GITAM School of Technology, Gandhi Institute of Technology and Management (GITAM) (Deemed to be University), Visakhapatnam 530045, India; Department of Biotechnology, Gandhi Institute of Technology and Management (GITAM) (Deemed to be University), Visakhapatnam 530045, India.
College of Agriculture, Central Agricultural University, Imphal 795 004, Manipur, India.
Microbiol Res. 2022 Dec;265:127216. doi: 10.1016/j.micres.2022.127216. Epub 2022 Sep 30.
Still, in the current period, non-renewable energy sources have contributed to fulfill the current energy requirement and it causes the deficit of available stocks with emission of pollutant byproducts components. In recent years, efforts were made to harness the sustainable/ renewable fuels from renewable sources/ waste, complex organic matters including biomass at global level. Researchers have put attention on harnessing energy from wastewater and MFCs systems. This MFC approach utilizes the wastewater as feed/ carbon sources to generate bioenergy such as bio- hydrogen and electricity in a sustainable and efficient way via completing the wastewater treatment. This approach consists of anode and cathode electrodes with proton exchange membrane (PEM). Microbial fuel cells are utilized with other effective approaches (anaerobic digestion/ fermentation, local demand-based-MFC approach) that are applied to utilize biowastes for microbial cell growth and electron emission. This review discusses the recent and technologically advanced approach such as microbial fuel cells (MFCs). MFCs can apply to fulfill the increasing trends of global energy demand, found with more utilization in home appliances in urban areas, industrial tasks and transportation sectors. Last few decades, there have been recent modifications in MFCs configurations and design that have improved performance of MFCs. Recent design and configuration of MFCs have shown the removal of maximum chemical oxygen demand (up to 94-97%) with generation maximum current output (up to 5.23 mA) from wastewater. This review presents a comprehensive collection of recent information about technologies and design of MFCs with implementation of microbial electrogene with development of wastewater treatment having sustainable fuel/ energy generation at an effective level.
尽管如此,在当前时期,不可再生能源已被用于满足当前的能源需求,这导致了可用库存的短缺,并排放了污染物副产物成分。近年来,全球范围内的研究人员一直致力于从可再生资源/废物、包括生物质在内的复杂有机物中获取可持续/可再生燃料。研究人员已经开始关注利用废水和 MFC 系统来获取能源。这种 MFC 方法利用废水作为进料/碳源,通过完成废水处理,以可持续和有效的方式产生生物能源,如生物氢和电力。该方法由阳极和阴极电极以及质子交换膜(PEM)组成。微生物燃料电池与其他有效方法(厌氧消化/发酵、基于本地需求的 MFC 方法)一起使用,这些方法适用于利用生物废物促进微生物细胞生长和电子发射。本综述讨论了最近的技术先进方法,如微生物燃料电池(MFCs)。MFC 可用于满足全球能源需求的增长趋势,在城市地区的家用电器、工业任务和运输部门中得到了更广泛的应用。在过去的几十年中,MFC 的配置和设计已经进行了最近的修改,从而提高了 MFC 的性能。最近的 MFC 设计和配置表明,从废水中去除了高达 94-97%的最大化学需氧量(COD),并产生了高达 5.23 mA 的最大电流输出。本综述全面收集了有关 MFC 技术和设计的最新信息,包括微生物电基因的实施以及具有可持续燃料/能源生成的废水处理的发展。