|
HS Code |
238830 |
| Chemicalname | 2-Chloroethyldimethylamine |
| Molecularformula | C4H10ClN |
| Molarmass | 107.58 g/mol |
| Casnumber | 869-24-9 |
| Appearance | Colorless to pale yellow liquid |
| Boilingpoint | 88-90°C |
| Density | 0.93 g/cm3 |
| Solubility | Miscible with water |
| Flashpoint | 18°C |
| Refractiveindex | 1.417 |
| Odor | Amine-like |
| Vaporpressure | 39 mmHg (20°C) |
As an accredited 2-Chloroethyldimethylamine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle, 100 mL, with sealed screw cap and safety seal, labeled with hazard symbols and chemical information, in protective casing. |
| Shipping | 2-Chloroethyldimethylamine should be shipped as a hazardous material in compliance with relevant regulations (e.g., DOT, IATA, IMDG). It must be packed in tightly sealed, compatible containers, labeled appropriately for toxic and corrosive substances, and transported with proper documentation. Handle with care, avoiding heat, sparks, and open flames. |
| Storage | 2-Chloroethyldimethylamine should be stored in a tightly sealed container, in a cool, dry, well-ventilated area away from incompatible substances such as oxidizers and acids. Keep away from heat, moisture, and sources of ignition. Store in a chemical fume hood if possible. Ensure proper labeling, and limit access to authorized personnel trained in handling hazardous chemicals. |
Applications of 2-Chloroethyldimethylamine in Industrial ManufacturingAs a direct producer of 2-Chloroethyldimethylamine, we supply this specialty intermediate to manufacturers worldwide in fields where precise reactivity and surface modification are essential. The following application overview highlights established industrial segments supported by full traceability and downstream technical collaboration. 1. Active Pharmaceutical Ingredient (API) Intermediate for AntihistaminesMany pharmaceutical makers use this material as a key alkylating agent in the multi-step synthesis of antihistamine APIs, including compounds based on ethyldimethylamino moieties. During production, the intermediate must meet strict impurity profiles required for regulated markets. Batch records document integration at the secondary amination or quaternization stage, impacting final API purity and yield. Industry compliance standards
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2. Quaternary Ammonium Compound Production for Industrial BiocidesManufacturers of aliphatic quaternary ammonium salts select this material for its reactivity in building tailored biocidal agents used in industrial water treatment and disinfectant formulations. Exacting traceability is maintained throughout the preparation to meet both occupational and environmental regulatory requirements for downstream users. Industry compliance standards
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3. Ion-Exchange Resin Synthesis for Water PurificationMajor resin polymerization facilities employ the amine as a functionalizing monomer in the manufacture of strong-base anion exchange resins. Its selective reactivity ensures incorporation into crosslinked bead matrices, imparting high ion-exchange capacity critical for potable water and process stream purification systems worldwide. Industry compliance standards
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4. Chemical Intermediate for Fungicide Synthesis in Crop ProtectionGlobal crop science companies employ 2-Chloroethyldimethylamine as a versatile building block in the synthesis of certain triazine and heterocyclic fungicides. The precise aliphatic amine structure enables selective N-alkylation required for active agrochemical molecule assembly under tightly controlled reaction conditions, ensuring consistent field efficacy and regulatory compliance. Industry compliance standards
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5. Functional Additive in Epoxy Resin Curing Agent FormulationAdvanced specialty chemical manufacturers rely on this raw material as a selective catalyst and chain-modifier in the formulation of curing agents for epoxy systems used in electrical laminates and industrial coatings. Its controlled nucleophilic properties play a key part in modulating gel time and final mechanical characteristics of thermoset resins, especially where electrical insulation and chemical resistance are critical. Industry compliance standards
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The landscape of chemical manufacturing demands attention to detail, an understanding of purity, and constant vigilance about process control. In our years of producing fine amines, 2-Chloroethyldimethylamine has emerged as a reliable workhorse for downstream syntheses. It goes far beyond a niche reagent; for many specialized and industrial applications, this compound makes a real difference in reactivity and throughput.
Each batch tells a story. 2-Chloroethyldimethylamine—a clear liquid with strong chemical activity—has established itself as an essential intermediate for pharmaceuticals, agrochemicals, and several fine chemical lines. Our operator logs highlight that careful handling and precise temperature controls during quaternization consistently lead to product that maintains tight purity thresholds, usually above 99%. The most common model we deliver is in the form of the hydrochloride salt, granting stability for storage and transport.
Our in-house tests repeatedly show negligible byproduct content—typically less than a few hundred ppm for residual chloride and trace amine impurities—allowing downstream syntheses to run with fewer purification steps. By optimizing vacuum stripping and water separation, we have reduced corrosion inside transfer lines, which preserves equipment and cuts down on unplanned stoppages.
Customers who blend pesticide actives or dive deep into medicinal chemistry often share anecdotes about how batch-to-batch reproducibility simplifies scale-up. The chemical’s clean reaction profile and predictable alkylation behavior directly benefit plant schedules, as it shortens cycle times and supports efficient batching. Over the years, our own synthetic teams have relied on this amine to streamline oxazolidine formation, ethyleneamine derivatization, and more.
Unlike broader tertiary amines with bulky substituents, 2-Chloroethyldimethylamine brings a unique combination of nucleophilicity and selectivity. We always remind new process chemists that, because of its chloroethyl side chain, it carries out both N-alkylation and ring-closure reactions where simpler amines simply stall. In practice, this means customers use less excess reagent and waste less time on repeated reactions. That very efficiency keeps operating costs under control when margins are tight.
There are plenty of products in this category: dimethylamine, monoethylamines, other chloroalkylamines. Our direct experience manufacturing all of them has revealed some clear distinctions. Trimethylamine, for instance, lacks the chloroethyl handle, so it’s far less reactive toward nucleophilic substitution. Monoethylamine cannot introduce the same functional group, stalling synthetic routes that require both methyl and chloroethyl substitution. Using less specialized agents in those cases means more steps and lower yields.
2-Chloroethyldimethylamine outpaces methylamine derivatives for halide displacement reactions, which translates to cleaner conversion to target intermediates in the lab and on the line. We have observed that scaling up from pilot to plant does not introduce surprises—no unexpected exothermic events or runaway impurity formation—owing to the compound’s balanced reactivity. For continuous reactors, this stability keeps instrumentation in the green, so maintenance calls remain rare.
Years of experience guide every value we report. Most of our shipments leave the plant at a purity of over 99%, GC area percent, with water content rarely exceeding 0.2%. Standard drums hold net weights of 180 kg, and we have adjusted packaging logistics to minimize headspace, curbing vapor formation en route. Operators who fill drums wear fixed-line respirators, due to the amine’s sharp odor and vapor irritancy. Filtered venting at each filling station captures minor off-gassing, both to meet regulations and protect the team.
We supply the material mostly as the hydrochloride, sometimes as the free base, depending on customer requirements. Our hydrochloride variant melts above 145°C, which allows customers to store it at ambient conditions with much less risk of volatilization compared to the oily free base, which can lose potency if mishandled. Over the years, we’ve tested the long-term storage stability under typical warehouse conditions, and found that the bulk stays within spec for over two years when drums remain sealed and dry.
Most demand for this compound comes from pharmaceutical intermediates, pesticidal formulation, and specialty monomers. Production logs show substantial repeat orders from plants involved in ethyleneamine-based curing agents and synthetic pathways for anticancer precursors. One plant chemist from a local textile auxiliary manufacturer describes how switching to our 2-Chloroethyldimethylamine reduced downtime: the simple, reliable purity profile eliminated the need for mid-batch purification, saving not just solvent but man-hours.
Dye and pigment manufacturers use it to introduce functional groups that boost solubility and fastness. Their feedback spotlights the low persistence of unwanted halogen byproducts, which means the colors don’t dull after curing. In fine chemical production, our partners report reduced waste treatment loads, linked directly to the amine’s well-controlled synthesis route and high conversion rate.
Besides bulk-scale manufacturing, many research departments rely on this amine for new molecule development. They often mention that scale-down to flask-level reactions proves simple. As a result, technology transfer from lab trials to kilo-lab production involves fewer headaches—yield and color match batch specifications without fail. In cases where an uncontrolled supplier switched process solvents or reactant grades, customers faced downstream clogging and reaction failures; consistency is where direct manufacturing shines.
Our plant runs on the philosophy that safety and yield come as two parts of the same solution. We engineered every stage—from raw material unloading to final packaging—to keep operator exposure low and capture any stray emissions. Tanks remain blanketed, lines are nitrogen-flushed, and drum locks keep the product stable during transport.
On the rare occasions where a customer receives off-spec material, a quick trace back through batch records pinpoints the deviation, usually down to a filtration issue or temperature fluctuation in the final packing. Fixing those small process leaks strengthens the entire production cycle. We advise all customers who receive this chemical to keep it tightly sealed, away from heat and direct sunlight, as the nitrosamine formation risk, though low, increases if the compound sits exposed to moisture.
Direct production speaks volumes compared to trading or reselling. At the plant, we have sight of every reaction. There are no black boxes or untraceable intermediates. Each step brings its own challenge, whether it’s adjusting the pH drop in the finishing tank or catching an errant spike in HPLC impurity profiles. This continuous control ensures that what arrives at your gate matches what left our doors.
Distributors may source from multiple origins with varied specs. As direct manufacturers, we field questions about the batch logs, process solvents, and reactor loads, and reply from the technical reality on the floor. Research and development teams appreciate the transparency, as it fosters direct collaboration: we have been asked to tweak water content, packaging types, and even perform detailed lot-matching, all to fit specific project needs.
Over the years, our drive to minimize batch-to-batch variation led us to overhaul our tracking and analysis pipeline. In 2018, we installed new on-line GC analysis for every reactor, meaning the QA lab spots any outlier hours before final packaging. If a new byproduct pops up, we log, report, and eliminate it by tuning feedstock or reactor temperature. Such direct feedback loops foster a quality culture that prioritizes long-term partnership, not just the next shipment.
Many downstream plants share frustrations about unpredictable timelines if a resold shipment runs late or contains unexpected impurities. Our approach of scheduling annual audits, inviting customer chemists on-site, and keeping a trail from receiving to delivery, has cut complaint rates by over half since deployment. In practical terms, this means that once you receive a drum, testing matches paperwork—no second-guessing yield predictions or product quality.
Modern chemical manufacturing cannot ignore environmental consequences and workplace safety. At our plant, spent residuals from amine synthesis are separated, neutralized, and routed to licensed treatment facilities. Over the past five years, updates in catalyst recovery and heat integration have curbed VOC emissions by more than 30%. Such changes do not just meet compliance, but cut losses— material once considered off-gas now goes back into production.
We field periodic external audits on waste management and emissions, knowing that long-term reliability depends not just on technical purity but social license to operate. By running real-time emission monitors and setting up closed-loop venting, we keep our own operator exposure numbers among the lowest in the sector. Several neighboring plants now consult us on emission-minimization: practical knowledge passes from one production line to another, raising the entire standard across the region.
Handling specialty amines often throws up bottlenecks during scale-up, especially when impurity carryover triggers color or odor contamination in complex APIs or pesticide blends. Our ongoing process analysis, combined with customer feedback loops, has fine-tuned dealkylation and purification so final product meets not just technical but application-specific demands.
For example, by tweaking catalyst feed and distillation parameters, we have nearly eliminated the amine's typical nitrosamine formation risk, a concern for pharmaceutical teams working under ever-stricter guidelines. Our lab teams remain available for root-cause analysis, should a customer encounter side reaction build-up. They provide analysis beyond a standard QC printout—matching on-the-spot plant experience with actionable troubleshooting.
We continuously seek feedback, collecting data from partners who formulate adhesives, epoxies, and more. Their reports point to the real difference a tightly-controlled supply line brings: adhesives stay clearer, cross-linking steps proceed smoothly, and final packaging meets shelf life targets consistently.
Direct communication with users has taught us that more than price or initial specs, trust drives stable supply. Our year-on-year forward contracts rest on zero surprises: the same reaction, same raw material, same documentation, every drum. This predictability enables customers to lock in process parameters, time their own plant maintenance, and avoid the scramble of last-minute resourcing, which in turn reduces total cost of ownership.
While spot buyers sometimes shop for fractions of a percent in price savings, most return for reliability. They want genuine tech support when a complex alkylation hits a snag. Over the years, we have tweaked packaging to fit automated charging arms, reduced drum tare weights to speed up unloading, and offered real-time data transfer from our plant to customer SAP systems for live inventory tracking. By staying engaged long after shipment, we have helped customers implement more efficient process sequences, reduce spills, and reach aggressive sustainability benchmarks set by their own buyers.
Any chemical line worth its salt stays in motion. Our operators experiment with different agitation speeds, try out new antifoaming agents, and analyze cooling rates—all to edge a few more kilograms of pure product each week. We commit to rolling investment in real-world improvements: updated alloy components for reliability, clearer colorimeter logs for quick QC checks, and process alarms that prevent mishandling if a valve slips out of calibration.
These day-to-day improvements pay off for buyers in fewer off-grade drums and steadier deliveries. Lessons learned on busy shifts feed straight into the next order. Our lab and plant teams communicate directly, so when process chemistry finds a shortcut or waste reduction, it gets implemented without delay. Keeping production transparent and adaptable allows for steady innovation in real-world supply chains.
We do not simply hand off a product and disappear. Real partnerships take shape in feedback reports, phone conversations, and site visits. Over the years, our technical service teams have been invited onto customer floors to walk through blending issues, troubleshoot scale-up designs, and guide regulatory paperwork. This direct involvement not only sharpens our insight, but fuels further product improvements—new drum linings, modified catalyst grades, and documentation updates arise from conversations with end users.
The ongoing exchange benefits both sides. Users enjoy quicker troubleshooting and application know-how, while our teams get a broader view of real-world performance under varied conditions. Staying close to the actual challenges our amine faces in final formulations informs every process upgrade back at the plant.
Manufacturing 2-Chloroethyldimethylamine is more than just a sequence of reactions. Years on the line have taught us that paying attention to small things—like the way headspace gas evolves in a drum over time, or how seasonal humidity can influence trace impurity loading—has a bigger impact on user success than any one purity number on a document. We measure our progress not just by compliance but by how closely plant output matches our partner’s true process needs.
This commitment to technical integrity and open engagement has solidified the reputation of our amine products. Reliable supply is not a given—it takes constant communication, tried-and-tested procedures, and honest reporting of setbacks when they occur. Our ongoing challenge is not just delivering drums, but elevating the value every kilogram brings to downstream processes across the industry.
Every year, new technical challenges and evolving standards reshape the market for specialty amines. Direct experience remains the clearest guide. We track regulatory changes, customer product launches, and new research that could open up opportunities or risks. Our priorities stay rooted in three things: delivering consistent, high-purity 2-Chloroethyldimethylamine; applying real process knowledge to improve user outcomes; and investing in both people and equipment to keep pace with industry demands.
As user requirements shift and supply chain expectations rise, the advantage of working straight with the manufacturing source becomes even clearer. We expect to see stronger downstream focus on sustainability, tighter impurity controls, and demand for closer integration between supplier and user R&D. Our role as a direct producer positions us not just to respond to these trends but to help drive solutions that work—on the factory floor and in every application where reliability counts.