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Zirconium Acetate

    • Product Name Zirconium Acetate
    • Alias acetic acid zirconium salt
    • Einecs 206-757-9
    • 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

    999263

    Chemical Name Zirconium Acetate
    Chemical Formula C4H6O4Zr
    Molecular Weight 241.31 g/mol
    Appearance White to off-white powder
    Solubility In Water Soluble
    Melting Point Decomposes before melting
    Cas Number 7585-20-8
    Density 2.09 g/cm³
    Odor Odorless
    Ph 1 Aqueous Solution Approximately 3.5
    Stability Stable under recommended storage conditions
    Storage Conditions Store in a cool, dry place, keep container tightly closed

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

    Packing & Storage
    Packing Zirconium Acetate, 500g: Supplied in a sealed, amber HDPE bottle with tamper-evident cap; labeled with chemical name, quantity, and hazard warnings.
    Shipping **Zirconium Acetate** should be shipped in tightly sealed containers, stored in a cool, dry, and well-ventilated area. Protect from moisture and incompatible substances. Comply with all relevant transportation regulations. Use appropriate labeling for chemical hazards. Handle with care to prevent breakage or spills during transit. Suitable for road, air, or sea shipment.
    Storage Zirconium acetate should be stored in a tightly closed container in a cool, dry, and well-ventilated area, away from incompatible substances such as strong acids and bases. Protect it from moisture and direct sunlight. Avoid generating dust. Properly label the container and follow local regulations for storage of chemicals. Always wear suitable protective equipment when handling or transferring the substance.
    Application of Zirconium Acetate

    Applications of Zirconium Acetate in Industrial Manufacturing

    Zirconium Acetate plays a defined role in controlled industrial environments where high-performance coatings, advanced ceramics, catalyst carriers, and membrane technologies demand refined precursor properties and superior dispersion. We detail below the primary industry segments, formulation benchmarks, integration procedures, and finished product outputs based on our established customer collaborations and process experience.

    1. Waterborne Ceramic Coatings

    In functional ceramic coating manufacture, zirconium acetate acts as a structured zirconia precursor that supports stable aqueous formulations and precise surface modification, especially where high adhesion, electrical insulation, and anti-corrosive performance are priorities. Downstream coating formulators select this precursor for conversion into zirconia films under controlled thermal conditions, matching regulatory and durability demands for industrial and electronic substrate protection.

    Industry compliance standards

    • RoHS Directive 2011/65/EU (Restriction of Hazardous Substances)
    • REACH Regulation (EC) No 1907/2006
    • ISO 11126-10:2017 (Preparation of steel substrates before application of paints and related products)
    • IEC 61340-5-1 for electrostatic protection

    Typical usage ratio

    • 0.5%–4% (mass of total formulation), adjusted based on required zirconia layer thickness and targeted conductivity/resistance profile

    Downstream process integration

    • Dispersed in waterborne sol-gel coating formulations, followed by controlled hydrolysis and subsequent deposition onto cleaned substrates before calcination (400–600°C) to generate dense zirconia layers

    Final product types

    • Printed circuit board protective coatings
    • Industrial machinery flange coatings
    • Glass and ceramic tile anti-corrosion films
    • Sensor substrate ceramic layers

    2. Catalyst Carrier Synthesis

    In the production of catalyst carriers for automotive and chemical process applications, manufacturers employ aqueous zirconium acetate solutions to generate highly dispersed zirconia matrices that anchor active metals. This precursor provides superior control over pore structure and acid/base surface characteristics after calcination, increasing catalyst lifetime and effectiveness in emissions and fixed-bed processing units. All formulations meet strict regulatory requirements and QC on batch dispersion and purity.

    Industry compliance standards

    • ISO 22241 for urea solution-based catalysts (AdBlue applications)
    • EU Regulation No 459/2012 (Automotive Emission Standards Euro VI)
    • ASTM D6751 for catalyst support materials in biodiesel
    • QS-9000 certification for automotive parts

    Typical usage ratio

    • 1%–6% (based on final carrier mass), optimized in pilot blending according to surface area and pore volume specification

    Downstream process integration

    • Blended into silica or alumina gel matrices during precipitation, followed by gelation, drying, and multi-stage calcination (up to 800°C) to initialize crystalline phase distributions for metal doping

    Final product types

    • Automotive three-way catalyst carriers
    • SCR (Selective Catalytic Reduction) catalyst substrates
    • Chemical process catalyst support beads
    • Hydroprocessing catalyst extrudates

    3. Ion-Conductive Membranes for Fuel Cells

    Advanced manufacturers of proton exchange membrane (PEM) and solid oxide fuel cells incorporate zirconium acetate as a precursor for stabilized zirconia phases, forming electrolyte layers that demonstrate improved ionic conductivity and mechanical strength. Rigorous attention to trace metal purity and acetate residue control ensures reliable electrochemical performance and lifetime under demanding operating cycles. Material addition aligns to high-throughput scalable membrane casting lines.

    Industry compliance standards

    • ISO 14687-2:2019 (Hydrogen and Fuel Cell Technology—Fuel Quality)
    • IEC 62282-3-100:2012 (Fuel Cell Technologies Safety)
    • ISO 9001:2015 (Quality Management for Fuel Cell Production)
    • REACH SVHC restrictions for membrane component leachables

    Typical usage ratio

    • 2%–7% (membrane casting solution mass), varied according to ionic path thickness and co-dopant balance

    Downstream process integration

    • Introduced during the precursor sol preparation step before membrane film casting, followed by gradual temperature ramping and sintering (700–1400°C) to form polycrystalline stabilized zirconia structures

    Final product types

    • PEM fuel cell electrolyte membranes
    • SOFC (Solid Oxide Fuel Cell) dense electrolyte plates
    • Hydrogen production electrolysis diaphragm sheets
    • Power generation stack separators

    4. Glass Surface Modification and Polishing Agent Production

    In specialty glass manufacturing, producers use carefully dosed zirconium acetate for controlled surface modification and polishing slurry formulation. The precursor serves as a uniform zirconia source, resulting in tight particle size distribution during in situ hydrolysis. The subsequent transformation and sintering enable manufacturers to generate zirconia polishing agents that deliver consistent surface finish, scratch resistance, and optical clarity while adhering to environmental and occupational safety controls.

    Industry compliance standards

    • ISO 10110-7:2017 (Optics and Photonics—Surface Imperfections)
    • IEC 60825-1:2014 (Safety of Laser Products for Optical Glass Processing)
    • OSHA 29 CFR 1910 Subpart Z (Occupational exposure for abrasive manufacturing)
    • REACH Regulation for polishing media chemical composition

    Typical usage ratio

    • 0.3%–2.5% (by slurry weight), adjusted with particle size specification and substrate glass type as key scaling factors

    Downstream process integration

    • Sourced into aqueous polishing slurry formulations post-dispersion, followed by targeted hydrothermal or calcination processing to yield controlled-size zirconia abrasives for slurry packaging and on-site application

    Final product types

    • Flat glass polishing slurries (architectural and solar glass)
    • Photomask and precision optics polishing compounds
    • Scratch-resistant lens finishing agents
    • Display glass pad polishing slurries

    5. Advanced Inorganic Binder for Foundry and Construction Composites

    Manufacturers of structural ceramics and inorganic composites utilize zirconium acetate as a reactive binder, where it contributes to green body consolidation and thermal shock resistance after sintering. This precursor integrates into blend phases where traditional binders fail to deliver dimensional stability or environmental compliance during firing cycles. Stringent quality control on residual organics and particle dispersion governs downstream moulding and sintering stages.

    Industry compliance standards

    • ASTM C133-97 (Compressive Strength of Refractory Shapes)
    • EN 12467:2012+A2:2018 (Fibre-cement flat sheets for construction—Product specification and test methods)
    • ISO 12944-5 (Protective Coatings for Construction)
    • DIN 51068 for ceramic raw testing

    Typical usage ratio

    • 1%–5% (of total mix), tuned based on aggregate type and required post-firing mechanical properties

    Downstream process integration

    • Combined with dry powder ceramic or mineral aggregate in wet blending, with mixture then pressed, extruded, and sintered (900–1350°C) to trigger in situ zirconia migration and matrix reconstruction

    Final product types

    • Refractory brick binders
    • Moulded technical ceramic parts
    • Fire-resistant construction panels
    • Engineered inorganic composite blocks
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    Certification & Compliance
    More Introduction

    Zirconium Acetate — Purpose-Built for Today’s Demands

    From Our Production Floor: What Sets Our Zirconium Acetate Apart

    Standing over the reactors and monitoring each batch as the transformation unfolds, there’s no substitute for seeing the process up close. We have relied on decades of hands-on experience to fine-tune every stage—selection of zirconium precursors, precise control of stoichiometry, water quality, and the careful dosing of acetic acid. Working on this scale, minor fluctuations mean lost consistency or costly downstream headaches. Our zirconium acetate doesn’t leave the plant without thorough analytical confirmations: chemical purity, defined concentration, and long-term stability. We focus on the octahydrate form, which our customers trust for its clean solubility and reliable batch-to-batch reactivity.

    Why Zirconium Acetate Matters in the Real World

    Zirconium acetate’s appeal comes alive when putting it to work in everyday industry—not theoretical applications, but true, repeatable performance. Our typical solution rests at concentrations between 15 and 20 percent ZrO2 equivalent, prepared in an aqueous system that keeps it ready for direct use. Laboratories frequently search for scalable zirconium compounds that combine reactivity, ease of handling, and process safety. On the ceramic shop floor, workers need a precursor that dissolves easily and distributes evenly without introducing excess acidity or unpredictable results. Many coatings producers count on zirconium acetate for surface treatments, where the end goal is better corrosion resistance or the ideal base for functional layers—not just a box checked for compliance, but protection proven in real-world conditions.

    The Core Advantages — Proven Over Years of Production

    Customers who have tested dozens of commercial zirconium compounds often describe the same experience—either a product is too impure, or its solution gels unexpectedly, or the batch deviates from the certificate. Aqueous zirconium acetate from our facility flows without visible residue; the spec sheet refers to a clear, colorless to slightly yellow liquid, but the real value lies in reproducibility. Years of incoming QC results point to iron, chloride, sodium, and heavy metals consistently below threshold, so unwanted impurities rarely complicate downstream work. Because we sidestep strong acid stabilizers, we avoid the leaching risks that plague attempts to adapt industrial zirconyl chlorides into clean environments. The acetate base means lower corrosiveness for handling equipment and less interference with organometallic catalysts—not a theoretical claim, but a routine request from customers in catalyst precursor manufacturing.

    Different from the Common Alternatives — Real Comparisons, Real Impact

    Most people in this field have worked with zirconyl chloride at some point. Cheap and abundant, it satisfies part of the zirconium demand but rarely delivers the selective behavior needed in precise formulations. Chloride contamination fouls ceramic microstructures—those pinholes and budding inclusions don’t fix themselves after initial firing. Converting chloride to acetate in-house brings headaches: the extra neutralization step generates sodium salts, extra waste, and inconsistent solubility profiles. By contrast, our direct zirconium acetate route eliminates excess chlorides, reducing the risk of hydrolysis imbalances and gelling. Granular or powder forms aren’t suitable for all users; we set up a liquid supply chain so plant operators can pump, meter, and dose the product with minimal personal exposure. In catalysis, organic synthesis, or membrane doping, eliminating sources of unnecessary ions preserves both yield and quality.

    Our Customers’ Projects — Where Zirconium Acetate Proves Its Value

    The best validation comes from partners who return year after year, sometimes calling us late at night for recalibration or new supply. At one ceramics firm, a shift from zirconyl nitrate to our acetate grade allowed line managers to cut wash steps and reduce aggregate defects during sintering. Environmental tech startups have used it to functionalize ultrafine filters: the acetate bridge bonds strongly with polymer matrices, keeping pores open and avoiding the shrinkage observed when trying to drive off excess chloride. A major surface treatment facility uses our formulation to anchor phosphonic acid groups to aluminum sheet—this reduces downtime for acid attack repairs, and helps treated metal pass ASTM salt spray requirements. Rarely does a month go by without a request for modifications: increased solid content for a large high-temperature ceramics run, or special packaging to work with customer dosing systems. Being a manufacturer lets us respond quickly and tweak production in response to these needs; we owe a lot to the engineers who give real-world feedback on what matters in daily operations.

    Technical Execution — Why Every Step Counts

    Producing zirconium acetate at commercial scale means facing the unglamorous but crucial work of day-to-day control. Surface finish, grain structure, and chemical compatibility all pivot on upstream chemistry. We monitor the incoming zirconium oxychloride hydrates by XRF and ICP-OES, verifying that contaminants sit well below alarm levels. We keep water lines isolated to prevent subtle ion contamination. Acetic acid composition in our batches correlates tightly to a proven reaction pathway—stoichiometric excess ensures full conversion, but also strips away peripheral byproducts before final purification. Batch logs show time, pH, and conductivity at all process steps, traced to the final bottle. The result: downstream users see fewer “off” batches, and no mystery sediment or yellowing from trace heavy metals.

    From Laboratory to Full-Scale Production — Real-World Predictability

    A chemist pipetting a standard into a microplate doesn’t always think like the shift supervisor fueling a 500-liter reactor. Our process prioritizes shelf life and batch reproducibility because customers move from kilo quantities in R&D to tens of tons in commercial rollout. Liquid-phase zirconium acetate lets researchers skip lengthy dissolution steps. Its neutral pH and modest acetate buffer accelerate formulation screening—a point our pharmaceutical partners have echoed for years. As production volume rises, engineers focus on metering accuracy, minimizing container changes, and integrated recordkeeping. For all these demands, our bulk supply is tailored for consistent density, so gravimetric dosing remains predictable at every scale.

    Minimizing Waste and Environmental Burden

    Legitimate environmental stewardship doesn’t arise from packaging claims—it’s rooted in process details. We recover excess acetic acid from purification, feed it back for upstream reaction needs, and neutralize side streams before any discharge. Customers’ environmental managers point out that dealing with acetate-based waste is less resource-intensive than chloride- or nitrate-rich effluents. Unlike dry powders or granules, our liquid format eliminates airborne particulate exposure. By collaborating directly with industrial users, we custom-formulate concentrations that eliminate over-dilution at their site, trimming down packaging burden and leftover containers.

    Supporting Advanced Applications — Research and Innovation with Substance

    Many emerging fields, such as solid oxide fuel cells, crosslinker synthesis, and nanostructured membrane production specify zirconium acetate as a key building block. We work alongside applied research groups, adapting to novel demands as they scale discoveries from benchwork to commercial launches. Our lot archives are long, so researchers can draw material from matched production runs across years—a small detail that spares countless hours revalidating performance when grant funding or patent timelines demand reliability. The predictability and lack of interfering byproducts mean less troubleshooting, fewer surprises during scale-up, and tighter alignment with protocol validation.

    Long-Term Reliability — What Consistency Means for End Users

    Lab managers and plant engineers have made it clear: once a process locks in zirconium acetate parameters, surprises are costly. We’ve had customers recount ruined filter runs or surface treatment failures from off-spec competitors’ material. This drives us to calibrate every batch according to archived standards, monitor trace element drift over seasons, and run parallel validation samples on every commercial batch. As global regulations move toward stricter heavy metal and byproduct limits, we invest in proactive monitoring of both input streams and packaged product. Engineers expect documentation to align with reality—not marketing promises. We provide full analytical records upon delivery, so regulatory and specification auditors get exactly what they need on demand.

    Direct Access to the Manufacturer — Simplifying Life for Buyers

    Working with us means speaking to those who make the product, not a sales desk far from the production line. We understand how small changes—formulation, packaging, delivery times—impact daily operations. Our tanker trucks or totes arrive directly from our loading bays, with the same batch traceable from reactor to delivered pallet. Our technical team answers questions grounded in process chemistry: handling, compatibility, shelf life, and troubleshooting. End users benefit from our willingness to accommodate nonstandard order sizes or custom certs matched to unusual project specs. Researchers testing new protocols or engineers updating production procedures get answers and samples straight from our team—no intermediary delays, no confusion about sourcing or spec deviations.

    Meeting Tomorrow’s Requirements — Ongoing Investment in Quality

    Each year, customer feedback and formal audits lead us to refine product and process details. We’re adapting to new purity standards, driving down batch-to-batch variation, and extending our suite of finishing and handling options. Whether the application is ceramic matrix composites, novel catalyst materials, or high-performance membrane supports, we remain focused on practical, implementable quality improvements. Continuous review of best practices, supply chain risk management, and process analytics means we spot and neutralize sources of inconsistency before they reach customers’ lines.

    Summary of Why Our Zirconium Acetate Supports the Work That Matters Most

    We manufacture zirconium acetate not just to fill today’s orders, but to become a backbone of complex industrial and research processes far beyond our plant. By prioritizing chemical clarity, process control, and a realistic understanding of our customers’ daily needs, we produce a compound that doesn’t add surprises to your application. This emphasis on long-term partnerships, hands-on process refinement, and open communication keeps us accountable and consistently improving. Our goal remains clear: deliver a product built by people who understand its critical role, respect its complexity, and remain personally invested in your project’s success.