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N,N-Dimethylethylamine

    • Product Name N,N-Dimethylethylamine
    • Alias Ethyl dimethylamine
    • Einecs 203-689-4
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
    VTB
    Specifications

    HS Code

    947898

    Chemicalname N,N-Dimethylethylamine
    Casnumber 598-56-1
    Molecularformula C4H11N
    Molecularweight 73.14 g/mol
    Appearance Colorless liquid
    Odor Amine-like
    Boilingpoint 62-63 °C
    Meltingpoint -93 °C
    Density 0.708 g/cm³ (20 °C)
    Solubilityinwater Miscible
    Flashpoint -8 °C (closed cup)
    Vaporpressure 279 mmHg (25 °C)
    Refractiveindex 1.382 (20 °C)

    As an accredited N,N-Dimethylethylamine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing 1-liter amber glass bottle with secure screw cap; labeled “N,N-Dimethylethylamine, 99%,” hazard symbols, batch number, and manufacturer details.
    Shipping N,N-Dimethylethylamine must be shipped as a flammable liquid, following UN 2378 regulations. Use approved containers with secure closures, properly labeled as hazardous material. Ensure ventilation, keep away from heat and ignition sources, and follow all DOT and IATA shipping guidelines. Personnel handling the chemical must wear appropriate protective equipment.
    Storage N,N-Dimethylethylamine should be stored in a cool, dry, and well-ventilated area, away from sources of ignition, heat, and direct sunlight. Keep the container tightly closed and properly labeled. Store separately from oxidizing agents, acids, and halogens. Use appropriate chemical-resistant containers to prevent leaks and evaporation, and ensure access to spill containment measures and emergency eyewash stations.
    Application of N,N-Dimethylethylamine

    Applications of N,N-Dimethylethylamine in Industrial Manufacturing

    N,N-Dimethylethylamine (DMEA) serves as a specialized intermediate and catalyst in a range of high-performance industrial processing scenarios. As the direct manufacturer, we recognize its critical contributions to various downstream production chains that require tight control of chemical reaction profiles, compliance with stringent standards, and targeted performance in the final products. The following sections outline established, scale-up proven industrial applications and the key operational parameters relevant for each sector.

    1. Polyurethane Foam Production (Flexible and Rigid)

    Major global manufacturers rely on DMEA primarily as an amine-based catalyst for the controlled foaming reaction in both flexible and rigid polyurethane foam production, driving precise polymer architecture and cellular structure. Its specific role centers on promoting the isocyanate-blowing reaction, facilitating desired cure times under automated lamination or mold-line processes. As a result, DMEA’s usage directly affects physical properties such as firmness, insulation, and resilience in the final foam products.

    Industry compliance standards

    • REACH (EC 1907/2006, Europe)
    • RoHS Directive 2011/65/EU (for electrical insulation foams)
    • GB/T 38313 (Polyurethane foam standard, China)
    • UL 94 (Horizontal/vertical flammability test)

    Typical usage ratio

    • 0.05%–0.25% by total foam formulation weight; precise ratio depends on isocyanate index, ambient temperature, and reactivity profile of polyol blend.

    Downstream process integration

    • Dosed during resin premixing or metering directly into the isocyanate-polyol blend prior to foaming. Added via automated dosing systems in continuous block lines and discontinuous mold processes.

    Final product types

    • Furniture cushioning foam
    • Automotive interior foams (seat pads, headliners)
    • Rigid insulation panels
    • Refrigeration appliance foams

    2. Epoxy Resin Curing Agents and Accelerators

    DMEA finds targeted application as a co-catalyst and accelerator in the curing system for two-component epoxy resin systems where controlled polymer cross-linking and short cure times are critical. Industrial users incorporate it in manufacturing coatings, adhesives, and composites, where fast throughput and low residual amine contents are essential for safety and final performance. This application strictly conforms to regional chemical controls and product use specifications according to end-user segments such as electronics or construction.

    Industry compliance standards

    • EN 1504-2 (Surface protection systems for concrete)
    • ISO 9001 (Quality Management in composites manufacturing)
    • TSCA (Toxic Substances Control Act, USA)
    • ASTM D638 (Resin mechanical property testing)

    Typical usage ratio

    • 0.1%–1.0% relative to the total resin mass, with adjustment based on specific cure speeds, thermal profile, and desired pot life of formulated system.

    Downstream process integration

    • Introduced into hardener component prior to final mixing; incorporated in prebatch operations of resin manufacturers or added at point of use during automated dispensing in production lines (for coatings, circuit boards, adhesives).

    Final product types

    • Protective floor coatings
    • Adhesives for electronics assembly
    • Fiber-reinforced polymer composites
    • Engineering grout and tooling resins

    3. Water Treatment Chemical Synthesis (Amine Quaternization)

    Manufacturers use DMEA as a core alkylamine intermediate for synthesizing quaternary ammonium compounds essential in water treatment formulations, particularly in scale and corrosion inhibitors and specialty biocides. Production adheres to environmental and food-contact safety regulations, ensuring downstream chemicals meet the specifications required for potable water treatment and industrial recirculating systems.

    Industry compliance standards

    • NSF/ANSI Standard 60 (Drinking Water Treatment Chemicals)
    • EU Biocidal Products Regulation (BPR, Regulation (EU) 528/2012)
    • China GB 5749 (Standard for Drinking Water Quality)
    • ISO 14001 (Environmental management systems)

    Typical usage ratio

    • Mass ratio of 0.8–1.2:1 (DMEA:alkylating agent) for quaternization; adjusted according to molar balance and target purity requirements for different water treatment actives.

    Downstream process integration

    • Feeds directly into alkylation or quaternization reactors. Process controlled with in-line monitoring of pH, temperature, and residual amine content to satisfy downstream purity.

    Final product types

    • Quaternary ammonium scale inhibitors
    • Biocidal blends for cooling towers
    • Corrosion inhibitor concentrates
    • Potable water treatment formulations

    4. Pharmaceuticals Intermediate for Local Anesthetics and APIs

    DMEA functions as a key intermediate in the synthesis of selected active pharmaceutical ingredients (API), notably in the preparation of local anesthetics and specific tertiary amine-containing molecules. Pharmaceutical producers must stringently track sourcing, batch-traceability, and handle production under auditable good manufacturing practice, especially where end-use ties into regulated prescription or injectable drug products.

    Industry compliance standards

    • ICH Q7 (GMP for APIs)
    • United States Pharmacopeia (USP)
    • European Pharmacopoeia (Ph. Eur.)
    • Chinese Pharmacopoeia (ChP)

    Typical usage ratio

    • Equimolar to the target API precursor; adjusted to match batch stoichiometry and minimize impurities in downstream synthesis.

    Downstream process integration

    • Reacted in multi-step synthesis of anesthetic active compounds or auxiliary agents, with intermediate isolation, purification, and characterization monitored at each step.

    Final product types

    • Local anesthetic APIs (e.g., lidocaine intermediates)
    • Tertiary amine-containing APIs
    • Pharmaceutical grade intermediates for bulk synthesis
    • Injectable drug formulations

    5. Foundry Industry—Catalyst for Cold-Box and No-Bake Resin Systems

    DMEA sees targeted use as a vapor-phase catalyst in the foundry sector, driving rapid and uniform curing reactions in cold-box and no-bake sand resin systems. The chemical offers manufacturers controlled gas evolution and mold stability, which are essential for defect-free core and mold production used in high-volume metal casting processes, where operational safety and compliance with emission controls are prioritized.

    Industry compliance standards

    • EN 13710 (Foundry sand preparation)
    • ISO 14001 (Environmental control for emissions)
    • Federal OSHA standards (emissions, USA)
    • JIS G 5905 (Japanese standard for casting sand chemicals)

    Typical usage ratio

    • Introduced at 0.08%–0.2% by sand-resin mixture weight; dosage controlled by sand grain size, environmental humidity, and desired curing speeds.

    Downstream process integration

    • Injected into sand core and mold setups via vapor-phase dosing equipment or mixed into sand-resin blend ahead of molding; timing and exposure closely monitored for uniform curing.

    Final product types

    • Engine block casting cores
    • Industrial pump body cores
    • Automotive casting molds
    • Precision foundry sand cores

    6. Gas Sweetening (Acid Gas Removal)

    DMEA has a specialized application as a tertiary amine component in gas sweetening processes employed by petrochemical and gas-processing industries. Its chemical properties support selective removal of acid gases—such as hydrogen sulfide (H₂S) and carbon dioxide (CO₂)—from natural gas or process steams, with design parameters driven by national safety codes, emission mandates, and downstream fuel/gas quality requirements.

    Industry compliance standards

    • API RP 521 (Pressure-relieving and depressurizing systems)
    • ISO 23251 (Petroleum and natural gas industries - Safety)
    • U.S. EPA Clean Air Act Section 112 (Emissions control)
    • GB 50156-2012 (Chinese code for gaseous fuel)

    Typical usage ratio

    • Blend ratio from 5% to 30% in mixed amine solutions; percentage selected based on gas composition, amine system type, absorption requirements, and temperature/pressure design.

    Downstream process integration

    • Injected into gas absorption units alongside other amines, typically in closed-loop system with online monitoring for amine loading, solution loss, and regeneration efficacy.

    Final product types

    • Refined natural gas (pipeline grade)
    • Ultra-low sulfur fuel gases
    • Feed gas for LNG/chemical processes
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    Certification & Compliance
    More Introduction

    N,N-Dimethylethylamine: Upstream Experience and Real-World Performance

    Back to Basics: What N,N-Dimethylethylamine Brings to the Table

    Every batch of N,N-Dimethylethylamine that comes off our line arrives with more than just a name and a purity number. In our operations, this compound—known in the lab as Dimethylethylamine or DMEA—shows clear value, especially in the form we produce: a transparent, low-viscosity liquid with a reliable boiling point and well-controlled moisture content. We stick to the tightest purity ranges because downstream yields depend on it, whether the end use is as a catalyst or an intermediate.

    Getting Familiar with DMEA: From Synthesis to Final Application

    For seasoned operators, DMEA’s punch comes from its role as a tertiary amine—one of the workhorses behind polymerization, gas treatment, and other chemical processes. In house, we stay out of textbook generalities and focus on hands-on know-how. Amine quality affects reactivity and emissions. Low color and controlled impurity levels can shave hours off troubleshooting time, and a stable product stream keeps unplanned shutdowns to a minimum. Our process minimizes secondary impurities including diethylmethylamine and keeps water and non-volatile residue well below tolerance so the material meets strict downstream requirements with as little noise as possible.

    DMEA in Polyurethane Foam: More Than a Catalyst

    In polyurethane foam, DMEA stands out as a blowing catalyst. Operators favor it for flexible foam production, high resilience slabs, and semi-rigid systems because of its balance between reactivity and handling. We've seen first-hand that minor changes in tertiary amine blend ratios change foam cell structure and physical properties. DMEA’s volatility calls for precise feed rates, but with tight distillation cut points and storage protocol, our material helps downstream processes avoid odor carryover and fogging in automotive interiors. Experienced users have learned that not every amine behaves the same in foam lines: DMEA, unlike triethylamine or N-methylmorpholine, provides a more moderate push on blowing vs. gelling, making it a favorite in low-density formulations.

    Comparing DMEA: Not All Amines Go the Same Distance

    Customers sometimes ask why DMEA over TEA or DMAPA. Years on the production floor have taught us the pros and cons aren’t just on paper. DMEA gives a consistent catalytic effect for CO2 formation during reaction, whereas with stronger gelling amines, you can tip the balance toward hard, brittle foam. DMEA’s moderate vapor pressure simplifies metering compared to lighter amines, especially when systems need a specific start time for cell opening. When direct substitution is attempted, you’ll see shifts in expansion profile and curing speed—the consequences show up right away. From polyether to polyester-based formulas, any variance in amine structure changes everything from dimensional stability to emissions profile. Where dimensional tolerances matter—seating, mattresses, panels—having DMEA allows tighter process control than older blends where fluctuations caused downstream rejections.

    The Manufacturing Edge: From Feedstock to Finished Product

    Throughout production, the choice of feedstocks—ethyl chloride and dimethylamine—affects both yield and impurity spectrum. Our reactors allow us to fine-tune residence times and separation stages. Every campaign, operators monitor impurity drift, keep columns aligned, and focus on batch homogeneity. After years of feedback, we’ve tightened filtration and nitrogen blanketing protocols to prevent shipping headaches caused by oxidation or water pickup. Once loaded, drums or ISO tanks get tracked every step to ensure the right product lands at the right dock, with batch-level documentation available to the technical teams who rely on real traceability.

    Chasing Purity: Too Much or Too Little?

    Technical teams push for purity, but not every application benefits from the same approach. In water treatment or gas sweetening, slight impurity loads might fly. In high-resistance polyurethane systems or electronics-grade applications, even a single ppm deviation in secondary amines can cause issues. From our vantage point, knowing the process’s real tolerances helps maximize production efficiency. If a customer needs a tighter spec, we rework cuts and monitor the process for drift. Skip the guesswork: customer visits to our plant go far in proving that amines are not all built the same—real-life performance follows the detail behind the scenes.

    Material Handling: Keeping the Product in Check

    Every plant manager worries about odor and loss during transfer. DMEA’s volatility puts pressure on maintenance routines, vent containment, and pump seals. Pipework needs regular checks to minimize leaks and keep operator exposure in the low single digits. Drum labelling and tank cleaning matter—if lines share other amines, even a sliver of residue can change downstream color, smell, or reactivity. Over the years, automation and closed-loop systems have helped minimize handling losses. Waste streams and offspec batches get routed efficiently thanks to on-site distillation and scrubbing.

    Regulatory and Market Movement: Reading Between the Lines

    Any operator in the amines sector has seen safety standards tighten and audit requests rise. DMEA draws attention because of its odor and volatility, calling for proper storage and transport controls. Beyond the minimum, modern buyers come asking for background: source of feedstocks, emissions during production, and assurance that operating staff are trained for rapid response. Auditors focus on venting, containment, emergency protocols, and batch verification. Over the past few years, we have overhauled documentation and reporting to stay ahead of requirements, not just because certification requires it, but because exporting through multiple ports means running the gauntlet across jurisdictions.

    Supply Chain and Storage: Lessons From the Field

    Extended transit adds risk, especially for a volatile compound like DMEA. Experience shows that minimizing temperature swings keeps drums from bulging and seals from leaking. Bulk facilities require lined tanks and early detection of pressure build-up. Our team focuses on insulation, vapor recovery, stable inventory routines, and periodic tank integrity checks. Missed maintenance shows itself through off-odors or color drift on receipt—not a theory but a lesson reinforced by more than one customer audit over the years.

    End-User Challenges: Application Insights Direct from the Shop Floor

    DMEA’s performance in real-world manufacturing lies in how cleanly it runs: fast mixing, expected expansion, no fouling or clumping in the pumps. Where previous generation products gave off-notes or left color streaks, clean DMEA means less downtime and less manual sorting. Polyurethane operators comment most about reduced scrap rates and fewer line stoppages since switching to amine blends made with high-grade DMEA. Others, especially in the coatings and textile sectors, appreciate its reliability and the lack of non-volatile residues that can gunk up equipment or disrupt final curing profiles.

    Health and Worker Concerns: Balancing Safety With Productivity

    Every kilo shipped receives the same emphasis on workplace safety. DMEA’s low flash point and sharp odor mean everyone on the floor wears full PPE, monitors air, and keeps spill kits in reach. Decades of production have refined quick clean-up routines, ventilated storage bays, and regular training updates for all crew involved in handling. No matter the advancements, staff feedback keeps us improving—if a valve starts to drip or a gasket needs an upgrade, the change comes from those who see the process every day, not just head office. This approach builds a safer, more reliable operation, and trust that every load going out meets our own standards before it even reaches the customer.

    Comparative Utility Beyond the Mainstream

    Many operators have experience with standard amines like trimethylamine, triethylamine, or dimethylbenzylamine. Each brings its own flavor of reactivity, handling requirements, and price point. DMEA’s edge lies in its sweet spot between volatility and activity: enough to push polymerization forward at the right pace, but stable enough for day-to-day handling and long-haul shipping without constant headaches. Unlike ultra-light amines, there’s less risk of vapor cloud build-up under typical shop conditions. This removes some major obstacles when plants operate around the clock and can’t shoulder the cost of lost batches or line evacuations.

    Process Flexibility: Working With a Broad Range of Chemistries

    DMEA finds a place in diverse chemistries, from foundry resins to corrosion inhibitors, gas treating, and water treatment. Some use it as a pH regulator, others as a catalyst during polymeric resin manufacture. Its compatibility with isocyanate and polyol systems allows for responsive fine-tuning of start time, expansion rate, and curing. Our continuous testing alongside customer feedback underscores that switchovers from that blend of other amines to DMEA almost always lead to greater reliability, so process engineers say fewer troubleshooting hours and steadier output. Every application presents its challenges—what works for insulation panels may need a major tweak for high-resilience automotive seats, and that's where real-world experience trumps any technical paper.

    Upgrading Standards Through Feedback Loops

    Customer questions drive our operations. Over years of partnership, process bottlenecks and application tweaks push us to revisit distillation parameters, update filtration routines, or even adjust batch segmentation for tighter tracking. As solvent and regulatory profiles evolve, we pay close attention to shifting demand curves and emerging environmental protocols. DMEA doesn’t sit alone on the product shelf—it's evaluated against new-generation catalysts and evolving process aids, and customer data plays a direct role in steering modifications. In practice, plant-level conversations shape everything from the shipping drum design to analytic testing, reinforcing that theory doesn’t always translate one-to-one into practice.

    Environmental and Sustainability Pressures: Cutting Through Greenwash

    Switching to process-integrated recovery keeps more solvent and amine out of waste streams. Years ago, offgas wasn't captured—now, vapor recovery not only saves money but cuts down regulatory risk. Our investment in energy-efficient distillation means each DMEA run leaves a smaller carbon footprint. In plant meetings, the shift tends to be pragmatic: less solvent loss, reduced energy bills, lower risk of regulatory blowback. These moves aren't just for a badge on the homepage—they show up as fewer compliance issues, higher return rates, and stronger supplier relationships.

    Supply Assurance: What it Really Takes

    Customers in emergencies always ask for a guarantee, but assurance comes from more than paperwork. Stable staffing, on-site spare parts, and routine scenario drills make the difference in a pinch. More than once, real-time messaging and after-hours team calls kept an urgent tank or shipment from stalling. As a manufacturer, access to real data—pressure readings, impurity logs, live inventory stats—makes it possible to respond with facts, not hope. Hands-on contingency protocols, built from years of experience, mean a confirmed batch release at 3 AM isn’t wishful thinking but just part of the job. Supplying DMEA isn’t transactional—it’s the result of operational discipline and a focus on long-haul partnerships.

    Technical Support and Continuous Learning

    For every call about performance or compatibility, we offer decades of on-floor testing and troubleshooting. Some challenges show up the first day—a subtle color drift, an unexpected foam profile shift. These aren’t “after sales” issues to us. Every incident refines our upstream protocols, prompts technical adjustments, and leads to new testing methods. Tech teams swap notes with end-users regularly; unexpected results don’t get boxed away but shared in weekly reviews, feeding future process changes. The upshot is that both customer and manufacturing plant cut the learning curve, making DMEA’s benefits more usable where it counts—in everyday production.

    Moving Beyond Commodity Thinking

    Amine pricing chases the global market, but not every kilo brings the same performance. Many buyers learned—often the hard way—that lowball imports may mean higher gel times, unpredictable emissions, or supply chain headaches. As a producer, we know shortcuts in process integrity, quality checks, or packaging land right back at the user’s loading dock. Placing material on the market is not just about filling tanks, but about the trust built up through enormous attention to things nobody sees—batch analytics, tank washing, feedstock vetting, even remote monitoring of shipping conditions. The result: fewer returns, no-refusal issues, and a track record that means our word carries real weight.

    The Human Element: Training, Retention, and Shared Goals

    Every member of our production and QC crew approaches DMEA as more than just another grade. Ongoing investment in training keeps staff sharp and responsive as new issues surface in production or compliance. Retaining experienced personnel leads directly to tighter control, less slippage, and quicker incident resolution. Where we once saw higher batch-to-batch variability or post-delivery troubleshooting, experience and stable staffing have tightened standards and helped prevent recurrences. Collaboration extends beyond company walls—regular roundtable discussions with users result in process tweaks and application tweaks that end up benefiting every link in the chain.

    Facing New Challenges: Where DMEA Stands in a Shifting Landscape

    Volatility in feedstock pricing, global shipping disruptions, and technology upgrades affect all chemical manufacturers. Facing these, we dig into internal protocols, face issues head-on, and keep feedback channels open. Minor adaptation today saves major disruption tomorrow. Whether supply crunch or demand spike, real resilience comes from technical depth, clarity on specs, and the confidence to pause and adjust. For DMEA, the balance of process rigor and operational culture stands as the real differentiator.

    Final Thoughts: Experience at the Core of DMEA Delivery

    Direct manufacturing experience shapes every aspect of our DMEA—from the sourcing of inputs to the last mile of delivery. Each lesson from a process hiccup, customer visit, or compliance check informs the next production run and builds a tighter, more accountable supply network. While specs and data sheets matter, end-use reality depends on the invisible infrastructure of people, process, and partnership. With DMEA, our material reliability reflects not just a product but the sum of real-world learning, shared technical insight, and a commitment to supporting end-users through every stage of production and application.