水能激发大规模压电催化海水析氢

Dr. Wenyuan Liu, Dr. Shu Zhu, Dr. Maoxi Ran, Zhihao Fu, Mengke Zhang, Prof. Dr. Yayun Zhang, Prof. Dr. Hualin Wang, Prof. Dr. Mingyang Xing, Prof. Dr. Pengbo Fu
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引用次数: 0

摘要

压电效应为低品位机械能的收集和利用提供了一条有前途的途径。然而,缺乏配套的工业设备和在放大过程中保持催化性能的挑战阻碍了压电催化的工程化。本文首次报道了利用水的机械能激发压电,成功进行了大规模压电催化海水析氢的实验,将机械能转化为氢能的效率达到36.82%。在20 L海水中进行了放大试验,产氢率为0.73 L h−1,占地面积仅为0.7 m2。这一性能(1.04 L h−1 m−2)超过了2021年报道的通过面板反应器阵列大规模光催化纯水制氢(0.18 ~ 0.25 L h−1 m−2)。此外,由于使用了三元压电催化剂体系,充分利用了动力学和热力学的协同耦合效应,20 L体系的析氢活性与放大前的50 mL体系相比没有明显下降。这一尝试为追求大规模的压电催化和实际工程应用提供了一个原型。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Hydroenergy Inspiring Large-Scale Piezoelectric Catalysis for Seawater Hydrogen Evolution

The piezoelectric effect presents a promising avenue for harvesting and utilizing low-grade mechanical energy. However, challenges from lacking matched industrial equipment and maintaining catalytic performance during scaling up impede the engineering of piezo-catalysis. Here, utilizing mechanical energy of water to inspire piezoelectricity, a successful attempt at large-scale piezo-catalysis seawater H2 evolution was reported for the first time, exhibiting an efficiency of 36.82% for converting mechanical energy to hydrogen energy. A scaling-up test with 20 L of seawater was conducted, yielding an H2 production rate of 0.73 L h−1, which just occupied 0.7 m2. This performance (1.04 L h−1 m−2) exceeds the large-scale photocatalytic pure water H2 production by panel reactor array (0.18∼0.25 L h−1 m−2) reported in 2021. Additionally, the H2 evolution activity of the 20 L system showed no obvious decline compared with the 50 mL system before scaling-up, owing to the utilization of ternary piezo-catalysts system, which capitalized on the synergistic coupling effect of kinetics and thermodynamics. This attempt provides a prototype for pursuing large-scale piezo-catalysis and practical engineering application.

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来源期刊
Angewandte Chemie
Angewandte Chemie 化学科学, 有机化学, 有机合成
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