|
HS Code |
318662 |
| Chemicalname | 6-Fluoro-2-Aminophenol |
| Casnumber | 1835-19-6 |
| Molecularformula | C6H6FNO |
| Molecularweight | 127.12 g/mol |
| Appearance | White to light brown solid |
| Meltingpoint | 132-136°C |
| Boilingpoint | Unknown |
| Density | Unknown |
| Solubility | Slightly soluble in water |
| Smiles | NC1=CC(F)=CC=C1O |
| Inchi | InChI=1S/C6H6FNO/c7-4-2-1-3-5(8)6(4)9/h1-3,9H,8H2 |
| Refractiveindex | Unknown |
| Synonyms | 6-Fluoro-o-aminophenol |
| Storageconditions | Store at room temperature, keep container tightly closed |
As an accredited 6-Fluoro-2-Aminophenol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle containing 25 grams of 6-Fluoro-2-Aminophenol, tightly sealed with a screw cap and labeled with hazard warnings. |
| Shipping | 6-Fluoro-2-Aminophenol is shipped in tightly sealed containers to prevent moisture ingress and contamination. It is typically packaged in amber glass bottles or high-density polyethylene containers, cushioned and labeled according to hazardous material regulations. Shipping complies with local and international transport guidelines for chemicals, ensuring safe handling and delivery. |
| Storage | 6-Fluoro-2-Aminophenol should be stored in a tightly closed container, in a cool, dry, and well-ventilated area, away from direct sunlight. Keep it away from incompatible substances such as strong oxidizers and acids. Store at room temperature and protect from moisture. Follow institutional safety guidelines and use appropriate chemical storage cabinets if available. |
Competitive 6-Fluoro-2-Aminophenol prices that fit your budget—flexible terms and customized quotes for every order.
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In our decades of synthesizing aromatic intermediates, 6-Fluoro-2-Aminophenol stands out for consistent reliability and versatility. Our team, working at scale rather than on a bench, has handled this compound in batches from kilograms up to metric tons. The product model most in demand comes as a fine pale crystalline powder, typically exceeding 99% in purity by HPLC. We don’t send out anything we wouldn’t feel safe running through our own reactors. Our technical staff inspects every lot, because skipping quality checks leads to headaches downstream in anyone’s synthesis chain.
As chemists, we see 6-Fluoro-2-Aminophenol not only for its molecular formula—C6H6FNO—but for its practical reactivity. The presence of both a fluorine atom and an amino group in ortho configuration gives this compound distinctive properties. This isn’t a matter of theory. Processes relying on the activation from the fluorine substituent, or the nucleophilicity of the amino group, directly benefit from the structure. Some manufacturers chase the cheapest raw materials. Years of trial, error, and feedback from regular customers taught us that standardized, reproducible specifications remove a lot of risk and cost from their later production stages.
Many industrial chemists first encounter 6-Fluoro-2-Aminophenol as an intermediate in the development of pharmaceuticals or specialty dyes. Pharmaceutical research teams, especially those targeting fluorinated drug scaffolds, value this product for introducing both reactivity and selectivity into aromatic rings. You might see it in API syntheses where the fluorine enhances metabolic stability or modulates electronic properties, whereas the amino and hydroxy functionalities serve as key handles in further transformations.
Dye chemists have also come to count on this compound. The modification at the 6-position often delivers color and fastness improvements, areas where subtle changes in substituents mean the difference between a commercially viable pigment and an underperformer. Our longstanding customers in pigment development have pushed us to hone our process further—ensuring consistent color intensity batch after batch. No distributor can really appreciate the challenge the way a manufacturer does when a fraction of a percent shift in impurity can change a pigment’s tone or lightfastness.
Outside dyes and drugs, specialty polymer manufacturers sometimes use 6-Fluoro-2-Aminophenol as a monomer precursor—looking for the balance of rigidity and chemical resistance that fluorinated building blocks bring to engineering plastics. The dual functional groups offer starting points for complex crosslinking reactions, which fabricators rely on to get precisely the right mechanical or thermal properties. Our process accommodates these customers by offering precise lot traceability and purity data.
Laboratory catalogs make many aminophenols look interchangeable. In reality, the choice between 6-fluoro, 4-fluoro, or even the basic 2-aminophenol directly affects downstream chemistry. Our chemists have investigated process routes using different isomers under identical conditions. Successful yields, crystallization efficiency, and safety profiles all differ between them.
Our 6-Fluoro-2-Aminophenol offers reaction selectivity that 4-fluoro or non-fluorinated variants don’t always match. Specific couplings—such as Suzuki, Buchwald-Hartwig, or diazotization—often proceed with higher purity and lower byproduct formation when starting from the 6-fluoro derivative. Competing products often come with residual moisture or metallic impurities that can complicate catalyst-driven synthesis. We anticipated this early on and built our drying and filtration steps to minimize contamination—accepting a lower yield rather than shipping product that could foul a palladium catalyst or disrupt stoichiometry.
The other key difference comes in safety and environmental handling. Chlorinated aminophenols, for instance, can emit problematic gases under basic conditions. By contrast, 6-Fluoro-2-Aminophenol, as we have confirmed by long-term waste analysis, produces fewer volatile byproducts and generally leaves a cleaner aqueous effluent after workup. Industrial users save time and money they would otherwise spend on neutralization and scrubbing.
Our best process knowledge has come not from textbooks, but from the repeated lessons of pilot plant trials and feedback from hundreds of actual users. Synthesizing 6-Fluoro-2-Aminophenol on a large scale creates challenges rarely covered in academic discussions. Controlling the halogenation and subsequent amination requires tight regulation of temperature, pressure, and reagent purity. During early runs, we saw issues with para-isomer contamination and unreacted starting material. With each iteration—sometimes after troubleshooting batches that ran past midnight—the technical team refined both crystallization and purification protocols for reliability, not just lab-scale performance.
Reducing residual fluorine-containing byproducts and ensuring low heavy metal content take real investment in analytical equipment and method optimization. High-resolution chromatography, multiple-stage extractions, and strict monitoring of synthesis variables are standard at our plant, not just good intentions. Years of regular audits and feedback from the most demanding customers have kept us raising the bar for every metric that matters—yield, color, density, melting point, and impurity profile.
After seeing customers store this product in a variety of industrial settings—temperature- and humidity-controlled warehouses, non-air-conditioned stockrooms, and even near open loading bays—we’ve collected the kind of practical data you can't find in monographs. 6-Fluoro-2-Aminophenol holds up well in most conditions when kept in sealed containers, though regular exposure to high humidity can cause the powder to absorb moisture and cake. To help our partners, we optimize our packaging for minimal vapor transmission and robust mechanical protection during transport. Bags and containers always get a double layer and, for export shipments, enhanced moisture barriers.
We also run stability studies on every production campaign, not just initial batches. Our best containers maintain the necessary quality standard even after a year in storage. No batch leaves our facility without a signed-off certificate matching rigorous shelf life data. We learn every year exactly how it behaves along real supply chains—by truck, sea, or air. This lets us advise customers honestly, backed by data from our own logistics department and round-trip shipments.
From a manufacturer’s perspective, few things matter more than minimizing waste and emissions. Making aromatic fluorinated compounds comes with environmental responsibilities. Rather than settle for compliance, the plant engineering team prioritized closed-loop solvent recovery early in process development. Most of the solvent used for crystallization and washing gets reprocessed and reused.
We also tackled the waste stream by selecting reagents that allow efficient neutralization and by using adsorbents to capture trace organic fluorine before water discharge. In the past, some waste streams contained higher-than-expected residues. After switching to a multi-stage treatment, even the most demanding third-party audits found no persistent organic fluorine above actionable levels. Our own team benefits from cleaner, safer working conditions; customers appreciate transparent environmental data with every lot shipped.
6-Fluoro-2-Aminophenol synthesis begins with a chain of building blocks, each affecting the price, consistency, and sustainability of the final compound. Years of working with global suppliers has shown us that not all sources of fluorobenzene or aminating agents meet the same standard. Before every new supplier enters our system, technical and commercial teams audit them—not just for pricing, but for compliance with local environmental and labor standards.
The industry has seen dramatic price shifts and periodic interruptions in raw material availability due to regulatory changes in major manufacturing regions. Knowing that, we work within a diversified supply system that can buffer temporary shocks. Our team has negotiated flexibility with logistics partners and holds contingency stocks, so customers can avoid costly delays when global markets tighten. The aim isn’t lowest cost at any price, but continuation of supply during volatile market conditions.
Many leading pharmaceutical and chemical development teams approach us for more than bulk product supply. Through regular collaboration with researchers at both startups and established labs, we support small-scale custom requests and technical data generation. We regularly supply detailed spectral, chromatographic, and stability data to support patent filings and regulatory submissions.
When customers adapt 6-Fluoro-2-Aminophenol for new reaction schemes, our in-house chemists offer guidance based on first-hand scale-up experience. Sometimes, a subtle change in a workup method or purification protocol makes an outsized difference in yield or cost. We don’t just hand over a product spec sheet—we share what we’ve seen work (or fail) in practice, lessons accumulated over generations of process improvement.
As regulatory agencies set new requirements for pharmaceuticals, dyes, and industrial chemicals, all suppliers must adapt. Our compliance department keeps a close watch on changing global frameworks. Forward planning prevents most surprises: we conduct annual regulatory reviews and update documentation required for local and international shipment. These include up-to-date impurity profiling, residual solvent analysis, and hazard communication fields based on real test results; every report is generated by our own technical staff.
Having a direct line to market feedback helps us anticipate when adjustments must be made. A few years ago, increased scrutiny of residual halogenated impurities led to rapid investment in better purification columns. We’d already seen the trend in customer questions before regulations formalized it; a large manufacturer can act on these signals faster than most. Long-term customers benefit from these improvements as part of any ongoing supply contract, without waiting for regulatory enforcement.
Every batch that leaves our plant becomes part of a bigger project somewhere else. Quiet conversations with customers reveal real-world hurdles—from purification bottlenecks to formulation challenges. New uses for 6-Fluoro-2-Aminophenol, like its adoption in agricultural chemical development or advanced materials synthesis, give us early signs of where demand will shift next.
We routinely hear from manufacturing engineers and formulation teams who appreciate the extra effort in drying, contaminant removal, or packaging—we adapt these process tweaks quickly across future lots. Technical support doesn’t stop at delivery; troubleshooting sessions with end-users have often improved our own internal processes.
We see a landscape where increased transparency, traceability, and technical support become non-negotiable expectations for every chemical supplier, not just large multinationals. Blockchain or distributed ledger tools may play a role in documenting every stage of product movement from initial synthesis to final use. As electric vehicles, battery materials, and specialty organofluorine compounds continue to grow as sectors, the pressure mounts on upstream suppliers to deliver ever-purer products on tighter schedules.
In response, our R&D department is investing in both process intensification and digital technology for process control. Automated sampling, inline spectroscopy, and advanced data analysis yield not just better product quality, but real-time information we can share with partners. This shortens lead times for specification changes, minimizes downtime, and flags any batch that deviates from baseline targets before shipment. Customers aiming to meet green chemistry goals can also reference our cradle-to-gate lifecycle data, tracking every energy input and emission tied to a specific lot.
Whether you’re a formulation chemist, a process engineer in an API plant, or someone troubleshooting a pigment production line, the stability of your raw material supply chain matters more now than ever. We’ve seen how market volatility, port backlogs, or access to certified products can add both cost and risk to manufacturing projects. Our responsibility as the manufacturer extends beyond simply putting product on a truck; it includes providing a backstop against last-minute disruption and offering practical technical advice drawn from actual process operations.
Experience shows that the lowest initial price rarely delivers the lowest total operating cost or least headaches. Investing in careful upstream synthesis, transparent quality assurance, and responsive communication directly increases measurable productivity in every downstream plant. Over the years, collaborative troubleshooting, fast technical turnarounds, and open dialogue have enabled our partners to keep meeting their production plans—despite ever-tighter margins and schedules.
Everything in this commentary reflects the point of view of a manufacturer handling bulk-scale chemical synthesis, quality assurance, and customer support—not an agent or speculator. Our plant workers and technical team take pride in knowing that every drum and bag shipped meets not just a number, but a standard we refine year after year. The lessons come directly from hundreds of projects, improvements, near-misses, and successes.
6-Fluoro-2-Aminophenol will continue playing a critical role for pharmaceutical, dye, and materials manufacturers adapting to a faster-changing world. Through ongoing investment in technology, technical support, and supply chain resilience, we aim to stay the supplier partners recommend—whether it’s for reliability during volatile markets, data transparency, or simply a product that works batch after batch.