Titanium-based high-temperature wear-resistant coating and ultrahigh-speed laser cladding method thereof
A high-temperature wear-resistant and laser cladding technology, which is used in coatings and metal material coating processes to shorten the powder melting time, improve high-temperature oxidation resistance, and excellent high-temperature oxidation resistance.
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Embodiment 1
[0019] Titanium-based alloy powder, the raw material of the titanium-based high-temperature wear-resistant coating in this embodiment, has a chemical composition mass fraction of: 3.0%C, 14.0%W, 30.0%Al, 3.5%B, 3.0%V, 2.5%Nb, and the balance For Ti and unavoidable impurities.
[0020] The titanium-based alloy powder particle size distribution: 20-100µm, fluidity 35.3s / 100g.
[0021] The ultra-high-speed laser cladding method of the titanium-based high-temperature wear-resistant coating in this embodiment includes the following steps:
[0022] (1) Polish the surface of the workpiece with 400 mesh sandpaper and clean it with acetone;
[0023] (2) Dry the titanium-based alloy powder in a drying oven at a drying temperature of 150°C and a drying time of 2 hours;
[0024] (3) The titanium-based alloy powder in step (2) is fed through synchronous powder feeding method, the powder feeding rate is 8g / min, the powder feeding gas flow rate is 6L / min, and a high-power semiconductor las...
Embodiment 2
[0027] Titanium-based alloy powder, the raw material of the titanium-based high-temperature wear-resistant coating in this embodiment, has a chemical composition mass fraction of: 4.0%C, 16.0%W, 25.0%Al, 4.5%B, 5.0%V, 2.0%Nb, and the balance For Ti and unavoidable impurities.
[0028] The titanium-based alloy powder particle size distribution: 20-100µm, fluidity 37.8s / 100g.
[0029] The ultra-high-speed laser cladding method of the titanium-based high-temperature wear-resistant coating in this embodiment includes the following steps:
[0030] (1) Polish the surface of the workpiece with 400 mesh sandpaper and clean it with acetone;
[0031] (2) Dry the titanium-based alloy powder in a drying oven at a drying temperature of 120°C and a drying time of 3 hours;
[0032] (3) The titanium-based alloy powder in step (2) is fed through a synchronous powder feeding method, the powder feeding rate is 12g / min, the powder feeding gas flow rate is 8L / min, and a high-power semiconductor ...
Embodiment 3
[0035] Titanium-based alloy powder, the raw material of the titanium-based high-temperature wear-resistant coating in this embodiment, has a chemical composition mass fraction of: 7.0%C, 17.0%W, 20.0%Al, 2.5%B, 4.0%V, 4.5%Nb, and the balance For Ti and unavoidable impurities.
[0036] The titanium-based alloy powder particle size distribution: 20-100µm, fluidity 39.4s / 100g.
[0037] The ultra-high-speed laser cladding method of the titanium-based high-temperature wear-resistant coating in this embodiment includes the following steps:
[0038] (1) Polish the surface of the workpiece with 400 mesh sandpaper and clean it with acetone;
[0039] (2) Dry the titanium-based alloy powder in a drying oven at a drying temperature of 100°C and a drying time of 5 hours;
[0040] (3) The titanium-based alloy powder in step (2) is fed through a synchronous powder feeding method with a powder feeding rate of 15g / min and a powder feeding gas flow rate of 10L / min. A high-power semiconductor ...
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Abstract
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