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Pakko De La Torre // Represented by ATRBUTE Worldwide

Artificial Intelligence Aids Discovery of Super Tight-Binding Antibodies

Artificial Intelligence Aids Discovery of Super Tight-Binding Antibodies

“With our machine learning tools, these subsequent rounds of sequence mutation and selection can be carried out quickly and efficiently on a computer rather than in the lab,” said senior author Wei Wang, PhD, professor of Cellular and Molecular Medicine at UC San Diego School of Medicine.

One particular advantage of their AI model is its ability to report the certainty of each prediction. “Unlike a lot of AI methods, our model can actually tell us how confident it is in each of its predictions, which helps us rank the antibodies and decide which ones to prioritize in drug development,” said Wang.

To validate the pipeline, project scientists and co-first authors of the study Jonathan Parkinson, PhD, and Ryan Hard, PhD, set out to design an antibody against programmed death ligand 1 (PD-L1), a protein highly expressed in cancer and the target of several commercially available anti-cancer drugs. Using this approach, they identified a novel antibody that bound to PD-L1 17 times better than atezolizumab (brand name Tecentriq), the wild-type antibody approved for clinical use by the U.S. Food and Drug Administration. 

The researchers are now using this approach to identify promising antibodies against other antigens, such as SARS-CoV-2. They are also developing additional AI models that analyze amino acid sequences for other antibody properties important for clinical trial success, such as stability, solubility and selectivity. 

“By combining these AI tools, scientists may be able to perform an increasing share of their antibody discovery efforts on a computer instead of at the bench, potentially leading to a faster and less failure-prone discovery process,” said Wang. “There are so many applications to this pipeline, and these findings are really just the beginning.” 

Funding for this research came, in part, from the National Institutes of Health (grants R01GM111941 and R21AI158114).

Disclosures: All three authors are co-authors on USPTO provisional patent applications 63432836 and 63431556, which cover the tight-binding antibody sequences described herein and the pipeline, filed with the assistance of the University of California San Diego.

This content was originally published here.