|
HS Code |
904805 |
| Iupac Name | 4-Allyl-2,6-dimethoxyphenol |
| Cas Number | 63999-06-4 |
| Molecular Formula | C11H14O3 |
| Molecular Weight | 194.23 |
| Appearance | Colorless to pale yellow liquid |
| Boiling Point | 150-155°C at 6 mmHg |
| Density | 1.082 g/cm3 |
| Solubility | Soluble in organic solvents; slightly soluble in water |
| Smiles | COc1cc(O)cc(OC)c1CC=C |
| Pubchem Cid | 15395527 |
| Synonyms | 4-Allyl-2,6-dimethoxyphenol; Eugenol dimethyl ether |
| Refractive Index | 1.538-1.542 |
As an accredited Phenol, 4-Allyl-2,6-Dimethoxy- (8Ci) factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Phenol, 4-Allyl-2,6-Dimethoxy- (8Ci) is packaged in a 25-gram amber glass bottle with a secure screw cap. |
| Shipping | Phenol, 4-Allyl-2,6-Dimethoxy- (8Ci) should be shipped in tightly sealed, chemical-resistant containers, protected from light and moisture. Transport must comply with relevant hazardous material regulations, using proper labeling and documentation. Handle with care to prevent leaks or spills, and ensure packaging materials are compatible with phenolic compounds to avoid chemical reactions during transit. |
| Storage | Phenol, 4-Allyl-2,6-Dimethoxy- (8Ci) should be stored in a cool, dry, and well-ventilated area, away from direct sunlight, heat, and incompatible substances such as strong oxidizers. Keep the container tightly closed when not in use. Store in a chemical-resistant, clearly labeled container, and follow all relevant safety regulations for storage of hazardous chemicals. |
Competitive Phenol, 4-Allyl-2,6-Dimethoxy- (8Ci) prices that fit your budget—flexible terms and customized quotes for every order.
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Day in, day out, our team follows each batch from raw feedstock to final product with a discipline only those working hands-on in the plant can appreciate. Phenol, 4-Allyl-2,6-Dimethoxy- (8Ci) reflects this hands-on approach. Our specialists understand at a granular level how tiny shifts—like temperature, pH, or feed addition rate—change the outcome. We’ve run dozens of small and large batches, and experience shows that nothing matches the reliability of careful method and steady oversight. The process creates a compound with a defined and repeatable purity, seeing far less batch-to-batch drift than similar analogs offered in the open market.
Anyone working with phenolic compounds knows they don’t tolerate shortcuts. Unexpected side reactions in synthesis introduce impurities that make downstream reactions unpredictable or lead to unacceptable test results. Phenol, 4-Allyl-2,6-Dimethoxy- (8Ci) often finds its way into research, specialty polymer development, and fine chemical synthesis, where contaminant profiles can ruin elaborate projects. Our team meets this challenge not with marketing, but with years spent on the plant floor, identifying and eliminating reaction routes and workup steps prone to contamination. While resellers often relay what suppliers tell them, we’ve seen firsthand how low-level side-products form, tracking them at each stage so that the end product satisfies both our standards and demanding customer applications.
Specifications aren’t just numbers. They’re the sum of observed limitations, troubleshooting, and repeat requests from partners who count on reproducibility. Over time, end-users request tighter controls on water content, certain trace metals, and specific isomer ratios. We’ve responded by investing in test methods validated in our own lab, not just referencing generic literature. Each batch of Phenol, 4-Allyl-2,6-Dimethoxy- (8Ci) passes through gas chromatography and liquid chromatography, confirming both major component content and absence of unwanted impurities. By understanding reaction mechanisms and product properties, there’s less risk of non-target by-products or performance variability in downstream transformations. The outcome: a product that sustains operation in closed-system synthesis, meets research parameters, and reduces loss in advanced material development.
Having worked alongside chemists troubleshooting synthetic routes, we’ve seen what happens when feedstock varies just beyond specification. Machinery gums up, product quality tanks, and staff end up logging hours in cleanup and rework. These stories don’t show up in technical marketing—only in the hard-earned experience of teams running reactors or cleaning glassware. We’ve refined the production of Phenol, 4-Allyl-2,6-Dimethoxy- (8Ci) to match what laboratories and process chemists actually need, not just what looks optimal on paper. By keeping the product free from by-products like polymeric tars or colored bodies, the answer to “why this batch ran well” becomes obvious: consistent, clean feedstocks drive successful innovation.
Across fine chemicals, advanced materials, and flavor and fragrance intermediates, users repeatedly request this phenolic compound for its unique structure. The presence of the 4-allyl substituent and two methoxy groups steer reactivity in a direction that pure phenol can’t achieve. We’ve supplied multi-kilo lots to pilot scale projects in specialty monomers, antioxidants, and pharmaceutical research, and every year, new niche applications arise. What matters most in these settings isn’t just theoretical purity—it’s the ability to run the same transformation, week after week, without unexpected changes in yield or reaction profile. Our technicians draw on feedback from customers who report success not just once, but with entire lots showing reliable, reproducible performance.
The world is full of downstream users that buy on price and treat all phenol derivatives as the same. From our vantage, that approach usually loads the project with hidden costs—wasted time chasing impurities, redoing purification, or wrestling with subpar reactivity. Several major trading houses sell similar chemicals, but—drawing on bench experience—many users eventually notice small changes in color, trace residues, or alteration in melting point. These ‘minor’ differences cost time, add frustration, and sometimes ruin an entire run with hard-to-remove trace contaminants.
Our approach flips that experience. All staff in the production facility are encouraged to communicate with our R&D counterpart, relaying any issue flagged by our partners in application labs or scale-up plants. These conversations drive incremental changes: cleaning up early reaction intermediates, removing heat-sensitive by-products, retuning crystallization conditions—or running additional purification columns. Every adjustment reflects one or more cases where someone downstream showed us why a seemingly ‘minor’ impurity, undetectable at gross scale, triggered real-world issues.
Shipments always travel in containers matched to the actual moisture and oxygen sensitivity of Phenol, 4-Allyl-2,6-Dimethoxy- (8Ci). Staff double-check container quality, since this product’s reactivity changes even with low exposure to air over months. Our team pioneered heat-sealed foil pouches for sensitive customers, sparing them problems during long overseas transit or humid summer storage. Delivery teams log every batch and document storage temperatures to avoid subtle but destructive decompositions or color changes—a result of feedback from years supplying both humid and arid regions.
A unique aspect of being a chemical manufacturer—not just a contract packager or toller—is ongoing feedback from those developing new applications. Research chemists working on polymerizable systems sometimes uncover stubborn incompatibility with minute levels of quinones or aminophenols, products unnoticed by the trading crowd. Over time, we logged these cases and tweaked process steps—from raw ingredient validation to in-process scavenging and post-synthesis polishing—with quantifiable reductions in complaint or non-conformance reports. In many instances, these tweaks came from a single customer’s experience produced at scale: a lesson absorbed into all batches that follow.
For example, research teams attempting asymmetric catalysis noticed that certain by-products in commercial lots poisoned their catalysts. Removing specific side-products required sourcing higher-purity reagents upstream and rebalancing purification solvents. The team’s willingness to act on such direct user feedback cements long-term relationships, but also cuts costly, avoidable troubleshooting by the next project team—no matter where they are located.
Manufacture of Phenol, 4-Allyl-2,6-Dimethoxy- (8Ci) gives a clear window into greener chemistry. Process optimization isn’t just about cost savings. Over several years, we tracked waste generation at each step and found two bottlenecks where solvent waste outpaced yield improvements. After piloting a reactive distillation (recommended by a fellow plant engineer), solvent recycling rose 20 percent over our previous setup, and net hazardous waste shipped offsite dropped considerably. Our facility records support this: not only is the yield up, but carbon emissions per kilogram produced fell, and operator exposure risk dropped.
On the sourcing end, supply chain pressures led our buyers to audit alternate routes for key starting materials. In two cases, we swapped import-dependent streams for local sources using greener synthesis, shaving delivery times by two weeks and cutting costs, but—more importantly for project managers—made planning less stressful during global bottlenecks. These shifts rarely show up on procurement summaries, but for us working hands-on, less downtime and waste make every run smoother and more secure.
Quality standards in commercial chemistry mean little if they don’t survive scale-up or repeat use. Each drum and bottle of Phenol, 4-Allyl-2,6-Dimethoxy- (8Ci) ships out only after rigorous checks that stem from hard-won experience in recurring processing faults—not just formal accreditations. We revisit each test method annually, considering both input from customers who noticed ‘unexpected’ performance and our own facility’s attempts at process improvement. This cycle led us to refine sample handling: high-purity lot managers now use only argon to blanket open containers, a method pioneered after several batches faintly darkened during longhold storage—solving an issue invisible to third-party traders or speculators.
Having boots on the ground makes all the difference. Our plant’s operators know the sound of a perfectly running pump and the look of a compromised filter. Those small signals rarely turn up in official production logs but trigger the interventions that prevent small problems from snowballing. This hands-on mindfulness flows through training and daily diligence, building trust among staff who know that results depend as much on human vigilance as on neatly-written SOPs. Our plant celebrates this practical knowledge, understanding that experienced technicians drive both reliability and the refinements that ensure products like Phenol, 4-Allyl-2,6-Dimethoxy- (8Ci) keep pace with advances in science and manufacturing.
No outside consultant or distributor replaces seeing—day to day—how a process works under real-world loads, or how new employees learn to troubleshoot a sticky phase or cooling problem. The people behind every batch care personally about its performance, standing behind each specification because they see daily what happens when standards slip. Facility culture emphasizes communication, pride in workmanship, and a constant eye for unexpected performance, so our end-users receive materials that create value spend after spend.
Product traceability isn’t just a paperwork exercise—done right, it solves real headaches. Production runs can be tracked from raw input to finished batch, and every lot receives a detailed record of its actual process history and test results. This helps customers troubleshooting their own processes, showing if any outlier arises from an uncommon reagent lot, small deviation, or transit issue. Customers have pointed to this transparent method as key in their ability to pinpoint a source of variability and resolve it swiftly.
Years of experience have shown us that true traceability moves beyond the codes stamped on containers. We store archived samples from each batch for over two years, enabling customers to request a test or review even long after purchase. More than once, reviewing retained samples helped a user win an argument with quality control or regulatory authorities, keeping their process up and running without further delay.
Standing side by side with other phenolic or allylated derivatives on the market, Phenol, 4-Allyl-2,6-Dimethoxy- (8Ci) has distinct real-world differences. Numerous generic versions—often sourced from traders who lack firsthand manufacturing input—show batch color shifts, higher volatility in storage, or persistent, hard-to-remove trace acid content. Our process tackles these pitfalls directly: washing protocols, inert gas packaging, and validated impurity controls keep such issues out from the very beginning.
Further, several customers switching from multi-supplier solutions have noted less foaming during dissolution, smoother downstream polymerization initiation, and a reduction in post-reaction purification requirements. Each improvement came not from marketing, but from the practice-driven focus on cleaning up every upstream input and maintaining strict in-process monitoring. These efforts allow customers to cut technical downtimes and reduce money spent on redundant controls—especially in high-value synthesis environments.
A detail often overlooked relates to moisture pickup: our staff monitor humidity levels in the dry room, and have developed double-layer packaging after witnessing a single lot degrade from improper warehouse handling in a rival operation. These precautions, built by direct plant experience, add months of shelf stability and save buyers from surprise truckloads of unusable product.
End users cannot afford to discover problems after the fact. Our ongoing support model addresses the critical last mile, helping application scientists and process chemists review material compatibility before starting a new run. The technical team is available to answer application-specific questions, often drawing on prior case reports or archived production histories to give targeted, actionable recommendations. While resellers look for the quick sale, our focus stays on longer-term partnership, helping troubleshoot, optimize, and improve processes together as new challenges emerge.
This approach means every review, every question, and every observation by a user feeds directly into our process improvement routine. Sharing know-how openly helps all parties improve results and prevents waste, delay, and disappointment.
Decades of plant operation, problem-solving, and close partnership with downstream users keeps our team focused on getting Phenol, 4-Allyl-2,6-Dimethoxy- (8Ci) right. Our engineers and chemists constantly seek ways to fine-tune synthesis, enhance purification protocols, and strengthen packaging—all based on actual outcomes and partner feedback. By placing the expertise of our production team at the heart of each improvement, we keep delivering a product that not only meets— but often exceeds—customer needs where control, predictability, and clean chemistry matter most.
The secret does not lie in catchphrases or hollow promises but in the consistent application of practical chemistry and real user feedback, batch after batch. Phenol, 4-Allyl-2,6-Dimethoxy- (8Ci) earns its place in demanding settings where only carefully managed quality and deep process understanding deliver results the market can trust.