4.8 Article

Thermal Transfer-Enabled Rapid Printing of Liquid Metal Circuits on Multiple Substrates

期刊

ACS APPLIED MATERIALS & INTERFACES
卷 14, 期 32, 页码 37028-37038

出版社

AMER CHEMICAL SOC
DOI: 10.1021/acsami.2c08743

关键词

liquid metal; selective adhesion; thermal transfer; multiple substrates; flexible electronics

资金

  1. Key Research and Development Program of Zhejiang Province [2021C05005, 2022C04004]
  2. National Natural Science Foundation of China [5212100]

向作者/读者索取更多资源

Low-cost, rapid patterning of liquid metal circuits is achieved through a universal printing technique using thermal transfer paper and a desktop laser printer. The technique allows for the transfer of circuit patterns to various substrates and maintains their functionality under extreme strain.
Low-cost, rapid patterning of liquid metal on various substrates is a key processing step for liquid metal-based soft electronics. Current patterning methods rely on expensive equipment and specific substrates, which severely limit their widespread applications. Based on surface adhesion adjustment of liquid metal through thermal transferring toner patterns, we present a universal printing technique of liquid metal circuits. Without using any expensive processing steps or equipment, the circuit patterns can be printed quickly on thermal transfer paper using a desktop laser printer, and a toner on the thermal transfer paper can be transferred to various smooth substrates and polymer-coated rough substrates. The technique has yielded liquid metal circuits with a minimum linewidth of 50 mu m fabricated on various smooth, rough, and threedimensional substrates with complex morphology. The liquid metal circuits can maintain their functions even under an extreme strain of 800%. Various circuits such as LED arrays, multiple sensors, a flexible display, a heating circuit, a radiofrequency identification circuit, and a 12-lead electrocardiogram circuit on various substrates have been demonstrated, indicating the great potential of such a technique to rapidly achieve large-area flexible circuits for wearable health monitoring, internet of things, and consumer electronics at low cost and high efficiency.

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