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HS Code |
196155 |
| Productname | 6-Fluoro-2-Naphthoic Acid |
| Casnumber | 403-22-1 |
| Molecularformula | C11H7FO2 |
| Molecularweight | 190.17 g/mol |
| Appearance | White to off-white powder |
| Meltingpoint | 196-200°C |
| Solubility | Slightly soluble in water, soluble in organic solvents |
| Purity | Typically ≥98% |
| Chemicalclass | Naphthoic acid derivative |
| Synonyms | 6-Fluoronaphthalene-2-carboxylic acid |
| Smiles | C1=CC2=C(C=C1F)C=CC=C2C(=O)O |
| Inchikey | SYOFNWFTXFWTPC-UHFFFAOYSA-N |
| Storageconditions | Store at room temperature, tightly closed, dry place |
| Hazardstatements | May cause skin and eye irritation |
As an accredited 6-Fluoro-2-Naphthoic Acid factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 6-Fluoro-2-Naphthoic Acid, 25g, is packaged in a sealed amber glass bottle with a tamper-evident screw cap and hazard labeling. |
| Shipping | 6-Fluoro-2-Naphthoic Acid is shipped in tightly sealed, chemical-resistant containers to prevent contamination and ensure safety. The package includes appropriate hazard labeling and documentation per international regulations. During transit, the chemical is protected from moisture, direct sunlight, and physical damage, typically under ambient temperature conditions, unless otherwise specified for stability. |
| Storage | 6-Fluoro-2-Naphthoic Acid should be stored in a tightly closed container, in a cool, dry, and well-ventilated area away from incompatible substances such as strong oxidizers. Protect from moisture, direct sunlight, and sources of ignition. Store at room temperature and handle using appropriate personal protective equipment to prevent contact or inhalation. Label storage clearly for chemical safety compliance. |
Applications of 6-Fluoro-2-Naphthoic Acid in Industrial ManufacturingAs a direct manufacturer, we supply 6-Fluoro-2-Naphthoic Acid primarily to specialized sectors where its structural characteristics provide functional benefits in targeted synthesis and advanced materials processing. The following applications outline its integration into industrial workflows at scale, focusing on established downstream practices supported by current regulations, quality management benchmarks, and formulation protocols. 1. Intermediate for Agrochemical SynthesisDownstream agrochemical manufacturers employ 6-Fluoro-2-Naphthoic Acid as a core intermediate in heterocyclic synthesis for the construction of fluorinated crop protection molecules, especially for selective post-emergence herbicides. Its position in the process influences the substitution pattern essential for molecular activity, often dictating both the functional potency and environmental stability of the resulting agrochemical. Process engineers introduce the acid during the early-stage condensation and coupling reactions to achieve the desired substitution. Production lines leverage batch or continuous stirred-tank reactors depending on batch traceability requirements. Finished agrochemical actives derived from this route undergo standardized purification, crystallization, and quality checks prior to formulation and packaging. Industry compliance standards
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2. Building Block for Pharmaceutical API DevelopmentSpecialty pharmaceutical companies utilize 6-Fluoro-2-Naphthoic Acid as a key naphthalene building block for the synthesis of fluorinated scaffolds in advanced active pharmaceutical ingredients (APIs). Integration typically occurs during early-stage combinatorial chemistry, where functional group compatibility supports process scalability and patentable molecular architectures. The acid mainly enters as a starting material for amide or ester derivatization in targeted cGMP synthesis suites. Careful dosing and feedstock verification help meet trace impurity thresholds stipulated by pharmacopeias. Process analytical technology (PAT) tools monitor conversion and yield during coupling steps, prior to downstream purification and quality release. Industry compliance standards
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3. Synthesis of Functional Dye IntermediatesManufacturers of specialty dyes and pigments have incorporated 6-Fluoro-2-Naphthoic Acid for the generation of custom dye intermediates, with the fluorine substituent conferring improved lightfastness and durability on the final materials. The raw material is introduced at the condensation or coupling phase, influencing hue characteristics and fastness during subsequent transformation to the chromophore system. Advanced production systems monitor feed rates for batch consistency, followed by multi-stage purification and blending. The end products serve as performance colorants in textiles and industrial coatings, where advanced fastness is critical for specification compliance. Industry compliance standards
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4. Monomer Precursor for Specialty PolymersPolymer manufacturers employ 6-Fluoro-2-Naphthoic Acid as a specialty monomeric precursor in the production of high-performance aromatic polyesters and polyamides, where the inclusion of a fluoro-naphthalene motif imparts enhanced thermal resistance and dielectric properties. Material enters polymerization reactors after conversion to suitable co-monomers via esterification or amidation. Detailed material balance and thermal data drive the exact formulation for melt or solution polymerization. The resulting polymers are molded or extruded into advanced engineering materials and dielectric films for electronic and automotive components. Industry compliance standards
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As a chemical manufacturer with years behind each batch, every step from order to shipment tells a story about reliability and progress. When producing 6-Fluoro-2-Naphthoic Acid, attention to detail and real-world use have always guided the choices we make along the line. This molecule—sometimes seen on technical lists and sometimes requested by name by R&D chemists with tough synthesis challenges—comes with its own character and quirks. We have handled it in volumes small enough for early project trials and in batches large enough for industry partners designing advanced organic compounds.
Starting with naphthalene cores of established purity, we approach fluorination and carboxylation only after rigorous screening. Trace contaminants in the initial aromatic structures can throw off yield and consistency. Our reactors, cleaned daily and monitored for cross-contamination, create a space where side products from incomplete substitution stay limited. The 6-fluoro substitution on the naphthoic acid skeleton is never a chance event; specialized reagents and reaction monitoring ensure reproducible batches, with batch-to-batch variance so tight that researchers can plan their procedures with confidence.
Even small shifts in conditions—temperature gradients inside jacketed reactors, order and speed of reagent addition, or the rate at which we quench residual reactants—show up later in customer labs. We use in-line HPLC checks ahead of each major purification step, which helps us avoid surprises at both purity and color levels. The result isn’t just a product that meets a label claim; it’s a powder or crystalline solid that handles easily and stores without drama, thanks to careful respect for its thermal and light-sensitive nature.
Every manufacturer knows that a number alone—98% or 99% minimum assay—can hide more than it shows. In 6-Fluoro-2-Naphthoic Acid production, unwanted isomers or residual solvents sometimes hide behind broad peak integrations on simpler equipment. We use NMR, GC-MS, and full-spectrum UV analysis to confirm not just the main peak, but also to sweep for trace artifacts. Moisture and peroxide testing go beyond label requirements, especially when powders are destined for trickier organometallic or photochemical syntheses.
When packing, we include both glass bottles for research scale and sturdy drum packaging for pilot and manufacturing scale. Internal humidities are checked to keep below 0.3% H2O, since even low levels of moisture can impact some downstream coupling reactions. We ship each piece with a full COA and retain split samples for every lot—experience taught us that customers sometimes need to double check six months or a year later, and having a reference on-hand can be the difference between a slight delay and a lost order.
Labs reach for 6-Fluoro-2-Naphthoic Acid for several specific reasons. Structurally, its fluorine atom at the six position offers electron-withdrawing power needed in specialized cross-coupling steps, as well as a distinctive spectral signature for analysts needing clarity in multi-step syntheses. Carboxyl groups open doors to further amide and ester formations, making this material a node in organic frameworks for material science and certain pharma intermediates.
Polymer scientists mention the advantages brought by the selective fluorination—resins and advanced coatings produced from naphthalene-based building blocks sometimes require this precise atomic tweak to boost performance in resistance and stability tests. In pharmaceutical research, our customers report that this acid’s controlled purity allows tighter control of downstream impurities when working with palladium-catalyzed coupling or oxidative transformations. Shelf life tracked across multiple stored lots confirms that storing in amber glass at low humidity keeps the compound fresh even over months—a bonus for teams with long project lead times.
From the seat where daily challenges emerge, the real measure of a chemical like 6-Fluoro-2-Naphthoic Acid lies in the gap between advertised features and on-the-ground results. Customers who have struggled with inconsistent melting points or faint brown tint in received material tell us that high-purity claims don’t always equal clean workability. Purity, in our factory, comes with an eye for how impurities behave downstream, not just how each batch meets a spec sheet.
Comparison with other naphthoic acid derivatives—say, non-fluorinated or differently substituted versions—shows clear trends. Fluorination at other positions is less straightforward, sometimes leading to worse yields and higher impurity loads; 6-fluoro offers a sweet spot in both synthesis convenience and functional utility. Technical staff note how impurities from incomplete position-specific fluorination can linger, and how aggressive purification can drive up costs and reduce yields elsewhere. With 6-fluoro, work-up and crystallization run smoother—customers report better reproducibility in transformations such as amide formation or oxidative ring closure.
Transport and storage bring their own insights. We have seen that 6-fluoro carries less of a tendency to clump or hydrate compared to some of the higher-substituted naphthalenes. Long-distance shipments arrive without the caking or decomposition sometimes observed in more hygroscopic or sensitive analogues. These real details, witnessed during warehouse inventory checks and upon customer return audits, shape how we check packaging tightness and recommend storage routines.
Night-shift operators and laboratory staff handle every drum and bottle aware that modern analytics can spot problems that didn’t show up in older QA routines. Each instrument calibration tracks against certified standards for both purity and isomer identification. Our team monitors for micro-contaminants—often missed by standard HPLC alone—such as halogenated byproducts and aromatic impurities formed during incomplete substitution.
We address each deviation directly. Drift in detector response during NMR runs always triggers a production halt, preventing borderline lots from reaching customer settings. Past years taught us that chasing high yield at the expense of a clean product just creates more back-and-forth when a potential customer’s project stalls during intermediate formation or scale-up efforts. The method here puts real product reliability above shortcuts—audits regularly confirm both quantitative purity and qualitative handling.
Every corner of our facility respects the need for traceability. Digital records and cross-checked logs make it easy to backtrack any deviation, whether it’s a touch of unexpected coloration or a lot that took longer to crystallize. The outcome is more than a prepared documentation folder; it’s a pattern of trust with both new and returning customers.
Our clients often share direct results about process improvements or persistent difficulties they encounter with other providers’ material. For instance, small-scale medicinal chemistry labs highlight reduced time spent recrystallizing poor-quality acid, letting them push forward structuring new scaffolds. OEMs building specialty coatings or light-sensitive plastics tell us that their final product passes UV-durability testing more consistently when starting from our batches.
Analytical team leaders from larger industrial users confirm that contaminants leading to false positives or difficult-to-remove process residues dropped away since switching. In two cases, customers traced previously unexplained side reactions to low-level residues of dichlorinated or partially fluorinated byproducts not controlled in their earlier supply. With our consistent profiles and thorough lot histories, these issues have not recurred.
Process chemists scaling from bench to mid-size reactors face shifting behaviors in many chemicals, sometimes getting stuck with unexpected solubility or temperature instability. With our material, they share data showing that reaction windows remain predictable across different scales—an essential advantage during commercialization runs when downtime can erase months of profit.
Market trends echo in the orders we process and questions that come through our technical support line. Projects that five years ago leaned on simple naphthoic acids have pivoted to demand the substitution pattern provided by the 6-fluoro group. Customers driving for improved electronic properties, or who must fine-tune crystal packing for photonic materials, mention this shift most directly. This is not marketing chatter; our purchasing records and direct customer feedback align to show demand growing from both research and industrial users. As more development teams in electronics, dyes, and specialty polymers push past standard building blocks, 6-Fluoro-2-Naphthoic Acid plays a larger role.
Supply chain disruptions sometimes strain timelines. As a direct manufacturer, we control our own inputs and maintain backward integration with the major precursors. Our stockpiling and long-term contracts let us weather shortages that would otherwise halt projects for weeks or months. Customers who previously relied on brokers or resellers report improved continuity after switching to direct supply from our warehouse.
Efficiency and flexibility in production also matter in navigating market swings. Routine capacity audits and constant dialogue with procurement keep us nimble—able to scale up for large project launches or dial back for more research-driven, low-volume requests without forcing minimum order sizes onto customers who don’t need them.
Each lot is made with both user safety and environmental factors in mind. Worker training goes beyond paper certifications. We host regular in-house sessions on specialty handling and waste minimization, particularly since halogenated waste streams pose unique challenges compared to standard aromatic acids. On the shop floor, actual operators recommend tweaks to handling protocols which then get tested and rolled out if they prove effective.
We log, store, and treat run-off and vent streams under real oversight—not as paperwork exercises but as part of the culture. Eliminating chronic odors or faint exotherms from neutralization didn’t happen by chance—it took months of continuous improvement guided by operator input and outside audits. Sampling stations double as training points, letting new staff learn with hands-on practice before handling live lots solo.
Our stewardship continues past our own gates. Technical bulletins sent with product offer storage, use, and disposal tips based on both regulatory guidance and observed field data from customer partners. It’s common for R&D managers or EH&S coordinators at customer sites to reach out for tailored advice, which we freely share from the firsthand solutions developed in our own factory work.
Requests sometimes come through asking for side-by-side comparisons between 6-Fluoro-2-Naphthoic Acid and similar molecules. Colleagues in research stress that trying to substitute with other fluoro-naphthalene acids often brings in fresh variables: altered pKa, solubility, or unpredictable interactions with targeted catalysts. While every chemistry setting has its own challenges, our data—and those reported by regular clients—show that the 6-fluoro position brings a balance not always found in other isomers.
Feedback from scale-up engineers highlights improved filtration rates and reduced clogging during purification compared to ortho- or polyfluorinated analogues. Very low residual starting materials and side-products also prove crucial when tight impurity profiles are needed for pharma or advanced material development. In applications as varied as new pigment synthesis and electronics-grade resin formation, repeatability of outcome becomes the reason why teams return to this specific molecule—some even naming it as their new preferred intermediate.
In our hands, no process truly stands still. Whether introducing new screening tools or tightening routine QC, each improvement ripples out to customer processes in visible ways. Ongoing investment in people, not just instruments, marks the difference between reliable production and reactive scrambling to fix problems after the fact. Training newcomers to recognize not only purity but also how physical changes predict later reactivity has kept our failure rates low and rework almost unheard of.
We maintain long-term data on product performance, tracking the journey from first use to long-term project completion. This lets us spot seasonal drifts, rare packaging issues, or the subtle effects of supply chain fluctuations earlier than an external observer ever could. Where others over-promise or provide incomplete post-delivery service, we continue to assist as each project develops, taking pride in long-term relationships built on mutual understanding.
Direct manufacturing means more than production capacity. It requires the ability to listen and adapt as new applications, regulatory drivers, and supply chain constraints reshape the market. By integrating production, feedback, and technical support in a single chain of responsibility, we offer real value to the users who build their own innovations atop our offerings.
With more fields turning toward fluorinated aromatics for both efficiency and new application space, confidence in the quality and integrity of supply becomes even more valuable. Our experience with every aspect—from production tricks to aftercare—gives us perspective on both best practices and hidden traps that can trip up development programs.
Real challenges still appear—raw material availability, pressure to speed up lead times, environmental standards tightening year by year. We meet these changes head on, drawing on the shared expertise of veteran operators, process chemists, and logistics experts. By staying connected to both the factory floor and the people relying on our products, we keep 6-Fluoro-2-Naphthoic Acid at the forefront for those who depend on it, not as a promise, but as a proven outcome informed by daily, hands-on experience.