|
HS Code |
609282 |
| Chemical Name | Methyl Fluoroacetate |
| Molecular Formula | C3H5FO2 |
| Molar Mass | 92.07 g/mol |
| Cas Number | 453-18-9 |
| Appearance | Colorless liquid |
| Boiling Point | 104-105 °C |
| Melting Point | -33 °C |
| Density | 1.16 g/cm³ |
| Solubility In Water | Miscible |
| Refractive Index | 1.352 |
| Flash Point | 28 °C |
| Vapor Pressure | 18 mmHg (25 °C) |
As an accredited Methyl Fluoroacetate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Methyl Fluoroacetate, 25g, supplied in a sealed amber glass bottle with tamper-evident cap, clear hazard labeling and safety data. |
| Shipping | Methyl fluoroacetate must be shipped as a hazardous chemical, in accordance with UN 2642 regulations. It should be packed in tightly sealed containers, labeled as highly toxic and transported under Class 6.1 (toxic substances) guidelines. Appropriate hazard documentation and emergency response information must accompany the shipment. |
| Storage | Methyl fluoroacetate should be stored in tightly sealed containers made of compatible materials, in a cool, dry, and well-ventilated area away from heat, moisture, and incompatible substances such as acids, bases, and oxidizers. Storage must be secure and clearly labeled, with access limited to trained personnel. Proper secondary containment is recommended due to its high toxicity and volatility. |
Applications of Methyl Fluoroacetate in Industrial ManufacturingMethyl fluoroacetate serves several specialized roles in industrial chemical manufacturing, primarily within sectors handling advanced synthesis and fine chemical intermediates. As a direct manufacturer, we supply this raw material to a focused group of clients who require its unique reactivity and selectivity properties in key formulation processes. Below are verified downstream applications where methyl fluoroacetate is implemented at scale. 1. Agrochemical Synthesis: Selective Pesticide IntermediatesLeading agrochemical producers integrate methyl fluoroacetate into custom synthesis routes for fluorinated pesticide actives, leveraging its ability to provide targeted fluorine introduction during key molecular transformations. The introduction point typically follows primary precursor elaboration, where methyl fluoroacetate undergoes nucleophilic substitution or esterification to yield crucial precursor esters for selective herbicides and insecticides—especially those intended for application in regulated crops. Production batches must comply with both regional and international regulatory frameworks, and the addition ratio is closely guided by product design and regulatory residue limits. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Pharmaceutical Intermediate ProductionPharmaceutical active ingredient manufacturers apply methyl fluoroacetate as a reactant in fluorinated intermediate production, specifically for certain registered APIs where the fluorinated ester moiety enhances metabolic stability or modulates bioavailability. Integration into the synthetic line happens after initial backbone construction, enabling selective esterification at tightly defined process steps. cGMP conditions are essential, with analytical batch monitoring to validate both purity and downstream compatibility. Levels of addition must be validated via process development trials for each registered route. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Fine Chemical Synthesis: Specialty Building BlocksProducers of advanced fine chemicals incorporate methyl fluoroacetate to introduce fluoroalkyl groups into molecular scaffolds used for further specialty synthesis, such as advanced ligands and catalysts. This compound typically enters mid-stage reactions, where selective ester functionalities govern later reactivity or enable modular design architectures in molecular engineering. The workflow demands precise stoichiometric control and downstream purification, often within ISO-certified environments that require full batch documentation. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Radiolabeling and Research ApplicationsSelected research laboratories and contract research organizations utilize methyl fluoroacetate for radiolabeling and tracer compound synthesis, particularly when preparing custom fluoroacetate derivatives for metabolic, biochemical, or environmental fate studies. Its use is tightly controlled and governed by laboratory and regulatory biosafety protocols. Please note that these applications require high-purity grades and specialized handling, and the compound enters early-stage reagent preparation under small-scale but highly instrumented conditions. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
|
Competitive Methyl Fluoroacetate prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please contact us at +8615365186327 or mail to admin@ascent-chem.com.
We will respond to you as soon as possible.
Tel: +8615365186327
Email: admin@ascent-chem.com
Flexible payment, competitive price, premium service - Inquire now!
Over the years, we have built a deep familiarity with methyl fluoroacetate, both in its manufacture and its performance in demanding environments. This specialty compound, with the chemical structure CH3O2CCF, shows particular value in research, synthesis, and certain controlled industrial settings. Little about this molecule escapes attention once you have spent years perfecting batch reactions and ensuring the proper containment protocols. Its reputation comes from a unique blend of reactivity and precision, which makes it sought after but also restricts its use to professionals with a thorough grasp on both safety and advanced chemistry.
Methyl fluoroacetate stands out in our product lineup for its purity and consistency, two features that do not arise by accident. We prepare methyl fluoroacetate to strict internal specifications, commonly offering a purity greater than 98%. Each lot goes through multiple levels of purification and testing before release—a practice based on years of experience handling volatile, sensitive fluorinated compounds.
The physical form—usually a colorless to slightly yellow liquid—always draws the attention of our technical staff. Distinctive by a faint odor, it demands careful storage and transport, much more than more familiar esters like methyl acetate or ethyl acetate. High volatility, a relatively low boiling point, and a narrow margin for error in exposure make it anything but a commodity item. Each drum or small volume bottle in our storage rooms receives close scrutiny, with explicit protocols for inventory checks, temperature, and container integrity.
Extensive knowledge of organic esters forms the core of our product development team’s expertise. Methyl fluoroacetate behaves very differently from what most customers expect if they have worked only with methyl acetate or even methyl trifluoroacetate. We see much higher toxicity and require serious handling precautions due to its fluoroacetate functional group. Only trained chemists and facilities with robust controls make our list of qualified buyers. Anyone hoping for substitute performance from a standard acetate quickly learns this is not an interchangeable item.
One striking difference lies in the reactivity imparted by the fluorine atom. Few esters match its proclivity for highly selective reactions and transformations in organic synthesis. Chemists turn to this compound for its distinct properties in alkylation reactions, where the fluoroacetate group serves as a unique source of both methyl and fluoroacetyl moieties. Other esters often lack this dual functionality. Routine solvents or reagents simply don't compete here.
We regularly supply methyl fluoroacetate to laboratories with advanced synthetic programs, especially those working at the forefront of medicinal chemistry or focused on new agrochemical intermediates. The compound plays a role as a building block in schemes where selective fluorination or introduction of the fluoroacetyl group offers enhanced bioactivity or stability in test compounds.
Most end-users operate within high-containment labs with experienced teams. Routine delivery of this product involves close coordination with customer health and safety officers and detailed documentation. No container leaves our site without dedicated labeling and custom transport plans that address the specific toxicological risks. Changes in packaging, even down to gasket and liner materials, come under review every time the end-use scenario shifts. We vet and approve any changes based on stability data, leak tests, and customer feedback.
Some clients request custom concentrations or stabilized mixtures, though pure methyl fluoroacetate remains most in demand. We work with specialized packaging solutions to minimize loss and exposure, relying on materials proven by decades of chemical industry use. In all these scenarios, dialogue with end-users prevents mistakes and keeps accidents at bay; we treat each new order as a fresh responsibility, not a routine transaction.
Producing methyl fluoroacetate puts the plant crew’s expertise to the test. Synthesis uses hazardous intermediates, and every step in the process leaves no margin for sloppy technique or ambiguous recordkeeping. Internal process safety reviews, emergency response drills, and ongoing staff training define our day-to-day reality. Even minor deviations from established times, temperatures, or reagent concentrations yield off-spec batches or, worse, safety incidents.
In the early years, controlling exothermicity proved difficult. Small fluctuations in reagent quality would cause runaway reactions or reduced yields. To address this, we installed advanced calorimetry systems and built robust SOPs around slow, staged reagent addition. These adaptations reduced batch failure rates dramatically—details we share with new staff so that lessons persist beyond the veteran team.
Quality assurance for methyl fluoroacetate involves more than just a final check of the finished product. We run in-process analytics at several points, tracking key physical and chemical properties. Our team uses gas chromatography and NMR tools to confirm product identity and purity at each stage, not just at the end. This layered approach, built around constant feedback from decades of small- and large-scale production, minimizes waste and increases batch predictability.
Waste handling gets its own section of every process hazard review. Because both intermediates and finished methyl fluoroacetate exhibit high toxicity, off-spec material never mixes with standard plant waste streams. Dedicated neutralization stations and custom protocols ensure compliance with local regulations as well as strict internal policies. We retain full traceability of every drum, from raw feedstock to finished product disposal, so no container or batch ever goes unaccounted for.
Experience teaches caution with potent chemicals. Methyl fluoroacetate ranks high on the list of substances requiring controlled access and constant vigilance. All our employees complete yearly training on hazardous material management, and plant leadership holds quarterly reviews focused solely on safety near fluorinated materials. This culture grows from incidents—minor and not—witnessed over years in production, and from the collective responsibility we feel toward our peers and community.
Unlike less hazardous chemicals, methyl fluoroacetate requires special spill and exposure response kits in every storage zone and near every transfer station. Plant operators keep respirators and splash protection at hand, not stowed away. We keep up-to-date antidote supplies in clinical first aid kits and run regular medical refreshers to reinforce swift identification of early symptoms of exposure.
The push for environmental stewardship grows stronger each year. Regulatory demand for cradle-to-grave chemicals tracking and total lifecycle analysis pushes us to document routes and minimize loss at every stage. Solvents and wash water used in purification do not enter municipal streams. Advanced containment solutions, frequent site inspections, and mandated secondary containment barriers tie back to our experience—the invisible investment that never leaves our annual budgets.
Few operations teach the value of planning and patience like methyl fluoroacetate synthesis. A rushed or careless approach invariably ends in product loss or safety concerns. Through the years, we focused on slow process scale-up and exhaustive stress testing. Small-volume pilot runs precede any change in feedstock, equipment, or staff responsibilities. Every new batch triggers a review of parameters logged case by case in our continuous improvement system.
Staff turnover presents a hidden challenge. Training new operators on the subtleties of methyl fluoroacetate is never a matter of simple checklists. The mentorship of seasoned crew members, hands-on shadowing, and an open forum for reporting near-misses all play a part in building real competence. Management supports this approach with investment in training days and technical seminars, both on and off site. Long-term retention among floor supervisors, a result of this commitment, saves lives and keeps our incident rates low.
Customers benefit directly from this institutional knowledge. Emergency support, batch recall protocols, and technical troubleshooting all link back to personal experience. No document or third-party manual matches the advice from an operator who has handled hundreds of methyl fluoroacetate batches over decades. Our sales and technical support teams often include former plant chemists, giving customers a direct line to practical solutions rather than abstract theory.
The specialized nature of methyl fluoroacetate naturally limits its application, yet the compound remains a vital piece of innovation in several advanced industries. Feedback from long-standing clients in chemical synthesis and research tells us that the product’s unique functional group and reactivity cannot be replaced by more common chemicals. As manufacturers, we accept the challenges because we know the role these rare building blocks play in driving progress—from new pharmaceuticals and crop protection agents to exploratory organic chemistry.
We pay close attention to evolving international guidelines and advances in contained process technology. This allows us to adapt production, storage, and transport protocols before regulatory nudges become mandates. Sometimes these shifts add cost or complexity, but they also help us find creative solutions—like using improved sealing systems or updated analytical methods—that make the operation safer and more reliable. The investment pays off in fewer incidents and higher trust among our clients, many of whom have no margin for error in their own highly regulated workflows.
Offering methyl fluoroacetate serves a tight-knit scientific circle. Experience has shown that keeping lines of communication open, both with regulators and end-users, avoids pitfalls of assumption or complacency. Chemical production at this level is not about volume, but about precision, responsiveness, and reliability. Listening to the specific requirements of chemists in discovery and those focused on scale-up helps us keep our production aligned with real-world needs, not generic market demands.
Global chemical supply chains remain under strain—input costs fluctuate, transport routes shift, and demand for fine chemicals ebbs and flows alongside research funding cycles and regulatory trends. Our team watches these developments closely to ensure a steady supply of key raw materials and to avoid disruptions that could leave research teams or manufacturing processes stranded.
In past years, tightening control of hazardous reagents, especially those containing fluorine, introduced new hurdles. End-to-end documentation, expanded customs checks, and even country-specific use restrictions all affect planning and operational flexibility. The experience of navigating these constraints—sometimes with little advance notice—encourages us to invest in local inventory reserves and diversified supplier networks. These choices keep us agile in the face of shifting rules, letting us maintain deliveries to established clients without interruption, even when global supply lines falter.
The search for alternatives and substitutes for hazardous or regulated compounds surfaces often in industry meetings. For methyl fluoroacetate, direct alternatives remain scarce due to its role in specialized transformation chemistry. While interest in “greener” fluoro-compounds grows, none offer exactly the dual reactivity seen here combined with controllable volatility and esterase cleavability. For now, our clients report that experimental candidates either lack the same reactivity or raise novel regulatory issues. As manufacturers, we continue to explore new process improvements, but real replacement looks far off based on open technical literature and trade feedback.
Long-term customers often bring us real, actionable data on packaging and distribution challenges. Risks during transport rank among their top concerns: temperature swings, risk of breakage, unclear emergency labeling. Over years of shipping methyl fluoroacetate worldwide, we switched to robust certified containers with tamper-evident seals and upgraded tracking. Regular audits of shipping partners and direct lines to emergency responders bring further security all along the distribution network.
In some regions, import restrictions and last-mile delivery hurdles prompted us to work with on-site supply partners or regional depots under our own supervision. These choices go beyond simple cost analysis; they keep control from production through to end use. Each adaptation in our approach stems from accumulated industry knowledge and a willingness to adapt to changing customer conditions.
We document every change for both our technical and customer service archives, which lets us share updates broadly and ensures continuity between site managers, customers, logistics, and compliance teams. Only through this degree of coordination does the often invisible infrastructure behind methyl fluoroacetate distribution run smoothly and safely.
Ongoing investment in plant and equipment technology has steadily improved the safety and efficiency of our methyl fluoroacetate line. Automated dosing systems, integrated temperature and pressure controls, and early-warning analytics let us respond faster than older manual setups. These changes did not come overnight—each improvement came only after careful pilot testing and consideration of long-term reliability. Our shift to digital batch records, integrated with laboratory analysis, gave us granular control over trend analysis and rapid recall capability, if ever needed.
Today’s operators inherit both hard-earned process maps and a culture of curiosity. If any operator sees an anomaly, they escalate, and the team investigates before proceeding. This approach, informed by many years of small- and large-scale batches, reduces process deviations and strengthens confidence across the technical and management teams.
Process intensification trends—moving from traditional stirred tanks to more controlled flow reactors—are of growing interest. Initial trials on our lines show promise for improved selectivity and further hazard reduction, especially where tightly regulated reaction rates cut down the risk of excursions and byproduct formation. Sharing this progress with peer companies and regulatory groups not only improves our own standards, but raises the bar industry-wide.
A hands-on relationship with collaborators sets specialty product suppliers like us apart from traders or distributors. Our technical team meets directly with research groups, startup innovators, and established pharmaceutical process chemists to exchange insight and provide support in adapting methyl fluoroacetate to novel syntheses. Each case pushes us to evaluate not just routine production quality, but the precise requirements of new R&D projects—purity by method, trace contaminant profiles, custom batch reports.
In practice, this means frequent dialogue and responsiveness to unexpected challenges. If a customer’s project encounters yield problems, we invite them to share samples with our own analytical lab for deeper investigation. Sometimes, a reagent batch may show marginal impurity from a trace contaminant introduced upstream; in other cases, a change in reaction scale uncovers a need for upgraded purification or alternative solvent pairing. Our long history with this molecule lets us move from data to corrective action faster than distant suppliers detached from the realities of in-lab troubleshooting.
Across these joint efforts, transparency remains key. Sharing analytical findings, production logs, and improvement steps helps build trust and inspires ongoing partnerships. In the small world of advanced synthetic chemistry, reputation and results matter, not volume.
Direct engagement with the realities of specialty chemical production shapes how we view every batch, customer request, and near-miss report. Methyl fluoroacetate is not chosen for convenience or familiarity; it is used when nothing else matches its reactivity and selectivity for the project at hand. Because we work with this molecule from base raw material to packaged container, we learn details that papers and external reviews sometimes miss.
Our role extends beyond commercial transaction—we act as custodians of rigorous process, diligent safety, and open dialogue with the technical community. This outlook emerges not from abstract policies, but from day-to-day experience, feedback loops, and shared responsibility among teams who witness, adapt, and improve with every challenge faced over decades of specialty chemical production worldwide.