REPLAYproject
@REPLAYproject_
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REconnecting PLAstics life cycle to biogeochemical cycles by sustainable hydrolysis and Yeasts fermentation
Joined March 2023
Sei uno studente interessato a una delle sfide maggiori del nostro tempo: la gestione responsabile dei rifiuti plastici? Non perdere l'opportunità di partecipare al nostro webinar! 📅 29 maggio ⏰ 14.30-16.00 📍Piattaforma Zoom Per info e registrazioni👇 https://t.co/DqcG2ESAST
it.linkedin.com
Sei uno studente pronto a unirti alla #GreenRevolution e affrontare una delle sfide maggiori del nostro tempo: la gestione responsabile dei rifiuti plastici?? Non perdere l'opportunità di partecipare...
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Your active participation made the discussion on R&D approaches for sustainable polymers truly insightful and impactful. Special thanks to the collaborators, the @REPLAYproject_ @Proplaproject , and @aimplas for contributing to the success of this event.
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🟢 RESEARCH GRANT AVAILABLE! 🟢 Project partner @IndBiotechEU from @unimib is looking for master's graduates or post-doc fellows to work on the #REPLAY project! To apply or to learn more, visit https://t.co/KNeGbjy8S2 and submit your application before the respective deadlines.
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In particular, IndBiotech Lab is employing metabolic engineering approaches and synthetic biology tools to rewrite the metabolism of Saccharomyces cerevisiae, the well-known workhorse in the field of yeast fermentation.
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The activities of @unimib , with the #IndBiotech Lab focus on metabolizing terephthalic acid (TPA) and ethylene glycol (EG) deriving from PET hydrolysis from by yeasts fermentation.
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The REPLAY Project, started in June 2022, is currently over one year in operation, and all research groups are actively working to achieve the objectives previously set.
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in this way REPLAY project will generate a SIGNIFICANT SCIENTIFIC, and TECHNOLOGICAL ADVANCEMENT in PET upcycling, enabling engineered #microorganisms🦠 and #yeasts to convert PET degradation products into organic acids. [3/3]
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The main objective is to develop an innovative plastic waste-based process to avoid the down-cycling treatments of plastics and promote the upgrading♻️ of #PET waste through the implementation of the use of synthetic biology, (bio)chemical, and (bio)process engineering. [2/3]
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[2/3] The prospects of using green chemistry principles and #enzymatic biodiversity for the #sustainable degradation of traditionally non-biodegradable plastics is now coming real after the last advances with the use and formulation of nature-inspired (DESs)
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[1/3] The basic constituent plastic polymers are dominated by polyethylene (PE), polypropylene (PP), polystyrene (PS), and polyethylene terephthalate (PET), counting for more than 75% of global #plastics production🥤.
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Monomers derived from #PET depolymerization, a basic constituent polymer of plastics, can be upgraded by engineered #microorganisms 🦠 in useful chemicals such as carboxylic acids, addressing the logic of rethinking and pursuing the goal of “zero #waste”.
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2/2 waste produced in the world 🥤. The #REPLAY project aims to valorise the #PET degradation products, enzymatically or chemically generated, to create a novel value chain, and a hybrid refinery model that will introduce plastics into the #CircularEconomy🌍.
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Even though the plastic industry produces a broad range of plastic products, the basic constituent polymers are dominated by PE, PP, PS, and PET. The post-consumer #plastic waste is mixtures of these plastics that altogether amount to 200 Mt, constituting 70% of the total plastic
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What do the deepest point in the ocean and the highest mountain peak have in common? Plastic pollution. This can and must be changed! Ahead of #WorldEnvironmentDay, join @UNEP in calling for accelerated progress to #BeatPlasticPollution. https://t.co/r0iV2KlpqY
#REPLAYproject
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He was lucky enough to talk in one of the recorded sessions, in the biggest hall of the Conference Center. Here the link to watch him. https://t.co/kGhqIbOmdh
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