Synthetic Sapphire Boule , Kyropoulos (KY) Method Grown 80kg 260kg 300kg 400kg

Sapphire Crystal Boule, a synthetic single-crystal alumina (α-Al₂O₃), is grown using advanced methods such as the Kyropoulos, Czochralski (CZ), or Heat Exchange Method (HEM). With exceptional hardness, broad light transmission, and superior chemical stability, it is an essential material in optics, semiconductors, consumer electronics, and industrial sectors.

• Wide transmittance range (0.15–5.5 μm) for deep UV to mid-IR applications.
• Low birefringence (0.008) and refractive index of 1.76@589 nm, making it ideal for lenses and windows.
• Compatible with anti-reflection (AR), high-reflection (HR), and bandpass coatings.

• Scratch-resistant (Mohs 9) with high compressive strength (>2 GPa).
• Bend strength exceeding 400 MPa, suitable for wafers, bearings, and industrial components.

• Melting point of 2050°C; operational temperature up to 1900°C in inert gas environments.
• Thermal conductivity of 35 W/(m·K); low thermal expansion coefficient (5.8*10⁻⁶/K).

• Resistant to acids and alkalis (except hydrofluoric acid and hot concentrated sulfuric acid).
• Ideal for aerospace, nuclear, and harsh environmental applications.

• Semiconductors: LED and Micro-LED substrates, plasma-resistant device windows.
• Optics/Lasers: High-power laser windows, IR optics for defense systems.
• Consumer Electronics: Scratch-resistant covers for smartwatches and smartphone lenses.
• Industrial: Precision bearings, deep-sea pressure windows, and space-grade components.

• Custom Growth: Producing 2–12-inch boules via Kyropoulos, CZ, or HEM methods.
• Precision Machining: Manufacturing wafers, optical windows, and custom-shaped parts.
• Coating Solutions: Offering AR, HR, and filter coatings for enhanced optical performance.
• Testing & Support: Providing defect analysis, environmental stability validation, and technical consultation.

Innovative Ceramic Microsphere has versatile applications across multiple industries:

Advanced Materials: The exceptional durability and thermal stability of Innovative Ceramic Microsphere make it ideal for high-performance material applications. It can be incorporated into composite materials for aerospace components, high-temperature coatings, and structural reinforcements.

Energy Storage: Innovative Ceramic Microsphere also plays a significant role in energy storage technologies. It can be used in the development of solid-state batteries, supercapacitors, and energy-efficient insulation materials.

Environmental Protection: The porous structure and high surface area of Innovative Ceramic Microsphere enable its use in environmental remediation. It can be employed in water purification systems, air filtration devices, and pollutant adsorption materials.

Biotechnology: Innovative Ceramic Microsphere further extends its utility into biotechnology. It can be utilized in the creation of drug delivery systems, biochips, and diagnostic tools for medical research.