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Biophotovoltaics: Green Power Generation From Sunlight and Water

机译:生物光伏:阳光和水的绿色发电

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摘要

Biophotovoltaics is a relatively new discipline in microbial fuel cell research. The basic idea is the conversion of light energy into electrical energy using photosynthetic microorganisms. The microbes will use their photosynthetic apparatus and the incoming light to split the water molecule. The generated protons and electrons are harvested using a bioelectrochemical system. The key challenge is the extraction of electrons from the microbial electron transport chains into a solid-state anode. On the cathode, a corresponding electrochemical counter reaction will consume the protons and electrons, e.g., through the oxygen reduction to water, or hydrogen formation. In this review, we are aiming to summarize the current state of the art and point out some limitations. We put a specific emphasis on cyanobacteria, as these microbes are considered future workhorses for photobiotechnology and are currently the most widely applied microbes in biophotovoltaics research. Current progress in biophotovoltaics is limited by very low current outputs of the devices while a lack of comparability and standardization of the experimental set-up hinders a systematic optimization of the systems. Nevertheless, the fundamental questions of redox homeostasis in photoautotrophs and the potential to directly harvest light energy from a highly efficient photosystem, rather than through oxidation of inefficiently produced biomass are highly relevant aspects of biophotovoltaics.
机译:生物光伏技术是微生物燃料电池研究中的一个相对较新的学科。基本思想是利用光合微生物将光能转换为电能。微生物将利用其光合作用设备和入射光来分裂水分子。使用生物电化学系统收集产生的质子和电子。关键的挑战是将电子从微生物电子传输链中提取到固态阳极中。在阴极上,相应的电化学逆反应将消耗质子和电子,例如通过将氧还原成水或形成氢来消耗。在这篇综述中,我们旨在总结当前的技术水平,并指出一些局限性。我们特别强调蓝细菌,因为这些微生物被认为是光生物技术的未来主力军,并且目前是生物光伏研究中应用最广泛的微生物。生物光伏的当前进展受到设备电流输出极低的限制,而缺乏可比性和标准化的实验设置却阻碍了系统的系统优化。然而,光养生物中氧化还原稳态的基本问题以及直接从高效光系统中收集光能而不是通过低效生产的生物质进行氧化的潜力是生物光伏的高度相关方面。

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