Genetically encoded biosensors for the circular plastics bioeconomy

Current plastic production and consumption routes are unsustainable due to impact upon climate change and pollution, and therefore reform across the entire value chain is required. Biotechnology offers solutions for production from renewable feedstocks, and to aid end of life recycling/upcycling of plastics. Biology sequence/design space is complex requiring high-throughput analytical methods to facilitate the iterative optimisation, design-build, test-learn (DBTL), cycle of Synthetic Biology. Furthermore, genetic regulatory tools can enable harmonisation between biotechnological demands and the physiological constraints of the selected production host. Genetically encoded biosensors offer a solution for both requirements to facilitate the circular plastic bioeconomy. In this review we present a summary of biosensors developed to date reported to be responsive to plastic precursors/monomers. In addition, we provide a summary of the demonstrated and prospective applications of these biosensors for the construction and deconstruction of plastics. Collectively, this review provides a valuable resource of biosensor tools and enabled applications to support the development of the circular plastics bioeconomy.

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Publication Details

Journal
Metabolic Engineering Communications
Published
2024-11-28
DOI
https://doi.org/10.1016/j.mec.2024.e00255
Citations
4
Primary Topic
Microplastics and Plastic Pollution
Type
article
Field-Weighted Citation Impact
0.53

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article

Genetically encoded biosensors for the circular plastics bioeconomy

Micaela Chacón, Neil Dixon
4 citations
Metabolic Engineering Communications
Microplastics and Plastic Pollution
0.53
article

Genetically encoded biosensors for the circular plastics bioeconomy

Micaela Chacón, Neil Dixon
article en
4 citations

Abstract

Current plastic production and consumption routes are unsustainable due to impact upon climate change and pollution, and therefore reform across the entire value chain is required. Biotechnology offers solutions for production from renewable feedstocks, and to aid end of life recycling/upcycling of plastics. Biology sequence/design space is complex requiring high-throughput analytical methods to facilitate the iterative optimisation, design-build, test-learn (DBTL), cycle of Synthetic Biology. Furthermore, genetic regulatory tools can enable harmonisation between biotechnological demands and the physiological constraints of the selected production host. Genetically encoded biosensors offer a solution for both requirements to facilitate the circular plastic bioeconomy. In this review we present a summary of biosensors developed to date reported to be responsive to plastic precursors/monomers. In addition, we provide a summary of the demonstrated and prospective applications of these biosensors for the construction and deconstruction of plastics. Collectively, this review provides a valuable resource of biosensor tools and enabled applications to support the development of the circular plastics bioeconomy.

Metabolic Engineering CommunicationsVol. 19
University of Manchester (GB)
Directorate for Biological Sciences, Biotechnology and Biological Sciences Research Council
Decent work and economic growth
Openalex Percentile: Top 41%
Microplastics and Plastic Pollution
0.53
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