Chemical Composition | Ni, Fe, Mo |
Purity | 99.9% |
Shape | Planar Disc |
The NiFeMo Target combines the unique properties of nickel, iron, and molybdenum to deliver exceptional performance for thin-film deposition. Typically formulated as Ni80Fe15.5Mo4.5, this ternary alloy showcases remarkable structural uniformity achieved through advanced metallurgical processes. Its fine-grained structure and consistent phase distribution ensure reliable performance during PVD.
Key attributes include:
These features result from the synergistic combination of nickel’s flexibility, iron’s magnetic qualities, and molybdenum’s high-temperature resilience within the alloy.
Related Products: Nickel Sputtering Target, Ni, Nickel Cobalt Sputtering Target, Ni-Co, Iron Sputtering Target, Fe, Iron Chromium Sputtering Target, Fe/Cr, Molybdenum Sputtering Target, Mo, Chromium Molybdenum Sputtering Target, Cr/Mo
Properties:
Please note that the above specifications are based on theoretical data. For precise requirements and detailed information, contact us directly.
Dimensions:
The NiFeMo Target is versatile, serving multiple advanced technology fields by leveraging its specialized alloy characteristics:
Stanford Advanced Materials enhances these applications with customizable solutions, such as adjusting molybdenum content for better corrosion resistance, optimizing microstructure to reduce film defects, and offering various target geometries (planar, rotary, tubular) to meet diverse research and industrial needs. Emerging uses in additive manufacturing and MEMS further expand its applicability.
Our targets are packaged according to their size and specifications to ensure safe delivery:
Packaging Options: Carton, Wooden Box, or Customized Solutions
Q1: What is a Nickel Iron Molybdenum (NiFeMo) Target?
A1: The NiFeMo Target is a high-purity alloy composed of nickel, iron, and molybdenum, specifically designed for thin-film deposition processes like Physical Vapor Deposition (PVD).
Q2: What industries utilize NiFeMo Targets?
A2: They are widely used in electronics (for magnetic storage and sensors), optics (for coatings and conductive layers), catalysis (for water splitting electrodes), renewable energy (for battery coatings), and industrial protective coatings (in aerospace and semiconductor manufacturing).
Q3: What are the main performance benefits of NiFeMo Targets?
A3:
Property | NiFeMo Target | Competitive Products | Performance Advantages |
---|---|---|---|
Catalytic Activity | Enhanced hydrogen evolution reaction (HER) due to synergistic interaction between Ni, Fe, and Mo | Pure Mo: Limited active sites; Ni-Fe alloys: Lower surface reactivity induced by Mo | NiFeMo shows a ~30% lower onset potential and higher current density compared to pure MoS₂. Nickel nanoparticles increase active sites, enhancing charge transfer kinetics. |
Mechanical Strength | High tensile strength (~1400 MPa) via molybdenum-induced solid-solution strengthening | Ni-Mo alloys: ~1200 MPa; Fe-Mo alloys: ~1000 MPa | Molybdenum content improves hardness and creep resistance at temperatures up to 700°C, surpassing binary Ni-Fe alloys in load-bearing applications. |
Thermal Stability | Retains structural integrity up to 800°C | Pure Mo: Becomes soft above 600°C; Ni-Fe alloys: Experience phase instability above 500°C | Molybdenum stabilizes grain boundaries, reducing thermal expansion mismatches. LPPS-processed Mo targets have similar stability but lack the alloy flexibility of NiFeMo. |
Deposition Uniformity | Fine-grained microstructure (≤0.4 µm) with consistent sputtering yield | Coarse-grained Mo targets: ~1.5 µm grain size; Ni-Fe: Variable porosity (~2-5%) | Smaller grain size and controlled oxygen content (~0.18%) ensure uniform thin-film deposition, resulting in smooth films (e.g., 700 nm Mo films with <0.5 µm Ra roughness). |
Corrosion Resistance | Molybdenum passivation enhances durability in oxidizing environments | Ni-Fe alloys: Prone to pitting; Pure Mo: Limited oxidation resistance | Molybdenum-rich surface layers prevent degradation in acidic and alkaline conditions, maintaining stability in HER catalysis for over 100 hours. |
Customizability | Adjustable Mo content (4.5-25%) and various target geometries (planar, rotary) | Binary alloys (Ni-Mo/Fe-Mo): Limited compositional flexibility | Stanford Advanced Materials provides tailored solutions for specific stoichiometries (e.g., Ni80Fe15.5Mo4.5) and substrate compatibility, unlike rigid industrial Mo anodes. |
Cost Efficiency | Lower platinum dependency compared to Pt-MoS₂ catalysts | Pt-modified catalysts: 3-5× higher cost | NiFeMo achieves 85-90% of the HER efficiency of Pt-MoS₂ at 40% lower cost, making it a cost-effective option for large-scale hydrogen production. |
Basic Properties:
Chemical Properties:
Applications:
Resources and Production:
Physical Properties:
Chemical Properties:
Industrial Importance:
Biological Role:
Safety and Handling:
Physical Properties:
Chemical Properties:
Industrial Applications:
Other Attributes: