Easily activated hydrogen storage alloy, its manufacturing method and melting equipment
A hydrogen storage alloy and a manufacturing method technology, applied in the field of hydrogen energy, can solve the problems of hours to tens of hours, even repeated hydrogen charging and discharging several times to a dozen times, effective hydrogen storage density of sacrificial alloys, poor activation performance, etc. , to achieve the effect of reducing labor input, eliminating crushing and pulverizing processes, and saving hydrogen
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Embodiment 1 to 5
[0056] The contents of Examples 1 to 5 are shown in Table 1.
[0057] Table 1 Representative formula components of easily activatable titanium-iron hydrogen storage alloys of the present invention
[0058]
Embodiment 6
[0061] A kind of easily activatable titanium-iron series hydrogen storage alloy Ti in embodiment 1 in above-mentioned table 1 50 Fe 40 mn 5 Cr 5 - (TiFe) 44 Nb 56 , the preparation method adopted is as follows:
[0062] According to embodiment 1 formula titanium-iron series hydrogen storage alloy main component Ti 50 Fe 40 mn 5 Cr 5 Prepare raw materials. Among them, the titanium material is made of industrial sea surface titanium with a purity of 98%, which is cleaned and dried with weak acid, the iron material is made of 99% pure metal iron rod, and the surface oxide scale is removed by grinding wheel, and the manganese material is made of sheet metal with a purity of 99%. Manganese and chromium are metal chromium blocks with a purity of 98%. After the above raw materials are crushed, they are mixed and stacked in a three-high graphite crucible coated with BN oil on the surface of the induction melting furnace, and the induction melting furnace is evacuated to 5×10...
Embodiment 7
[0064] A kind of easily activatable titanium-iron series hydrogen storage alloy Ti in embodiment 2 in above-mentioned table 1 38 (FeV 80 ) 12 Fe 40 mn 10 - (TiFe) 44 Nb 56 , the preparation method adopted is as follows:
[0065] According to embodiment 2 formula titanium-iron series hydrogen storage alloy main component Ti 38 (FeV 80 ) 12 Fe 40 mn 10 Prepare raw materials. Among them, the titanium raw material adopts industrial titanium rods with a purity of 98%, FeV 80 The raw materials are block materials that meet the national standards. The iron raw materials are made of pure metal iron rods with a purity of 99%. The above three raw materials are all polished by grinding wheels to remove surface scale and impurities. The manganese raw materials are made of sheet metal manganese with a purity of 99%. After the raw materials are chopped and mixed, they are placed in a specially designed water-cooled copper crucible in an electric arc melting furnace, and the vac...
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