Extracellular electron transfer has, in one decade, emerged from an environmental
phenomenon to an industrial process driver. On the one hand, electron transfer towards …

Over a century ago, researchers observed that certain microorganisms generate electrical
current. This led to the discovery of dozens, if not hundreds of electroactive microbes able to …

Bioelectrochemical systems, such as microbial fuel cells and microbial electrosynthesis, are
promising technology for energy generation and organic compound production. In the …

介绍产电微生物胞外电子传递(extracellular electron transfer, EET) 研究的背景和意义,
概述细胞色素c, 菌毛蛋白, 电子介体等多种分子在EET 过程中的作用, 综述近年来利用网络方法 …

Electroactive microorganisms possess the unique ability to transfer electrons to or from solid
phase electron conductors, eg, electrodes or minerals, through various physiological …

包括产电菌群和噬电菌群的人工电活性微生物菌群(synthetic electroactive microbial consortia)
通过菌种间的物质能量级联反应介导化学能与(光) 电能间的相互转化, 其可利用底物来源广泛 …

In anaerobic biota, reducing equivalents (electrons) are transferred between different
species of microbes [interspecies electron transfer (IET)], establishing the basis of …

Iron-bearing minerals are widespread in soil and subsurface environment where they
support microbial growth and metabolisms by serving as the terminal electron acceptors for …

Electrogens are very common in nature and becoming a contemporary theme for research
as they can be exploited for extracellular electron transfer. Extracellular electron transfer is …