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Diethyl Hexafluoroglutarate

    • Product Name Diethyl Hexafluoroglutarate
    • Alias Perfluoroglutaric acid diethyl ester
    • Einecs 205-835-3
    • 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

    402338

    Chemical Name Diethyl Hexafluoroglutarate
    Molecular Formula C8H8F6O4
    Molecular Weight 282.14 g/mol
    Cas Number 661-97-2
    Appearance Colorless liquid
    Boiling Point 126-128°C at 760 mmHg
    Density 1.432 g/cm3 at 25°C
    Refractive Index 1.341 at 20°C
    Flash Point 49°C (120°F)
    Solubility Insoluble in water
    Smiles CCOC(=O)CC(C(=O)OCC)(F)(F)C(F)(F)F
    Storage Conditions Store in a cool, dry, well-ventilated area away from incompatible substances

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

    Packing & Storage
    Packing Amber glass bottle containing 100 grams of Diethyl Hexafluoroglutarate, sealed with a PTFE-lined cap and safety labeling for hazardous chemicals.
    Shipping Diethyl Hexafluoroglutarate is shipped in tightly sealed containers to prevent leakage and hydrolysis. It is typically transported as a liquid under ambient conditions. Appropriate labeling for hazardous chemicals is required. Storage and shipping must comply with regulations for corrosive and potentially hazardous substances, ensuring protection from moisture and inadvertent release.
    Storage Diethyl Hexafluoroglutarate should be stored in a cool, dry, and well-ventilated area, in tightly sealed containers made of compatible materials. Keep away from heat, open flames, and direct sunlight. Store separately from incompatible substances such as strong acids, bases, or oxidizing agents. Ensure proper labeling, and use secondary containment to prevent leaks or spills. Always follow relevant safety guidelines and regulations.
    Application of Diethyl Hexafluoroglutarate

    Applications of Diethyl Hexafluoroglutarate in Industrial Manufacturing

    As the manufacturer of high-purity Diethyl Hexafluoroglutarate, we supply advanced materials for demanding segments in electronics, fluorinated chemistry, and specialty synthesis. The following applications highlight real, large-scale uses in tightly regulated downstream industries where precision formulation, consistent batch quality, and compliance with global standards are essential.

    1. Electrolyte Component for High-Voltage Lithium-ion Batteries

    Leading lithium-ion battery manufacturers use Diethyl Hexafluoroglutarate as a novel co-solvent and performance additive for advanced electrolyte formulations in EV and stationary energy storage applications. Its high dielectric strength and superior chemical stability contribute to improved cycle life, reduced gas generation, and optimized low-temperature performance, becoming particularly valuable in cells designed for operation above 4.2V. Integration requires careful tuning based on anode and cathode chemistries, targeting efficiency, lifetime, and safety improvements in large-format battery packs.

    Industry compliance standards

    • UN 38.3 (Transport of Lithium Batteries)
    • IEC 62660-2:2023 (Secondary lithium-ion cells for EVs)
    • GB/T 31486-2015 (Chinese battery performance & safety)
    • ISO 9001:2015 (Quality management systems)

    Typical usage ratio

    • Ranged from 2–7% w/w in total electrolyte mass; precise percentage set by battery specification, often determined during pilot-cell testing and subject to performance target balancing volatility and viscosity parameters.

    Downstream process integration

    • Mixed with other electrolyte solvents (e.g., EC, DMC, EMC) and lithium salts (LiPF6) during the wet-process blend, followed by vacuum dehydration before cell assembly in dry rooms.

    Final product types

    • High-energy NMC and LFP lithium-ion battery cells
    • EV battery modules and packs
    • Grid-scale stationary energy storage systems

    2. Monomer in Fluorinated Polymeric Materials

    Our material is increasingly adopted in the specialty polymer sector, especially in synthesizing fluorinated copolymers for use in chemical-resistant coatings, membranes, and high-performance elastomers. Manufacturers value the product’s dual functional groups and fluorine-rich backbone for introducing flexibility, chemical inertness, and thermal stability to the resulting polymer chains. Suitability for custom copolymerization enables production of high-purity resins for industrial protection and separation technologies.

    Industry compliance standards

    • REACH Regulation (EC No. 1907/2006) Annex XVII restrictions
    • ISO 14001:2015 (Environmental management systems)
    • ASTM D3296 (Filament-wound and molded reinforced thermosetting resin pipes)
    • FDA 21 CFR 177.1550 (Polymers for food-contact applications, if applicable)

    Typical usage ratio

    • Monomer ratio generally 5–15 mol% in targeted fluorinated copolymer formulations, adjusted based on desired flexibility, mechanical properties, and solvent resistance required for the final application.

    Downstream process integration

    • Feedstock added directly to the reactor during solution or suspension polymerization, reacting with perfluorinated diols or vinyl ethers under controlled temperature and pressure (typically with radical or ionic initiators).

    Final product types

    • Chemical-resistant coating resins
    • Microfiltration and ultrafiltration membranes
    • High-durability fluorinated elastomer seals and O-rings

    3. Synthesis of Advanced Agrochemical Intermediates

    Producers of advanced agrochemical molecules employ Diethyl Hexafluoroglutarate as a pivotal building block for synthesizing fluorinated herbicide and insecticide intermediates. The compound’s reactivity and electron-withdrawing capacity drive selectivity in multi-step transformations, especially for introducing hexafluorinated moieties into target frameworks. Agrochemical manufacturers rely on source consistency, synthetic grade purity, and upstream documentation to meet strict regulatory filing requirements and pesticide impurity thresholds.

    Industry compliance standards

    • EU Regulation (EC) No. 1107/2009 (Plant protection product approval)
    • US EPA 40 CFR Part 158 (Data requirements for pesticides)
    • ISO 9001:2015 (Process and batch control)
    • China GB 2763-2021 (Maximum residue limits for pesticides in foods)

    Typical usage ratio

    • Usually 0.3–2.5 molar equivalents relative to upstream reactant, exact range set by desired yield, pathway selectivity, and impurity formation in stepwise synthesis.

    Downstream process integration

    • Charged into synthesis reactors as an acylation agent or fluorine source, typically in fully enclosed, GMP-compliant production lines with on-line monitoring and solvent recovery systems.

    Final product types

    • Fluorinated herbicide intermediates (e.g., hexafluorinated acetyl groups)
    • Active ingredient precursors for crop protection products

    4. Specialty Fluorinated Pharmaceuticals Intermediate

    Pharmaceutical research and manufacturing organizations use our chemical in selectively fluorinating complex scaffolds for the development of new APIs—especially those targeting improved metabolic stability and enhanced bioavailability. The material’s precisely controlled hexafluoro substitution assists in tuning physicochemical profiles during medicinal chemistry scale-up. We provide traceable supply and documentation for regulatory dossier submissions and meet strict requirements for repeatability and impurity profiling in GMP-regulated environments.

    Industry compliance standards

    • ICH Q7 (Good Manufacturing Practice Guide for Active Pharmaceutical Ingredients)
    • US FDA 21 CFR Part 211 (cGMP for finished pharmaceuticals)
    • European Pharmacopoeia monographs (Ph. Eur. 11th Edition)
    • SOPs under ISO 13485 (for medical device-linked APIs when relevant)

    Typical usage ratio

    • Applied at 0.1–1.2 molar equivalents in key fluorination steps; proportion defined by the target synthetic pathway, yield optimization, and critical impurity threshold.

    Downstream process integration

    • Introduced during advanced intermediate or final-stage synthesis in controlled GMP suites, under validated cleaning and materials tracking systems with full batch documentation.

    Final product types

    • Fluorinated pharmaceutical intermediates
    • Preclinical and clinical-stage Active Pharmaceutical Ingredients (APIs)
    • Late-stage development compounds for specialty therapeutics
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    Certification & Compliance
    More Introduction

    Introducing Diethyl Hexafluoroglutarate: Direct from the Manufacturer

    A Reliable Solution Born from Hands-On Experience

    As a chemical manufacturer rooted in decades of experience, we have worked closely with the needs of research institutions, fine chemical developers, and innovative materials science teams across the globe. Diethyl Hexafluoroglutarate, with its CAS number 63387-54-8 and a clear structure that sets it apart from traditional diesters, has carved its own place in specialty synthesis and next-generation product development. Our staff handle every part of the process, from raw material inspection to packing and logistics, ensuring consistent quality. We know the effort it takes to guarantee a dependable stream of sensitive chemicals: controlling moisture, preventing contamination, calibrating temperature, and tracking impurities at every batch stage.

    Specifications Tailored for Demanding Labs and Factories

    Our Diethyl Hexafluoroglutarate comes as a colorless, low-viscosity liquid, usually packaged and sealed in fluorinated containers to avoid leaching or reaction with regular plastics, which react with fluorinated esters at trace levels. The purity standards regularly exceed 98% by GC analysis, which speaks to the strict in-house protocols and frequent calibration of equipment. Moisture content runs extremely low, usually below 0.1%, because water traces can interfere with downstream fluorination steps or generate corrosive HF byproducts under some conditions. Each production run undergoes direct testing for trace organic and inorganic fluorides, offering confidence for researchers who rely on consistent NMR profiles or precise reactivity metrics.

    Real-World Usage: Functionality That Drives Innovation

    Customers in polymer science and advanced medical coatings count on this compound for introducing hexafluorinated moieties without carrying unwanted reactive handles or lengthy protecting group chemistry. Unlike standard diesters, which lack fluorinated chains, Hexafluoroglutarate provides a unique mix of hydrophobicity and electron-withdrawing effects. The backbone makes it compatible with a wide selection of initiators and cross-linking catalysts, often used as a key monomer in high-performance, low-surface-energy materials—especially valuable for next-generation non-stick coatings, anti-graffiti formulations, or in barrier films that resist aggressive chemicals or moisture.

    In pharmaceutical synthesis, this compound's real worth shows up as a reagent for building complex fluorinated intermediates. Fluorine modifies molecular behavior: boosting bioavailability, metabolic stability, and changing lipophilicity. Chemists turn to Diethyl Hexafluoroglutarate for introducing C-F bonds at precise sites, where other reagents often lead to over-fluorination or unwanted side products. Its established performance in late-stage functionalization saves time and material, translating into less waste in kilo labs and better selectivity in pilot-scale processes.

    We have watched our partners use this material to streamline routes for agrochemical discovery, where the fluorinated glutarate scaffold opens new ways to modulate molecular hardness and transport properties. The extreme chemical persistence does need careful downstream management, so our technical teams provide regular support and real-world advice, often troubleshooting new synthetic setups or reviewing routes for eco-friendly waste handling.

    Standing Apart: Not Every Diester Delivers the Same Results

    Many customers assume all diesters behave broadly the same, but those on the factory floor—or at the fume hood—know otherwise. Most diethyl glutarates only carry alkyl or aryl groups, missing the robust shielding and reactivity-shaping effect of six fluorine atoms. Diethyl Hexafluoroglutarate offers both strong electron withdrawal and sterically demanding profiles. The result is a higher resistance to nucleophilic attack and the ability to withstand harsher oxidative or acidic environments. In some cases, it unlocks a reactivity window unattainable with hydrogen-only analogs.

    The odorless, nearly inert character of this compound contrasts with trifluoroacetate derivatives, which typically bring along a higher volatility and more persistent, pungent scent. Users appreciate easier handling in poorly ventilated spaces and greater control during scale-up, as higher boiling points offer a safety margin. Our team learned firsthand that what appears a minor difference in laboratory trials can mean drastically improved yield and less downtime when moving to pilot or production scale, especially by reducing side reactions and keeping waste manageable.

    Lessons from Manufacturing: Every Batch Builds on the Last

    What separates consistent chemical supply from inconsistent one comes down to details. In manufacturing Diethyl Hexafluoroglutarate, we source only raw hexafluoroglutaric acid from vetted producers. Fluorination steps require more than just careful addition—temperature gradients, stirring speeds, and feed rates determine not only yield, but the impurity profile of each lot. With experience, our team has found ways to tune these parameters, going beyond merely passing baseline purity and minimizing process variation, reducing formation of byproducts, and keeping total fluoride balance checked batch after batch.

    The work does not end with synthesis. Each container is purged with inert gas to protect the product during transit. Moisture traps and monitoring strips guarantee the product does not pick up water, which could spark hydrolysis or degrade long-term storage quality. Our logistics staff work tightly with regulatory and customs offices, ensuring end users receive material that meets all documentation checkpoints—no delays, no surprises on arrival.

    Through it all, the most consistent feedback we receive from research scientists and development chemists centers on predictability. No one likes sudden viscosity shifts or batch-to-batch reactivity swings. Honest, ongoing communication between our lab chemists and customers allows us to flag possible issues, fix small defects before they balloon, and even adapt packaging or shipping for extreme climates or customs requirements. We have audited and improved every step in this supply chain, because shortcuts at the manufacturing level only lead to frustration later.

    Practical Safety and Environmental Considerations

    Responsibility does not stop at our loading dock. Handling fluorinated intermediates means training and working with facilities to cross-check emergency plans—especially for potential releases or accidental contamination, since even trace spills may persist in the environment. Regulatory agencies keep a close watch on such materials, often requesting disposal and traceability documentation. Instead of simply pushing product out the door, we track waste flows and packaging returns, directly supporting partners who must close the loop on chemical stewardship.

    Our production team invests in solvent recapture systems and batch segregation, limiting cross-contamination risks. Used containers either enter validated cleaning cycles for approved reuse, or get sent for fluorine-neutralization treatment under carefully managed waste contracts—no dumping, no shortcuts. These steps do cost more and require constant oversight, but we see them reflected in repeat contracts and long-term partnerships rather than one-off sales.

    We know from experience that regulations around fluorinated esters keep evolving. Prior cases have shown that the most effective solution always lies in transparency and documentation: offering full batch origin, tracking amounts, and preparing for new regulatory reporting workflows years in advance. This keeps our customers out of regulatory gray zones and lets them move forward in confidence—no guesswork or last-minute compliance scrambles.

    Challenges and Future Directions

    Markets for specialized fluorinated intermediates like Diethyl Hexafluoroglutarate shift rapidly, often driven by new findings in materials science or regulatory shifts around persistent chemicals. We have faced supply squeezes and sudden jumps in raw material costs, usually after changes in international fluorochemical production quotas or shipping regulations. This calls for advance planning, constant audit of supplier reliability, and a commitment to honest pricing—no sudden markups hidden in the fine print.

    Developing greener routes and finding alternatives to legacy solvents remains high on our list. Our R&D crew run parallel pilot lines, exploring safer catalysts and less energy-intensive recrystallization steps for intermediate purification. This helps us reduce waste even when scaling up, and ensures all missed performance or purity targets get flagged before internal release, not after customer complaints pile up. Every improvement we make here translates directly into cleaner labs and less time spent troubleshooting field failures or regulatory nonconformance.

    We talk directly with research groups using this compound in emerging applications—the best lessons always surface from the questions and real-world hurdles they raise. Some teams push solvent-free synthesis using Hexafluoroglutarate, others explore new ionic liquid environments. These collaborations have taught us how sensitive some reactions remain to trace side-products and how tightly each processing step must be controlled, so we adjust our protocols and testing accordingly.

    Supporting Innovation at Every Stage

    Fluorinated intermediates like Diethyl Hexafluoroglutarate may not always grab headlines, but they play a major role in the behind-the-scenes work of chemical innovation. Without consistent, high-purity sources made through reliable hands-on methods, too many research projects stall or fail to reach scale. Our manufacturing journey has been shaped, above all, by staying close to the bench—listening to the everyday pain points, troubleshooting methods alongside our customers, and responding promptly to unusual requests or niche formulation needs.

    We understand the difference between textbook chemistry and the challenges posed by plant-scale operations: heat transfer issues, downtime due to fouled pumps, vapor management headaches. Our production teams field calls at all hours to resolve problems that the specification sheets don’t mention—strange residue, solvent cloudiness, unexpected impurity spikes traced back to variations in feedstock seasons. Only by keeping an open channel with those who actually use the material do we stay ahead and anticipate new requirements or regulatory bottlenecks.

    Lessons from the Past: Shaping Better Practices

    Over the years, rumors have circulated about knockoff diesters: re-labeled, cut with non-fluorinated analogs, or distributed with vague origins. Cutting corners here leads to real-world problems, from failed batch runs to regulatory fines. Our business model has always focused on supplying material made in-house—tracked, tested, and documented. We invite audits, provide full COA with every order, and maintain production logs stretching back years. Such traceability does not just build trust; it shapes the reality on the ground, allowing new discoveries to advance on a reliable foundation, not wishful thinking.

    We keep track of feedback and every claim, large or small. Sometimes these reveal overlooked angles, like small-scale users who need custom bottle sizes or unusual storage methods, or researchers facing uncertainty around new analytical techniques for verifying purity. Our support teams document each solution, and improvements made for one sector often trickle down across all customers.

    Staying Engaged with the Future of Fluorinated Intermediates

    As more industries convert to low-toxicity alternatives and regulated classes expand, the burden will always fall on the producer to ensure materials meet not just minimum legal standards, but real-world performance benchmarks. We continue to invest in real-time analysis technology, digital track-and-trace integration, and training for next-generation synthetic routes—all aimed at helping our partners maintain their edge in a changing market.

    Diethyl Hexafluoroglutarate reflects this approach: a product shaped by field experience, grounded in robust chemistry, and supported by a full-circle commitment to quality, safety, and innovation. Free-flowing communication, technical support, and a willingness to face new problems head on have set the stage for decades of successful relationships—something no datasheet can capture on its own.

    We welcome every new inquiry as a chance to build together, drawing on deep manufacturing experience and a shared commitment to solving real-world problems. Each day at our facility brings fresh challenges, and it is our ongoing partnership with customers—across boundaries of language, sector, and scale—that ensures every batch of Diethyl Hexafluoroglutarate continues to deliver, both in the lab and at scale.