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Methyl Chlorodifluoroacetate

    • Product Name Methyl Chlorodifluoroacetate
    • Alias MFCD00151803
    • Einecs 206-047-2
    • 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

    160707

    Cas Number 356-14-1
    Molecular Formula C3H3ClF2O2
    Molecular Weight 146.50
    Iupac Name Methyl 2-chloro-2,2-difluoroacetate
    Appearance Colorless liquid
    Boiling Point 90-92°C
    Density 1.375 g/cm3
    Refractive Index 1.357
    Flash Point 26°C
    Solubility Soluble in organic solvents, slightly soluble in water

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

    Packing & Storage
    Packing Methyl Chlorodifluoroacetate is supplied in a 100 mL amber glass bottle with screw cap, labeled with hazard and handling instructions.
    Shipping Methyl Chlorodifluoroacetate is shipped in tightly sealed containers made of compatible materials, such as glass or fluoropolymer-lined metal, to prevent leaks and contamination. It must be handled as a hazardous chemical, transported under cool, dry conditions, and clearly labeled according to international regulations for toxic and volatile substances.
    Storage Methyl Chlorodifluoroacetate should be stored in a tightly sealed container in a cool, dry, and well-ventilated area, away from sources of ignition and incompatible substances such as strong bases and oxidizers. Keep it away from heat and direct sunlight. Store under an inert atmosphere if possible, and ensure appropriate chemical spill containment measures are in place.
    Application of Methyl Chlorodifluoroacetate

    Applications of Methyl Chlorodifluoroacetate in Industrial Manufacturing

    Methyl Chlorodifluoroacetate serves as a key intermediate in several specialized segments of the chemical industry. Our direct production supports stringent downstream workflows, delivering controlled composition for high-value synthesis. Below are real-world B2B sectors utilizing this raw material, with application-specific technical details for each.

    1. Agrochemical Synthesis: Herbicide and Fungicide Intermediates

    Major agrochemical manufacturers employ this raw material during the synthesis of fluorinated herbicides and fungicides. The compound provides a controlled difluoroacetyl group source in constructing complex active ingredients. Downstream processors utilize its chemical stability for chlorodifluoromethylation steps under regulated conditions, often optimizing for minimal by-product formation and consistent yield during scale-up. Strict batch documentation and traceability govern all stages, and real-time in-process analytics confirm reactivity thresholds and compliance for global export regulations.

    Industry compliance standards

    • ISO 9001:2015 certified quality systems
    • REACH (EC) No 1907/2006 registration for European market entry
    • FAO/WHO specifications for pesticide actives
    • EPA regulations under the Federal Insecticide, Fungicide, and Rodenticide Act (FIFRA) in the USA

    Typical usage ratio

    • 0.5–3.5 mol equivalents per active ingredient batch, adjusted by stoichiometry of the target molecule and conversion efficiency requirements

    Downstream process integration

    • Introduced after initial feedstock preparation, entering acylation or alkylation steps in multi-stage synthesis of agrochemical actives

    Final product types

    • Selective herbicides containing difluoromethyl moieties
    • Fluorinated fungicides for crop protection
    • Pesticide intermediates for further derivatization

    2. Pharmaceutical Intermediate Production

    Pharmaceutical companies utilize this chemical as a fluorinated acyl source in the synthesis of APIs requiring difluoromethyl substituents. The material enables high-purity thioester and amide formation for critical building blocks. Each batch is subject to validated cleaning processes and systematic documentation to meet cGMP guidelines in regulated markets. Downstream users prioritize trace-level impurity control during conversion, leveraging robust analytical methods for batch release and regulatory submission data packages.

    Industry compliance standards

    • ICH Q7/Q11 Good Manufacturing Practice Guidance for Active Pharmaceutical Ingredients
    • 21 CFR Parts 210/211 for US FDA-compliant facilities
    • European Pharmacopoeia monographs (as applicable to intermediates)
    • Valid analytical method development according to USP or EP protocols

    Typical usage ratio

    • 0.7–2.5 molar equivalents relative to pharmaceutical precursor, tuned according to route yield and risk parameters in multi-step syntheses

    Downstream process integration

    • Added during fluorinated fragment introduction steps in API intermediate synthesis, typically in acylation or amidation reactions

    Final product types

    • Active pharmaceutical ingredient intermediates for antiviral and anticancer APIs
    • Pharmaceutical grade building blocks with difluoroacetate units
    • Fine chemical intermediates destined for finished dose formulation

    3. Advanced Material Manufacturing: Fluorinated Polymer Precursors

    Producers of high-performance fluorinated polymers incorporate this raw material during custom monomer functionalization. Its controlled chemical structure assists in providing unique weatherability, dielectric, or hydrophobic properties in finished polymers. Integration involves precise reaction controls, ensuring minimal monomer residue and accurate molecular weight distribution. Manufacturers track critical process parameters to comply with international performance standards relevant to end-use sectors such as electronics and automotive.

    Industry compliance standards

    • ISO 14001:2015 for environmental management in chemical synthesis
    • Restriction of Hazardous Substances (RoHS) for electronics and electrical applications
    • ASTM D5630 for fluoropolymer purity and QA
    • Globally Harmonized System (GHS) labeling and documentation

    Typical usage ratio

    • 0.2–1.0 parts per hundred resin (phr), modulated according to required final property targets and polymer chain length control

    Downstream process integration

    • Fed into monomer modification or copolymerization units, participating in chain-terminating or functionality introduction reactions in advanced polymer synthesis

    Final product types

    • Fluorinated acrylics and methacrylic polymers
    • Specialty fluoropolymers for insulation layers and coatings
    • Performance plastics with tailored surface energies

    4. Specialty Chemical Production: Fine Fluorinated Intermediates

    The compound is routinely used in the synthesis of fine chemicals, notably for the manufacture of customized perfluorinated intermediates. Downstream processors engage in precise reaction engineering to introduce difluoromethyl fragments into target molecules for industrial catalysts, specialty solvents, and niche reactive agents. In these workflows, manufacturers enforce batch-level process validation and documentation trails to conform with sector-specific traceability and export class regulations.

    Industry compliance standards

    • ISO 9001:2015 for process management in specialty chemicals
    • Compliance with TSCA (Toxic Substances Control Act) for US import/export
    • Globally Harmonized System (GHS) hazard and safety management
    • Responsible Care® program participation for chemical stewardship

    Typical usage ratio

    • 1.0–4.0 weight % depending on molecular substitution pattern and product specification targets

    Downstream process integration

    • Incorporated in intermediate-stage synthesis, added during nucleophilic substitution or acylation reactions to introduce highly fluorinated moieties

    Final product types

    • Reactive specialty intermediates for custom synthesis houses
    • Industrial catalysts containing difluorinated motifs
    • Fine chemical agents for electronics and analytical chemistry
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    Certification & Compliance
    More Introduction

    Methyl Chlorodifluoroacetate: Craftsmanship from a Chemical Manufacturer's Bench

    Our Commitment to Quality in Methyl Chlorodifluoroacetate Production

    Manufacturing Methyl Chlorodifluoroacetate (commonly referenced in industry as MCDF) demands precise control over synthesis routes and a keen understanding of the practical needs of downstream users. We have invested years in optimizing both batch and continuous production lines to offer high-grade MCDF that meets the rigorous standards set by pharmaceutical and fine chemical companies. This compound, with the molecular structure CHClF2COOCH3, features a methyl ester attached to the well-recognized chlorodifluoroacetyl group. These properties allow it to act as a unique building block in organic synthesis.

    Factories often battle with incomplete conversions or sensitivity to hydrolysis during manufacture. Through equipment upgrades and real-time monitoring, we steadily reduced impurity profiles — especially those stemming from over-chlorination, residual acids, or alternate ester byproducts. We focus on purity and minimization of hydrolytic byproducts, resulting in a clear, colorless liquid with low moisture content. Each lot undergoes chromatographic profiling and moisture checks by Karl Fischer titration, keeping residual water well below the critical threshold that disrupts downstream coupling chemistry.

    Why Methyl Chlorodifluoroacetate Stands Out for Synthesis

    MCDF occupies a valuable role for researchers working with fluorinated intermediates. The electron-withdrawing power of its chlorodifluoromethyl group makes it a favored reagent for introducing fluorine motifs into complex molecules. Many customers trust it for its consistent reactivity in nucleophilic substitution and condensation reactions. The methyl ester component supports smooth transesterification steps, and the compound’s predictable boiling point enables precise distillation and purification routines.

    Emphasizing traceability, every outgoing shipment links back to batch records saved for over ten years. We regularly host customer audits so buyers can inspect our handling practices from raw acid halide to finished ester. The confidence in each drum comes from seeing how each kilogram is packed, sealed, and labeled with time-stamped inspection logs. In the chemical industry, time lost on a bad lot means expensive downtimes, so we maintain full visibility strictly through transparent production data and hands-on support.

    Comparisons to Related Acetate Esters and Acylating Agents

    Chemists often substitute MCDF with similar reagents — for instance, ethyl chlorodifluoroacetate or methyl trifluoroacetate — expecting identical reactivity or volatility. In reality, MCDF brings a unique balance between reactivity and manageable volatility. Its moderate ester group delivers controlled acyl transfer without the high reactivity seen with acid chlorides, reducing side reactions and giving better yields in multistep synthesis. Unlike acid chlorides, MCDF does not release corrosive HCl during downstream processing, streamlining waste handling and equipment maintenance.

    While some laboratories opt for trifluoroacetic acid derivatives for even greater electron-withdrawing strength, this often results in excessive activation and unwanted decomposition. MCDF’s behavior remains consistent across a range of solvents — maintaining its character whether used in polar aprotic conditions or less demanding environments. In contrast, other esters show compositional drift after brief exposure to ambient air; our MCDF, stored in nitrogen-flushed containers, resists degradation and holds assay value through extended storage and transport times.

    From Lab Bench to Plant Scale: Real-World Usage Patterns

    We developed our manufacturing line in response to the needs of process chemists in the pharmaceutical sector, who rely on MCDF for fluoroalkylation steps in preclinical and commercial compound development. Routinely, customers employ MCDF to generate protected difluoromethyl ketones, install CF2 motifs, or prepare prodrugs that gain metabolic stability through the introduction of these fluorinated units.

    Our clients in crop sciences also utilize MCDF in the pathway toward agrochemicals with improved bioavailability and environmental persistence. In our own facilities, we noticed MCDF remains compatible with widely available bases and amines, supporting modular workups and convenient solvent recycling. Customers new to MCDF are often surprised by its ease of scale-up from gram laboratory experiments to multikilogram plant batches, thanks to its physical stability and consistent batch-to-batch composition.

    Handling and Storage: Built on Operator Experience

    Operating at the scale we do, developing best practices for storage and handling became a necessity. MCDF’s moderate volatility means it requires sealed transportation and storage in cool, dry conditions. Early on, we encountered incidents of product degradation when exposed to air or moisture in drum headspace. We improved packaging with high-integrity PTFE liner closures and nitrogen blanketing after each drum is filled and sampled. This cut storage losses and kept the product within specification far longer, minimizing customer waste and improving operational efficiency.

    In the plant, operators wear splash-resistant PPE and rely on well-calibrated pumps. MCDF does produce slight fuming if overheated or exposed to humid air, so we equip drum tapping points with vapor recovery and maintain low transfer pressures. By investing in staff training, we reduced incident frequency and improved production uptime. These lessons, documented in our SOPs, became a source of trust for partner firms that require trouble-free scheduling and waste minimization from raw materials.

    Batch Consistency and Analytical Rigor

    Our quality control laboratories maintain a tight grip on process analytics. Each lot of MCDF receives full characterization by NMR, FTIR, and GC. If a batch falls out of specification on purity or contains trace hydrolysis byproducts, we immediately flag it and consult process engineering for corrections. Customer requests sometimes involve specific impurity thresholds or unique packaging, and we accommodate these by adjusting workup and purification steps. Reject rates have fallen to a fraction of a percent over recent years, reflecting close process monitoring and frequent equipment calibration.

    Maintaining this analytical rigor means we work hand-in-hand with customers during tech transfer or initial project launches. Open communication with R&D teams at our clients’ facilities leads to mutual troubleshooting — especially when MCDF takes on new roles or interfaces with unfamiliar reagents. Sharing our analytical data gives customers faster insight and helps prevent downstream quality failures.

    Environmental and Regulatory Awareness

    MCDF’s molecular structure, incorporating both fluorine and chlorine, falls under growing regulatory scrutiny in various regional markets. Over the past decade, we have responded to evolving registration requirements by compiling detailed safety, toxicity, and degradation profiles. Our internal teams track global changes in REACH, TSCA, and Asian registration frameworks. We have committed to rigorous pre-shipment testing and make full compositional disclosures available on request, ensuring buyer compliance with local import and production laws.

    We recognize the growing concerns around fluorinated organics in the environment. While MCDF itself is handled mostly on a contained basis, responsible production means tracking emissions at every plant vent and treating aqueous waste to remove halocarbons before discharge. Closed-loop recovery and incineration units operate onsite to manage spent solvents. Efforts to reduce plant discharges and routine stack testing represent concrete steps toward cleaner production, and we collaborate closely with local environmental agencies to maintain best-in-class status on regulatory inspections.

    Supply Chain Reliability in a Volatile Market

    Pandemic shocks and transportation bottlenecks have transformed chemical supply chains. As a direct producer, we retain control of raw material sourcing and finished product inventory. This means we absorb less volatility in pricing and can respond quicker to supply changes. Logistics staff maintain safety stock buffers and book freight in advance to smooth out seasonal or demand spikes, which gives customers higher confidence in supply continuity.

    We keep MCDF warehouses at multiple site locations. Each tank and drum undergoes scheduled inspection and labeling, following strict FIFO inventory controls. Shipments include complete documentation; our own drivers handle local delivery, reducing transit risk. We work with a select group of global freight partners who demonstrate history managing regulated chemicals, ensuring every drum of MCDF arrives at customer docks with full chain-of-custody records.

    Supporting Scale-Up and Innovation in Chemical Industries

    Several years ago, we worked closely with a pharmaceutical process team ramping up a late-stage API project using MCDF at the 1000-L scale. Early test runs showed higher than expected impurity carry-over, threatening production timelines. By opening a clear exchange between our technical group and theirs, we pinpointed a source of low-level acid residue and adjusted the distillation step. The project moved forward with tighter impurity control, avoiding costly rework and keeping regulatory submissions on track. Experiences like these show how manufacturer support can reduce risk for new product introductions.

    Smaller research customers benefit from our willingness to provide application notes and share knowledge built up over hundreds of MCDF campaigns. Detailed feedback about solvent compatibility, real-world isolation yields, and storage advice helps R&D chemists push boundaries in medicinal and agrochemical discovery. With every new product launch, we gather user feedback to refine our own processes, closing the loop between plant floor and customer lab.

    Differences from Distributor or Outsourced Product Lines

    End users often notice subtle differences in MCDF based on the source. Products from traders or resellers usually exhibit broader specification windows, and complaint resolution can take longer if the original manufacturer is unknown. With direct-from-manufacturer supply, specification limits are tighter and every inquiry leads to immediate answers from staff who run the reactors and QC labs daily. This closeness supports quicker troubleshooting and adaptation when process chemists face unanticipated conditions.

    We invest in process upgrades that third parties seldom undertake, such as automating distillation temperature control or integrating inline quality sensors. These advances yield more uniform product from drum to drum, reducing the need for incoming goods inspection or rework on the user’s side. In addition, full transparency in raw material sourcing gives customers insight into backward integration, which matters for regulatory filings and risk management.

    Feedback Loop and Continuous Improvement

    Direct conversations with chemists and engineers who rely on MCDF have driven incremental improvements throughout our history. We routinely host joint lab sessions to work through tricky transformations involving MCDF, sharing both published literature and our own process notes. Customer points of confusion — such as unexpected reactivity or storage problems — often reveal opportunities to tweak procedures or upgrade packaging. The proof lies in lower complaint rates and increased repeat orders year after year.

    Cross-training among plant staff and regular reviews of downtime events help us catch trends before they become problems. This hands-on approach allows plant and lab to function as a unified team, applying lessons from every campaign to build a more robust process. It also fosters a proactive safety culture, as operators who understand the product’s quirks react quickly to issues and solve them at the source.

    Building Trust Through Transparency and Partnership

    Over two decades, we have built trust with our customers by offering reliable MCDF and backing each drum with documentation and technical support. Every order links not just to a batch number, but to a history of meticulous craftsmanship, operational integrity, and a drive for constant improvement. The professional pride of our production staff carries through to every application at the user’s site, whether in a pharmaceutical Kilo Lab, an agrochemical pilot line, or a fine chemical R&D division.

    We welcome direct technical exchanges, regulatory audits, and collaborative troubleshooting to maintain this partnership approach. Our emphasis on openness, records, and direct support defines the difference between working with a direct manufacturer and facing the uncertainties of a fragmented supply chain. Experience, attention to detail, and investment in people ensure that each shipment of Methyl Chlorodifluoroacetate adds value right out of the drum.

    Our commitment to consistent quality, operational excellence, and trusted partnership remains steadfast — and we stand ready to support innovation and safety in every sector where MCDF enables next-generation chemistry.