Barium Arsenite

    • Product Name: Barium Arsenite
    • Alias: Barium(II) arsenite
    • Einecs: 235-019-5
    • 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

    741994

    Chemical Name Barium Arsenite
    Chemical Formula BaAsO2
    Molar Mass 280.15 g/mol
    Appearance White solid
    Solubility In Water Insoluble
    Melting Point Decomposes before melting
    Toxicity Highly toxic
    Cas Number 12256-57-6
    Uses Laboratory reagent
    Stability Stable under recommended storage conditions
    Hazard Classification Toxic

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

    Packing & Storage
    Packing Barium Arsenite is packaged in a 500g amber glass bottle, featuring hazard labels, tamper-evident seal, and clear chemical identification.
    Shipping Barium arsenite should be shipped in tightly sealed, clearly labeled containers made of compatible materials. Transport must comply with local, national, and international hazardous materials regulations. Protect from moisture, and store upright in a cool, dry, well-ventilated area. Handle with caution as it is highly toxic and environmentally hazardous.
    Storage Barium arsenite should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area. It must be kept away from acids, moisture, and incompatible substances. The storage area should be clearly labeled as containing toxic chemicals, with restricted access to authorized personnel only. Proper secondary containment and protection from physical damage are recommended to prevent leaks or spills.
    Application of Barium Arsenite

    Applications of Barium Arsenite in Industrial Manufacturing

    Barium Arsenite, produced in strict accordance with advanced industrial protocols, serves critical roles in specialized downstream segments demanding precise functional properties. The following application scenarios outline where our material is integrated into actual production environments, detailing compliance obligations, formulation guidelines, manufacturing process stages, and finished goods categories.

    1. Ceramic Colorant Production for Specialty Tiles

    Manufacturers of high-temperature ceramic glazes use barium arsenite as a constituent pigment to achieve consistent green hues in architectural and technical ceramics. Its stability under kiln firing conditions enables intensive coloration for both aesthetic and performance-oriented surfaces requiring chemical durability.

    Industry compliance standards

    • EN 14411:2016 European Standard for Ceramic Tiles
    • ASTM C373 Water Absorption, Bulk Density, Apparent Porosity, and Apparent Specific Gravity of Fired Whiteware Products
    • Directive 2011/65/EU (RoHS, when applicable in decorative items)
    • REACH Annex XVII restrictions for arsenic compounds (registration and controlled use mandatory)

    Typical usage ratio

    • 0.1% – 0.5% by weight of the total glaze formulation, adjusted according to desired shade intensity and use of other coloring oxides

    Downstream process integration

    • Material enters during the wet milling stage of glaze batch preparation and is dispersed with frit, kaolin, and other mineral components prior to sieving and application

    Final product types

    • Architectural wall and floor ceramic tiles
    • Porcelain decorative panels
    • Industrial ceramics for laboratory ware
    • Artisan ceramic mosaics

    2. Specialty Glass Manufacturing for Optical Filters

    Producers of optical and technical glasses incorporate barium arsenite to modify refractive index and absorb specific wavelengths, especially in green to yellow light range. This enables fabrication of glass components used for scientific instrumentation and light control systems that require stable coloration and transmission properties under exposure to high energy radiation.

    Industry compliance standards

    • ISO 12123:2000 Optical glass — Specifications and test methods
    • IEC 62471 Photobiological safety of lamps and lamp systems (for filter applications in instruments)
    • REACH chemical safety report for continuous process plants

    Typical usage ratio

    • 0.05% – 0.3% by weight in the batch mixing process, balanced with barium oxide and other arsenic compounds depending on performance target

    Downstream process integration

    • Material is introduced during the batch fusion stage, combined with silica, alumina, and modifiers, then melted in pot furnaces prior to casting or pressing

    Final product types

    • Color-corrective optical filters
    • Spectrophotometric cuvettes
    • Protective windows for laser and UV devices
    • Camera and photometer lenses with specialty absorption or transmission curves

    3. Lead-Free Crystal Glass for Decorative Objects

    Manufacturers shifting away from traditional lead-based crystal often utilize barium compounds, including arsenite, as alternatives to provide desired sparkle, density, and color control. This shift aligns with international lead-restriction policies, ensuring safety in consumer-facing decorative glassware without compromising key visual properties.

    Industry compliance standards

    • EN 1388-1:1995 Silicate glass – Determination of the release of lead and cadmium from ceramic ware
    • California Proposition 65 (for lead- and arsenic-containing substances)
    • ISO 7086-2 Glassware – Release of lead and cadmium – Test method

    Typical usage ratio

    • 0.08% – 0.25% by weight of batch glass composition, modified based on brilliance and transparency requirements of intended product line

    Downstream process integration

    • Material enters as a granular solid during raw batch mixing before furnace melting; blending is monitored via ICP-OES to control heterogeneity and avoid striae

    Final product types

    • Tabletop crystal vases and bowls
    • Decorative drinkware and glass ornaments
    • Premium glass beads for jewelry and lighting fixtures

    4. Corrosion-Inhibiting Pigments for Heavy-Duty Industrial Coatings

    In anti-corrosive primer formulations for steel structures exposed to aggressive environments, barium arsenite functions as a stable, water-insoluble pigment. It provides dual action—barrier formation and chemical passivation—while meeting regulatory controls for arsenic content in protective paint systems, especially for heavy equipment and marine segments.

    Industry compliance standards

    • ISO 12944-5:2018 Paints and varnishes – Corrosion protection of steel structures by protective paint systems
    • ASTM D3359 Adhesion by Tape Test (for performance validation)
    • EU Regulation No. 528/2012 (Biocidal Products Regulation, where applicable)
    • REACH SVHC compliance for arsenic-containing compounds

    Typical usage ratio

    • 1.0% – 3.5% by weight in anti-corrosive pigment blends, ratio adjusted to exposure severity and compatibility with resin matrix

    Downstream process integration

    • Pigment is micronized and dispersed during high-shear mixing with letdown resins and extenders before final canning and QC testing

    Final product types

    • Industrial maintenance coatings for steel bridges and marine vessels
    • Heavy-duty metal primers
    • Protective finishes for storage tanks and power plant infrastructure

    5. Specialized Laboratory Reagents for Analytical Chemistry

    Barium arsenite is utilized in the preparation of reference reagents and calibration standards in analytical laboratories, especially for trace arsenic and barium quantification methods. Processing controls assure batch consistency for certified standard preparations under regulated laboratory conditions.

    Industry compliance standards

    • ISO/IEC 17025:2017 General requirements for the competence of testing and calibration laboratories
    • Good Laboratory Practice (GLP), OECD Principles
    • Analytical standards protocols: ASTM D2972 for arsenic in water; EPA Method 7062 for barium and arsenic by AA

    Typical usage ratio

    • 0.002 g/L – 0.01 g/L in stock solution for calibration sets; precise dosage set by required calibration range and instrument detection limit

    Downstream process integration

    • Compound is dissolved and serially diluted in analytical-grade solvents using class A volumetric ware, then stored in conditioned vials with inert gases to prevent oxidation

    Final product types

    • Certified calibration solutions for ICP-MS, AAS
    • Trace reference standards for quality control testing
    • Analytical bench reagents for proficiency and system suitability tests
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    Certification & Compliance
    More Introduction

    Barium Arsenite: The Workhorse Reagent for Specialty Applications

    Getting the Chemistry Right with Barium Arsenite

    Years of working in specialty inorganic salts have given our team deep respect for the handling and performance characteristics of substances like Barium Arsenite. This compound, with its chemical formula Ba3(AsO3)2, stands out in our product range for its unique properties and the specific roles it plays for clients in specialized industrial fields. In our own production halls, every batch of Barium Arsenite goes through strict quality controls because purity is not just a number—it defines how this compound interacts in downstream applications.

    The crystalline, powdery form we supply has a soft off-white color. Technicians accustomed to working with heavy metal arsenites and industrial barium salts often need to distinguish between similar substances on sight and by feel, but the differences go further than that. Barium Arsenite’s reactivity and hazardous nature demand additional respect both when producing it and during every stage from storage to end-use. This isn’t a general-purpose chemical; the right hands use it in highly-controlled environments, guided by regulatory protocols and clear safety training.

    Specifications and Performance in Real-World Use

    There’s a lot more to this compound than the usual laundry list of specifications. We crystallize Barium Arsenite under carefully managed conditions, maintaining temperature control and feed rates to avoid undesirable polymorphs or phase separation. Standard runs typically deliver a product with a barium content upwards of 70% and arsenic content that matches regulatory-grade benchmarks for arsenite compounds. Moisture, insolubles, and trace contaminants are held below established limits, based on published protocols and direct experience in chemical synthesis. Minor variations in color or texture provide experienced users with clues about particle size distribution or batch differences, but rigorous wet chemical analysis always confirms the numbers before dispatch.

    Various industries ask for Barium Arsenite with batch-specific documentation. Laboratories working with industrial-grade arsenites may request additional analytics—XRD or IR spectra to document the identity, for example. Process engineers at established ceramics or glass facilities aren’t just looking at the label; they demand confidence that the arsenite will do precisely what their recipe requires. If a batch drifts above moisture cutoffs or below purity thresholds, it doesn’t leave our site. Longstanding experience in barium and arsenic chemistry has taught us how small impurities can ripple through a customer’s production process, sometimes with expensive consequences.

    Applications We See Most Often

    We see Barium Arsenite called for in a surprising variety of niche applications. In ceramic glazes, it introduces unique color and opacity properties that can’t be replicated by substitutes. Some of our oldest customers work with pigment formulations—here, the arsenite provides a distinct hue or shade shift that simply won’t emerge from the more common chromates or sulfates. Factory chemists understand the risks and apply it in closed systems, maintaining workplace hygiene with strict controls.

    Beyond pigments, historic uses have included glass coloration and some laboratory reagents. Regulatory changes have steered the market away from widespread use, but advanced material labs and some academic environments still value Barium Arsenite for research. For those in these fields, the key is traceability—we provide supporting documentation showing full batch provenance, because science demands it.

    How Barium Arsenite Stacks Up Next to Other Barium Compounds

    You can’t treat Barium Arsenite like other commonly-used barium salts. Barium Carbonate, for instance, sees wider use because of its lower toxicity profile and friendlier regulatory climate. Its chemistry favors different pathways; carbonate plays a role in tile glazes, brick making, or chemical synthesis without the severe handling controls arsenites require. Similarly, Barium Sulfate shines in fillers, paints, and drilling muds because it remains inert and non-toxic when properly handled. Barium Chloride serves water treatment and brine preparation, offering solubility and reactivity where needed. Comparatively, Barium Arsenite’s use profile stretches much thinner, always limited by the hazardous character of arsenic and controlled workplace requirements.

    Some manufacturers lean toward compounds like Barium Chromate or Lead Arsenate when looking for similar pigment or reactivity characteristics. Yet, Barium Arsenite delivers a specific arsenite functional group that shapes its place in specialty ceramics and catalyst research. This subtlety in behavior gives our technical staff and our clients both a tool and a challenge. Every project involving Barium Arsenite requires a new risk assessment and close planning, regardless of prior experience with barium salts.

    Experience Counts with Sensitive Compounds

    Decades in production have hammered home one truth: specialists need to know their materials inside and out, and Barium Arsenite does not forgive shortcuts. Handling arsenic compounds creates a chain of responsibility that runs from our synthesis benches right through to the customer’s laboratory or shop floor. Manufacturers who rely on third-party blending or loose quality management court trouble, increasing regulatory risk and the potential for occupational exposure. In our facility, safety infrastructure builds right into process design—air handling, dust collection, containment, and PPE requirements form part of each shift so that every batch leaves with a full paper trail and a clean conscience.

    This approach supports real trust among industrial clients. Some of our technical staff have watched regulatory climates shift over the years, bringing periodic reviews of how Barium Arsenite and similar arsenic compounds can enter the supply chain. Old standards give way to new methods; sometimes, even an established customer must submit updated documentation or demonstrate changed handling procedures. We view these updates as the cost of doing business with a substance whose dangers are well-documented and whose value, though specialized, remains undeniable in particular settings.

    Quality Follows From Responsible Manufacturing

    Our Barium Arsenite runs show why the manufacturer’s hand remains crucial in specialty chemistry. For most of our competitors, the focus stays on bulk scale and price minimization. Our lab staff, in contrast, treat each synthesis as both a technical project and a moral one. The labor that goes into quality assurance—individual batch records, repeat testing, on-site audits—comes from a belief that dangerous chemistry demands attention at every step.

    Over the years, we have noticed market trends pushing toward substitutes, particularly as users try to minimize arsenic exposure. We responded by tightening our process control: from inlet filtration to product packing, our procedures match or exceed what regulatory authorities consider best practice for toxic heavy metal compounds. Analysts involved in project planning trust these standards, using analytical data to plan downstream validations and safety reviews.

    Barium Arsenite in Research and New Technology

    Researchers push for new approaches in pigmentation, advanced ceramics, and material science. Small-volume orders from academic or R&D groups rarely want tonnage—they demand an exact grade for experimental validation. Our engagement with these users often centers on clear communication: we review lab protocols, offer guidance on trace impurities, and supply analytical documentation compatible with peer-reviewed publication requirements. Universities with historical ceramics programs or pigment analysis laboratories come to us for legacy-grade Barium Arsenite to preserve the fidelity of older recipes or validate restoration projects for critical art pieces or artifacts.

    Some high-tech applications look for arsenite-based compounds as catalysts or starting materials for more complex synthesis paths. At this level, cross-contamination and unexpected impurities can halt an entire research program. We supply full traceability, including detail on synthesis pathways, energy input, and ancillary chemical sourcing, because serious researchers demand this depth of background. We see a steady stream of questions about alternatives and regularly share our experience with substitute compounds, but for specific reactions, there’s still no match for the original material.

    Environmental and Safety Considerations

    Modern chemical manufacturing never escapes its environmental responsibilities. We build waste capture and safe disposal into every program involving Barium Arsenite. Closed-system preparation, exhaust scrubbing, and sealed packing minimize any release into the environment. Auditors visiting the plant see that we double down on staff training about hazardous arsenic exposure—even the most experienced crew wears the right PPE, with scheduled air and surface monitoring checks.

    Downstream, we offer guidance for handling and disposal. Many of our clients must meet strict local or national limits for arsenic emissions and workplace exposure. These conversations go beyond a single safety data sheet. They cover real scenarios: emergency drills, spill protocols, batch traceability, and long-term record keeping. In some cases, we recommend alternative formulations entirely if on-site controls can’t guarantee safety. This cautious approach aligns with both compliance and a broader ethical commitment. Our goal isn’t just to supply a material—it’s to support sustainable, responsible use from factory gate to end-of-life disposal.

    Supplier Reliability in a Changing Marketplace

    Not every supplier is prepared for the regulatory and compliance environment attached to Barium Arsenite. Recent years brought sharp changes in supply chains: some regions adjusted their permitted toxic compound lists, setting import and storage controls that caught unprepared distributors off guard. For us, direct manufacturing and careful documentation shield customers from these surprises. Relationships with regulators and industry groups help us anticipate pending legislation and adapt sourcing or production in advance.

    Customer audits have grown more sophisticated. End users now send representatives to inspect plant facilities, not just paperwork. We run open-book sessions, showing exact raw materials sourcing, staff certifications, and process controls for Barium Arsenite, because long-term partnerships depend on this level of transparency. Over the long haul, our focus on direct manufacturing and short, traceable supply lines provides the certainty that customers depend on for critical, high-cost projects.

    Supporting Innovation While Managing Risk

    We engage closely with customers exploring advanced uses of Barium Arsenite in research, manufacturing, or heritage arts. These conversations often include alternatives—substituting less hazardous options wherever possible—but in the end, the unique properties of arsenite-based compounds still serve essential roles. Our advisory staff shares updated research on arsenic management, encapsulation, and disposal to help clients lower risk while still achieving technical goals.

    On occasion, potential clients request custom grades: finer granulation, specialty packaging, or additional purity checks for regulatory export. Our flexibility comes from keeping all process steps—synthesis, drying, milling, and packing—on-site. This integrated approach gives us the confidence to take on new challenges while staying within safety and environmental boundaries.

    Lessons Learned from Experience

    Through careful listening to long-term users, we see that using Barium Arsenite requires more than chemistry knowledge. Facilities need staff discipline and clear protocols for handling, monitoring, and disposal. Oversights do not get swept under the rug; in this market, even a minor incident leads to scrutiny and possible shutdowns. Our own production history includes detailed debriefs after every incident, no matter how small. By sharing what we learn internally and externally, we have contributed to higher standards across the industry.

    Clients call us with stories: a pigment batch lost to cross-contamination, a research program stalled by ambiguous supplier data, shipments refused due to missing analytical reports. These lessons reinforce the value of dealing directly with knowledgeable manufacturers rather than general distributors. Over time, mutual respect develops—our partners know we back every product shipment with real science and accountability.

    What Our Team Values in Production

    Producing Barium Arsenite tests more than our technical skills. It measures how seriously we take our obligations to workers, neighbors, and the wider community. Our team walks the plant floor daily, checking not just equipment but the small acts of diligence—label checks, filter changes, logbook entries. In an era where digital traceability systems manage most quality assurance, hands-on familiarity still matters. Someone who has mixed, crystalized, filtered, and packed these compounds for years carries a level of tacit knowledge that no manual can replace.

    This experience becomes most visible during scale-up or process changes. When switching between solvent systems or tweaking a parameter for a client specification, we draw on hundreds of prior runs, catalogued incidents, and post-mortem reviews. Those collective lessons form a backbone for any successful batch, particularly for difficult compounds such as Barium Arsenite.

    Final Thoughts on Value and Limitations

    Throughout decades of manufacturing and supplying Barium Arsenite, we have never lost sight of its risks or its value. Its performance in niche applications remains unmatched, especially where tradition or technical need call for this specific compound. Safe handling trumps speed; careful checks replace shortcuts. This philosophy has served us and our clients well through changing times, shifting regulations, and evolving market demands. We remain committed to producing Barium Arsenite according to the highest standards for safety, quality, and transparency, recognizing our responsibility as a direct producer for the industries that still depend on this extraordinary material.

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