Sahu Sudarshan, Sharma Archita, Kaushal Jyoti, Singh Gursharan, Arya Shailendra Kumar
Department of Biotechnology Engineering, University Institute of Engineering and Technology, Panjab University, Chandigarh, India.
Department of Biomedical Engineering, Texas A&M University, College Station, TX, 77843, USA.
Environ Sci Pollut Res Int. 2024 Aug 7. doi: 10.1007/s11356-024-34631-w.
Energy plays a significant role in attaining the sustainable growth of the industrial sector of any nation. The resources for getting energy are limited and cannot fulfill the huge demand for energy supply in the near future. Generating fuels from various waste materials and biomass is widely viewed as a sustainable energy source and a viable option for the future. Currently, researchers are particularly interested in synthesizing hydrogen (H) without emitting CO and other greenhouse gases (GHGs). Hydrogen is recognized as a pristine and environmentally friendly energy source, presenting an optimal substitute for fossil fuels due to its high energy content of 122 kJg. The traditional methods for the production of H are cost-intensive and heavy input requirements are needed. Thus, the synthesis of H through biological approaches is cost-effective and eco-friendly alternating with easy operational requirements with ambient reaction conditions. The most common drawback of the biological production of H is the low yield and production rates of gas during scale-up conditions. This review is focused on different processes used to convert the wastes into H energy along with their pattern of utilization and the effect on the environment.
能源在任何国家工业部门实现可持续增长方面都发挥着重要作用。获取能源的资源有限,在不久的将来无法满足对能源供应的巨大需求。从各种废料和生物质中生产燃料被广泛视为一种可持续能源,也是未来的一个可行选择。目前,研究人员尤其关注在不排放一氧化碳和其他温室气体的情况下合成氢气(H)。氢气被认为是一种纯净且环保的能源,因其每克122千焦的高能量含量,是化石燃料的理想替代品。传统的制氢方法成本高昂,需要大量投入。因此,通过生物方法合成氢气具有成本效益且环保,操作要求简单,反应条件温和。生物制氢最常见的缺点是在放大生产条件下气体产量和生产率较低。本综述聚焦于将废物转化为氢能的不同过程,以及它们的利用方式和对环境的影响。