用于实时汗液监测的可穿戴电化学传感器,由锂-S 电池供电:高熵普鲁士蓝类似物驱动的快速离子-电子转换

Zhong-Hui Sun , Qiu-Ling Huang , Zhan-Chao Li , Wei Zheng , Yan Mao , Dong-Xue Han , Gang Huang
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引用次数: 0

摘要

便携式电化学传感器与高能量密度电池的结合,为能够实时和长期监测分子水平信号的智能电子设备奠定了基础。目前,高熵材料因其强大的多活性中心和晶格应变场,在先进的储能系统和电分析化学中发挥着至关重要的作用。在此,我们提出将高熵普鲁士蓝类似物(HE-PBA)作为一种双向催化剂,以降低硫氧化还原反应的活化能,缓解多硫化物穿梭,并抑制锂枝晶在锂-S 电池中的生长。此外,由于分层 HE-PBA 具有多个氧化还原活性位点、卓越的离子选择效应、高离子/电导率和疏水性,因此在可穿戴电位计电化学传感器中作为固体接触层具有出色的离子-电子转换能力。因此,一种先进的可穿戴电子设备将作为电源的 LSB 与配备离子选择电极的电位计电化学传感器单元集成在一起,实现了对户外运动时汗液代谢物中 K+ 浓度的实时监测。总之,这项工作展示了通过高熵策略设计多功能电极材料用于先进储能和电化学传感应用的巨大潜力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Wearable electrochemical sensor for real-time sweat monitoring powered by Li–S battery: Rapid ion-electron transduction driven by high-entropy Prussian blue analogues
The portable electrochemical sensors couple with high-energy density batteries lay the foundation for intelligent electronic devices capable of real-time and long-term monitoring of signals at the molecular level. Currently, high-entropy materials play a crucial role in advanced energy storage system and electroanalytical chemistry due to their powerful multi active centers and lattice strain fields. Herein, we propose high-entropy Prussian blue analogues (HE-PBA) as a bidirectional catalyst to reduce the activation energy of sulfur redox reaction, alleviate polysulfides shuttle, and inhibit lithium dendritic growth in Li–S battery. Furthermore, benefited from hierarchical HE-PBA with multiple redox active sites, superior ion-selective effect, high ionic/electrical conductivity and hydrophobicity, thus contributing to splendid ion-electron transducer capability as solid contact layer in wearable potentiometric electrochemical sensors. As a result, an advanced wearable electronic device integrates LSB as a power source with potentiometric electrochemical sensor unit equipped with ion selective electrode, enabling real-time monitoring of K+ concentration in sweat metabolite during outdoor exercise. In a word, this work demonstrates a tremendous potential of designing multifunctional electrode materials for advanced energy storage and electrochemical sensing applications through high entropy strategies.
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