Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing admin@sinochem-nanjing.com 3389378665@qq.com
Follow us:

Bromodifluoroacetyl Bromide

    • Product Name Bromodifluoroacetyl Bromide
    • Alias BDFAB
    • Einecs 'EINECS 244-603-6'
    • 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
    VTB
    Specifications

    HS Code

    769200

    Chemical Name Bromodifluoroacetyl Bromide
    Chemical Formula C2Br2F2O
    Molecular Weight 241.83 g/mol
    Cas Number 431-39-8
    Appearance Colorless to light yellow liquid
    Boiling Point 83-85°C
    Density 2.22 g/cm³
    Melting Point -36°C
    Refractive Index 1.408
    Solubility In Water Decomposes
    Flash Point Non-flammable
    Storage Conditions Store in a cool, dry place; keep container tightly closed

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

    Packing & Storage
    Packing Bromodifluoroacetyl Bromide, 25g, is supplied in a sealed amber glass bottle with a tamper-evident cap and hazard labeling.
    Shipping Bromodifluoroacetyl Bromide should be shipped in tightly sealed containers, under dry nitrogen or inert gas atmosphere, and kept cool. It must comply with hazardous material shipping regulations, using appropriate hazard labeling. Avoid exposure to moisture and incompatible substances. Shipping must follow DOT/IATA guidelines for toxic and corrosive chemicals.
    Storage Bromodifluoroacetyl bromide should be stored in a cool, dry, well-ventilated area, away from direct sunlight and incompatible substances such as water, strong bases, and oxidizing agents. Store in a tightly sealed, corrosion-resistant container under an inert atmosphere, such as nitrogen. Ensure proper secondary containment and label handling areas with proper hazard warnings due to its toxic and corrosive nature.
    Application of Bromodifluoroacetyl Bromide

    Applications of Bromodifluoroacetyl Bromide in Industrial Manufacturing

    Bromodifluoroacetyl Bromide is a vital specialty intermediate used across select sectors in fine chemical synthesis. As a direct manufacturer, we focus on supporting advanced downstream production with consistently high quality, compliance-driven batches. Below, we outline where this material serves practical industrial purposes, along with the relevant technical and regulatory context for each application process.

    1. Pharmaceutical Active Ingredient Synthesis

    Bromodifluoroacetyl Bromide is widely used during the fluorination phase of pharmaceutical manufacturing, particularly for synthesizing fluorinated building blocks and APIs, including certain kinase inhibitors and antiviral agents. It plays a key role in the selective introduction of difluoromethyl groups, which are valued for improving metabolic stability and bioavailability in drug molecules. Formulators leverage its unique reactivity to construct precise API scaffolds through nucleophilic substitution and metal-catalyzed coupling reactions under controlled conditions.

    Industry compliance standards

    • ICH Q7 Good Manufacturing Practice Guidance for Active Pharmaceutical Ingredients
    • USP/NF Monographs for API intermediates
    • European Pharmacopoeia (Ph. Eur.) chemical purity requirements
    • FDA 21 CFR 211 cGMP for finished pharmaceuticals (impacting intermediates used)

    Typical usage ratio

    • 0.8–1.25 molar equivalents based on the nucleophilic substrate, with specific dosages adjusted according to reaction kinetics, impurity profile targets, and yield optimization for each drug substance

    Downstream process integration

    • Charged during the early intermediate or late-stage introduction of difluoromethyl groups in multi-step batch or flow synthesis, usually under inert atmosphere in jacketed reactors with temperature control (–40°C to 0°C)

    Final product types

    • Kinase inhibitor active pharmaceutical ingredients (APIs)
    • Difluoromethyl-containing small molecule antivirals
    • High-value fluorinated drug intermediates
    • Research-grade pharmaceutical reference standards

    2. Agrochemical Intermediate Production

    In agrochemical manufacturing, Bromodifluoroacetyl Bromide is incorporated as a key fluorine source for synthesizing difluoromethylated intermediates. Such intermediates enhance target binding and environmental stability in active ingredients for crop protection products, including insecticides and fungicides. Its use enables the precise functionalization needed for patented agrochemical structures and is favored in scaled processes for select high-performance products.

    Industry compliance standards

    • FAO/WHO Specification for Pesticide Technical Concentrates and Formulants
    • ISO 9001:2015 Quality management certification for agrochemicals
    • Regulation (EC) No 1107/2009 concerning the placing of plant protection products on the market
    • Chinese GB/T 1605-2001 for pesticide intermediates

    Typical usage ratio

    • 0.7–1.1 molar equivalents for conversion steps, depending on desired product loading and scale-up factors; adjusted to minimize residual bromides and maximize conversion rate

    Downstream process integration

    • Used in batch or fed-batch reactors for stepwise construction of difluoromethylated aryl or heterocyclic intermediates, inserted ahead of the final active ingredient coupling or cyclization steps

    Final product types

    • Difluoromethylated pesticide active ingredient intermediates
    • Customized building blocks for herbicides
    • Technical-grade insecticide raw materials
    • Crop protection premix additives

    3. Advanced Material Monomer Synthesis

    Bromodifluoroacetyl Bromide finds substantial use in specialty polymer precursor production, especially where high fluorine content is required to impart chemical resistance or unique electrical properties. Manufacturers employ it to introduce difluoromethylene bridges into monomers used for specialty elastomers, fluoropolymers, and dielectric materials. The controlled reaction under anhydrous conditions ensures structural integrity while meeting demanding purity standards for electronics and process-critical materials.

    Industry compliance standards

    • ISO 9001:2015 and ISO 14001:2015 for specialty chemical production
    • RoHS (Restriction of Hazardous Substances) for electronics applications
    • REACH (EC 1907/2006) registration for chemical intermediates
    • ASTM D5630 for polymer system purity analysis

    Typical usage ratio

    • 1.0 molar equivalent relative to the amine or alcohol component; process adaptation depends on viscosity, degree of polymerization, and target functional group incorporation

    Downstream process integration

    • Fed into closed glass-lined or stainless vessels during high-purity monomer synthesis, then directly polymerized via step-growth or chain-growth mechanisms under dry nitrogen

    Final product types

    • Fluorinated vinyl ether monomers
    • Specialty fluoroelastomer intermediates
    • Fluoropolymer dielectric films
    • High-durability surface coating resins

    4. Fine Chemical Intermediate for Specialty Fluorinated Compounds

    Manufacturers in the fine chemical sector use Bromodifluoroacetyl Bromide to create specialty reagents and intermediates incorporating difluoromethyl moieties. This material is chosen for custom molecules where stability, hydrophobicity, or electronic effects are needed, including fluorescent probes, specialty surfactants, and lab-scale fluorinated tools. The addition occurs under precision-controlled conditions, often involving proprietary protection/deprotection sequences and multi-step routes optimized for batch consistency.

    Industry compliance standards

    • ISO 9001:2015 for fine chemical manufacturing
    • REACH (for registration and safe use across EU)
    • Chinese National Standard GB 15590 for hazardous chemical control
    • Local environmental safety permits (as specialty synthesis often deals with regulated fluorochemicals)

    Typical usage ratio

    • 0.5–1.5 equivalents per functional group targeted, modulated according to procedural stoichiometry, desired purity, and final product complexity

    Downstream process integration

    • Integrated during planned substitution or acylation steps in laboratory and pilot-scale synthesis, typically via dropwise addition under dry, low-temperature conditions to minimize side reactions

    Final product types

    • Custom fluorinated reagents for R&D
    • Fluorescent molecular probes
    • High-performance specialty surfactants
    • Analytical chemistry reference compounds
    Free Quote

    Competitive Bromodifluoroacetyl Bromide prices that fit your budget—flexible terms and customized quotes for every order.

    For samples, pricing, or more information, please call us at +8615371019725 or mail to admin@sinochem-nanjing.com.

    We will respond to you as soon as possible.

    Tel: +8615371019725

    Email: admin@sinochem-nanjing.com

    Get Free Quote of Sinochem Nanjing Corporation

    Flexible payment, competitive price, premium service - Inquire now!

    Certification & Compliance
    More Introduction

    Bromodifluoroacetyl Bromide: Direct from the Manufacturer’s Floor

    Introducing the Substance and Our Perspective

    Every day in our production facility, we confront the raw realities of chemistry: reactivity, safety, purity, and reliability. Bromodifluoroacetyl bromide is more than just a formula on a datasheet; it’s a carefully managed output of meticulous chemical engineering. Our own teams work on every batch, watching temperatures, monitoring purity, balancing efficiency and safety at every stage. This compound, recognizable by its distinct pungency and its nearly colorless appearance, demands deep attention due to its high activity and moisture sensitivity.

    From a technical point of view, bromodifluoroacetyl bromide (also called BDFAB by people in the know) brings strong electrophilic behavior, and at our facility, we see daily how that chemical character drives successful syntheses for pharmaceuticals, specialty agrochemicals, and fluorinated intermediates. Over the years, we watched it become an essential link for introducing difluoroacetyl moieties into complex molecules. Where standard acyl bromides fail, or produce side reactions, BDFAB offers cleaner conversions, often in fewer steps—meaning less waste, less energy, and more predictable outcomes.

    It’s easy enough to list boiling points or refractive indices, but living and working with this compound has taught us more important lessons. Unlike more commonly traded reagents such as acetyl bromide, our BDFAB comes loaded with two fluorines on the acyl carbon. That seemingly simple difference transforms the outcome in the flask. The electron-withdrawing fluorines supercharge the carbonyl site. In fluorinated drug design especially, our customers have found that even minor adjustments—adding or subtracting just one fluorine atom—can flip bioactivity and selectivity, or even alter a compound’s metabolic profile entirely. That’s more than chemistry on paper; it’s robust control from bench to finished product.

    Our Manufacturing Approach: From Raw Materials to Finished Goods

    Inside our plant, we never underestimate the hazards. We keep the process air-free, since hydrolysis disables the acyl bromide and can generate unpleasant (or unsafe) side products. To us, a clean batch starts with the most reliable feedstocks: industrial-grade bromine, high-purity difluoroacetic acid, and a rigorously maintained cold chain for every transfer. Our operators don’t settle for just “clear and colorless.” Each stage gets checked, often by GC and NMR, so trace impurities don’t compromise product value downstream. We see the difference in yield and reproducibility for our partners on every lot delivered.

    Years in the field have shown us there’s no shortcut in scaling hazardous reagents. We keep our reactor glassware below the thresholds that cause excessive fuming or product loss. Our specialized vessels handle pressure swings and aggressive contents; automated dosing units maintain stoichiometric balance throughout. That consistency—batch-to-batch and kilo-to-ton scale—can only be built by those with real-world manufacturing experience.

    End Uses: What Sets Bromodifluoroacetyl Bromide Apart

    As the original producer, we see the life stories of our chemicals unfold in industry. Most people never see BDFAB outside the controlled walls of a synthesis facility, yet its impact can reach as far as blockbuster pharmaceuticals or next-generation crop protection agents. Whenever a client needs to build a difluoroacetyl-protected amine, an activated acid chloride, or a selective fluorinated building block, bromodifluoroacetyl bromide usually enters the equation. Our product has enabled new kinase inhibitor programs and sustainable pesticide developments, letting researchers go beyond what older, non-fluorinated analogs allowed.

    One distinguishing trait emerges in cross-comparison to traditional acyl halides or chlorides: bromodifluoroacetyl bromide reacts more swiftly with a wider array of nucleophiles. That means amines, alcohols, or even unstable heterocycles can be functionalized under milder conditions, minimizing decomposition or overreaction. In medicinal chemistry, that translates to better retention of chiral integrity and less unwanted rearrangement. Sometimes, chemists try to swap in cheaper or less potent acylating agents, hoping to achieve the same results, but trace side-products usually climb, purification gets complicated, and costs rise in the end. Every failed shortcut drives them back to the pure, reactive fluorinated form.

    For polymer chemistry labs innovating the latest specialty coatings, our product stands as the go-to choice for introducing difluoroacetyl units at polymer chain ends or as side groups. The fluorinated nature imparts water repellency, chemical resistance, and altered thermal properties. That’s not marketing talk—that’s what happens after tens of thousands of kilograms go through rigorous downstream transformations on production lines here and overseas. We’ve helped clients improve product lifespans and reduce process downtime, as the improved chemical stability from our intermediate enhances the end-use products.

    The Human Element: Safe Handling and Practical Concerns

    Having boots on the ground, we can say with certainty that bromodifluoroacetyl bromide does not belong in the hands of untrained operators. Our workforce trains exhaustively—protection isn’t an afterthought. We provide PPE suited for aggressive acyl halides, and full SCBA (self-contained breathing apparatus) units for any major maintenance activity. We developed custom ventilation and scrubbing systems to keep the air safe and meet emission targets, built out of daily experience rather than just compliance paperwork.

    Our shipping drums are engineered with moisture controls, not left to luck or ordinary seals. Dry nitrogen headspace in our packaging has prevented countless incidents and off-specification claims. We’ve seen what can happen when heat or light exposure isn’t controlled; unplanned reactions can occur, which endanger lives and destroy product integrity. So while other vendors might simply resell what they find on the open market, every kilogram we release has been produced and handled by people who understand what goes wrong if corners are cut.

    Safety doesn’t stop at the plant gates. We partner with downstream users, walk them through the best handling practices, and support spill response protocols whenever needed. Our team knows that knowledge-sharing leads to fewer injuries, less waste, and a healthier bottom line all around. Over decades, we’ve built relationships founded on trust—clients call us long after the first order, not just for a product, but for technical guidance grounded in reality.

    Specifications and Quality from Our Real-World View

    In our facility, quality control comes from hands-on technical oversight. We don’t ship unless GC, NMR, and sometimes even HPLC checks reach a threshold we set through long experience, not just paperwork. Our standard model for export has a purity above 98 percent by GC, with the balance made up only by bromodifluoroacetic acid in trace amounts, never by problematic halogenated byproducts. Batch records stretch back years, and reprocessing has reduced to near zero since we adopted in-line analysis.

    Researchers in pharmaceutical and fine chemical sectors notice the difference. Instead of troubleshooting unexpected signals or colors during scale-up, they move forward with confidence. Our BDFAB boils in the range just below 80°C under atmospheric pressure, so we tailor logistics to avoid temperature swings during transit. Analytical reports go out with every shipment, and we open lines for customers to discuss anything from scale-up tricks to subtle solvent selection tips.

    From our end, speed is only a virtue if the chemistry is right; shortcuts lead to headaches. On more than one occasion, a new client attempted a swap of lower-cost acyl bromides from generic traders, only to end up calling us after incomplete reactions or costly cleanups. Their feedback always circles back to the point: active ingredient content and low impurity levels save resources and heighten product safety in downstream uses, especially where trace halogen contamination cannot be tolerated.

    A Manufacturer’s Take on the Market and Its Demands

    Watching the chemical market shift, we’ve felt the pressure for ever-tightening impurity controls and improved workplace safety. That means higher investment in plant upgrades and stricter audit protocols everywhere, not just during government inspections. From our end, these aren’t just compliance checkboxes—they’re hard-won lessons, as we’ve seen how poor storage, dubious sourcing, or insufficient tracking can jeopardize customer trust and brand reputation.

    Raw material sourcing faces global uncertainties—regulatory changes, trade policies, and shifting supply chains often create headaches that only a hands-on producer can manage with agility. We keep back-up supply contracts, maintain buffer inventory, and put a premium on rigorous vendor qualification. The result: fewer delays, more predictable price structures, and real answers for partners under tight project schedules. Experience on the line matters here; no trader or distributor matches the assurance that comes from the original production source.

    Market feedback continually pushes us to increase transparency. Customers want not just a reagent, but clear data, technical backing, and a line to real chemists who have faced the same process challenges. That’s why we don’t shrink from site visits, third-party audits, or requests for documentation. Whether a partner is pursuing a patent extension or just wants reliable kilogram lots that perform as advertised, our experience and traceability have provided them a foundation to move forward safely and efficiently.

    Responding to Common Challenges and Real-World Solutions

    Over the years, several challenges have cropped up with bromodifluoroacetyl bromide in the market. End users sometimes underestimate its reactivity, overstaff with junior chemists, or misjudge the need for fast quenching of trace byproduct acids. We’ve seen losses and line stoppages come from a lack of distilled solvents or improper atmospheric controls during addition. Our answer is always education and process review: site-specific training, engineering suggestions, and open dialogue save real money and time, far more than a replacement shipment after a failed run.

    Waste stream management also crops up as a recurring struggle, especially as environmental controls tighten. We have developed and shared proprietary methods for neutralization and safe aqueous quench protocols, protecting both plant employees and the local ecosystem. Being a direct manufacturer means those insights are rooted in real operation—not just regulatory theory—so recommendations fit actual process setups, not just “ideal” laboratory practice.

    Packaging evolution has played a big role in minimizing hazards. We’ve moved away from simple glass containers, adopting multi-layer barrier drums engineered to neutralize leakage risks and resist pressure swings during transport and storage. Our logistics teams have implemented rapid tracking and temperature-control checkpoints for all international shipments, so clients can trust the product arrives in peak condition. These measures go unnoticed until a competitor's batch is compromised on the docks or at customs, but our investments protect every order, large or small.

    On the analytical front, process chemists increasingly require not just QC analyses but detailed impurity breakdowns. We run full impurity profiles and supply customer-specific analytical data when needed, closing the gap between discovery chemistry and full-scale production. Open technical support means that scale-up challenges are communicated and resolved with minimal downtime, and continual improvement flows from both ends of the exchange.

    Differences from Related Reagents and Why Direct Source Matters

    The market for acylating agents is crowded. Many resellers and brokers claim to offer “functional equivalents” to bromodifluoroacetyl bromide, but close isn’t good enough for demanding applications. Compounds such as chloroacetyl bromide or trifluoroacetyl bromide serve different niches—one introduces less fluorine, limiting impact on downstream molecular properties, while the other, far more reactive, can introduce both handling and stability complications. Through our process analytics and hundreds of customer trials, we have seen bromodifluoroacetyl bromide land in the sweet spot: enough electron-withdrawing power from two fluorines to stabilize and functionalize without running wild in side reactions.

    Our technical teams see that in practice, non-fluorinated analogs often give poor selectivity, and trifluorinated variants bring with them more volatility and frequently harsher reactivity. For pharmaceutical synthesis in particular, bromodifluoroacetyl bromide offers control: predictable acylations that “stick” on the desired position, do not overreact, and yield a cleaner, more processable intermediate for subsequent functionalization. Downstream, this translates to better batch yields, easier purifications, and smoother regulatory approvals for process developers.

    As the producer, we see how performance differences are not just theoretical. Each production lot of our BDFAB can be traced and adjusted rapidly, based on real batch records and client feedback. That’s a luxury neither available nor possible through third-party channels, where origin, transformation, or storage often stay opaque. Adherence to internationally recognized standards—ISO, ICH Q7, and strict internal SOPs—are facts of daily life, not just check marks for marketing.

    Working directly with a maker pulls back the curtain on quality and availability. Customers get transparent answers on everything from shelf life to reaction mechanism optimization, and can secure lot reservations or custom packaging that traders simply can’t offer. We have watched downstream producers pivot their projects or handle regulatory deadlines confidently, knowing their key intermediates won’t disappear with a supplier’s bankruptcy or sudden regulatory change.

    Looking Forward: Why Experience Shapes the Future

    Many chemical intermediates will come and go with shifting fashions in drug design or material science, but certain fluorinated reagents, like bromodifluoroacetyl bromide, keep showing sustained demand. Real advances—whether a new blockbuster drug or greener agricultural formulations—depend not just on molecular innovation, but reliable core materials manufactured with rigour. Experience at the manufacturer’s level establishes those standards, since every shortcut or oversight becomes magnified downstream.

    We see innovation as a two-way street: users push the boundaries in the lab, while our engineers and chemists refine processes, boost purity, and share practical methods to stretch product value. Continuous investment in process safety, analytics, and logistical improvements pays dividends in both good times and during market shocks. Having a direct relationship with a manufacturer means being part of that evolutionary cycle, always working toward safer, higher-yield, and lower-impact chemistries.

    Our team continues to adapt, based on both regulatory requirements and the creative challenges posed by industry. Whether it’s providing tailored technical support for a scale-up in Asia or redesigning packaging for a European customer with new transport mandates, we prove every quarter that real-world manufacturer experience provides more value than just a product on a datasheet. Direct technical engagement, rapid traceability, and adaptation to customer needs distinguish what a true manufacturer brings to the table.

    Summary: The Value of Manufacturer Experience in Bromodifluoroacetyl Bromide

    Years of hands-on chemical production teach lessons no datasheet ever shows. Bromodifluoroacetyl bromide, in the hands of experienced manufacturers, becomes a safer, more effective, and more reliable keystone for advanced synthesis. Pyrophoricity, rapid hydrolysis, impurity traps, and the quirks of transport logistics—these are daily realities here, dealt with by professionals who take pride in safeguarding their people, their clients, and the broader environment. We know the difference real-world knowledge makes because each ton leaves our gates only after our experts have checked, double-checked, and signed off with a sense of stewardship.

    Through close ties to research, constant process improvement, and technical sharing, we shape and support breakthroughs downstream. In our factory, behind every bottle or drum of bromodifluoroacetyl bromide stands not just a list of specifications, but years of hard-earned wisdom, careful risk management, and a practical commitment to sustainable chemistry.