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Spray coating processing SPRAY PROCESSING

Introduction to Titanium-Based Powder Materials
+
  • Introduction to Titanium-Based Powder Materials

Introduction to Titanium-Based Powder Materials


Titanium-based powder materials are powder-form products made from metallic titanium (Ti) as the base material, processed through various manufacturing techniques. They inherit titanium’s core advantages—such as "high strength, low density, excellent corrosion resistance, and outstanding biocompatibility"—while also possessing the characteristics of powder materials, including "near-net-shape forming capability and the potential for functional coatings." These materials find extensive applications in fields such as aerospace, medical devices, high-end manufacturing, and new energy. The following sections provide a systematic analysis, covering classification, core performance, preparation processes, typical applications, and development trends.

Key words :
Request for quotation Phone: 020-84836251

Product Description

Introduction to Titanium-Based Powder Materials

  1. Spherical Ti-50Ta Alloy powder

Spherical Ti-50Ta The alloy powder is made of titanium ( You ) and thallium ( You An alloy powder composed of elements, in which the titanium content is: 50% This alloy powder boasts excellent performance and is suitable for a variety of high-end applications.

① Feature

- High strength and lightweight: The alloy of titanium and thallium retains titanium’s high strength and lightweight characteristics, enabling... Ti-50Ta Alloy powders, while maintaining a relatively low density, exhibit excellent mechanical properties, making them ideal for applications that require high strength and low weight.

- Biocompatibility: Titanium itself exhibits excellent biocompatibility. Ti-50Ta When used in the medical field, alloys can effectively prevent rejection reactions in the human body and are particularly well-suited for use as implants.

- Corrosion resistance: Thallium can significantly enhance the corrosion resistance of alloys. Ti-50Ta Alloy powders exhibit strong stability in corrosive environments such as seawater and chemical media.

- High-temperature resistance: Ti-50Ta The alloy powder exhibits excellent high-temperature stability and can maintain good mechanical properties at elevated temperatures, making it suitable for high-temperature environments.

- Machinability: The spherical particle morphology of the alloy powder ensures excellent flowability in additive manufacturing, which facilitates the production of high-precision components.

②   Application areas

- Medical implants: Ti-50Ta The biocompatibility and corrosion resistance of alloy powders have led to their widespread use in the medical field, particularly in biomedical devices such as artificial joints, orthopedic implants, and dental implants.

- Aerospace: Due to its lightweight and high-strength characteristics, Ti-50Ta Alloy powders can be used in structural components and engine parts in the aerospace industry, making them particularly suitable for applications that demand high strength and low weight.

- High-Temperature and Corrosion-Resistant Equipment: This alloy powder can be used to manufacture high-temperature and corrosion-resistant equipment and components, such as chemical reactors and heat exchangers, making it suitable for long-term use in extreme environments.

- Additive manufacturing: Ti-50Ta Alloy powders are highly suitable for additive manufacturing. 3D Additive manufacturing technology, particularly in the aerospace and medical fields, enables the creation of components with complex geometries and superior performance.

- High-performance structural materials: In addition, Ti-50Ta Alloy powders can also be used to manufacture high-strength structural materials and are widely applied in fields such as the automotive industry and military equipment.

 

 

 

 

 

 

 

  1. Titanium-tantalum alloy

Titanium-tantalum alloy powder is made from titanium ( You ) as the matrix, tantalum ( You ) A new type of functional material with the primary alloying element, whose typical composition is: Ti-20TaTi-30Ta (mass fraction), which can be achieved by adding niobium ( Nb ), zircon ( Zirconium )、oxygen ( O ) and other elements regulate performance.

2.1 Feature

Low density and high specific strength: Density 6.5–10.5 g/cm³ (Far lower than pure tantalum) 16.6 g/cm³ ), tensile strength 800-1200 MPa , elongation 15%-25% It combines the lightweight, high-strength properties of titanium alloy with the high-temperature resistance of tantalum.

Outstanding corrosion resistance: The addition of tantalum enables the alloy to withstand aqua regia, concentrated nitric acid, and high-temperature hydrochloric acid ( >150℃ ) performs exceptionally well in extreme corrosive environments, with a corrosion rate of... ≤0.01 mm / Year, far exceeding pure titanium and Ti-6Al-4V Alloy.

Excellent biocompatibility: Naturally formed on the surface TiO₂-Ta₂O₅ Composite oxide film (thickness) 5-10 nm ) Exhibits extremely low cytotoxicity and hemolytic rate. < 0.1% Its bone-bonding ability is superior to that of pure titanium and is compliant. ISO 10993 Biosafety standards.

Wide temperature range adaptability: Operating temperature range - 253℃ (Liquid hydrogen environment) to 800℃ No brittle transition at low temperatures, and enhanced high-temperature oxidation resistance compared to pure titanium. 3 Twice ( 700℃ Oxidation weight gain ≤5 mg/cm² )

2.2 Physical properties

Sphericity and Flowability: Sphericity of Atomized Powders ≥95% Satellite ball proportion < 3% Hall flow rate ≤12 s/50g , suitable for laser selective melting ( SLM ) Electron beam melting ( EBM ) and other additive manufacturing technologies.

Particle Size Distribution: Commonly Used Particle Size Ranges 15–53 μm (Additive manufacturing), 50-150 μm (Powder Metallurgy), Particle Size Uniformity Index (Span Factor) ≤1.5 loose bulk density 3.5–5.0 g/cm³ Vibrated density 5.5–7.0 g/cm³

Purity Control: Oxygen Content ≤1000 ppm (Medical-grade) /2000 ppm (Industrial grade), nitrogen content ≤100 ppm , carbon content ≤50 ppm , impurity elements ( Fe You W ) Total amount < 0.1%

 

2.3 Application areas

1. Additive manufacturing ( 3D Printing): Used to manufacture metal parts with complex structures, such as aerospace components, industrial molds, and consumer goods.

2. Chemical Engineering and Ocean Engineering: Used for manufacturing corrosion-resistant equipment and catalyst supports.

3. Electronics and Energy: Used for manufacturing current collectors for lithium-ion batteries and fuel cells.

 

  1. Spherical Ni-Ti Alloy powder

Spherical Ni-Ti Alloy powder is a metallic powder composed of nickel and titanium elements, featuring a regular spherical shape. It is characterized by its well-defined morphology and uniform particle size, and exhibits excellent shape memory effect, superelasticity, corrosion resistance, and biocompatibility. It is widely used in fields such as biomedicine, aerospace, and electronics.

Spherical Ni-Ti Alloy powders are functional materials with unique shape-memory effects and superelasticity, widely used in the fields of medicine, aerospace, and smart materials.

3.1 Feature

1 High sphericity: spherical Ni-Ti The alloy powder particles have a regular shape and excellent flowability, making them suitable for additive manufacturing and powder metallurgy.

2 High density: Ni-Ti The density of the alloy is approximately 6.45 g/cm³ It can provide good mechanical strength.

3 Phase transition temperature: Ni-Ti The alloy has a unique martensitic transformation temperature. Ms. Mf As Af ), which can be precisely controlled by adjusting the composition.

4 Good thermal and electrical conductivity: suitable for thermal management and electronic applications.

5 Excellent corrosion resistance: Ni-Ti The alloy forms a dense oxide layer at room temperature, exhibiting excellent corrosion resistance, particularly outstanding performance in biological environments.

6 Biocompatibility: Ni-Ti The alloy is non-toxic and harmless to human tissues, making it suitable for medical implants.

7 Chemical stability: It exhibits stability in most chemical environments and is unlikely to react with other substances.

8 Shape memory effect: Ni-Ti When an alloy is heated above its phase-transition temperature, it can recover its original shape.

9 Superelasticity: Below the phase transition temperature, Ni-Ti The alloy exhibits superelasticity, enabling it to withstand significant deformation and return to its original shape.

10 High fatigue life: Ni-Ti The alloy exhibits excellent fatigue performance under cyclic loading.

11 Good ductility: Suitable for processing and manufacturing complex shapes.

3.2 Application areas

1 Medical field

   - Orthopedic implants: Used to manufacture orthopedic implants such as spinal braces, bone screws, and bone plates.

   - Cardiovascular stents: Used in the manufacture of cardiovascular stents, leveraging their superelasticity and shape-memory effect.

   - Dental instruments: Used for manufacturing dental orthotics and implants.

   - Minimally Invasive Surgical Instruments: Used to manufacture minimally invasive surgical devices, such as catheters and guidewires.

2 Aerospace

   - Smart Structures: Used to manufacture smart structures such as morphing wings and satellite antennas.

   - Damping devices: Used to manufacture shock absorbers and dampers, leveraging their superelasticity.

   - High-temperature components: Components used to manufacture structural parts for operation in high-temperature environments.

3. Smart materials

   - Shape-memory alloy devices: Used to manufacture shape-memory alloy devices such as temperature sensors and actuators.

   - Robots: Actuators and joints used for manufacturing robots.

4 Industrial sector

   - Fasteners: Used to manufacture high-reliability connectors and fasteners.

   - Mold: A tool used to manufacture complex-shaped parts.

  1. Spherical TC4 Alloy powder

Shape TC4 Alloy powder based on titanium, containing alloying elements such as aluminum and vanadium, features a spherical shape and uniform particle size. It boasts high strength, low density, excellent corrosion resistance, and biocompatibility, making it widely used as titanium alloy powder in fields such as aerospace and biomedical applications.

Spherical TC4 Alloy powder

 

 

4.1 Feature

1 High strength and low density: TC4 ( Ti-6Al-4V ) is a titanium alloy with high strength (tensile strength of approximately 900 MPa ) and low density (approximately 4.43 g/cm³ ), with high specific strength.

2 Excellent corrosion resistance: TC4 It exhibits excellent corrosion resistance to a variety of corrosive media, such as seawater and chloride solutions.

3 Good biocompatibility: TC4 Widely used in medical implants, such as artificial joints and bone plates.

4 Excellent heat resistance: TC4 At high temperatures (about 400°C The following) still maintains good mechanical properties.

5 Spherical particle shape: spherical TC4 The powder has good flowability and is suitable for additive manufacturing (such as...). 3D Printing) and powder metallurgy processes.

4.2 , Application Fields

1 Aerospace: Used for manufacturing aircraft engine components, airframe structural parts, and rocket components.

2 Medical field: Used in the manufacture of artificial joints, dental implants, and orthopedic devices.

3 Additive manufacturing ( 3D Printed): Spherical TC4 The powder is metal. 3D Print (e.g., SLM EBM ) the key material.

4 Automotive industry: Used for manufacturing high-performance engine components and lightweight structural parts.

5 Chemical industry: Used for manufacturing corrosion-resistant reactors and pipelines.

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Spraying equipment SPRAY EQUIPMENT

Introduction to Titanium-Based Powder Materials
+
  • Introduction to Titanium-Based Powder Materials

Introduction to Titanium-Based Powder Materials


Titanium-based powder materials are powder-form products made from metallic titanium (Ti) as the base material, processed through various manufacturing techniques. They inherit titanium’s core advantages—such as "high strength, low density, excellent corrosion resistance, and outstanding biocompatibility"—while also possessing the characteristics of powder materials, including "near-net-shape forming capability and the potential for functional coatings." These materials find extensive applications in fields such as aerospace, medical devices, high-end manufacturing, and new energy. The following sections provide a systematic analysis, covering classification, core performance, preparation processes, typical applications, and development trends.

Key words:
Request for quotation E-mail:CarrieFeng07@outlook.com

Product Description

Introduction to Titanium-Based Powder Materials

  1. Spherical Ti-50Ta Alloy powder

Spherical Ti-50Ta The alloy powder is made of titanium ( You ) and thallium ( You An alloy powder composed of elements, in which the titanium content is: 50% This alloy powder boasts excellent performance and is suitable for a variety of high-end applications.

① Feature

- High strength and lightweight: The alloy of titanium and thallium retains titanium’s high strength and lightweight characteristics, enabling... Ti-50Ta Alloy powders, while maintaining a relatively low density, exhibit excellent mechanical properties, making them ideal for applications that require high strength and low weight.

- Biocompatibility: Titanium itself exhibits excellent biocompatibility. Ti-50Ta When used in the medical field, alloys can effectively prevent rejection reactions in the human body and are particularly well-suited for use as implants.

- Corrosion resistance: Thallium can significantly enhance the corrosion resistance of alloys. Ti-50Ta Alloy powders exhibit strong stability in corrosive environments such as seawater and chemical media.

- High-temperature resistance: Ti-50Ta The alloy powder exhibits excellent high-temperature stability and can maintain good mechanical properties at elevated temperatures, making it suitable for high-temperature environments.

- Machinability: The spherical particle morphology of the alloy powder ensures excellent flowability in additive manufacturing, which facilitates the production of high-precision components.

②   Application areas

- Medical implants: Ti-50Ta The biocompatibility and corrosion resistance of alloy powders have led to their widespread use in the medical field, particularly in biomedical devices such as artificial joints, orthopedic implants, and dental implants.

- Aerospace: Due to its lightweight and high-strength characteristics, Ti-50Ta Alloy powders can be used in structural components and engine parts in the aerospace industry, making them particularly suitable for applications that demand high strength and low weight.

- High-Temperature and Corrosion-Resistant Equipment: This alloy powder can be used to manufacture high-temperature and corrosion-resistant equipment and components, such as chemical reactors and heat exchangers, making it suitable for long-term use in extreme environments.

- Additive manufacturing: Ti-50Ta Alloy powders are highly suitable for additive manufacturing. 3D Additive manufacturing technology, particularly in the aerospace and medical fields, enables the creation of components with complex geometries and superior performance.

- High-performance structural materials: In addition, Ti-50Ta Alloy powders can also be used to manufacture high-strength structural materials and are widely applied in fields such as the automotive industry and military equipment.

 

 

 

 

 

 

 

  1. Titanium-tantalum alloy

Titanium-tantalum alloy powder is made from titanium ( You ) as the matrix, tantalum ( You ) A new type of functional material with the primary alloying element, whose typical composition is: Ti-20TaTi-30Ta (mass fraction), which can be achieved by adding niobium ( Nb ), zircon ( Zirconium )、oxygen ( O ) and other elements regulate performance.

2.1 Feature

Low density and high specific strength: Density 6.5–10.5 g/cm³ (Far lower than pure tantalum) 16.6 g/cm³ ), tensile strength 800-1200 MPa , elongation 15%-25% It combines the lightweight, high-strength properties of titanium alloy with the high-temperature resistance of tantalum.

Outstanding corrosion resistance: The addition of tantalum enables the alloy to withstand aqua regia, concentrated nitric acid, and high-temperature hydrochloric acid ( >150℃ ) performs exceptionally well in extreme corrosive environments, with a corrosion rate of... ≤0.01 mm / Year, far exceeding pure titanium and Ti-6Al-4V Alloy.

Excellent biocompatibility: Naturally formed on the surface TiO₂-Ta₂O₅ Composite oxide film (thickness) 5-10 nm ) Exhibits extremely low cytotoxicity and hemolytic rate. < 0.1% Its bone-bonding ability is superior to that of pure titanium and is compliant. ISO 10993 Biosafety standards.

Wide temperature range adaptability: Operating temperature range - 253℃ (Liquid hydrogen environment) to 800℃ No brittle transition at low temperatures, and enhanced high-temperature oxidation resistance compared to pure titanium. 3 Twice ( 700℃ Oxidation weight gain ≤5 mg/cm² )

2.2 Physical properties

Sphericity and Flowability: Sphericity of Atomized Powders ≥95% Satellite ball proportion < 3% Hall flow rate ≤12 s/50g , suitable for laser selective melting ( SLM ) Electron beam melting ( EBM ) and other additive manufacturing technologies.

Particle Size Distribution: Commonly Used Particle Size Ranges 15–53 μm (Additive manufacturing), 50-150 μm (Powder Metallurgy), Particle Size Uniformity Index (Span Factor) ≤1.5 loose bulk density 3.5–5.0 g/cm³ Vibrated density 5.5–7.0 g/cm³

Purity Control: Oxygen Content ≤1000 ppm (Medical-grade) /2000 ppm (Industrial grade), nitrogen content ≤100 ppm , carbon content ≤50 ppm , impurity elements ( Fe You W ) Total amount < 0.1%

 

2.3 Application areas

1. Additive manufacturing ( 3D Printing): Used to manufacture metal parts with complex structures, such as aerospace components, industrial molds, and consumer goods.

2. Chemical Engineering and Ocean Engineering: Used for manufacturing corrosion-resistant equipment and catalyst supports.

3. Electronics and Energy: Used for manufacturing current collectors for lithium-ion batteries and fuel cells.

 

  1. Spherical Ni-Ti Alloy powder

Spherical Ni-Ti Alloy powder is a metallic powder composed of nickel and titanium elements, featuring a regular spherical shape. It is characterized by its well-defined morphology and uniform particle size, and exhibits excellent shape memory effect, superelasticity, corrosion resistance, and biocompatibility. It is widely used in fields such as biomedicine, aerospace, and electronics.

Spherical Ni-Ti Alloy powders are functional materials with unique shape-memory effects and superelasticity, widely used in the fields of medicine, aerospace, and smart materials.

3.1 Feature

1 High sphericity: spherical Ni-Ti The alloy powder particles have a regular shape and excellent flowability, making them suitable for additive manufacturing and powder metallurgy.

2 High density: Ni-Ti The density of the alloy is approximately 6.45 g/cm³ It can provide good mechanical strength.

3 Phase transition temperature: Ni-Ti The alloy has a unique martensitic transformation temperature. Ms. Mf As Af ), which can be precisely controlled by adjusting the composition.

4 Good thermal and electrical conductivity: suitable for thermal management and electronic applications.

5 Excellent corrosion resistance: Ni-Ti The alloy forms a dense oxide layer at room temperature, exhibiting excellent corrosion resistance, particularly outstanding performance in biological environments.

6 Biocompatibility: Ni-Ti The alloy is non-toxic and harmless to human tissues, making it suitable for medical implants.

7 Chemical stability: It exhibits stability in most chemical environments and is unlikely to react with other substances.

8 Shape memory effect: Ni-Ti When an alloy is heated above its phase-transition temperature, it can recover its original shape.

9 Superelasticity: Below the phase transition temperature, Ni-Ti The alloy exhibits superelasticity, enabling it to withstand significant deformation and return to its original shape.

10 High fatigue life: Ni-Ti The alloy exhibits excellent fatigue performance under cyclic loading.

11 Good ductility: Suitable for processing and manufacturing complex shapes.

3.2 Application areas

1 Medical field

   - Orthopedic implants: Used to manufacture orthopedic implants such as spinal braces, bone screws, and bone plates.

   - Cardiovascular stents: Used in the manufacture of cardiovascular stents, leveraging their superelasticity and shape-memory effect.

   - Dental instruments: Used for manufacturing dental orthotics and implants.

   - Minimally Invasive Surgical Instruments: Used to manufacture minimally invasive surgical devices, such as catheters and guidewires.

2 Aerospace

   - Smart Structures: Used to manufacture smart structures such as morphing wings and satellite antennas.

   - Damping devices: Used to manufacture shock absorbers and dampers, leveraging their superelasticity.

   - High-temperature components: Components used to manufacture structural parts for operation in high-temperature environments.

3. Smart materials

   - Shape-memory alloy devices: Used to manufacture shape-memory alloy devices such as temperature sensors and actuators.

   - Robots: Actuators and joints used for manufacturing robots.

4 Industrial sector

   - Fasteners: Used to manufacture high-reliability connectors and fasteners.

   - Mold: A tool used to manufacture complex-shaped parts.

  1. Spherical TC4 Alloy powder

Shape TC4 Alloy powder based on titanium, containing alloying elements such as aluminum and vanadium, features a spherical shape and uniform particle size. It boasts high strength, low density, excellent corrosion resistance, and biocompatibility, making it widely used as titanium alloy powder in fields such as aerospace and biomedical applications.

Spherical TC4 Alloy powder

 

 

4.1 Feature

1 High strength and low density: TC4 ( Ti-6Al-4V ) is a titanium alloy with high strength (tensile strength of approximately 900 MPa ) and low density (approximately 4.43 g/cm³ ), with high specific strength.

2 Excellent corrosion resistance: TC4 It exhibits excellent corrosion resistance to a variety of corrosive media, such as seawater and chloride solutions.

3 Good biocompatibility: TC4 Widely used in medical implants, such as artificial joints and bone plates.

4 Excellent heat resistance: TC4 At high temperatures (about 400°C The following) still maintains good mechanical properties.

5 Spherical particle shape: spherical TC4 The powder has good flowability and is suitable for additive manufacturing (such as...). 3D Printing) and powder metallurgy processes.

4.2 , Application Fields

1 Aerospace: Used for manufacturing aircraft engine components, airframe structural parts, and rocket components.

2 Medical field: Used in the manufacture of artificial joints, dental implants, and orthopedic devices.

3 Additive manufacturing ( 3D Printed): Spherical TC4 The powder is metal. 3D Print (e.g., SLM EBM ) the key material.

4 Automotive industry: Used for manufacturing high-performance engine components and lightweight structural parts.

5 Chemical industry: Used for manufacturing corrosion-resistant reactors and pipelines.

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Next: Thermal Spray Primer Powder

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