|
HS Code |
197289 |
| Chemicalname | Ethyl Perfluorooctanoate |
| Molecularformula | C10H5F17O2 |
| Molarmass | 502.12 g/mol |
| Casnumber | 3108-24-5 |
| Appearance | Colorless liquid |
| Boilingpoint | 133 °C (271 °F) at 760 mmHg |
| Density | 1.77 g/cm³ at 25 °C |
| Solubilityinwater | Insoluble |
| Flashpoint | None (non-flammable) |
| Vaporpressure | 1.08 mmHg at 20 °C |
| Refractiveindex | 1.306 |
| Chemicalfamily | Perfluorinated compounds |
As an accredited Ethyl Perfluorooctanoate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Ethyl Perfluorooctanoate, 100g, is supplied in a sealed amber glass bottle with a tamper-evident cap and hazard labeling. |
| Shipping | **Ethyl Perfluorooctanoate** should be shipped as a hazardous chemical, following all local and international regulations. Package in tightly sealed, appropriate containers, labeled with hazard warnings. Transport in accordance with UN, IATA, or IMDG guidelines, avoiding heat, direct sunlight, and incompatible substances. Ensure shipping documents and MSDS accompany the consignment. |
| Storage | **Ethyl Perfluorooctanoate** should be stored in a tightly closed container, in a cool, dry, and well-ventilated area, away from sources of ignition and incompatibles such as strong oxidizers. Protect from moisture and direct sunlight. Use appropriate chemical-resistant shelving and secondary containment to prevent leaks or spills. Ensure proper labelling and keep storage area secure and accessible only to trained personnel. |
Applications of Ethyl Perfluorooctanoate in Industrial ManufacturingEthyl Perfluorooctanoate, with its defined perfluorinated structure, plays a crucial role across several specialized industrial production sectors. Below we detail actual high-demand downstream application scenarios, supplier-to-factory integration methods, and end-use manufacturing specifics for this high-purity chemical intermediate. 1. Fluoropolymer Synthesis for Wire & Cable InsulationMajor wire and cable manufacturers use ethyl perfluorooctanoate as a fluorinating agent and surfactant during the emulsion polymerization of advanced fluorinated polymers, such as polyvinylidene fluoride (PVDF) and fluorinated ethylene propylene (FEP). Its chain-transfer and surface-modifying properties enable production of high-performance insulation layers with strict dielectric, fire-retardant, and hydrophobic specifications. End producers must ensure raw material traceability and stability, as well as adherence to stringent safety protocols throughout compounding and extrusion stages. Industry compliance standards
Typical usage ratio
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2. Oil and Chemical Barrier Coatings for Technical TextilesTextile finishing plants apply this intermediate during the manufacture of nonwoven and woven technical fabrics to achieve high-level repellency to oils and chemicals. Perfluorooctanoate derivatives anchor to fiber surfaces and provide durable, low-surface-energy barriers. Process engineers carefully monitor concentration, dispersion stability, and crosslinker introduction to comply with end-user performance testing and regional substance control lists. Industry compliance standards
Typical usage ratio
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3. Surfactant Additive for Aqueous Firefighting Foams (AFFF)The surfactant properties of ethyl perfluorooctanoate make it a key component in the formulation of aqueous film-forming foams, used by safety authorities for flammable liquid fire suppression. When combined with hydrocarbon or fluorotelomer surfactants, it rapidly spreads across liquid fuel surfaces, creating a vapor-sealing film. Manufacturers of firefighting chemicals must initiate rigorous batch testing for film formation time and stability, and maintain detailed records for chemical origin and trace residues. Industry compliance standards
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4. Specialty Etching and Surface Treatment in Microelectronics ManufacturingIn microelectronics and semiconductor fabrication, controlled etching and wafer cleaning processes employ perfluorooctanoate esters as surface wetting agents and etching auxiliaries for silicon, silicon oxide, and specialty glass substrates. These agents minimize surface tension, allowing uniform spread of etchants and improved micro-pattern uniformity. Precision metering and system cleanliness are particularly emphasized to meet critical defect and residue-free yield standards during device fabrication and packaging. Industry compliance standards
Typical usage ratio
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As a chemical manufacturer with decades of hands-on experience in producing fluorinated compounds, Ethyl Perfluorooctanoate stands out in our catalog for its consistent profile and reliability in specialized industrial settings. This substance, with its eight-carbon fully fluorinated backbone and an ethyl ester group, has gained a well-earned reputation among fluorochemical processors and researchers. We have worked with many derivatives of perfluorooctanoic acid, but the ethyl ester form remains one of the most sought-after intermediates for creating surface treatments and advanced materials.
Our Ethyl Perfluorooctanoate comes in high-purity batches, refined through closely monitored distillation and purification steps right at the source. Over years of production, every run is checked for precise molecular weight, purity levels, water content, and color consistency. The defining characteristic comes from its perfluorooctyl chain, which carries an ethyl ester functionality—setting it apart from the acid or salt derivatives of the same backbone. This unique identity means our product addresses project needs where hydrophobicity, thermal stability, and controlled reactivity are non-negotiable.
Each drum or container leaves the factory with a batch analysis report, reflecting the lot’s analytical profile. We consistently achieve results with GC assay above 98%, low residual acid, and moisture kept under strict limits by in-process controls. As a result, R&D teams in polymer chemistry, surfactant design, and surface science have come to expect a practical, reproducible product every time.
The greatest demand for Ethyl Perfluorooctanoate arises in sectors focused on modifying material surfaces, especially when long-lasting repellency or stability is needed. Fluorine-rich substances like this one, by nature of their structure, bring impressive chemical and thermal resistance. Our clients often request this product for work on specialty fluoropolymers, coatings, and water-repellent agents. The ester group allows tailored reactions, offering more options during synthesis and downstream functionalization compared to straight-chain acids.
Over years, textile finishers, electronics manufacturers, and lubricants producers have all approached us for Ethyl Perfluorooctanoate thanks to its reliable behavior in harsh chemistries. Textiles finished with fluorinated esters stand up to weather and spills in ways non-fluorinated alternatives cannot replicate. Electronic component makers demand a clean, repeatable experience that survives exposure to solvents and elevated temperatures. Lubricant formulators appreciate the unique balance between sliding characteristics and resistance to degradation, which comes directly from the perfluorinated chains.
Laboratories engaged in advanced synthesis work find the ethyl ester particularly useful as a starting material. The reaction pathways accessible from the ester allow for the creation of new surfactants, block copolymers, and specialized blends that resist breakdown in oil and gas environments, semiconductor fabrication, or high-end automotive applications. Support teams at our plant regularly provide application notes and practical guidance, drawing on years of scale-up experience, to labs interested in novel fluorinated architectures.
In the past, inquiries have arrived about the differences between Ethyl Perfluorooctanoate and similar-sounding chemicals. It’s not uncommon to see confusion around perfluorooctanoic acid (PFOA), perfluorooctanesulfonic acid (PFOS), and a range of salts and esters based on the same carbon chain. From the perspective of a manufacturer who routinely synthesizes and purifies these classes, several practical distinctions shape the choice for end-users.
The acid form (PFOA) remains widely used in polymerization processes but brings with it a number of handling and regulatory challenges. Acidic materials need extra equipment precautions, can create waste streams requiring neutralization, and sometimes interfere with sensitive reaction schemes. The sodium, ammonium, and other salt variations perform well as surfactants but introduce ionic character, which may not be suitable for all systems.
The ethyl ester variant, on the other hand, enters processes that require ester functionality—allowing for further transformation, such as amide or alcohol formation, without introducing acid or ionic residues. In direct fluoropolymer synthesis or post-polymerization modification, this subtle difference often prevents unwanted side reactions, preserving yield and quality in complex chemistry environments. Where some customers have faced regulatory review or changing supply chains, shifting from acid or salt substrates to ester-based intermediates has helped them maintain compliance and process control.
Another clear difference emerges in environmental and safety considerations. Modern industry moves continually toward less hazardous, more controllable chemistries, seeking to minimize persistence and exposure. By virtue of being an ester rather than a free acid, Ethyl Perfluorooctanoate typically displays lower volatility and reduced direct hazard in the workplace. Decades working with fluorinated chemicals have taught us careful management and meticulous purification minimize both operational risk and downstream impact.
As a direct manufacturer, our work on Ethyl Perfluorooctanoate has drawn on both technical know-how and lessons from years of practical production. The complete process—from raw material evaluation to final purification—demands precision and a refusal to cut corners. Maintaining consistent supply of high-quality fluorinated intermediates is never a one-time achievement; it evolves through persistent operator training, investment in analytical instruments, and responsive engineering upgrades.
Our plant has adapted to the rapid changes in the chemical industry, especially as global regulators scrutinize the legacy and safe usage of perfluorinated substances. By keeping each batch traceable and our protocols transparent, we foster trust with technical teams who depend on unbroken data and reliable material batch-to-batch. This transparency eliminates guesswork for chemists and production operators, removing surprises from the lab bench or production floor.
We continuously engage with customers, research institutes, and engineers- in order to transfer field discoveries back into production lines. Turnaround on client feedback is rapid: when specifications tighten, production practices adapt. Improvements in analytical testing, bulk logistics, and waste minimization reflect a two-way relationship where clients depend on a producer’s experience, and we grow through the real-world results seen by process engineers and R&D teams using our product.
Fluorinated chemicals have drawn close scrutiny regarding their persistence and environmental profile. Rather than shy away from this reality, direct chemical manufacturers bear the responsibility to operate with transparency, invest in cleaner chemistries, and support customers with detailed product knowledge. Working with Ethyl Perfluorooctanoate, we pay particular attention to minimizing impurities, avoiding cross-contamination, and employing well-established containment and abatement technologies.
Customers sometimes face challenges when switching from acid to ester forms or shifting between fluorochemical suppliers. Practical experience shows the value of conducting small-scale tests in-house before a process transition, especially where downstream reactions or product performance sits on a knife-edge. In our experience, support during those pilot phases builds confidence and leads to stable scale-up outcomes. We backstop all routine shipments with technical assistance, whether for troubleshooting, regulatory reporting, or designing custom purification runs for high-spec applications.
The issue of perfluorinated chemical persistence deserves clear-eyed discussion, based on scientific fact rather than rumor or short-term headlines. As long-time participants in this field, we recognize the industry’s footprint and work closely with stewardship efforts, both in-house and through industry consortia. Experience has shown that responsible production—using emissions controls, system monitoring, and rapid remedial action when excursions happen—does more to protect customers and communities than blanket avoidance.
Trust grows with every drum or tanker that leaves our facility. Our commitment to safety, reproducibility, and practical advice has helped end-users prevent surprise incidents and regulatory headaches. Over time, process improvements—like reducing by-products or tightening reaction parameters—have not only made the manufacture of Ethyl Perfluorooctanoate safer for our own people, but they have also led to a cleaner downstream profile for customers.
Customers today want more than a reagent: they seek a partner willing to share knowledge, assist with regulatory adaptation, and stand behind the material through a full project lifecycle. As chemistry continues to transform in the face of climate and sustainability pressures, we push for process improvements and greener supply chain thinking wherever possible. Some of the new purification technologies and catalyst recovery programs pioneered in our plants carry over to other fluorinated compounds, broadening the benefits of each lesson learned working with Ethyl Perfluorooctanoate.
We also see demand growing from sectors investigating alternatives to legacy perfluorinated compounds—not by abandoning performance needs, but by seeking derivatization routes or lower-impact processing. Making ester forms accessible, with documented purity and reactivity, gives innovators tools to rethink how surfactants, repellents, or functional fluoropolymers get manufactured in a changing regulatory era. Our long view on supply chain risk-reduction keeps our operation stocked through inventory planning and direct relationships with primary raw material suppliers, smoothing out many common market disruptions.
Nobody understands the quirks and needs of a chemical better than the people synthesizing, purifying, and analyzing it every day. We have fielded process upsets, supply interruptions, evolving technical spec requests, and personnel transitions. Every setback becomes experience, and that experience keeps our Ethyl Perfluorooctanoate production efficient, consistent, and supportive for other chemical innovators.
Technical teams at our factory share practical troubleshooting advice—whether it concerns raw material reactivity, temperature control during esterification, or shipment protection under various climates. Problems in this chemistry field do not always come from textbooks. Sometimes handling issues emerge in the real environments of end-use workplaces; that’s when our history producing, packaging, and shipping this product helps, having already worked through drum corrosion, shipping delays, or containment system failures long before.
The difference between a commodity from a faceless trader and a refined product from a manufacturer: context, transparency, and the willingness to solve problems face-to-face with engineers or researchers. By being present and responsible from the beginning, we close the loop between production expertise and practical application—a relationship far more valuable than paperwork or platitudes can capture.
As global industries adapt to fast-changing performance targets and safety guidelines, companies can’t afford to take shortcuts with specialty chemicals. Our knowledge spans from the fine print of synthesis methods all the way out to how a repellent-treated fabric or high-temp sealant performs in real environments. This company’s legacy rests not just on reliable production but on a commitment to sustainable chemistry—aligning ongoing product development with regulatory priorities and emerging customer needs.
Collaboration with all customers—large buyers and lab-scale researchers alike—has made our Ethyl Perfluorooctanoate program nimble and responsive. We invite feedback on how the product performs, on questions about downstream waste handling, or on ways to further increase user safety. The aim is to lower barriers both for compliance and for daily handling, giving operators and chemists confidence in how they work with this unique fluorinated material.
Forward-looking projects build on trust earned batch after batch. Our dedication to thorough testing, risk assessment, and product documentation allows us to support not only today’s standards but also future regulations. In this business, a well-made product delivered reliably matters more than claims or marketing. Working every day to refine, improve, and educate, we remain focused on the real-world needs of people using advanced fluorinated chemistry—today and for years to come.