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HS Code |
837814 |
| Cas Number | 98-07-7 |
| Iupac Name | 1-Bromo-1,2,2-trifluoroethene |
| Molecular Formula | C2BrF3 |
| Molar Mass | 163.92 g/mol |
| Appearance | Colorless liquid |
| Density | 1.886 g/cm³ |
| Boiling Point | 48 °C |
| Melting Point | -80 °C |
| Vapor Pressure | 290 mmHg (20 °C) |
| Flash Point | -26 °C |
| Refractive Index | 1.3380 (20 °C) |
| Solubility In Water | Slightly soluble |
| Synonyms | Trifluorobromoethylene |
| Odor | Sweet, ether-like |
| Stability | Stable under normal conditions |
As an accredited Bromotrifluoroethylene factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Bromotrifluoroethylene is supplied in a 100-gram amber glass bottle with a secure PTFE-lined cap, labeled with hazard warnings. |
| Shipping | **Bromotrifluoroethylene** should be shipped in tightly sealed, corrosion-resistant containers, protected from heat and direct sunlight. It is a hazardous, volatile liquid and should be handled in accordance with local, national, and international regulations for toxic and flammable chemicals. Proper labeling and documentation are required during transport to ensure safety and compliance. |
| Storage | Bromotrifluoroethylene should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from heat, flames, and sources of ignition. Keep it separate from incompatible materials such as strong oxidizers and bases. Protect from direct sunlight and moisture. Properly label containers and ensure all storage practices comply with local regulations and safety guidelines. |
Applications of Bromotrifluoroethylene in Industrial ManufacturingBromotrifluoroethylene (BTF, C2BrF3) represents a specialized halogenated olefin with established downstream roles in high-performance fluoropolymer synthesis, advanced specialty coatings, dielectric materials, and industrial chemical intermediates. Our manufacturing base integrates strict quality protocols and batch traceability, supporting production consistency for demanding application scenarios in fine chemical, electronics, and polymer sectors. 1. Fluoropolymer Resin Synthesis for Chemical-Resistant LiningsBTF serves as a reactive monomer in the copolymerization of fluoroplastics designed for highly aggressive process environments, particularly in chemical storage and transport linings. Manufacturers incorporate BTF to enhance copolymer backbone polarity and bromine functionality, delivering improved processability and weldability compared to conventional PTFE systems. This controlled monomer feed directly influences the chemical barrier properties and thermal stability necessary for acid, base, and solvent pipelines. Industry compliance standards
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2. Electronic-Grade Dielectric Films for CapacitorsIn electronics, BTF enables the synthesis of copolymers with precisely modulated dielectric constants and dissipation factors for use in high-frequency film capacitors. Its bromine-containing structure offers flame retardance and tailored polarization, essential for film components subjected to elevated voltage gradients in power electronics and circuit protection modules. Tight purity, trace metals, and moisture specifications drive its use in industrial film extrusion and capacitor winding operations. Industry compliance standards
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3. Specialty Fluorinated Coating Raw MaterialsBTF is industrially consumed as a comonomer and intermediate in synthesizing fluorinated acrylate and vinyl ether coatings, especially for demanding anti-corrosive and anti-fouling surfaces. Its molecular structure imparts both hydrophobicity and brominated reactivity sites, needed for subsequent surface crosslinking reactions on metals or composite substrates in marine, offshore, and clean-room applications. Controlled integration enhances substrate adhesion and low-surface-energy performance, unique to aggressive chemical and humid environments. Industry compliance standards
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4. Intermediate for Agrochemical SynthesisIndustrial agrochemical manufacturers employ BTF in controlled fluorination and bromination reactions, targeting the synthesis of advanced herbicide and fungicide intermediates. BTF’s triple fluorine configuration is critical for introducing necessary electron-withdrawing influences and metabolic stability in target molecules. Precise handling in closed systems ensures both yield and environmental compliance, with downstream purification and hydrotreatment essential for food-chain safety. Industry compliance standards
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5. Monomer for High-Performance ElastomersBTF features as a specialized monomer in copolymers for chemically-resistant, high-temperature fluoroelastomers. These elastomers deliver superior resistance to oils, solvents, fuels, and acids, making them essential in demanding automotive, aerospace, and industrial plant environments. BTF incorporation into polymer chains enables precise control over crosslinking density and thermal expansion coefficients, critical for maintaining mechanical integrity under variable load and thermal cycling. Industry compliance standards
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6. Intermediate for Advanced Pharmaceutical SynthesisPharmaceutical R&D and production chains utilize BTF as a building block for the introduction of trifluorovinyl and brominated functional groups, key for modulating bioavailability and metabolic stability in active pharmaceutical ingredients (APIs). Downstream chemists leverage its reactivity for selective coupling or cyclization steps during the manufacture of drugs targeting CNS disorders or viral indications, with rigorous intermediate QC for trace bromide and residual solvent control. Industry compliance standards
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Competitive Bromotrifluoroethylene prices that fit your budget—flexible terms and customized quotes for every order.
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In our daily plant operations, partnerships get built on more than just paperwork. They rely on trust that the next drum or tanker delivered to a site matches not just the written specification but the meticulous batch controls and care that carrying out hazardous chemistry demands. Among our portfolio, Bromotrifluoroethylene holds particular significance—not for flashy marketing, but for the reliability and flexibility it offers for fluoropolymer production and advanced synthesis.
Direct from our reactors, Bromotrifluoroethylene, known as BTF or BTF-E, makes its way to customers who have stringent targets in mind—ones that seldom leave room for process drift. Every run at our facility starts with high-purity starting materials and tightly controlled reaction conditions. It’s the classic balance of reactivity and stability that sets BTF apart for chemists and process engineers developing specialty fluorochemicals. Our teams supervise the distillation and handling of each run, reaching for impurity levels at or below the detection limits of modern analytics, with sustained vigilance against common by-products like carbonyl fluoride or dibromides. Final gas phase analysis commonly shows purity at or above 99.5%.
Many customers come to us looking to streamline copolymerization processes or seeking intermediates for more complex fluorinated compounds. BTF features a trifluorovinyl group—a moiety that can open opportunities in advanced plastics, barrier films, and certain electrical insulators where heat and chemical resistance can spell years of product life extension. In these applications, BTF serves as a comonomer that lends specific properties few other building blocks can match, including improved thermal endurance and chemical passivation. For teams experimenting with new material blends, having a direct pipeline to a single-source manufacturer increases both traceability and confidence in scaling up—here consistency is not just a phrase, but a measurable commitment batch after batch.
Fluoroelastomers and specialty coatings provide another open field for BTF application. Our manufacturing experience shows end users most often value the clean reactivity profile: BTF tends to introduce less side reaction content compared to other halogenated ethenes, easing downstream purification. Should customers report process interference, we draw on our in-house analytics—GC, NMR, FTIR—to pinpoint even trace contaminants, sometimes adjusting upstream parameters in close feedback with their R&D teams.
Plenty of seasoned chemists will compare BTF to its relatives, notably tetrafluoroethylene (TFE) and chlorotrifluoroethylene (CTFE). While TFE enjoys heavy use in PTFE and similar resins, BTF offers a unique balance with its bromine atom. This higher atomic weight not only shifts reactivity but changes how the monomer handles during mixing, shipment, and storage. From our lens, this difference translates into easier control during copolymerization reactions that need lower operating pressures and offer more predictable kinetics. CTFE has its own established space, but the bromine in BTF increases ladder polymer formation or can allow more controlled functional group introduction for downstream modification. For R&D labs tuning surface properties of end-use plastics or membranes, selecting BTF over alternative monomers often simplifies overall process control.
We make these comparisons from practical, everyday lab results and dozens of plant trial outcomes, not just published datagrams. Trials with BTF in perfluoroalkyl vinyl ether syntheses, for example, often report higher selectivity and more manageable side-product profiles. Our operators and analysts spend as much time reviewing real-world plant logs as literature, so we can back up these claims with firsthand production data.
Every chemical has its quirks, and BTF is no exception. Under standard conditions, it’s a colorless gas with a distinct, sharp odor—easy to distinguish on the plant floor but demanding robust containment. Our process engineers have refined handling to account for BTF’s boiling point and vapor pressure, drawing lessons from years spent managing halogenated monomer logistics. Cylinder selection, flange design, and safety interlocks all reflect practical experience: the sort of knowledge that comes only after moving tons of reactive materials every month, not just writing SDS documents.
While BTF is thermally stable under moderate conditions, it won’t forgive careless exposure to open flames or unlined ferrous metals. Our teams stick to pressure-rated storage, maintain strict temperature monitoring, and rely on remote sensors to catch any system breaches before cylinders ever leave the site. Each customer shipment receives individual quality checks, and all documentation arrives ready for any audit or site inspection.
We operate under local and international regulations shaped by years of scrutiny around halogenated gases. BTF production requires safeguards: emission controls and continual air monitoring, plus special mitigation plans for accidental releases. Environmental compliance starts upstream—our process chemists plan syntheses to minimize both raw material wastage and by-product venting. All waste gases pass through scrubbers and cryogenic traps, not as a checkbox, but to keep measured losses consistently at or below regulatory thresholds.
Customers sometimes request full traceability on every drum, not just batch numbers. From our perspective, product stewardship adds real value: our site records include reagent source, full analytical runs, and plant operation parameters. Technical support goes beyond datasheets—we field questions about handling, on-site transfer, and recovery methods from engineers who don’t want textbook answers, but real lessons drawn from experience.
Industry buyers recognize sourcing BTF means grappling with volatility in both supply chains and regulatory space. Its brominated and fluorinated nature triggers careful shipment documentation and specialized packing, but these hurdles mean less competition from cut-rate brokers. Few facilities hold the right licenses, fewer still invest in the infrastructure or the staff training that safe on-site operations demand. For our part, we sustain routine drills, spill simulations, and certification updates so no shipment leaves until fully compliant, with load-sealed containers monitored from departure through delivery.
Seasonal challenges pop up all too often—heat waves can spike storage pressure, cold snaps demand insulation. We’ve retrofitted older transport units and upgraded vent reliefs not just based on code, but based on incident reports logged by our field staff over the past decade. Plant downtime from outside disruptions sometimes threatens fulfillment, but our scheduling and inventory controls—backed by a responsive maintenance team—give us leeway to meet critical customer deadlines. This commitment stabilizes downstream production for customers who might otherwise stall whole product lines due to a missed BTF delivery.
Research teams exploring new copolymers or surface-active agents sometimes need small-volume runs with specialized purity or blending requirements. We tackle these orders head-on with flexible batch sizes, backed by analytical support and a willingness to share test data—not every manufacturer shares this willingness, especially with proprietary mixes. From glassware-scale requests to pilot plant runs, our engineers adapt process windows and container sizing so both multiton buyers and bench-scale syntheses get real help, not one-size-fits-none shipping or generic call-center answers.
Collaborations don’t stop at shipment. Technical liaisons answer routine queries about reactivity patterns, polymer microstructure impacts, or solvent compatibility, with straight references to in-plant history and real QA results. For more advanced projects negotiating the fine line between enhanced yield and manageable process safety, we offer in-depth consultation—often troubleshooting in parallel with customer labs to pinpoint sources of batch-to-batch variability or upstream influences like trace inhibitor carryover.
Maintaining safety runs deeper than compliance—it’s our culture. Staff chemical engineers, operators, and logistics coordinators all receive ongoing, hands-on training with live systems and refined SOPs. Visitors and auditors have seen our layered approach: perimeter fencing, sensor grids, vapor monitors, emergency dewar staging, and frequent site walkdowns. Every shipment of BTF involves thorough documentation and pack-checks, but more importantly, daily reviews of any near-misses, maintenance logs, or procedural adaptations. Hazard identification proceeds off more than just checklists; we prioritize conversations with shop-floor technicians who often flag improvement needs before any incident occurs. Fleet drivers also participate in rapid response exercises for on-road contingencies—a practice that’s kept us incident-free for years, despite thousands of live BTF miles logged.
Operators regularly conduct small-scale containment and neutralization trials, keeping both staff and emergency responders familiar with practical response—never resting on training videos alone. For customers, our detailed advice on site-specific handling adapts to local infrastructure, based on hundreds of real-world applications spanning R&D, full-scale production, or academic projects. We're happy to share insights on transfer lines, sensor selection, and the sorts of leak-detection sequences that work best, not just what regulations might recommend.
Producing Bromotrifluoroethylene at an industrial scale calls for a hands-on approach. Everything from feedstock selection, process chemistry, purification, and packaging makes its mark on the final product. Our chemists manage each unit operation with decades of cumulative industry experience, running shifts on reactors, troubleshooting any strange behavior in the distillation tower, and tweaking controls based on solid data rather than theory alone.
We don’t ship BTF straight from production to customer sites. Storage tanks serve as a final checkpoint, held under a strict maintenance cycle with regular valve, gasket, and pressure-vessel inspections. Gas chromatographs line our monitoring labs and run continuous streams, so any drift in product output gets caught before packaging. Detailed logs keep every aspect—from lab notebook entries to approval stamps on shipping manifests—fully traceable for years post-delivery.
Batch-to-batch reproducibility matters. R&D teams, scale-up professionals, and end users all count on every cylinder or ton-container of BTF matching past performance. Our feedback channels stay active: whether a customer spots an anomaly in downstream kinetics or simply wants to tweak storage recommendations, we feed those experiences directly into process improvements. It's a loop that never stops, and we value every chance to tighten standards and raise the bar on quality consistency.
Fluorinated monomers and specialty intermediates like BTF face a shifting landscape. Regulation, raw material fluctuations, and new sustainability pressures all shape our future. While BTF supports robust industrial chemistry today, our development teams constantly investigate new approaches—both to secure ingredient supply chains and to adapt our purification or recycling operations for lower environmental impact. Prospective projects include solvent recovery optimization, safer reaction vessels, and advanced emission control. Investing in plant upgrades, we focus on real outcomes, aiming to outpace both regulation and customer expectations.
Feedback from end users drives incremental improvements—whether they surface as minor yield increases, waste reductions, or insights into process reliability. Our site engineers work side-by-side with supply chain managers and process developers across the industry, sharing operational lessons and troubleshooting unexpected hurdles before they scale. It keeps our knowledge base alive and evolving, ready to tackle shifts in application focus, material property targets, or unforeseen regulatory pressures.
Industry experience teaches more lessons than a textbook ever will. Over time, close collaboration with academic labs, public safety experts, and downstream formulators has helped us forge new playbooks—not just for how to make and ship BTF, but for responsible, safe, and innovative applications. We present at technical forums, join working groups, and publish select anonymized process learnings to encourage best practice sharing. It’s not only about protecting our market share—it’s about promoting higher standards and safe, efficient progress for every link in the value chain.
For project managers entering the fluoropolymer or fluorosurfactant field, knowing the origins and journey of your raw materials can make or break a launch. Our doors remain open for technical discussions, troubleshooting, or process walk-throughs—backed by a proven track record and a commitment to transparency that comes from being a hands-on manufacturer. Bromotrifluoroethylene may be a niche material to some, but for those who count on top-quality supply and reliable support, it remains an essential piece of the puzzle in tomorrow’s high-performance chemistry.
