3G: Computational, Machine Learning, and Artificial Intelligence Approaches in Biomaterials

Date: Thursday, March 26, 2026
Time: 8:00 AM to 10:00 AM
Room: GH East AB

Description

Computational modeling and machine learning can enhance our ability to design and evaluate biomaterials for a variety of applications. Artificial intelligence has also been playing an increasingly important role in the development of biomaterials and in disease treatment. This session will explore computational approaches and machine learning/artificial intelligence tools for designing and classifying biomaterials for tissue engineering and other applications, evaluating complex data from in vitro and in vivo studies, and predicting biomaterial performance in different microenvironments. Examples of these may include fluid mechanics and bio-transport models of drug/protein delivery, models of protein-protein and protein-material interactions, statistical modeling for biomaterial optimization, machine learning for biomaterial design and analysis, and bioinformatics-based platforms for analyzing complex data, including RNA sequencing and other -omics approaches. Progress and challenges in applying artificial intelligence in developing biomaterials and in disease treatment will also be discussed.

Moderators:

Adam Gormley
Associate Professor | Biomedical Engineering
Rutgers

  • 8:00 AM. 145. AI-Powered Peptide Engineering: Design, Classify, and Validate Innovative Therapeutic Peptides.Bingyun Li, PhD1, Alexa Sowers, PhD2 1West Virginia University School of Medicine, 2West Virginia University

  • 8:30 AM. 147. From Aggregation to Architecture: Mapping Peptide Self-Assembly.Shimanto Roy, B.Sc, M.Eng1, Kyle Lampe, PhD1, Camille Bilodeau, PhD1 1University of Virginia

  • 9:00 AM. 149. Generative Adversarial Networks to Profile Structure-Function Correlation of Human iPSC-Derived Cardiomyocytes.Andrew Kowalzewski, MS1, Huaxiao Yang, PhD.2, Zhen Ma, Ph.D1 1Syracuse University, 2University of North Texas

  • 9:15 AM. 150. Data-Driven Design of Protein-like Polymer Nanoparticles.Elena Di Mare, ME1, Cesar Ramirez, PhD1, N. Sanjeeva Murthy1, Adam Gormley, Ph.D.2 1Rutgers University, 2Rutgers University, New Brunswick

  • 9:30 AM. 151. Inferring Local Mechanics of Native Cardiovascular Tissue in 3 Dimensions via Machine Learning from Co-Registered Polarization-Resolved Second Harmonic Generation and Atomic Force Microscopy

  • 9:45 AM. 152. A Deep Learning-Based Multi-Donor Voting Platform to Evaluate Large-Scale Drug-Induced Cardiotoxicity.Danny Vu, BS1, Andrew Kowalzewski, MS1, Zhen Ma, Ph.D1 1Syracuse University