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HS Code |
101469 |
| Cas Number | 2016-57-1 |
| Molecular Formula | C14H31N |
| Molecular Weight | 213.41 g/mol |
| Iupac Name | Tetradecan-1-amine |
| Appearance | White to pale yellow solid |
| Melting Point | 46-50 °C |
| Boiling Point | 303 °C |
| Density | 0.82 g/cm³ at 20 °C |
| Solubility In Water | Insoluble |
| Flash Point | 168 °C |
| Odor | Fishy, amine-like |
| Ph | Basic (in aqueous solution) |
| Refractive Index | 1.4530 |
| Storage Temperature | Store below 30 °C |
As an accredited 1-Tetradecylamine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 1-Tetradecylamine is packaged in a 100-gram amber glass bottle with a secure screw cap and proper hazard labeling. |
| Shipping | 1-Tetradecylamine is typically shipped in tightly sealed containers made of materials resistant to amines, such as high-density polyethylene (HDPE) drums or bottles. During shipping, it must be protected from moisture, heat, and strong oxidizers. Appropriate labeling, safety documentation, and compliance with local hazardous material regulations are required. |
| Storage | 1-Tetradecylamine should be stored in a tightly closed container, in a cool, dry, and well-ventilated area away from sources of ignition, heat, and incompatible substances such as strong oxidizers and acids. Keep it out of direct sunlight and moisture. Properly label the storage container and ensure that suitable spill control and fire-fighting measures are readily available. |
Applications of 1-Tetradecylamine in Industrial ManufacturingAs a primary aliphatic amine, 1-Tetradecylamine serves specialized roles in several advanced industrial processing fields. Presented below are the most significant downstream applications, reflecting direct industry practice, with technical and regulatory guidance developed from qualified manufacturing operations. 1. Lubricant Additive Manufacturing1-Tetradecylamine acts as a component in friction modifier and anti-corrosion additive systems for industrial and automotive lubricants. It reacts with acid-functional components to form amine salts, which enhance film strength and reduce metal surface wear. Applications include hydraulic oils, gear oils, and metalworking fluids, where stable molecular adsorption at metal-fluid interfaces is critical for controlling micro-pitting, foaming, and sludge formation. This raw material must pass strict contamination and volatility limits due to its function at high operating temperatures and pressures. Industry compliance standards
Typical usage ratio
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2. Asphalt Emulsifier ManufactureWithin bitumen road construction, 1-Tetradecylamine serves as a primary amine source for cationic emulsifier synthesis. The molecule reacts with fatty acids or acetic acid, creating amine salts that stabilize asphalt-water emulsions for road coatings and cold-applied mixes. Its long chain structure improves emulsion storage life, anti-stripping properties, and aggregate adhesion in hot and humid climates. Consistent purity, hydrophobicity, and controlled nitrogen release are essential for meeting modern highway durability standards. Industry compliance standards
Typical usage ratio
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3. Flotation Agent Formulation in Mineral ProcessingThis amine functions as a selective collector and surfactant for mineral flotation, particularly for silicate-rich ores and reverse flotation of iron ore. Its long alkyl chain increases selectivity for silica and other gangue minerals, while maintaining sufficient solubility in low-temperature pulp conditions. Properly formulated, it provides enhanced bubble-mineral adhesion and allows for precise separation, reducing downstream smelting costs. Trace impurities and heavy metal concentrations are tightly controlled due to environmental permit limits for process water discharge. Industry compliance standards
Typical usage ratio
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4. Antistatic Agent in Polyolefin Compounding1-Tetradecylamine acts as a surface-modifying antistatic agent in the compounding of polyethylene, polypropylene, and other non-polar thermoplastics. Through melt blending or surface treatment processes, the amine migrates to polymer surfaces, dissipating static charge and preventing dust attraction or electrostatic discharge. Controlled migration and extractable limits must comply with food contact and electrical goods safety legislation, and batch traceability forms part of risk management for downstream processors. Industry compliance standards
Typical usage ratio
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5. Corrosion Inhibitor Synthesis for Industrial Water Treatment1-Tetradecylamine supplies hydrophobic amine backbone required for the manufacture of specialty corrosion inhibitors in boiler and closed-loop heating systems. It forms hydrophobic protective films on metal surfaces, retarding oxygen or carbon dioxide induced corrosion. It enables the production of amine-blended inhibitors suitable for systems operating under variable pH, salinity, and temperature cycles. Chemical purity, amine content, and presence of secondary byproducts are rigorously evaluated as part of product certification for regulated industries. Industry compliance standards
Typical usage ratio
Downstream process integration
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Working day in and day out with organic amines has taught us a simple truth: every chemical, even those with similar names, delivers unique results depending on the process. 1-Tetradecylamine captures this spirit well. Its formula, C14H31NH2, and clear, waxy texture have put it to the test in our own reactors and blending tanks for over a decade. We have continued development and process optimization for each batch, not just to meet specifications, but to produce a material we are actually glad goes out with our name attached.
We focus on a version of 1-Tetradecylamine with a straight alkyl chain, high purity, and low acid value. Usually, our product’s amine value falls within 195-205 mg KOH/g. The melting point typically lands between 44°C and 48°C. We find a moisture content of less than 0.3% works for customers demanding stability and consistency in compounding and formulation.
Appearance offers a quick check on incoming lots in our own lab: at room temperature, this compound forms white to pale yellow, waxy flakes, sometimes beads, with a mild odor. Our quality control team—many of whom have handled this material for many years—vouch that any color deviation can signal issues with upstream raw material purity or process parameters.
Tetradecylamine forms the backbone in various manufacturing streams. Surfactant producers reach out for it to build cationic emulsifiers and antistatic agents, especially for textile and fiber processing. Water treatment plants blend it into corrosion inhibitors, relying on its long alkyl tail and primary amine function to coat metal surfaces in aqueous environments. Oilfield customers use it when separating water from crude, aiming for cost-effective demulsifiers that perform under tough conditions.
The pharmaceutical sector seeks this compound as an intermediate, chasing tight impurity profiles and reaction yields. Our team learned early that residual solvents or side-chain impurities, even at low levels, could compromise downstream synthesis. We dial purification to suit those standards, based on feedback from plant chemists mixing our material into their own reactors.
In rubber manufacturing, compounding specialists add 1-Tetradecylamine to break static and enhance mold release. Paint and coatings makers report that it boosts pigment dispersion, reducing clumping over long storage. Crop science customers rely on its surfactancy for making adjuvants that help sprayable formulations stick to plant leaves, improving coverage and absorption.
We know some users experiment with novel applications as well, including advanced cleaning compounds and specialty lubricants, but the backbone of our demand continues to run through the industries above. Our technical team regularly visits customers’ plants to watch and troubleshoot these real-world uses; every visit gives us new insight into conditioning our production controls and product handling guidance.
Tetradecylamine resembles its shorter- and longer-chain relatives—dodecylamine, hexadecylamine, and octadecylamine. Yet switch even a couple of carbon atoms in the alkyl chain, and melting points, solubility, and reactivity all shift.
Experience shows dodecylamine melts lower and dissolves faster, but its shorter chain sacrifices layer formation and hydrophobicity. Customers seeking stronger water repellency or more persistent surfactant action in harsh environments lean toward tetradecylamine. Go higher in chain length, say with hexadecylamine, and the waxy material thickens, handling challenges arise, and melting often requires more energy input—which impacts both operational cost and equipment design.
Substituting one chain length for another in recipes sometimes works but more often tweaks reaction rate, product feel, or final performance. We have fielded frequent calls about batch-to-batch differences when switching from one supplier’s C14 to another’s C12 or C16 grade, even in seemingly interchangeable formulations, such as textile softeners or water-repelling treatments. Over the years, we learned to pay close attention to homolog selection—sometimes the smallest change delivers large downstream surprises.
Quality conversations rarely end at theoretical specifications. Each batch’s success or failure can pivot around trace byproducts—amides, nitriles, or even unsaturated chain fragments—left from earlier synthetic steps. From our work in continuous vs. batch manufacture, solvent washing, and distillation, carefully managing process conditions directly shapes the impurity profile and shelf stability of outgoing amine stock.
Textile and water treatment customers, in particular, watch for color feedback and organic amide content, worrying about buildup in boilers or staining in finished fabrics. We have seen batches returned from customers simply because the color exceeded a pale yellow—issues traceable to minimal equipment residue, altered hydrogenation rates, or insufficient raw material screening.
By testing in both our analytical and pilot plant labs, we manage to screen out much of what causes off-odors, unexpected coloration, or fogginess in end-use formulations. Our technical support group tracks every returned sample and builds real-time troubleshooting guides that link impurities to specific upstream events.
Handling practices on our end, including moisture exclusion and nitrogen blanketing in storage, help tamp down hydrolysis and oxidation. Customers working in reaction-sensitive areas like pharmaceutical intermediate production relay that out-of-spec batches can send entire production schedules off-track for days.
Feedback from plant operators and logistic teams keeps us honest about what actually works. While 1-Tetradecylamine carries fewer hazards than low-boiling amines, its melting range means bulk material sometimes arrives solidified on colder days. On plant floors, we see operators store the flakes in warm rooms in sealed drums—avoiding condensation, water pickup, or handling clumps.
Operators know to use gloves and goggles, but most ask about the faint amine odor, especially in sealed packaging or warm environments. Our storage techs stress clearly labeling containers and providing adequate ventilation, since primary amines have a knack for creeping into small closed rooms.
In our experience, accidental skin contact brings minor irritation, handled with standard chemical plant personal protective equipment and accessible wash stations. Customers moving bulk often use day tanks with mild heating jackets, keeping the material pourable but avoiding any unnecessary temperature spikes that risk decomposition or color shift.
We have run more than a few process trials switching from other amines—often at customer request. Early on, one of our biggest textile finishers sought better anti-static effect along with lower yellowing risk. They’d used dodecylamine for years but grew frustrated by variable finish quality over seasonal temperature swings. Our trials with tetradecylamine boosted static control and delivered a softer touch without raising odor or causing tackiness, thanks to the longer chain’s increased molecular weight.
One rubber compounder struggled with demolding during the winter months; the slightly higher melting range of our product held its shape in their cool workshop, delivering more predictable flow during incorporation and faster release from the mold. Stories like these, shared back-and-forth during technical calls, inform every improvement we make to our process controls and customer guidance.
Source material matters. We choose synthetic alpha-olefins as starting material, selecting for chain length uniformity and minimal unsaturation. Each year brings its own challenges, from variable cracker output to shifts in regulatory rules and supply interruptions. Our purchasing team tracks lot numbers through the chain, ensuring backward traceability from outgoing drums to upstream raw material receipts.
Onsite manufacturing, rather than tolling or third-party blending, keeps batch integrity high and lets us deliver consistent performance over long-term supply contracts. Repeat customers notice fewer lot variations, less material waste, and reduced troubleshooting frontruns.
Alongside raw material sourcing, our investments in on-line process analyzers—especially melting point and colorimeters—let us rapidly correct deviations. Less process drift means fewer headaches downstream for everyone.
Customers with last-minute order spikes appreciate our habit of holding safety stock and scheduling periodic order volume reviews. We have weathered logistics snags and container shortages by shipping directly from our factory warehouse and maintaining close communication with freight partners.
Regulatory shifts continue pressing chemical manufacturers to cut lifecycle emissions, waste, and hazardous byproducts. We run closed-loop water treatment, recover most process solvents, and make every effort to avoid excess off-spec inventory piling up in storage. Customers in Europe and Asia now request detailed compositional and environmental documentation for every batch shipped.
Our own energy use and waste discharge monitoring, paired with regular environmental audits, inform both manufacturing changes and end-of-life advice for spent amine solutions. Particularly for customers formulating biodegradable surfactants or seeking eco-labels, tracking the fate of each molecule, from cradle to grave, shapes our own process improvement agenda.
Experience proves that gaining deeper control of synthetic byproducts and routine emissions pays dividends—not only in regulatory compliance, but in reducing many costly interruptions that might otherwise reach final applications.
In recent years, we have shifted away from corrosive or odorous processing chemicals, exploring greener catalysts and solvent systems. Results show measurable improvements in worker exposure metrics, storage lifespan, and batch reproducibility.
Our approach to technical guidance draws from real encounters on customer floors, not textbook answers. Occasionally, formulations misbehave—striping in textile finishes, off-odors in surfactants, haze in water treatment blends. Customers phone in, samples swap hands, and our technical team retraces every variable: ambient temperature, melt handling, material age, even drum closure types. Over time, we have built a knowledge library of what actually works, shared with customers in person or remotely depending on the urgency.
No process runs perfectly. A production manager at a coatings plant called about unpredictable settling in their finished product; our suggestion to reduce melt temperature during blending led to not just better product appearance, but improved batch reproducibility and less downtime.
Mistakes surface, sometimes in our outgoing stock, sometimes in process transfers or downstream formulation. Our customer feedback system feeds every event, good or bad, into continuous improvement sessions. Many users appreciate knowing their specific plant quirks shape the advice and process tweaks we pass along with each order.
Packaging choices influence every aspect of usability downstream. From decades of customer conversations, we commit to tightly-sealed, moisture-resistant drums and pails—avoiding cheap liners, which too often crack in cold weather or burst with rough handling. Winter shipping calls for insulated containers or heated trucks for larger orders; most of our repeat customers request tracked deliveries so they can stage inventory and prep for bulk transfer without schedule surprises.
In our shipping department, every outgoing container receives individual label verification, load checks for damage, and documentation confirming lot control. Materials destined for pharma or food-contact sectors get separate clearance to avoid cross-contamination and meet regulatory guidelines.
Feedback from customer receiving teams drives continuous packaging tweaks: screw-caps for better resealing after partial use, inner liners for regions with humidity swings, and lot-numbered labels that hold up to rough treatment in storage.
Selection among similar alkyl amines often boils down to practical experience, not just product brochures. We advise against over-relying on general property tables—product functionality shifts with each subtle change in lab or factory conditions. Our chemists encourage customers to test small lots side-by-side before committing to large-scale transitions, especially in high-value or regulated applications.
We maintain a support database tracking results from dozens of application trials across industries: performance in textile softening, emulsion stability in corrosion inhibitors, process safety in pharma intermediates, and more. This lets us supply actionable guidance based on peer experience and statistically meaningful data—not just anecdotes or marketing talk.
Scaling up from lab to plant size always reveals hidden constraints. Our technical team regularly helps customers adjust dosing, blend rates, or melt strategies in response to differences in raw material composition, equipment vintage, or desired end-use performance. Often, what works perfectly on paper needs real hands-on adjustment to achieve production goals.
Supplying 1-Tetradecylamine is not a one-off transaction for us. We see each customer as a research and troubleshooting partner—and each new manufacturing challenge as an opportunity to improve both our chemical and our process. It matters little if you run a batch operation in a single-customer plant or manage a continuous line feeding global supply; reliability, adaptivity, and clear communication drive better outcomes all around.
We extend open lines for technical feedback, sample trial requests, and face-to-face process troubleshooting. Only by listening to the day-to-day stories from customer operations have we learned where our product delivers real value—and where our existing processes still need refinement.
Industry needs shift every year. New regulations, shifting raw material supply, evolving market demands, and process innovations all push us to keep learning and adapting. 1-Tetradecylamine has found new uses and delivered better results thanks to the customers who have stuck with us, challenged our assumptions, and tested new ideas. If you have a process challenge or need to compare performance firsthand, our team draws on every lesson learned and makes sure practical knowledge moves from our plant floor to yours.