Products

Hexafluoroacetone

    • Product Name: Hexafluoroacetone
    • Alias: Perfluoroacetone
    • Einecs: 206-199-4
    • Mininmum Order: 1 g
    • Factroy Site: Yudu County, Ganzhou, Jiangxi, China
    • Price Inquiry: admin@ascent-chem.com
    • Manufacturer: Ascent Petrochem Holdings Co., Limited
    • CONTACT NOW
    Specifications

    HS Code

    332216

    Chemicalname Hexafluoroacetone
    Casnumber 684-16-2
    Molecularformula C2F6O
    Molarmass 166.02 g/mol
    Appearance Colorless gas
    Odor Strong, unpleasant
    Boilingpoint -28 °C
    Meltingpoint -93.3 °C
    Density 1.60 g/cm³ (liquid at 0 °C)
    Solubilityinwater Reacts
    Vaporpressure 1370 mmHg at 20 °C
    Refractiveindex 1.252 (at 20 °C, liquid)
    Pubchemcid 9868
    Unnumber UN2418

    As an accredited Hexafluoroacetone factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Hexafluoroacetone is supplied in a 500 mL stainless steel cylinder, sealed, with a UN hazardous material label and safety data sheet.
    Shipping Hexafluoroacetone is shipped as a compressed, liquefied gas in steel cylinders. It must be transported under cool, dry, and well-ventilated conditions, away from heat, ignition sources, and incompatible substances. Proper hazard labeling (Corrosive, Toxic, and Gas) is mandatory. Handling should comply with all relevant regulations and safety guidelines.
    Storage Hexafluoroacetone should be stored in tightly sealed containers under an inert atmosphere, such as nitrogen, to prevent moisture ingress. Storage areas must be cool, dry, well-ventilated, and away from incompatible materials like water, acids, and bases. Due to its reactive and toxic nature, use corrosion-resistant containers and clearly label all storage vessels. Proper secondary containment and emergency ventilation are recommended.
    Application of Hexafluoroacetone

    Applications of Hexafluoroacetone in Industrial Manufacturing

    Hexafluoroacetone serves as a highly specialized fluorinated building block in the chemical industry, contributing to key downstream processes in advanced materials and specialty chemicals. Our production methods and supply systems ensure quality and consistency for customers involved in major industrial sectors. Below, we detail validated application scenarios, outlining sector requirements, technical details, formulation parameters, process integration, and representative finished-product categories.

    1. Synthesis of Fluorinated Polyimides for Electronics

    Electronic materials producers incorporate hexafluoroacetone as a critical difunctional monomer for manufacturing high-performance fluorinated polyimides. These polymers offer a combination of heat resistance, low dielectric constant, and mechanical stability vital for flexible printed circuits and microelectronics. Our technical service team coordinates closely with engineers developing next-generation substrates and insulation layers used in advanced electronic assemblies.

    Industry compliance standards

    • IPC-4101: Specification for Base Materials for Rigid and Multilayer Printed Boards
    • UL 94: Flammability Standard for Plastics
    • RoHS Directive (EU-2022/2380): Restriction of Hazardous Substances
    • IEC 61249-2-21: Halogen-Free Base Materials

    Typical usage ratio

    • Diacid anhydride components featuring hexafluoroacetone derivatives typically constitute 20–40% by mole in polyimide formulations, with adjustments based on required dielectric properties and mechanical flexibility for the final polyimide membrane.

    Downstream process integration

    • Producers introduce hexafluoroacetone derivatives in the dianhydride formation stage, reacting with aromatic diamines via chemical imidization or thermal imidization, followed by precast film formation and curing.

    Final product types

    • Flexible printed circuit boards (FPCBs)
    • Flexible display films
    • Mobile device insulation layers
    • Thin-film flexible substrates for sensors and optical applications

    2. Manufacture of Fluorinated Surfactants for Specialty Coatings

    Pigment and coating formulators select hexafluoroacetone as a structural precursor for synthesizing specialized perfluoropolyether and fluorinated alcohol surfactants. These materials provide low surface energy and outstanding repellency toward water, oils, and solvents—properties that enable durable, anti-fingerprint, and anti-smudge coatings across industrial and consumer applications.

    Industry compliance standards

    • ISO 12944-6: Paints and Varnishes—Performance Requirements for Protective Coatings
    • REACH Regulation (EC 1907/2006) Annex XVII
    • US EPA: Regulations for Volatile Organic Compounds (VOC) in Coatings
    • China GB/T 30647: Test Methods for Low Surface Energy Fluorocarbon Coatings

    Typical usage ratio

    • Fluorinated surfactant intermediates from hexafluoroacetone generally constitute 0.3–2.5 wt% of the total wet coating, adjusted to achieve the required contact angle without phase separation or compatibility issues.

    Downstream process integration

    • Downstream facilities first convert raw hexafluoroacetone into perfluorinated alkyl chains or alkoxy derivatives via polymerization or catalytic condensation, then blend these intermediates into solventborne, waterborne, or UV-curable coating systems before application to target surfaces.

    Final product types

    • Oleophobic and hydrophobic coatings for touchscreens and automotive glass
    • Self-cleaning architectural glass coatings
    • Industrial anti-graffiti coatings
    • Protective surface treatments for metal and ceramic components

    3. Pharmaceutical Intermediate for Fluorinated Beta-Lactam Synthesis

    Active pharmaceutical ingredient (API) manufacturers utilize hexafluoroacetone as a core synthon for constructing fluorinated beta-lactams that serve as building blocks for advanced cephalosporin and carbapenem antibiotics. Its selective reactivity enables precise fluorine incorporation, enhancing metabolic stability and modifying pharmacokinetic profiles while conforming to stringent regulatory oversight during all process stages.

    Industry compliance standards

    • ICH Q7: Good Manufacturing Practice for Active Pharmaceutical Ingredients
    • USP 43-NF38 / Ph. Eur. 10.0: Monographs for Beta-Lactam Intermediates
    • US FDA 21 CFR Part 211: CGMP for Finished Pharmaceuticals
    • China Pharmacopoeia (ChP2020): Standards for API Purity

    Typical usage ratio

    • Stoichiometric ratios depend on the beta-lactam synthesis route; hexafluoroacetone input typically ranges from 1–1.2 equivalents relative to amine or acid partners to control reaction completeness and minimize byproducts.

    Downstream process integration

    • API producers introduce hexafluoroacetone during the cyclization phase with nucleophilic building blocks, followed by purification steps (chromatography or crystallization) prior to coupling with other moieties to complete the final API structure.

    Final product types

    • Fluorinated cephalosporin antibiotics
    • Fluorinated carbapenem antibiotics
    • Sterile pharmaceutical intermediates for injectable APIs
    • Advanced specialty beta-lactam drugs with enhanced bioavailability

    4. Production of Hexafluoroisopropanol for Fluoropolymer Feedstock

    Fluoropolymer producers use hexafluoroacetone in large-scale hydrogenation reactors to generate hexafluoroisopropanol (HFIP), a key intermediate for monomers in high-value specialty polymers. The resulting HFIP serves both as a polymerization co-monomer and as a solvent/chain transfer agent in producing fluorinated resins with exacting specifications for aerospace, wire and cable, and membrane applications.

    Industry compliance standards

    • ASTM D5630: Standard Test Method for Ash Content in Fluoropolymers
    • ISO 14632: Fluorinated Thermoplastic Polymers—Melt Processability
    • UL 758: Standard for Appliance Wiring Material
    • REACH Pre-registration and C&L Inventory Regulations

    Typical usage ratio

    • Hydrogenation of hexafluoroacetone proceeds at a molar ratio of 1:1 with hydrogen or reductant; HFIP end-use in polymerization varies between 1.5–10% by weight of polymer mass, adjusted to balance mechanical and chemical resistance parameters.

    Downstream process integration

    • Facilities first hydrogenate hexafluoroacetone in the presence of suitable catalyst systems (commonly platinum or palladium-based) to HFIP, followed by purification and subsequent feeding to polymerization reactors for targeted copolymer synthesis.

    Final product types

    • Fluorinated resins for cable insulation
    • High-purity membranes for fuel cell and gas separation systems
    • Aerospace-grade wire coatings
    • Specialty polymer films for filtration and microelectronics

    5. Fluorinated Acetal and Ether Intermediates for Agrochemical Synthesis

    Chemical manufacturers serving the crop protection industry leverage hexafluoroacetone as a precursor for fluorinated acetal and ether intermediates, which impart hydrolytic stability, enhanced metabolic profiles, and environmental persistence in select pesticide and herbicide active ingredients. Reliable supply of this material ensures uninterrupted downstream molecule development in response to regional regulatory and environmental demand.

    Industry compliance standards

    • FAO/WHO JMPR Guidelines: Residue Definitions and Specifications
    • EU Regulation (EC) No 1107/2009: Authorization of Plant Protection Products
    • US EPA FIFRA: Federal Insecticide, Fungicide, and Rodenticide Act
    • Japanese Agricultural Chemical Regulation Law—Food Safety Specifications

    Typical usage ratio

    • Hexafluoroacetone input as an alkylation or acetalization agent typically ranges from 0.7–1.5 equivalents, selected based on downstream target molecule yield and purity requirements for multi-step synthesis protocols.

    Downstream process integration

    • R&D and manufacturing teams deploy hexafluoroacetone during the condensation or alkylation phase of target molecule assembly, enabling formation of fluorinated ether or acetal linkages; intermediates then proceed through further processing and purification before formulation into finished actives.

    Final product types

    • Selective herbicide active ingredients for cereal and soybean crops
    • Fungicidal intermediates for field and horticulture applications
    • Insecticide molecules with improved resistance to environmental degradation
    • Pesticide precursors designed for controlled release formulations

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    Certification & Compliance
    More Introduction

    Hexafluoroacetone: A Reliable Tool Born from Real Chemical Manufacturing Experience

    Introduction: Meeting Real-World Demands with Precision Chemistry

    Hexafluoroacetone stands out in the world of fluorinated intermediates because it doesn’t just fill a supply chain gap—it solves real problems for chemists and manufacturers alike. Our team has worked with HFPO (hexafluoropropylene oxide) derived products for decades, and few fluorine-based compounds show the versatility or the reactivity profile we see from hexafluoroacetone. This comes down to direct experience: we face the same hurdles as our customers, from moisture sensitivity to vapor handling, and we’ve found ways to bring purity and reliability up to a professional standard where the chemistry happens, not just on paper.

    What separates a manufacturer from a reseller is deep familiarity with what a product can actually do on the plant floor and in the lab—not just what can be promised in a spec sheet. Hexafluoroacetone, made to our quality system, offers tight batch-to-batch control, clarity of analytical reporting, and transparency of source. We understand there is no room for surprises when you push into new synthesis, especially when handling compounds with high fluorine content.

    Models and Specifications: Beyond the Drum and Cylinder

    In our own operations, we work with two main grades of hexafluoroacetone—anhydrous and hydrate. Both share the same core reactivity but require different handling and packaging due to their interactions with air and moisture. We monitor not just purity but common impurities that can catalyze undesirable side reactions. The anhydrous grade often arrives to our customers as a high-purity pressurized liquid, custom packaged to minimize water pickup even when ambient humidity is high. We use high-integrity cylinders, pressure-tested with routine checks. When formulating the hydrate form (hexafluoroacetone sesquihydrate), it’s clear and stable, letting downstream chemists blend with polar organic solvents without losing the unique ketone character.

    More than a CAS number or a standard purity claim, we give open access to our analytical data. Most lots we release exceed 99.5% HFA by gas chromatography, with quantifiable water content reported in mg/kg. We also test for common acidic byproducts because carboxylic acid traces can poison catalysts in your process. It’s easy for a trader or reseller to rent tank space or move a few pallets and talk big about 'purity', but the real challenge comes in producing repeat batches that cycle through the same QA regime. Our internal records go back decades and let us fine-tune for tighter control every year.

    Applications Drawn from Hands-On Experience

    Hexafluoroacetone is known for being a building block in some of the most dynamic areas of modern chemistry—namely, the synthesis of fluoropolymers, specialty agrochemicals, electronic materials, and pharmaceutical APIs. In our production environment, we see daily how HFA reacts far more selectively than its lower-fluorine cousins, like trifluoroacetone or simple acetone, especially when making oxazoles, beta-diketones, and fluorinated monomers.

    One routine synthesis in our own pilot plant involves using HFA as a precursor to 1,1,1,3,3,3-hexafluoroisopropanol, enabling monomer manufacture for high-performance plastics found in wire insulation and medical device housings. The alcohol produced after hydrogenation boasts dielectric properties and hydrolysis resistance that outstrip any alternative on the market. For electronics, these features drive demand when reliability must stretch over decades.

    In the realm of pesticide contributives, HFA reacts cleanly with aromatic nucleophiles under basic conditions, a reaction pathway that often leaves fewer side products compared with tetramethylurea or methyl ethyl ketone. We have found this route cuts downstream separation times, which matters when cost per batch gets calculated to the gram.

    For pharmaceuticals, our experience centers on how this compound invites halogen exchange or carbonyl activation, pushing reactions under milder conditions compared to standard ketones. For example, halogenated aryl ethers, synthesize cleaner when HFA stands in as the carbonyl donor, sparing both time and by-product removal steps.

    Differentiation from Other Chemical Intermediates

    Most customers ask why hexafluoroacetone gets chosen over lower fluorinated analogs or over more common building blocks. The answer always comes back to performance and byproduct suppression. Having worked through decades of customer feedback, we know price per kilo rarely survives the full analysis—yield, purity, regulatory scrutiny, and reproducibility play bigger roles in project decisions.

    Hexafluoroacetone’s strong fluorine influence does three major things: increases electronegativity on the carbonyl, blocks side-thread reactivity at adjacent methylene positions, and improves thermal and oxidative stability on downstream products. Compare this to acetone or methyl ethyl ketone and the difference is immediately clear—higher selectivity, tougher resistance to hydrolysis, and downstream products that last in harsh industrial environments.

    There is also a safety and logistics distinction. Many acetone derivatives can be shipped ambient and handled in open tanks; with HFA, we package under dry nitrogen and work in sealed and monitored systems. This makes sure the end user’s equipment remains clean, and the final product matches specs consistently, across batches and regions.

    Facing Challenges in Production and Handling

    On the manufacturing side, making HFA means running fluorination under strict containment. Hydrogen fluoride, a key feedstock, poses real risk. Unlike distributors who rely on upstream suppliers, our team has years of experience working with HF corrosion, vent scrubbing, and specialized alloys that hold up in direct contact with fluorinated streams. We have learned to anticipate and head off pressure swings, temperature excursions, and those small leaks that can spiral out of control in less prepared hands.

    There’s no shortcut to personnel training; our operators go through weeks of targeted material handling reviews and mock scenarios before managing real production runs. This attention to practical detail—know-how you miss in a procurement spreadsheet—keeps both product and people safe. For instance, every cylinder and vessel in our facility is barcoded and tracked from pre-fill vacuum conditioning to final shipment. These protocols reduce contamination risk, protect against regulatory fines, and make root-cause analysis possible if a problem ever does appear.

    Moisture control, in particular, sets apart experienced HFA makers from improvised handlers. Even slight hygroscopic exposure leads to hydrate formation, sometimes even inside pressurized lines. Our experience taught us to keep every transfer under dry inert gas and run regular Karl Fischer titrations on both in-process and finished goods. Doing this at scale, we catch water long before it drags down reactivity or throws off downstream application results.

    Regulatory and Environmental Realities

    Years in this business have taught us that staying ahead of environmental and workplace health standards builds trust and ensures stable supply. We track both national regulations (TSCA, REACH) and regional rules on fluorinated materials. Hexafluoroacetone has reporting thresholds and transport requirements far stricter than commodity ketones, which change how packaging, waste, and emergency controls need to work.

    In our plant, we run air and effluent monitoring on a routine schedule—even small releases of fluorocarbons draw public attention, and standards tighten every year. We built our vents and absorption units big from the start to handle both planned and unplanned emissions. Trace HFA is scrubbed, monitored, and logged—our results get audited by regulators and shared with partners looking for full supply chain visibility.

    In-plant training on the handling, storage, and shipping of HFA involves direct instruction from operations leads, emphasizing specific local regulations around pressurized gases, hydrofluoric acid, and fluorinated waste. Having internal capacity to run pre-shipment compliance checks saves days over waiting for third-party review and helps catch outliers before product leaves the factory.

    Quality Is Built on Repeatability

    Having a chemist or process engineer trained on every step of HFA production—from HF feedstock blending to final packaging—makes all the difference. This is where a manufacturing-based supplier offers more than just a certificate. We don’t rely on rebranding; we tie every drum or cylinder back to a production batch, with detailed records and a willingness to share nonconfidential production details with partners.

    Our analytical team pulls regular samples during production, spotting trace acids, peroxides, or metal ions that can throw off catalysis or polymerization down the line. We believe trusting your upstream partner matters more than chasing the lowest-purity, lowest-cost source because poor quality in hexafluoroacetone always ripples into your downstream operations—with yield losses, redos, and review delays burning far more than you saved upfront.

    Several users in the polymer sector have come to us after seeing batch-to-batch swings from importers who could not explain their own quality drifts. We help customers identify the true cause—sometimes a contaminated return cylinder, sometimes a bad lot of ancillary reagents—and revise processes to bring tighter control.

    Technical Support Rooted in Manufacturing Experience

    Technical support for hexafluoroacetone means something very different inside a company that produces every molecule on-site. Our teams back each sale with process notes, Q&A logs, and historic troubleshooting experience. Common errors—like reagent line freeze-ups, peroxide scavenging issues, or vapor phase overpressure—have actually happened to us and we document both corrective actions and preventive fixes.

    A customer once called with unexplained batch failures making fluoropolymer intermediates. Solvent traces usually burn off in downstream steps, but here, off-spec acidity derailed polymerization. Reviewing their HFA sourcing, we ran their supplied lot through our own analyses and found residual hydrofluoric acid above spec. Sharing batch-level data and moisture conditioning techniques let them recover yield and avoid future losses. That experience only comes from sitting on both sides of the equation—producer and user.

    We welcome joint process development with industry partners, running parallel demo syntheses and sharing detailed impurity breakdowns. If an application demands a unique ratio in the hydrate or ultra-low acid for catalysis, we work from process back to molecular level to get the ideal fit. This level of dialogue just doesn’t develop in the trading world, where intermediaries focus on moving volume, not maximizing end-use results.

    Supply Chain Resilience and Lean Inventory

    A genuine manufacturer also manages upstream and downstream hiccups firsthand. Hexafluoroacetone’s supply chain involves high-energy fluorination, vulnerable to raw material volatility and logistics shocks. We lock in multiple sources of HF, pre-qualify alternative raw materials, and maintain buffer stock on site. Even in volatile years, this approach limited supply disruptions and kept our partners running when competitors were stuck explaining delays.

    Shipping HFA, especially the anhydrous grade, to remote regions brings practical headaches that many overlook. We handle regional permits proactively, schedule longer shipper clearance times, and hold stock in forward warehouses. This lets our partners focus on their process windows without scrambling for last-minute air shipments, which lose both cost and quality control.

    Tight supplier relationships let us predict bottlenecks, and our batch tracking means we inform customers quickly if an intervening event ever touches delivered product. We treat shipping schedules, package returns, and regional compliance as core operations, not just back-office tasks.

    Research and Development That Matters in Practice

    R&D on hexafluoroacetone means both incremental and breakthrough advances. We run continuous improvement pilots, such as new catalyst designs for HF oxidation, and trial greener approaches for off-gas scrubbing. Our engineering group has devised process tweaks—fine-tuning fluorine feed rates or vessel agitation—that trimmed production times and improved final purity across our main production lines.

    We invest in small-batch runs for specialty users needing rare analogs—such as isotopically labeled HFA for tracer applications or custom hydrates tuned for high selectivity reactions. These projects, while technically challenging, teach us fresh limits of the chemistry and refine our base process. User feedback loops back directly into our SOPs, shortening the distance from R&D finding to live production adjustment.

    The Human Factor: Experience Gained, Shared, and Passed On

    Behind every drum of hexafluoroacetone sit hours of operator watchfulness, chemist troubleshooting, and manager coordination. Whether filling a single returnable cylinder for a study or prepping a container load for established global brands, the same care and documentation follow through. This is where our difference as a manufacturer shows—customer stories, batch histories, and even process mishaps get logged and reviewed so that future batches hit a higher success rate.

    Years spent running our own lines have taught us that no product exists in a vacuum; the link between manufacturing, safety, compliance, and ultimate field performance matters more than marketing claims. Regulatory regimes change, market priorities shift, and only a hands-on approach keeps product trustworthy in every use case.

    Closing Reflections

    Hexafluoroacetone works best when its real-world benefits match the stated specs: low water content, predictable reactivity, transparent sourcing, and responsive technical backup. Real manufacturing isn’t about chasing trends—it’s about meeting established needs reliably, batch after batch. We see every customer’s project as an extension of our own work. That’s not just lip service; it’s how best-in-class chemical suppliers keep their edge year after year, through every shift in regulation or supply.

    Experience tells us that the right chemical input—keenly produced, tightly controlled, responsibly managed—pays off in both safety and performance. Hexafluoroacetone is a demanding intermediate, but in capable hands it drives innovations that touch industrial, agricultural, and medical sectors globally. For us, the story of HFA is told in each successful process, every avoided batch failure, and every long-term partnership forged not by chance, but by a commitment to quality and technical clarity.

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