Year: 2025
Type: article
Abstract: Computational prediction of protein structure from amino acid sequence alone has been achieved with unprecedented accuracy, yet the prediction of protein-protein interactions remains a challenge. Here, we assess the ability of protein language models (PLMs), routinely applied to protein folding, to be retrained for protein-protein interaction prediction. Existing models that exploit PLMs use a pre-trained PLM feature set, ignoring that the proteins are physically interacting. We propose PLM-interact, which goes beyond single proteins by jointly encoding protein pairs to learn their relationships, analogous to the next-sentence prediction task from natural language processing. This approach achieves state-of-the-art performance in a widely adopted cross-species protein-protein interaction prediction benchmark: trained on human data and tested on mouse, fly, worm, E. coli and yeast. In addition, we develop a fine-tuning method for PLM-interact to detect mutation effects on interactions. Finally, we report that the model outperforms existing approaches in predicting virus-host interaction at the protein level. Our work demonstrates that large language models can be extended to learn the intricate relationships among biomolecules from their sequences alone.
Source: Nature Communications
Language: English
Subfield: Molecular Biology
Domain: Life Sciences
Open Access status: gold
Estimated APC paid: $6,990
Funders: UK Research and Innovation, Cancer Research UK, Prostate Cancer UK, European Commission, Directorate for Biological Sciences, Medical Research Council, Biotechnology and Biological Sciences Research Council, Science and Technology Facilities Council, HORIZON EUROPE Marie Sklodowska-Curie Actions
Awards: Finding out how prostate cancer hijacks the lymph nodes to spread around the body, Integrative viral genomics and bioinformatics platform, G2250849917, G3257895459, Preparedness Platform, Understanding (harmful) virus-host interactions by linking virology and bioinformatics, DTP Bid Led by University of Edinburgh, G434337789, G6808950318, G6976145177, MOLECULAR BARRIERS TO THE EMERGENCE OF CORONAVIRUSES IN HUMANS, Investigating Host and Viral Factors for Improved Design of Future Live Attenuated Vaccines for IBV, G7815170002, G8295485578, G8364694874, Pancreatic cancer AI for genomics and personalized Medicine
OpenAlex ID: W4415648205
