Yttrium Fluoride
Yttrium Fluoride is a premium optical-grade inorganic compound with CAS number 13740-29-9. This high-purity rare earth crystal precursor is widely utilized to manufacture infrared optical coatings, advanced semiconductor plasma shields, vacuum vapor deposition films, and specialized laser crystal components.
Description
Comprehensive Product Overview of Yttrium Fluoride
Exceptional structural durability and rapid thermal dissipation provide a major competitive advantage in the formulation of specialized technical solutions. This active material works by providing the essential structural mechanisms—specifically allowing wide infrared transmission wavelength profiles while ensuring extreme resistance to fluorine plasma erosion—needed for effective process stabilization. It helps manufacturers achieve potent technical profiles in industrial and scientific emission systems without sacrificing component or system integrity. For instance, Yttrium Fluoride is frequently used as a primary ingredient in high-power semiconductor chamber coatings. Consequently, it improves the technical efficacy of micro-chip engraving assemblies and advanced optical lenses. As a result, Zyntex ensures low heavy metal content and strict impurity control for our supply, ensuring maximum safety during your manufacturing cycle.
Moreover, Zyntex supplies specialized sputtering-ready grades for the vacuum coating and vapor deposition industries. This compound acts as a critical structural asset, helping to enhance the defense mechanisms of light delivery systems undergoing intense high-temperature operations or electronic processing cycles. It pushes the boundaries of modern science by offering a highly pure active source that does not affect the final material’s core transmission parameters or electronic focus unless requested. At the same time, it serves as a crucial raw material matrix in the synthesis of specialized luminescence components and fine crystalline intermediates. In short, our product serves as a dependable “structural matrix.” It supports both the vitality of industrial manufacturing and the precision of modern material engineering.
Recently, scientific interest in its application for eco-friendly optoelectronic systems and advanced multi-layer solid state laser setups has grown. It provides a reliable and highly efficient alternative to shorter-lived oxide options in specific electrical configurations. Because of this, Zyntex offers refined technical chemical grades designed to meet the rigorous specifications of modern sustainable material research. Ultimately, choosing Zyntex secures a reliable and transparent chemical supply chain. We balance core material chemistry expertise with rigorous quality monitoring. To conclude, our commitment ensures your Yttrium Fluoride production processes achieve the highest levels of structural performance and purity.
Key Industrial Applications for Yttrium Fluoride
This high-purity refractory material is essential in these four primary sectors:
⚙️ Vacuum Coating
Primary source for high-performance anti-reflective (AR) optical film layers. Thus, it provides essential support for localized light transmission stability.
⚡ Semiconductors
Key corrosion-resistant matrix for plasma etching chamber components. Undoubtedly, it is vital for enhancing uniform wafer processing benchmarks.
🔬 Laser Crystals
Used as a professional fluoride material host for advanced solid-state lasers. Consequently, it is vital for high-performance optical beam focus.
🛡️ Plasma Equipment
Acts as a protective thermal barrier spray coating for high-vacuum tooling setups. Specifically, it supports rapid electron processing and uniform matrix clarity.
Technical Specifications
| Parameter | Standard Value |
|---|---|
| Product Name | Yttrium Fluoride (Optical / Sputtering Grade) |
| Assay / Purity | ≥ 99.99% (Trace Metals Basis) |
| Appearance | White crystalline powder or granular matrices |
| CAS Number | 13740-29-9 |
📝 Safety & Handling: Prepared for industrial vacuum electronics fabrication, high-purity material processing, and scientific research workflows. Insoluble in water but reactive under extreme chemical settings. Therefore, store in a cool, well-ventilated location away from strong mineral acids in its tightly sealed original container. Avoid generating dust fields during processing runs to preserve full mechanical lattice structural integrity. Wearing standard laboratory protective equipment (PPE) including safety masks and specialized gloves is recommended during engineering compounding runs. Always consult the Safety Data Sheet (SDS) for detailed storage and handling protocols.
