|
HS Code |
378987 |
| Chemicalname | Propyltrimethylammonium Chloride |
| Casnumber | 1941-30-6 |
| Molecularformula | C6H16ClN |
| Molecularweight | 137.65 g/mol |
| Physicalstate | Solid (often as crystalline powder) |
| Appearance | White to off-white powder |
| Solubilityinwater | Highly soluble |
| Meltingpoint | 245-250 °C (decomposes) |
| Odor | Odorless |
| Ph | Approximately 6-8 (10% aqueous solution) |
| Boilingpoint | Decomposes before boiling |
| Density | 0.99 g/cm³ |
| Ioniccharacter | Quaternary ammonium salt |
| Stability | Stable under recommended storage conditions |
| Storageconditions | Store in a cool, dry, well-ventilated area |
As an accredited Propyltrimethylammomium Chloride factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Propyltrimethylammonium Chloride is packaged in a 500g white HDPE bottle with a secure screw cap and clear hazard labeling. |
| Shipping | Propyltrimethylammonium Chloride should be shipped in tightly sealed, corrosion-resistant containers, clearly labeled according to regulatory standards. The chemical must be kept in a cool, dry, and well-ventilated area, away from incompatible substances. Follow all relevant local, national, and international transport regulations for handling, labeling, and documentation during shipping. |
| Storage | Propyltrimethylammonium chloride should be stored in a tightly sealed container, away from moisture and incompatible substances such as strong oxidizers and acids. Keep it in a cool, dry, and well-ventilated area, protected from direct sunlight and heat sources. Clearly label the storage area and ensure access is limited to authorized, trained personnel using appropriate safety precautions. |
Applications of Propyltrimethylammonium Chloride in Industrial ManufacturingAs a direct manufacturer, we supply Propyltrimethylammonium Chloride (PTMAC) for specific sectors where its quaternary ammonium structure enables performance as a functional intermediate, process aid, or active component. Detailed below are major downstream industry segments utilizing this chemical, each with unique process, compliance, and formulation requirements. 1. Cationic Surfactant Intermediate for Textile AuxiliariesLeading textile chemical producers incorporate Propyltrimethylammonium Chloride as a key intermediate during the synthesis of cationic surfactant agents. It allows precise control of surface charge properties critical for fabric softeners, antistatic agents, and dye fixing formulations. Our manufacturing clients optimize these agents to improve fastness, antistatic behavior, and fabric hand in industrial finishing lines. Process engineers track the amine value and purity for batch consistency, aligning with stringent export and apparel supply chain requirements. Industry compliance standards
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2. Modifier in Ion Exchange Resin ManufacturingResin formulators in the water treatment sector use PTMAC as a cationic functional group source during the grafting or post-modification stage of strong base anion exchange resin synthesis. Its molecular structure facilitates low-leaching, high-capture resins tailored for potable, demineralization, and industrial process streams. The raw material purity and reaction yield directly affect resin capacity and service lifetime in end-user installations. Industry compliance standards
Typical usage ratio
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3. Electrolyte Additive for Chemical Synthesis of CatalystsLeading catalyst and specialty metal oxide producers utilize Propyltrimethylammonium Chloride as a structure-directing additive and phase transfer catalyst in advanced inorganic material synthesis. Its inclusion supports uniform particle growth, enhanced surface area, and improved ion exchange kinetics for catalysts used in fine chemical and petrochemical refineries. Plant managers monitor introduction timing and molar ratios to optimize catalytic structure and minimize waste. Industry compliance standards
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Downstream process integration
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4. Antistatic Formulation Agent in Paper and Packaging CoatingsProducers of coated papers and flexible packaging employ PTMAC as an effective cationic antistatic agent, especially in formulations for high-speed printing or converting lines. Integrated during aqueous or solvent-based coating, it reduces dust attraction and static discharge, improving runnability and surface quality. Coating line engineers tune its inclusion for minimum migration and interaction with food contact substrates. Industry compliance standards
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5. Stabilizer in Emulsion Polymerization for Waterborne PolymersWater-based polymer emulsion manufacturers incorporate Propyltrimethylammonium Chloride as a stabilizer during the polymerization of cationic, hybrid, or amphoteric latexes. Its positive charge density regulates particle growth and prevents agglomeration, supporting batch uniformity and downstream film properties. Production chemists monitor surfactant stabilizer content to balance viscosity, coagulum levels, and application properties for specialty coatings and adhesives. Industry compliance standards
Typical usage ratio
Downstream process integration
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Here at our plant, we’ve spent years refining the production of Propyltrimethylammonium Chloride, always focused on delivering reliable quality for our customers who demand consistent results. Walk through our manufacturing lines, and you’ll see that attention to detail in every step, from the way we monitor raw materials to how we handle each batch before shipping. We know that in this sector, customers look for more than a high-purity quaternary ammonium compound—they demand precise control over moisture, content, appearance, and handling, especially when processes depend on reproducible chemical behavior every time.
Each drum that leaves our factory holds a compound built on strict control standards. The base compound has the formula C6H16ClN, with a molecular weight close to 137.65, which means you can calculate doses for synthesis or formulation without second-guessing purity. Our usual lot comes as a clear, colorless to very pale yellow liquid. Our technicians watch for changes in both color and odor as these shifts can signal subtle impurities, especially where our customers use the material for downstream synthesis in pharmaceutical or fine chemical applications.
Our typical model sees active content above 98 percent, verified by titration and checked against reference standards. Water levels often stay below 1 percent, checked using Karl Fischer titration. This high-purity approach isn't just a bullet point for the specification sheet—it helps downstream reactions run smoother, without the headaches that accompany side products or trace water. Some commercial forms on the market come as solids, but based on our process flow and customer needs, we find that a liquid format keeps dosing and storage easier, especially when scale-up or high-throughput practices matter.
A lot of users come to us with stories of fouled up reactions or gummed-up feeds when they try to save a few bucks on raw material quality. In manufacturing, chasing cheap can end up being more costly. We set out from the start to never cut corners on controls in the plant. Sourcing genuine alkylamines, using closed-system transfers, and filtering right before final packaging all matter. If off-odors, bits in solution, or strange color appear, our lab techs halt the batch. Old-school experience with new testing protocols helps us flag issues early, so our customers don’t find themselves testing in-process samples only to have a production line grind to a halt.
Exposing a batch to unwanted humidity out on the dock or using open-top fills leads to clumpy solids or split-phase liquid in some factories. With Propyltrimethylammonium Chloride, we focus on sealed stainless steel processes with nitrogen overlay to block water and air ingress. Downstream, end-users run cationic surfactant syntheses, ion-exchange resin preparations, or phase-transfer catalysis, and these applications demand repeatably low conductivity, no color bleed, and little odor. Skipping a drying step or using recycled container drums always leads to more trouble than it’s worth.
Most commercial quaternary ammonium compounds carry their own unique quirks in production and final use. Some, like tetrabutylammonium chloride or tetramethylammonium chloride, behave differently under process heat or tend to hydrolyze or shift pH in certain media. We’ve noticed that the propyltrimethyl variant keeps a solid balance between hydrophilicity and organic compatibility unless exposed to extremes not usually seen in everyday processing.
Those running cationization of cellulose or working in polymer chemistry often come to us frustrated by common quats breaking apart when exposed to alkali. Propyltrimethylammonium Chloride resists saponification and stands up to higher pH processing conditions that degrade similar species. For resin manufacturers, that stability saves costs down the line by dropping the need for constant re-blending or reprocessing. In catalytic applications, especially where phase separation steps need quick settling, this compound’s behavior gives predictable results without the surfactant residues seen with longer-chain analogues.
No chemical producer aims for recalls or batch inconsistencies, especially when downstream fines pile up or regulatory headaches follow. We track every manufacturing step, from amine source documentation, through each charge and temperature cycle, to the final filtered lot. Each drum has a unique lot number and full certificate of analysis linked directly to raw input lots. That traceability pays off—customers hit a snag with a batch of painted resin or find odd results in antimicrobial synthesis, we work the problem backward with our in-house tracking to pinpoint root cause fast.
On-site, our team uses HPLC, FTIR, and titration for confirmation. Sometimes it goes beyond analytical chemistry—old-style experience, like checking viscosity at room temperature, goes a long way in spotting off-batch issues before they ever get loaded for shipping. It's the small stuff that counts: seeing if the viscosity aligns with spec, checking for dissolved solids, grabbing reference retention times. One missed step, including during drying or transfer, risks the whole supply.
We regularly work with customers from different sectors who need Propyltrimethylammonium Chloride for specific uses. Textile processors favor it for fiber modification; the cationic properties help dye fixation and improve the feel of the final material. Here, purity and odor matter substantially, since those end up impacting the final color or smell of the fabric—a factor often left out in theory but obvious on the shop floor.
Clients from pharmaceutical and biotech firms bring us their expectations around quality too. Even parts-per-million levels of an impurity can ruin a batch or set off a chain of costly retesting. Our production tackles those exact concerns: strict GMP-inspired documentation, tight control of reagents, and quick lab turnaround for spot-tests. Fine chemical companies making surfactants and phase-transfer agents rely on that higher quality Propyltrimethylammonium Chloride to raise yields, cut out purification steps, or even stay in line with food- or pharmacopeia-grade uses.
Shipping and storage remain critical. Over the years, we've learned that drum lining material and closure choice affect not just storage life, but processability down the line. Polyethylene liners resist most residue, but the drum seals and venting control headspace moisture—skipping on liner choice means customers see unexpected water content or pH drift. Drums that breathe or sweat moisture during summer shipping create handling headaches in regions with high humidity, so our team pays attention to the small details: desiccant packs, vapor-proof seals, and tracked climate-controlled storage.
On arrival, customers sometimes mix into feed tanks straight from the drum or tote. Off-gassing, especially in warehouses with poor ventilation, causes headaches in ways the material data sheets don’t always predict. We spend time working with our customers on transfer setups, tank venting, and decanting techniques. One customer with a line stoppage traced the issue back to solvent compatibility in gaskets—lessons like that feed our product tech support so similar calls receive a fix rather than a guess.
The reality for every chemical manufacturer is the growing web of environmental and regulatory scrutiny. Propyltrimethylammonium Chloride sits under increasing watch, as does every quaternary ammonium compound, because of their potential impact on waterways and microbial ecosystems if released untreated. Our on-site wastewater setup addresses this directly, breaking down residuals and monitoring effluent so we stay ahead of compliance measures, not just react to them.
Regulatory audits push for cleaner processes, full labeling, and up-to-date documentation. We work hard to keep our SDS, technical library, and regulatory filings current. Customers receive documentation bundles not because of formality, but because downstream users—especially those in regulated product fields—cannot risk breakdowns in the compliance chain. It’s not enough to be reactive; we scan new registry changes, national and regional bans, and shifts in waste handling rules to ensure our processes avoid the knee-jerk crises that ripple through the supply chain when rules change overnight.
It’s tempting to think that one quaternary ammonium compound fits all. That’s a myth that doesn’t hold up. The propyltrimethyl variant behaves with a cleaner, lighter touch where others bring sticky residues or phase separation. In textile work, this means crisper tactile results, fewer headaches in rinse-out stages, and less dye bleed or fiber damage. For our polymer and specialty surfactant manufacturers, using Propyltrimethylammonium Chloride translates to more predictable emulsification and faster reaction times, with fewer unknowns in the final assay.
Some plants try to pivot to cheaper analogues, but they circle back after blocked filters, failed polymerizations, or odorous end-products eat into their margin. Our focus on active ingredient content above market-base specs, minimal side-products, and real-world support makes our offering more than just a jug of chemicals. Reliability forms a bond—plant operators like knowing they receive the same drop-to-drop profile with each order. Our customers don’t gamble when they open a drum; they plan with confidence.
The connection between our factory and the users on the process floor isn’t just transactional. We listen to what customers experience in daily production, adapt our delivery options, and regularly tweak models in line with user feedback. As a people-first manufacturer, our lines ship smaller batch runs for new pilot programs or provide custom packaging for automated dosing systems—change isn’t a burden here, it’s part of the improvement cycle.
Regular roundtable sessions with end users drive real change. Once, a major textile operation found trace cloudiness in blending tanks. Clear back-and-forth traced it to local water condition changes, something our lab work picked up after a single batch sendback. We adjusted formulating steps, recommended tank-side filtration and retesting for them, and the issue cleared without lingering disputes. Real partnership grows from this responsiveness, not from boilerplate service contracts.
Committing to quality isn’t just about certifications or posting up new procedural boards in the factory. It comes from culture—the mindset that a batch only gets released if it truly meets the marks we set. A small deviation from norm, flagged in the morning run by a vigilant shift lead, sends a signal to verify everything before anyone else, including our customers, ever notices. Cutting your own corners to save pennies belongs to the paper-pusher’s world, but not the factory operator’s, because every fix after the fact costs more than setting it right up front.
In the end, real-world reliability is earned with every jug loaded, every customer call answered directly, and every tweak made after feedback. Trust, batch-to-batch repeatability, and long-term thinking aren’t buzzwords—they’re the difference between being a supplier and truly partnering with every process our product ends up in.
Our journey with Propyltrimethylammonium Chloride isn’t static. We build on established process reliability while always scouting improvements that reduce waste, drive down environmental impact, or deliver cleaner final product. New models in the pipeline target micro-contaminant control and address specialty needs voiced by biotech and polymer customers—fewer extractables, tighter residual salt levels, or tuned odor thresholds.
Responsible stewardship blends technical skill and ethical production. Cleaner process chemistry, smarter facility controls, and open lines of troubleshooting shape how we grow. As regulatory focus sharpens, our work doesn’t rest on compliance alone—we believe that staying ahead is as critical as keeping up, for environmental responsibilities and everyday plant safety.
After decades as a chemical manufacturer, one principle has held true: consistent quality and real expertise never go out of style. Every batch of Propyltrimethylammonium Chloride bearing our name reflects that commitment—from raw sourcing, through technical validation, to final delivery on the shop floor.