Sharma Archita, Arya Shailendra Kumar
Department of Biotechnology, University Institute of Engineering and Technology, Panjab University, Chandigarh, India.
Biotechnol Rep (Amst). 2017 Jun 14;15:63-69. doi: 10.1016/j.btre.2017.06.001. eCollection 2017 Sep.
Multifariousness of biofuel sources has marked an edge to an imperative energy issue. Production of hydrogen from microalgae has been gathering much contemplation right away. But, mercantile production of microalgae biofuels considering bio-hydrogen is still not practicable because of low biomass concentration and costly down streaming processes. This review has taken up the hydrogen production by microalgae. Biofuels are the up and coming alternative to exhaustible, environmentally and unsafe fossil fuels. Algal biomass has been considered as an enticing raw material for biofuel production, these days photobioreactors and open-air systems are being used for hydrogen production from algal biomass. The formers allow the careful cultivation control whereas the latter ones are cheaper and simpler. A contemporary, encouraging optimization access has been included called algal cell immobilization on various matrixes which has resulted in marked increase in the productivity per volume of a reactor and addition of the hydrogen-production phase.
生物燃料来源的多样性为一个紧迫的能源问题带来了优势。从微藻中生产氢气目前已受到广泛关注。但是,考虑到生物制氢,微藻生物燃料的商业生产由于生物量浓度低和下游工艺成本高仍然不可行。本综述探讨了微藻制氢。生物燃料是即将取代不可再生、对环境有害且不安全的化石燃料的替代品。藻类生物质已被视为生物燃料生产的诱人原料,目前光生物反应器和露天系统正用于从藻类生物质中生产氢气。前者便于精确控制培养,而后者成本更低且更简单。一种当代的、令人鼓舞的优化方法被引入,即把藻类细胞固定在各种基质上,这导致反应器单位体积的生产率显著提高,并增加了产氢阶段。