Parametric Design and Experiment on Compression Performance of Hierarchical Origami Honeycomb Structures

This study focuses on the energy absorption characteristics of hierarchical origami honeycomb structures. By combining experimental and numerical simulation methods, it deeply explores their mechanical properties and energy absorption potential. This research emphasizes analyzing the influence of geometric parameters (including wall thickness, folding angle, multi-layer structure design, etc.) on bearing capacity, stiffness, and energy absorption efficiency and reveals the advantages of hierarchical design in regulating gradient stiffness. The results show that the energy absorption capacity and performance of the material can be significantly improved through the reasonable optimization of geometric parameters. This research provides important theoretical support for the design of high-efficiency energy-absorbing materials and innovative solutions for energy absorption problems in related engineering applications.

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Publication Details

Journal
Materials
Published
2025-10-24
DOI
https://doi.org/10.3390/ma18214866
Citations
1
Primary Topic
Advanced Materials and Mechanics
Type
article
Field-Weighted Citation Impact
0.71
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article

Parametric Design and Experiment on Compression Performance of Hierarchical Origami Honeycomb Structures

Yong Yang, Xiaohui Lu, Xiang Peng
1 citations
Materials
Advanced Materials and Mechanics
0.71
article

Parametric Design and Experiment on Compression Performance of Hierarchical Origami Honeycomb Structures

Yong Yang, Xiaohui Lu, Xiang Peng
article en
1 citations

Abstract

This study focuses on the energy absorption characteristics of hierarchical origami honeycomb structures. By combining experimental and numerical simulation methods, it deeply explores their mechanical properties and energy absorption potential. This research emphasizes analyzing the influence of geometric parameters (including wall thickness, folding angle, multi-layer structure design, etc.) on bearing capacity, stiffness, and energy absorption efficiency and reveals the advantages of hierarchical design in regulating gradient stiffness. The results show that the energy absorption capacity and performance of the material can be significantly improved through the reasonable optimization of geometric parameters. This research provides important theoretical support for the design of high-efficiency energy-absorbing materials and innovative solutions for energy absorption problems in related engineering applications.

MaterialsVol. 18(21)
Zhejiang University of Science and Technology (CN), Zhejiang University of Technology (CN)
Openalex Percentile: Top 26%
Advanced Materials and Mechanics
0.71
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