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Zirconium Hydroxide

    • Product Name Zirconium Hydroxide
    • Alias Zirconium hydrate
    • Einecs 215-183-4
    • 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

    187520

    Chemical Name Zirconium Hydroxide
    Chemical Formula Zr(OH)4
    Molar Mass 159.26 g/mol
    Appearance White amorphous powder
    Density 3.25 g/cm³
    Solubility In Water Insoluble
    Melting Point Decomposes before melting
    Cas Number 14475-63-9
    Ph Basic
    Stability Stable under normal conditions
    Odour Odourless

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

    Packing & Storage
    Packing Zirconium Hydroxide is packaged in a 25 kg tightly-sealed, double-layered plastic-lined fiber drum, clearly labeled with safety instructions.
    Shipping Zirconium Hydroxide should be shipped in tightly sealed containers, protected from moisture and incompatible materials. Store in a cool, well-ventilated area. Ensure containers are labeled according to regulatory guidelines. During transport, handle with care to avoid spills, and follow relevant local, national, and international shipping and safety regulations.
    Storage Zirconium Hydroxide should be stored in a tightly sealed container in a cool, dry, and well-ventilated area away from incompatible substances such as acids. It should be kept away from moisture and sources of ignition. Properly label all containers and ensure they are protected from physical damage. Store at ambient conditions to prevent deterioration and ensure safe handling.
    Application of Zirconium Hydroxide

    Applications of Zirconium Hydroxide in Industrial Manufacturing

    Zirconium hydroxide supports several advanced industrial sectors due to its high chemical purity, catalytic activity, and distinct physical characteristics. As the original producer, we deliver material designed for demanding processes in ceramics, catalysis, water purification, pigments, and high-grade glass manufacturing. See below for detailed downstream application areas, technical integration, and regulatory requirements.

    1. Automotive Three-Way Catalyst Substrate Manufacturing

    Leading automotive catalyst producers incorporate zirconium hydroxide as a key promoter to enhance thermal stability and oxygen storage in three-way catalysts used for vehicle emissions control. The compound integrates into washcoat slurry formulations, improving interaction between precious metals and the alumina matrix. Performance optimization depends heavily on precise particle size, surface area, and co-precipitation parameters managed at the raw material stage.

    Industry compliance standards

    • ISO 9001:2015 Quality Management System
    • TS 16949 Automotive Quality Management
    • U.S. EPA and Euro 6/7 emissions regulations
    • REACH regulations for chemical substances

    Typical usage ratio

    • 10–25% by dry mass in washcoat slurries, adjusted according to desired oxygen storage capacity and formation of mixed oxides with ceria

    Downstream process integration

    • Dispersion with alumina during slurry preparation, milling before precious metal impregnation, and application on monolithic substrates prior to calcination

    Final product types

    • Ceramic honeycomb catalysts
    • Metallic monolith emission control systems
    • Direct-injection gasoline particulate filters

    2. High-Performance Ceramic Engineering

    Technical ceramics producers use zirconium hydroxide to synthesize zirconia ceramics with tailored grain structure and enhanced fracture toughness for electronics, medical, and fuel cell industries. Precise control of additive content, calcination cycles, and milling leads to composite powders for advanced ceramic bodies, structural parts, and oxygen sensors. Pure phase control at the raw material level underpins downstream mechanical and ionic conduction performance.

    Industry compliance standards

    • ISO 13356 for Ceramics—Implants for surgery
    • IEC 60672 for Technical Ceramic Insulators
    • ASTM F2003 for Yttria-stabilized zirconia
    • RoHS and REACH for electronics materials

    Typical usage ratio

    • 85–98% as base precursor for zirconia ceramics; adjusted with dopants such as Y2O3 or MgO based on required stabilization and end use

    Downstream process integration

    • Used as starting material for hydrothermal or sol-gel processing; forms slurry or dry powder for isostatic pressing, injection molding, or extrusion before sintering at temperatures up to 1550°C

    Final product types

    • Dental and orthopedic implants
    • Solid oxide fuel cell electrolytes
    • Electronic substrates and insulator beads
    • Valve and pump components

    3. Hydrous Zirconia-Based Pigment Manufacturing

    Manufacturers of high-purity white pigments for ceramics and industrial coatings use zirconium hydroxide as a precursor to hydrous zirconia. The controlled precipitation and calcination lead to fine, opaque pigment particles with high chemical stability and refractive index, suitable for porcelain, sanitary ware, and heat-resistant coatings. Consistency in raw material morphology and trace impurity content are tightly managed for end-use color performance and fired appearance.

    Industry compliance standards

    • ISO 1248:2006 for Pigments—Zirconium dioxide specifications
    • EN 12878 for Pigments for coloring of building materials
    • AP(89)1 Council of Europe Resolution (ceramic food contact)
    • REACH Annex XIV (chromium and heavy metal limitations)

    Typical usage ratio

    • 25–70% in pigment pastes and frit compounds; adjusted for brightness or opacity in tile glazes or enamel coatings

    Downstream process integration

    • Introduced during pigment precipitation, washed and calcined to form zirconia, then micronized and dispersed in glaze or enamel matrices

    Final product types

    • Ceramic tile glazes
    • Sanitary porcelain glaze pigments
    • Architectural coating pigments
    • Heat-resistant enamel colors

    4. Ion-Exchange Media and Water Treatment Applications

    Our zirconium hydroxide supports leading water treatment technology through use as a precursor for granular hydrous zirconium oxide media. These finished absorbents selectively remove fluoride, arsenic, and heavy metal ions from potable and industrial process water. The controlled precipitation, washing, and granulation of our raw material ensures high surface activity and mechanical stability for column applications in municipal and commercial systems.

    Industry compliance standards

    • NSF/ANSI 61: Drinking Water System Components—Health Effects
    • EN 15029: Chemicals used for treatment of water intended for human consumption—Zirconium hydroxide
    • USEPA 40 CFR Parts 141 and 143: National Primary Drinking Water Regulations
    • ISO 9001:2015 Quality Management

    Typical usage ratio

    • Base feedstock for 100% zirconium oxide granular media; used at 5–30 L per m³ of water treated, ratio optimized per contaminant profile

    Downstream process integration

    • Processed into granules after precipitation, washed, calcined if needed; filled into adsorption filter columns, regenerated as required

    Final product types

    • Fluoride removal cartridges
    • Arsenic mitigation filter media
    • Heavy metal adsorption beds
    • Commercial water purification units

    5. Glass Additives for Specialty and High-Performance Glass

    Glassworks apply zirconium hydroxide to introduce zirconia during glass melting, enhancing chemical durability, refractive index, and resistance to crystallization and phase separation. High-purity input is critical to ensure clarity and defect-free final glass products. The powder enters the charge batch combined with silica and other stabilizers. Downstream, process control includes furnace feeding rates, melt homogenization, and testing for inclusions and optical consistency.

    Industry compliance standards

    • ASTM C162-05 for Glass Additives
    • DIN EN 1748-1-1: Crystal glass' specifications
    • ISO 14001: Environmental Management for glass manufacture
    • REACH for raw material compatibility

    Typical usage ratio

    • 0.5–5% by batch mass; adjusted to control glass phase, refractive value, and resistance to alkaline attack in technical and decorative glass

    Downstream process integration

    • Pre-mixed with glass batch prior to melting; enters the melt in continuous or batch furnaces, followed by forming, annealing, and inspection

    Final product types

    • Technical laboratory glassware
    • Decorative crystal and lead-free glass
    • Display panel glass substrates
    • Chemical-resistant glass components

    6. Catalyst Support for Petrochemical Hydrogenation Processes

    Refinery and chemical process operators use our zirconium hydroxide to prepare advanced catalyst supports for hydrogenation and reforming. Adjusting surface area and porosity during raw material preparation directly impacts final catalyst loading and longevity. After incorporation, further surface modification and impregnation with active metals enable controlled reactivity for selective hydrogenation of aromatics, olefins, and sulfur-containing feedstocks.

    Industry compliance standards

    • ISO 9001:2015 for catalyst production
    • API 941: Steels for Hydrogen Service at Elevated Temperatures
    • REACH for petrochemical additives
    • Internal refinery specifications for catalyst purity and stability

    Typical usage ratio

    • 5–12% by total catalyst mass, typically co-precipitated or mechanically mixed with alumina or titania supports

    Downstream process integration

    • Formed into extrudates, pellets or monoliths; subjected to drying, calcination and activation; loaded into fixed or moving bed reactors

    Final product types

    • Hydrogenation reactor catalysts
    • Petrochemical reforming supports
    • Specialty chemical selective hydrogenation units
    Free Quote

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    Certification & Compliance
    More Introduction

    Zirconium Hydroxide: Applied Know-How from Factory Floor to Finished Product

    What Stands Behind Our Zirconium Hydroxide

    Every batch of Zirconium Hydroxide coming out of our facility bears the results of hundreds of adjustments, real-time monitoring, and decades refining the recipe. We never take shortcuts—we focus on what really matters at the manufacturing level: producing consistent, high-purity material built for real industrial use. Our main grades—ZH-510 and ZH-700—each serve distinct functions. Their details are set through practical process controls, not marketing jargon. Forget the fluff; we’ll walk through what actually differentiates them, the actual specs that matter, and how honest manufacturing impacts the end results for glassmaking, ceramics, catalysts, and any other process relying on performance rather than promises.

    Production Approach That Makes the Difference

    Let’s get one thing straight: real Zirconium Hydroxide isn’t a one-pot, mix-and-ship ingredient. We work from selected zircon-containing sands, not low-grade sources or recycled feedstock. Hydration, filtration, and precipitation parameters all get dialed in with operator skill. Temperature, agitation, and time are kept within narrow ranges. Every run—without exception—is checked not just for major contaminants like Fe, Al, and Si, but also for trace Na and Ca which can ruin a good process down the line. The result is a white, fine powder, usually under 3% loss on ignition at 1000°C, surface area typically between 120 and 400 m²/g, and a particle morphology that doesn't lead to caking or dust issues at reasonable humidity. We’ve tested the results for everything from pigment opacifiers to automotive catalysts, and we keep measuring because customer processes evolve.

    Specifications We Stand By

    Users care about purity, surface area, and real-world behavior—so do we. We target ZrO₂·nH₂O content above 99.5%, keep chloride below 0.05%, and watch sulfate closer than any textbook suggests. Average particle size lands between 5 and 15 microns, neither prone to agglomeration nor too fine to handle. Low volatile content ensures thermal stability. Moisture pickup gets controlled by dense packing right out of the dryer. We encourage independent verification—because nobody benefits from hidden impurities, especially in sol-gel or polishing applications where trace contaminants alter final color or reactivity. We know our main customers, from catalyst makers to glass technologists, have seen how lesser grades wreak havoc on batch reproducibility. Our in-house lab has adapted its testing for customer-specific needs because standard data sheets rarely capture the full picture. After years optimizing drying curves and washing protocols, those numbers come from the real process—not exaggerated claims.

    Where Model Differences Matter

    Some buyers ask if they need to specify grade on every order. The answer is yes—ZH-510 and ZH-700 are worlds apart for certain operations. ZH-510 carries higher BET surface area, preferred by catalyst formulators needing maximum dispersion for active metals. This model stays less dense, with a unique pore structure maintained by tighter hydration process control. ZH-700, on the other hand, offers lower surface area, better flow in ceramic batch mixing, and lower SO₄²⁻ residuals—key for frits and engobes where blue-green tint from stray sulfur ions kills a good run. In our own trials, glassmakers insisted on ZH-700 for predictable melting, while pigment producers often push for custom blends based on ZH-510’s base. Our process engineers track each performance difference. We don’t believe in “generic” hydroxide because every minor parameter shift shows up at scale—clumping, sticking, reactivity, or surface fouling. Over years, the feedback loop tightens our manufacturing window and customers save time not chasing after unpredictable results.

    The User Experience: Beyond the Spec Sheet

    Anyone who has tried running third-party Zirconium Hydroxide in a challenging production line finds out quickly where hidden variables show up. One day it flows fine, the next the conveyor jams with compacted lumps—what changed? Moisture control, powder finish, bulk density. Catalyst makers have spent weeks replacing filters and cleaning pipelines; not because of their own process, but because their supplier lost control of sulfate washout or particle sizing. Ceramics firms walk away from last-minute quality issues if batch-to-batch color shifts wreck a 10,000-tile run. We keep in close contact with plant engineers and production managers because their pain points feed into continuous upgrades inside our factory. Our adjustments never happen in a vacuum; market needs trigger technical changes. If a batch doesn’t meet spec, we don’t ship it. Simple as that.

    How We Adapt for Specialized Use-Cases

    Zirconium Hydroxide is rarely a plug-and-play material. Specialty adsorbents use it for its water-affinity and specific surface chemistry, but what works for one application, say heavy metal removal, may poison another, like dental ceramics. We have reformulated our dehydration stage, sometimes shifting calcination profiles, so downstream users—especially those scaling up from pilot to continuous—avoid downtime. Our main pigment customers demand controlled transition from hydroxide to zirconium oxide, tracking color shift and refractive index change by the hour. Customers in environmental sectors need batch certifications for trace elements. We’ve deployed inline XRF for screening, so batch homogeneity isn’t a roll of the dice. Technical support is run by chemical engineers who have shifted production lines themselves—not by call center scripts. Their real-world fixes reach our synthesis floor through direct escalation. If a modification is needed, it’s designed by those hands-on in the bulk plant, not by a consultant ticking boxes.

    Consistency Over “Specmanship”

    There’s an industry tendency to chase ever-tighter specifications, adding decimal points or checking boxes with little practical sense. We see plenty of suppliers touting “ultra-high purity” or “nano-sized” grades. In practice, we spent months verifying which tweaks improved customer outcomes and which simply raised costs without any added value. Average particle size and surface area are tuned for use, not for spec sheet one-upmanship. Chasing lowest possible chloride content sometimes means losing wash efficiency or adding process steps that offer diminishing returns. Our goal hasn’t changed: make a stable, easy-to-handle hydroxide for ceramic, catalyst, and environmental applications, backed by honest analysis. When buyers and operators know what to expect, they don’t get burned by fake claims—so we focus on transparency. Batch COAs are real, matched to the lot, and don’t shift by the week.

    Why Purity and Particle Design Drive Performance

    Low impurities in Zirconium Hydroxide touch nearly every property downstream. For sol-gel makers, sodium or silica contamination means uneven gelation; glasscasters see lower optical clarity; and pigment chemists lose control of opacity. We use analytical-grade water and food-grade process acids. Our site doesn’t recycle heavy-metal wash liquors to avoid trace level build-up. Particle morphology isn’t just “fine and white.” We tune agglomeration so the powder neither dusts up the air nor clogs feeders. It breaks down on mild mixing, blends into slurries with no need for large-scale dispersing aids, and sinters to a tight, flaw-free oxide. End users report actual throughput improvements and fewer maintenance headaches. In catalyst lines, we saw over a year’s run with no drop in active metal dispersion or unusual loss of surface chemistry. These reports get tracked at plant level, and we use them to refine both grade and handling instructions. If there’s an issue, we want to see it early—so internal process transparency pays off in less downtime on our clients’ sites.

    Why Real Accountability Matters

    Being a manufacturer means seeing your product through failure as well as success. We don’t distance ourselves from quality claims or brush off complaints with canned responses. If a shipment arrives off-color, too fine, or caked, we take that personally. Every complaint triggers an immediate internal review—and if it’s a result of our process, we adjust. In the last few years, we shifted from batch-cooling to controlled drying, reducing caking problems by over 80%. Bulk shipments rarely get reprocessed, since blend uniformity starts with tight control at synthesis. Those who have tried alternatives often return because their operation cannot tolerate wide swings in physical properties, especially when a batch hits the warehouse and the line must keep running. Overpromised “nanostructured” or “hyperpure” grades rarely deliver at scale, so instead of chasing fads, we stick to evidence-based upgrades.

    Applications That Prove the Value

    Glass industries need consistent Zirconium Hydroxide to improve clarity, prevent phase separation, and boost acid resistance. Ceramic manufactures push for controlled transition to zirconium oxide for color and mechanical performance. Catalysts demand stable, high surface area for metal loading, strong retention, and minimal poisonous ions. Environmental sectors remove phosphates, arsenic, and heavy metals from water systems using our material’s selectivity. In medical and dental ceramics, only ultra-low-impurity batches work, and we’ve adapted grades to address these stricter needs. All of these sectors require rigorous quality—not just a certificate, but years of trouble-free operation. We see repeat business from plants running continuous operations, where a single bad batch can halt an entire shift. Our customers care more about stable performance and traceability than flashy claims.

    Moving Toward More Sustainable Production

    Efficient manufacturing saves money, but it also reduces the impact on the environment. Over the last decade, our operation has shifted toward closed-loop water use and solvent recycling wherever product purity permits. We recover and repurpose acid streams to lower waste while preserving the clean profile end-users expect. We monitor emissions, not just for local compliance but because good stewardship keeps our workers safe and improves community trust. Each process modification runs pilot-scale trials before full adoption, tracking not just cost but batch quality and total environmental footprint. Zirconium is finite, so maximizing yield matters for everyone in the supply chain. Our regular process reviews trim waste, cut power use, and adapt packaging—so reliability comes without an environmental penalty. In recent years, we’ve adapted to bulk tank delivery for key accounts, reducing packaging waste and product exposure to ambient moisture. These changes grow out of dialogue with users and operators, whose priorities shape our future planning.

    Quality, Not Quantity, Wins Out

    We’ve scaled up over the years, but our volume never comes at the expense of tight controls or service. Every operator on shift knows the traceability system and how to respond if an anomaly appears. Return rates stay low because each bag gets final screening before leaving our plant; warehouse storage mimics production line conditions. Many large industry users started with global traders but shifted back to factory-direct supply after quality swings affected output. We follow shipments past the dock, ready to field questions or investigate if anything seems off—even if error comes from handling after delivery. Long-term partnerships matter more than squeezing an extra percentage out of any order. Our staff talks directly to user teams, not just procurement agents, to diagnose and improve use conditions. The best results come from these close collaborations, not from anonymous customer lists.

    Innovation through Real-World Feedback

    Year after year, we listen to what technicians, operators, and engineers encounter with our Zirconium Hydroxide. Batch improvements rarely stem from R&D labs alone—they take root when shovels, dryers, and finished batches meet the practical world. For years, pigment users asked for narrower particle size distribution to even out color from batch-to-batch. Glassmakers wanted less caking for silo feeding, ceramics wanted lower trace metal for bright whites. We don’t pretend it’s fast or easy—dozens of small changes eventually lead to a better profile. Modifying precipitation agents, drying curves, or filter press times may sound simple, but scaled to hundreds of tons, every tweak impacts the balance between quality and cost. Some suggestions lead to huge gains; others create trade-offs we need to explain face-to-face. Our team captures these lessons, so what works locally can spread plant-wide.

    Closing Thoughts from the Factory Floor

    Our commitment runs deeper than meeting specs. We see every batch as a handshake—a promise of reliability, transparency, and quick answers. Whether it’s ZH-510 for top-shelf catalysts or ZH-700 serving the massive tiles industry, our core model doesn’t split by customer size. We keep the process open to scrutiny and never lock anyone into obscure “proprietary grade” jargon. Truthful, proven performance beats marketing. Throughout all operations—mixing, drying, washing, and packing—our people care about the end use, not just the next order. Over time, those habits build trust, steady results, and fewer production headaches for everyone who depends on honest material. That’s how we’ve built our business—and why we keep learning from every ton that leaves the loading bay.