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用于电化学储能应用的纳米结构碳和碳纳米复合材料。

Nanostructured carbon and carbon nanocomposites for electrochemical energy storage applications.

机构信息

Fritz Haber Institute of the Max Planck Society, Faradayweg 4-6, 14195 Berlin, Germany.

出版信息

ChemSusChem. 2010 Feb 22;3(2):136-68. doi: 10.1002/cssc.200900182.

Abstract

Electrochemical energy storage is one of the important technologies for a sustainable future of our society, in times of energy crisis. Lithium-ion batteries and supercapacitors with their high energy or power densities, portability, and promising cycling life are the cores of future technologies. This Review describes some materials science aspects on nanocarbon-based materials for these applications. Nanostructuring (decreasing dimensions) and nanoarchitecturing (combining or assembling several nanometer-scale building blocks) are landmarks in the development of high-performance electrodes for with long cycle lifes and high safety. Numerous works reviewed herein have shown higher performances for such electrodes, but mostly give diverse values that show no converging tendency towards future development. The lack of knowledge about interface processes and defect dynamics of electrodes, as well as the missing cooperation between material scientists, electrochemists, and battery engineers, are reasons for the currently widespread trial-and-error strategy of experiments. A concerted action between all of these disciplines is a prerequisite for the future development of electrochemical energy storage devices.

摘要

电化学储能是我们社会可持续未来的重要技术之一,特别是在能源危机时期。锂离子电池和超级电容器因其高能量或功率密度、便携性以及有前景的循环寿命而成为未来技术的核心。本文综述了一些纳米碳基材料在这些应用中的材料科学方面。纳米结构(尺寸减小)和纳米构筑(组合或组装几个纳米级的构建块)是开发具有长循环寿命和高安全性的高性能电极的里程碑。本文综述的大量工作表明,对于这种电极,性能有了显著提高,但大多数给出的都是不同的值,没有朝着未来发展的趋势收敛。对电极的界面过程和缺陷动力学缺乏了解,以及材料科学家、电化学家和电池工程师之间缺乏合作,是目前广泛采用试验和错误策略的原因。所有这些学科之间的协同行动是电化学储能器件未来发展的前提。

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