A Programmable Island‐Bridge Configuration for Constructing Ultra‐Stretchable Conductors

Abstract The rapid advancement in stretchable electronics necessitates stable and highly stretchable conductors. In this work, a novel approach using the Programmable Island‐Bridge Configuration (PIBC) is introduced to develop ultra‐stretchable conductors that feature tunable stretchability and conductivity. The PIBC utilizes liquid metal, known for its excellent conductivity and shape adaptability, as the island component, and 1D nanoconductors as the bridges. This combination constructs highly robust, ultra‐stretchable conductors through dynamic self‐assembly. Capable of accommodating various strain levels, these conductors maintain an ultrahigh conductivity of 1.15 × 10 6 S m −1 at a strain of over 2,200%. This achievement marks a significant milestone in the field of stretchable electronics, offering substantial contributions to the community.

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Publication Details

Journal
Advanced Functional Materials
Published
2025-04-04
DOI
https://doi.org/10.1002/adfm.202506492
Citations
3
Primary Topic
Advanced Sensor and Energy Harvesting Materials
Type
article
Field-Weighted Citation Impact
2.02

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article

A Programmable Island‐Bridge Configuration for Constructing Ultra‐Stretchable Conductors

Xiao Xiao, Hude Ma, Lidong Wu, Junyi Yin et al.
3 citations
Advanced Functional Materials
Advanced Sensor and Energy Harvesting Materials
2.02
article

A Programmable Island‐Bridge Configuration for Constructing Ultra‐Stretchable Conductors

Xiao Xiao, Hude Ma, Lidong Wu, Junyi Yin, Haiyang Qin, Farid Manshaii, Jun Chen, Peiyi Li, Jinxue Zhao
article en
3 citations

Abstract

Abstract The rapid advancement in stretchable electronics necessitates stable and highly stretchable conductors. In this work, a novel approach using the Programmable Island‐Bridge Configuration (PIBC) is introduced to develop ultra‐stretchable conductors that feature tunable stretchability and conductivity. The PIBC utilizes liquid metal, known for its excellent conductivity and shape adaptability, as the island component, and 1D nanoconductors as the bridges. This combination constructs highly robust, ultra‐stretchable conductors through dynamic self‐assembly. Capable of accommodating various strain levels, these conductors maintain an ultrahigh conductivity of 1.15 × 10 6 S m −1 at a strain of over 2,200%. This achievement marks a significant milestone in the field of stretchable electronics, offering substantial contributions to the community.

Advanced Functional MaterialsVol. 35(35)
University of California, Los Angeles (US)
National Natural Science Foundation of China
Openalex Percentile: Top 15%
Advanced Sensor and Energy Harvesting Materials
2.02
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A Programmable Island‐Bridge Configuration for Constructing Ultra‐Stretchable Conductors — Xiao Xiao, Hude Ma, et al. · Advanced Functional Materials (2025) | TGRS Research Map | TGRS