Please use this identifier to cite or link to this item: http://dx.doi.org/10.25673/115985
Title: Functionally diverse peroxygenases by AlphaFold2, design, and signal peptide shuffling
Author(s): Sturzenegger-Münch, JudithLook up in the Integrated Authority File of the German National Library
Dietz, Niklas
Barber-Zucker, Shiran
Seifert, FranziskaLook up in the Integrated Authority File of the German National Library
Matschi, SusanneLook up in the Integrated Authority File of the German National Library
Püllmann, PascalLook up in the Integrated Authority File of the German National Library
Fleishman, Sarel J.
Weissenborn, Martin J.
Issue Date: 2024
Type: Article
Language: English
Abstract: Unspecific peroxygenases (UPOs) are fungal enzymes that attract significant attention for their ability to perform versatile oxyfunctionalization reactions using H2O2. Unlike other oxygenases, UPOs do not require additional reductive equivalents or electron transfer chains that complicate basic and applied research. Nevertheless, UPOs generally exhibit low to no heterologous production levels and only four UPO structures have been determined to date by crystallography limiting their usefulness and obstructing research. To overcome this bottleneck, we implemented a workflow that applies PROSS stability design to AlphaFold2 model structures of 10 unique and diverse UPOs followed by a signal peptide shuffling to enable heterologous production. Nine UPOs were functionally produced in Pichia pastoris, including the recalcitrant CciUPO and three UPOs derived from oomycetes─the first nonfungal UPOs to be experimentally characterized. We conclude that the high accuracy and reliability of new modeling and design workflows dramatically expand the pool of enzymes for basic and applied research.
URI: https://opendata.uni-halle.de//handle/1981185920/117940
http://dx.doi.org/10.25673/115985
Open Access: Open access publication
License: (CC BY 4.0) Creative Commons Attribution 4.0(CC BY 4.0) Creative Commons Attribution 4.0
Journal Title: ACS catalysis
Publisher: ACS
Publisher Place: Washington, DC
Volume: 14
Issue: 7
Original Publication: 10.1021/acscatal.4c00883
Page Start: 4738
Page End: 4748
Appears in Collections:Open Access Publikationen der MLU