|
HS Code |
469727 |
| Chemicalname | Phenol, 2-Fluoro-5-Nitro- |
| Molecularformula | C6H4FNO3 |
| Molecularweight | 157.10 g/mol |
| Casnumber | 403-16-7 |
| Appearance | Yellow to orange crystalline solid |
| Meltingpoint | 66-68°C |
| Boilingpoint | No data available |
| Density | No data available |
| Solubility | Slightly soluble in water |
| Smiles | c1cc(c(cc1O)F)[N+](=O)[O-] |
| Inchi | InChI=1S/C6H4FNO3/c7-4-1-2-5(8(10)11)3-6(4)9/h1-3,9H |
| Pubchemcid | 69950 |
| Synonyms | 2-Fluoro-5-nitrophenol |
| Refractiveindex | No data available |
| Storageconditions | Store in a cool, dry place, keep container tightly closed |
As an accredited Phenol, 2-Fluoro-5-Nitro- factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 25g of Phenol, 2-Fluoro-5-Nitro- is securely contained in an amber glass bottle with a tightly sealed screw cap. |
| Shipping | **Shipping Description:** Phenol, 2-Fluoro-5-Nitro-, should be shipped in tightly sealed, chemically resistant containers. Transport must comply with relevant regulations for hazardous materials, as this compound may be toxic and pose environmental risks. Ensure labeling in accordance with UN hazard classification, and shield from heat, moisture, and incompatible substances during transit. |
| Storage | Phenol, 2-Fluoro-5-Nitro- should be stored in a tight, light-resistant container in a cool, dry, well-ventilated area away from heat, sparks, and open flames. Keep it separated from incompatible materials such as strong oxidizers and bases. Ensure containers are properly labeled and protected from physical damage. Avoid exposure to moisture and direct sunlight. Handle only in designated chemical storage areas. |
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On our factory floor, the daily pulse comes from the steady rhythm of batch records, sample checks, and the sight of clear, pale-yellow crystals moving from reactor to filter to drum. Phenol, 2-Fluoro-5-Nitro-, a specialty intermediate, starts its journey here—not in a warehouse but under roofs where its purity takes shape as we watch every gram counted off the scales. Few intermediates demand such an intense focus on both handling and process detail as this one. The industry has plenty of phenols, but 2-Fluoro-5-Nitro stands out among them for its behavior in downstream syntheses, its ability to introduce both electron-withdrawing and halogen patterns, and the reactivity window it offers medicinal and agricultural researchers.
Our relationship with Phenol, 2-Fluoro-5-Nitro- did not begin just by a request from a catalog. It took investment in both analytical techniques and people, perfecting procedures for both the fluorination and nitration stages, then double-checking every result by GC and NMR. Since development, we've learned a lot about this compound’s temperament: how slight deviations in temperature shift impurity profiles, or how the slightest contamination can echo through downstream coupling reactions. That’s experience showing up not in systems diagrams, but in the discipline of clean glassware, the careful heat-up at each batch, and consistent headspace checks before packing. Advanced users in pharmaceuticals and crop science notice if a batch does not meet tight limits on unreacted precursors or if traces of process by-products bleed into their reaction streams. That’s why our teams walk the samples to the lab themselves, not just for compliance, but from professional pride.
Typical grade for our Phenol, 2-Fluoro-5-Nitro- exceeds 99% purity by GC, with water specified below 0.3% by Karl Fischer. We lock down residual heavy metals, halide levels, and limit aromatic by-products from incomplete fluorination or nitration. Each lot ships out with spectral and chromatogram records, not just as reassurance, but because our partners demand those data to validate their process controls. If a new downstream application comes up—from a modified API to a pesticide trial—we take that challenge seriously, often running extra analytics and gathering application data before making forward commitments. We make no claims of readymade solutions, but adapt methodically, listening to each project's requirements. Our production protocols stem from that close cycle between field requests and lab adjustments—dialing in reaction conditions as real trials reveal new sensitivities in activity or impurity carryover.
Product specifications, in our experience, mean nothing if they do not survive the realities of your synthesis line. We partner directly with process chemists, reviewing how our batches influence catalyst tolerance or post-processing yields. Sometimes, a hint of an off-odor in a drum or a slight cloudiness at the final recrystallization prompts a root-cause dive, making use of our own QHSE-driven records and the collective memory of plant operators who recall when a storage valve last received maintenance. It is this interlock of routine monitoring, shared technical vocabulary, and the persistent sense that each lot should be better than the last, that drives our documentation and batch approval standards. As our customers’ projects evolve, so too do the fine points of our acceptance criteria—always using facts from real runs, never just adhering to static paperwork.
Phenol, 2-Fluoro-5-Nitro- is not a household name, but it shows up in the fingerprints of modern science. In drug discovery, it’s valued in early-stage route scouting for targets needing both halogen and nitro substitution on an aromatic ring. The chemistry it enables spans amination, reduction, and coupling strategies that would be tough or unreliable on other substituted phenols. Our partners often use it as a launching point for custom ligands, agrochemical scaffolds, or as a node for downstream protection-deprotection schemes. In agricultural chemistry, the nitro and fluoro pattern enables structures less prone to metabolic breakdown and can fine-tune the activity window of trial compounds. We’ve observed our batches tested across a range of reactivity—Grignard, SNAr, and Buchwald couplings among others. Feedback comes from both bench notes and pilot reactors: does the product dissolve swiftly, does it maintain color through storage, and does it tolerate exposure to air? We collect and interpret these results, not because they are needed for a brochure, but because they shape our own batches.
The value of this fine chemical comes not just from its presence in the bottle, but from its reliability once it enters a workflow full of unknowns. One recent formulation trial highlighted how just a whisper of a byproduct in 2-Fluoro-5-Nitro-Phenol throws off product isolation at scale. Our adjustments—switching to a more inert solvent system during nitration and tightening material transfers—gave feedback not just in paperwork, but in a customer’s increased throughput. The lesson remains fresh for all our technical teams: performance in the factory translates to performance in the chemistry, and even minor lapses get magnified when a project scales up.
On the surface, many aromatic phenols look alike in a product catalog, but the way 2-Fluoro-5-Nitro- behaves sets it apart. Adding both a nitro and fluorine group fundamentally changes the electron density and the physical handling compared to plain phenol or standard mono-substituted phenol derivatives. Our teams have learned over time that this particular scaffold resists unwanted side reactions that spoil other nitro-phenols—especially during protected group strategies or selective reductions. Unlike its di-nitro or multi-fluoro cousins, the reactivity window for subsequent O-alkylation or amination stands out for greater regulator confidence and shorter purification time. That advantage shows up in less solvent usage per kilogram isolated, and a higher chance of isolating desired products without expensive rework.
Handling differences also stack up. This compound has a melting point and volatility profile that makes it less prone to sublimation losses at moderate temperatures compared to more volatile phenols. As plant operators, we pay close attention to this, especially when scaling up for larger runs where tight atmospheric controls take more effort. Finer grain sizing post-filtration and a relatively non-hygroscopic character mean less clumping during storage, speeding up formulation downstream. Continuous investment in dust collection and product containment reflects our real-world experience with this and similar aromatic nitro compounds—every practical tip and plant upgrade finds its way into safer, cleaner deliveries.
Certificates and regulatory records matter, but what makes them credible is the operating history behind each one. In our business, surprises hit hardest when an intermediate shows a fingerprint outside of expectations: a slow onset of a secondary peak or traces of off-pathway halogenated side products. Since customer syntheses can take months or years to qualify, we have to get it right batch after batch, not only on paper but in the reaction flask. We maintain full sample retention for each lot, letting partners double-check historical product quality as their own regulatory filings evolve.
Our lab staff test stability under several stress conditions, simulating both warehouse storage and climate extremes. Through these studies, we’ve identified exact conditions where discoloration might occur or where fine dusting of the product could be a potential handling risk during unloading. Every one of these findings circles back into our own handling protocols, and if a customer’s process needs adjustment, we bring those field results into future guidance. If a product deviation is spotted downstream, operators know how to trace the event to line operations or raw material changes. We share this data openly with partners, not just to tick a compliance box, but because these repeated, measurable facts allow researchers and formulators to plan ahead with confidence.
Packing and transporting aromatics such as 2-Fluoro-5-Nitro-Phenol comes with hard-learned lessons. We package each drum not just for transit, but for what actually happens at a receiving dock: opening, weighing, repacking, and sometimes re-bottling for pilot runs. Operators do not always have spotless cleanrooms, so our drums feature liners tested for both inertness and single-use closure ease. We've seen how static buildup or seal failures can cause headaches, so each packaging upgrade gets pressure- and leak-checked before full rollout.
We have worked with both seasoned process chemists and scale-up teams looking for repeatable flow. Our product awareness training and labelling standards avoid guesswork or misuse, and we document every update. Waste minimization and tracking cradle-to-gate help our partners meet regulatory and environmental expectations. We adopt recommendations quickly, whether they come from customer feedback or updated industry guidance.
As demand for new aromatic intermediates accelerates, the expectations on product integrity and sourcing transparency keep rising. We recognize that reliability with Phenol, 2-Fluoro-5-Nitro- extends beyond lot-to-lot purity; it touches traceability, environmental footprint, and readiness to adapt as synthesis strategies change. Not every request lands in a specification, and not every problem comes from the middle of a reaction. Sometimes it’s a simple question—what caused this small shift in IR spectra, or why did a drum show up with a slight pressure increase? We receive these calls and walk them through, using our technical records, not just printed guides.
Increasingly, researchers seek intermediates that shorten route development and cut down process waste. We hear concerns about regulatory pressure on nitro compounds, and respond by tracking new safety findings and refining containment. Our raw material audits now run deeper than ever. Knowing that a new endpoint could trigger process changes years down the road, we cooperate closely with everyone from procurement to laboratory teams to deliver samples, analytical data, and process histories—not for marketing, but because tomorrow’s process needs today’s real evidence.
Over the years, our partnership with industry researchers has been shaped as much by shared troubleshooting as by hits in the assay plate. When a new impurity profile emerges in a downstream test, we make the trek back to our plant logs and start tracing. Our teams check everything from micron-level filtration reports to unique plant odors during distillation, swapping insights between R&D, QA, and line staff. The details matter—a switched feedstock, an instrument recalibration, or even an extra wash step can make the difference between an off-spec batch and a reliable delivery.
Improvement grows from real situations: an unexpected tarry residue led our team to redesign condenser cleaning intervals. A customer’s feedback on difficult dissolution inspired a review of crystal habit management during drying. The reality of full-lot retention, duplicate analytics, and conservative tank cleaning means every decision tracks back to field conditions and not just theoretical guidelines.
While many chemical products carry similar CAS numbers, none exactly replicate the balance of reactivity, handling, and downstream success that Phenol, 2-Fluoro-5-Nitro- brings. Supporting this specialty builds on years of earned insight—not just a checklist, but an understanding of where end users want to go. We field requests for special purities, alternative packaging, and assistance tracing new regulatory requirements on nitroaromatics. We welcome those because each one speaks to the product’s role in pushing the industry forward. Across every order sits a promise: not only do we stand by each batch, but we build each lot on the details, lessons, and daily realities our teams gather from years spent working with this molecule.