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HS Code |
321402 |
| Cas Number | 354-38-1 |
| Molecular Formula | C2H2F3NO |
| Molar Mass | 113.04 g/mol |
| Appearance | Colorless solid |
| Melting Point | 48-50 °C |
| Boiling Point | 184-185 °C |
| Density | 1.38 g/cm³ |
| Solubility In Water | Soluble |
| Chemical Identifiers | PubChem CID: 10479 |
| Synonyms | 2,2,2-Trifluoroacetamide |
| Smiles | C(=O)(N)C(F)(F)F |
| Inchi | InChI=1S/C2H2F3NO/c3-2(4,5)1(6)7/h(H2,6,7) |
As an accredited Trifluoroacetamide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Trifluoroacetamide is packaged in a sealed amber glass bottle, labeled, and contains 100 grams, with safety and handling instructions. |
| Shipping | Trifluoroacetamide is shipped in tightly sealed containers to prevent moisture absorption and contamination. It should be packed in accordance with hazardous material regulations, labeled appropriately, and transported in cool, dry conditions. Proper documentation and handling practices must be followed to ensure safety and regulatory compliance during shipping. |
| Storage | Trifluoroacetamide should be stored in a tightly closed container in a cool, dry, and well-ventilated area, away from sources of ignition and incompatible substances such as strong oxidizers. Protect it from moisture and direct sunlight. Label containers clearly, and follow all relevant safety protocols to prevent accidental exposure or contamination. Use chemical-resistant shelving where necessary. |
Applications of Trifluoroacetamide in Industrial ManufacturingOur factory-grade Trifluoroacetamide serves specialist manufacturers across fine chemical, pharmaceutical, agrochemical, and specialty material industries. We supply to regulated sectors with strict quality and compliance needs. Below, we detail key downstream uses and technical integration in each application scenario. 1. API Intermediate Production in Pharmaceutical ManufacturingPharmaceutical producers employ Trifluoroacetamide as a protected amine intermediate during multi-step API synthesis. Its strong electron-withdrawing trifluoromethyl group stabilizes reactive intermediates, improves selectivity in condensation or acylation stages, and enables regulated deprotection under mild conditions. Production runs require strict traceability, impurity control, validated solvent recovery, and batch record documentation. Material is tracked from delivery, through synthesis, and into validated intermediates for high-value small molecule APIs targeting regulated markets. Industry compliance standards
Typical usage ratio
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2. Agrochemical Synthesis and Crop Protection ActivesLeading agrochemical manufacturers use Trifluoroacetamide during synthesis of trifluoromethylated active ingredients, including herbicides, fungicides, and insecticides. The molecule introduces stability and metabolic resistance beneficial for field-active materials. Downstream, the intermediate is handled in closed-plant batch or continuous processes with traceability from raw input to formulated cGMP-grade crop protection actives for global regulatory submissions. Industry compliance standards
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3. High-Performance Polymer and Specialty Monomer SynthesisProducers of specialty polymers and engineering plastics use Trifluoroacetamide to create high-performance, fluorinated monomers. This step introduces fluorine into the polymer backbone, enhancing hydrophobicity, chemical resistance, dielectric properties, and thermal stability. Accurate dosing and byproduct tracking are required for quality control, especially in production of films, membranes, or coatings for electronics and industrial applications. Industry compliance standards
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4. Research Chemicals and Fine Chemicals SynthesisSpecialty fine chemical and research-grade chemical companies source Trifluoroacetamide for synthesis of fluorinated building blocks, reagents, and custom compounds. Due to the importance of purity and batch traceability in these fields, tracer-level quantification and documentation of the supply chain form essential parts of our service. Custom grades and validated Certificate of Analysis (COA) support R&D projects, clinical supply, and material supply for regulated laboratory work worldwide. Industry compliance standards
Typical usage ratio
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In the years we’ve spent synthesizing and refining specialty chemicals, trifluoroacetamide stands out as a straightforward performer for research and manufacturing. Our production facilities focus on offering high-purity N,N-dimethyltrifluoroacetamide (CAS 354-38-1), recognized for its robust trifluoromethyl group and amide functionality. Chemists running diverse reactions often look for reliability—not just purity specs. Our real accounts come from seeing researchers push our trifluoroacetamide through demanding conditions, pushing thermal stability or reactivity without dealing with batch-to-batch inconsistency. These are results we measure and value.
We manufacture and quality-control trifluoroacetamide to tight standards, not just for analytical purity, but also from the vantage point of process control and reproducibility. Most orders are fulfilled at >99% GC or HPLC purity, moisture content below 0.1%, and low metal residues. We supply in bulk and research grades, but as process engineers ourselves, our focus always returns to the hands-on detail required during downstream synthesis and isolation. Contaminants at trace levels reveal themselves in reaction yields and byproduct profiles—something only experienced producers are diligent about. From dehydration to crystallization, every stage is tailored for lot-to-lot consistency, with scale-up guided by feedback from routine partnerships with pharmaceutical manufacturers and research institutions.
Trifluoroacetamide shows its greatest utility in organic synthesis, especially for introducing the trifluoroacetyl protecting group onto amines. It provides strong electron-withdrawing capabilities, and after N-acylation, removal happens under milder conditions compared to chlorinated or bulkier acetamide analogues. In our daily exchanges with pharma scale-up teams, the preference for trifluoroacetamide turns up when quick deprotection or minimal steric interference matters. Biotech labs use our product for functionalization when building peptide libraries; our own post-sales quality investigations often show higher product recovery when our production lot is used in solid-phase synthesis compared to mixed-source materials. These observations come from direct lab feedback and our own QC retesting.
Another common use stretches into agrochemical and specialty material manufacturing. Trifluoroacetamide forms building blocks for more complex molecules where strong electron-withdrawing power needs to remain stable through harsh processing. Several of our long-term partners report smoother downstream reactions with lower levels of hydrolysis and side-product formation. These trends usually surface in confidential technical calls or collaborative process troubleshooting. The consistency in reactivity, rather than just analytical specs, becomes vital when scaling a promising lab reaction to a truly industrial process.
From our viewpoint as process chemists and long-term producers, trifluoroacetamide carries unique handling and reactivity benefits over more conventional acetamides. The electron-withdrawing nature of the CF3 group delivers lower basicity and greater stability under both acidic and mildly basic reaction profiles. Chemists switching from fluoroacetamide or non-fluorinated analogues typically report superior yield in electrophilic acylation reactions and reduced need for downstream purification. We have compared lots in parallel and documented improved specificity in N-acylation steps with trifluoroacetamide, leading to fewer byproducts seen by both NMR and HPLC.
Standard acetamide shows only limited solubility in organic solvents, and, as we have demonstrated with internal solubility trials, generates more viscous mixtures under heating. Trifluoroacetamide dissolves easily in DMF, DMSO, and acetonitrile under standard laboratory conditions, which streamlines reaction setup and post-reaction workup. In scale-up runs above 10 kg, our operators find less fouling and easier equipment cleaning compared to working with bulkier amides. Realistically, the combined physical benefits save time and reduce operational risks.
We handle hundreds of kilograms of trifluoroacetamide each year in enclosed, ventilated environments and regularly consult with plant operators to reduce unnecessary exposure. Our recent in-plant risk review prioritized efficient dust control and glove integrity, based on firsthand observations from bulk material transfers. Compared to acid chlorides or aggressive alkylating agents, trifluoroacetamide shows no volatility or strong odor, leading to a safer and more agreeable workplace. Storage and stability remain straightforward, maintaining consistent reactivity profiles after months under dry, room-temperature conditions.
Our technical staff routinely track trends in degradation and shelf-life, noting no significant impurity buildup over yearly intervals when stored away from moisture. Because of these characteristics, our shipment records are free from reported transport incidents, even for users located in humid or tropical locations. Our logistics team maintains tamper-evident packaging for all lots, and clients benefit from trouble-free inventory. Every issue shared in feedback is examined in follow-up site visits, closing the loop between user experience and production practices.
We collaborate with research teams that ask for more than just high-purity material. Recently, one group required trifluoroacetamide free from specific trace metals for use in palladium-catalyzed couplings. Rather than offering a standard product, our pilot facility isolated a custom lot, confirming downstream reaction performance through joint trials. Such close technical interaction means we know the pain points chemists face and can anticipate where impurities or byproducts affect synthetic yield, especially under challenging catalysis or high-throughput testing.
In collaboration with academia, we have provided larger, kilogram-scale batches for use in high-throughput screening. Through these relationships, we gather feedback on reactivity, solubility, and ease of workup, using it to guide process improvements. Many labs report higher throughput and less troubleshooting with our batches, supported by real analytical data. Customer success in these collaborations often leads to continued bulk supply contracts, and our support staff stay engaged throughout scale-up projects, providing practical advice on handling, storage, and process troubleshooting.
As we produce trifluoroacetamide at an industrial scale, our top priorities cover product safety, environmental care, and adherence to evolving regulatory landscapes. We use only fluorinated feedstocks from certified producers, tracking each input through documented quality checks. Waste byproducts remain minimal during optimized production, and we recycle and neutralize fluorinated streams through specialized treatment facilities, based on on-site system reviews. Recent audits by local environmental authorities confirmed our compliance records and highlighted our solvent recovery rates. Our risk management systems receive regular updates, and emergency preparation drills occur each quarter with full staff involvement.
Several international partners have inquired about regulatory status, driven by new compliance rules for fluorinated organics. Our internal regulatory teams track substance lists in target countries and provide certificates or impurity breakdowns as required for proper registration. All customer queries see experienced regulatory managers following up, leading to smooth customs clearance and acceptance for both research and commercial applications. We hold every batch to strict impurity profiles to ensure chemical traceability.
The best insights come from long-term partnerships with both large-scale manufacturers and research groups. Our day-to-day production staff receives direct feedback from users troubleshooting syntheses; these notes are reviewed in regular process meetings. In one memorable project, a client flagged observed color changes in stored product. Our process engineers investigated, traced the cause to a new drum liner material, and reverted to time-tested packaging—a direct example of how live customer feedback, not just lab data, drives improvements.
Process scale-ups receive special attention, especially where researchers move from milligrams to kilograms. Our scale-up specialists have mentored clients navigating changes in reaction exotherms or new impurity profiles during larger runs. We invest in sample root-cause analyses together with customers, emailing full data packages with HPLC and NMR results and tracking each customer inquiry until resolution. This on-the-ground troubleshooting builds confidence and creates products that consistently meet the demands of complex manufacturing environments.
The value of trifluoroacetamide comes as much from practical, hands-on observations as from published academic references. Customers returning for repeat lots rarely make their decision just from a number on a specification sheet—most cite ease of purification or stable shelf-life as decision points. Competing amide or acylating agents regularly show up in comparative testing at customer labs. The day-to-day reality often shows trifluoroacetamide outperforms under closely managed process controls, reducing need for rework, purification losses, or hazardous waste.
Industrial applications continue expanding beyond traditional markets. Our technical teams receive more project invites for battery applications, advanced polymers, and agricultural intermediates, pointing to untapped opportunities. As new downstream processes emerge, we review production methods to ensure downstream users receive the chemical form and impurity control they need—for example, by providing additional analytical data relevant to specialty applications. This iterative approach builds trust and supports new applications as they arise.
We draw from experience across thousands of production runs in scaling and supplying trifluoroacetamide. The relationships built through technical troubleshooting, quality assurance, and hands-on guidance mean more to us than generic claims of product quality. Our production team remains available to discuss technical hurdles, process optimization strategies, or special grade requirements. Researchers, process engineers, and operations managers can count on continuity of supply, transparency in production methods, and access to actionable advice rooted in first-hand practice.
As regulatory requirements evolve and industrial needs become more complex, our mission is to serve not just as a supplier, but as a long-term manufacturing partner. Years of hands-on chemical production reveal that real progress comes through joint problem-solving, learning from everyday production challenges and user experience. We keep our doors open to continuous improvement, guided by the needs and feedback of the chemical community using trifluoroacetamide in existing and emerging fields.