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HS Code |
859328 |
| Chemicalname | Cerium Nitrate |
| Chemicalformula | Ce(NO3)3 |
| Casnumber | 10294-41-4 |
| Molarmass | 326.13 g/mol |
| Appearance | White to pale yellow crystalline solid |
| Solubilityinwater | Highly soluble |
| Density | 2.05 g/cm³ |
| Meltingpoint | 65 °C (decomposes) |
| Odor | Odorless |
| Ph | 2.5 - 4 (0.1M solution) |
| Boilingpoint | Decomposes before boiling |
| Refractiveindex | 1.656 |
| Hazardclass | Oxidizing agent |
| Stability | Stable under normal conditions |
| Storage | Store in a cool, dry place, tightly closed |
As an accredited Cerium Nitrate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | White plastic bottle with a secure screw cap, labeled "Cerium Nitrate, 100g," featuring hazard symbols and handling instructions. |
| Shipping | Cerium Nitrate is shipped as a hazardous material under regulated conditions. It must be securely packaged in corrosion-resistant containers, clearly labeled, and accompanied by proper documentation. Transport is subject to international and local regulations (such as DOT, IATA, IMDG), requiring handling by trained personnel and compliance with safety guidelines to prevent spills or exposure. |
| Storage | Cerium nitrate should be stored in a tightly sealed container in a cool, dry, and well-ventilated area, away from heat and sources of ignition. It must be kept out of direct sunlight and away from incompatible substances such as combustibles, reducing agents, and organic materials. Proper labeling and secondary containment are recommended to prevent accidental spills or leaks. |
Applications of Cerium Nitrate in Industrial ManufacturingCerium nitrate, as a specialized rare earth compound, supports a narrow range of advanced technical processes across glass, electronics, catalysis, and chemical synthesis industries. Our experience as a direct manufacturer enables close technical collaboration with global customers strictly within these validated downstream sectors. 1. Precision Glass Polishing CompositionsCerium nitrate serves as a key additive in slurry preparation for glass polishing, especially in flat panel, optical lens, and crystal substrate finishing. Customers rely on our high-purity material to achieve controlled polishing rates and uniform surface quality for applications demanding strict flatness and clarity. Our QC follows the needs of advanced polishing compound producers where trace metal contaminants directly impact end-user performance. Industry compliance standards
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2. Catalytic Converter Washcoat PreparationIn automotive emission control, cerium nitrate acts as a cerium oxide precursor for washcoat materials on honeycomb and metal substrates. High-purity delivery and consistent nitrate decomposition properties underpin downstream catalysis activation. We supply customers who require stringent trace metal limits for stable engine durability. Industry compliance standards
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3. Specialty Ceramic Pigment SynthesisCerium nitrate features as a flux and color development agent in the synthesis of high-temperature inorganic pigments, particularly for applications in porcelain enamel and advanced ceramics. Our technical support covers pigment mass tone reproducibility and minimization of impurity-driven color deviation, which are critical for ceramic tile and enamel manufacturers. Industry compliance standards
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4. Rare Earth Analytical Standards ProductionSpecialty laboratories and certified reference material (CRM) producers use cerium nitrate for the manufacture of rare earth solution standards. The controlled purity grade, traceability, and consistency help ensure high-precision calibration of spectrometric and instrumental analytical methods for the rare earth industry and environmental agencies. Industry compliance standards
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5. Chemical Intermediate for Specialty SynthesisProducers of fine chemicals and functional materials use cerium nitrate as an oxidizing agent or blocking reagent, especially in organic synthesis routes requiring mild oxidation or selective functional group protection. Our material, offered with full impurity profile disclosure, helps customers avoid yield loss and downstream color instability. Industry compliance standards
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Competitive Cerium Nitrate prices that fit your budget—flexible terms and customized quotes for every order.
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At our plant, Cerium Nitrate starts with careful attention to raw inputs—clean cerium oxide, select nitric acid, pure water. We manage every step in-house, from processing cerium oxide to precision crystallization and drying. This effort leads to a product with high purity and consistency batch-to-batch, a detail that defines our reputation.
We often produce Cerium Nitrate in a hexahydrate form, with a typical assay well above 99.5%. Our customers expect this level, and we uphold it through regular analyses and traceability for every shipment. Moisture content often stays within a tight window due to our controlled drying methods and prompt packaging. The solution version, which some labs or glassmakers prefer, receives equal attention for clarity and concentration.
Much of the Cerium Nitrate we supply goes to catalyst manufacturing. Catalyst producers value rare earth purity for one reason—metal contaminants sabotage catalytic performance. We know ammonia production and auto catalyst production both depend on reliable supply, so we monitor metals like iron, copper, and lead at low ppm thresholds. This work builds a foundation for measurable outputs in downstream processes.
In glass polishing, Cerium Nitrate transforms into Cerium Oxide. The key difference here is in how clean the nitrate starts—trace sulfur or other rare earth elements can reduce polish efficiency or affect the surface of the glass. Our controlled process, backed by regular ICP-MS testing, keeps these unwanted extras out. Mirror finish in optical glass, scratch-free surfaces in flat glass, and restoration of crystals all tie back to Cerium Nitrate that does not introduce variables into the process.
Laboratories use Cerium Nitrate as a strong oxidizing agent in ceramics, synthesis, and specialty chemical research. The high solubility of our product and its low loss on ignition matter here. In practice, chemists avoid repeated filtering or washing steps, saving both trouble and time. Batch records, full analytical data, and decades of process control hold up to scrutiny.
Our experience with Cerium Nitrate has shown how its reactivity and handling set it apart from other cerium salts. Cerium Chloride, for instance, may bring chlorine contamination—a factor that rules it out in some glass and catalyst applications. Cerium Sulfate can be tricky because of its limited solubility and the presence of sulfur, problematic for labs targeting uncontaminated oxidizing environments.
Cerium Nitrate stands out in purification and ease of use. Nitrate ions are more labile, which benefits reaction speed and leaves less behind. At scale, this lowers costs associated with post-reaction filtration or washing. We see manufacturers switching from other cerium salts to our Cerium Nitrate precisely for these reasons, based on clear needs in their process flow.
Handling matters—Cerium Nitrate has a moderate level of hygroscopicity, meaning overexposure to air can bring in water from the environment. Our packaging, designed in consultation with users, guards against caking or hardening that some competitors’ products show after transport or longer storage.
It’s easy to overlook the details in chemical manufacturing. Cerium Nitrate buyers might compare price and minimum order first, but performance always comes back to purity, stability, and lot uniformity. Through years at the plant, we’ve seen customers try generic grades and return to us. Some of these challenges can be traced to unchecked trace metals. Without rigorous process discipline, iron, copper, and zinc climb to unacceptable levels, ruining catalyst performance and introducing defects into glass or ceramics.
Even the drying stage matters. Fast, uncontrolled drying produces fine dust that leads to loss and difficult handling during transfer. Slow, moisture-rich drying leaves the hexahydrate unstable in storage. We chose a method that gives crystalline material free from dust or sticky agglomerates. This keeps flow easy in automated systems and helps manual users measure more accurately.
Analytical equipment has improved over the years, so we now detect and remove even lower levels of potential contaminants. Upgraded ICP and wet chemical analysis support our claim of high purity. Customers supply us with their process residue, and we return with trace element maps and process recommendations. By keeping open lines of communication over years instead of just orders, both sides benefit from shared know-how.
Regulations on rare earths continue evolving, especially regarding sourcing and environmental impacts. We source cerium from certified mines, with full documentation on chain of custody. Our waste nitrate and water streams meet strict discharge criteria after on-site neutralization and filtration. Local authorities inspect our site regularly; these partnerships ensure we adapt when laws change, while keeping production steady for customers.
Some users ask us about alternatives and low-impact product choices. Cerium Nitrate offers higher atom economy in many oxidation and glass processes, reducing scrap and byproduct waste compared to chlorides or sulfates. Our internal recycling of process water and nitrate streams cuts overall water consumption over the year, something we share with partners working toward sustainability targets.
Hazard statements on our labels match actual conditions in the plant. Cerium Nitrate is oxidizing and exothermic on contact with organics. These risks demand competent handling—our team leads training sessions for bulk clients seeking to revise their own safe handling protocols. Designated ventilated rooms and materials tracking limit risk, yielding a steady safety record over the past several years.
Different industries demand different specifications. Glassmakers and catalyst producers focus on trace metals, large volume stability, and predictable delivery. Labs ask us to guarantee batch homogeneity, fine crystal size, and accurate water content. We track every lot by production date and retain samples for two years—customers can trace back any batch they receive and compare to our archived test results.
Questions from users sometimes cover things rarely found in general documentation. One research group asked about isotope ratios, given their work in geochronology and environmental tracing. While most Cerium Nitrate is not enriched or depleted in specific isotopes, our process leaves the natural distribution undisturbed—traceable back to the certified mine source. In specialty cases, we connect clients directly with our technical team for project-specific adjustments.
Technical support is not just troubleshooting. It includes notification for any process shift or raw input change, results of yearly process capability studies, and quality trends over time. We answer requests for custom drying, extra-fine sieving, or specific packaging formats—ranging from bulk drums to small resealable pouches intended for glovebox work in sensitive labs.
Getting Cerium Nitrate from the plant to the customer sounds obvious—bulk container, sealed bag, sent by road or rail. In practice, this step throws up unexpected challenges. Cerium Nitrate’s hygroscopicity and oxidizing nature call for containers with strong liners and secure closures, without overcomplicating user access onsite.
We keep inventory in a climate-controlled warehouse, not because Cerium Nitrate breaks down quickly at room temperature, but because swings in humidity can change product flow and caking potential. Direct sunlight does not destroy Cerium Nitrate but can cause water inside bags to heat up and condense, eventually changing water content and causing uneven dosing.
During transit, vibration and temperature shifts happen. Our experience includes trialing several bag types—plain polyethylene, multi-layer foil, and specially coated kraft paper. The multi-layer foil keeps moisture out, prevents static charge, and resists accidental rupture if knocked or dropped. Bulk users prefer drum packaging lined with the same material, which allows automated handling while keeping the product closed until use.
Feedback from long-distance shippers led us to reinforce box seams and use compact pallets to limit shifted loads. Less knocking about means less dust and fewer fines at the bottom of bags, which often go to waste unless recovered for batch blending. Taking advice directly from those unloading the trucks led to packing improvements for both bulk and small-lot customers.
Over the years, success with Cerium Nitrate has not come from theory or copying larger firms. Continuous investment in equipment and training brought down contamination rates and raised batch consistency. Steady orders from returning customers show real-world impact. Processes improve each year—from switching to cleaner water sources, to slowing certain precipitation reactions to reduce unwanted residuals. These simple lessons did not come from a manual; they came from working hands and real results, from repeated batch failures and from customer complaints turned into better products.
We track metrics that matter, such as unexpected shipment returns, customer complaints, or batch rework requirements. Each time a customer points out an improvement, whether packaging layout or handling bulletin detail, we absorb those lessons for the next cycle. Our plant team owns these refinements and applies them to each day’s work.
Market challenges remain—raw material prices fluctuate, logistics can slow unexpectedly, and regulations adapt faster than documentation updates. Experience tells us not to relax after solving one problem. We send out sample packs for new applications, participate in user forums, and publish selected process improvements to offer value back into the supply chain. Years of learning in connection with real users, not just paper guidelines, bring fresh insights on where Cerium Nitrate fits, why it can outperform other salts, and how it strengthens our relationship with users.
Cerium Nitrate’s uses keep changing. Now, electronics firms probe its compatibility for new rare earth-based screens and energy devices. Glass recycling plants develop protocols that rely on higher-purity Cerium Nitrate blends. Academic labs request specialty hydration levels for complex syntheses. We see these changes not as disruptions but as opportunities to adapt and contribute directly to the field.
We invest in small-scale pilot runs for emerging needs—developing insights on new process conditions, or blending Cerium Nitrate with other compounds for unique factory trials. Customers have options, but consistency in quality and openness to feedback remain our main strengths.
Our work does not end at the shipping dock. User challenges become our own, and technical progress in Cerium chemistry means adapting every year. Building a better Cerium Nitrate involves both the people who make it and those who transform it into something new—each batch, each application, each shared lesson adds to the recipe. This ongoing process shapes our future and keeps Cerium Nitrate relevant to innovation in manufacturing, research, and environmental responsibility.