Self-Powered Temperature Electronic Skin Based on Island-Bridge Structure and Bi-Te Micro-Thermoelectric Generator for Distributed Mini-Region Sensing

被引:27
作者
Kang, Man [1 ]
Qu, Ruixiang [2 ]
Sun, Xiaowen [1 ]
Yan, Yuedong [3 ]
Ma, Zhijun [2 ]
Wang, He [3 ]
Yan, Kaifen [3 ]
Zhang, Weifeng [3 ]
Deng, Yuan [1 ,3 ]
机构
[1] Beihang Univ, Res Inst Frontier Sci, Beijing 100191, Peoples R China
[2] Zhejiang Lab, Res Ctr Humanoid Sensing, Hangzhou 311121, Peoples R China
[3] Beihang Univ, Key Lab Intelligent Sensing Mat & Chip Integrat Te, Hangzhou Innovat Inst, Hangzhou 310051, Peoples R China
基金
中国国家自然科学基金;
关键词
Bi-Te micro-thermoelectric generator; island-bridge structure; temperature sensing electronic skin; thermoelectric effect; SENSORS; NANOGENERATORS;
D O I
10.1002/adma.202309629
中图分类号
O6 [化学];
学科分类号
0703 ;
摘要
Thermoelectric (TE) effect based temperature sensor can accurately convert temperature signal into voltage without external power supply, which have great application prospects in self-powered temperature electronic skin (STES). But the fabrication of stretchable and distributed STES still remains a challenge. Here, a novel STES design strategy is proposed by combining flexible island-bridge structure with BiTe-based micro-thermoelectric generator (mu-TEG). Furthermore, a 4 x 4 vertical temperature sensor array with good stretchability and distributed sensing property has been fabricated for the first time. The interfacial chemical bonds located between the rigid islands (mu-TEG) and the flexible substrate (polydimethylsiloxane, PDMS) endow the STES with excellent stretchability, and its sensing performance remains unchanged under 30% strain (the maximum strain of human skin). Moreover, the STES sensing unit possesses high sensitivity (729 mu V K-1), rapid response time (0.157 s), and high spatial resolution (2.75 x 2.75 mm2). As a proof of concept, this work demonstrates the application of the STES in the detection of mini-region heat sources in various scenarios including noncontact spatial temperature responsing, intelligent robotic thermosensing, and wearable temperature sensing. Such an inspiring design strategy is expected to provide guidance for the design and fabrication of wearable self-powered temperature sensors. A self-powered temperature sensing electronic skin (STES) is designed based on island-bridge structure. Flexible interconnection of rigid sensing units (BiTe-based micro-thermoelectric generators (mu-TEGs)) can be realized by the combination of processing serpentine wires and forming chemical bonds between polydimethylsiloxane (PDMS) and quartz glass substrates. Due to the reliable structure and excellent performance, the STES shows great potential in mini-region temperature sensing field.image
引用
收藏
页数:10
相关论文
共 47 条
[1]   Skin-Like Transparent Sensor Sheet for Remote Healthcare Using Electroencephalography and Photoplethysmography [J].
Araki, Teppei ;
Yoshimoto, Shusuke ;
Uemura, Takafumi ;
Miyazaki, Aiko ;
Kurihira, Naoko ;
Kasai, Yuko ;
Harada, Yoshiko ;
Nezu, Toshikazu ;
Iida, Hirokazu ;
Sandbrook, Junko ;
Izumi, Shintaro ;
Sekitani, Tsuyoshi .
ADVANCED MATERIALS TECHNOLOGIES, 2022, 7 (11)
[2]   Recent Progress in Essential Functions of Soft Electronic Skin [J].
Chen, Jianwen ;
Zhu, Yutian ;
Chang, Xiaohua ;
Pan, Duo ;
Song, Gang ;
Guo, Zhanhu ;
Naik, Nithesh .
ADVANCED FUNCTIONAL MATERIALS, 2021, 31 (42)
[3]   Energy autonomous electronic skin with direct temperature-pressure perception [J].
Chen, Yunfeng ;
Lei, Hao ;
Gao, Zhenqiu ;
Liu, Jingya ;
Zhang, Fangjia ;
Wen, Zhen ;
Sun, Xuhui .
NANO ENERGY, 2022, 98
[4]   A Comprehensive Realization of Robot Skin: Sensors, Sensing, Control, and Applications [J].
Cheng, Gordon ;
Dean-Leon, Emmanuel ;
Bergner, Florian ;
Olvera, Julio Rogelio Guadarrama ;
Leboutet, Quentin ;
Mittendorfer, Philipp .
PROCEEDINGS OF THE IEEE, 2019, 107 (10) :2034-2051
[5]   Recent progress in strain-engineered elastic platforms for stretchable thin-film devices [J].
Cho, Hyeon ;
Lee, Byeongmoon ;
Jang, Dongju ;
Yoon, Jinsu ;
Chung, Seungjun ;
Hong, Yongtaek .
MATERIALS HORIZONS, 2022, 9 (08) :2053-2075
[6]  
Chortos A, 2016, NAT MATER, V15, P937, DOI 10.1038/NMAT4671
[7]   Shape adaptable and highly resilient 3D braided triboelectric nanogenerators as e-textiles for power and sensing [J].
Dong, Kai ;
Peng, Xiao ;
An, Jie ;
Wang, Aurelia Chi ;
Luo, Jianjun ;
Sun, Baozhong ;
Wang, Jie ;
Wang, Zhong Lin .
NATURE COMMUNICATIONS, 2020, 11 (01)
[8]   Versatile Core-Sheath Yarn for Sustainable Biomechanical Energy Harvesting and Real-Time Human-Interactive Sensing [J].
Dong, Kai ;
Deng, Jianan ;
Ding, Wenbo ;
Wang, Aurelia C. ;
Wang, Peihong ;
Cheng, Chaoyu ;
Wang, Yi-Cheng ;
Jin, Limin ;
Gu, Bohong ;
Sun, Baozhong ;
Wang, Zhong Lin .
ADVANCED ENERGY MATERIALS, 2018, 8 (23)
[9]   Ultrahigh Resolution Photodetector Arrays of Organic Single Microcrystals Self-Aligned on Prepatterned Electrodes [J].
Fang, Zhenyu ;
Wang, Hong ;
Liang, Junfeng ;
Wang, Zhifang ;
Wang, Wenchong ;
Huang, Feng .
ADVANCED MATERIALS TECHNOLOGIES, 2022, 7 (09)
[10]   Stretchable Thermoelectric-Based Self-Powered Dual-Parameter Sensors with Decoupled Temperature and Strain Sensing [J].
He, Xinyang ;
Hao, Yunna ;
He, Mantang ;
Qin, Xiaohong ;
Wang, Liming ;
Yu, Jianyong .
ACS APPLIED MATERIALS & INTERFACES, 2021, 13 (50) :60498-60507