lamm-mit/Bioinspired-Phi-3-mini-4k
Hugging Face
TEXT GENERATIONConcurrency Cost:1Model Size:4BQuant:BF16Ctx Length:4kPublished:Apr 27, 2024Architecture:Transformer Warm

BioinspiredLLM is a 4 billion parameter autoregressive transformer large language model developed by R. Luu and M.J. Buehler, fine-tuned with a 4096-token context length. It specializes in the mechanics of biological and bio-inspired materials, recalling information, assisting with research tasks, and generating hypotheses in this domain. The model is designed to accelerate discovery and guide insights in materials science by connecting knowledge domains.

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BioinspiredLLM: Specialized LLM for Bio-Inspired Materials

BioinspiredLLM is a 4 billion parameter autoregressive transformer large language model, developed by R. Luu and M.J. Buehler, with a 4096-token context length. It is specifically fine-tuned on a corpus of over a thousand peer-reviewed articles in structural biological and bio-inspired materials science. This specialization allows the model to function as a conversational AI with deep domain knowledge in biological materials, mechanics of materials, modeling, and simulation.

Key Capabilities

  • Information Recall: Accurately retrieves information from its specialized knowledge base.
  • Research Assistance: Aids in various research tasks within the field of biological and bio-inspired materials.
  • Enhanced Reasoning: Demonstrates strengthened reasoning abilities for complex materials science problems.
  • Hypothesis Generation: Capable of developing sound hypotheses, even for materials not explicitly studied.
  • RAG Integration: Utilizes Retrieval-Augmented Generation to incorporate new data, trace sources, and update its knowledge base.
  • Collaborative AI: Shows promise in collaborating with other generative AI models to reshape traditional materials design processes.

Good For

  • Researchers and engineers working on biological and bio-inspired materials.
  • Accelerating discovery and guiding insights in materials science.
  • Generating novel design hypotheses for new materials.
  • Connecting disparate knowledge domains within the field.