Products

1,3-Dimethylbutylamine

    • Product Name: 1,3-Dimethylbutylamine
    • Alias: DMBA
    • Einecs: 215-012-0
    • Mininmum Order: 1 g
    • Factroy Site: Yudu County, Ganzhou, Jiangxi, China
    • Price Inquiry: admin@ascent-chem.com
    • Manufacturer: Ascent Petrochem Holdings Co., Limited
    • CONTACT NOW
    Specifications
    HS Code 215771
    Cas Number 105-41-9
    Iupac Name 2-Amino-4-methylpentane
    Molecular Formula C6H15N
    Molar Mass 101.19 g/mol
    Appearance Colorless to pale yellow liquid
    Boiling Point 108–110 °C
    Density 0.752 g/cm³
    Melting Point -20 °C
    Solubility In Water Miscible
    Flash Point 21 °C
    Refractive Index 1.410
    Odor Amine-like

    As an accredited 1,3-Dimethylbutylamine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing 1,3-Dimethylbutylamine (25g) is supplied in a sealed amber glass bottle with a tamper-evident cap and safety labeling.
    Shipping 1,3-Dimethylbutylamine should be shipped in tightly sealed containers made of compatible material to prevent leaks or evaporation. Label packages with appropriate hazard warnings. Transport in compliance with local, national, and international regulations for hazardous chemicals. Store away from sources of ignition, heat, and incompatible substances during transit.
    Storage 1,3-Dimethylbutylamine should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from heat, sparks, open flames, and incompatible substances such as strong oxidizing agents. Avoid exposure to moisture and direct sunlight. Clearly label the storage container and keep it in a designated chemical storage area, preferably under nitrogen or an inert atmosphere to minimize degradation.
    Application of 1,3-Dimethylbutylamine
    Purity 99%: 1,3-Dimethylbutylamine Purity 99% is used in pharmaceutical synthesis, where it enables high yield and product purity. Molecular Weight 101.19 g/mol: 1,3-Dimethylbutylamine Molecular Weight 101.19 g/mol is used in specialty chemical formulations, where precise dosing improves reaction control. Stability Temperature up to 60°C: 1,3-Dimethylbutylamine Stability Temperature up to 60°C is used in industrial catalysis, where thermal stability ensures consistent process performance. Volatility Low: 1,3-Dimethylbutylamine Volatility Low is used in industrial adhesive manufacturing, where reduced evaporation rates promote application safety. Melting Point −38°C: 1,3-Dimethylbutylamine Melting Point −38°C is used in cryogenic applications, where low temperature fluidity supports system functionality. Density 0.75 g/cm³: 1,3-Dimethylbutylamine Density 0.75 g/cm³ is used in agrochemical formulation, where it enhances dispersion uniformity. Solubility in Organic Solvents: 1,3-Dimethylbutylamine Solubility in Organic Solvents is used in polymer production, where efficient blending improves polymer matrix integrity. Boiling Point 107°C: 1,3-Dimethylbutylamine Boiling Point 107°C is used in fine chemical synthesis, where controlled distillation optimizes separation efficiency.
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    Certification & Compliance
    More Introduction

    Introducing 1,3-Dimethylbutylamine from a Manufacturer’s Perspective

    Clear Product Insight Backed by Plant Experience

    Making 1,3-Dimethylbutylamine isn’t just about following chemistry textbooks. Over the years, hands-on work in our production environment has shaped a product with real consistency and precise quality. This particular aliphatic amine is known among chemical processors for its structural similarity to other alkylamines, but the difference lies in how that structure delivers its effects, how it behaves in diverse applications, and how carefully it must be handled to avoid common issues.

    Understanding Specifications Through Practice

    Years of operation have helped our team pin down the ideal form—colorless or lightly yellow clear liquid with a strong, sharp odor familiar to anyone who’s worked with low-molecular-weight amines. We control purity to over 98 percent by GC, because traces of byproducts or water in the mix can lead to difficulties in downstream blending or formulations. We pack our product in tight-sealed drums, always using lined interiors because any exposure to the wrong metals or oxygen content can degrade material performance or color.

    Each run through our process brings adjustments driven by real-world challenges—preventing oxidation, scrubbing possible off-odors, monitoring trace amines produced by overreaction or incomplete synthesis. This is not a chemical you want to buy from a batch environment with lax controls. It responds precisely to storage, transit, and handling. If any ambient water creeps in, it reacts, causing pressure build-up or venting risk. So our team over-engineers containers and keeps storage cool to keep the product in line with reliability targets.

    Why End-Users Demand Our Standards

    Customers develop a sense of trust not because of a sales pitch, but because batches move without complaint through their process lines. In the manufacturing world, repeatability keeps costs stable. No surprises in amine performance means fewer headaches in downstream synthesis of intermediates, polymer additives, or specialized coatings. Working with decades-old reactors and storage lines, our team tunes every batch without waiting for post-shipment complaints.

    Some users work with 1,3-Dimethylbutylamine in the synthesis of pharmaceutical building blocks. In this context, impurity profiles make all the difference. Residues or side-products can stall approvals or spike attrition rates. By holding purity high and keeping color and amine-number within a narrow band, we spare formulation labs from running extra purifications that eat into budget and schedule.

    Handling Differences vs. Other Alkylamines

    There is a long family of aliphatic amines—ethylamine, isopropylamine, tert-butylamine, and more. Some buyers expect all to behave the same. Our experience says otherwise. The branched structure of 1,3-Dimethylbutylamine impacts both its physical behavior and its reaction profile in a way that linear amines do not. Viscosity is slightly higher, the boiling point rises, volatility comes down just a bit, and odor is more persistent. These physical clues show just how much backbone shape matters at plant scale.

    Beyond physical traits, the amine’s steric hindrance gives it unique selectivity in organic synthesis. Where other amines might add too much reactivity—overalkylating or bridging side reactions—this one’s bulk can favor milder, more controlled additions. Our technical staff works closely with advanced customers to match amine structure to intended outcome, because over- or undershooting reaction conditions can blow up process costs.

    We’ve compared test batches head-to-head against similar chain-length linear amines, running identical synthesis steps to final yield. Such comparisons reveal side-product reduction in specific pathways, particularly where positional isomer formation is a concern. While off-the-shelf isopropyl or butylamines are popular, careful synthetic chemists learn their limits. We provide not just the product itself, but data and anecdotes from real processes to let users hit their marks.

    Key Challenges and Solutions Observed in the Field

    Plant-level problems rarely show up in simplified documentation. One frequent complaint: amines leaching through packaging, especially if drums spend weeks in suboptimal warehouses. By using inner liners and scheduling regular transportation checks, we cut down on batch loss and keep content free from off-odors or oxidation build-up. When new customers underestimate odor control, our factory technicians share storage and handling tricks born from years on the floor.

    Some application specialists worry about regulatory visibility since this amine shows up in headlines about banned substances or regulatory scrutiny. We don’t leave incoming calls to the legal department. Instead, we keep detailed supply chain and traceability data available at all times, meeting audit requests with comfort. Both regulatory affairs and manufacturing technicians attend regular product reviews. Years of compliance with strict transport and chemical filing rules have made some practices second nature—batch segregation, random sampling, background checks, and up-to-date MSDS.

    Reactivity with acids and oxidizing agents makes this amine useful, but also means misplaced shipments can create risk. We collaborate with shippers who have proven they understand the hazards, whether it’s drum stacking, venting, or cross-contamination. No shortcuts in loading or offloading procedures. If a batch comes back flagged for any anomaly in analysis—strange nitrogen content, trace metals, or extra yellowing—we take it off-line before it ever goes to a customer.

    End-User Applications and Technical Notes

    In the world of intermediate synthesis, especially where amines become precursors to more complex molecules, little details in purity, water content, and trace byproducts shape the success of the next stage. Our direct clients—the chemists, plant operators, and even bench scientists—often share details from their own runs. The best synthetic outcomes come not only from tight specs, but from feedback about unexpected fouling, color drift, or pressure swings in closed systems.

    For polymer modifiers and performance additives, this amine’s distinct chain branching helps prevent unwanted polymer crosslinking that linear analogs sometimes introduce. We have customers in advanced materials reporting sharper process control because 1,3-Dimethylbutylamine incorporates at predictable rates and resists some common catalyst side reactions. Our most demanding partners rely on transparent batch analysis with real data, not just theoretical property sheets.

    Research labs occasionally test our amine as a reagent in selective amination reactions where positional isomer control is critical. They report sharper selectivity and easier isolation of desired products compared to cycloalkyl or simple alkyl amines that lack that double methyl branching. By facilitating post-project debriefs, we share winning process tweaks with other users, benefitting the whole community.

    Process Learnings Only Found in a Manufacturing Setting

    No plant feels exactly the same after a year or two of running this molecule. Regular cleaning of transfer lines proves crucial. Even minor buildup of residue from improper purging can jeopardize the next batch’s purity, boost odor contamination, or throw off the GC trace. Our crew started including extra flush cycles and frequent QC checks while ramping up output, learning these lessons from occasional contamination headaches, not from theoretical warnings.

    Systematic feedback from our partners has shown the importance of tight collaboration between synthesis, QC, and packaging. When line operators notice a color change or subtle odor difference, they flag it well before it becomes a customer complaint. That means more time catching subtle drift in process parameters and less time firefighting after shipments go out.

    Heat management during storage came up as a major discovery over repeated summer seasons. Ambient temperature shifts can trigger pressurization in sealed drums or even minor venting losses. After a series of improvements, temperature-controlled storage keeps both product and packing stable through long hauls.

    Continuous Learning and Community Sharing

    As direct producers, we see information flow as a duty. Each lesson that saves a customer hours of troubleshooting deserves to be shared—not sold. Safe handling guides, real data on performance in different reaction schemes, even redacted customer process notes (with permission)—these give new users a leg up. Our best customers are those who become partners, sharing both wins and setbacks for mutual benefit.

    Supplier relationships become more than transactional when both sides commit to trust. On our side, it’s open books on QC results, quick remediation for any anomaly, and honest timelines when capacity tightens. On the user’s side, reporting back when a batch runs smoother or runs into trouble, giving early signals to improve the next lot.

    Learning never stops. Every scale-up run, every new piece of feedback from process engineers, every regulatory update influences both daily practice and batch-by-batch analysis. Through direct communication lines, we make sure no lesson is wasted—from minor odor shift to dramatic reaction improvement. Community, not just commerce, drives our mentality.

    Why Structure Matters: A Closer Look at 1,3-Dimethylbutylamine

    Chemically, the backbone of 1,3-Dimethylbutylamine makes all the difference in reactivity trends. The two methyl units at positions 1 and 3 force distinct spatial arrangements, which shapes not just boiling point or volatility but also affinity for certain catalysts. That means users who demand fine-tuned reaction control get advantages absent in other straight-chain options. When we discuss structure with process chemists, these conversations become practical—not just academic. Process tweaks with this amine sometimes mean the difference between a manageable synthesis and a cleanup-intensive mess.

    In catalyst testing, even a minor shift to this branched amine structure adjusts everything from pressure drop in reactors to color formation in end products. Replacing linear butylamines with our product in some steps results in lower amounts of side-chain attachment, allowing users to explore new avenues in fine chemical synthesis or polymer modification. It’s the kind of advantage that’s fully clear only through hands-on trials, then carried forward across future campaigns.

    Optimizing for Scale and Safety

    Scaling up production adds a fresh round of challenges. All lessons from bench work fade once a full reactor comes into play. Our teams have faced everything from minor vapor leaks during charging to unexpected temperature spikes during exothermic reactions. Process upgrades—inert-blanketing, slow vessel ramp, staged addition—came about from hard-won battles, not vendor recommendations.

    Plant managers prioritize long-term safety and reliability with this product. Even simple changes like switching to all-stainless transfer lines, adding redundant venting valves, or scheduling extra warehouse spot-checks pay real dividends. Investing in overbuilt safety features cost more at the outset, but avoided the expense of accidental venting or odor complaints from neighbors.

    By working with end-users during their own scale-up, we share lessons in compatible solutions—specialized pumps, sealed valves, backup cooling—backed by our real engineering changes. That means users avoid repeating known issues and keep efficiency where it belongs.

    Environmental and Regulatory Adaptation

    Our experience in monitoring and adapting to changing environmental standards gives us an edge. Wastewater from 1,3-Dimethylbutylamine lines arrives at in-plant treatment rather than triggering outside discharge alerts. Capture and neutralization routines had to be developed through trial runs, especially as local limits shifted. We keep ahead of changing rules, working with knowledgeable environmental engineers who walk our lines, sample storage tanks, and talk directly to regulatory officials for clarity.

    Global sourcing and transport placed new emphasis on compliance, labeling, and reporting. Border crossings or routine audits cannot wait on back-office scramble. Immediate electronic access to batch history, regulatory filings, SDS sheets, and even incident logs keeps regulators satisfied and shipments moving. Staff training for this chemical takes priority—not just the letter of rules, but understanding day-to-day impact. From proper PPE for drum transfers to real-time leak monitoring, commitment reaches from plant floor to shipment dock.

    Growing with Customers: Supporting Innovation and Application Expansion

    Customers want more than just a chemical. They want a partner who listens—to their deadlines, regulatory fears, tight specs, and new project needs. Our R&D team works alongside end-users to test experimental blends, examine advanced purification routes, or tailor supply models. Some syntheses work better with minor tweaks to batch protocols, solvent blends, or temperature profiles. Open-book willingness to experiment, and honest assessment of what works or needs rework, defines how we see the manufacturer’s role.

    Small differences in product approach can change overall process economics fast. Our staff loves to see new combinations being tested. Whether it’s an advanced performance material, a project for pharmaceutical research, or a dosing improvement for established blending, we use every feedback loop to upgrade batches for future runs. Innovations proven at plant-scale flow back to our process lines, closing the loop between producer and user.

    Putting Real Experience into Every Drum

    Time spent on factory floors, not just behind screens, brings out the best in both product and partner support. Our operators know the smell of genuine product, the color shifts that hint at impurity, the tactile feel of well-sealed drums. New employees walk the lines, listen to veterans, and pick up practical tricks rarely found in manuals.

    The backbone of our operations remains the same: commitment to process integrity, customer-focused flexibility, and ever-evolving knowledge from direct hands-on work. We stand behind every drum that leaves our facility, and every call for technical help that follows. Nothing replaces real experience. Every lesson—good or bad—pushes us toward a stronger, safer, cleaner supply of 1,3-Dimethylbutylamine for every customer.

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