改善过氧化物氧化物中氧离子传导的策略及其实际应用

Wenhuai Li , Jaka Sunarso , Yan Yang , Yaoji Chen , Chunliang Ge , Wei Wang , Yu Guo , Ran Ran , Wei Zhou
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引用次数: 0

摘要

具有高氧离子传导性的包晶氧化物在五种对未来清洁能源和自动化制造具有重要意义的装置中发挥了重要作用,这五种装置是:固体氧化物燃料电池、固体氧化物电解池、透氧膜、气体传感器和氧气泵,所有这些装置都表现出不同的性能要求和挑战。尽管改善包晶晶格内的氧离子传输是提高这些设备中包晶元件效率的关键,但不同的标准、结构和/或物理化学特性往往成为复杂因素。据了解,包晶体的氧离子传输性能主要取决于晶体结构、A/B-位阳离子及其含量以及氧空位。本章将对这些因素进行概述,这些因素可根据不同设备的需要进行调整。然后简要讨论了每种设备的概念、现状和前景,以及提高设备性能的策略。本综述提供的总结和见解有望促进这些重要应用领域更具战略性的研发方向和活动。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Strategies for improving oxygen ionic conducting in perovskite oxides and their practical applications

Perovskite oxides with high oxygen ionic conductivity have played major roles in five important devices of significance for clean energy future and automated manufacturing, i.e., solid oxide fuel cell, solid oxide electrolysis cell, oxygen permeable membranes, gas sensors, and oxygen pumps, all of which exhibit different performance requirements and challenges. Although improving the oxygen ion transport within the perovskite lattice serves as the key to increasing the efficiencies of perovskites’ components in these devices, the different criteria, structures, and/or physicochemical properties often become the complicating factors. It is understood that the oxygen ion transport performance of perovskite is mainly determined by the crystal structure, the A/B-site cations and their content, and the oxygen vacancies. This perspective overviews these factors, which can be manipulated to adapt the needs for different devices. Brief discussions are then made on the concepts, status, and outlook of each device together with the strategies for improving the device performance. The summaries and insights provided in this review are anticipated to promote more strategic research and development directions and activities in these important applications.

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CiteScore
7.90
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