| Literature DB >> 31981600 |
Birgit Wiltschi1, Tomislav Cernava2, Alexander Dennig3, Meritxell Galindo Casas4, Martina Geier4, Steffen Gruber5, Marianne Haberbauer4, Petra Heidinger5, Enrique Herrero Acero6, Regina Kratzer7, Christiane Luley-Goedl3, Christina A Müller8, Julia Pitzer4, Doris Ribitsch9, Michael Sauer10, Katharina Schmölzer3, Wolfgang Schnitzhofer9, Christoph W Sensen11, Jung Soh11, Kerstin Steiner4, Christoph K Winkler12, Margit Winkler13, Tamara Wriessnegger4.
Abstract
Competitive sustainable production in industry demands new and better biocatalysts, optimized bioprocesses and cost-effective product recovery. Our review sheds light on the progress made for the individual steps towards these goals, starting with the discovery of new enzymes and their corresponding genes. The enzymes are subsequently engineered to improve their performance, combined in reaction cascades to expand the reaction scope and integrated in whole cells to provide an optimal environment for the bioconversion. Strain engineering using synthetic biology methods tunes the host for production, reaction design optimizes the reaction conditions and downstream processing ensures the efficient recovery of commercially viable products. Selected examples illustrate how modified enzymes can revolutionize future-oriented applications ranging from the bioproduction of bulk-, specialty- and fine chemicals, active pharmaceutical ingredients and carbohydrates, over the conversion of the greenhouse-gas CO2 into valuable products and biocontrol in agriculture, to recycling of synthetic polymers and recovery of precious metals.Entities:
Keywords: Biocatalysis; Combinatorial DNA assembly; Downstream processing; Enzyme cascade; Enzyme discovery; Enzyme engineering; Gene model; Host strain design; Process design; Whole-cell biotransformation
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Year: 2020 PMID: 31981600 DOI: 10.1016/j.biotechadv.2020.107520
Source DB: PubMed Journal: Biotechnol Adv ISSN: 0734-9750 Impact factor: 14.227