Xinwei Li

Assistant Professor

Newcastle University

Singapore

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About

Dr. Xinwei Li is an Assistant Professor at Newcastle University in Singapore. His research focuses on the design and optimization of acousto-mechanical metamaterials and lattice structures, as evidenced by his recent publications on sound absorption and mechanical properties. He employs machine learning techniques to accelerate the development of customizable energy-absorbing materials and investigates the interplay between acoustical and mechanical properties in innovative material designs.

Articles (20)

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2025

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2022

Collaborators (2)

Wei Zhai

SINGAPORE

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Kian-Meng Lim

Associate Professor

National University of Singapore (NUS)

SINGAPORE

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Xinwei Li

Research Interests

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About

Articles (20)

Emerging acousto-mechanical metamaterials: From physics-guided design to coupling-driven performance

All‐in‐One: An Interwoven Dual‐Phase Strategy for Acousto‐Mechanical Multifunctionality in Microlattice Metamaterials

Elucidating Structure-Property relationships for optimization of plate lattice sound absorbers

Interplay Between Acoustical and Mechanical Properties in Lattice Structures: A Geometrical Perspective

Machine learning accelerated design of lattice metamaterials for customizable energy absorption

Recipe for Simultaneously Achieving Customizable Sound Absorption and Mechanical Properties in Lattice Structures

Unveiling the structure-property relationships of multilayered Helmholtz resonance-based acoustic metamaterials

LattSAC: a software for the acoustic modelling of lattice sound absorbers

Machine learning – enabled inverse design of shell-based lattice metamaterials with optimal sound and energy absorption

Robust and sensitive conductive nanocomposite hydrogel with bridge cross-linking–dominated hierarchical structural design

Customizable plateau in face-centered cubic hierarchical lattices achieved by self-similar embedded design

Truss and plate hybrid lattice structures: Simulation and experimental investigations of isotropy, large-strain deformation, and mechanisms

TPMS-based interpenetrating lattice structures: Design, mechanical properties and multiscale optimization

Geometry effect on mechanical properties and elastic isotropy optimization of bamboo-inspired lattice structures

Design, mechanical properties and optimization of lattice structures with hollow prismatic struts

Multi‐Level Bioinspired Microlattice with Broadband Sound‐Absorption Capabilities and Deformation‐Tolerant Compressive Response

Harnessing cavity dissipation for enhanced sound absorption in Helmholtz resonance metamaterials

A novel class of bioinspired composite via ultrasound-assisted directed self-assembly digital light 3D printing

Less Is More: Hollow‐Truss Microlattice Metamaterials with Dual Sound Dissipation Mechanisms and Enhanced Broadband Sound Absorption

Customisable sound absorption properties of functionally graded metallic foams

Collaborators (2)

Wei Zhai

Kian-Meng Lim

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