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3-Fluorobenzhydrazide

    • Product Name 3-Fluorobenzhydrazide
    • Alias MFH
    • Einecs 728-19-6
    • 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

    372913

    Productname 3-Fluorobenzhydrazide
    Casnumber 456-55-3
    Molecularformula C7H7FN2O
    Molecularweight 154.14
    Appearance White to off-white solid
    Meltingpoint 133-135 °C
    Boilingpoint No data available
    Solubility Soluble in DMSO and methanol
    Density No data available
    Purity Typically ≥98%
    Smiles C1=CC(=CC(=C1)F)C(=O)NN
    Inchi InChI=1S/C7H7FN2O/c8-6-3-1-2-5(4-6)7(11)10-9/h1-4,10H,9H2
    Refractiveindex No data available

    As an accredited 3-Fluorobenzhydrazide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing The 25g bottle of 3-Fluorobenzhydrazide comes in a sealed amber glass container with a screw cap and hazard labeling.
    Shipping 3-Fluorobenzhydrazide is shipped in tightly sealed containers, protected from light, moisture, and incompatible substances. Packaging complies with regulatory standards for hazardous chemicals. During transport, suitable labeling and documentation are ensured. Handling guidelines advise use of personal protective equipment and storage in a cool, dry place away from sources of ignition and oxidizing agents.
    Storage **3-Fluorobenzhydrazide** should be stored in a tightly closed container, in a cool, dry, well-ventilated area away from sources of ignition, acids, and oxidizing agents. Protect from moisture and light to prevent decomposition. Use proper chemical storage protocols and label clearly. Store at room temperature unless otherwise specified by the manufacturer’s guidelines or Material Safety Data Sheet (MSDS).
    Application of 3-Fluorobenzhydrazide

    Applications of 3-Fluorobenzhydrazide in Industrial Manufacturing

    3-Fluorobenzhydrazide plays a specialized role in the synthesis of complex organic molecules, serving as a key intermediate for several chemical manufacturing sectors. The following segments highlight its established downstream applications, including application-specific parameters related to compliance, formulation, processing, and resulting product categories.

    1. Pharmaceutical Intermediate for Active Pharmaceutical Ingredient (API) Synthesis

    Pharmaceutical manufacturers incorporate 3-fluorobenzhydrazide as a critical building block in condensed heterocyclic API synthesis, especially within certain anticancer, anti-inflammatory, and CNS-active drug candidates. This compound enters the medicinal chemistry pipeline during hydrazide condensation or ring-closing steps, serving as a nucleophile or amide precursor for fluorinated active molecules. Laboratory and GMP facilities control batch formulation to ensure reproducibility and purity throughout scale-up from pilot to commercial lots.

    Industry compliance standards

    • ICH Q7 Good Manufacturing Practice Guide for Active Pharmaceutical Ingredients
    • USP/NF monograph guidelines (for reference standard handling)
    • EU GMP Volume 4
    • 21 CFR Parts 210/211

    Typical usage ratio

    • Formulators adjust loading from 0.15 molar equivalents to stoichiometric amounts depending on target scaffold complexity. Most process chemistry steps range 0.2–1.0 equivalents relative to starting aldehyde or acid component.

    Downstream process integration

    • Material enters the multi-step reaction scheme after initial halogenated benzaldehyde protection, proceeding through hydrazinolysis or condensation to yield functionalized API intermediates. It integrates prior to final ring closure or direct amidation, typically before purification by recrystallization or column chromatography.

    Final product types

    • Purified API intermediates for oral, injectable, or inhaled finished dosage forms
    • Reference standards for regulated pharmaceutical research
    • Building blocks for custom medicinal chemistry compound libraries

    2. Agrochemical Synthesis: Herbicide and Fungicide Precursors

    Downstream producers in the crop protection sector rely on 3-fluorobenzhydrazide as a core intermediate during synthesis of selective herbicidal and fungicidal actives containing hydrazide or fluoroaromatic motifs. The compound’s functional groups allow precise control over binding and degradation profiles in agrochemical actives. Quality control ensures conformity with major residue and safety regulations applicable to agricultural chemical production.

    Industry compliance standards

    • FAO/WHO Specifications for Plant Protection Products
    • EPA 40 CFR Part 158 (Pesticide Registration Data Requirements)
    • OECD Good Laboratory Practice (GLP)
    • REACH Annex XVII (hazardous chemical usage restrictions)

    Typical usage ratio

    • Formulators dose at 0.1–0.6 molar equivalents in precursor steps, depending on actives’ structural requirements and downstream synthetic yield optimization.

    Downstream process integration

    • Mainly combined with chloroacetyl or heterocyclic reactants during early-stage ingredient fabrication, then reacted via hydrazinolysis or amidation to yield the hydrazide core of the final active. Post-reaction, intermediates undergo solvent extraction and solid-phase purification.

    Final product types

    • Technical-grade herbicide and fungicide actives (bulk powder or concentrate)
    • Pre-formulation intermediates for granule and emulsifiable concentrate manufacturing

    3. Specialty Dye Intermediate for Textile and Ink Industries

    Manufacturers in the specialty colorant sector employ 3-fluorobenzhydrazide to synthesize azo and hydrazone dyes for high-value textile and printing applications. Its controlled reactivity enables formation of unique chromophores with improved fastness and shade stability, optimizing performance in demanding dye-fiber and ink-pigment systems. Dye houses and ink producers process at accurate stoichiometries and conform to toxicity and migration standards required for certified colorants.

    Industry compliance standards

    • OEKO-TEX® Standard 100
    • EN 71-3 (Safety of Toys – Migration of Certain Elements)
    • REACH Regulation Annex XVII & XIV
    • ISO 105 (Textiles—Tests for Colour Fastness)

    Typical usage ratio

    • Reacts at a controlled range of 0.8–1.2 molar equivalents with diazonium salts during dye coupling, fine-tuned for target shade depth and yield efficiency.

    Downstream process integration

    • Incorporated during the coupling reaction between the diazo component and the hydrazide, defining the base dye structure. Followed by purification, salting, and granulation for stabilized powder or liquid formulations.

    Final product types

    • Textile reactive dyes for polyester and polyamide fibers
    • Jet and screen printing inks for graphics and packaging
    • Colorant intermediates for specialty pigment production

    4. Chemical Research: Fluorinated Building Blocks for Fine Chemicals

    Institutes and contract research organizations use 3-fluorobenzhydrazide as a tailored input for constructing novel fluorinated heterocycles and acylhydrazide moieties in advanced material and fine chemical development. Researchers select this compound to drive exploratory synthesis, route scouting, and structure–activity relationship studies in both small molecule and polymer settings, maintaining traceability under laboratory chemical management systems.

    Industry compliance standards

    • ISO/IEC 17025 (Testing and Calibration Laboratories)
    • GLP (Good Laboratory Practice, OECD)
    • Company-specific quality management (ISO 9001)

    Typical usage ratio

    • Synthesists vary input from 0.5–1.5 molar equivalents as dictated by experimental design, reaction screening, or combinatorial chemistry requirements.

    Downstream process integration

    • Added directly to reaction flasks during hydrazide condensations, cyclizations, or amidation protocols. Precedes chromatographic isolation and full compound characterization.

    Final product types

    • Custom fluorinated small molecules for early-stage R&D
    • Functionalized intermediates for advanced material synthesis
    • Reference compounds for analytical and QC method development
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    Certification & Compliance
    More Introduction

    3-Fluorobenzhydrazide: Applying Decades of Synthesis Experience

    Our team at the plant knows the subtle chemistry behind 3-Fluorobenzhydrazide from years of handling substituted hydrazide compounds. We make the 3-fluoro derivative in batches that start from high-purity 3-fluorobenzoyl chloride, always selecting upstream raw materials from facilities that deliver consistent analysis reports. The model we supply—manufactured in white crystalline form—demonstrates what hands-on attention can achieve in a fine chemical. Consistency in particle size, controlled melting point, and a tightly monitored moisture content matter every step of the way. Every technician who walks through synthesis, filtration, and drying stations carries a sense of responsibility rooted in personal and collective pride.

    Commitment to Specifications

    Several years ago, a customer told us in detail about difficulties with hydrazide derivatives: batch-to-batch variations, recurring clumping, and out-of-range impurity levels. That feedback led us to design the quality checks which keep our 3-Fluorobenzhydrazide in line with the published chemical structure (C7H7FN2O). One technician manages the process by monitoring melting point, HPLC purity, and loss on drying at regular intervals. No shipment leaves our building before HPLC results confirm a single, clean major peak. We work with a melting-point range routinely verified at 151-154°C, matching the reference value with every batch. A water content below 0.5% ensures reliable downstream reactions, as excess moisture risks side-product formation or loss of activity in hydrazinolysis steps.

    Applications in Fine Chemical Synthesis

    In the plant’s lab, we see researchers from pharmaceutical and agrochemical companies who rely on this compound for its role as an intermediate. Applications often start with the need for a structurally reliable fluoroarene with hydrazide functionality. 3-Fluorobenzhydrazide forms the hydrazone scaffold for heterocyclic synthesis, targets fluorine-based SAR studies, and creates linkers for pharmaceutical intermediates. From our experience supplying both kilogram and multi-hundred-kilogram lots, the reactivity of the 3-fluoro substituent offers tangible benefits: increased metabolic stability and unique binding affinity in medicinal compounds. Laboratory teams from R&D units—especially in generic drug development—favor this building block when planning hydrazine couplings because the ortho- and para-fluoro isomers show lower yields and less predictable behaviors.

    Our personal involvement with scale-up also highlights the compound’s specific performance under process conditions. Mid-scale reactors must account for exothermicity during acid chloride addition, and the filtration times can double if the starting material fails to meet our solubility specs. The upside of steady quality means fewer shutdowns—crucial for time-sensitive campaigns. Reproducibility saves money. Chemists expect the solid to dissolve consistently in polar organic solvents, providing quick conversions and reducing the probability of side reactions. We hear back each quarter from clients who use the hydrazide as an intermediate for pyrazoles, triazoles, and a range of active ingredient syntheses.

    Distinct Advantages Versus Other Hydrazides

    Every chemist who has handled plain benzhydrazide knows the improvements that a single fluorine atom brings. By making the substitution at the 3-position, our 3-Fluorobenzhydrazide outperforms non-fluorinated analogues and other regioisomers. The 3-fluoro ring calls for a change in electronic properties, often allowing better selectivity in downstream transformations such as electrophilic aromatic substitutions. We maintain trace-impurity profiles that differentiate our offering: HPLC screening eliminates isomers and intimately related byproducts, so there’s no cross-talk that would complicate pharmaceutical registrations or final product claims.

    Clients point out that meta-fluorination avoids challenges with ortho substitution. In our own piloting runs, para-fluorobenzhydrazide repeatedly struggled with solubility during scale-up, causing filter blockages and reduced throughput. The meta isomer solves that issue and reduces the risk of unwanted side reactivity during cyclizations. Furthermore, when developing final active pharmaceutical ingredient (API) processes, 3-Fluorobenzhydrazide gives more stable downstream intermediates. Fewer false positives appear in HPLC purities, leading to easier regulatory audits and fewer recalls.

    We stand behind our record because time has shown that not all hydrazide sources are equal. We’ve seen synthetic delays caused by unknown fillers, off-white solids, and inconsistent particle distribution from less demanding producers. By tracking every lot through internally managed records and random sample checks, every kilogram shipped from our facility fits strict standards—an outcome only direct manufacturers who fully control their process can guarantee.

    Ensuring Traceability and Building Relationships

    Every inquiry reaching our team starts with a real question: does our process align with your needs? We show certificates of analysis for each batch, stored in our database for ten years, traceable to raw material receipts and in-house testing logs. Audits by long-term pharmaceutical partners routinely highlight the traceability chain we provide. An engineer walks through the timeline—from raw material receipt to post-production packaging—and our technicians can answer where every sample came from, what equipment touched the batch, and when the sample drew its QA signature.

    Chemicals meant for critical roles demand honesty and transparency. We encourage visiting inspection teams to walk through every station of our facility so no question gets left unanswered. Every time a customer needs documentation to support registration for an API or a new agrochemical, the full paper-trail lies ready to review. Our recordkeeping stems from years of feedback from regulatory bodies, each note or suggestion memorialized in SOP improvements. This ongoing process improves internal training and pushes us to amend what could go wrong before it happens.

    Reliable Logistics for Global Supply

    Our logistics arm collaborates with regulators to guarantee on-schedule delivery, without delays at customs or regulatory checks. Shipments reach customers in secure, tamper-sealed containers, with externally certified SDS and analysis paperwork in the language needed. We learn from every shipping challenge: once, a delayed customs clearance exposed packaging issues that led us to redesign drums and pails for better stacking, leakproof sealing, and easier barcode tracking. This experience ensures that whether the order sails by air or sea, the compound arrives ready for use—intact, safe, and reputationally protected.

    Meeting deadlines is only one part of reliability. Customers dealing with pilot plant scale-ups, regulatory filings, or clinical supplies cannot risk substandard input. That’s why our batch records, carrier logs, and temperature monitoring procedures capture every step from drum filling to warehouse crane lift-off. Every documented deviation teaches us what to fix long before materials travel internationally. We document temperature excursions, review corrective actions, and implement practical changes in on-the-ground processes.

    Hands-On Technical Support

    Many production challenges have roots in messy upstream chemistry. Our technical crew constantly troubleshoots alongside process engineers from customer plants, drawing from years of working with fluorinated hydrazides on actual reactors. We’ve worked through issues like unexplained precipitation during acid chloride addition, solvent switches due to regulatory updates, and integration with continuous flow reactors. Methods get adjusted, buffer systems swapped, and safety data sheets updated for evolving regulations. This partnership means users never work in isolation. Our experts advise on storage, safe material transfer, waste disposal, and in-line purification, always ready to answer as questions arise rather than after a problem has grown.

    On more than one occasion, customers sent us samples of failed reactions, looking for impurities that could explain blocked filtrations. Having full records from raw materials through to finished product allowed us to pinpoint inconsistencies and offer solutions on the spot. This type of service only happens with manufacturers who understand when and how their product will be used—not from a generic distributor disconnected from the real chemistry.

    Setting Standards for Purity and Consistency

    Any chemist with experience in process development understands the risk posed by fine chemical intermediates that miss the target on purity. For 3-Fluorobenzhydrazide, standards matter—especially for final-stage pharmaceutical actives where even minor residue can set off alarm bells at regulatory filing. Our internal policy goes above published monographs, testing for trace-level solvent residues, elemental impurities, and non-volatile byproducts. A single point of failure impacts not just us but every customer relying on our material for their process.

    We’ve spent years collaborating with quality teams to develop the analytical methods that best fit this compound: HPLC for organic impurities, Karl Fischer for water, and IR spectral confirmation as a backup tool. Instrument calibration routines run daily, and operators undergo recurrent qualification checks, so each measurement ties back to a real, traceable standard. We collect and review both in-process and final product data, searching for any drift from specifications set years earlier by our earliest customers.

    Consistency is born of process discipline. We train each new operator directly on the line and rotate seasoned staff through quality stations to reinforce standards. Failures—a rare event—drive us to analyze root cause, fix procedures, and update protocols so mistakes do not repeat. This commitment wins trust when material heads into registered clinical production or fast-tracked pesticide development.

    3-Fluorobenzhydrazide in Evolving Chemical Industries

    Each year, specialty chemical demands shift. In our daily meetings, the R&D team gathers feedback from formulators and process engineers. Recent conversations add up to a clear trend: increasing use of fluorine in performance agrochemicals and pharmaceuticals. 3-Fluorobenzhydrazide enables these trends with functional versatility and robust downstream utility. Its direct fluorination point enables fast nucleophilic substitution steps essential for certain anti-infective and crop protection agents.

    Small-molecule researchers value easy scalability. Work done at our plant scales from lab flasks up to bulk reactors while holding to the same process specifications. Our history producing the fluorobenzoyl chloride precursor underlies the kind of in-house integration that delivers both cost advantage and full accountability. This approach contrasts with competitors sourcing feedstocks from outside vendors, sometimes leading to material mismatches or unstable pricing. Control over inputs makes a difference—chemists notice when every kilo behaves as expected, batch after batch.

    Fluorine in the meta position resists metabolic deactivation, which extends the working life of parent drug candidates and new pesticide compounds. In our testing, samples of meta-fluorinated products held their stability in simulated biological and environmental assays much better than non-fluorinated and ortho/para-fluorinated analogs. Reports from customers in contract research settings confirm this trend, and published literature supports the findings.

    Addressing Environmental and Safety Challenges

    Manufacturers play a direct role in safety and environmental management, and our operation reflects lessons learned in these areas. Waste from hydrazide synthesis gets separated for safe treatment, never mixed with main plant streams or sent off untreated. Plant staff receives ongoing training in handling hydrazine and related intermediates, so spills and releases remain exceptionally rare. Updated air extraction and filtration systems reduce occupational exposure and off-site impact, reinforcing our responsibility for the safety of both employees and local communities.

    Waste minimization extends to product packaging. Designs now feature recyclable liner material and instruction labeling for reuse or safe disposal, addressing customer concerns about hazardous waste in chemical logistics. This stewardship, prompted by a decade of regulatory tightening and industry coalition work, forms part of our company DNA. We encourage our customers to reach out for tailored storage and packaging solutions, especially where bulk returns or closed-loop shipping models can make a real difference.

    Continuous Improvement in Customer Experience

    Every suggestion or complaint from the field becomes part of our improvement cycle. Several years ago, transportation partners reported that package weights exceeded safety guidelines, sparking a redesign of our drum handling and container size offerings. Users in tropical zones noted issues with moisture ingress, so we shifted to updated moisture-barrier packaging to protect product until use. No change happens in isolation; small tweaks ripple forward, improving each shipment for the next recipient.

    We maintain regular contact with key partners who depend on our 3-Fluorobenzhydrazide, taking every chance to check if our process or product falls short. Fielding questions regarding minor impurity trends or adapting lots to changing synthesis platforms keeps us focused. This open channel—spanning technical, regulatory, and logistics areas—anchors lasting relationships based on performance rather than promises. Global projects spanning patent timelines and market launches have benefited directly from this flexible, listening-based approach.

    Contributing to Downstream Innovation

    Having worked with diverse R&D setups, we see firsthand how innovation depends on reliable building blocks. Researchers innovate new therapies and crop solutions using our material as a springboard, knowing what enters their process line will perform without surprises. Access to batch-matched samples and historic analytics helps developers troubleshoot, scale, and iterate without the budget-killing delays that poor-quality intermediates can cause. Our own relationships with research organizations keep us informed about developing analytical methods, reaction screening technologies, and regulatory priorities—each feeding directly into future improvements.

    Customer-reported yield data, purity screens, and under-the-hood feedback create a feedback loop: process shifts at the plant follow what’s learned in the lab. Our experience has taught us the value of adapting small-scale chemistry to production environments where every percent matters. Collaborative process engineering has led to optimized reaction cycles, shorter cycle times, and, ultimately, lower environmental impact per ton produced.

    Why Direct Sourcing Matters

    Anyone in process chemistry knows the risks of sourcing intermediates through multi-step supply chains. Materials lose traceability, documents get misaligned, and questions about a batch’s origin often cannot be answered. We supply 3-Fluorobenzhydrazide to users who need not only the compound but also certainty about how it was made, where it was stored, and how performance ties to analytic reports. With direct manufacturing, users build trust based on first-hand fact, not hearsay or repackaged goods.

    We believe true partnerships grow through candid conversation. Bringing manufacturer expertise directly to the table allows real problem-solving, honest expectation-setting, and a path for rapid improvement. For every client receiving our 3-Fluorobenzhydrazide, the confidence comes not from a label, but from ongoing, face-to-face relationships forged in the actual chemistry—the work that happens day in and day out in both our plant and their facility.

    Looking Ahead

    Chemical manufacturing never stands still. Our team anticipates new trends—automation, green chemistry, new regulatory protocols—and adapts our process so users can work with certainty. We remain committed to investing in plant upgrades, smarter analytics, and continuous training for our staff. Each improvement, small or large, comes with the same promise: the next batch of 3-Fluorobenzhydrazide will be as reliable, traceable, and technically approachable as the last.

    We manufacture 3-Fluorobenzhydrazide not as a generic commodity, but as a specialty material that plays a precise role in advanced chemistry. Every kilogram produced reflects lessons learned, customer feedback honored, and process improvements hard-won through experience. This commitment translates directly to user results, day after day, process after process, helping drive both reliability and innovation for every laboratory and plant that places its trust in our work.