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Ferrous Arsenate

    • Product Name Ferrous Arsenate
    • Alias Iron(III) arsenate
    • Einecs 235-017-0
    • 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
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    Specifications

    HS Code

    177888

    Chemical Name Ferrous Arsenate
    Formula Fe3(AsO4)2
    Molar Mass 427.41 g/mol
    Appearance Light green powder
    Solubility In Water Insoluble
    Density 3.8 g/cm3
    Melting Point Decomposes before melting
    Cas Number 10101-50-5
    Oxidation State Of Iron +2
    Oxidation State Of Arsenic +5
    Uses Pigments, chemical synthesis

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

    Packing & Storage
    Packing Ferrous Arsenate is packaged in a 500g tightly sealed HDPE bottle with hazard labels, product identification, and safety instructions clearly displayed.
    Shipping Ferrous Arsenate is shipped as a solid or powder in tightly sealed, labeled containers to prevent moisture exposure and contamination. It should be handled as a hazardous material, following all safety regulations, including use of compatible packaging, proper labeling, and documentation for transportation. Avoid contact with food and animal feed items during shipping.
    Storage Ferrous arsenate should be stored in a tightly closed container in a cool, dry, well-ventilated area, away from incompatible substances such as strong acids and oxidizers. Avoid exposure to moisture and direct sunlight. Clearly label the storage area and keep it secure, limiting access to trained personnel. Use corrosion-resistant shelving and ensure spill containment measures are in place.
    Application of Ferrous Arsenate

    Applications of Ferrous Arsenate in Industrial Manufacturing

    As a specialized manufacturer of Ferrous Arsenate, we serve global industrial customers with material tailored to distinct downstream sectors. Our quality-controlled processes and application expertise support various precise industrial formulations, where compliance, dosage, integration, and final product performance are critical. Below we detail established industry applications, focusing on actual use-cases and technical requirements from raw material input through to finished goods.

    1. Glass and Enamel Pigmentation

    Industrial producers employ Ferrous Arsenate as a specialty pigmenting agent, especially for coloring glass, ceramics, and vitreous enamels. Its unique iron-arsenate composition imparts controlled hues, specifically green and blue-green tones, while promoting opacity and surface stability in architectural glazing and enamel-coated housewares. Manufacturers fine-tune arsenate inclusion to balance color quality, optical clarity, and long-term product durability in accordance with precise formulation demands and regulatory requirements for heavy metal content.

    Industry compliance standards

    • EN 1388-1:2007 (Glassware for contact with foodstuffs – Release of lead and cadmium)
    • ISO 695:2022 (Glass – Resistance to attack by a boiling aqueous solution of mixed alkali – Method of test and limits)
    • RoHS Directive 2011/65/EU (Restriction on hazardous substances for electrical/electronic applications)
    • REACH Regulation EC 1907/2006 (Substance registration and notification)

    Typical usage ratio

    • Dosage typically ranges from 0.05% to 0.5% by total batch weight in glass or enamel frit, depending on base composition and target opacity. Technicians adjust levels according to color depth and regulatory thresholds for arsenic content.

    Downstream process integration

    • Ferrous Arsenate enters the glass melting tank or frit batch mixer during preliminary weighing and raw material prep. Integration before the fusion process ensures full pigment solubilization and uniform color distribution.

    Final product types

    • Architectural glass panels (tinted or opacified)
    • Household ceramic enamelware
    • Enamel-coated appliance panels
    • Decorative glass tiles

    2. Wood Preservation Formulations

    Manufacturers of industrial wood preservatives utilize Ferrous Arsenate as part of proprietary arsenical systems for enhanced resistance to pests and rot. The compound provides a source of controlled-release arsenic that binds firmly within treated timber matrices, offering robust protection for outdoor construction, utility poles, and railway sleepers, all while meeting updated hazard labeling and worker safety guidelines through certified process management.

    Industry compliance standards

    • AWPA P5 Standard (American Wood Protection Association)
    • OECD Guidelines for Testing of Chemicals: Wood Preservatives
    • EU Biocidal Products Regulation (BPR, EU 528/2012)
    • OSHA 29 CFR 1910.1200 (Hazard Communication for process workers)

    Typical usage ratio

    • Concentration in ready-to-use wood preservative formulations ranges from 0.2% to 2% by weight. Ratios depend on timber porosity, target service duration, and species-specific absorption capacity validated by standard lab testing.

    Downstream process integration

    • Our material is dissolved or suspended in the preservative mixing tank, then applied in a vacuum-pressure impregnation step. Post-treatment fixation follows to lock arsenates within wood fibers, reducing leaching and exposure risk.

    Final product types

    • Treated utility poles
    • Outdoor decking timbers
    • Railway sleepers
    • Fencing and agricultural posts

    3. Agricultural Pesticide Intermediates

    Ferrous Arsenate serves as a precursor ingredient in certain specialized insecticidal formulations aimed at soil and stored grain pest control. Formulators take advantage of its unique chemical stability to produce granular or dust contact pesticides under strictly regulated usage, particularly in geographies still permitting arsenical pest control for critical, non-food crop applications and heritage grain storage solutions.

    Industry compliance standards

    • FAO/WHO JMPR Guidelines (Joint Meeting on Pesticide Residues)
    • EPA 40 CFR Part 180 (Tolerance requirements for pesticide chemical residues in food)
    • EU Regulation (EC) No 1107/2009 (Plant protection product authorization)
    • National GB 2763–2021 (Maximum Residue Limits for Pesticides in Foods, for compliance checks)

    Typical usage ratio

    • Intermediate use levels usually range from 1% up to 8% w/w in concentrated active blends. Application dosage is tightly restricted according to approved protocols and monitored field studies to prevent excessive residual accumulation.

    Downstream process integration

    • Add as a slurry or dry powder during batch agglomeration or spray granulation, before final particle sizing and dust suppression. Final blending secures uniform distribution for safe packaging.

    Final product types

    • Soil incorporated insecticidal granules (non-food crop use)
    • Structural pest control powders for heritage grain storage
    • Termiticide preparations (industrial infrastructure use)

    4. Specialty Alloy Additives

    Selected metallurgical foundries and alloy producers incorporate Ferrous Arsenate as a micro-additive to modify trace elements in specialty iron- and arsenic-containing alloys. Its controlled delivery during melting enables precise adjustment of phases and grain structure in copper, lead, or tin alloys for specific engineering performance, balancing element solubility and minimizing workplace emission risks by granular dosing under closed atmosphere conditions.

    Industry compliance standards

    • ASTM E245 (Standard Practices for Microetching Metals and Alloys)
    • ISO 4955:2022 (Steel – Classification of grades by main quality classes)
    • SAE AMS 03-36 (Copper Alloy Product Specifications)
    • OSHA 29 CFR 1910.1000 (Air Contaminants Exposure Limits)

    Typical usage ratio

    • Typical addition rates run from 0.01% to 0.15% by total alloy batch mass. Metallurgists adjust dosing according to melt size, target arsenic content, and alloy property requirements confirmed by spectrographic analysis.

    Downstream process integration

    • Introduce directly into the alloy furnace melt via automatic dosing hoppers. Batch laboratory controls verify incorporation and final structure prior to casting or extrusion.

    Final product types

    • Arsenic-copper specialty alloys
    • Long-life bearing materials
    • Corrosion-resistant hardware fittings
    • Engineering-grade foundry castings

    5. Electrochemical Laboratory Reagents

    Ferrous Arsenate functions as a reference reagent and calibrant in advanced electroanalytical laboratories, especially within institutions developing and validating analytical instrumentation for trace arsenic and iron detection. Laboratories rely on traceable purity and batch homogeneity for preparing standard solutions, calibration curves, and specialized reagents used in geochemical analysis and materials science research.

    Industry compliance standards

    • ISO 17025:2017 (Testing and calibration laboratories competence)
    • ASTM D1976 (Standard Test Method for Elements in Water by Graphite Furnace Atomic Absorption Spectrometry)
    • IUPAC guidelines for trace elemental standards
    • USP General Chapter <231> Heavy Metals (if used in pharmaceutical research context)

    Typical usage ratio

    • Solution preparation concentrations vary broadly—for calibration from 1 mg/L to 100 mg/L, and for working reagents from 0.01 mol/L as stock. Analyst adjusts levels based on instrument sensitivity and required measurement range.

    Downstream process integration

    • Dissolved in acidified deionized water or standard diluents. Incorporated in stepwise volumetric preparation, fitted to analytical method requirements for precise reference or working solution creation.

    Final product types

    • Electrochemical calibration standards
    • Analytical test kits for water/soil arsenic
    • Certified reference materials (CRM) solutions
    • Quality control spiking reagents
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    Certification & Compliance
    More Introduction

    Ferrous Arsenate: Delivering Reliable Iron and Arsenic Chemistry Direct from Our Plant

    Ferrous Arsenate Made by Professionals, for Professionals

    Producing ferrous arsenate takes skill, consistent raw materials, and a clear understanding of chemical reactions. We manufacture this product right at our site, so each lot begins with high-purity arsenic and iron sources. Our plant keeps strict control over every reaction step—right from raw input to the completed powder. In practice, a chemist’s eye will spot inconsistent batches long before customers do, but prevention starts at the source. For decades, technical staff at our facility have refined our process so every shipment delivers the iron(II) arsenate tetrahydrate you expect—by composition, crystal phase, and color. The confidence users show in our model FAS-04 stems not from marketing but from years of successful application in agriculture, ceramics, and specialty pigment making.

    Specifications That Support Your Results

    Ferrous arsenate’s chemical formula is Fe3(AsO4)2·4H2O. Producing a stable hydrate helps customers achieve reliable mixing and reactivity under standard plant or laboratory conditions. Our FAS-04 model offers a free-flowing greenish powder, which stays consistent lot to lot due to the control we maintain at every point, from temperature to pH to agitation speed during synthesis. Particle size has real consequences on handling and reactivity. We grind to a mean particle size near 100 microns, with minimal clumping and dust. This matters not only for batch mixing, but also because excess fines can lead to off-spec color, loss in handling, or even safety issues in field applications.

    Our in-house laboratory regularly confirms the physical and chemical profile with every batch. Iron content averages 25-27%, arsenic falls within 30-33%, and trace impurities stay well below industry guidelines. Moisture content sits close to 12%, balancing a free-flowing product without the risks of drying instability. Our quality control never runs on autopilot; routine x-ray diffraction and elemental scans flag any sign of deviation before product leaves our dock. If end-users request tighter specifications for specialty uses, our technical manager evaluates the requirements with production and, if practical, adjusts parameters right on the factory floor.

    Understanding Ferrous Arsenate’s Key Applications

    Ferrous arsenate has earned its place in niche but critical roles. One of its earliest and continuing uses appears in the production of specialty pesticides and herbicides—where arsenate chemistry brings selective but persistent insect and weed control in crops like cotton and citrus. Unlike imported or non-controlled material, our ferrous arsenate maintains an iron-to-arsenic ratio that limits unreacted starting material, so end-users see fewer unexpected chemical interactions in blended formulations.

    We get calls each year from technical managers at glass plants, tile manufacturers, and pigment makers who want a material that can adjust optical properties or help control coloring in their batch. Ferrous arsenate, with its precise oxidation state and particle profile, provides stable green hues for specialty ceramics and can act as a functional intermediate in cobalt and manganese coloration systems. Some research groups have used our product as a precursor in the controlled synthesis of advanced materials, taking advantage of our reproducible structure and purity.

    Practical Differences Over Other Suppliers’ Material

    Not all ferrous arsenate arrives equal—sometimes the difference travels right from the mine or recycler’s operation and never leaves. We only purchase high-confidence raw material, with tight controls on origin and composition, so trace metallics or unexpected soluble salts do not spoil the batch. Customers who have tried substitutes notice composition drift, batch-to-batch color shifts, or filter cake that never dries out properly. These complications do not only cost money—they increase safety and environmental struggles.

    Industrial users who demand on-time process control cannot afford ingredients with wild deviation. Many distributors and secondary manufacturers try to pack ferrous arsenate with variable impurity loads, plain hydrated arsenic, or compounds with questionable iron oxidation states—all issues that make reactivity unreliable. From our first kilogram we set out to supply a basic iron arsenate that responds predictably every time, regardless of year or logistical hiccups. We back up every shipment with traceability down to the input commodity lots, supported by more than a decade of batch records and retained samples.

    Dealing with the Dangers and Demands of Arsenate Chemistry

    Everyone making or using ferrous arsenate knows its hazards. Arsenic compounds deserve respect and safe practice. Our technical teams have designed handling, packaging, and shipment steps for decades working with these materials. Airborne dust receives special attention, with bagging facilities fitted for negative pressure and HEPA capture. Operators use fit-tested respiratory protection, and routine training reinforces the importance of process control to keep material where it belongs.

    We ship in industrial-grade polyethylene-lined paper sacks, with tamper seals and hazard labeling compliant with the most recent international transport regulations. For customers with high-volume or automated handling needs, our plant can load intermediate bulk containers, always with supplier-side sweep samples to guarantee downstream product tracing. Our health, safety, and environment officers regularly update procedures as science and regulation advance. Collaboration with clients ensures employees, transporters, and users stay within regulatory guidelines and best practices for arsenic handling.

    Meeting Unpredictable Demands in a Changing Regulatory World

    Laws around arsenic and its compounds do not hold steady year after year. In the last decade, we have seen pesticide use rules tighten in many regions, and end-market customers seek guarantees on product lifecycle documentation and reporting. Changes in allowable residues or mandated limits require close communication—our own compliance team checks for regulatory updates in the countries where our customers operate. If new rules land, we move quick to alter labeling, conduct revalidation testing, or—if the market demands it—shift production priorities within our broader product slate.

    Some customers approach us because they need material that must pass stricter leaching tests, or they want our records and retained samples in case a third-party audit occurs after delivery. We maintain a product story from incoming shipment to final batch record, so claims get checked not only by paperwork but also by walkable evidence on site. For us, a shipment leaving with unverified paperwork is not an option. This approach, built from close calls and lessons learned over years of operation, lets us weather the regulatory shifts with few surprises for us or our partners.

    What Real Users Tell Us about Ferrous Arsenate

    Technical buyers return for more than price and availability. Seasoned process engineers in pigment plants call in to confirm micron size ranges or moisture averages. Agronomists want to know if recent batches fit their in-house compatibility tests for pesticide blends. Each query has shaped improvements—one ceramic client’s struggle with clogging led to a complete filter press upgrade at our plant; a major agricultural user found our dust control changes easier on their on-site blending lines. These conversations stay with our technical and production managers. Material claims rarely survive in the real world without regular field observation and support.

    We get the clearest feedback in repeat orders—especially from those who previously tried third-party repackers or bought material that did not meet their last batch’s performance. Some users struggled with lack of clarity on iron-arsenic ratios, leading to plant process failures or unwanted regulatory attention. A few even traced returned product problems to material cut with hydrated iron oxide powders rather than true ferrous arsenate. Since every lot we create has a matching certificate of analysis and retained reference in our archive, these kinds of mysteries do not last long. Support and transparency bring most users right back for a new season or production run.

    Improving and Scaling Production for the Next Generation

    Demand does not pause at our comfort zone. Larger contracts for international firms with massive process requirements force better automation on our end. Handling tonnage safely, without exposing more people to arsenic dust, pushed us to install sealed transfer lines, computer-monitored process controls, and real-time environmental monitors in our newest production hall. We deploy predictive maintenance based on equipment hours and environmental exposure—not after a failure gums up the works. This attention to detail keeps plant uptime and safety high for processes that cannot afford downtime.

    Transparency in our operation does more than satisfy regulators—it lets clients see exactly where their material grew from. A customer’s product formula or technical detail rarely gets shared lightly, but when clients tour our plant or send their auditors, they want accuracy not platitudes. Our logbooks and QC records answer detailed questions about every batch, and our operators know not to skip steps for schedule’s sake. In this business, shortcuts invite product recalls or worse. Years of tracing root causes mean we have trimmed out more than one unnecessary step and never leave corrective actions to paperwork alone.

    Outlook for Ferrous Arsenate: Moving Forward With Eyes Wide Open

    Ferrous arsenate fills a demanding, high-specialization role. Societal tolerance of arsenic in general runs low, and for good reason. But until the industries relying on its properties can replace it fully, quality, traceability, and safety stay at the top of our priorities. Customers who have dealt with subpar material, hassle-filled audits, or safety lapses in the past know the value of direct-from-factory supply. Those just entering the market often underestimate the skill and vigilance demanded by both product and regulation until a problem surfaces.

    We have a stake in the continued use of iron-arsenate chemistry and a responsibility to drive progress on safety and environmental frontiers. Every time products like FAS-04 get evaluated for risk-benefit or replaced by newer alternatives, we work with researchers, partners, and regulators to update best practices and share field data. We have shifted production timelines to accommodate new technical restrictions, launched tiny pilot lots for advanced synthesis groups, and adjusted our process on the fly to keep ahead of changing spec requirements.

    Why Detailed Sourcing and Manufacturing Matter

    Every kilogram of ferrous arsenate that leaves our plant tells a story of its chemistry and source. Technicians who map out traceabilities can spot mistakes in just a page or two because each raw input, batch process, and final grind bears a timestamp and operator mark. When working with a material as tightly controlled as this, having crystal-clear visibility helps both ourselves and our clients. Without detailed record-keeping and hands-on control at each reaction stage, cross-contamination, off-spec composition, or packaging errors go unseen until product lands at the user’s site.

    Over the years, we have seen the headaches caused by second-hand or blended ferrous arsenate. Sometimes the product changes shade in shipment, or filters plug unexpectedly. On occasion, an imported batch may arrive labeled as iron(III) arsenate or a similar-sounding compound, leading to technical confusion, rework, or outright safety recalls. Our assurance comes from handling every step ourselves. Raw material always runs through incoming inspection, then moves through the dedicated reaction lines, before a final pass at our grinding and packaging stations. That trust, built step by step, helps safeguard both our company and those who rely on our output.

    Listening, Adapting, and Earning Long-Term Trust

    The chemical landscape never stands still. Each regulatory change, technical challenge, or unexpected market requirement forces deeper scrutiny of process and product. Rather than sticking to routines, our technical manager and quality team remain in close communication with customers, researchers, and authorities. Improvements in process yield, operator safety, or product purity have come not from mandates, but through day-to-day learning on the production line and regular feedback from the field. These updates often mean hour-by-hour tweaks—better ventilation here, tighter moisture control there, or redesigned sacks for new shipping standards.

    Long-term business rests on trust. We keep technical dialogue open, never shy away from challenging questions, and back every claim with traceable data. Several customer partners have joined us in developing updated analytical protocols or more accurate hazard labeling. Our open-door approach to audits—both announced and spot-check—has helped harden our practices while reinforcing credibility with users and regulators alike.

    Facing the Future of Specialty Inorganic Chemicals

    Ferrous arsenate may represent a small corner of modern industry, but its impact spans critical sectors. With the right approach, combined with constant attention to engineering detail, chemical accuracy, and regulatory awareness, this product remains both safe and useful. Our work does not end after each batch ships out; we follow up, learn from our customers’ successes and failures, and bring these lessons back to our own shop floor. As other firms enter and exit this space, sustained quality and technical partnership mark the difference between true producers and the background noise of intermediaries.

    In a market where risk, quality, and traceability matter more than ever, the value of a direct-from-plant supply chain remains clear. Ferrous arsenate is just one example—through every bag and barrel, commitment to safety, accuracy, and reliability defines our operation. This comes not only from years of careful work, but from the plain truth that lives and businesses depend on doing the job right, every time.