先进反应器蒸汽甲烷重整制氢研究进展

A. Ganguli, Viraj Bhatt
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引用次数: 5

摘要

综述了国内外利用甲烷蒸汽重整制氢潜力的研究进展。首先,根据近年来的重要文献,介绍了乙醇、氨、甘油、甲醇和甲烷等不同原料制氢的总体研究成果。提出的数据是基于反应器类型,反应器操作条件,催化剂的使用和氢气的产量,以提供一个总的概述。然后讨论了应用最广泛的蒸汽甲烷重整(SMR)/甲烷蒸汽重整(MSR)工艺。对主要的先进反应器、膜反应器、吸附强化甲烷蒸汽重整反应器和微反应器进行了评价。根据停留时间、表面积、放大倍数、焦炭形成、转化率、空速和氢气产率等参数进行了评价。在最近发表的文献中,每种反应器的动力学模型都给出了速率常数和其他参数。给出了焦炭的形成机理和速率表达式。尽管膜反应器和吸附增强反应器在工艺强化方面有很多优势,但由于膜稳定性和污染等因素,扩大到工业规模仍然是一个挑战,随着WHSV的增加(在吸附增强反应器的情况下),产量会下降。尽管体积可能大大低于目前工业规模的常规反应堆,但微反应堆在高产量和极短的停留时间(以秒为单位)方面具有更大的潜力。
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Hydrogen production using advanced reactors by steam methane reforming: A review
The present review focuses on the current progress on harnessing the potential of hydrogen production by Methane Steam Reforming (MSR). First, based on the prominent literature in last few years, the overall research efforts of hydrogen production using different feed stocks like ethanol, ammonia, glycerol, methanol and methane is presented. The presented data is based on reactor type, reactor operating conditions, catalyst used and yield of hydrogen to provide a general overview. Then, the most widely used process [steam methane reforming (SMR)/methane steam reforming (MSR)] are discussed. Major advanced reactors, the membrane reactors, Sorption Enhanced methane steam reforming reactors and micro-reactors are evaluated. The evaluation has been done based on parameters like residence time, surface area, scale-up, coke formation, conversion, space velocity and yield of hydrogen. The kinetic models available in recently published literature for each of these reactors have been presented with the rate constants and other parameters. The mechanism of coke formation and the rate expressions for the same have also been presented. While membrane reactors and sorption enhanced reactors have lot of advantages in terms of process intensification scale-up to industrial scale is still a challenge due to factors like membrane stability and fouling (in membrane reactors), decrease in yield with increasing WHSV (in case of Sorption Enhanced Reactors). Micro-reactors pose a higher potential in terms of higher yield and very low residence time in seconds though the volumes might be substantially lower than present industrial scale conventional reactors.
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