Scaling-up Engineering Biology for Enhanced Environmental Solutions

Research output: Contribution to journalArticlepeer-review

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  • Francis Hassard
    Cranfield University
  • Thomas P Curtis
    Newcastle University
  • Gabriela C Dotro
    Cranfield University
  • Peter Golyshin
    Bangor University
  • Tony Gutierrez
    Heriot-Watt University
  • Sonia Heaven
    University of Southampton
  • Louise Horsfall
    University of Edinburgh
  • Bruce Jefferson
    Cranfield University
  • Davey L Jones
    Bangor University
  • Natalio Krasnogor
    Newcastle University
  • Vinod Kumar
    Cranfield University
  • David J Lea-Smith
    University of East Anglia
  • Kristell Le Corre Pidou
    Cranfield University
  • Yongqiang Liu
    University of Southampton
  • Tao Lyu
    Cranfield University
  • Ronan R McCarthy
    Brunel University London
  • Boyd McKew
    University of Essex
  • Cindy Smith
    University of Glasgow
  • Alexander Yakunin
    Bangor University
  • Zhugen Yang
    Cranfield University
  • Yue Zhang
    University of Southampton
  • Frederic Coulon
    Cranfield University
Synthetic biology (SynBio) offers transformative solutions for addressing environmental challenges by engineering organisms capable of degrading pollutants, enhancing carbon sequestration, and valorizing waste (Figure 1). These innovations hold the potential to revolutionize bioremediation strategies, ecosystem restoration, and sustainable environmental management. (1) Advances in SynBio, including automation, precise manipulation of genetic material, (2) and design of semisynthetic organisms with enhanced capabilities, can improve the efficiency of microbes for eliminating pollutants such as hydrocarbons and plastics or extracting valuable resources from the environment. (3) Genome editing technologies, such as CRISPR-Cas9, allows the editing of genomes with unprecedented accuracy, facilitating the development of organisms with desired traits or functions. (4) Furthermore, SynBio encompasses the engineering of metabolic enzymes within organisms, leading to the design of microbial factories capable of degrading complex and persistent chemicals, and converting waste to valuable resources. (5) These advancements also facilitate the manipulation of bacterial social behaviors, offering the capacity for tunable control at the multicellular level and engineered biofilms. (5)

Keywords

  • Synthetic Biology/methods
Original languageEnglish
Pages (from-to)1586-1588
Number of pages3
JournalACS synthetic biology
Volume13
Issue number6
Early online date21 Jun 2024
DOIs
Publication statusE-pub ahead of print - 21 Jun 2024
Externally publishedYes
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