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HS Code |
534939 |
| Chemical Name | Di(2-hydroxyethyl)methylcocoalkylammonium chloride |
| Cas Number | 61791-10-4 |
| Molecular Formula | C23H50ClN O2 (approximate, varies with alkyl chain) |
| Appearance | Clear to yellowish liquid |
| Odor | Mild amine-like odor |
| Solubility | Soluble in water |
| Ph Value | 4.5 - 7.0 (as 10% solution) |
| Density | 0.94 - 0.98 g/cm³ (at 20°C) |
| Ionic Nature | Cationic surfactant |
| Boiling Point | Decomposes before boiling |
| Flash Point | > 100°C (closed cup) |
| Surface Tension | 30-35 mN/m (1% solution) |
| Hlb Value | 8 - 10 (estimated) |
As an accredited Di(2-hydroxyethyl)methylcocoalkylammonium chloride factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The packaging is a 25 kg blue plastic drum with a secure lid, labeled with chemical name, hazard symbols, and handling instructions. |
| Shipping | Di(2-hydroxyethyl)methylcocoalkylammonium chloride is typically shipped in sealed, labeled drums or plastic containers, protected from moisture and extreme temperatures. The package must comply with regulations for transport of chemicals, ensuring proper hazard markings for irritants. Standard shipping involves ground or freight shipping under controlled conditions to prevent leakage or environmental exposure. |
| Storage | Di(2-hydroxyethyl)methylcocoalkylammonium chloride should be stored in a tightly closed container, in a cool, dry, well-ventilated area away from direct sunlight and incompatible substances such as strong oxidizers. Keep away from heat and sources of ignition. Store at room temperature. Ensure proper labeling, and avoid freezing. Use corrosion-resistant materials for storage vessels, and avoid contact with skin and eyes during handling. |
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Purity 98%: Di(2-hydroxyethyl)methylcocoalkylammonium chloride with purity 98% is used in textile softening processes, where it enhances fabric feel and provides durable softness. Cationic Activity 75%: Di(2-hydroxyethyl)methylcocoalkylammonium chloride with cationic activity 75% is used in hair conditioner formulations, where it improves detangling efficiency and static control. Viscosity 500 mPas: Di(2-hydroxyethyl)methylcocoalkylammonium chloride with a viscosity of 500 mPas is used in liquid detergent production, where it ensures homogeneous dispersion and formulation stability. Moisture Content <1%: Di(2-hydroxyethyl)methylcocoalkylammonium chloride with moisture content less than 1% is used in fabric softener concentrates, where it prevents product degradation and extends shelf life. pH (1% Solution) 6.5: Di(2-hydroxyethyl)methylcocoalkylammonium chloride with pH 6.5 is used in personal care emulsions, where it maintains compatibility with skin-friendly formulations. Molecular Weight 400–600 g/mol: Di(2-hydroxyethyl)methylcocoalkylammonium chloride with molecular weight 400–600 g/mol is used in antistatic agent applications, where it provides effective static charge dissipation on polymer surfaces. Thermal Stability up to 120°C: Di(2-hydroxyethyl)methylcocoalkylammonium chloride with thermal stability up to 120°C is used in industrial cleaning formulations, where it maintains surface activity during high-temperature operations. Particle Size <10 microns: Di(2-hydroxyethyl)methylcocoalkylammonium chloride with particle size below 10 microns is used in powder coating applications, where it guarantees uniform distribution and improved surface finish. |
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Working in a chemical manufacturing facility gives a close-up view of what separates various surfactants from one another. Today, most industries search for specialty chemicals that do more than fill a technical requirement—they also look for reliability, process stability, and proven results across a range of uses. Di(2-hydroxyethyl)methylcocoalkylammonium chloride, sometimes referred to as a hydroxyethyl-based quaternary ammonium compound, brings these strengths to the table. Our production site has handled this compound for years, with feedback coming straight from the shop floor and our downstream partners.
This molecule is built from a methylated ammonium headgroup linked to lauric and myristic acid chains derived from natural coconut fatty acids. Both the hydroxyethyl groups and the variability in the alkyl chain length give this quaternary compound some practical advantages. In our facility, batches of Di(2-hydroxyethyl)methylcocoalkylammonium chloride typically show an active matter content above 70 percent when measured by titration, with moisture content controlled below industry thresholds—usually kept under 3 percent. The pH of a 10 percent solution tends to stay between 6 and 8. As a liquid—clear to pale yellow—this product pours easily without clumping or separation. It dissolves quickly in water and alcohol, simplifying incorporation in formulation tanks. We monitor not just chemical specs but also practical factors: filterability, pumpability, and shelf stability remain consistent batch to batch.
Chemists and process engineers searching for multifunctional agents often gravitate toward this compound because its structure lends itself to a range of uses. The dual hydroxyethyl groups create a mild hydrophilic character, which helps stabilize emulsions and promotes antistatic effects. Its methylcocoalkyl tail, sourced from natural coconut, means it stays compatible with biodegradable surfactant systems. This structure translates into actual performance. Laundry softeners formulated with this chemical offer a gentle hand feel, don’t yellow or stiffen fabrics, and usually keep pipes and finish tanks cleaner compared to tallow-based or dialkyl dimethyl quats.
We have seen a growing trend in textile auxiliaries and cleaning sectors where this molecule replaces harder cationic surfactants to support green labeling goals or address tough wastewater requirements. It also finds homes in hair conditioners and gentle skin washes where low irritation is prized. Some formulators working on antimicrobial rinses use di(2-hydroxyethyl)methylcocoalkylammonium chloride as an adjunct to established actives for its boost to wetting and penetration.
Anyone who has run large tanks of this surfactant sees firsthand the difference it can make in operational consistency. Unlike some dialkyl quats, this product handles blending spikes—temperature swings or small water inrushes—without unwanted viscosity swings. Operators report that it stays fluid and easy to pump down to near freezing temperatures, so line blockages and downtime for heated transfer are rare. Its lower foam tendency allows for faster tank cleaning and avoids persistent bubbles during scale-up. We listened to the shop floor and retooled some of our tank linings after switching to this quaternary; the improved compatibility with stainless and most plastics pays off in reduced equipment maintenance.
Di(2-hydroxyethyl)methylcocoalkylammonium chloride often gets compared to dialkyl dimethyl ammonium chloride (DDAC), benzalkonium chloride (BAC), and the older distearyldimethyl quaternaries. From our own experience, several key facets rise above typical bullet-point comparisons. For one, the effect on skin and mucous membranes is more forgiving than BAC, and our own internal exposure monitoring backs this up—operators prefer handling it, and reports of transient irritation in typical use concentrations remain at background levels.
In terms of antimicrobial activity, it does not always match BAC or DDAC for high-level disinfection, but when introduced into softener, antistatic, and fabric care products, di(2-hydroxyethyl)methylcocoalkylammonium chloride brings reliable biostatic effects along with processability. Unlike some double chain quats, it works at lower use levels for fabric conditioning, saving cost and reducing surfactant buildup in wastewater. Regulatory feedback has been positive; its coconut-based tail is perceived as a friendlier alternative to petro-derived options, which helps when selling to North American, European, or Japanese clients.
Based on typical client feedback, fine-tuning of end formulations using this ingredient often leads to quicker solubilization and faster batch turnover in detergents, softeners, and textile agents. In sprayable products, di(2-hydroxyethyl)methylcocoalkylammonium chloride reduces nozzle fouling and keeps cationic charge balanced without excessive gelling, which can clog equipment and slow production downstream. We process this compound in multi-ton quantities, and the absence of persistent foaming allows quick cleanouts between runs. That alone increases plant productivity.
In liquid detergent and rinse-aid formulations, formulators value its broad compatibility with anionics, nonionics, and amphoterics. The hydroxyethyl side chains tone down reactivity, avoiding haze and phase separation, even in high-electrolyte recipes. Many clients seeking “clear” or translucent cleaning products find success with this compound where older, cloudier formulations failed. Hair care professionals appreciate the improved combability and more manageable static reduction—which have been confirmed by both drop tests and real-world salon trials.
Factories want reliable performance, not chemical surprises. During the past decade, our site saw erratic supply and batch-to-batch differences in some bulky dialkyl quats—sometimes traced back to inconsistent chain-length blending or changes in tallow sources. Because di(2-hydroxyethyl)methylcocoalkylammonium chloride uses coconut-based raw materials, with a more predictable fatty acid profile, we have observed steadier physical and chemical properties. Regular viscosity and color checks, along with thin-layer chromatography, help catch off-spec batches before they leave our site. On a practical level, this consistency means fewer customer complaints, less troubleshooting, and a trust-based partnership with downstream users.
Chemical plants must balance productivity with operator comfort and environmental stewardship. In our experience, handling di(2-hydroxyethyl)methylcocoalkylammonium chloride ranks better compared to several alternatives. Employees exposed during charging, mixing, or accidental splashes rarely report skin discomfort, an advantage we’ve tracked since moving some lines over from older cationics. The absence of persistent odors and low volatility also means our indoor air remains within permitted exposure levels, as confirmed by regular industrial hygiene audits.
Some European and Japanese clients have pushed for lower overall toxicity and greener raw material sourcing. Its coconut origin, coupled with the absence of tertiary amines prone to nitrosamine formation, lines up well with these expectations. More and more we see requests for supply-chain transparency, where traceability back to the original fatty acid is mandatory. Our team works directly with coconut growers and ensures our purification steps do not introduce unwanted byproducts.
As global standards for “cleaner” and “greener” chemicals tighten, formulators want more than a technical-grade surfactant. Di(2-hydroxyethyl)methylcocoalkylammonium chloride answers these calls from multiple angles. Being coconut-sourced appeals to buyers seeking palm-free or non-tallow options. Products designed for Nordic Swan or EU Ecolabel limits gain a head start by using this molecule in fabric softeners and personal care blends.
Regulatory harmonization poses ongoing challenges, with REACH and North American chemical controls reviewing surfactant profiles more stringently. Consistent low residue and minimal allergenicity let this compound earn listing in several EU and APAC inventories without red-flag issues. In our compliance buffer stocks, we keep samples archived for up to five years, tracking shelf life and purity for every lot. This precaution has helped in rare customer audits and ensures full traceability.
Even the best-performing quaternary agents have weak spots. Some customers, especially in industrial hard surface disinfection, want biocidal claims requiring higher-tier regulatory approval. While our grade of di(2-hydroxyethyl)methylcocoalkylammonium chloride works well as a supporting surfactant, it does not always reach the kill rates needed for hospital settings without pairing with more robust actives like DDAC or glutaraldehyde. We continue collaborating with independent labs to understand how this product can act as a booster, improving wetting and penetration of primary antimicrobials, rather than serving as a standalone germicide.
Scaling up was not without hurdles. Raw coconut oil prices can be volatile and affect cost-of-goods for the entire supply chain. Our response included diversifying coconut sources by expanding into new growing regions and negotiating direct supply agreements to protect against seasonal shortages and price shocks. Investment in larger reactors and automated dosing lines helped maintain throughput even when demand spikes. On the shop floor, line operators suggested tweaks to our purification protocol that lowered byproduct content—improving clarity and minimizing off-odors. Quality meetings now routinely feature these practical improvements, evidence that continuous adaptation keeps products and processes well matched to user needs.
Looking across our product catalog, the defining differences of di(2-hydroxyethyl)methylcocoalkylammonium chloride boil down not just to paper chemistry but to what customers and operators see during use. Its ability to blend with a typical batch of aqueous or alcohol-based systems without gelling or precipitating provides real efficiency. Customers in personal care and textile industries comment on its softer hand feel and the agreeable, nearly odorless finish in end products, quite different from the waxy coatings or sharp scents associated with tallow-based or petroleum-based alternatives.
We see less need for defoamer addition during plant runs. Maintenance crews spend less time on tank cleaning and swapped-out piping, while wastewater treatment operators notice lower cationic residue and easier biological digestion of sludges. Seasonal order surges, linked to fabric care and air filter manufacturing cycles, have not led to process bottlenecks; the liquid form stores and pumps smoothly.
Whereas some quaternaries pose higher risk of skin sensitization, the hydroxyethyl group in this compound appears to lessen interaction with skin proteins, which has been supported by in-house patch testing data and customer-reported outcomes over several years. Comparing with BAC or similar, clients seeking a lower-irritation, plant-sourced ingredient are turning to this quaternary more frequently.
Having manufactured di(2-hydroxyethyl)methylcocoalkylammonium chloride for over a decade, our team observed stronger, more collaborative relationships with downstream users. Clients trust our process transparency, from raw fatty acid origin through shipment and delivery. We regularly welcome customer site visits; feedback sessions in laboratories and on production lines directly shape ongoing quality improvements. By involving both chemists and plant operators, we align our manufacturing output with what matters in daily application: stable blends, easy handling, and confidence that each shipment reflects uncompromised quality.
Real-world technical support and shared troubleshooting bind us to users beyond transaction. Whether optimizing batch mixing schedules or adjusting for new environmental guidelines, both production teams and R&D partners communicate directly. We value this dialog, and it leads to the incremental advances that keep di(2-hydroxyethyl)methylcocoalkylammonium chloride useful in new markets and emerging applications.
Evolving requirements for bio-based, gentle, high-performance surfactants keep driving new development targets in our facility. We welcome requests for tailored viscosity, color thresholds, and specific application testing. For customers seeking palm-free, allergen-conscious options, our research delves deeper into natural raw material streams and mild modification processes. We also keep an eye on global shifts—rising adoption of closed-loop production, water reuse mandates, and stricter downstream testing—all of which call for chemicals with predictable, safe profiles.
New demands push us to revisit old assumptions. For example, as more industrial clients seek alternatives to formaldehyde releasers and older cationics, our formulation teams run side-by-side comparisons in both pilot and production scale. This ensures adoption is based on observed improvements, not just marketing. Regular third-party testing and feedback cycles ground our innovation in practical reality.
Decades of hands-on experience manufacturing di(2-hydroxyethyl)methylcocoalkylammonium chloride have taught us one thing above all: product value shows up in daily reliability and user trust more than in theoretical properties. This compound’s coconut-based origin, mild performance profile, and robust handling safety meet today’s practical demands in softener, textile, cleaning, and personal care applications. Continuous improvement in plant operations, customer support, and technical transparency underpins both sustained demand and market growth. As the landscape for functional chemicals evolves, so does our commitment to producing ingredients that back up performance claims with both hard data and real-world results in every batch.