TY - JOUR AV - restricted SN - 2365-709X Y1 - 2024/05/03/ TI - Dual Sensing Signal Decoupling Based on Thermoelectric Polymer Aerogels for Precise Temperature and Pressure Recognition UR - https://doi.org/10.1002/admt.202400096 ID - discovery10192584 N2 - The capability to emulate skin-like temperature and pressure sensing is fundamental for next-generation artificial intelligence products. However, detecting temperature and pressure simultaneously with a single sensor without signal interference is challenging. Herein, a novel PCC aerogel sensor composed of PEDOT:PSS, CNTs, and CNF via directional freezing technology is developed. The PCC sensor can decouple temperature and pressure stimuli into individual voltage and resistance signals. It exhibits high-precision temperature sensing capabilities, boasting an exceptionally high Seebeck coefficient of 30.4 µV K-1 and the ability to detect temperature variations as low as 0.1 K. PCC sensors show excellent sensitivity and fast response times for detecting static and dynamic pressures, as well as high stability after 1000 cycles. Its maximum pressure sensitivity can reach 159.1% kPa?¹, and the lowest detection limit is 10 Pa. Additionally, its excellent thermoelectric properties also enable to generating thermopower from human skin for self-powered pressure sensing. A 3×3 PCC sensor array has been proposed to simulate the unique features of human skin in temperature and pressure recognition. This work provides a scalable manufacturing strategy for multi-functional tactile sensors. N1 - This version is the author-accepted manuscript. For information on re-use, please refer to the publisher?s terms and conditions. JF - Advanced Materials Technologies PB - Wiley A1 - Wang, Zubin A1 - Jiang, Saihua A1 - Huang, Yubin A1 - Song, Tao A1 - Liufu, Chaokang A1 - Huang, Yangchun A1 - Zhou, Gang A1 - Zhang, Qi A1 - Qian, Xiaodong A1 - Lan, Yang A1 - Attia, Nour F KW - aerogel KW - multi-functional sensors KW - temperature and pressure sensing KW - thermoelectric effect ER -