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HS Code |
962364 |
| Chemical Name | Butyltrimethylammonium chloride |
| Cas Number | 56-93-9 |
| Molecular Formula | C7H18ClN |
| Molecular Weight | 151.68 g/mol |
| Appearance | White crystalline powder |
| Melting Point | 220-222 °C |
| Solubility In Water | Soluble |
| Boiling Point | Decomposes before boiling |
| Density | 0.93 g/cm3 |
| Odor | Odorless |
| Ph | 5.0-7.0 (5% solution) |
| Storage Temperature | Room temperature |
| Stability | Stable under normal conditions |
As an accredited Butyltrimethylammomium Chloride factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 1 kg of Butyltrimethylammonium Chloride packaged in a sealed, high-density polyethylene bottle with tamper-evident cap and clear labeling. |
| Shipping | Butyltrimethylammonium Chloride is shipped in securely sealed containers to prevent moisture uptake and contamination. The packaging complies with chemical transportation regulations, and containers are properly labeled with hazard and handling information. Transport is typically at ambient temperature, avoiding exposure to extreme heat or cold. Ensure safe handling and storage upon receipt. |
| Storage | Butyltrimethylammonium chloride should be stored in a tightly sealed container in a cool, dry, and well-ventilated area. Keep it away from incompatible materials such as strong oxidizing agents and acids. Protect from moisture and direct sunlight. Ensure containers are clearly labeled, and avoid prolonged exposure to air to prevent decomposition. Practice good chemical hygiene and use appropriate safety measures when handling. |
Applications of Butyltrimethylammonium Chloride in Industrial ManufacturingAs a direct manufacturer, we support diverse industries using Butyltrimethylammonium Chloride as a phase transfer catalyst, antistatic agent, and specialty processing aid. The following sections present core downstream applications, with each scenario specifying regulatory compliance, dosing practice, integration method, and resulting end-products. 1. Organic Synthesis – Phase Transfer Catalysis in Quaternary Ammonium Salt ReactionsProducers of fine chemicals and specialty intermediates incorporate Butyltrimethylammonium Chloride to facilitate phase transfer reactions, particularly in alkylation, nucleophilic substitution, and esterification involving immiscible aqueous and organic phases. Its molecular structure provides superior solubilizing power for inorganic anions, expediting reaction rates and improving yield. Chemists use it extensively in the synthesis of pharmaceutical building blocks and agrochemical intermediates, where batch consistency and reaction completeness directly affect product quality and regulatory acceptance. Industry compliance standards
Typical usage ratio
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2. Electroplating and Surface Finishing for Electronics ComponentsThe electronic components industry uses Butyltrimethylammonium Chloride as a plating bath additive to enhance brightness and uniformity in copper and nickel electrodeposition. It moderates deposit grain size and prevents pitting, supporting both high-speed reel-to-reel plating lines and precision component finishing for microelectronics. Regulatory demand for controlled additive profiles and residual impurity monitoring is critical in this context, with traceability records maintained for every batch. Industry compliance standards
Typical usage ratio
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3. Textile Antistatic Treatment and Fiber ConditioningIn the textile sector, especially for polypropylene, polyester, and polyamide fibers, Butyltrimethylammonium Chloride acts as an antistatic treatment that imparts surface conductivity, reducing static charge build-up during fiber spinning and weaving. Its cationic nature allows strong binding to synthetic polymers, ensuring wash durability and maintaining handfeel. Regulatory traceability, eco-label requirements, and consumer safety profiles are integral to textile manufacturers using this additive in technical and apparel applications. Industry compliance standards
Typical usage ratio
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4. Catalysis for Polymerization and Specialty Resin ManufacturingManufacturers of specialty epoxy and polyurethane resins integrate Butyltrimethylammonium Chloride as a phase transfer and initiator catalyst. It enables controlled anionic and cationic polymerizations, offering reliable molecular weight control, reduced reaction time, and improved chain uniformity. Its efficient facilitation of counterion migration allows precise tailoring of resin physical properties, meeting demanding end-user performance and process safety standards in industries such as coatings, adhesives, and electronic encapsulants. Industry compliance standards
Typical usage ratio
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5. Ion Pairing Agent for Chromatographic and Analytical LaboratoriesContract labs and industrial QC departments employ Butyltrimethylammonium Chloride as an ion-pairing agent in liquid chromatography for optimizing the resolution of anionic compounds. Its use enhances separation selectivity and peak shape for complex sample matrices, enabling quantification of inorganic and organic acids in pharmaceuticals, food additives, and water samples. Laboratories require batch consistency and comprehensive documentation for all analytical-grade additives. Industry compliance standards
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6. Demulsification in Oilfield Production and RefiningOperators in oil and gas production use Butyltrimethylammonium Chloride as a demulsifier to break crude oil-water emulsions during primary separation and dehydration stages. The cationic surfactant properties help coalesce water droplets, ensuring effective phase separation for both upstream produced water treatment and downstream refining operations. Environmental and operational safety constraints dictate dosing and residue control, with real-time monitoring essential for optimizing treatment efficiency and minimizing chemistry-related fouling risks. Industry compliance standards
Typical usage ratio
Downstream process integration
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Working with chemicals at the source, you see how production choices and real-world conditions shape every batch. Our butyltrimethylammonium chloride—often referenced by its shorthand BTMA-Cl—doesn’t stand in isolation. It’s the product of hands-on experience, adjustment, troubleshooting, and, sometimes, trial and error. Speaking as a manufacturer who observes every step from raw materials through final packaging, I see why customers look for dependability and consistency, not just purity.
BTMA-Cl doesn’t arrive on paper; it comes in solid or aqueous solution, depending on factory needs. Some batches run at 98% minimum assay, tailored for fine chemical synthesis. Others may come dissolved at 40% by weight in water, preferred by catalysis and phase transfer customers looking to skip the dust and reduce handling time. These decisions don’t emerge from a spreadsheet—they come from years of running reactors, watching how batches behave under heat, and listening when production crews point out a safer or more efficient approach. If the customer needs a tighter moisture specification, we can adjust the drying or change the packaging airflow, but only after we’ve validated that the product’s flow and handling still meet expectations on the floor.
Not all amines are built for the same jobs. BTMA-Cl finds demand in phase-transfer catalysis, where it bridges organic and aqueous phases, speeding up or unlocking reactions that would stall without its presence. Process engineers often request it for alkylation, hydrolysis, or anion exchange steps, especially where alternative phase-transfer agents fail due to solubility or heat stability problems. Our feedback loop tightens each time a customer calls with a downstream issue or shares an application that pushes ordinary limits. We take those results back into our plant operations, adjusting, for example, how finely we grind the crystalline product or lengthening the hold time in the crystallizer when finer particles lead to dust hazards in their production rooms. It’s not abstract; the process evolves from joint problem-solving with chemists who use our product in pharmaceutical intermediates or specialty resins.
The differences between butyltrimethylammonium chloride and its cousins—tetramethylammonium chloride, benzyltrimethylammonium chloride, or tetrabutylammonium bromide—don’t hide just in the names. Structurally, the butyl group brings a middle ground in hydrophobicity and reactivity, so BTMA-Cl handles phase boundary transfers better than the smaller methyl analogues while keeping volatility and toxicity in check compared to the more hydrophobic tetrabutyl versions. We monitor the batch plant closely because misidentification leads to unexpected outcomes in the end-user’s reactors; that’s why labeling, traceability, and regular off-line QC checks aren’t paperwork exercises—they are our insurance that the customer gets what they counted on. The chloride counterion adds compatibility with many aqueous applications, unlike the bromides, which can bring extra costs or regulatory friction. Sourcing pure precursors, managing process temperatures, and protecting finished goods from ambient moisture and airborne acids makes all the difference between a clear-cut BTMA-Cl and a contaminated batch that will never leave our dock.
It’s one thing to quote a purity number, another to hit it reliably, day after day. Manufacturing BTMA-Cl at scale brings surprises: raw material inconsistencies, energy fluctuations, or batch-to-batch color drift can throw off rhythm. Over years, we’ve learned to calibrate analytical instruments daily and rotate production teams so no process bottlenecks get hidden or unaddressed. By inviting feedback directly from line operators—those who handle feedstocks or monitor vacuum levels—we uncover minor issues like unexpected foaming or residue in the dryer, which, if left unchecked, can become major trouble in product quality or worker safety. Our efforts aren’t just technical. PPE policies, shift training, and routine maintenance mean fewer accidents and more reliable shipments. From our vantage point, what customers call “specification conformance” results from hundreds of small, practical steps, each contributed by skilled hands who know how quickly things can go off track in a chemical plant.
Packing BTMA-Cl isn’t a one-size affair. The 25 kg sacks work for regional blendhouses; the 1 MT intermediate bulk containers serve larger formulators who want lower handling costs. For liquid customers, stainless steel drums or food-grade plastic containers become necessary, especially when the application involves tight trace metal or halide restrictions. We learned early that packaging changes mean more than swapping a box—they alter drying cycles, shipping options, and warehouse stacking plans. A leaky liner or a loose closure can ruin more than a product load; it can undermine trust built over years. That’s why our shift managers watch every packaging run, and our shipping staff run random tare checks to make sure customers get what they paid for. Those who work on the filling line know a small oversight—say, leaving a bag open under high humidity—can compromise integrity across a whole order.
Manufacturers often hear about product failures or inconsistencies from downstream labs, not from purchase orders. When a pharmaceutical processor reports trace organics above threshold, or a polymer plant finds color drift in end products, we investigate both our batch records and the feedback from their operations. Sometimes the fix lives upstream, in solvent choice or filtration depth; other times, it requires a tweak in drying protocols or a change in drum liner material to prevent contamination. For us, real-world feedback guides more than continuous improvement meetings—it shapes daily decision making. Technicians compare retention samples, hunt for off-odors or visual clues, and cross-reference logs from previous campaigns. Updates to mixing times, crystallizer conditions, or flushing procedures often start with on-the-ground trouble reports, not abstract process diagrams.
Making quaternary ammonium salts isn’t just about chemical know-how—it includes regulatory insight. For us, staying current with REACh, TSCA, and other international statutes means years of paperwork, annual reviews, and interfacing with government bodies whenever regulations shift or new analytical thresholds get enforced. We run third-party audits and track raw material chain-of-custody to avoid stumbling over legal lines that could stop shipments or block customs clearance. These rules go beyond pure compliance; they force us to adjust processes to meet new environmental or worker safety measures, especially around waste capture and recycling. Our environmental health team fields audits and incident reviews, looking for practical ways to reduce VOC release, eliminate leaks, or design new closed-system handling protocols for improved safety, rather than just passing annual inspections.
Customers today ask about source traceability and greener production alternatives. In our factory, that means more than installing a new scrubber or switching lights to LEDs. To lower carbon and water footprint, we source from rigorously evaluated suppliers who track their emissions. We invest in process intensification, reducing steam usage per ton by optimizing reaction yields and recovering heat from distillation overheads. Workers bring forward ideas for solvent recovery, and we pilot these changes at small scale before rolling them out fully. Progress on waste minimization and smart energy use doesn’t always show up on a certificate, but it changes our margins and cuts down reregistration costs when environmental statutes evolve. Having lived through solvent contamination incidents and seen their real cost, our team keeps sustainability on the table during every process review, balancing cost, reliability, and environmental responsibility without letting any one metric dominate decisions.
People who don’t make their own chemicals often miss how quickly markets pivot. We meet sudden booms in demand with overtime, and sometimes need to scramble for extra raw material in a tight global market. When a downstream sector—pharmaceuticals or electronics—sees a shift, that rolls back through our factory floors. Product forms like ultra-fine powder or pre-made solutions evolve because the market drives those requests. When a competitor exits or changes product lines, we see order volumes shift, and often face tighter lead times. Our planning meetings run on numbers, but the pulse of the market is felt through logistics bottlenecks, late-night equipment maintenance, and last-minute order changes. We know from experience that adapting quickly—sometimes over a weekend—matters more than static forecasts or templated response letters.
No chemical plant runs every batch perfectly. Equipment fouls, a heating jacket leaks, a filter plug surprises the night shift, or a batch passes release specs but falls short in the user’s process. We own those outcomes, bringing findings back to our tech meetings and collaboration sessions with customers. It’s not just about “continuous improvement” as an enterprise goal; it’s about keeping hard lessons catalogued, sharing them through shift briefings, and using that knowledge to preempt mistakes. Some customers are open about troubleshooting, sharing samples and process conditions; others keep details confidential, but even then, we try to reconstruct the root issue from our controls and logs. Years of these exchanges leave our team with a playbook of what works, what fails, and what’s yet to be tried, helping us match product to application even when the documentation doesn’t tell the whole story.
Outside observers sometimes speak about “quality systems” as if they’re just forms to fill out for auditors. From our side, quality assurance includes walking the plant floor, running mock recalls, and tracking batch genealogy from incoming raw material to filled pallet. Inconsistent color, off-odors, or subtle differences in melting point never leave the lab unchecked. A day when an operator raises a flag about bulk density, even if not a firm spec, prompts a meeting between QC, production, and packaging. Sometimes those “nuisance checks” flag a lurking process drift or an undetected impurity. The most telling feedback comes not from the certificate of analysis, but from the cycle times in a customer’s reactor or the finish gloss on their batch. Factory managers and lab staff both know that a late-discovered issue can mean returned product or lost business, so rigor in quality is as much about shared vigilance as it is about protocols.
Seeing the range of applications for BTMA-Cl—specialty coatings, pharmaceutical intermediate processing, water purification, and more—forces us to balance batch customization with scale economics. One day, a process engineer may call for improved flowability for powder transfer in an automated blending line; the next, a researcher wants a low-halide grade for sensitive electronics. To serve both, we organize campaigns with process set-ups tuned for their requirements, using dedicated equipment or extra filtration steps to control cross-contamination. Cross-training production teams keeps operations flexible and mistakes rare. The reality of producing BTMA-Cl isn’t about chasing the “next big thing;” it’s about holding enough versatility to serve a steady, diverse customer base while avoiding quality slip-ups from overextending plant capabilities.
Stable output of BTMA-Cl depends on steady streams of reliable raw materials. We track global trends in amine and alkylating agent markets, knowing that a pinch in supply, a shipment held at the port, or a contaminated lot impacts our plant’s rhythm. Sourcing teams vet every new supplier on quality, impurities, and supply chain security. Price swings and new environmental rules drive our procurement, and sometimes force plant-wide reformulations. Every time we qualify a new procurement partner, we run real-world validation at pilot scale, not just lab bench or paper assessment, to ensure there are no surprises in downstream reactions. Losing a shipment due to impurity or off-gassing not only triggers extra costs—it jeopardizes downstream business and creates bottlenecks that can affect whole production runs.
We get a close-up view of shifting trends from our customers. Cleaner, safer, and more environmentally benign products grow in importance, prompting continued investment in filtration and contaminant control. Minor byproducts that drew little attention years ago now receive spotlight scrutiny, especially in pharmaceutical and electronics applications. With each regulatory update or market pivot, we develop new grades or process tweaks to stay ahead of what the next audit or end-user might demand. Our R&D maintains close links with process engineering, ensuring improvements exist not just on paper but function in daily production. That way, when a new request comes from a demanding partner, we can respond quickly without jeopardizing quality or continuity for existing customers.
From the plant, making BTMA-Cl is more complex than sourcing a drum from a catalogue. Every batch carries the fingerprints of the plant crew, the managers who police deviations, and the logistics teams who deliver on time. Built-in checks, real-world adjustments, and an understanding of chemistry that comes only from hands-on practice set the manufacturer apart from a distributor or trader. Problems are not outsourced, and solutions never last long unless they fit both plant and user requirements. Working at the core of this process, we know firsthand why consistent, high-quality butyltrimethylammonium chloride matters: it impacts yield, safety, compliance, and customer reputation. That’s not just talk—it’s lived experience from thousands of tons produced, analyzed, and delivered into the real economy.