Conductive Hydrogel Motion Sensor with Low-Temperature Stability for Winter Sports and Sensing Rescue

导电体 材料科学 运动传感器 运动(物理) 理论(学习稳定性) 纳米技术 环境科学 航空航天工程 复合材料 计算机科学 工程类 人工智能 机器学习
作者
Li Wei,Ming Yang,Libing Yang,Yimeng Ni,Yu Chen,Weidong Xu,Lefei Li,Chan Zheng,Wanyang Lin
出处
期刊:Polymers [Multidisciplinary Digital Publishing Institute]
卷期号:17 (10): 1365-1365
标识
DOI:10.3390/polym17101365
摘要

Hydrogels with conductive properties hold significant promise in the realm of flexible electronics, owing to their pliability, outstanding conductivity, and diverse functionalities. Nevertheless, the majority of conductive hydrogels are prone to being brittle and easily damaged; as such, they are not adapt to cold environments, which seriously hinders their practical applications. Therefore, hydrogels that possess both conductivity and anti-freezing, as well as moisturizing, capabilities have garnered considerable interest, and these hydrogels can work stably in harsh environments. Phytic acid (PA), which mainly exists in plant seeds, is a kind of natural compound widely existing in nature that can be recycled; it provides electrical conductivity and anti-freezing to hydrogels. Here, a highly conductive hydrogel with excellent anti-freezing and moisturizing capabilities was prepared by incorporating PA into a polyacrylamide/gelatin hydrogel. The incorporation of PA endowed the hydrogel with an excellent conductivity of 5.8 S·cm-1. In addition, robust hydrogen bonding was formed between water and phytic acid molecules, and the hydrogel demonstrated remarkable anti-freezing and water retention. On this basis, hydrogels can be used for human winter sports sensing and low-temperature environmental alarm devices to provide faster rescue. This study provides a novel method for the development of hydrogels with low-temperature stability, and provides a revelation for the application of anti-freezing hydrogels in icy and snowy environments.
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