|
HS Code |
936283 |
| Chemical Name | N-Cyanoethyl-N-Methylaniline |
| Cas Number | 2227-19-4 |
| Molecular Formula | C10H12N2 |
| Molecular Weight | 160.22 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Boiling Point | 170-175°C (14 mmHg) |
| Density | 1.03 g/cm3 (at 25°C) |
| Refractive Index | 1.562 (20°C) |
| Solubility | Insoluble in water; soluble in organic solvents |
| Flash Point | 108°C |
| Purity | Typically ≥98% |
| Smiles | CCN(CC#N)C1=CC=CC=C1 |
| Ec Number | 218-760-5 |
| Storage Temperature | 2-8°C |
| Synonyms | N-(2-Cyanoethyl)-N-methylaniline |
As an accredited N-Cyanoethyl-N-Methylaniline factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 500g N-Cyanoethyl-N-Methylaniline is supplied in a sealed amber glass bottle with tamper-evident cap and clear hazard labeling. |
| Shipping | N-Cyanoethyl-N-Methylaniline should be shipped in tightly sealed containers, protected from moisture and direct sunlight. Ensure proper labeling as a potentially hazardous chemical. Comply with local and international shipping regulations, including UN/IMDG/IATA guidelines. Use appropriate cushioning and secondary packaging to prevent leakage or breakage during transit. Store and transport at ambient temperature. |
| Storage | N-Cyanoethyl-N-Methylaniline should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area, away from sources of heat, flame, and direct sunlight. Keep away from incompatible substances such as strong oxidizers and acids. Clearly label the storage container, and ensure appropriate secondary containment to prevent spills. Use only in designated chemical storage areas. |
Applications of N-Cyanoethyl-N-Methylaniline in Industrial ManufacturingN-Cyanoethyl-N-Methylaniline plays a pivotal role as a specialty intermediate in advanced chemical synthesis, where downstream manufacturers require precise functional group transformation, controlled reactivity, and specific molecular architecture. The following sections present its established industrial applications, with each scenario detailing unique compliance obligations, formulation parameters, process points, and end product categories. 1. Production of Disperse Dyes for Polyester FabricsLeading textile chemical producers employ N-Cyanoethyl-N-Methylaniline as a precursor in the development of high-performance yellow and orange disperse dyes, particularly for dyeing polyester fiber. The aromatic amine structure forms the substrate for azo coupling and subsequent fine-tuning of chromophore profiles. Downstream integration demands careful control of purity to limit side reactions during dye synthesis and optimize shade strength and fastness on synthetic substrates. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Synthesis of Pharmaceutical Intermediates (Antihistamine APIs)Pharmaceutical fine chemical plants utilize this compound to build side-chain structures for key active substances, notably in the upstream stages of several antihistamine drug families. Its cyanoethylated aromatic template provides a critical starting unit for controlled hydrogenation or oxidation, supporting precise molecular tailoring under cGMP environments for regulated drug synthesis pathways. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Manufacturing of Organic Pigments for Printing InksProducers of high-grade printing inks adopt this specialty aromatic amine as a key building block in the synthesis of certain monoazo organic pigments, which provide vivid yellow and red coloration for packaging, publication, and specialty industrial prints. Here, precise management of amine substitution ensures batch-to-batch chroma performance and maintains low toxicity and migration profiles in line with global printing regulations. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Synthesis of Specialty Agrochemical IntermediatesAgrochemical manufacturers utilize this aromatic intermediate during the fabrication of selective herbicide and pesticide molecules, particularly where cyanoethylation modulates electronic features for biological targeting. Stringent process validation and impurity control are essential, given the impact on environmental fate and crop safety profiles required for global regulatory submissions. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
5. Electronic Chemicals for Liquid Crystal Monomer SynthesisIn the specialty electronics sector, manufacturers harness the unique electronic profile of this compound to introduce targeted side chains in liquid crystal monomer synthesis for advanced display panels. Rigor in trace contaminant removal and process stability is required to maintain electrical and optical consistency in downstream thin-film and polymer-dispersed liquid crystal (PDLC) assemblies. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
6. Synthesis of UV-Absorber and Light-Stabilizer IntermediatesManufacturers of polymer additives integrate this molecule into the preparative synthesis of certain UV-absorbers and light stabilizers, primarily for polyolefin and engineering plastics. The cyanoethyl and methyl functionalities help tailor absorption peaks, enhancing product durability for outdoor and automotive plastic applications. High-purity input mitigates carry-over of chromogenic impurities that can compromise finished part transparency or hue. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
|
Competitive N-Cyanoethyl-N-Methylaniline prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please call us at +8615371019725 or mail to admin@sinochem-nanjing.com.
We will respond to you as soon as possible.
Tel: +8615371019725
Email: admin@sinochem-nanjing.com
Flexible payment, competitive price, premium service - Inquire now!
In labs and plants across the globe, N-Cyanoethyl-N-Methylaniline, often recognized under its CAS number 3576-64-5, keeps showing up for a reason. We have spent decades honing our process, so the bottles that leave our facility hold what they should—no more, no less. Consistency in chemistry counts, and every kilo, drum, or container stands for our ability to meet purity benchmarks and batch-to-batch repeatability.
Unlike commodity chemicals that see a dozen intermediaries, we run the actual reactors, monitor each stage, and govern conditions ourselves. Real traceability starts at raw material selection and ends with the data in your quality report. Industries—dyes, pharmaceuticals, polymers, and specialty coatings—tap into our output for this reason. The feedback we get is direct: if downstream reactions go sideways, folks call us, not a third party. We listen, investigate, and adjust.
Practicality guides our specifications. The product carries a main assay level exceeding 99%, measured by validated HPLC analytical routines. Water content stays below 0.5%, and we fix low levels of residual starting amines before our QC team signs off. GC trace impurities fall well within limits, usually less than 0.2% for similar aniline structures. Appearance matters in real production, so our solvent-free, homogenous liquid—clear to light yellow—avoids finicky handling or dosing issues that crop up with more viscous competitors or off-spec shipments.
Heat stability matters less in the technical literature, but in scale-up, exotherms and polymerization risks can catch up quickly. Controlled temperature profiles during synthesis and strict atmospheric separation prevent runaway side reactions. Over the years, we’ve invested in better inerting, plus in-line monitoring. These steps shield against byproduct formation, maintain shelf life, and avoid haze or discoloration from oxidized impurities.
You won’t find N-Cyanoethyl-N-Methylaniline on consumer shelves, yet it plays a background role in products people use every day. In active pharmaceutical synthesis, it bridges biaryl amines with cyanoethyl groups, helping create molecules where stability, reactivity, and solubility all matter. We work directly with R&D teams to align reactivity specs with their catalytic cycles or functionalization pathways. Any deviation in basicity or water content, even by a percent or two, can derail hours of high-value work.
Polymer producers seek out this intermediate when targeting specific chain end groups, dye compatibility, or solubility profiles. In dye precursor work, buyers stay cautious after cheap imports have tripped up large batches with impurities like o-toluidine or aniline. We guarantee low aniline background, a hard-won lesson from old production lines. Purity claims only mean something when production groups run controlled syntheses, so we make documentation part of the shipment, not an afterthought.
In coatings chemistry, shelf stability and compatibility with hardeners directly link to trace impurities. Customers adjusting gloss, adhesion, or color clarity depend on impurity-free lots and a reliable supply. Years back, an unplanned change in upstream raw material led to a batch with higher byproduct carryover. That event drove us to install a double stage distillation step, raising our output quality so repeat incidents didn’t return.
Plenty of amine intermediates populate catalogs worldwide. The cyanoethyl substitution here brings something unique: a fine balance of electronic tuning and reduced volatility, compared to methyl or ethyl anilines that often evaporate or degrade faster on the shelf. Chemists needing robust intermediates for nucleophilic substitutions or catalytic couplings appreciate the predictability of N-Cyanoethyl-N-Methylaniline. Alkyl analogs without the cyano group frequently fail to deliver the same reactivity; at the same time, over-substitution makes for harder handling and cleaning. We stick to this structure as it outperforms in key steps, especially where batch yields and downstream crystallizations count.
Over the years, some buyers tried to replace this compound with cheaper amines in certain dye or pharmaceutical syntheses. Those runs often landed back with us, after batch yields slipped or unexpected tars showed up in reactors. It’s one thing to claim interchangeability on paper, but every experienced process chemist knows the cost and risk of contaminated output. We train our sales and technical teams to walk through the real chemistry with clients before suggesting substitutes. Moving to a different intermediate sometimes makes sense, but almost always needs a measured pilot study and risk overview.
Product evolution doesn’t happen in a vacuum. Some of our earliest output had a wider impurity profile, with slightly higher color and background odor—details most resellers ignore. Direct feedback from pharmaceutical process engineers led us to rework purification, step up solvent recovery, and shave off trace amines missed in early rounds. One vivid case: A dye customer flagged interference in final chromophore coupling. Joint work between their analytical team and ours honed in on a neglected fraction. By modifying the temperature oscillation range and switching to custom distillation columns, we managed to cut that impurity in half, adding value for every downstream user.
Regulatory pressure rises every year. European REACH, US EPA, and global compliance targets all place tighter view on manufacturing emissions, traceability, and lot documentation. As the original producer, we never rely on someone else’s paperwork. We archive synthesis, purification, and HPLC data for every lot. Any user needing proof for audits or supply chain traceability gets direct chain-of-custody records. The knock-on effect: Fewer shutdowns, less risk of banned impurities, and more smooth regulatory audits for everyone down the line.
A lot happens once trucks roll out. Bulk users confront real-world headaches—fouled lines, pump issues, off odors, and performance drops fed by hidden byproducts. After losing a major batch in the early 2010s due to seals degrading from an overlooked trace impurity, we set up joint troubleshooting with the affected plant. By running a full spectrum impurity profile and overhauling our cleaning sequence, we slashed risks of recurrence and found that better temperature control in transport and transfer minimized crystallization problems.
Another issue surfaced with a polymer producer. Their reactive extrusion lines gummed up with byproduct build, even though specs looked fine on the certificate. We ran side-by-side trials using a batch from their back-up source and our own material. The contrast in purity and process downtime spoke for itself. Follow-up process audits pinpointed tiny impurity differences as the trigger. After that, we installed in-process impurity mapping and now routinely provide supporting chromatograms and impurity tables on request.
Every chemical comes with its own risks—this one no different. Low volatility means lower inhalation risk, but proper PPE and smart ventilation remain standard practice in our own and customers’ facilities. TA-Luft and OSHA substance thresholds inform our plant procedures. Loading lines use closed pumping and thoroughly vented transfer systems, lowering spill and vaporization incidents for everyone involved.
Incidents are rare with solid safety protocol, but we remain vigilant. One slip—an unsealed drum on a humid day—demonstrated how even a small deviation can impact not just product shelf life, but the daily well-being of staff handling it. Retraining and upgrades followed, reflecting our approach: minimize risk not by just meeting the standard, but by exceeding it through plant design and recurring staff education. These lessons move downstream; every product shipment includes up-to-date handling best practices, informed directly by our in-house experience rather than recycled safety boilerplate.
We have faced louder questions each season on the full impact of our processes. Carbon footprint, resource use, solvent recovery, water discharge—all factor into how we design, run, and improve the plant. Steps toward greener production built up yearly, not overnight. Real resource recovery runs through our solvent recycling unit, cutting virgin input by over half since 2016. Wastewater that once needed off-site treatment now exits cleaner due to on-site biological treatment. Each innovation came in response to supply chain partners and clients who read—not just trust—our environmental data.
Even simple switchovers, like phasing out a single chlorinated solvent upstream, took serious investment in new containment and hazard training programs. By cutting one solvent from cleaning, we trimmed emissions and improved the safety record in short order. That transparency goes straight into updated shipment disclosures, not buried beneath layers of documentation. Downstream buyers can reference these changes during their own audits and integrate our sustainable practices in their own reporting.
Supply disruptions travel fast, especially for chemistry that drives high-value sectors like pharmaceuticals and advanced coatings. Market chatter often focuses on spot pricing, rapid lead times, and availability, yet nobody talks enough about the risk from inconsistent manufacture, lax data, or hand-off from multiple traders. Buyers come to us directly because they want to resolve issues without running the gauntlet of resellers and brokers.
One story that sticks: A partner ran into a counterfeited shipment sourced from a shadow distributor. Their distress didn’t stop at production loss—their brand reputation was on the line. We stepped in, supplying verified lots, shared full batch records, and supervised on-site analysis. Over time, partnerships like these shift from transactional supply back to real chemical manufacturing relationships, centering on problem-solving, not just cost-per-kilo.
Synthetic pathways, reaction kinetics, impurity removal, and logistics—these aren’t abstract concepts for us. We navigate them daily, learning from every cycle run and every kilo shipped. No distributor or catalog house can offer the same depth. Our lab and plant teams pass down hard-won experience, from early process upsets to robust troubleshooting stories that guide the next generation of chemists on our bench.
N-Cyanoethyl-N-Methylaniline keeps its place not just for its molecular function, but because of the real-world understanding built around its use. Buyers seeking a reliable supply know they’re dealing with a team that stands by each shipment with practical advice and thorough data. As regulations evolve, production scales rise, and market needs shift, we’re ready to adapt—drawing on years spent at the reactor, not behind a sales desk.
Today’s chemical market remains anything but static. Regulatory authorities ask more, customers demand tighter specs, and end markets push traces limits ever lower. Having full control over our process lets us answer these shifts, sometimes before market pressure lands in public view. We keep direct contact with technical teams in coatings, pharma, and dyehouses to keep specs aligned and avoid scrambles for reformulation.
On the compliance front, we update registrations with real synthesis data, not recycled paperwork. This commitment enables smooth audits and less compliance hassle for everyone relying on our output. Tightening global compliance has weeded out non-transparent operators, making it even more important for buyers to draw from directly accountable supply channels.
N-Cyanoethyl-N-Methylaniline doesn’t need a glitzy introduction. Its power comes from reliability in practice: a clean, controlled synthesis route, transparency around every batch, and clear communication during supply or application challenges. Direct relationships help resolve questions about reactivity, storage, or compatibility quickly, with no runaround.
Our way forward comes from sticking close to the real chemistry, not sales trends. As demand moves and applications widen, we keep listening to every user—factories, formulators, application teams. Every complaint, shutdown, or success story goes back to our plant teams, pushing further improvements and keeping trust locked in for the long haul.