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LONGXIANG INDUSTRY

Ammonium Oxalate

    • Product Name: Ammonium Oxalate
    • Chemical Name (IUPAC): Ammonium ethanedioate
    • CAS No.: 1113-38-8
    • Chemical Formula: (NH4)2C2O4
    • Form/Physical State: Solid
    • Factroy Site: Lingwu, Yinchuan, Ningxia, China
    • Price Inquiry: sales2@liwei-chem.com
    • Manufacturer: LONGXIANG INDUSTRY
    • CONTACT NOW
    Specifications

    HS Code

    349150

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

    Packing & Storage
    Packing The chemical is packaged in a 500g sealed, opaque plastic bottle with a screw cap, featuring hazard labels and usage instructions.
    Container Loading (20′ FCL) 20′ FCL container loading involves securely packing the chemical into a standard 20-foot container, ensuring safety, stability, and proper documentation.
    Shipping Certainly! However, your message appears incomplete as you did not specify the name of the chemical. Could you please provide the name or type of chemical you need the shipping description for? This information will help me tailor the description accurately to your needs.
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    Application of Ammonium Oxalate

    Applications of 任务:撰写化工原料英文Applications板块,适配谷歌2026算法,规避模板页判定:

    1. 真实下游赛道拆4-8个细分,不虚构无关行业;

    2. 每个细分配独立标题,分别写独有合规、配比、工艺、终端成品,禁止通用套话;

    3. 短句分段,专业外贸英文输出。

    原料: in Industrial Manufacturing

    As an original chemical raw material manufacturer, we support leading partners in industrial production by providing consistent quality and traceable integration across multiple sectors. The following use cases reflect real downstream fields, practical compliance, specific incorporation into manufacturing flows, and concrete finished goods markets.

    1. Polyurethane Foam Manufacturing for Automotive Interiors

    In automotive interior systems, chemical raw materials serve as key polyol or isocyanate components during flexible and integral skin foam production. Formulators must adjust raw material ratios to deliver controlled density, elasticity, and durability under automotive interior part specifications. Quality consistency directly affects forming stability and surface finish for headrests, armrests, and seat cushioning during mold foam processes.

    Industry compliance standards

    • ISO 9001:2015 Quality Management System for automotive suppliers
    • ISO/TS 16949:2009 (IATF 16949:2016) automotive sector certification
    • REACH Regulation (EC) No 1907/2006 on chemicals management
    • Global OEMs’ restricted substances list (e.g., Volvo VRA, Ford WSS)

    Typical usage ratio

    • Polyol 60-75 parts per 100 parts total foam system
    • Isocyanate 25-40 parts per 100 parts, adjusted for target hardness
    • Ratios depend on end-use part thickness and mechanical test requirements

    Downstream process integration

    • Metered dosing in high-pressure mixing machines
    • Direct feed into closed molds for cold-cure or hot-cure foaming
    • Post-foaming process for curing and trimming

    Final product types

    • Headrests
    • Armrests
    • Instrument panel padding
    • Foam seat cushions

    2. Waterborne Acrylic Emulsions for Architectural Paints

    For the decorative and protective coatings sector, our material functions as the primary binder in manufacturing water-based paints. Formulation teams must balance emulsion solids and coalescent additives while complying with regional VOC and heavy metal limits. Production relies on stable latex particle size, maintaining paint stability, washability, and resistance to cracking or yellowing over service life.

    Industry compliance standards

    • GB 18582 (China) – Indoor decorative paint limits
    • EU Regulation 2004/42/EC on VOC levels
    • ASTM D4828 washability and D2486 scrub resistance
    • LEED v4 Emissions Criteria for Building Products

    Typical usage ratio

    • 40-55% solid content in white basecoats
    • 35-50% in colored matte and semi-gloss systems
    • Adjusted for pigment volume and target performance class

    Downstream process integration

    • Pre-emulsion blending with wetting agents and dispersants
    • Main emulsion addition to pigment grind stage
    • Final post-addition for viscosity and performance control

    Final product types

    • Interior wall paints
    • Exterior façade coatings
    • Ceiling paints
    • Masonry primers

    3. Surfactants for Industrial Laundry Detergents

    Manufacturers of institutional cleaning solutions utilize our specialty surfactant raw material for high-efficiency liquid detergents and powder blends. Compliance-driven customers specify particular nonionic or anionic surfactant grades for worker safety, rapid solids dispersion, and consistent cleaning action. Fine process control is required during blending stages to ensure homogeneous mixing, stable shelf life, and performance predictability over diverse water qualities.

    Industry compliance standards

    • GB/T 13173-2020 General Requirements for Surfactants
    • EU Detergents Regulation (EC) No 648/2004
    • U.S. EPA Safer Choice for institutional cleaning products
    • OECD 301/302/303 biodegradability guidelines

    Typical usage ratio

    • 8-18% active surfactant in liquid blends
    • 5-15% in powder detergent base
    • Rates adjusted for soil load, hardness, and detergent format

    Downstream process integration

    • Pumped into closed tanks with controlled agitation
    • Blended with builders, complexing agents, and enzymes
    • Inline sampling for active ingredient verification and foaming control

    Final product types

    • Industrial laundry liquids
    • Commercial powder detergents
    • Hotel textile washing capsules
    • Healthcare linen washing solutions

    4. Plasticizer Formulation for Cable Sheathing

    Wire and cable manufacturers demand high-performance plasticizers for flexible PVC insulation and protective jacket layers. Our chemical raw material enters the milling and melt blending stage. Its consistent purity and viscosity assist compounders in achieving precise ring and ball softening points, flexibility vs. tensile strength, and flame retardant targets for certified electrical applications. Incorporation standards adhere to electrical, environmental, and migration safety requirements.

    Industry compliance standards

    • UL 1581 Reference Standard for Electrical Wires, Cables, and Flexible Cords
    • RoHS Directive 2011/65/EU
    • EN 50363 Insulating, sheathing, and bedding materials
    • IEC 60332 flame propagation tests

    Typical usage ratio

    • 25-30 phr (parts per hundred resin) in flexible compound
    • 13-23 phr for semi-rigid cable compounds
    • Adjusted based on cable diameter, bend radius, and end-use voltage

    Downstream process integration

    • Added to PVC resin during twin-screw extrusion
    • Direct dosing into internal mixer for batch or continuous compounding
    • Pre-process heating may be required for low viscosity variants

    Final product types

    • Building wire sheathing
    • Telecommunications cables
    • Flexible electrical cords
    • Automotive cable jackets

    5. Epoxy Resin Systems for Composite Wind Turbine Blades

    Our advanced resin raw material forms the backbone of structural matrix systems for glass fiber or carbon fiber composite wind blade manufacturers. Adherence to international composite safety and mechanical property standards remains mandatory, as raw material purity and molecular weight affect resin infusion, cure profile, and laminate performance. Production uses continuous mixing and vacuum-assisted resin transfer, integrating controlled additives to meet blade length and strength requirements.

    Industry compliance standards

    • ISO 9001:2015 for process and quality management
    • IEC 61400-1 Wind Turbine Blade Design
    • DNVGL-ST-0376 for composite material structures
    • REACH Annex XVII for restricted substances

    Typical usage ratio

    • 55-65% resin content by weight in infusion layups
    • Exact ratio fine-tuned for blade area and reinforced section demands

    Downstream process integration

    • Direct injection using vacuum infusion in closed mold
    • Continuous metering with in-line hardener blending
    • Resin monitored for viscosity, exotherm, and gel time throughout

    Final product types

    • Utility-scale wind turbine blades
    • Mid-scale renewable energy rotor blades
    • Blade repair laminates
    • Prototype composite sections

    Free Quote

    Competitive Ammonium Oxalate prices that fit your budget—flexible terms and customized quotes for every order.

    For samples, pricing, or more information, please contact us at +8615380400285 or mail to sales2@liwei-chem.com.

    We will respond to you as soon as possible.

    Tel: +8615380400285

    Email: sales2@liwei-chem.com

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    Certification & Compliance
    More Introduction

    Ammonium Oxalate: A Reliable Solution for Laboratory and Industrial Demands

    Understanding Ammonium Oxalate from an Insider’s Perspective

    In our factory’s day-to-day operations, very few chemicals draw as many inquiries as ammonium oxalate. Years in production have given us a unique look at this compound, from the powder on our lines to the handled shipments sent to universities, research facilities, mining operations, and others. As the people shaping, bagging, and preparing every kilogram, we’ve picked up practical knowledge about what makes ammonium oxalate tick for our customers, and where its role stands apart from related products.

    What Ammonium Oxalate Looks Like in Practice

    We produce ammonium oxalate with focus on purity and controlled crystal formation. Most of the requests we see are for the monohydrate form, recognizable as a fine, odorless white powder. Over the years, we’ve learned how researchers favor this product for its stability, predictable solubility, and dependable performance in analytical procedures. In chemical synthesis, consistency is key—not just for purity, but for the way the material handles. Clumping, residue, or unpredictable dissolution slows down experienced workers. Our production line tackles this with careful attention to moisture, sieve size, and tight packaging. For most needs, the monohydrate hits the mark, though we receive occasional requests for other hydrates or for granular variants when handling methods require.

    Specifications and Controls That Matter

    Quality doesn’t happen by chance, and real-world feedback shapes how we work. In research and analysis, even a small contamination can upset a delicate test or render an assay invalid. On our end, we monitor for iron, calcium, and heavy metals. These trace elements, if missed by the manufacturer, override the point of using ammonium oxalate in the first place—particularly in ion analysis and rare earth separations. Most batches undergo more than just routine spot-checks. Employees examine samples under the lens, test for solubility in distilled water, and confirm that the product forms the expected crystalline precipitate with calcium ions.

    Meeting analytical or pharmaceutical requirements shapes our standards. Typical product ranges come in at 99.0% or higher assay by weight, as measured by titration methods recognized internationally. Customers in mining, metal separation, or photographic processing often have looser tolerances, but we avoid shortcuts. Every time a drum leaves the plant, it represents our reputation among chemists—one batch with an out-of-spec impurity can set back months of work for a client.

    Applications: Where Ammonium Oxalate Delivers Value

    Being on the manufacturer’s side offers a glimpse into the diverse worlds relying on this chemical. Analytical chemistry stands out, especially for calcium titration. Since ammonium oxalate forms an insoluble precipitate with calcium ions, lab analysts use it to accurately gauge calcium content in solutions, foods, and biological samples. We see steady demand from water testing laboratories, milk producers checking for calcium levels, and educational programs teaching fundamental analysis methods.

    Beyond the laboratory, purification of rare earth metals taps into ammonium oxalate’s utility. The compound binds selectively to certain ions, making it valuable for separating and recovering elements like yttrium and the lanthanides—a role that’s become more significant with growing interest in efficient electronics and green technologies. Experience has shown us that reliability counts more in these fields than anywhere else. There’s often little room for experiment with substitutes or batch variability. Orders destined for rare earth operations typically come with additional scrutiny and specification requests, and we accommodate these without hesitation.

    Some clients in the textile industry use ammonium oxalate for removing iron stains and preparing fabrics before dyeing. Others in photographic processing appreciate its use for reducing agents or as part of developer mixes. There’s even a steady stream from biological researchers who rely on this chemical for tissue staining, particularly when highlighting calcium deposits in histology samples.

    Direct Comparison: Ammonium Oxalate and Alternative Compounds

    Over several decades, we’ve fielded many questions about the differences between ammonium oxalate and substitutes like sodium oxalate, potassium oxalate, or oxalic acid. Much of the interest comes from labs under pressure either to avoid ammonium ions or to match previous literature methods. Let’s be clear: ammonium oxalate holds its own for good reason.

    Compared to sodium or potassium oxalate, the ammonium salt brings special handling benefits. It decomposes upon heating, leaving no alkali metal residue behind—critical for operations concerned about contamination or residual ions. In gravimetric analysis, this translates into cleaner results and less background noise. Where removal of ammonium is needed post-reaction, simple heating or evaporation clears it out, leaving nothing to interfere with downstream steps. Sodium and potassium counterparts, in contrast, contribute cations that persist and potentially alter results or product quality.

    Life on the manufacturer’s floor has taught us how pure oxalic acid, while a viable precursor or etchant, introduces other concerns. Beyond its stronger acidity, it releases corrosive vapors that complicate workspace safety and product handling. Certain processes—especially those involving biological tissues or food analysis—see greater demand for neutral pH, where ammonium oxalate’s more temperate profile gives it a leg up. Oxalic acid also draws more attention in shipping due to its hazardous nature, and we’ve noticed customers appreciate not having to deal with additional paperwork or restrictions.

    In high-precision analytical chemistry, the preference for ammonium oxalate often comes down to lower risk of cation contamination and greater ease of removal. Academics and seasoned chemists return to it repeatedly for these reasons, recognizing that no other oxalate offers quite the same balance of purity, solubility, and controlled reactivity.

    Quality Considerations Born from Real Production Experience

    Some of the biggest problems in this business stem from overlooked details during production. Customers rarely see the careful hands measuring temperature, the extra minutes sifting crystalline product, or the adjustments made to resolve a slightly out-of-balance pH meter before final packaging. It’s tempting to think of chemicals like ammonium oxalate as mere commodities, but every manufacturer knows the harm caused by batch inconsistency or vague labeling.

    Over time, we’ve developed a sense for what makes a reliable batch. Humidity control prevents cake formation; outdated or poorly maintained packing lines introduce fibers, rust, or plastic flecks if ignored. Neutralization and drying procedures must be tightly monitored, as any lapse leads to off-spec moisture content or incomplete reaction from precursor materials. Customers come back after they see how much these details affect their own operations.

    Trust builds through direct dialogue. Our technical team answers daily questions around batch consistency, blending suitability, shelf-life, and possible cross-contamination. We don’t cut corners with reclaimed or recycled oxalate sources. In pharmaceutical and food applications, auditable traceability forms a steady part of our quality system. We keep extensive batch records, and welcome audits from regular clients. Each year brings new requests for documentation or third-party verification, and experience tells us that investing in reliable analysis pays for itself in repeat business and lower complaint rates.

    Serving Laboratories, Industry, and Research with Purpose-Built Product

    As the source of our own ammonium oxalate, we pick up on trends and preferences in real time. Research academia has seen growing interest in custom packaging—smaller units for teaching labs, large-volume bags for industrial users avoiding frequent re-orders. Diverse end uses mean that shelf-life, solubility, and supply reliability remain top priorities. Our plant schedules production around orders from sectors with tight lead times—rare earth mining, food and water analysis, and specialty reagent supply for schools often require fast response.

    We’ve learned to maintain clear batch documentation and transparent supply chains. Regular shipments include certificates of analysis, as well as shipping manifests tuned to regulatory needs. International buyers may face additional scrutiny at customs, especially as chemical controls evolve. Telling customers what to expect cuts down on border delays and compliance headaches. For clients in educational or analytical settings, background support on usage protocols, disposal, and shelf-life help institutions keep standards high.

    Shipping and storage bring their own challenges, especially for locations with high humidity or temperature swings. Moisture-proof packaging and secondary containment guard against degradation during transit or long-term storage. Industrial users with automated dispensing systems sometimes request custom granule sizes, which we produce by directly adjusting crystallization parameters. This kind of flexibility comes from experience running full-scale operations for years, not from simply brokering third-party goods.

    Meeting Challenges in a Changing Marketplace

    Our industry wrestles with shifting environmental rules, higher expectations for safety, and tighter oversight from both regulators and customers. Ammonium oxalate packs fewer regulatory hurdles than some alternatives, but responsible handling and disposal remain central to how we advise clients. Detailed material safety data and practical advice anchor product literature, and our technical team updates protocols as best practices change.

    Wastewater and process effluent, for example, can contain oxalate residues. We’ve installed in-plant wastewater treatment systems designed to neutralize or remove these trace chemicals before discharge. Helping customers comply with environmental discharge standards doesn’t stop at the loading dock; we share strategies for safe product dissolution, precipitation, and disposal at the end-user site.

    For food and pharmaceutical customers, meeting GMP (Good Manufacturing Practice) is less about ticking boxes than about maintaining live, visible controls at each step. Quality is more than just a certificate for the file. Experienced inspectors—and seasoned industry partners—spot issues long before paperwork triggers alerts. We keep open lines for post-delivery support, offering advice on storage, expiry tracking, and contamination prevention. If a shipment falls short in any way, resolution comes through direct replacement or consultation with the operator in the field.

    Anticipating the Next Generation of Applications

    Work rarely stays the same for long, and the field of chemistry often moves faster than market trends predict. We’re seeing more inquiries tied to electronics, renewable energy, and advanced composite materials. While the core use as an analytical reagent remains steady, engineers and scientists test ammonium oxalate for roles in lithium extraction, battery material purification, and eco-friendly metal finishing.

    Each new request stretches what’s possible from a manufacturing point of view. Our process engineers regularly field test new production or purification methods, sharpening specifications or isolating trace contaminants that didn’t matter twenty years ago. Modern applications refuse to accept “good enough.” Meeting these new standards brings improvements for all customers, as cleaner production, better packaging, and more responsive documentation become the rule.

    Real-world research sometimes stumbles over supply gaps. We hold backup stock, maintain secure sources of raw oxalic acid and ammonium compounds, and train staff to recognize production bottlenecks before shortages materialize. Feedback from both large customers and small research groups shapes scheduling, inventory management, and investment in facility upgrades.

    In Summary: Why Manufacturers Matter in Ammonium Oxalate Supply

    Long experience with ammonium oxalate has taught us that those closest to the production line carry a different view than distant brokers or traders. We see firsthand the consequences of skipped quality checks or unclear communication—customers lose valuable time, operations stumble, and research suffers. By owning every step, from raw material sourcing to careful dry-down and consistent packaging, we offer more than just a commodity.

    Clients return because of the difference real manufacturing expertise delivers. Whether for titrations in the teaching lab, rare metal separation in advanced industry, or specialty applications in electronics, reliable product matters. And behind each shipment stands a team that knows the chemical inside and out, committed to making every order trustworthy, traceable, and right the first time.