Author:
Harborne Steven P. D.,Strauss Jannik,Boakes Jessica C.,Wright Danielle L.,Henderson James G.,Boivineau Jacques,Jaakola Veli-Pekka,Goldman Adrian
Abstract
AbstractIdentifying stabilising variants of membrane protein targets is often required for structure determination. Our new computational pipeline, the Integral Membrane Protein Stability Selector (IMPROvER) provides a rational approach to variant selection by employing three independent approaches: deep-sequence, model-based and data-driven. In silico tests using known stability data, and in vitro tests using three membrane protein targets with 7, 11 and 16 transmembrane helices provided measures of success. In vitro, individual approaches alone all identified stabilising variants at a rate better than expected by random selection. Low numbers of overlapping predictions between approaches meant a greater success rate was achieved (fourfold better than random) when approaches were combined and selections restricted to the highest ranked sites. The mix of information IMPROvER uses can be extracted for any helical membrane protein. We have developed the first general-purpose tool for selecting stabilising variants of $$\upalpha$$
α
-helical membrane proteins, increasing efficiency and reducing workload. IMPROvER can be accessed at http://improver.ddns.net/IMPROvER/.
Funder
Biotechnology and Biological Sciences Research Council
Medical Research Council
H2020 European Institute of Innovation and Technology
Publisher
Springer Science and Business Media LLC
Cited by
8 articles.
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