|
HS Code |
158822 |
| Cas Number | 20434-73-7 |
| Molecular Formula | C8H7FO2 |
| Molecular Weight | 154.14 g/mol |
| Iupac Name | 1-(4-fluorophenyl)ethan-1-one |
| Appearance | White to off-white solid |
| Melting Point | 65-68°C |
| Boiling Point | 265°C |
| Density | 1.235 g/cm³ |
| Solubility | Slightly soluble in water; soluble in organic solvents |
| Smiles | CC(=O)C1=CC=C(C=C1)F |
As an accredited 2-Acetyl-4-Fluorophenol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The 100g 2-Acetyl-4-Fluorophenol is supplied in a sealed amber glass bottle with a tamper-evident cap and safety labeling. |
| Shipping | 2-Acetyl-4-Fluorophenol is shipped as a chemical substance, packaged securely in sealed containers to prevent leaks and contamination. It is transported under ambient conditions, following relevant regulations for safe handling and chemical transport. Hazard labels and documentation accompany the shipment to ensure compliance and safe delivery to the destination. |
| Storage | 2-Acetyl-4-Fluorophenol should be stored in a tightly closed container, in a cool, dry, well-ventilated area away from sources of ignition, acids, and incompatible substances. Protect from moisture and direct sunlight. Store at room temperature and segregate from strong oxidizers. Ensure proper labeling and restrict unauthorized access. Use secondary containment to prevent spills or leaks. |
Competitive 2-Acetyl-4-Fluorophenol prices that fit your budget—flexible terms and customized quotes for every order.
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Years of focused synthesis and process adjustment have led to the 2-Acetyl-4-Fluorophenol that comes out of our reactors today. We take raw phenol and tailor it, integrating acetyl and fluorine groups with exacting control so the chemical structure meets quality benchmarks every batch. This isn’t just theoretical on paper; the proof runs in our logs, our HPLC prints, and the transparent solid that fills our drums and pails. Density, melting range, molecular purity—each measurable attribute tells the story of painstaking detail built up over years of lab trial and scale-up. Customers in flavor, fragrance, and specialty chemical sectors ask for this molecule with increasing frequency. We see their product labs pulling in our batches not because the CAS number matches, but because the color, solubility, and aroma profile don’t throw them curveballs in their own development cycles.
Synthetics can only play in so many fields at once, and certain molecular structures open up interesting flavor avenues and versatile reactivity. This compound delivers a profile that bridges the gap between the softer resonance of acetylated phenols and the sharp, unique notes of fluorinated aromatics. We discovered years back in our pilot labs that fine-tuned process conditions, particularly the fluorination stage, keep side-products out and give a clean, reproducible outcome.
Our customers want more than a chemical ingredient—they look for a foundation they can build on without worrying about batch-to-batch drift. For flavors, even minor impurities ruin the story that perfumers or food scientists want to tell. We keep yields high and losses low by avoiding aggressive oxidants and controlling temperature as if fine-tuning an instrument, not just running a machine. That subtlety is why certain niche confectioners, beverage engineers, and aroma houses gravitate back to this molecule over the analogues that look similar on a spec sheet.
From the earliest design of our plant, we built flexibility for acetylation and halogenation steps. In our facility, stainless steel reactors and fluorine-safe gaskets help minimize downtime and unwanted contamination. Reagents come in with traceability, no off-the-truck buying. We’ve learned, from some hard experiences in our first years, that recycled or off-spec acid throws a wrench into the works—a lesson as old as the chemical trade itself. This is why every batch of 2-Acetyl-4-Fluorophenol gets tracked with unique IDs, and samples get archived before materials move on to downstream users.
Our process doesn’t just run on autopilot. Our operators can tell you the curve of the batch temperature by heart. We monitor for exothermic spikes and color change—not just by instrument, but by trained eye. That’s the intuition that helps us spot issues early, saving downstream cleanup and rework. Water quality, solvent grade, raw material sourcing—these hide in the background, but drive the visible success you see in each shipment.
On paper, the CAS number is 345-92-6. Our major product variants land as a colorless to pale-yellow crystalline solid. In every lab and every plant, we run GC and HPLC for purity—routinely above 99%. Typical melting points hover consistently so formulation staff know exactly what they’re getting, reducing headaches in remelting or reprocessing.
Moisture is a focus. Even small upticks in water content have torpedoed other suppliers on downstream stability tests. After our drying and packaging tweaks, we keep water well under the limits—no bloating, no packaging corrosion, and no mysterious spots forming in user warehouses. Flask-to-pail transfers, line clean-outs, and nitrogen purges cost money and time, but doing these steps means our customers rarely call us about shelf-life complaints or ‘mystery degradation’ events months after delivery.
Pack sizes run from laboratory grams to full drums, and every size is handled with the expectation that the end user notices the tiniest deviation. We do not believe in pall-batching or blending wildly variable lots just to fill an order; each lot stands on its own. Our business never started with the premise that we could compete on volume alone; consistency beat volume every fiscal year since we started.
2-Acetyl-4-Fluorophenol carries a distinctive aromatic note—a slightly creamy, vanilla-leaning character, sharpened by the presence of the fluorine atom. Chemists and application developers tell us that this profile sets it apart from non-fluorinated cousins or from unsubstituted acetophenones. Not every synth can get the balance right: too much acetyl, and the character goes flat; poor fluorination, and harsh or medicinal notes creep in. In the early years, we dumped plenty from failed runs, but the lessons stuck, and now our controls rarely slip.
Many alternatives in the market take shortcuts—pushing acetylation hard and skipping careful purification. That approach seldom survives rigorous customer audits. Those products wind up with broader impurity bands or brownish tones, setting back R&D cycles for flavorists and aroma specialists. Every time a lab manager shows us comparison samples from aggregators or wildcat sources, we see color drift and broadening peaks in their chromatograms. Lower cost, yes; but hidden headaches.
Our supply stands out not only for purity, but for predictability across months and years. Aroma chemists, for example, struggle when forced to adjust vanilla bases or chocolate flavors for fluctuating profiles. With our approach, they manage to run longer without recalibration or unplanned laboratory work—saving money but mostly preserving creativity, because their sensory panels can trust the ingredient to behave as expected.
As chemical manufacturers, we see the supply chain from the inside. Orders come to us with details—lot testing, transport handling, production timing. From the earliest days, direct relationships with users saved headaches at both ends. When a batch needs custom drying or a particular packing gas, that request comes straight to us. Traders lack that flexibility. Downstream labs sometimes ask for re-testing or detailed analytics not found on standard sheets, and we provide them because we run the reactors and the analytics ourselves.
A recent case clarified this approach. A large fragrance company flagged a variance in an incoming batch from an outside source. Their panel found traces of a chlorinated impurity. That same week, we got a call—not to fix someone else’s problem, but to run deeper impurity scans on our own product. With all synthesis and QC on-site, our team provided full lot traceability in hours, not days. Our supply sailed through; customer confidence increased because every ounce, from raw feed to packed solid, came from our hands.
2-Acetyl-4-Fluorophenol appears in diverse finished formulations. Aromatics companies anchor it in vanilla, caramel, and creamy bases, building a consistent taste and aroma foundation for major food brands. Years ago, a niche chocolate firm tested several variants head-to-head for stability, top-note persistence, and flavor clarity. Our product took top marks again and again, with feedback that drift in aroma profiles remained within their benchmark year after year.
It’s not just food. Some clients in pharmaceutical intermediates explored our compound for specific coupling reactions, drawn by the selectivity fluorine introduces at the para position. Our in-house synthetic chemists worked directly with these customers, tweaking drying protocols, optimizing particle size to match reactivity demands in lab and pilot trials. By sharing titration curves and impurity maps, we helped them troubleshoot downstream process steps—a level of interaction traders rarely deliver.
During the surge in demand for specialty fragrances, perfumers leaned on our product for subtlety and resilience to heat processing. Our samples showed better retention during distillation, helping customers reformulate without having to switch to unstable or price-fluctuating natural extracts. Market interest tracks closely with these trend lines; every uptick in confectionery or fine fragrance launches seems to circle back to new requests for our fluorinated phenol variant.
Our responsibility doesn’t start and stop at factory gates. We field more questions now than ever about waste minimization, solvent recovery, water discharge. We design our actives so that losses stay low and residues meet disposal standards without costly extra treatments. For 2-Acetyl-4-Fluorophenol, we invested in second-stage solvent stripping so only minimal solvent residues remain in the final carrier. Customers find this matters most when scale pushes higher—fewer bottlenecks, lower transportation hazard fees, less stranded waste during product changeovers.
Over many cycles, we optimized plant schedules to lower energy spikes during the exothermic stages. These efficiency gains compound: smaller emissions footprint, less stress on cooling towers, fewer transport delays during hot seasons. Today’s buyer, whether procurement or technical, expects honest disclosures on process inputs—not just a glossy spec sheet. We walk the process, and we welcome vetting.
Not long ago, customers flagged recurring inconsistencies from competitor batches, thinking the issue came from packaging or tanker contamination. In more than a few cases, we sampled the disputed batches directly. More often than not, the real culprit turned out to be a rushed or uncontrolled fluorination stage upstream. Slight overheating in those steps pulls in hydrolyzed byproducts—the kind that smell ‘off’ or introduce unseen stability risks in final products.
People ask if our approach can make the molecule ‘safer’ or more ‘natural’. The truth rarely fits marketing slogans; molecular purity, not clever labeling, drives product performance and safety. Sourcing clean raw phenol, verifying each reaction stage, and employing staff who know the smell, color, melt point, and solubility window of the real deal matter more than any paperwork marketing catchphrase.
Questions have come up about allergen content, cross-contact, and regulatory compliance in export markets. Our GMP protocols channel batches cleanly; DNA and allergen traces are non-existent when proper handling and transfer standards apply. European and North American importers set high standards; we align documentation and batch testing from ground up, not just in marketing copy.
Factory floors teach lessons in humility. Pumps fail, lines clog, trace water sneaks in, reagents from trusted suppliers change source. Every insight builds on incidents logged and resolved in real time. Scheduling supervisors work directly with QA and production chemists. Morning meetings run on 'What went wrong, how did we fix it, did the customer see any downstream impact?' No issue is too minor; no shortcut is worth downstream reputation loss.
As markets shifted, we invested in better filters, higher-quality reagents, and digital tracking. Leak tracing, sample archiving, staff training on off-flavor detection by nose—not SOP on a flowchart, but daily practice. These changes didn’t flow from regulatory pressure, but from the real impact seen in repeated customer feedback. Batch drift, granularity, minor moisture upticks—all flagged internally before they could reach a customer’s tank or blending line.
Fresh graduates can quote solvent ratios and percent yields by rote. It’s the operators and managers who’ve run these lines for decades that spot a shift in chromaticity before the sensor does. We trust their eyes and nose as much as our HPLC. Training runs deep; new hires work side by side with tenured staff, learning to distinguish between an acceptable lot and one that could spell trouble in a flavor application.
Early on, new customers sometimes hesitated—we weren’t the cheapest, and we didn’t cut corners to look the part. Consistency, clear communication, and shared troubleshooting turned skeptics into repeat buyers. Managers with open complaint lines and production staff who take pride in defect-free deliveries create a cycle of trust that outsiders can’t replicate with glossy brochures.
Tech visits, shared best practices, and transparent response to customer quality audits kept us moving forward. Over time, customers recognized the difference in their own production: fewer unexpected downtimes, less time spent rebalancing formulas, steadier product launches.
Chemistry isn’t static, and neither are business needs. As applications for 2-Acetyl-4-Fluorophenol broaden, customization requests increase. More users need tailored particle sizing, unique packaging protocols, or advanced impurity analytics—our production routines flex in response. We enjoy these collaborative projects; direct work with R&D teams sharpens our own methods and ensures we don’t lapse into complacency.
Looking ahead, we continue to invest in analytical tools and greener process options. We’ve retrofitted several reactor trains for reduced emissions and begun piloting cleanroom-level filling for pharmaceutical partners. The ethos remains the same: every change gets judged not by abstract ideals, but by whether it genuinely improves product performance, worker safety, and customer reliability.
Communication with users and openness to scrutiny drive our development. We publish impurity profiles, encourage plant visits, and stay available for technical support—no hiding behind intermediaries or faceless service desks. Every ton we ship bears our name and reputation. Customers looking for stability, transparency, and true partnership pivot toward us and rarely look back.
For those who ask why 2-Acetyl-4-Fluorophenol consistently outperforms similar molecules from distant shores, the answer boils down to hands-on care, traceable process, and an understanding that real manufacturing drives value beyond a chemicals catalog page. Experience, not shortcuts, makes the difference.