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1,1,1-Trichlorotrifluoroacetone

    • Product Name 1,1,1-Trichlorotrifluoroacetone
    • Alias Hhpat
    • Einecs 207-933-4
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
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    Specifications

    HS Code

    923948

    Chemicalname 1,1,1-Trichlorotrifluoroacetone
    Casnumber 421-59-6
    Molecularformula C3Cl3F3O
    Molecularweight 217.39 g/mol
    Appearance Colorless to pale yellow liquid
    Boilingpoint 104-106 °C
    Meltingpoint -12 °C
    Density 1.682 g/cm3 at 20 °C
    Refractiveindex 1.405
    Solubilityinwater Insoluble
    Synonyms Trichlorotrifluoroacetone; 1,1,1-Trichloro-3,3,3-trifluoro-2-propanone

    As an accredited 1,1,1-Trichlorotrifluoroacetone factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Amber glass bottle containing 100 grams of 1,1,1-Trichlorotrifluoroacetone, with tamper-evident cap and hazard warning labels affixed.
    Shipping 1,1,1-Trichlorotrifluoroacetone is shipped in tightly sealed containers made of compatible materials, typically under dry nitrogen to prevent hydrolysis. It should be packed in compliance with hazardous material regulations, protected from moisture and heat, and clearly labeled. Ensure the shipping documentation meets all relevant transport safety standards and guidelines.
    Storage 1,1,1-Trichlorotrifluoroacetone should be stored in a tightly sealed container in a cool, dry, well-ventilated area, away from heat, moisture, and direct sunlight. Keep it separate from incompatible substances such as strong oxidizers and reducing agents. Ensure storage area has adequate spill containment. Properly label all containers and restrict access to trained personnel to minimize risks of exposure and accidents.
    Application of 1,1,1-Trichlorotrifluoroacetone

    Applications of 1,1,1-Trichlorotrifluoroacetone in Industrial Manufacturing

    As a specialty halogenated diketone, 1,1,1-Trichlorotrifluoroacetone enables critical functions in select industrial markets through its unique coordination, chelating, and halogen exchange properties. Our vertically integrated production supports high-volume downstream manufacturers requiring consistent quality and reliable supply in regulated application settings.

    1. Chelating Agent in Rare Earth Element Extraction

    This diketone acts as a selective chelating reagent to separate lanthanides and actinides during hydrometallurgical extraction. It forms stable complexes ideal for solvent extraction methods used in rare earth oxide purification. Downstream processors benefit from its ability to reduce impurity co-extraction and enable closed-loop recycling in continuous operations.

    Industry compliance standards

    • ISO 9001:2015 Quality Management Systems
    • GB/T 26905-2011 (China’s rare earth solvent extraction process standard)
    • REACH Registration for chemical use in EU extraction plants
    • Occupational exposure guidelines (NIOSH, OSHA, GBZ standards)

    Typical usage ratio

    • Applied as 0.5–1.2% of total organic phase volume, depending on target element concentration and required selectivity ratio

    Downstream process integration

    • Introduced to mixer-settler extraction circuits after acid leach, before precipitation and calcination

    Final product types

    • Cerium oxide (CeO2)
    • Neodymium oxide (Nd2O3)
    • Lanthana (La2O3)
    • Mixed rare earth carbonate intermediates

    2. Precursor for Fluorinated Pharmaceutical Intermediates

    As an active fluorine and chlorine source, 1,1,1-Trichlorotrifluoroacetone provides a valuable building block in the synthesis of various fluorinated scaffolds for pharmaceutical aktives. Process chemists use selective functionalization during the formation of advanced intermediates in several commercial synthesis routes, taking advantage of its ability to introduce trifluoroacetyl motifs under mild conditions.

    Industry compliance standards

    • ICH Q7 GMP for Active Pharmaceutical Ingredients
    • USP-NF/Ph. Eur. guidelines for intermediate control
    • 21 CFR Part 211 (US drug manufacturing GMP)
    • EHS regulatory approval for handling halogenated reagents

    Typical usage ratio

    • Ranges from 0.02–0.25 molar equivalents relative to the aromatic or heterocyclic starting material, adjusted for yield and purity targets

    Downstream process integration

    • Added during Friedel–Crafts or halogenation stage, preceding crystallization and solvent switching

    Final product types

    • Trifluoromethyl heterocycles
    • Fluoroquinolone intermediates
    • Agrochemical molecule scaffolds
    • API building blocks with trifluoro functionality

    3. Metal Ion Masking in Analytical Reagent Manufacture

    Downstream producers of analytical grade reagents select this diketone as a masking agent for specific transition metal ions, especially in the formulation of analytical test kits for trace metal quantification by spectrophotometry or potentiometry. Its strong electron-withdrawing properties enhance selectivity and endpoint sharpness, which is essential for certified reference solutions.

    Industry compliance standards

    • ISO 17025 Laboratory Accreditation
    • Standard Methods for the Examination of Water and Wastewater (APHA, AWWA, WEF)
    • NFPA 704 (safe chemical handling in analysis labs)
    • AnalaR and ACS Reagent chemical grade specifications

    Typical usage ratio

    • Incorporated at 0.1–0.8% w/v in buffer or masking concentrates, with the exact percentage determined by test matrix and metal ion concentration range

    Downstream process integration

    • Introduced during buffer formulation, before filtration and aliquoting into ampoules or vials for QC packaging

    Final product types

    • Trace metal masking solutions
    • Certified water analysis test kits
    • Colorimetric reagent packs for process control
    • Analytical reference standards

    4. High-Performance Additive for Optical Coating Manufacturing

    This halogenated diketone serves as a process additive to enhance layer adhesion in multilayer optical and anti-reflective coatings, especially on glass substrates requiring resistance to chemical and environmental stress. Manufacturers of industrial optics leverage its compatibility with sol-gel and vacuum deposition methods to improve final coating uniformity and operational lifespan.

    Industry compliance standards

    • ISO 9211 (Optics and photonics — Optical coatings)
    • RoHS 2011/65/EU for optical equipment
    • EN 166:2001 (Personal eye-protection standards)
    • ICP-MS screening for residual halogen content in consumer-facing products

    Typical usage ratio

    • Used at 0.05–0.25% by total sol-gel precursor weight, with dosage optimized after pilot-scale testing of specific glass types and layer requirements

    Downstream process integration

    • Added to the silica or titania sol prior to hydrolysis, then deposited by spin- or dip-coating before thermal curing and inspection

    Final product types

    • Anti-reflective glass panels
    • Laser window coatings
    • Protective lenses for industrial instruments
    • Coated camera and sensor optics

    5. Intermediate for Agrochemical Synthesis

    This compound acts as a specialized starting material to introduce both trifluoromethyl and trichloro groups into advanced agrochemical intermediates. Bulk formulators integrate it into halogenation and acylation steps when producing novel herbicide and fungicide actives, due to its high electrophilicity under controlled reaction conditions.

    Industry compliance standards

    • FAO/WHO Specifications for Pesticide Actives
    • OECD Guidelines for the Testing of Chemicals
    • GB 4839-2009 (China’s agrochemical technical materials regulation)
    • ISO 9001:2015 for agro-inputs manufacturing

    Typical usage ratio

    • Charged at 0.08–0.4 molar equivalents in reaction schemes, dosage refined by target functionality and safety review

    Downstream process integration

    • Fed during key synthesis or substitution steps prior to purification, often followed by neutralization and phase separation

    Final product types

    • Trifluoromethylated herbicide intermediates
    • Fungicidal halogenated aromatics
    • Pesticide active precursors with combined halogen functionalities
    • Formulated crop protection agents (post-derivatization)
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    Certification & Compliance
    More Introduction

    1,1,1-Trichlorotrifluoroacetone: Our Experience in Synthesis and Application

    Direct from the Factory Floor

    We’ve spent long hours understanding the needs chemists voice about 1,1,1-Trichlorotrifluoroacetone. On our production line, attention to real material behavior trumps laboratory theory. Here, safety goggles fog over steaming reaction vessels, technicians work with callused hands, and every reaction kettle carries our company’s reputation. It’s not about ticking boxes on specification sheets. For us, it’s about building consistency and reliability into our product, batch after batch.

    What Is 1,1,1-Trichlorotrifluoroacetone?

    Known in the trade as a specialized halogenated ketone, our 1,1,1-Trichlorotrifluoroacetone stands out in the landscape of industrial reagents. Chemically structured to combine three chlorine and three fluorine atoms in a compact acetone backbone, the product shows a unique balance of volatility and reactivity that hardens its demand in sectors hungry for precision building blocks.

    This ketone appears as a colorless liquid under standard conditions, with a distinct odor and a boiling point that skilled operators keep in mind during distillation and recovery. We measure every lot for purity, moisture content, and residual byproducts using techniques that go beyond basic titration. Our on-site instruments—gas chromatographs and spectrometers—ensure the results reflect what a customer will see in their own synthesis.

    Crafting a Reliable Reagent

    The way we manufacture 1,1,1-Trichlorotrifluoroacetone has evolved alongside our own process plant. Over years, we’ve optimized reaction temperatures, solvent choices, and purification steps. Each modification stems from direct troubleshooting. A decade ago, stray chlorinated impurities often crept in—disrupting downstream yields at our customers’ plants. We tackled this by redesigning our reactor agitation sequences, resulting in a tighter purity profile. Our operators see fewer issues now because we watched, tested, and adjusted repeatedly.

    We know batch reproducibility matters. A research chemist working on a novel pharmaceutical intermediate cannot afford to rerun syntheses because of inconsistencies in our ketone. To ensure satisfied clients, we draw product samples through various process phases, record deviations in real time, and run final QA assays before any drum leaves the warehouse. This approach means we see fewer complaints, and our clients get streamlined results.

    Performance Specs That Matter in Practice

    While many factory catalogs offer long lists of specifications, we’ve learned what buyers actually track. Minimum purity standards matter, but reliable boiling range, water content below threshold, and low trace metals truly impact real-world reactions. For example, traces of iron or copper from batch processing can catalyze secondary reactions, raising costs for resin or pharmaceutical syntheses. Because of this, we take time to clean and pre-treat our production line before every run. Our QA returns iron and copper readings so low they don’t appear in typical industrial spectrographs.

    Density and refractive index provide direct measures of batch-to-batch uniformity. Our technicians have their favorite glass hydrometers, alongside digital tools, to check density—along with good old-fashioned observation. Slight haze or color drift means something went wrong upstream. Our experience suggests small details like these minimize wasted time and headaches further down the supply chain.

    What Sets 1,1,1-Trichlorotrifluoroacetone Apart in Industrial Synthesis

    Many ask us what distinguishes this chemical from classic trifluoroacetone or less-chlorinated analogues. In our hands, 1,1,1-Trichlorotrifluoroacetone displays a greater tendency for selective enolization, a property that reveals itself during nucleophilic attack in heterocycle synthesis or fluorine transfer reactions. This distinction arises from years spent watching reaction pots behave differently with each variant. If you replace this reagent with, say, its 1,1-dichloro version, you’ll get a different reaction rate, sometimes lower selectivity, and more byproducts. That’s not speculation, it’s the record in our pilot plant logs.

    Strong electron-withdrawing power, from both the fluorine and chlorine atoms, makes our product a valuable synthon for coupling with complex aromatic rings. Companies developing agrochemical actives or electronics-grade intermediates count on this. Long ago, a major pharma firm worked with us to build a new route to fluorinated pyrazoles. They reported higher overall yields and cleaner products using our 1,1,1-Trichlorotrifluoroacetone, since halogen migration barely occurred under their process conditions. Our own engineers helped fine-tune their process by offering analytical results from parallel test reactions.

    Inside the Factory: Building Trust Through Process Control

    Reactors filled with high-energy reagents don’t allow much margin for error. We learned plenty from a single overheated batch years ago—heat exchangers matter, as does agitation speed. Workers learn firsthand how small temperature jumps or unplanned water ingress can spike impurity lists. We now triple-check seals before every synthesis, and analyze utility water for halide and metal traces weekly. When a customer spots an off-spec sample, we can reference batch logs and raw materials from that day, rarely finding a root cause except perhaps a tiny, fixable change. Years of iteration led here.

    Transporting 1,1,1-Trichlorotrifluoroacetone also poses unique problems. Its volatility and reactivity mean careful drum selection and sealing pride. We buy drums only after stress-testing them in our own warehouse. More than once a supplier tried substituting cheaper gaskets, which failed our vapor loss checks. Every filled drum is leak-tested before dispatch, so buyers receive full weight and quality.

    Applications and Industry Stories: Where the Chemical Proves Itself

    Demand comes from specialty polymer makers, pharmaceutical chemists, and crop-protection innovators. Some of our longest-tenured clients formulate halogenated intermediates for OLED displays, where a small impurity can knock out months of R&D work. Every so often, they tell us about a critical discovery—like a new color-stable dye or fluorinated resin modification—where only highly controlled trichlorotrifluoroacetone reacted as needed. We’ve replicated their methods in our lab and found they’re right; alternate halogenation patterns missed the mark.

    In pharmaceuticals, the backbone’s electronic configuration gives medicinal chemists an option for introducing both chlorine and fluorine in a single step. We worked with a team that struggled with inconsistent results from a competing supplier. Batch certificates showed wide swings in purity. They swapped in our product, called back weeks later, and said they’d stabilized their process. For us, those quiet success stories mean more than any marketing claim.

    We’ve shipped to facilities tuning their process for advanced battery electrolytes. Fluorinated ketones offer desirable chemical resistance, crucial in the tough electrochemical environments seen in modern batteries. Our technical service staff often fields direct calls from customers scaling up pilot runs, with little time for surprises. We offer not just lots but also advice born of spills, messes, and the real work of chemical manufacturing.

    Practical Safety Experiences and Compliance Realities

    No material leaves our docks before passing strict hazard communication reviews. Our plant workers handle 1,1,1-Trichlorotrifluoroacetone using proper PPE, protruding from every locker and worktable. We train people on the right way to respond to eyes and skin exposure, and keep well-maintained eyewash stations and fume hoods running. An operator once flagged a faint chemical odor in an older filling room, prompting us to install more robust ventilation. We’re always refining procedures based on what people on the floor actually face rather than regulatory fine print alone.

    Labels, drums, and shipping manifests mirror what regulators expect—not just because it’s a rule, but because missing paperwork, even once, means major headaches for customers’ import teams. Mistakes get fixed fast. On one late-night shift, a new packer once printed the wrong handling code, which we caught in our pre-ship inspection. That drum never left the warehouse. It’s better to bear a few minutes’ delay than damage relationships with those who count on us.

    Waste stream management means dealing with both process residues and rejected lots. We won’t hide that disposal cost hits our bottom line; environmental compliance winds through every manufacturing choice. We built an on-site neutralization unit, burning up solvents rather than shipping them off as hazardous waste. Each bit of this discipline winds up in better air for our neighbors and smoother paperwork for our buyers.

    Challenges Unique to This Compound

    Years of producing 1,1,1-Trichlorotrifluoroacetone reveal where it parts ways from similar fluorinated and chlorinated ketones. Its volatility, while helpful for easy recovery, brings headaches during bottling. We’ve had to re-seal assembly lines and retrain workers on the particular snap of vapor-tight caps—unlike lower-boiling or less fluorinated relatives, this compound vanishes with a stubborn speed.

    Its reactivity toward strong nucleophiles requires vigilant cleaning—trace residues on polymer O-rings or steel joints invariably result in corrosion or persistent odors. That’s why you’ll see our line mechanics using extra fluoropolymer coatings and inspecting seal integrity after every run.

    We also treat glassware and connectors to limit halogen exchange and trace metal pickup, since real-world small batch failures often stem from overlooked surface interactions. Our technical staff keep logbooks on recurring minor faults, then discuss fixes at weekly meetings—sometimes finding causes customers don’t even realize exist till a product fails on their end.

    Credibility through Track Record and Customer Relationships

    Customers return to us not for flashy marketing, but because our product keeps their own lines running. Familiar faces on our QA and production teams answer the same direct phone lines year after year. Whether a polymer chemist calls from Germany or an R&D manager from Japan, they find someone who remembers last year’s batch and speaks honestly about any new changes.

    This approach didn’t happen overnight. One of our chemists once spent a full week supporting a major customer’s production start-up in person, offering pointers on storage and transfer. Another time, we supplied custom-packaged lots to match an overseas client’s unique delivery constraints when border controls changed. These stories—recorded in our internal newsletters and annual meetings—feed our understanding of real-world problems and solutions.

    Pushing the Industry Forward

    Innovation doesn’t just show up in brochures or press releases. We work to lower waste, reduce off-spec output, and build safer processes with each campaign. Recent upgrades to our plant automation let us spot pressure swings early, trimming both energy use and error rates. Every lesson from previous batches makes its way into written SOPs. This reduces mishaps and means any investment in our product brings not just a chemical, but the know-how that built it.

    We’ve also partnered on pilot projects with universities and tech start-ups exploring greener reaction conditions. Our product’s efficiency lets them cut process steps. In one case, a team managed to halve their solvent use by switching to a process centered around our 1,1,1-Trichlorotrifluoroacetone. By exchanging data and lessons learned, we strengthen every stage of the industry value chain.

    Addressing Concerns About Halogenated Chemicals

    Chlorofluorinated ketones like ours, while valuable, draw scrutiny for environmental persistence and regulatory complexity. Instead of shying away from these real concerns, we audit our emissions and run double checks on waste handling. Local regulators visit our site regularly, and we keep them updated on plant improvements. Our compliance staff meets every few months with community leaders nearby to share results and respond to questions. This way, customers can trust that what comes out of our plant doesn’t hide unwanted environmental surprises.

    We also field questions from customers about regulatory documentation for international shipments. Some countries ask for documentation updated within the last twelve months, and our staff turn these around without fuss. If a new national standard comes out, we interpret its effects and update our clients—not just in an email, but through practical advice on what gets flagged at customs and how to avoid shipping delays.

    Sourcing and Supply Chain: Why Consistency Really Matters

    We rarely depend on outside suppliers for critical precursors. Years of disruptions, from storms to raw material shortages, taught us to build redundancies into sourcing. Our core staff nurture close ties with their counterparts at upstream plants. Together we share notes on feedstock purity and logistics snags. If a truck runs late or a shipment shows trace contamination, we know fast and adapt our schedule. Regular supplier audits, handled by folks who've been with us since the early days, ensure no surprises slip through.

    Shipping brings its own challenges. We document every drum, triple-check freight conditions, and work closely with transport crews on secure handling. Sometimes this slows us down, but our regular customers value stock that shows up without leaks or missing paperwork. We run small-scale experiments before approving new storage conditions or long-haul routes, because a failed shipment can ripple through our customers’ production plans for weeks.

    Practical Advice to Buyers

    Customers who have the best results store 1,1,1-Trichlorotrifluoroacetone at low temperatures, in airtight containers away from direct sunlight. Many facilities use dry nitrogen blanketing to minimize degradation or hydrolysis. Handling—especially when transferring—means keeping containers sealed, with clean utensils and PPE. Small oversights here can create off-odors or even minor safety incidents. Our technical staff often field calls from buyers dealing with new staff training or facility changes, sharing hard-earned suggestions they learned from our own shop floor mishaps.

    Waste management deserves direct attention; unneutralized residues shouldn’t simply get washed away. Proper neutralization or incineration assures both compliance and safety. Our buyers ask about this and we respond with case-specific solutions, depending on their plant setup and regulatory region.

    Comparisons: 1,1,1-Trichlorotrifluoroacetone versus Other Ketones

    We’ve trialed and produced related compounds such as 1,1-Dichlorotrifluoroacetone and simple Trifluoroacetone. Differences show up in both yield and application. The extra chlorine atoms in 1,1,1-Trichlorotrifluoroacetone ramp up the electron-withdrawing effect, shifting both selectivity and speed in alkylation, acylation, and nucleophile addition reactions. A customer switching from a dichloro to our trichloro version found their byproduct levels plummeted. We’ve run the same tests, both in kilo-lab beakers and ton-scale reactors, seeing the same repeatable outcomes.

    Other manufacturers sometimes push products with lower chlorine substitution, touting cheaper cost or easier handling. From our own pilot plant records, these options rarely match the clean reaction profiles or final product purity delivered by our trichloro derivative, especially where halogen patterns impact final-material stability.

    We believe in sharing this practical knowledge, supporting buyers not just with a drum of ketone, but with first-hand lessons on what makes processes work reliably at scale.

    Final Thoughts

    Our production of 1,1,1-Trichlorotrifluoroacetone does not just fill an order line. Time, skill, and stubborn attention to detail go into every drum that rolls off our dock. Customers return not because we hand out fancy gifts, but because each delivery reflects what we’ve learned from years on the factory floor, working through mistakes and building on every lesson. If you’ve ever faced mysterious off-spec lots or suffered through unplanned downtime, you’ll know why so many buyers demand factory-direct reliability and honest communication. It’s how we work, and it’s what sets our product apart every day.