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Iron Hydroxide Oxide

    • Product Name Iron Hydroxide Oxide
    • Alias Goethite
    • Einecs 215-174-5
    • 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

    915168

    Chemicalname Iron Hydroxide Oxide
    Chemicalformula FeO(OH)
    Molarmass 88.85 g/mol
    Appearance Yellow-brown to reddish-brown powder
    Density 3.4 g/cm3
    Meltingpoint Decomposes before melting
    Solubilityinwater Insoluble
    Casnumber 51274-00-1
    Pubchemcid 518696
    Crystalstructure Orthorhombic
    Magneticproperties Antiferromagnetic
    Commonnames Ferric oxyhydroxide, Goethite

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

    Packing & Storage
    Packing 500g of Iron Hydroxide Oxide is supplied in a sealed, labeled, HDPE bottle with hazard symbols, batch number, and expiry date.
    Shipping Iron Hydroxide Oxide should be shipped in tightly sealed containers to prevent contamination and moisture exposure. Store and transport it in a cool, dry place, protected from incompatible substances. Ensure appropriate labeling and documentation according to applicable regulations. Handle with care to minimize dust generation and environmental release during shipping and handling.
    Storage Iron Hydroxide Oxide should be stored in a tightly sealed, clearly labeled container, away from moisture, acids, and incompatible materials. The storage area must be cool, dry, and well-ventilated to prevent clumping or unwanted reactions. Protect from direct sunlight and sources of ignition. Avoid generating dust; handle with care to minimize environmental contamination.
    Application of Iron Hydroxide Oxide

    Applications of Iron Hydroxide Oxide in Industrial Manufacturing

    Iron Hydroxide Oxide serves a pivotal role as a reactive and functional raw material across several specialized industries. With consistent particle morphology and high purity produced by our manufacturing protocols, the material meets the rigorous demands of regulated downstream sectors. Below, we outline real-world applications where our material enables highly specific production outcomes, coordinated with established standards and defined process parameters.

    1. Pigment Production for Industrial Paints & Coatings

    Manufacturers of anti-corrosive paints and heavy-duty coatings utilize Iron Hydroxide Oxide as a primary pigment due to its stable color tone and protective properties. Its fine particle structure ensures high dispersion and adhesion during pigment paste formulation, directly influencing the performance in marine, infrastructure, and machinery-applied coatings. Integration happens at the high-speed dispersing or bead milling stage, where pigment must achieve target fineness before blending into the resin system or binder.

    Industry compliance standards

    • ISO 1248: Pigments — Specifications and test methods for iron oxide pigments
    • ASTM D769-96: Standard Specification for Color and Strength of Tinting Strength
    • REACH Regulation (EC) No 1907/2006
    • Directive 2004/42/EC on Industrial Emissions related to solvent emissions in paints

    Typical usage ratio

    • 5–35% by weight in pigment concentrate depending on opacity and desired color intensity; adjustment based on binder/pigment compatibility and target hiding power

    Downstream process integration

    • High-shear dispersing or bead milling with wetting agents upstream of letdown and paint compounding, before final filtration and canning

    Final product types

    • Anti-corrosion primers for marine structures
    • Industrial machinery coatings
    • Architectural exterior paints
    • Protective bridge and steelwork finishes

    2. Drinking Water & Wastewater Treatment Media

    Utilities and municipal plants employ Iron Hydroxide Oxide as a granular sorbent for the removal of dissolved heavy metals, especially arsenic and chromium, in potable water and industrial effluent applications. Its high surface area and selective adsorption kinetics enable compliance with strict drinking water standards. The material enters as a replacement or top-up to existing media beds within fixed-bed filters and requires careful granule sizing to balance flow rate and filtration efficiency.

    Industry compliance standards

    • NSF/ANSI 61: Drinking Water System Components – Health Effects
    • EPA Method 200.9 and 200.8 for metal content in water
    • EN 15029: Chemicals used for treatment of water intended for human consumption
    • ISO 9001:2015 for process quality management

    Typical usage ratio

    • Filter media charge: 100–250 g/L; replacement interval determined by breakthrough curves for target metal load and local feedwater concentration

    Downstream process integration

    • Packed into pressure vessel columns or open bed tanks as main or supplementary adsorbent media, directly exposed to influent water flow for direct contaminant capture

    Final product types

    • Packaged media filter cartridges for municipal home water treatment
    • Large-scale fixed bed adsorbers for public drinking water systems
    • Effluent contaminant removal units for industrial plants
    • Point-of-entry cartridge systems for critical health compliance

    3. Ferrite Ceramic Components in Electronics

    In ferrite ceramic manufacturing, Iron Hydroxide Oxide supplies a controlled iron source essential for producing Mn-Zn or Ni-Zn magnetic ferrite materials. Consistency in precursor composition and moisture control is vital for predictable calcination and sintering behavior, impacting product magnetic permeability and electrical resistivity. The raw material enters at the powder blend stage, pre-calcination, where precise stoichiometric addition drives the microstructural properties of the fired core.

    Industry compliance standards

    • IEC 60401-1: International Standard on Ferrite Materials
    • RoHS Directive 2011/65/EU (for electronic component restricts)
    • JIS C 5101 (Japanese ferrite standards)
    • ASTM B738-92: Standard Practice for Preparation of Compacted Specimens of Powder Metallurgy Materials

    Typical usage ratio

    • 30–58% in the ceramic powder blend by mass, fixed according to the desired ferrite composition (ZnFe2O4, MnFe2O4, NiFe2O4) and electrical/magnetic requirements

    Downstream process integration

    • Dry mixing or wet ball milling with other metallic oxides prior to spray drying, granulation, and high-temperature calcination or sintering

    Final product types

    • Magnetic cores for transformers
    • Electromagnetic interference (EMI) suppression beads
    • Inductive components and coils
    • Ferrite tiles for antennas and sensors

    4. Glass Coloring Agents in Construction & Automotive Glass

    Glass manufacturers rely on Iron Hydroxide Oxide as a precision coloring agent to impart greenish or brownish tints in container, flat, and automotive glass products. The addition level controls UV-absorption, daylight transmission, and the specific hue achieved, affecting both aesthetic and functional properties of the final pane or bottle. The material is added with batch raw mixes, dissolving uniformly during melting, so purity and granulation are critical for clarity and homogeneity.

    Industry compliance standards

    • EN 572-2: Basic soda-lime silicate glass — Composition and properties
    • ASTM C1036: Standard Specification for Flat Glass
    • ISO 14021: Environmental labeling and declarations for recycled glass
    • Directive 2000/53/EC (Automotive End-of-Life Vehicle rules)

    Typical usage ratio

    • 0.05–1.0% by weight of batch, tuned according to desired color density, glass chemistry, and specification for light transmission

    Downstream process integration

    • Dry blended with silica sand, soda ash, and other metal oxides before melting process; input at the furnace batch hopper prior to glass forming

    Final product types

    • Green or amber glass bottles for beverages
    • Solar control glass for commercial buildings
    • Automotive side and rear windows
    • Decorative and privacy flat glass panels

    5. Catalyst Precursor Material in Chemical Processing

    Chemical processing plants use Iron Hydroxide Oxide as a precursor in the synthesis of heterogeneous catalysts, notably in the Fischer-Tropsch process and ammonia synthesis. The compound’s defined hydration state and easy reducibility ensure catalyst precursors with target surface area and porosity, critical for catalytic performance. The material enters during the co-precipitation or impregnation stage, often followed by drying, calcination, and reduction steps prior to loading into fixed or fluidized bed reactors.

    Industry compliance standards

    • ISO 9001:2015 for catalyst manufacturing process quality
    • Responsible Care® initiative for handling hazardous chemical catalysts
    • REACH pre-registration for intermediate chemical use
    • ASTM D5263: Standard Test Method for Measuring Surface Area of Catalysts

    Typical usage ratio

    • Typically 45–65% of total solids mass in precursor formulation; variant depending on metal loading and catalytic process requirements

    Downstream process integration

    • Integrated at the catalyst base precipitation, followed by controlled aging, filtration, and activation steps for final molding or granulation

    Final product types

    • Iron-based ammonia synthesis catalysts
    • Fischer-Tropsch synthesis catalyst pellets
    • Hydrodesulfurization catalyst support materials
    • Mixed-metal oxide catalysts for chemical synthesis

    6. Polishing Compounds for Precision Optics and Electronics

    Manufacturers of glass optics, semiconductor wafers, and precision metal mirrors incorporate Iron Hydroxide Oxide as an active abrasive in polishing compounds. Its particle size and hardness provide controlled material removal rates, essential for achieving nanometer-level surface finishes required in telecommunications, medical, and lithography optics. Integration takes place at the slurry mixing stage, where compound viscosity and solid load tailor the lapping or polishing process to material type and desired surface quality.

    Industry compliance standards

    • ISO 10110-1: Optics and photonics — Preparation of drawings for optical elements and systems
    • ASTM F799: Standard Practice for Polishing and Deburring of Microelectronic Wafers
    • SEMI MF1811: Guide for Polished Monocrystalline Silicon Wafers
    • IEC 61300-3-35: Fiber optic connector end face quality assessment

    Typical usage ratio

    • 30–60% by weight in aqueous polishing slurry, concentration adjusted according to workpiece material and target roughness; diluted further for finishing stages

    Downstream process integration

    • Prepared as uniform slurry with wetting/dispersing agents, delivered onto rotating polishing pads or applied in semi-automated wafer lapping equipment

    Final product types

    • Polished glass lenses and prisms
    • Semiconductor wafers for microelectronics
    • Precision metal mirrors for scientific instrumentation
    • High-purity optical fiber connectors
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    Certification & Compliance
    More Introduction

    Introducing Our Iron Hydroxide Oxide: A Trusted Material in Water Treatment and Beyond

    Iron Hydroxide Oxide from a Manufacturer’s Perspective

    Over years of supplying industries with iron-based materials, we have seen Iron Hydroxide Oxide become a vital component in applications where reliability and precise performance matter most. In the water treatment sector, this product’s capabilities set the benchmark for arsenic removal, phosphate binding, and wastewater purification. Operating a full-scale manufacturing facility, we oversee each stage of the oxidation process, ensuring a controlled transformation from precursor to finished oxide. By controlling variables like particle size, hydration level, and purity, our production line turns out consistent results for customers handling municipal water, process streams, or remediation projects.

    Here, our Iron Hydroxide Oxide distinguishes itself through stable chemical behavior and well-defined crystalline structure. Over dozens of production cycles, our staff monitors everything from temperature ramps in the reactor to filtration rates during washing. Years of optimizing these parameters has meant that we no longer struggle with batch-to-batch drift in activity or color—pain points that others frequently bring up when switching to a different supplier.

    Model Overview and Specifications

    One model that continues to gain attention is our Fe(III) hydroxide oxide with a targeted particle size distribution and low chloride content. We maintain particle sizes in the range known for maximizing reactive surfaces, and our process eliminates most soluble impurities like sodium or sulfate. Moisture content falls within a tightly held range to avoid issues during shipping or storage. Color appears as a deep reddish-brown, reflecting a phase purity with minimal black or yellow traces. We run elemental analysis and surface area tests on every batch, never shipping material that drifts outside our established limits.

    Some users ask about the amorphous versus crystalline forms. Through our in-house calcination expertise, we switch from a loose, porous hydroxide gel to a denser oxide by managing temperature and residence time. Our crystalline model sees regular use in groundwater remediation because it stays stable under a range of pH and doesn’t cake when mixed into treatment beds. The amorphous variety supports those who prioritize rapid adsorption over shelf life, like laboratories handling small, critical purification runs.

    Performance Matters to Real-World Applications

    One of the most important validation steps happens outside our plant. Water treatment operators tell us their experience with dosing, backwashing, and spent media handling. Listening to this direct feedback brought changes in drying method, resulting in a product ready to blend without forming unwanted clumps or dust. Operator hands don’t stain, which has led to safer handling and decreased cleanup time. Consistent iron assay means more predictable phosphorus or arsenic uptakes—cutting downstream labor and avoidable equipment fouling.

    Another advantage of our iron hydroxide oxide is the strongly retained surface –OH groups. This results in high binding of contaminants such as arsenate, chromate, selenite, and some heavy metals. Unlike generic iron powder or ferric chloride, our product doesn’t pose wide swings in reaction pH. In a full-scale sand filter, the media remains active for longer between changes. Municipal plants that struggled with less stable iron preparations report maintenance cycles reduced from monthly to quarterly, all thanks to improved material longevity.

    Comparison with Other Iron-Based Materials

    Not all iron-based adsorbents behave the same. Those using raw iron filings or magnetite often face inconsistent uptake and slower reaction times, especially in rapid-flow settings. Our hydroxide oxide features a highly porous, high-surface-area morphology that exposes more active sites—critical for fast kinetics in large-volume operations. Hematite and magnetite both require longer contact time and typically show less affinity for anions like arsenic(V) or phosphate. We routinely run comparative batch tests in our lab to help clients understand these differences in actual operating water matrices.

    Another difference concerns byproduct formation. Some iron additives leach excessive iron into water, causing discoloration and downstream corrosion. Our product retains iron under operating conditions, staying intact even with highly variable feedwaters. That means end-users spend less time chasing secondary issues, letting them focus on their main processes.

    Because of low impurities and minimal dust generation, our iron hydroxide oxide works smoothly in cartridge filters and granular filter beds. Some commercial iron powders can foul membranes or settle unevenly, but ours maintains hydraulic conductivity throughout the run’s life. This translates into longer intervals between filter changes—a detail that directly benefits utility managers watching operating budgets.

    Field Experience: Tackling Contaminant Removal

    Every delivery brings a new challenge, with water naturally varying in matrix and contaminant load. In rural arsenic removal stations, we’ve seen our iron hydroxide oxide bring contaminant levels down faster than precipitated iron sludges or synthetically coated sands. High surface reactivity and robust material integrity support repeated backwashing, unlike some weaker iron products that break apart under stress and need more frequent replacement.

    Wastewater streams contaminated with orthophosphates see strong affinity for our material. Operators observe clear reductions in phosphorus—a priority for meeting discharge limits. In commercial aquarium systems, managers avoid algae blooms by integrating our oxide as part of their filtration loop. Even when dissolved silica or organic acids compete for surface sites, our product maintains significant removal capacity over many cycles.

    Those using manganese greensand or activated alumina sometimes confront higher costs due to rapid fouling or loss of efficiency following chemical cleaning regimens. We’ve developed protocols that let users regenerate loaded beds with mild caustic, and our team supports pilot trials and scaling guidance. Our experience producing iron hydroxide oxide at scale means we can adapt grades to address problems that arise from unforeseen impurities or unique engineering circumstances.

    Safety, Handling, and Stability in the Supply Chain

    Discussions about iron-based products often turn to the subject of operator safety and environmental impact. From the beginning, we engineered our iron hydroxide oxide to remain non-toxic, free from respirable dust, and chemically inert under storage conditions. Regular inspections keep our packaging tight and dry, eliminating moisture uptake or off-gassing. Over the course of thousands of drum shipments, we’ve tracked real-world evidence for safe material handling—lower incidence of irritation, no spills that create hazardous residue, and compliance with transportation standards.

    Once delivered, our product does not cake at the bottom of bins or undergo unintended transformation due to temperature swings. This quality matters for clients in remote regions or those managing multi-tonne stocks. Our plant tracks performance statistics and consults with industries ranging from municipal drinking water to specialty glassmaking, allowing for real improvements in field performance.

    Innovations from the Production Line

    Large-scale synthesis of iron hydroxide oxide brings its own obstacles. Conventional routes, which might use air oxidation of iron(II) salts, struggle with waste brine and high energy use. Over the last decade, our factory invested in closed-loop washing and innovative precipitators. We recover over 90 percent of process water for reuse, cutting down plant effluent and helping nearby communities.

    By investing in automated controls, we maintain tighter oversight on reactant dosing. Fine-tuned addition of alkali agents yields more reproducible particle size and hydration. By switching from batch to continuous filtration, we minimized downtime and offered customers shorter lead times. Real-world results showed fewer dust fines and higher activity, which we confirmed through on-site visits and performance trials.

    Learning from each production cycle, our staff works to minimize raw material waste while improving conversion rates. The decision to shift toward natural gas-fired dryers instead of older steam evaporation brought energy costs down, stabilized dryness, and improved throughput. Sharing these improvements with our customers opens discussion about sustainability and the future of responsible material production.

    Supporting a Range of End Uses

    Our iron hydroxide oxide finds users in many different industries. Water utilities rely on its selective absorption for arsenate and phosphate. Remediation firms deploy it at contaminated sites, where it serves to immobilize chromium and reduce soluble lead risks. In the pigment industry, our oxide imparts a stable color that resists fading and doesn’t contain hazardous chromium or cadmium.

    The analytical chemistry community turns to our high-purity oxide for reference preparations and calibration standards. Laboratories testing trace metals or anions request material from specific production lots with guaranteed trace element content. Our batch documentation process builds trust in these sensitive uses, letting users trace every shipment to a detailed production record.

    Responsibility to Clients and the Environment

    Building trust in our iron hydroxide oxide took steady effort. Customers come back because they rely on consistency, quick technical support, and honest communication about product limits. We don’t hide behind fine print—if a particular matrix proves stubborn, we’ll run tests at our plant and report results plainly.

    Environmental stewardship also plays into our day-to-day operations. By shifting toward renewable process energy, recycling reaction liquor, and carefully treating effluents, we continue to shrink our environmental footprint. Our team meets with municipal engineers, environmental scientists, and purchasing agents, sharing operating data and exploring collaborations that stretch beyond a simple transaction.

    As a direct producer, we understand the entire lifecycle—from raw mineral input to spent media disposal. We help customers with technical sheets for proper landfill or byproduct reuse. This lifecycle approach distinguishes our approach from traders who may have little knowledge of what happens when a batch leaves the warehouse.

    Challenges and Future Directions

    No product is without its challenges. Iron hydroxide oxide can lose activity in water with high organic carbon. In such conditions, we recommend blending with pre-treatment steps or offering material with modified surface properties. We consult on using pH adjustment or alternate filter media to prevent rapid exhaustion. Our R&D staff tracks developments in new contaminants—like per- and polyfluoroalkyl substances—to help evaluate whether modified iron hydroxides hold promise for problems yet unsolved.

    Transport and storage in humid climates present another challenge, especially for bulk users. Over years, we adopted moisture-resistant liners and batch codes to ensure traceability. Periodic customer feedback shapes packaging upgrades that help tackle these concerns.

    As regulatory standards for water quality tighten and remediation projects grow ever more technical, continuous improvement remains central to our work. Modernizing the manufacturing line with real-time analytics and advanced powder handling lets us meet demands for ever-higher selectivity and purity. Staff training and close monitoring make sure that every delivery meets a high bar.

    Why Users Choose Our Iron Hydroxide Oxide

    Direct customers tell us they choose our oxide because problems get solved and processes run better. Consistency batch-to-batch remains high, with no need to worry about variations that cause dosing headaches. Technical support sits ready to help tweak parameters or interpret test results—quick answers, accurate advice. Transparency brings trust, and our staff stands behind every shipment.

    Some users want custom blends, tailored particle sizes, or just-in-time delivery for lean operations. We respond by keeping a range of grades on hand and by flexibly scheduling runs to match customer demand. Whether someone manages a municipal water plant, a hazardous site remediation, or a specialty pigment blending operation, our experience as a direct manufacturer provides an assurance that intermediaries cannot.

    Continuous improvement means constant investment in employee training, equipment upgrades, and process monitoring. By staying one step ahead of industry challenges and listening closely to end-users, we help keep processes efficient and water cleaner. Our iron hydroxide oxide reflects the accumulated experience of a manufacturer who knows where shortcomings begin and how to finish each batch to a repeatable, reliable result.