| HS Code | 497365 |
| Chemicalname | Lauryl Trimethyl Ammonium Chloride |
| Casnumber | 112-00-5 |
| Molecularformula | C15H34ClN |
| Molecularweight | 263.89 g/mol |
| Appearance | Colorless to pale yellow liquid or paste |
| Odor | Characteristic ammonium odor |
| Solubility | Soluble in water and alcohol |
| Phvalue | 6.0 - 8.0 (1% aqueous solution) |
| Activecontent | 28-30% |
| Chargetype | Cationic surfactant |
| Boilingpoint | Decomposes before boiling |
| Density | 0.87-0.89 g/cm³ (at 25°C) |
| Viscosity | 30-80 cP (at 25°C) |
| Flashpoint | >100°C (closed cup) |
| Applications | Used in hair conditioners, antistatic agents, and fabric softeners |
As an accredited LTAS Lauryl Trimethyl Ammonium Chloride factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | LTAS Lauryl Trimethyl Ammonium Chloride is packaged in a 25 kg blue HDPE drum with a secure screw cap closure. |
| Shipping | LTAS Lauryl Trimethyl Ammonium Chloride is shipped in tightly sealed, corrosion-resistant containers to prevent moisture and contamination. It should be stored and transported in a cool, dry, and well-ventilated area, away from incompatible materials. Proper labeling and handling instructions are followed per regulatory guidelines to ensure safety during shipping. |
| Storage | Lauryl Trimethyl Ammonium Chloride (LTAS) should be stored in a cool, dry, well-ventilated area, away from direct sunlight, heat sources, and incompatible materials such as strong oxidizers. Keep the container tightly closed when not in use to prevent moisture absorption and contamination. Use corrosion-resistant containers, and ensure proper labeling and handling procedures to maintain chemical stability and safety. |
As a manufacturer directly engaged in the development and production of LTAS Lauryl Trimethyl Ammonium Chloride, we focus on supplying this quaternary ammonium compound to sectors where its cationic nature, antimicrobial activity, and surfactant functionality play critical roles in process efficiency and end-product quality. Below, we present the principal downstream industrial fields that routinely incorporate LTAS, each with specific compliance demands, precise formulation practices, production integration details, and representative finished goods.
LTAS serves as a specialized active in the textile industry, primarily for imparting durable antistatic and softening effects to synthetic fibers including polyester, acrylic, and polyamide. Textile finishing operations rely on the compound's cationic surface activity for static dissipation and hand-feel enhancement, particularly in high-speed processing and technical fabric applications where static charge control is mandatory. Selection of dosing levels considers substrate type, desired softening, and compatibility with other finishing agents. Integration occurs in the final rinse or coating bath, ensuring anchoring to the fiber surface prior to drying.
Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
LTAS functions as a conditioning agent in rinse-off and leave-on personal care formulations. Formulators select this ingredient for its cationic conditioning, detangling, and mild antimicrobial properties in creams, lotions, and conditioners targeting damaged or chemically treated hair. The ingredient directly impacts texture, manageability, and shelf stability. Its cationic charge profile supports ingredient deposition on negatively charged hair surfaces, increasing long-lasting efficacy. Production requires precise control during emulsification and pH adjustment for compatibility with other cationics and preservation systems.
Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
LTAS is directly integrated as a non-oxidizing biocidal agent in water treatment pipelines, cooling towers, and closed-loop recirculating systems to inhibit the growth of algae, fungi, and bacteria. Its strong cationic quaternary structure disrupts microbial membranes, resulting in broad-spectrum control. Operators must meet diverse discharge and workplace safety standards, and the dosing profile is based on system volume, organic load, and target organism spectrum. Entry typically occurs at dosing pump stations or directly in high-risk points such as sumps or distribution headers, followed by continuous monitoring of active residuals via water analysis.
Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
In the production of asphalt emulsions for road pavement and surface treatments, LTAS is used as a cationic emulsifying agent to disperse bitumen in water, promoting stable droplets and enhancing adhesion to mineral aggregates. These emulsions demand precise cationic surfactant addition during the aqueous phase preparation stage for emulsion stability and workability, especially in modified bitumen systems and in climates with high heat and moisture cycling. Emulsifier selection and dosage relate to bitumen content, aggregate electrostatics, and mixing intensity. Final surfactant input is critical for setting time and load-bearing performance of the constructed pavement.
Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
The laundry care sector incorporates LTAS as a softening and antistatic component for both household and industrial fabric softeners. Its high cationic activity delivers fiber smoothness and post-wash static control, critical for synthetic blend textiles. Formulation requires balancing with co-emulsifiers and fragrance carriers in acidic aqueous systems, and the ingredient’s active level is controlled for both performance and regulatory compliance related to consumer health exposure. It enters the manufacturing step during bulk premixing before final homogenization and deionized water make-up, with tight QC on dispersion quality and viscosity control prior to bulk packaging.
Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
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Industries working with surfactants and specialty chemicals often come across products described in technical terms, removed from the day-to-day pressures of manufacturing and application. As direct producers of LTAS Lauryl Trimethyl Ammonium Chloride, we live every batch, every challenge, and every opportunity this compound offers. Through decades on the shop floor, regular feedback from field engineers, and continual shifts in supply chain dynamics, our working relationship with this cationic surfactant forms the backbone of our knowledge.
The chemical’s full name—Lauryl Trimethyl Ammonium Chloride, commonly called LTAS—reflects a straight-chain C12 (dodecyl) group attached to a quaternary ammonium head. A clear or lightly yellow liquid, it’s more than a formula on a paper; it’s a workhorse in our daily production, with the familiar scent and texture that signals a well-finished batch. Our current model, identified in the industry as LTAS-1230, typically features a 30% active content, while other concentrations like 35% and 50% are requested occasionally by long-time clients in specific sectors.
Lauryl Trimethyl Ammonium Chloride supports a wide range of cleaning, textile, and personal care applications. Over time, our plant has supplied this material to customers handling antistatic agents for plastics, bacteria control solutions for water treatment, and emulsifiers in hair conditioners or fabric softeners. In cleaning formulations, the ability of LTAS to disrupt microbial membranes underpins its use in disinfectants. Customers who switched from traditional quats with broader spectrum chains, like alkyl dimethyl benzyl ammonium chloride, often report a measurable improvement in low-foam cleaning and a softer feel in textile rinses.
On the production side, we have seen the handling advantages of LTAS compared to other quarternary ammonium compounds. The viscosity and solubility play a major role, especially above room temperature. Our own mixing tanks rarely see phase separation with this molecule, even under less-than-ideal blending conditions, saving both time and utility costs. Downstream users gain flexibility when diluting or post-blending, something that’s shown up in real-world feedback from scale-up trials performed by detergent manufacturers. In water treatment, the strong adsorption onto negatively charged surfaces enhances flocculation processes. Operators running closed-loop systems send us regular updates, noting decreased biofilm growth on equipment after consistent dosing.
Production of LTAS relies on reliable access to raw dodecyl amine and methyl chloride. Tight control at the quaternization stage defines the purity, odor, and performance in the finished product. As we approve every lot, certain properties become non-negotiable: the amine salt content must be tightly controlled to curb unwanted side reactions, and pH stability becomes especially important for high-purity applications in the textile and personal care segments. While lab measurements are part of every shift, nothing replaces the experience of observing the product during filtration and storage. A clear liquid signals a strong synthesis run; persistent haze or phase separation hints at something off in the upstream parameters.
Our experienced staff have handled enough lots to immediately flag subtle changes, like an increased fishy odor or slightly off-white color, which may not show up in routine paperwork but carry importance in specialty markets. Through testing, we have noticed that a consistent active content above 29%—even under non-ideal storage—makes a marked difference in consumer satisfaction, particularly for end-users working with hair care and textile softening products.
In years past, many clients transitioned from traditional quaternary ammonium salts such as CTAC (Cetyl Trimethyl Ammonium Chloride) or even shorter-chain BAC (Benzalkonium Chloride) to LTAS. The reason isn’t theoretical. Lauryl chains deliver a rare balance between surface activity and mildness, especially important in formulas applied directly to skin, hair, or fabrics. CTAC, with a C16 chain, displays stronger antistatic effects but often imparts a waxier or heavier after-feel in hair products and can create buildup on fabrics, leading to complaints from textile finishers about loss of breathability. This doesn’t come up with LTAS, as it rinses cleanly under moderate agitation and shows lower cumulative irritation in third-party dermatology patch tests.
Compared to BAC, which carries a benzyl functional group, LTAS remains less harsh and increasingly preferred by manufacturers looking to market non-irritating, less-sensitizing products. Microbial control remains strong, but LTAS proves especially effective in low-odor, low-residue cleaning agents. Out in the field, hospital cleaning staff mention easier rinsing from surfaces and less sticky residue left on medical instruments.
From a manufacturing perspective, LTAS’s thermal and hydrolytic stability stand out during both processing and storage. Unlike some longer-chain or benzyl-containing quats, we rarely see issues with activity loss after months on the shelf—provided containers remain sealed and away from direct sunlight. Customers in tropical regions have sent back feedback confirming shelf-life expectations as long as product is stored in lined drums or HDPE IBCs. BAC and CTAC often degrade under similar conditions, leading to complaints about reduced effectiveness in end-user applications.
Inside our plant, processing LTAS comes with its own set of learning points. The raw intermediate, laurylamine, needs thorough purification. Slight impurities translate into strong odors or color in the final chloride salt, issues that downstream blenders strongly dislike, especially for personal care. Strict control of reaction temperature during methylation steers product color and yield. Years ago, we trialed higher throughput rates and paid for it with more byproduct amine, leading to product returns from sensitive textile finishers. Since then, we’ve established slower, staged addition as standard practice, ensuring consistent product profile.
Over time, we’ve also experimented with alternative solvents and anti-caking agents. While some work on paper, mixing teams noticed the formation of lumps and filter blockages, which disrupt smooth operations. Now, with continuous filtration under nitrogen, we reliably deliver a particle-free, low-color product even in warm summer months. This commitment helps downstream blenders, who avoid shut-downs caused by inconsistent supply or unpredictable byproduct loads.
Shipping LTAS brings its own learning curve. Once, in an early foray into export by sea, we neglected UV protection and received photos from a partner in Southeast Asia showing yellowed, separated product after the journey. As a result, we switched up drum specifications, lining them with compatible materials to withstand both temperature and light, and now routinely monitor shipping time—practical steps that prevent similar complaints.
LTAS use has grown significantly over the past decade, largely driven by rising demand for gentle surfactant systems in personal care and specialty cleaning. Major international brands now call for traceable supply chains and ingredient transparency, adding pressure to manufacturers like us. Once, only technical properties and price decided supplier selection; now, questions about plant audits, environmental risk, and social compliance drive sourcing decisions.
Direct conversations with formulation chemists reveal a candid shift in priorities. Formulators in hair care mention LTAS outperforms older ammonium salts in maintaining shine and combability, with fewer consumer reports of scalp irritation. Industrial clients managing water recirculation systems appreciate the reduced foaming and faster biodegradability profile compared to older benzalkonium-based quats, which have come under pressure due to lingering residues and regulatory scrutiny.
Long-time textile softener producers share stories of improved ‘hand feel’ on treated fabrics and brighter color yields when switching to LTAS, something supported by in-house abrasion and colorfastness testing. They emphasize fewer returns, less downtime from clogged dosing equipment, and more predictable inventory turnover—concrete benefits that resonate across supply chains.
As manufacturers, we face pressure not only for quality but also on environmental stewardship. While all quaternary ammonium compounds face scrutiny for aquatic toxicity and persistence, LTAS draws favor through a moderately improved biodegradability profile relative to some long-chain analogs. As a result, several European industrial customers now demand additional proof of wastewater treatment compatibility before confirming contracts. We have invested in testing collaborations with academic labs, demonstrating that spent process water can, after dilution and proper aerobic processing, break down LTAS within regulatory windows.
Workers in our plant benefit from the lower irritancy profile compared with harsher shorter-chain or more aromatic quats. Our HSE team tracks skin and respiratory exposure events, and incident rates have dropped as we moved toward closed-loop transfer systems and improved personal protective equipment. Emergency protocols are regularly tested, and fielded customer questions about recommended first-aid actions reflect wider awareness of occupational health issues.
Major multinational buyers are also demanding proof of absence of prohibited impurities, such as nitrosamines, and seek supporting documentation for global registrations—even in non-core markets. Through process improvements, regular raw material audits, and investment in analytical technology, we have managed to surpass typical industry standards and continue proactive communications when regulations evolve.
A few years ago, weather-related disruptions created shortages of dodecylamine—the upstream precursor for LTAS. Having backup contracts with multiple suppliers, local and international, kept our line running and taught the value of diversified sourcing. We maintain detailed batch traceability not only on every lot of LTAS, but upstream back to raw materials, water, and auxiliary chemicals. Regular customer audits have shifted from an exception to the rule, with international cosmetic and textile groups sending site teams to confirm in-person our manufacturing and record-keeping standards.
We regularly update COA formats and technical disclosures so integrators and blenders quickly verify each shipment for consistency in color, odor, and content. End-user trust depends on this, and so does our own ability to avoid batch write-offs or last-minute field complaints. Once, a formulation change from a supplier of methyl chloride produced finished LTAS with a distinctive, unwanted background scent that didn’t show in normal QC testing. Rapid response, immediate hold-and-quarantine procedures, and joint problem-solving with the customer averted a costly recall. These ‘hands-on’ interventions shape our modern approach.
Over the years, improvements in the manufacture of LTAS have come less from official R&D projects and more from collaboration with customers experiencing real pain points. For example, fabric softener blenders pointed out fine particulate residues clogging their dosing pumps. We revisited both heating profiles and filtration stages, and within a single production cycle, delivered cleaner, debris-free product. Feedback loops like this allow adjustments far faster than any formal innovation roadmap.
Through direct feedback, we took steps to tighten up odor targets, with extra deodorization runs for batches intended for personal care. Adjustments to drum rinsing and antistatic treatments reduced cross-contamination and static discharge, which matters in automated filling lines. Regular training of operators on the importance of each visual and olfactory quality check, beyond just numbers on a report, has decreased the number of customer complaints.
Some of the most valuable insights have come from emergency situations. Once, a partner in the cleaning chemical sector faced an unexpected regulatory ban on a commonly used quat in their market. They relied on us for technical suggestions on replacing the antimicrobial component of their flagship disinfectant sprays. Drawing from our own archives and field experience, we shared notes on formulation tweaks, optimal mixing order, pH buffering, and storage recommendations—going beyond technical data sheets into actionable advice. Their confidence in our LTAS came from this open, solution-focused communication.
With ongoing changes in global chemical regulation and heightened consumer expectations for ingredient safety, LTAS Lauryl Trimethyl Ammonium Chloride will see further scrutiny. Our responsibility grows as buyers demand products free of allergens and optional fragrances, requiring valid certifications and proof at every stage, from synthesis through final filling. We see more requests for verification of renewable feedstock routes and confirmation of compliance with local and international cosmetic regulations, such as REACH and TSCA.
Investing in both lab analytics and process automation creates a more transparent, robust supply chain. By pairing new technologies—FTIR and NMR for structural verification—with old-fashioned operator training and regular customer check-ins, we continue to anchor quality in a rapidly shifting market. The best outcomes arise when both buyer and seller speak plainly about what works, what fails, and where to push for improvements. Our goal with LTAS remains clear: provide consistency, reliability, and technical support that stems from direct production experience, not second-hand theory.
Demand for cationic surfactants isn’t slowing down. Sectors looking for more mildness, greener processes, and consistent functionality will keep driving LTAS adoption. Across all feedback channels, a common request lands on our desk: less complexity, more practical help, and unwavering supply integrity. By listening and adapting, LTAS remains a proven foundation for customers looking for high-performing, reliable surfactants straight from the manufacturer’s floor.