Dynamic Electric Discharge Paths in Liquid Metal Marble Arrays

Author:

Yu Ruohan1ORCID,Chi Yuan1,Zheng Jiewei1,Fuchs Richard1,Lv Peifeng1,Nor‐Azman Nur‐Adania2,Johnston Lucy1,Mao Yuanzhu1,Gao Shanshi3,Tang Junma1,Rahim Md. Arifur24,Peng Shuhua3,Kaner Richard5,Mao Guangzhao1,Kalantar‐Zadeh Kourosh2ORCID,Tang Jianbo16ORCID

Affiliation:

1. School of Chemical Engineering University of New South Wales (UNSW) Kensington NSW 2052 Australia

2. School of Chemical and Biomolecular Engineering University of Sydney Darlington NSW 2008 Australia

3. School of Mechanical and Manufacturing Engineering University of New South Wales (UNSW) Kensington NSW 2052 Australia

4. Department of Chemical and Biological Engineering Monash University Clayton, VIC 3800 Australia

5. Department of Chemistry and Biochemistry Department of Materials Science and Engineering, and California NanoSystems Institute University of California Los Angeles California 90095‐1569 USA

6. School of Engineering and Research Center for Industries of the Future Westlake University Hangzhou 310030 China

Abstract

AbstractElectric discharge occurs ubiquitously in both natural and engineered systems, where the discharge paths provide critical information. However, control and visualization of discharge patterns is a challenging task. Here arrays of liquid metal marbles, droplets of a gallium‐indium eutectic alloy with a copper‐doped ZnS luminescent coating, are designed for pixelated visualization of electric discharge paths at optical imaging length‐scales. The ZnS particles embed themselves into the surface of liquid metal droplets and are anchored by a self‐limiting gallium oxide layer. The operation is achieved by generating spark discharges at inter‐marble air gaps and reduced voltage drop across highly conducting liquid metal droplets. By taking advantage of the malleability of soft liquid metal marbles, the dynamic visualization platforms allow the manipulation of discharge path selections in configurable marble arrays and the embedding of artificial defect features. The systems are further integrated for characterizing dynamic changes in granular and soft systems, and for enabling logic computing and information encoded display. This demonstration holds promises for creating new‐generation electric discharge‐based optoelectronics.

Funder

Australian Research Council

Publisher

Wiley

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