Inverse design mechanical metamaterials with dual load-bearing and heat-transfer capabilities

Metamaterials can achieve extraordinary properties unattainable in natural materials through sophisticated artificial structural design. This study constructs novel tri-periodic minimal surface configurations based on fundamental structures. By employing surface boundary capture techniques to capture infinitely continuous and smooth surfaces, corresponding fusion functions are derived. New configurations are then established: one fused with rod elements and another featuring smooth fusion of multiple fundamental structures. By integrating the advantages of these configurations, novel metamaterials with both excellent load-bearing and heat transfer properties can be designed. Transition fusion functions are employed to derive implicit function construction methods for each new configuration. Through homogenisation analysis of all novel configurations, this study obtains their mechanical vector data. Combined with the implicit function expressions, this configuration and design methodology establishes a novel theoretical approach for reverse-engineering mechanical metamaterials according to specific requirements.

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Publication Details

Journal
PLoS ONE
Published
2026-04-06
DOI
https://doi.org/10.1371/journal.pone.0345912
Primary Topic
Cellular and Composite Structures
Type
article
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article

Inverse design mechanical metamaterials with dual load-bearing and heat-transfer capabilities

Yuhao Liu
PLoS ONE
Cellular and Composite Structures
article

Inverse design mechanical metamaterials with dual load-bearing and heat-transfer capabilities

Yuhao Liu
article en

Abstract

Metamaterials can achieve extraordinary properties unattainable in natural materials through sophisticated artificial structural design. This study constructs novel tri-periodic minimal surface configurations based on fundamental structures. By employing surface boundary capture techniques to capture infinitely continuous and smooth surfaces, corresponding fusion functions are derived. New configurations are then established: one fused with rod elements and another featuring smooth fusion of multiple fundamental structures. By integrating the advantages of these configurations, novel metamaterials with both excellent load-bearing and heat transfer properties can be designed. Transition fusion functions are employed to derive implicit function construction methods for each new configuration. Through homogenisation analysis of all novel configurations, this study obtains their mechanical vector data. Combined with the implicit function expressions, this configuration and design methodology establishes a novel theoretical approach for reverse-engineering mechanical metamaterials according to specific requirements.

PLoS ONEVol. 21(4)
Dalian University of Technology (CN)
Sustainable cities and communities
Openalex Percentile: Top 32%
Cellular and Composite Structures
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