Hydrogen manufacturing method implemented by using iron-based oxide through enhancement of magnetic field
An iron-based oxide, magnetic field strengthening technology, applied in the production of hydrogen and other directions, can solve the problems of reducing the surface activity of metal oxide particles, metal oxides cannot be recycled, and cannot be applied in industrial production, etc., to improve the reactivity of materials, The effect of increasing the number of cycles and improving the utilization rate
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Embodiment 1
[0019] The method for producing hydrogen from a magnetic field-enhanced iron-based oxide has the following specific steps:
[0020] (1) Reduction reaction of iron-based oxides: Under a magnetic field of 75 gauss (stable magnetic field), raise the temperature of 100g of iron-based oxides to 850°C, and then introduce a mixture of reducing gas and carrier gas with a flow rate of 500ml / min The gas reduction reaction was 3h to obtain the iron reduction product, in which the iron-based oxide was Fe 3 o 4 , the particle size is 20~40 mesh, the reducing gas is CH 4 , the carrier gas is N 2 , CH 4 with N 2 The volume ratio is 20:80, during this process CH 4 Oxidized to CO 2 with H 2 O mixed gas;
[0021] (2) Hydrogen production method: under a magnetic field of 75 gauss, the flow rate of 1.8 cm into the iron reduction product obtained in step (1) is 3 / min oxidizing gas and 500ml / min nitrogen carrier gas were reacted for 1 h to obtain hydrogen and regenerated iron-based oxides...
Embodiment 2
[0024] The method for producing hydrogen from a magnetic field-enhanced iron-based oxide has the following specific steps:
[0025] (1) Reduction reaction of iron-based oxides: Under a magnetic field of 75 gauss (stable magnetic field), raise the temperature of 100g of iron-based oxides to 850°C, and then pass in a mixed gas consisting of reducing gas and carrier gas with a flow rate of 500ml / min The reduction reaction was 3h to obtain the iron reduction product, and the iron-based oxide was CeFeO 3 Powder, particle size is 20~40 mesh, reducing gas is CH 4 , the carrier gas is N 2 , CH 4 with N 2 The volume ratio is 15:85, during which CH 4 Oxidation to CO and H 2 O mixed gas;
[0026] (2) Hydrogen production method: under a magnetic field of 75 gauss, the flow rate of 1.8 cm into the iron reduction product obtained in step (1) is 3 / min water vapor oxidation gas and 500ml / min nitrogen carrier gas were reacted for 1h to obtain hydrogen and regenerated iron-based oxides....
Embodiment 3
[0029] The method for producing hydrogen from a magnetic field-enhanced iron-based oxide has the following specific steps:
[0030] (1) Reduction reaction of iron-based oxides: Under a magnetic field of 75 gauss (stable magnetic field), raise the temperature of 100g of iron-based oxides to 900°C, and then pass in a mixed gas consisting of reducing gas and carrier gas with a flow rate of 500ml / min The reduction reaction was 5h to obtain the iron reduction product, wherein the iron-based oxide was Fe 3 o 4 , the particle size is 20~40 mesh, the reducing gas is synthesis gas, the volume ratio of synthesis gas to nitrogen is 40:60, H 2 The molar ratio with CO is 2:1, and the carrier gas is nitrogen;
[0031] (2) Hydrogen production method: under a magnetic field of 75 gauss, the flow rate of 1.8 cm into the iron reduction product obtained in step (1) is 3 / min water vapor oxidation gas and 500ml / min carrier gas react for 3h to obtain hydrogen and regenerated iron-based oxides. ...
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