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HS Code |
834963 |
| Chemicalname | Cetyldimethylammonium Chloride |
| Casnumber | 112-02-7 |
| Molecularformula | C18H39ClN |
| Molecularweight | 305.96 g/mol |
| Appearance | White or off-white crystalline powder |
| Odor | Mild, characteristic |
| Solubilityinwater | Soluble |
| Meltingpoint | 242-247 °C |
| Ph | 5.0-7.0 (1% solution) |
| Boilingpoint | Decomposes before boiling |
| Usage | Surfactant and disinfectant |
| Density | 0.89 g/cm³ (at 20°C) |
As an accredited Cetyldimethylammonium Chloride factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Cetyldimethylammonium Chloride is packaged in a 500g sealed HDPE bottle with a tamper-evident cap and clear hazard labeling. |
| Shipping | Cetyldimethylammonium Chloride should be shipped in tightly sealed containers, away from heat and incompatible materials. It must be clearly labeled and handled as a hazardous substance. Follow all local and international shipping regulations, including proper documentation and packaging, to ensure safe and compliant transport of this chemical. |
| Storage | Cetyldimethylammonium 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. Protect from moisture and direct sunlight. Avoid sources of ignition and heat. Ensure the storage area is equipped with suitable spill containment and clearly labeled to prevent accidental exposure or misuse. |
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Purity 98%: Cetyldimethylammonium Chloride with 98% purity is used in textile softening processes, where it imparts enhanced fabric softness and antistatic properties. Molecular weight 284.94 g/mol: Cetyldimethylammonium Chloride with molecular weight 284.94 g/mol is used in hair conditioner formulations, where it improves emulsion stability and conditioning efficiency. Melting point 242°C: Cetyldimethylammonium Chloride with a melting point of 242°C is used in industrial cleaners, where it provides effective cationic surfactant action for grease removal. Solid form: Cetyldimethylammonium Chloride in solid form is used in water treatment applications, where it enhances biocidal activity and microbial control. Aqueous solution 20%: Cetyldimethylammonium Chloride as a 20% aqueous solution is used in disinfectant products, where it achieves rapid surface sanitization and broad-spectrum antimicrobial efficacy. Stability temperature 80°C: Cetyldimethylammonium Chloride with a stability temperature of 80°C is used in oilfield demulsifier systems, where it maintains performance in high-temperature separation processes. Viscosity grade low: Cetyldimethylammonium Chloride with low viscosity grade is used in liquid detergent formulations, where it enables homogeneous blending and easy dispersion. Particle size <100 microns: Cetyldimethylammonium Chloride with particle size below 100 microns is used in agricultural adjuvants, where it promotes uniform distribution and improved agrochemical efficacy. |
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Cetyldimethylammonium Chloride, known in some labs and factories as a quaternary ammonium compound, finds steady use across cleaning, pharmaceutical, and industrial sectors. My first encounter with it happened in college, when we scrubbed floors in a clinical lab with a solution the supervisor swore by. Over time, I caught on to why facilities managers and chemists trust it for disinfecting surfaces and for stabilizing other ingredients. This compound sticks out mainly because it’s more than just a cleaning agent; it does work in emulsifying, static control, and fabric softening, depending on the formula and concentration.
You’ll run into this chemical mostly in disinfectants for surfaces and hands. Schools, clinics, veterinary offices, and food-processing plants use solutions containing Cetyldimethylammonium Chloride. Unlike some cleaners that lose power around organic dirt, this one proves pretty resilient. I’ve watched it tackle sticky countertops, restroom tiles, walls streaked with fingerprints, and workbenches in factories. It won’t provide magic, but it delivers repeated results that justify its use. It has a bit of a reputation in textile and paper manufacturing too, where its antistatic and softening traits come in handy. If you’ve ever been curious about what keeps a towel soft after ten washes, this compound is part of that story.
From research and talking to janitorial teams, I’ve learned that the chloride salt form boosts shelf stability and works across a range of temperatures. Some old-school disinfectants struggle when facilities wash with hard water. Cetyldimethylammonium Chloride isn’t fussed by that challenge. Folks appreciate that reliability, especially when budgets tighten and supplies need to last longer. In laundries and institutional cleaning, nobody has time to troubleshoot chemical reactions that don’t go as planned. This is one of the reasons it keeps showing up in the purchasing lists of managers I’ve spoken with.
Technical users often look at product specifications to gauge compatibility with their cleaning or mixing equipment. Cetyldimethylammonium Chloride comes in liquid form, and the best-known models offer concentration ranges from about 20% to 50%. Different manufacturers might tweak this percentage, but most finish in this ballpark, making it easy for supply teams to anticipate dosage and storage. It pours clear to pale yellow, emits only a mild odor, and dissolves easily in water at room temperature. Its chemical structure resists breakdown from light and heat, so it spends months or even a full year on shelves without going off.
Unlike many traditional surfactants, this compound doesn’t foam much. Operators in the food industry often complain about soaps that lather up so much that rinsing them becomes an ordeal. The low-foam trait speeds up cleanup, which in turn cuts down on water and labor costs. I’ve seen janitors with tanks strapped to their backs spraying it—no need for endless wiping with towels. Wastewater treatment plants also welcome its breakdown profile: it won’t linger in effluents the way some persistent chemicals do.
A crowded market exists for cleaning agents, but few surfactants manage to balance cost, performance, and safety quite like Cetyldimethylammonium Chloride. Compared to standard quaternary ammonium types, such as benzalkonium chloride, this one shows milder effects on skin and surfaces. In hands-on cleaning work, where gloves sometimes tear or get misplaced, custodians report fewer rashes and less dryness. Benzalkonium has its fans, but maintenance crews and hospital staff who switch brands notice Cetyldimethylammonium Chloride doesn’t leave the same lingering chemical “burn” or carry as much odor after use.
Cationic surfactants such as this don’t just clean: they condition. Shampoos for pets, fabric softeners, and some cosmetics rely on its softening skill. Hair-care chemists prefer it since it clings to fibers, keeping hair smoother compared to non-quat surfactants, which tend to strip or over-dry. In a way, it threads the needle between heavy-duty industrial and gentle household use, though always handled with respect and according to safety guidance.
Unlike hypochlorites or peroxides, it doesn’t corrode most metals, discolor tiles, or pit plastics over time. Facilities where diverse surfaces see the same mop appreciate the peace of mind. I’ve seen maintenance logs credit fewer complaints about streaking and faded paint when managers put Cetyldimethylammonium Chloride on the regular order list. Institutions juggling regulatory safety, surface protection, and cost control end up relying on this versatile chemical more than they expected.
No chemical product enters use without scrutiny or downside. Cetyldimethylammonium Chloride, though less harsh than some rivals, still deserves careful handling. Overdosing or improper rinsing can leave slick residues, especially on floors. Workers report extra slip risk in places like locker rooms when too concentrated a formula touches tile. Training and clear labeling reduce these risks. Operating procedures should spell out dilution ratios, and some companies now use dye markers in the concentrate to guard against accidental overuse.
There’s an ongoing discussion concerning the environmental fate of quaternary ammonium compounds. Water treatment facilities track their breakdown and removal. Cetyldimethylammonium Chloride does biodegrade, but the rate depends on the concentration and local water treatment setup. Some environmental chemists push for extra scrutiny, wary of possible buildup in aquatic environments. Real-world measurements show most municipal systems handle the load well, but industrial parks with high volume can bump against local caps. As more research emerges, calls grow for even greener, more rapidly degrading surfactants. In the meantime, responsible suppliers run voluntary wastewater checks and support eco-labeling for formulas with faster breakdown profiles.
In the consumer world, calls for transparency drive labeling improvements. End users—cleaners, teachers, plant technicians—now demand ingredient lists that spell out the chemical makeup of what goes into service rooms and janitorial closets. Overhearing chats in supply rooms and during safety audits, I notice staff feel more at ease when they know exactly what goes into each bottle. Suppliers take note and offer safety training by video or online, making learning about safe use easier. This kind of open dialogue builds trust and prevents misuse.
Bulk buyers looking for a cleaning agent routinely run cost–benefit studies, comparing not only price per liter but also performance and compatibility in their system flows. Through interviews with purchasing managers, I hear recurring feedback that Cetyldimethylammonium Chloride stretches further than many other surfactants. You get more cleaning cycles per drum when you hit the dilution sweet spot. Large medical facilities with five or more buildings shave hours off their turnaround time thanks in part to this compound’s persistence and low reapplication demand.
Advances in chemical blending allow more precise, less wasteful additions of Cetyldimethylammonium Chloride into finished disinfectants and specialty formulas. Robotics on factory lines make dosing more accurate. As a result, end users benefit from less variability between batches. Reliability earns loyalty: once a building management team sees consistent results, they rarely switch unless price shocks force their hand.
Consumer safety is never far from the mind. Parents, pet sitters, and health-conscious buyers read up on every ingredient their products touch. In the world of “green cleaning,” there’s growing debate over which compounds deliver results without loading surfaces and drains with harsh residues. While Cetyldimethylammonium Chloride doesn’t carry the same risks as bleach or industrial acids, regulatory bodies still track its levels and investigate long-term effects. As a writer who tracks ingredient safety, I’ve noticed steady updates—newer products carry QR codes that lead straight to digital safety sheets and disposal tips.
Research labs in universities and private corporations push forward, looking for ways to boost performance and shrink environmental impact. Enzyme cleaning agents and plant-derived surfactants run in parallel to quaternary ammonium solutions. Yet, every lab tech I’ve spoken to says synthetic quaternaries keep their place because they mix well, stay stable, and deliver antiseptic power required by regulations in medical and food contexts.
Efforts to tweak the molecular structure of Cetyldimethylammonium Chloride haven’t yet yielded a knockout replacement. Still, there’s room for improvement. Scientists explore lower-toxicity counter-ions, blend-ins reducing aquatic toxicity, and even methods to speed up environmental breakdown without reducing shelf life. Reports from industry trade journals show some manufacturers testing slow-release beads or capsules that lock in the quat until it contacts a surface, which might reduce waste and overapplication.
Lab managers from cleaning-product startups share stories of prototype blends that include this compound at lower total concentrations, boosted by enzymes or other co-surfactants. Some new models show promise but face regulatory checks before hitting store shelves. For now, most large facilities stick to time-tested blends, cautious about compliance or warranty worries. My time spent in industrial park meetings with procurement staff reminds me: change is slow in regulated industries, and trialing new chemistries takes lots of data and a trust-building process with line workers and supervisors.
Validity matters most for any substance touching millions of lives daily. Scientific literature in journals such as the Journal of Hospital Infection and Applied and Environmental Microbiology gives evidence of Cetyldimethylammonium Chloride’s broad-spectrum abilities against bacteria and some viruses. Regulatory authorities in the United States, Europe, and Asia place strict limits on its use and set safety standards for public-facing products. Guards exist for minimum residue, safe dilution, and allowed concentrations in ready-to-use solutions.
Lab tests simulated on stainless steel and plastic, spanning healthcare and food prep settings, repeated the finding: it erases surface microbes without aggressive abrasion or color change. Unlike bleach, it keeps surfaces bright and avoids corrosion, so more operators trust it for procedures demanding repeated disinfection. Trade associations supply lists comparing tested performance, which helps buyers choose right-sized blends for their cleaning challenges. I’ve pored through plenty of annual reports explaining cleaning results in hospitals and schools that switched away from sprays or wipes based on older chlorine or alcohol mixes.
Recent years brought tighter controls in markets where environmental health now drives procurement decisions. Green labeling programs reward formulas that cut persistent residues and quicken breakdown after use. In response, chemical companies fine-tune process controls, tracking how much Cetyldimethylammonium Chloride leaves their plants and where it ends up. Supply chain transparency appears more in contracts; audits request proof of responsible sourcing, eco-safe disposal, or certified reduction in packaging footprint.
It pays to look deeper than label claims. Professional users, from small-business cleaners to municipal building managers, benefit from understanding when, how, and in what dose Cetyldimethylammonium Chloride works best. Dilution impacts whether a product dispatches bacteria or merely freshens air. Training programs, especially for new hires and staff who rotate through jobs, often skip the chemistry but underline practical instruction: avoid mixing with other cleaning agents, always rinse food-contact surfaces, and store concentrates away from heat and light. This boots-on-the-ground advice keeps both people and surfaces safer.
Stories from custodians and technicians point to one clear truth: unknown or misunderstood chemicals breed trouble. Spills from poor capping or confusion over the right blend ratio not only waste money but sometimes endanger coworkers or building users. Supervisors take up the slack with poster reminders, emailed checklists, or QR-code links to video explainers. In some regions, schools with younger or less-experienced staff rely on color-coded bottles and illustrated wall charts to remove guesswork.
Questions about the future of quaternary ammonium compounds drive ongoing research and debate. Some buyers call for stricter use in high-touch public spaces, focusing attention on alternatives that hold up in labs but can’t yet match practical real-life results. As regulation shifts and worker expectations rise, suppliers experiment with blends containing biodegradable co-surfactants or natural additives to drop total quat content.
Deep cleaning in elder-care homes, gyms, and transit stations must balance quick turnaround against hard rules about ingredient limits. Cetyldimethylammonium Chloride still fits the need: powerful enough to disinfect, gentle enough on hands and hardware, adaptable to existing spray heads, mops, and washing machines. Field tests, case studies, and manager feedback keep shaping best practice guidance each time new findings hit.
Teams in the cleaning and sanitation sector find value in transparency. Sharing breakdown results and inviting independent product reviews shows openness to scrutiny. I’ve noticed in vendor meetings that teams respond to evidence-backed results paired with real-world experience, not only laboratory promises. Growing calls for eco-audit reports only speed up move to even safer, more planet-friendly formulations.
Cetyldimethylammonium Chloride holds a unique place in the world of cleaning and chemical industry. From my work in facilities management to long talks with chemists and supply buyers, I see how it continues to bridge old-school cleaning demands and the new realities of safety and environmental care. Not every product achieves this balance. In crowded supply rooms, at the end of overnight shifts, on job sites where every minute matters, the best choice turns out to be the one that works day after day, with as few surprises as possible. Cetyldimethylammonium Chloride, even as alternatives develop, represents a blend of science and practical know-how that earns its shelf space across many industries.