Iron-containing catalyst, and preparation method and application thereof
A catalyst and a technology for catalytic activity, applied in the field of iron-containing catalysts and their preparation, can solve the problems of high energy consumption, high cost and the like, and achieve the effect of good catalytic performance
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Embodiment 1
[0038] Embodiment 1: preparation embodiment
[0039]Based on the principle of isotope separation, the natural iron oxide is separated through the F-3 magnetic separation device of China Institute of Atomic Energy. Fe-54-20. The separated iron oxide was collected at the outlet, and detected by ICP-MS, the abundance of Fe-54 was 20%, the abundance of Fe-56 was 70%, and the abundance of Fe-57 was 10%.
[0040] Convert the above separated iron oxide into ferric nitrate and prepare a 1mol / L solution, convert the nickel oxide with natural isotope abundance into nickel nitrate and prepare a 1mol / L solution, use ammonium carbonate as the alkali source, pass water Catalyst is prepared by thermal method, the specific method is as follows:
[0041] Take 20ml of ferric nitrate and nickel nitrate solutions, mix them, add 2.0g of sodium acetate, stir for 1h, keep the temperature at 40°C for 2h, and dry at 80°C to obtain the catalyst precursor. The catalyst precursor was added to 50ml of ...
Embodiment 2
[0042] Embodiment 2: preparation embodiment
[0043] Based on the principle of isotope separation, the natural iron oxide is separated through the F-3 magnetic separation device of China Institute of Atomic Energy. Fe-54-100. The separated iron oxide is collected at the outlet, and detected by ICP-MS, the Fe-54 abundance is 100%.
[0044] Convert the above separated iron oxide into ferric nitrate and prepare a 1mol / L solution, convert the nickel oxide with natural isotope abundance into nickel nitrate and prepare a 1mol / L solution, use ammonium carbonate as the alkali source, pass water Catalyst is prepared by thermal method, the specific method is as follows:
[0045] Take 20ml of ferric nitrate and nickel nitrate solutions, mix them, add 2.0g of sodium acetate, stir for 1h, keep the temperature at 40°C for 2h, and dry at 80°C to obtain the catalyst precursor. The catalyst precursor was added to 50ml of urea solution with a concentration of 2.0mol / L, hydrothermally treated...
Embodiment 3
[0046] Embodiment 3: preparation embodiment
[0047] Based on the principle of isotope separation, the natural iron oxide is separated through the F-3 magnetic separation device of China Institute of Atomic Energy. Fe-56-20. The separated iron oxide was collected at the outlet, and detected by ICP-MS, the abundance of Fe-56 was 20%, the abundance of Fe-57 was 40%, and the abundance of Fe-58 was 40%.
[0048] Convert the above separated iron oxide into ferric nitrate and prepare a 1mol / L solution, convert the nickel oxide with natural isotope abundance into nickel nitrate and prepare a 1mol / L solution, use ammonium carbonate as the alkali source, pass water Catalyst is prepared by thermal method, the specific method is as follows:
[0049] Take 20ml of ferric nitrate and nickel nitrate solutions, mix them, add 2.0g of sodium acetate, stir for 1h, keep the temperature at 40°C for 2h, and dry at 80°C to obtain the catalyst precursor. The catalyst precursor was added to 50ml of...
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