Membrane Protein Design: From Reprogramming Functions to AI-Guided <i>De Novo</i> Design Approaches

Computational membrane protein design has rapidly evolved from early physics-based modeling into a mature discipline powered by high-throughput experimental screening and cutting-edge AI technologies. The convergence of these approaches is transforming our capacity to probe natural membrane protein systems and to engineer sophisticated cell-based functions. Membrane proteins, in particular, offer a uniquely fertile landscape for computational engineering, enabling the stabilization of challenging therapeutic targets, the rewiring of cellular behaviors, and the de novo construction of entirely synthetic transmembrane architectures. Recent advances now allow designers to reprogram cellular signaling through distinct downstream pathways in response to custom-defined ligands. Together, these developments are laying the foundation for generalizable biosensing platforms and the creation of de novo transmembrane proteins with precisely tailored functions.

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Publication Details

Journal
Chemical Reviews
Published
2026-06-17
DOI
https://doi.org/10.1021/acs.chemrev.5c01105
Primary Topic
RNA and protein synthesis mechanisms
Type
article
Field-Weighted Citation Impact
0.00

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article

Membrane Protein Design: From Reprogramming Functions to AI-Guided De Novo Design Approaches

Patrick Barth, Jefferson Roberts
Chemical Reviews
RNA and protein synthesis mechanisms
article

Membrane Protein Design: From Reprogramming Functions to AI-Guided De Novo Design Approaches

Patrick Barth, Jefferson Roberts
article en

Abstract

Computational membrane protein design has rapidly evolved from early physics-based modeling into a mature discipline powered by high-throughput experimental screening and cutting-edge AI technologies. The convergence of these approaches is transforming our capacity to probe natural membrane protein systems and to engineer sophisticated cell-based functions. Membrane proteins, in particular, offer a uniquely fertile landscape for computational engineering, enabling the stabilization of challenging therapeutic targets, the rewiring of cellular behaviors, and the de novo construction of entirely synthetic transmembrane architectures. Recent advances now allow designers to reprogram cellular signaling through distinct downstream pathways in response to custom-defined ligands. Together, these developments are laying the foundation for generalizable biosensing platforms and the creation of de novo transmembrane proteins with precisely tailored functions.

Chemical Reviews
King's College London (GB), Bioengineering Center (RU)
King’s College London, Ludwig Institute for Cancer Research, École Polytechnique Fédérale de Lausanne, Schweizerischer Nationalfonds zur Förderung der Wissenschaftlichen Forschung, Novartis Stiftung für Medizinisch-Biologische Forschung, Swiss Cancer Research Foundation
Openalex Percentile: Top 12%
RNA and protein synthesis mechanisms
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