CoP Sputtering Targets
CoP Sputtering Targets
CoP Sputtering Targets
CoP Sputtering Targets Product Information
CoP cobalt phosphide sputtering targets are designed for thin film deposition, electrochemical research, and advanced energy applications. Pioneer Materials, Inc. supplies high purity CoP materials with customizable dimensions, compositions, and bonding options for research laboratories and industrial manufacturing environments.
CoP Cobalt Phosphide Sputtering Targets Product Information
CoP cobalt phosphide sputtering targets from Pioneer Materials, Inc. are engineered for advanced thin film deposition, catalytic systems, electrochemical technologies, and energy-related material research. These transition metal phosphide materials offer strong electrical conductivity, catalytic activity, and chemical stability, making them suitable for semiconductor research, energy storage development, laboratory-scale deposition, and advanced materials processing environments.
CoP Material Overview
CoP is a cobalt phosphide compound material composed of cobalt and phosphorus, widely utilized in catalytic, electrochemical, and energy storage applications. As part of the transition metal phosphide material family, CoP is commonly researched for electrode technologies, hydrogen evolution systems, conductive thin films, and advanced energy conversion devices.
CoP materials are valued for their conductive properties, catalytic efficiency, and stability under demanding processing conditions. Through controlled composition and processing parameters, CoP sputtering targets can be optimized for specialized research and industrial thin film applications.
Product Description
CoP cobalt phosphide sputtering targets are manufactured for precision thin film deposition processes including magnetron sputtering, physical vapor deposition (PVD), and advanced coating applications. These materials are engineered to support stable deposition performance, controlled film composition, and high purity processing requirements for research and industrial environments.
High purity CoP sputtering targets are widely used in catalytic film development, electrochemical systems, semiconductor research, and advanced energy technologies. Their electrical conductivity and catalytic properties make them suitable for conductive coatings, electrode materials, and thin film research applications requiring compositional consistency and reliable deposition performance.
CoP thin films are commonly applied in energy storage devices, hydrogen-related electrochemical systems, catalytic coatings, and advanced materials research.
Product Specifications
| Specification | Details |
|---|---|
| Material | Cobalt Phosphide |
| Product Type | Sputtering Target |
| Chemical Formula | CoP |
| Purity | Up to 99.99% |
| Shape | Disc, Planar, Rotary, Custom Shapes |
| Size | 50 mm – 330 mm OD |
| Composition | CoP |
| Application | Thin Film Deposition, Electrochemical Research, Energy Systems |
| Category | Transition Metal Phosphide Materials |
| Bonding | Indium Bonding, Elastomer Bonding, Custom Backing Plates Available |
Applications of CoP Cobalt Phosphide Sputtering Targets
- Electrodes for lithium-ion battery research
- Hydrogen evolution reaction (HER) and water splitting studies
- Electrocatalysis and electrochemical systems
- Thin film deposition and semiconductor research
- Energy conversion and storage technologies
- Conductive and catalytic coating applications
- Advanced materials research and laboratory development
Custom Manufacturing Options
Pioneer Materials, Inc. manufactures custom CoP sputtering targets and compound materials according to customer-specific research and production requirements. Available customization options include tailored purity levels, target dimensions, densities, compositions, and geometries for specialized thin film deposition and electrochemical applications. Additional services include custom backing plates, indium bonding, elastomer bonding, and target assembly solutions designed to support semiconductor manufacturing, catalytic coatings, and advanced energy research systems.