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HS Code |
627886 |
| Cas Number | 1553-62-6 |
| Iupac Name | 1,1,1,3,3,3-Hexafluoro-2-(methoxymethyl)propane |
| Molecular Formula | C4H6F6O |
| Molecular Weight | 198.08 g/mol |
| Appearance | Colorless liquid |
| Boiling Point | 34°C |
| Density | 1.388 g/cm3 (at 20°C) |
| Solubility In Water | Insoluble |
| Vapor Pressure | 533 mmHg (20°C) |
| Flash Point | Below -20°C |
As an accredited Hexafluoroisopropyl Methyl Ether factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
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Purity 99.5%: Hexafluoroisopropyl Methyl Ether with purity 99.5% is used in semiconductor wafer cleaning, where it ensures minimal ionic contamination and improved device yield. Boiling Point 49°C: Hexafluoroisopropyl Methyl Ether with a boiling point of 49°C is used in precision electronic flux removal, where it enables rapid evaporation and residue-free surfaces. Low Viscosity (<0.5 cP): Hexafluoroisopropyl Methyl Ether with low viscosity (<0.5 cP) is used in microfluidic device rinsing, where it provides efficient penetration into narrow channels and thorough debris removal. Moisture Content <50 ppm: Hexafluoroisopropyl Methyl Ether with moisture content below 50 ppm is used in pharmaceutical intermediate drying, where it minimizes hydrolysis risks and maintains API stability. Thermal Stability up to 120°C: Hexafluoroisopropyl Methyl Ether with thermal stability up to 120°C is used in heat sink fluid applications, where it maintains consistent cooling performance under elevated temperatures. Dielectric Strength >15 kV/mm: Hexafluoroisopropyl Methyl Ether with dielectric strength greater than 15 kV/mm is used in electrical insulation flushing, where it prevents arcing and supports safe high-voltage component operation. Non-Flammability: Hexafluoroisopropyl Methyl Ether with non-flammability is used in aerospace solvent cleaning, where it reduces fire hazard during maintenance procedures. Low Surface Tension (14 mN/m): Hexafluoroisopropyl Methyl Ether with low surface tension (14 mN/m) is used in optical component degreasing, where it promotes uniform wetting and streak-free lens finishes. UV Stability: Hexafluoroisopropyl Methyl Ether with UV stability is used in photolithography processes, where it resists decomposition and prevents process-induced contamination. Refractive Index 1.242: Hexafluoroisopropyl Methyl Ether with refractive index 1.242 is used in specialty optical fiber manufacturing, where it ensures refractive compatibility and minimizes light transmission loss. |
| Packing | Hexafluoroisopropyl Methyl Ether is packaged in a 500 mL amber glass bottle with a secure, leak-proof screw cap and safety labeling. |
| Container Loading (20′ FCL) | 20′ FCL container can load around 160-180 drums (200kg each) of Hexafluoroisopropyl Methyl Ether, meeting international shipping standards. |
| Shipping | Hexafluoroisopropyl Methyl Ether should be shipped as a hazardous chemical, classified as a flammable liquid. It must be packed in tightly sealed, chemical-resistant containers, and labeled according to international regulations (UN number, hazard class). Use secondary containment to prevent leaks and ensure transport by authorized carriers, complying with all relevant safety guidelines. |
| Storage | Hexafluoroisopropyl methyl ether should be stored in a cool, well-ventilated area, away from sources of ignition and direct sunlight. Use tightly sealed, compatible containers—preferably made of stainless steel or fluoropolymer-lined materials—to prevent leaks and contamination. Clearly label the storage area, and keep the chemical away from incompatible substances such as strong acids, bases, or oxidizers. Follow all local regulations for hazardous chemical storage. |
| Shelf Life | Hexafluoroisopropyl Methyl Ether typically has a shelf life of 12–24 months when stored in tightly sealed containers under recommended conditions. |
Competitive Hexafluoroisopropyl Methyl Ether prices that fit your budget—flexible terms and customized quotes for every order.
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Hexafluoroisopropyl methyl ether, often referred to in the plant as HFIME, is a specialty solvent that we have produced for years. This ether stands out with the chemical structure (CF3)2CHOCH3, a configuration that gives it unique chemical resistance and volatility. In the busy corridors of our facility, we shape each batch with purposes that stretch from precision electronics cleaning to serving as a reagent in fine chemical synthesis. Customers in electronics, medical device manufacturing, and advanced materials come to us for this compound because it does the job when other solvents fail or cause too much risk.
From the earliest pilot batches, our process engineers noticed how the molecular architecture brought both high solvency power and rapid evaporation. The fluorinated backbone resists breakdown, even in tough processing conditions. We invested in custom equipment to handle the low boiling point, making sure operators stay safe and product leaves the lines with minimal residual water or acid. This is a product that only consistent, meticulous production can deliver reliably.
Most polymer or electronics facilities who look for HFIME seek a high-purity liquid, colorless and free of detectable contaminants. Typical assay values we manage stick above 99.8% by GC, with moisture and acidity checks on every lot before filling. Some customers want an extra guard against halide traces, worried about possible electrical issues, so we offer a tighter lab check where needed. Handling and storage use stainless tanks and transfer lines because ordinary steels and elastomers degrade after long contact with the solvent. HFIME boils at about 59°C, which means we take care in packing drums and isocontainers during humid summer months.
We long ago decided not to blend in stabilizers or unrelated additives, since applications in microelectronics and analytical labs don’t tolerate “mystery” peaks or unknown residues. Our version is always clear, free of coloring agents, never altered by scents or masking flavors, and fully traceable by batch and date. Direct feedback from our cleanroom customers led to improvements in our filtration steps, so particles don’t interfere with fine-featured work.
We have watched our solvent displace others in precision cleaning applications. In chip fabrication, the challenge lies in stripping flux, oils, and particulates without swelling or dissolving delicate photoresists or polymers. Operators describe how HFIME leaves surfaces pristine, with little waiting time since it dissipates quickly. They don’t deal with persistent films or sticky residues. For laboratories synthesizing specialty pharmaceuticals, HFIME falls into a rare group of ethers that can handle extreme reagents—reacting cleanly then evaporating without leaving measurable inorganic traces or cross-reactions. Analytical chemists value its stability under both acidic and basic conditions, something that ethanol and simple ethers can’t match in certain gas and liquid chromatography set-ups.
Some global customers in medical technology cite HFIME’s low toxicity profile compared to other potent fluorinated solvents, which often come with higher hazard classifications. We test every batch to keep possible perfluorinated impurities below reporting limits, knowing that device and diagnostic manufacturers face strict regulatory audits. Our in-house team tracks toxicity updates and ensures our material lines up with ever-changing international standards.
Not every solvent featuring fluorocarbons performs equally. Compared to hexafluoroisopropanol, which many labs use for specialty polymer work, our methyl ether offers far lower acidity and improved volatility. It doesn’t pit stainless surfaces or etch equipment over time. We’ve seen teams try to use perfluorohexane or conventional ethyl ethers for cleaning delicate microdevices only to get slow rates of evaporation, or stubborn residues that contaminate next-stage processes.
HFIME behaves neutrally with a much wider range of engineering plastics and composite substrates. Where others dissolve delicate polyimide films or stress fracture connectors, HFIME cleans without trouble. We have tested it head-to-head against other solvents—even some “universal” cleaners from major multinationals—and found consistently lower extraction of unwanted plasticizers and stabilizer additives.
Customers tell us that HFIME’s odor profile matters, too. Technicians working around open workstations describe much less offensive smells compared to methyl ethyl ketone, trichloroethylene, or standard glycol ethers. Many appreciate that this reduces complaints and, sometimes, the need for aggressive local exhaust ventilation.
We don’t just ship product and walk away. Hexafluoroisopropyl methyl ether belongs to a class of materials requiring extra respect on the production floor and during customer use. It evaporates rapidly, which demands tight closed connections and correct PPE. Each month, our EHS team refreshes training and reviews new best practices for loading, pumping, and filling. Those steps might eat into efficiency, but the safety record of our plant stands as proof that this vigilance pays off.
We use continuous vapor monitoring in our production spaces and loading racks. One near miss, early in our days producing this, forced a perpetual update to our room airflow and detection alarms. Newer handlers might underestimate how quickly vapors can accumulate and displace oxygen. We make sure customers receive accurate technical support on ventilation, transfer pumps, and spill plans. Our team takes pride in being upfront if we see facility limitations or suggest extra engineering controls; the point is always protecting those on the front lines.
Producing hexafluoroisopropyl methyl ether isn’t a batch-and-go operation. The precursor chemicals—fluorinated acetone and methylating agents—demand care at every stage. Temperature control defines yield and purity. Chloride contaminants, even in fractional ppm, degrade the solvent after prolonged storage. Every valve and gasket sees double inspection. We built drying steps into the end of every line to guarantee low water content.
Our operators became experts not by reading manuals but from solving day-to-day production puzzles. Sometimes a temperature shift throws off separation column efficiency, so we work through the night to restore baseline specs. Jaz, who has run our purification since 2017, personally spot-checks dozens of bottles by gas chromatography each shift. That sets us apart from traders or brokers who never see their own product come together.
Savvy customers ask pointed questions about solvent origins, traceability, and plant audits. We invite them in for tours. Watching a plant that produces HFIME in-house, every step visible, builds more trust than a data sheet or sales call ever will. We answer their technical “what if” questions with grounded optics from the real floor—not speculative marketing.
Sustainability issues follow every fluorinated material today. HFIME, thankfully, doesn’t linger in the environment like fully perfluorinated substances such as PFOS or PFOA, but we know regulators keep a close eye on the entire sector. We invested in scrubbers and solvent reclamation units so vented losses are minimized. Waste still contains valuable chemistry, which our team breaks down or reuses where feasible. Our product leaves the plant below global VOC emission thresholds and ships only in approved, reconditionable drums or containers.
Every material comes with full documentation—COA, SDS, and country-of-use registration details—to help our clients stay audit-ready. We work with regulators and customers on downstream risk assessment. HFIME’s manageable toxicity and rapid breakdown in biological systems earn it a lower profile than related fluorinated ethers, but nothing replaces diligence in supply chain monitoring.
Running a chemical plant built for specialty ethers teaches a tough lesson in risk and reward. We wrestled through supplier shortages, logistical delays, and transport bottlenecks more times than we care to count. Our team learned early to keep core raw materials in dual-source and to qualify backup supply lines. HFIME is not a product you want to interrupt for want of an intermediate or packaging shortfall. Sourcing fluorinated building blocks, especially during times of global logistics stress, forced us into new supplier relationships.
Every time a customer asked for lower particle count specification, tighter purity controls, or a special packaging format—we listened. Once, a semiconductor fab flagged a trace impurity signal at their site, which led us to overhaul a section of our purification line. These are the shop-floor stories nobody sees in the brochure, but these improvements result in better material, fewer rejected lots, and simplified logistics for customers. What matters, especially in specialty solvents, comes down to sweat and follow-up, not flashy claims.
Unlike large-volume commodity producers, we maintain a culture where traceability rules every step. If there’s a process upset, we call an internal stop before shipping anything that doesn’t meet spec. There were seasons when new national regulations required extra documentation. Instead of shuffling paperwork, we digitized every batch, letting both our own team and clients track lot number, analysis time, and even operator signatures. Digital traceability extends from feedstock to shipping, with few exceptions.
There is no shortcut to building safety and reliability into the supply chain. Hexafluoroisopropyl methyl ether, by nature, needs that discipline—handling, storage, and shipping require real investment in containment and monitoring. We invest time at customer sites, reviewing their uses, process designs, and asking what’s working or not. If we spot patterns in incident reports or write-ups, those go back into plant continuous improvement planning. We act not as spectators but as people whose names and reputations rest on every drum shipped.
Forward progress in our industry comes directly from listening to both the customers who use the solvent each day and the technicians staging it in a cleanroom at 2 a.m. Success stories pass to our engineers and inform the next process update or packaging method. Concerns—about shelf life, reactivity, frost-formation in cold climates—result in focused experiments inside our labs, not whispers passed between sales reps.
Every year, a fraction of customers push us for improvements. One medical device engineer wanted a custom container with a one-way vapor valve to limit exposure. After iterating with their safety team, we delivered. An automotive materials chemist couldn’t get consistent results from a competitor’s batch, so we worked alongside, mapping out every transfer point and shifting production timing to match their process window. The point isn’t badge-claiming but reducing problems at scale.
Lots of product information online today blurs the lines between real producers and resellers. From the factory perspective, the difference lives in both transparency and accountability. Our team fields technical questions—on reactivity, vapor pressure, cleanup protocols—that only real involvement in chemical production can answer. Uncertainties during scale-up, or batch inconsistencies, cost customers serious time and money. Actual manufacturers know this firsthand.
A broker can relay sales copy or forward a data sheet, but real troubleshooting, especially with sensitive materials like HFIME, demands direct dialogue between hands-on experts. We open our process logs, validate our claims, and put ourselves on the line. This relationship, built on years of hard questions and tough feedback, holds real value. The product’s reliability, and every innovation along the way, reflects the expertise of the people crafting it day in, day out. No one cares more about every bottle than those of us making it.
Demand for HFIME tracks the evolution of precision applications. Microelectronics and next-generation medical devices will continue changing the purity, packaging, and traceability requirements for solvents. We study market shifts from new photolithography methods to isolation procedures in bioprocessing, investing resources to stay ahead. Legislation around fluorochemicals changes fast, motivating new efforts in lifecycle and end-user support.
We also monitor opportunities in emerging markets—battery development, specialty coatings, even sustainable alternatives to classic chlorinated solvents. While nobody can guarantee which direction the field will take, one thing stays true: meaningful relationships between producer and end user drive both technical progress and mutual accountability. No marketing device can substitute for doing the work and owning the outcome. That approach will shape every improvement we make, batch by batch.
Day after day, our team walks the same plant halls where HFIME takes shape. The work calls for more than meeting numbers on an assay certificate. It means facing sourcing challenges, tight delivery schedules, changing user demands, and a safety culture that puts people before speed. The technical, logistical, and human challenges of producing hexafluoroisopropyl methyl ether reflect decades of experience. Every drum out the door matches the high standards our clients expect—often because they helped us define them.
No shortcut replaces hard-won expertise. We see those truths mirrored in every new challenge, whether refining the process, supporting downstream users, or responding to an unexpected impurity signal. If hexafluoroisopropyl methyl ether plays a key role in your critical application, trust comes from those who make the solvent, not just those who move it. Our team stands ready to continue meeting those requirements—learning, adapting, and delivering, every single day.