Catalyst used for CO hydrogenation to prepare isobutanol, and method for preparing isobutanol through CO hydrogenation
A technology for producing isobutanol and catalysts, which is applied in the direction of metal/metal oxide/metal hydroxide catalysts, chemical instruments and methods, preparation of hydroxyl compounds, etc. It can solve the problem of large influence of temperature, high temperature, and influence on catalyst stability and other issues to achieve good stability, high activity and selectivity
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[0024] The present invention has no special requirements on the preparation method of the catalyst, as long as it meets the above composition. For example, when the catalyst described in the present invention is an alloy catalyst, it only needs to be formulated according to the composition of the catalyst of the present invention to prepare an alloy catalyst.
[0025] As another example, when the catalyst needs to be prepared as an amorphous alloy catalyst, its preparation method can also be a conventional preparation method in the field, and any existing method for preparing an amorphous alloy catalyst can be used. For the present invention, preferably said amorphous alloy catalyst can be prepared according to the following steps:
[0026] Zirconium, copper, silicon, aluminum and or not with one or more of Group IB metals other than copper, Group IIB metals, Group IVB metals other than zirconium, Group VB metals, Group VIB metals and Group VIII metals The metal is heated to m...
Embodiment 1
[0040] Add 1.5kg of zirconium, 0.5kg of copper, 0.1kg of cobalt, 0.5kg of silicon and 2.5kg of aluminum into a graphite crucible, heat it in a high-frequency furnace until it melts, and then spray the melt from the nozzle of the crucible to a speed of On the 800 rpm copper roller, cooling water is passed through the copper roller, the alloy liquid is rapidly cooled at a cooling rate greater than 1000°C / s, and then thrown out along the tangent of the copper roller to form scale-like strips, which are ground to The particle diameter is below 50 microns, resulting in a master alloy. Slowly add 50 g of the master alloy into a three-neck flask filled with 500 g of 20% by weight sodium hydroxide aqueous solution, control its temperature to 60°C and stir at a constant temperature for 1 hour, stop heating and stirring, and filter off the liquid; use 100°C distilled water Wash to pH 7. The prepared catalyst is numbered Catalyst-1, and the composition of Catalyst-1 is shown in Table 1....
Embodiment 2
[0042] Add 1.5kg of zirconium, 0.5kg of copper, 0.5kg of silicon and 2.5kg of aluminum into a graphite crucible, heat it in a high-frequency furnace until it melts, and then spray the molten liquid from the nozzle of the crucible to a rotating speed of 800 rpm On the copper roller, cooling water is passed through the copper roller, and the alloy liquid is rapidly cooled at a cooling rate greater than 1000°C / s and then thrown out along the tangent of the copper roller to form scale-like strips, which are ground to a particle diameter of 50 Below microns, a master alloy is obtained. Slowly add 50 g of the master alloy into a three-neck flask filled with 500 g of 20% by weight sodium hydroxide aqueous solution, control its temperature to 60°C and stir at a constant temperature for 1 hour, stop heating and stirring, and filter off the liquid; use 100°C distilled water Wash to pH 7. The prepared catalyst is numbered Catalyst-2, and the composition of Catalyst-2 is shown in Table 1...
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