|
HS Code |
975548 |
| Chemicalname | Trichlorotrifluoroacetone |
| Casnumber | 406-24-2 |
| Molecularformula | C3Cl3F3O |
| Molecularweight | 233.39 g/mol |
| Appearance | Colorless liquid |
| Boilingpoint | 118-120°C |
| Meltingpoint | -25°C |
| Density | 1.632 g/cm3 |
| Solubility | Slightly soluble in water |
| Vaporpressure | 13 mmHg at 25°C |
| Refractiveindex | 1.390 |
| Flashpoint | 49°C |
| Synonyms | 1,1,1-Trichloro-2,4,4-trifluoro-2-butanone |
As an accredited Trichlorotrifluoroacetone factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 250g Trichlorotrifluoroacetone is supplied in a sealed amber glass bottle with a tamper-evident cap and hazard labeling. |
| Shipping | Trichlorotrifluoroacetone should be shipped in tightly sealed, chemical-resistant containers, labeled according to regulatory requirements. It must be protected from moisture and incompatible substances. Transport is typically under hazardous materials regulations, using secondary containment and proper documentation. Avoid exposure to heat and direct sunlight during transit to prevent decomposition or leakage. |
| Storage | Trichlorotrifluoroacetone should be stored in a tightly sealed container, in a cool, dry, well-ventilated area away from heat and sources of ignition. It should be kept away from incompatible substances such as strong bases and oxidizers. Proper chemical storage cabinets, preferably dedicated to halogenated ketones or similar chemicals, are recommended. Label all containers clearly and avoid exposure to moisture. |
Applications of Trichlorotrifluoroacetone in Industrial ManufacturingTrichlorotrifluoroacetone serves as a specialized intermediate and processing agent within several advanced chemical sectors. As an original manufacturer, we supply this raw material to downstream industries utilizing its strong fluorine and chlorine functionalities during synthesis, separation, and formulation processes. Below we detail key application fields, each governed by industry-verified requirements and practices. 1. Pharmaceutical Intermediate SynthesisThis material provides strong electron-withdrawing capabilities for pharmaceutical intermediate synthesis, especially in the production of fluorinated active pharmaceutical ingredients such as antiviral and anticancer drugs. Our clients formulate trichlorotrifluoroacetone into key coupling or cyclization steps, exploiting its reactivity with nucleophilic building blocks to introduce trifluoromethyl and trichloromethyl moieties. The strict requirements for impurity control and residual solvent monitoring necessitate validated analytical methods and careful batch documentation during the entire process. Industry compliance standards
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2. Agrochemical Synthesis (Herbicides and Fungicides)Downstream agrochemical plants use this ingredient for the synthesis of high-value selective herbicides and fungicides, particularly those requiring strong fluorine incorporation for enhanced bioactivity and environmental stability. Process engineers introduce the material at the precursor or coupling step, leveraging its capacity for controlled functional group transfer to the growing molecule under tightly regulated reactor conditions. Industry compliance standards
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3. Specialty Polymer and Copolymer SynthesisManufacturers in the specialty plastics and film sector rely on this raw material to introduce halogenated and fluorinated segments into polymer backbones, achieving controlled dielectric, chemical resistance, and flame retardance. It enters the reaction mixture during copolymerization with olefinic or aromatic monomers under emulsion, bulk, or solution-phase conditions. The stringent monitoring of residual monomer content, thermal characteristics, and molecular weight distribution is mandatory for downstream technical plastics. Industry compliance standards
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4. Metal Extraction and Hydrometallurgical ProcessingPrimary and secondary metal refining operations deploy trichlorotrifluoroacetone as a selective chelating agent, especially for the extraction and purification of rare earths and transition metals. Process chemists dose the material into aqueous-organic solvent extraction circuits, harnessing its unique ligand field properties to separate metals such as uranium, thorium, or lanthanides from complex ore matrices or recycling streams. Each operation demands close effluent and residue management according to mining and metallurgical standards. Industry compliance standards
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5. Analytical Reagents and Chromatographic DerivatizationProducers of laboratory reagents and analytical supplies employ this raw material as a derivatizing agent in chromatographic and spectrometric analyses. The reactivity towards carbonyls and amines allows users to enhance detectability and selectivity for trace-level determination in complex matrices, such as environmental samples or pharmaceutical testing. Batch reproducibility, trace contaminant limits, and labeling conform to laboratory reagent codes and test method validation frameworks. Industry compliance standards
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At our manufacturing facility, every batch of Trichlorotrifluoroacetone passes through our hands and eyes before it finds its way to critical chemical processes around the world. Having worked with this compound for years, we see a material with a distinctive combination of reactivity, purity, and selectivity, designed to support exacting industrial demands. The chemistry behind this molecule isn’t just a formulation on paper; working with it daily shapes our approach to process improvement, safety, and delivering reliability.
Sourced from real chemical synthesis, Trichlorotrifluoroacetone stands apart due to its highly selective carbonyl and halogen functionalities. This gives it a unique chemical footprint among fluorinated building blocks. We produce several grades, but our most trusted version bears the model designation C5HCl3F3O. Over decades, we have refined its purity to exceed 98%, with water and other volatiles reduced to near-trace levels. Every kilo is run through gas chromatography to confirm its profile matches reference standards.
What sets our batches apart is more than the label; it’s years of process development. The thermal stability of our product and its low nominal water content matter when chemists create advanced pharmaceutical intermediates or specialty agrochemical actives. We aim our process controls at reducing side product contamination and keeping a tight rein over the critical temperature and pressure parameters throughout synthesis and packaging.
Chemists need their tools to work every time. A manufacturer’s perspective brings a sharp focus on how minor impurities can trigger unexpected side reactions, slow yields, or create downstream filtering headaches. Our Trichlorotrifluoroacetone stays consistent not by chance but by the calculated repetition of batch analytics and production supervision. No production line hit its current reliability overnight; it took a steady practice of troubleshooting and learning from hands-on runs. The cumulative effect is a product known by its batch reproducibility, both by technical certification and by the quiet trust of returning customers.
Every plant operator who has spent time reworking poorly specified solvents or seeing byproduct precipitation after charging a reactor knows that purity is not just a sales point, but a source of real-world labor savings. In our experience, high batch consistency isn’t just good business. It means fewer costly surprises in the end user’s reactor, less out-of-spec waste, and simpler downstream purification.
Trichlorotrifluoroacetone finds its primary home as a key intermediate or catalyst modifier. We have seen it put to work most often in fluorinated pharmaceutical synthesis and the manufacture of specialty pesticides. It’s used as a chelating agent and ligand precursor because the electron-withdrawing properties of the trichloro and trifluoromethyl groups make the core carbonyl highly reactive towards a wide range of metals or nucleophilic species.
Over the years, customers have shared their feedback on its use as a reagent for transition metal complexation. Clean reaction profiles with reduced side-chain fluorination are possible when trace contaminants are minimized, and that’s a direct reflection of the controls we maintain at the batch level. In peptide chemistry and custom API manufacturing, this compound opens doors to unique molecular architectures that can’t be built as efficiently from more generic building blocks.
The stability of our Trichlorotrifluoroacetone under controlled storage broadens the window for long-term supply and storage in global supply chains. Several of our clients store our product up to a year under proper seals and temperature settings with no drift in reactivity—a fact we attribute to our real-world attention to moisture content and packaging integrity.
Safety grows from experience, both in our plant and in our customer’s labs. We have handled bulk containers and packed custom weights depending on the application, learning along the way how small lapses in handling can cause issues down the line. Trichlorotrifluoroacetone carries risk as a halogenated ketone, with volatility and chemical reactivity requiring grounded procedures. We do not compromise on sealed, inerted containers, routinely checking for any sign of leakage or premature interaction with transit materials.
Transporting such a specialized product mandates true oversight—not just a check of paperwork, but a real understanding of material compatibility during packaging, loading, and shipment. Our logistics team works alongside the technical staff to make sure environmental conditions avoid heat exposure or contact with incompatible solvents, especially during international freight. These routines lower risks of shipment loss, product degradation, and accidental exposure.
Fluorinated acetone derivatives cover a wide landscape, but Trichlorotrifluoroacetone’s particular combination of trichloromethyl and trifluoromethyl groups delivers distinctly sharper reactivity and selectivity than difluoro or monochloro analogues. From our years of side-by-side synthesis in the plant, we have seen firsthand how these differences shape downstream chemistry. The increased electronegativity across the molecule draws in a broader range of reactive partners, shortening reaction cycles and supporting formation of products otherwise difficult to generate under milder conditions.
Attempts to substitute similar compounds—such as dichlorodifluoroacetone or non-fluorinated analogues—frequently produce lower yields or a more complex impurity profile. Our technical support regularly works with clients comparing options, and the conversation often returns to the unmatched leaving group ability and hydrophobicity of the trifluoromethyl group. Customers looking for higher selectivity and precise reaction control find that Trichlorotrifluoroacetone unlocks pathways that remain stubbornly inert with cheaper substitutes.
From a handling perspective, the boiling point of our Trichlorotrifluoroacetone holds a key advantage, reducing loss by evaporation during open tank transfers and maintaining a stable process window during scale-up or pilot plant transitions. Our experience handling both large and small batches confirms that these characteristics directly contribute to lower operational loss and a smoother process scale transition.
It’s easy for an outsider to think chemical manufacturing follows a static formula, but in practice, no two production runs are ever truly alike. Every batch of Trichlorotrifluoroacetone tells a story. Sometimes, during the winter, changes in plant ambient humidity force tweaks to the drying cycle, while batch temperature control on the reactor jacket remains a daily focus. Our plant operators spot minor color changes or shifts in odor that suggest even trace impurity formation. Each tweak brings insights, and those experiences build over years to define plant protocol and shift best practice forward.
Continuous improvement isn’t just a slogan. Downtime for process review means a cross-team look at analytical results, reactor run logs, and feedback from both plant staff and clients using the product downstream. The fine-tuning of column chromatography parameters or the maintenance of inert gas overlay during bottling all stem from such process reviews. We shift process parameters in response to observed field data, and that cycle builds tighter production standards every year.
Testing and validation cut deeper than batch certificates. We run out-of-spec material trials internally, documenting both best- and worst-case scenarios. These insights cut through the theoretical models and drive practical, safe, and efficient use for chemists relying on our products every day.
Every production manager receives urgent calls about “surprise” reactor outcomes when a competitor’s lot unexpectedly triggers crystallization or introduces contamination. Our response is rooted in experience: transparent sharing of our COA data, process notes, and test results—even if it means acknowledging the rare off-spec shipment. Long-term relationships build on technical support and trust, not just on the number of metric tons shipped.
Having worked with both academic and pharmaceutical R&D teams, we understand that lead time, documentation, and regulatory support can be as important as the product itself. We regularly review our documentation in response to client audits, adjusting data presentation or supporting trace impurity analysis as process knowledge advances. Our clients integrating Trichlorotrifluoroacetone into regulated processes find our documentation depth and willingness to provide process detail help streamline their own validation, save audit time, and avoid implementation bottlenecks.
Manufacturers face a changing regulatory landscape around halogenated chemicals. Worker safety and environmental stewardship factor into every process redesign and storage approach. Trichlorotrifluoroacetone, given its halogen content, draws regulatory focus in global markets. We follow current regulations and track proposed restrictions—reworking filtration, neutralization, and waste handling steps along the way. Every drum shipped reflects that effort, from minimized fugitive emissions during filling to controlled incineration or recycling of process waste.
Our facility’s investment in emission controls and plant operator training aligns with best-in-class safety standards observed internationally. Sourcing raw materials and managing byproducts with the same vigilance ensures that our impact beyond plant gates remains minimal. Third-party auditors and clients frequently visit for technical tours that walk through both our containment systems and our tracking of new compliance requirements.
The journey to lower emissions, recyclable packaging, and minimized worker exposure means we sometimes make supply chain choices that raise short-term costs. Our long-term view sees value in risk prevention and reputation, since both clients and end consumers demand traceable, responsible production. We document any process or material change, informing clients often months in advance, so their own compliance teams can adapt without production disruption.
Occasionally, a research partner or process chemist approaches us with an unconventional idea. New ligand designs, modified catalysts, or even non-traditional applications outside synthesis—such as surface treatment exploration—have come through our development pipeline. We evaluate these applications both in the lab and at scale, documenting compatibility and practical risks. Our technical team thrives on the challenge of supporting scale-up for options not covered by off-the-shelf suppliers.
Our partnerships with academic collaborators give us unique feedback channels. We see how Trichlorotrifluoroacetone adapts in late-stage trial processes, enabling isolation of molecules for targeted therapies or binding agents for crop protection agents showing new environmental resistance profiles. Each new trial strengthens our core competency and occasionally deposits a novel application route into our technical archive for future use.
The strongest endorsement for Trichlorotrifluoroacetone comes in the form of repeat orders and new synthetic projects brought to us by experienced chemists. From unparalleled batch consistency to flexible logistics and deep regulatory understanding, the advantages of our product do not rely on brochure claims. Years in the plant have made clear that you can only earn trust through consistency and openness to technical engagement.
The unique features native to this molecule—optimally designed by reactive electron-withdrawing groups and manufactured under closely supervised conditions—translate directly into smoother, more predictable results in downstream chemistry. We have seen users reduce step counts by leveraging the selectivity of this product, saving both time and material costs versus substitute reagents.
Our approach prioritizes technical excellence, long-term partnerships, and careful attention to environmental and regulatory stewardship. Choosing our Trichlorotrifluoroacetone links direct manufacturing expertise with the flexibility and support that real-world chemical innovation requires.