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Hydrogen production via supercritical water gasification of almond shell over algal and agricultural hydrochars as catalysts

机译:通过藻类和农用碳氢化合物作为催化剂的杏仁壳超临界水气化制氢

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Almond shell is one of the most abundant agricultural wastes in Kurdistan province of Iran. Conversion of almond shell into hydrogen-rich gas via supercritical water gasification (SCWG) was investigated in this study using a tubular batch micro-reactor system. Non catalytic tests were carried out in different conditions to determine the optimum condition for H-2 production. Maximum hydrogen yield of 7.85 mmoVg, was observed in the temperature of 460 degrees C, residence time (RT) of 10 min and feed/water ratio (F/W) of 0.01. Catalytic experiments were performed using hydrochars as solid residues remained after SCWG of Cladophora glomerata (C. glomerata) macroalgae and wheat straw. Hydrochars were characterized by ICP-OES, FESEM and BET methods. For catalytic experiments, hydrochars were added to the almond shell by the weight ratio of 0.4. Conversion of almond shell and hydrogen production, were more influenced by the presence of inorganic compounds in the hydrochars rather than the surface area and pore volume. The maximum hydrogen yields of 10.77 and 11.63 mmoVg, were observed for catalytic experiments in the presence of wheat straw and C. glomerata hydrochars, respectively. (C) 2017 Hydrogen Energy Publications LLC. Published by Elsevier Ltd. All rights reserved.
机译:杏仁壳是伊朗库尔德斯坦省最丰富的农业废料之一。在这项研究中,使用管状间歇式微反应器系统研究了通过超临界水气化(SCWG)将杏仁壳转化为富氢气体。在不同条件下进行非催化测试以确定H-2生产的最佳条件。在460摄氏度的温度,10分钟的停留时间(RT)和0.01的进水/水比(F / W)的条件下,观察到最大氢产量为7.85 mmoVg。使用水煤炭进行催化实验,因为大叶海藻(Cladophora glomerata)(C。glomerata)大型藻类和小麦秸秆的SCWG处理后残留了固体残留物。通过ICP-OES,FESEM和BET方法对烃进行表征。对于催化实验,将水炭以0.4的重量比添加到杏仁壳中。杏仁的转化率和产氢量更多地受到烃中无机化合物的存在的影响,而不是表面积和孔体积的影响。分别在小麦秸秆和球状炭黑水炭存在下进行催化实验,观察到最大氢产量分别为10.77和11.63 mmoVg。 (C)2017氢能出版物有限公司。由Elsevier Ltd.出版。保留所有权利。

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