|
HS Code |
756204 |
| Chemical Name | 6-Fluoroquinaldine |
| Cas Number | 705-99-1 |
| Molecular Formula | C10H8FN |
| Molecular Weight | 161.18 |
| Appearance | Light yellow to brown solid |
| Melting Point | 47-50°C |
| Boiling Point | 272-274°C |
| Purity | Typically ≥98% |
| Smiles | CC1=CC2=C(C=C1)N=CC=C2F |
| Inchi | InChI=1S/C10H8FN/c1-7-2-3-8-4-5-12-10(11)6-9(7)8/h2-6H,1H3 |
As an accredited 6-Fluoroquinaldine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The 6-Fluoroquinaldine is packaged in a 25-gram amber glass bottle, sealed tightly, with a clear safety and hazard label. |
| Shipping | 6-Fluoroquinaldine is shipped in tightly sealed containers, compliant with chemical safety regulations. Packaging ensures protection from moisture, light, and physical damage. Proper hazard labeling is provided in accordance with international shipping standards. The substance is handled by certified carriers, with accompanying safety data sheets and documentation required for safe transport and delivery. |
| Storage | **6-Fluoroquinaldine** should be stored in a tightly sealed container, away from direct sunlight, heat, and sources of ignition. Store in a cool, dry, and well-ventilated area, preferably in a chemical storage cabinet designed for organic compounds. Keep separate from incompatible materials such as strong oxidizers. Ensure that appropriate labeling and safety measures are maintained at all times. |
Applications of 6-Fluoroquinaldine in Industrial ManufacturingAs an established producer of 6-Fluoroquinaldine, we supply this specialty intermediate directly to key downstream sectors that leverage its unique aromatic structure and fluoroarene reactivity. The following sections detail proven industrial applications, segmented by core manufacturing domains, with a focus on formulation integration, compliance, practical usage ratios, and real finished product types. 1. Pharmaceutical API Intermediate Synthesis6-Fluoroquinaldine functions as a critical building block in the synthesis of various active pharmaceutical ingredients, particularly those containing fluorinated heterocyclic frameworks. Major usage centers on the creation of quinoline and related moieties, where it serves as a strategic intermediate in multi-step synthesis. Its fluoro-substitution enhances molecular stability and biological activity, making it indispensable for manufacturing fluoroquinolone-based compounds and select kinase inhibitors. Downstream, pharmaceutical customers employ robust process controls to consistently incorporate our material into key reaction steps while maintaining adherence to international drug quality standards. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Agrochemical Actives ManufacturingWithin crop protection chemical production, 6-Fluoroquinaldine serves as a highly specialized intermediate for synthesizing fluoroquinoline-based pesticide actives. Its structural features facilitate targeted chemical modifications, enabling downstream plants to establish cost-effective, high-yielding formulations for systemic fungicides and insecticides with improved field performance. Our material’s consistent purity supports compliance with food safety and environmental regulations in principal agrochemical manufacturing jurisdictions. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. OLED and Advanced Display MaterialsManufacturers of organic light-emitting diode (OLED) materials use 6-Fluoroquinaldine as a precursor in the synthesis of specialty small molecules and polymers. Its electron-withdrawing fluorine facilitates controlled bandgap tuning and color purity in final emissive layers. Downstream processors value the material’s defined reactivity profile, allowing scalable introduction into high-purity synthesis trains without compromising emission efficiency or device stability. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Industrial Dyes and Specialty Pigment IntermediatesWithin the high-performance dyes and pigment sector, processors employ 6-Fluoroquinaldine as a functionalized aromatic nucleus in synthesizing colorants for plastics, fibers, and electronic materials. The fluoro substitution allows downstream chemists to achieve improved hue stability, heat resistance, and lightfastness in demanding applications. Precise integration during pigment molecule construction ensures batch-to-batch reproducibility required by advanced material manufacturers. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
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Every day at our manufacturing center, we've got our eyes on the line, weighing up the raw materials, following through each synthesis batch, and checking results ourselves. 6-Fluoroquinaldine, known among chemists as 6-fluoro-2-methylquinoline, isn’t just a new entry in the world of intermediates; it’s a solid example of why targeted molecular design can play such a big role in streamlining chemical production, especially in the demanding sectors like pharmaceuticals, agrochemicals, and pigment synthesis.
We only put our work behind products that we trust batch after batch. This material with its fluoro substituent at the six position and a methyl group at the second position offers a foundation for a lot of interesting chemistry. The formation of 6-Fluoroquinaldine draws on the same hard-earned experience we’ve built up over decades making both basic and specialty quinolines for process development teams worldwide. Watching from inside the plant, it's clear how small tweaks in structure, like a fluorine at 6, change both the physical properties and practical outcomes in large-scale reactions.
Out here, purity and consistency aren’t marketing terms—they’re the difference between an easy day and a frustrating one. The standard product comes as an off-white crystalline solid, with melting point typically in the range we’ve verified personally: 39 to 44 degrees Celsius. Nobody likes to repeat failed reactions, so we keep typical GC purities above 99% and avoid known side-products through careful fractional distillation and scrubbing steps. Our plant operators sample every lot, checking melting point, confirming the NMR spectrum, and running GC-MS verifications so that every drum arriving at your site performs to the same standard as the previous one.
We learned early that storage and shelf life affect customers more than theory. Our packing team keeps this material under a nitrogen blanket in sealed containers so that hydrolysis and decomposition never enter the picture before you open it. Longevity isn’t just down to formulation; it actually comes from disciplined, moisture-free handling throughout the plant—the kind you can only keep up when you value accountability on every shift.
Chemistry textbooks draw a neat line between parent quinaldine and its fluoro-analog, but our people see the differences in practice. Fluorine shifts electronic density, which helps in downstream coupling reactions involving acylation and halogenation. In pesticide and herbicide development, trace impurities and difficult-to-remove by-products can be the sticking point; that’s where our 6-Fluoroquinaldine shows advantages. Its purity slashes workup times in liquid-liquid extraction and crystal isolation when compared to non-fluorinated quinaldine or other halogenated versions made elsewhere.
The fluoro group at the six position increases stability under oxidative conditions, which helps when scaling up processes to pilot or commercial quantities. We’ve run reactivity comparisons against 6-chloro and unsubstituted quinaldine in side-by-side syntheses, and found that fluoride not only reduces side reactions, but also gives greater reproducibility, especially in Suzuki and Buchwald-Hartwig couplings needed for API intermediates. Another thing to note: The odor levels from trace impurities decrease considerably with our process, a difference quality teams recognize immediately when receiving shipments.
There’s no value in a chemical that behaves one way in a 10-gram flask, then throws surprises in a 500-kilo reactor. We’ve taken 6-Fluoroquinaldine through both pilot and production scale runs, supporting everything from antimalarial lead optimization to dye and pigment development. Teams focused on pharmaceutical lead synthesis choose this building block for introducing both electron-drawing and metabolically stable features into candidate molecules. The methyl group grants a handle for further alkylation or oxidation, while the fluoro makes the ring resilient through steps like nitration, deprotonation, and cross-coupling.
Agrochemical firms value reliability at the resin beds and formulation tanks; we’ve walked those lines ourselves in contract projects, so it means something when we can say this molecule lets process chemists steer cleaner transformations with a smaller impurity profile than older quinoline intermediates. Specialty pigment producers also lean on its unique spectral footprint, allowing novel color performance in some new-generation pigments. Any time the process relies on reactivity adjacent to the fluorine, this substrate gives a documented edge in selectivity and waste reduction.
Production teams know that quinolines love company: their tendency to form azeotropes, develop color, or polymerize with trace oxidants keeps things interesting. Many chemists haven’t seen these quirks until their yield drops during scale-up. Early on, we dropped several pilot-scale runs and learned from them. Stabilizers and real-time monitoring systems now back up every run. Operators constantly track temperature and pressure within narrow bands so that we never trigger unwanted rearrangements or ring closure side products. These extra steps aren’t about paperwork—they’re what keeps our product performing batch after batch.
Comparison with other quinoline derivatives often comes down to how well a product can stand up to long logistics chains, high humidity, or repeated transfers in a plant. Here’s where our extra molecular screening wins out. Trace water content and amine impurities never creep past our controls. On-site rapid testing and off-line NMR let us pull bad lots and refine protocols before shipping. We learned early that transparency about lot-to-lot variability builds relationships with plant managers and process chemists, not just buyers or spec writers.
It’s easy for paperwork to promise a certain purity or performance index, but only shop-floor discipline holds up under pressure. Our background in high-throughput quinoline production taught us that reaction temperature ramps, reagent quality, and clever inline monitoring make the real difference for consistency. We train every shift to recognize the slight off-color or viscosity changes that hint at process drift. In cases where fluorination steps threw up unexpected chromophores or side reactions, troubleshooting doesn’t happen at the computer—it happens with operators drawing out material and testing new washes or base extractions.
A remote team or hands-off distributor doesn’t catch the subtle signals that announce an upcoming batch deviation. By owning each production segment from raw precursor to finished product, we know the quirks of each reactor run and adjust parameters according to real-time feedback. This isn’t something we outsource. Vendors drop by to audit our lines, and every time, they find engineers who made their reputations by showing up at midnight to keep reactions under control or by inventing filtration tweaks that squeeze another point of yield out of each run.
Nobody wants surprises in the supply pipeline, especially in a climate of shifting regulations and tight transport timelines. We commit to real, on-hand stock which sits under environmental controls right next to the production floor, not in a rented cross-docking warehouse. Engineers perform the hand-off from synthesis themselves, confirming each batch certificate before it heads out. We’ve shown up for customer audits, opening individual drums and pulling live samples in sight of the visiting team, precisely because end-users expect more than paperwork—proof comes from performance and visible discipline.
To protect supply from market shocks, our sourcing for key precursors rests mainly with long-standing partners who actually share our level of documentation and transparency. This drastically limits production disruption and eludes market volatility. Some molecules in this class face regulatory delays, but with in-depth compliance expertise, we walk through every documentation step ourselves instead of leaving it to risk-averse brokers. Shipments leave our facility with exhaustive lot information, and everybody in the chain—from quality manager to loader—knows the truth behind each label.
Over years of custom manufacturing, the industry taught us to watch for significant differences between quinaldine derivatives. While 2-methylquinoline makes up the core of many synthesis plans, switching out a hydrogen for a fluorine at the six position shifts key process parameters. Fluorine brings a moderate boost in molecular stability, showing fewer unwanted rearrangements during catalyst-driven steps, especially in high-heat flows. Similarly, compared to 6-chloro or 6-bromo analogs, the fluoro variant pushes up reactivity in subsequent transitions—helpful for chemistries needing fast, controlled substitution without by-product headaches.
Cost matters on any scale, and though fluorinated building blocks sometimes demand a higher premium, the lower overhead in downstream separations and the cleaner workup counterbalances initial outlays. Downtime evaporates for customers because they spend less time on scrubbing, filtration, and post-reaction purifications. The practical gains go beyond what a technical sheet can list. We’ve had project leads call us weeks after switching in 6-Fluoroquinaldine, reporting reduced labor costs and faster campaign turnover compared to less selective or less stable options.
You can’t handle chemicals every day without putting plant safety at the top of the chart. Each operator in our facility follows PPE protocols, runs exposure tests, and logs air quality results. The fine details about storage, transfer, and waste handling came out of site-specific risk assessments, not just copy-paste from generic recommendations. Direct experience with quinaldine derivatives, especially those with halogen substituents, taught us to manage vapor and dust phase exposures closely. Each time we adjust procedures, we communicate real-world effects and process tweaks in internal reviews and industry feedback sessions.
On the regulatory front, transparency is everything. Our team doesn’t cut corners—auditable lot histories back up every shipment. Compliance never happens as an afterthought at our site; we invite inspectors and implementation partners regularly to review everything from raw material records to drum labeling. Our in-house compliance team doesn’t just file paperwork—they participate in root-cause investigations if a deviation turns up and push through corrective action plans in close consultation with operations.
Real change on environmental impact comes from action on the production line, not from mission statements. Each operator manages waste streams according to tightly set solvent recovery plans. At every stage, we target minimization of both aqueous and organic by-products. The goal is for nothing to leave uncontrolled, so secondary containment, real-time leak monitoring, and regular equipment audits stay built into every portion of our plant’s daily work.
We act with future regulations in mind, pursuing solvent swaps and process intensifications wherever practicable. In quinaldine production, including for 6-Fluoroquinaldine, this means transitioning to closed transfer systems and hyperlocal solvent recycling. Our ongoing investment in process improvements comes out of hands-on troubleshooting; it cuts waste bills and energy use, but also delivers lower environmental risk to neighboring communities. We consult with suppliers who show the same grit—those who actively cut fugitive VOCs, not just promise compliance on paper.
Direct conversations with formulation scientists, analytical labs, and production engineers have taught us much about the real-life advantages and catches of using 6-Fluoroquinaldine. We pick up details that never surface in R&D reports, like how cold chain interruptions challenge product integrity, or how even slight moisture pickup translates into sticky handling and cleaning downtime at customer plants. Our own troubleshooting on-site lets us feed back practical improvements into future syntheses—tailoring step changes, stabilizer levels, or packaging formats on the basis of user feedback and our own plant data.
End-users tell us which performance factors drive their preferences: standoff moisture sensitivity, reduced nitrogenous odors, and reliability in scale-up. Input comes both from small API synthesis labs and multinational formulation plants; both value accessible technical support and responsiveness in packaging needs. Many of our ongoing improvements come straight out of this gym of hard-won experiences, logged project by project, challenge by challenge.
Our credibility comes from hands-on manufacturing, not from pass-through reselling or rebranding stock sourced from unknown facilities. Site management engages directly with everything from raw material selection to reacting, refining, packaging, and shipping. This kind of deep engagement ensures we see every hiccup and can respond quickly, rather than relying on remote protocol or forms. We believe that explicit accountability keeps every employee and supervisor dialed in on product safety, reliability, and long-term performance.
From the moment customers inquire about 6-Fluoroquinaldine, they find themselves dealing with a team that knows its own process from floor to ceiling. Our knowledge doesn’t just come from spec sheets and literature; it’s grounded in lived daily work. And we’re always ready to back up any claims with live tours, open documentation, and technical details at the chemical, logistical, or compliance level.
Process managers and chemists alike ask the same questions time and again: Is the next batch going to perform just as well? Does the supply chain hold up across months and years—not just for the next order? Serving as both manufacturer and direct partner, we can guarantee hands-on involvement throughout the entire lifecycle of each lot. Our customer support never hides from a problem; we show up in person for new project launches, and invest in solutions with the end-user, not just for them.
Routine isn’t good enough; experience has taught us complacency puts production runs, compliance, and project timelines at risk. By always keeping people in the process loop, by prioritizing safety as actively as output, and by measuring results both on paper and on the floor, we’ve built our reputation lot by lot, delivery by delivery. For those looking to source 6-Fluoroquinaldine from a true manufacturing partner, our line stands ready, with open doors, full traceability, and a staff proud to put their name to every batch.