A kind of pearlite type multi-principal element wear-resistant alloy and its preparation method
A wear-resistant alloy and multi-principal element technology, which is applied in the field of pearlite multi-principal wear-resistant alloy and its preparation, can solve the problem that the high-temperature hardness, strength and wear resistance performance cannot be achieved at the same time, corrosion resistance and high temperature resistance Weak performance and other problems, to achieve the effect of improving strength and wear resistance, and preventing layer coarsening
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Embodiment 1
[0029] (1) Alloy design: select the elements, set the output conditions, realize the preliminary design of the alloy based on the genetic algorithm, and determine the mass percentage range of each element in the alloy required for the formation of the pearlite structure in the multi-principal element alloy according to the thermodynamic phase diagram. Fe: 40wt.%, Co: 22wt.%, Ni: 22wt.%, Ti: 16wt.%.
[0030] (2) Vacuum smelting: Put the granular / block raw materials with atomic percentages of 45% iron, 21% cobalt, 22% nickel and 12% titanium (purity greater than 99.99%) into a vacuum induction melting furnace , evacuated to 1×10 -3 Pa, smelting current: 400A, introduce magnetic stirring and then smelt for 1-3 times. After the alloy is completely melted and has the best fluidity, pour it into the mold directly and quickly, and finally cool it into a square ingot with the furnace;
[0031] (3) Homogenization treatment: the ingot is placed in a muffle furnace, vacuumed, filled wit...
Embodiment 2
[0037] (1) Alloy design: select the elements, set the output conditions, realize the preliminary design of the alloy based on the genetic algorithm, and determine the mass percentage range of each element in the alloy required for the formation of the pearlite structure in the multi-principal element alloy according to the thermodynamic phase diagram. Fe: 45wt.%, Co: 25wt.%, Ni: 25wt.%, Ti: 5wt.%.
[0038] (2) Vacuum smelting: Put the granular / block raw materials with atomic percentages of 40% iron, 24% cobalt, 22% nickel and 14% titanium (purity greater than 99.99%) into a vacuum induction melting furnace , vacuumed to 5×10 -3 Pa, smelting current: 300A, introduce magnetic stirring and then smelt for 1-3 times. After the alloy is completely melted and has the best fluidity, pour it into the mold directly and quickly, and finally cool it into a square ingot with the furnace;
[0039] (3) Homogenization treatment: the ingot is placed in a muffle furnace, vacuumed, filled with ...
Embodiment 3
[0043] (1) Alloy design: select the elements, set the output conditions, realize the preliminary design of the alloy based on the genetic algorithm, and determine the mass percentage range of each element in the alloy required for the formation of the pearlite structure in the multi-principal element alloy according to the thermodynamic phase diagram. Fe: 42wt.%, Co: 24wt.%, Ni: 24wt.%, Ti: 10wt.%.
[0044] (2) Vacuum smelting: Put the granular / block raw materials with atomic percentages of 43% iron, 22% cobalt, 22% nickel and 13% titanium (purity greater than 99.99%) into a vacuum induction melting furnace , evacuated to 1×10 -4 Pa, smelting current: 500A, introduce magnetic stirring and then smelt for 1~3 times. After the alloy is completely melted and has the best fluidity, pour it into the mold directly and quickly, and finally cool it into a square ingot with the furnace;
[0045] (3) Homogenization treatment: the ingot is placed in a muffle furnace, vacuumed, filled wit...
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