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HS Code |
666629 |
| Cas Number | 13219-38-4 |
| Molecular Formula | C3H6ClNO |
| Molecular Weight | 107.54 |
| Iupac Name | 2-chloro-N-methylacetamide |
| Synonyms | N-Methyl-2-chloroacetamide |
| Appearance | White to off-white crystalline solid |
| Boiling Point | 224-225 °C |
| Solubility In Water | Soluble |
| Density | 1.173 g/cm³ |
| Flash Point | 129 °C |
| Smiles | CN(C)C(=O)CCl |
| Inchi | InChI=1S/C3H6ClNO/c1-5-3(6)2-4/h2H2,1H3,(H,5,6) |
As an accredited 2-Chloro-N-Methylacetamide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 2-Chloro-N-Methylacetamide is supplied in a 100g amber glass bottle with a secure screw cap and detailed hazard labeling. |
| Shipping | 2-Chloro-N-Methylacetamide is typically shipped in tightly sealed containers to prevent moisture or air exposure. It should be stored and transported in cool, dry conditions, away from incompatible materials. Proper labeling and documentation are required, complying with local regulations for hazardous chemicals. Use appropriate packaging to avoid leaks or spills during shipping. |
| Storage | 2-Chloro-N-Methylacetamide should be stored in a tightly closed container, in a cool, dry, and well-ventilated area away from incompatible substances such as strong oxidizers and acids. Keep the chemical away from sources of ignition and direct sunlight. Ensure proper labeling and store at room temperature or as specified by the manufacturer. Follow all relevant safety protocols and local regulations. |
Applications of 2-Chloro-N-Methylacetamide in Industrial ManufacturingAs a direct chemical raw material producer, we supply 2-Chloro-N-Methylacetamide for multiple high-value industrial sectors. This intermediate enables efficient transformation routes in specialty synthesis and precise functionalization steps for advanced downstream products. Our production supports customers demanding consistent quality for large-scale processes. 1. Pharmaceutical Intermediate SynthesisPharmaceutical manufacturers use this compound as a key intermediate in the synthesis of several API precursor molecules, particularly for selective amide acylation steps and heterocycle construction. Its chloroacetyl functional group allows for controlled nucleophilic substitution without excessive side formation. We supply directly to pharmaceutical production plants that operate under full traceability and strict impurity profile control, delivering the material in drum packaging with all critical batch documentation for regulated workflows. Industry compliance standards
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2. Agrochemical and Pesticide SynthesisMajor global agrochemical firms apply this specialty amide to form crucial functionalized linkers within selective herbicide synthesis and advanced pesticide actives. The compound ensures tight control over chain extension reactions, minimizing by-product formation common with bulkier acylating agents. Bulk containers are supplied with full MSDS and quality certifications for on-site formulation at crop protection facilities. Industry compliance standards
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3. Specialty Dye and Pigment IngredientSpecialty dye makers incorporate this amide as an alkylating and acylating agent, enabling the fine-tuning of color fastness and reactivity in azo and anthraquinone pigment synthesis. The material aids in obtaining distinct chromophore properties, supporting both high-performance textile dyes and chromogenic pigment manufacturing for the plastics sector. We ensure supply with consistency to meet precise batch-to-batch spectral requirements. Industry compliance standards
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4. Industrial Polymer ModifierProcess engineers in the polymer sector use 2-Chloro-N-Methylacetamide as a chain modifier for specialty polyamide and copolymer resins. It introduces N-methylacyl side chains, allowing precise manipulation of the polymer’s crystallinity, thermal resistance, and mechanical properties. Large-scale reactors require high-conversion feed, so our supply is geared for custom lot consistency and integrated supply chain logistics. Industry compliance standards
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Every specialist in the chemical industry understands the importance of purity and process reliability, especially when it comes to key process intermediates. Over the years, our team has refined the manufacture of 2-Chloro-N-Methylacetamide to meet exacting requirements in a variety of applications, from pharmaceutical syntheses to advanced material development. The knowledge we bring isn’t confined to lab data — years on the line, adjusting real-world reactions and overseeing every detail from raw material acceptance to final packaging, have shaped the way we produce this vital compound.
In manufacturing 2-Chloro-N-Methylacetamide, minor fluctuations can lead to significant variations in reactivity or downstream yields. That starts with vigilant handling of raw materials, which directly impacts the appearance, color, and moisture content of each batch. Our process controls have evolved over decades, reducing the frequency of contamination risks and strengthening reproducibility — not just once but across thousands of kilograms output annually.
We set the specification at a purity level above 99%, judged by validated analytical methods like HPLC and gas chromatography. That figure isn’t a marketing slogan; we hold samples from every production run, running full-spectrum checks on melting point, chlorine content, nitrogen content, and trace impurity profiles. Experience shows that a sharp melting point, typically right in the expected physical range, signals minimal byproduct carryover. Customers in active pharmaceutical ingredient synthesis notice faster phase separations and fewer purification cycles because of those controls.
Our manufacturing line is fitted for industrial-scale synthesis, using stainless steel reactors resistant to halogen corrosion. Over the years, we’ve navigated shifts in raw material sourcing, supply disruptions, and evolving environmental rules — making us keenly aware of issues client labs might not see until downstream. By keeping solvent and waste handling systems up to modern standards, we have halved both emissions and process water output per kilo product over the last decade. Working directly with clients, our technical team has supported everything from five-kilo pilot runs to ongoing multi-ton supply contracts. The result: the same product chemistry, regardless of the requested volume — no hidden batch-to-batch surprises for customers scaling up.
This intermediate is essential in many synthetic pathways. Its chloroacetyl backbone and N-methyl group make it reactive in nucleophilic substitution, acylation, and amidation processes. Many of the most recognizable pharmaceuticals, pesticides, and specialty polymers require 2-Chloro-N-Methylacetamide at a critical stage. We’ve noticed some labs try to substitute lower-purity analogues or bypass this intermediate using in situ methods. These workarounds often yield more side reactions and lower overall throughput. Cost savings on an intermediate don’t mean much if every downstream step suffers and final product losses rise. Clients who switched from alternate sources or lower-grade batches often point to cleaner reactions, increased yields, and easier post-reaction isolation after moving to our material.
Our process derives from a low-temperature monochlorination of N-Methylacetamide, followed by careful separation and multiple crystallizations. Over the last 10 years, we have replaced legacy solvents that drew environmental scrutiny with more sustainable alternatives — eliminating odorous byproducts and streamlining recycling. We oversee the full chain of custody, starting from incoming base chemicals through all critical process parameters. Each reactor run receives oversight by senior staff who have personally lived through unexpected shutdowns, raw material shortfalls, and regulatory changes. Problems in this kind of work rarely come from theoretical chemistry; they appear as subtle changes in final product odor, hue, or solubility, which only patient inspection reveals. These details set apart a reliable chemical manufacturer from a volume-focused supplier.
For the record, our main model comes as high-purity crystalline solid, packaged in lined drums designed to keep out ambient moisture and prevent cross-contamination. We size batches and packaging for direct use in industrial, pilot plant, or research applications. Typical net weights are 25 or 50 kilograms per drum, matching standard handling equipment. Precise particle sizing and minimal dust evolution during transfer reflect how our manufacturing line is tuned for large reactors — nobody wants to lose time or yield cleaning up fine powder stuck to vessel walls. Years spent listening to plant supervisors, who must meet OPS and safety targets, have convinced us that packaging is not an afterthought; it’s part of the process quality promise.
Production managers at pharmaceutical facilities have told us about improved conversion statistics after switching to our 2-Chloro-N-Methylacetamide. Their staff mention better control of exotherm and phase change during the initial reaction charge, a small but powerful indicator that impurity levels have dropped. Chemical development groups comment on reduced waste solvent volumes and easier filtering — the fine particulate matter often found in off-spec batches just doesn’t crop up. For those scaling processes from gram to kiloton scale, that’s not just a lab curiosity; it’s serious savings in both time and money.
We don’t just sell product — our technical staff keep “fail files” as a form of institutional memory to spot early warning signs of production headaches. Subtle changes in IR or NMR absorption spectra have, on occasion, inspired us to double-check tank hygiene or upstream solvent loading. No downstream user wants to be the first to point out a batch with off color or erratic behavior. Open, frequent feedback has helped us maintain better-than-average lot performance, even as volumes ramp up for high-demand seasons.
On paper, 2-Chloro-N-Methylacetamide from different manufacturers may look identical. Experience proves that the nitty gritty — minute differences in water content, resin residue, or trace halide impurities — can cause big headaches for end users. Compounders in agricultural chemistry tell us that switching suppliers mid-process sometimes means recalibrating dosage, re-optimizing agitation or solvent mix, and retesting product stability. Untracked residuals not only gum up process lines but can hazard product registrations. We collaborate directly with downstream quality staff, cross-checking batch pickups and assisting with root cause analysis for troubleshooting. That’s not a service or value-add — it’s standard operating procedure for an operation that cares about stability and regulatory compliance.
The real cost of chemicals extends to health and environmental stewardship. We shifted away from hazardous chlorinating agents to more controlled, closed-loop processes. Enhanced exhaust scrubbing, solvent reclamation, and real-time release testing stop fugitive emissions at the source. Chemical accidents make big news, hurting both public trust and the industry’s future. We train every operator, supervisor, and support staffer in advanced handling protocols every six months. After several decades, we’ve weathered plenty of audits and regulatory shifts — we understand how to stay ahead of new requirements, rather than scrambling to comply after the fact. Process safety remains a daily discipline, not a bureaucratic box to tick.
Safe manufacturing isn’t just a slogan for us — it’s a lived practice. Anyone with long ties to the chemical trade knows stories of well-meaning suppliers sliding into non-compliance, putting both client and community at risk. We keep up with evolving international registration benchmarks like REACH and regularly scrutinize our product documentation portfolio to anticipate compliance transitions. Several years ago, we invested in digital tracking of all raw material origins, transportation, and warehouse conditions, providing traceability from start to finish. This has cut reporting times during customer audits and further reduced batch variability.
End uses for 2-Chloro-N-Methylacetamide span from active pharmaceutical ingredient synthesis to fine chemical and agricultural products. We don’t design in a vacuum; our staff often visit client sites or pilot facilities to see process challenges firsthand. Some applications demand larger crystals for ease of handling; others require minimal dusting to reduce static or carry-over into adjacent lines. Over time, we’ve developed specific process tweaks to adjust particle size and flow — turnarounds are documented for client reference and Q&A. This open sharing of know-how helps cement trust with those who run reaction lines for a living.
Pharma clients point to our compound’s high reactivity and narrow impurity spectrum, which prove especially important when synthesizing advanced intermediates or when small amounts of residual halide can impact downstream pharmacology. Custom API makers seek assurance that each lot falls within tight analytical windows for both physical and chemical properties.
Agrochemical users rely on products with high stability and low variability in field formulations. Small changes in reactivity or impurity levels might escape lab detection but manifest in storage or application. Our ongoing dialogue with compounders and formulators helps prevent these surprises by refining both the product and the supporting process know-how.
The N-methyl substitution in 2-Chloro-N-Methylacetamide provides marked differences from similar acyl chlorides or unsymmetrical amides. This variant offers distinctive solubility and reactivity patterns that simplify isolation and purification in multi-step syntheses. While specialty traders sometimes pitch cheaper, less pure products, the savings disappear when upscaling magnifies deletion yields or increases off-specification rework. For one major pharma client, adopting our high-purity variant cut their waste streams and halved post-filtration times, a clear win both for costs and environmental goals. Others report less fouling in heat exchangers and less time lost to unplanned cleaning — benefits only apparent through practical, repeated use.
Compared with similar amides or chloroacetates, our product’s controllable physical form and minimized moisture absorption matter. Several chemical engineers have discussed the challenge of hygroscopic intermediates gumming up feeding systems or fostering slow, undetected hydrolysis. Through controlled drying steps and secure packaging, we have largely eliminated these risks for our customers. This reliability does not stem from luck — it traces back to years of refining plant floor methods and inspecting every outgoing drum by hand.
Every year brings shifts in the regulatory landscape, customer requirements, and new application areas. The rise of targeted therapies, new crop protection chemistries, and more stringent environmental targets have pushed demand for higher-purity, low-residue intermediates. We spend time in industry forums, client panels, and international conferences, listening for the small cues that foreshadow larger shifts in demand. This feedback loop between our manufacturing team and client R&D is not just about trading technical tips — it builds a stable foundation for long-term cooperation.
New synthetic routes, especially in pharmaceutical development, often depend on traceability, rapid analytical turnaround, and proof of tight quality control all the way to the starting materials. Clients have flagged that securing regulatory export clearances or site registrations can hinge on confidence in their own supply chain. We keep expanded technical dossiers, including analytical trend histories and contactable QC statements, to back up every batch shipped. These records, requested more often today than ever before, help clients secure their own registrations — reducing the typical project bottlenecks that come from ambiguous origin data or unexpected analytical drift.
Waste is more than a regulatory burden — it is an indicator of process inefficiency. Our plant investments focus on closed-loop solvent recovery, more efficient reaction controls, and streamlined purification. Over time, these measures have trimmed per-unit energy and raw material use, reducing both operational headaches and costs for clients. We remain attentive to further opportunities, regularly piloting new reactor designs and digital controls. The upshot for end users: fewer interruptions, less complaint-driven downtime, and a lower overall environmental impact per kilo produced.
Each member of our production staff brings years, sometimes decades, of hands-on chemical synthesis experience — in several cases, long tenures at multinational producers before joining us. Together, we hold deep institutional insight on how small process changes ripple out to end users. For clients, this translates to real advantages: better response times on technical Q&As, on-target changes in batch parameters, and troubleshooting grounded in real production details, not just academic best guesses. We believe that the significance of a chemical supplier rests not on price sheets or brochures, but on the day-to-day reliability of both product and technical support.
We don’t ignore unexpected issues. Plant incidents, from awkward batch stickiness to subtle off-odors, receive immediate attention, with investigations running right back to raw material intake. In the rare event a lot fails to meet spec, clients receive fast notification, backup supply options, and technical guidance. That’s why so many long-term clients think of our team as partners, rather than distant suppliers.
Innovation doesn’t stop at the product itself. We continually review client process data to guide small tweaks in particle size, moisture control, or impurity profile — small improvements that add up to major field advantages. Investment in more sensitive analytical instrumentation, real-time process monitoring, and digital documentation has paid dividends in both batch reproducibility and minimized turnaround time for urgent requests. Several custom process adaptations proposed by client chemists have been successfully incorporated into our plant routine, reflecting a collaborative attitude at every level.
Industry trends — from green chemistry to stricter international reporting requirements — keep our team alert to ways to simplify compliance while maintaining process reliability. By keeping the conversation open with frontline client R&D and production, we spot issues early and create joint solutions that protect both product and reputation. This applied feedback loop means clients are never working in isolation; whatever the technical hurdle, our team is here to collaborate, not dictate.
2-Chloro-N-Methylacetamide isn’t just another commodity in our inventory. Years of close cooperation with end users — from plant managers overseeing ton-lot purchases to research chemists perfecting multi-step synthesis — have shaped every change in how we produce, test, and deliver this essential intermediate. Our approach isn’t a grab-bag of catchphrases, but a set of practices forged on the production line and confirmed by real customer experience. We’re committed to keeping standards high, troubleshooting problems as partners, and investing in better manufacturing — not just for returns, but to build lasting relationships across the chemical industry.