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Dimethyl Hexafluoroglutarate

    • Product Name Dimethyl Hexafluoroglutarate
    • Alias Dimethyl HFG
    • Einecs 607-750-7
    • 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

    288014

    Chemical Name Dimethyl Hexafluoroglutarate
    Molecular Formula C6H6F6O4
    Molecular Weight 258.10 g/mol
    Cas Number 375-02-0
    Appearance Colorless liquid
    Boiling Point 95-97°C at 8 mmHg
    Density 1.489 g/cm3 at 25°C
    Refractive Index 1.340
    Purity Typically >98%
    Solubility Miscible with most organic solvents
    Smiles COC(=O)C(C(C(=O)OC)(F)F)(F)F
    Storage Conditions Store at room temperature, tightly closed

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

    Packing & Storage
    Packing 250 mL amber glass bottle with secure screw cap, labeled with chemical name, CAS number, hazard symbols, and supplier information.
    Shipping Dimethyl Hexafluoroglutarate should be shipped in tightly sealed containers, clearly labeled, and protected from moisture and heat. Transport in compliance with all applicable regulations for hazardous chemicals. Use suitable packaging to prevent leaks or spills, and ensure the shipment is accompanied by appropriate safety documentation and Material Safety Data Sheets (MSDS).
    Storage Dimethyl Hexafluoroglutarate should be stored in a tightly sealed container, away from moisture and incompatible substances, such as strong bases and oxidizing agents. Keep it in a cool, dry, well-ventilated area, preferably in a chemical storage cabinet. Avoid exposure to heat and direct sunlight. Properly label the container and handle with appropriate personal protective equipment (PPE) to minimize risks.
    Application of Dimethyl Hexafluoroglutarate

    Applications of Dimethyl Hexafluoroglutarate in Industrial Manufacturing

    Dimethyl Hexafluoroglutarate serves as a specialized intermediate in several advanced manufacturing sectors. Sourced and processed at industrial scale, its chemical characteristics enable targeted performance benefits in high-precision applications. Below, we detail authentic downstream application scenarios, including regulatory guidelines, formulation guidelines, process stages, and manufactured product types specific to each industry use case.

    1. High-Performance Electronics Solvent Systems

    Electronics manufacturers rely on this material as a precision solvent carrier within advanced photoresist removal and cleaning agents used across semiconductor wafer and microelectronic circuit fabrication. Its low reactivity with sensitive substrates, combined with elevated volatility, contributes to efficient residue clearance in post-etch and stripping procedures. Performance consistency under strict humidity and contamination control conditions supports stable device yields.

    Industry compliance standards

    • SEMI C1 Standard for Chemicals
    • RoHS Directive (2011/65/EU)
    • IEC 62474 (Material Declaration for Electronic Products)
    • JEITA ET-7304 (Chemical Management in Electronics Production)

    Typical usage ratio

    • Used at 2–10% concentration by weight, adjusted according to contaminants’ residue profile, device geometry, and compatibility with other solvent components in the cleaning formulations.

    Downstream process integration

    • Introduced during post-lithography cleaning, residue stripping, and as a component in solvent blends for advanced packaging lines in wafer processing rooms.

    Final product types

    • Photoresist strippers
    • Semiconductor cleaning agents
    • Microelectronic device surface pre-treatment solutions
    • MEMS sensor cleaning solvents

    2. Fluorinated Pharmaceutical Intermediate Manufacturing

    Within the pharmaceutical sector, this compound functions as a building block for the synthesis of complex fluorinated molecules, where its tetrafunctionalized structure enables regioselective introduction of hexafluorinated moieties vital for early-stage drug intermediate production. Its defined purity and controlled impurity profile reduce risk of unknown side products during multistep reaction cascades.

    Industry compliance standards

    • ICH Q7 (GMP for Active Pharmaceutical Ingredients)
    • USP–NF General Chapters (for relevant process solvents and intermediates)
    • EU GMP Part II
    • REACH Regulation (EC 1907/2006, for chemical substance registration and handling)

    Typical usage ratio

    • Added at stoichiometric ratios ranging from 1–1.2 equivalents per reaction step, depending on target intermediate conversion yield and subsequent purification processes.

    Downstream process integration

    • Loaded into synthesis reactors during stepwise construction of API side chains; employed in nucleophilic substitution or coupling reactions for fluorinated active intermediate synthesis.

    Final product types

    • Pharmaceutical fluorinated intermediates
    • Chiral fluorochemicals for drug development
    • Precursor building blocks for specialty APIs

    3. Specialty Polymer Surface Modification

    Producers of high-specification fluoropolymer and polyester materials utilize this raw component for targeted surface modification or grafting to impart enhanced hydrophobic and oleophobic properties. Its molecular symmetry and reactivity allow controlled incorporation onto base resins, enabling production of membranes or films with improved chemical resistance and engineered permeability profiles for critical filtration or packaging.

    Industry compliance standards

    • ISO 10993–18 (Chemical Characterization of Medical Polymer Materials)
    • FDA 21 CFR 177.1390 (for fluoropolymer and polyester components in food contact use)
    • ASTM D543 (Chemical Resistance of Plastics)
    • REACH SVHC Restrictions

    Typical usage ratio

    • Introduced at 0.3–3% by weight of resin, adjusted based on intended degree of surface modification and target barrier property requirements.

    Downstream process integration

    • Reacted or blended into polymerization batch reactors, or applied via solvent impregnation prior to extrusion, followed by curing or orientation steps to achieve uniform distribution in surface layers.

    Final product types

    • Hydrophobic and oleophobic membrane sheets
    • Barrier films for advanced packaging
    • Surface-modified technical fibers used in filtration and protective apparel

    4. Fluorochemical Chromatography Eluent Preparation

    Analytical and industrial-scale chemical producers formulate this compound into eluent and mobile phase compositions specific to fluorinated compound separations by high-performance liquid chromatography (HPLC). The product’s volatility helps minimize system background interference, provides optimal polarity balance, and enhances resolution in reverse-phase HPLC workflows targeting trace fluorochemical analysis or purification.

    Industry compliance standards

    • ISO 17025 (Testing and Calibration Laboratories Accreditation)
    • USP <621> (Chromatography)
    • ICH Q2(R1) (Validation of Analytical Procedures)
    • GLP Guidelines for Chemical Testing

    Typical usage ratio

    • Blended at 10–30% by volume, with concentration optimized through method validation based on column type and fluorochemical retention targets.

    Downstream process integration

    • Added into the binary or ternary solvent mixture during mobile-phase preparation in analytical HPLC or prep-HPLC purification lines for target molecules.

    Final product types

    • HPLC mobile phases used in pharmaceutical and chemical QA/QC labs
    • Preparative chromatographic solvents supplied for purification contracts
    • Custom eluent blends for trace-level fluorochemical analysis

    5. Advanced Battery Electrolyte Additive

    Battery technology developers integrate this raw material as a functional electrolyte additive in high-voltage lithium-ion and lithium-polymer cells. Its fluorinated backbone assists in stabilizing the solid electrolyte interphase (SEI) on electrode surfaces, reducing gas evolution and improving high-rate cycling stability required for automotive and grid storage battery chemistries.

    Industry compliance standards

    • UL 2580 (Battery Safety for Electric Vehicles)
    • IEC 62660–2 (Secondary Lithium Cells for Automotive)
    • IEC 60749–20 (Chemical Testing for Electronic Components)
    • UN Manual of Tests and Criteria (Transport Safety)

    Typical usage ratio

    • Formulated at 0.5–2% by weight of the total electrolyte mass, with precise levels set according to electrode chemistry, cycling regime, and operating temperature requirements.

    Downstream process integration

    • Incorporated into liquid electrolyte blends during mixing in dry rooms, followed by injection into cell housings prior to final assembly and formation cycling.

    Final product types

    • High-voltage lithium-ion battery cells
    • Prismatic and pouch battery modules
    • Battery packs for electric mobility and stationary storage
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    Certification & Compliance
    More Introduction

    Dimethyl Hexafluoroglutarate: A Reliable Choice for Modern Chemistry

    Our Approach to Manufacturing Dimethyl Hexafluoroglutarate

    Working in this field for years, we have seen the way that specialty chemicals set the foundation for innovation in fine chemicals, pharmaceuticals, and material science. Dimethyl hexafluoroglutarate stands out in our lineup because it pushes the edge of reactivity and performance. The unique perfluorinated structure of this molecule brings properties you simply don’t see with traditional glutarates or with other fluorinated esters.

    Through hands-on experience, every batch starts with rigorous raw material screening. Quality at the starting line matters just as much as purity at the finish. We source high-purity hexafluoroglutaric acid and ensure methylating agents show zero interference so that our final product meets the high bar expected in pharmaceutical and electronics synthesis. Our reactor technicians monitor temperature and pressure profiles with close attention, because this esterification is unforgiving with impurities or off-spec conditions. Once produced, our dimethyl hexafluoroglutarate goes through a strict distillation process, which removes any by-products and moisture. Repeated checks confirm clear, colorless liquid with outstanding analytical purity.

    Model and Specifications

    On the practical side, our dimethyl hexafluoroglutarate offers a clear boiling point and a narrow purity window. Over years of feedback from lab and manufacturing partners, we have focused our process to consistently achieve a purity of 99% minimum by GC, and water content typically no greater than 0.05%. The molecular formula C8H8F6O4, with a molecular weight of 286.14, lands exactly where synthetic chemists want it for predictable stoichiometry.

    Volume shipments come in clean, PTFE or fluoropolymer-lined drums, tailored for use in moisture-sensitive spaces, but we also fill small packages for research labs that prioritize traceability and freshness. Direct delivery in our own trucks or through reliable chemical couriers means the product stays within a temperature and handling window that preserves its full specification until you open the seal. We don’t cut corners—no repackaging, no ambiguous origin. Each batch is assigned a lot number that ties directly back to our production records and QC logs.

    Understanding the Value of Perfluorination

    Fluorinated molecules have changed the world of specialty synthesis. In practice, researchers and formulators working on next-generation pharmaceuticals, agrochemicals, and electronics see the value most clearly. Our dimethyl hexafluoroglutarate’s six fluorine atoms give it a rare combination of chemical stability and lipophilicity, without sacrificing reactivity at the ester ends. Compared to non-fluorinated glutarate esters, the hexafluoro analog resists hydrolysis and oxidation, even in aggressive or high-temperature environments. To those working on scale-up or formulation development, these stability margins add real confidence—nobody prefers rerunning failed batches or stopping production lines for off-spec products.

    This molecule finds regular use as an advanced building block, serving as a tailored reagent in the creation of active pharmaceutical ingredients where perfluorinated groups impart significant changes in metabolic pathways or membrane permeability. Over time, it has also found a niche in the development of specialty monomers for high-performance polymers, where the presence of perfluorinated units translates into increased chemical resistance, better dielectric properties, and outstanding weatherability. Its volatility profile and clean analytical background make it especially helpful in multi-step synthetic campaigns that can’t tolerate confusion or ghost peaks.

    Application Stories from the Plant Floor and the Lab

    We hear often from customers about their frustration with variable or low-purity materials disrupting critical research milestones. Several years ago, a development team from a biopharmaceutical company approached us because their previous supplier’s batches of dimethyl hexafluoroglutarate contained persistent, unidentified contaminants. These led to repeated failures in their late-stage process validation runs. Our ability to dial in consistent purity and repeatable profile, batch after batch, eased their troubleshooting. With reliable supply, they finished validation, scaled up, and moved on to commercial production.

    For electronic material makers, who require narrow impurity profiles, we maintain high confidence in trace metals screening, a practice born from extensive in-plant coordination with our own operations team. Electrolyte R&D technologists count on this because they know that even minor ionic contamination could cause far-reaching circuit degradation or unexpected side reactions. By holding our process to stringent standards, we build trust directly with engineers pushing forward the next wave of lithium-ion and solid-state battery technologies.

    One polymer research group routinely uses our product for synthesizing fluorinated block copolymers. Their previous experiences with non-fluorinated analogs revealed rapid thermal degradation and unsatisfactory hydrophobicity in demanding applications, such as fuel-cell membranes and chemical protective coatings. Switching to the perfluorinated ester not only improved high-temperature tolerance but achieved repeatable, robust phase separation in their copolymer blends—something critical for consistent downstream performance.

    Comparing Dimethyl Hexafluoroglutarate with Other Glutarates and Fluorinated Esters

    Those accustomed to working with dimethyl glutarate recognize its ease of transesterification and its utility in carbon-carbon bond formation. Dimethyl hexafluoroglutarate holds the same backbone but replaces all non-carbonyl hydrogens with fluorines. These fluorines act like armor plating, conferring a resistance to nucleophilic attack and limiting unwanted side-reactions. In conventional pharmaceuticals, non-fluorinated glutarates often undergo rapid metabolic breakdown; the perfluorinated version persists, opening the door for slow-release active agents and advanced prodrug designs.

    Researchers who have experimented with trifluoromethylated analogs, such as dimethyl trifluoroglutarate, note that intermediate fluorination only partly adjusts reactivity and physical properties. Only complete fluorine substitution delivers dramatic shifts in boiling point, volatility, and chemical resilience. This enables novel process conditions—more robust purification, simpler formulation, and increased process safety in certain continuous-flow systems—without the trade-offs encountered with partially fluorinated esters.

    Synthetic chemists using methyl perfluoroglutarate as a benchmark standard in mass spectrometry have pointed out fewer fragmentation pathways, yielding sharper signal and cleaner spectra. Compared to longer-chain perfluorinated diesters, dimethyl hexafluoroglutarate offers a sweet spot, balancing volatility for distillation and storage with manageable toxicity handling on the laboratory floor. Its odor profile is sharp but tolerable, and its low vapor pressure reduces evaporative losses in ventilated or open systems.

    Handling and Storage: Real-World Insights

    Having worked on site during plant expansions, we recognize how real-world storage and transfer shape a chemical's reliability in production. Dimethyl hexafluoroglutarate avoids the extremes: it doesn’t gum up transfer lines, doesn’t require constant nitrogen-purge, yet its drying and handling protocols keep it free from the chronic water absorption seen in less protected esters. We recommend tight closure and cool storage, not just as a matter of safety but because even small water ingress can affect batch-to-batch reproducibility for high-spec processes.

    Workers appreciate having a substance that doesn’t corrode gaskets or seals in valves, nor cause catastrophic crusting or decomposition in pump heads. Although it deserves respect and proper PPE for handling, its non-acidic nature and useful boiling range cooperate with standard chemical plant infrastructure. We don’t see the runaway exotherms or corrosive off-gassing that haunted earlier generations of halogenated glutarate esters. In the event of a spill, careful absorption and containment with standard inert material have proven effective, and any waste streams dilute easily for permitted disposal under chemical waste management programs familiar to production managers.

    Supply-Chain Realities and Costing Experience

    From steady manufacturing investments, we have secured a reliable route for precursor acids and fluorinating agents. Too often, specialty chemicals fall victim to market whiplash due to a single-point-of-failure in global sourcing. Through a mix of local partnerships and long-term contracts, we protect our customers from sudden shortages or tenfold price jumps. Our plant’s modular reactor train enables flexible response to rising or shifting demand, something our partners appreciate when running seasonal or short-duration campaigns.

    Our commercial managers work alongside R&D and manufacturing staff, providing detailed usage advice based on actual process experiences and lessons learned over years—not just a spreadsheet analysis. Buyers find reassurance knowing the same product goes into our diverse portfolio and lands on our own plant floors for pilot and scale-up work, not just external contracts. We believe an honest cost structure and clear batch history foster thicker trust than lowball offers or brokered multi-source shipments that no one can trace or vouch for.

    Compliance, Documentation, and Transparency

    Many regulatory agencies over the past decade have asked for increased transparency in chemical supply, especially for perfluorinated compounds. Full documentation, including certificates of analysis and associated quality control records, accompany every shipment. Customers benefit from routine method validation and confirmation, not just a once-a-year audit or snapshot. Several times we have responded to post-delivery queries about trace-impurities, providing original QC data sets that convince compliance officers of our product's reliability. This openness has become a core expectation rather than an awkward afterthought.

    For customers developing regulatory filings, our background in test methods and batch record management allows quick, detailed responses. We keep electronic archives and written logs that chart the full lifecycle of each batch, including retention samples for forensic tracking. Since perfluorinated compounds face increased attention under emerging environmental standards, we work with environmental health and safety officers to keep our process beyond compliance, even as rules evolve and reporting thresholds change. We do not market products into applications or jurisdictions where our technical and regulatory teams lack expertise; integrity in declaration beats a risky short-term sale every time.

    Partnership in Process Scale-Up and Technical Support

    Process chemists know real support means more than supplying a drum or box. Our technical staff have operated inside pilot plants, run kilo-lab trials, and experienced the headaches of fouled reactors or inconsistent product feeds. We share lessons openly, including ways to reduce solvent carryover, minimize hydrolysis, and optimize purification stepwork. In working with new customers, we encourage joint troubleshooting sessions and routinely run parallel benchwork based on customer-supplied samples or blend feeds. Over the years, this hands-on cooperation has supported faster ramp-up and sharper reproducibility during full-scale production trials.

    By prioritizing open communication, we help bridge the knowledge gap between plant operators and research teams. Early dialogue often uncovers straightforward fixes or points out optimization potentials in process conditions, dosing strategy, or intermediate workup. On-site visits for key partners allow detailed troubleshooting, from stuck valves and high-pressure excursions to minor analytical anomalies. We see this commitment not just as a point of pride, but a practical necessity in fast-moving industries where bad batches or downtime ripple many steps downstream.

    Dimethyl Hexafluoroglutarate in Future-Focused Applications

    As industries push environmental boundaries, our product finds growing relevance in cleaner electronic materials, battery electrolytes for next-generation transport, and bioactive molecule synthesis destined for new therapies. The combination of chemical resilience, clean decomposition, and tight production tolerances fits squarely in these demanding sectors. Modern applications increasingly demand trace control of impurities and surety in long-term shelf stability; we rely on feedback from customers at the front edge of these industries to help direct our process improvements.

    In the arena of green chemistry, the perfluorinated backbone offers reduced propensity for side-reactions, minimizing need for hazardous or wasted reagents. Certain collaborative projects now filter through our pilot lines, designing and developing sustainable process routes that take advantage of the hydrolytic stability and volatility controls present in dimethyl hexafluoroglutarate. Success here not only strengthens customer partnerships but also supports our internal sustainability goals, including solvent recovery and reduction of waste by improved yield.

    Moving Beyond the Commodity Approach

    Having relied on the lessons gathered across years of chemical manufacturing, we recognize that in specialty chemistry the word “commodity” rarely applies. Customers come with high standards and unique challenges. Dimethyl hexafluoroglutarate has earned its keep by consistently answering real, technical problems without risking unpredictable downstream behavior. While others may view molecules as simple drop-in replacements or off-the-shelf solutions, the real-world complexity of production, application, and long-term performance says otherwise.

    We take pride not just in delivering a bottle or drum, but in the reliability that comes from end-to-end transparency, solid process knowhow, and genuine long-term relationships both upstream and downstream of our plant. If questions arise—be it about formulation changes, unusual impurity profiles, or process demands—the same chemists and engineers who developed our products back the conversations, not a disconnected sales desk. Trust built on practice and proven consistency has been the heartbeat of our approach with dimethyl hexafluoroglutarate and our broader product line, and it remains the core reason our customers return.