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HS Code |
575466 |
| Chemical Name | Sodium Chloroacetate |
| Chemical Formula | C2H2ClNaO2 |
| Molecular Weight | 116.48 g/mol |
| Appearance | White crystalline powder |
| Melting Point | 202-204°C |
| Solubility In Water | Highly soluble |
| Odor | Slight acetic acid-like odor |
| Ph Of 1 Solution | 7-9 |
| Boiling Point | Decomposes before boiling |
| Cas Number | 3926-62-3 |
| Storage Conditions | Store in a cool, dry, and well-ventilated place |
| Stability | Stable under recommended storage conditions |
As an accredited Sodium Chloroacetate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Sodium Chloroacetate is packaged in a 25 kg high-density polyethylene drum with a secure lid, labeled with hazard and safety information. |
| Shipping | Sodium Chloroacetate should be shipped in tightly sealed containers, protected from moisture and incompatible substances. It is typically classified as a hazardous material and must be handled in accordance with applicable regulations. Ensure proper labeling and documentation, and transport in a cool, dry place to prevent decomposition or accidental exposure. |
| Storage | Sodium chloroacetate should be stored in a tightly closed container, in a cool, dry, and well-ventilated area, away from sources of moisture and incompatible substances such as strong oxidizers, acids, and bases. Protect from physical damage and direct sunlight. Clearly label the container and ensure that storage areas are equipped with appropriate spill containment and emergency response equipment. |
Applications of Sodium Chloroacetate in Industrial ManufacturingSodium chloroacetate serves as an essential intermediate in a range of downstream industrial operations, supporting the reliable synthesis of critical chemicals across multiple sectors. As direct manufacturers, we understand the precise integration requirements and compliance management needed for key application fields. This section provides a detailed overview of verified usage pathways, focusing on formulation specifics, real manufacturing processes, and output quality standards relevant to leading global industries. 1. Production of Carboxymethyl Cellulose (CMC) for Paper and Food Grade ApplicationsCMC producers rely on sodium chloroacetate during etherification of cellulose, targeting consistent performance in both food and paper-grade polymers. This process demands strict quality controls to minimize by-product formation and optimize viscosity profiles aligned with stringent industry standards. Quality assurance begins at raw material processing, with traceability and documentation maintained throughout batch production. Industry compliance standards
Typical usage ratio
Downstream process integration
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2. Herbicide and Pesticide Active Ingredient SynthesisSodium chloroacetate acts as a chloromethylating agent in the fine chemical synthesis of several selective herbicides and pesticide compounds, including 2,4-D and MCPA derivatives. Crop protection manufacturers incorporate it during key acylation or etherification steps, where purity and byproduct residue critically impact downstream product safety and environmental discharge compliance. In-process analytics control halide content at specified levels. Industry compliance standards
Typical usage ratio
Downstream process integration
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3. Glycine and Glycine-Derivative Manufacturing for Pharmaceuticals and FeedPharmaceutical and feed additive manufacturers use sodium chloroacetate as a core reactant in the synthesis of glycine via aminolysis routes. The raw material’s purity and trace metal content demand rigorous QA monitoring, since the final glycine product must meet strict pharmacopeial or feed-grade residual profiles. Consistent batch-to-batch reactivity and low bioburden are critical for compliance with downstream cGMP or HACCP requirements. Industry compliance standards
Typical usage ratio
Downstream process integration
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4. Synthesis of Thioglycolic Acid for Cosmetic and Leather IndustriesThe synthesis of thioglycolic acid (mercaptoacetic acid) for downstream use in cosmetic formulations and leather processing depends on high-quality sodium chloroacetate as a starting material. The process requires strict monitoring of halide contaminants and residual solvent levels to ensure safe handling and end-use. Compliance with final purity, analytical traceability, and controlled bioburden remain paramount in both cosmetic and industrial applications. Industry compliance standards
Typical usage ratio
Downstream process integration
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5. Synthesis of Vitamin B6 Intermediates for API ProductionAPI manufacturers utilize sodium chloroacetate as a critical intermediate in multi-step synthesis routes for pyridoxine (Vitamin B6) derivatives. Ensuring stringent control of elemental impurities and formaldehyde residues aligns with pharmaceutical regulatory submissions. Dedicated production lines manage contamination risk and batch record integrity throughout the overall synthesis timeline. Industry compliance standards
Typical usage ratio
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6. Surfactant Intermediate Production for Textile ProcessingTextile surfactant makers adapt sodium chloroacetate for use in the carboxymethylation of nonionic and cationic surfactant chains, targeting controlled foaming, wetting, and dispersant attributes. Only feedstock with low residual sodium chloride and monochloroacetic acid content meets finished textile chemical migration limits. Inline blending and verification enable stringent compliance for export-oriented downstream producers. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
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Day after day on the production floor, we see how important Sodium Chloroacetate can be for the chemical industry. Our line genuinely reflects decades of practical experience, with a focus on purity and consistency from the point raw materials come through our gate to the drum or bag that leaves our floor. Chemists, process engineers, and purchasing teams all ask the same practical question: How will this specific model of Sodium Chloroacetate work in my process, and what will it mean for quality, safety, and overall results? From our experience, the answer starts from the reaction vessel and reaches all the way back to the beginning—quality control, feedstock traceability, and the operating lines.
We don’t treat Sodium Chloroacetate as a generic commodity. In our production, the targeted purity often exceeds 99%, with low moisture and minimal iron or heavy metal content, verified by each batch in our in-house QC lab. Physical form matters just as much. While some customers prefer a granular form for easier handling and precise dosing, others require a fine, free-flowing powder for critical reactions where clumping or incomplete dissolution leads to unplanned downtime.
Our main offering runs as a white crystalline powder, produced in lots from 500 kilograms upward. The typical melting range falls between 61–63°C, and we hold monochloroacetate content above 99%. The sodium chloride content is kept at a minimum—always below 0.2% as calculated by our quality analytics. These small details save time for downstream users, especially those formulating herbicides or intermediates for dyes, cosmetics, and pharmaceuticals. Little things, like moisture content well below 0.5%, keep bulk handling simple and reduce caking or flow interruptions, which handling operators appreciate during daily bag-off shifts.
Any manufacturer can recite a product code or provide a standard certificate of analysis, but this business runs on experience. Through years of running alkylation and hydrolysis lines in multiple shifts, small variables matter—ambient temperature, choice of solvent, feedstock management. Our technicians monitor reaction time, temperature control, and downstream drying parameters closely, not just to tick boxes on a data sheet, but because experience shows that small changes ripple through the process. A slight uptick in reaction temperature increases side reactions, leading to more dichloro byproduct, which jeopardizes both yield and purity in the final drum.
We track these process details to make sure that batches remain consistent. More than a few of our long-time partners have switched to our line after headaches caused by inconsistent supply or fluctuating particle sizes from other producers. A batch that suddenly cakes or gives off unexpected odors can sideline a whole run in a downstream esterification process or create rework and cleanout headaches that nobody enjoys. Because the chemical market runs on tight timelines and few chances to rerun production, we keep open records on every process variable for our customers who request it.
It’s not enough to know the molecular structure of Sodium Chloroacetate. The true value for manufacturers, formulators, and end-users comes from understanding how this compound plugs into daily operations across multiple industries. Our direct customers produce herbicides that safeguard crop yield and manage resistant weeds. They craft carboxymethyl cellulose thickeners and surfactants for detergents and cosmetics. Others use Sodium Chloroacetate as a cornerstone for synthesizing dyes, textiles, and even pharmaceutical intermediates, such as glycine derivatives or local anesthetics.
Issues with purity, trace metals, or residual solvents don’t exist merely on paper. In actual production, they mean either optimal performance or problematic byproducts. Our technical teams have supported customers during troubleshooting—from resolving incomplete conversions in carboxymethylation to optimizing dissolution rates for cold-process aqueous blends. A mistake in this niche, such as a missed trace impurity, can shelve a week’s worth of finished product. By sharing these realistic difficulties with our partners, we’ve strengthened industry standards and also reduced troubleshooting cycles for everyone involved.
Over the years, customers often ask about differences between Sodium Chloroacetate and related compounds, particularly Monochloroacetic Acid (MCAA) and Potassium Chloroacetate. Choice depends both on the final product requirements and the practical aspects of plant operations.
Monochloroacetic Acid is an acid, with a strong, vinegar-like odor, corrosive vapor, and hazards connected with bulk handling. Direct neutralization gives Sodium Chloroacetate, which brings a neutral pH in aqueous media—preferred by formulators aiming to reduce corrosion downstream or maintain stable pH in blends.
Potassium Chloroacetate offers higher water solubility than the sodium salt. We supply this option for niche blending in specific agricultural or industrial formulations where solubility at low temperatures makes a real difference, such as certain herbicides or specialty surfactants that need to operate in cold storage or cold application environments. For most customers, however, Sodium Chloroacetate’s favorable cost, robust shelf life, and simple handling win out, particularly in processes where water solubility isn’t the limiting step.
We encourage partners to base their selection on the realities of their process, not only theoretical specs. Some applications can tolerate trace sodium chloride or require ultra-low iron, while others can’t. Technical support follows every shipment we send, because these choices affect both production safety and final product quality.
No two chemical plants are the same, and that’s clear in the way our product is handled, shipped, and stored in practice. Operators and warehouse teams benefit from a seasoned perspective far beyond reading the standard SDS sheet. Most of our customers store Sodium Chloroacetate in sealed containers under dry, cool, and well-ventilated conditions, for a simple reason: humidity ruins both handling and future dissolution. Even a slight rise in tank or drum humidity can result in lumpy powder, granule agglomeration, or corrosion on packaging. A tight seal and periodic inspections save material.
We strongly advise operators to wear gloves, goggles, and standard personal protective equipment, since direct contact sometimes causes skin irritation and eye discomfort. Accidental spills should get a fast, careful dry cleanup—once dissolved, Sodium Chloroacetate becomes more difficult to recover, and residues may create a slippery, caustic work surface. Our technical representatives often visit customer facilities, offering training for operators and storage teams that covers not just what’s in the manual, but what we’ve learned over years of troubleshooting: where drums are most likely to absorb moisture, what containers resist corrosion in salt-rich environments, and which local exhaust systems actually limit dust exposure during blending.
We’ve found that regular stock rotation and inventory checks prevent age-related degradation, as the material retains best properties within two years under proper storage. Relying on trusted suppliers for packaging—rigid HDPE drums or multilayer inner liners—reduces the chance of accidental contamination. Feedback from our partners helps us continuously upgrade packaging and shipment methods, since the real-world rigors of transport prove the value of every detail, from double-lined bags to reinforced bulk containers for large-scale users.
Years in the manufacturing business have shown us the reality of regulatory compliance. Sodium Chloroacetate’s production, transport, and use directly intersect with requirements from national chemical authorities, customs, and, in some markets, agriculture or pharmaceutical oversight. Our compliance team maintains comprehensive batch records, ensuring each shipment carries the correct documentation—trusted not only by regulatory bodies, but also by customer quality assurance.
Environmental responsibility remains high on the agenda. Our process engineers update waste stream management plans regularly, and we invest in closed-loop systems to recover solvents and minimize effluent. Sodium-based effluent gets neutralized before discharge, while solid byproducts are checked and packaged for safe disposal or recycling. We discuss these measures openly with customers, since confidence in supply also means proof that production stays within standards, limits impact, and supports responsible stewardship.
No producer works in a vacuum, and the challenges we face reflect those of our customers. Over the past decades, we’ve tackled raw material volatility, market shortages, changes in environmental tolerance levels, and rising standards for process control. Sodium Chloroacetate has played a role throughout, in no small part because of its adaptability in downstream chemistry and straightforward storage and handling.
For small-batch custom operations, production managers look for flexibility in order size and tailored QC cutoff points, not just another few tons on the dock. Large-volume processors demand bulk shipments in food-grade or anti-static bags for safety as much as for ease of discharge. We handle both, with shift supervisors and account reps talking directly to customer teams. Open lines of communication grant real-time solutions, such as expedited shipments for an unexpected rush order or troubleshooting particle flow issues in a new formulation line. Every lesson learned makes the manufacturing ecosystem more robust.
Through steady work with customers in crop protection, fine chemicals, polysaccharides, and pharmaceutical intermediates, our team benefits from shared expertise and mutual feedback. Practical inputs from users—such as a request for finer mesh size, quick-dissolving formats, or reduced dust packaging—directly feed back into our manufacturing upgrades. Instead of a one-direction transaction, these dialogues power improvements that serve the whole chemical value chain.
We’ve learned not to underestimate the value of detailed feedback, especially concerning end-use performance. Troubleshooting a sticking batch in a spray dryer or a purity drift outside spec in a methylation process has taught us more about real impact than generic claims or copy-and-paste spec sheets. Customers return to us for more than a drum of raw materials—they want reliability, transparent problem-solving, and a producer with field-tested solutions.
Manufacturing Sodium Chloroacetate has taught us the significance of continuous investment. Market trends shift, and technical standards rise, requiring stronger controls and better analytical capability. Process optimization doesn’t rest on previous years’ results—newer reactors, improved monitoring equipment, and workforce skill development receive constant attention. As green chemistry goals rise in prominence, our development chemists review catalysts and recycle lines to find less resource-intensive ways to maintain throughput and purity.
We also recognize the changes in downstream demand as regulations tighten and consumers—whether farmers, cosmetic formulators, or pharmaceutical developers—seek safer, more traceable products. Keeping an ear to the ground on changing global standards and actively contributing to technical and safety committees places us in a stronger position to anticipate change, not simply react to it after the fact.
Sharing these experiences helps future partners see not only what Sodium Chloroacetate can do, but also the confidence our real-world commitment brings. We invite both new and long-term collaborators to reach out for technical discussions, site visits, or a closer look at how everyday improvement in manufacturing and knowledge can translate into practical value on the production line.