Discontinued (Discontinued) ST6573 Nickel Copper Titanium Target (NiCuTi Target)

Nickel-Copper-Titanium-Target (NiCuTi-Target) Description

The Nickel-Copper-Titanium (NiCuTi) Sputtering Target is a precision-engineered alloy produced through vacuum arc melting and hot isostatic pressing (HIP):

Alloy properties: Nickel (melting point: 1 455 °C) ensures thermal stability and corrosion resistance, Copper (thermal conductivity: 401 W/m-K) enhances electrical conductivity and heat dissipation, and Titanium (density: 4.51 g/cm³) provides lightweight yet strong mechanical properties. This combination results in high hardness (Vickers hardness ≥200 HV), low specific resistance (≤10 µΩ-cm) and fatigue strength.

High purity and uniformity: The targets achieve a purity of ≥99.95%, controlling trace impurities (Fe, C, O) to below 50 ppm. Advanced processing ensures a fine grain size (≤15 µm), low porosity (<0.2 %) and surface roughness (Ra <0.8 µm after CMP polishing) for consistent sputtering performance.

Durability under extreme conditions: The native oxide of titanium (TiO₂) and the passivation layer of nickel provide stability at high temperatures (≤800 °C), in acidic or humid environments, making them ideal for long-term high-performance sputtering.

Nickel-Copper-Titanium-Target (NiCuTi-Target) Specifications

*The product information provided above is based on theoretical data. For specific requirements and detailed enquiries, please contact us.

Dimensions

*Custom made to drawing.

Nickel-Copper-Titanium-Target (NiCuTi-Target) Applications

• Semiconductors and electronics: Deposition of highly conductive compounds or diffusion barrier layers (e.g. DRAM, logic chips) leveraging the conductivity of Copper and adhesion properties of Titanium.
• Optics and displays: Base material for transparent conductive oxides (TCO), optimising the performance of ITO layers through the conductivity of Copper and oxidation resistance of Titanium.
• Coatings for aerospace: Protective coatings for engine components combining the lightweight characteristics of Titanium with the high-temperature resistance of Nickel.
• Biomedical implants: Functional coatings for orthopaedic/dental implants utilising the biocompatibility of Titanium and the antimicrobial properties of Nickel-Copper.
• Industrial wear-resistant tools: Durable coatings for cutting tools or moulds that extend lifespan through the deposition of a highly hard alloy.

Nickel-Copper-Titanium-Target (NiCuTi-Target) Packaging

Our products are packaged in custom cartons of various sizes based on material dimensions. Small items are securely packaged in PP cartons, while larger items are placed in tailored wooden crates. We ensure strict adherence to custom packaging specifications and utilise appropriate cushioning materials to provide optimal protection during transit.

Packaging: Cardboard, wooden crate, or customised.

Manufacturing Process

1. Brief overview of the manufacturing process

2. Testing procedures

1. Chemical composition analysis - Verified with techniques such as GDMS or XRF to ensure compliance with purity requirements.
2. Testing mechanical properties - This includes tensile strength, yield strength and elongation tests to evaluate material performance.
3. Dimensional testing - Measures thickness, width and length to ensure compliance with specified tolerances.
4. Surface quality testing - Inspection for defects such as scratches, cracks or inclusions through visual and ultrasonic examination.
5. Hardness testing - Determines material hardness to confirm uniformity and mechanical reliability.

Nickel-Copper-Titanium-Target (NiCuTi-Target) FAQs

Q1: What is a Nickel-Copper-Titanium-Target?

A1: A Nickel-Copper-Titanium-Target is a composite target used in sputtering coating processes to produce thin films of Nickel, Copper, and Titanium alloys. These targets are widely used in various industries including electronics, automotive and coatings, where specific alloy compositions are required for enhanced performance.

Q2: What are the key properties of Nickel-Copper-Titanium-Targets?

A2: Nickel-Copper-Titanium-Targets combine the strength, corrosion resistance, and thermal stability of Nickel, Copper and Titanium, making them ideal for producing durable and efficient thin films with specific electrical, mechanical, and thermal behaviours.

Q3: What are the main applications of Nickel-Copper-Titanium-Targets?

A3: Nickel-Copper-Titanium-Targets are commonly used in electronics, catalyst manufacturing, sensors, automotive component coatings, and aerospace components, where their unique alloy combination provides improved conductivity, wear resistance, and durability in demanding applications.

Performance Comparison Table with Competing Products

Nickel-Copper-Titanium-Target (NiCuTi-Target) compared to competing materials: Performance comparison.

Related Information

1. Raw Materials - Nickel

Basic properties

Atomic number: 28

Atomic mass: 58.69 g/mol

Density: 8.908 g/cm³

Melting point: 1 455 °C

Properties: Silvery-white, ferromagnetic (at room temperature), malleable, ductile and corrosion-resistant. Stable in air under standard conditions.

Oxidation states: Mainly +2; occasionally +1, +3 or +4.

Chemical properties

Corrosion resistance: Forms a protective oxide layer (NiO) in moist air; moderately resistant to acids and alkalis (passivated by concentrated nitric acid).

Alloy properties: Easily forms alloys with Iron, Copper and Chromium (e.g., stainless steel, Nitinol).

Catalytic activity: Widely used in hydrogenation reactions (e.g., hardening of vegetable oil).

Applications

Production of stainless steel (accounting for over 70% of global nickel consumption): Improves corrosion resistance and mechanical strength.

Battery materials: Key component in nickel-metal-hydride (NiMH) and lithium-ion batteries (e.g., NMC cathodes).

Galvanic coating: Nickel plating for corrosion protection and decorative surfaces.

High-temperature alloys: Used for their heat resistance in jet engines, gas turbines and nuclear reactors.

Catalysts: Industrial hydrogenation and desulfurization processes in petrochemical refineries.

2. Raw Materials - Copper

Atomic properties: Atomic number 29, atomic weight 63.55, transition metal in group 11, electron configuration [Ar] 3d¹⁰ 4s¹.

Physical properties:

Electrical conductivity: ~5.96×10⁷ S/m at room temperature, second highest after Silver, making it an important material for cables and semiconductor connections.

Thermal conductivity: 401 W/(m-K), ideal for heat sinks and thermal management systems.

Ductility: Can be drawn into ultra-fine wires (<0.01 mm diameter) or rolled into thin films (<0.1 mm thickness).

Density: 8.96 g/cm³, lighter than steel but heavier than aluminium, suitable for structural components.

Chemical properties:

Oxidation: Forms a green patina (basic copper carbonate) in moisture which necessitates protective coatings (e.g., nickel plating).

Corrosion resistance: Resists non-oxidising acids (e.g., HCl) but dissolves in nitric acid.

Primary applications:

Electronics: Printed circuits (PCBs), integrated circuit connections.

Industrial: Heat exchangers, plumbing fixtures.

Alloys: Brass (Cu-Zn), bronze (Cu-Sn), beryllium copper (high-strength springs).

3. Raw Materials - Titanium

Atomic properties: Atomic number 22, atomic weight 47.87, transition metal in group 4, electron configuration [Ar] 3d² 4s².

Physical properties:

Strength-to-weight ratio: Density 4.51 g/cm³ with a tensile strength of up to 900 MPa (pure Ti), a gold standard for aerospace materials.

High-temperature resistance: Melting point 1 668 °C; retains strength at 600 °C (compared to 200 °C for aluminium alloys).

Low thermal expansion: Coefficient of 8.6 µm/(m-K), minimising thermal deformation.

Chemical properties:

Passivation: Forms a protective layer of titanium dioxide (TiO₂) that withstands acids, alkalis, and seawater.

Biocompatibility: Non-toxic and hypoallergenic, ideal for medical implants.

Primary applications:

Aerospace: Engine blades, airframe components.

Medical: Orthopaedic implants (joint replacements), dental devices.

Chemical industry: Corrosion-resistant reactors, desalination units.

Alloys: Titanium-6-Aluminium-4-Vanadium (Ti-6Al-4V, >50% of titanium alloys used).