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HS Code |
233540 |
| Chemical Name | Zirconyl Nitrate |
| Chemical Formula | ZrO(NO3)2 |
| Molar Mass | 241.24 g/mol |
| Appearance | White to off-white crystalline solid |
| Solubility In Water | Soluble |
| Melting Point | Decomposes upon heating |
| Cas Number | 13746-89-9 |
| Density | 2.502 g/cm³ |
| Odor | Odorless |
| Ph Of Solution | Acidic |
| Hazard Class | Oxidizing agent |
| Storage Conditions | Store in a cool, dry place away from incompatible materials |
As an accredited Zirconyl Nitrate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 250g of Zirconyl Nitrate is securely packaged in a sealed, labeled HDPE bottle with a tamper-evident cap for safe handling. |
| Shipping | Zirconyl Nitrate is shipped in tightly sealed, corrosion-resistant containers to prevent moisture and contamination. Transported under UN 2728 classification, it requires proper labeling as an oxidizer and compliance with hazardous material regulations. Avoid contact with combustibles and store in a cool, dry, well-ventilated area during transit. |
| Storage | Zirconyl nitrate should be stored in a cool, dry, and well-ventilated area, away from direct sunlight, heat sources, and incompatible materials such as organic substances and reducing agents. It must be kept in tightly sealed containers, preferably made of materials resistant to corrosion. Proper labeling is essential, and access should be restricted to trained personnel to ensure safety. |
Applications of Zirconyl Nitrate in Industrial ManufacturingAs a direct manufacturer of Zirconyl Nitrate, we supply high-purity grades purpose-formulated for established industrial sectors. Each application below details compliant use within production flows, addressing the specific technical role, dosing, regulatory milestones, and downstream product outcome based on current global demand. 1. Ceramic Pigment and Glaze FormulationZirconyl Nitrate ensures consistent zirconium incorporation in the synthesis of advanced ceramic pigments and specialty glazes, particularly in the tile, sanitaryware, and advanced technical ceramics industries. Producers add this precursor during aqueous blending stages to achieve targeted dispersion, thermal stability, and color development, meeting critical performance and food-contact requirements. Selection of addition rate is process-dependent to balance optimal insolubilization with crystal phase and firing profile, producing durable and stable surface finishes valued in architectural, decorative, and cookware markets. Industry compliance standards
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2. Zirconia-Based Catalyst Precursor FormulationProcess engineers in petrochemical and environmental industries select our Zirconyl Nitrate for its controlled hydrolysis and impurity profile during the co-precipitation and impregnation of catalyst supports. This input is essential for stable ZrO₂ phase development and dopant dispersion in automotive, refinery, and emission control catalysts. Blenders dose the solution into active media followed by drying and calcination to achieve targeted surface area, porosity, and active phase accessibility, all under demanding global compliance frameworks. Industry compliance standards
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3. Optical Glass and Crystal Growth AidsPrecision glass and optical material manufacturers add our high-purity Zirconyl Nitrate as a controlled zirconium source during the melt or sol-gel phase when producing specialty glasses or laser host crystals. Its use stabilizes refractive index, minimizes unwanted coloration, and improves UV absorption cut-off. Producers strictly monitor dosing to achieve uniformity and product clarity, documenting every batch for traceability and customer audit readiness under advanced photonics industry standards. Industry compliance standards
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4. Surface Treatment for Corrosion-Resistant CoatingsCoating system manufacturers leverage controlled reactivity from our Zirconyl Nitrate to deposit zirconia conversion layers on metal substrates, particularly in aerospace, electronics, and automotive corrosion protection. Operators inject aqueous solutions into pre-treatment lines or spraying units, forming nano-structured interfacial layers that dramatically enhance paint adhesion and extend lifecycle under harsh mechanical and environmental stress. Regular quality control tracks nitrate residue, phase composition, and film thickness to fulfill regulatory documentation. Industry compliance standards
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5. Advanced Inorganic Synthesis and Research ApplicationsR&D and production chemists in advanced materials laboratories use our Zirconyl Nitrate as a precise zirconium input for sol-gel, nanostructured oxide, and precursor chemistry—serving battery, fuel cell, and ceramic membrane innovation. Consistent reactivity enables tightly controlled particle size, phase composition, and impurity levels at both pilot and kilo lab scales. Documented supply chain traceability, batch purity analysis, and technical support meet the demands for quality and compliance in pre-commercial and niche industrial runs. Industry compliance standards
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For many years, our team has focused on producing zirconium-based chemicals for industrial use. Zirconyl nitrate, one of our core products, continues to create new opportunities for users who require reliable and high-purity solutions. From catalysts to advanced ceramics, it forms the backbone of several industrial processes. We’ve worked with this product day in and day out, and that experience has underscored just how distinct it is compared with other zirconium salts or nitrates available on the market.
Most folks outside the chemical manufacturing world don’t see the detailed effort behind every batch. We don’t cut corners, and our site’s closed-loop systems help us deliver a consistent, high-grade product batch after batch. In our facility, we produce zirconyl nitrate with a molecular formula of ZrO(NO3)2∙xH2O, commonly found in solution form, though powder is an option for special requirements. Years spent refining our synthesis route have made our product trusted in sectors that demand clarity and performance with minimal contamination.
We monitor every stage, from raw material sorting to dissolution. Everything starts with premium zirconium oxychloride, which we source ourselves from robust upstream partners, mostly using stabilized zircon sand. Our nitrate conversion process controls for byproducts, so customers don’t open a drum only to deal with unexpected residues or subpar behaviors during downstream processing. The end result: a transparent to pale yellow solution, free from insoluble particulates, with tight control of free acidity, nitrate ion content, and heavy metal impurities.
In some applications, just being ‘good enough’ can cause major setbacks. For instance, when formulating catalysts for fuel cells or emissions control, trace metals or excessive acidity can throw off performance. Ceramic and pigment producers demand clean chemistry, whether they’re developing dielectric layers for electronics or seeking uniform color dispersion. We’ve tailored our in-house purification lines and regularly test for iron, aluminum, titanium, and even traces of phosphorus, because a few dozen ppm can mean the difference between an accepted lot and a costly batch rejection. This isn’t a box to tick — it’s baked into how we operate. Feedback from advanced material manufacturers often points to our consistency as an edge over competing suppliers who rely on outsourced or batch-based methods and can’t validate each drum like we do.
Zirconyl nitrate carries its own set of chemical advantages relative to other zirconium compounds like zirconyl chloride or zirconium oxychloride. Its nitrate backbone gives it better solubility in water, which matters when blending into aqueous systems or during gel formation for advanced ceramics. Industries using zirconyl nitrate in catalyst production often find that it enables more direct precipitation routes for mixed oxide supports. The nitrate ions, as opposed to chlorides or sulfates, cause fewer downstream contamination headaches. Customers in the pigment industry also report more stable color results thanks to that lowered impurity profile.
If the batch is destined for sol-gel synthesis, purity—especially control over alkali and transition metal content—makes or breaks how particles agglomerate, which in turn affects not only optical properties in ceramics but also how certain doped phases behave at high temperatures. We noticed several customers making novel barium zirconate or lanthanum zirconate ceramics can eliminate a pre-leaching step, saving them time and solvent costs because our product consistently meets their phase purity standards.
We offer zirconyl nitrate primarily in liquid form, at concentrations typically ranging from 15% to 20% (calculated as ZrO2). For those pursuing research or pushing the limits in advanced manufacturing, we accommodate requests for custom concentrations or hydrated crystalline forms, where solubility or drying performance needs tweaking. Appearance stays within a transparent to moderately pale yellow, and we keep pH between 0.5 and 2.5, measuring at specific gravity readings that remain steady lot to lot. The nitrate content sits close to theoretical, and thanks to controlled starting material, the sodium and potassium levels remain well below 50 parts per million.
End-users in the electronics or optical glass space often ask about rare earth content, since contamination here can sabotage a whole batch of high-value components. Our in-house labs test elements like yttrium, lanthanum, and cerium, always reporting levels far below industry tolerances. With regular batch records stretching back years, traceability remains a top priority. If issues pop up during application, we help customers track back not only to our lot production but even to procurement of upstream raw materials.
End-users span multiple markets, but the theme centers on chemistry that performs without drama. In the catalyst sector, we’ve watched users load zirconyl nitrate into silica or alumina carriers to make automotive emissions catalysts that need uniformity at the micro scale. Others employ it in the preparation of mixed-metal oxide monoliths, where the presence of nitrates helps promote even distribution of active sites. Because our solution dissolves rapidly and leaves no insoluble matter, batch reproducibility improves, shaving hours off filtration and clarifying steps.
For ceramic manufacturers, especially those working with yttria-stabilized or magnesia-stabilized zirconias, the presence of nitrate ions streamlines the co-precipitation and drying phases. Thanks to the clean feed, sintering contracts less, and shrinkage on firing is more predictable, aiding in final product tolerances. Decorative pigment customers, especially those focused on deep yellows and reds, point to the cleaner backgrounds achieved due to the low transition metal levels. This means fewer reformulations and less waste, which reduces both direct costs and environmental impact.
Across our production lines, we offer several zirconium salts: zirconyl chloride, zirconium oxychloride, and even basic zirconium sulfate, each with its own niche. Yet, the differences come through clearly during real-world application. Zirconyl chloride, with its chloride backbone, introduces problems downstream if the user needs low-sodium or non-corrosive systems. That’s a common concern among electroceramic and glassmakers, since residual chlorides can stick around, degrading dielectric performance or causing leaching.
Zirconium oxychloride gets used heavily in traditional ceramic opacifiers, but customers who move into advanced ceramics or catalysis start steering away from it due to the persistent risk of hydrolytic instability and metal impurity carryover. As for basic zirconium sulfate, applications like water treatment or antiperspirant formulations leverage it, but attempts to substitute it for nitrate in formulated catalysts or high-purity ceramic applications usually fail due to the complexity of its residue profile and difficulties in consistent dissolution.
What really separates zirconyl nitrate from our other products is the way it interacts with downstream reagents. Customers tell us that, compared with zirconyl chloride or oxychloride, nitrate-based solutions provide greater flexibility during pH adjustment, and since nitrate decomposition is more straightforward, they encounter fewer issues with persistent byproducts lingering in calcined powders. In sol-gel work, for example, this becomes a key deciding factor. Laboratories pushing boundaries in nano-powder synthesis prefer nitrate-based feeds because they can better control hydrolysis and condensation rates, giving them a tighter particle size distribution and fewer agglomerates.
No product comes without challenges. Working with nitrate-based solutions always brings a set of considerations, primarily regarding safe storage and shipment. Nitrate salts are oxidizing and, in high concentrations, can pose transport restrictions under certain regimes. We’ve addressed these issues over the years with robust packaging—a corrosion-resistant plastic drum system that isolates contents from air while preventing UV exposure. On top of this, our teams strictly manage inventory turnover to ensure maximum product freshness and minimal nitrate decomposition. We’ve taught downstream users the importance of careful temperature and light management. It’s not just an afterthought—success on the factory floor starts back at the storage dock.
There are also challenges with scale-up from research to industrial production. Some customers discover performance deviations between kilogram and ton batches due to handling or mixing inconsistencies. We’ve found the solution lies in partnership. Our support isn’t just documentation; it’s regular check-ins and, if required, on-site troubleshooting. Whether one-off or ongoing, we lend our experience to tweak dosing or mixing protocols. Our own internal scale-up work over the years has taught us how subtle changes—agitation speed, temperature, dilution ratio—can have outsized impacts on processing outcomes.
Many of our long-term clients care deeply about environmental compliance and workplace safety. Zirconyl nitrate, like all chemical reagents, carries its risks. Our manufacturing line includes solvent recovery and rigorous emissions monitoring to keep workplace conditions safe and downstream effluent below regulatory cutoffs. We help customers set up safe dilution and handling practices, particularly those ramping up for the first time. By taking responsibility for both our own processes and downstream impacts, we keep our product—and its users—in compliance with ever-evolving regulations, especially governing nitrates and waste water.
Waste management is another area we take seriously. Nitrate-containing effluents present challenges for industrial users because nitrogen compounds have strict discharge limits in many regions. We support users with best-in-class strategies for capture, reuse, and treatment, including recommendations from our own pilot line water treatment modules. Safe stewardship of the product, from cradle to grave, is an everyday priority.
Years of production have made it clear: the best improvements come from real world feedback. Advanced ceramic clients ask for even lower trace metal levels to push device performance limits. Pharmaceutical companies, venturing into next-generation drug delivery systems, encourage us to develop custom blending that offers more control over solubility and reactivity. Such partnerships have inspired new product variants, including exceptionally low sodium and iron models, specifically batch-tested for optical glass or ceramic matrix composites.
We don’t approach zirconyl nitrate as just another commodity. Our technical support and product development staff engage directly with factory teams, often collaborating to facilitate seamless integration into new formulations or processes. Whether it’s modifying hydration level for easier dissolution or adjusting nitrate ratio for reactivity fine-tuning, our close contact with end-users remains central to how the product continues to evolve.
All of the above wouldn’t mean much if we relied solely on a sheet of specifications. Our in-house quality system doesn’t end after dispatch. Every outgoing shipment includes a full certificate of analysis and full batch traceability, reflecting not only final results but also in-process quality checks. Customers routinely visit our facility for joint auditing and process alignment. Open communication about changes—whether deliberate or as a result of raw material source shifts—ensures shared understanding and eliminates surprises.
Despite enormous variation in global sourcing and regulatory burdens, our consistency has built trust, particularly among multinationals with critical dependences on each delivery. The confidence to plan large-scale production without requalification or secondary validation—this comes only when the manufacturer controls every detail, from raw material batch to tank washing schedule to lab reporting.
Staying competitive in technology-driven markets means more than just keeping up with demand. It’s about constantly improving the process. Our research teams track the latest in zirconium chemistry, from analytical best practices to new application breakthroughs in energy storage and green catalysis. Data from our production line feeds back into process adjustments. Improvements in filtration, new chelation steps, and advances in analytical instrumentation all find their way into the product, often before they become industry standard.
The network of users, from academics to advanced materials engineers, remains a key asset. Their feedback—ranging from product stability in long-term storage to performance in challenging formulations—drives targeted changes. We actively participate in industry forums and regulatory development bodies, sharing what works and what doesn’t. It’s common for a suggestion in a lab halfway across the globe to drive a change in our process a few months later. We don’t claim our product’s features are fixed; instead, the process of learning, implementing, and refining defines how we approach zirconyl nitrate.
Markets change, and so do technical demands. Electronics and optoelectronics continue to move toward tighter tolerances. The global pivot toward energy sustainability fuels demand for new catalysts and solid oxide fuel cells, many of which require advanced ceramics with tailored zirconium chemistry. As users redefine their needs, we adapt our zirconyl nitrate lineup, from concentration adjustments to ultra-pure lots for sensitive applications.
We expect new challenges ahead, especially relating to increasing environmental regulation and global supply chain shifts. By controlling our own supply of critical raw materials and investing in waste reduction, we stay ahead of both regulatory and market shifts. Our team is already testing new recycling approaches that recover value from spent solutions and off-spec batches. These projects are not theoretical; we use our own side-streams as pilot scale examples, proving the feasibility before recommending to our industry partners.
To all who build, test, and create with zirconyl nitrate, our commitment is to keep improving and listening. Open channels, quick response, and willingness to adapt remain at the core of how we approach this unique and essential chemical. As a manufacturer, we see each batch not only as a product but as part of our shared project to raise the bar for safety, quality, and sustainability in the chemical industry.