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Zirconium Carbonate Oxide

    • Product Name Zirconium Carbonate Oxide
    • Alias Zirconyl carbonate
    • Einecs 235-758-3
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
    VTB
    Specifications

    HS Code

    267558

    Chemicalname Zirconium Carbonate Oxide
    Chemicalformula ZrO(CO3)
    Molarmass 147.24 g/mol
    Appearance White powder
    Solubilityinwater Slightly soluble
    Meltingpoint Decomposes above 200°C
    Density 3.4 g/cm³
    Ph Alkaline in solution
    Casnumber 1314-96-1
    Odor Odorless

    As an accredited Zirconium Carbonate Oxide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Zirconium Carbonate Oxide, 500g: Sealed in a durable, labeled HDPE bottle with tamper-proof cap, meets laboratory safety standards.
    Shipping Zirconium Carbonate Oxide should be shipped in tightly sealed containers, protected from moisture and physical damage. Store and transport in a cool, dry, and well-ventilated area. Follow all applicable regulations for handling chemicals. Label all packages clearly, and ensure compatibility with adjoining cargo to prevent contamination or hazardous reactions during transit.
    Storage Zirconium Carbonate Oxide should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from incompatible materials such as strong acids. Avoid moisture and direct sunlight. Store at room temperature and label the container clearly. Ensure storage area is free from combustible materials and that appropriate spill containment measures are in place to prevent contamination.
    Application of Zirconium Carbonate Oxide

    Applications of Zirconium Carbonate Oxide in Industrial Manufacturing

    Zirconium Carbonate Oxide serves key downstream sectors that require consistency in performance and adherence to strict quality protocols. Our material integrates into specialized processes across several advanced manufacturing fields. Below, we outline main industrial application areas with specific regulatory, process, and formulation details.

    1. Ceramic Glaze Production

    Ceramic manufacturers use Zirconium Carbonate Oxide for stabilizing and opacifying glaze formulations, providing a bright, uniform finish in sanitaryware, tableware, and technical ceramics. The compound improves whiteness and chemical stability. It disperses well in aqueous glaze slurries and controls crystallization during high-temperature kiln firing. Manufacturers value its consistent particle size for batch reproducibility across automated glaze lines.

    Industry compliance standards

    • ISO 13006:2018 - Ceramic tiles; product classification and requirements
    • DIN EN 14411 - Ceramic tiles, definitions and marking requirements
    • REACH Registration (EC 1907/2006) for safe handling in the EU
    • SGS and RoHS compliance for heavy metal limits

    Typical usage ratio

    • 3.5% to 8% by weight of total glaze slurry, depending on target opacity and kiln cycle
    • Adjust ratio for tile versus porcelain; higher loadings for sanitaryware opacity

    Downstream process integration

    • Dispersed into ball-milled glaze base with other opacifiers and fluxes
    • Added post-milling for specialty effect glazes; mixed with deionized water and dispersants
    • Slip applied by spraying, dipping, or doctor-blading before dry-off and firing up to 1250°C

    Final product types

    • Sanitaryware and sanitary fittings e.g., basins, toilet bowls
    • Porcelain and stoneware tiles
    • Technical ceramic substrates for electronics
    • Tableware and decorative glazes

    2. Fire-Retardant Coatings for Construction Materials

    Formulators in the building sector incorporate Zirconium Carbonate Oxide to enhance the fire-resistance of waterborne coatings, plasters, and sealants used in critical structures. The compound promotes refractory properties and minimizes smoke generation under combustion. Using our raw material, coating producers design systems that comply with safety codes for large projects, such as tunnels, public infrastructure, and high-rise buildings.

    Industry compliance standards

    • EN 13501-1: Fire classification of construction products
    • UL 723 (ASTM E84): Surface Burning Characteristics of Building Materials
    • GB 8624-2012: Classification for burning behavior of building materials

    Typical usage ratio

    • 5% to 12% by total solid content of intumescent coating systems
    • Adjusted based on other flame-retardant components and required protection class

    Downstream process integration

    • Premixed in aqueous dispersion tanks with antimony, phosphates, and binders
    • Added during let-down stage of waterborne acrylic or epoxy coating manufacturing
    • Homogenized under high shear before direct application onto steel, concrete, or composite panels

    Final product types

    • Intumescent coatings for steel frame structures
    • Fire-resistant wall plasters and panels
    • Protective coatings for public tunnels, airports, commercial buildings
    • Fire-barrier sealant compounds

    3. Catalysts in Petrochemical Synthesis

    Zirconium Carbonate Oxide enters as a precursor for preparing advanced catalysts used in petrochemical cracking, polymerization, and selective oxidation processes. Major catalyst producers manufacture zirconia-based supports and mixed-oxide catalysts with precise particle morphology, ensuring reactivity and selectivity in downstream reactor environments. Control of carbonate content during calcination is essential to yield the desired phase and porosity.

    Industry compliance standards

    • ISO 9001:2015 certified Quality Management Systems for catalyst manufacturing
    • API 931: Refinery Process Heaters for safety in operation
    • REACH/OSHA documentation and MSDS compliance for handling catalyst intermediates

    Typical usage ratio

    • Varies from 1% up to 10% by mass in catalyst precursor batches
    • Optimized according to target metal dispersion and active site density

    Downstream process integration

    • Co-precipitated with other metal salts prior to drying and calcination
    • Subjected to controlled thermal decomposition between 500–900°C to form ZrO2 support
    • Impregnated with metals such as Ni, Pt, or V for reactor-ready composite catalysts

    Final product types

    • Fluid catalytic cracking (FCC) catalysts
    • Olefin polymerization catalysts
    • Selective oxidation and hydrogenation catalysts
    • Mixed-metal oxide honeycomb catalysts for emission control

    4. Textile Surface Treatments

    Zirconium Carbonate Oxide provides crosslinking and wash-resistance in specialty finishing treatments for technical and medical textiles. Its usage confers enhanced abrasion resistance, durable flame retardancy, and antistatic behavior in synthetic fiber applications. Continuous and batch padding processes require fast-solubilizing grades for uniform textile surface coverage, especially on polyester-cotton blends used in protective garments and upholstery fabrics.

    Industry compliance standards

    • OEKO-TEX Standard 100: Textile safety for chemical content
    • ISO 15797: Textiles – Industrial washing and finishing
    • REACH Annex XVII: Restrictions for textile chemicals

    Typical usage ratio

    • 1% to 2.5% by weight of textile finishing bath
    • Optimized based on desired functional performance (e.g., flame-retardancy or wrinkle-resistance)

    Downstream process integration

    • Dissolved in aqueous pad-bath with acrylics or silicone emulsions
    • Applied by padding or spraying onto fabric web
    • Dried and cured at 130–180°C for permanent fabric bonding

    Final product types

    • Protective workwear, lab coats, and uniforms
    • Technical upholstery textiles for automotive and rail
    • Medical textile cover fabrics
    • Antistatic and flame-retardant drapery

    5. Water Treatment Formulations

    Engineers select Zirconium Carbonate Oxide as a phosphate-binding agent in industrial and municipal water treatment systems. Its high affinity for phosphates and heavy metals aids the removal of excess nutrients from process water, preventing scaling and biological fouling. Facility operators require consistent product grade to support automated dosing and maintain compliance with effluent discharge regulations. The material forms part of proprietary blends in water remediation and recycling circuits.

    Industry compliance standards

    • EN 15029: Chemicals for industrial water treatment
    • US EPA Clean Water Act: Phosphorus removal and heavy metal discharge
    • ISO 14001:2015 for Environmental Management in facilities

    Typical usage ratio

    • From 0.1 ppm to 1.5 ppm (mg/L) in treated water streams
    • Adjusted based on initial phosphate concentration and water volume

    Downstream process integration

    • Dosed via peristaltic pumps into clarifiers or filtration trains
    • Blended with coagulants and flocculants before sedimentation
    • Collected precipitate removed by dewatering or backwashing units

    Final product types

    • Precipitated phosphate sludge for disposal or recycling
    • Treated process and boiler feed water
    • Zero discharge water for food or beverage processing plants
    • Remediated municipal wastewater streams

    6. Antiperspirant Active Formulations

    Deodorant and antiperspirant manufacturers utilize zirconium-based actives for high-performance topical formulations. Zirconium Carbonate Oxide forms a key component for achieving long-lasting sweat-blocking action with acceptable skin compatibility. Regulatory-driven personal care product lines employ strict controls on metal content, particle fineness, and microbiological purity. Labs perform rheology and efficacy testing to ensure consistent delivery and wash-off behavior in stick and roll-on forms.

    Industry compliance standards

    • 21 CFR 350.60: US FDA Antiperspirant monograph
    • EU Cosmetics Regulation (EC) No 1223/2009
    • ISO 22716: Cosmetics – GMP guidelines

    Typical usage ratio

    • 8% to 18% by total formulation weight, depending on application system (e.g., stick, aerosol)
    • Dosage refined for skin feel, persistence, and regulatory maximum Al/Zr levels

    Downstream process integration

    • Added during aqueous phase preparation
    • Homogenized with emulsifiers and stabilizers before fragrance or color addition
    • Poured or sprayed into filling lines for various packaging types

    Final product types

    • Roll-on and stick antiperspirants
    • Aerosol and cream antiperspirants
    • Clinical-grade deodorant treatments
    • Body care wipes containing antiperspirant actives
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    Certification & Compliance
    More Introduction

    Zirconium Carbonate Oxide: Precision in Chemical Manufacturing

    Introducing Zirconium Carbonate Oxide

    Day in and day out in our production facility, we work with elements that demand both respect and understanding. Zirconium Carbonate Oxide holds a unique spot on our line, and years of hands-on experience have taught us a few things that never make it into those one-size-fits-all spec sheets. We have seen trends shift and requirements tighten across coatings, catalysis, ceramics, and electronics, and this compound always finds its place. Our product, offered primarily as a high-purity fine white powder in models ZCO-301 and ZCO-305, consistently meets the pressures of modern industry with a reliability that earns customer trust, not just orders.

    The Realities Behind the Chemistries

    Some people only see a set of numbers: purity over 99%, well-controlled trace metals, stable loss on ignition, and narrow particle size distributions suited for repeated applications. We see more than that. Zirconium Carbonate Oxide's controlled reactivity, modest solubility profile, and reliable thermal decomposition make it a favored intermediate and additive. Having monitored countless batches through our reactors and filters, we know where contaminants tend to sneak in and have implemented multi-stage washing and advanced filtration techniques. Lab reports mean something here—they track our steady progress, pushing us to deliver a cleaner, more consistent product batch after batch.

    Just as important as what goes in is what stays out. Keeping sodium, iron, and hafnium levels low isn't just a formality; downstream ceramic faults or erratic catalyst behaviors don't care about paperwork. Tight feedback with customers and our own in-house materials teams has shown us that predictable, low-impurity material saves money and frustration all along the supply chain. In many industries, margins rest on trust in the raw materials. If you’ve ever had a whole furnace load ruined by a stray impurity, you know that every part per million counts.

    Choosing Our Models: ZCO-301 and ZCO-305

    Working as a manufacturer, we learn not just from laboratory results, but from the realities of scale. ZCO-301 comes from a process tuned for minimal hydration, yielding a denser powder suitable for dense ceramics, specialty glass, and structural applications. ZCO-305, on the other hand, features a more open, hydrated structure. Users in catalysis and pigment applications may notice finer dispersibility and a more rapid response in water-based systems.

    Customers aiming to build high-durability refractories or high-transparency glass formulations lean toward ZCO-301. We see requests from advanced ceramics and glass fiber facilities, most of whom need a dense cake-free powder that reduces inconsistencies and is less prone to dusting during transfer. For ZCO-305, technical coatings, flame retardants, and even some biomed research labs value its softer structure. We developed this grade after talks with formulators looking for a product that could be mixed in with less equipment abrasion and better rheology in their batch processes.

    Zirconium Carbonate Oxide and Other Zirconium Compounds

    Anyone familiar with industrial chemicals knows there's a world of difference between similarly named compounds. Zirconium Carbonate Oxide isn't just a cousin to basic zirconium carbonate or the more ubiquitous zirconium dioxide. The presence of oxide groups alongside carbonate means it decomposes at lower temperatures compared to pure zirconium oxide, a trait we see leveraged in certain catalyst precursor applications and electronics. Some of our clients transitioned from traditional zirconium carbonate to our product and ended up with better yields and fewer process interruptions.

    We have tracked performance in pigment formulations, especially where pigment brightness and minimal contamination matter. For example, basic zirconium carbonate, widely used as a flame retardant, often brings along significant water and minor chloride impurity from its synthesis route. Some pigment and ceramic makers reported issues with foaming and adverse reaction by-products in high-temperature stages. Using our Zirconium Carbonate Oxide, they found that the transition to zirconia under calcination occurred more smoothly, with less trapped water and a sharper reaction endpoint.

    Manufacturing at Scale: From Raw Material to Product

    Sourcing high-quality zirconia to start is half the battle. Every batch of precursor we buy gets checked for radioactivity, particle distribution, and soluble salts. Only when it meets our standards does it make it onto the next stage. We use a proprietary synthesis, not the cheapest or fastest, but the one that consistently produces material worthy of the name. The carbonate addition happens under controlled temperature and pH conditions, shielded from atmospheric CO₂ and other environmental influences. People ask why we fuss about details like CO₂ contamination—it’s because those invisible contaminants add up, and it’s our reputation on the line.

    Filtration makes or breaks the downstream quality. Our team runs a multi-step wash and recycle protocol until filtrate clarity and conductivity settle within strict ranges. Any deviation gets flagged; we stop that batch and diagnose before continuing. Staff know what a perfect cake texture looks and feels like, and no sensor replaces that practiced eye. Quality controls root out variability early and prevent waste. Final drying is staged and carefully monitored for CO concentration and humidity, a routine that ensures our carbonates don’t cake or form hard-to-break aggregates during storage and shipping.

    Perspectives from the Ground Level

    Many of us at the plant have watched equipment operators handle dozens of 25 kg bags in a shift, and we understand why flow properties matter. Powders that compact or clump hold up production, causing downtime nobody wants. We grind, sieve, and package with a goal: a product that moves cleanly and doesn't create clouds of dust that put operators at risk of inhalation. Calibration is part of our DNA, and every time someone calls us to say that their batch ran smoother or their sintering process completed without sticking, that’s our win.

    Clients come to us looking for repeatability as much as reactivity. Chemists and process engineers downstream rely on our data, and any change in raw material can mean hours of troubleshooting if it throws off their results. Years ago, a large catalyst manufacturer told us that a batch with out-of-range carbonate led to months of poor field performance. We revamped our controls, set tighter limits, and since then, quality complaints have dropped. This is how manufacturing adapts—by taking heat when things go wrong and tightening ships, not by passing blame down the line.

    Usage Across Industries—and Practical Lessons

    Our Zirconium Carbonate Oxide rests on shelves in a range of industries, each with unique demands. Ceramic tile manufacturers, working with thin, high-strength substrates, found that our powder delivered uniform shrinkage and a clean transition to oxide phases after firing. We’ve supported pigment producers who cared about color consistency and ease of blending, and we’ve set up bulk storage for flame retardant and specialty fiber applications that required minimal trace contaminants to comply with health and safety rules. Glassmakers searching for materials that improve glass-ceramic transitions reported reduced bubble formation and more reliable melting. For each, purity and precise control over water and oxide content matter far more than fancy marketing claims.

    Electronics grade powders turn up a different list of demands, especially for capacitor and piezoceramic manufacturers. They want lots that run to six decimal places for key ingredients. We collaborate closely with these clients, tailoring trace analyses and working through process audits to detect and eliminate sources of any deviation. If we see a spike during testing—say a slightly raised sulfur or chlorine impurity—we flag it, check the equipment, and, if necessary, re-run reactions until quality returns to the mean. This discipline benefits every customer downstream, not just the ones with the strictest standards.

    Why Experience Trumps Hype

    We maintain a close relationship with research labs alongside our large industrial clients. Consistently, academic teams emphasize the value of reliable, detailed documentation and prompt answers when unusual results pop up. In the development of new high-strength electronic ceramics, for example, postdoc teams reported puzzling dielectric losses until shared batch data revealed trace sodium interference. After months of trouble, a simple switch in supply chain, from a trader-sourced carbonate to our direct-manufactured oxide-carbonate, fixed results. The lesson: supply chains matter, and manufacturers who understand their process at a granular level can deliver support, not just product.

    We don’t take pride in fancy slogans or empty assurances. Each batch of Zirconium Carbonate Oxide reflects decades spent refining synthetic routes, improving wash steps, and solving real production headaches. Customers who face unplanned downtime, inconsistent yields, or spiking impurity levels don’t need textbook answers—they need materials that perform the same every day of the year. Our team fields questions directly from the chemists and engineers in the trenches, and we work through test results, failures, and successes together.

    Safety, Handling, and Responsible Production

    Handling any industrial zirconium compound demands rigor, not just to meet regulatory checkboxes but to protect those who work with it and those downstream. Our plant culture emphasizes clear labelling, sealed packaging systems, and accessible safety documentation, updated whenever a change in production brings a new hazard to light. Staff receive regular training on respirable dust, proper storage temperatures, and spill response, not because a rulebook tells us, but because everyone wants to end the day healthy.

    Return and recycling programs run in parallel for drums, and reprocessing off-spec or contaminated batches enables us to cut down landfill waste. We set up in-house filtration upgrades after noticing excessive waste streams in the effluent, not because anyone enforced it but because cleaner production matters both for regulatory compliance and personal pride. Efficient handling, clean conditions, and thoughtful waste management are lessons learned through years of production and partnership with other responsible firms.

    Building on Customer Feedback and Continuous Learning

    Direct communication with end users shapes our manufacturing approach. We keep logs of every piece of technical feedback—positive or negative—and periodically review with our team to find trends. Batch failures in customer plants or oddly behaved lots spur us to retrace every step: from incoming raw material analyses all the way through packaging and shipping. Mistakes on either side usually uncover something fixable. Over time, these investigations have driven us to install better moisture analyzers and fine-tune particle size controls.

    We value collaboration with customers’ technical and procurement teams, working side by side to define reasonable assays and set spec ranges that match real-world needs, not just ideal lab conditions. Everything learned here makes our product and process stronger. The more detail a customer shares about performance requirements or issues they’ve seen in operation, the better we can adjust and improve batches over time.

    Comparing Zirconium Carbonate Oxide with Other Options

    While generic zirconium compounds might suit commodity uses, we notice a difference in robust environments where downstream processes leave no room for edge-of-spec variability. Our clients often tell us that what really makes theirs and our lives easier is the lower frequency of unexpected results—a lower rate of kiln spalling, fewer rejects in precision coatings, and less multi-tier investigation into process inconsistencies.

    Substituting basic zirconium carbonate or even zirconium oxychloride might cut costs, but it’s not rare to see these alternatives result in glazed surfaces, lowered pigment performance, or batch-to-batch color drift in ceramics. The carbonate-oxide combination delivers a particular profile of oxide-forming behavior and water stability, and we back every batch with actual data, not generic claims. Our product is often the choice when failures with alternatives prompt a search for something that simply works as promised.

    A steady dialogue with process engineers has shown that ease of scale-up, reduced dusting or bridging, and fewer back-end complications matter just as much as any technical datasheet value. Our team routinely provides technical notes on how specific lots performed in different manufacturing processes, giving clients the chance to compare not just by price, but by lived experience—what really changes on the plant floor or in the lab.

    Looking to the Future: Direction and Innovation

    After decades of improvement, we still treat every order for Zirconium Carbonate Oxide as an opportunity to find extra value. Our research and engineering teams monitor new developments in green chemistry and advanced materials science, looking for cleaner precursors, process simplifications, and ways to lower both energy and water footprints. Selective improvement in washing and drying operations allows us to achieve better yield and purity using less water than five years ago. That means lower process costs, but also a lighter burden on the local environment.

    We often participate in joint trials with partners developing ceramics for fuel cells, next-generation pigments, and unique glass composites. This feedback helps us align our product with actual end-use demands. In catalysts, for instance, tested lots of our oxide-carbonate have demonstrated improved conversion rates and cycle life over competitors—something that only comes out through real operation and transparent performance measurement.

    Conclusion: Expertise that Delivers Trustworthy Results

    Each unit of Zirconium Carbonate Oxide shipped represents countless hours of refinement, learning, and direct feedback from the users who drive innovation in their own industries. We believe that the real test of any chemical product comes not from marketing claims, but from the hard numbers and operational reliability it offers. That’s the feedback we track, the lessons we act on, and the foundation from which we keep building a stronger, cleaner, and more consistent Zirconium Carbonate Oxide for every application that demands a little more than just "good enough".