|
HS Code |
211042 |
| Cas Number | 51899-35-5 |
| Molecular Formula | C40H85NCl |
| Molecular Weight | 618.6 g/mol |
| Appearance | Colorless to pale yellow viscous liquid |
| Odor | Mild or characteristic |
| Solubility In Water | Insoluble |
| Density | 0.88–0.90 g/cm³ at 20°C |
| Boiling Point | Decomposes before boiling |
| Flash Point | > 110°C (closed cup) |
| Refractive Index | 1.455–1.465 at 20°C |
| Stability | Stable under recommended storage conditions |
As an accredited Tridodecylmethylammonium Chloride factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 500g of Tridodecylmethylammonium Chloride is supplied in a tightly sealed white HDPE plastic bottle with a tamper-evident cap. |
| Shipping | Tridodecylmethylammonium Chloride should be shipped in tightly-sealed, compatible containers, protected from moisture and direct sunlight. It must be labeled according to hazardous material regulations. Transport under ambient conditions unless otherwise specified, ensuring compliance with relevant local, national, and international regulations for shipping chemicals. Handle with appropriate personal protective equipment during transport. |
| Storage | Tridodecylmethylammonium Chloride should be stored in a tightly closed container in a cool, dry, and well-ventilated area, away from incompatible materials such as strong oxidizing agents. It should be protected from moisture and direct sunlight. Keep the storage area clearly labeled and access restricted to trained personnel. Use appropriate secondary containment to prevent spills and environmental contamination. |
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Purity 99%: Tridodecylmethylammonium Chloride with purity 99% is used in phase transfer catalysis, where it enhances reaction rate and yield. Molecular weight 590 g/mol: Tridodecylmethylammonium Chloride of molecular weight 590 g/mol is used in organic synthesis, where it promotes efficient reactant transfer across immiscible phases. Viscosity grade high: Tridodecylmethylammonium Chloride with high viscosity grade is used in emulsion polymerization, where it improves emulsion stability and particle size control. Melting point 50°C: Tridodecylmethylammonium Chloride with a melting point of 50°C is used in surfactant blending, where it provides consistent solidification behavior and handling efficiency. Thermal stability 120°C: Tridodecylmethylammonium Chloride with thermal stability up to 120°C is used in chemical processing, where it maintains catalytic activity under elevated temperatures. Particle size 10 microns: Tridodecylmethylammonium Chloride with particle size 10 microns is used in specialty coatings, where it ensures uniform dispersal and surface coverage. Solution stability 12 months: Tridodecylmethylammonium Chloride with solution stability of 12 months is used in industrial cleaning formulations, where it guarantees long-term performance and consistency. Cationic activity ≥95%: Tridodecylmethylammonium Chloride with cationic activity ≥95% is used in water treatment applications, where it maximizes flocculation efficiency and contaminant removal. Solubility in organic solvents: Tridodecylmethylammonium Chloride with high solubility in organic solvents is used in extractive separation, where it improves recovery of target compounds. Density 0.88 g/cm³: Tridodecylmethylammonium Chloride with density 0.88 g/cm³ is used in oilfield demulsifiers, where it facilitates phase separation and reduces processing time. |
Competitive Tridodecylmethylammonium Chloride prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please contact us at +8615365186327 or mail to sales3@ascent-chem.com.
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Tel: +8615365186327
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After years in chemical manufacturing, finding reliable, clean-output, and high-purity quaternary ammonium compounds became central to our operation. Tridodecylmethylammonium Chloride, known in the lab as TDMA-Cl, stands out for a reason. In solution, its long dodecyl chains transform basic ammonium salts into something much more versatile. We've relied on this material across projects requiring critical phase transfer, antistatic formulations, ion-exchange applications, and high-performance specialty coatings. Compared with simpler quats, TDMA-Cl handles higher molecular weight loads, resists breakdown under heat, and delivers stable activity where many rivals lose their punch.
Over time, we've refined our synthesis and purification methods for TDMA-Cl. Depending on customer requirements, we adjust the active content, typically between 98% to pure crystalline. The product comes as a white to pale yellow powder or waxy solid, depending on storage temperature. The chemical name might sound complex, but formulaic precision means consistent structure and reactivity from batch to batch. Our lab analysis uses HPLC and NMR to confirm molecular integrity, which prevents project issues later in the product lifecycle. Whether you run a pilot or scale up to full tonnage, you’ll recognize and appreciate the repeatability of performance.
Some manufacturers select short-chain quats for detergency or simple biocidal action. We discovered early that TDMA-Cl brings a different set of strengths. Its tall carbon backbone offers unique surface activity and compatibility with non-polar and semi-polar systems. In our facility, we make TDMA-Cl for tough industrial roles— extracting catalysts from spent reaction mass, stabilizing pigment dispersions, or treating polymers to reduce static and improve surface properties. Other quats degrade or get washed away, leading to customer returns and costly reformulations. That doesn’t happen with TDMA-Cl, as its longevity under real operating conditions sets it apart.
Phase transfer catalysis is where we saw a leap in performance. While early processes using shorter-chain ammonium salts required more frequent changeouts, the TDMA-Cl based processes ran longer between maintenance cycles. That cuts downtime. Those in the coatings sector love how it controls charge without introducing emulsifier instability. In oilfields, TDMA-Cl goes into drilling muds to modify clay swelling—our continuous testing showed reduced mud property drift over repeated cycles, keeping rig teams on schedule.
We supply TDMA-Cl for critical ion-exchange membrane manufacturing where tightly controlled hydrophobicity solves fouling issues typical of many mass-produced membranes. For resin coatings, thermal crosslinking needs stable surface modifiers—here, TDMA-Cl loads into the prepolymer mix with no discoloration and no drop in final film gloss. Industrial laundry and textile plants choose our product for lasting antistatic effect even after repeated washes. These observations didn’t come from sales catalogs—they come from years of direct batch monitoring, field feedback, and adjustments in our reactor parameters.
Many labs turn to benzalkonium chloride or similar C12-C16 products, given their history and low price. Working with those, we ran into issues—low hydrolytic stability, quick loss of surface charge, and incompatibility with polymer blends requiring tight particle size control. TDMA-Cl’s longer chains and methyl bridge bring two advantages: persistent surface modification and very low volatility, which means our customers get longer-lasting effects in their end-use applications.
A common question—can’t any quaternary ammonium do the job? From direct production runs, the answer depends on what you value. TDMA-Cl resists hydrolysis in alkaline and acidic systems, vital in the paint and adhesives industries. In anti-static films, our colleagues in plastics ran side-by-side extrusion trials. Where traditional quats caused "bloom" and material haze after several thermal cycles, TDMA-Cl maintained clarity and did not migrate to film surfaces through months-long storage. This comes down to molecular structure. Our product's larger hydrophobic region locks itself into matrixes other quats slip through.
Having handled both small and bulk volumes, we noticed that storage stability gets overlooked. TDMA-Cl’s performance actually improves after proper aging—free from low-level contaminants, its solution clarity increases as minor by-products settle out. Those running continuous reactors will find this useful. It dissolves in many organic solvents and in some glycols; aqueous solubility is moderate, which fits niche applications that must avoid high water uptake. Pelleting and powderification at our plant produces a dust-free, easy-to-handle product—avoiding static cling and container loss, both big headaches with other industrial additives.
Customers working on antistatic coatings, oilfield additives, or catalyst systems report smooth integration. In emulsions, dispersion runs homogeneously without secondary surfactants, keeping downstream formulation simpler. Through our own pilot line, we learned the importance of incremental dosing: We recommend slow addition to ensure even distribution and minimizing hotspots, keeping batch yields consistently high.
Within our factory, we follow tight protocols for by-product recycling during TDMA-Cl production, which reduces waste streams and supports closed-loop operations. The product’s higher performance per unit weight means end-users typically need less of it to get the same—or better—effect as with basic quats. That reduces total chemical load downstream. In water treatment and coatings, our technical partners measured lower leaching rates, meaning less chance of environmental release.
Part of our responsibility is honesty about limits. Like many surfactants, TDMA-Cl does not break down quickly in the environment. We openly collaborate with clients to ensure correct capture in their effluent processes—usually with activated carbon or advanced bio-filtration, both tested at our site before customer roll-out. We’re also working to reclaim solvent during the isolation process to drive further reductions in volatile emissions.
Some manufacturers only check for active content or color. Our approach brings in real use-case validation—stability under thermal and mechanical stress, surfactant activity after repeated cycles, cross-comparison with reference quats, and actual feedback from end-users. Stability testing on TDMA-Cl batches tracked no change in key properties after six months at varied humidity and temperature, important for buyers with slow turnover. Even after a year in sealed, opaque drums, the product retains appearance and performance.
Production scale brings its own challenges. We fine-tuned agitator speeds, charge order, and drying sequences to remove trace amines and maintain spectral purity—reducing risk of side reactions for downstream users. Multiple test applications across coatings, textiles, and process intermediates build the confidence you don’t get from a simple certificate of analysis.
Over the last decade, we observed a shift. Global standards tightened, and many chemical users moved away from basic commodity quats. Product recalls due to instability or environmental concerns led customers to demand tighter molecular controls—TDMA-Cl rose to favor thanks to resilience and lower volatility. In the coatings sector, tighter VOC regulations led blender companies to search out longer-chain ammonium surfactants that don’t evaporate off or cross-link poorly.
We supply to both established legacy clients and new, rapidly evolving industries. Battery materials, advanced ceramics, and specialty wastewater systems represent areas where TDMA-Cl enables better throughput and lifetime through stabilizing ion-exchange or reducing fouling. We work closely with these innovators, often modifying process raw materials or adjusting feed rates to optimize results without switching to entirely new chemicals—saving both time and capital.
Any potent surfactant demands respect. We train our staff in careful handling, avoiding direct contact and carefully managing inhalation risks when transferring powders. TDMA-Cl’s behavior tends to be less acute than some aggressive biocidal quats, but it still asks for gloves, splash protection, and negative-pressure transfer whenever large drums are split down. We reinforce with buyers that safe process design matters more than chasing lower costs by cutting corners.
For storage, we learned not to expose TDMA-Cl to direct sunlight or fluctuating temperature. Extended exposure softens the product and can encourage caking, both avoidable with basic warehouse controls. We recommend storing in sealed containers away from strong acids or oxidizers—real-world incidents prove such isolation prevents costly mishaps. Our in-house emergency response program backs up our shipments with practical advice drawn from years in the warehouse, not just theoretical protocol.
Every batch we produce ships with a complete analytical report—spectral, physical, and compositional data drawn from the same plant runs that feed our own internal applications. Compliance teams at customer sites trust the consistency of our documentation, as we keep everything traceable from raw dodecyl and methyl starting materials right through to finished material. We maintain close liaison with regulatory consultants, keeping registration and compliance up to date for regions where strict import rules apply.
Auditors visiting our site see clear, detailed records for TDMA-Cl: not just paperwork, but logs of in-process controls, deviation analysis, and a feed-forward approach so that any batch variation triggers a thorough in-process check. We see no shortcut here—the safety margin grows with every cycle of test, correction, and control we pursue.
Our long partnership with industrial formulators feeds back directly into product improvements. Early batches suited only a narrow pH window, so we modified process order and supplied the market with a more universally compatible TDMA-Cl. Oilfield engineers taught us the limits of low-temperature solubility, pushing us to finer material control for their winter blends. Textile plants saw a need for higher dispersibility, prompting us to develop a new milling option that reduces caking and speeds up mixture steps.
In some markets, industrial blenders shared concern about component migration. Through accelerated aging tests—directly on-line with pilot customers—we confirmed that TDMA-Cl remains evenly distributed without “sweating” or separating from films, a problem that plagues some less robust quats. Honest, practical feedback matters: when end-users report a haze or slippage, we take those concerns seriously and answer them with lab improvements, not excuses.
Not every batch goes as planned. During scale-up, we confronted issues like variable moisture content or trace surfactant residues interfering with downstream process yields. Instead of masking these with bulk fillers, we refined our drying and filter press steps, sometimes running as many as three independent checks on every shipment. This hands-on approach means you speak directly with a factory manager who’s seen the whole process, not a sales office reading a script.
Certain applications, especially those in electronics or high-purity ion-exchange, demand even stricter contamination control. For this, we employ a dedicated reactor line cleaned with validated detergent cycles and run blank checks between lots. Feedback from a major membrane client prompted upgrades in rinsing technology, improvements now standard for every run, not just special orders.
The chemical industry doesn’t need more flowery promises; it needs products that work reliably and people who will stand behind what they make. TDMA-Cl, coming from our plant, represents years of practical effort, tested both at bench and at scale. The material delivers unmatched consistency and longevity, especially compared to short-chain competitors that might be cheaper upfront but run short on real-world durability.
We back up TDMA-Cl not only with reports but with open doors. Customers visit, see batches being made, and walk through QA with our staff. There’s no substitute for watching a process in motion—this gives confidence in the product and bonds our manufacturing team to every drum shipped out. Product integrity comes from care, stubborn troubleshooting, and genuine partnership with users, not simply from brochures or generic certificates.
With demand for greener, lower-impact chemistries rising, we're investing in process steps for further waste minimization and energy efficiency. Solvent recovery stations now pull vapors before they reach air, and by-products feed back into non-critical blends. Research teams at our site test partial substitutions with bio-based dodecyl sources; progress is incremental, but we believe small gains will add up over time.
We’re also partnering with downstream users for “design for environment” assessments, assessing the full life cycle from raw material intake to product end-of-life. TDMA-Cl, while persistent, can fit within responsible systems given engineering controls and user diligence. Continued dialogue with industry partners, regulators, and environmental scientists guides the next generation of process improvements—earning trust batch after batch, year after year.
Putting your trust in a chemical manufacturer depends on the details—quality, knowledge, and response to feedback. Tridodecylmethylammonium Chloride, produced under our roof, brings stability, reliable results, and flexibility that outpaces basic quats in dozens of industrial roles. We learned to value tough questions from customers, continuous improvement in our process, and open sharing of both success and failure. Those values, rather than just data or features, shape what you receive in every shipment.
Experience counts, both on the shop floor and in application support. That’s why we take pride not just in being a supplier but a genuine partner, committed to making sure TDMA-Cl works as hard for you as it has for us.