A structural biology community assessment of AlphaFold2 applications

Mehmet Akdel(Wageningen University & Research), Douglas E. V. Pires(The University of Melbourne), Eduard Porta‐Pardo(Barcelona Supercomputing Center), Jürgen Jänes(European Bioinformatics Institute), Arthur O. Zalevsky(Institute of Bioorganic Chemistry), Bálint Mészáros(European Molecular Biology Laboratory), Patrick Bryant(Science for Life Laboratory), Lydia L. Good(University of Copenhagen), Roman A. Laskowski(European Bioinformatics Institute), Gabriele Pozzati(Science for Life Laboratory), Aditi Shenoy(Science for Life Laboratory), Wensi Zhu(Science for Life Laboratory), Petras J. Kundrotas(Science for Life Laboratory), Victoria Ruiz‐Serra(Barcelona Supercomputing Center), Carlos H. M. Rodrigues(The University of Melbourne), Alistair S. Dunham(European Bioinformatics Institute), David F. Burke(European Bioinformatics Institute), Neera Borkakoti(European Bioinformatics Institute), Sameer Velankar(European Bioinformatics Institute), Adam Frost(University of California, San Francisco), J. Basquin(Max Planck Institute of Biochemistry), Kresten Lindorff‐Larsen(University of Copenhagen), Alex Bateman(European Bioinformatics Institute), Andrey V. Kajava(Centre National de la Recherche Scientifique), Alfonso Valencia(Barcelona Supercomputing Center), Sergey Ovchinnikov(Harvard University), Janani Durairaj(University of Basel), David B. Ascher(The University of Queensland), Janet M. Thornton(European Bioinformatics Institute), Norman E. Davey(Institute of Cancer Research), Amelie Stein(University of Copenhagen), Arne Elofsson(Science for Life Laboratory), Tristan I. Croll(University of Cambridge), Pedro Beltrão(European Bioinformatics Institute)
Nature Structural & Molecular Biology
November 1, 2022
Cited by 707Open Access
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Abstract

Most proteins fold into 3D structures that determine how they function and orchestrate the biological processes of the cell. Recent developments in computational methods for protein structure predictions have reached the accuracy of experimentally determined models. Although this has been independently verified, the implementation of these methods across structural-biology applications remains to be tested. Here, we evaluate the use of AlphaFold2 (AF2) predictions in the study of characteristic structural elements; the impact of missense variants; function and ligand binding site predictions; modeling of interactions; and modeling of experimental structural data. For 11 proteomes, an average of 25% additional residues can be confidently modeled when compared with homology modeling, identifying structural features rarely seen in the Protein Data Bank. AF2-based predictions of protein disorder and complexes surpass dedicated tools, and AF2 models can be used across diverse applications equally well compared with experimentally determined structures, when the confidence metrics are critically considered. In summary, we find that these advances are likely to have a transformative impact in structural biology and broader life-science research.


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