|
HS Code |
144683 |
| Chemicalname | Perfluorooctane |
| Molecularformula | C8F18 |
| Molarmass | 438.06 g/mol |
| Casnumber | 307-34-6 |
| Appearance | Colorless liquid |
| Boilingpoint | 125°C |
| Meltingpoint | -25°C |
| Density | 1.77 g/cm³ at 20°C |
| Vaporpressure | 50 mmHg at 25°C |
| Solubilityinwater | Insoluble |
| Refractiveindex | 1.274 at 20°C |
| Odor | Odorless |
| Flashpoint | Non-flammable |
| Viscosity | 1.3 mPa·s at 25°C |
| Surfacetension | 13.7 mN/m at 20°C |
As an accredited Perfluorooctane factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Perfluorooctane, 500 mL, supplied in a sealed amber glass bottle with chemical-resistant cap, labeled for laboratory use only. |
| Shipping | Perfluorooctane is shipped in tightly sealed, chemically resistant containers to prevent leaks and contamination. It must be stored and transported in accordance with relevant hazardous materials regulations, away from heat and incompatible substances. Appropriate labeling, documentation, and protective measures are required to ensure safe handling during transit. |
| Storage | Perfluorooctane should be stored in tightly sealed containers made of materials compatible with fluorinated compounds, such as glass or specific plastics. Store in a cool, dry, and well-ventilated area away from heat, ignition sources, and incompatible substances like strong oxidizers. Keep the chemical protected from direct sunlight, and clearly label all storage containers to prevent accidental misuse or exposure. |
Applications of Perfluorooctane in Industrial ManufacturingPerfluorooctane is a specialty fluorinated compound primarily used in sectors that demand exceptional chemical stability, dielectric properties, and high purity. As a direct manufacturer, we supply this material to critical applications where compliance, exact formulation, and controlled processing play a key role. 1. Electronic Device Cooling SystemsMajor electronics and semiconductor manufacturers use perfluorooctane as a dielectric and heat transfer fluid in closed-loop cooling systems for sensitive equipment. The compound offers non-conductivity, low toxicity, and high vapor pressure, allowing precise temperature control during wafer etching, laser cooling, and chip testing operations. By using perfluorooctane, customers manage rapid heat dissipation without risk of ionic contamination or fluid degradation under plasma or vacuum conditions. Industry compliance standards
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2. Ophthalmic Surgical OperationsOphthalmic device manufacturers purchase perfluorooctane for use as an intraoperative tamponade fluid in vitrectomy procedures. Surgeons apply it to replace aqueous and vitreous humor, enabling safe retinal manipulation due to its high specific gravity and immiscibility with biological fluids. Only ultra-high purity grades are suitable, and detailed batch traceability and sterilization protocols apply. Industry compliance standards
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3. Fluorochemical Synthesis IntermediatesSpecialty chemical producers use perfluorooctane as a synthetic intermediate and carrier in the production of higher fluoropolymers, fluorinated surfactants, and perfluoroalkyl iodides. Its chemically inert nature and ability to dissolve other perfluorinated reagents support highly selective reaction environments. Material traceability and batch consistency are key to downstream process yields and regulatory audits. Industry compliance standards
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4. LCD and Electronics Cleaning ApplicationsLeading display panel and precision hardware manufacturers employ perfluorooctane as a final-stage rinse solvent to remove ionic and particulate residues from ultrafine substrates such as LCD glass, OLED layers, and MEMS devices. The compound’s ultra-low surface tension and non-reactivity ensure rapid evaporation and residue-free surfaces, which are crucial for high display performance and rejection control. Industry compliance standards
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5. Specialty Heat Transfer and Insulating Fluids for Aerospace SystemsAerospace system suppliers use perfluorooctane in closed-circuit avionics cooling and as an insulating medium in sensors exposed to extreme temperatures. The compound’s high dielectric strength and chemical inertness maintain critical system safety in satellite, avionics, and spaceborne electronics where alternative fluids cannot meet volatility and material compatibility constraints. All production must demonstrate strict lot validation and aerospace-grade traceability. Industry compliance standards
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Manufacturing perfluorooctane is both a science and an art. This compound, also known as PFOC, stands out in applications demanding high chemical stability, transparency, and inertness. Our years on the chemical production floor have taught us that not every perfluorinated fluid behaves the same in demanding conditions, especially in cleanroom or electronic settings. We’ve watched customers face inconsistent supplies and unpredictable purity when sourcing from outside the manufacturing loop. Bringing perfluorooctane from our reactors to real-world applications is about more than purity percentages — it’s about confidence in every shipment.
Our perfluorooctane features the straight-chain C8F18 structure, a colorless, transparent liquid. Our current models consistently deliver a boiling point near 101–103°C under atmospheric pressure. Careful distillation in steel and glass reactors removes residual acids and particulates, as even traces risk downstream failures in sensitive optical or surgical settings. Chemical stability comes not just from the inherent molecule, but from tight controls and decades of incremental process improvements.
We offer a medical-grade perfluorooctane model, fabricated to strict optical-clarity and particle-free standards. For fields like retinal surgery, users demand a compound with virtually no aromatic byproducts and controlled levels of dissolved gases. Our routine QC checks nail down critical specifications:
Real-world performance comes into focus in single-use medical vials and large-lot electronics. We see differences in end-use feedback when the visual clarity falls even a fraction below what a skilled surgeon expects. After years of facing off against both visible and invisible contamination, we designed triple-filtration rigs and vacuum drying processes to hit our numbers consistently. Our years alongside industry partners in medical device production taught us to set reliability as our daily goal, not just a line on a technical sheet.
Perfluorooctane plays a unique role in ophthalmic surgery. Surgeons in vitreoretinal procedures use this fluid for its unmatched density and clarity, which support delicate manipulations inside the eye. As a manufacturer, we keep dialogue open with operating room teams to track every performance detail. Stories from doctors about plume formation or bubble persistence pushed us to chase after atmospheric gas stripping with new methods. Our filtration rooms now reach down to 0.2-micron tolerances, something competitors relying on repackaging routinely miss.
In electronics, engineers count on our perfluorooctane models for both heat transfer and cleaning. Our compound provides a stable dielectric fluid: it won’t react, degrade, or thicken even after hours of cycling. Companies testing chips or assembling camera modules appreciate the absence of conductive or reactive residues. Over time, we learned the value of full supply chain visibility; it only takes a single hint of leached fluorinated fragments to trigger board failures or inconsistent imaging. Tight manufacturing controls became our answer, and the feedback loop with advanced device firms never slows.
Few realize how complex it is to push perfluorooctane production to large volumes without letting impurities creep in. We learned early on that purity drifts in large-scale vessels. Repeated batch analysis, especially on intermediary cuts, uncovered subtle sources of instability — a small gasket swelling here, a valve seat outgassing there. The knowledge built by hands-on operation means spotting product deviations before customers do. Trust doesn’t come from certification stamps alone; it comes from decades invested in every ton shipped.
Global customers, especially those in medical fields, want confidence that every bottle will mirror the last. That’s why process feedback and constant method refinement underpin our philosophy. We actively involve QA teams at every shipment, combining traditional glassware chemistry with high-end instrumentation. Logistic teams keep temperatures steady across borders, tracked with real-time sensors so products never risk temperature swings that could shift density or volatility. Only genuine manufacturers sense the full ecosystem; traders watching from a distance can’t feel the improvements we make batch by batch.
Several perfluorocarbon liquids compete for attention — perfluorohexane, perfluorodecalin, and the like. Perfluorooctane brings specific features to the table. Its moderate boiling point allows easier distillation and purification, and it avoids rapid volatilization during open handling. In surgery, too high a boiling point can complicate removal and increase risk of tissue heating. We’ve listened to surgeons who explained the difference between smooth perfluorooctane evacuation and the stickiness of heavier molecules. In cleaning electronics, its volatility means less residual after evaporation, unlike heavier perfluorocarbons that leave faint traces.
Perfluorohexane, by contrast, vaporizes away faster, and thins too quickly in certain micro-assembly environments. Medical device assemblers shifted to perfluorooctane after running into rapid loss issues with C6 compounds. Among perfluorinated products with longer chains, like perfluorodecalin, we see less demand where flow properties in fine tubing matter. For each product, years of hands-on fieldwork and post-deployment surveys give us a library of feedback on what actually happens out there. Users relying purely on literature or datasheets miss the subtle tradeoffs that define everyday performance.
No one knows the nuances of perfluorooctane handling better than those of us who spend our days in the plant. Its chemical stability means it won’t burn or break down easily, even near open flames, but every drum and vial deserves careful handling. Staff suit up in controlled environments, even though perfluorooctane itself won’t attack most common materials. From cleaning to final filling, operators understand how vapors can rob precious product if not tightly sealed. Each transfer step is a chance to prevent loss or accidental air contact, which can sneak minute water or oxygen into the fluid.
Logistics teams learned hard lessons about temperature swings during overseas transit. We developed insulation protocols not because the literature insisted, but because we heard from customers opening cold-soaked drums to find condensation or cloudiness. By tracking shipping containers in real time, we eliminate surprises and keep products stable from our factory gates all the way to surgical suites or cleanrooms.
Over years of serving advanced industries, certain concerns recur. The most common: residual contaminants, batch consistency, and reliable supply. Out in the field, we’ve replaced poorly distilled material that cost valuable time and trust for our customers. In one case, a research lab uncovered unexpected fluorinated side products from a brokered source; direct manufacturer supply allowed them to pinpoint and eliminate contamination sources.
Medical teams often wonder about regulatory compliance, especially with shifting international standards. As producers, we invest heavily in documentation, stability testing, and auditability. Our team tracks requirements across regions, updating batch records to export confidently to diverse markets. End-users appreciate direct access to our technical staff, who know from experience what it takes to get medical approvals or to troubleshoot installation snags in advanced assembly lines. Every request feeds back into our process refinement, and we thrive on detailed feedback from our most demanding users.
Experience has shown us that no chemical exists in a vacuum — perfluorooctane included. Environmental scrutiny of perfluorinated compounds continues to rise. Our plant invested in solvent recycling, closed-loop handling, and rigorous containment to prevent emissions. Regulatory teams keep a close eye on evolving best practices, ensuring minimal environmental release and full compliance with all local rules. Understanding the legacy issues surrounding long-chain fluorocarbons, we designed protocols to track every liter and minimize long-term environmental presence.
It takes real-world collaboration to overcome challenges tied to persistent chemicals. We work with partners to develop responsible disposal and recycling programs, including solvent recovery solutions for medical and electronics firms. Internal training emphasizes recognizing early signs of inadvertent releases, reducing both worker and environmental exposures. Industry experience demonstrates that commitment to stewardship builds partnerships — customers trust manufacturers who look beyond just the shipping dock.
Our expertise — honed in synthesis, purification, and field support — separates direct producers from third-party brokers. Only hands-on manufacturing brings intimate knowledge of perfluorooctane’s quirks, strengths, and edge-case risks. We answer not with generic promises, but with practical details gained from decades of trial, adjustment, and close partnership with users. From pilot batches to thousand-liter scale, the reliability and traceability go deeper than a name on the label. Our pride comes from every clear, particle-free, high-performance liter poured by our own staff.
Customers willing to look past surface-level spec sheets discover manufacturing partners who anticipate needs and communicate with clarity. Direct support extends through regulatory hurdles, usage optimization, and field troubleshooting. What others treat as an off-the-shelf commodity, we handle as a material shaped by investment and learning, always with the end user’s experience in mind.
Years of day-to-day chemical operations drive home one truth: there are always practical ways to get better. Our development teams experiment constantly with new purification and gas removal techniques. By scrutinizing each batch, we closed purity gaps competitors didn’t even acknowledge. Early feedback from optical and electronics firms sparked upgrades to our filtration and degassing systems. Drawing on field experience, our QC laboratories expanded their testing to cover trace metals, while research partners used our samples to explore next-generation medical devices.
We’ve also responded to calls for specialized perfluorooctane grades. Certain imaging teams needed ultra-low-residue variants, so we adjusted both reactor cleaning and refill protocols. Our involvement with applied research groups drives change: each unique request sharpens our ability to solve technical obstacles. These relationships push us to blend proven methods with open eyes toward industry shifts.
We couple process discipline — tracked in every batch sheet and performance log — with openness to on-the-floor proposals. Our staff’s insights, built from real-world setbacks and problem-solving sessions, feed straight into the product you receive. By staying humble enough to listen and persistent enough to refine, we keep perfluorooctane ready for emerging challenges.
Nobody values responsive, informed support more than those who have faced a line stoppage, field issue, or surgery snag. Our engineers and technical staff have decades in both plant operations and on-site troubleshooting, so they don’t read answers from scripts. We’ve stood beside customers during audits, helped refresh old certification paperwork, and traced root causes back to the finest details in process logs. Our approach to technical support: honesty, clarity, and action grounded in our own day-to-day work.
When unique challenges arise — an unusual cloudiness, a persistent bubble, an unfamiliar analytical signal — our team draws from long memory and collaborations with labs and clinical partners. Quick feedback, detailed analysis, and a willingness to experiment mean solutions, not excuses. Feedback loops with users and deep dives into field observations build up a collective intelligence that guides new improvements. Trust grows out of shared experience and a direct path to decision-makers.
Years in production shaped our respect for perfluorooctane’s merits and challenges. Customers ask more of specialty chemicals now, and our answer comes in constant improvements, openness to change, and unwavering attention to the finest details. Markets evolve, and with feedback from advanced industries, we set our sights on higher standards and new capabilities.
Perfluorooctane, in our hands, is more than a molecule — it is a relationship built with every vial, drum, and technical conversation. We invite users to see the value in direct partnerships, shaped by on-the-ground knowledge, shared innovation, and true accountability. Through everyday diligence and a drive for better performance, we deliver more than product: we deliver practical support and real results, batch after batch.