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HS Code |
625277 |
| Chemical Name | Sodium Dichloroacetate |
| Chemical Formula | C2HCl2NaO2 |
| Molar Mass | 150.93 g/mol |
| Appearance | White crystalline powder |
| Solubility In Water | Highly soluble |
| Ph Of 1 Percent Solution | 6-8 |
| Cas Number | 2156-56-1 |
| Boiling Point | Decomposes before boiling |
| Storage Conditions | Store in a cool, dry place, tightly closed |
As an accredited Sodium Dichloroacetate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Sodium Dichloroacetate, 500g, sealed in a white, HDPE bottle with a tamper-evident screw cap, labeled with safety information. |
| Shipping | Sodium Dichloroacetate (DCA) is shipped as a non-hazardous, solid chemical, typically in sealed, moisture-resistant containers or bags. Packages should be properly labeled and protected from moisture, heat, and direct sunlight. Ensure compliance with local regulations and safety guidelines during handling, storage, and transportation of this compound. |
| Storage | Sodium Dichloroacetate should be stored in a tightly closed container, in a cool, dry, and well-ventilated area, away from incompatible substances such as strong oxidizing agents. Protect it from moisture and direct sunlight. Use appropriate personal protective equipment when handling, and ensure storage areas are clearly labeled. Store at room temperature and avoid excessive heat or freezing conditions. |
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Purity 99%: Sodium Dichloroacetate with 99% purity is used in clinical biochemical research, where it ensures consistent modulation of cellular metabolic pathways. Molecular Weight 150.95 g/mol: Sodium Dichloroacetate with a molecular weight of 150.95 g/mol is used in oncology studies, where it enables precise dosing for cancer metabolism investigations. Melting Point 210°C: Sodium Dichloroacetate with a melting point of 210°C is used in formulation development, where it allows stable incorporation into oral dosage forms. Stability pH 5-8: Sodium Dichloroacetate stable at pH 5-8 is used in pharmaceutical buffer systems, where it provides reliable performance under physiological conditions. Particle Size <50 µm: Sodium Dichloroacetate with particle size less than 50 µm is used in injectable preparations, where it ensures rapid and uniform dissolution. Endotoxin Level <0.25 EU/mg: Sodium Dichloroacetate with endotoxin level below 0.25 EU/mg is used in parenteral drug manufacturing, where it minimizes pyrogenic reactions in patients. Water Solubility 28 g/100 mL: Sodium Dichloroacetate with water solubility of 28 g/100 mL is used in aqueous formulations, where it facilitates high-concentration solutions for therapeutic administration. |
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As a chemical producer with decades of day-to-day handling, we see questions about sodium dichloroacetate (DCA) echo through pharmaceutical, biochemical, and industrial sectors. Curiosity stems from researchers, formulators, and manufacturing engineers who demand purity and stability for their work. Over the years, our team’s challenges with sourcing and manufacturing sodium dichloroacetate have given us a front-row seat to what sets this material apart in practical terms of manufacturability, reliability, and application.
Our sodium dichloroacetate follows a process where reliability comes from control at every step. The most widely known model for laboratory or professional work is the anhydrous, crystalline form with consistent sodium and dichloroacetate ions. Pure white, highly soluble, and packaged with the researcher’s workflow in mind, our DCA attracts attention from those conducting metabolic research or developing chemical reactions that depend on precision.
On a technical side, our sodium dichloroacetate matches the highest industry-standard thresholds for sodium content and dichloroacetate concentration. Key specifications reflect as sodium ion: between 19.5% and 21%, dichloroacetic acid content above 98.5%, and minimal impurities per batch. We use high-performance ion-exchange resins to capture contaminants at trace levels. Moisture and residual solvents are kept far below industry benchmarks due to our closed-system drying and handling—an edge that pays off when shipping internationally or storing in humid climates.
Researchers gravitate toward sodium dichloroacetate in experimental oncology, mitochondria biology, and metabolic studies. In these settings, consistency saves time and ensures the integrity of findings. Each batch undergoes chromatographic and spectroscopic confirmation, which eliminates the risk of random quality swings common with less-regulated sources. Sourcing directly from a chemical manufacturer removes layers of repackaging, contamination risk, and information loss often found in products from resellers or gray-market suppliers.
For pharmaceutical development, teams use our materials as an analytical standard, or to study the impact of altered metabolic pathways on disease models. A growing group of specialty polymer producers use sodium dichloroacetate to catalyze specific reactions or modify chain-end groups, favoring our non-hygroscopic storage chemistry so they aren’t forced to use stabilizers that would disrupt their formulations.
Industrial users see the difference most in operational reliability. Whether preparing specialty solvents, degreasers, or engineered fluids, process engineers report fewer stoppages and maintenance delays due to batch-to-batch predictability and lack of insoluble residues. This comes directly from investing in process controls, not luck.
A frequent misconception is that “sodium dichloroacetate is sodium dichloroacetate”—purity numbers on paper can mislead even experienced professionals, especially when products are sourced solely by price or from unaudited brokerage channels. Our direct manufacturing oversight means detailed lot records and full traceability from reagent to bottle. We validate final products against multiple independent methods, not just supplier guidelines but also in-house calibration curves built on years of cumulative production data.
Sodium dichloroacetate shipped through our pipeline arrives without the packaging dust, warehouse residues, or supplier label confusion. Our packaging is purpose-built for humidity resistance with heat-sealed containers and liner bags, avoiding cross-contamination between chemical lines.
Our teams also keep close contact with university science departments, biotech startups, and process engineers, listening to recurring complaints like gritty texture in other “chemically pure” sodium dichloroacetate. Such issues can stem from process shortcuts or poor washing techniques by unskilled repackagers, which our process architecture avoids entirely.
Some buyers rely on fine-print documentation from brokers who aggregate material from several backgrounds, blending in trace contaminants that affect downstream use. We learned through customer feedback and lab comparisons that anti-caking agents and hidden process residues will accumulate in repeat-use lab equipment and analytical systems. By refusing common aids like magnesium stearate or silica—shortcuts for lower fidelity manufacturers—we prioritize primary-grade output.
Many “specification sheets” from secondary channels omit particulate and insoluble impurity details. In our production experience, a barely visible insoluble content leads to unpredictable analytical baselines, which forces adjustments mid-run. Our sodium dichloroacetate, formulated and packed at-source, performs predictably in titrimetric, NMR, and HPLC analysis because we maintain transparency and control over each variable.
Manufacturing sodium dichloroacetate requires a strong grasp of temperature control, aqueous and non-aqueous phase separations, and proper isolation. Extreme care during chlorination and neutralization stops unwanted byproducts before they propagate through the final product. We relied on real-world feedback—analytic reproducibility, shelf stability, and downstream yield—from ten years of supply to fine-tune our isolation techniques.
Seasonal changes bring new challenges. Elevated humidity, variable cooling rates, or even fluctuations in input water chemistry influence batch behavior. To avoid inconsistency, our line is monitored for temperature, pH, and ion balance at hourly intervals, not once per batch. After product isolation, advanced drying steps eliminate absorbed moisture that can degrade organoleptic properties or analytical profile—details buyers may overlook, but which become very obvious in the lab or factory.
Some chemists only notice quality differences after observing material behavior over time—solubility in their own solvent systems, particulate accumulation, or subtle yellowing. Materials exposed to light, excessive heat, or warehouse repackaging often arrive at customer sites with an inferior profile. We combat this through continuous lot inspection, dark-packaging, and processing in low-oxygen environments.
The most sophisticated specs serve little purpose without on-time supply and long-term consistency. After several years supplying both small R&D outfits and bulk commodity users, we saw the difficulties when foreign intermediaries introduce substitutions or blend lower-quality lots. Direct supply from our line not only protects against these risks, but dramatically reduces delays and product returns.
Manufacturers in the pharmaceutical and life science domains, for example, face plenty of unpredictability from project timelines alone. Unexplained supply disruptions or sudden quality downgrades can halt progress. We address these concerns through transparent production scheduling, expandable batch size, and full-stock warehousing for rapid turnaround. We’ve delivered thousands of shipments without returns for quality issues because of this focus.
In fields where sodium dichloroacetate acts as a critical reactant rather than a commodity, dependency on a single repacker exposes labs to inventory outages. Direct ties to manufacturing, backed by frequent and open communication, cut these risks for our established partners.
At a glance, sodium dichloroacetate might look just like other simple sodium carboxylates—its powdery texture and water-soluble profile mimic sodium acetate or sodium trichloroacetate. Teams evaluating which material to use in a metabolic or pharmaceutical context give weight to hydrogen bonding patterns and the role of chlorine substituents. Sodium trichloroacetate, with its three chlorines, behaves differently in metabolic steps and chemical stability. Fewer chlorine atoms (as in sodium monochloroacetate) can lead to less inhibitory action in some metabolic enzymes, which is relevant for researchers at the cutting edge of cell biochemistry.
Our DCA stands apart for its demonstrated lack of interfering side reactions in test tube and scaled-up batch settings. We receive feedback from process engineers and chemists who have run parallel synthesis with competing trichloroacetic and dichloroacetic products. These end-users underscore less byproduct formation, more predictable endpoint titration, and lower downstream cleaning costs using our DCA.
In environmental and waste treatment chemistry, where cost matters most, some users opt for bulk-market sodium trichloroacetate or blends. In those settings, selectivity and strict impurity control do not command premium concern. By contrast, in applications involving sensitive biological targets, sodium dichloroacetate’s measured reactivity and traceable purity offer unique confidence, which has deep roots in direct-from-producer manufacturing knowledge.
Over the years, feedback from international and domestic partners shaped our packaging developments. A product like sodium dichloroacetate does not survive repeated humidity cycling or ambient-light exposure if only ordinary bagging is used. We upgraded to gas-impermeable, heat-sealed layered liners, paired with chemical-resistant pails. This solution preserves both batch appearance and precise composition during global ocean transport or months in climate-controlled storage.
Routine testing of material after transport revealed that improper packaging or atmospheric exposure creates clumping, off-odors, or yellowing. These signals often indicate hydrolysis or slow bleaching by ordinary air, especially when repackaged into bulk bins. Our plant’s packing engineers work with domain-specific partners to select the right unit sizes—from small bottles suited for labs to larger drums for factory-scale operations—to reduce handling risks downstream.
These packaging designs are not temporary fixes; they evolved from the persistent issues encountered by technicians and users alike. We value firsthand problem solving and maintain open dialogue with our customers to enhance further revisions for batch protection.
Markets outside North America and Europe demand both import documentation and batch-level compliance reporting. We invest in up-to-date regulatory files, scan batches for compliance with currently published US Pharmacopeia or European Pharmacopeia references, with audit reports available for verified customers. This transparency approach developed out of experience supporting global clinical research where authorities require multi-layer documentation before product import or use.
Practitioners and scientists who recall frustration untangling supply provenance praise simplified traceability, which stems from the clarity of our batch histories and regulatory support documents. None of these efforts are visible in the powder bottle itself, but they save weeks of back-and-forth with regulators or institutional approval boards.
A safe workplace and environmentally conscious operation benefit everyone, from those handling the raw intermediates to those ordering finished DCA. We’ve set protocols to minimize worker exposure, engineered direct exhaust removal at synthesis points, and introduced on-site effluent treatment to stop residual chlorinated species from leaving the site untreated. Over the long term, our adherence has meant clean audit records and long-lived partnerships with vendors and local authorities.
We engage regularly with plant workers, training them to recognize early warning signs of process drift—smell, color, particle size—rather than relying solely on screens or automated logs. This attention to detail yields a safer, more predictable production environment and instills confidence in downstream users, knowing each jar and drum reflects hands-on, repeatable quality.
Continuous investment in production expertise, monitoring, and transparent support for customers sustains the value of our sodium dichloroacetate. We listen to feedback and adapt accordingly, reaffirming our role not as a merchant or pass-through but as a producer with stakes in every order delivered. Our teams remain committed to direct communication, long-term partnership, and ongoing improvement, offering stable supply and peace of mind to everyone relying on sodium dichloroacetate for their research, manufacturing, or application development.