Department of Biotechnology, Dr. B R Ambedkar National Institute of Technology, Jalandhar, 144 011, India.
Appl Biochem Biotechnol. 2021 Jul;193(7):2297-2330. doi: 10.1007/s12010-021-03528-6. Epub 2021 Feb 19.
Waste-dependent fermentative routes for biohydrogen production present a possible scenario to produce hydrogen gas on a large scale in a sustainable way. Cheese whey contains a high portion of organic carbohydrate and other organic acids, which makes it a feasible substrate for biohydrogen production. In the present review, recent research progress related to fermentative technologies, which explore the potentiality of cheese whey for biohydrogen production as an effective tool on a large scale, has been analyzed systematically. In addition, application of multiple response surface methodology tools such as full factorial design, Box-Behnken model, and central composite design during fermentative biohydrogen production to study the interactive effects of different bioprocess variables for higher biohydrogen yield in batch, fed-batch, and continuous mode is also discussed. The current paper also emphasizes computational fluid dynamics-based simulation designs, by which the substrate conversion efficiency of the cheese whey-based bioprocess and temperature distribution toward the turbulent flow of reaction liquid can be enhanced. The possible future developments toward higher process efficiency are outlined.
依赖废物的发酵途径生产生物氢以可持续的方式大规模生产氢气提供了一种可能的方案。奶酪乳清含有大量的有机碳水化合物和其他有机酸,使其成为生物制氢的可行底物。在本综述中,系统地分析了与发酵技术相关的最新研究进展,这些技术探索了奶酪乳清作为大规模有效工具生产生物氢的潜力。此外,还讨论了在发酵生物制氢过程中应用多种响应面方法工具,如完全析因设计、Box-Behnken 模型和中心复合设计,以研究不同生物工艺变量的相互作用,以在批处理、补料分批和连续模式下获得更高的生物氢产量。本文还强调了基于计算流体动力学的模拟设计,通过该设计可以提高基于奶酪乳清的生物工艺的底物转化率效率和反应液体的湍流温度分布。概述了提高工艺效率的可能未来发展方向。