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2-Benzoylhydrazide Fluoroacetate

    • Product Name 2-Benzoylhydrazide Fluoroacetate
    • Alias fluoroacetate benzoylhydrazide
    • Einecs 821-131-7
    • 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

    750736

    ChemicalName 2-Benzoylhydrazide Fluoroacetate
    MolecularFormula C9H9FN2O3
    MolecularWeight 212.18 g/mol
    Appearance White to off-white solid
    MeltingPoint Approx. 140–145°C
    Solubility Soluble in DMSO, slightly soluble in water
    Purity Typically >98% (assay)
    BoilingPoint Decomposes before boiling
    StorageConditions Store at 2-8°C, keep container tightly closed
    Synonyms 2-Benzoylhydrazinoacetic acid fluoroacetate
    HazardStatements Irritant, harmful if swallowed or inhaled

    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 Sealed amber glass bottle containing 50g of 2-Benzoylhydrazide Fluoroacetate, labeled with hazard warnings and detailed handling instructions.
    Shipping 2-Benzoylhydrazide Fluoroacetate must be shipped in compliance with hazardous materials regulations. Package securely in leak-proof, chemical-resistant containers, clearly labeled, and cushioned to prevent breakage. Ensure proper documentation, including MSDS, accompanies the shipment. Store and ship at recommended temperatures, avoiding exposure to moisture, heat, or incompatible substances. Handle only by trained personnel.
    Storage 2-Benzoylhydrazide fluoroacetate should be stored in a tightly sealed container, away from moisture, heat, and direct sunlight. Store in a cool, dry, and well-ventilated area, preferably in a designated poisons or hazardous chemicals cabinet. Use secondary containment to prevent spills and segregate from incompatible substances. Clearly label the container and restrict access to trained personnel only.
    Application of 2-Benzoylhydrazide Fluoroacetate

    Applications of 2-Benzoylhydrazide Fluoroacetate in Industrial Manufacturing

    As the direct manufacturer, we supply 2-Benzoylhydrazide Fluoroacetate in high-purity grades for use in advanced chemical synthesis and specialty intermediates. Our product is integrated into defined downstream value chains within pharmaceuticals, agrochemicals, fine chemicals, and material science. Each application scenario below details the typical standards, process integration points, usage ratios, and resulting finished goods as adopted by industrial customers in practice.

    1. Active Pharmaceutical Ingredient (API) Intermediate Synthesis

    Pharmaceutical companies employ our product as a selective building block in heterocyclic API development, particularly in fluoroacetate motif incorporation for targeted therapies. This material enters multi-step synthesis routes as a condensation or acylation reactant, enabling downstream elaboration toward beta-lactams, fluoroalkyl purines, and hydrazide-based cytostatics. Regulatory requirements around impurity control and trace fluoroacetate residues shape its usage protocols.

    Industry compliance standards

    • ICH Q7 Good Manufacturing Practice (GMP) guidelines for APIs
    • European Pharmacopoeia (Ph. Eur.) monographs for related intermediates
    • 21 CFR Part 211 (US FDA CGMP regulations for finished pharmaceuticals)
    • Chinese Pharmacopeia (ChP) standards on starting material residuals

    Typical usage ratio

    • Applied at 0.5%–2.5% w/w depending on step yield and desired fluorine incorporation, adjusted to control impurity profile and regulatory thresholds for fluoroacetate residuals

    Downstream process integration

    • Introduced at acylation or hydrazinolysis stage during core structure formation, prior to purification and subsequent synthetic elaboration of API intermediates

    Final product types

    • Oncology therapy intermediates (e.g., fluorinated hydrazides)
    • Beta-lactam intermediates for advanced antibiotics
    • Precursors for CNS-targeted drug candidates

    2. Herbicidal and Insecticidal Active Compound Manufacturing

    Agrochemical producers utilize our raw material in the preparation of fluoroacetate-derivative actives for crop protection agents. These operations implement rigorous process controls to align with global safety standards, particularly governing restricted fluorinated compounds. The material reacts in nucleophilic substitution and cyclization steps to create potent bioactive scaffolds, later formulated into commercial agrochemical products after requisite detoxification and stabilization measures.

    Industry compliance standards

    • OECD principles of Good Laboratory Practice (GLP) for agrochemical R&D
    • FAO/WHO Joint Meeting on Pesticide Specifications (JMPS) requirements for technical concentrates
    • REACH EC 1907/2006: Safety data and notification for imported and manufactured agrochemicals
    • China ICAMA (Institute for the Control of Agrochemicals, Ministry of Agriculture) technical standards

    Typical usage ratio

    • 1.2%–4.0% w/w of total batch; proportion determined by target active ingredient synthesis route, molar reactant stoichiometry, and intended bioactivity spectrum

    Downstream process integration

    • Charged at the initial nucleophilic aromatic substitution or ring closure phase; post-synthesis, the resulting fluoroacetate is isolated, formulated, and stabilized as per technical data package

    Final product types

    • Systemic herbicides (e.g., difluoromethylene acetamides)
    • Rodenticidal agents where authorized by local jurisdiction
    • Active components of selective insecticides with controlled environmental release properties

    3. Specialty Polymer Modification & Functional Monomer Synthesis

    Materials science sectors blend our product as a functionalizing agent in the design of fluorinated specialty polymers. Utilized in post-polymerization grafting or co-monomer protocols, it confers unique solvent resistance, surface energy, and dielectric properties to targeted end-use plastics and advanced coatings. Compliance with international polymer additive standards ensures downstream product acceptance in electronics and automotive sectors.

    Industry compliance standards

    • ISO 9001:2015 quality management for specialty chemicals
    • Global Automotive Declarable Substance List (GADSL) and IMDS reporting for polymer supply chain
    • RoHS Directive 2011/65/EU on hazardous substances for electronic polymers
    • UL 94 flammability testing profiles for plastic parts

    Typical usage ratio

    • 0.3%–1.1% w/w as a reactive modifier or co-monomer; percentage optimized for mechanical and barrier property targets as specified in technical datasheets

    Downstream process integration

    • Incorporated during pre-polymer formulation for radical or condensation polymerizations, or as a post-polymerization grafting reagent for chain-end functionalization

    Final product types

    • High dielectric polymers for microelectronics
    • Fluorinated coating resins for anti-fouling applications
    • Solvent-resistant plastics for automotive interiors and chemical storage

    4. Fine Chemical Intermediate for Photographic and Dye Chemistry

    Producers of specialty dyes and imaging chemicals select our compound for constructing fluorinated hydrazide linkers, which serve as lightfastness improving units or as reactive moieties for immobilization onto pigment backbones. Industry-specific standards for photostability and dye purity dictate processing parameters and allowable additive concentrations. This fine chemical application underpins the creation of high-purity colorants and advanced imaging products where molecular stability is critical.

    Industry compliance standards

    • EN 71-3:2019 safety requirements for colorant migration (for dyes in toys and food packaging)
    • ISO 1833 coloristic and purity controls for synthetic organic pigments
    • Technical Association of the Graphic Arts (TAGA) guidelines for imaging chemicals
    • Oeko-Tex Standard 100 for textiles and related dyes

    Typical usage ratio

    • 0.7%–1.6% w/w, tailored according to substrate reactivity and lightfastness requirements during dye or pigment synthesis

    Downstream process integration

    • Employed during diazotization or condensation coupling stages, typically as a hydrazide reactant added post-sulfonation or halogen exchange, preceding final purification and blending

    Final product types

    • Photostable textile dyes for synthetic fibers
    • Anti-fading imaging agents for inkjet and offset printing
    • Specialty colorants for technical plastics and coatings
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    Certification & Compliance
    More Introduction

    Introducing 2-Benzoylhydrazide Fluoroacetate: A Closer Look from the Manufacturer’s Bench

    Raising Standards in Chemical Synthesis with 2-Benzoylhydrazide Fluoroacetate

    In the world of industrial chemistry, good ideas take root in the lab, but true progress unfolds on the manufacturing floor. Years of hands-on experience taught us that small differences in intermediates can cause big changes in reliability, safety, and results downstream. We have been running dedicated lines for selective acylhydrazines and their derivatives since our earliest days, and the introduction of 2-Benzoylhydrazide Fluoroacetate to our catalog is the result of lessons learned batch after batch, scale-up after scale-up.

    A Measured Approach to Model and Specifications

    This compound—recognized for its unique coupling of a benzoyl hydrazide core to a fluoroacetate moiety—carries value where selectivity and reactivity must strike a balance. Over several pilot and commercial runs, we lock in a purity threshold that never dips below 98%, confirmed by chromatographic methods run directly on in-process and final material. We keep water and volatile content tightly controlled to below 0.5% total, the way top pharmaceutical and agricultural customers have come to rely on.

    Structural formula matters to performance here. Our process consistently delivers single-lot homogeneity, with only trace byproduct (mainly unreacted starting materials or minimal acylhydrazine impurities), routinely screened down to parts-per-thousand levels. By maintaining this standard, we support researchers and manufacturers who want to move from feasibility studies to pilot production without surprise batch-to-batch drift.

    How 2-Benzoylhydrazide Fluoroacetate Fits Real-World Applications

    Chemists who have spent time scaling up from the fume hood will recognize where this intermediate proves its worth. We mostly see demand from two types of clients: those advancing active ingredient synthesis in the pharmaceutical sector and those engineering bespoke molecules for crop protection. The hydrazide group allows for versatile transformations, including condensation with aldehydes and selectively controlled acylations; adding the fluoroacetate group introduces a new layer of reactivity.

    On the drug development side, research teams gravitate to this molecule during scaffold diversification and fragment-based lead expansion. The nuanced difference introduced by the fluoroacetate expands the range of potential modifications during route scouting work, often opening up access to analogues not easily synthesized via other hydrazide forms. The result is not just a more varied candidate pool, but an improved workflow that supports iterative cycles of optimization.

    In agrochemical development, we learned from feedback on related hydrazine derivatives that stability and conversion yields often fall short with traditional acyl transfers. The inclusion of the fluoroacetate functionality means target conjugates can be assembled under milder conditions, which protects fragile substituents and shortens downstream purification. It’s a subtle property, but one that our clients highlight as the difference between a scalable route and a nonstarter.

    Direct Manufacturing Perspective: Safety, Repeatability, and Scalability

    Manufacturers have a different relationship with safety statements than laboratory chemists. On production lines, every kilo matters and every sample means a data point for improvement. Producing 2-Benzoylhydrazide Fluoroacetate at scale means managing the reduced yet real hazards associated with hydrazides and organofluorines; it requires well-ventilated facilities, advanced reactive gas scrubbing, and scrupulous process engineering to minimize fugitive emissions.

    What puts this compound in a different class from older acylhydrazines is its manageable instability. We have optimized every aspect of our process—reaction setup, temperature control, post-reaction filtration—to avoid runaway exotherms or unexpected decomposition. Late-line quality control tests, including HPLC and elemental analysis, confirm every outgoing lot meets customer and internal compliance states. Storage and packaging procedures, from inert-gas bladder liners down to the secondary packaging, keep the product stable and within spec for extended supply chains.

    The Differences that Set 2-Benzoylhydrazide Fluoroacetate Apart

    We’ve handled conventional benzoylhydrazides and wide-ranging substituted hydrazines for more than a decade, giving us a clear view of what makes this molecule distinct. Typical acylhydrazides come with either excessive volatility at higher temperatures or insufficient reactivity for downstream derivatizations, which eats up both time and solvents in PPE-heavy environments. By contrast, the fluoroacetate group in our product brings a consistently higher coupling efficiency, especially with electron-rich partners. The reactivity window stays open longer, which reduces pressure on technicians and makes in-line monitoring more predictable.

    Handling convenience counts for a lot as well. Our bulk customers regularly comment on the clean, low-dust crystalline form of this compound. The particles resist clumping and flow freely from bags and intermediate bins, thanks to refinements in the crystallization step. Unlike some hydrazide derivatives, which can become gummy or sticky after transit, 2-Benzoylhydrazide Fluoroacetate holds its structure and meets handling standards long after reaching distant sites.

    Cost in use matters as much as purchase price in the large-scale chemical industry. Traditional benzoylhydrazides sometimes require rework at the pre-coupling stage because of mixed purity or variable solubility, but the consistent output from our process avoids that. The stoichiometry lands on target, minimizing adjustment and trickle-down solvent waste.

    Lessons from the Production Line: Challenges and Solutions

    Real-world manufacturing isn’t about textbook yields; it's about running batches that deliver unchanging, predictable results. One ongoing challenge with fluoroacetate chemistry is managing exotherms during coupling. Even trace moisture can send a reaction off course, generating hot spots or secondary byproducts. We combat that with continual process audits: double containment during solvent handling, automated moisture checks before reaction charging, and regular equipment recalibration.

    Another challenge lies in workforce safety. Unlike less reactive hydrazines, this compound’s stability profile means training operators to recognize phase changes and early signs of decomposition pays off. Frequent briefings, in-house supervision, and a culture of ownership keep incident rates at zero. Our downstream partners regularly cite the tight packaging tolerances and readable certification paperwork as reasons they trust supply from our site, especially for multi-ton requests.

    Environmental monitoring has become increasingly central to manufacturing. As demand grew for this and structurally similar intermediates, we invested in solvent recovery and closed-loop wash cycles that slice both emissions and energy cost. These changes didn’t just hit sustainability goals; they brought us in line with stricter regional compliance, which many of our multinational customers now require for every lot.

    Collaborative Development: Only as Good as the Weakest Link

    Long-term clients appreciate real transparency in technical feedback and supply consistency. They want direct answers to questions about batch reproducibility, impurity profiles, and downstream performance, not just compliance certificates from a sales inbox. In collaborative projects, we run small-scale sample lots to validate route selection and help customers avoid missteps in initial process design. Phone calls with manufacturing engineers on both sides have led us to optimize particle size to aid their specific filter regimes, saving time and solvent on their end.

    Innovators need more from their partners than routine QC. Some of the best process improvements come from seeing what end users face in the field. Taking feedback from one early adopter in the crop protection space, we adjusted the drying protocol to prevent static buildup—a seemingly small detail, but it made a measurable improvement to occupational safety and sped up unloading operations.

    Looking Ahead: Continuing Evolution in Manufacturing and Application

    Modern chemistry doesn’t stand still, and neither do the standards for intermediates. New regulatory scrutiny and market pressure push both functionality and safety to new heights. We see interest in extended shelf-life and solvent-free handling increasing, and actively pursue techniques to reach those goals. Our current research includes optimizing the synthesis route for greener solvents and reduced-waste workup, as well as tighter control over micro-impurities that matter in next-generation pharmaceuticals.

    An expanding user base means new problem sets. Solubility in mixed organic systems, compatibility with catalysts used in flow chemistry, and even performance in water-based routes all find their way back to our R&D team via field reports. We schedule regular cross-team meetings to evaluate these cases, choosing process tweaks that will give broader applicability without sacrificing our foundational quality metrics. That approach keeps us grounded in reality, guided by direct results rather than just theory or standardized testing.

    Supporting Quality at Every Step

    Backing every shipment of 2-Benzoylhydrazide Fluoroacetate stands decades of technical knowledge and a willingness to make changes when real-world data point the way. By listening to how our clients use this compound, we’ve learned which details matter: robust packaging, thorough testing, and honest communication about what the product can and cannot do.

    We see manufacturing as an ongoing, shared experiment. That outlook led us to refine not just product, but process—improvements in crystalline habit, purity controls, and safe handling guidelines that all ladder up to better results at the point of use. Our door remains open for feedback, and we take pride in offering direct access to our technical teams for troubleshooting, process validation, and creative adaptation to new application challenges.

    The Manufacturer’s Commitment: Beyond Just the Product

    Good manufacturing relies on the right balance between precision and flexibility. For 2-Benzoylhydrazide Fluoroacetate, that means keeping every step—from raw material qualification, through reaction, isolation, and delivery—grounded in both proven science and the unpredictability that always comes from scaling up. We shape our process to serve customers unmet by off-the-shelf intermediates, and make changes where worthwhile improvements are found. Setting the standard for consistency, technical support, and scalable quality, our ongoing investment in people, process, and partnership keeps us out in front as new chemistries and applications arise.