(titanium oxide)
Titanium dioxide (TiO₂) remains the cornerstone pigment for industries demanding uncompromising opacity and brightness. This industrial grade oxide white powder exists in two primary crystalline formations - rutile and anatase - each delivering distinct performance benefits. As the globally preferred white pigment, titanium oxide
dominates markets from architectural paints to advanced polymers due to its exceptional light-scattering properties. Approximately 75% of all white pigments consumed worldwide rely on TiO₂'s refractive index of 2.76, significantly outperforming alternatives like zinc oxide or lithopone.
Rutile titanium dioxide grades like R996 and B101 exhibit superior durability and weathering resistance compared to anatase variants, making them ideal for exterior applications. Key technical advantages include:
These properties stem from TiO₂'s electron configuration, enabling rutile TiO₂ powder to provide both protective functionality and exceptional brightness simultaneously.
Grade | Type | Oil Absorption (g/100g) | Specific Gravity | TiO₂ Content (%) | Primary Applications |
---|---|---|---|---|---|
R996 | Rutile | 18.5 | 4.1 | 97.5 | Architectural coatings, Plastics |
R5566 | Rutile | 20.2 | 4.0 | 95.8 | Automotive finishes |
R902 | Rutile | 16.3 | 4.2 | 98.2 | High-gloss industrial coatings |
R6618 | Rutile | 22.1 | 3.9 | 95.1 | Paper laminates |
R6628 | Chloride Process | 17.8 | 4.1 | 97.9 | Marine coatings |
Modern TiO₂ formulations address specific processing challenges through particle engineering. Surface-modified variants with inorganic treatments deliver:
For manufacturers requiring unique specifications, TiO₂ powder can be engineered with particle size distributions between 0.2-0.4 microns, precisely balancing opacity and light scattering efficiency.
Industrial-grade titanium oxide demonstrates measurable performance across sectors:
A recent automotive case study confirmed coating systems using Lomon R996 maintained 98% reflectivity after 10 years exterior exposure.
ISO 9001-certified TiO₂ production ensures batch consistency within ±0.15% opacity variation. All grades comply with:
Advanced chlorination processes now reduce production energy consumption by 35% versus sulfate methods, while zero liquid discharge systems recycle 98% of process water.
Ongoing R&D focuses on enhancing titanium oxide performance through atomic-level modifications. Next-gen TiO₂ powders featuring nanostructured surfaces promise 15% greater opacity efficiency by 2025, while photocatalytically active grades could revolutionize self-cleaning applications. As manufacturers increasingly demand sustainable solutions, the titanium dioxide industry has committed to reducing carbon footprints by 25% through advanced chloride processes. This evolution ensures titanium oxide maintains its critical position across manufacturing sectors.
(titanium oxide)
A: R996 rutile titanium dioxide is widely used in coatings for its high weather resistance, opacity, and ability to enhance durability and color stability in exterior paints.
A: Anatase TiO₂ (e.g., B101) offers higher photocatalytic activity, suited for self-cleaning surfaces, while rutile types (e.g., R902) provide better UV stability and are preferred in coatings and plastics.
A: CAS No. 13463-67-7 uniquely identifies titanium dioxide (TiO₂), ensuring regulatory compliance, safety verification, and accurate classification in global trade and documentation.
A: R5566 and R6628 titanium dioxide grades are optimized for plastics, offering excellent dispersion, heat stability, and whiteness to maintain product integrity under processing conditions.
A: Yes, many suppliers provide free samples of R996 or R902 rutile TiO₂ to evaluate performance in paint formulations, including opacity, gloss, and compatibility with binders.