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Titanium-based tungstenic alloy material used for 3D printing and preparation method thereof

A titanium-based alloy, 3D printing technology, applied in the direction of additive processing, etc., can solve the problems of poor plastic shear deformation resistance and wear resistance, low strain hardening index, limited use, etc., to break through limitations and resist high temperature wear. Excellent performance, high temperature hardness effect

Active Publication Date: 2017-05-31
康硕电气集团有限公司
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  • Summary
  • Abstract
  • Description
  • Claims
  • Application Information

AI Technical Summary

Problems solved by technology

However, due to the low strain hardening index of titanium and titanium alloys (approximately 0.15), the plastic shear deformation resistance and wear resistance are poor, which limits the use of its parts under high temperature and corrosive wear conditions.

Method used

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  • Titanium-based tungstenic alloy material used for 3D printing and preparation method thereof
  • Titanium-based tungstenic alloy material used for 3D printing and preparation method thereof

Examples

Experimental program
Comparison scheme
Effect test

Embodiment 1

[0035] Please refer to figure 1 Take 1.5 kg of tungsten carbide powder, 0.5 kg of nickel powder, 0.8 kg of niobium powder, 0.3 kg of vanadium powder, 0.8 kg of copper powder, 1.0 kg of molybdenum powder, and 5.1 kg of titanium powder. The thickness is 30-150 μm, and the oxygen content is 0.07-0.12%. Put the obtained powder into a powder mixer and mix for 10 minutes until the mixture is uniform.

[0036] The mixed powder is sintered and subjected to alloy homogenization.

[0037] The product is mechanically alloyed to obtain a powder product. Mechanical alloying is a complex physical and chemical process in which powder undergoes repeated deformation, cold welding, and crushing through high-energy ball milling to achieve alloying at the atomic level between elements.

[0038] The alloy powder particles are spherical in shape, the particle diameter is 30-150 μm, and the oxygen content is 0.07-0.12%.

[0039] 3D printing with the obtained finished powder, the printing paramet...

Embodiment 2

[0042] Take 2.0 kg of tungsten carbide powder, 0.4 kg of nickel powder, 0.6 kg of niobium powder, 0.2 kg of vanadium powder, 0.7 kg of copper powder, 0.8 kg of molybdenum powder, and 5.3 kg of titanium powder. 30~150μm, oxygen content is 0.07~0.12%. Put the obtained powder into a powder mixer and mix for 10 minutes until the mixture is uniform.

[0043] The mixed powder is sintered and subjected to alloy homogenization.

[0044] The product is mechanically alloyed to obtain a powder product. Mechanical alloying is a complex physical and chemical process in which powder undergoes repeated deformation, cold welding, and crushing through high-energy ball milling to achieve alloying at the atomic level between elements.

[0045] The alloy powder particles are spherical in shape, the particle diameter is 30-150 μm, and the oxygen content is 0.07-0.12%.

[0046] 3D printing with the obtained finished powder, the printing parameters are: construction speed: 40cm 3 / h, laser scann...

Embodiment 3

[0049] Take 2.5 kg of tungsten carbide powder, 0.3 kg of nickel powder, 0.4 kg of niobium powder, 0.2 kg of vanadium powder, 0.6 kg of copper powder, 0.6 kg of molybdenum powder, and 5.4 kg of titanium powder. 30~150μm, oxygen content is 0.07~0.12%. Put the obtained powder into a powder mixer and mix for 10 minutes until the mixture is uniform.

[0050] The mixed powder is sintered and subjected to alloy homogenization.

[0051] The product is mechanically alloyed to obtain a powder product. Mechanical alloying is a complex physical and chemical process in which powder undergoes repeated deformation, cold welding, and crushing through high-energy ball milling to achieve alloying at the atomic level between elements.

[0052] The alloy powder particles are spherical in shape, the particle diameter is 30-150 μm, and the oxygen content is 0.07-0.12%.

[0053] 3D printing with the obtained finished powder, the printing parameters are: construction speed: 40cm 3 / h, laser scann...

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Abstract

The invention discloses a titanium-based tungstenic alloy material used for 3D printing. The material contains tungsten carbide, nickel, niobium, vanadium, copper, molybdenum and titanium. A preparation method comprises the steps that metal powder is fully mixed after component design is completed; the mixed powder is subjected to sintering and alloy homogenizing; and then alloy powder is obtained through mechanical alloying. A 3D printing finished product of the obtained material has the advantages of being low in weight, high in high-temperature hardness, excellent in high-temperature abrasion resistance, and resistant to corrosion.

Description

technical field [0001] The invention relates to the field of metal powder preparation, in particular to a titanium-based alloy material for 3D printing containing tungsten and a preparation method thereof. Background technique [0002] The core of 3D printing technology is equipment and materials. With the development of 3D printing technology, 3D printing equipment is mature, but currently there are few types of materials available for 3D printing and unstable performance, which has become a bottleneck problem restricting the development and application of 3D printing technology. The metal powder materials used in traditional powder metallurgy cannot fully adapt to the 3D printing process. At present, there are few types of metal powders, high prices, and low degree of productization. [0003] Titanium alloy has excellent comprehensive properties such as low density, high specific strength, high specific stiffness, corrosion resistance, high temperature mechanical properti...

Claims

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Application Information

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IPC IPC(8): C22C14/00C22C32/00C22C30/02C22C1/05C22C1/10B22F9/04B22F1/00B33Y70/00
CPCB22F1/0003B22F9/04B22F2009/041B33Y70/00C22C1/05C22C14/00C22C30/02C22C32/0052
Inventor 蒋旻刘斌樊一杨刘致平段戈杨
Owner 康硕电气集团有限公司
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