Hydrogen production from methane in a dielectric barrier discharge using oxide zinc and chromium as catalyst

Antonius Indarto
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引用次数: 36

Abstract

The hydrogen fuel cell is a promising option as a future energy resource; however, the nature of the gas is such that the conversion process of other fuels to hydrogen on board is necessary. Among the raw fuel resources, methane could be the best candidate as it is plentiful. In this experiment, the possibility of producing hydrogen with less carbon formation from methane by a dielectric barrier discharge (DBD) was investigated. Without the addition of a catalyst, the formation of hydrogen reached between 30% and 35% at methane residence time of 0.22 min and supplied powers in the range of 60–130 W. The hydrogen selectivity increased at higher supplied power, but the process efficiency, defined as a ratio of the produced hydrogen to the supplied power, decreased slightly. In order to boost the hydrogen production with less carbon formation, a mixed oxide catalyst of zinc and chromium was added to the reactor. It was shown that the production of hydrogen was ca. 40% higher than the non-catalytic plasma process.

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以氧化锌和铬为催化剂的介质阻挡放电中甲烷制氢
氢燃料电池是一种很有前途的未来能源。然而,气体的性质是这样的,其他燃料转化为氢气的过程是必要的。在原料燃料资源中,甲烷可能是最好的候选人,因为它是丰富的。在本实验中,研究了用介质阻挡放电(DBD)从甲烷中产生较少碳的氢气的可能性。在不添加催化剂的情况下,甲烷停留时间为0.22 min,供能功率为60-130 W,氢气的生成率为30% - 35%。在较高的供给功率下,氢气选择性增加,但过程效率(定义为产生氢气与供给功率的比率)略有下降。为了在减少碳生成的同时提高产氢率,在反应器中加入了锌和铬的混合氧化物催化剂。结果表明,该工艺的氢气产出率比非催化等离子体工艺高约40%。
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