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HS Code |
255728 |
| Chemicalname | 2-Hydroxy-N,N,N-Trimethylethanaminium Hexafluorophosphate |
| Molecularformula | C5H14NO·PF6 |
| Molecularweight | 255.15 g/mol |
| Casnumber | 59094-56-1 |
| Appearance | White to off-white solid |
| Solubility | Soluble in water |
| Meltingpoint | 115-119 °C |
| Iupacname | 2-hydroxy-N,N,N-trimethylethanaminium hexafluorophosphate |
| Synonyms | Choline hexafluorophosphate |
| Boilingpoint | Decomposes before boiling |
| Storageconditions | Store at room temperature, tightly sealed |
| Hscode | 29239000 |
| Ecnumber | 300-495-2 |
As an accredited 2-Hydroxy-N,N,N-Trimethylethanaminium Hexafluorophosphate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The 25g chemical is packaged in a sealed amber glass bottle with a tamper-evident cap and labeled with all hazard warnings. |
| Shipping | 2-Hydroxy-N,N,N-Trimethylethanaminium Hexafluorophosphate is shipped in tightly sealed containers, protected from moisture and light. It is usually packaged according to standard chemical safety protocols and transported as a non-hazardous material unless otherwise specified. Ensure compliance with local, national, and international shipping regulations for chemical substances. |
| Storage | 2-Hydroxy-N,N,N-Trimethylethanaminium Hexafluorophosphate should be stored in a tightly sealed container, away from moisture and incompatible substances such as strong oxidizers. Store it in a cool, dry, and well-ventilated area, protected from direct sunlight and sources of ignition. Avoid contact with water, as the hexafluorophosphate anion may hydrolyze, releasing toxic and corrosive gases. |
Applications of 2-Hydroxy-N,N,N-Trimethylethanaminium Hexafluorophosphate in Industrial Manufacturing2-Hydroxy-N,N,N-Trimethylethanaminium Hexafluorophosphate supports a range of advanced industrial sectors due to its high purity, ionicity, and compatibility with modern synthetic and processing technologies. As the original manufacturer, we ensure our material is integrated into multiple downstream production processes that demand controlled purity input, proven safety margins, and proven regulatory compliance. 1. Electrolyte Additive for High-Performance Lithium-Ion BatteriesBattery producers incorporate this compound as a supporting salt or conductivity additive in lithium-ion battery electrolyte formulations. Its stable quaternary ammonium structure enhances salt dissociation and broadens the electrochemical stability window, especially for next-generation energy storage solutions. This application requires exact raw material traceability, batch consistency, and conformance with battery cell manufacturing protocols. Industry compliance standards
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2. Phase-Transfer Catalyst in Pharmaceutical SynthesisSynthetic pharmaceutical manufacturers utilize this compound as a quaternary ammonium phase-transfer catalyst, especially in nucleophilic substitution, alkylation, and esterification steps. Its hydrophilic character enables efficient transfer of ionic or polar intermediates between organic and aqueous layers, improving reaction yield while maintaining stringent GMP standards. Industry compliance standards
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3. Electroplating Supporting Agent for Advanced Surface TreatmentsElectroplating facilities use this salt as a brightener and bath stabilization agent in electrodeposition processes for electronics and precision engineering. Its controlled release profile modulates ion flow, resulting in finer deposit microstructure and enhanced corrosion resistance. This application requires integration with proprietary bath formulas and regular quality validation. Industry compliance standards
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4. Antistatic Additive for High-Purity Polymeric MaterialsPolymer processors integrate this quaternary salt into engineering plastics and coatings to impart long-lasting antistatic properties, especially in applications where electrostatic discharge control is critical. This compound ensures low migration and excellent thermal stability during melt processing, while preserving polymer structural integrity. Industry compliance standards
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5. Ionic Liquid Precursor for Specialty Green Solvent SystemsChemical synthesis labs and specialty solvent manufacturers use this material as a building block for custom ionic liquids with tunable physical and electrochemical behavior. It offers a flexible cationic core, allowing rapid exchange of the anion to generate task-specific ionic liquids for catalysis, extraction, or advanced material processing, while minimizing residual halide content. Industry compliance standards
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Competitive 2-Hydroxy-N,N,N-Trimethylethanaminium Hexafluorophosphate prices that fit your budget—flexible terms and customized quotes for every order.
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We have been making 2-Hydroxy-N,N,N-Trimethylethanaminium Hexafluorophosphate for many years. Every batch that comes out of our plant reflects not just technical accuracy, but also daily lessons learned from real, hands-on manufacturing. This is not some off-the-shelf commodity tossed into the mix alongside every other salt; careful attention guides each synthesis, distillation, and purification for this compound.
So, what sets this material apart? Beyond its mouthful of a name, it’s our team’s understanding of its reactivity and its place in the market. The steady demand for this compound stems from a distinct profile: a quaternary ammonium salt with a hexafluorophosphate anion. Decades ago, chemists expected these ionic liquids to be just laboratory curiosities. Those days are long gone. Today, labs and producers on several continents order this compound for jobs that demand more than generic quats can handle.
Start with choline, the fundamental building block. After refining and verifying the incoming feedstock, our crew sets up the quaternization stage. Real-world conditions rarely match lab reports; in the plant, process temperature and phase separation turn out trickier to nail down than charts suggest. We don’t rely on automated systems alone—seasoned operators judge where yields drift, solvent ratios fluctuate, or product crystallization wants tweaking. Our process rewards patience and vigilance. The result is a crystalline, highly pure product, free of unwanted byproducts and excess moisture.
For quality, we pay attention to every detail. Each lot undergoes near and mid-infrared checks, as well as titrations for hexafluorophosphate confirmation. Color inspections matter, too, since trace contaminants show up in shade before they ruin a batch’s analysis. With a melting point predictable across lots and bulk densities tightly clustered, every kilogram is usable for sensitive applications, like electronics manufacturing or advanced electrochemical systems.
Model specs for this compound run tighter than most. We don’t cut corners by relaxing residual solvent or water limits. This product commonly ships with a moisture content below 0.1% and mass fractions of chloride below 10 ppm; tough standards, but customers building specialty electrolytes never want a failed run blamed on subpar input salts.
Our powder comes out fine and free-flowing, not clumped or sticky, because we’ve seen what bad handling and poor drying conditions do to downstream processing. A product should arrive looking clean—even on humid days, our packaging lines and climate systems work to keep it so.
Strict grading supports strict uses. Researchers turning to 2-Hydroxy-N,N,N-Trimethylethanaminium Hexafluorophosphate tend to work on lithium batteries, ion-exchange membranes, and phase transfer catalysts. Some even explore pharmaceutical intermediates. For these tasks, impurities from cutting corners in manufacturing or packaging end up causing major headaches. Even packaging makes a difference—inert-lined drums prevent unwanted ionic exchange; facility design and operator training ensures error rates stay low.
Our most consistent buyers use this compound in non-aqueous electrochemical cells—especially as additives or co-salts in lithium-based systems. New battery chemistries push up against the limits of older quaternary ammonium salts, and our product provides the needed balance of stability and reactivity. The well-defined hydroxyl group in its structure drives unique solvation effects. Years ago, a customer tried to swap in a cheaper ammonium salt. It cost them: after weeks of failed prototype cycles, they circled back to our material and their yields stabilized.
Analytical chemistry labs and development teams trust it for separating delicate compounds or buffering sensitive reactions where even a shadow of metallic or residual chloride ion disrupts the entire system. In life sciences, where trace contamination can skew an assay or invalidate a batch, customers have learned to check that they’re using our labeled stock, not a generic alternative.
In our opinion, the best thing for testing is direct feedback. We send samples to new partners with the same tight specs as bulk orders—if something goes wrong, we want to hear about it. Operators troubleshooting HPLC columns or battery cells often call us within hours to discuss observations. Those calls often prompt small tweaks: examining cation/anion ratios, switching packaging, or adjusting recommended handling.
Many salts might answer to the same general chemical structure. Still, substitutes usually falter when scaling up precision work. Hexafluorophosphate as an anion isn’t a “plug-and-play” swap for simpler halide or tetrafluoroborate systems; both stability and reactivity shift in subtle ways. The cation isn’t just trimethylammonium—its 2-hydroxyethyl group lends hydrogen-bonding characteristics plain quats can’t match. Every formulation that depends on fine-tuned ionic activity or selective solubility has to adjust for that.
We’ve toured customer sites where competitors’ batches held too much residual solvent or absorbed water during shipping. Those problems can lead to performance fluctuations, solubility trouble, or safety hazards in high-voltage environments. We never rush the drying or packaging cycle, no matter how tight the shipping clock gets; these details pay off at the bench and on the line.
Some of our competitors rely on batch outsourcing, buying intermediate products then repacking with limited oversight. Since we manage every step—from sourcing base materials to final shipment—we catch and correct problems before they snowball. It’s easy to spot the difference, especially if a downstream process fails: our QA history and batch controls track every lot’s journey. We don’t just claim this; our logs, operator notes, and repeat customer orders speak for themselves.
Cost-cutting by eliminating analytic testing almost always leads to trouble. Some firms relax on standards, especially for large-scale industrial orders, and it only shows up when odd odors, colors, or inconsistent flow rates turn up in the lab. Ours always meets full spec regardless of order size.
Any facility making hexafluorophosphate-based chemicals faces its share of challenges. Safe chemical handling, robust ventilation, and managing the waste stream matter because the byproducts and raw materials want careful containment. Our site avoids shortcuts; the safety of our team and the security of our product supply both depend on following procedures without compromise.
Environmental compliance gets tougher every year as new rules arrive. Our team keeps up by reviewing regulations, investing in emissions monitoring, and keeping an eye out for any process drift that might bring us close to a limit. We view regulatory shifts as a signal—not a hindrance—to refine our practices and document every stage more rigorously. An audit rarely surprises us, since ongoing self-inspection keeps us ahead of the curve.
One thing that separates this compound from common salts is its sensitivity to moisture and atmospheric CO₂. Even a small exposure can cause partial decomposition or introduce carbonate. We work under dry, inert atmospheres right through to packaging. For shipments abroad, we invest in multi-layer moisture barriers, not just simple liners. We’ve teamed up with logistics partners who understand this, and we rely on those partnerships to ensure every drum arrives in exactly the same condition as it left us.
Every batch teaches us something new. Customer feedback cycles directly into process improvements. Battery developers tell us when anode kinetics seem off, letting us investigate possible contaminants; pharmaceutical groups give quiet nods when they find a smoother synth run without an unexplained side-product. These conversations make us better.
Investments in new QA tools, training for our team, and the latest analytical protocols arise organically from demand upstream. Gone are the days where a salt’s order size dictated its attention to detail—if even a single order faces cross-contamination or shipping delay, our standards tighten in response.
Some customers want bespoke modifications: tighter moisture control, special blend ratios for adjacent applications, or documentation packages matching new regional regulations. Rather than treating this as an add-on, we plan production cycles around these needs. Regular audits—by regulators or clients—keep us focused, transparent, and ready to explain any choice we make.
In research circles, academic and industrial alike, small differences in lot-to-lot quality soon surface. We encourage candid feedback. Problems that emerge in scale-up sometimes trace back to micro-impurities in input salts. We view these as opportunities: if we can reduce variability even further, not only does it help us, but it supports the broader research and production ecosystem.
We don’t believe in marketing buzzwords about being “best in class.” Our value comes from real, repeatable quality improvements—down to the safe, careful hands that operate our systems every day. Our competitive edge is in refusing to ship subpar product, even if a delay results. This approach sometimes means we lose an order to a competitor who promises “fast and cheap”; often, those customers return when faced with troubleshooting failures caused by inconsistent supply.
It’s easy to cut corners by outsourcing steps, using lower-cost raw materials, or avoiding expensive testing regimes. Our plant proves daily that investment in real quality, thorough documentation, and staff training pays dividends. Operators, chemists, and logistics staff work as a team; problems in one area affect everyone else, so we operate with open feedback channels and a culture that rewards raising questions.
Markets evolve. Customers in solid-state battery development, membrane chemistry, and advanced catalysis bring changing demands. We listen, building new QA benchmarks, adjusting storage conditions, or even adding in-house pilot lines just to run test batches under atypical conditions. Some of the earliest feedback about the phase behavior of this material under low temperature came directly from a client’s exploratory project; our team adjusted drying and packing in the next cycle.
More industries are investigating replacement cations and anions to push the edge on ionic conductivity, stability, and toxicity. This environment rewards both experience and agility. By keeping every aspect of production in-house—material choice, environmental safety, and even line cleaning protocols—our group can pivot rapidly, supporting new customer requirements or regulatory shifts before they become bottlenecks.
We’re not the biggest plant, but our expertise gets built with every trial batch, every validation test, and each customer report. As 2-Hydroxy-N,N,N-Trimethylethanaminium Hexafluorophosphate finds new roles in technology, we use every lesson learned on the ground to keep refining our product.
There’s no substitute for practical experience in materials like this. We understand the headaches that can come from unreliable supply, slipshod packing, or lax oversight on contamination. Our outlook is simple: listen to those who use the product, keep standards unflinching, and never stop tracking ways to improve. Every batch goes out with the confidence built on years of tangible results, not just paperwork and promises.
2-Hydroxy-N,N,N-Trimethylethanaminium Hexafluorophosphate is more than a chemical formula to us. It’s the outcome of hard work, continuous learning, and ongoing collaboration across industries—evidence that manufacturing quality comes from commitment and care, not shortcuts or slogans.