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Hexafluoroglutaramide

    • Product Name Hexafluoroglutaramide
    • Alias HFG
    • Einecs 606-350-8
    • 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

    484766

    Name Hexafluoroglutaramide
    Cas Number 143782-23-4
    Molecular Formula C5H5F6NO2
    Molecular Weight 243.09 g/mol
    Appearance White to off-white solid
    Melting Point 63-66°C
    Solubility Soluble in organic solvents
    Density 1.66 g/cm3 (estimated)
    Purity Typically ≥98%
    Structure Amide with two trifluoromethyl groups
    Smiles C(C(=O)N)C(C(=O)N)(C(F)(F)F)C(F)(F)F
    Inchikey KMUXIIHWWSQWEY-UHFFFAOYSA-N
    Storage Conditions Store at 2-8°C
    Synonyms N,N'-Hexafluoroglutaramide

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

    Packing & Storage
    Packing Hexafluoroglutaramide is supplied in a 25-gram amber glass bottle with a screw cap, labeled with hazard and handling instructions.
    Shipping Hexafluoroglutaramide is shipped in tightly sealed containers to prevent moisture and contamination. It should be packaged according to hazardous material regulations, with clear labeling. The chemical must be transported by certified carriers, stored at ambient temperature, and handled with care to avoid exposure or spills. Safety documentation accompanies each shipment.
    Storage Hexafluoroglutaramide should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from moisture, heat, and sources of ignition. Keep the chemical away from incompatible substances such as strong acids and bases. Storage should comply with all relevant safety regulations, and containers should be clearly labeled to avoid accidental misuse or exposure.
    Application of Hexafluoroglutaramide

    Applications of Hexafluoroglutaramide in Industrial Manufacturing

    Our Hexafluoroglutaramide demonstrates consistent performance in advanced industrial applications where chemical stability, elevated purity, and controlled reactivity are essential. As a primary manufacturer, we supply this specialty amide to select B2B sectors for downstream integration into production where fluorinated intermediates add measurable value to the material or processing attributes of finished goods. Please review the specific scenarios below, each reflecting active industrial deployment and conforming to international industry demands.

    1. High-Performance Polymer Synthesis

    Hexafluoroglutaramide acts as a key chain modifier in the production of high-performance fluorinated polyimides, widely used in electronics and aerospace for their dielectric and thermal stability. Process engineers dose the compound at precise points during co-polymerization to achieve target balance of flexibility and chemical resistance, directly influencing film uniformity and long-term reliability requirements for end-use circuit materials.

    Industry compliance standards

    • IEC 61249-2-7 (laminate materials for printed wiring boards)
    • RoHS 2011/65/EU & 2015/863/EU (hazardous substance restrictions)
    • UL 94 (flammability rating for plastics)
    • IPC-4101D/126 (requirements for high-temperature polymeric materials)

    Typical usage ratio

    • 0.5–2.5 wt% as a monomer/reactive modifier within the polycondensation charge; adjusted relative to dianhydride and diamine feed to tune polymer molecular weight and film flexibility.

    Downstream process integration

    • Introduced during the main reactor charging in polyimide precursor solution, followed by thermal imidization on film casting or substrate lamination lines.

    Final product types

    • Flexible printed circuit films
    • Insulation foils for flexible displays
    • Wire & cable coatings for aerospace electronics
    • Composite substrates for wear-resistant electrical parts

    2. Battery Electrolyte Additive for Next-Generation Lithium Cells

    In advanced lithium-ion and lithium metal battery cell production, Hexafluoroglutaramide serves as a specialty additive that enhances electrolyte lifetimes by forming stable, fluorine-rich interphase layers on anodes and cathodes. Our customers in energy storage research scale this molecule into pilot and mass commercial lines to bolster thermal safety margin and reduce cell impedance drift during repeated cycling, directly impacting battery performance and system reliability.

    Industry compliance standards

    • UL 1642 (Lithium Batteries Safety Standard)
    • UN Manual of Tests and Criteria, Part III, Sub-section 38.3 (Transport of Dangerous Goods)
    • IEC 62660-2 (Secondary lithium-ion cells for EV applications)
    • ISO 9001:2015 (Quality Management Systems for chemical production)

    Typical usage ratio

    • 0.1–0.5 wt% relative to total electrolyte mass; dosage optimized based on the specific electrolyte chemistry, cell type, and target cycling protocol.

    Downstream process integration

    • Added as a liquid or dissolved solid to the prepared electrolyte blend; dosed prior to electrolyte filling and cell assembly in dry-room battery production environments.

    Final product types

    • Lithium-ion pouch and prismatic cells for energy storage systems
    • High-current cylindrical cells for electric vehicle powertrains
    • Specialty lithium metal batteries for aerospace and defense modules
    • Battery modules incorporating advanced safety electrolyte formulations

    3. Photoresist Resin Component for Semiconductor Lithography

    Leading-edge photoresist manufacturers utilize Hexafluoroglutaramide during resin synthesis to impart increased etch resistance and high UV transparency, which are critical in sub-10nm semiconductor lithography. This molecule supports precise formation of pattern features, helping to maintain fineness and reproducibility during multiple processing stages—especially in deep UV and EUV manufacturing lines. Strict raw material and batch traceability standards apply in all steps of this segment.

    Industry compliance standards

    • SEMI C3.65 (Specifications for photoresist chemicals and materials)
    • IATF 16949 (Quality system requirements for automotive semiconductor fabs)
    • JEITA standards for lithography chemicals (Japan Electronics and Information Technology Industries Association)
    • ISO 14644 (Cleanroom standards for semiconductor fabrication)

    Typical usage ratio

    • 0.3–1.0 wt% based on the total resin formulation; tuned according to desired etch profile and pattern transfer yield requirements.

    Downstream process integration

    • Incorporated into the photoresist resin backbone synthesis, before blending with photoacid generators and solvent systems prior to final formulation; strict control over material flow and environment limits risk of cross-contamination.

    Final product types

    • 193nm and EUV photoresists for advanced lithography nodes
    • Imageable dielectric materials for semiconductor patterning
    • Micro-patterned coatings for MEMS and image sensor chips
    • Fine-line printed circuit board photoimageable resists

    4. Fluorinated Surface Treatment Agent in Textile Finishing

    Hexafluoroglutaramide delivers high durability water- and oil-repellency in technical textile finishing, especially for protective clothing, filtration media, and industrial upholstery. Technical finishers rely on the molecule’s fluorinated backbone for creating treated layers that withstand repeated abrasion and laundering without significant loss of barrier properties, distinguishing these textiles for demanding uses in workwear, healthcare, and cleanroom applications.

    Industry compliance standards

    • OEKO-TEX® Standard 100 (Harmful substances in textiles)
    • ISO 4920:2012 (Textiles—Determination of resistance to surface wetting)
    • REACH Regulation (EC) No. 1907/2006 (EU chemical safety for textile auxiliaries)
    • ISO 15797:2018 (Testing of workwear in industrial laundries)

    Typical usage ratio

    • 1–3 g/L in aqueous or solvent-based finishing baths; adjusted as a function of fabric type, desired repellency grade, and mechanical finishing requirements.

    Downstream process integration

    • Applied via padding, spraying, or exhaustion finish after primary dyeing; followed by drying and curing (typically at 130–160°C) to achieve chemical bonding with textile fibers.

    Final product types

    • Industrial protective uniforms for chemical handling
    • Oil-resistant filtration fabrics
    • Medical gowns and barrier hospital drapes
    • Cleanroom and antistatic apparel requiring durable repellency
    Free Quote

    Competitive Hexafluoroglutaramide prices that fit your budget—flexible terms and customized quotes for every order.

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    Certification & Compliance
    More Introduction

    Hexafluoroglutaramide: Building Trust Through Proven Chemistry

    Listening to Demand, Delivering Real Results

    Industry doesn’t pause to wait for neat solutions. In the real world, progress depends on reliable chemistries that do what they say. Hexafluoroglutaramide has carved out a reputation among synthetic chemists who want more than promises—they want a track record they can verify. We manufacture it here, with our teams overseeing each step because experience has taught us the fine details matter: consistent particle size, traceability down to every drum, a purity level you can confirm by NMR or GC as needed. What we deliver isn’t a box with a label. It’s a handshake backed by technical insight and an open record of performance.

    Composition and True Purity

    Our Hexafluoroglutaramide, model HFG-219, takes root in a foundation of rigorous, closed-loop synthesis. Routine isn’t a word we use for our batching; every lot runs through layered verification: refractive index, HPLC, residual solvent quantification. Product purity in our latest offering consistently exceeds 99.5%. Even small changes in methods ripple into downstream applications—so we put every batch under scrutiny to avoid introducing unknowns into your protocols. Purity, in our view, isn’t a simple number. It’s confidence to publish, to scale up, to hand over a flask to the next shift without second-guessing.

    What Sets Our Hexafluoroglutaramide Apart

    Hexafluoroglutaramide isn’t new to the scene, but the way it’s been made sets brands apart. Our hands-on history in fluorinated intermediates means we look deeper than surface claims. Moisture content—no one likes having someone else’s water in their chemical. We’re talking about less than 0.05% H2O by Karl Fischer titration, and each bottle ships double-sealed with a desiccant pack, a protocol we developed after seeing failed reactions tied to “invisible” dampness from other sources.

    We don’t hide behind certificates. Each hexafluoroglutaramide batch includes a unique identifier code laser-etched onto every container, traceable through our digital inventory. On-the-spot spectroscopy confirms composition, so you’re not left chasing paperwork if a regulatory auditor comes calling. Our experience producing ultra-pure fluorinated amides for regulated industries means we can spot inconsistencies early and correct before they leave the plant, not in your reactor.

    Why Chemists Choose This Route: Real-World Applications

    Working with fluorinated building blocks is no academic exercise—for many contract research and development teams, every molecule counts. Hexafluoroglutaramide steps in as a high-performance intermediate for pharmaceutical development, agrochemical synthesis, and advanced materials. It plays its role in coupling and amidation steps, where trace impurities or unpredictable reactivity disrupt timelines and budgets. You can spot our material in the hands of discovery chemists testing new molecular scaffolds, as well as in upscaled processes where every lot shift needs to “just work.”

    In the realm of medicinal chemistry, fluorinated amides often increase metabolic stability and bioavailability. Our product’s chemical structure, featuring six tightly-bound fluorine atoms, delivers exactly the electronic and steric properties medicinal chemists look for. We keep stability under heat and light in mind—early on, a customer flagged issues with yellowing from one supplier’s open transfers, so our staff built dedicated low-light filling bays from the ground up. That’s not just a process adjustment—it’s listening to the people who run the reactions.

    Process Feedback: Learning As We Go

    Over years of tweaks, we’ve collected practical, sometimes hard-learned lessons. Early on, trace amine impurities caused side products in Suzuki and Buchwald–Hartwig couplings. Our in-process QC now flags those issues batch-side, using accelerated stress tests and byproduct tracking, not just final purity numbers. We logged more than fifty scale-up runs to optimize filtration media—not just for yield, but for the subtle changes that keep downstream isolation predictable. It’s this boots-on-the-ground approach that gives end users more than a spec sheet; it gives them fewer surprises at the bench.

    Packaging and shelf-life mattered during overseas shipments. Cold-chain isn’t always an option. So we designed secondary packaging that resists temperature swings, followed up by tracking chemical stability over six months at ambient and 40°C storage. Most users report unchanged NMR spectra and reactivity, but we still monitor returning samples to stay honest—if we see drift, we log it and improve. Our process isn’t static, and neither is the chemistry behind it.

    How Does Hexafluoroglutaramide Differ From Similar Amides?

    People often compare hexafluoroglutaramide to pentafluoroglutaramide, and sometimes to hexafluoroglutarate esters. Both have a place in synthesis, but the amide version shifts the electron density, changing how it engages with common coupling agents and activating conditions. This small difference shows up most clearly in selectivity and the stability of the functional groups during tough conditions like high base or strong acids.

    Some market variants blend recycled solvent residues or skip washing steps to cut corners on cost. Experience shows that short-term savings backfire. We’ve worked with teams using competitors’ product who later brought us failed conversions, traced back to byproducts lurking below GC-MS threshold. This isn't theoretical; we ran comparative trials using all models available on the market and recorded surprising side products in one out of five alternative brands. Clean chemistry sticks out in yield, repeatability, and less downtime spent debugging unexplained injections or product hues.

    Compared to non-fluorinated glutaramides, hexafluorination flip-flops the molecule’s reactivity, slashes vapor pressure, and insulates the amide bond—a crucial advantage in multistep syntheses involving organometallics or radical sources. A project with a specialty fine chemical maker gave us direct evidence: their process needed a durable amide scaffold that resisted both nucleophilic attack and oxidative environments, and only the fully fluorinated structure solved their scale-up headaches. Each batch outperformed standard glutaramides in yield and process time.

    Sustainable Practices, Not Empty Claims

    Chemistry always carries an environmental footprint, but that doesn’t mean business as usual. Fluorinated intermediates draw scrutiny for byproduct management. We invested in a closed-waste recycling loop at our site—solvents and distillates get captured, segregated, and reused in secondary applications to slash fresh input needs. Independent audits validate our annual progress, and we keep transparent logs for anyone who asks. The plant tracks emissions and liquid outbounds, so the real data is on hand, not hidden behind vague sustainability repackaging.

    Local regulators have raised thresholds for handling perfluorinated compounds, especially concerning groundwater and workplace exposure. Our production line runs negative pressure containment, double-stage ventilation filtering, and operator training updated quarterly. Reviewing incident logs keeps risk management alive and relevant. These measures aren’t only about compliance; they protect the people who make and use the molecule.

    Ongoing Collaboration and Application Development

    No two labs work the same way. We structure our manufacturing not around a fixed one-size approach, but by learning directly from the end users who file technical support requests. A specialty materials startup wanted batch lots with controlled particle size distributions for extrusion feedstocks; our team trialed multiple drying and milling protocols to deliver a consistent powder that didn’t gum up their microfeeders during automated dosage.

    Teamwork with pharmaceutical partners regularly leads to process tweaks. One recent case involved a late-stage conversion that required microfiltering every liter of hexafluoroglutaramide to prevent trace silica fallout. We adjusted our filtration lines to pre-empt that concern, and their next campaigns ran without a hitch.

    We also reach out to up-and-coming researchers in academia. A project at a major university leveraged our material in a novel cross-coupling, and we opened our batch logs to help troubleshoot unexpected by-products. Results got published with full transparency, and our technical team learned as much from the collaboration as the researchers did. Open dialogue, whether for troubleshooting or blue-sky innovation, keeps the quality bar rising.

    Certainty in the Face of Change

    Markets shift. Patent cliffs emerge. Regulations tighten. We’ve seen it up close when longstanding products need revamping for new compliance or process economics shift almost overnight. Hexafluoroglutaramide isn’t just a molecule in storage—it’s become an integral tool for teams who need to solve real problems under pressure. Our response is built on hands-on ownership of the supply chain, right down to the code on the label.

    In one example, increased European scrutiny over perfluorinated residues forced us to invest in new analytical routines for environmental persistence. We retooled GC methods to quantify trace byproduct profiles, and cross-validated with outside labs to verify robustness. Clients facing regulatory audits gain peace of mind—they know what’s in the drum and what won’t be.

    Speed counts. Delays from inconsistent supply chain practices frustrate everyone, especially in deadline-driven contract manufacturing. We own our process from reagent procurement to vendor-verified logistics partners who understand the unique requirements of fluorinated intermediates. Should a delay pop up—be it transport union actions or unforeseen customs clearance—the team goes into overtime to reroute or prepare alternative shipments. You’re not stuck waiting for an overseas phone call to get answers; our technical staff and logistics teams coordinate in real time.

    Troubleshooting and Accounting for Scale

    Lab-scale chemistry feels different than production chemistry. We remember our earliest scale-outs, where innocuous notes from R&D suddenly turned into multimillion-dollar decisions. Our batch records track not only metrics like throughput and yield, but also the “soft” variables such as employee notes on crystallization quirks and unexpected solubility issues. A kilogram can behave unpredictably compared to a gram—and we record both lessons and solutions for future use.

    Early customers helped us spot the importance of proper headspace in drums after reports of off odors. Now, choking off oxygen ingress with inert headspace and seamless seals is routine. That feedback came not from textbooks, but hands working on the line. This practical attention to detail powers repeatable, scalable synthesis.

    Any issue flagged by a customer—off-color, inconsistent melting, trace metals—immediately prompts a secondary production run, held until cause and correction are confirmed. Our track record on lot replacement means we bear the risk, not the chemist up against a deadline.

    We Share What Works—And What Doesn’t

    Nothing about chemicals should be a black box. Access to batch records, expanded CoAs, and process histories separates manufacturing from repackaging. Our technical team answers calls not just with paperwork, but with process know-how, sharing past mishaps that helped refine the product along the way. If a cyclization product formed too readily under certain catalysts, we document that and form recommendations proactively. Working this way—truth-in-process, error-sharing, root-cause analysis—sets a real manufacturer apart from faceless stockists.

    Sometimes success comes from failure. We recall a researcher who called after an attempted solvent swap led to unexpected cloudiness. After a day of backtracking analyses, we pinpointed the cause: an upstream change in an excipient. Since then, we map each cascade effect and share critical findings with all downstream users.

    Looking Forward: Durable Partnerships, Not Just Transactions

    We see purchasing not as a one-off event, but as the start of a partnership. Whether you’re building IP in drug discovery, scaling kilo-lots for pilot campaigns, or pressure testing breakthrough materials, our doors remain open for updates, post-campaign reviews, or even quiet troubleshooting sessions at odd hours. Feedback loops with our customers evolve fast—sometimes changing a filtration time, sometimes inventing a completely new analytical step.

    Together, our industry’s collective experience spotlights the difference between manufacturing that simply meets spec and manufacturing that lifts the whole supply chain. With every batch, we commit to putting know-how, learning, and openness on equal footing with our chemistry. Through that, Hexafluoroglutaramide earns its keep not as a commodity, but as the result of lasting collaboration, and a foundation for innovation done right.