Liquid metal-based spatial-variant stretchable electronics via single-step programmable transfer printing

Despite tremendous advances in liquid metal (LM) patterning, as-fabricated LM-based patterns remain monofunctional as interconnects or sensors due to the predetermined, invariant electrical and electromechanical properties. System-level integration of functional units toward all-LM multifunctional stretchable electronics has been hindered by incompatible fabrication protocols or mechanical mismatch between units. This work introduces multifunctional all-LM stretchable electronics with spatial-variant electrical and electromechanical properties via programmable single-step transfer printing. Partial or complete transfer of LMPs via judicious engineering interface adhesion and LMP sizes leads to the transition of LM from the electrically conductive to nonconductive domain, along with tunability of their electrical resistance and electromechanical response. Spatial-variant LM patterns via single-step transfer printing can effectively avoid interfacial mechanical mismatch. Combining with compatibility for large-scale manufacturing, surface mounting, and skin interfacing, this single-step programmable transfer printing may pave the way for standalone all-LM stretchable electronics for physiological and mental health monitoring.

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Publication Details

Journal
Science Advances
Published
2026-09-11
DOI
https://doi.org/10.1126/sciadv.aed4474
Primary Topic
Advanced Sensor and Energy Harvesting Materials
Type
article
Field-Weighted Citation Impact
0.00

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article

Liquid metal-based spatial-variant stretchable electronics via single-step programmable transfer printing

Chao Huang, Jun Zhong, Jian Yang, Ankan Dutta et al.
Science Advances
Advanced Sensor and Energy Harvesting Materials
article

Liquid metal-based spatial-variant stretchable electronics via single-step programmable transfer printing

Chao Huang, Jun Zhong, Jian Yang, Ankan Dutta, Huanyu Cheng, Chaoyun Song, Yi Zhang, Jia Zhu, Taisong Pan, Yuhua Cheng, Zhenlong Huang, Hongbo Yang, Min Gao, Taiqi Hu, Senhao Zhang, Peng Bi, Yuan Lin, Donghai Qiu, Yang Xiao, Guyi Li, Shuang Yin
article en

Abstract

Despite tremendous advances in liquid metal (LM) patterning, as-fabricated LM-based patterns remain monofunctional as interconnects or sensors due to the predetermined, invariant electrical and electromechanical properties. System-level integration of functional units toward all-LM multifunctional stretchable electronics has been hindered by incompatible fabrication protocols or mechanical mismatch between units. This work introduces multifunctional all-LM stretchable electronics with spatial-variant electrical and electromechanical properties via programmable single-step transfer printing. Partial or complete transfer of LMPs via judicious engineering interface adhesion and LMP sizes leads to the transition of LM from the electrically conductive to nonconductive domain, along with tunability of their electrical resistance and electromechanical response. Spatial-variant LM patterns via single-step transfer printing can effectively avoid interfacial mechanical mismatch. Combining with compatibility for large-scale manufacturing, surface mounting, and skin interfacing, this single-step programmable transfer printing may pave the way for standalone all-LM stretchable electronics for physiological and mental health monitoring.

Science AdvancesVol. 12(37)
Pennsylvania State University (US), University of Electronic Science and Technology of China (CN), King's College London (GB), Sichuan University (CN), Westlake University (CN), Suzhou Institute of Biomedical Engineering and Technology (CN), Quzhou University (CN)
National Science Foundation, Pennsylvania State University, National Natural Science Foundation of China, Sun Yat-sen University, National Institutes of Health
Openalex Percentile: Top 20%
Advanced Sensor and Energy Harvesting Materials
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