|
HS Code |
386563 |
| Chemical Name | N-Ethyl-N-Cyanoethyl-M-Toluidine |
| Molecular Formula | C12H16N2 |
| Molecular Weight | 188.27 g/mol |
| Cas Number | 119851-53-9 |
| Appearance | Clear yellow to brown liquid |
| Boiling Point | 310°C (estimated) |
| Density | 1.01 g/cm3 (approx.) |
| Solubility | Slightly soluble in water; soluble in organic solvents |
| Flash Point | >100°C |
| Odor | Characteristic amine odor |
| Storage Conditions | Store in a cool, dry, well-ventilated area |
| Synonyms | N-Ethyl-N-(2-cyanoethyl)-3-methylaniline |
| Refractive Index | 1.549 (approx.) |
| Uses | Photoinitiator component, chemical intermediate |
As an accredited N-Ethyl-N-Cyanoethyl-M-Toluidine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 250g amber glass bottle with tamper-evident seal, labeled with chemical name, formula, hazard symbols, and manufacturer details for laboratory use. |
| Shipping | **Shipping Description for N-Ethyl-N-Cyanoethyl-M-Toluidine:** Ship in tightly closed, compatible containers under dry, well-ventilated conditions. Protect from heat, moisture, and direct sunlight. Label containers with chemical identity and hazard information. Transport according to local, national, and international regulations, observing any specific chemical or toxicological transportation requirements. Handle with appropriate personal protective equipment (PPE). |
| Storage | **N-Ethyl-N-Cyanoethyl-m-Toluidine** should be stored in a cool, dry, well-ventilated area away from sources of ignition and incompatible substances such as strong oxidizers. Keep container tightly closed when not in use. Avoid exposure to heat, sunlight, and moisture. Use approved containers and ensure proper labeling. Store under conditions recommended by the manufacturer or supplier for maximum stability and safety. |
Applications of N-Ethyl-N-Cyanoethyl-M-Toluidine in Industrial ManufacturingN-Ethyl-N-Cyanoethyl-M-Toluidine serves as a specialized intermediate in several industrial sectors, where its unique chemical properties support specific performance requirements and compliance needs. As a direct manufacturer, we supply this material precisely for integrations in regulated, quality-focused downstream production environments. 1. Photoinitiators for UV-Curable CoatingsThis raw material acts as a crucial amine co-initiator in high-performance photoinitiator systems for UV-curable coatings. Specialty coatings manufacturers select it for its ability to speed up radical polymerization on exposure to UV light. The specific amine structure supports rapid surface curing on plastics, wood, and metal substrates required in electronics, automotive, and floor coating segments. End-use performance depends heavily on batch purity, correct co-initiator ratio with benzophenone or similar photoinitiators, and stringent adherence to coating composition regulations. Our direct control of synthesis ensures consistent amine content and low residuals, meeting critical downstream formulation and QA requirements. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Polymerization Accelerator in Acrylate Adhesive SystemsMajor adhesive manufacturers rely on this intermediate as a select accelerator for radical polymerization in cyanoacrylate and acrylate adhesive formulations. It plays a pivotal role in achieving rapid set times and specific bond strengths required on multi-material joints. Used in assembly and repair adhesives for electronics, medical devices, and specialized engineering, batch-to-batch quality and trace low-amine byproducts are critical for regulatory submissions. Key clients carry out pre-qualification audits to ensure amine stability, color, and reactivity support repeatable downstream production. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Dye Intermediates for Specialty PigmentsThis amine derivative is widely used within dye and pigment synthesis for applications in plastics coloration and high-performance inkjet inks. As a coupling agent, it reacts with diazo components and other aromatic systems to form stable chromophores, delivering precise color shades and solvent resistance. Paint and ink majors specify a defined isomer content and control of trace impurities to ensure environmental compliance in downstream markets. Every batch undergoes multiple chromatographic tests to verify suitability for sensitive end-use applications, including narrow color targets and migration limits for packaging. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Electronic Chemical Intermediates in Liquid Crystal Display (LCD) ManufacturingLeading producers of liquid crystal materials employ this chemical as a functionalized amine building block in syntheses for advanced LCD compounds. Its selective introduction in multi-step reactions enables design of liquid crystal molecules with custom electro-optical response. Downstream LCD material suppliers request tight specification control, with attention to trace metal content, absence of halides, and moisture levels. All production and packing runs comply with electronics industry traceability and documentation protocols, ensuring end-use LCD performance and minimizing display artifact risks. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
|
Competitive N-Ethyl-N-Cyanoethyl-M-Toluidine 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!
N-Ethyl-N-Cyanoethyl-M-Toluidine, known among our team and long-term customers as ECMT, keeps finding new ground in specialty chemical manufacturing. We handle this compound from raw material selection to finished goods, drawing on years of first-hand production experience. Our direct relationship to every batch lets us keep a close eye on consistency in purity, defined by real-time onsite testing rather than just paperwork. Traditionally, many overlook the impact of ECMT’s unique combination of ethyl, cyanoethyl, and methyl functional groups, yet these features make it stand out in a way that matters to end-users. Our plant first developed commercial-scale synthesis of ECMT more than a decade ago, and since then, chemists and engineers at our facilities have fine-tuned every aspect, making small changes to improve yield, quality, and handling every year, often based on the practical needs we see from the floor of the factory or feedback we receive from downstream applications.
Our main ECMT product passes through a standard of quality control rooted in actual manufacturing experience, not just regulatory compliance. At the factory, we set the purity bar at a minimum of 99.5% by HPLC testing, measured not only at the end point but at multiple stages in the process. Color, habit, and granulation are evaluated in person. We know from years of shipment handling that free-flowing crystalline powder performs far better in downstream processing than any material showing lumps, dust, or retained moisture. Our facility runs tailored batch sizes — large enough for industrial polymer lines, small enough for boutique synthesis labs — but every batch gets recorded, examined visually, and sample-tested by our technical team before it goes out the door.
A standard batch typically carries a melting point in the neighborhood of 78–82°C and meets moisture tolerance of below 0.2%. We keep tight controls on metallic residue, targeting less than 10 ppm of iron or heavy metals, because electroplating and dye precursor applications show visible problems if those impurities creep higher. The molecular structure, with the methyl group on the meta position, delivers solubility advantages in various organic solvents compared to para- or ortho-substituted analogues. Engineers, chemists, and production workers alike see how this fine detail makes a difference in the day-to-day work at downstream user facilities.
In real-world applications, ECMT performs in places where other compounds hit their limits. We see customers running ECMT as a reducing agent in polymerization, parts of dye synthesis, and as a co-initiator in specialty photoinitiators. Instead of guessing about compatibility, our team regularly tests every production run for real solubility and reactivity in the solvents most customers actually use, such as DMF, DMSO, or certain esters. Feedback from paint and ink manufacturers led us to sharpen the control of amine content because even small swings in secondary amine yield can cause big differences in how products behave — especially for UV-cured systems where chain transfer steps matter.
Our experience also shows ECMT offers lower viscosity in solution than some close alternatives, which matters during bulk handling and feeding into reactors. Lower viscosity not only helps operators pump and stir the mixture, but also reduces caking, which has become a constant focus of our logistics team after several challenging winter shipments to northern regions. Because ECMT integrates into free-radical systems efficiently, users report fewer byproducts in the wash stage of dye manufacture. We’ve also collaborated directly with a group of plastics formulators working on advanced engineering polymers, who rely on the behavior of ECMT to drive clean, high-yield reactions at moderate temperatures, sidestepping the need for more extreme reaction conditions that cost time and money.
Drawing from hands-on production and operational data, ECMT outperforms more traditional aromatic amines or simple toluidine derivatives in a number of key respects. During our early years of producing similar compounds, we noticed manufacturing lines often struggled with batch-to-batch color variation, clumping, and impurities — most of these headaches were traced back to less refined intermediates that didn’t combine ethyl and cyanoethyl groups. Later, as we steered resources into analyzing downstream performance, ECMT always showed an edge in both color quality (especially in dye applications) and in preventing the unwanted formation of tarry byproducts.
Some customers originally sourced mono-ethylated or cyano-substituted toluidines from generic channels, but nearly every switch to ECMT brought reports of higher product stability and cleaner separation. We attribute much of that to the way our production-designed reaction sequence manages by-product minimization – a result of repeated process tweaks by our chemical engineering staff. For example, classic N-ethyl-m-toluidine often introduced extra reduction steps during downstream use, which both increased waste and sent the yield plummeting if not carefully managed. Adding the cyanoethyl function in the N-position changed the outcome, based not just on theoretical prediction but careful real-plant observation — less gumming up of filters, easier purification, more predictable reaction profiles.
Building a decade-long reputation with ECMT didn’t happen overnight or only by copying academic recipes from published journals. It has taken a series of focused process upgrades, including refining temperature controls during alkylation stages, and optimizing agitation to prevent side reactions. Several years back, we invested in live-monitored nitrogen blanketing to better prevent oxidation during reaction, driven by a series of customer complaints about minor color instability from earlier generations. The choice to introduce updated vacuum drying led directly to a drop in moisture and improved flow, changes quickly confirmed by our logistics and application teams who handle the product day in and day out.
We know customers count on every single batch matching up, not only for laboratory-scale evaluation but for warehouse-to-factory bulk supply chains. So, we catalog every run at the facility, matching key metrics for primary amine content and total nitrogen, a practice that we adopted after seeing how even tiny variances can cause big stability issues when ECMT is pressed into high-throughput industrial lines. Maintaining this traceable, reliable record is only possible by owning and operating our own plant, rather than buying and selling under a reseller’s name — this direct link is how we stand behind every shipment with real knowledge and confidence, not just paperwork.
Working at a chemical manufacturer means gaining daily knowledge about how to handle ECMT in practical settings. ECMT is a chemical that deserves respect but not fear. Our plant team wears the right gloves and eye protection, moves ECMT in sealed vessels or lined drums, and relies on good ventilation in the work area. There isn’t any place for shortcuts, especially with aromatic amine derivatives. Over the years, we’ve zeroed in on safe practices not because the law says so, but because we see the benefit directly: lower staff exposure, longer equipment life, and fewer downtime incidents.
On the environmental side, our waste-stream engineers have tested multiple post-processing clean-up methods, favoring activated carbon traps and closed-loop wash water recovery rather than open disposal. This helps us keep ECMT waste and trace emissions below regulatory reporting thresholds, but more importantly, it’s the right long-term move for our site, our team, and the community around us. We audit every load before shipment and take back feedback from customers on how the chemical behaves in their own systems, using that data to improve handling guidelines for everyone’s safety.
The technical support behind ECMT stands on years of answering real-world customer questions, from the simple to the arcane. Questions like “Why did my photoinitiator system suddenly stall?” or “What’s the most reliable solvent for making a consistent ink blend?” have come to our team every week. Because our team runs the plant and supports users, we can trace questions directly back to how the chemical is made. For example, in-house testing has identified the specific impurities that tend to remain after synthesis — usually minor alkylamine by-products or trace water — and our after-sales team can then advise users on how to remove or tolerate those in special applications.
If technical teams want to tweak curing speeds or optimize final appearance, our R&D department shares guidance based on actual test work using ECMT. This isn’t white-glove laboratory advice but hard-earned feedback from our own shop floors. We’ve found, for instance, that changing agitation speeds or order of ingredient addition often makes more impact than changing the grade of starting ECMT material; something only process-level production and operations teams can see up close.
Living through several years of disrupted supply chains changed the way we prepare and deliver ECMT. Direct production lets us put material on the road without relying on third-party blending or bulk repacking. We store and package ECMT in line with real-world delivery times and weather: foil-lined fiber drums for humid climates, double-bagged sacks for dry bulk buyers. Hot summer storage forced us to improve warehouse cooling, after seeing early batches clump or yellow under excess heat. In the past, high humidity during East Asian monsoon season created transit issues; we responded by switching to shipment schedules and packing protocols based on actual risk, not generic charts. We use desiccants and regularly pull samples on arrival to catch problems before they reach user hands.
Instead of pushing out maximum volumes, our operations staff weighs actual customer order data and historical trends, keeping batch sizes balanced to avoid both excess inventory and shortage risk. Sudden global price hikes for base chemicals in recent years did not force us to cut corners on ECMT quality or purity — our ownership of the process from drum to customer door lets us keep the product true to specification, without shortsighted cost savings that end up damaging trust. Feedback from buyers who switched away from trading firms showed they valued this continuity, especially as they faced tighter delivery windows and stricter plant audit requirements.
Innovation with ECMT comes not only from laboratory breakthroughs but also from lessons learned through plant-scale experience. Early in our journey, worker reports about yield drops during certain months led engineers to re-assess temperature and pressure settings, ultimately optimizing them for more stable output. Cross-departmental teams from R&D, production, and maintenance collaborate regularly, sharing insights from their daily work. Watching a batch precipitate too quickly, or finding unexpected byproducts after extended storage, often drives more meaningful innovation than anything coming from an offsite consultant. Put simply, those closest to actual production tend to see silent trends, spot subtle failures, and recognize workable solutions.
Feedback and troubleshooting stories from partner companies using ECMT in new applications — for example, a major shift in electronic-grade dye manufacture — tend to spark fresh process trials on our own line. This turns into tangible upgrades: better filtration setups, safer drum filling stations, or tightened humidity controls. Engineering staff regularly calibrate and test every sensor and reactor vessel, using both classic lab techniques and modern process analytics, to close the loop between user outcomes and manufacturing performance.
Our relationship with sustainability has grown closer as regulatory and market pressures have increased worldwide. Yet, our drive came less from outside push and more from witnessing increased worker satisfaction, lower accident rates, and rising customer trust when pollution claims are not an afterthought. In the early days, we struggled with water usage and minor solvent losses; we now employ closed-VOC capture, invest in process heating regeneration, and recycle packaging waste. ECMT’s pathway generates fewer volatile compounds than most analogues, largely due to how we have staged the reaction sequences. Our chemical process team has audited every input since our internal green chemistry program started.
Responsible handling makes production safer and less costly over time. We see long-term customers return, even during market downturns, because the product works and the environmental risks remain controlled. Partnering with local authorities and community groups for air and water monitoring has brought practical improvements and built trust beyond simple paperwork compliance.
No batch of ECMT leaves our facility based on a fixed recipe alone. We review customer feedback and laboratory trial reports, using them to tune synthesis runs and post-processing protocols. For users who want specific solubility in a hard-to-handle solvent or stability at higher temperature, we apply in-plant process adjustments. Product customization is a direct outcome of our practical exposure to the wide range of industries served — from ink makers pushing for sharper images, to plastics formulators chasing improved polymer characteristics.
Modifying reaction time, temperature, or purification technique led us, over time, to create small but meaningful variations in ECMT properties that matter to real users. Instead of batch-to-batch unpredictability, this custom approach delivers both trust and improved performance in actual industrial settings. Iterative improvement, not one-off changes, remains the core of how we upgrade our product based on lived experience.
The success of our ECMT comes from refusing to accept “good enough.” Our operations team maintains an open channel with buyers, inviting both criticism and suggestions. Product is sent out with attached lot data and impurity profiles, directly matching the production records that trace every container back to the original reaction batch. If something does not fit the bill — whether it’s a color specification, a melting point, or a handling property important downstream — our technical teams take that input seriously, conducting root-cause analysis and adjusting future production.
Most importantly, we see our relationship with customers and end-users as a partnership built on trust, not just contracts. Many of our partners have sent their own technical teams to our site, sharing real-world problems and working on live solutions, not simply passing product through warehouses. Our own standards come from seeing the benefits of these partnerships — lower complaint rates, more successful end products, and the long-term repeat business that sustains honest manufacturing in the face of shifting chemical markets.
As the original manufacturer, we take pride in knowing every drum, sack, and bag of ECMT represents a blend of chemical understanding and hands-on factory know-how. This attention to detail, and the direct flow of learning from production floor to product, gives our ECMT an edge in practical reliability. Companies that value predictable results in dyes, polymers, or advanced manufacturing see the difference — not only in the technical data, but in the smoother runs, reduced rework, and consistent color or performance characteristics they experience with every order.
Real improvement, in our world, comes not from clever marketing or empty claims, but from doing the basic things right, every day, for years. Owning the manufacturing process and working closely with users gives us the perspective to keep our ECMT among the most trusted choices on the market, benefitting from both learned experience and open lines of communication. That’s the difference direct manufacturing makes — and the reason we stand by every bag and drum we produce, ready to answer questions and solve new challenges that come our way.