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HS Code |
861733 |
| Cas Number | 946658-33-5 |
| Molecular Formula | C8H6FNO |
| Molecular Weight | 151.14 |
| Iupac Name | 2-fluoro-6-methoxybenzonitrile |
| Appearance | White to off-white solid |
| Melting Point | 39-42°C |
| Boiling Point | 258°C (estimated) |
| Density | 1.21 g/cm3 (estimated) |
| Purity | Typically >98% |
| Solubility | Soluble in organic solvents (e.g., DMSO, ethanol) |
| Smiles | COC1=CC=CC(F)=C1C#N |
| Inchi | InChI=1S/C8H6FNO/c1-11-8-4-2-3-6(9)7(8)5-10 |
| Storage Temperature | Store at 2-8°C |
| Refractive Index | 1.526 (estimated) |
As an accredited 2-Fluoro-6-Methoxybenzonitrile factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 2-Fluoro-6-Methoxybenzonitrile, 10g, supplied in a sealed amber glass bottle with tamper-evident cap, labeled with product details. |
| Shipping | **Shipping Description:** 2-Fluoro-6-Methoxybenzonitrile is shipped in tightly sealed containers, protected from light and moisture. It must be handled in accordance with local, national, and international regulations for hazardous chemicals. Proper labeling, documentation, and, if required, use of temperature-controlled packaging ensure safe and secure delivery. Shipping may require a Safety Data Sheet (SDS). |
| Storage | Store 2-Fluoro-6-methoxybenzonitrile in a tightly sealed container, in a cool, dry, well-ventilated area away from incompatible substances such as strong oxidizers and acids. Protect from direct sunlight and sources of ignition. Ensure proper labeling and avoid moisture exposure. Use appropriate personal protective equipment (PPE) when handling, and follow all local regulations for storage of hazardous chemicals. |
Applications of 2-Fluoro-6-Methoxybenzonitrile in Industrial Manufacturing2-Fluoro-6-Methoxybenzonitrile serves as a specialized intermediate in multiple chemical sectors, supporting targeted synthesis under regulated processes. Drawing on years of dedicated manufacturing experience, our material integrates into high-specification application routes for pharmaceuticals, agrochemicals, specialty dyes and pigments, and advanced materials sectors. Each sector applies unique standards for compliance, formulates precise usage ratios, and follows distinct operational methods to deliver quality downstream products. 1. Pharmaceutical API Intermediate SynthesisPharmaceutical manufacturers employ this compound primarily as an intermediate in the synthesis of select active pharmaceutical ingredients, including fluorinated aromatic compounds vital in anti-cancer and neuroactive drug portfolios. Material integration occurs during advanced stages of multi-step organic synthesis, impacting yield and purity control in the final API. Process engineers calibrate input based on target compound complexity, impurity profiles, and route efficiency, ensuring alignment with global pharmacopoeial and cGMP frameworks. Industry compliance standards
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2. Agrochemical Synthesis (Fungicide and Herbicide Intermediates)Leading agrochemical formulators utilize this raw material as a scaffold for synthesizing select triazole and pyridine ring-bearing fungicides and herbicides. The compound enters the synthetic pathway prior to heterocycle closure, where substituent orientation influences bioactivity and selectivity. Process chemists tailor input ratios to crop protection requirements, resulting in efficient product isolation and streamlined impurity management in large-scale plants complying with industry regulations. Industry compliance standards
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3. Specialty Dye and Pigment ManufacturingProducers in the dye and pigment sector incorporate this material for introducing fluorinated and methoxy-modified aromatic motifs, imparting heightened lightfastness and altered chromatic profiles to specialty dyes and high-end pigments. The compound is added during early-stage synthesis of azo and anthraquinone dye systems, typically following diazotization or as a coupling component. Input ratio and addition protocol vary depending on the target color index and end-use substrate, such as technical textiles or inkjet inks. Industry compliance standards
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4. Advanced Material Synthesis (Electronic Chemicals)This compound is used by manufacturers of advanced material precursors, particularly in the domain of organic electronic and photoresist chemicals. Integration occurs in the construction of custom fluorinated aromatic monomers or doping agents for OLED and semiconductor applications. Operational focus rests on purity, low ionic contamination, and consistent lot-to-lot reactivity. The proportion and process step are defined by the electronic performance required, with continuous monitoring to comply with optics and electronics industry QC. Industry compliance standards
Typical usage ratio
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2-Fluoro-6-Methoxybenzonitrile stands out as a fine chemical that plays a vital role in the synthesis of complex molecules. In the years we’ve been manufacturing this compound, demand has come from researchers and manufacturers alike who value reliable specifications, controlled purity, and material that maintains quality from batch to batch. Every molecule represents a step in a much larger chain, and we view every delivery as a responsibility—not just a transaction.
Over the course of production, we pay close attention to the physical and chemical integrity of this compound. Consistency keeps downstream reactions predictable and helps avoid wasted resources in subsequent steps. Specifications reach a purity that routinely exceeds 99% by HPLC, as confirmed by our skilled analytical team using routine and spot checks across the production cycle. These standards result from continuous refinement in our process controls, not from chance.
Moisture sensitivity presents its own hurdles. A tiny bit of water can throw off an entire batch for certain applications, which is why our team locks down the drying phase with proven desiccant cycles before filling. Our product has a white to pale-yellow crystalline appearance, indicating minimal impurities. Product regularly passes NMR and IR identification as well as mutliple chromatographic analyses at different retention times. Every lot comes with a full analysis so users do not have to second-guess the composition or ask about residual solvents or inorganic traces.
Feedback from customers who work with 2-Fluoro-6-Methoxybenzonitrile often points to its performance in pharmaceutical intermediates or agrochemical components. The combination of a fluorine atom and a methoxy group gives chemists a springboard for selective synthesis, particularly when building molecules requiring precise substitution patterns. In our experience, simple nitriles can serve several industries, but this specific substitution favors advanced organic transformations that cannot tolerate random isomers or byproduct contamination.
Direct clients—ranging from multinational medicinal chemistry labs to emerging biotech startups—tell us time and again they value not just the product itself, but our willingness to match product characteristics to their next synthetic milestone. The CN group at the para position relative to methoxy (and fluoro at ortho) offers a backbone with both electronic and steric guidance, which speeds up further functionalization. This advantage carries through during palladium- or copper-catalyzed couplings, nucleophilic substitutions, or aromatic rearrangements.
Not every benzonitrile derivative serves a specialized synthesis quite like this one. Even a single change in substitution can cause entire routes to falter. We make both unsubstituted benzonitrile and other fluoro/methoxy isomers and can say confidently that only 2-Fluoro-6-Methoxybenzonitrile delivers the regioselectivity and reactivity profile often required by our customers. Other isomers bring challenges: increased byproduct formation, poor yields in downstream steps, or even regulatory headaches because trace impurities change dramatically with each structural variation.
Simple substitutions do not guarantee product performance. Placing the fluoro group elsewhere or dropping the methoxy creates a molecule with an entirely different set of challenges. For our customers, misplacing a fluoro atom alters reactivity toward nucleophiles; swapping the methoxy affects the compound’s directing ability in electrophilic substitutions. Our technical team collaborates directly with synthesis chemists to pin down where even a single atom swap can impact the duration and cost of multi-step syntheses. Feedback and repeat orders have confirmed repeatedly that 2-Fluoro-6-Methoxybenzonitrile outperforms more generic options in these high-stakes chemical environments.
Starting from well-characterized raw materials, we invest in staged purification and ensure each intermediate undergoes full quality checks before it reaches the next phase. We do not repackage from bulk or outsource critical steps. Our operators run the entire process in dedicated reactors to minimize cross-contamination. Careful distillation and crystallization allow us to deliver both small research lots and commercial scale orders with ease.
Packaging happens in sealed, lined containers suitable for long haul. Moisture-absorbing packets and high-barrier films protect every kilogram. Warehouse staff track lots with integrated batch records, and dispatch teams keep documentation close at hand. This way, no matter where 2-Fluoro-6-Methoxybenzonitrile heads next—whether into research or production scale—customers receive exactly what their protocols demand.
Clients who synthesize active pharmaceutical ingredients (API) or agrochemical actives cannot afford to gamble on raw material identity. Hidden impurities mean there is a risk of introducing uncontrolled variables downstream, which can lead to unexpected process failures or, worse, safety recalls. Many users shared concern over poorly controlled imports or product that comes without a full certificate of analysis. Our response is simple: every shipment is backed by chain-of-custody records and unbroken batch documentation.
Our analytical suite runs batch certificates with independently validated reference standards. Each batch also undergoes tests for heavy metals, halogen content, and an expanded suite of organic volatiles if intended for regulated routes. We proactively monitor for trace ionic contamination—important for high-sensitivity syntheses where even a few ppm can cause headaches.
Whereas some market suppliers patch together lots from varying stocks or operate as invisible middlemen, we own the process, start to finish. Direct control means fewer surprises and gives our customers a direct line to manufacturing answers, not guesswork. It’s this transparency and reliability that keeps the most demanding research and manufacturing teams coming back.
In the field, some users encounter solubility issues when dissolving aromatic nitriles. Our formulation team worked extensively on crystallization and particle size distribution, so every batch consistently dissolves in common polar organic solvents such as DMF, DMSO, or acetonitrile without prolonged sonication or filtration. We recognize that time lost at this stage can stall a crucial synthesis, especially in pharmaceutical research settings where every hour counts.
Some customers with automated platforms request custom milled material. In response, we have adapted our finishing lines to offer designated micronization options. Fine tuning particle size not only helps streamline dissolution but also reduces the risk of clumping during mass transfer. Should a customer require material fine enough for parallel reaction set-ups or co-grinding approaches, we can deliver to that need.
Occasionally, we receive requests for exclusion of even trace stabilizers or process aids. For users with these high requirements, we developed a production variant strictly free from these materials. It means extra cost at our end and careful washing and handling, but we see clear value in going the extra mile for researchers at the edge of discovery.
Chemistry rarely unfolds the same way twice, even for experienced teams. Research groups need reassurance that the starting material today will behave as it did a year ago. We hold fast to the philosophy that process validation and operator experience allow us to keep batch-to-batch variation extremely low. Our site employs a mix of veteran production staff and new team members who bring fresh ideas for continuous improvement.
Every adjustment, every feedback loop integrates back into our production model. This cycle of review and response—rooted in real life customer outcomes—keeps our material performing not just to specification, but to real world expectations in laboratory and commercial settings.
From the standpoint of scale-up, issues like solvent carry-over or trace inorganic salts can doom an otherwise promising reaction. Our time spent troubleshooting these factors has led to the adoption of additional purification and washing steps originally developed for pharmaceutical manufacturing—even for volumes destined for research clients. We believe this attention to detail distinguishes our offering, giving early-stage projects the best chance to become tomorrow’s successful products.
Direct regulatory compliance shapes our mindset at the production floor. Occupational safety, environmental protection, and legal compliance are not theoretical concepts. Our plant operates under a rigorous environmental and occupational safety plan, minimizing emissions and ensuring responsible waste handling. Nearly all solvents used in the manufacturing process are recovered for internal recycle, and hazardous effluents receive special treatment before release.
Chemists and production staff use full protective equipment and follow documented procedures for handling reactive intermediates as well as finished product. Suppliers who cut corners with cheap shortcuts inevitably create trouble—lower consistency, greater exposure risk, or unexpected downtime. Through continuous staff training and internal process audits, our factory keeps pace with evolving best practices and changing regulatory requirements.
We maintain appropriate documentation to support customers facing regulatory scrutiny or external audits on material streams. All relevant safety data, analysis reports, and batch records are available on request and are updated regularly as part of our document control protocols.
Raw input origin matters, especially in increasingly regulated environments. Direct partnerships with verified suppliers enable us to maintain traceability on every lot entering our facility. All key raw ingredient vendors are vetted through on-site assessment and updated ISO and GMP certificates—not simply paperwork review.
Over the years, engagement with innovators and production chemists around the world shaped the very procedures we use today. Critical synthesis tips, shared during tech transfer or scale-up support, led to changes in how we dry, mill, and store our product. On several occasions, researchers who encountered difficult purification steps in their own route asked for slight composition tweaks or suggested an adjustment to packaging specifications. These real world collaborations produce tangible improvements for both sides.
We continue to invite open discussion and are always interested in building closer partnerships, seeing firsthand how even a small change at our factory can make a difference for someone inventing tomorrow’s therapies or crop protectants.
Each production cycle optimizes not only yield but also reduces the environmental footprint. Our in-plant utility systems use closed-loop cooling and contain solvent release through vapor recovery towers. Chemical waste is minimized and converted where possible to lower-impact byproducts, sent for responsible destruction or, when feasible, upcycled to less hazardous products. By continually analyzing life cycle impacts, our teams look for ways to trim waste streams and energy use without compromising on purity or quality.
Solvent recovery and water conservation both feature in regular factory improvement projects. Our plant team studies how even a two percent yield increase can mean several thousand liters of solvent or hundreds of kilograms of raw input are conserved or recycled over time. Regular reviews of safety hazards, emissions logs, and process water quality push us to keep every department up to standard.
Each incremental step not only supports smoother regulatory compliance, but paints a broader picture of our role as chemical stewards—not just suppliers.
Even with refined technology and experience, every new production campaign brings unexpected variables. Fluctuations in raw input purity, energy supply interruptions, or even weather shifts—each creates fresh challenges. Our production management team maintains regular communication, ready to change equipment schedules or patch process variables on the fly.
We also see the need for constant investment in staff education. Team members attend workshops and cross-training sessions, both formal and on-the-job, ensuring we stay up to speed with evolving synthesis and manufacturing trends. Internally, we share troubleshooting records and adopt root-cause analysis when batches deviate from expectations.
We view setbacks as opportunities for learning. Every incident, minor or significant, prompts a review of site practices and system controls. Openness to change—especially influenced by customer experience—proves as valuable as technical expertise in keeping our material at the forefront of reliability and user satisfaction.
Staying responsive to what labs and industry require puts pressure on us to invest in technology, people, and storage capacity. Automated handling systems, new reaction vessels, and expanded cold storage have all grown from changing customer needs. Each addition lets us produce at new scales and maintain the stringent quality that advanced syntheses demand.
As we take stock of our journey with 2-Fluoro-6-Methoxybenzonitrile, the most consistent lesson remains this: understanding the needs of real-world users always yields better material and deeper trust. Whether the compound finds its way into investigational drugs, next generation crop protection, or specialty dyes, each kilogram reflects detailed planning, hands-on care, and an ongoing dialogue between our team and the world’s best chemists.
Any new project, no matter how ambitious, can depend on our steadfast approach and a willingness to step outside routine to solve unique problems. The future of synthesis will always rest on the shoulders of reliable, high-purity starting materials—and we remain committed to ensuring every delivery lives up to that promise.