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HS Code |
983845 |
| Product Name | 2-(Heptafluoropropoxy)Tetrafluoropropionyl Fluoride |
| Cas Number | 756-13-8 |
| Molecular Formula | C6F11O2 |
| Molecular Weight | 338.05 g/mol |
| Appearance | Colorless liquid |
| Boiling Point | ca. 44 °C |
| Density | 1.687 g/cm3 (at 20 °C) |
| Vapor Pressure | Approx. 220 mmHg (at 20 °C) |
| Solubility | Insoluble in water |
| Refractive Index | 1.293 (at 20 °C) |
| Stability | Stable under recommended storage conditions |
| Storage Temperature | Store at 2-8 °C |
| Smiles | O=C(F)C(F)(F)COC(F)(F)C(F)(F)F |
| Inchikey | KZKFVOMLPXITRF-UHFFFAOYSA-N |
As an accredited 2-(Heptafluoropropoxy)Tetrafluoropropionyl Fluoride factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | A 100g silver-toned high-pressure cylinder with yellow hazard labeling, fitted with a secure valve, clearly marked "2-(Heptafluoropropoxy)Tetrafluoropropionyl Fluoride." |
| Shipping | `2-(Heptafluoropropoxy)Tetrafluoropropionyl Fluoride` should be shipped as a hazardous chemical, compliant with relevant regulations (IATA, DOT, IMDG). It must be packaged in approved, airtight containers, clearly labeled, and protected from moisture and physical damage. Handle with appropriate safety measures, including secondary containment to prevent leaks during transit. |
| Storage | 2-(Heptafluoropropoxy)Tetrafluoropropionyl Fluoride should be stored in tightly sealed containers made of compatible materials, such as fluoropolymers, under an inert atmosphere (e.g., nitrogen or argon) to avoid moisture and air contact. Keep the storage area cool, dry, well-ventilated, and away from sources of heat, ignition, and incompatible substances. Clearly label containers and ensure proper chemical safety protocols are followed. |
Applications of 2-(Heptafluoropropoxy)Tetrafluoropropionyl Fluoride in Industrial ManufacturingAs a direct manufacturer of 2-(Heptafluoropropoxy)Tetrafluoropropionyl Fluoride, we support advanced industrial clients in sectors demanding high-performance fluorinated intermediates. This material plays a critical role in several established downstream applications where its unique reactivity and stability enable efficient synthesis and targeted material properties. Below, we detail proven use scenarios along with regulatory compliance, formulating guidelines, integration points in downstream processes, and examples of finished goods. 1. Synthesis of Fluorinated Polymer PrecursorsMajor specialty and fine chemical manufacturers integrate this compound as a key intermediate for producing fluorinated monomers. The distinct reactivity of this acyl fluoride group enables efficient introduction of perfluorinated side chains in controlled polymerization processes, yielding high-grade fluoropolymers with enhanced chemical resistance and low surface energy for technical markets such as membranes, linings, and advanced coatings. Industry compliance standards
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2. Advanced Electronic Chemical SynthesisLeading semiconductor material producers employ this specialty fluorinated compound as a building block for syntheses of etchant gases, photoresist additives, and dielectric precursors, where thermal and chemical inertness are critical for microfabrication processes. The molecule enables the introduction of high-purity perfluorinated groups under strictly controlled reaction conditions required by electronic grade users. Industry compliance standards
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3. Fluorinated Surface Treatment Agent ManufacturingSurface chemical producers rely on this compound to synthesize functional fluorinated agents for imparting oil, water, and stain repellency on textiles, paper, and leather substrates. Due to its reactive acyl fluoride functionality, it enables covalent grafting of perfluoroalkyl groups onto cellulose or protein fibers, delivering performance demanded by industrial barrier material manufacturers. Industry compliance standards
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4. Specialty Fluorochemical Synthesis for Industrial LubricantsProducers of high-performance synthetic lubricants and greases use this raw material as a precursor for next-generation perfluoropolyether (PFPE) oils and related functional fluids. The unique structure supports building long-chain, thermally stable base oils with very low volatility, suited for vacuum pumps, aerospace bearings, and electronic cooling where reliability under harsh conditions is mandatory. Industry compliance standards
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5. Intermediate for Agrochemical Fluorinated ActivesAgrochemical manufacturers utilize this compound for constructing highly selective fluorinated motifs in new-generation crop protection agents. Its structure enables site-specific fluorination of aromatic and aliphatic rings, markedly altering metabolic profiles and environmental persistence, which is crucial for products targeting challenging agricultural pests under increasing regulatory scrutiny. Industry compliance standards
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No one in our industry needs to be told twice about the essential role highly fluorinated intermediates play in modern materials and specialty applications. Our facility puts the focus on bringing forward molecules that transform next-generation product design. Through years of handling the challenges unique to perfluorinated and polyfluorinated intermediates, we have developed and now reliably manufacture 2-(Heptafluoropropoxy)Tetrafluoropropionyl Fluoride. This compound, with its specific perfluorinated ether structure, answers the call for a highly stable, reactive acyl fluoride variant built for advanced synthesis in demanding performance environments.
The chemical itself draws attention due to its dual nature: both the strong electron-withdrawing heptafluoropropoxy group and the formidable reactivity of the tetrafluoropropionyl fluoride segment. Molecularly, this structure provides a balance of thermal stability and functional reactivity. A significant proportion of our customers work in areas like fluoropolymer modification, production of surface-active agents, and the synthesis of specialty agrochemicals or pharmaceuticals. You see, the core value comes from its ability to introduce a highly fluorinated acyl group with a tailored reactivity profile much suited for tough reaction conditions. The product leaves ordinary acyl fluorides behind because of its remarkable resistance to hydrolysis and unwanted side reactions.
Over time, chemists have gotten creative with its application in the synthesis of hydrophobic surface-treatment agents, liquid crystal intermediates, and as a critical building block for long-chain fluorinated surfactants. Our plant set out to provide a version with a consistently low moisture content and stable impurity profile, sidestepping problems caused by trace acids or hydrolysis products that erode process yields. We focus not only on purity and stability but also on handling and supply consistency, which becomes critical once you move up towards pilot and production scale.
In a market full of fluorinated building blocks—everything from trifluoroacetic acid derivatives to perfluorobutyryl fluoride—every substitution counts. Our 2-(Heptafluoropropoxy)Tetrafluoropropionyl Fluoride stands apart due to the performance it brings to specialized synthesis pathways. The perfluorinated ether group offers more than just steric bulk; it influences phase behavior, miscibility with other fluorocarbons, and often lets chemists introduce more robust, non-wetting properties in the end product. In our experience, traditional acyl fluorides struggle to impart such attributes, especially under high-temperature polymerization or when aiming for chemical resistance in coatings.
Several customers have used our product to address the issue of degradation at interfaces between fluoropolymers and other engineered materials. Thanks to the rigid and hydrophobic nature of the heptafluoropropoxy tail, final products tend to resist fouling, discoloration, and the slow breakdown many see when testing with aggressive solvents. Traditional perfluoroacyl fluorides without an ether group rarely match this. Through close collaboration with high-end fluoropolymer researchers, we gathered real-world feedback pointing to more consistent molecular weight control in chain extension or branching reactions as well. That’s the sort of problem solving that only happens when you make the material, not just sell it.
We bring a production mindset to everything about this product, starting with batch reproducibility and going all the way to packaging. Each lot is tested not just for nominal purity but also for traces of hydrolysis products and free acids, since these can cripple certain nickel- or platinum-catalyzed reactions. Our on-site experience with cylinder filling systems gives us plenty of insight into why correct moisture exclusion and fluoropolymer-compatible gaskets matter. The product is packaged only under controlled inert conditions using fluoropolymer-sealed containers, because nobody benefits from a container that leaks or allows ingress of air over time. Because we face the same conditions as our clients—highly corrosive atmospheres, long-term storage, and temperature swings—we know just how damaging trace contamination can become.
Physical characteristics, such as boiling point and volatility, make this molecule an easy choice for vapor-phase processes. We have chosen to focus on this area, equipping our systems with moisture scrubbing and in-line purity measurement, letting us promise a consistently high standard. Over the years, we saw demand cluster around tight impurity specs, so our lab remains committed to pushing lower detection limits for both organic and inorganic contaminants.
Our relationships with technical end-users—not just purchasing agents—have shaped how we produce and deliver this product. One case involved a surface modification process for electronics, where low acid content meant the difference between reliable performance and patchy, non-adherent coatings. Another project in pharmaceutical synthesis targeted complex fluoroalkyl motifs, where selectivity in reactivity saved hours of work downstream by reducing side-product formation.
Where a trader might overlook the subtleties involved, we adjust packaging lot sizes, shipment formats, and even blending options to real, on-the-ground feedback. Safe transfer under nitrogen atmosphere, advice for adapting glass-lined versus fluoropolymer-lined reactors, and protocols for preventing unwanted hydrolysis during scale-up—these adjustments come from years of joint troubleshooting with plant chemists who have their sleeves rolled up.
Turning toward environmental and regulatory pressure, we have responded with internal tracking and recordkeeping that supports full product traceability back to raw material input. Partner audits have pushed us to document and refine cleaning methods, cylinder purging protocols, and batch record granularity in a way that supports site-level accountability, not just compliance for compliance's sake. The practical consequences show up in fewer investigations into off-spec batches and smoother certifications for our partners.
Some say fluorinated acyl fluorides are a commodity. Our daily experience pushes back on that idea. The way we synthesize, purify, and package 2-(Heptafluoropropoxy)Tetrafluoropropionyl Fluoride has been built out of solving recurring pitfalls our customers have identified over the years. A sharply defined impurity profile and moisture control are only possible by digging into the upstream sources of contamination—residues in reactors, gas-phase filter aging, or minor byproduct formation from minor impurities in starting heptafluoropropanol. By committing to end-to-end visibility, we've materially improved outcomes for those working at the edge of fluorinated chemistry.
Feedback from our long-term partners has pushed us to tweak everything from cleaning-in-place systems to internal logistics. Freshness of each batch matters—a product that spends too long in intermediate storage or gets transferred between too many containers invites breakdown, so we’ve eliminated a lot of those pathways. Our format flexibility covers different project scales, serving both gram-level laboratory investigations and ton-level manufacturing campaigns with equal commitment to reliable analysis and responsive delivery times.
Making specialty fluorochemicals safely, economically, and responsibly doesn’t happen in a vacuum. Supply chain shocks have proven that continuity of raw material procurement and spare part logistics can make or break a campaign. We focus on redundant sourcing and strategic inventory to keep our customers from project-halting delays. On the safety front, handling acyl fluorides means no corners cut: reinforced PPE protocols for our staff, regular air monitoring, and emergency procedure refreshers keep both our team and the downstream users safer.
Waste management cannot be left for future worries. The byproduct HF and fluoride salts demand continuous monitoring and diligent neutralization procedures. We work directly with environmental services to keep site discharges well within limits, and have adopted transparent record keeping for compliance and audit defense. The industry will keep moving forward toward greener chemistries and more sustainable feedstocks, and we engage openly with supply partners to swap ideas—from fluorinated waste repurposing options to energy-saving steps on plant utilities.
Many of our clients come to us as their projects scale or transition from laboratory glassware to pilot plants and eventually to commercial production. The lessons learned at the small scale don’t always translate cleanly to tons per year output. Reactor temperature gradients, agitation speed, and oxygen ingress, for instance, show up in product performance if not monitored closely. We maintain technical lines open for process engineers and chemists to co-design batch protocols, identify bottlenecks, and resolve unexpected setbacks.
Our facility has invested in process intensification technology, so batch-to-batch repeatability means more than just hitting a spec sheet in the lab. By building in automated real-time monitoring for temperature, headspace composition, and vent polisher efficiency, we sustain tighter control, even in round-the-clock campaigns. This isn’t just about numbers; it’s about learning from what goes wrong, feeding that insight back into both our plant and our client support.
Our operators, engineers, and QC staff come from all walks of chemistry and industrial manufacturing. A few of our team began their careers running bench-top reactions for academic groups, others have held the night shift for over a decade, diagnosing leaks at two in the morning or troubleshooting pumps in harsh weather. That collective experience filters back into every improvement we make.
On the quality assurance side, plenty of the learning comes from blunt and honest customer feedback, whether about delays, product stability, or even changing international transport requirements for hazardous goods. We treat those moments not as challenges, but as real opportunities to do better.
Our work rarely ends with a successful delivery. New research projects constantly push the edge of what fluorinated acyl fluorides must handle. Coordinating directly with application scientists, we’ve supported temperature ramp studies, solvent compatibility testing, and kinetic analyses of novel reaction pathways. Projects that aimed first at pilot batches often find unforeseen efficiency improvements when we help troubleshoot on-site. Sometimes it’s a moisture trace, sometimes an unnoticed contamination on a gasket. Years spent physically at the reactors, not behind a desk, have shown us where to look first when things don’t add up.
The landscape for new fluorinated intermediates keeps shifting. Increased scrutiny on persistent environmental chemicals and tighter workplace standards push us to keep re-examining both the product and the means of producing it. We have begun exploratory work on bio-based starting materials and energy recovery from exothermic stages, building from early success stories to more robust, scalable programs. Sustainability remains a moving target, one we approach by talking directly with both our upstream and downstream supply chain partners.
What ultimately matters with a specialty chemical like this isn’t just the molecule itself. It’s the layers of reliability, hands-on knowledge, and commitment to practical improvements that ensure chemists, engineers, and manufacturers can focus on innovation, not surprises. We make our 2-(Heptafluoropropoxy)Tetrafluoropropionyl Fluoride to fit those needs, building from deep-rooted manufacturing experience and an open line to our users.
Every batch carries our commitment to purity and responsiveness. Every improvement in our process aims to strengthen a partnership, not just an invoice. Anyone can resell chemistry. We build it, fix it, and refine it in real time. We don’t just put our name on the drum—our reliability is measured in the field, on the line, one challenge at a time.