材料科学
石墨烯
纳米技术
光热治疗
可穿戴计算机
电子设备和系统的热管理
灵活性(工程)
佩多:嘘
焦耳加热
电磁屏蔽
电磁干扰
可穿戴技术
光电子学
焦耳(编程语言)
织物
热的
纳米材料
电压
过程(计算)
纳米颗粒
数码产品
复合数
异质结
纳米复合材料
加热元件
导电的
作者
Qin-hua Zhou,Jing He,Xinmeng Hu,Zhengying Tu,Junwen Xie,Qingbin Zheng,Lin Lin,Yinhang Zhang,Qin-hua Zhou,Jing He,Xinmeng Hu,Zhengying Tu,Junwen Xie,Qingbin Zheng,Lin Lin,Yinhang Zhang
摘要
ABSTRACT Wearable heaters with multifunctional capabilities and high performance are in high demand for future personal thermal management. However, the development of such devices remains challenging due to limitations in flexibility, complex fabrication, inadequate Joule heating efficiency, insufficient electromagnetic interference (EMI) shielding, and poor antibacterial performance. Here, Ag@PEDOT heterostructures were decorated on laser‐induced graphene (LIG) through a simple spray‐coating process followed by a facile chemical synthetic method to deposit silver nanoparticles (AgNPs) onto the PEDOT layers. The resulting composite retains the intrinsic flexibility and comfort of the original graphene matrices, while demonstrating exceptional Joule heating characteristics—achieving a broad temperature range (30°C–100°C) at low operating voltages (0.8–2.6 V) and a rapid photothermal response (reaching 89.6°C within 180 s at 1.5 sun irradiation). Moreover, the material exhibits superior electromagnetic shielding effectiveness (33 dB in the X‐band) and outstanding antibacterial activity, with an inhibition rate exceeding 95% against Escherichia coli and Staphylococcus aureus . This study offers a promising strategy for designing multifunctional wearable heaters suited for personal healthcare and thermal management applications.
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