| Literature DB >> 35862514 |
Jue Wang1,2, Sidney Lisanza1,2,3, David Juergens1,2,4, Doug Tischer1,2, Joseph L Watson1,2, Karla M Castro5, Robert Ragotte1,2, Amijai Saragovi1,2, Lukas F Milles1,2, Minkyung Baek1,2, Ivan Anishchenko1,2, Wei Yang1,2, Derrick R Hicks1,2, Marc Expòsit1,2,4, Thomas Schlichthaerle1,2, Jung-Ho Chun1,2,3, Justas Dauparas1,2, Nathaniel Bennett1,2,4, Basile I M Wicky1,2, Andrew Muenks1,2, Frank DiMaio1,2, Bruno Correia5, Sergey Ovchinnikov6,7, David Baker1,2,8.
Abstract
The binding and catalytic functions of proteins are generally mediated by a small number of functional residues held in place by the overall protein structure. Here, we describe deep learning approaches for scaffolding such functional sites without needing to prespecify the fold or secondary structure of the scaffold. The first approach, "constrained hallucination," optimizes sequences such that their predicted structures contain the desired functional site. The second approach, "inpainting," starts from the functional site and fills in additional sequence and structure to create a viable protein scaffold in a single forward pass through a specifically trained RoseTTAFold network. We use these two methods to design candidate immunogens, receptor traps, metalloproteins, enzymes, and protein-binding proteins and validate the designs using a combination of in silico and experimental tests.Entities:
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Year: 2022 PMID: 35862514 DOI: 10.1126/science.abn2100
Source DB: PubMed Journal: Science ISSN: 0036-8075 Impact factor: 63.714