Titanium Dioxide Nanowires Type B (Chemically Pure)

Product Overview
Titanium dioxide nanowires Type B (chemically pure) are high-purity titanium dioxide materials with a nanowire structure. The unique nanowire shape provides a large surface area and abundant porosity, which enhances its performance in photocatalytic applications. This structure facilitates light absorption and electron-hole pair generation, boosting the efficiency of redox reactions. The material shows great potential in environmental remediation, energy conversion, and other fields. It is synthesized using a hydrothermal method, followed by purification, dispersion, and high-temperature calcination to ensure high purity and consistent structure.

Key Features

• High Surface Area and Excellent Porosity:The nanowire shape provides a larger reaction surface area, enhancing catalytic reactions.
• Outstanding Photocatalytic Performance:The material efficiently absorbs light and generates electron-hole pairs to drive redox reactions.
• Chemical Stability:High-temperature calcination ensures the material’s stability and durability in various environments.
• Versatile Application:This material has broad applicability across multiple industries, offering significant potential for diverse uses.

Applications

• Nanocomposite Fillers:Used in nanowire polymer composites, metal composites, and ceramic composites.
• Adhesives and Coatings:Acts as a filler in adhesives and coatings to enhance material properties.
• High-Performance Films:Suitable for manufacturing high-performance films.
• Nanoporous Ceramic Membranes:Used in chemical and water filtration, particularly in strong acid and alkali environments.
• High-Temperature Nonwoven Fabrics:Serves as a raw material for producing nonwoven fabrics in high-temperature environments.
• White Pigments:Used as a white pigment in plastics, coatings, rubber, cosmetics, synthetic fibers, paper, and ceramics.
• Surface Coatings:Enhances various surface coatings.
• Catalyst Supports:Acts as a support material for catalysts.
• Photocatalysts:Used in photocatalytic reactions, especially for environmental and energy applications.
• Dye-Sensitized Solar Cells:Applied in dye-sensitized, polymer-based, and quantum dot solar cells (photovoltaic and photocatalytic).
• Water Splitting for Hydrogen Production:Used in water splitting processes for hydrogen production.
• Chemical Sensors:Ideal for high-temperature gas sensors, providing high sensitivity.
• Lithium Battery Anodes:Serves as an anode material for lithium-ion batteries.
• Fuel Cells:Used as catalyst supports in fuel cells.