4.7 Article

Catalytically Active Inclusion Bodies?Benchmarking and Application in Flow Chemistry

Journal

ACS SYNTHETIC BIOLOGY
Volume 11, Issue 5, Pages 1881-1896

Publisher

AMER CHEMICAL SOC
DOI: 10.1021/acssynbio.2c00035

Keywords

inclusion bodies; enzyme immobilization; biocatalysis; protein engineering; flow chemistry

Funding

  1. CLIB Competence Centre Biotechnology (CKB)
  2. European Regional Development Fund ERDF [34.EFRE 0300096, 34.EFRE 0300097]

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In this study, different tags and fusion strategies for catalytically active inclusion bodies (CatIBs) were benchmarked. The results showed that the selection of tags and fusion strategies strongly influenced the yield, activity, and stability of CatIBs. Optimization led to the production of alcohol dehydrogenase CatIBs with superior activity and stability, which were successfully applied in a flow synthesis approach for the first time.
In industries, enzymes are often immobilized to obtain stable preparations that can be utilized in batch and flow processes. In contrast to traditional immobilization methods that rely on carrier binding, various immobilization strategies have been recently presented that enable the simultaneous production and in vivo immobilization of enzymes. Catalytically active inclusion bodies (CatIBs) are a promising example for such in vivo enzyme immobilizates. CatIB formation is commonly induced by fusion of aggregation-inducing tags, and numerous tags, ranging from small synthetic peptides to protein domains or whole proteins, have been successfully used. However, since these systems have been characterized by different groups employing different methods, a direct comparison remains difficult, which prompted us to benchmark different CatIB-formation-inducing tags and fusion strategies. Our study highlights that important CatIB properties like yield, activity, and stability are strongly influenced by tag selection and fusion strategy. Optimization enabled us to obtain alcohol dehydrogenase CatIBs with superior activity and stability, which were subsequently applied for the first time in a flow synthesis approach. Our study highlights the potential of CatIB-based immobilizates, while at the same time demonstrating the robust use of CatIBs in flow chemistry

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