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低温电解槽中同时产氢与有机物氧化
Simultaneous hydrogen generation and organic oxidation in low-temperature electrolyzers
语言:
中文摘要
摘要 低温电解槽在各种电化学和工业过程中发挥着关键作用,特别是在可持续能源存储与转换领域。传统上,阳极反应为析氧反应,该过程需要较高的工作电位,并伴随显著的运行成本。本综述探讨了一种通过使用替代燃料来缓解上述挑战的有前景的方法。通过对相关文献的系统性回顾,重点分析了醇类、胺类及生物质衍生物的电解研究进展。本文阐述了将非析氧反应与析氢反应相结合的潜力,以克服传统电解过程中的诸多弊端。通过拓展电化学反应路径,替代性阳极反应有望降低工作电位,从而减少能量输入和整体成本。此外,催化剂的合理设计与选择可有效提升反应动力学,进一步提高氢气生成的效率。本综述强调,在电解槽系统的设计与运行中,必须综合考虑技术性能与经济可行性的重要性。
English Abstract
Abstract Low-temperature electrolyzers play an essential role in various electrochemical and industrial processes, particularly in sustainable energy storage and conversion. Traditionally, the anodic reaction is oxygen evolution, which demands high working potentials and involves significant operational costs. This review explores a compelling approach to mitigate these challenges by using alternative fuels. Through a comprehensive review of the literature, the subject of which was the electrolysis of alcohols, amines, and biomass derivatives. This study explains the potential of integrating non‑oxygen-evolving reactions with hydrogen evolution reactions to mitigate the drawbacks associated with conventional electrolysis. By diversifying the electrochemical approaches, alternative reactions offer the prospect of lowering the working potential, thereby reducing the energy input and overall cost. Furthermore, strategically selecting catalysts can enhance reaction kinetics and improve the efficiency of hydrogen production. This review underscores the importance of considering technical performance and economic viability in the design and operation of electrolyzer systems.
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SunView 深度解读
该低温电解制氢技术对阳光电源储能系统具有重要启示价值。通过替代燃料降低电解槽工作电位的思路,可应用于PowerTitan储能系统的能量管理优化,特别是在可再生能源制氢场景中,ST系列PCS可通过精准功率控制降低电解能耗。催化剂优化提升反应动力学的理念,与阳光GaN/SiC功率器件的高效转换技术形成协同,为构建光伏-储能-制氢一体化解决方案提供技术路径,助力降低绿氢生产成本,拓展iSolarCloud平台在氢能领域的智能运维能力。