Inorganic Chemistry Laboratory, Department of Chemistry, University of Oxford, South Parks Road, Oxford, OX1 3QR, UK.
ChemSusChem. 2010;3(1):44-58. doi: 10.1002/cssc.200900190.
The critical topic of energy and the environment has rarely had such a high profile, nor have the associated materials challenges been more exciting. The subject of functional materials for sustainable energy technologies is demanding and recognized as a top priority in providing many of the key underpinning technological solutions for a sustainable energy future. Energy generation, consumption, storage, and supply security will continue to be major drivers for this subject. There exists, in particular, an urgent need for new functional materials for next-generation energy conversion and storage systems. Many limitations on the performances and costs of these systems are mainly due to the materials' intrinsic performance. We highlight four areas of activity where functional materials are already a significant element of world-wide research efforts. These four areas are transparent conducting oxides, solar energy materials for converting solar radiation into electricity and chemical fuels, materials for thermoelectric energy conversion, and hydrogen storage materials. We outline recent advances in the development of these classes of energy materials, major factors limiting their intrinsic functional performance, and potential ways to overcome these limitations.
能源与环境这一关键议题从未如此备受瞩目,相关的材料挑战也从未如此令人兴奋。可持续能源技术功能材料这一主题要求很高,被公认为为可持续能源的未来提供许多关键基础技术解决方案的重中之重。能源的产生、消耗、存储和供应安全将继续成为这一主题的主要驱动力。特别是,人们迫切需要用于下一代能源转换和存储系统的新型功能材料。这些系统的性能和成本存在许多限制,主要是由于材料的固有性能。我们重点介绍了功能材料已经成为全球研究工作重要组成部分的四个领域。这四个领域是透明导电氧化物、将太阳能转化为电能和化学燃料的太阳能材料、用于热能转换的材料以及储氢材料。我们概述了这些类别的能源材料的最新进展,限制其内在功能性能的主要因素,以及克服这些限制的潜在方法。