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HS Code |
532432 |
| Productname | Ethyl Iododifluoroacetate |
| Casnumber | 37853-05-5 |
| Molecularformula | C4H5F2IO2 |
| Molecularweight | 249.98 |
| Appearance | Colorless to yellowish liquid |
| Boilingpoint | 74-76 °C at 13 mmHg |
| Density | 2.07 g/cm3 at 20 °C |
| Refractiveindex | 1.423-1.427 |
| Purity | Typically ≥98% |
| Solubility | Soluble in organic solvents (e.g., ether, chloroform) |
| Smiles | CCOC(=O)C(F)(F)I |
| Inchi | InChI=1S/C4H5F2IO2/c1-2-9-4(8)3(5,6)7/h2H2,1H3 |
| Storage | Store at 2-8 °C, keep tightly closed |
| Synonyms | Ethyl 2-iodo-2,2-difluoroacetate |
As an accredited Ethyl Iododifluoroacetate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Ethyl Iododifluoroacetate is supplied in a 25g amber glass bottle with a secure screw cap, labeled with hazard and product details. |
| Shipping | Ethyl Iododifluoroacetate should be shipped in secure, airtight containers, compliant with chemical shipping regulations. It is typically transported as a hazardous material, requiring labeling for toxic and potentially environmentally hazardous substances. Ensure protection from moisture, light, and extreme temperatures. Shipping documentation should detail handling precautions and emergency procedures. |
| Storage | Ethyl Iododifluoroacetate should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area, away from sources of heat, light, and ignition. Keep it separate from incompatible substances such as strong bases and oxidizing agents. Store under an inert atmosphere, such as nitrogen or argon, to prevent degradation, and handle using appropriate personal protective equipment. |
Applications of Ethyl Iododifluoroacetate in Industrial ManufacturingEthyl Iododifluoroacetate serves as a highly specialized chlorofluoroalkylation reagent in various advanced industrial synthesis processes. As a chemical manufacturer, we deliver high-purity material for select downstream operations that require strict quality control and adherence to specific standards. Below, we detail key application sectors and precise integration details relevant to the use of this specialty raw material. 1. Active Pharmaceutical Ingredient (API) SynthesisMany pharmaceutical manufacturers use this difluoroacetate for introducing difluoromethyl groups in advanced medicinal chemistry, particularly in developing antiviral, anticancer, and CNS targeting candidates. The reagent steps into intermediates required by complex synthesis routes—often in the final or penultimate step of small-molecule production. Regulatory affairs teams typically request our detailed impurity profile and batch consistency evidence to support DMF filings and clinical trial supply documentation. Controlled storage and traceability are maintained throughout to ensure full trace-back from lot to lot. Industry compliance standards
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2. Fluorinated Agrochemical Intermediate ManufacturingCrop protection formulators use this product to introduce difluoroacetic functional groups in herbicide and insecticide active ingredients, particularly for the synthesis of highly selective actives where metabolic stability is critical. Batch and flow chemists demand our material’s consistently low moisture and halide ion contamination for robust yields. High purity is essential to meet regulatory submission requirements and downstream impurity controls in registration dossiers. Industry compliance standards
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3. Specialty Polymer and Monomer SynthesisProducers in high-performance polymers incorporate this difluoroacetate as a specialty initiator and building block when engineering fluorinated monomers for applications that demand extreme chemical inertness and low surface energy. Controlled use of our material ensures consistent fluorine incorporation during polymerization to tailor mechanical and dielectric properties. Polymer laboratories conduct detailed NMR and halide analysis of each batch to validate uniformity before scale-up and compounding. Industry compliance standards
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4. Advanced Organic Synthesis for Fine ChemicalsResearch and custom manufacturing organizations source this product for constructing highly functionalized organofluorine intermediates in electronic materials and performance chemicals. Our production supports laboratories and toll manufacturers that require single-lot deliveries with full analytical documentation. Close specification control over elemental iodine and organic purity enables reproducible multi-step synthesis necessary for advanced material end-uses. Industry compliance standards
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5. Radiolabeled Compound Synthesis for DiagnosticsSelected radiopharmaceutical laboratories utilize ethyl iododifluoroacetate as a precursor for synthesizing fluorinated radiotracers used in PET imaging. The controlled introduction of fluorine facilitates site-specific labelling in small molecules for clinical imaging. Our support extends to collaborative process validation, supply documentation for radioisotope licensing, and provision of isotopic enrichment data when required for GMP PET tracer production. Industry compliance standards
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Every batch of Ethyl Iododifluoroacetate coming off our production line tells a story about attention to detail, grit, and the pursuit of cleaner chemistry. In our business, you can’t just focus on the end product; you also have to keep an eye on every stage from choosing raw materials, controlling the environment, transformation conditions, and downstream purification. Our hands bear the marks and experience of working through these realities, not as middlemen but as the team responsible for what goes in and what comes out, every step of the way.
Ethyl Iododifluoroacetate, known to chemists by its CAS 378-70-9, draws instant recognition for its vital role in introducing the difluoromethyl group in organic molecules. The standard model we offer for the market is manufactured to offer purity levels consistently tested upwards of 98%. You can see the difference this makes when you’re pushing a key coupling forward or chasing the crisp, well-resolved NMR and GC figures that only come with a well-made reagent.
We built our process from the ground up, sweating the details that others gloss over. Iodine torrent feeds, temperature control at trickier stalling points, and scrubbing downstream halide contamination—we address all the variables that impact both your results and our own day-to-day operations. The tight, snow-white crystalline grain running through our Ethyl Iododifluoroacetate reflects this hands-on, experienced-based philosophy. You cannot shortcut the process and expect consistent results, especially at larger scales.
To many, difluorinated building blocks seem like a commodity. In practice, not all batches from different sources behave the same. Having managed scale-up runs and debugging failed batches for contract partners, it’s obvious where gaps in process and product support rear their heads. Many commercial organoiodides enter the market with variable moisture content, mixed isomers, or metal contaminants arising from older or uncontrolled syntheses. In a tightly regulated production environment, these issues get highlighted quickly—especially when working to meet the documentation and traceability expectations for downstream pharma and agrochemical applications.
Our Ethyl Iododifluoroacetate stands apart due to repeated multistage distillation and direct monitoring of halide levels in each lot. These efforts restrict the pathways for nitrate, peroxide, and iron pickup—unwelcome guests for precision chemists and regulatory reviewers alike. Other manufacturers may accept one-size-fits-all solutions for reagents across diverse end-uses. In our experience, impurities you tolerate at small scale snowball into bigger headaches under cGMP scrutiny, customer audits, or scale-up failures in the plant.
We have encountered some competitors cutting corners by combining recycled solvent streams or using generalized halogen sources not intended for high-purity requirements. Traceable differences show up in downstream analytical results: side reactions, inconsistent yields, false signals in NMR, and failure of downstream derivatizations. Stepping forward from these lessons, our method maintains rigorous isolation and strict solvent management—not just for compliance, but for the direct benefit to test performance and reproducibility in your lab or pilot plant.
Talking to researchers and plant chemists who depend on these reagents to make everything from fluorinated β-lactams to PET imaging probes, the value of reliable Ethyl Iododifluoroacetate rings clear. In our shop, production staff and R&D teams regularly exchange notes with customers: Is the material holding up under your alkylation protocols? Are you seeing consistent yields in arylation or cyclopropanation? Looking at the entire stream of fine chemical innovation—the way difluorinated aliphatics give rise to improved pharmacokinetics, or how they stabilize crop protection agents—it’s easy to find feedback that points directly to product quality on the ground.
Our technical support team, all with hands-on backgrounds in bench chemistry, shares these insights freely. We’ve had partners run fluorination steps at both extremes of scale, from milligram screens to hundreds of kilogram runs. They report that smooth material feeds, sharp melting behavior, and reliable stoichiometry translate directly into fewer deviations. For many fields—especially in structure-based drug design and radiochemistry—the predictability and traceability of each batch matters just as much as cost per kilo.
A key teaching from years on the manufacturing floor is that chemistry only delivers on its promise if supported by robust process control. During winter months, when ambient humidity creeps in, we step up desiccant rotations. In the face of global solvent shortages, we invested in front-loading our most critical supplies and even re-engineered steps to avoid strong oxidants that previously led to waste streams becoming overly complex.
Fellow manufacturers know that a smooth analytical profile on the data sheet doesn’t mean much without true batch-to-batch consistency. A decade ago, we faced a recurring pain point: cross-contamination from reused glassware between different halogenation steps. Now, we enforce dedicated equipment lines for each halogen series. As a result, our customers report fewer off-spec chromatograms and more robust downstream reactions. Even in small things such as the choice of packaging and the speed of transfer from reactor to flask, we ensure nothing undermines the purity and moisture control critical to high-reactivity reagents like Ethyl Iododifluoroacetate.
Regulatory expectations have changed dramatically. No longer does a claims sheet marked “typical values” offer peace of mind. Pharmaceutical customers return to us for clear, well-structured certificates of analysis, access to our original chromatograms, and full documentation of batch genealogy stretching back to the raw iodine and difluoroacetic acid lots used. As the global market has tightened, we’ve seen demands for audit trails, validated methodologies, and forensic handovers for rare quality incidents.
Our on-site laboratory uses validated methods for each test—GC-MS for impurity profiling, Karl Fischer for moisture, and ICP-MS for trace metals. We operate under a philosophy that prioritizes direct dialogue and transparency. Anytime a customer flags even a slight deviation, we open up the investigation as if we were auditing our own process, whether the issue points back to packaging changes, transport anomalies, or breakdowns upstream. Sharing these lessons with our customer network means the learning curve becomes less steep for everyone involved.
Ethyl Iododifluoroacetate makes possible pathways closed off to less reactive building blocks. Its high iodine reactivity coupled with electron-withdrawing CF2 groups unlocks transformations under mild conditions—ideal for substrates sensitive to heat or strong bases. Pharmaceutical groups favor it for “late-stage” functionalization strategies, where gentle handling preserves molecule integrity but still achieves critical fluorinated end-groups.
We see more agrochemical and material science teams adapting it for yield improvement and introduction of metabolically stable motifs, which lends products longer field life and greater selectivity. Our technical knowledge, built up through hundreds of customer feedback cycles, allows us to advise on tailored use—such as manipulating reaction time, solvent choices, or even adapting our packaging to specific workflow needs.
If you ever puzzle through an unexpected exotherm or crystallization issue during pilot runs, our shop has likely been through similar challenges. We openly share case studies about batch filtration bottlenecks, scale-up routines for continuous-flow systems, and in-line quenching tips that protect product integrity during extended storage.
Delivering the right format makes practical differences. Many research and manufacturing teams prefer not to deal with hygroscopic material, so we offer packaging tuned for minimal air exposure and fast transfer into protected environments. Our history includes developing custom-sized, break-resistant bottles and working with engineers to ensure compatibility with automated dispensing tools and glovebox systems.
Ease of weighing and transfer also comes from direct feedback. It’s not unusual to have a plant operator call in describing their specific dosing setup, and for us to pivot product packaging to match. Our decades in bulk chemicals taught us that every “minor” change on paper—such as slightly altered bottle geometry or improved sealing—lowers the risk of material loss, contamination, and time-consuming rework.
Making specialty chemicals means building two-way trust. We don’t just make Ethyl Iododifluoroacetate to a specification; we support you in getting the results your applications demand. If you encounter an unexpected result or want to pivot a synthetic route mid-project, rapid answers and trouble-shooting matter more than glossy brochures.
True partnership means collaborating at every level: dialing in impurity levels, recommending alternative storage, or designing new batch records to support internal documentation needs. We keep our process focused on supporting real-world chemists, not just moving inventory. Our whole team treats every batch as the next chapter of a working relationship built on technical honesty and shared progress.
From a manufacturing seat, we witness firsthand how demand for difluorinated reagents surges on the back of new pharmaceutical leads and materials innovation. Not so long ago, sourcing a stable supply of high-purity Ethyl Iododifluoroacetate posed a challenge for many labs. The market now watches for not just price or availability, but for partners who communicate openly and keep a finger on the pulse of regulatory trends and new application areas.
The most forward-thinking research now treats the difluoromethyl motif as a critical handle—for radiolabeling, for metabolic stability, or for influencing electronic properties in designer molecules. That kind of precision requires suppliers who go deeper than “meets specifications.” We’ve watched hundreds of projects launch, stall, and sometimes pivot entirely on the performance of a single delivered lot. That perspective carries weight in every meeting we hold and every investment we make in new equipment or personnel.
Unpredictable shifts in supply and cost of iodine or specialty fluorinated acids sometimes test the entire supply chain, upending forecasts and planned product launches. We learned the hard way to anticipate outages: diversifying sources, holding deep safety stocks, or even negotiating backup allocation before everyone else jumped the queue. Just as important, the ethic of keeping stakeholders informed—long before a delay becomes a showstopper—defines our customer relationships.
On the environmental front, restrictions on halogenated waste disposal and emissions place direct pressure on how we structure our operations. Installing solvent recovery units and closed-loop filtration means less impact at the plant and supports tighter, more modern process design. This also delivers a benefit down the line—customers receive cleaner, safer reagents, and we meet or exceed the tightening compliance goals all across the industry.
On documentation and regulatory readiness, our in-house compliance group works ahead of the curve by meeting not just today’s standards but also preparing for what’s coming. This proactive approach ensures every bottle of Ethyl Iododifluoroacetate supports your documentation trails, audit needs, and eventual product filings. Listening to evolving regulations—not scrambling to catch up—keeps our teams and partners a step ahead.
As new markets open and medicinal chemistry pivots towards more heavily fluorinated motifs, Ethyl Iododifluoroacetate continues to pick up versatility. From our benches, it’s clear that only by pushing for higher standards in consistency, documentation, and responsive technical support can suppliers remain relevant partners in a fast-moving sector.
Strength comes from years of refining technique, debating pathways, solving bottlenecks, and learning from our share of failures alongside the successes. The product we send to market reflects not only technology and testing but the lives and professional pride of our teams who run the line. Each gram represents thousands of decisions, small and large, shaped by real-world knowledge handed down and improved over time.
We welcome every inquiry as a chance to improve further, learn about your workflows, and keep setting the bar for specialty reagent performance. From major pharmaceutical launches to the fine details of modern organic synthesis, our Ethyl Iododifluoroacetate stands ready for the next challenge alongside you.