|
HS Code |
585814 |
| CAS_Number | 33956-49-9 |
| Molecular_Formula | C14H29N |
| Molecular_Weight | 211.39 g/mol |
| IUPAC_Name | (Z)-tetradec-9-en-1-amine |
| Synonyms | cis-9-Tetradecenylamine, (Z)-9-Tetradecen-1-amine |
| Appearance | Colorless to pale yellow liquid |
| Boiling_Point | 317.7°C at 760 mmHg |
| Density | 0.82 g/cm³ at 20°C |
| Solubility_in_Water | Insoluble |
| Refractive_Index | 1.440 - 1.460 |
As an accredited Cis-9-Tetradecenyl Amine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Cis-9-Tetradecenyl Amine is supplied in a 1-gram, clear glass vial with a screw cap, labeled with product and safety information. |
| Shipping | Cis-9-Tetradecenyl Amine is shipped in tightly sealed, chemically compatible containers to prevent leakage and contamination. It is protected from heat, moisture, and direct sunlight during transit. All packages are labeled according to regulatory guidelines, and shipments comply with safety and hazardous materials transportation standards to ensure secure delivery. |
| Storage | Cis-9-Tetradecenyl Amine should be stored in a tightly sealed container, protected from light and moisture. Keep it in a cool, dry, and well-ventilated area, away from incompatible substances such as strong oxidizers and acids. For optimal stability, refrigeration (2-8°C) is recommended. Always follow safety protocols and local regulations for handling and storage of chemicals. |
Applications of Cis-9-Tetradecenyl Amine in Industrial ManufacturingCis-9-Tetradecenyl Amine, as manufactured in our facilities, serves advanced roles in well-defined chemical sectors. This section presents specific, real-world industrial applications, focusing on how actual manufacturers achieve commercial performance, compliance, and downstream integration. The following scenarios illustrate how this specialty amine functions across dedicated supply chains. 1. Pheromone Synthesis for Insect ControlCis-9-Tetradecenyl Amine stands as a critical intermediate in the synthesis of lepidopteran pheromones for integrated pest management (IPM) products such as mating disruption dispensers. Manufacturers require high-purity amine for reductive alkylation processes to obtain matching unsaturated amide pheromone analogs. The amine reacts with fatty acid chlorides or aldehydes under controlled condensation and purification, with adjustment of stoichiometry based on species-specific pheromone blends. Strict process validation ensures lot-to-lot consistency for compliance in regulatory-restricted crop applications. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Corrosion Inhibitor Formulations for Oilfield OperationsOilfield chemical suppliers formulate the amine as an oil-soluble intermediate in corrosion inhibitor packages, particularly for protection of carbon steel pipelines and storage tanks. The material is introduced as a neutralizing agent and adsorption promoter within specialty surfactant blends. Formulators determine dosing through laboratory evaluation for compatibility with produced water chemistries and temperature cycles. High purity ensures reliable adsorption on metal surfaces and reduced formation of undesirable emulsions in multiphase flow systems. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Antistatic Additive for Polyolefin MasterbatchesPolymer compounders use Cis-9-Tetradecenyl Amine as a functional antistatic agent in the masterbatch production for polyolefin films, especially in high-performance packaging and industrial sheet. The unsaturated amine offers durable electrostatic dissipation when melt-blended with polyethylene or polypropylene resins. Through reactive extrusion, the material co-functions with surfactant-based agents, providing sustained surface migration and moisture-based conductivity. Additive proportion and machine settings are optimized by QA labs to prevent melt instability or blooming in finished films. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Synthesis Intermediate for Surface-Active Agents in Textile AuxiliariesManufacturers of specialty surfactants utilize Cis-9-Tetradecenyl Amine in condensation reactions with ethylene oxide or propylene oxide, producing nonionic or amphoteric surfactants optimized for textile finishing and scouring. The amine’s hydrocarbon chain and unsaturation enhance detergency and wetting performance. Synthesis takes place in closed reactors under nitrogen with precise temperature and pressure regulation, as required for batch or semi-batch processes. Quality control analyzes the degree of alkoxylation to match end-use textile specifications and avoid excess free amine residue. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
|
Competitive Cis-9-Tetradecenyl Amine 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!
Every compound that passes through our reactors has a story, but few draw as much attention from our formulation teams as Cis-9-Tetradecenyl Amine. On any given week, you’ll see it in active production: operators in full gear blending, technicians watching the gauges, and samples lined on the analytics table. The conversations around it are technical, yet grounded in the nuts and bolts of serving clients who measure success by reliability, not just purity. As manufacturers, we focus on what matters in the day-to-day handling, the subtleties of behavior in real operating environments, and how a seemingly simple molecule carves out its niche alongside similar amines in the marketplace.
Cis-9-Tetradecenyl Amine starts with its structure: a fourteen-carbon chain with a single cis double bond at the ninth position, capped by a primary amine. Structurally, it isn’t just another fatty amine; the unsaturated bond in the cis configuration bends the chain, making it behave differently in blends and processing. During synthesis, our operators watch for isomeric purity—since only the cis-9 configuration brings the solubility and reactivity profile that customers rely on. Straight-chain saturated amines like tetradecylamine, with their rigid geometry, miss this unique flexibility.
In production terms, this means our process doesn’t fall back on standard hydrogenation and amination lines. Instead, we draw from both oleochemical expertise and fine management of synthetic steps, blending natural feedstocks and tight distillation to achieve the rejection of byproducts and isomers. Operators monitor color, odor, and viscosity specimens batch by batch—not just numbers on a sheet, but real indicators of what will happen in client tanks and mixing vessels.
Over the years, users of Cis-9-Tetradecenyl Amine have made some priorities clear. Purity matters, but so does the profile of trace impurities; even minor off-notes in odor can shift the outcome in pheromonal blends, inhibitors, and specialty emulsifiers. We deliver material in both bulk and packed units, with most shipments running between 95 and 98 percent assay. We’ve dialed in our final filtration to steady the color between nearly colorless and pale yellow—any darker and downstream processors start making calls. Moisture checks aren’t optional, because even a slight hike can trigger side reactions, especially in synthesis of sensitive compounds.
Packing teams handle the material as an oily liquid at ambient temperature, filling either HDPE drums or lined steel according to client standards as outlined in pre-shipment dialogues. Experience told us not to underestimate the impact of trace oxygen or light exposure, especially when batches await further use in pheromone synthesis or specialty coatings. This attention to handling has cut returns and off-spec complaints to near zero in recent years, at least from clients who store the amine as recommended—under nitrogen, cool, and away from direct light.
Cis-9-Tetradecenyl Amine draws steady inquiries from formulators who track minute changes in raw materials to performance in the field. Pest management researchers watch for its presence in pheromone traps targeting specific moth species. They don’t measure success by laboratory metrics alone; they want material that survives the field, that volatilizes at the right rate, and triggers the intended response in the wild. Here, the cis-9 double bond ensures enough volatility for dispersion without the premature breakdown seen in less stable structures.
Industrial surfactant engineers value a different set of properties: they want the balance of hydrophobic length and amine reactivity that lets their products emulsify oils or adjust pH. On our line, the gentle bend of the cis-9 position marks a departure from stiffer, saturated amines, which tend to form more ordered (and often less dynamic) films at interfaces. Added to formulations in metalworking fluids or specialty cleaners, this amine rarely produces the stubborn residues that sometimes plague alternatives.
If you compare Cis-9-Tetradecenyl Amine to its straight-chain cousin, tetradecylamine, the differences jump out during application. The latter, lacking unsaturation, clings stubbornly to surfaces in cleaning chemistries and may inhibit volatilization in pheromone blends. We’ve watched field formulations take an unplanned turn when the wrong isomer winds up in the drum. There’s no shortcut around molecular geometry: clients who switched from a generic amine mix to our high-purity cis-9 found their sprayable products went from ‘gummy’ to consistent in under three runs.
Some users wonder if cheaper unsaturated amines—like oleylamine—could substitute in higher-load applications. What we’ve seen tells another story: oleylamine’s eighteen-carbon backbone fits a different set of targets, sometimes leaving mid-chain products like ours the only solution for specific vapor-phase release rates or biological targeting. Formulators notice these differences in how compounds behave across humidity ranges, or how quickly they reach targets in enclosed environments. It’s not marketing; it’s feedback from distributors who track field returns and from R&D leads balancing tight regulatory limits.
Every lot that leaves our plant starts as a document, ends as a drum, but in between it’s a series of checks: purity, shelf life, compatibility. Cis-9-Tetradecenyl Amine doesn’t pose uncommon hazards by industry standards, yet practical experience has shown how amine odor can drift if storage conditions slip. Even an afternoon exposed to air and sunlight in open warehousing brings a detectable shift in aroma—subtle, but enough to throw off certain blends. That’s why we monitor both packaging and logistics, making sure shipments reach international points in good condition.
Shelf life keeps coming up. On paper, this amine stores well for over a year with proper isolation, but real-world shipments see temperature swings, repackaging, and sometimes less-than-ideal warehousing. We’ve minimized surprises by nitrogen-purging drums before final closure and offering smaller pack sizes to exporters who can’t guarantee climate-controlled storage. Clients call us when they see haze or discoloration, but the issue almost always tracks back to long hold times or improper headspace management once the drums are cracked open.
End users drive our priorities. We rarely stop at delivering product; the support line handles calls from operators troubleshooting everything from blending rates to residual odors in processing lines. Our technical staff has learned to ask about specific co-formulants—polyols, solvents, other amines—knowing how batch-to-batch variation in Cis-9-Tetradecenyl Amine can tip the balance in sensitive recipes.
The lab keeps reference blends for rapid troubleshooting, and we’ve talked through everything from replacing unsatisfactory batches with special runs to modifying purification protocols to fit evolving regulatory frameworks. Once, a customer flagged increased crystallization in cooler months; our process engineers suggested adjusting temperature profiles during blending, reducing a week of downtime to a few hours of adjustment. It’s this grounded dialogue—honest about manufacturing limits, but always open to process tweaks—that underpins long-term trust.
Chemical manufacturing does not run on technical metrics alone—customers expect a clean compliance trail for every lot of Cis-9-Tetradecenyl Amine. Flavor and fragrance firms want REACH and TSCA registration details, and in every jurisdiction the focus has sharpened around impurities and batch traceability. We have invested in real-time recordkeeping, so batch certificates follow every shipment, backed up with chromatographic and spectroscopic data available for audit.
Clients sometimes ask whether new regulations have forced changes to our synthesis. The answer is grounded in years of process evolution: our plant introduced closed-loop recovery and tighter analytical checks as soon as emerging rules flagged potential thresholds for trace amines and byproducts. Instead of treating documentation as a paperwork chase, we’ve woven it into our core processes, so regulatory inspections no longer slow delivery or complicate shipping.
Plants like ours see the full arc of scale-up. Lab-bench advice rarely stands alone—engineers need workarounds when upstream feedstock quality dips, or when downstream users spot unexpected changes in blend stability. We have handled entire runs that needed correction because a supplier’s raw material failed GC checks, catching the drift early with those “unofficial” samples that tell more than a COA ever will.
One season, a new supplier switched processing methods for their fatty acid inputs. Overnight, a shift in subtle impurities threw off our amination kinetics. By pushing our plant analytics closer to real-time and working directly with the supplier, we brought impurity profiles back within specification, stabilizing yield within a week. It’s these kinds of stories—where quality is not a slogan, but a process grounded in daily vigilance—that shape both what we make and how we talk about it.
Repeat clients tell us two things: first, they want consistency as much as high purity; second, they appreciate transparency when things go wrong. When one batch of Cis-9-Tetradecenyl Amine diverged slightly in color last spring, we held shipment and investigated rather than pushing product out and risking a compounded problem downstream. Our field team traced the shift to a minor solvent carryover, prompting a recalibration before clearing the batch. The customer got advance notice, not after-the-fact apologies, and stuck with us on the next run. These relationships grow from a baseline of delivered performance, yes, but also from the muscle memory of shared troubleshooting.
Over time, users bring us back their newest application demands—higher volatility for field deployment, tighter control over residual odor in enclosed spaces, and adjustment to varying fatty acid EPA limits in target geographies. We have learned that the best improvements come not from grand redesigns, but from process adjustments based on regular feedback loops between plant and application engineers.
Each new run brings learning. Operators log every temperature bump, color shift, and odor variance, feeding back into both process controls and client guidance. Analytical teams update reference spectra not once a year, but month by month, knowing incoming feedstock and seasonal shifts change the product subtly but significantly. Unlike mass-produced commodity chemicals, a specialty amine like this one doesn’t allow for set-and-forget routines. Our improvement cycle moves in small, practical steps, whether by adjusting filtration media, tweaking storage vessel purging routines, or refining distillation cut points in response to minor shifts in regulatory or end-use needs.
Production never exists in a vacuum. Demand shifts as new active ingredients emerge in the pheromone industry, or as industrial chemists tweak their detergency formulations. The pressure on cost fluctuates with oilseed harvests, and sustainability concerns raise the bar for both traceability and waste management. Our internal capability to trace every kilogram back to its feedstock source gives clients reassurance without sacrificing competitive pricing. This is increasingly important for multinational buyers, who now audit suppliers directly and probe both quality and sustainability performance.
We take pride in offering not just a molecule, but a history with each batch: years of process improvement, a technical bench that knows both the strengths and the quirks of Cis-9-Tetradecenyl Amine, and an openness to field data that keeps us evolving. As formulation trends point toward ever-tighter impurity controls, balanced volatility, and blendability with new solvency agents, our role is to keep adapting—testing, refining, and learning with every production campaign.
Future challenges will demand clearer traceability, sharper environmental performance, and faster adaptation to both regulatory and market shifts. Experience has shown us that steady relationships with raw material suppliers, direct client communication, and reinvestment in analytical capability yield long-term resilience. New applications are emerging in areas like controlled-release delivery systems, textile softeners, and agrochemical synergists, and our pilot plant regularly trials new upgrade routes based on this growing diversity of demand.
We’ll continue sharing what we learn, focusing on practical implications for real-world users and bringing deep, hands-on experience to every order and consultation. Cis-9-Tetradecenyl Amine may occupy a specialized corner of the amine universe, but its journey through our plant is shaped by constant feedback, measured risk-taking, and a commitment to both technical rigor and field-ready trust.