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3-Fluoroanisole

    • Product Name 3-Fluoroanisole
    • Alias 3-Fluoro-1-methoxybenzene
    • Einecs 207-996-6
    • 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

    355440

    Cas Number 456-49-5
    Molecular Formula C7H7FO
    Molecular Weight 126.13 g/mol
    Iupac Name 1-fluoro-3-methoxybenzene
    Appearance Colorless liquid
    Boiling Point 144-146 °C
    Melting Point -35 °C
    Density 1.09 g/cm³
    Flash Point 44 °C
    Solubility In Water Insoluble
    Refractive Index 1.507
    Smiles COC1=CC(=CC=C1)F

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

    Packing & Storage
    Packing Amber glass bottle containing 100 mL of 3-Fluoroanisole, tightly sealed, labeled with hazard symbols, chemical name, and CAS number.
    Shipping 3-Fluoroanisole is shipped in tightly sealed containers, protected from moisture and direct sunlight. It should be handled as a flammable liquid, kept away from heat sources, sparks, and open flames. During transit, proper labeling and documentation are required, ensuring compliance with relevant chemical transportation regulations for safe delivery.
    Storage 3-Fluoroanisole should be stored in a tightly closed container in a cool, dry, well-ventilated area away from sources of ignition, heat, and incompatible substances such as strong oxidizers and acids. Protect it from direct sunlight and moisture. Ensure proper labeling and use secondary containment to prevent leaks. Follow all relevant safety guidelines and environmental regulations for chemical storage.
    Application of 3-Fluoroanisole

    Applications of 3-Fluoroanisole in Industrial Manufacturing

    3-Fluoroanisole serves as a high-value intermediate in fine chemical synthesis, meeting diverse demands across pharmaceutical, agrochemical, and materials processing sectors. Our direct manufacturing expertise ensures product suitability for advanced industrial applications where strict quality, reproducibility, and downstream integration determine end-use performance.

    1. Pharmaceutical Intermediates (Active Pharmaceutical Ingredients Synthesis)

    API producers use 3-Fluoroanisole as an aromatic fluorinated building block for the synthesis of advanced pharmaceutical intermediates, particularly in cardiovascular, anti-inflammatory, and CNS-related drug active cores. The compound enters fluoroarene coupling, alkylation, and functional group transformation reactions where the methoxy and fluorine pattern enables regioselective introduction of pharmacophores. QC and regulatory teams require tight control of by-product profiles and trace impurities to meet global quality benchmarks.

    Industry compliance standards

    • ICH Q7 Good Manufacturing Practice for Active Pharmaceutical Ingredients
    • EU GMP Part II APIs
    • USP-NF and EP monograph compliance (as per API’s regulatory pathway)
    • REACH registered for substances used in APIs

    Typical usage ratio

    • 5–18% w/w of total synthetic batch depending on final API structure and route
    • Adjusted based on step yield optimization and impurity profiles

    Downstream process integration

    • Enters as primary aryl ether building block in Suzuki or Buchwald-Hartwig coupling
    • Used in late-stage methylation and electrophilic substitution for fluorinated motifs
    • Incorporated during 2–3 steps prior to final API crystallization

    Final product types

    • Fluorinated benzene-based antihypertensive APIs
    • Aryl ether anti-cancer compound intermediates
    • CNS-drug core fragments
    • Advanced intermediates for experimental pharmaceuticals

    2. Agrochemical Synthesis (Herbicide and Fungicide Precursors)

    Major crop protection manufacturers leverage 3-Fluoroanisole in the synthesis of selective herbicide and fungicide active ingredients. Its unique electronic and steric influence imparts desirable biological activity in heteroaromatic rings and oxyfluorinated scaffolds. Plant QC labs emphasize low halogenated impurity carryover, and environmental teams monitor for compliance with product stewardship protocols set out in agrochemical standards.

    Industry compliance standards

    • FAO/WHO pesticide specifications and codes of conduct
    • ISO 15302:2002 for technical active ingredient purity
    • REACH restrictions for agricultural chemical use
    • OECD pesticide safety assessment guidelines

    Typical usage ratio

    • 10–22% w/w in the precursor batch, determined by product-specific synthetic route
    • Ratio fine-tuned based on desired substitution pattern and downstream activity profiles

    Downstream process integration

    • Utilized during nucleophilic aromatic substitution to install fluoro functionalities
    • Undergoes condensation with heterocyclic structures in intermediate steps
    • Added prior to final derivatization and technical-grade formulation

    Final product types

    • Oxyfluoro herbicide intermediates (e.g. aryl ether–fluorinated acids)
    • Fluorinated triazole fungicides
    • Precursor fragments for strobilurin-based pesticides
    • Active ingredient base structures for new registration dossiers

    3. Electronic Chemicals (Functional Material Monomers)

    Producers of high-performance materials for semiconductors, OLEDs, and specialty resins employ 3-Fluoroanisole as a monomer or co-monomer during polymerization and fine-layer deposition. Its specific fluorine position modifies electron mobility, dielectric strength, and increases resistance to oxidation within aromatic backbone structures. Integration requires rigorous batch consistency, and downstream QC monitors for defects at the part-per-billion level in specialty applications.

    Industry compliance standards

    • IEC 62474 for hazardous substances in electronic components
    • RoHS Directive 2011/65/EU (restriction of hazardous substances)
    • ISO 9001-based electronic chemicals quality management
    • Semiconductor equipment manufacturers’ proprietary chemical acceptance tests

    Typical usage ratio

    • 3–12% mol ratio in functional polymer and oligomer formulations
    • Adjusted based on targeted electrical and photonic properties

    Downstream process integration

    • Directly added during pre-polymer stage for specialty resins
    • Serves as substitution unit in co-polymer backbone or side chains
    • Used in vapor deposition or spin-coating for thin-film device manufacturing

    Final product types

    • Fluorinated polyarylether films for capacitors
    • OLED precursor monomers
    • Resist materials for photolithography applications
    • Sensor and flexible electronics coatings

    4. Advanced Liquid Crystal Materials

    Manufacturers of liquid crystal compounds use 3-Fluoroanisole in developing mixtures with precision-tuned dielectric anisotropy and refractive indices for high-resolution display panels. The methoxy–fluorine motif enhances miscibility, voltage holding ratio, and temperature stability in nematic and smectic LC blends. QC focuses on ultra-high purity and absence of metal and halide ions, with regulatory compliance per global display standards.

    Industry compliance standards

    • IEC 62321 for halogen content in display components
    • JEITA JT-GT-0408A for display materials quality
    • JIS K 0120 test methods for industrial organic chemicals
    • Supplier conformity with global panel manufacturer auditing systems

    Typical usage ratio

    • 2–8% w/w in final LC compound blends
    • Fine-tuned to adjust temperature range and display switching speed

    Downstream process integration

    • Added during fine blending of LC host and targeting compounds
    • Incorporated via precise weight-in in masterbatch production
    • Evaluated in pilot line for display uniformity and image holding

    Final product types

    • High-definition LCD panel liquid crystal fluids
    • Advanced nematic and ferroelectric LC devices
    • Specialty LC mixtures for automotive and medical displays
    • Flexible and wearable device substrates
    Free Quote

    Competitive 3-Fluoroanisole prices that fit your budget—flexible terms and customized quotes for every order.

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    Certification & Compliance
    More Introduction

    3-Fluoroanisole: Direct from the Manufacturer’s Perspective

    Working With 3-Fluoroanisole From the Ground Up

    In chemical manufacturing, we put a strong emphasis on deep understanding and step-by-step process control. Producing 3-Fluoroanisole is not routine bulk chemistry. Every batch reflects years of dedication to sourcing clean raw materials, refining processes, and responding to the fine details that set true manufacturers apart from distributors and traders.

    3-Fluoroanisole, known among chemists as 1-Fluoro-3-methoxybenzene, serves as an essential building block in specialties such as pharmaceuticals, agrochemicals, material science, and fragrance intermediates. We see labs and plants looking for not just the molecular structure, but also trusted consistency in purity and reliable supply. These features are never afterthoughts for a facility like ours. Mistakes in the details cause daily headaches and downstream failures. We take production, storage, and quality assurance seriously, above profit from merely shuffling containers.

    Understanding the Model: What Sets Our 3-Fluoroanisole Apart

    Inside the factory, we approach every run of 3-Fluoroanisole as a project that involves our best process chemistry, continuous monitoring, and full traceability. We have settled on a production route that uses methylation of m-fluorophenol with careful management around the choice of catalyst and solvent systems. Process control doesn’t end at reaction completion; each fraction passes through rigorous distillation columns. This supports a purity that not only exceeds the typical 98% standard seen on general marketplaces, but delivers consistency in X-ray and NMR verification. Color, moisture, and solvents must remain deeply below thresholds. Our team sees chromatography traces for every lot—something we’ve learned many distributors don’t regularly provide.

    Specification readings here aren’t empty numbers. For example, our moisture readings below 0.05% prove critical because water interferes with certain pharmaceutical transformations and causes complications in scale-up reactions. In using advanced glass-lined reactors and vacuum distillation, we keep the hydrolysis risk low. A careful selection of glass ampoule packaging and PTFE seals prevents long-term contamination. When customers complain about variable solvent residues in products from trading houses, they often trace it to rushes during transfer or careless cleaning of totes. We take time to clean lines, test glassware, and document every step. Our product moves straight from final purification lines to sealed drums, without unnecessary intermediate handling.

    Usage Stories: Beyond the Simple Catalog Listing

    3-Fluoroanisole looks simple on paper, but its applications stretch wide. Pharmaceutical process chemists have asked for special specifications, aiming to synthesize selective serotonin reuptake inhibitors and fluorinated active pharmaceutical ingredients. If your shop depends on a reliable supply of 3-Fluoroanisole, building that confidence depends on batch-repeatable results. Agrochemical producers also rely on this intermediate to assemble novel herbicides and insecticides, exploiting the methoxy and fluoro substitution for unique biological interactions.

    In fragrance chemistry, we’ve shipped 3-Fluoroanisole for use as an intermediate—where trace impurities in methyl and fluoro groups can spoil a perfume base. Working with direct manufacturers eliminates the risk of unexpected background odors from residual solvents or oxidized byproducts. In our facility, we run sensory panels and check GC-MS for every batch headed to fragrance customers. This focus on batch-to-batch aromatic consistency sets us apart, and end users can detect a difference in their finished formulations.

    Real-World Differences: How Our Product Surpasses Standard Listings

    Specifications for 3-Fluoroanisole on internet marketplaces often look interchangeable at a glance: claimed purity above 98%, low color, and minimal water. Our long-term clients learned years ago that these bullet points don’t reflect the complete reality. We regularly hear problems such as clouding in solution, off-beat NMR signals, or batch-to-batch drift in boiling point from material provided by resellers. Having produced this molecule for years, we find that trace halogenated contaminants or variable water content usually explain the complaints. We address these points through focused control:

    More than once, a global R&D lab has traced days of investigation to a contaminant missed in bulk-supplied 3-Fluoroanisole. Discovering 0.2% methylated phenol or TCP in a critical step ruins yields, causes rework, and breaks deadlines. We tune our purification schedule to look beyond generic “high purity” and consider the main downstream product of each customer’s chemistry. This partnership approach grows out of real practice, not catalog claims.

    Production Challenges: Why Quality Takes Experience

    Producing aromatic fluorinated compounds introduces hurdles beyond base chemistry. Handling fluorinating agents brings reactivity risks, toxicity, and environmental disposal concerns. Methoxylation calls for balancing between speed and overreaction, with waste minimization in mind. Chemical waste management from each campaign depends on exacting local regulations and best practices. We recycle, neutralize, and control volatile emissions because we live near the communities we service. Environmental stewardship forms a daily part of our operation, not just a box to check for audits.

    Plant engineers, chemists, and technicians put time into process development because small adjustments—stir speed, temperature profile, quench procedure—yield meaningful improvements in safety and sustainability. Investing effort to optimize even marginal steps pays back through reduced rework, safer working conditions, and stronger trust from clients. The temptation to cut steps and maximize short-term output never delivers the same satisfaction or reliability. In our business, troubleshooting, process review, and periodic retraining stand as part of the routine. Our long-serving operators know the feel of a clean reaction, the look of a well-running distillation, and the subtle difference in product aroma from variable secondary reactions. This expertise comes with direct practice, not just textbook theory or third-party repackaging.

    Meeting Regulatory and Safety Demands

    Users in fine chemistry, pharmaceuticals, and agricultural chemistry face ever-tightening regulatory demands. Paperwork accuracy, batch-level full traceability, and documented safety data accompany every shipment. Shelf-stable packaging with true inertness comes standard here. No one wants to run analytical repeats or resubmit product registrations due to ambiguous sourcing history or labeling errors. We maintain an up-to-date, rigorously checked chain of records, not just for regulatory bodies but to keep end-users confident and downtime-free.

    Our own labs run toxicity screens and workplace safety reviews regularly; the safety of handlers and the communities around our plants shapes production choices from raw material intake to outgoing logistics. Risk assessment is part of every campaign kickoff, and the shop floor stays involved in ongoing process safety observations.

    Supply Assurance: Stability in a Shifting Chemical Market

    Chemical supply chains face disruptions from logistics bottlenecks, compliance changes, and raw material shortages. As a manufacturer with direct control, we have the flexibility to adjust production slots and materials sourcing according to urgency and season. Keeping close ties with local and international suppliers for fluoro and methoxy precursors reduces vulnerability to single-point failures. Disaster preparedness plans are not theory; real events like port strikes, weather delays, and shipping issues test these frameworks. Working with a manufacturer offers built-in resilience compared to those relying on outside contract producers or stock aggregators.

    For long-term agreements, we set up buffer capacity and keep transparent updates with partners about any timeline or yield changes. Such communication grows out of trust and recognition of the shared interest in predictable output. Regular investment in maintenance and upgrades shields the shop from downtime or sudden surprise failures. In managing inventory, we store product under nitrogen and proper insulation, with real-time environmental tracking to catch changes before quality suffers. End users pick up product knowing it meets the same high reproducibility as prior orders because we invest in stability, not just last-minute supply solutions.

    Down-to-Earth Differences: How Manufacturing Builds Better Chemistry

    True production roots show up not in written specs but in experience. Our shop foreman spots the difference in drum seams, the chemistry lead tracks color changes before results show in analysis, and logistics teams triple-check seals and documentation. By being the direct producer, we see immediate feedback from both the lab and the shipment dock. We catch and fix issues onsite, rather than waiting for customer complaints days or weeks later. We also gain a deeper look at changing real needs, such as tighter impurity requirements for new pharma intermediates or greater environmental scrutiny by regulatory agencies.

    Comparison with product from non-manufacturers often comes down to reliability and fixable problems. Traders pass on complaints to faceless suppliers, adding frustrating delays and communication noise. As direct producers, we own every step of the process and can respond fast with replacement, technical support, or even contract adjustment. We know our product because we build it from basics, not because we read about it from spec sheets.

    Collaborating with Users: Building Solutions Together

    Long-term supply for 3-Fluoroanisole depends on more than technical quality. Working with pharmaceutical scale-up teams led us to develop lower-volume, high-precision packaging for pilot plants. Agrochemical producers pushing new actives sought extra-clean drums and increased sample testing. Fragrance houses experienced with failed blends from foreign-sourced fluoroanisole now request double-certified lots with advanced sensory testing. These requests only get met in-house, by people who understand both the batch and the business need behind it.

    Our experience extends beyond routine transactions. If an end user flags a new impurity, our technical service responds by walking back through synthetic conditions and reviewing test logs rather than only shipping out a replacement. We exchange data, experiment with process tweaks, and propose improvements based on root-cause analysis. R&D partnerships let us keep apace with new chemistry demands. Trust and communication build long relationships. End users know that issues get solved at the source, not explained away or deferred.

    No Substitute for Direct Manufacturing

    Production of 3-Fluoroanisole stands as a process demanding more than scale and throughput. Deep commitment to what leaves our plant earns user trust over the long haul. Those who relied on brokers, third-party repackagers, or opportunistic traders inevitably faced missing paperwork, hidden contaminants, delayed responses, or vanished support. By building chemistry batch after batch, running every analysis in-house, and backing shipments with technical insights and rapid turnaround, we stay accountable and consistently deliver a product that moves research and production forward without unwanted surprises.

    Choosing to buy 3-Fluoroanisole from a manufacturing partner brings advantages in reliability, batch-specific data, process adaptability, and hands-on technical support. We welcome technical dialogue and problem-solving with every order, valuing partnerships that go beyond paperwork to ensure success in every downstream application—be it pharmaceuticals, agrochemicals, advanced materials, or fragrance chemistry. Customers aren’t just numbers on a freight manifest; they are partners in the ongoing improvement that keeps both our businesses advancing.