Titanium Dioxide Nanoparticles

Features

• High refractive index
• Biocompatible
• Non-toxic
• Lightweight
• Strong corrosion resistance
• High thermal stability
• Minimal ion release
• Non-magnetic
• Molar Mass of 79.9378 g/mol
• Melting Point of 1843 °C
• Boiling Point of 2972 °C
• Density of 4.23 g/cm3

Titanium dioxide is a molecule comprising one titanium atom and two oxygen atoms. It is famous for ultrafine titanium dioxide (TiO2) particles, nano-crystalline titanium dioxide, or microcrystalline titanium dioxide. It has a diameter smaller than 100 nm and is white in color. It is a photo catalyst, implying that it can use light energy to catalyze reactions with other atoms at low temperatures.

Titanium dioxide nanoparticles are formed by titanium dioxide molecules joining together to create a cylinder’s surface. Each oxygen atom bonds to another titanium atom, resulting in a cylindrical lattice with each oxygen atom connected to two titanium atoms. Placing oxygen atoms among titanium atoms resulted in a significantly more complex nanoparticle structure. It is ideal for glass, optics, and ceramics since it is not electrically conductive. It consists of at least one oxygen anion and one metallic cation. It does not dissolve easily in aqueous solutions. It is exceptionally stable in applications ranging from clay bowl production to complex electronics in lightweight structural parts in aircraft and electrochemical applications such as fuel. Because oxide compounds are basic anhydrides, they can induce redox to react with acids and act as potent reducing agents.

Synthesis

Researchers use sulfate, chloride, or sol-gel processes to produce the majority of manufactured titanium dioxide nanopowder. We use digesting ilmenite (FeTiO3) (titanium slag) with sulfuric acid to manufacture Anatase or rutile TiO2. The ultrafine anatase phase involves the use of sulfate solution. The ultrafine rutile form is a result of chloride solution.

To manufacture Natural or rutile nanoparticles, we follow the chlorination process at temperatures ranging from 850 to 1000 °C in the chloride process. Moreover, we follow vapor-phase oxidization of the titanium tetrachloride to generate ultrafine anatase.

Researchers cannot use Grinding to transform pigmentary TiO2 to ultrafine TiO2. Ultrafine titanium dioxide may be produced using various methods, including precipitation, gas-phase reaction, sol-gel, and atomic layer deposition.

Properties of Titanium Dioxide Nanoparticles

• This product has a high refractive index.
• It is biocompatible, non-toxic, and lightweight.
• It has strong corrosion resistance, high thermal stability, minimal ion release, and is non-magnetic.
• It has a Molar Mass of 79.9378 g/mol.
• It has a Melting Point of 1843 °C and a Boiling Point of 2972 °C.
• It exhibits a Density of 4.23 g/cm3.

Applications of Titanium Dioxide Nanoparticles

Titanium Dioxide Nanopowder is part of a film that uses light energy to initiate a chemical reaction that kills micro-organisms on surfaces. Because it reflects all hues in the visible light spectrum, the light reflected from it is white. This feature makes it suitable as a white pigment in paintings and may result in a white residue on the skin when you apply sunscreen. It helps remove environmental pollutants, such as NO2, from flue gases and other sources. Furthermore, it may break down SOx, a hazardous inorganic molecule in the atmosphere.

Because of its capacity to disrupt cell membranes, harden viral proteins, regulate virus activity, and catch infectious particles, it frequently uses sterilization and virus restraint medicines. It can eradicate micro-organisms and is perfect for wastewater treatment due to its low cost, corrosion resistance, and general stability. It is used as packing material in solid-phase extraction (SPE) to preconcentrate and remove contaminants from water for surface water treatment. It involves the removal of the ripening hormone ethylene from storage facilities for perishable fruits, vegetables, and cut flowers. It is a long-term dental implant success as it helps manage the infection and acquire new implant insertion technologies in bone.

Why Choose Titanium Dioxide Nanoparticles?

Titanium Dioxide Nanoparticles (TiO₂) combine nanoscale particle size, high specific surface area, strong photocatalytic activity, excellent UV response and outstanding chemical stability. These properties make TiO₂ nanoparticles particularly suitable for photocatalysis, solar-energy research, self-cleaning coatings, environmental remediation, UV-protective materials, sensors and advanced ceramic applications.

• High Purity:
  99.9% purity makes the material suitable for research, photocatalytic, electronic and advanced material applications.
• Controlled Nanoscale Particle Size:
  An average particle size of 30–80 nm provides a high surface-to-volume ratio and improved interaction with light and surrounding materials.
• High Specific Surface Area:
  Approximately 150 m²/g provides extensive active surface for photocatalytic reactions, adsorption and surface chemistry.
• Excellent Photocatalytic Activity:
  TiO₂ can use light energy to initiate chemical reactions, making it highly suitable for photocatalysis and environmental remediation.
• Strong UV Absorption:
  Titanium dioxide efficiently interacts with ultraviolet radiation, making it useful in UV-protective coatings and optical materials.
• Excellent for Solar Energy Research:
  TiO₂ is widely used in photovoltaic, photoelectrochemical and solar-cell research because of its semiconductor properties and chemical stability.
• Self-Cleaning Surface Applications:
  Photocatalytic TiO₂ coatings can help break down organic contaminants on exposed surfaces under suitable illumination.
• Environmental Remediation:
  Suitable for research involving decomposition of organic pollutants, wastewater treatment and air-purification systems.
• High Refractive Index:
  Its strong optical properties make TiO₂ valuable for pigments, optical coatings, ceramics and other light-management applications.
• Excellent Thermal & Chemical Stability:
  Its high melting point and corrosion resistance support use in demanding research and industrial environments.
• Non-Magnetic Material:
  Suitable for applications where magnetic interference must be minimized.
• Wide Application Range:
  Suitable for photocatalysts, solar cells, sensors, self-cleaning coatings, UV protection, pigments, ceramics, wastewater treatment and advanced nanotechnology research.