Tee Si Yin, Win Khin Yin, Teo Wee Siang, Koh Leng-Duei, Liu Shuhua, Teng Choon Peng, Han Ming-Yong
Institute of Materials Research and Engineering Agency for Science Technology and Research 2 Fusionopolis Way Singapore 138634.
Department of Biomedical Engineering National University of Singapore 9 Engineering Drive Singapore 117576.
Adv Sci (Weinh). 2017 Jan 13;4(5):1600337. doi: 10.1002/advs.201600337. eCollection 2017 May.
Hydrogen is readily obtained from renewable and non-renewable resources via water splitting by using thermal, electrical, photonic and biochemical energy. The major hydrogen production is generated from thermal energy through steam reforming/gasification of fossil fuel. As the commonly used non-renewable resources will be depleted in the long run, there is great demand to utilize renewable energy resources for hydrogen production. Most of the renewable resources may be used to produce electricity for driving water splitting while challenges remain to improve cost-effectiveness. As the most abundant energy resource, the direct conversion of solar energy to hydrogen is considered the most sustainable energy production method without causing pollutions to the environment. In overall, this review briefly summarizes thermolytic, electrolytic, photolytic and biolytic water splitting. It highlights photonic and electrical driven water splitting together with photovoltaic-integrated solar-driven water electrolysis.
通过利用热能、电能、光子能和生物化学能进行水分解,氢气可轻易地从可再生和不可再生资源中获取。主要的制氢方式是通过化石燃料的蒸汽重整/气化利用热能来产生氢气。由于常用的不可再生资源从长远来看将会枯竭,因此利用可再生能源制氢的需求很大。大多数可再生资源可用于发电以驱动水分解,不过在提高成本效益方面仍存在挑战。作为最丰富的能源资源,将太阳能直接转化为氢气被认为是最可持续的能源生产方式,且不会对环境造成污染。总体而言,本综述简要总结了热解水、电解水、光解水和生物分解水。它重点介绍了光子驱动和电驱动的水分解以及光伏集成太阳能驱动的水电解。