Iron - cobalt - based toughness nanocrystalline soft magnetic alloy and preparation method thereof
A nanocrystalline soft magnetic, iron-cobalt-based technology, applied in the direction of magnetic materials, magnetic objects, electrical components, etc., can solve the problems of iron-based nanocrystalline alloy strips, such as bending brittleness, few results reported, etc., to achieve superior soft magnetic properties. energy, high saturation magnetic induction, excellent mechanical properties and machinability
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Embodiment 1
[0065] An iron-cobalt-based ductile nanocrystalline soft magnetic alloy (Fe 0.8 co 0.2 ) 100-x B x The preparation method of (x=13,14,15) is prepared according to the following steps:
[0066] Step 1, according to the composition expression ((Fe 0.8 co 0.2 ) 87 B 13 , (Fe 0.8 co 0.2 ) 86 B 14 and (Fe 0.8 co 0.2 ) 85 B 15 ) convert the atomic percentage into mass percentage to configure the raw materials, weigh high-purity Fe of corresponding quality, Co, and B and mix them for use. See Table 1 for the purity of Fe, Co, and B and the manufacturer.
[0067] Step 2, put the raw materials configured in step 1 in a vacuum arc melting furnace, and vacuumize to 9.5×10 -3Pa, fill with argon, under the protection of argon, heat the raw material to be completely melted and uniform after 3 times of smelting, then cool to room temperature 20-25°C to make a master alloy ingot; crush the master alloy ingot to 0.1- 0.6mm, ultrasonic cleaning in alcohol for 45min.
[0068] St...
Embodiment 2
[0081] An iron-cobalt-based ductile nanocrystalline soft magnetic alloy (Fe 0.8 co 0.2 ) 99-x B x Mo 1 The preparation method of (x=13,14) is prepared according to the following steps:
[0082] Step 1, according to the composition expression ((Fe 0.8 co 0.2 ) 86 B 13 Mo 1 and (Fe 0.8 co 0.2 ) 85 B 14 Mo 1 ) Convert the atomic percentage to mass percentage to configure the raw materials, weigh high-purity Fe, Co, B, and Mo of the corresponding quality and mix them for use. See Table 1 for the purity and manufacturer of Fe, Co, B, and Mo.
[0083] Step 2, put the raw materials configured in step 1 in a vacuum arc melting furnace, and vacuumize to 9.5×10 -3 Pa, fill with argon, under the protection of argon, heat the raw material to be completely melted and uniform after 3 times of smelting, then cool to room temperature 20-25°C to make a master alloy ingot; crush the master alloy ingot to 0.1- 0.6mm, ultrasonic cleaning in alcohol for 45min.
[0084] Step 3, plac...
Embodiment 3
[0092] An iron-cobalt-based ductile nanocrystalline soft magnetic alloy (Fe 0.8 co 0.2 ) 84 B 14 Mo 2 The preparation method is prepared according to the following steps:
[0093] Step 1, according to the composition expression (Fe 0.8 co 0.2 ) 84 B 14 Mo 2 Convert atomic percentages to mass percentages to configure raw materials, weigh high-purity Fe, Co, B, and Mo of corresponding quality and mix them for use. See Table 1 for the purity and manufacturers of Fe, Co, B, and Mo.
[0094] Step 2, put the raw materials configured in step 1 in a vacuum arc melting furnace, and vacuumize to 9.5×10 -3 Pa, fill with argon, under the protection of argon, heat the raw material to be completely melted and uniform after 3 times of smelting, then cool to room temperature 20-25°C to make a master alloy ingot; crush the master alloy ingot to 0.1- 0.6mm, ultrasonic cleaning in alcohol for 45min.
[0095] Step 3, place the master alloy ingot of the small piece cleaned in step 2 in ...
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