Ru/Al2O3催化超临界水中2-丙醇制氢和生物燃料

Ekin Kıpçak, Yağmur Karakuş, M. Akgün
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摘要

-氢是许多工业中的重要化学品,有望成为未来能源生产的主要燃料之一。不幸的是,氢在自然界中不以单质形式存在,因此必须从碳氢化合物、含氢化合物或水中产生。在临界点(374.8℃和22.1MPa)以上,水的密度和粘度低于环境水,热容量高于环境水。超临界水的扩散率和输运能力的提高使其传质能力增强。介电常数的降低使超临界水成为有机化合物和气体的较好溶剂。因此,由于上述理想的性质,人们对超临界水中含有生物质或模式生物质溶液的有机物质的气化研究越来越感兴趣。在这项研究中,研究了超临界条件下2-丙醇催化气化制氢和生物燃料。Ru/ al2o3是气化反应的催化剂。所有实验均在25 MPa的恒压下进行。考察了5种反应温度(400、450、500、550和600℃)和5种反应时间(10、15、20、25和30 s)对气化率和可燃组分含量的影响。
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Hydrogen and Biofuel Production from 2-Propanol Over Ru/Al2O3 Catalyst in Supercritical Water
— Hydrogen is an important chemical in many industries and it is expected to become one of the major fuels for energy generation in the future. Unfortunately, hydrogen does not exist in its elemental form in nature and therefore has to be produced from hydrocarbons, hydrogen-containing compounds or water. Above its critical point (374.8 o C and 22.1MPa), water has lower density and viscosity, and a higher heat capacity than those of ambient water. Mass transfer in supercritical water (SCW) is enhanced due to its increased diffusivity and transport ability. The reduced dielectric constant makes supercritical water a better solvent for organic compounds and gases. Hence, due to the aforementioned desirable properties, there is a growing interest toward studies regarding the gasification of organic matter containing biomass or model biomass solutions in supercritical water. In this study, hydrogen and biofuel production by the catalytic gasification of 2-Propanol in supercritical conditions of water was investigated. Ru/Al 2 O 3 was the catalyst used in the gasification reactions. All of the experiments were performed under a constant pressure of 25 MPa. The effects of five reaction temperatures (400, 450, 500, 550 and 600 ° C) and five reaction times (10, 15, 20, 25 and 30 s) on the gasification yield and flammable component content were investigated.
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