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Converting waste to a high value biodegradable plastic Dr Kevin O’ Connor School of Biomolecular and Biomedical Science
Sustainability   “ .. meet the needs of the present without compromising the ability of future generations to meet their own needs. ” Brundtland report 1987 Economic growth  Linked to waste production  (unsustainable) Plastic  Highly desired & highly problematic Biodegradable plastic Compostable and high value uses Integrating technologies  The key to success Sustainability and eco-innovation
A modern world enabled by plastics
A modern world full of plastic
More emphasis on recycling of plastics needed  ( Peter Sundt  Secretary General EPRO) Waste recycling EU 25
Source: PlasticsEurope 2007 Recovery rates for plastic in Europe Group of leading countries with recovery rates above 80%
Waste  opportunity Waste as a target –  Increasing cost of waste management –   Uncertainty about waste management in the future –  Limited technologies for high value conversion –  Low cost starting material Petrochemical plastic waste Scientific academic challenge Poor recycling rates PS – 2% recycling rate in US (highest worldwide) PET- 25% recycling – collection system in operation  PE – 10% recycling – Farm plastics – collection scheme
Petrochemical plastic   Multi-purpose (Non-biodegradable) Strategy for upcycling plastic waste Waste Landfill Upcycle Convert to value added product Recycle to petrochemical plastic low value product relative to virgin material Downcycling New  Markets
PS, PET & others Plastic upcycling to a biodegradable plastic PET to PHA – patented Mixed plastic - patented Other patents under development Chemistry Pyrolysis PHA (Polyhydroxyalkanoate) Microbiology Fermentation
Bioplastic Opportunity Biodegradable plastic  –  Premium product –  Rapidly growing markets –  Petrochemical US$ 300 billion market –  Bioplastics 25% share of market by 2020 Polyhydroxyalkanoate (PHA) –  Packaging, agriculture, textiles, medicine –  Biocompatible (biomedical implants/wound healing) –  Highly desired by industry –  One of 5 chemicals to change the world (Forbes)
EU lead market Initiative and Kok Report  The production of a single (bio)product from waste or renewable resources (Single (bio)refinery) is not sustainable (Life cycle analysis) Sole product mentality obsolete Biofuels – bioethanol, biodiesel Bioplastics – Polylactic acid, polyhydroxyalkanoate Biolubricants – plant oils Need for integration of emerging technologies e.g. Biofuels and bioplastics Technology integration: key to success
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Converting waste to a high value biodegradable plastic)

  • 1. Converting waste to a high value biodegradable plastic Dr Kevin O’ Connor School of Biomolecular and Biomedical Science
  • 2. Sustainability “ .. meet the needs of the present without compromising the ability of future generations to meet their own needs. ” Brundtland report 1987 Economic growth Linked to waste production (unsustainable) Plastic Highly desired & highly problematic Biodegradable plastic Compostable and high value uses Integrating technologies The key to success Sustainability and eco-innovation
  • 3. A modern world enabled by plastics
  • 4. A modern world full of plastic
  • 5. More emphasis on recycling of plastics needed ( Peter Sundt Secretary General EPRO) Waste recycling EU 25
  • 6. Source: PlasticsEurope 2007 Recovery rates for plastic in Europe Group of leading countries with recovery rates above 80%
  • 7. Waste opportunity Waste as a target – Increasing cost of waste management – Uncertainty about waste management in the future – Limited technologies for high value conversion – Low cost starting material Petrochemical plastic waste Scientific academic challenge Poor recycling rates PS – 2% recycling rate in US (highest worldwide) PET- 25% recycling – collection system in operation PE – 10% recycling – Farm plastics – collection scheme
  • 8. Petrochemical plastic Multi-purpose (Non-biodegradable) Strategy for upcycling plastic waste Waste Landfill Upcycle Convert to value added product Recycle to petrochemical plastic low value product relative to virgin material Downcycling New Markets
  • 9. PS, PET & others Plastic upcycling to a biodegradable plastic PET to PHA – patented Mixed plastic - patented Other patents under development Chemistry Pyrolysis PHA (Polyhydroxyalkanoate) Microbiology Fermentation
  • 10. Bioplastic Opportunity Biodegradable plastic – Premium product – Rapidly growing markets – Petrochemical US$ 300 billion market – Bioplastics 25% share of market by 2020 Polyhydroxyalkanoate (PHA) – Packaging, agriculture, textiles, medicine – Biocompatible (biomedical implants/wound healing) – Highly desired by industry – One of 5 chemicals to change the world (Forbes)
  • 11. EU lead market Initiative and Kok Report The production of a single (bio)product from waste or renewable resources (Single (bio)refinery) is not sustainable (Life cycle analysis) Sole product mentality obsolete Biofuels – bioethanol, biodiesel Bioplastics – Polylactic acid, polyhydroxyalkanoate Biolubricants – plant oils Need for integration of emerging technologies e.g. Biofuels and bioplastics Technology integration: key to success
  • 12.

Editor's Notes

  1. Brundtland commission report (1987)