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N,N-Dimethylbenzylamine

    • Product Name N,N-Dimethylbenzylamine
    • Alias BDMA
    • Einecs 204-709-8
    • 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
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    Specifications

    HS Code

    228076

    CAS Number 103-83-3
    Molecular Formula C9H13N
    Molecular Weight 135.21 g/mol
    IUPAC Name N,N-dimethyl-1-phenylmethanamine
    Appearance Colorless to pale yellow liquid
    Boiling Point 181-183 °C
    Melting Point -72 °C
    Density 0.895 g/cm³ at 20 °C
    Flash Point 62 °C (closed cup)
    Solubility in Water Slightly soluble
    Refractive Index 1.517 at 20 °C
    Vapor Pressure 0.4 mmHg at 25 °C

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

    Packing & Storage
    Packing N,N-Dimethylbenzylamine, 500 mL: Supplied in an amber glass bottle with a secure screw cap, featuring hazard labels and safety information.
    Shipping N,N-Dimethylbenzylamine is shipped as a hazardous chemical under UN 2735, classified as a corrosive liquid. It should be packed in tightly sealed, chemical-resistant containers, appropriately labeled, and transported in compliance with regulations (DOT, IATA, IMDG). Ensure protection from heat, moisture, and incompatibles. Emergency procedures and safety data sheets must accompany shipments.
    Storage N,N-Dimethylbenzylamine should be stored in a tightly closed container in a cool, dry, and well-ventilated area, away from sources of ignition and incompatible substances such as oxidizing agents and acids. Keep it out of direct sunlight and protect from moisture. Ensure proper labeling, and store at room temperature, minimizing exposure to air to prevent degradation or contamination.
    Application of N,N-Dimethylbenzylamine

    Applications of N,N-Dimethylbenzylamine in Industrial Manufacturing

    As a direct manufacturer of N,N-Dimethylbenzylamine (DMBA), we supply this amine catalyst to a variety of highly specialized industrial sectors. Below, we outline its established uses in polyurethane foams, epoxy resin curing, water treatment chemicals, dye synthesis, and oilfield additives. For every segment, we detail industry compliance benchmarks, formulation guidelines, integration stages, and the resulting finished products adopted by downstream manufacturers worldwide.

    1. Polyurethane Flexible Foam Catalyst

    Major producers of bedding, automotive components, and furniture rely on DMBA as an efficient tertiary amine catalyst, selectively accelerating the urethane (polyol–isocyanate) reaction while minimizing unwanted side reactions. Its controlled reactivity allows for consistent foam cell structures and mechanical properties, critical to quality assurance in large-scale continuous and batch foam lines.

    Industry compliance standards

    • REACH (EC 1907/2006) pre-registration for use as catalyst in flexible polyurethane
    • ISO 9001:2015 certified production for supply chain traceability
    • GB/T 19811 (China) requirements for flexible polyurethane foam safety
    • Automotive OEM technical standards (e.g., VDA 278, FMVSS 302 for emissions and flammability)

    Typical usage ratio

    • 0.03–0.12 parts per hundred polyol (php); dosage varies based on polyol type, blowing agent, and foam density target

    Downstream process integration

    • Added to the polyol premix blend prior to the main mixing head during foam slabstock or molded foam production

    Final product types

    • Automotive seat padding
    • Mattresses and pillows
    • Furniture cushions
    • Sound insulation foam for vehicle interiors

    2. Epoxy Curing Agent Component

    Manufacturers of electrical laminates, adhesives, and industrial coatings incorporate DMBA as a co-catalyst and accelerator in polyamine-based epoxy resin curing systems. The material’s basicity and compatibility enhance cure speed at ambient or slightly elevated temperatures, ensuring reliable cross-link density and reducing cycle times in demanding electronics and composites markets.

    Industry compliance standards

    • IEC 61249 for base materials in copper-clad laminates
    • RoHS Directive (EU 2015/863) for electronic encapsulation
    • UL 94 flammability requirements for electrical insulation parts
    • ISO 9001:2015 certified manufacturing

    Typical usage ratio

    • 0.2–2.0 parts per hundred resin (phr); adjusted according to amine curing type and resin cross-linker composition

    Downstream process integration

    • Introduced into the hardener side before mixing with the base epoxy resin; homogenization performed prior to casting or coating

    Final product types

    • Printed circuit boards (PCBs)
    • Thermoset composite prepregs
    • Industrial adhesives for structural bonding
    • Protective electrical coatings

    3. Water Treatment Resin Intermediate

    DMBA is utilized in the synthesis of quaternary ammonium salts for cationic exchange resins and flocculant formulations, targeting municipal and industrial water purification. Control over substitution patterns permits predictable resin structure and capacity during industrial ion exchange resin production, directly affecting removal efficiency of heavy metals and other contaminants.

    Industry compliance standards

    • ANSI/NSF 61 requirements for water system components
    • FDA 21 CFR 173.25 (where applicable for food contact water equipment)
    • EN 1508 specifications for water treatment chemicals
    • ISO 14001 management for environmental protection

    Typical usage ratio

    • Stoichiometric equivalent based on resin polymer backbone capacity; commonly ranges from 1.0–2.5 mol% relative to monomer units

    Downstream process integration

    • Employed during the amination or quaternization step in the functionalization of preformed copolymer beads for resin finishing

    Final product types

    • Cationic ion exchange resins for water softening
    • Industrial and drinking water demineralization units
    • Specialty flocculants for wastewater clarification

    4. Dye and Pigment Synthesis Intermediate

    Producers of specialty dyes use DMBA as an alkylation component and phase transfer agent, facilitating the introduction of benzyl groups into colorant molecular structures. Its tailored reactivity plays a key role in achieving high-purity intermediates required in the synthesis of cationic and basic dyes for textiles and paper, while supporting precise molecular weight control throughout multi-step reactions.

    Industry compliance standards

    • Oeko-Tex® Standard 100 for restricted substances in textiles
    • ISO 9001:2015-certified pigment synthesis and quality assurance
    • REACH registration for dye intermediates
    • ZDHC MRSL (Manufacturing Restricted Substances List) compliance for global textile supply chain

    Typical usage ratio

    • 0.5–3.0 molar equivalents depending on the specific intermediate or target substituent; adjustment based on batch scale and yield targets

    Downstream process integration

    • Reacted with haloaromatic compounds in alkylation or condensation reactions, typically prior to final dye purification and finishing

    Final product types

    • Cationic dyes for acrylic fiber and paper
    • Basic dyes for leather and polyamide
    • Pigment intermediates for high-performance ink

    5. Oilfield Cementing and Demulsification Additive

    Operators in oil and gas fields utilize DMBA in the formulation of demulsifiers and cementing additives. In particular, it functions as a catalyst and intermediate in the production of surfactants for breaking crude oil emulsions and improving cement slurry compatibility, directly affecting drilling efficiency and wellbore integrity during field operations.

    Industry compliance standards

    • API Specification 10A for cementing additives
    • OECD guidelines for aquatic toxicity (discharge compliance)
    • ISO 29001 for oil & gas sector quality management
    • REACH/OSHA workplace safety guidance for additive use

    Typical usage ratio

    • 0.1–1.5% by weight in demulsifier concentrate or cementing additive blend, adjusted based on crude type and reservoir conditions

    Downstream process integration

    • Incorporated during surfactant synthesis or added into the additive premix; introduced at the mixing stage prior to downhole pumping or production train dosing

    Final product types

    • Crude oil demulsifiers
    • Cementing slurry additives for well drilling
    • Production treatment surfactants
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    Certification & Compliance
    More Introduction

    N,N-Dimethylbenzylamine — Meeting Real Demands in Modern Manufacturing

    Understanding What N,N-Dimethylbenzylamine Really Offers

    Ask any operator in a paint, coatings, or polyurethane plant about production bottlenecks, and the answer often circles back to catalyst choice. N,N-Dimethylbenzylamine (also called DMBA or BDMA), with the chemical formula C9H13N, steps up where producers ask for reliability and performance. It looks like a clear, colorless liquid and gives off a distinctive, fishy amine odor—one of many signals that a small dose can tip a reaction in a big way. As a factory running DMBA distillation columns continuously, we have watched this molecule grow from a specialty amine to a go-to solution across several industries.

    Products like DMBA don’t come into their own because someone writes up a nice spec sheet. Results in the field show real value. Consistency in purity—usually 99% minimum by GC, water content below 0.2%—matters more than any glossy marketing because poor control leads to off-ratio epoxy curing or unpredictable foam expansion. We have responded to customers struggling with lower-quality imports causing “ghosting” or poor surface curing in epoxy hardware. When a formulation needs speed and precision, purity kicks uncertainty out of the room.

    From Our Reactors to Your Applications

    Producing DMBA takes careful work. Each batch starts with high-quality benzyl chloride, precisely metered with dimethylamine. We take pride in the distillation and purification steps, checking purity and color, because experience tells us that a little off-target in the amine content will throw off entire runs of rigid or flexible foams. Our operators keep a close eye on the color index—reported as APHA < 20—since every downstream problem seems to start with a discolored catalyst.

    DMBA shines in epoxy formulations and polyurethane systems. It acts as a strong base and nucleophilic catalyst, unlocking rapid chain extension in foam, clear curing in coatings, and improved demolding in elastomers. Customers making complicated shapes or thick-section castings often turn to DMBA to guarantee a more predictable pot life. The right amount of BDMA hastens gelation and shortens curing time, giving processors another shot in tight production schedules. In two-component epoxy adhesives, using DMBA can trim hours off full cure, valuable in assembly lines racing to finish jobs on short deadlines.

    Why Our DMBA — Real-World and Laboratory Performance

    We make our DMBA to strict control specifications, not only because it’s good business, but because inconsistent materials create costly finished goods rework. Technical teams on our floors run every lot through GC and titration checks. What manufacturers notice, and have told us over and over, is how low water levels and tight nitrogen purging translate downstream to less pin-holing in foams and smoother films in coatings.

    Having worked with blenders who’ve tried generic amines, it soon becomes obvious that small shifts in color or byproduct trace can derail an otherwise robust formulation. Sulfurous off-odors or unknown side streams invite equipment corrosion or strange blockages in meter-mix systems. By sticking to tight distillation cuts and triple filtration, our plant keeps out the sorts of amine-overbase residues that make plant floor operators want to test alternatives.

    One difference from run-of-the-mill distributors is the daily connection our teams have to plant-floor outcomes. Years ago, a customer pointed out microbubbles in their expanded foam. Joint troubleshooting traced the issue not to process, but impurity drift in their then-supplied DMBA. After switching, their scrap fell and the need for post-cure repairs dropped sharply. This is the kind of tangible win that never makes it into lab brochures.

    Comparing DMBA to Other Amine Catalysts

    Chemists choosing among amines usually line up N,N-Dimethylbenzylamine next to N-Methylmorpholine, triethylamine, or 1,4-diazabicyclo[2.2.2]octane (DABCO). Each has its place: DABCO and N-Methylmorpholine excel in fast-foaming systems but tend towards volatility and hydrogen bonding, which shifts foam cell sizes or encourages shrinkage in less-controlled environments. Triethylamine, widely available, brings lower cost but also higher volatility and odor persistence, and sometimes less precision in cure profile.

    DMBA stands apart by offering an optimal reactivity profile; its basicity and modest molecular weight bring strong activation power without the punchy, pervasive smell of smaller amines. The benzyl group stabilizes the amine, making storage and handling less problematic under warehouse conditions. Plants in warmer locations appreciate that DMBA stays liquid and stable in most climates, packaging into steel drums or IBCs without mystery phase splits or peroxides forming during shipping.

    Manufacturers see practical differences. Using DMBA in flexible slabstock foam cuts open time for pouring without unexpected runaway expansion, compared to alkyl amines that jump-start the reaction too early. In one case, an insulation panel maker saw improved lamination and fewer cold-spot failures after switching from TEA to BDMA as a catalyst—simply because foam rise matched the speed of automated laydown, not vice versa.

    Unlike some cyclic amines, DMBA delivers more consistent viscosity modulation when used in coatings. Operators working with DABCO or morpholines sometimes report film defects, especially in thick coat systems. In contrast, BDMA helps drive reactions to full conversion, so surfacing is smoother and resistance to amine blushing improves. For epoxy producers, this matters when rolling out high-gloss or architectural finishes where appearance can’t be hidden by layers or sanding.

    Direct Experience with Safe Handling and Storage

    Every chemical has its “care points,” and DMBA is no exception. The amine odor, while less severe than pure aliphatic amines, makes dense workspace ventilation a must. A spill left to linger will sometimes find its way into sensitive equipment or give operators a bad day with headaches. Workers ask about material compatibility every season, and we have yet to see DMBA attack a well-maintained, polyethylene-lined drum.

    On our sites, we push safety talks each week about PPE and skin exposure, since repeated contact will dry the skin or cause minor rash. Common-sense steps—goggles, gloves, and splash aprons—draw more attention than any lengthy MSDS packet. Internal incident records show that open drum transfer is the most likely source of exposure, especially when switching lots or cleaning out tankage. Automation of drum pumps and better valve design have reduced those near misses over time.

    Storage at room temperature keeps quality stable year-round, but we tell partners not to freeze it. Warming blocks and drum blankets come in handy during cold snaps. Every batch leaves our warehouse with a fresh GC, so customers don’t get nasty surprises in the middle of a production run. Our experience shows that once people try batch-sealed, quality-controlled DMBA, returns for “off appearance” or “wrong odor” disappear—which translates directly to lower downtime.

    Environmental and Quality Commitments

    As chemists and managers alike face growing scrutiny on emissions and hazardous inventory, DMBA producers have more eyes on environmental footprints than ever. Our facility has invested in closed-loop loading to reduce volatile emissions. Product transfer from reactor to ISO tank is sealed from atmospheric exposure, keeping air and water quality complaints at bay.

    All wastewater and vent streams pass through scrubbers and carbon beds. This allows us to keep air release well below regulated levels. Spent solvents and off-cuts are fed to incineration, not outfall. By keeping water and impurities so tight in each lot, customers can cut their in-plant wastewater volumes—since post-mix filtration drops dramatically with the right DMBA source. We scrapped old packaging—simple drums that used to leak or off-gas in heat—in favor of lined IBCs and gasketed drum bungs. Logistics teams have told us this change prevented rejected cargo at the port, which, several years back, had become too common.

    Tracking DMBA through all production lots, we link every drum or tote to a control sample and certificate. We keep retains for at least a year, often longer on request, so downstream troubleshooting has a fingerprint to work back from. Few things frustrate users more than getting product with no “history,” especially if trial batches flip from success to failure.

    Real-World Impact: Helping Customers Solve Specific Problems

    A large customer in the rigid foam market once ran into an unexpected issue—batch-to-batch color drift in construction panels. After visiting their site and running samples through our plant’s lab, our team tracked the root cause to a contaminated batch of generic DMBA. Once they made the switch to our tighter-controlled, low-odor DMBA lot, cured panel color snapped back into spec and process downtime dropped by over 10%. The customer’s feedback: “We had three line stops in a week before; now, we haven’t stopped once all month.”

    Polyurethane sealant makers know how tricky it gets to control cure on humid days. In one real-world case, after many hours working through line fouling and sticky surfaces, a customer’s technical lead traced the issue to an imported catalyst blend. After sampling our DMBA, cure time tightened, and scrap fell. That’s not luck. It’s the result of all the adjustments made upstream—between tighter controls on raw material sourcing and a better-trained team in our distillation halls.

    On the epoxy side, a regional adhesives producer had struggled with inconsistent mix viscosities, sometimes leading to workforce complaints and batch dumping. We shipped them a trial drum, running nearly 99.5% purity, along with color and water reporting pulled from the final tank. Within weeks, their technical group reported not only tighter cure time but improved thermal properties during end use. These are the kinds of outcomes nobody can chalk up to generic chemical descriptions or sales claims.

    Global Supply Assurances and Continual Investment

    Market swings in benzyl chloride or dimethylamine pricing put plenty of pressure on producers, but investing in secure supply chains and on-site storage means customers don’t find themselves held up by missing product. Our standard finished lot size—usually thousands of kilos at a go—lets us cover both small specialty buyers and bulk blenders.

    Shipping to multiple continents, we learned early that having local warehousing and regional QC checks cuts down inspection delays and lost cargo. We keep samples of every bulk transfer, and supply chain teams track by batch—not only by invoice—so traceability holds up under audits. Many newer entrants to the market focus on price, sacrificing depth in analytics or customer support. Our route is the reverse: build quality in upstream, respond fast, and invest in the sort of lab infrastructure that shortens troubleshooting when a customer needs it.

    Customers making switching decisions usually look for three things: guaranteed reactivity, consistent physical properties, and fast access. Having run this process at commercial scale for years, we’ve avoided high-profile failures that often catch up with traders or brokers. There isn’t a magic to it—just long learning curves, buying the right instrument calibration, and never shortcutting the cleaning and maintenance cycles that keep the plant humming.

    Industry Trends and the Way Forward

    With the world pushing for sustainable chemistry and reduced workplace exposure, we watch new regulations closely and test each tweak in our process for release compliance. Research labs ask about bio-based or renewably sourced amines, and we are already piloting alternative routes—though most of the world’s BDMA is still fossil-raw sourced. Quality certifications come from this pressure to improve, so we audit and document each operation, inviting both staff and customers to spot improvement areas.

    Data shows that downstream emissions drop when DMBA purity rises, since side reactions and recycle streams shrink. There is still work to be done around minimizing overall amine use, but formula designers can often optimize their loadings when they trust the catalyst lot-to-lot. In a decade of running production, routine feedback shows productivity and scrap rates improve with high-grade DMBA. This takes process pressure off line managers scrambling to meet environmental standards or customer-driven quality audits.

    Digitalization has reached the factory floor as much as the lab bench. We use advanced process monitoring and feedback loops to spot subtle changes in distillation or reactor performance. Operators armed with handheld GC units and in-line sensors catch variations before finished lots hit storage. This blend of hands-on running knowledge and data-backed analytics underpins every drum, tote, or IBC that heads out to end users.

    Our Ongoing Dialogue with End Users

    Many buyers see DMBA as a line on a purchase order, but factory users want confidence that when process bottlenecks crop up, troubleshooting doesn’t lead to finger-pointing. Our technical support teams keep open lines of communication with customer engineers and QC, whether it’s to swap troubleshooting rundowns, test new mixing setups, or walk the floor during a plant trial. Decades serving foam, adhesives, and coatings outfits means we pay close attention to minor details—knowing these feed through to big wins or losses at scale.

    We have hosted more than a hundred site visits in the past few years. These open sessions let customers see everything from raw material intake through reactor operation and post-run purity checks. Several customers left with fresh ideas on inline monitoring or distillation tweaking, proof that the best improvements come from sharing not just product but understanding.

    Debates over catalyst loading, shelf-life testing, or cleaning protocols all depend on real data—not just spec sheets. Every production lot we ship comes with a guarantee born of both evidence and repeated customer outcome, and the support to back it up should anything not go to plan.

    Final Perspective—What Sets Us Apart

    Producing N,N-Dimethylbenzylamine isn’t just a matter of combining two chemicals and filtering the result. It means thinking through the daily run of operator checks, equipment maintenance, and logistical challenges needed to keep a modern chemical plant running seamlessly. Our reputation with DMBA grew not from outsized promises but from listening to customers, analyzing returns, and making continuous tweaks to process and quality control.

    Every operator, from blending hall to shipping warehouse, shares the responsibility for delivering a clean, reliable product. In a crowded market where some shave cost at the expense of quality, we plant our flag on controlled, documented, and responsive production. The molecules may be the same, but in the hands of a careful, committed maker, the outcomes for our partners shift from acceptable to genuinely reliable, lot after lot.