A high efficient POM micro-methanol reformer

Hsueh-Sheng Wang, Kuo-Yang Huang, H. Peng, Yuh-Jeen Huang, F. Tseng
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引用次数: 1

Abstract

In the present study, a novel micro-channel methanol reformer with a finger-shaped groove structure was successfully demonstrated to enhance the methanol conversion rate and the hydrogen yield. By introducing a centrifugal technique, a porous and gradient distribution of the catalyst layer thickness can be obtained inside the micro-channels so as to force the methanol steam to react sufficiently with high surface area catalysts. As the ratio of binder to catalysts varied from 60 to 0, the methanol conversion rate, hydrogen selectivity and hydrogen yield of the micro-methanol reformer at 250°C can approach ~100%, 92% and 1.56×10-5 mole min-1, respectively. Moreover, a high performance output can still be obtained even at 200°C, which is superior to our previous studies.
一种高效聚甲醛微甲醇重整器
在本研究中,我们成功地展示了一种新型的微通道甲醇重整器,它具有指状槽结构,可以提高甲醇的转化率和产氢率。通过引入离心技术,可以在微通道内获得多孔梯度分布的催化剂层厚度,从而迫使甲醇蒸汽与高表面积催化剂充分反应。在粘合剂与催化剂配比为60 ~ 0的条件下,250℃下微甲醇重整器的甲醇转化率、氢气选择性和氢气产率分别接近~100%、92%和1.56×10-5 mol min-1。而且,即使在200°C下,仍然可以获得高性能输出,这优于我们以前的研究。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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