Catalytic conversion of formic acid to methanol with Cu and Al under hydrothermal conditions
Hansong Yao, Xu Zeng, Min Cheng, Jun Yun, Zhenzi Jing, Fangming Jin
Abstract
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Hansong Yao, Xu Zeng, Min Cheng, Jun Yun, Zhenzi Jing, Fangming Jin
Abstract
Open-access reader
Catalytic conversion of formic acid into methanol was investigated with Cu as a catalyst and Al as a reductant under hydrothermal conditions. It was found that formic acid can be converted into methanol by such means. The highest yield of methanol (30.4%) was attained with a temperature of 300 °C and a reaction time of 9 h. The AlO(OH) formed from Al oxidation may also play a catalytic role in the formation of methanol. This process may provide a promising solution to producing methanol from carbohydrate biomass combined with the process of converting the carbohydrate into formic acid, which is expected to emit no CO2.
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Catalytic conversion of formic acid into methanol was investigated with Cu as a catalyst and Al as a reductant under hydrothermal conditions. It was found that formic acid can be converted into methanol by such means. The highest yield of methanol (30.4%) was attained with a temperature of 300 °C and a reaction time of 9 h. The AlO(OH) formed from Al oxidation may also play a catalytic role in the formation of methanol. This process may provide a promising solution to producing methanol from carbohydrate biomass combined with the process of converting the carbohydrate into formic acid, which is expected to emit no CO2.
Key concepts: Formic acid, Methanol, Catalysis, Hydrothermal circulation, Yield (engineering), Chemistry, Inorganic chemistry, Materials science