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HS Code |
534968 |
| Chemical Name | Disodium Hydrogen Arsenate |
| Other Names | Sodium hydrogen arsenate, Disodium acid arsenate |
| Chemical Formula | Na2HAsO4 |
| Molar Mass | 185.91 g/mol |
| Appearance | White crystalline solid |
| Solubility In Water | Highly soluble |
| Density | 2.36 g/cm³ |
| Cas Number | 10048-95-0 |
| Toxicity | Highly toxic |
| Pubchem Cid | 23668598 |
| Ec Number | 233-340-0 |
As an accredited Disodium Hydrogen Arsenate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | White, sturdy plastic bottle with secure screw cap; labeled "Disodium Hydrogen Arsenate, 500g," including hazard symbols and safety warnings. |
| Shipping | Disodium hydrogen arsenate should be shipped in tightly sealed, labeled containers made of compatible materials. It must be transported as hazardous material, following relevant regulations such as UN 1559, Class 6.1 (toxic substances). Ensure containers are protected from moisture and physical damage, and that shipping documentation is complete and compliant with local and international laws. |
| Storage | Disodium hydrogen arsenate should be stored in a tightly closed container in a cool, dry, and well-ventilated area, away from incompatible substances such as strong acids and reducing agents. The storage area must be secure, labeled for toxic and hazardous chemicals, and restricted to trained personnel. Protect from moisture and physical damage, and prevent environmental release. |
Applications of Disodium Hydrogen Arsenate in Industrial ManufacturingWe supply Disodium Hydrogen Arsenate to global industrial manufacturers for high-precision applications in well-defined downstream sectors. Below, we detail the real-world application scenarios, key regulatory framework, standardized formulation practices, integration steps within industrial processes, and the diverse end products created. 1. Glass Fining and Clarification in Specialty Glass ProductionSpecialty glass manufacturers use Disodium Hydrogen Arsenate as a fining agent to remove air bubbles and inorganic inclusions during melting. Its arsenic content plays a crucial role in oxidizing ferrous impurities, thereby achieving greater transparency and product stability especially in optical and laboratory glass. Careful control of dosage relative to batch composition, melt temperature, and secondary reducing agents is required to balance efficiency and environmental compliance. Ongoing monitoring ensures the raw material fully decomposes before forming, reducing arsenic volatilization risks and supporting consistent optical clarity in the final glass product. Industry compliance standards
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2. Analytical Chemistry Reagent for Trace Metals TestingCertified reference material producers and analytical laboratories utilize Disodium Hydrogen Arsenate for precise arsenic calibration curves, titrations, and quality control validation, especially in atomic absorption spectroscopy (AAS) and inductively coupled plasma (ICP) protocols for trace metals testing. Stringent handling and traceability requirements ensure reliability and operator safety in routine batch testing of soils, fertilizers, and other industrial raw materials. Labs require high-purity grades, with documented adherence to analytical reagent standards and testing performed under ISO 17025-accredited conditions. Industry compliance standards
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3. Pesticide Intermediate for Arsenic-based Herbicides and FungicidesAgrochemical manufacturers incorporate Disodium Hydrogen Arsenate as an intermediate in synthesis of selected arsenic-containing pesticides including historical use in herbicides and soil fumigants. The raw material undergoes further chemical processing such as esterification or salt formation to produce the final active ingredient. Stringent regulation severely limits its use to non-food crop applications or specialized weed control sectors. Only registered and authorized facilities may handle arsenic intermediates, with complete batch traceability and operator training mandated at every step. Industry compliance standards
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4. Wood Preservative Formulations for Non-Residential ApplicationsPreservative system manufacturers utilize Disodium Hydrogen Arsenate as a key biocidal agent in chromated arsenate compositions intended for timber exposed to severe environments. Application focuses on industrial-grade lumber such as poles, pilings, and utility timbers, where termite or fungal resistance must meet minimum service lifespans. All processes must adhere to regulated worker safety and effluent control limits, and only approved facilities may use arsenic treatments. Application equipment must provide accurate metering to prevent overdosing and protect downstream water systems. Industry compliance standards
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5. Dye and Pigment Synthesis for Inorganic Arsenic-based ColorantsInorganic pigment and dye manufacturers use Disodium Hydrogen Arsenate as an arsenic source in the controlled precipitation of certain copper arsenate pigments and mordant dye formulations. Typically, these products find use in specialized industrial coatings, colorants for ceramics, and select preservation treatments, where their chemical stability and colorfastness provide advantages. Formulated under tightly controlled conditions, raw material addition timing and solution pH critically affect pigment properties, yield, and compliance with allowed toxic element limits. Industry compliance standards
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Over the years in chemical manufacturing, certain compounds grow to earn trust for their unique roles. Disodium hydrogen arsenate has long stood out among inorganics for its distinct chemistry and versatility. The model offered from our production line, with a well-controlled granularity and high assay purity, reflects the steady discipline we bring to every batch. We take pride in refining the process to consistently deliver a fine, free-flowing crystalline powder. Typically, our commercial grade ranges from 99% to 99.5% purity with minimal moisture content, which matters for both storage stability and process consistency at your facility.
Industrial and laboratory professionals want products that behave predictably from bag to beaker, from warehouse to final use. Over decades of production, we have learned that reliable density, moisture specifications, and granule size directly shape how a chemical fits into process lines or analytical workflows. In the case of disodium hydrogen arsenate, subtle differences in crystalline habit, solubility rates, and trace impurity content can tip the balance between success and wasted resources. We focus on controlling these parameters, using multi-point inspection and a modern QC lab, not because of a trend, but because our clients’ results depend on it.
Throughout our history manufacturing inorganics, we have seen disodium hydrogen arsenate play an essential role across surprising fields. It serves as a reference standard in analytical chemistry, where reproducibility means credibility. In glass manufacturing, this product finds its way into specialty compositions—enabling the control of color or melting points. Some agricultural research circles value it for certain experimental protocols, often when evaluating soil or crop interactions with trace elements. We recognize the caution rooted in its toxicity. Our technical sales team answers regulatory and safety questions daily and supports clients as they navigate local compliance, especially when arsenic compounds face stricter limits or require robust workplace controls.
Many of our long-term partners use disodium hydrogen arsenate in laboratory reagent kits, water treatment research, and as a raw material for chemical synthesis. Some environmental labs rely on high-purity grades to calibrate arsenic detection instruments. Every application brings its own priority: analytical accuracy, batch homogeneity, or process cost control. Based on customer feedback, we fine-tune our process parameters, allowing for repeatable particle size, low chloride content, and tight pH specification in solution.
Through continuous feedback from end users, we have shaped our product line to focus on the parameters that determine real-world performance. Batch analysis shows assay by wet chemical analysis, with decision criteria shaped not only by purity but by what is removed during purification. Moisture levels remain one of the primary focuses, as even a fraction of a percent can shift shelf-life or interfere with dosing in automated systems. Most customers prefer a white, crystalline powder that resists caking and moves easily through auger feeders.
Granule size influences more than flow—smaller crystals disperse in water more efficiently, which can affect titration consistency. As a manufacturer, we prefer to address the underlying causes of batch variation, not simply rely on post-processing. Each production cycle includes careful temperature and residence time control. Selection of raw materials comes from a network developed to balance supply stability and input purity.
Many newcomers to technical procurement wonder about the differences between disodium hydrogen arsenate (Na2HAsO4) and its sibling compounds. Monosodium arsenate or sodium dihydrogen arsenate holds one less sodium and more acidic properties, affecting not just usage safety but reaction outcome. Trisodium arsenate leans alkaline—making it less suitable for applications where buffering capacity matters. In contrast, disodium hydrogen arsenate, especially in its heptahydrate and anhydrous forms, balances solubility and reactivity.
Direct comparisons often come up when buyers look at sodium phosphate salts. On paper, these may seem chemically analogous, but in practice, arsenate and phosphate differ in charge distribution and biological impact. We have seen research protocols fail when the wrong substitute is chosen, especially in enzyme inhibition trials or system calibration for heavy metal analysis. Our technical advisors clarify these distinctions, advocating for fit-for-purpose chemical specifications over cost-driven substitutions.
Years in production have taught us that flashy maximum purity claims miss the point when other variables go uncontrolled. Several years back, a glassworks partner reported inconsistent melting behavior traced to trace iron in an off-spec batch—despite assay values within claimed limits. We responded by overhauling our input screening process, upgrading to ICP-MS for metal screening, and adjusting supplier agreements to demand traceability. A single short-sighted procurement can ripple through a full production season.
In high-sensitivity laboratory environments, product reproducibility can define the integrity of entire research cycles. We know that keeping impurity profiles steady, not simply low, prevents calibration drift in analytical kits. Rather than push for the highest numbers for brochure copy, our team pursues what matters: maintaining target spec ranges, documenting each run, and keeping clear records. While we never see human error as avoidable, we train our plant technicians to escalate anomalies instead of masking them. This approach allowed us to cut lot rejection rates by nearly a quarter over the past two years.
Disodium hydrogen arsenate’s regulatory landscape evolves with public health data and shifting industrial practices. Many regions have moved to restrict or phase out high-hazard materials. We participate in industry working groups and adapt our documentation, packaging, and waste-neutralization advice in line with tightening rules. Plant managers regularly face tighter discharge limits, and we help by sharing best practices for containment, neutralization, and worker exposure monitoring.
Arsenic’s reputation means our clients must often answer tough questions from internal safety officers and external regulators. Whether tasked with site audits or preparing documentation for international shipments, our experience managing compliance documentation supports the chain of custody clients need. As rules shift, transparency remains our policy. By publishing trace element profiles and supporting full disclosure, we aim to reduce risk for our customers.
Practical feedback trumps theoretical lab tests. Several years ago, a water testing company reported unexpected sample matrix interference, an issue they traced back to subtle cosmetic differences between lots. Our investigation pointed to a change in filter aid used at a supplier’s site. We shifted to a more stable, food-grade alternative and bolstered outgoing visual inspections. With every complaint log and correction, the quality cycle tightens.
We understand that customer needs stretch across industries. What works for a laboratory analyst may fall short in a manufacturing environment, and what fits a regulated water utility struggles at an academic research site. Open lines of communication, including lab-to-lab comparison data, give both sides confidence when questions arise about a single batch or shipment history. Trusted relationships with clients depend on this transparency.
The global market for inorganics like disodium hydrogen arsenate oscillates. Supply swings, driven by regulatory controls and changing downstream demand, can threaten consistent provision. Years back, an unexpected restriction in overseas precursor export quotas tested our purchasing team’s ability to secure uninterrupted inputs. We invest in diversified sourcing, on-site warehousing, and advanced demand-forecasting software to smooth these shocks. This commitment lets our customers avoid expensive downtime or snap substitutions that could jeopardize outcomes.
Handling and transporting compounds that trigger international concern require both robust documentation and steady logistical partners. We vet our distribution chain for hazardous material handling experience and publish transport condition guidance. Keeping the product dry, cool, and in properly sealed containers preserves both purity and operator safety. By supporting freight and end-user logistics planning, we keep costly mishaps rare.
Our decades of work with disodium hydrogen arsenate let us field technical questions from several perspectives, whether a customer needs a water solubility curve for their process or a practical tip for long-term storage. The most frequent challenges we see come from process scale-up—a laboratory protocol that works with gram-scale additions often stutters under batch or continuous flow production conditions. By consulting on pilot runs and sharing application notes, our technical staff help clients adapt to real-world pressures.
For those developing new methods or troubleshooting unexpected results, direct access to a manufacturer’s lab can speed resolution and reduce wasted resources. Our clients often appreciate fast turnaround for Certificate of Analysis (CoA) re-requests, impurity clarification, or customized test reports for governmental review. By keeping our own historical analysis records, we can track down lot genealogy long after shipment, sometimes clarifying technical mysteries well after the fact.
Sustaining supply of disodium hydrogen arsenate in a world with shifting attitudes toward mineral resources and environmental controls means planning, not only for today’s customers but for emerging markets tomorrow. We continue to audit our production for waste efficiency and environmental safety, installing new scrubber technologies and refining water treatment protocols. Our research group reviews new alternatives for certain auxiliary inputs, aiming to minimize the total environmental footprint of every batch. Sometimes these adjustments shift small metrics—a reduction in utility use here, a savings in discharge volumes there—but every gain counts, especially in regulated sectors.
Guided by direct experience, we recognize that responsible stewardship of challenging compounds keeps industry and communities safer. We support stakeholder outreach, sharing safety and handling guidance with partner sites and regional regulators. By keeping our focus on safe, reliable production, and by taking seriously our role as a stakeholder in global supply chains, we help ensure that disodium hydrogen arsenate remains available for critical uses—without cutting corners or pushing risk downstream.
The story of disodium hydrogen arsenate in industry is often told through a lens focused on technical data or compliance. Our perspective broadens this view. Product reliability grows from the sum of every small decision across sourcing, process, testing, and delivery. For our clients—scientists, engineers, production teams—the greatest value comes not from the broadest product offering, but from a supplier that responds when challenges surface.
Years of learning on synthetic lines, face-to-face problem-solving, and daily collaboration sharpen our skills. This approach helps our customers gain a stable partner rather than a commodity vendor. We work to ensure that every kilo shipped contributes to cleaner experiments, smoother production, and safer workplaces. By supporting both current needs and future compliance challenges, we stand for both product excellence and responsible chemical manufacturing.
As a direct manufacturer, we measure success not only by maximum output but by the reliability of each delivery and the confidence our clients hold in our process. Disodium hydrogen arsenate demands respect for its properties, care in handling, and commitment to ethical sourcing. Through steady, open communication, investment in process control, and a grounded focus on end-user needs, we help our partners achieve results that matter—in research, production, and beyond.