|
HS Code |
708001 |
| Chemical Name | M-Ethoxycarbonylphenol |
| Synonyms | 3-Ethoxycarbonylphenol |
| Molecular Formula | C9H10O3 |
| Molecular Weight | 166.18 g/mol |
| Cas Number | 3943-89-3 |
| Appearance | White to off-white solid |
| Melting Point | 69-72 °C |
| Boiling Point | 308.1 °C at 760 mmHg |
| Solubility | Slightly soluble in water, soluble in organic solvents |
| Density | 1.217 g/cm³ |
| Smiles | CCOC(=O)C1=CC(=CC=C1)O |
| Inchi | InChI=1S/C9H10O3/c1-2-12-9(11)7-4-3-5-8(10)6-7/h3-6,10H,2H2,1H3 |
As an accredited M-Ethoxycarbonylphenol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 250g of M-Ethoxycarbonylphenol, sealed in an amber glass bottle with hazard labels, tamper-evident cap, and product details. |
| Shipping | M-Ethoxycarbonylphenol is shipped in tightly sealed, chemical-resistant containers to prevent leakage and contamination. Packages are clearly labeled with hazard information and handled as per applicable regulations. Shipping is conducted by authorized carriers, with temperature and storage requirements maintained to ensure product integrity and safe transport. Compliance with local and international guidelines is ensured. |
| Storage | M-Ethoxycarbonylphenol should be stored in a cool, dry, well-ventilated area away from sources of ignition and incompatible substances such as strong acids and bases. Keep the container tightly closed and protected from light. Store at room temperature and avoid heat or moisture exposure. Properly label the storage container and ensure it is made of materials compatible with organic chemicals. |
Competitive M-Ethoxycarbonylphenol prices that fit your budget—flexible terms and customized quotes for every order.
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As a chemical manufacturer committed to consistent quality and steady innovation, introducing M-Ethoxycarbonylphenol to our specialty phenols lineup has come through years of direct industry feedback and practical learning from plant operations. M-Ethoxycarbonylphenol brings a specific structure that appeals to researchers and process engineers aiming for more nuanced control over their reactions and downstream product properties.
We manufacture this compound using carefully selected synthetic routes that avoid known pitfalls such as unpredictable side-reactions or inconsistent yields. In our own facilities, we operate under process standards focused on minimizing process variability and detecting potential impurities early on, not waiting for post-production screening to do all the work. Our experience has shown that with other phenolic compounds, leaving impurity control for later always causes delays in customer applications and leads to batch rejections. Tight process monitoring keeps quality high on every lot.
Several characteristics have become clear after years on the production floor and in direct consultation with technical end-users. M-Ethoxycarbonylphenol, with its ethoxycarbonyl group at the meta position, displays distinctive reactivity compared to both ordinary phenol and ortho- or para-substituted analogs. This subtlety matters in applications like fine chemicals synthesis, agrochemical intermediates, and specialty resins where predictable behavior under specific conditions is worth more than theoretical advantages. End-users tell us that batch-to-batch consistency reduces troubleshooting and ensures that product development timelines are more directly in their control.
Where para- or ortho- esters show more straightforward reactivity patterns or suffer from steric challenges, the meta arrangement here often unlocks reactions that would otherwise stall or suffer from competing side-pathways. Our laboratory data and customer feedback both show that those specific electronic and steric properties lead to fewer protection/deprotection steps, lowering costs and improving yields. This advantage shows itself not in data sheets but on the shop floor, with fewer batches wasted and tighter main product purity.
Our current production model for M-Ethoxycarbonylphenol focuses on balancing purity against cost. We avoid over-processing, where pushing purity several tenths of a percent higher delivers no downstream value but raises costs. Instead, we work with leading users to set threshold levels for moisture, inorganic salts, and trace byproducts. Targeting at least 99.5% purity by HPLC—measured in our on-site QC labs with calibrated reference standards—hits the sweet spot for high reactivity without introducing unnecessary bottlenecks or costly secondary purification steps for customers.
Color and physical form aren’t afterthoughts. Our engineers designed the current model to produce a clearly defined solid with low color by Lovibond or comparable tests, because color bodies—while rarely affecting reaction chemistry—often signal underlying trace impurities that can poison downstream catalysts or interfere with polymer properties. We keep documentation available on aldehyde and residual metal content, based on in-house and third-party analysis triggered by customer requests or internal process evaluations.
Melting range has also been tuned for ease of handling in typical plant environments. We keep it tight within a 2°C window to avoid problems during feeding, whether you’re charging reactors at room temperature or slightly above. Longer shipping distances and varied climate mean we had to learn from earlier lots that clumping and phase changes may seem trivial, yet they cause significant downtime at scale.
Production rarely follows theory exactly. Over the years, we saw how small details—like using the wrong solvent during recrystallization, or carrying residual water above 0.2%—can wreak havoc across a hundred tons of downstream formulation, and no proud claims on a specification book will fix that after the fact. Real conversations with end-users in pharmaceuticals and polymer synthesis have exposed bottlenecks that prompted us to recalibrate drying and filtration steps.
For instance, one client using M-Ethoxycarbonylphenol as a core intermediate in a custom antioxidant manufacturing process reported yield drags linked to residual methyl esters, a secondary byproduct almost undetectable by standard GC unless you know exactly what to look for. We responded by updating our routine analysis schedule, proving that a hands-on, iterative approach—not blind trust in established “norms”—makes the difference between supplier satisfaction and recurring headaches.
Our role doesn’t end at shipping: post-delivery support includes providing additional analytical checks and revalidation data if users change downstream processes or switch to new product grades. Most documentation requests can be answered from existing batch data because our protocols were built for transparency and traceability, not just regulatory compliance.
It’s common for first-time buyers to ask how M-Ethoxycarbonylphenol compares against similar aromatic esters. Based on years of direct manufacturing experience, several differences consistently emerge. The meta location of the ethoxycarbonyl brings a slightly more moderate electron-withdrawing character, tuning the phenolic –OH acidity and impacting how the compound functions as a starting point for etherification or coupling steps. Processes that rely on selective activation favor this intermediate because it resists excessive side-reactions observed with more reactive –COOR substituents in the para or ortho position.
We’ve dealt with both bulk and boutique customers frustrated by earlier attempts to swap in para- or ortho-esters, either for price or availability reasons. Their final word almost always comes back to control—control over reaction times, selectivity, and scalability, especially when process windows are narrow. Instead of the overnight gains offered by widespread, cheaper materials, they return to M-Ethoxycarbonylphenol for its reliability and predictable output.
Our plant technicians also emphasize handling safety. Compared to certain structurally close alternatives, M-Ethoxycarbonylphenol emits lower vapor during handling, cutting down on fugitive emissions and worker complaints in less-than-ideal plant ventilation. Storage stability, driven by the combination of functional groups and careful formulation, reduces the risk of hydrolysis or self-condensation seen in loosely monitored imports.
Our sustainability policy is not just a slogan—it shapes every phase of M-Ethoxycarbonylphenol production. From raw material choice through to energy optimization and solvent recycling, customer audits regularly confirm our waste reduction and process water minimization efforts. Gone are the days when a chemical supplier could ignore these topics. Any oversight can lead to lost contracts or costly retooling further down the line. Our upgrades—like using sealed reactors to contain exhaust gases and investing in in-line purification—came in direct response to rising regulatory scrutiny and end-user pressure for greener sourcing.
We made the call to migrate toward greener ethanol sources for the ethoxycarbonyl moiety after an extensive in-house review of supply chain vulnerabilities. This shifted both our LCA (life cycle assessment) scores and reduced our long-term cost risks tied to petrochemical feedstock swings. For customers exporting final goods to sensitive markets, such as the EU under REACH, being able to demonstrate even marginal improvements in carbon intensity and toxic profiles has already paid off—sometimes by keeping doors open that would otherwise close.
Waste management, especially in the context of phenolic byproducts, cannot be overlooked. We invest up front in solvent recovery and adopt best practices in chemical recycling for spent catalysts and aqueous streams. Commercial partners have told us this not only aligns with their ESG goals but avoids unplanned downtime from non-compliance and unanticipated waste haulage costs.
M-Ethoxycarbonylphenol often acts as a linchpin in advanced polymer and resin synthesis, controlling structural properties that impact end-use performance in coatings, adhesives, and optoelectronic substrates. In the agrochemical sector, several leading process engineers confirm it delivers improved yields over conventional phenols during intermediate coupling, where alternative structures sometimes lead to partial isomerization or excess byproduct formation. The tendency of this compound to maintain its integrity through demanding reaction scenarios preserves both main product quality and batch yield on a scale that, over months, turns into tangible value for plant managers and procurement heads.
Within pharmaceutical R&D, this material unlocks access to key scaffolds that serve as the backbone of specialty APIs. The precise placement of the ethoxycarbonyl and hydroxyl enables researchers to manipulate substitution patterns with greater reproducibility—something that our direct clients from pilot-scale facilities report reduces rework and increases the predictability of regulatory submissions. Nobody enjoys the pain of extra validation experiments triggered by small, unexplained side-products—a fact we keep in mind with every process adjustment.
Our practical takeaway? Consistency in source quality directly limits downtime, revalidation, and surprise side-reactions. Not every supplier understands the complexity hidden behind “routine” phenolic intermediates, but years of troubleshooting for some of the sector’s largest and most demanding buyers have taught us that reliability in the details beats promising the sky and delivering something less.
Manufacturing specialty chemicals like M-Ethoxycarbonylphenol is a continuous dialogue between theory and on-the-ground production. We have seen that simply matching chemical structure on a certificate does not guarantee reliable performance. Our investments in process optimization, analytical depth, and customer feedback channels allow us to catch minor issues before they become major disruptions. Market pressures continue to rise, with end-users expecting shorter lead times, stricter documentation, and seamless compliance. We navigate this challenge by streamlining QA protocols and keeping our production team connected with real user needs, not abstract specifications.
Years ago, we learned the hard way that market “standards” often fall short of real application requirements. Addressing those gaps requires ongoing chemical insight, not just business acumen. By working closely with downstream partners, we fine-tune more than just product specs—we adapt our production approaches to stay ahead of shifting targets, like moves toward greener chemistry or stricter global migrations away from hazardous residues.
Our model for M-Ethoxycarbonylphenol centers on direct accountability. We don’t hide behind generic certificates or outsource quality control. Customers get access to as much batch data as needed, with real names attached to each analytical run. This approach has fostered long-standing partnerships, many spanning over a decade. Transparency builds trust, but only practical, human-level support closes the loop during those stressful moments when unexpected results occur.
We encourage open conversations about unique requirements—be it tighter impurity profiles, special packaging needs, or even revisiting purification steps to solve downstream bottlenecks. Sharing what we’ve learned from decades in chemical synthesis, both the successes and learning moments, allows us to offer pragmatic advice instead of just ticking boxes. Customers aren’t just accounts; they are partners whose feedback serves to improve everyone’s outcomes over the long haul.
Building on each year’s experience, we apply every lesson learned to make our M-Ethoxycarbonylphenol better suited for new and emerging markets. Innovation in specialty chemistry doesn't come from radical overhauls but from incremental adjustments rooted in daily production realities. Whether we're recalibrating filtration systems to cut down on carryover, switching to greener reagents, or tweaking drying protocols in response to humidity trends, change is driven by end-user priorities.
A focus on real-world usability means we look beyond the lab—the production floor and shipping docks provide the most honest insights into how a product performs. Complex process chemistry, compliance needs, and the myriad variables affecting global supply chains push us to stay nimble and responsive. Where market signals point to new regulatory requirements or end-user challenges, we don’t wait for outside pressure: we actively pilot adjustments and source solutions before they become critical.
All of this allows us to ensure that every drum and container of M-Ethoxycarbonylphenol delivers more than a molecular formula on paper—it brings with it decades of hands-on experience, built-in compliance, and direct support from professionals who understand what real-world chemical production looks like.
Anchored in proven process control and a willingness to engage with shifting market needs, our M-Ethoxycarbonylphenol stands out as an integral tool in demanding production settings. Our approach favors practical knowledge, process visibility, and open feedback channels. This ensures that whether your use lies in advanced material science, challenging pharmaceutical syntheses, or specialty polymer production, you receive a product and partner that anticipates hurdles before they reach your line.
We remain committed to refining M-Ethoxycarbonylphenol production through each relationship and every feedback loop, seeing every application challenge as an opportunity for mutual improvement. Just as real progress in specialty chemistry comes from honest reflection and steady action, our ongoing dialogue with users lets us keep pace with an industry that never stands still.