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

Dimethyl Fluoromalonate

    • Product Name Dimethyl Fluoromalonate
    • Alias DMFM
    • Einecs EINECS 209-813-4
    • 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

    137053

    Cas Number 452-78-4
    Molecular Formula C5H7FO4
    Molecular Weight 150.10 g/mol
    Appearance Colorless to pale yellow liquid
    Boiling Point 61-63 °C at 11 mmHg
    Density 1.225 g/mL at 25 °C
    Flash Point 77 °C
    Refractive Index 1.385-1.390
    Purity Typically ≥97%
    Solubility Soluble in organic solvents such as ether and chloroform

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

    Packing & Storage
    Packing 250g Dimethyl Fluoromalonate is supplied in a tightly sealed amber glass bottle, featuring clear hazard labels and tamper-evident packaging.
    Shipping Dimethyl Fluoromalonate is typically shipped in tightly sealed containers under dry, cool conditions to prevent moisture and contamination. It is classified as a hazardous material; shipping must comply with relevant regulations (e.g., IATA, DOT). Appropriate labeling and documentation are required, and handling by trained personnel is mandatory to ensure safety during transit.
    Storage Dimethyl Fluoromalonate should be stored in a tightly sealed container, away from moisture and incompatible substances such as strong oxidizers. Keep it in a cool, well-ventilated, and dry area, preferably under inert atmosphere or nitrogen. Storage at 2–8°C is recommended. Protect from light and sources of ignition. Always follow relevant safety and chemical hygiene guidelines.
    Application of Dimethyl Fluoromalonate

    Applications of Dimethyl Fluoromalonate in Industrial Manufacturing

    Dimethyl fluoromalonate supports critical synthesis processes in pharma, crop protection, and advanced materials sectors. As a direct manufacturer, we supply this intermediate to enterprises integrating it at scale into diverse value chains. Below, we detail main downstream segments, compliance protocols, recommended ratios, integration points, and typical finished products.

    1. Pharmaceutical Active Pharmaceutical Ingredient (API) Intermediates

    Pharmaceutical developers use dimethyl fluoromalonate to build fluorinated scaffolds for new chemical entities, especially within anti-infective and CNS drug research pipelines. Companies select this fluorinated ester to introduce backbone modifications that enhance metabolic stability, tune target selectivity, or adjust physicochemical attributes during stage-synthesis for patented molecules. Its use is confined to GMP-compliant synthetic steps demanding high traceability, stringent batch release, and validated impurity profiles. Integration occurs at the fluorination or alkylation stage after base ester activation, prior to final coupling or cyclization. End products reach the market as regulated APIs or registration batches for later drug development programs.

    Industry compliance standards

    • ICH Q7 GMP for Active Pharmaceutical Ingredients
    • Ph. Eur. and USP compendial standards for intermediates
    • FDA and EMA Guidance for Starting Materials
    • ISO 9001 Quality Management for Documentation

    Typical usage ratio

    • 5–25 mol% relative to main synthetic substrate; actual ratio depends on target molecule’s fluorination pattern and process yield optimization studies

    Downstream process integration

    • Introduced during mid-stage synthesis as a fluorine source via alkylation, amidation, or cyclization sequences

    Final product types

    • Clinical- and commercial-phase fluorinated APIs
    • Advanced pharmaceutical intermediates
    • Active metabolite probes for research
    • Validation and reference standards for regulatory submissions

    2. Agrochemical Intermediate Synthesis

    Agrochemical formulators integrate dimethyl fluoromalonate as a building block to access fluorinated pyrimidines, triazines, and substituted heterocycles within modern herbicide and fungicide synthesis routes. It provides process chemists a scalable method to install selective fluoroalkyl groups that improve bioactivity and environmental stability of crop protection agents. The material enters as an intermediate coupling partner during ring-closure or esterification steps. Finished products undergo statutory residue and toxicology testing before field use approvals.

    Industry compliance standards

    • FAO/WHO Guidelines and Specifications for Technical Materials
    • REACH (EU) chemical registration
    • ISO 9001 and ISO 14001 site certification (as applicable for large-scale manufacture)
    • GLP (Good Laboratory Practice) for synthesis verification prior to regulatory submission

    Typical usage ratio

    • 10–30 mol% depending on the targeted final structure and the synthetic conversion efficiency in multi-step workflows

    Downstream process integration

    • Used at intermediate-ring formation or side-chain attachment stages; functionalized prior to formulation blending and active substance isolation

    Final product types

    • Fluorinated herbicide technicals
    • Fungicide pre-mixes
    • Seed treatment actives
    • Reference standard chemicals for residue studies

    3. Fluorinated Fine Chemicals for Electronics

    Semiconductor and specialty chemical manufacturers incorporate dimethyl fluoromalonate as a precursor during production of functionalized fluorinated monomers and performance additives for microelectronics. The ester finds use in high-purity syntheses where fluorination is crucial for dielectric, etch resistance, or surface energy modification in photolithography and advanced packaging. Full documentation of impurity profiles and trace metal contents is mandatory at this step. The chemical enters the route during either ester or acid cleavage, feeding into subsequent coupling or polymerization for tailorable properties in the final device application.

    Industry compliance standards

    • SEMI C93 for Electronic Grade Chemicals
    • ISO 9001 for analytical traceability and release
    • RoHS (EU) 2011/65/EU for restricted substances (downstream electronics)
    • IEC 62474 for Material Declaration

    Typical usage ratio

    • 2–15 mol% according to purity targets and specific surface modification requirements in polymers or resists

    Downstream process integration

    • Used as a co-monomer or reactive intermediate in the manufacture of specialty fluorinated compounds for electronic and photonic devices

    Final product types

    • Photoresist formulation components
    • Electronic-grade monomers and oligomers
    • Low dielectric fluorinated polymer additives
    • Surface-engineered device coatings

    4. Custom Synthesis of Fluorinated Building Blocks

    Contract R&D labs and specialty chemical firms source dimethyl fluoromalonate for the development of high-value fluorinated synthons and research-grade reference molecules. Its structure permits installation of site-specific fluorine atoms into custom small molecules, key in structure-activity relationship (SAR) or ADME studies. Labs emphasize batch consistency and documentation per customer specifications, often requiring analytical support, full COAs, and sample retention for legal traceability. The raw material enters as a fluoroester foundation, typically in small- to medium-scale, multi-step syntheses, supporting rapidly evolving custom molecule pipelines.

    Industry compliance standards

    • ISO 9001 for batch documentation and traceability
    • REACH (EU) for toxicology declarations (where applicable)
    • OECD GLP for R&D-scale projects subject to regulatory review
    • Internal customer audit protocols

    Typical usage ratio

    • Variable: typically 1–20 mol% depending on the lab-scale protocol and desired degree of fluorination

    Downstream process integration

    • Used in the launch phase of new molecule synthesis; often as a starting point in carbon homologation or functional group elaboration

    Final product types

    • Fluorinated SAR intermediates
    • Custom research compounds
    • Analytical standards
    • Biological probe molecules
    Free Quote

    Competitive Dimethyl Fluoromalonate 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

    Dimethyl Fluoromalonate: A Closer Look from the Manufacturer’s Bench

    The name Dimethyl Fluoromalonate crops up again and again in laboratories and factories pushing the edge of fluorine and malonate chemistry. Out on the floor and in process control, we see this compound in its clear, stable liquid form, bridging the gap between theoretical synthesis and tangible molecules powering medical advances and specialty materials. The product model that leaves our reactors meets precise quality checkpoints—consistently showing purity above 98% by GC, with trace moisture under 0.2%. Each batch, without exception, gets a tight NMR fingerprint and a clean FTIR spectrum. Customers value this quantitative clarity as much as we do in production; those numbers spell confidence when running runs that hold million-dollar payoffs at the end of long reaction trains.

    Having built out our capacity over the past decades, we’ve worked through limitations seen in earlier analogs. Before introducing high-purity Dimethyl Fluoromalonate, the industry coped with legacy malonate intermediates with greater impurity profiles, instability on storage, and unpredictable fluorination efficiency. With our synthesis route and proprietary distillation finishes, the product reaches our warehouse without the odor, color, or haze sometimes present in older commercial samples. Shelf stability, even under ambient warehouse conditions, runs past a year without degradation—giving customers a leeway for planning multi-step routes or scaling up production in downstream applications. This shelf-life edge has given us a leg up in meeting both small pilot runs and large, campaign-scale orders.

    What Dimethyl Fluoromalonate Means for Modern Synthesis

    We focus on delivering what medicinal chemists and process engineers need: safety, precision, and reproducibility. Dimethyl Fluoromalonate stands out for its role as a key building block in the design of novel fluorinated pharmaceuticals and agrochemicals. In our customer network, the drive for innovation often centers on controlling the delicate dance between reactivity and selectivity. The single fluorine atom in this molecule brings benefits—introducing lipophilicity, metabolic resistance, and modulating acidity—in applications where small electronic tweaks shift biological outcomes. During R&D visits, we’ve watched teams convert this molecule by direct alkylation, Michael addition, or cross-coupling, all seeking that Goldilocks balance for compound libraries. In each scenario, our consistently pure compound means researchers spend less time troubleshooting side-products, focusing instead on pushing their synthesis forward.

    Industrial clients in agricultural chemistry have different pressure points. Time-to-market and process cost drag every decision. By using Dimethyl Fluoromalonate instead of non-fluorinated malonates, our customers cut steps in target synthesis, skip rework, and avoid hazardous byproducts tied to older reagents. We’ve seen this play out in pilot plants where downtime matters—if the intermediate runs clean, the whole plant hums. Our internal QA data show lot-to-lot variance kept below 0.5% for assay and less than 1% for major contaminants, freeing customers from unpredictable reactivity or fouled downstream separations.

    Specifications Shaped by the Shop Floor

    Every liter of Dimethyl Fluoromalonate passing through our hands has been subject to the hard lessons of scale-up and routine production. This is not an abstract molecule; it’s a practical tool meant to perform as expected. We target a content range of 98% or greater by weight, with gas chromatography and NMR as direct validation. The balance keeps hydrolytic and thermal instability at bay—giving what chemists often call “white glove” purity, fit even for discovery projects that cannot afford surprises mid-optimization. Moisture content sits below 0.2%, measured by Karl Fischer, so the product survives both air-sensitive manipulations and long-term transport.

    We don’t leave these numbers on a technical sheet buried in paperwork. The shop runs quarterly quality reviews drawn from real-world feedback—batches that stick, leak, or foam are flagged and discussed as actionable cases. The fact that the product resists discoloration or phase separation comes from cumulative experience—we learned early on that minor changes in wash and distillation conditions create headaches months down the timeline. By controlling every step, from reagent sourcing to bottling under nitrogen, we built a version of this intermediate that stores without drama and draws up into syringes, pumps, or transfer lines with no lingering doubts about side-reactions.

    What Sets Dimethyl Fluoromalonate Apart from Other Malonates

    Competition between malonate reagents boils down to how efficiently they deliver reactive functionality while holding the line on cost, safety, and environmental impact. Traditional dimethyl malonate and even difluoro analogs serve as baseline reagents; yet, they lack the unique profile brought by the monofluoro group here. This small fluorine atom has been enough to unlock transformations now feeding into new classes of herbicides and antivirals—molecules that hinge on minute shifts in acidity and nucleophilicity. Over the years, direct customer feedback made clear that swapping between fluoro, difluoro, and non-fluorinated malonates can produce wild swings in reaction times, yields, and waste generation. Dimethyl Fluoromalonate acts as a Goldilocks intermediate: not too mild, not too aggressive.

    As the manufacturer, we tackle the headaches associated with handling. The physical properties are engineered for ease-of-use on the bench and production line. Unlike some of the older supplies produced for limited scale, our process yields a transparent, low-viscosity liquid, with minimal vapor pressure and odor. This matters in operations where exposure controls safeguard workers and where every molecule going into the feedstock counts toward the bottom line. Tracking shipping mishaps, we redesigned our containment to prevent loss during transport—a hard-won lesson from customer returns in remote climates. The chemical stability through standard shipping routes turns what used to be a supply chain hassle into a minor restocking task.

    Downstream Applications and Tangible Benefits

    Customers often call us up not simply to reorder, but to walk through hurdles in their synthesis. Pharmas trying to introduce metabolic blocking, crop science teams chasing a more persistent herbicide, or industrials looking to de-risk chlorination steps—all benefit from the tight reactivity profile Dimethyl Fluoromalonate brings. Take fluorinated drug development: each functional group matters as it shuffles through screening, toxicity, and scale-up. This molecule slips fluorine into frameworks without the notorious hazards of direct fluorination, letting chemists retain full control. For pilot plants seeking to cut cycle times, our product lets them dial in desired substitution, with no waiting for double- or trifluoro analogs with different cost and supply dynamics.

    Beyond human health and food chain protection, the product’s presence enables lightweight materials, stabilizes specialty polymers, and finds its way into fluorinated surface treatment chemistry. We’ve even seen interest from electronics and battery developers, where the precise placement of a single fluorine atom can shift dielectric properties and moisture tolerance. Across these fields, demands share a theme—run after run, you want the same reactivity, the same physical properties, and a paper trail of quality to back it up. Our investment in production analytics and sample archiving isn’t an academic exercise, but a shield against failures that could ripple through to end-user confidence.

    Addressing the Challenges: Sustainability and Safety

    Fluorinated building blocks do not come without scrutiny. Within our own walls, we’re driven to address the regulatory, safety, and sustainability questions tied to such chemistry. Production always rides a line between process intensity and environmental load. Unlike older generations of production, our reactors run closed-loop, with waste catch and neutralization targeting both organic and inorganic fluorides. The attention here means less effluent requiring off-site treatment and less downtime spent managing hazardous consignments. We keep solvent selection and re-use high on the agenda; the difference in annual effluent between our process and standard open-batch methodologies amounts to real tons cut from the waste stream.

    Internally, safety protocols extend beyond regulatory necessity. Monitoring ambient hydrofluoric acid, vapor-phase emissions, and reactor pressure data keeps our team and neighbors safe. Incidents once common—overpressure on fluorination, accidental venting—trend toward zero by aggressive engineering controls. Education matters: we run annual drills and cross-training, ensuring workers understand the behavior of the molecules moving through glass and steel. We’ve rolled out product stewardship for our customers too, working with downstream users to design-in safety, reduce over-storage, and minimize bottling waste after decanting. This active presence all along the chain aims to ensure the benefits of advanced fluorinated chemistries are realized without compromise.

    Supply Chain Stability and Customer Partnership

    Few things erode trust faster than supply interruptions. After market disruptions in the past from abrupt closures, hurricanes, or transport bans, we doubled down on localizing raw materials and stockpiles. Not all malonate suppliers could pivot fast enough as demand patterns shifted; we invested in multiple upstream primary suppliers for key reagents and backup power and storage on site. During tight windows—new drug launches or re-registration efforts—our customers rely on this level of preparedness. We hold inventory in multiple locations to buffer against sudden spikes, and our lead times average under three weeks for most order volumes.

    We see each repeat order not just as business, but as a conversation about needs, roadblocks, and the next step forward. In collaboration with customers developing new fluorinated routes, we often advise tweaks to process that cut waste, improve yields, and simplify isolation. This isn’t just for show; feedback circulates directly into our process improvement team and quality group. Sticking points—batch fouling, off-smells, incompatibilities with uncommon bases—come in through direct calls or field engineer reports. We use this information to refine our process batches and circle back with sample lots, meeting exacting requirements faster than third-party intermediaries.

    R&D and Future Directions: Learning Together

    The needs of today rarely look the same as those five years on. We keep an active development pipeline targeting derivatives of Dimethyl Fluoromalonate with even tighter selectivity, improved safety profiles, and decreased environmental footprint. Our internal R&D team works in tandem with academic and industrial collaborators, probing new applications in sustainable synthesis and diagnostics. As the cost of fluorine sources shifts and regulatory pressure ratchets up, we’re preparing new catalyst systems and more selective fluorination routes, aiming to deliver the same reliability with lower costs and less overhead.

    Laboratory validation, pilot-scale demonstration, and full-scale adoption all hinge on trust built batch by batch. In one project, a partner focused on radiolabeled intermediates came up against low yields and inconsistent purity from generic raw material. Together, we tailored process tanks, adjusted purification steps, and revalidated performance—sharpening the toolset for life sciences research with real world payoffs. Our view remains pragmatic: tomorrow’s product wins come from today’s investment in genuine partnerships, flexing with the complex, shifting regulatory and energy landscape that shapes global chemistry.

    Accountability You Can Measure

    From the loading dock to the boardroom, our commitment runs on transparency and traceability. Each container holds not only premium Dimethyl Fluoromalonate, but a batch-specific testing suite and a direct line to quality assurance. We log every input, cross-check every output, and deliver compliance certifications supporting downstream regulatory filings. This transparency means analysts can track every microgram back to a known batch, a process step, and a technician’s log. Mistakes do not hide in our workflow—it’s a matter of professional pride to spot deviations at the source, correct them, and share findings with stakeholders up and down the value chain.

    We know customers look for not only technical merit but ethical assurance. Our environmental, safety, and labor audits stand open to third-party review. We source raw materials from vetted suppliers focused on responsible mining and refining practices. In a world increasingly shaped by regulatory burden and quickly evolving standards, we invest heavily in earning trust—translating to reliable supply of materials that fit both technical and social conscience.

    Looking Forward: Shared Progress

    Dimethyl Fluoromalonate is more than an entry on a reagent list. Behind every bottle stands a process shaped by decades of hard work, setbacks, and quiet improvements—change made not on paper but in real tanks, in real time, guided by feedback from the people who use the product every day. What earned us repeat business also sharpens our competitive edge: translating customer pain points into process knowledge, and process knowledge into stable, forward-looking supply.

    Drawing on our experience, we see markets for Dimethyl Fluoromalonate evolving—stretching into finer chiral chemistry, materials science, and even clean energy solutions. New hybrid catalysts, enzyme-catalyzed modifications, and modular process lines all create pathways for innovation and growth. Every time a customer pushes the boundaries of what this molecule can do, we consider it a call to adapt, invest, and co-create solutions that line up with the next era in chemical manufacturing.

    The path ahead promises challenge and reward. For those building the pharmaceuticals, agrochemicals, and advanced materials of tomorrow, consistency and expertise at the source make the difference. Every tank, every bottle, every application—each reflects our firm belief that meaningful chemistry springs from rigor, accountability, and long-term partnership. As demand for high-purity, precisely functionalized intermediates rises, our pledge stays the same: delivering what today’s innovators need, with the reliability and insight that only a manufacturer at the heart of the process can offer.