|
HS Code |
169243 |
| Chemical Name | N-Hexadecyltrimethylammonium Chloride |
| Cas Number | 112-02-7 |
| Molecular Formula | C19H42ClN |
| Molecular Weight | 320.00 g/mol |
| Appearance | White to off-white powder or flakes |
| Odor | Characteristic, mild |
| Solubility In Water | Soluble |
| Melting Point | 232-236 °C |
| Boiling Point | Decomposes before boiling |
| Ph | 6-8 (1% solution) |
| Density | 0.96 g/cm³ (at 25 °C) |
| Storage Temperature | Room temperature, tightly sealed |
As an accredited N-Hexadecyltrimethylammonium Chloride factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 500g of N-Hexadecyltrimethylammonium Chloride is supplied in a sealed, amber glass bottle with a secure screw cap and label. |
| Shipping | N-Hexadecyltrimethylammonium Chloride ships securely in tightly sealed, chemical-resistant containers to prevent leaks and moisture absorption. The packaging meets hazardous material regulations, with clear labeling and documentation. It is transported under cool, dry conditions, away from incompatible substances, ensuring safety and compliance throughout transit. Handle with proper personal protective equipment (PPE). |
| Storage | N-Hexadecyltrimethylammonium Chloride should be stored in a tightly closed container in a cool, dry, and well-ventilated area away from incompatible substances such as strong oxidizers. Keep the chemical away from moisture and sources of ignition. Ensure proper labeling and avoid excessive heat. Use appropriate containment to prevent environmental contamination and follow all relevant safety protocols and regulations. |
Applications of N-Hexadecyltrimethylammonium Chloride in Industrial ManufacturingN-Hexadecyltrimethylammonium Chloride serves as a specialty cationic surfactant and antistatic agent in several industrial sectors. As a direct manufacturer, we support downstream producers in applying this material within regulated processes, precise dosing, and customized formulations. Below, we outline key use cases across distinct industries and detail relevant compliance, formulation, process stages, and end products. 1. Surfactant for Emulsion Polymerization in Waterborne CoatingsWaterborne polymer and paint manufacturers regularly adopt this quaternary ammonium compound to stabilize latex particles during emulsion polymerization. The surfactant enables controlled particle nucleation, minimizes coagulum formation, and ensures dispersion stability through all critical phases—monomer introduction, seed preparation, and secondary monomer feeding. Its strong electrostatic effect suits acrylic, vinyl acetate, and styrene-based resins for high-performance architectural paints and industrial coatings. Industry compliance standards
Typical usage ratio
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2. Antistatic Agent in Fabric Softener and Textile ProcessingTextile finishing plants employ this quaternary ammonium chloride for antistatic and softening finishes on synthetic and blended fabrics. The compound attaches firmly to fiber surfaces, especially polyester and acrylics, breaking the static charge buildup and improving handle. Integrated into rinse stages or as part of bulk softener formulations, it also benefits bulk textile producers by reducing machine fouling from static agglomeration. Industry compliance standards
Typical usage ratio
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3. Phase Transfer Catalyst in Organic Synthesis for PharmaceuticalsChemical synthesis operators in API and fine chemical sectors utilize this compound as a phase transfer catalyst to mediate alkylation, nucleophilic substitution, and condensation reactions. Its long alkyl chain boosts affinity for organic phases, promoting efficient transfer of ionic reactants between aqueous and organic media. This method supports high-purity intermediates, yield gains, and process intensification in multi-step synthesis routes for select pharmaceutical building blocks. Industry compliance standards
Typical usage ratio
Downstream process integration
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4. Corrosion Inhibitor in Oilfield Water Injection and Drilling FluidsDownstream oilfield service companies apply this quaternary ammonium product as a corrosion inhibitor in water injection systems, fracturing fluids, and drilling muds. By forming a protective cationic film on steel surfaces, it reduces pitting and microbial-induced corrosion, stabilizing field operating assets. Compatibility with other water chemistry agents and regulated dosing enable effective scale prevention and pipeline asset protection in both upstream and midstream operations. Industry compliance standards
Typical usage ratio
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5. Conditioning Agent in Hair Care and Personal Wash CosmeticsPersonal care producers apply this conditioning agent in rinse-off hair conditioners, shampoos, and antistatic treatments. The compound deposits selectively on damaged hair cuticles, imparting softness, luster, and combability while reducing static charge. Cosmetic labs formulate according to regulatory requirements for safety and skin compatibility, especially for leave-on and rinse-off applications in North America, Europe, and Asia-Pacific. Industry compliance standards
Typical usage ratio
Downstream process integration
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From inside our facility, we can see every stage of N-Hexadecyltrimethylammonium Chloride’s journey. It starts as pure chemicals arriving at our on-site storage tanks, destined for transformation. The model we highlight—usually known in labs and by formulation chemists as CTAC (with the CAS number 112-03-8)—grows out of careful control of process steps. Our team monitors heating rates, neutralization, and molar ratios for consistent output, targeting the industry’s expectations for a white crystalline powder or viscous liquid, depending on concentration and solvent content. The primary grade we put out holds at 99% minimum purity, matching demands from customers who expect strict batch analytics every time.
We have a practical relationship with this compound. Our technicians rely on conductivity and titration methods when cross-checking assay results, never just on raw appearance or expected outcomes. Color is monitored with Hassall units; moisture by Karl Fischer titration. Every time we see even the smallest deviation, we personally assess the root. It is a hands-on approach, not just tick-box compliance.
What makes N-Hexadecyltrimethylammonium Chloride appealing isn’t only purity or appearance. This chemical plays a broad range of roles in the real-world. Our main manufacturing partners use it for its robust surfactant behavior. The C16 alkyl chain brings a stronger, longer-lasting hydrophobic tail than the more common C12 or C14 analogues. This gives the molecule a pronounced ability to reduce surface tension and create stable emulsions, especially when dealing with oily residues.
Clients in textile processing rely on it as a fabric softener and anti-static agent. They report that it produces softer and smoother finishes compared to shorter-chain variants. In hair care, formulators choose it for conditioning, detangling, and cationic charge deposition. Contrast that to the often-used cetyltrimethylammonium bromide—our product’s chloride form is milder in odor and brings better compatibility in certain water-softened environments.
We keep in touch with users in the mineral flotation field. They trust our material as a collector for specific ores. Being directly involved with quality control, we know that slight changes in active content can shift the entire separation outcome in a flotation process. Blending consistency matters, and we track viscosity, pH (typically 6.0–8.0 in 25% solutions), and dispersibility with real batch samples.
Beyond that, research groups reach out for our CTAC to make nanoparticles, vesicles, and micellar systems. Their results depend on limiting impurities. Synthetic and analytical chemists give regular feedback about how heavier anions or residual organics in third-party material can upset sensitive preparations. This is why our factory’s investment in ion-exchange purification and organic residue profiling makes a measurable difference to repeat users.
Manufacturing brings its own insight into differences between product grades and competing molecules. Chlorides and bromides are often spoken of interchangeably in literature, but the bromide alt form raises regulatory costs for some end users in cosmetics and certain water treatment regimes. Our customers avoid shipment headaches and downstream limitations by sticking with the chloride version. We run systematic bromide exclusion checks, tightening our specs beyond general requirements.
Chain length sets CTAC apart from other quaternary ammonium salts. In direct comparison, dodecyl or tetradecyl analogues (C12 or C14) dissolve more rapidly in water but lose out in forming tough, durable micellar structures. Our customers in latex stabilization want this advantage—stronger self-assembly and less tendency for premature coagulation during storage. It’s not a subtle difference when you watch a latex batch fail because of an underperforming short-chain surfactant.
Product form is another seldom-discussed issue. Large buyers need 50% or higher concentration liquid forms for automatic pumping; others want free-flowing powders for fast blending. We realized the need for more than one offering years ago, so now we tailor drying and dilution to order size and downstream handling preferences. Granular CTAC looks visually uniform, but our teams constantly watch for caking and flow problems—especially in humid regions. In bulk liquid, we add anti-static and flow additives only at customer request, maintaining transparency throughout.
Customers approach us with problems. A textile mill calls about yellowing, and we know to ask about both iron content and the presence of trace aldehydes—which can cause unplanned reactions with CTAC during drying. When a chemical blender complains that competitive surfactants left oily residues, we suggest checking their water’s hardness and adjusting their sequence of additions. CTAC stands up well across a wide pH, but if someone dumps an acid in first, hydrolysis may ruin both batch and machinery.
Our production partners from the asphalt industry often run formulations late into the night, blending batches at scale for road surfacing. They prefer our CTAC because it speeds up aggregate emulsification and holds consistency through temperature swings. We’ve observed, trialing side by side with lower-purity material, that trace nitrate contamination can degrade application performance overnight. Tracing these differences back to upstream purification steps became a central part of our process auditing.
Academic groups provide some of the most innovative use cases. From DNA binding in molecular biology to surfactant-templated synthesis of silica particles, the requirements keep changing. It’s not enough for us to ship bulk containers; we support custom packaging, glass ampoules, or even special documentation when they’re running method validations or publishing.
Businesses operating in highly regulated water treatment or food industry circles have a different set of priorities. They consult us not only for documentation, but for traceability and guarantee of allergen- and contaminant-free status. Because CTAC occupies a sensitive category in several food-contact areas, we audit and certificate our raw material lots, batch by batch, before release. Our QC team sits in on direct calls with customer auditors and provides open access to chromatographic and spectrographic data as needed.
It takes more than theoretical knowledge to produce a reliable batch of N-Hexadecyltrimethylammonium Chloride. Process control is a full-time job. Staff training is vital—especially for materials that easily absorb moisture or can be affected by airborne contaminants. Over time, our team has learned the unique rhythm of the product line. Even at routine 10,000-liter scales, subtle equipment bias can introduce micro-variability, so we regularly recalibrate pumps, heat exchangers, and sensors.
Hands-on experience helps manage inevitable human factors. Mixing must happen at just the right temperature, or the product will become hazy or precipitate out during storage. Packaging matters as much as reaction sequence—our plant switched to more robust, UV-blocking plastic drums after a series of complaints about discoloration, caused by sunlight exposure before customer pickup.
Shipping plays a part that people forget. CTAC absorbs moisture quickly, so we focus on airtight seals and humidity tracking in all containers. A single rainy loading dock can ruin a carefully dried batch. Our logistics partners have direct instructions to limit exposure at hand-off points, using coverage and dehumidified storage at every regional facility.
The market offers a range of quaternary ammonium surfactants—many with similar functions, but each brings its own quirks. Dodecyltrimethylammonium chloride gets prominent use in personal care for its fast dissolving action, but in long-term emulsions and stable cationic blends, CTAC takes the lead. Some plants opt for benzalkonium chloride on price; this brings broader antimicrobial profiles but lower performance as an emulsifier in many systems. Our product sits specifically at the point where a longer alkyl tail ensures combined stability and strong surface action.
The counterion matters, too. Bromide versions (CTAB) can run afoul of regulatory scrutiny in Europe and parts of Asia—especially in cosmetics, water treatment, and agricultural-use grades. To meet stricter standards, many users turn to us for CTAC, as it offers similar profile but with lowered restrictions and smoother gel and emulsion textures.
We do not work in isolation. Our chemists regularly exchange feedback with customers who run benchmarking studies. In textile finishing, for example, they note slightly higher yield and easier wash-off compared to older, generic quats. Water treatment clients need assurance of negligible odor and taste transference, and CTAC comes out strong here, as bromides and phosphonium salts can impart unwanted side properties.
Not all users want the most concentrated offering. We see requests for 25%, 50%, and even 75% solutions. Our team adjusts manufacture and storage processes accordingly since higher concentrations risk crystallization or phase separation. In practice, it means watching batch temperature, solvent ratios, and impeller speeds during production, bottling, and shipment. If a factory wants to go straight from bulk tanker to final blend without intermediate dilution, we set up quality checks and stability trials with their team—a hands-on approach that minimizes surprises and wasted production cycles.
Some distributors tell us competitors make do with spot filtration and slap a standard purity label on. In our case, we take each filter, dry, and purification batch through analytical review, tracking not only main component percentage but also critical organic, inorganic, and color impurity levels. Regular failures in other products come from ignoring these small details. We learned this the hard way and take every reported deviation as a call to drive tighter quality through every step.
Not all challenges come from inside the plant. Users often come to us after struggling with unresponsive third-party suppliers. One group needed help after their emulsion batches kept separating during cold storage. By reviewing their reports and reconstructing application protocols, we pinpointed that their blend had slipped outside the critical micelle concentration for our CTAC model. A series of trial blends restored stability, and we honed in on an optimal downstream mixing sequence. They now tie their batch quality process to our shipment batch numbers for traceability.
A different customer—working in specialty coatings—experienced streaking and loss of finish gloss after switching raw material vendors for cost reasons. Sampling and side-by-side tests highlighted that our regular moisture and salt content checks avoided the sort of variability that their new supplier failed to catch. We stepped in with batch-specific advisory support, collecting application data directly in the field. Our technical experts even visited the site to monitor how container handling at their plant might influence results.
Some issues can only be uncovered by direct hands-on interaction. Shipment delays and customs holds present real risk for time-sensitive users—especially for pilot plant runs or R&D projects. We keep open lines with regulatory officers and customs agents at every border we ship through, and provide all required documentation—COA, allergen status, safety data—at short notice. Our approach focuses on keeping customers supplied exactly as their process needs evolve.
Inside our plant, safety takes priority. Our teams handle each container of N-Hexadecyltrimethylammonium Chloride with the same diligence they expect from their own families’ workplaces. We supply real PPE, from gloves to face shields, and track all incident data closely. Staff report even minor leaks or off-spec odor issues immediately—and these issues get investigation and resolution before any product leaves the warehouse.
Global trends have ramped up scrutiny, so we preemptively monitor for restricted contaminants tied to current regional and international regulations. Recent years have tightened allowed limits for residual organic solvents, free amines, and related quaternary ammonium byproducts. We keep a dedicated regulatory compliance specialist on our core team—not an afterthought, not an adjunct responsibility. They update product sheets, monitor market-specific directives, and maintain close contacts with end users’ compliance teams.
Proper labeling, in full alignment with GHS and local standards, helps prevent downstream mix-ups and plant hazards. Our shipments feature clear, correct data—no matter the batch size. Any deviation, such as container integrity or local labeling rules, gets direct review and remedial action before shipping. We share best practices to minimize human health risks and encourage all users to read safety information fully. Our philosophy means we never cut corners on safety, even under pressure.
A chemical like N-Hexadecyltrimethylammonium Chloride may seem like a commodity to outsiders, but daily work inside a manufacturing plant gives a different perspective. Each batch builds on the work and learning of the previous day. We draw direct knowledge from operator expertise, field data, and honest customer feedback—not just test sheets and lab results.
Direct relationships with our end users shape not only our technical guidance, but the continual improvement of our processes. Customers regularly approach us to troubleshoot—and challenge us with new application needs. Our careful documentation of what works and what causes problems pays off with lower rejects, more predictable results, and more enduring business trust.
We maintain clear communication with production partners, research labs, regulatory authorities, and industry groups. Working as active manufacturers means we meet new challenges together, sharing responsibility for quality, safety, and supply chain stability. This mindset shapes every drum, container, and ampoule that leaves our plant and finds its way into formulations, products, and innovations around the world.