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Sodium 2-Fluorobenzoate

    • Product Name Sodium 2-Fluorobenzoate
    • Alias 2-Fluorobenzoic acid sodium salt
    • Einecs 238-981-8
    • 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

    190348

    Chemical Name Sodium 2-Fluorobenzoate
    Molecular Formula C7H4FNaO2
    Molecular Weight 162.09 g/mol
    Cas Number 446-35-5
    Appearance White to off-white powder
    Solubility In Water Soluble
    Melting Point Decomposes
    Storage Conditions Store at room temperature in a tightly closed container
    Synonyms Benzoic acid, 2-fluoro-, sodium salt
    Pubchem Cid 18635690

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

    Packing & Storage
    Packing Sodium 2-Fluorobenzoate, 25g, is packed in a sealed amber glass bottle with a tamper-evident screw cap and hazard labeling.
    Shipping Sodium 2-Fluorobenzoate is shipped in tightly sealed containers to prevent moisture absorption and contamination. It should be labeled according to chemical safety regulations and transported in compliance with relevant local or international guidelines. Protect from physical damage, and store in a cool, dry place. Handle with appropriate personal protective equipment.
    Storage Sodium 2-fluorobenzoate should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area. Keep it away from moisture, heat sources, and incompatible substances such as strong acids. Store in a designated chemical storage cabinet, clearly labeled, and protected from physical damage. Follow all relevant safety regulations and handle with appropriate personal protective equipment.
    Application of Sodium 2-Fluorobenzoate

    Applications of Sodium 2-Fluorobenzoate in Industrial Manufacturing

    Our factory-grade Sodium 2-Fluorobenzoate supports a range of exacting chemical and pharmaceutical industries where stringent compliance, controlled addition rates, and defined process roles are required for quality downstream output. Below, we outline established application scenarios, their industry standards, integration points, and the resulting finished products that benefit from our controlled production capabilities.

    1. Active Pharmaceutical Ingredient (API) Intermediate for Fluorinated Drugs

    Downstream pharmaceutical producers use Sodium 2-Fluorobenzoate as a key building block for regulated synthesis of several fluorinated active pharmaceutical ingredients. Purity control, traceability, and process characterization form the basis of every supply batch, addressing customer requirements during the coupling and subsequent derivatization stages in small molecule drug development and commercial synthesis. Applications typically involve nucleophilic substitution or amidation reactions to introduce the fluoroaromatic moiety under reproducible conditions, especially when manufacturers target molecules with enhanced pharmacokinetic characteristics.

    Industry compliance standards

    • ICH Q7 Good Manufacturing Practice for Active Pharmaceutical Ingredients
    • 21 CFR Part 210/211 United States cGMP
    • EU GMP Part II for starting materials
    • EP, USP relevant monographs (for pharmaceuticals incorporating fluorobenzoate intermediates)

    Typical usage ratio

    • Employed at 1.0–2.5 molar equivalents relative to the targeted coupling reactant; adjusted depending on stoichiometry and desired reaction conversion in the specific synthetic route.

    Downstream process integration

    • Charged into reaction tanks post-activation of coupling partners, particularly during the aromatic nucleophilic substitution sequence or amidation directly forming core drug structures.

    Final product types

    • Fluoroaromatic APIs for anti-inflammatory, CNS, and oncological indications
    • Key intermediates used in proprietary and generic drug development pipelines
    • Specialty building blocks for custom synthesis and CRO projects

    2. Agrochemical Intermediate for Herbicide Synthesis

    Commercial agroscience operations utilize Sodium 2-Fluorobenzoate as a precursor in multi-step herbicide active ingredient manufacture, where regulatory traceability and lot-to-lot consistency remain critical. Typically, the compound enters the synthetic path as an aromatic nucleus for chlorination, esterification, and amidation steps. Process integration requires accurate weighing and dispersion to meet batch reproducibility during Pilot to industrial scale-up. Producers demand documented on-spec supply to conform to the regulatory regimes overseeing agrochemical raw materials and intermediates.

    Industry compliance standards

    • FAO/WHO Specifications for Agricultural Pesticides Technical Materials
    • REACH Regulation (EC) No 1907/2006 substance evaluation for downstream sector
    • Chemical Management Regulation of P.R.C. for hazardous substances
    • ISO 9001:2015 certified manufacturing systems (for agrochemical ingredient traceability)

    Typical usage ratio

    • Added at 0.8–1.5 equivalents based on the target product's required fluoroaromatic content; often modulated depending on batch scale and impurity tolerance thresholds.

    Downstream process integration

    • Introduced during controlled nucleophilic substitution or condensation sequences, commonly after pre-reaction drying and before batch neutralization or deprotonation steps.

    Final product types

    • Fluorinated herbicide bulk actives (pre-formulation)
    • Key intermediates for grass and broadleaf weed control agents
    • Chlorinated and amidated derivatives in proprietary crop protection solutions

    3. Fine Chemical Synthesis in Dyes and Fluorescent Markers

    Sodium 2-Fluorobenzoate serves as an electrophilic building block in the production of high-value specialty dyes and fluorescent tracers, where the fluoro group modulates chromophore activity for advanced labeling. Dye manufacturers integrate this material by first transforming the salt into acid chlorides or esters, then coupling with amines, alcohols, or azoles under controlled thermodynamic conditions. The consistency of substitution and final color or emission wavelength depends on both the purity profile and the addition rate of this intermediate in the early-stage batch process.

    Industry compliance standards

    • EN 71-3 Safety of toys (for dye ingredients in markers)
    • DIN EN ISO 9001 Quality management (dye and marker manufacture)
    • EU REACH Regulation Annex XVII (for specialty chemicals and consumer products)
    • RoHS 2 (2011/65/EU) for dyes used in electrical labeling

    Typical usage ratio

    • Utilized at 0.6–1.2 equivalents relative to coupling agents or activating bases, optimized to achieve target yield and color intensity in scale-up runs.

    Downstream process integration

    • Feed into reactor during initial formation of benzoic acid chloride or direct transesterification; intermediate then undergoes condensation or electrophilic coupling steps to complete chromophore system assembly.

    Final product types

    • Fluorescent dyes for analytical and biological tracer applications
    • Colorants for advanced marker systems and inkjet formulations
    • Photo-reactive labeling agents used in diagnostic kits

    4. Chemical Building Block for Liquid Crystal and Specialty Polymer Synthesis

    Manufacturers in advanced materials use this compound as a functionalized aromatic precursor in constructing specialty fluorinated polymers, copolymers, and liquid crystalline mesogens. Its controlled fluorination provides rigidity, chemical resistance, and unique electrical properties in the resultant macromolecules. The process involves initial monomer synthesis or direct co-polymerization, requiring formulated input concentrations for chain-growth or step-growth reactions under strictly inert conditions. Producers depend on batch-certified supply to maintain downstream reproducibility and adherence to electronic materials' safety and quality frameworks.

    Industry compliance standards

    • ISO 14001:2015 (environmental management) for polymer production
    • IEC 61249-2-21 (halogen-free electronic materials specification)
    • ZEK 01.2-08 (German liquid crystal standards)
    • ISO 10993-5 if used in specialty polymers contacting biological systems

    Typical usage ratio

    • Applied at 0.3–0.8 mole fractions of total monomeric units in the target polymer recipe, adjusted depending on required end-use dielectric, thermal, or chemical resistance characteristics.

    Downstream process integration

    • Added during monomer kettle charge or co-monomer blending, typically under dry and inert atmospheres to prevent hydrolysis; polymerization initiated via radical or condensation mechanisms.

    Final product types

    • Fluorinated polyester and polyamide engineering plastics
    • Liquid crystalline monomers for display and optical film applications
    • Rigid specialty copolymers for electronics and sensor housings
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    Certification & Compliance
    More Introduction

    Sodium 2-Fluorobenzoate: Manufacturer’s Perspective on a Reliable Benzoate Derivative

    Meeting the Demand for High-Purity Aromatic Intermediates

    From the production floor to the drum-loading bay, day-to-day work with aromatic benzoates teaches a manufacturer the real differences that chemists and downstream formulators care about. Sodium 2-Fluorobenzoate (SFB), with its CAS number 446-31-1 and the structural fingerprint of a fluorinated aromatic carboxylate salt, has earned its place among specialty intermediates in advanced synthesis and fine chemicals. The value we draw from producing and handling this compound goes far beyond the numbers on a specification sheet.

    Steady Supply Rooted in Robust Batch Chemistry

    Reliable production starts with a good reaction. Our synthesis employs direct fluorination of benzoic acid chloride followed by a neutralization step using sodium hydroxide under mild conditions. From experience, even small deviations in stoichiometry or solvent dryness can introduce variations not easily spotted under a microscope but quickly noticed in downstream applications. Maintaining a steady feed of raw material and monitoring reaction endpoints carefully lets us keep impurity profiles within tight limits batch after batch.

    Our teams take regular samples and run HPLC and GC-MS checks, focusing on single-digit milligram byproducts. These minor traces set top-grade SFB apart from material produced with less attention to detail. Product purity consistently exceeds 99 percent by weight, verified through both in-house and independent labs. The off-white powder feels nearly slick to the touch after drying, free flowing and easy to handle, reducing the risk of caking or lumping even after storage.

    Down-To-Earth Performance In Hard-Working Laboratories

    Sodium 2-Fluorobenzoate’s primary appeal comes from its role as a building block in pharmaceutical and agrochemical research. The fluorine substituent opens up possibilities for structure-activity relationship (SAR) explorations, where small electronic changes have outsized impact on a molecule’s biological profile. In our experience providing hundreds of kilograms per year to pilot plants and scale-up groups, synthetic chemists value the salt form for its straightforward handling and good solubility in polar solvents.

    In solvent screening and catalyst testing, the sodium salt avoids issues of volatility and messiness found in free acids. SFB dissolves readily in methanol and water, cutting prep time for reaction solutions. We lace our quality audits around particle size distribution because uneven grinding can slow down solubility—a fact appreciated by those who actually measure mixing times in jacketed vessels, not just on paper.

    Comparing SFB To Other Substituted Benzoates: Real-World Lessons

    Years of side-by-side runs with both 2-chloro- and 4-fluorobenzoate have made one thing clear: position on the ring and choice of counterion do influence not just reactivity, but shelf stability and handling on the packaging line. SFB resists hydrolysis under ambient warehouse conditions. Even after six months at 40 degrees Celsius and 75 percent humidity, our stability tests have shown no formation of degradation products beyond trace levels, without any off-odors or color changes.

    Compared to potassium and ammonium benzoates, sodium 2-fluorobenzoate exhibits higher bulk density and lower hygroscopicity. This means fewer issues with bridging and dust generation when transferring powder to reactors or making dilutions. Peers in the industry sometimes overlook this until a stuck hopper delays an entire shift. Our direct customers—especially those who blend reagents for custom synthesis—regularly mention how a minor change in salt form has saved them from downstream headaches.

    Supporting Applications in Real Industry Settings

    In agriculture, 2-fluorinated benzoates act as intermediates for herbicide and pesticide discovery, providing enhanced metabolic resistance compared to unsubstituted analogs. Because government regulations now ask for detailed impurity data, our analytical packages focus on both residual solvents and related fluorinated species. Our operators monitor every key point from drying temperature to final blending—you only find this attention to process detail among true manufacturers, those with daily skin in the game, not paper resellers.

    Conversations with formulation teams show that actual downstream compatibility trumps theoretical purity. We produce SFB with a low residual sodium hydroxide content, reducing the risk of pH creep in sensitive formulations. One customer noted improved yields in their direct amidation protocols, pointing to quieter reaction exotherms and fewer filtration issues. Fine distinctions in trace metal content, like residual iron or copper from seals and pumps, have led us to shift suppliers for critical components—a costly choice but one that delivers lot-to-lot consistency.

    Lessons From Quality Audits and Regulatory Inspections

    We have opened our doors to multiple regulatory bodies and audit teams inspecting everything from batch records to waste management. Attention to these inspections has led to tangible improvements. Early on, an inspector highlighted how seemingly benign packaging tape can introduce foreign fiber particles. Switching to poly seal bags and new heat-seal machinery raised both our yields and customer satisfaction scores. These “small changes, big impact” stories become clear only through direct conversations with end users and walk-arounds on the shop floor.

    Our internal training reflects this hard-won knowledge. New operators join shadowing programs that teach not only batch chemistry, but also practical product handling and problem-solving. By encouraging direct feedback and running retraining after every incident or error, we cut near misses and non-conformances. Repeated analysis showed batch records from formula-based manufacturers rarely tell the full story—real process insights come from the people running tanks and packaging lines daily.

    Sourcing, Sustainability, and Real Transparency

    Sourcing fluorinated feedstocks and sodium hydroxide from well-verified channels isn’t only about compliance; it supports traceability that customers increasingly demand. Even though synthetic fluorine compounds sometimes raise eyebrows in regulatory circles, we trace every lot to its origin, maintaining digital batch records ready for spot checks by partners up and down the supply chain.

    Effluent and energy management during production count just as much. We have replaced outdated solvent recovery systems with closed-loop setups, reducing solvent emissions and lowering both cost and regulatory risk. Much of the resulting sodium chloride byproduct finds a second life in non-pharma markets, keeping our environmental footprint under control. Engagement with third party audits and local regulatory groups keeps us honest and nudges us toward further process improvements.

    Market Insights From Decades in Benzoate Manufacturing

    Prices for fluorinated aromatics tend to spike during raw material crunches or geopolitical disruptions. As a manufacturer, holding strategic reserves of critical feedstocks can cushion temporary swings and ensure continuity for regular buyers. When one supplier of fluorobenzene intermediates paused shipments due to logistical delays, we could switch loads to alternate ports, keeping promised delivery dates on track. Only manufacturers with scale and deep supply relationships can offer this kind of practical assurance—a promise resellers struggle to keep in tight markets.

    We pay close attention to changing demand curves in both pharma and agrochemical sectors. The surge in demand for fluorinated scaffolds in medicinal chemistry has driven investments in reactor upgrades and drying capacities. There’s no shortcut for learning the quirks of a pilot batch, especially when translating novel processes from bench to kilo lab scale. Direct access to process engineers, rather than sales agents, ensures on-the-spot troubleshooting and real process data exchange.

    Practical Differences: Seeing Beyond the Spec Sheet

    On paper, sodium 2-fluorobenzoate looks similar to dozens of benzoate salts. In practice, its physical stability, consistent particle flow, low ash content, and absence of volatile impurities set it apart from ad hoc blends or poorly neutralized batches imported from less rigorous producers. Problems rarely show up in a single certificate of analysis; they emerge when repeated use produces inconsistent reaction outcomes or storage fails over time.

    We have seen true differences between “pure enough” material and what a high-throughput lab needs for reliable SAR workflows. For instance, low-level halide contamination, often below detection thresholds of basic analytical screens, can cloud difficult reactions or skew assay data for new actives. Our investment in trace-level analytics and real-time in-process monitoring pays off in the daily work of analytical teams relying on precise starting points. A handful of crystals from a bad batch may look fine under a lamp, but the real test lies in repeat kinetic trials or bioassay consistency.

    Building Around Customer Feedback Not Market Hype

    Feedback loops with actual users shape our decisions more than theoretical market reports. Production engineers running 24-hour shifts push for powders that dump cleanly without hanging up in hoppers. Synthetic chemists report back on both critical yields and less obvious parameters like cleaning times. One university research group pointed out that switching from acid to sodium salt made for faster prep in screening panels, trimming a day off timelines for new fluorinated compound evaluation.

    Our own team uses SFB downstream as an internal benchmark for process development—any problems caught in our own research center are fixed before bulk customers experience them. This hands-on approach, with continuous in-house application testing, drives incremental improvements often overlooked by bulk traders. We allocate a portion of each batch for such in-house trials, treating real-world feedback as a key performance indicator, not just customer “service.”

    Improvements from Real Process Data

    Experience has taught us how important it is to control variables beyond what’s listed on a data sheet. Adjustments to the rate of sodium hydroxide addition, for example, brought a measurable reduction in particle agglomeration and improved long-term flow at scale. Fine-tuning the temperature ramp during fluorination led to both higher yield and fewer high-boiling impurities. These “tweak and track” efforts come from decades in the plant, not once-off tech transfer meetings.

    Close partnership with metrology teams means faster root-cause investigation of any batch that falls short of expectations. Our line operators can trace issues back to their source, whether it connects to a bad drum of solvent or a process valve with unreported wear. This attention shows up in lower return rates and higher on-time deliveries—metrics that actually matter to those waiting on pallets at the receiving dock.

    Inventory Management and Packaging Practices Learned On The Job

    Storing sodium 2-fluorobenzoate calls for dry, temperature-stable conditions. Humidity packs no surprises when working with benzoate salts, but SFB’s lower hygroscopicity compared to analogs means fewer surprises due to clumping. We use high-barrier, sealed bags and reinforced drums to protect product during long-haul transport, especially to regions with wide temperature swings. Our own warehouse techs rotate stock based on production dates, ensuring first-in, first-out delivery for maximum freshness.

    Operators performing container changes take care to prevent dust exposure both for safety and precise measurement. Real lessons learned after spill incidents have led to upgraded handling protocols—less emphasis on theoretical guidelines, more attention to practical setups such as vacuum-assisted transfer and anti-static lining. Training newcomers in these practical controls reduces both wastage and safety incidents, cementing long-term reliability in our delivery reputation.

    Setting The Standard Through Experience And Accountability

    True manufacturing expertise doesn’t just follow specs; it builds on them through everyday attention to detail. We welcome direct plant tours and third-party audits because sharing real process knowledge strengthens our supply relationships. Over the years, customers returning for repeated lots have told us they value stable quality above low price tags on inconsistent products. This trust, grown over repeated transactions, comes only when a manufacturer puts process knowledge, hands-on handling, and steady personnel training at the core of its business.

    Across hundreds of tons of aromatic intermediates, lessons learned from day-in, day-out production have shaped the way we deliver sodium 2-fluorobenzoate: stable performance, clean handling, traceable purity, and predictable process response. These qualities set manufacturer-grade material apart from that offered by aggregators or unlabeled commodity traders. For those who rely on this intermediate—whether in pharma R&D, crop science, or specialty synthesis—real experience shines through not in paperwork, but in each successful batch run and every complaint-free delivery.

    Looking Forward, Not Standing Still

    We continuously invest in both people and technology. Real improvements come through process tweaks won through trial and honest feedback rather than one-size-fits-all solutions. Market trends push us to optimize energy use, waste reclamation, and advanced analytics. Working closely with both regulatory bodies and scientific partners ensures our methods—and our product—stay future-proof.

    Making sodium 2-fluorobenzoate isn’t just about chemistry; it’s about delivering reliability rooted in years of hands-on practice, meeting the needs of those who use every single drum, every single time.