Low temperature methanol synthesis in a liquid medium
is a candidate technique reported in the literature. According toXu et al. (2009), this technology is expected to produce
methanol more efficiently than the conventional methanol
production processes using Cu/ZnO-based catalysts, due to
the fact that it has several advantages over the conventional
process, i.e., thermodynamically favourable low temperature
operation and efficient removal of the heat of reaction due to
the large heat capacity of a liquid medium. Recently,Liu et al.
(2007) employed a novel low-temperature route in an autoclave for the efficient conversion of CO2into methanol. Using
this process, 25.9% CO2conversion and 72.9% methanol selectivity was achieved at a low temperature of 443 K and pressure
of 5 MPa using alcohol as solvent.
Low temperature methanol synthesis in a liquid mediumis a candidate technique reported in the literature. According toXu et al. (2009), this technology is expected to producemethanol more efficiently than the conventional methanolproduction processes using Cu/ZnO-based catalysts, due tothe fact that it has several advantages over the conventionalprocess, i.e., thermodynamically favourable low temperatureoperation and efficient removal of the heat of reaction due tothe large heat capacity of a liquid medium. Recently,Liu et al.(2007) employed a novel low-temperature route in an autoclave for the efficient conversion of CO2into methanol. Usingthis process, 25.9% CO2conversion and 72.9% methanol selectivity was achieved at a low temperature of 443 K and pressureof 5 MPa using alcohol as solvent.
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