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HS Code |
484737 |
| Chemical Name | 2-Fluoro-6-(4-Fluorophenoxy)Benzonitrile |
| Molecular Formula | C13H7F2NO |
| Cas Number | 1072955-37-7 |
| Appearance | White to off-white solid |
| Melting Point | 58-61°C |
| Purity | Typically >=98% |
| Smiles | C1=CC(=CC=C1OC2=C(C=CC(=C2)C#N)F)F |
| Solubility | Slightly soluble in organic solvents (e.g., DMSO, DMF) |
| Storage Temperature | 2-8°C, keep tightly closed |
As an accredited 2-Fluoro-6-(4-Fluorophenoxy)Benzonitrile factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle labeled “2-Fluoro-6-(4-Fluorophenoxy)Benzonitrile, 5 grams.” Tamper-evident seal, hazard symbols, and safety instructions included. |
| Shipping | 2-Fluoro-6-(4-Fluorophenoxy)benzonitrile is shipped in tightly sealed containers, protected from light, moisture, and incompatible substances. Packages comply with relevant chemical transport regulations and are labeled with hazard information. Proper temperature and handling precautions are maintained to ensure product stability and safe delivery during transit. |
| Storage | 2-Fluoro-6-(4-Fluorophenoxy)benzonitrile should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from direct sunlight. Keep away from sources of ignition, strong acids, bases, and oxidizing agents. Use appropriate personal protective equipment when handling, and store at room temperature or as specified on the product’s Safety Data Sheet for optimal stability. |
Applications of 2-Fluoro-6-(4-Fluorophenoxy)Benzonitrile in Industrial ManufacturingAs a direct manufacturer, we supply 2-Fluoro-6-(4-fluorophenoxy)benzonitrile for downstream industries where its distinct chemical reactivity and substitution pattern play a key role in the production of high-value compounds. The following applications reflect real industrial scenarios based on actual implementation, specialized compliance handling, and customer usage feedback within regulated, precision-driven processing environments. 1. Advanced Agrochemical Synthesis: Selective Herbicide IntermediatesLeading agrochemical producers use this compound for the synthesis of selective herbicide actives, particularly in the fluorinated aryloxyphenoxy class. Its ortho and para fluorine substitution enhances target molecule stability and biological activity required for modern weed management. Industrial integration occurs in key condensation steps; the usage ratio and process parameters are calculated for yield and residue control, meeting strict agricultural chemical regulations worldwide. Industry compliance standards
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2. Pharmaceutical Building Block: Synthesis of Fluorinated Aromatic Drug IntermediatesPharmaceutical API manufacturers deploy this material as a key aromatic intermediate for the construction of complex, fluorinated molecules targeting CNS and oncology applications. Its sterically controlled substitution ensures reliable regioselectivity in subsequent transformations, crucial for GMP-grade drug substance production. Handling and purity management align with global pharma synthesis standards. Industry compliance standards
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3. Specialty Material Precursors: High-Performance Liquid Crystal MonomersProducers of specialty display materials utilize this compound for synthesizing liquid crystal (LC) monomers. The two fluorine substituents impart strong dipolar properties, essential for the alignment, switching speed, and contrast performance required by advanced LCD and OLED panels. Raw material addition is closely monitored for purity and dielectric characteristics. Industry compliance standards
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4. Agrochemical Research: Reference Standard and Analytical Reagent PreparationR&D entities and specialized test laboratories source this compound as a primary reference for quality control and residue analysis in the development and authentication of fluorinated agrochemicals. High chemical stability and defined impurity profile make the material suitable for method calibration and performance benchmarking in regulated environments. Industry compliance standards
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5. Fine Chemical Synthesis: Functionalized Aromatic Intermediate in Custom Synthesis RoutesContract and fine chemical manufacturers integrate this aromatic fluoro-nitrile into multi-step custom syntheses, targeting molecules with specific electronic, steric, and lipophilic properties. Its dual fluorine positioning facilitates specialized transformations such as directed ortho-metalation or selective hydrolysis, meeting customer-driven specification and purity requirements. Industry compliance standards
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In the fast-moving world of chemical synthesis, one compound that continues to boost performance and reliability in advanced applications is 2-Fluoro-6-(4-Fluorophenoxy)Benzonitrile. Speaking as a manufacturer, the journey to consistently produce this compound with high purity has taught us a lot about how small changes in chemistry can create broad impacts through the entire value chain. This molecule brings a unique balance of stability, reactivity, and compatibility, and we understand the details that set it apart from near alternatives.
At the factory floor, we monitor every parameter closely—starting with sourcing base materials that meet strict purity requirements and tracking real-time conditions like temperature, time, and pressure. Each batch of 2-Fluoro-6-(4-Fluorophenoxy)Benzonitrile exits the reactor with a high level of consistency, a direct result of our obsessive focus on process control.
This product does not just carry a standard CAS number and structure. The purity we deliver, usually surpassing 98%, impacts downstream reactions and finished products in a real, measurable way. Over the years, investing in precise crystallization and drying methods means clients report fewer side products and higher conversion rates in their processes where this intermediate is a key step.
We see continuous demand for 2-Fluoro-6-(4-Fluorophenoxy)Benzonitrile from labs driving progress in pharmaceuticals, agrochemicals, and advanced materials. Chemists rely on the molecule’s stability and selectively designed electronic properties to open up new reaction pathways. By introducing fluorine atoms at specific positions within the benzonitrile framework, reactivity rises in ways that enable highly targeted substitutions.
Much of our feedback comes from R&D teams who value reproducibility. A batch that contains trace impurities, even just 1%, can shift the trajectory of a medicinal chemistry program or a crop protection candidate. Our in-process controls minimize these secondary contaminants and keep the final analysis well within rigid spectroscopic thresholds, directly supporting those who need precise, repeatable outcomes.
If someone looks at a catalog, it is easy to assume that many phenoxybenzonitrile derivatives are interchangeable—especially among those with small fluoride substitutions. Experience in manufacturing shows this is not the case. Small changes in the position of a fluorine atom or in the linkage between phenyl groups can change not just how the material behaves, but its shelf life, solubility, and compatibility with certain reagents.
We have seen cases where a minor structural deviation leads to side reactions that clog process filters or cause unwelcome crystallization in pipes, slowing down production or harming product yields. Specific to 2-Fluoro-6-(4-Fluorophenoxy)Benzonitrile, the positioning of both fluorine atoms optimizes the balance between electron withdrawing effect and reactivity, improving coupling and substitution efficiency. This helps keep the manufacturing process robust and scalable, from kilogram lots to metric tons.
Factories face risk each time a new material enters their processes, and volatility in results often traces back to inconsistent input quality. Our teams prioritize surface area control and moisture management to make sure that each shipment behaves predictably, from the production drum right down to the reactor.
Strict attention to packaging—using liners that prevent any ingress of atmospheric moisture and sizing drums for optimal flow—reduces the likelihood of clumping or static charge build-up. Clients in scale-up and pilot plant settings appreciate that receiving a drum from our production line means less downtime and fewer surprises. Clean transfer, reliable flow, and rapid integration into existing processes give downstream users a better shot at reproducible yield, every time.
Our journey through countless customer trials, feedback sessions, and internal tests has proven one thing: 2-Fluoro-6-(4-Fluorophenoxy)Benzonitrile performs where other, closely related benzonitrile derivatives fall short, especially in step-yield, reactivity in cross-coupling, and downstream purification. While many derivatives can act as intermediates for active ingredient synthesis, we see a definite edge with this compound, especially in Suzuki and Buchwald-Hartwig coupling reactions.
During process trials, users often remark on the clean reaction profiles when using our product. Less byproduct means less headache for purification crews. In a field where purification steps can determine a process’s overall success, these small gains translate to significant cost and time savings through the supply chain.
In-house, we constantly revisit parameters to align with the evolving needs of modern synthesis. Sophisticated reaction engineering, filtration, and Q.C. analysis have consistently helped us ward off batch-to-batch variability. Having watched hundreds of chemical processes at work, one reality stands out: attention to detail at every junction, from raw materials to the final drum or bottle, is crucial.
Our technical team values transparency and works side-by-side with client formulation and process groups to troubleshoot or preempt issues. Over the years, this has shaped how we finetune process temperatures or optimize solvent systems, ensuring that end-users see tangible benefits not just on paper but on the production line or in the development lab.
Responsibility extends beyond product quality. In our facilities, closed-loop solvent recovery, strict emissions controls, and adoption of greener process technology help balance the need for high purity and consistency with environmental stewardship. Our staff regularly participates in industry benchmarking, ensuring that our environmental controls align with the highest current standards.
From experience, well-managed waste streams not only reduce impact but also create efficiencies that keep our costs competitive. These savings and operational improvements circle back to our partners, improving long-term reliability of supply and maintaining confidence in process continuity even as environmental regulations evolve worldwide.
We draw our process validation and quality benchmarks from a mix of empirical data and hard-won experience. As analytical technology has evolved—NMR, HPLC, and GC-MS have become standard tools for real-time verification—we have invested in continuous training for our staff and updating methods to flag and address impurities at ever-lower levels.
Throughout long-term customer relationships, detailed records from multiple lots have guided better predictions for shelf life and guided optimization of storage and transport protocols. The knowledge that every drum behaves as expected, even after extended shipping, comes from this constant cycle of feedback and improvement.
In the reality of contract manufacturing and rapidly changing project pipelines, speed matters as much as stability. Industry shifts and last-minute changes in customer demand require both agility and robust planning. Our facilities operate with redundant systems, stockpiling critical inputs to smooth out supply disruptions. That way, even during peak demand or global logistics slowdowns, our partners receive product that keeps projects on track.
We have realigned shift patterns, retrained personnel, and automated key processes so that teams can turn around new orders or batch adjustments without missing a beat. Our direct relationships with raw material producers, coupled with in-house purification capabilities, mean reduced lead times and more predictable scheduling for our clients.
Across sectors, the enduring value of 2-Fluoro-6-(4-Fluorophenoxy)Benzonitrile comes from its role as a springboard in the development of new actives and high-performance materials. In pharmaceuticals, its unique electronic structure contributes to the selectivity and potency of several important lead compounds and optimized APIs. Agricultural researchers lean on this intermediate in creating next-generation crop protection agents that require fluorinated moieties to achieve optimal plant protection results.
Polymer chemists and materials scientists seek the molecule for its combination of thermal and chemical inertia, which facilitates the creation of advanced coatings, films, and specialty plastics where fluorinated aromatic units can make or break an end formulation.
Ever more stringent regulatory requirements for trace metals, solvents, and unknowns put pressure on all actors in the specialty chemicals field. To satisfy these obligations, we channel significant resources into documentation, traceability, and ongoing risk assessment—long before final shipment. Dedicated teams oversee updates to our technical and safety dossiers to help downstream partners smooth their compliance path.
Instead of reacting to new limits or documentation needs, our strategy is to anticipate change. In the past, we have adjusted syntheses to minimize persistent organic pollutants, and optimized reagents to meet REACH and local regulatory norms. These adjustments make life easier for our users, letting them focus on transforming raw materials into value-added products, knowing their supply chain stays compliant.
Greater insight often comes from small details. Over the years, the little things—batch segregation, drum labeling, hands-on training—prove just as vital as large, expensive equipment upgrades. Efficient handling practices, robust maintenance, and factory culture grounded in accountability ensure every shipment matches expectations.
Troubleshooting does not wait for a complaint form. Shift leaders and technical managers on our lines catch and sort out potential deviations before they ever reach packaging. Monthly staff meetings and line-side improvement projects set the rhythm for preventative action instead of last-minute firefighting.
Consistency ranks highest on feedback we receive from pharmaceutical and fine chemical partners. Customers describe fewer production halts, reduced re-test requirements, and faster project progression when working with proven suppliers. This kind of reliability supports not just basic purchasing needs, but long-term innovation, because users can safely allocate resources to higher-value research and development.
In high-stakes industries, competitive advantage often rests on supply chain partners who understand every aspect of a product’s life cycle, from process hazards to regulatory filings. Having watched how single points of failure can derail months of work, we commit to unwavering quality, steady communication, and always finding new ways to minimize variability.
True manufacturing strength comes less from any individual milestone than from a company’s willingness to keep learning. Every customer suggestion, every test result—good or bad—shapes an evolving roadmap for improvement. Internal benchmarking and regular capital investment cycles ensure that every piece of equipment, and every member of our team, operates at peak performance.
This momentum generates practical results that benefit end users: faster filtration, reduced waste, sharper analytical peaks, even easier material handling. As regulatory pressures and project timelines tighten, these types of improvements help companies move faster and with greater confidence.
The road to delivering great chemicals is paved with hands-on factory experience, not just technical theory. 2-Fluoro-6-(4-Fluorophenoxy)Benzonitrile exemplifies this approach. Its popularity across sectors returns directly to its robust stability, ease of downstream transformation, and reliability in operation. After working closely with chemists from early-stage R&D through full-scale production, we see a clear trend: this compound promotes cleaner reactions, fewer surprises in scale-up, and a streamlined regulatory path for high-value end products.
Competing molecules with slight differences in ring structure or substitution tend to introduce doubt and risk. A proven supplier familiar with the full production and distribution cycle reduces those risks considerably. Our cumulative experience—years of hands-on production, hundreds of customer interactions, and direct feedback from end-users—solidifies our approach to making and delivering this intermediate. The end result is that every partner, large or small, receives a product capable of supporting their ambitions, without introducing extra steps, delays, or unnecessary complications into their processes.
Rather than viewing intermediates as mere stepping stones from one product to another, we recognize that strong process chemistry starts at the point of manufacture. This means reliable sourcing, accurate in-process control, efficient purification, and packaging designed for real-world handling challenges. A drum of 2-Fluoro-6-(4-Fluorophenoxy)Benzonitrile represents more than its chemical structure. It is a crystallization of collaborative advancements between factory engineers, regulatory specialists, and application chemists who together fine-tune each step from concept to completion.
From our vantage point, the future belongs to those compounds and manufacturing partners that can balance innovative chemistry, operational reliability, environmental responsibility, and sharp attention to real-world needs. The success of 2-Fluoro-6-(4-Fluorophenoxy)Benzonitrile in diverse applications is proof that raw material quality, process insight, and teamwork are inseparable at every stage of the chemical journey.