CY8534 Titanium Dioxide Rutile (TiO2) Single Crystal Substrate (111) 10x10x0.5 mm

Titanium Dioxide Rutile (TiO2) Single Crystal Substrate (111) 10x10x0.5 mm Description

This premium Titanium Dioxide Rutile (TiO2) single crystal substrate (111) measuring 10 × 10 × 0.5 mm is distinguished by its exceptional purity and uniform crystallographic orientation. Known for a wide band gap, impressive dielectric constant, and high refractive index, it delivers performance in a range of advanced research and industrial applications.

Its stable rutile phase and consistent quality make it ideal for epitaxial thin film growth, photonic devices, and photocatalytic studies. The polished surfaces ensure smooth interfaces and dependable results. Each substrate undergoes rigorous testing to verify compliance with stringent quality standards, providing reliable performance for laboratories and manufacturing environments.

Titanium Dioxide Rutile (TiO2) Single Crystal Substrate (111) 10x10x0.5 mm Applications

Titanium Dioxide Rutile (TiO2) Single Crystal Substrate (111) 10x10x0.5 mm is a material with structural stability, high refractive index, and excellent optical clarity. Its wide band gap, strong photocatalytic potential, and doping flexibility make it an essential component in various industries. This product is used for advanced coatings, sensor technologies, and electronic research.

1. Industrial Applications

·         High-temperature Resistant Coatings: The substrate’s thermal stability and chemical inertness make it suitable for protective layers in harsh industrial settings.

·         Photocatalytic Surfaces: Utilise the strong photocatalytic properties for self-cleaning and antimicrobial applications in manufacturing facilities.

2. Research Applications

·         Electronic Structure Studies: The rutile crystal orientation (111) offers consistent, high-quality surfaces for investigating dielectric properties.

·         Nanomaterial Engineering: Its precise lattice parameters enable controlled doping and fabrication of nanoscale devices in cleanroom environments.

3. Commercial Applications

·         Optical Components: The high refractive index supports the development of lenses and mirrors for consumer electronics.

·         Semiconductor Devices: The uniform, flat crystal surface assists in integrating sensors and high-performance transistors in commercial products.

Titanium Dioxide Rutile (TiO2) Single Crystal Substrate (111) 10x10x0.5 mm Packaging

Each Titanium Dioxide Rutile (TiO₂) Single Crystal Substrate (111) 10×10×0.5 mm is carefully placed between layers of foam, sealed in an anti-static bag, and secured in a rigid, moisture-resistant container to prevent breakage and contamination. For optimal storage, keep in a clean, humidity-controlled environment. Additional protective measures, including vacuum sealing, can be arranged on request. Our packaging can be customised to accommodate specific research or industrial needs, ensuring safe transport and long-term preservation.

Packaging: Vacuum sealed, Wooden Box, or Customised.

Titanium Dioxide Rutile (TiO2) Single Crystal Substrate (111) 10x10x0.5 mm FAQs

Q1: What are the key material properties of Titanium Dioxide Rutile (TiO2) Single Crystal Substrate (111) 10x10x0.5 mm?

A1: Titanium Dioxide Rutile (TiO2) Single Crystal Substrates in the (111) orientation are known for their stable rutile structure, high dielectric constant (~100), wide band gap (~3.0 eV), and high refractive index (~2.7). They measure 10 × 10 × 0.5 mm, feature excellent chemical stability, and exhibit minimal surface roughness, making them ideal for advanced optical and electronic applications requiring precise crystallographic orientation.

Q2: How should this product be handled and stored?

A2: These TiO2 (111) substrates are relatively brittle and should be handled with care and clean, lint-free gloves or tweezers to avoid contamination or breakage. They should be stored in a clean, dry environment, preferably under vacuum or inert gas to prevent surface oxidation. Storing them individually in protective containers or wafer cassettes is recommended for preventing mechanical damage and contamination.

Q3: Which quality standards and certifications apply to Titanium Dioxide Rutile (TiO2) Single Crystal Substrate (111) 10x10x0.5 mm?

A3: Manufacturers typically adhere to ISO 9001 for quality management, ensuring consistent substrate performance and traceability. These TiO2 (111) single crystal substrates often meet stringent surface flatness and roughness specifications, measured by AFM or optical profilometry. They may also comply with RoHS and REACH standards to limit hazardous substances. Thorough inspection, including X-ray diffraction (XRD), confirms orientation accuracy and minimal defects.

Related Information

1. Material Properties and Advantages

Measuring precisely 10 x 10 x 0.5 mm, the Titanium Dioxide Rutile (TiO2) Single Crystal Substrate (111) stands out for its crystalline integrity. The (111) orientation offers a crystallographic plane that is highly sought after for specialised research and industrial processes demanding precise alignment. Its rutile structure ensures optical transparency in the visible and near-infrared ranges, and provides mechanical properties that support long-term reliability in technological applications.

Recognised for its high refractive index, this rutile TiO2 substrate exhibits a capacity to modulate light propagation. Researchers utilise this distinct attribute to investigate photonic phenomena and to develop solutions in optics-related fields. By combining hardness with excellent chemical stability, the substrate remains resilient against environmental factors and resistive to many corrosive agents, making it a choice for both academic experimentation and industry-level production processes.

2. Applications in Advanced Industries

Due to its optical clarity and defined crystal orientation, the Titanium Dioxide Rutile (TiO2) Single Crystal Substrate (111) is used in sensor technologies. Its lattice structure facilitates efficiency in signal detection, fostering innovations in semiconductor devices. These substrates also serve as an important component in electro-optic systems, optimising film growth and interface quality for laser-based instruments.

In the automotive and aerospace sectors, this substrate contributes to the development of coatings designed to withstand abrasive environmental conditions. Incorporating TiO2 substrates into thermal barrier layers ensures heat resistance, enabling components to function under stress and temperature fluctuations. Scientists and engineers further explore these substrates for energy storage systems, supporting the creation of efficient electrodes in modern batteries.