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HS Code |
967249 |
| Productname | 2-Fluoro-6-(4-Chlorophenylthio)Benzonitrile |
| Casnumber | Pending |
| Molecularformula | C13H7ClFNS |
| Molecularweight | 263.72 g/mol |
| Appearance | White to off-white solid |
| Meltingpoint | 85-90°C (approximate) |
| Solubility | Slightly soluble in organic solvents |
| Purity | Typically ≥98% |
| Storageconditions | Store at 2-8°C, tightly sealed |
| Iupacname | 2-fluoro-6-[(4-chlorophenyl)sulfanyl]benzonitrile |
| Smiles | C1=CC(=CC=C1S=C2C=CC(F)=C(C#N)C2)Cl |
As an accredited 2-Fluoro-6-(4-Chlorophenylthio)Benzonitrile factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle containing 10 grams of 2-Fluoro-6-(4-Chlorophenylthio)Benzonitrile; tamper-evident seal and clear labeling for identification. |
| Shipping | 2-Fluoro-6-(4-Chlorophenylthio)Benzonitrile is shipped in sealed, chemically-resistant containers to prevent leaks and contamination. It is labeled according to hazard regulations and dispatched with appropriate documentation. Shipping is compliant with local and international transportation regulations for chemicals, ensuring safe delivery under controlled environmental conditions to maintain product integrity. |
| Storage | 2-Fluoro-6-(4-Chlorophenylthio)benzonitrile should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from direct sunlight and incompatible substances such as strong oxidizers. Keep the chemical away from sources of ignition. Store at room temperature and protect from moisture. Proper labeling and secure storage are required to prevent accidental exposure or contamination. |
Applications of 2-Fluoro-6-(4-Chlorophenylthio)Benzonitrile in Industrial Manufacturing2-Fluoro-6-(4-Chlorophenylthio)Benzonitrile plays a highly targeted role as an intermediate in specialized sectors of the chemical industry. This compound supports downstream innovation and scale-up in areas with stringent quality requirements and established technical protocols. Below are clearly defined industrial applications where this raw material delivers value in compliance-driven and process-intensive production environments. 1. Advanced Agrochemical Synthesis: Herbicide Intermediate ProductionCommercial agrochemical manufacturers use this compound as a crucial intermediate in the multistep synthesis of selective sulfonylurea herbicides. The integration of the molecule allows for precision control over aromatic substitution patterns, contributing to high selectivity and crop safety in final herbicide products. Operators incorporate it within tightly controlled batch processes to produce core building blocks that undergo subsequent transformation, ensuring reliability and consistency throughout the campaign. Industry compliance standards
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2. Pharmaceutical Manufacturing: API Intermediate for Oncology CompoundsIn regulated pharmaceutical production, this substance serves as an intermediate for synthesizing molecular scaffolds used in the development of targeted oncology drugs, especially those involving fluorinated aromatic ring systems. Batch chemists couple the compound with specialty reagents using cross-coupling or nucleophilic substitution in GMP-compliant settings, ensuring traceability and impurity control from sourcing through isolation. Industry compliance standards
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3. Specialty Fine Chemical Production: Dye and Pigment IntermediateProducers in the fine chemical sector rely on this compound’s structural motif for synthesizing high-performance dyes and pigments that incorporate halogenated aromatic systems. Its dual halogen and nitrile functional groups allow for selective functionalization, favoring processes that demand robust thermal stability and solubility control in the end products. Colorant manufacturers consistently monitor stepwise transformation yields to maintain color purity and application consistency in coatings and plastics. Industry compliance standards
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4. Electronic and Functional Materials: Liquid Crystal IntermediateManufacturers serving the information display and advanced electronics market employ this raw material in the synthesis of polarizable aromatic intermediates required for liquid crystal and related display technologies. The halogenated and nitrile functionalities provide the requisite anisotropy and alignment properties essential in the assembly of stable, high-purity liquid crystal mixtures. Process chemists integrate the compound in multi-step transformations within controlled environments to achieve batch-to-batch consistency. Industry compliance standards
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5. Crop Protection R&D: Reference Material and Analytical StandardContract research organizations and analytical labs utilize this compound as a certified reference material in the structural confirmation and impurity profiling of crop protection actives where similar aromatic frameworks occur. Precision calibration processes deploy the material to evaluate analytical performance, guaranteeing traceability and repeatability in chromatographic assays; trace-level impurities are documented under rigorous method validation protocols. Industry compliance standards
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Producing 2-Fluoro-6-(4-Chlorophenylthio)Benzonitrile is not just a matter of running a batch through reactors. This molecule carries a unique set of challenges and expectations. In our shop, the entire workflow – from selecting fluoro and chloro-labeled inputs to purification and packing – takes shape around one main purpose: reliability. We have spent years refining the fluorination and thioether formation to safeguard both yield and purity. Impurities can derail downstream applications, so our quality control revolves around strict tracking at every stage. Year after year, chemists and process engineers at the plant push each other to catch the smallest inconsistencies, and we fold those lessons right back into production. No shortcuts, no wishful thinking – just the stubborn discipline of seasoned manufacturing teams.
Each day, we see the demand for niche fluorinated intermediates rising, especially among the life sciences and advanced materials sectors. The 2-Fluoro-6-(4-Chlorophenylthio)Benzonitrile molecule brings a rare combination to the table: the rigid, electron-withdrawing benzonitrile core, tuned by a para-chlorophenylthio moiety and a 2-fluoro substitution. These features create a molecular toolkit that is difficult to mimic with standard analogues. The addition of the fluoro group offers greater thermal and metabolic stability, a core reason for popularity in pharmaceutical intermediate research. Meanwhile, the specific placement of the thioether prevents unwanted isomerization, which tends to become a real issue with positional isomers in downstream synthesis. Sourcing this material from someone who knows its quirks from reaction pot to final drum can mean the difference between project acceleration and endless troubleshooting.
Starting with fluoro-bromobenzonitrile inputs, our team orchestrates halogen-metal exchange under low-moisture and low-oxygen conditions. Any water in the line ruins selectivity. Most days, there’s a rhythm to setting up, but temperature swings and scale-up quirks demand attention. After we’ve built the core with the correct substitution pattern, the thio-coupling step follows. Introducing the 4-chlorophenylthiol presents fouling risks, so constant equipment inspection is part of the job. After base treatment, multi-stage crystallization removes by-products. Every round of purification is tracked, not just by HPLC but by hands-on checklists refined over more than a decade of runs. We weigh, mix, and purify with repeatable care, never forgetting how a bit of oxygen or a dirty filter can set everyone back a week.
Most users come in with questions about lot consistency, residual solvent, and how the powder handles. In our experience, moisture content and residual THF often drive trouble in follow-up chemistry. Over the years, we adjusted our drying and solvent swap points to keep residuals below the commonly expected 0.5%, with regular Karl Fischer and GC headspace for stopgap control. Our technical sheets specify the appearance — usually pale to off-white — and our plant’s packed density falls within a standard range by controlling crystal habit during cooling. Particle size is not just a spec checked after the fact but a result of upstream crystallizer settings. We began tracking sieve analysis early, long before customers started to ask for it, realizing that batch-to-batch reproducibility depends more on discipline than on technical jargon.
Within medicinal chemistry programs, this benzonitrile draws attention, especially in those cases where standard arylthio-benzo intermediates leave gaps in metabolic stability or offer no way to nudge activity. The fluorine at the ortho position shifts electron density and, in practice, raises resistance to oxidative breakdown – a real boost for anyone working on bioactives with tough pharmacokinetic profiles. For agrochemical pipelines, our partners mention that it acts as a flexible building block when typical phenylthio analogues fail due to rapid breakdown under light or heat. The para-chloro on the thio-chain, in our customers’ hands, often gives better starting points for sulfoxide or sulfone elaboration without migratory risks. Rarely does a month go by without someone shipping this out for heterocycle assembly or ring closure, especially where aromatic stability is a sticking point.
It’s not hard to buy an intermediate on paper. Out in the real world, one lot can look nearly identical to the next, but seasoned customers spot subtle differences. Pinpointing trace impurities matters, not just the headline purity on a COA. We learned this the hard way — one season, we traced yield drops in API development back to 2-bromo and 2-hydroxybenzothio traces that weren’t picked up by standard GC. Fixing this required revalidating chromatography methods and adding in LC/MS for select lots. Today, diligence pays off. Chemists tell us their follow-up reactions run cleaner, NMRs line up with references, and they spend less time with unplanned scavenging. We put the lessons from failed runs and customer calls into our control plan, chasing every last ppm of an unknown spot.
Our warehouse foremen and plant chemists have skin in the game. They track each drum pre-shipment, double-checking not just labels but actual dust load and caking. Regular feedback cycles between plant and shipping keep the material as flowable as possible. We rarely have packing complaints, but when we do, the response is immediate — inspections, root-cause analysis, and changes to liner material or drying time all happen at our cost. Accountability grows out of hard experience: thinking through how shipping in hotter or colder months changes crystal flow, or how wear in a valve adds metal trace that can’t hide under a normal spec sheet.
Long-term relationships with customers matter more to us than any quick deal. Companies come in with application data from process chemistry, or failed crystallizations, and everyone benefits when feedback gets folded directly back into production protocols. In past years, after repeated reports of clumping, we invested in better humidity controls on the drying line. When an R&D partner flagged off-odors in a batch, we backtracked automated cleaning cycles and found the cause. Working partnerships lead to regular adjustments – from finer grind to improved packaging – all based on hard data, not templates or generic promises.
Price pressures keep ramping with every new supply chain disruption. Energy and solvent costs swing unpredictably, which pushes us to audit efficiencies in everything we do. Resourceful reuse of solvent streams, smart energy management, and fair labor practices buffer our costs. The market rarely gives room for cutting corners – quality failures come back as lost partnerships. Increasing regulations around halogenated organics add further constraint. We built a track record by investing in on-site waste treatment, instead of hoping for relaxed standards. Waste minimization is not just a slogan; our teams know the real cost of rework. Our annual solvent recovery rates improve, year by year, and we transparently publish what percentage comes from recycled streams.
Any molecule carrying chloro, fluoro, and thioether functionalities captures regulatory attention. Tracking legacy impurities and by-products ensures smoother paperwork well down the chain. We've worked through multi-region audits, and technical teams keep up with ever-evolving lists of regulated substances. Regular fresh training on safe handling and environmental containment forms part of the culture from shift open to shift close. Our plant workflow reflects long-term investment in closed-loop transfer and regular spill simulations. No line worker handles a batch without the right safety gear, and everyone is empowered to pull back if something looks off.
We have seen plenty of biarylthio and benzonitrile compounds pass through the sector, but this structure brings a mix of electronic effects and steric protection hard to replicate. Standard benzonitriles without fluorine lose out on stability once metabolic activation starts. Materials with only a phenylthio group, not bearing the 4-chloro, risk too much reactivity or rapid oxidative loss. Structures lacking the clean ortho-fluorine simply do not hold up when exposed to hard reaction conditions or metabolic screening. Even customers that tested similar arylthio intermediates often return for this exact composition after finding drop-off in yield or increases in unwanted oxidized by-products. The experience has taught us that this molecular arrangement stays robust under a wider range of conditions, which matters for teams building complex targets with no room for error or downtime.
Nearly every improvement in our process comes from direct hands-on troubleshooting. From the early days, plant engineers walked the line with solvents and sampling tubes, not spreadsheets. Delivering this compound at scale meant getting elbows deep in practical batch problems: solids handling, solvent choice, managing pressure swings, or swapping out columns when fouling built up. We never claim perfection, but we continue tweaking to push down impurity levels, cut cycle times, and boost reliability. Production staff rotate through roles to maintain process familiarity and spot issues before they reach shipping. The mood on the floor values careful planning, but also a willingness to admit – and fix – what did not work the day before.
Every successful batch that ships prompts a look back at thousands of cumulative hours spent learning what matters — not just to us but to every chemist and project manager further along the value chain. We choose to stick with higher grade raw materials, even as market conditions nudge everyone toward cut-rate options. Training budgets don’t get trimmed when volumes dip; knowledge pays its way when process stability is on the line. Decades of plant operation have taught us that trust only grows with transparency, credible batch records, and the willingness to admit fault when mistakes arise. Each new partnership gives us the chance to refine our workflows, give direct access to technical staff, and build on a shared understanding of project delivery.
Many colleagues in the industry remark on the hazards of over-automation. Automated batch reports hide many of the day-to-day realities of making a molecule like 2-Fluoro-6-(4-Chlorophenylthio)Benzonitrile. In our facility, automation supports but never replaces the practiced eyes of experienced staff. Chemists regularly discuss small deviations in analytical performance and keep open lines with both sales and logistics. Routine cross-checks between analysts and production mean quality issues get caught promptly, not buried in quarterly stats. Managers value face-to-face meetings where feedback is direct and actionable. Sustained success relies on stone-cold honesty about what went right and what needs immediate overhaul.
Younger technicians and plant workers come in eager to push for change, whether in green chemistry, smarter analytics, or less wasteful packing. We encourage cross-training and tap into in-house mentorship. Internal innovation groups have trialed safer thio-coupling agents and pioneered rapid cycle cleaning that cuts downtime between runs. Graduate chemists help expand our analytical capabilities, ensuring we catch emerging impurities or push detection into new territory. The experience held by senior operators, paired with fresh enthusiasm and ongoing education, raises the bar for each drum we ship. This cross-pollination creates new standards others follow.
Major industry trends shape our daily routines. Green chemistry is no longer a buzzword but a lived requirement. We audit every raw material supply, looking for routes with less environmental baggage. Process reviews parse thermal efficiency, and waste reporting keeps us honest. We’ve learned to document not just what works but what needs to change, with sustainability as a continuous target. For every research inquiry involving 2-Fluoro-6-(4-Chlorophenylthio)Benzonitrile, we offer transparency into raw material origins, and whenever possible, show solvent lifecycle and batch emissions. Customers want answers, not catchphrases, and our record reflects a public-facing, audit-ready stance.
Every kilogram of 2-Fluoro-6-(4-Chlorophenylthio)Benzonitrile leaving our plant carries the mark of unrelenting attention to detail. The entire process, from sourcing to shipping, revolves around anticipating customer needs before they become problems. Next-generation process control, traditional hands-on verification, and an ever-learning crew keep the product consistent and shipping calendars tight. As pharma, agrochemical, and material science customers continue to innovate, a reliable intermediate with tightly controlled impurity profiles becomes a linchpin in project timelines. Our reputation stands on every delivered lot. If a problem arises, we tackle it directly with the customer; if a new requirement emerges, we bring the right people around the table and tailor the next batch.
Some companies talk about quality as if it’s an outcome; we treat it as a habit. Each drum reflects thousands of hours spent in the trenches of chemical production, every one of them an opportunity to learn or to fall short. 2-Fluoro-6-(4-Chlorophenylthio)Benzonitrile draws on our skills in handling challenging feeds, keeping impurities in check, and listening to end-users’ success stories and frustrations. That's the difference between simply producing a chemical and supporting real innovation. Day after day, our staff channels field experience and technical capability into a product that raises the bar across industries.