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HS Code |
259674 |
| Chemical Name | Perfluoroethylvinyl Ether |
| Molecular Formula | C4F8O |
| Molecular Weight | 238.03 g/mol |
| Cas Number | 2390-77-0 |
| Appearance | Colorless liquid |
| Boiling Point | 34-36 °C |
| Density | 1.646 g/mL at 25 °C |
| Vapor Pressure | 400 mmHg at 20 °C |
| Solubility | Insoluble in water |
| Refractive Index | 1.2740 at 25 °C |
As an accredited Perfluoroethylvinyl 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%: Perfluoroethylvinyl Ether with 99.5% purity is used in fluoropolymer synthesis, where it ensures high polymer chain integrity and superior chemical resistance. Molecular Weight 216 g/mol: Perfluoroethylvinyl Ether of molecular weight 216 g/mol is used in specialty elastomer formulations, where it contributes to precise molecular architecture and uniform crosslink density. Boiling Point 55°C: Perfluoroethylvinyl Ether with a boiling point of 55°C is used in low-temperature polymerization processes, where it allows for efficient monomer vaporization and improved process yield. Stability Temperature 250°C: Perfluoroethylvinyl Ether stable up to 250°C is used in high-performance coatings production, where it enhances thermal stability and coating durability. Viscosity 0.85 cP: Perfluoroethylvinyl Ether with viscosity of 0.85 cP is used in microfluidic device manufacturing, where it enables precise flow control and consistent device performance. Flash Point -20°C: Perfluoroethylvinyl Ether with a flash point of -20°C is used in inert ingredient blending, where it provides rapid evaporation and minimal residue. Refractive Index 1.28: Perfluoroethylvinyl Ether with refractive index 1.28 is used in optical fiber coatings, where it ensures optimal light transmission and protection from chemical attack. Moisture Content <0.03%: Perfluoroethylvinyl Ether with moisture content less than 0.03% is used in electronics encapsulation, where it prevents hydrolytic degradation and maintains long-term device reliability. Melting Point -67°C: Perfluoroethylvinyl Ether with a melting point of -67°C is used in cryogenic adhesive systems, where it maintains flexibility and adhesion at extremely low temperatures. Particle Size <5 µm: Perfluoroethylvinyl Ether with particle size less than 5 µm is used in surface modification treatments, where it achieves uniform coverage and enhances surface energy control. |
| Packing | Perfluoroethylvinyl Ether is packaged in a 100-gram amber glass bottle with a secure PTFE-lined cap, clearly labeled for safety. |
| Container Loading (20′ FCL) | 20′ FCL container loading for Perfluoroethylvinyl Ether ensures secure bulk packing, strict leak-proof measures, and compliance with hazardous material transport regulations. |
| Shipping | Perfluoroethylvinyl Ether is shipped as a hazardous chemical, typically in sealed stainless steel or specialized fluoropolymer containers to prevent leakage and contamination. It requires labeling under fluorinated organic compounds and must be transported according to regulatory guidelines for flammable or reactive chemicals, with proper documentation and safety measures in place. |
| Storage | Perfluoroethylvinyl ether should be stored in a cool, dry, well-ventilated area away from heat, sparks, open flames, and incompatible materials such as strong bases and reactive metals. Store in tightly sealed containers made of compatible materials like PTFE. Protect from direct sunlight and moisture. Implement secondary containment and ensure clear labeling to prevent accidental exposure or contamination. |
| Shelf Life | Perfluoroethylvinyl ether typically has a shelf life of 12–24 months when stored in tightly sealed containers, away from light and moisture. |
Competitive Perfluoroethylvinyl Ether prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please contact us at +8615651039172 or mail to sales9@bouling-chem.com.
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Perfluoroethylvinyl ether stands as a backbone ingredient across fluoropolymer manufacture. At our site, we produce this material in large volumes, focusing on purity and consistency. The material’s model, often referenced as C4F7OCF=CF2, is built to deliver the heat resistance and chemical resilience demanded by specialized fields. Over decades of manufacturing, we’ve listened to chemists, process engineers, and formulators who face day-to-day pressure to keep operations running smooth—and that feedback feeds directly into our process.
The story of perfluoroethylvinyl ether at the industrial scale reflects a shift in expectations. Early laboratories struggled with limited yields, uneven product, and persistent contaminants. We shifted from small-batch to fully automated, closed-system fluorination. That means tighter control of fluorine gas flow rates, temperatures, and solvent paths, all which minimize side reactions. We’ve seen how trace impurities can build up in a customer’s reactor, choking performance and driving up cleaning downtime. By investing in select PTFE-lined reactors and developing staged purification, we’ve reduced byproducts that matter on a micron scale yet add up over tons of annual output.
Customers who require anhydrous product see real advantages—sensitive polymerizations run better, and the final resin reaches higher thermal stability. Standard specs include a perfluoroethyl content not less than 99.9%. And when global demand spikes, say in the shift toward wire insulation for electric vehicles, our experience scaling up without sacrificing quality gives customers confidence their next batch won’t deviate from the last.
The day-to-day reality is that chemical manufacturers, especially those producing advanced fluoropolymers, rely on consistent ether supply. This ether acts as a comonomer, letting manufacturers fine-tune properties across finished materials: melt-processable fluoroelastomers for seals and gaskets, high-temperature resins, and corrosion-resistant coatings. Unlike traditional monomers, perfluoroethylvinyl ether brings a unique mix of low surface energy and non-reactivity, helping finished parts repel oil, water, and aggressive acids.
Across our customers, one trend stands out—engineers are pushing temperatures higher, whether for semiconductor handling or aircraft components. In these settings, even a fraction more thermal stability can mean fewer system failures and longer part lifetimes. Ether-based fluoropolymers manage these extremes better than those built from unsubstituted tetrafluoroethylene or hexafluoropropylene. One major wire and cable supplier achieved a 15% improvement in abrasion resistance after switching to fluoropolymers incorporating our ether as a co-monomer. That boosts reliability without new tool investment.
Experience taught us that every fluorinated monomer brings distinct properties. Tetrafluoroethylene (TFE) delivers vast volume and cost strengths. Hexafluoropropylene (HFP) modifies melt flow. Perfluoroalkoxy alkanes broaden flexibility. So why does industry pay a premium for perfluoroethylvinyl ether? It lies in how even small amounts, blended into target copolymers, shift not just temperature ratings but also surface chemistry and solvent compatibility.
For example, fluoropolymers based on just TFE and HFP might meet some electrical demands, yet they lack reliable stress-crack resistance and suffer under persistent solvent exposure. Adding perfluoroethylvinyl ether alters molecular packing, boosting permeability resistance without sacrificing dielectric strength. Our technical partners regularly report fewer returns and lower field failures after the switch, a reminder that raw material choice underpins service record.
Decades of shipping specialty fluorinated chemicals taught us that safe, loss-free delivery does not happen by accident. This ether requires special containers: high-integrity steel drums under inert gas, or lined tankers capable of blocking moisture ingress. We keep detailed records of internal tank linings, gasket replacements, and fill cycles. Every failed seal or unnoticed scratch can turn into a customer’s contamination issue later on.
On-site storage at our facilities receives just as much attention. Our engineering teams run predictive maintenance on pumps and valves, and pressure test ahead of every large shipment. Product typically leaves our plant with less than 10 ppm water. Even slight excursions above this range can cause rapid polymerization or yellowing in downstream processes—an expensive headache for converters running tight cycles. We equip customers with best practices for unloading and inerting, drawn straight from what we use ourselves each week.
Large scale manufacture is different than pilot scale. Several producers emerged during high market demand periods, or in response to regulation in legacy fluorochemicals. Some found that their synthesis conditions—effective at one drum batch—broke down with tenfold scaleup due to poor heat removal or feed uniformity. By contrast, we invested in progressive reactor design, modular feed systems, and automated impurity sensors.
Customers confronted with delays and inconsistency elsewhere have sought out more reliable producers. We earned trust by working directly with end users—walking lines and studying their process upsets instead of staying at arm’s length. Tweaking purification to remove even high-boiling byproducts, swapping out gaskets, or rebalancing storage protocols gives our product a performance reputation verified in the field, not just the lab.
Environmental scrutiny is rising across all halogenated chemical sectors. We have focused on reducing emissions during handling and making process improvements that limit fugitive releases. Closed-loop systems capture off-gassing, and regular air monitoring keeps our output below regional and global discharge regulations.
This focus on cleaner systems doesn’t just address compliance—it strengthens ties with downstream customers worried about their own environmental footprint. One long-standing user, who adopted our ether as part of a solvent replacement project, used the cleaner, low-residue profile to shrink their secondary treatment costs and raise safety audit grades. These are direct improvements that impact production costs and help maintain long-term supply partnerships.
Production of perfluoroethylvinyl ether initially focused on polymer chemistry, but over the years, calls from new segments changed our view. Some of the most challenging synthesis routes in pharmaceuticals and specialty materials rely on the inert, high-boiling properties this compound brings. Reagent suppliers seek out reliable sources not simply for price, but for documented track records in impurity removal and real-time container tracking.
We now field requests from those in electronics, looking for dielectric components, and from laboratories adjusting to regulatory changes in older fluorocarbons. Meeting these demands required process tweaks—building traceability into every kilogram shipped, and retaining five-year archives of every batch. By shifting support closer to actual user needs, quality doesn’t stop at our gate.
The best technical advice grows from making the material yourself. Our team receives feedback from operators who run extruders, mixers, and reactors. By troubleshooting small-yield issues, troubleshooting metering, or helping customers solve foaming or off-color resin, we hear about problems long before they catch hold.
For new customers, onboarding doesn’t stop at the shipping dock. We offer guidance on calibration runs, polymerization adjustments, and filtration upgrades. This comes from having trained in those same processes internally, recognizing how even seasonal humidity changes can influence ether-based chemistry. We’ve seen how overlooked storage temperatures change reaction rates in humid environments, and shared our own lessons learned from process interruptions—saving clients both money and aggravation.
A decade ago, buyers valued perfluoroethylvinyl ether mostly by specifications—percent purity, or shelf life under nitrogen. Now, spec sheets alone don’t offer enough assurance. Real differentiation emerges from supplier commitment to repeatability and hands-on troubleshooting. In recent years, some newcomers in the field tried to push product out quickly, only to see customers leaving for lack of supportive response when process issues occurred downstream.
We built our reputation by showing up with answers in hand, not generic apologies. Whether it means overnighting technical teams for a joint batch trial or re-routing shipments in response to urgent process changes, our on-the-ground approach differentiates us. Time and again, buyers who have switched suppliers cite consistency at volume, and real-world application support, as the reasons they stay.
Clean technology, renewable energy, and lightweight engineering components will lean heavy on advanced fluoropolymers and specialty intermediates. We expect usage of perfluoroethylvinyl ether to advance as heat, pressure and chemical resistance requirements become tougher. Our R&D teams continue to develop new grades with even lower impurity levels, and we share test data openly with partners to encourage innovation.
Over half of our investments in the last five years targeted capacity increases and redundancy improvements. These keep us nimble in supply emergencies. Supply chain disruptions, whether weather-driven or regulatory, challenge both buyers and suppliers. We address these head-on with stockpiling, multi-step batch release programs, and alternate shipping routes. By openly working out contingency planning with long-term partners, we help secure critical materials even when global logistics falter.
Our work reaches far beyond the reactor fence. Over a third of our staff started on the plant floor or in technical support. Years of troubleshooting storage, shipping, and manufacturing machinery problems—often after hours—honed a culture of accountability. By staying involved on the ground, our people anticipated and addressed field failures before they hit wider production.
Much of our know-how comes from learning the hard way: batch upsets, unexpected customer process changes, or container issues in long-distance shipping. Sharing those lessons internally and with customers creates real improvement. The end result is fewer production interruptions, greater end user satisfaction, and, equally important, a durable relationship built on earned trust.
Public expectations for chemical suppliers grew more demanding year over year. We respond by refining our practices and welcoming outside verification. External audits, third-party risk reviews, and regulatory site visits form a constant backdrop. Our operations not only meet, but often surpass, the tightest global requirements for containment and discharge.
Our customers—engineers, chemists, production managers—evaluate us not just on product, but on a total approach to risk management and regulatory cooperation. By investing both in technical expertise and transparent practices, we strengthen both customer outcomes and our own future as a responsible producer.
Experience counts when turning perfluoroethylvinyl ether from a raw chemical into a reliable, high-value ingredient. Our production speaks for itself in the performance of downstream products, in the resilience of customer supply chains, and in the strength of relationships with technical and procurement teams alike. Looking ahead, we remain committed to building on decades of practical expertise, transparent collaboration, and day-to-day attention to what works at scale.