沼气
甲烷
制氢
氢
环境科学
电力转天然气
蒸汽重整
工艺工程
过程(计算)
废物管理
化学
计算机科学
工程类
操作系统
有机化学
电解
物理化学
电解质
电极
作者
Thanh Son Phan,Doan Pham Minh,Fabienne Espitalier,Ange Nzihou,Didier Grouset
标识
DOI:10.1016/j.ijhydene.2022.01.100
摘要
This work is part of the VABHYOGAZ (valorization of biogas into hydrogen) program, which targeted the industrial deployment of hydrogen production from biogas in France. To-date, different processes of methane reforming, such as steam reforming of methane (SRM), dry reforming of methane (DRM) and tri-reforming of methane (TRM), have been studied in the literature, but only SRM is applied at industrial scale. Since SRM is an energy-intensive process, a critical analysis of these routes for hydrogen production from biogas is indispensable for process optimization. This has been addressed in this work, by using ASPEN Plus® simulation. Different global processes of hydrogen production from biogas, via DRM, SRM, or TRM, with or without tail gas recycling, have been studied. Among them, hydrogen production using TRM technique (H 2 -TRM0.3C process) with a partial recycling of tail gas (30%) was found to be the best option, leading to the highest hydrogen production rate and the best energy yield. H 2 -TRM0.3C process was also found to be more efficient than the actual industrial process (H 2 -REF), which is based on SRM technique. Under the same conditions, H 2 -TRM0.3C process led to a higher H 2 production (8.7% more), a lower total energy consumption (18.6% less), and a lower waste heat generation (15.4% less), in comparison with the actual industrial process (H 2 -REF). • H 2 production from biogas are simulated using ASPEN Plus® software. • DRM with or without tail gas recycling: less competitive than SRM. • TRM without tail gas recycling: less competitive than SRM. • TRM with tail gas recycling: the best option with the highest H 2 yield.
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