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HS Code |
236492 |
| Cas Number | 624-78-2 |
| Molecular Formula | C3H9N |
| Molecular Weight | 59.11 g/mol |
| Iupac Name | N-ethylmethylamine |
| Synonyms | Ethylmethylamine |
| Appearance | Colorless liquid |
| Boiling Point | 36-37 °C |
| Melting Point | -117 °C |
| Density | 0.699 g/mL at 25 °C |
| Solubility In Water | Miscible |
As an accredited N-Ethylmethylamine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | N-Ethylmethylamine is supplied in a 500 mL amber glass bottle, securely sealed, and labeled with hazard warnings and handling instructions. |
| Shipping | N-Ethylmethylamine should be shipped in tightly sealed, clearly labeled containers compliant with chemical safety regulations. It must be stored and transported in a well-ventilated area, away from heat, sparks, and incompatible substances. Shipping typically follows UN chemical regulations and requires appropriate documentation and classification as a flammable, hazardous material. |
| Storage | N-Ethylmethylamine should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from sources of ignition, heat, and incompatible substances such as oxidizers and acids. Protect from moisture and direct sunlight. Ensure proper labeling and use chemical-resistant, airtight storage containers to prevent leakage and minimize vapor emissions. Store in accordance with relevant safety regulations. |
Applications of N-Ethylmethylamine in Industrial ManufacturingN-Ethylmethylamine is a C3 aliphatic amine with a unique structure that supports specific reaction paths in multiple chemical sectors. As a direct manufacturer, we supply this amine for integration into exacting industrial workflows, where its purity and traceability enhance process stability and batch consistency. 1. Pharmaceutical Intermediate SynthesisIn pharmaceutical bulk manufacturing, N-Ethylmethylamine serves as a key intermediate or alkylating agent during the synthesis of specific active pharmaceutical ingredients. Its secondary amine functionality enables effective incorporation into targeted N-alkylation steps, supporting the generation of amide, amidine, or tertiary amine substructures within drug candidates. Manufacturers value its consistent reactivity in high-pressure reactors or batchwise production. It undergoes rigorous QC to ensure compliance for regulated APIs targeting global markets. Industry compliance standards
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2. Agrochemical Formulation and SynthesisCrop protection chemical manufacturers employ N-Ethylmethylamine to introduce small alkyl groups into selective herbicide and fungicide APIs. The compound supports formation of amide and urea linkages central to new-generation pesticides and aids in tuning hydrophobicity and bioavailability of active molecules. Quality consistency and low impurity profile are essential to avoid crop damage and maintain labeling accuracy for regulatory registration. Industry compliance standards
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3. Rubber Chemical AdditivesIn the rubber and elastomer industry, N-Ethylmethylamine serves as a raw material for synthesizing antiozonants and vulcanization accelerators. The amine functionality facilitates incorporation into specialty protectants that increase tire and technical rubber product lifespans. Its narrow boiling range and low metal content help prevent contamination during continuous-batch processing, ensuring consistent reproducibility across multiple manufacturing campaigns. Industry compliance standards
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4. Fine Chemical Building Blocks for Dyes and ColorantsManufacturers of organic dyes and specialty colorants integrate N-Ethylmethylamine into synthesis sequences to introduce secondary amine moieties for chromophore extension. Its defined aliphatic structure permits precise molecular modifications in dyes aimed at textile, coating, and ink industries. Color stability and brightness benefit from controlled introduction of these amine groups, with process optimization based on desired shade and lightfastness. Industry compliance standards
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5. Organic Synthesis of Surfactant IntermediatesSurfactant and specialty cleaning agent producers use N-Ethylmethylamine to form cationic components in antistatic agents, emulsifiers, and phase transfer catalysts. Its reactivity with alkyl halides and epoxides enables synthesis of quaternary ammonium salts and amine oxides. Manufacturers monitor raw material purity to control product safety, foaming properties, and environmental release parameters in final surfactant blends. Industry compliance standards
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Competitive N-Ethylmethylamine prices that fit your budget—flexible terms and customized quotes for every order.
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Every run in our N-Ethylmethylamine plant reflects years of refining process controls and customer feedback. This compound, often called EMA or Ethylmethylamine, isn’t some obscure by-product. In our experience, companies rely on this amine in custom synthesis, pharmaceutical intermediates, agrochemical manufacture, and coatings – fields where unpredictability creates downtime and risk. Over the production years, we’ve come to understand the impact of purity shifts, trace contaminants, and minor lot variations that can cost labs and plants far more than the price of the chemical itself.
We target a minimum purity level of 99.5% N-Ethylmethylamine, supported with in-house GC and NMR analysis on every batch. Some producers settle for technical grade and focus on output volume. Our partners need tighter spec ranges and clearer impurity profiles. Even low ppm moisture or by-products—ethylamine, dimethylamine, or heavier homologs—can clog downstream processes or force extra purification steps. Our technical staff works closely with formulation chemists to head off issues before drums even leave our warehouse.
Customers in active pharmaceutical ingredient synthesis report longer equipment life and improved batch yields where trace secondary amines have been minimized. Semiconductor and electronic chemical suppliers trust our product because amine residues and metals stay well below industry thresholds. Feedback from pesticide manufacturers emphasizes batch-to-batch color and odor stability—each lot presents clean handling with no distracting background odor caused by oxidation products.
On the production floor, everything from feedstock amines to neutralizing acids is sourced from audited suppliers. Years of troubleshooting have taught us to avoid expedient but unpredictable routes. Older processes for N-Ethylmethylamine might skip vacuum distillation, causing headaches in fine chemical synthesis or ink manufacturing—color drift, layering, or off-ratio blends. Our vertical integration and real-time data sharing with line operators tighten up quality, so the finished drums behave the same every shift.
Clients approach us looking to solve problems, rarely just to shop price points. In the flavor and fragrance sector, application chemists want subtlety—the faintest grassy notes or harsh amine edge in N-Ethylmethylamine quickly impact the final aroma. We invite pilot plant engineers to tour our facility and review historical batch data. Together, we solve challenges with residue build-up and carryover, not just by tweaking processes, but by grounding decisions in shared experience. Every root-cause investigation leads us to another small yet vital improvement.
N-Ethylmethylamine leaves our site either in ISO tanks for bulk buyers or in tight-head drums for specialty users. Over the years, we’ve measured tank cleaning residue, truck return issues, and the time of year shipments occur. Summer heat and changing barometric pressure can stress drum seals and packaging if not considered. Customers in colder climates want to avoid condensation contamination during handling. We routinely work through logistical challenges, offering packed and sealed containers that defend against seasonal shifts.
End-users appreciate short lead times, but they value predictable availability more. Our warehouse team maintains rolling stock trackers connected to customer forecasts, so we fill recurring needs with buffer stock. During global disruptions in chemical shipping, we’ve drawn on long-term supplier negotiations to keep raw materials and finished lots flowing. For buyers juggling timelines in pharmaceutical scale-up or agrochemical release, that reliability turns tentative schedules into realistic plans.
Domestic and international regulations affect N-Ethylmethylamine movement. Our regulatory officers track EPA, REACH, and Asia-Pacific requirements, adjusting product handling and documentation to align with evolving guidelines. Many years in export markets highlight import paperwork, container tracking, and documentation headaches that stall downstream projects. Legal and customs issues carry real costs, so clear batch-specific Certificates of Analysis and open communication go a long way with inspectors and compliance teams.
We partner with logistics providers vetted for safe hazardous goods handling. Fast response to lost shipments or damaged drums builds relationships stronger than any sales pitch. Short supply of specialized packaging or changes to transport classification have driven us to develop alternatives and test new boarding techniques. End users value knowing that our N-Ethylmethylamine arrives intact and on-spec.
Plant chemists often compare N-Ethylmethylamine to related amines—ethylamine, dimethylamine, diethylamine—before choosing a supplier. Ethylmethylamine’s unique balance of volatility, reactivity, and steric profile makes it better suited for targeted methylation, amide formation, and fine chemical synthesis. Ethylamine tends to be harsher and less selective in certain reactions, forming by-products that complicate downstream separations. Dimethylamine, though structurally similar, generates different salt and coupling profiles, especially in the presence of complex acids or chiral catalysts.
We receive frequent questions about replacement feasibility. There are applications where N-Ethylmethylamine must remain unique—the selectivity in forming certain pharmaceutical intermediates calls for just its balance of nucleophilicity and steric effects. Porous polymer researchers and catalyst manufacturers point to the trouble caused by even a small shift in backbone structure. Alternative amines may look interchangeable on a spec sheet, but real-world application almost always reveals subtle but operationally important gaps.
Handling N-Ethylmethylamine at scale demands a different mindset than pilot batches. Over our years in manufacturing, we’ve encountered exothermic runaway scenarios, neutralization risks, and storage pressure fluctuations—learning hard lessons that shape our current procedures. Our operators undergo routine retraining on vapor control, vessel venting, and rapid seal replacement. Building a culture of watchful maintenance and fatigue management pays off in equipment reliability and steady output.
Our emergency drills evolved from real incidents, not just regulatory mandates. Every alarm test, seal swap, or incident debrief sharpens the team. Customers visiting our plant see a workforce that owns the process—not because of slogans on walls, but through earned trust in each other’s expertise. Sharing these experiences helps downstream users manage their own plant safety and storage protocols.
Most inquiries about N-Ethylmethylamine aren’t resolved with a product data sheet. Researchers need to know more about thermal stability, optimal storage, and compatibility with other reactives. Our technical service chemists regularly talk directly with formulation scientists, sharing decades of lab and plant insights. We help scale up kilo lab syntheses to pilot manufacture, troubleshooting odor, exotherm, or crystal precipitation well before expensive cGMP batches begin.
Over the years, this kind of partnership has solved contamination puzzles, nonconforming batches, and equipment fouling by working together through raw data and practical solutions. We’re upfront about uncertainty or new technical challenges—and we welcome user feedback. The chemistries and regulatory landscape keep evolving, but common experience and honest discussion drive quick adaptation.
Every expansion of our N-Ethylmethylamine production site means more than just higher volumes. Community input and environmental monitoring shape our waste management and emission control. Local stakeholders helped us adjust transport corridors and invest in emission-scrubbing technologies. Regular groundwater and air quality studies show that our containment and abatement systems prevent neighborhood impact. Our wastewater pre-treatment plant keeps ammonia and amine residues below detection for municipal discharge.
Employee health, especially for workers dealing with volatile organics, stays in sharp focus. We provide noise control, upgraded ventilation, and medical monitoring. Engagement with local authorities leads to stronger hazard training and safer storage infrastructure. The results: lower incident rates, stable community trust, and a more resilient operation. Our investments in clean energy and water recycling continue to shrink the environmental footprint per delivered metric ton.
Some customers require hundreds of tons per year; others request custom-packed pails for pilot projects. Our scale-up teams plan new capacity based on rolling customer commitments, and we keep technical staff in the loop to ensure each manufacturing run matches prior performance. New applications—ranging from polymer additive research to specialty battery electrolyte formulation—stretch our QC labs and processing lines. We update cleaning and blending protocols regularly, taking into account all cross-contamination risks highlighted by user trials.
Agility in scheduling, batch size, and delivery format sets us apart. We offer made-to-order packaging, QA-tailored certificate formats, and labeling to specific jurisdictional requirements. This level of support comes from decades of listening to buyers negotiate regulatory filings and patent reviews. Experience tells us that initial flexibility with pilot shipments enables deeper technical discussion and less risk at full commercial-scale release.
Some of our first customers remain partners because we learn as much from their trials as they do from our plant. Detailed feedback on unusable lots, unexpected reactivity, or transport delays prompts us to trace, document, and improve every process. Sharing critical batch data (not just “pass/fail” summaries) allows research teams to make faster technical decisions. This two-way flow of knowledge and troubleshooting builds solutions that generic suppliers miss.
Loyalty grows not out of price, but out of months and years of overcoming recurring supply chain or production headaches together. The research goals of industrial, agrochemical, or pharmaceutical companies reward suppliers that deliver transparent, direct answers. Over the years, this exchange of experience has made our product uses broader and support infrastructure sharper.
Emerging fields like green chemistry demand more sustainable feedstocks and lower-waste processing. Our R&D team reviews hydrocarbon sourcing, catalyst recovery, and energy use for each round of N-Ethylmethylamine production. We evaluate shifts towards bio-based feedstocks, carbon reduction, and higher recycling rates. Several exploratory projects have provided closed-loop water systems and solvent recovery with positive results. These efforts keep our facility prepared and progressively lower the ecological cost of synthesis.
Some customers require more than a consistent product—they want help achieving greener processing or reducing total chemical footprint. Technical specialists and sustainability leads collaborate on reusing secondary streams, modifying reaction conditions to minimize hazardous remnants, and structuring documentation for new market regulations. Practical experience in process change helps us support customer ESG commitments with tested, not theoretical, solutions.
Years of hands-on troubleshooting guide us through the recurring issues from raw material bottlenecks to delivery delays. Chemists, engineers, and logistics coordinators work together to ensure each lot of N-Ethylmethylamine aligns with end user expectations. Shipping, storage, and documentation challenges emerge throughout the year, and our in-house team responds with practical adjustments informed by direct plant experience.
Customers succeed when their vendors approach each project as a long-term investment. Reliability, support, and straightforward transparency matter most—not just a standard specification sheet. Our plant’s continued evolution, attention to operational and environmental detail, and longstanding dialogue with the industry keep our N-Ethylmethylamine a dependable choice for any lab or production floor ready to take on new challenges.