|
HS Code |
665636 |
| Iupac Name | 2-Methoxy-4-(prop-2-en-1-yl)phenol |
| Molecular Formula | C10H12O2 |
| Molar Mass | 164.20 g/mol |
| Cas Number | 97-53-0 |
| Appearance | Colorless to pale yellow liquid |
| Boiling Point | 237 °C |
| Melting Point | −3 °C |
| Density | 1.10 g/cm³ |
| Solubility In Water | Slightly soluble |
| Flash Point | 123 °C |
| Other Names | Eugenol |
| Odor | Spicy, clove-like aroma |
As an accredited 2-Methoxy-4-Prop-2-En-1-Ylphenol 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 2-Methoxy-4-Prop-2-En-1-Ylphenol, tightly sealed with safety cap and hazard labeling. |
| Shipping | 2-Methoxy-4-Prop-2-En-1-Ylphenol should be shipped in tightly sealed containers, protected from light, moisture, and heat. Use appropriate hazard labeling. Transport according to local, national, and international regulations for chemicals, ensuring careful handling to prevent leaks or spills. Suitable protective packaging is required to avoid breakage and environmental contamination during transit. |
| Storage | **2-Methoxy-4-Prop-2-en-1-ylphenol** should be stored in a tightly sealed container, away from sources of heat, ignition, and direct sunlight. Keep it in a cool, dry, well-ventilated area, separate from incompatible substances such as strong oxidizing agents. Ensure proper labeling and restrict access to trained personnel. Follow all relevant safety and local regulatory guidelines for chemical storage. |
Competitive 2-Methoxy-4-Prop-2-En-1-Ylphenol prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please call us at +8615380400285 or mail to sales2@liwei-chem.com.
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Tel: +8615380400285
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Manufacturing chemicals means standing in the middle of ever-shifting markets, regulations, and customer demands. Out on the production floor, we rarely speak in buzzwords. We face direct questions about quality, consistency, and long-term supply. 2-Methoxy-4-Prop-2-En-1-Ylphenol—sometimes known by other trade terms depending on where it’s used—has found steady demand among clients in fragrance, preservatives, and specialty resin applications. Most questions circle back to reliability and purity. These calls or email threads do not touch on abstract promise; instead, buyers ask about actual batch-to-batch results, shelf life, and specific reactions under pressure.
This phenolic ether, for all its technical-sounding name, mainly swings between two large camps of users: those in personal care and those in performance industries. For decades, our experience has matched trade journals. Consistency makes or breaks success with this molecule, and unlike some of its close relatives—a few commonly used aromatic hydrazines, for example—its odor profile and stability under UV show up in sensitive applications like high-end personal fragrances or adhesives.
On paper, purity figures fill up a table. In day-to-day production, trace left-overs determine color shift over time or a product’s compatibility in a blend. Most industrial users know this from bitter experience: small changes in residual solvents, peroxides, or water create havoc when working in finished goods. Our most common requested model is the 99% grade, shipment after shipment—measured by GC rather than paper assurances. Years of feedback from customers in the cosmetic sector have proven that even one manufacturer’s “99%” never matches another’s exactly.
Little fibers or micro-droplets of water, smaller than a percent, jump out during high-shear mixing or produce haze in transparent emulsions. What sets our batches apart? An obsessive commitment to purification at scale, not just at bench. Each batch finds itself run through quality tests that match not just current safety standards but also anticipated changes in regulatory listings. The lot histories travel with each drum, not to satisfy red tape, but so that users tracking a deviation on their line can pinpoint a change fast, work with us, and move forward with shared data.
We have seen newcomers try buying so-called generic phenolic ethers hoping to cut corners. Despite surface similarities, their molecular arrangement and impurity profile change a product’s function. If you have a sensitivity to yellowing, shelf-life breakdown, or even subtle shifts in viscosity over several months, you soon learn that not every supplier provides the same backbone. Our chemists get presentations tracing minutiae as simple as shift in CAS number drift, as obscure as regional plant oil precursors, back to visible end use.
The main difference between 2-Methoxy-4-Prop-2-En-1-Ylphenol and its more standard siblings—take plain eugenol, isoeugenol, or guaiacol derivatives—lies in the side chain’s reactivity and steric hindrance. Not all end users care at first. Maker of industrial resins, adhesives, or synthetic fragrances quickly realize that downstream polymerization, interaction with oxidizers, or performance in heat cycles swings dramatically with what hangs off the basic ring. One plant’s prop-2-en-1-yl group purity shifts UV breakdown speed; another’s inadvertent leftover creates a trace off-smell during incineration or flex testing. Chemical structure may look identical in a chart, but the first time a run craters due to a batch’s different reactivity—and costs a client a dozen barrels of wasted product—the demand changes from “any” to “show me your data.”
Across textile treatments, plastic stabilizers, and hair care solutions, we hear the same baseline concern: Will the additive stay stable, or punch out aroma drift over time? Sharp noses can distinguish an unplanned note from a tiny contaminant. When evaluating 2-Methoxy-4-Prop-2-En-1-Ylphenol in perfumery, the wrong grade or slight polymerization causes batch failures—imagine a high-finish soap base gone tacky overnight, or an emulsion that splits in sunlit packaging.
In our own labs, we examine these reactions closely, stressing samples with heat, accelerated UV, and common blend ingredients. The way this compound weathers against sulfate or chloride-tolerant substances isn’t constant between sources. Users in adhesives and coatings test for long-term viscosity shifts, as even slight instability requires costly line adjustments. We routinely perform real-case mimics from multi-ton customers, where a resin patch needs to cure in five minutes at high humidity after mixing. The difference between a smoothly curing spread and one plagued by sticky edges can come down to trace secondary by-products—ones many resellers never spot but we view as the reason to triple-check starting material purity and final condensation steps.
Nobody likes throwing away unused chemical stocks. In warehouses around the world, drums sit aging. Unlike many lower purity phenol compounds which break down into colored tar or create pungent off-odors fast, well-manufactured 2-Methoxy-4-Prop-2-En-1-Ylphenol holds color and reactivity for years under standard conditions—if sealed and protected from air or water ingress. The question isn’t just how fresh a batch arrives; it’s whether, after six months sitting in a hot warehouse, it still blends perfectly and meets all the downstream spec checks. Our work pays off when users pull a drum after a season and meet the very same color and purity rating as on day of delivery. Many performance additives can’t promise that.
Field feedback tells us which plant handling and shipping protocols work. In the past, we had issues from drums subjected to months of temperature swings leading to trace oxidation. We tackled this with tighter QC at fill stations, better anti-static liners, and vacuum-sealed headspace on export drums. Freight forwarders often treat all chemical drums equal; what they don’t see is the need for extra paperwork detailing environmental controls specific to sensitive phenolic compounds—information we see as essential, not optional, in documentation.
Large-volume customers, whether in specialty coatings, flavoring preparation, or preservatives, stress-test every claim, and rightly so. Their exacting applications reveal flaws the word “specification” can’t capture. Variations in source materials, synthesis temperature ramps, or vacuum stage length produce subtle but important distinctions even batch-to-batch. Our engineers know that manufacturing isn’t just running a formula; it requires constant critical adjustment. A 1 kg pilot batch is easy to make pristine, but scaling that up to several tons under continuous operation brings new problems: secondary reactions at different wall temperatures, tiny variances in flow meter calibration, or the need for in-process sampling that never fits textbook planning.
We share all this because customers deserve transparency. We have invested in real-time analytics in our process lines, so shifts in purity or off-chance contamination trigger alarms and corrections on the spot, not after the fact. This reduces risk for all downstream users, who often add 2-Methoxy-4-Prop-2-En-1-Ylphenol at very low rates but expect zero interaction with their formulations’ other ingredients.
A material’s role depends on the market. For perfumery, it’s as much about aroma’s staying power under stress as it is about the base note. In preservatives and antimicrobial blends, it’s the slow, reliable effect in water-rich environments which grinds away at competing bacterial growth. In adhesives, the compound tweaks flow and curing rates. Our customers—ranging from artisan soap makers to multinationals formulating for medical adhesives—seek out this chemical for its versatility, but from us, they also want predictability. We map out formulation histories with each partner, constantly adjusting and re-verifying our upstream and downstream quality to shore up that reputation.
A large synthetic resin customer once called with a problem: shipments from a different supplier caused unexpected gel formation overnight. Their normal run with our material never did this. Together, we broke down potential culprits and isolated trace metals in the alternative supplier’s batches—metals just under reporting threshold, but enough to catalyze unwanted cross-links in that very specific polymer matrix. This cemented for us the difference a tight manufacturing process brings. It’s not about hitting a broad target; it’s shooting for the bullseye every time, because even small deviations affect not just our product, but the next two or three steps in our customers’ lines.
Rules change. Local regulators require more detail every year. Over our history, we’ve seen increasing attention to not just product chemistry, but lifecycle impact, worker safety, and by-product management. Staff working around 2-Methoxy-4-Prop-2-En-1-Ylphenol today follow procedures based on years of incident logs and exposure studies. We enforce closed transfer protocols, continual air monitoring, and personal protective equipment for everyone handling raw or finished materials.
Customers ask tough questions about impurities, not just for technical reasons, but for health and regulatory compliance. Especially in personal care, any unexpected spike in trace aldehydes or unreacted monomer draws scrutiny. We regularly submit new batches for third-party verification, not only to fulfill external requirements, but to check our own work. This reduces the risk of costly product recalls, but more importantly, ensures our operations remain sustainable and responsible. We also track changing environmental directives: demands for lower emissions, better traceability of plant-sourced inputs, and minimal impact waste streams shape how we invest upstream.
Unlike some compounds which cycle quickly in and out of usage or shift to lower-cost offshore sources, this phenol derivative has carved out a market at the intersection of high performance and regulatory scrutiny. End users applying for certification—be it for food contact, cosmetics, or durable goods—expect clear, defensible documentation that our chemical meets or exceeds every line of national code. Our manufacturing shifts early to match these, so downstream users can submit product files with full confidence.
The gap between lab process and real-world delivery might seem small but represents the biggest challenge we face. Certain raw material sources vary with seasonality, introducing subtle impurities most not obvious without extensive screening. We have invested heavily in multi-step distillation, scrubber upgrades, and analytical instruments capable of detecting low ppm range contaminants. Partnering with reliable logistics partners who share our attention to detail helps, but even minor in-transit mishaps, such as container seal compromise, require constant vigilance with pre-ship and receipt sampling.
Quantities for some customers hover in the hundreds of kilograms per quarter, while others need multiple tons per month. We scale production to each need, always balancing batch size against risk of over-aging inventory. Each production run gets logged and tracked, letting us trace back to every reactor charge and environmental parameter for full accountability. Over time, this means fewer shipment hiccups for regular customers, but also an ability to quickly replace any stock that suffered during transit or handling, based on lot-level tracking, before their own production lines grind to a halt.
Over recent years, new application research has opened markets we didn’t originally target. Some clients asked for custom blends or functionalized versions. Our team combined plant-derived inputs with the synthetic backbone to create hybrid forms—ways of maintaining technical superiority while meeting demands for increased renewability. We share our findings openly to help partners make informed decisions: which ratios perform best in oxidative stability testing; which antimicrobial profiles actually trigger in real product environments; how to substitute for more costly or restricted substances without sacrificing durability.
A major packaging client recently investigated using 2-Methoxy-4-Prop-2-En-1-Ylphenol instead of older phenolic stabilizers. We built a multi-week, real-environment test harness to compare shelf stability and UV tolerance of finished containers. Data convinced them to switch; more important, it brought back notes on processing tweaks needed to maximize compatibility on their lines. This level of cooperation, developed over repeated cycles of support and adaptation, shows how the manufacturer-user relationship defines technical progress—not just the molecule itself.
Many in the chemical chain merely shift drums from one warehouse to another. Real manufacturers stay in touch with every detail: reactor condition, airflow patterns, source region of raw input. We don’t just buy and resell. Every process step matches our internal quality requirements, not just the baseline sellers’ specs. When a problem surfaces—late delivery, problematic polymerization, cross-contamination—our team traces it all the way back to a change in field operations, pipeline, or maintenance. That’s how we can answer customers’ questions in concrete detail, rather than pass the buck with a generic certificate.
We hire and train new staff to spot anomalies: appearance, faint odor, viscosity drift—all long before a product hits the canning line. General resellers rarely get this close. Our operators know the next customer on each run, often by name, and flag any tank deviation as a job-wide concern. This runs deeper than auditing or ISO paperwork; it’s a culture of responsibility that meets every audit from buyers, regulators, or industry peers.
We have learned that excellence in chemical manufacturing results not from chasing the biggest volume or the lowest price, but from setting and holding a high bar, run after run. With changing environmental targets, shifting user formulas, and new competition, it’s tempting to cut corners. Our experience confirms that maintaining strict control—from source vetting through process to delivery and post-sales support—pays off in return business, reduced complaints, and customer trust that outlasts any single shipment.
2-Methoxy-4-Prop-2-En-1-Ylphenol will continue to change as user needs evolve and regulatory frameworks tighten. Our commitment is not just to provide a chemical, but to ensure the knowledge, process discipline, and support that lets our partners innovate and compete with confidence. From our vantage point, standing at the beginning of the supply chain, every drum is more than a commodity—it is the product of thousands of choices, checks, and continuous improvements, each one affecting the success of customers’ own processes and products.
For those starting out with this material, trust only vetted suppliers. Request and review real data, not just certificate samples. Make use of support lines for application specifics—unexpected blending or reactivity issues usually trace back to subtle impurity, not user error. Batch-level tracking, manufacturer openness about process changes, and post-sale support differentiate reliable sources from those merely trading in inventory.
Veteran users know that processes always change under pressure: a growth in order size, a change in regional regulations, or a tweak upstream. Stay in active contact with your supplier, sharing back process pain points, yellowing, or haze, not after a problem but routinely. The right manufacturer welcomes this transparency; it helps ensure that every batch not only meets today’s numbers, but adapts to tomorrow’s needs. In this business, mutual trust and relentless attention to process detail shape every successful outcome with 2-Methoxy-4-Prop-2-En-1-Ylphenol.