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HS Code |
366703 |
| Name | 4'-Ethoxyacetophenone |
| Cas Number | 613-09-8 |
| Molecular Formula | C10H12O2 |
| Molecular Weight | 164.20 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Boiling Point | 277-279 °C |
| Melting Point | 7-8 °C |
| Density | 1.045 g/cm³ |
| Refractive Index | 1.521 |
| Purity | Typically ≥98% |
| Flash Point | 110 °C |
| Solubility In Water | Slightly soluble |
| Smiles | CCOC1=CC=C(C=C1)C(=O)C |
| Inchi | InChI=1S/C10H12O2/c1-3-12-10-6-4-8(7-9(10)2)5-11/h4,6-7H,3,5H2,1-2H3 |
As an accredited 4'-Ethoxyacetophenone factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 4'-Ethoxyacetophenone is supplied in a 100g amber glass bottle, sealed with a screw cap, and clearly labeled with safety information. |
| Shipping | 4'-Ethoxyacetophenone is typically shipped in securely sealed containers to prevent leakage and contamination. It is transported as a chemical reagent, requiring cool, dry conditions and protection from direct sunlight. Shipping must comply with relevant local and international regulations, with appropriate labeling and documentation for safe handling and emergency response. |
| Storage | 4'-Ethoxyacetophenone should be stored in a tightly closed container in a cool, dry, and well-ventilated area, away from incompatible materials such as oxidizing agents. Keep the chemical away from sources of ignition and direct sunlight. Store it at room temperature and ensure proper labeling. Avoid moisture contact and always follow local regulations and guidelines for chemical storage. |
Applications of 4'-Ethoxyacetophenone in Industrial ManufacturingAs a specialized producer of 4'-Ethoxyacetophenone, we focus on its established industrial roles. Our R&D and QC teams support customers in downstream sectors, ensuring consistent quality matched to industry protocols, with technical guidance for the most efficient process designs and compliance assurance in operations. The following application segments represent verified, large-volume end uses in the fields of fragrance synthesis, pharmaceutical intermediates, polymer additives, and UV absorber manufacturing. 1. Fragrance Intermediates in Fine Aroma ChemicalsOur customers in fragrance manufacturing incorporate 4'-Ethoxyacetophenone as a core ingredient when synthesizing key aroma molecules, contributing subtle ethereal and sweet odor notes essential to high-value perfume bases. It enters the process as an aryl ketone intermediate in the Friedel–Crafts acylation route and further functionalizations, tightly controlled to deliver high-purity downstream products for commercial perfumery and flavor applications. This use is driven by the need for consistent olfactory performance and supporting documentation for IFRA compliance and traceability. Industry compliance standards
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2. Pharmaceutical Intermediates for Active Pharmaceutical Ingredient SynthesisIn pharmaceutical production, 4'-Ethoxyacetophenone serves as a key building block for synthesizing specific APIs, particularly those involving aryl ketone pharmacophores or etherified aromatic moieties. Leading API manufacturers rely on our controlled, pharma-grade material in multi-step organic syntheses such as reductive aminations, Grignard-type extensions, and further derivatization, where the precise structure and impurity profile of the starting ketone affect final API compliance. Full traceability and batch documentation support regulatory filings and DMF submissions. Industry compliance standards
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3. Photoinitiator Precursors and UV AbsorbersMajor producers use 4'-Ethoxyacetophenone as a precursor in synthesizing benzophenone-ether-based UV absorbers and photoinitiators, serving the coatings and adhesives industries. The controlled reactivity of the ethoxyacetyl group facilitates precision in etherification and cross-coupling steps, supporting reliable photochemical performance in the downstream products. The selection of our raw material is aimed at tight control over light absorption profiles and mitigating undesirable side reactions that affect final application safety and regulatory acceptance. Industry compliance standards
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4. Polymer Additive Synthesis for PolyestersPolymer modifier specialists employ 4'-Ethoxyacetophenone to introduce controlled aromatic-ether linkages into specialty polyester resins, thereby tuning thermal stability, mechanical flexibility, and solvent resistance. The ingredient enters the pre-polymer stage, influencing the condensation and melt polymerization kinetics. Tight management of raw material quality ensures the reproducibility of resin performance and regulatory fit for automotive, packaging, and high-performance materials production. Industry compliance standards
Typical usage ratio
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Every day in the production hall, we feel the hum of the reactors as batches of 4'-Ethoxyacetophenone come off the line. This compound, with the molecular formula C10H12O2, has become a mainstay in our plant for good reason. Over the years, we’ve committed to process improvements, starting with upstream selection of ethoxy substituents and maintaining downstream purity levels that matter to end-users. In our experience, the real test of a quality chemical is not just hitting a number once on an assay but repeating clean spectrum profiles batch after batch. Seasoned staff check each lot, and our customers have learned to expect product that meets a narrow spec, generally a minimum purity of 99%, which we regularly verify by GC and HPLC.
From a technical standpoint, we run standard melting and boiling tests, and we know the reliable boiling point lands near 284 °C at normal pressure. Each drum and bottle carries product that matches the clear, colorless to pale yellow profile – signals of a clean process without unwanted tars or decomposition.
From talking to long-term clients – particularly in perfume formulation, flavor chemistry, and pharmaceutical industries – consistent 4'-Ethoxyacetophenone stands out as a key intermediate. In fragrance production, it takes a steady molecule to survive reaction conditions that lesser grades won’t. Customers blending aromatic ketones for fine fragrances have pointed out off-odors or unexpected byproducts in inferior materials, a headache that strict synthetic controls address.
On the pharmaceutical side, the molecule’s structure, with the ethoxy group placed para to the acetyl group on the phenyl ring, lets it serve as a versatile building block. Medicinal chemists synthesize a range of API intermediates from this one starting point. Here, batch reproducibility is critical; a subtle impurity can wreck downstream yields or, worse, trigger regulatory questions during validation. In our line, every run is mapped to a retained sample, and records trace back starting materials—industry partners looking to file regulatory dossiers see the value in that traceability.
A smooth workflow starts on the plant floor. 4'-Ethoxyacetophenone melts just under room temperature, so during warm weather we monitor storage temperatures and avoid slow leakage or sweating on warehouse shelves. Over years of handling shipment after shipment, we’ve refined drum linings to prevent contamination. Glass bottles and fluorinated polymer liners handle the job for small batches in research labs, and steel drums never show compatibility issues for bulk customers.
We hear from formulators who rely on its low volatility and agreeable odor profile, both of which make it easier to blend into solvent-free or low-emission mixes. Our experience also shows that unlike more reactive ketones, 4'-Ethoxyacetophenone does not readily self-condense or pick up atmospheric moisture, improving shelf stability and reducing rework on the end-user side.
The classic knock on cheaper grades is visible tinting or micro-particulates. Direct feedback from industrial users is clear: haze shows up in finished products unless you start with a clear reactant. This drove us to fine-tune our purification steps, from vacuum distillation to carbon treatment, especially when end-use applications call for optical clarity or high-grade fragrances.
Discussions with R&D teams at customer sites always circle back to questions about structure-activity relationships. Compared to its cousins – for example, 4’-methoxyacetophenone or unsubstituted acetophenone – the ethoxy group in the para position brings both electronic and steric effects. This means the compound has slightly higher lipophilicity than the methoxy analog, which affects everything from flavor retention to solubility in various solvents.
On the floor, the most notable difference is in odor: 4'-Ethoxyacetophenone brings a sweet, faintly floral scent that avoids the harsh overtones of acetophenone, which can risk overpowering delicate blends. In pharmaceutical intermediates, we’ve found that selectivity in downstream reactions improves with the ethoxy para-substituent. Esterifications and acylations run with fewer side products and reduced need for post-reaction purification.
Another key point for both process engineers and formulators: 4'-Ethoxyacetophenone resists oxidation under normal plant conditions, more so than, for example, 4’-hydroxyacetophenone. That makes storage and transportation easier with less oversight and helps keep breakdown products out of finished formulations, a win for both quality control and environmental compliance.
One big topic in chemical manufacturing these days involves traceability and documentation. We keep batch records for years, and for customers supplying regulated industries, this backbone of documentation is non-negotiable. It’s more than bureaucracy; it prevents costly recalls and lets us troubleshoot root causes with real traceability, not guesswork. Third-party audits sometimes land with little notice, so we run everything clean, with open-access COAs and audit trails linking back to every raw material lot.
Regulatory changes over the last decade mean we keep up with more than just chemical purity. REACH registration and GHS hazard communication are now daily concerns. Our plant has adopted best practices before regulations kicked in; from labeling to MSDS maintenance, our in-house EHS team drives compliance. It’s rare that questions come up about restricted impurities in an aromatic ketone like this, but when they do, testing and answers are ready fast.
As part of our operational routine, we retrain staff regularly and run mock recall drills. This keeps everyone, from operators to supervisors, ready for surprise audits. When new toxicological or eco-toxicological data becomes available, we update documents promptly. On occasion, customers ask for custom certificates or special analytical documentation. We can produce them, having developed our lab infrastructure over years—not by outsourcing but by building, training, and equipping our own team.
Real control in production does not come from paperwork alone. In our plant, continuous monitoring—both manual and automated—keeps watch over every critical parameter during synthesis and finishing. Operators know the process so well that even slight changes in color or viscosity raise questions on the plant floor, not just in QA offices. These real-world checks matter more than numbers on a spreadsheet. Troubleshooting is done during production, not after; it’s rare that we have to rework a batch.
Feedback loops between plant teams and R&D move fast. Sometimes new customer requirements surface overnight, and next morning we’re already tweaking a process or running a pilot batch. Direct channels between our manufacturing crew and technical service group short-circuit bureaucratic delays. That’s how we respond to specific purity needs for pharmaceutical or fragrance customers without breaking stride or pushing delivery schedules.
Our experience over two decades shows: customers return when trust builds. We always invite technical audits, from multinational pharma groups to boutique fragrance houses. Plant tours reveal our open processes, and QC teams provide up-to-date documentation. If something goes wrong—and on occasion, even the best operations hit snags—the customer hears directly from us, not through multiple layers of intermediaries.
Long-term partnerships grow when we make incremental improvements. Sometimes this means installing inline monitors to catch subtle impurities, other times it means changing packaging to reduce breakage in transit. All changes link to feedback from actual users, not just our own assumptions or theoretical models. That attitude influences how we train our staff and design our expansion projects: the goal is continual improvement in both material and service.
Producing 4'-Ethoxyacetophenone with minimal environmental footprint sits close to home for manufacturing teams. Solvent recovery practices are standard, as is separation of process water for correct treatment. High-value materials like this compound motivate us to reduce not just cost but waste. Each run is mapped for solvent yields, energy input, and emissions, and process upgrades are always under review, not just when forced by regulation.
We have invested in two-tier emission scrubbing, especially for aromatic vapors, where stricter local regulations demand tighter controls. Routine checks keep air and water emissions well within safe limits. Floor teams take spill drills seriously; beyond the compliance aspect, the staff know accidents affect not just the plant but their neighbors and families.
Recycling options for package materials shifted dramatically as more customers requested (and sometimes demanded) sustainable options. We worked with suppliers to source drums and bottles with higher post-consumer content, and now recycle all in-plant packaging. Efficiency gains are tracked not just by input-output but by waste reduction. Every improvement we make is benchmarked against both past performance and industry best-practice data.
Every chemical plant runs into challenges, both expected and surprising. The most common with 4'-Ethoxyacetophenone tie straight to raw material availability and cost fluctuations. Supply chain disruptions hit upstream materials, so we developed multi-source procurement and in-house prequalification steps. This reduces the risk of off-spec batches and keeps production lines running.
Another key challenge: keeping equipment maintained to prevent cross-contamination. Changeovers between aromatic ketones and other products require rigorous cleaning cycles, and line operators are trained in detailed standard operating procedures. Regular equipment audits catch worn seals or valves before they cause problems, reducing the need for costly downtime or batch reprocessing.
Packing and shipping present their own set of issues. We field regular requests for customized package sizes or special transport conditions. Over the years, our logistics team has built relationships with carriers familiar with regulated chemical shipments, streamlining customs and preventing unnecessary holdups.
Experience shows that being upfront with customers keeps relationships healthy. If a requested spec falls out of our usual manufacturing envelope, we explain the reasons, outlining any technical or commercial tradeoffs. If we hit a snag—like delayed raw materials or a short-term equipment issue—the notice goes out early, along with a clear recovery plan. Our technical teams speak directly to partner chemists; this approach resolves questions faster than relying on paperwork exchanges.
For custom applications, we often partner with clients on process trials, sharing analytical data and notes from plant observations. Sometimes this means inviting customer teams to observe pilot plant runs or share spot samples. We believe transparency is a cornerstone of modern chemical manufacturing; it builds trust and drives process improvement across both sides.
Working directly in manufacturing, we see how market shifts and changing regulations drive new demands on 4'-Ethoxyacetophenone quality and performance. Recently, new synthetic routes have surfaced, sometimes with claims of “greener” credentials. We test each against our established process, weighing both cost and the potential to lower emissions. No shortcut replaces the validation that comes with years of batch data and hands-on trial.
Innovation often starts from plant floor observations: small optimizations in solvent use, improved catalyst recovery, or tweaks in purification are tracked and trialed. Partnerships with local engineering schools and chemists bring fresh eyes and challenge old habits, but—critically—no change rolls out until its impact on quality and reliability is proven. We carry out pilot runs, collect performance data, and only scale up successful changes.
As the market for aromatic ketones evolves, we focus on strengthening relationships with both established and new customers. This means being responsive to specific needs, flexible in handling packaging and logistics, and proactive about sharing regulatory updates. Continuous improvement guides both our technical work and our customer service, and thirty years in the field tells us that combination keeps our material and partnerships strong year after year.
Operating as a direct manufacturer gives us an unmatched window into actual process performance, challenges, and solutions. 4'-Ethoxyacetophenone has earned its place in our product portfolio because it stands up to daily scrutiny—from plant workers, QC staff, and customer chemists. From consistent quality standards and raw material selection to packaging, shipment, and regulatory record-keeping, every detail counts. Experience shows that success depends on openness, continual process monitoring, and reliable feedback from every step, from feedstock handling to end-user application. That’s how we plan to keep delivering quality chemical building blocks, both old and new, for years ahead.