersions for coatings, and micropowders for personal care products. PHA modifiers and additives are 100% bio-based and biodegradable.
Learn how TOPAS COC can improve aroma barrier and product purity. TOPAS resin also delivers many other benefits - moisture protection, easy forming, high shrink, easy opening, superb twist, and more.
BioBased Engineered Plastic Solutions for Oil and Gas ApplicaationsDuncan Hogg
Biodegradable plastic compounds are used in consumer products on regular bases. Recently the oil and gas industry has started to use degradable metals and plastics to increase efficiency and reduce costs. RTP Co. has developed degradable compounds based on Polylactic Acid (PLA) suitable for O&G completion tools applications. This presentation reviews RTP Co. BioPlastic compounding technology and compounds designed for use in downhole oil and gas components.
The document discusses Synterra, a second generation poly lactic acid produced from plant waste that is biodegradable and bio-based. It notes that Synterra has improved heat resistance compared to traditional PLA through the use of stereocomplex PLA (sc-PLA) which allows cups to withstand temperatures up to 190 degrees Celsius without distortion. The document outlines Synterra's production process and target markets as well as its end-of-life options including industrial composting, recycling, and incineration. It highlights Synterra's advantages of being biobased, non-GMO, having a low carbon footprint and biodegradability.
Digelis Turbo - Reduce the volume of the sludge by 50% with boosting digestionDegrémont
The document describes Digelis Turbo, a process for enhanced digestion of biological or mixed sludge that uses thermal hydrolysis. Thermal hydrolysis disintegrates bacterial cells and exopolymers, making the sludge more easily digestible. This boosts digestion and reduces sludge volumes by 50% compared to conventional mesophilic digestion. Digelis Turbo increases biogas production which can be used to generate renewable energy and heat needed for the thermal hydrolysis process.
This document discusses how to assess the sustainability of products using three key pillars: society, ecology, and economy. It provides an overview of life cycle assessment (LCA) methodology for evaluating products from raw material extraction through production, use, and disposal. As an example, it summarizes an LCA comparing the sustainability of biodiesel to conventional diesel, finding biodiesel has small environmental advantages but higher production costs depending on oil prices. Finally, it demonstrates how eco-efficiency analysis can evaluate the sustainability tradeoffs between products like standard versus fluff-reduced diapers.
The document discusses the future prospects for bioplastics. It notes that while demand for bioplastics is projected to increase significantly in the coming years, current bioplastics mainly serve disposable applications and do not meet the needs for durable applications due to issues with hydrolytic stability, heat resistance, and other properties. However, blends of PLA and PHBV show promise for improving heat resistance over pure materials. The development of new renewable building blocks and monomers may open up new frontiers for high-performance bioplastics that can serve durable applications. The future of bioplastics will depend on moving beyond single-use applications and improving performance and prices through technology and infrastructure developments.
This document describes a study that used Aspen and SimaPro software to analyze the life cycle of producing liquid biofuel from fast pyrolysis of woody biomass. The study adapted an existing Aspen model of a 2000 tonne/day pyrolysis facility to develop a life cycle inventory. The SimaPro analysis found biofuel from pine chips had significantly lower greenhouse gas emissions than refined fuel oil. It also showed biofuel production was near carbon neutral and could reduce CO2 emissions by substituting for refined oil. Energy required for biofuel production was mostly self-generated.
Metabolix - Mirel® PHA Polymeric Modifiers and AdditivesMetabolix, Inc.
This document summarizes a presentation given by Mike Andrews about Mirel PHA polymeric modifiers and additives. It discusses Metabolix's PHA technology platform for producing bio-based polymers from sugar feedstocks using fermentation. The PHA family of copolymers can modify polymers like PLA and PVC to improve flexibility, toughness, and reduce brittleness. Applications highlighted include PLA modification, PVC modification, aqueous dispersions for coatings, and micropowders for personal care products. PHA modifiers and additives are 100% bio-based and biodegradable.
Learn how TOPAS COC can improve aroma barrier and product purity. TOPAS resin also delivers many other benefits - moisture protection, easy forming, high shrink, easy opening, superb twist, and more.
BioBased Engineered Plastic Solutions for Oil and Gas ApplicaationsDuncan Hogg
Biodegradable plastic compounds are used in consumer products on regular bases. Recently the oil and gas industry has started to use degradable metals and plastics to increase efficiency and reduce costs. RTP Co. has developed degradable compounds based on Polylactic Acid (PLA) suitable for O&G completion tools applications. This presentation reviews RTP Co. BioPlastic compounding technology and compounds designed for use in downhole oil and gas components.
Daniel's talk will cover the myths of bioplastics and degradation, how bioplastics can allevieate the problem of plastic pollution, and how they can be best used to not cause harm to the environment.
Daniel Gao majored in Biomass Science and Technology at South China University of Technology, where his research focused on applications of bio-based materials. He has had three papers published internationally and issued two patents (one pending). He currently works as an Account Manager in the DSM engineering plastic department, and is in charge of business maintenance and development in South China and Zhejiang province. As a member of DSM Sustainability Ambassadors, he joined One Young World Summit in Bogota in 2017, focusing on the UN Sustainable Development Goals, participates in DSM sustainability activities and is responsible for promoting sustainable product portfolio solutions.
Sustainability in an urban environment through anaerobic digestioneisenmannusa
The document describes plans to implement an anaerobic digestion system at Plant Chicago, a vertical farming operation located in a former meatpacking facility in Chicago. The system would divert over 10,000 tons of organic waste annually from landfills to produce biogas using anaerobic digestion. The biogas would be used in a combined heat and power unit to generate electricity and heat for the building, making it a net zero energy operation. The digestate produced would also be used as fertilizer to replace fossil fuel-based fertilizers. The project aims to promote more sustainable urban agriculture and reduce greenhouse gas emissions in the city.
What are the underlying biases and preconceived notions that we have about the products labelled "bio" or "green"? Are there other “bio”s that we need to be wary of?
Dr Jem's talk will cover bioplastics from a holistic perspective, with a focus on: types of bioplastics, pro's and con's of PLA, how is PLA 'industrially' recycled or composted, innovations in the bioplastics world, other plant-based packaging alternatives, etc.
Dr. Jem received his Ph.D. and 2 Masters degrees in biochemical engineering, and numerous awards in the USA, and worked 15 years in engineering, biotech, and pharmaceutical companies such as Ratheon, Serono, Diversa, with excellent track record with multiple awards. In 2000, he moved back to China to work for biotech and bioplastic companies such as Cargill and NatureWorks PLA. He has served as the China General Manager for Total Corbion PLA JV and previously for Corbion Purac since 2007, and serves as a Visiting Professor for several local Universities.
Metabolix - PHA Modifiers as Polymeric Plasticizers and Process AidsMetabolix, Inc.
This document discusses using polyhydroxyalkanoates (PHAs) as polymeric plasticizers and process aids for PVC. PHAs were found to have similar properties to conventional ethylene copolymer resin modifiers for PVC, including lower migration rates than primary plasticizers like DINP. PHAs are also inherently miscible in PVC, making them easier to process than synthetic modifiers. Additionally, PHAs are fully bio-based and food contact approved, allowing for higher bio-content and a broader range of applications compared to conventional plasticizers.
This document provides information on a training course titled "Biodiesel Fuel Quality & BQ-9000" presented by the National Biodiesel Board. The objectives of the course are to instruct attendees on diesel and biodiesel fuel properties, how these properties affect fuel quality and filtration, and details on the BQ-9000 biodiesel quality program. Key topics that will be covered include ASTM biodiesel specifications, critical fuel quality parameters and their importance, biodiesel's enhanced lubricity, and its performance in low temperature operation.
The document discusses IH2 technology, which uses catalytic hydroprocessing to convert biomass into hydrocarbon fuels. The process has two stages - a bubbling fluidized bed reactor and a fixed bed hydrothermal reactor - using proprietary catalysts. It can process a variety of feedstocks flexibly into fungible hydrocarbon fuels. The process is estimated to have low capital and operating costs compared to other biomass to liquid technologies. A national lab validated the cost estimates for a commercial scale plant. The technology has been demonstrated at bench and pilot scale and is progressing toward pre-commercial scale.
Enerzea provides turnkey biomethanation power plant solutions that generate renewable energy from organic waste sources through anaerobic digestion. The process captures methane produced from feedstocks like agricultural waste, animal waste, and municipal solid waste. This methane is then used to generate electricity onsite. Key benefits include reducing greenhouse gas emissions and producing fertilizer as a byproduct. Enerzea's systems are continuously stirred tank reactors that efficiently mix waste for high-rate digestion at optimal temperatures. Their full-service approach includes site assessment, plant construction and commissioning, and operations and maintenance support.
This document summarizes research on blending cyclic olefin copolymers (COC) with polyethylene to improve heat sealing characteristics. COC was found to improve seal strength, increase the sealing temperature window, and enhance hot tack strength when blended with LDPE, LLDPE, and plastomers. The highest improvements were seen with LLDPE and plastomers. COC is more compatible with LLDPE and plastomers than LDPE. Blending high Tg COC at levels above 20% provided seal-through capability to polyethylenes. In conclusion, COC/polyethylene blends can enhance modulus and heat sealing performance for packaging films.
Sustainability in an Urban Environment Through Anaerobic Digestion - Biocycleeisenmannusa
The document discusses a proposal to implement an anaerobic digestion system at an urban vertical farming facility in Chicago. The system would use organic waste as an input to produce biogas via anaerobic digestion. The biogas would be used to generate electricity and heat for the facility, making it a net zero energy operation. It would also produce digestate as a fertilizer and reduce waste sent to landfills. The proposal outlines the concept, technology, and milestones to construct a 5,000 ton per year anaerobic digestion plant at the facility.
Sustainability in an Urban Environment Through Anaerobic Digestioneisenmannusa
This document discusses implementing an anaerobic digestion system at Plant Chicago, a nonprofit urban vertical farming operation located in a vacant meatpacking facility in Chicago. The proposed system would divert over 10,000 tons of organic waste per year from landfills, producing biogas to generate electricity and heat for the building. A 5,000 ton per year Phase I plant is proposed, utilizing various organic waste streams to produce 200 kW of electricity and other digestate products. The system will help Plant Chicago become a net zero energy operation while reducing greenhouse gas emissions and reliance on fossil fuel-based fertilizers.
This document discusses green chemistry and its principles. It provides examples of companies that have implemented green chemistry approaches to reduce waste and hazardous chemicals in their products and manufacturing processes. These include substituting safer chemicals and renewable feedstocks, improving atom economy in reactions, and redesigning synthesis routes.
This document presents the results of a life cycle assessment of ethanol fuel produced from willow biomass. The study evaluated the fuel's impact on global warming potential, fossil energy use, water use, and other environmental impacts. It found that willow ethanol production is near carbon neutral due to avoided emissions from coal and oil displacement. However, water usage for the bioconversion process was substantial. The impacts on acidification were greater for ethanol than gasoline, while impacts on toxicity were greater for gasoline production. The study used models to analyze impacts across the full fuel lifecycle, from biomass growth and processing to fuel distribution and combustion.
BioIsoprene-BioChemicals and BioFuels Applications - Gregory Bohlmann - Genen...Burton Lee
This document discusses Genencor's BioIsopreneTM platform for producing branched chain hydrocarbons from biomass for use in biofuels and biochemical applications. Genencor has developed a process using recombinant DNA and gas phase fermentation to produce the C5 hydrocarbon isoprene from biomass. Isoprene and its derivatives C10 and C15 can be used as drop-in fuels with energy content comparable to gasoline and diesel and an 80% reduction in greenhouse gas emissions over petroleum-based fuels. The BioIsopreneTM platform enables a biorefinery approach to producing both fuels and biochemicals from renewable feedstocks.
This document provides an overview of a training course on biodiesel engine and fleet performance presented by the National Biodiesel Board. The objectives are to provide expert answers on biodiesel use, introduce diesel technician training resources, and discuss fleet experiences with biodiesel. Key topics covered include biodiesel properties, engine manufacturer positions on biodiesel blends, and technical guidance from a biodiesel evaluation team on ensuring proper fuel quality and maintenance practices when adopting biodiesel.
The document discusses using cyclic olefin copolymers (COCs) to enhance polyolefin films for retort applications. It describes test films made with COCs and other polymers like PP, LLDPE, and HDPE. The films were evaluated after retort processing to understand how COCs respond under retort conditions and identify the most promising structures. The results showed that COCs can increase moisture and oxygen barrier, add heat resistance, enhance stiffness, and improve the performance of polyolefin components in retort applications.
The classic way to increase rate in LLDPE blown films is to add 10-25% LDPE. It works, but it compromises toughness. Now there is a new option. Blend less than 5% of TOPAS COC to achieve high rates and bubble stability, with very little impact on properties.
This document discusses thermal processing of lignocellulosic biomass for fuel and chemicals. It notes that lignocellulosic biomass resources in the Republic of Tatarstan amount to 35,000 thousand cubic meters annually, with forestry residues making up the largest portion. Current biomass processing technologies include pelletizing, briquetting, biochemical and thermochemical methods. The document focuses on fast pyrolysis technology, which converts biomass into liquid biooil, solid char, and gas at moderate temperatures and short residence times. A pilot plant with a 50 kg/h capacity has been constructed and tested to produce biooil via fast pyrolysis. The biooil has properties suitable for use as fuel or as feedstock
High-Performance UV-Curable PUDs With High Renewable Carbon ContentSartomer
This presentation addresses the use of UV-curable polyurethane dispersions for sustainable coatings. Features, properties, effects and project conclusions are discussed. For more information, please visit www.sartomer.com or follow Sartomer on Twitter @SartomerGlobal. Thanks for viewing!
The document summarizes Dr. Jim Lunt's presentation on the evolving bioplastics landscape for fibers and films. It defines biobased and biodegradable plastics, outlines the major classifications of bioplastics including biobased polymers and biodegradable polymers. It discusses the major bioplastics producers and their production capacities. It analyzes the markets for bioplastic films and fibers and highlights the challenges bioplastics currently face in competing with conventional plastics. Finally, it outlines new biobased monomers and polymers that may expand the use of bioplastics in the future.
Daniel's talk will cover the myths of bioplastics and degradation, how bioplastics can allevieate the problem of plastic pollution, and how they can be best used to not cause harm to the environment.
Daniel Gao majored in Biomass Science and Technology at South China University of Technology, where his research focused on applications of bio-based materials. He has had three papers published internationally and issued two patents (one pending). He currently works as an Account Manager in the DSM engineering plastic department, and is in charge of business maintenance and development in South China and Zhejiang province. As a member of DSM Sustainability Ambassadors, he joined One Young World Summit in Bogota in 2017, focusing on the UN Sustainable Development Goals, participates in DSM sustainability activities and is responsible for promoting sustainable product portfolio solutions.
Sustainability in an urban environment through anaerobic digestioneisenmannusa
The document describes plans to implement an anaerobic digestion system at Plant Chicago, a vertical farming operation located in a former meatpacking facility in Chicago. The system would divert over 10,000 tons of organic waste annually from landfills to produce biogas using anaerobic digestion. The biogas would be used in a combined heat and power unit to generate electricity and heat for the building, making it a net zero energy operation. The digestate produced would also be used as fertilizer to replace fossil fuel-based fertilizers. The project aims to promote more sustainable urban agriculture and reduce greenhouse gas emissions in the city.
What are the underlying biases and preconceived notions that we have about the products labelled "bio" or "green"? Are there other “bio”s that we need to be wary of?
Dr Jem's talk will cover bioplastics from a holistic perspective, with a focus on: types of bioplastics, pro's and con's of PLA, how is PLA 'industrially' recycled or composted, innovations in the bioplastics world, other plant-based packaging alternatives, etc.
Dr. Jem received his Ph.D. and 2 Masters degrees in biochemical engineering, and numerous awards in the USA, and worked 15 years in engineering, biotech, and pharmaceutical companies such as Ratheon, Serono, Diversa, with excellent track record with multiple awards. In 2000, he moved back to China to work for biotech and bioplastic companies such as Cargill and NatureWorks PLA. He has served as the China General Manager for Total Corbion PLA JV and previously for Corbion Purac since 2007, and serves as a Visiting Professor for several local Universities.
Metabolix - PHA Modifiers as Polymeric Plasticizers and Process AidsMetabolix, Inc.
This document discusses using polyhydroxyalkanoates (PHAs) as polymeric plasticizers and process aids for PVC. PHAs were found to have similar properties to conventional ethylene copolymer resin modifiers for PVC, including lower migration rates than primary plasticizers like DINP. PHAs are also inherently miscible in PVC, making them easier to process than synthetic modifiers. Additionally, PHAs are fully bio-based and food contact approved, allowing for higher bio-content and a broader range of applications compared to conventional plasticizers.
This document provides information on a training course titled "Biodiesel Fuel Quality & BQ-9000" presented by the National Biodiesel Board. The objectives of the course are to instruct attendees on diesel and biodiesel fuel properties, how these properties affect fuel quality and filtration, and details on the BQ-9000 biodiesel quality program. Key topics that will be covered include ASTM biodiesel specifications, critical fuel quality parameters and their importance, biodiesel's enhanced lubricity, and its performance in low temperature operation.
The document discusses IH2 technology, which uses catalytic hydroprocessing to convert biomass into hydrocarbon fuels. The process has two stages - a bubbling fluidized bed reactor and a fixed bed hydrothermal reactor - using proprietary catalysts. It can process a variety of feedstocks flexibly into fungible hydrocarbon fuels. The process is estimated to have low capital and operating costs compared to other biomass to liquid technologies. A national lab validated the cost estimates for a commercial scale plant. The technology has been demonstrated at bench and pilot scale and is progressing toward pre-commercial scale.
Enerzea provides turnkey biomethanation power plant solutions that generate renewable energy from organic waste sources through anaerobic digestion. The process captures methane produced from feedstocks like agricultural waste, animal waste, and municipal solid waste. This methane is then used to generate electricity onsite. Key benefits include reducing greenhouse gas emissions and producing fertilizer as a byproduct. Enerzea's systems are continuously stirred tank reactors that efficiently mix waste for high-rate digestion at optimal temperatures. Their full-service approach includes site assessment, plant construction and commissioning, and operations and maintenance support.
This document summarizes research on blending cyclic olefin copolymers (COC) with polyethylene to improve heat sealing characteristics. COC was found to improve seal strength, increase the sealing temperature window, and enhance hot tack strength when blended with LDPE, LLDPE, and plastomers. The highest improvements were seen with LLDPE and plastomers. COC is more compatible with LLDPE and plastomers than LDPE. Blending high Tg COC at levels above 20% provided seal-through capability to polyethylenes. In conclusion, COC/polyethylene blends can enhance modulus and heat sealing performance for packaging films.
Sustainability in an Urban Environment Through Anaerobic Digestion - Biocycleeisenmannusa
The document discusses a proposal to implement an anaerobic digestion system at an urban vertical farming facility in Chicago. The system would use organic waste as an input to produce biogas via anaerobic digestion. The biogas would be used to generate electricity and heat for the facility, making it a net zero energy operation. It would also produce digestate as a fertilizer and reduce waste sent to landfills. The proposal outlines the concept, technology, and milestones to construct a 5,000 ton per year anaerobic digestion plant at the facility.
Sustainability in an Urban Environment Through Anaerobic Digestioneisenmannusa
This document discusses implementing an anaerobic digestion system at Plant Chicago, a nonprofit urban vertical farming operation located in a vacant meatpacking facility in Chicago. The proposed system would divert over 10,000 tons of organic waste per year from landfills, producing biogas to generate electricity and heat for the building. A 5,000 ton per year Phase I plant is proposed, utilizing various organic waste streams to produce 200 kW of electricity and other digestate products. The system will help Plant Chicago become a net zero energy operation while reducing greenhouse gas emissions and reliance on fossil fuel-based fertilizers.
This document discusses green chemistry and its principles. It provides examples of companies that have implemented green chemistry approaches to reduce waste and hazardous chemicals in their products and manufacturing processes. These include substituting safer chemicals and renewable feedstocks, improving atom economy in reactions, and redesigning synthesis routes.
This document presents the results of a life cycle assessment of ethanol fuel produced from willow biomass. The study evaluated the fuel's impact on global warming potential, fossil energy use, water use, and other environmental impacts. It found that willow ethanol production is near carbon neutral due to avoided emissions from coal and oil displacement. However, water usage for the bioconversion process was substantial. The impacts on acidification were greater for ethanol than gasoline, while impacts on toxicity were greater for gasoline production. The study used models to analyze impacts across the full fuel lifecycle, from biomass growth and processing to fuel distribution and combustion.
BioIsoprene-BioChemicals and BioFuels Applications - Gregory Bohlmann - Genen...Burton Lee
This document discusses Genencor's BioIsopreneTM platform for producing branched chain hydrocarbons from biomass for use in biofuels and biochemical applications. Genencor has developed a process using recombinant DNA and gas phase fermentation to produce the C5 hydrocarbon isoprene from biomass. Isoprene and its derivatives C10 and C15 can be used as drop-in fuels with energy content comparable to gasoline and diesel and an 80% reduction in greenhouse gas emissions over petroleum-based fuels. The BioIsopreneTM platform enables a biorefinery approach to producing both fuels and biochemicals from renewable feedstocks.
This document provides an overview of a training course on biodiesel engine and fleet performance presented by the National Biodiesel Board. The objectives are to provide expert answers on biodiesel use, introduce diesel technician training resources, and discuss fleet experiences with biodiesel. Key topics covered include biodiesel properties, engine manufacturer positions on biodiesel blends, and technical guidance from a biodiesel evaluation team on ensuring proper fuel quality and maintenance practices when adopting biodiesel.
The document discusses using cyclic olefin copolymers (COCs) to enhance polyolefin films for retort applications. It describes test films made with COCs and other polymers like PP, LLDPE, and HDPE. The films were evaluated after retort processing to understand how COCs respond under retort conditions and identify the most promising structures. The results showed that COCs can increase moisture and oxygen barrier, add heat resistance, enhance stiffness, and improve the performance of polyolefin components in retort applications.
The classic way to increase rate in LLDPE blown films is to add 10-25% LDPE. It works, but it compromises toughness. Now there is a new option. Blend less than 5% of TOPAS COC to achieve high rates and bubble stability, with very little impact on properties.
This document discusses thermal processing of lignocellulosic biomass for fuel and chemicals. It notes that lignocellulosic biomass resources in the Republic of Tatarstan amount to 35,000 thousand cubic meters annually, with forestry residues making up the largest portion. Current biomass processing technologies include pelletizing, briquetting, biochemical and thermochemical methods. The document focuses on fast pyrolysis technology, which converts biomass into liquid biooil, solid char, and gas at moderate temperatures and short residence times. A pilot plant with a 50 kg/h capacity has been constructed and tested to produce biooil via fast pyrolysis. The biooil has properties suitable for use as fuel or as feedstock
High-Performance UV-Curable PUDs With High Renewable Carbon ContentSartomer
This presentation addresses the use of UV-curable polyurethane dispersions for sustainable coatings. Features, properties, effects and project conclusions are discussed. For more information, please visit www.sartomer.com or follow Sartomer on Twitter @SartomerGlobal. Thanks for viewing!
The document summarizes Dr. Jim Lunt's presentation on the evolving bioplastics landscape for fibers and films. It defines biobased and biodegradable plastics, outlines the major classifications of bioplastics including biobased polymers and biodegradable polymers. It discusses the major bioplastics producers and their production capacities. It analyzes the markets for bioplastic films and fibers and highlights the challenges bioplastics currently face in competing with conventional plastics. Finally, it outlines new biobased monomers and polymers that may expand the use of bioplastics in the future.
The document discusses cyclic olefin copolymer (COC), a new family of thermoplastic materials produced by TOPAS. Some key points:
- TOPAS has a large-scale production facility capable of producing 30,000 tons/year of COC, making it the largest in the world.
- COC has properties like clarity, chemical resistance, and high moisture and gas barriers that make it suitable for food and medical packaging/devices.
- It is FDA approved for food contact and meets regulatory requirements for medical use.
- COC can be enhanced for customized barrier and mechanical properties and blended with polymers like polyethylene for film applications.
ECO-FRIENDLY AND SUSTAINABLE SOLUTIONS PROGRESSING CIRCULAR ECONOMYiQHub
Budenheim offers sustainable solutions for the life science and materials science markets, including circular economy solutions. They have expertise in polymer processing and formulation. Their products include masterbatches, flame retardants, and additives that provide benefits such as lightweighting, energy efficiency, and improved performance while reducing CO2 emissions. Their foaming agents can reduce part weight by over 10% through cellular structure formation. They also offer color masterbatches that maximize recyclate usage and enable detection and sorting of colored plastics for recycling.
plastic waste management 226 a perspectivearvind kumar
Plastics are polymers which solidify at normal temperature and pressure and are nonsoluble
in water. They are light weight plastics 1/6 of steel, 1 /2of Al.
Using Degradable Plastics In Indonesia NewHenky Wibawa
This document discusses the use of degradable plastics in Indonesia. It provides background on plastics, noting their benefits but also that they do not readily degrade and accumulate in the environment. It then discusses the global push for more sustainable packaging and laws requiring producer responsibility. Various degradable plastic options are presented, like bioplastics from corn starch (PLA) and additives that make conventional plastics oxo-biodegradable. Standards and certifications for testing degradable plastics are also covered. The document advocates for the use of biodegradable plastics in Indonesia to reduce environmental impacts of plastic waste.
Biopolymers for Paperboard Extrusion Coating and Converting - SPE FlexPackCon...C. Carey Yang, Ph.D.
Biopolymers have shown promising options for sustainable packaging applications. This article presents an overview of challenges and opportunities in biopolymers for paperboard extrusion coating and converting processes. Material properties, extrusion coating process and equipment requirements, regulatory compliance, and downstream converting are reviewed. The latest developments and emerging trends in biopolymer technology and innovation are discussed.
plastic waste management 226 a perspectiveArvind Kumar
This document summarizes information about plastic waste management and e-waste management. It discusses the types and sources of plastic waste, issues with plastic waste in India like child labor in collection and import of waste without proper technology. It also discusses e-waste including sources and composition of e-waste, partnerships for e-waste management, and the growing e-waste problem in India.
New Eco-Sustainable Polyamide-Based Polymers and Compounds for Multipurpose A...RadiciGroup
This document discusses new eco-sustainable polyamide-based polymers and compounds for multipurpose applications. It begins with an overview of sustainability at RadiciGroup and their bio-based polyamides. Properties of bio-polyamides like PA 6.10, PA 10.10 and PA 11 are compared. Case studies show engineering plastic compounds and films made from these polymers have good mechanical properties, thermal stability, and barrier properties. Examples of applications for the compounds include pneumatic pipes, truck air brake lines, and fuel connectors.
The document discusses the future prospects for bioplastics. It notes that while demand for bioplastics is projected to increase significantly in the coming years, current bioplastics mainly serve disposable applications and do not meet the needs for durable applications due to issues with hydrolytic stability, heat resistance, and other properties. However, blends of PLA and PHBV show promise for improving heat resistance over pure materials. The development of new renewable building blocks from companies may help enable new bioplastics that can serve durable markets by crossing the "bioplastics frontier" to high biobased content durable materials. The future of bioplastics will depend on moving beyond single-use applications to durable goods and advancements in
Commercialization of IH2Technology for Conversion of Biomass to Fungible Rene...CRICatalyst
The document provides an overview of CRI Catalyst Company's IH2 technology for converting biomass to renewable hydrocarbons. The IH2 process uses a two-stage system with proprietary catalysts to produce fungible liquid fuels from various biomass feedstocks in a flexible and economical manner. Pilot testing of the technology demonstrates high liquid yields from biomass with fuel products that meet gasoline and diesel specifications. The process also generates renewable hydrogen and achieves significant greenhouse gas reductions compared to fossil fuels.
The Keppel Seghers DANO DRUM is a key element in waste pre-treatment. It is a horizontally mounted, rotating steel cylinder that shreds, mixes, conditions, and sorts waste into components for recycling, composting, or energy recovery. It allows maximum materials recovery while producing a fuel and pre-treating organic waste. A case study highlights how Rapid City, SD extended its landfill life by over 25 years using a DANO DRUM to process municipal solid waste and biosolids.
This document discusses the improved properties and cost efficiencies of cyclic olefin copolymer (COC) enhanced forming films. It finds that adding COC to forming film structures improves thermoformability and several key properties. Films with 15% or more COC showed significantly less gauge variation during forming, almost no shrinkage or "snapback" of formed cavities, and increased crush resistance compared to films without COC. The addition of COC allows for downgauging of films while maintaining performance, enabling cost savings through reduced material usage. Overall, incorporating COC delivers robust forming performance, dimensional stability, and potential cost reductions for thermoformed packaging applications.
BioEnzyme Technologies has developed a unique enzyme-bacteria based chain-end biodegradation technology to produce biodegradable plastic products. Their formulation uses organic ingredients from natural resources and plants to make the process non-hazardous. Products produced with this technology, including garbage bags, fully biodegrade within 180 days according to EN 13432 standards. This overcomes limitations of plant-based bioplastics which are expensive, show poor performance, and require industrial composting facilities to biodegrade. BioEnzyme has successfully marketed their BIOPLAST branded bags with a major retailer in Turkey through a pilot program.
Cellulosic Hydrocarbon Fuels from IH2 TechnologyCRICatalyst
The document discusses IH2 technology, which uses catalysts, hydrogen and heat to convert biomass like wood, crop residues, and algae into high purity hydrocarbon fuels. The IH2 process is more efficient than natural processes, taking only minutes to convert biomass versus millions of years. It can integrate with existing refineries and produce gasoline and diesel that meet fuel standards. The process is nearly carbon neutral, flexible to different feedstocks, has attractive economics, and recovers over 70% of the bioenergy in the biomass. It has evolved through generations of catalyst improvements to optimize fuel production.
A global revolution is in full swing, and the Sustainable Brands Conference is where sustainability, brand and innovation leaders gather to learn, share and strategize to shape the future. SB'12 was the largest gathering to date, a kinetic convergence of innovators from more than 150 companies from around the world finding new ways to create monumental disruption in traditional models of commerce and consumption.
FABHIND is an ISO certified company established in 1991 that manufactures asphalt plants, road construction equipment, waste tyre pyrolysis plants, and concrete plants. It has three manufacturing units and focuses on customer satisfaction through quality products at competitive prices. FABHIND uses the latest technology and safety norms to produce high quality pyrolysis oil, carbon black, and hydrocarbon gas from waste plastic through its pyrolysis process. The pyrolysis plants efficiently convert plastic into fuel and other usable products while reducing plastic pollution and landfill waste.
Bionic presentation describing exemplary the interaction between african biomass production and bionic's microfuel technology. Auguist 2012, English Version
Machine Converting Waste Plastics into OilPrasanna Datar
Machine Converting Waste Plastics into Oil
This document discusses a machine that converts waste plastics into oil through a process called homogenization. The machine uses thermal decomposition at temperatures between 350-450°C to break down various types of waste plastics like PP, PE, PS, and Styrofoam into recycled oil. The recycled oil can be used as fuel for boilers, ships, machinery, and more. Testing shows the recycled oil meets regulatory standards while producing much less CO2 emissions than incineration. The machine offers economic and environmental benefits by reducing waste and CO2 while producing a usable fuel from post-consumer plastics.
2. Cereplast Overview
Cereplast, Inc. (CERE: “from cereal”; PLAST: “from plastic”) is a
leading specialty manufacturer of proprietary bio-resins
Our philosophy meets Sustainability with its three (3) core components
– Environmental
– Economic
– Social
Cereplast has developed two distinct families of bio-resins
– Cereplast Compostables™
– Cereplast Hybrid Resins™
3. Bio-Plastic vs. Conventional Plastic
Cereplast Compostable 90% + Density Runs on Heat deflection
Resin Bio‐based greater than equipment at temperature of
Certified Biodegradable & Content 1.25 lower 120‐130F
Compostable temperatures
Cereplast 50% Density of Runs on Heat deflection
Hybrid Resin Bio‐based 1.04 equipment at temperature of
Renewable & Sustainable Content lower 175‐ 200F
temperatures
Conventional 0% Density Runs on Heat deflection
Petroleum Bio‐based between 0.9‐ equipment at temperature
Plastic Content 0.99 higher processing above 200F
NOT temperatures
‐Biodegradable
‐Compostable
‐Renewable
‐Sustainable
4. CEREPLAST COMPOSTABLES™
for single use disposables
CEREPLAST HYBRID RESINS™
for durable applications
6. Cereplast Compostables™
Overview
Replaces nearly 100% of the petroleum-based products used in
traditional plastics.
Starch-based, made from corn, wheat, tapioca and potato starches
that primarily come from the Midwest.
Certified as biodegradable and compostable in the United States
and Europe, meeting BPI (Biodegradable Products Institute)
standards for compostability (ASTM 6400 D99 and ASTM 6868),
and European Bioplastics standards (EN 13432).
8. Extrusion-Thermoforming Grades
CP-TH-01C: standard grade created for extrusion-thermoforming
CP-TH-15000C greater impact strength and the addition of TiO2 for
whiter product
CP-TH-6000C: improved HDT of the final product to 155F.
Processing Guidelines are available for the resins
9. Injection Molding Grades
CP-INJ-01C: standard grade created for injection molding
CP-INJ-1001EZC higher flow properties
CP-INJ-13C: greater flexibility ,recommended for low temperature
applications
Processing Guidelines are available for the resins
10. CEREPLAST COMPOSTABLES™
CHARACTERISTICS
Superior Performance Characteristics Environmental Characteristics
Top quality performance, including rigidity Biodegradable & Compostable
Higher thermo-resistance than PLA – ASTM 6400- BPI compliant
Greater strength than PLA Bio-based Content
Not brittle – ASTM 6866-04a - +90% (Radio-Carbon
process)
GMO Analysis
– GENESCAN -PCRQ: NEGATIVE
FDA Compliant
– KELLER & HECKMAN Compliance
Opinion
EN 13432 European Standard
– European-Bioplastics organization
11. Managing The Carbon Cycle
“Cradle to Cradle”
METHANE
CO2
2
Sanitary
Landfill
COMPOSTING
COMPOSTING
90 to 180 Days 10 Million
10 Million
Years
Years
Drilling Exploitation
Manufacturing Oil or Gas
12. CEREPLAST COMPOSTABLES™
LIFE CYCLE ASSESSMENT
BEES ANALYSIS
– USDA & CONGRESS
FINDINGS
– Resin & Raw material transportation
– Fossil fuels used in production: depletion of natural
resources
– Global warming Potential: 3.15C02E
14. CEREPLAST HYBRID RESINSTM
• High bio-based content
• Proprietary compounds incorporating traditional
petroleum based resins with Cereplast
proprietary basket of starches
• Targeted towards durable good applications,
where end users want a sustainable product
option
15. What are Cereplast Hybrid ResinsTM?
Bio-based plastic resins containing up to 50%
starch from natural, renewable, and sustainable
resources, such as:
– Corn
– Tapioca
– Wheat
– Potato
16. Lesser Dependence on Petroleum
Plastic is made of fossil fuels
Resin Prices vs Crude
70%
60%
YOY % Change
50%
40%
30%
20%
10%
0%
-10% 2001 2002 2003 2004 2005 2006 2007
-20%
-30%
Year
PP LDPE HDPE Crude
17. Biodegradability of
Cereplast Hybrid ResinsTM
Renewable and Sustainable alternative to conventional plastic
Cereplast Hybrid ResinsTM meet the requirements for toxicity
set by ASTM D 6400-04 specifications
We do not claim biodegradable and compostable as the final
result will not be only biomass, water and CO2 per ASTM D
6400-04
The product will breakdown containing PP phase
19. What is BiopropyleneTM?
BiopropyleneTM is a patented/proprietary
Cereplast Hybrid ResinsTM
Contains polypropylene, starch, a compatibilizer
for starch and PP, and a blend of selective
plasticizers to facilitate starch processing
Made via reactive twin-screw extrusion process
Two-phase morphology: PP is the continuous
phase with a dispersed starch phase.
20. BiopropyleneTM Physical Properties
vs. Polypropylene
PP Copo
Physical Property ASTM Units Hybrid Resins Homo PP 40% talc
Tensile Strength
@yield D 638 psi 2,600 4,600 4,200
Flexural Modulus D 790 psi 244,000 170,000 420,500
Notched Izod Impact
(RT) D 256 lb-ft/in 0.5-0.7 0.6 2
HDT @ 66 psi D 648 ⁰C 134 95 125
MFI @2.16 Kg D 1238 g/10 min 10 @ 190C 35 @ 230C 22@230C
Density Calculated g/cc 1.1 0.9 1.25
21. BiopropyleneTM vs. Polypropylene
Performance & Processing Comparison
BiopropyleneTM has superior Heat Deflection, lower flexural Modulus
and lower density than a PP 40% Talc
BiopropyleneTM has lower processing temperature
Better Printability than Polypropylene
Great aesthetic (“satin touch”)
22. Advantages of BiopropyleneTM
Up to 50% bio-based content derived from natural,
renewable, and sustainable resources
Decrease dependence on fossil fuels, namely petroleum
Suitable for more durable goods
BiopropyleneTM cost less volatile compared to PP
23. Carbon Foot Print
Hybrid ResinsTM vs. Petroleum-based Resins
Hybrid Resins™ have a better environmental footprint
– Up to 42% reduction in intrinsic carbon footprint than PP-Study
with Prof.Ramani Narayan Michigan University
– Lower CO2 emissions for Bio-PP vs PP (1.82kg CO2 vs 3.14kg)
– The feedstock is made from up to 50% natural, sustainable and
renewable resources
– Lower processing temperatures for Bio-PP than PP
– When discarded in landfills, the starch component (up to 50%)
will eventually degrade into methane, CO2, water, and biomass
*Life Cycle Analysis information is currently being compiled
24. Potential Applications for Biopropylene™
Automotive
Consumer Goods
Consumer Electronics
Medical
Durable cases (cell phone- computers)
Furniture
Cosmetic Packaging
Construction
Toys
28. .
Scheer works with
Commercial launch of FINE LIVING TV As the world takes an
ASTM committee to
Cereplast NETWORK features increasingly green focus,
establish compostable
CompostablesTM Cereplast wins the Cereplast and Frederic Cereplast plans to stay on
guidelines in US
SPE GPEC Award for Scheer in a one-hour Cereplast expands the cutting-edge of bio-
most Innovative special highlighting the bioplastic applications based plastic material
Cereplast showcases Material of the year company’s contribution with freeze-tolerant development to meet a
biodegradable Cereplast to green technology compostable resin variety of customer needs
foodservice ware at CompostablesTM
Cereplast CEO
Salt Lake City resins receive seal Genpak, a Cereplast Cereplast is the
Frederic Scheer Cereplast
Olympics of approval from BPI customer, introduces foremost developer and
markets concept of expands bio-
“The Harvest Cereplast private producer of proprietary
compostable plastic plastic production
Scheer Collection” - the first placement raises bio-based, renewable
introduces Cereplast line of fully $15 million in new with a new, half- resins used as
first becomes a biodegradable and equity capital from billion pound substitutes for
compostable publicly-held compostable institutional capacity Indiana petroleum-based
cups company foodservice ware investors facility plastics
1996 1998 1999 2001 2002 2003 2005 2006 2007 2008 TODAY TOMORROW
Cereplast Cereplast wins Increasing legislation
U.S. federal government expands prestigious Autoplast and green initiatives
Cereplast files first
Scheer creates the designates products internationally by Speicon Award for in the US, Europe
patent on
Biodegradable made from bio-based establishing a outstanding and Asia is speeding
compostable resin
Plastics Institute plastics as a preferred sales office in achievements in the up demand for
formulation
purchasing item Hong Kong development of new renewable bio-
plastics for automotive plastics
applications
Scheer creates
Cereplast to focus on Cereplast adds 45 million Cereplast earns
Cereplast and CEO
developing bio-based pounds of production ISO9001:2000
Frederic Sheer are
resins capacity with completion of certification for world-
featured in a short film on
new resin manufacturing Cereplast launches class management
bio-plastics at the
facility in Hawthorne, CA the first product from system
Sundance Film Festival
its Hybrid ResinTM
family
28
30. SUMMARY
Bio-plastics are at the early stage of long-term
sustained growth cycle
Cereplast is a worldwide leader in this sector
The industry is poised for explosive growth
Cereplast is able to support demand from
consumers in an economically profitable fashion