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Level International
Plastic types PE PP PS PVC
Funding source European Union FP7-KBBE
Project cost 3.925.096,90 EUR
Period September 2012 - August 2015
Geographical area Global Europe
Categories Coastal and Marine Environment Degradation Climate Change Environment and Climate Change Integrated Sustainability Assessments
Tags degradation waste marine enzymes microbes biodegradable water sustainability pollution
Project partners
  • Internationales Hochschulinstitut Zittau - Germany,
  • Fachhochschule Nordwestschweiz (FHNW) - Switzerland,
  • Polytechneio Kritis (Technical University of Crete) - Greece,
  • Helmholtz-Centre for Environmental Research (UFZ) - Germany,
  • Madep SA - Switzerland,
  • Technische Universitaet Dresden - Germany,
  • Ostravska Univerzita - Czechia,
  • Centre National de la Recherche Scientifique CNRS - France,
  • Centrum Materialow Polimerowych Iweglowych Polska Akademia Nauk*cmpiw Pan - Poland,
  • Normec OWS - Belgium,
  • Felsilab SRL - Italy,
  • Biobasic Environnement Sarl - France,
  • Techniki Prostasias Perivallontos Anonymi Etaireia - Greece,
  • Nanjing University - China,
  • Diadimotiki Epicheirisi Diacheirisis Stereon Apovliton Anonymi Etaireia Ota - Greece,
  • Maritim Miljo Beredskap AS - Norway,
  • Plasticseurope AISBL - Belgium,
  • Sima-Tec GmbH - Germany,
  • Havforskningsinstituttet - Norway
Description

In BIOCLEAN project, novel and robust microorganisms (aerobic and anaerobic bacteria, and fungi) able to extensively degrade polyethylene (PE), polypropylene (PP), polystyrol (PS) and polyvinyl chloride (PVC) polymers and plastics will be isolated from actual-site aged plastic wastes obtained from several European marine and terrestrial sites, composting facilities and landfills, and obtained via tailored screenings from existing European collections of microbes. Robust enzymes able to fragment the target plastics with the production of valuable chemicals and building blocks will be obtained from the selected microbes and enzyme collections. Untreated and physically/chemically pre-treated PE, PS, PP and PVC polymers and plastics will be employed in such isolation/ screening activities, and an integrated methodology, relying on advanced analytical methods (determining plastics physicochemical changes and breakdown products resulting from biological attack), and tailored enzymatic, microbiological and ecotoxicological methods, will be adopted for the characterization of actual industrial relevance of the obtained microbes and enzymes. Physical and chemical pretreatments improving biodegradability of target plastics will be identified and transferred on the pilot scale. The most promising microbial cultures and enzymes will be exploited in the development of pilot scale, slurry or solid-phase bioprocesses for the bioremediation and controlled depolymerization, respectively, of target pretreated plastics and in the set up of tailored bioaugmentation protocols for enhancing plastic waste biodegradation in marine water systems, composting and anaerobic digestor facilities. The processes developed will be assessed for their economical and environmental sustainability. Field scale validation of the most promising bioaugmentation protocols in a composting and a marine site and attempts to develop a plastic pollution reduction strategy for the Aegean Sea have been planned too

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Knowledge Gaps

Degradation

Environmental fate and behavior of plastic

Environmental effects and ecotoxicity

Human and environmental effects and toxicity test methods

Characterization test methods

Publications

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