|
HS Code |
186185 |
| Product Name | Oxamic Acid Sodium Salt |
| Chemical Formula | C2H2NNaO3 |
| Cas Number | 2836-32-0 |
| Appearance | White to off-white powder |
| Solubility | Soluble in water |
| Ph | Neutral to slightly acidic (in solution) |
| Melting Point | Decomposes on heating |
| Storage Temperature | Room temperature |
| Synonyms | Sodium oxamate |
As an accredited Oxamic Acid Sodium Salt factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Oxamic Acid Sodium Salt packaged in a 100g white HDPE bottle, labeled with product details, hazard symbols, and batch number. |
| Shipping | Oxamic Acid Sodium Salt is shipped in tightly sealed, clearly labeled containers to prevent moisture absorption and contamination. It should be transported under dry, cool conditions, away from incompatible substances. Packaging meets regulatory standards for safe handling and transit of chemical materials, ensuring product integrity during delivery. |
| Storage | Oxamic Acid Sodium Salt should be stored in a tightly closed container in a cool, dry, and well-ventilated area. Protect from moisture, direct sunlight, and incompatible substances such as acids and oxidizers. Store at room temperature, away from heat sources. Ensure proper labeling and keep out of reach of unauthorized personnel. Follow standard chemical storage guidelines and safety protocols. |
Applications of Oxamic Acid Sodium Salt in Industrial ManufacturingOxamic Acid Sodium Salt delivers targeted functional benefits in select industrial manufacturing sectors, supporting controlled processes and compliance-driven end products. As the direct manufacturer, we maintain application discipline for each distinct downstream use, referenced below. 1. Textile Dyeing and Printing Process InhibitorIn the textile sector, sodium oxamate is a recognized process additive for inhibiting unwanted enzymatic activity during dyeing and printing. Our material supports reproducible color fastness and fabric integrity by selectively blocking lactate dehydrogenase within the aqueous phase. Leading mills incorporate this additive to meet batch consistency and color reproducibility targets, especially in synthetic and natural fiber treatment lines. Use adjusts seasonally based on water pH, dye class, and enzyme load, requiring close formulation control. Integration under automated dosing ensures minimal losses and tight QC for compliance audits. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Metal Surface Treatment Chelation AgentIn surface finishing plants, sodium oxamate acts as a specialized chelating agent during cleaning, etching, and pre-treatment of ferrous and non-ferrous substrates. Its selectivity for certain metal ions allows fabricators to target scale, oxide, or contaminant removal without over-etching high-precision components. The addition regimen supports reliable plating adhesion and functional coating durability. Application engineers monitor metal ion complexation and waste stream discharge under strictly regulated conditions to achieve consistent technical properties in finished metal parts. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Polymerization Inhibitor for Acrylics ProductionAcrylic resin manufacturers rely on sodium oxamate as an effective inhibitor of unwanted side reactions during monomer polymerization. Adding this material during specific process stages limits chain-transfer events caused by trace impurities, especially in aqueous or emulsion systems. Careful ratio adjustment—supported by in-house analytics—helps maintain narrow molecular weight distributions in the resulting polymers. Strict material handling and lot traceability allow downstream processors to certify batch consistency toward high-purity applications. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Fine Chemical Synthesis Intermediate and CatalystChemical synthesis plants utilize sodium oxamate as a controlled intermediate or ligand, particularly in multi-step preparations of specialty chemicals and pharmaceutical precursors. Researchers exploit its chelation and mild nucleophilicity to enable specific regioselective transformations, including transition-metal catalyzed oxidations and cyclizations. Accurate weighing and staged addition ensure high-purity outputs, and post-reaction purification uses industry-standard analytical methods to verify target structure and minimize carryover of the intermediate in regulated APIs or functional fine chemicals. Continuous process intensification and green chemistry mandates drive optimization of this application route. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
|
Competitive Oxamic Acid Sodium Salt prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please call us at +8615371019725 or mail to admin@sinochem-nanjing.com.
We will respond to you as soon as possible.
Tel: +8615371019725
Email: admin@sinochem-nanjing.com
Flexible payment, competitive price, premium service - Inquire now!
As a chemical manufacturer with years of time spent perfecting production processes, the name oxamic acid sodium salt often comes up in our discussions on specialty reagents. Known by its chemical structure sodium 2-amino-2-oxoacetate, this compound delivers a distinctive set of properties, rooted in both the oxamic acid backbone and the stability introduced by sodium salt formation. Our facility produces high-purity batches in both technical and laboratory grade, covering a range of applications from research development to industrial synthesis. We have observed how customers in certain sectors request particular models such as the monohydrate and anhydrous forms, so our plant maintains rigorous oversight during drying and crystallization steps to consistently meet specification requirements.
The actual output arrives as a crystalline powder, slightly hygroscopic, with a characteristic faint odor. It readily dissolves in water and offers better solubility than standard oxamic acid, addressing a common frustration in laboratory workflows. Over several product cycles, our QC team has seen that the sodium salt variation tolerates brief exposure to ambient air during handling much more robustly without caking or loss of activity, which helps downstream formulation. For clients requiring custom solutions, we can tailor pH adjustment and particle size distribution at request, with particular attention paid to trace metal content and organic impurities.
Customers who use oxamic acid sodium salt stress the importance of batch-to-batch consistency, especially where it plays a role as a building block or an inhibitor in larger synthesis schemes. Reproducible results, especially for pharmaceutical or fine chemical research, rely on this. Our factory laboratory subjects every run to full HPLC and NMR verification. Any observed deviation prompts immediate recalibration of synthesis steps and a thorough cleaning of reactors, because trace contaminants—even at parts-per-million—sometimes disrupt downstream enzymatic reactions. Years in this business taught us that prioritizing trace analysis up front pays for itself by reducing complaints and the need for overtime trouble-shooting.
Our direct manufacturing experience reveals that many suppliers in the general market deliver inconsistent grades. This isn't speculation; partners have sent us comparative samples from other sources that failed on simple purity checks, with large differences in by-product contents such as oxalic acid or residual chloride. Those compounds destabilize storage and alter reactivity in sensitive experiments. Field experience underlines why careful control is more than just meeting a certificate: it's about operational trust and time savings for the end users in the lab or plant.
People sometimes ask about the difference between oxamic acid itself and its sodium salt form. We have worked with both. Oxamic acid's solubility in water and common organic solvents is relatively poor, which usually means extra stirring and heat for dissolution into reaction mixtures. With the sodium salt, application is more straightforward. It disperses much more easily in aqueous systems, reducing both energy input and time to set up reactions. This turns out to be especially helpful in high-throughput or automated synthesis labs.
Further, the sodium salt version avoids acidification effects that plain oxamic acid can introduce to buffered systems. We've observed this especially in biochemistry assays, where maintaining tight pH windows is crucial. When working with oxamic acid, researchers often need to pre-neutralize their media, which takes extra reagents and monitoring. Switching to the sodium salt simplifies the workflow, letting the main reaction dictate conditions, not the solubilizing step. Over repeated customer feedback cycles, labs confirm that using the sodium salt reduces unexplained assay variation, especially where enzyme inhibition steps matter.
Our in-house development chemists have seen steady demand for this compound in a range of sectors. The most common request comes from protein crystallography and enzyme kinetics. Oxamic acid sodium salt acts as a competitive inhibitor of lactate dehydrogenase (LDH), letting researchers explore new metabolic pathways and validate lead molecules for drug discovery. Since LDH activity forms a central role in cancer metabolism studies, maintaining inhibitor purity and stability gives more reliable data. Several pharmaceutical collaborators mention how much sample and time they avoid wasting by using our sodium salt batches, as opposed to haphazardly prepared in-situ neutralized oxamic acid.
In the chemical synthesis field, oxamic acid sodium salt gets used in Vilsmeier-Haack reactions, as an intermediate in constructing heterocycles, or in amide coupling sequences. Its compatibility with water-based media opens up eco-friendlier options for process chemists tasked with reducing organic solvent use. Technical contacts from manufacturing clients on several continents describe how process simplification has led to lower solvent disposal costs and a cleaner environmental safety record.
Another area, agricultural chemistry, applies sodium oxamate derivatives as niche stabilizers or pH modifiers in special fertilizer blends. The sodium ion improves dispersibility in these mixtures, which matters when scaling from pilot to field levels. Our engineering team consults directly on process design to avoid introduction of unwanted sodium loads that could disrupt soil balance, customizing grades as needed. Our labs maintain a close watch on regulatory compliance, especially for residue and leachate standards. The fact that our sodium salt meets stringent purity specs, and can be shipped under non-hazardous handling guidelines, helps streamline logistics for global clients.
Manufacturing oxamic acid sodium salt requires more than following a textbook method. Reactant selection, reaction time, filtration techniques, and crystallization temperature all affect the final lot quality. We've invested in robust process analytical technology—automated titration, conductivity measurements, UV-Vis, HPLC, and NMR scanning are standard for routine lot validation. Every time we update an instrument or retrain technical staff, we notice improvements in precision and reduction in turn-around time. Regular feedback from independent contract labs helps keep our process benchmarks ahead of regulatory minimums.
Customers often request extended COA panels—beyond purity, chloride content, sulfate, heavy metals, and water. For specific markets, R&D groups ask us to monitor for organic micro-contaminants, residual solvents, or degradation products. We’ve tailored custom reporting protocols to help these clients streamline their validation filings. By investing in up-to-date analytical chemistry and skilled staff, we make sure scientists using our oxamic acid sodium salt spend more time on experiments and less troubleshooting base reagent quality.
After introducing more rigorous package moisture sealing a decade ago, we noticed a marked drop in customer complaints about caking or color shifts in stored product. Oxamic acid sodium salt picks up moisture if left open too long; new multilayer PE-lined cartons with desiccant keep the powder free-flowing and consistent. For high-sensitivity applications, our facility supplies small, vacuum-tight glass bottles. Bulk shipments for industrial users take advantage of lined fiber drums, shrink-wrapped on pallets to weather freight challenges across continents.
Shelf life makes a difference, especially for research groups putting in large reagent orders. Our extensive accelerated aging trials indicate stable performance over two years for the sodium salt, as long as it's kept dry and sealed. Under field conditions, even in humid climates or less-controlled storage, batches remain effective for the advertised period. Direct manufacturer oversight—instead of third-party storage—lets us track every lot from synthesis through order fulfillment, so traceability never drops off.
On the worker safety and compliance side, oxamic acid sodium salt rates as low hazard, both in-handling and by regulatory systems in many jurisdictions. Our facility maintains air, water, and dust monitoring and engages regularly with local chemical safety authorities. Years of producing different forms of oxamic derivatives taught us to minimize by-product formation that could carry over into the environment or workplace. Routine training and straightforward MSDS documents based on our own verification—not just copy-pasted regulatory lines—build trust across labs from university settings to multinational factories.
Meeting region-specific regulatory standards challenges us to keep up with labeling updates and packaging certifications. Some regions prioritize residual solvent content, others trace heavy metals, and a few check for allergenic amine content far below industry averages. We take seriously our responsibility to handle documentation and compliance, so our clients spend less on approvals and audits. Repeat business often depends on how quickly we answer technical questions and deliver supporting paperwork. Over the years, laboratories and plants continue to rely on us largely thanks to this direct, science-first transparency.
Our history in chemical manufacturing highlighted the ongoing importance of limiting waste stream complexity and meeting rising expectations for environmental stewardship. Producing oxamic acid sodium salt efficiently pushes our operations toward processes with fewer auxiliary chemicals, simplified washing, and energy conservation. Today our synthesis line uses water-based work-ups and solvent recovery loops. Scrubbers catch volatile by-products, and filtrate is sent to treatment in line with best-practice standards, avoiding unnecessary environmental burden.
Incoming raw materials must meet strict sourcing criteria, with a preference for domestic producers audited under green chemistry guidelines. Each time we revamp equipment or overhaul steps, our engineering group assesses if process changes could cut energy or water use. Several manufacturing surveys confirm that customers value provenance and environmental impact at each step of the supply chain. Direct manufacturing oversight means accountability doesn't vanish into a convoluted network of subcontractors.
Making sodium oxamate on an industrial scale offers learning opportunities. Starting with batch-to-batch reproducibility, we've faced hurdles related to temperature control during amination and careful neutralization. If cooling is too rapid or too much base is added, product purity drops, and filtration gets laborious. To resolve that, our team installed a feedback system integrating real-time pH and temperature tracking, refining the operator workflow. These hands-on optimizations led to higher yields and more uniform product.
Shipping logistics bring their own set of operational hurdles. Weather extremes during ocean transit sometimes affect moisture-sensitive cargo. By working closely with logistics partners and developing custom insulated containers, we maintain product quality even through extended journeys. Digital inventory tracking and QR-based lot control let end users authenticate the product using secure, real-time traceability to each batch.
New applications sometimes challenge us to reach higher purity or reactivity standards—for example, when a biotech client needs fifty kilos at 99.5% with strict amine baseline. Rather than running all new equipment, we developed a staged recrystallization procedure, drawing on our staff's hands-on crystallization expertise. This lets us balance cost, scale, and schedule without sacrificing the responsiveness direct manufacturing brings.
Clients come to us expecting more than off-the-shelf reagents. Our scientific support team, made up of seasoned chemists, helps solve practical bottlenecks. For example, some users face difficulties dissolving even sodium-based oxamic acid in very salty buffer mixes; we run bench tests matching their actual solvents and suggest mixing speeds, temperatures, or order-of-addition strategies.
We emphasize the importance of keeping open containers tightly closed, storing in cool, dry locations, and cleaning utensils between transfers to guard against cross-contamination. Lessons from years of direct technical feedback push us to continually refine our packaging and documentation. Field engineers relay real-world concerns back to our process teams. Rapid batch issue troubleshooting saves time, especially for teams submitting grant proposals or contract deadlines in pharmaceutical projects.
Education matters as much as product specs. We keep a technical library of application notes—based on practical feedback in protein research, chromatography, and scale-up scenarios. Researchers tell us that a phone call or detailed product write-up can make the difference between a wasted week and a successful experiment. By offering this level of guidance, we foster relationships that last longer than any one purchase order.
Based on ongoing collaboration with industry partners and continuous innovation in our own plant, the outlook for oxamic acid sodium salt remains strong. Demand continues to expand as analytical chemistry, pharmaceutical research, and technical manufacturing move toward more water-based, reproducible, and efficient processes. Direct manufacturing roots ground us in technical expertise and encourage ongoing responsibility—to clients, regulatory stakeholders, and the environment. The knowledge we gain through every production cycle sharpens our tools and improves our ability to meet a diverse, changing market.
By focusing effort on rigorous process control, open communication, and sustained research, our team ensures that each shipment of oxamic acid sodium salt delivers dependable performance—no matter the scale or setting. Working from our own facility allows us to respond to new scientific needs rapidly and keep innovation at the forefront, so clients get the benefit of both product reliability and the insight that only comes from hands-on experience.