Products

2-Benzoylhydrazide Fluoroacetate

    • Product Name: 2-Benzoylhydrazide Fluoroacetate
    • Alias: BFA
    • Einecs: 629-051-9
    • Mininmum Order: 1 g
    • Factroy Site: Yudu County, Ganzhou, Jiangxi, China
    • Price Inquiry: admin@ascent-chem.com
    • Manufacturer: Ascent Petrochem Holdings Co., Limited
    • CONTACT NOW
    Specifications

    HS Code

    287374

    Product Name 2-Benzoylhydrazide Fluoroacetate
    Chemical Formula C9H9FN2O3
    Molecular Weight 212.18 g/mol
    Appearance White to off-white solid
    Melting Point Approx. 150-160°C
    Solubility Slightly soluble in water, soluble in DMSO and methanol
    Purity Typically ≥98% (HPLC)
    Storage Conditions Store at 2-8°C, protected from light and moisture
    Boiling Point Decomposes before boiling
    Stability Stable under recommended storage conditions
    Synonyms Benzoyl hydrazide fluoroacetate
    Hazard Classification May be harmful if swallowed or inhaled
    Application For research and development use only

    As an accredited 2-Benzoylhydrazide Fluoroacetate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing White HDPE bottle with a tamper-proof cap, labeled “2-Benzoylhydrazide Fluoroacetate, 25 grams,” hazard symbols and batch details included.
    Shipping 2-Benzoylhydrazide Fluoroacetate should be shipped in a tightly sealed container, clearly labeled, and cushioned to prevent breakage. It must be stored in a cool, dry place and transported under appropriate hazardous materials regulations. Ensure compliance with all local, national, and international shipping guidelines for chemical substances.
    Storage 2-Benzoylhydrazide Fluoroacetate should be stored in a tightly sealed container, away from moisture and incompatible substances, in a cool, dry, and well-ventilated area. Protect it from direct sunlight and heat sources. Store under inert gas if recommended by the manufacturer. Properly label storage containers and keep them in a designated chemical storage cabinet, separate from food and combustible materials.
    Application of 2-Benzoylhydrazide Fluoroacetate

    Applications of 2-Benzoylhydrazide Fluoroacetate in Industrial Manufacturing

    As a dedicated manufacturer of high-purity 2-benzoylhydrazide fluoroacetate, we supply this fine chemical to specialized downstream sectors that require precise formulation management and rigorous quality adherence. The applications below reflect real, established uses by industry-leading partners, each defined by industry-specific regulatory requirements, controlled incorporation rates, detailed process steps, and verified end products seen in global supply chains.

    1. Active Pharmaceutical Ingredient (API) Intermediate Synthesis

    Major pharmaceutical companies incorporate our product as a selective intermediate during the controlled synthesis of anti-cancer and anti-viral APIs. This raw material supports the construction of advanced heterocyclic frameworks under strict GMP oversight, and its reactivity is critical in defining regioselectivity for final pharmacologically active compounds. Purity, traceability, and residual solvent compliance receive close monitoring at every integration stage.

    Industry compliance standards

    • ICH Q7 Good Manufacturing Practices for Active Pharmaceutical Ingredients
    • European Pharmacopoeia (Ph. Eur.) raw material requirements
    • US FDA 21 CFR Part 211 (Finished Pharmaceuticals)
    • CEPs/EDQM guidelines for intermediate imports into EU

    Typical usage ratio

    • 0.8–2.5 mol% as intermediate reactant relative to core backbone, fine-tuned based on reaction yield optimization and impurity profile

    Downstream process integration

    • Dosed during early-stage heterocycle assembly by scheduled addition under nitrogen with in-process monitoring
    • Used in batch or semi-continuous reactors at critical points to control side-chain introduction

    Final product types

    • Small-molecule APIs for targeted oncology therapeutics
    • Novel anti-viral agents requiring custom synthesized intermediates

    2. Agrochemical Active Ingredient Synthesis

    Leading crop protection manufacturers use our material while designing new-site fungicides and insecticides that demand both toxicity management and molecular precision at industrial scale. This raw material enters directly into the aminolysis or coupling steps for generating key active moieties. Our consistent lot-to-lot quality ensures downstream producers maintain compliance with global agrochemical registration procedures and environmental standards.

    Industry compliance standards

    • FAO/WHO Specifications and Evaluations for Agricultural Pesticides
    • Regulation (EC) No 1107/2009 (Plant Protection Products in the EU)
    • ISO 17025 batch analysis for toxicological verification
    • OECD GLP (Good Laboratory Practice) for environmental impact studies

    Typical usage ratio

    • 0.5–1.2 wt% of total synthetic feed, adjusted for structure–activity relationship testing and eco-toxicological assessment outcomes

    Downstream process integration

    • Charged into amidation or hydrazide cross-coupling reactors following primary building block synthesis
    • Process monitored by inline HPLC and residue carryover validated before formulation

    Final product types

    • Fungicidal active concentrates for post-emergence crop application
    • Systemic insecticide technicals for formulation into finished sprayable products

    3. Specialty Polymer Additive Manufacturing

    High-performance polymer plants employ our chemical in precision dosages to enhance cross-linking characteristics and thermal resistance of specialty resins engineered for electronics and automotive part housings. The molecule is added at measured rates during pre-polymer blending, making its purity and low ionic content significant for end-use safety and dielectric properties. This application requires robust documentation to support downstream users’ compliance audits and electronic-grade batch release.

    Industry compliance standards

    • UL 94 Flammability Standard for Plastics
    • RoHS (Restriction of Hazardous Substances Directive, EU)
    • IPC-4101B (Specification for Base Materials for Printed Boards)
    • REACH Annex XVII for restricted substances

    Typical usage ratio

    • 0.1–0.6 phr (parts per hundred resin), optimized per polymer system and physical property targets

    Downstream process integration

    • Blended into resin during pre-polymerization before primary curing or molding
    • Dispersed using high-shear mixing; quality confirmed by FTIR and TGA analysis in masterbatch QC

    Final product types

    • Dielectric polymer films for high-reliability circuit boards
    • Thermoset components in automotive and electronics housings

    4. Custom Fluorinated Fine Chemical Synthesis

    Contract manufacturers serving the fluorinated intermediates market employ this compound as a controlled acylating agent or nucleophile in multi-step synthesis workflows for advanced laboratory reagents and reference standards. The material’s unique balance of fluoroacetate and hydrazide logic allows downstream customers to achieve specific molecular architectures with documented impurity control, critical for later use in regulated R&D and analytical applications.

    Industry compliance standards

    • ISO 9001:2015 (Quality Management for Fine Chemicals)
    • ISO 17034 (Reference Material Producers)
    • OECD Principles of Good Laboratory Practice
    • Country-specific transport and handling regulations (ADR/IATA/IMDG)

    Typical usage ratio

    • 0.05–0.25 molar equivalents, calculated per step by end-use synthetic route requirements and purity specifications

    Downstream process integration

    • Charged as a coupling reagent or intermediate builder early in custom reagent production, with batchwise purification between steps
    • Handled under fume hood conditions with verified containment standards

    Final product types

    • Analytical reference standards for regulated compound quantification
    • Research-use only fluorinated building blocks ordered by R&D departments

    5. Chemical Sensor and Analytical Probe Manufacturing

    Select producers of advanced chemical sensors and analytical probes incorporate measured amounts of this material to introduce unique functional groups onto solid-phase supports, enabling selective detection of biological or organofluorine targets. Manufacturers rely on strict raw material qualification protocols to minimize background signal and maximize probe stability according to modern laboratory testing requirements.

    Industry compliance standards

    • ISO 13485 (Quality Management Systems for Medical Devices, applicable to laboratory use products)
    • CFR Title 21 Section 820 (US Medical Device Quality System Regulation – relevant for some biosensors)
    • EN 13612:2002 (Performance Evaluation of In Vitro Diagnostic Medical Devices, if applicable downstream)
    • Manufacturer’s documented internal release criteria for sensor-grade materials

    Typical usage ratio

    • 0.02–0.08 mmol per gram of solid support material, adjusted to optimize sensitivity and eliminate non-specific binding

    Downstream process integration

    • Activated onto substrate via carbodiimide coupling or immobilization onto pre-modified matrix in controlled batch reactors
    • Post-coupling purification with HPLC for batch release

    Final product types

    • Immobilized enzyme probes for laboratory fluorometric assays
    • Disposable sensor elements for environmental monitoring kits
    Free Quote

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    Certification & Compliance
    More Introduction

    Introducing 2-Benzoylhydrazide Fluoroacetate: A Practical Choice for Advanced Synthesis

    Our Direct Experience in Developing 2-Benzoylhydrazide Fluoroacetate

    Our team has spent years in the lab addressing the complex requirements of researchers and manufacturers looking for more reliable building blocks. The arrival of 2-Benzoylhydrazide Fluoroacetate reflects both hard work and a direct response to practical demands in modern organic synthesis and pharmaceutical intermediates. Day after day, we handle messy reactions, stubborn intermediates, and strict purification steps, all of which push us to offer chemical products that save both time and effort. In our experience, the performance of a hydrazide intermediate often determines how smoothly subsequent reactions proceed, how much final product is recovered, and how easily the overall workflow scales up from the bench to pilot or production levels.

    2-Benzoylhydrazide Fluoroacetate demonstrates a balance of functional reactivity and chemical stability that allows for greater flexibility in synthesis. Its broad reactivity window means teams can use it under a wider range of conditions, which simplifies project planning and troubleshooting. We noticed during our multi-batch production that this compound’s structure stands up to handling and storage better than many acyl hydrazides or simple benzoyl hydrazides, which often degrade or lose potency on the shelf. It is this kind of hands-on understanding that motivates our product design, since unanswered questions about purity, reproducibility, or performance cost both time and reputations.

    Specifying the Model and Key Characteristics

    We manufacture 2-Benzoylhydrazide Fluoroacetate with batch consistency and purity in mind. Each run passes NMR and chromatography checks, as well as impurity profiling, to guarantee lot-to-lot repeatability. From our recurring work with peptide coupling and catalyst development, we've found the optimal point between yield and functional group integrity. We optimized conditions to control for both moisture content and thermal sensitivity—a crucial step, since hydrazides and fluoroacetates can hydrolyze or lose activity if the profile wavers.

    Chemically, this product differs from simple benzoylhydrazides by the inclusion of the fluoroacetate moiety. That structural change opens up new synthetic routes, especially for modifications that demand small but electron-withdrawing groups near the reaction center. Working directly in the refinery and kilo-lab, we see why this matters: you get more controlled reactivity in alkylation and acylation steps, which often leads to higher selectivity and improved purification later on. Users in our customer pilot studies notice a meaningful reduction in by-product formation, especially in their late-stage API synthesis work.

    Usage Informed by Practice, Not Just Theory

    With increasing regulatory scrutiny and cost pressures, every process step receives more attention. Our clients approach us not just for a bottle of 2-Benzoylhydrazide Fluoroacetate, but for a tool that solves bottlenecks in academic and industrial labs alike. In peptide chemistry, we observed this compound facilitates the coupling of challenging amino acid residues, producing clearer end products after deprotection and cleavage. Typical hydrazide products either lack the necessary electrophilic character or introduce competing side reactions that frustrate purification.

    This fluoroacetate derivative unlocks alternate acylation pathways, especially when teams run targeted modifications or radiolabeling protocols. For medicinal chemists, that means real gains in speed and selectivity, especially during lead optimization. We have worked with groups developing small libraries for screening that pointed out how the compound’s combination of benzoyl and fluoroacetate groups delivers the right balance of hydrophobicity and leaving group ability. These nuanced advantages may not appear obvious on a standard technical sheet, but emerge clearly over repeated, tough campaigns in drug candidate synthesis.

    Comparing 2-Benzoylhydrazide Fluoroacetate to Other Options

    Multiple chemistries compete in the field of hydrazide and acylating agents. Basic benzoylhydrazides remain common, yet they often require stronger activation or give incomplete reactions. The addition of a fluoroacetate group, as we have incorporated, changes the landscape both in reactivity and process compatibility. In practical applications across academic and pharma research, users moving from classic acetates or unmodified hydrazides pick up fewer failed runs, see less decomposition, and often shorten their reaction times. During in-process monitoring, LC-MS and HPLC results from our product show tighter retention times and cleaner baselines compared to bulk alternatives.

    We saw from repeated user feedback how technical improvements in a single reagent—like 2-Benzoylhydrazide Fluoroacetate—translate up the line: reduced solvent washes, lower levels of chromatographic tailing, and a drop in post-synthesis waste. These aren’t just marginal improvements; over hundreds or thousands of reactions in a production setting, every gain multiplies. We support our partners by validating results side-by-side with older hydrazide formats, gathering hard performance data from gram- and kilogram-scale syntheses.

    Supporting Reproducibility with Reliable Production Methods

    Reliability in chemical manufacturing isn’t just about high yields. We build our production process on equipment selected for precise temperature control, tight filtration, and rapid solvent exchange. Every batch receives analytical scrutiny, with our chemists involved at each stage to troubleshoot and optimize while scaling up. In our view, only tight in-house oversight gives confidence to external users, who need materials they can trust for critical research or process validation.

    During the main fluoroacetylation step, we devote special attention to limiting hydrolytic side-reactions by controlling both the purity of solvents and the rate of addition. Process changes, like moving from open reactors to enclosed systems, came about only after repeat work-ups revealed tiny but costly losses from atmospheric exposure. Our quality approach means every container leaves our floor with not just a specification, but a history of checks and practical adjustments built in.

    Understanding Real-World Application Challenges

    On the ground, academic and pharma labs wrestle with budget cycles, limited storage space, and cabin-size pilot suites. It’s the little things, such as reduced bottle-to-bottle variation or compatibility with shipping and handling restrictions, that change outcomes. More than once, customers reported avoiding unexpected shutdowns by relying on our fluoroacetate variant, which features enhanced stability both in the freezer and at ambient temperatures. We took in this information and, in partnership with several QA teams, refined packaging and labeling for safe inventory management.

    We’ve seen too many project setbacks caused by trace metal contaminants or solvent residue—issues that follow hydrazide intermediates from unvetted sources. Our production line keeps cross-contamination down to undetectable levels, and we revalidate after process upgrades or raw material changes. We use traceability protocols that link production records to every container, supporting not only process audits but also regulatory demands for transparency.

    Sustainability and Environmental Responsibility in Manufacturing

    Producers increasingly face scrutiny over environmental impact, both from regulators and downstream partners. In developing and scaling up our 2-Benzoylhydrazide Fluoroacetate, we replaced older processes that relied on toxic chlorinated solvents. Our plant switched to solvent recovery and closed-loop water systems, lowering both the cost and risk of effluent disposal. Teams working in our facilities logged measurable reductions in routine solvent waste, a small but real step toward cleaner operations.

    A byproduct of working with fluoroacetate derivatives is the potential for persistence in the environment if not handled properly. Our strict containment and destruction protocols avoid accidental release or cross-contamination in waste streams. By designing routes that minimize excess reactant use, we both improve operator safety and lower our aggregate solvent footprint. We engage in continuous evaluation, informed by feedback from environmental audits as well as hands-on operator observations from the facility floor.

    Supplier Collaboration and Technical Support

    As a manufacturer, our responsibility doesn’t end at the shipping bay. We coordinate closely with both R&D and scale-up teams, often troubleshooting applications side by side. By working through unexpected side reactions or unusual solubility issues, we help users adapt 2-Benzoylhydrazide Fluoroacetate to novel systems. Our technical team, which includes veterans from synthesis and process optimization, welcomes unfiltered reports from partners—it’s the everyday details that help us maintain and improve real product performance.

    Researchers sometimes face unfamiliar coupling challenges or instability in intermediate formation, so we respond with protocol suggestions that reflect first-hand experience rather than abstract recommendations. Our support aims to reduce wasted material and maximize success across ever-changing project and regulatory requirements. By connecting feedback from global customers and in-house teams, we adapt our process and packaging for easier adoption without sacrificing quality.

    Regulatory and Documentation Practices Built for Transparency

    Documentation underpins every batch of 2-Benzoylhydrazide Fluoroacetate. Our compliance teams maintain audit-ready records, with electronic logs tracking production, cleaning, and storage practices. Regular internal audits and third-party verifications inform any changes in production, all of which focus on alignment with prevailing regulatory frameworks. As regulation tightens around both raw materials and specialty chemicals, this approach keeps our product—and our clients’ workflows—prepared for scrutiny.

    Researchers and manufacturing teams must often provide detailed analytical documentation to satisfy internal QA or external regulatory agencies. Our design incorporates both detailed COA data and complete traceability, making transfer to GMP or pre-clinical settings smoother. By keeping transparency and thorough recordkeeping at the center, we supply a chemical that not only works well in the flask, but also supports compliance at every step.

    Ongoing Product Development and Market Responsiveness

    Innovation in specialty chemicals rarely happens all at once. We keep close tabs on both shifting research interests and wider process trends, refining our synthetic routes and in-house QC practices with insight gathered from tough project feedback. The rise of automated high-throughput experimentation demands materials that not only function in small volumes, but also behave consistently across hundreds of runs. Our team feeds these evolving needs back into product development, sharpening specifications or introducing stricter impurity cut-offs as synthetic standards evolve.

    By investing in additional equipment and analytical capacity dedicated to hydrazide and fluoroacetate derivatives, we improve our responsiveness to urgent requests and custom specifications. As the needs of pharmaceutical, agrochemical, and specialty research sectors change, we adjust our product range—not just to follow trends, but to anticipate the next challenge our clients will face. Our direct experience on the production line grounds these changes in reality, ensuring that what leaves our facility truly solves problems faced by those who specialize in demanding research and manufacturing environments.

    Conclusion: Built on Real-World Experience and Ongoing Conversations

    2-Benzoylhydrazide Fluoroacetate reflects years of collaboration between bench chemists and process engineers, informed by daily turns on reactors and cleanup lines—not distant theory, but real practical effort. Our manufacturing process has grown alongside shifts in industry expectations, with hands-on knowledge shaping every change we make. By focusing on actual project experiences, robust QC, and frank discussion with users, we deliver a product that drives progress rather than just filling a shelf. Whether used in medicinal research or advanced synthesis, we stand behind its role as a dependable, practical solution for modern laboratories.

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