光生物制氢

E. Touloupakis, G. Torzillo
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引用次数: 2

摘要

本章报告了藻类和蓝藻的光生物制氢也是一种可能的选择,除了其他潜在的清洁氢来源,如光伏电解和水的风力电解、热化学水分解、水的光电化学生产、暗微生物发酵和光发酵过程。这些生物比其他技术有一些优势,因为它们可以直接使用可再生能源(太阳和水)产生氢,是碳中性的,在环境温度和压力下工作,自组装工作的催化结构,不需要中间的电力基础设施。然而,太阳能转换效率低,特别是氧对氢化酶功能的抑制,再加上光生物反应器的高成本,阻碍了该工艺在工业规模上的实际实施。在室外光生物反应器中对微藻、莱茵衣藻和藻胞菌PCC 6803进行了初步实验,确定了可能提高当前应用研究技术转移准备水平的实际问题。值得注意的是,现在已经很清楚,实现必要的转换效率和成本要求,可能允许开发一个实用的系统,将需要更先进的生物技术和光生物反应器工程研究。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Photobiological hydrogen production
Abstract The chapter reports evidence that photobiological hydrogen production by algae and cyanobacteria is also a possible option in addition to other potential clean sources of hydrogen such as photovoltaic electrolysis and wind electrolysis of water, thermochemical water splitting, photoelectrochemical production from water, dark microbial fermentation, and photofermentation processes. These organisms have some advantages over other techniques, since they can produce hydrogen directly using renewable energy resources (sun and water), are carbon neutral, operate at ambient temperature and pressure, self-assemble the working catalytic structure, and do not require an intermediary electricity infrastructure. However, low efficiency of solar light conversion, and particularly oxygen inhibition of hydrogenase function, coupled to the high cost of photobioreactors are preventing practical implementation of the process on an industrial scale. Preliminary experiments carried out with the microalga, Chlamydomonas reinhardtii, and the cyanobacterium Synechocystis PCC 6803 in photobioreactors outdoors have ascertained practical issues that might enhance the technology transfer readiness level of current applied research. Notably, it has now become clear that achieving the necessary conversion efficiencies and cost requirements that might allow the development of a practical system will require more advanced biotechnology and photobioreactor engineering research.
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