MoSe₂ Sputtering Targets
MoSe₂ Sputtering Targets
MoSe₂ Sputtering Targets
MoSe₂ Sputtering Targets Product Information
MoSe₂ molybdenum diselenide sputtering targets are engineered for thin film deposition, 2D semiconductor research, and optoelectronic applications. Pioneer Materials, Inc. supplies high purity MoSe₂ materials with customizable compositions, dimensions, and bonding options for research laboratories and advanced manufacturing environments.
MoSe₂ Molybdenum Diselenide Sputtering Targets Product Information
MoSe₂ molybdenum diselenide sputtering targets from Pioneer Materials, Inc. are designed for advanced thin film deposition, semiconductor research, and next-generation electronic applications. As a transition metal dichalcogenide (TMD) material, MoSe₂ is widely utilized in 2D semiconductor technologies, nanoelectronics, and optoelectronic device development requiring controlled thin film composition and high material purity.
MoSe₂ Material Overview
MoSe₂ is a layered transition metal dichalcogenide compound composed of molybdenum and selenium. The material is recognized for its unique electronic structure, strong light-matter interaction, and two-dimensional crystal properties, making it valuable for semiconductor, photonic, and nanoelectronic applications.
MoSe₂ materials are commonly researched for use in thin film transistors, photodetectors, sensors, and advanced electronic devices. By carefully controlling the composition and crystalline structure, researchers and manufacturers can optimize the electrical and optical properties of MoSe₂ for specialized thin film and semiconductor applications.
Product Description
MoSe₂ molybdenum diselenide sputtering targets are manufactured for precision thin film deposition processes including magnetron sputtering, physical vapor deposition (PVD), and semiconductor coating applications. These high purity sputtering targets are engineered to support stable deposition performance, controlled film composition, and consistent material quality for research and industrial environments.
MoSe₂ sputtering targets are widely used in advanced semiconductor fabrication, 2D materials research, and optoelectronic thin film development. Their layered crystal structure and semiconductor characteristics make them suitable for applications requiring controlled electrical performance, optical response, and nanoscale material engineering.
Thin films produced using MoSe₂ sputtering targets are commonly utilized in nanoelectronics, photonic devices, sensors, energy-related technologies, and advanced materials research.
Product Specifications
| Specification | Details |
|---|---|
| Material | Molybdenum Diselenide |
| Product Type | Sputtering Target |
| Chemical Formula | MoSe₂ |
| Purity | Up to 99.99% |
| Shape | Disc, Planar, Rotary, Custom Shapes |
| Size | 50.8 mm – 300 mm |
| Composition | Mo and Se |
| Application | Thin Film Deposition, 2D Semiconductor Research, Optoelectronics |
| Category | Transition Metal Dichalcogenide (TMD) Materials |
| Bonding | Indium Bonding, Elastomer Bonding, Custom Backing Plates Available |
Applications of MoSe₂ Molybdenum Diselenide Sputtering Targets
- 2D semiconductor devices and nanoelectronics
- Photodetectors and optoelectronic devices
- Thin film deposition and semiconductor research
- Sensors and advanced electronic components
- Energy conversion and storage technologies
- Photonic and nanoscale material development
- Advanced materials research and laboratory applications
Custom Manufacturing Options
Pioneer Materials, Inc. manufactures custom MoSe₂ sputtering targets and compound materials according to customer-specific research and production requirements. Available customization options include tailored purity levels, target dimensions, compositions, densities, and geometries for specialized thin film deposition applications. Additional services include custom backing plates, indium bonding, elastomer bonding, and target assembly solutions designed to support semiconductor manufacturing, 2D materials research, and advanced coating systems.