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HS Code |
388663 |
| Chemical Formula | TiO2 |
| Molecular Weight | 79.866 g/mol |
| Appearance | White powder |
| Melting Point | 1,843 °C |
| Boiling Point | 2,972 °C |
| Density | 4.23 g/cm³ |
| Solubility In Water | Insoluble |
| Refractive Index | 2.488 (rutile) |
| Cas Number | 13463-67-7 |
| Crystal Structure | Tetragonal (rutile, anatase forms) |
| Ph | Neutral (in suspension) |
| Hardness Mohs | 5.5–6.0 |
| Color Index Number | 77891 |
As an accredited Titanium Oxide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Titanium Oxide is packaged in a sturdy 25 kg fiber drum with inner polyethylene lining, labeled with hazard and handling instructions. |
| Shipping | Titanium Oxide (Titanium Dioxide) should be shipped in tightly sealed containers, protected from moisture and incompatible substances. It is typically transported as a non-hazardous powder under normal conditions. Adhere to local, national, and international regulations, labeling containers appropriately. Store in a cool, dry, well-ventilated area away from heat and strong acids. |
| Storage | Titanium oxide should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area, away from moisture and incompatible substances such as strong acids or alkalis. Protect the chemical from physical damage and avoid dust generation. Keep storage area free of combustible materials. Proper labeling is essential to prevent accidental exposure or misuse. |
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Purity 99.9%: Titanium Oxide with purity 99.9% is used in photovoltaic coatings, where enhanced photoelectric conversion efficiency is achieved. Particle Size 20 nm: Titanium Oxide with 20 nm particle size is used in sunscreen formulations, where superior UV blocking performance is provided. Anatase Phase: Titanium Oxide in the anatase phase is used in self-cleaning glass, where increased photocatalytic degradation of organic contaminants occurs. Surface Area 100 m²/g: Titanium Oxide with surface area of 100 m²/g is used in gas sensors, where improved sensitivity and rapid response time are obtained. Melting Point 1843°C: Titanium Oxide with melting point 1843°C is used in refractory ceramics, where high thermal stability is maintained under extreme conditions. Photocatalytic Activity 10 μmol/h: Titanium Oxide with photocatalytic activity of 10 μmol/h is used in air purification systems, where accelerated decomposition of volatile organic compounds is ensured. Viscosity Grade High: Titanium Oxide with a high viscosity grade is used in paint manufacturing, where increased opacity and uniform dispersion are achieved. Specific Surface Area 150 m²/g: Titanium Oxide with specific surface area of 150 m²/g is used in lithium-ion battery electrodes, where enhanced charge/discharge capacity is realized. Stability Temperature 600°C: Titanium Oxide with stability temperature of 600°C is used in catalyst supports, where resistance to sintering and thermal degradation is provided. Crystal Size 5 nm: Titanium Oxide with crystal size of 5 nm is used in transparent coatings, where improved optical clarity and minimized light scattering are attained. |
Competitive Titanium Oxide prices that fit your budget—flexible terms and customized quotes for every order.
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On our production line, titanium oxide isn’t just a chemical formula or a neat white powder. We know it up close: a finely milled, enduring material that gets its place in countless industries because of its natural brightness, strong covering power, and durability. The workers handling raw ore, the engineers adjusting calcination temperatures, even the maintenance crew clearing filters—all of us see its potential and challenges firsthand. Our approach centers on experience, consistency, and end-use performance, not just meeting broad specifications.
Different recipes and process tweaks lead to different grades of titanium oxide. Not all customers need the same thing. Some ask for rutile, others lean toward anatase. Our R-998 rutile grade, for example, uses advanced chloride process technology, giving it a brightness that paints and plastics manufacturers want. On the flip side, the anatase types—like A-280—have a softer touch, so paper and ceramic makers lean that direction when they want a lighter hand in the mix and a bit more ease in dispersion.
In the plant, the shift from rutile to anatase is not just about marketing; it follows from feedstock quality, the way we control our kilns, and even water management during hydrolysis. Some clients ask, “Does rutile grade last longer outdoors?” Years of field feedback say it does. That’s why building paints and automotive coatings use R-998. On the other hand, the anatase types find themselves in papers, PVC, and ceramics because their crystal structure fits the demands for softness and glossy surface in these products. This sort of industrial specialization comes from daily production, not just from technical brochures.
We don’t chase specs for their own sake. The TiO2 content matters most—usually above 98 percent for premium grades. Iron and other metal impurities? Too much, and you end up with off-shade powders that no paint formulator wants. We measure not just what's easy to control, but also the surface treatment. Silicon, aluminum, or zirconium coatings make a big difference. Depending on the process, a silica/alumina coating can control photocatalytic activity and protect polymer chains in plastics. That's not minor; it’s the difference between a plastic chair that stays white under the sun and one that turns yellow in a year.
Particle size range comes next. If you grind too fine, the powder might agglomerate during transport. If it’s too coarse, you lose coverage in paints or gloss in papers. From our own returns and quality checks, we see that a narrow D50 (median particle diameter) around 0.25 microns for rutile, and a little larger for anatase, helps downstream processors achieve superior results. These are targets we adapt to, not just numbers in a book.
We send out tons of this oxide daily, and we constantly hear from clients about how it behaves in the real world. For paints and coatings, our R-998 finds its main use in both water-based and solvent-based systems. It provides high hiding power and disperses smoothly when mixed with modern acrylic or alkyd resins. The solid whiteness comes not only from our base ore but also from our attention in the grinding phase. That detail matters when a paint must stand up to weather—UV rays, rain, and air pollutants. We hear from architectural clients whose buildings in humid zones keep their color even five years on, thanks to stable rutile TiO2 and the silica shield we engineer into every grain.
Paper manufacturers pick anatase grades, like our A-280, because it imparts better whiteness and opacity with a less abrasive finish. Some pulp processors run high-speed coaters, and if the TiO2 is even slightly off spec, it leads to costly downtime for equipment cleaning. Our direct involvement in production gives us the discipline to keep impurity levels low and particle shapes uniform. Paper makers need that, because the finished paper has to take ink well and resist yellowing, especially for glossy magazines and specialty packaging.
We see a wide range in titanium oxide quality across the global market. Some material, especially from lesser regulated regions, carries more impurities or inconsistent batches. When clients switch to our supply from these sources, they report fewer defects and higher yields in end-products. We stick with a directed process, watching each stage from ore selection to calcination to post-treatment. Quick fixes or shortcuts often mean fluctuating brightness or hiding power later. That's not a theory—some coatings producers who switched to cheaper TiO2 grades spent much more later on warranty claims for color loss.
The way we approach surface treatment also sets us apart. Some competitors simply spray coat the powder, but our double pass deposition creates a tighter, more even barrier. That matters not only for weathering resistance outside, but also for thermal stability during plastics extrusion. We keep in touch with extruders and painters who run continuous lines. They notice lower scrap rates and longer filter lives when using our product.
Talk of “premium” or “high performance” isn’t empty. On the shop floor and in the lab, we test every batch. Titanium oxide, to us, is not just about high TiO2 number. The key metric is batch-to-batch reproducibility. We work with continuous belt calcination to keep temperature profiles steady. Off-gas is monitored for sulfur and chlorinated compounds to avoid cross-contamination. Our on-site lab checks for not only color by colorimeter, but also for dispersibility and oil absorption, because some customers care about how TiO2 spreads in a polyester matrix as much as about final shade.
Some of our partners in the masterbatch and plastics sectors talk about “yellow phase” or re-processing issues. We see fewer of those calls since shifting to an improved washing process and tighter controls on mineral acids and waste streams. It takes real sweat and know-how to get results that keep downstream processors happy, batch after batch.
The biggest slice of our titanium oxide moves toward paints, but serious demand comes from plastics compounding, especially as packaging shifts away from PVC into polyolefins. Makers of food grade and medical goods pay special attention to trace metal levels and surface treatments. They want assurance that no residual sodium, iron, or trace metals slip through. We update our scrubbing and filtration units to match these needs, and it’s common now to field questions from multinational buyers about our analytical protocols. Our own internal controls match or exceed standards set by global agencies.
Ceramics, inks, catalysts, rubber compounds, and even cosmetics still rely on both rutile and anatase grades. Many beauty industry players now look for low-lead and low-arsenic materials. We keep levels far below published limits, not only by using cleaner ore but also by double-filtering during the slurry stage. This practice came in response to demand for eco-labels and “clean beauty” certifications—a real-world reaction, not a distant trend report.
Our experience says it plainly: long life and environmental compliance start in the production hall. Titanium oxide sounds inert, but how it’s made affects everything from carbon footprint to workplace air quality. We keep emissions low by recycling reaction offgases and pushing for energy recapture in calcination lines. Solids waste, mostly spent minerals, gets recovered for cement fillers local to our plant. These changes matter for compliance, but also for relationships with nearby communities. Being a steady, responsible neighbor counts in today’s market because scrutiny doesn’t stop at product quality.
More customers now request information about our lifecycle approach and request independently verified emission records. We share this openly. Customers need to know their own downstream environmental impact. Our openness has helped forge repeat business; nobody wants to risk shutting down a supply chain because of hidden environmental oversights.
Titanium oxide isn’t a raw commodity for us—it’s a product shaped by real-world needs. Some paint manufacturers hit snags with dispersion in new eco-friendly binders. They reach out, and our technical group walks through the process on-site, even running pilot batches. Over the years, this support has led to tweaks in our grinding curve or minor chemical changes in surface treatment to fit new formulating challenges. Success comes from feedback loops between our labs and our partners. Our teams have developed rutile grades with higher resistance to chalking for outdoor plastics and improved anatase tailored to minimize abrasive wear in decorative papers. These aren’t brochure features—they come from working side by side with clients who have deadlines, cost limits, and end-user expectations.
R&D isn’t guesswork. We analyze market demand shifts—such as higher rutile content for traffic paint and reflective road markings—and gradually add those tweaks into pilot production. We test every material under accelerated UV, humidity, and thermal cycling to reproduce what happens in the field. Failures teach us as much as successes. End products only meet market demands because feedback from failure has shaped our process recipes.
We can’t pretend all is perfect. Price pressure from global competition, unpredictable mining conditions, or changes in regulatory rules sometimes challenge us. For example, a new restriction on sulfate discharges forced us to invest in upgraded waste neutralization units. Rather than outsourcing this headache, we refined our gypsum precipitation process and reduced our reliance on external disposal. This not only met compliance but also cut costs over time. That kind of solution comes from real shop-floor experience, not just consultancy slides.
Upgrading to new technology isn’t a risk-free leap. We phased in continuous micronizing mills and wet-scrubbing units, pausing often to check lines and learn from short-term glitches. This hands-on, steady approach is the only way to keep final TiO2 quality reliable while bringing our plant’s environmental metrics in line with world standards.
We encourage feedback from applicators, converters, and mixers. If there’s an issue—say, powder caking in humid transport or unexpected dust during plastics blending—we gather samples, run tests, and tweak our moisture control strategy or antistatic agents. This continuous adaptation is only possible because we believe communication on the factory floor is as crucial as laboratory precision.
Many technical guides outline rutile and anatase differences. From what we see, rutile excels when maximum weather resistance, high reflectivity, and least yellowing matter. Its compact crystal structure stands up to harsh sun and extreme climate. Our own sag tests, done in accelerated weather cabinets, reveal rutile holds up three times longer than anatase in outdoor signage and construction panels. Customers who paint oil tanks, pipelines, or marine equipment want rutile, plain and simple.
Anatase stands out for paper, ceramics, and some pharmaceuticals. Its lighter touch and easy dispersion match high-speed paper coaters and glaze formulations. Since anatase can be more photoactive, customers using it in packaging films—or any setting exposed to sun—watch for stability. We modulate this by targeted alumina and silica coatings and tight impurity controls during the hydrolysis steps. We don’t sell one-size-fits-all. Our grade choice depends on deep conversation with the end user, supported by years of returns data and on-site experience across many sectors.
All producers claim “high hiding power,” but experienced processors know not every batch delivers consistent results. We run regular grind and dispersion checks and match optical data from our in-house labs with standardized industry readings. Each client has their own formula demands; automotive paint finishers, paper mills, flexible film extruders. We supply technical teams who understand how even a fractional shift in refractive index or particle size distribution transforms gloss, contrast, and finished appearance. Those insights help customers save money on pigment loadings without sacrificing quality.
Practical production adjustments—like switching the way rutile particles are treated—can make a visible difference. We often hear from cord coating producers and outdoor paint lines that our product builds opacity at lower loadings compared to imported batches. Our ops team stays in close touch with formulators to keep pushing improvements that are felt down the production line, not just on paper.
There’s no shortcut to reliable titanium oxide. Many of our team have spent decades adjusting lines, managing supply contracts, or firefighting shipment incidents—like a shipment stuck in a tropical port with humidity rising. These aren’t rare headaches. We prepare contingency stock and develop packaging suited to local conditions. In every batch, packaging matters as much as the powder inside. Double-sealed inner liners, anti-static bags, and trace-coding prevent contamination, moisture uptake, or material loss. Maintaining top tier quality doesn’t end at the plant; it travels the whole way to the user's mixer or dispenser.
Our production volume and process scale mean quick pivots are rare. We plan for stability, investing in predictive maintenance and process automation to minimize unforeseen downtime. This hard-won stability defines our reliability to clients, who would prefer not to halt their own lines because of a missing or off-spec bulk delivery. We keep technical communication open, not only through standard documentation but with direct links between our lab and customer process engineers. Years of experience tell us that tech-to-tech conversation solves more problems than emails ever could.
Markets move fast. Regulatory shifts, demand for ever-cleaner pigments, and push for traceability in the supply chain—these forces drive how we operate. We’re investing today in process upgrades that enable our TiO2 to meet rising purity and performance demands. Customers increasingly want evidence not just of product quality but of social and environmental responsibility. We’ve come to see that open reporting, third-party audits, and regular dialogue with buyers aren’t burdens—they help us improve and sustain trust even as competitors enter the field.
As electric vehicles, green construction, and renewable energy applications grow, titanium oxide finds new uses, from reflective road paints for smart transportation to advanced films in solar modules. We’re close to these developments. We work with partners designing specialty grades to meet changing technical needs. From anti-fog coatings for optical lenses to ultra-bright labels for high-end packaging, titanium oxide keeps evolving—but it remains, for us, a daily matter of discipline, transparency, and the craft of responsible manufacturing.
If there’s a secret to delivering value with titanium oxide, it's respecting the material and the process it demands. Every step matters: from sourcing high-grade ilmenite or rutile ore to managing energy and emissions, to filtering the slurry and coating every particle. We bring experience, practical insight, and steady commitment in every batch shipped. The trust we’ve built with end users came not from smooth marketing, but from years of digging in to solve real-world problems, improving purity, and tailoring grades to real needs. Titanium oxide remains essential in global industry, and as manufacturers, we bear the responsibility to keep raising the bar with every shipment sent out the door.