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New AI tool predicts protein-protein interaction mutations in hundreds of diseases
Scientists from Cleveland Clinic and Cornell University have designed a publicly-available software and web database to break down barriers to identifying key protein-protein interactions to treat with medication. The computational tool is called PIONEER (Protein-protein InteractiOn iNtErfacE
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New AI tool predicts protein-protein interaction mutations in hundreds of diseases
Scientists from Cleveland Clinic and Cornell University have designed a publicly-available software and web database to break down barriers to identifying key protein-protein interactions to treat with medication. The computational tool is called PIONEER (Protein-protein InteractiOn iNtErfacE
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PIONEER software breaks down barriers in protein-protein interaction research
Cleveland ClinicOct 24 2024 Scientists from Cleveland Clinic and Cornell University have designed a publicly-available software and web database to break down barriers to identifying key protein-protein interactions to treat with medication. The computational tool is called PIONEER
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Scientists from Cleveland Clinic and Cornell University have developed PIONEER, an AI-powered tool that predicts protein-protein interaction mutations across hundreds of diseases, potentially accelerating drug discovery and development.

Scientists from Cleveland Clinic and Cornell University have developed a groundbreaking artificial intelligence (AI) tool called PIONEER (Protein-protein InteractiOn iNtErfacE pRediction) that promises to revolutionize drug discovery and development. This publicly-available software and web database aims to break down barriers in identifying key protein-protein interactions for potential drug targets across hundreds of diseases
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.Dr. Feixiong Cheng, co-lead author and director of Cleveland Clinic's Genome Center, explains that while genomic research is crucial for drug discovery, it often falls short in practical application. The process of developing medications based on genomic data typically takes 10-15 years from the discovery of a disease-causing gene to entering clinical trials
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.The complexity lies in the intricate network of protein-protein interactions, known as the interactome. A single protein can interact with hundreds of others, and these interactions become even more complicated when disease-causing DNA mutations are introduced. This complexity leaves drug developers with tens of thousands of potential disease-causing interactions to investigate
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.To address this challenge, Dr. Cheng collaborated with Dr. Haiyuan Yu, director of the Cornell University Center for Innovative Proteomics, to create PIONEER. This AI tool integrates massive amounts of data from multiple sources, including:
The resulting database allows researchers to navigate the interactome for more than 10,500 diseases, ranging from alopecia to von Willebrand Disease
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.PIONEER offers researchers the ability to input disease-associated mutations and receive a ranked list of protein-protein interactions that contribute to the disease and can potentially be treated with drugs. The tool is designed to assist biomedical researchers specializing in various disease categories, including autoimmune, cancer, cardiovascular, metabolic, neurological, and pulmonary conditions
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.The team validated PIONEER's predictions through extensive laboratory testing, making almost 3,000 mutations on over 1,000 proteins and testing their impact on nearly 7,000 protein-protein interaction pairs. The model's protein-protein interaction mutations have shown promise in predicting:
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Preliminary research based on PIONEER's findings is already underway to develop and test treatments for lung and endometrial cancers. The researchers experimentally validated that protein-protein interaction mutations between the proteins NRF2 and KEAP1 can predict tumor growth in lung cancer, offering a novel target for targeted cancer therapeutic development
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.Dr. Cheng emphasizes that the resources needed to conduct interactome studies have posed a significant barrier to entry for most genetic researchers. PIONEER aims to overcome these barriers computationally, lessening the burden and granting more scientists the ability to advance new therapies
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.As this AI-powered tool becomes more widely adopted, it has the potential to significantly accelerate the drug discovery process, bringing new treatments to patients faster and more efficiently than ever before.
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