Lead Arsenite

    • Product Name: Lead Arsenite
    • Alias: White Lead
    • Einecs: 235-101-4
    • Mininmum Order: 1 g
    • Factroy Site: Yudu County, Ganzhou, Jiangxi, China
    • Price Inquiry: admin@ascent-chem.com
    • Manufacturer: Ascent Petrochem Holdings Co., Limited
    • CONTACT NOW
    Specifications

    HS Code

    372529

    Name Lead Arsenite
    Chemicalformula PbHAsO3
    Molarmass 347.13 g/mol
    Appearance Yellow powder
    Density 6.86 g/cm³
    Meltingpoint Decomposes before melting
    Solubilityinwater Insoluble
    Odor Odorless
    Casnumber 10124-36-4
    Toxicity Highly toxic
    Uses Pigments, insecticides (historically)
    Stability Stable under normal conditions
    Hazardclass Acute Toxicity, Carcinogen
    Molecularweight 347.13

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

    Packing & Storage
    Packing Lead Arsenite is packaged in a 500g tightly sealed, labeled HDPE container with hazard symbols, safety precautions, and handling instructions.
    Shipping Lead Arsenite should be shipped in tightly sealed, clearly labeled containers, compliant with hazardous materials regulations. It must be securely packaged to prevent leaks and handled by authorized personnel. Transport is typically regulated under UN 1617, Class 6.1 (Toxic substances), and requires proper documentation, labeling, and segregation from incompatible materials.
    Storage Lead arsenite should be stored in a cool, dry, well-ventilated area away from incompatible substances such as strong acids and oxidizers. Keep in a tightly closed, labeled container made of non-corrosive material. Store away from food, drink, and animal feed. Ensure storage area is secure and access is limited to authorized personnel due to its high toxicity and environmental hazard.
    Application of Lead Arsenite

    Applications of Lead Arsenite in Industrial Manufacturing

    As a direct manufacturer of lead arsenite, we supply this specialized compound to selected sectors requiring its unique properties for coloration, stabilization, and protective purposes. Our experience in quality assurance and technical formulation supports users across regulated industries, ensuring compliance and technical consistency in downstream processes.

    1. Pigment Formulation for Industrial Paints

    Lead arsenite serves as a key pigment component in select corrosion-resistant primers and industrial coatings where durability and color stability under harsh environmental conditions are required. Its chemical stability enables application in environments with high ultraviolet exposure and abrasive wear, such as bridge and structural steel maintenance. Customers must strictly follow regulatory protocols regarding pigmentation and waste management.

    Industry compliance standards

    • REACH Annex XVII (EU regulations on hazardous pigments)
    • OSHA 29 CFR 1910.1025 (Occupational lead exposure)
    • ASTM D476 (Standard Classification for Dry Pigmentary Chemical Composition)
    • APEO-free certification for textile machinery coatings, when relevant

    Typical usage ratio

    • 0.5–7% by weight in dry pigment blend; adjusted by color intensity, substrate, and film thickness requirements

    Downstream process integration

    • Added during the pigment dispersion stage of paint or coating manufacturing, usually pre-milled with other inorganic pigments and extenders before resin addition and let-down

    Final product types

    • Corrosion-resistant steel primers
    • Heavy-duty exterior maintenance paints
    • Marine and bridge coatings (where permitted)
    • Protective coatings for industrial equipment

    2. Ceramic Glaze Coloring in Industrial Tile Production

    Selected ceramic manufacturers use lead arsenite as a colorant in high-temperature glazes, primarily for achieving distinct yellow-green hues in tiles and sanitaryware. The material provides a stable chromophore that resists fading and grey-out during repeated kiln firings. Strict process controls are necessary to prevent lead volatilization and ensure consumer safety in final glaze application areas.

    Industry compliance standards

    • EN 1388-1 (Release of lead and cadmium from ceramic ware)
    • ISO 6486-2 (Limits for release of lead and cadmium)
    • RoHS (Restriction of Hazardous Substances Directive – exemption management)
    • Regulation (EC) No 1935/2004 (Materials and articles intended to contact food, for tableware use)

    Typical usage ratio

    • 0.2–2% of total glaze batch; precise loading based on desired color intensity and matrix compatibility

    Downstream process integration

    • Blended with flux and frit components during premix, followed by wet milling and spray application to bisque-fired ceramics prior to final firing at 1050–1200°C

    Final product types

    • Decorative wall tiles for industrial and commercial buildings
    • Sanitaryware with designated non-food contact surfaces
    • Technical ceramics for specialized construction applications
    • Architectural ceramics for outdoor installations

    3. Antifouling Additive for Protective Marine Coatings

    In certain restricted marine coating systems, lead arsenite functions as an antifouling agent by inhibiting organism growth on submerged surfaces. This provides long-term biofouling resistance on ships, offshore platforms, and underwater equipment where alternate biocides are ineffective or inapplicable. Application adheres to region-specific environmental and toxicological controls, including shipyard handling protocols and in-use monitoring.

    Industry compliance standards

    • IMO International Convention on the Control of Harmful Anti-fouling Systems on Ships (AFS Convention)
    • EPA Federal Insecticide, Fungicide, and Rodenticide Act (FIFRA) – antifouling registration in the USA
    • Japanese Environmental Management Standard for Marine Paints (JEMPA 701)
    • Local water quality directives in end-use country

    Typical usage ratio

    • 2–4% in antifouling paint formulations, modulated depending on vessel operating profiles and dry film thickness

    Downstream process integration

    • Introduced in pigment and biocide premix stage using high-shear dispersion; later combined with resin and applied as the final antifouling coating layer before sea deployment

    Final product types

    • Commercial ship hull coatings (restricted to exempted jurisdictions)
    • Offshore rig protective paints
    • Anti-growth coatings for subsea cables and underwater structures
    • Ballast tank protective linings

    4. Glass Manufacturing for Infrared-Absorbing Specialty Glass

    Certain specialty glass producers use lead arsenite to adjust the transmission of visible and infrared light in technical glass, providing application-specific optical and radiative properties required in architectural and industrial environments. The compound contributes to color and IR absorption in controlled proportions, enabling formulations for energy-efficient windows and heat protection panels, subject to strict materials traceability and emission management.

    Industry compliance standards

    • EN 572 (Basic soda lime silicate glass for building, with additions for color control)
    • ISO 16293 (Solar control glass: performance specification)
    • Local emission limits for lead and arsenic compounds during glass melting
    • Industrial hygiene standards for batch preparation and melting environments

    Typical usage ratio

    • 0.05–0.5% by weight in glass batch; modified to achieve precise optical index and IR absorption, typically determined by spectrophotometric analysis of melt samples

    Downstream process integration

    • Charged during batch mixing before melting; fully dispersed in molten glass under oxidizing conditions to maximize color uniformity and minimize volatilization

    Final product types

    • Architectural glass panels with solar control
    • Industrial sight glass for furnaces and process equipment
    • Protective glazing for electronic equipment
    • Colored glass for lighting fixtures
    Free Quote

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    Email: admin@ascent-chem.com

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    Certification & Compliance
    More Introduction

    Lead Arsenite: Direct from the Manufacturer

    Understanding What We Do

    We manufacture Lead Arsenite for customers with specialized industrial requirements. Over the last thirty years, I have watched this compound become an essential part of the pigment industry, particularly for those chasing consistent, dense, and unmistakable hues for ceramics, paint, and even some specialty coatings. We don’t just pack barrels and ship material. We scrutinize every part of the process, from raw mineral sourcing through high-temperature synthesis and finishing steps, so that the expectations for quality and safety arrive intact along with every drum.

    Model and Specifications

    Most buyers are after our standard Lead Arsenite model LA-01. This particular formulation matches strict purity margins with a controlled particle size, which directly affects both pigment intensity and application performance. For reference, our LA-01 typically contains PbAsO3 as its principle component, with negligible moisture and measurable free-flowing properties. Chemical purity holds at over 99% by weight for both Pb and As when checked batch by batch. The particle size falls within a standard d50 of 4 to 6 microns—no large clusters, no clumping, so consistency follows right through a long production run. This means that when formulated into glazes or industrial paints, the color sits tight, and washout during application practically vanishes.

    Alongside the standard LA-01, a handful of custom specs come up each year, mainly for customers operating older European porcelain factories or those needing tighter control on residue and heavy metal background levels. We don’t treat those requests with suspicion; years at the workbench taught us that even a small bump in impurity can ruin a firing cycle or throw off a batch of pigment. These cases draw in our technical team—there’s a dedicated window next to the lab, and it’s not rare to see our chief chemist reviewing strange pigment precipitates before a custom shipment goes out.

    Uses and Value in Industry

    Lead Arsenite matters for a straightforward reason: there isn’t much else that brings the same combination of brilliant yellow color with chemical stability at high temperature. In decorative ceramic glazes, the color holds through the firing cycle without greening out, which isn’t always possible with substitutes. Likewise, in certain industrial paints, gray fading has been a notorious issue with organic pigments where exposure to light and alkali wears down the color after only a few months. Customers move to Lead Arsenite because, when properly handled in formulation, it shrugs off this kind of breakdown. That kind of reliability justifies repeat orders, and many clients return year after year rather than risk switching and encountering production headaches.

    We also receive regular orders from glass batch manufacturers. The pigment disperses evenly and holds in suspension without settling, which has become a selling point we didn’t expect in the early years. Technicians in these plants trust the material because they’ve seen how uniform distribution influences both color intensity and batch-to-batch consistency.

    It’s true that calls come in regarding its use in anti-corrosive primers as well. Lead Arsenite has a reputation for acting as a passivating agent on steel and iron surfaces. Compared with non-lead corrosion inhibitors, the coverage obtained—both in terms of spread and long-term adhesion—puts it in a league of its own for tough, high-exposure environments. Industrial users who restore or fabricate marine hardware still call for it because it forms an enduring seal against both salt and water vapor. We rarely see substitute compounds fill this niche with the same performance profile.

    What Sets Our Lead Arsenite Apart

    Plenty of companies sell what they call Lead Arsenite, some barely distinguishable from recycled pigment or rebagged powder. In our plant, each batch ties back to original chemical logs and production runs, and you would not find a filled drum without a history of independent analysis for both heavy metal content and unwanted mineral traces. Our process begins with careful selection of lead and arsenic sources—not all worldwide ores fit the stability and purity pattern we require. Workers in our plant are licensed, labs operate under strict safety codes, and analytical checks keep our standards above those found in quick-turnaround hubs. Problems have arisen elsewhere with off-color batches or loose consistency in product microstructure, both signs that finishing wasn’t carried out with close enough monitoring or proper filtration. Reprocessing pigment at final grind isn’t a decision we make lightly, but we take pride in avoiding short-cuts; if it doesn’t meet the specified spread, we don’t ship.

    One question from long-term buyers often centers on heavy metal traces beyond the core formula. Our output maintains stringent controls on total residuals: strict caps on bismuth, antimony, and mercury content—every major contract win over the last decade followed a series of extended sample rounds, as customers ran small-scale trials and checked side-by-side with our competitors. Practical transparency about our material made the difference: we supply full third-party lab reports, not just a standard certificate stuffed in a shipping manifest. This kind of openness in dealing comes not from policy, but from years of watching clients up against unexpected pitfalls elsewhere. When a batch goes wrong, the consequences usually fall to the end producer, not to a poorly attentive manufacturer. We built our business on making sure that didn’t happen.

    How Our Chemical Differs from Other Pigments and Formulations

    Some folks ask why anyone still bothers with Lead Arsenite given the wave of environmental pressures. The answer comes down to performance under heat and light. Organic yellows can’t survive kiln firing—over 900°C, most of those compounds simply burn away. Other mineral bases, like chrome yellow, provide color but often suffer from contamination issues or rapid leaching in glazes exposed to acid. Lead Stannate or Bismuth Vanadate pigments run at higher price points and yet still can’t completely supplant the stability profile of Lead Arsenite, especially when working with traditional manufacturing methods.

    Men and women painting enameled signage or firing classic art tiles notice these little differences fast. In our own testing lab, repeated runs using alternative pigments always result in subtle shifts in final hue and sometimes visible surface blooming—evidence that the pigment solution didn’t bond at a microscopic level during glass formation. Lead Arsenite settles into the glaze matrix and resists not just physical abrasion but also chemical leaching—the end color holds after years in sun and rain. Customers risking high-exposure applications, such as those on exterior masonry, value this staying power.

    We don’t ignore substitution requests, and rarely a week passes without someone inquiring about organics and bismuth-based alternatives. We keep comparative samples in the supply hall to see exactly how these options behave in identical industrial setups. With each test, Lead Arsenite’s resilience and color retention edge make the deciding case. Plenty of the older pigment houses rotated through a parade of new materials and returned to us for the simple fact that shifting to a weaker pigment created returns, lost batches, or off-tone production cycles. Our plant’s process also guards against batch-to-batch color drift, a common embarrassment with third-party sourced pigment where controls break down at high throughput.

    Regulatory Concerns, Handling, and Environmental Safety

    We don’t hide the realities of managing Lead Arsenite. Our staff has worked under the umbrella of evolving safety codes, and nobody here takes this business lightly. From robust containment in the factory to strict labeling and transport, oversight remains real. Clients often request direct training for their own staff and, after decades on the floor, our plant safety director has more stories than he can count about the right and wrong ways to handle hazardous colorants. Our advice always lands the same: respect the compound’s power and avoid treating a drum like it’s a barrel of whiting or talc.

    We make sure all outgoing shipments meet international law, with every box and drum traced, tracked, and accounted for from our gate to the client’s receiving bay. Each operator wearing the right protective gear, filtered extraction systems in every part of the plant, and regular air and surface monitoring have kept our facility free of health incidents—achieving this record required constant attention, routine upgrades, and a workforce willing to call time-out at the first hint of an issue. Our relationships with industrial hygiene consultants grew out of the knowledge that small mistakes build up quickly in any chemical manufacturing process. So, sharing up-to-date usage protocols and proper waste handling with our customers extends that safety culture to every downstream operator.

    For those asking about environmental compliance, our company submits to real, unscheduled inspections by state and federal agencies. Meeting waste treatment standards and reporting on waste output forms the backbone of our permit status; we’d lose our business and our credibility the first time those standards slipped. Many external auditors have walked our site, reviewed our effluent treatment, and left clear documentation on our public records. Manufacturers using substitutes sometimes believe switching alone insulates them from compliance trouble, but we see time and again how untested alternatives escape scrutiny until something fails and a recall lands hard on an unsuspecting plant.

    Solutions for Changing Markets and Growing Concerns

    Our manufacturing world isn’t stuck in the past. Every year, stricter regulations mean more research into substitutions, and some of our best hours happen working with chemists on non-lead options. But as things stand, a solid chunk of industrial business still leans on Lead Arsenite because existing alternatives either cost too much, fail in testing, or force a total re-design of process equipment—something that wrecks production costs for clients with old but reliable factories.

    We help downstream operators update safety systems, offer guidance for safer automation, and routinely discuss lifecycle management for both our pigment and waste streams. Sometimes we collaborate with outside labs for extended leaching or weathering studies, so every user knows exactly what risks and strengths they inherit. This hands-on support comes not from marketing pressure but from sharing the hassles and achievements of living with a challenging but effective industrial compound.

    We both face reality and pursue future openings. Some of the most interesting work right now happens in additive manufacturing and specialty glass, areas that didn’t even exist when Lead Arsenite first reached the market. Testing pigment interactions in those fields sometimes sends us back to tables covered with data sheets and orders fresh from overseas customers. As new requirements surface, we take client problems seriously, sometimes creating entirely fresh blends or pilot batches just to see how one tweak reshapes the downstream outcome. That problem-solving approach built trust with customers stuck on unexpected project snags, who then become partners for years.

    Why Direct Manufacturing Expertise Matters

    Our roots remain in the gritty details of how chemicals behave—not just raw numbers, but how they perform on the factory floor, in paint tanks, or inside the firing kiln. Open dialogue, recordkeeping, and continual on-site testing keep us grounded and accountable. Every successful shipment means not only delivering a barrel of pigment but also backing it with a routine few others can match: responsive technical advice, precise documentation, and real-world troubleshooting from a staff with hands-on experience. Our team faces the tough decisions annually—balancing tradition, performance, and compliance can’t be left to theory alone.

    What sets our Lead Arsenite apart isn’t simply the chemical signature or a tidy certificate. It’s the long-standing approach to doing things right—rigorous, transparent, sometimes messy—and learning from every batch, field test, or shipping issue. Clients return because each interaction strengthens what they’re already working towards: dependable outcomes, lower risk, and honest advice from those who have handled this pigment for decades.

    Looking Forward

    Lead Arsenite will always stir debate. Our perspective follows what happens long after pigment leaves our warehouse: the new equipment upgrades, the tune-ups in plant protocols, and the feedback from end users. Many things have changed since we first melted and ground our early batches, and yet the principles behind steady, open manufacturing haven’t budged. As new options surface, our focus stays on honestly assessing their strengths and pitfalls—keeping production flexible while always leaning on facts, not assumptions. Standing by our material means more than simply having it in stock. It means sharing accountability and aiming for progress, together with all who depend on reliable pigments and chemical support.

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