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Minisymposium Presentation

Large Language Models and Agentic Systems for Bio-Inspired Materials Design

Tuesday, June 4, 2024
11:30
-
12:00
CEST
Climate, Weather and Earth Sciences
Climate, Weather and Earth Sciences
Climate, Weather and Earth Sciences
Chemistry and Materials
Chemistry and Materials
Chemistry and Materials
Computer Science and Applied Mathematics
Computer Science and Applied Mathematics
Computer Science and Applied Mathematics
Humanities and Social Sciences
Humanities and Social Sciences
Humanities and Social Sciences
Engineering
Engineering
Engineering
Life Sciences
Life Sciences
Life Sciences
Physics
Physics
Physics

Presenter

Rachel
Luu
-
Massachusetts Institute of Technology

Rachel K. Luu is a Ph.D. Candidate in the Department of Materials Science and Engineering at Massachusetts Institute of Technology. Previously, she was at the University of California, San Diego where she completed her B.S. in Mechanical Engineering while conducting experimental mechanics research in impact-resistant biological materials. Her current research is centered the design of biological and bio-inspired materials using a mixture of experimental and computational techniques. On the computational front, she is interested in deep learning, particularly Generative AI tools.

Description

From seashells to mammal hooves to plant stems, biological materials have long captivated materials scientists and mechanical engineers due to their impressive hierarchical structure-property relationships. By understanding biological insights and motifs, the design of bio-inspired materials is empowered and poised to benefit a diverse range of applications, including sustainability. Modern generative AI frameworks, especially large language models (LLMs), show remarkable potential for science-focused applications, excelling notably in the study of biological materials through the utilization of rich legacy literature. We present BioinspiredLLM, an open-source conversational large language model that was finetuned on a corpus of biological materials literature. The model shows strong abilities in knowledge recall, creative hypothesis generation, and seamless integration into multi-agent systems. Multi-agent/agentic systems facilitate the interaction of multiple advanced AI systems, thereby expanding the scope of knowledge, enhancing data retrieval capabilities, and fostering critical thinking. This approach is demonstrated through multiple bio-inspired materials design scenarios.

Authors