大麻茎活性炭用于发酵增氢

Tanawat Chaonafai, Natthakorn Ruengkitrattanakul, Saranya Penpho, R. Nitisoravut, Pornthip Wimonsong
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引用次数: 0

摘要

以大麻茎为原料制备活性炭,因其含碳量高,吸附能力强。用H3PO4进行化学活化合成。考察了活化温度在350 ~ 500℃范围内的影响。所得的大麻茎活性炭(H-ACs)用于生物增氢。采用泰国国家纳米技术中心处理过的活性炭(TAC)进行比较研究。结果表明,当活化温度为500℃时,H-AC的产氢率最高,为2.64±1.16 mol H2/mol蔗糖。根据BET (Brunauer-Emmet-Teller)理论测定比表面积,结果表明,H-AC(500℃)的中孔体积最高,为0.3650 cm3/g,比表面积为1219.24 m2/g。与TAC和其他H-AC相比,H-AC(500°C)的孔隙率更高,因此吸附能力更强,特别是对挥发性脂肪酸,从而提高了发酵产氢量。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Hemp Stem Activated Carbon for Fermentative Hydrogen Enhancement
Hemp stem was used as a raw material to make available activated carbon as it contains high carbon and adsorption capacity. It was synthesized by a chemical activation using H3PO4. The effect of activation temperature within a range of 350-500°C was explored. The obtained hemp stem activated carbons (H-ACs) were used for biohydrogen enhancement. Treated activated carbon (TAC) from the National Nanotechnology Center, Thailand was used for a comparative study. The results showed that H-AC with activation temperature of 500°C obtained the maximum hydrogen yield of 2.64 ± 1.16 mol of H2/mol of sucrose. Determination of specific surface area based on the Brunauer-Emmet-Teller (BET) theory, showed that H-AC (500°C) possessed the highest mesopore volume of 0.3650 cm3/g with specific surface area of 1,219.24 m2/g. A greater porosity of H-AC (500°C) as compared to TAC and other H-ACs led to a greater adsorption ability, particularly for volatile fatty acids, thus enhanced fermentative hydrogen production.
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