The Sustainable Environment Research Centre, Faculty of Health, Sport and Science, University of Glamorgan, Pontypridd, Mid. Glamorgan CF37 1DL, UK.
Bioresour Technol. 2011 Sep;102(18):8534-42. doi: 10.1016/j.biortech.2011.04.051. Epub 2011 May 4.
Acidogenic fermentation can be used to produce hydrogen from a range of biomass sources. The effluent from this process can be utilised in a number of biological processes enabling further recovery of energy from the biomass. In this review a number of candidate technologies are assessed including conventional methanogenic anaerobic digestion, dark fermentative hydrogen production, photo-fermentation, and bioelectrochemical systems. The principles, benefits and challenges associated with integrating these technologies are discussed, with particular emphasis on integration with fermentative hydrogen production, and the current state of integrative development is presented. The various system configurations for potential integrations presented here may simultaneously permit an increase in the conversion efficiency of biomass to energy, improved adaptability to varying operating conditions, and improved stability. Such integration, while increasing system complexity, may mean that these bioprocesses could be deployed in a wider range of scenarios and be used with a greater range of substrates.
产酸发酵可用于从多种生物质资源中生产氢气。该过程的流出物可用于多种生物过程,从而从生物质中进一步回收能量。在本综述中,评估了包括传统的产甲烷厌氧消化、暗发酵制氢、光发酵和生物电化学系统在内的多种候选技术。讨论了与这些技术集成相关的原理、优点和挑战,特别强调了与发酵制氢的集成,以及当前的综合发展状况。这里提出的各种潜在集成的系统配置可以同时提高生物质向能源的转化效率,提高对不同操作条件的适应性,并提高稳定性。这种集成虽然增加了系统的复杂性,但可能意味着这些生物过程可以在更广泛的场景中部署,并可以使用更广泛的底物。