|
HS Code |
843684 |
| Productname | 3-Fluoro-4-(Trifluoromethoxy)Phenol |
| Casnumber | 886763-02-2 |
| Molecularformula | C7H4F4O2 |
| Molecularweight | 196.10 |
| Appearance | White to off-white solid |
| Meltingpoint | 73-77°C |
| Purity | ≥98% |
| Solubility | Soluble in most organic solvents |
| Smiles | OC1=CC(=C(C=C1)F)OC(F)(F)F |
| Inchi | InChI=1S/C7H4F4O2/c8-5-3-4(13)1-2-6(5)12-7(9,10)11/h1-3,13H |
As an accredited 3-Fluoro-4-(Trifluoromethoxy)Phenol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle labeled "3-Fluoro-4-(Trifluoromethoxy)Phenol, 5g," with hazard symbols, batch number, and supplier logo. |
| Shipping | 3-Fluoro-4-(Trifluoromethoxy)Phenol is shipped in tightly sealed, chemical-resistant containers to prevent leaks and contamination. Packaging complies with relevant regulations for hazardous materials. It is transported under ambient conditions, with proper labeling and documentation to ensure safe handling. Shipping is available both domestically and internationally, following all applicable safety guidelines. |
| Storage | Store 3-Fluoro-4-(trifluoromethoxy)phenol in a tightly sealed container, protected from light and moisture. Keep in a cool, dry, well-ventilated area, away from incompatible substances such as strong oxidizing agents and bases. Handle under inert atmosphere if possible. Ensure proper labeling and restrict access to trained personnel only. Follow all relevant safety and regulatory guidelines for storage and handling. |
Competitive 3-Fluoro-4-(Trifluoromethoxy)Phenol prices that fit your budget—flexible terms and customized quotes for every order.
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Over years of running reactors and monitoring purity shifts, we've noticed that some chemicals make waves quietly. 3-Fluoro-4-(Trifluoromethoxy)Phenol belongs to this group. The first time our team tipped this molecule from glass reactors, we caught its clean, crisp odor—lighter than its heavier halogenated cousins. Each batch brings a confidence only found in controlled, carefully logged processes. The satisfaction from seeing spectral certainties paired with tight yields cannot be understated for those of us at the bench and behind the tanks.
The code we use in-house: 3F4TFMP-114. It’s not a fancy nickname; it’s the shorthand born out of our daily process tracking. Our batches rarely stray from a minimum 98% purity, and that’s because we stick to a carefully managed temperature ramp and solvent swap during purification. This purity ensures the molecule’s downstream reactivity and gives research teams confidence when they scale or modify their own targets.
Our facility handles both kilo-scale glass reactors and safe, jacketed vessels for larger outputs. The white-to-off-white powdered crystals pour with a dryness that signals a low moisture content, something we monitor directly using Karl Fischer titration. The melting range stays tight, and any deviation sends us back to tweak both vacuum and crystallization rates. Every staff member understands that stability starts with each shift’s documentation, not just final lab analysis.
Over the years, more than one R&D customer has walked our factory floor. From them, and from our own trials, we’ve learned this fluorinated phenol jumps at the chance to serve as a core building block in pharmaceuticals and agrochemicals. Medicinal chemists appreciate its dual substitution—fluorine and the trifluoromethoxy group drive not only electronic effects but also metabolic stability or lipophilicity in lead compounds. We often discuss reaction intermediates with client labs, troubleshooting quirks in etherifications or halogen-metal exchanges that need insight into actual impurity profiles we see batch after batch.
In agrochemical syntheses, process chemists use our phenol to engineer selective fungicidal and herbicidal agents. Its role in heterocycle construction shows up time and again, largely owing to the electronic push and pull from the substituents, making subsequent coupling or protection steps more reliable. The trifluoromethoxy group, notorious for being tough to install on other substrates, comes standardized on this molecule, simplifying synthetic steps downstream.
Comparing our phenol to other halogenated phenols starts in the weighing room. Lighter analogues—like standard 4-fluorophenol or mono-fluorinated benzenes—do not offer the same chemical resilience. That extra CF3O- group transforms both the steric and electronic properties of the aromatic ring. Researchers tell us that it opens doors to routes they can’t try with simpler, non-trifluorinated phenols.
During one scale-up for a customer in fine chemicals, their comparison between our 3F4TFMP-114 and the less substituted 4-fluorophenol revealed reduced side-product formation and tighter yield spreads. That outcome came from the unique electron-withdrawing interplay between the fluorine and trifluoromethoxy groups. In downstream reactivity, this effect often determines the difference between multi-step production that sputters or sails. We’ve seen our material make for cleaner Suzuki and Ullmann cross-coupling steps, for example, as both direct participants and in blocking groups.
Another difference sits in ease of handling. While many phenols oxidize rapidly, especially in humid conditions, this product resists discoloration and remains free-flowing much longer under typical warehouse conditions. For partners who ship in bulk or work in less controlled climates, that means less worrying about off-packing or batch re-qualification. Handling trials in our own warehouse and in customer returns have reinforced this observation enough that we make targeted recommendations about packaging and shipping schedules—which saves money and preserves confidence.
Every reaction run, every column loaded in our plant builds a more complete map for future batches. It’s tempting to see production as routine, but feedback from the QA bench keeps our team engaged with the micro-variables: solvent selection, trace moisture, column fouling. The 3-Fluoro-4-(Trifluoromethoxy)Phenol output consistently upholds our quality standards because nobody on our floor tolerates shortcuts. We spot-check for by-products, log every exotherm, and reroute off-spec material toward internal analysis rather than risk client projects.
We have refined our purification to avoid common pitfalls: loss of the CF3O- motif through over-heating, incomplete removal of isomeric contaminants, and cross-contamination with structurally similar halogenated phenols. Sharper analytical eyes on the NMR and GC/MS traces always pay back when a customer’s project encounters analytical or regulatory hurdles. There’s pride on the team when our certificate of analysis proves lockstep accuracy with the client’s own lab, even before they pick up the phone.
Trust builds across each delivered drum. We do not hide behind certificates; we encourage audits, answer synthesis route questions, and support troubleshooting with our real experience. Clients facing stubborn impurity peaks or struggling to replicate lab results benefit from the depth of our in-plant troubleshooting—a result of thousands of real-world runs, not theory. If a project hits a snag, process details open for discussion instead of locked behind corporate jargon.
The reality of chemical manufacturing means surprises land in every facility: unexpected spikes in water content, odd melting points, or color shifts. Our policy roots itself in prompt, clear explanations rather than deflection. Whether an answer lies in raw material variance or operator shift changes, we pursue fixes with a sense of personal responsibility—because we watch our products enter regulated supply chains and research environments.
Chemicals like 3-Fluoro-4-(Trifluoromethoxy)Phenol attract attention from compliance teams, given their structure and reactivity. Years of audit logging and dossier submissions have made us experts in transparent documentation. We view regulatory scrutiny not as a chore, but as partnership with stakeholders. Proper waste stream handling, diligent documentation of emissions, and real-time traceability shape our SOP design. We never treat regulatory paperwork as an afterthought—it mirrors the seriousness placed in daily production.
Over the last decade, conversations about perfluorinated compounds cast necessary scrutiny on the lifecycles of specialty chemicals. Our plant’s design incorporates containment strategies and closed-system waste management tailored to minimize both fluorinated residues and volatile escapes. Any redesign—new abatement technology, enclosure upgrades—brings shop floor input into planning, because they see firsthand where improvements close gaps. Open engagement with community monitors and environmental regulators ensures risk controls stand up to public and corporate expectations.
Every buyer knows the pain of market disruptions. Early in our trajectory, a surge in demand for trifluoromethoxy intermediates shook global supply lines. Lessons from that period taught us to lock down raw material streams, cultivate long-term partnerships with upstream providers, and hold strategic reserves. Our facility maintains in-house analytical screening not just on finished product but also upstream intermediates.
We believe supply stability handshakes with plant transparency. By holding some steps in-house and refusing to outsource every stage, we build buffers against quality dips and sudden shortages. Batch traceability isn’t an administrative burden, but a protection for both us and our downstream partners—one that shows its worth when the market turns volatile. The real cost of switching lots, if a core precursor supply dries up in the middle of production, outweighs any upfront investment in integrated sourcing.
Innovation in fine chemistry depends on open dialogue between maker and user. Graduate students, scale-up chemists, and formulation experts regularly bring us novel targets and unusual process needs. On one project, a partner wanted alternate substitution patterns, which sent us back into the lab to tweak catalyst and temperature. Success came from walking through the synthesis, step-by-step, with the customer’s own failed attempts in hand, not from shortcutting with data sheets.
Sometimes, researchers need lots outside the standard kilogram runs—a few grams for early-stage screening, or tens of kilograms for pre-commercial validation. Our plant’s flexibility, woven into routine operations, allows us to scale up or down around real demand instead of pushing minimum order quantities. Special requests—from alternate lot sizes to custom drying protocols—fit into our workflow without bulk surcharges, thanks to this built-in adaptability.
Advanced testing, whether for stability, reactivity under unusual conditions, or detailed impurity mapping, grows out of our close link between production and QC. Clients share assay challenges or missed analysis targets, and we bring deeper experience with the real variability found from run to run. That sense of shared project risk underlies our staff culture—aligning factory-floor skill with evolving customer needs.
Every batch processed in our facility tells a story. Sometimes, subtle temperature drifts during crystallization nudge yield lower than expected. Sometimes, external feedback catches a transient impurity before it crosses specification thresholds. Instead of relying solely on post-mortem corrections, we drive for incremental upgrades every run. This hands-on improvement touches everything, from refining solubility prediction models based on real mother liquor data, to adapting cleaning protocols in response to minor but stubborn residue build-ups unique to 3-Fluoro-4-(Trifluoromethoxy)Phenol.
Process chemists on our floor push each other to ask better questions—not just why an issue appears, but how to design out the risk. We treat improvements not as admission of past errors, but as necessary steps in today’s challenging, global environment. Each time a reactor is charged, years of accumulated know-how work in tandem with new eyes looking for better answers.
During industry gatherings, the conversation often turns to the reliability of supply and the honesty of origin claims. We stand by our ability to show production histories, raw material documentation, and analytical cross-checks, putting transparency at the center of our customer relationships. The value of this approach becomes clear when clients return project after project, citing not only the dependability of the chemical compound but also the predictability of both quality and problem-solving support.
We recognize that confidentiality agreements and intellectual property needs sometimes limit information flow, so we engage within those boundaries to supply as much process detail as possible. Our willingness to open our doors—virtually or for in-person audits—sets a tone that ripples through the industry, helping establish new benchmarks in supplier-customer trust.
Following global research trends, we keep a close eye on new use-cases and synthetic pathways for molecules like 3-Fluoro-4-(Trifluoromethoxy)Phenol. Predictive modeling, patent landscaping, and published literature patterns all point toward expanding utility in fragment-based drug discovery and greener chemical development. This puts continual pressure on us to sharpen production, keep analysis up-to-date, and remain ready to adapt at a moment’s notice.
Emerging requests often revolve around higher selectivity, tighter impurity specifications, or alternate forms of the same molecule. Our experience shows that quickly adapting and staying vigilant with cleaning protocols, analytical updates, and packaging solutions defines who thrives and who falls behind as the science advances. The same goes for anticipating regulatory shifts about fluoropolymers and specialty halogenated products, where being slow to act risks both compliance gaps and damaged reputations.
The chemistry on paper never tells the whole story. Years at the reactor’s edge teach respect for variability: operators with trained eyes can spot an off-hue or unexpected foam long before instruments report out-of-spec readings. We invest in workforce skill, viewing operators not as button-pushers, but as problem-solvers who bring lived experience into every batch.
Ongoing training, open discussions of production misses, and hands-on cross-training mean that all team members grow in their understanding of both chemistry and customer expectations. That institutional knowledge helps us spot trends earlier, address unsafe practices, and deliver product that matches evolving industry needs.
From the first gram weighed to the final drum shipped, our focus stays on reliability, practical feedback, and honest partnership. For every company or lab that brings our 3-Fluoro-4-(Trifluoromethoxy)Phenol into their processes, they connect not only with a source of technical reliability but with the sum total of experience and pride that our team pours into every kilogram.
Our customers tells us the distinction is clear—transparent production, practiced troubleshooting, and readiness to tackle custom needs define their experience with us. This is not simply a commodity chemical; it represents a relationship, built batch by batch, grounded in hands-on discipline and open communication. That distinction, proven every day on the manufacturing line, is what defines the ongoing story of our 3-Fluoro-4-(Trifluoromethoxy)Phenol.
