Bio-Motifs: A Framework for the Design of Discrete Architected Materials and Structures Inspired by Nature

Description
Despite the enormous potential of leveraging the rich information embedded in biological form, and the rising interest in bio-inspired design, there is no generalized, accessible computational design tool that enables it. This work seeks to identify the reasons for this

Despite the enormous potential of leveraging the rich information embedded in biological form, and the rising interest in bio-inspired design, there is no generalized, accessible computational design tool that enables it. This work seeks to identify the reasons for this gap and proposes a framework to address it. This framework consists of three pillars: (i) knowledge graphs, (ii) mathematical models, and (iii) data and information. Large Language Models and Machine Learning are proposed for integrating the three pillars of the framework into a software platform that is modular, interoperable, accessible, and results in manufacturable designed objects. This framework is proposed within the context of nine types of distinct architected materials, introduced here for the first time as “Bio-Motifs”, with examples from ongoing work shown to elucidate the underlying concepts. This work also identifies the key challenges with the aim of stimulating future work in the research community to tackle the open questions the proposed framework raises.

Details

Contributors
Date Created
2026-02-01
Resource Type
Language
  • eng
Note
  • Preprint
    At head of title: Preprint
  • bibliography
    Includes bibliographical references.
Citation and reuse

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This is a suggested citation. Consult the appropriate style guide for specific citation guidelines.

D. Bhate, Y. Mistry, J. Yaple, Z. Okun, I. C. Martinez, N. Van Handel, A. Sarrasin, M. Nunez, A. Talange, K. Garg, R. Gokhale, J. Monroe, C. A. Penick, L. Ferry, H. Emady, A. Grishin, N. Chawla, S. Suryanarayan, V. Shyam, “Bio-Motifs: A Framework for the Design of Discrete Architected Materials and Structures Inspired by Nature,” submitted to the peer-reviewed proceedings of the 37th Annual International Solid Freeform Symposium, Austin, TX, August 2026

Additional Information
Extent
  • 1 PDF (16 pages)
Genre
Keywords
  • bio-inspired design
  • architected materials
  • design framework
  • computational design
  • additive manufacturing
Open Access
Place of Publication (Code)
  • Arizona
Place of Publication (Text)
  • Arizona