Engineering an ATP Binding Pocket in the Kirbac3.1 Inward Rectifier Potassium Channel Scaffold using De Novo Design

De novo design seeks to engineer brand-new proteins rather than modify existing ones. This specific and innovative approach allows researchers to advance medicine and biotechnology through designed proteins with unique properties (folds, functions, amino-acid sequence) absent in naturally occurring proteins. One key assumption in design is that binding sites can be engineered into any site if the underlying interactions are well understood. We sought to engineer a binding pocket for adenosine triphosphate (ATP) within the fold of the Kirbac3.1 inward rectifier potassium channel using RFDiffusion. This fold offers a great challenge because it is a membrane-bound protein we look to re-engineer into a water-soluble protein. It also has well-defined binding pockets that require transformation. We discuss the challenges in transforming a protein and the further issues in transferring binding pockets.

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Publication Details

Journal
George Mason University
Published
2024-09-13
DOI
https://doi.org/10.13021/jssr2024.4205
Primary Topic
Ion channel regulation and function
Type
article
Field-Weighted Citation Impact
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article

Engineering an ATP Binding Pocket in the Kirbac3.1 Inward Rectifier Potassium Channel Scaffold using De Novo Design

George Mason University
Ion channel regulation and function
article

Engineering an ATP Binding Pocket in the Kirbac3.1 Inward Rectifier Potassium Channel Scaffold using De Novo Design

article en

Abstract

De novo design seeks to engineer brand-new proteins rather than modify existing ones. This specific and innovative approach allows researchers to advance medicine and biotechnology through designed proteins with unique properties (folds, functions, amino-acid sequence) absent in naturally occurring proteins. One key assumption in design is that binding sites can be engineered into any site if the underlying interactions are well understood. We sought to engineer a binding pocket for adenosine triphosphate (ATP) within the fold of the Kirbac3.1 inward rectifier potassium channel using RFDiffusion. This fold offers a great challenge because it is a membrane-bound protein we look to re-engineer into a water-soluble protein. It also has well-defined binding pockets that require transformation. We discuss the challenges in transforming a protein and the further issues in transferring binding pockets.

George Mason University
George Mason University (US)
Openalex Percentile: Top 49%
Ion channel regulation and function
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