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HS Code |
815537 |
| Cas Number | 94-02-0 |
| Molecular Formula | C11H12O3 |
| Molecular Weight | 192.21 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Boiling Point | 297-299°C |
| Melting Point | -8°C |
| Density | 1.111 g/cm³ at 25°C |
| Solubility In Water | Slightly soluble |
| Flash Point | 138°C |
| Refractive Index | 1.520-1.526 at 20°C |
As an accredited Ethyl Benzoylacetate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Ethyl Benzoylacetate is packaged in a sealed, amber glass bottle containing 500 mL, labeled with hazard warnings and product details. |
| Shipping | Ethyl Benzoylacetate is shipped in tightly sealed containers, protected from moisture and direct sunlight. It should be stored in a cool, well-ventilated area, away from sources of ignition and incompatible materials. During transit, containers must be clearly labeled and handled by trained personnel, adhering to all relevant regulations for chemical transport. |
| Storage | Ethyl benzoylacetate should be stored in a tightly closed container in a cool, dry, and well-ventilated area, away from direct sunlight and sources of ignition. It should be kept separate from strong oxidizing agents and acids. Ensure proper labeling and secondary containment to prevent leaks or spills, and regularly inspect storage areas for signs of container damage or chemical degradation. |
Applications of Ethyl Benzoylacetate in Industrial ManufacturingEthyl Benzoylacetate serves as a core intermediate for multiple industrial sectors, supporting high-value chemical syntheses. Its functional profile fits a select group of advanced manufacturing streams, where the compound is subject to strict regulatory, processing, and quality control requirements. As a dedicated producer, we ensure process stability and raw material consistency to suit the needs of each downstream segment detailed below. 1. Pharmaceutical Synthesis IntermediatesMajor pharmaceutical manufacturers apply Ethyl Benzoylacetate as a key building block in the multi-step synthesis of active pharmaceutical ingredients, notably including non-steroidal anti-inflammatory compounds and antihistamines. The material integrates into heterocyclic core formation, custom ketone derivatives, and certain prodrug chains. Each stage requires strict batch traceability and controlled impurity profiles per pharmacopoeial requirements and customer-specific monographs. During scale-up, the material’s purity and moisture content receive verification prior to closed-system introduction. On-demand supply ensures continuous production with minimal downtime. Industry compliance standards
Typical usage ratio
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2. Agrochemical Active Ingredients and IntermediatesManufacturers in the crop protection sector utilize Ethyl Benzoylacetate for assembling selective herbicide and fungicide molecules, including triazole-derived systems and benzoyl-containing actives. Strict input quality ensures alignment with established stewardship protocols and market authorization dossiers. Production plants integrate the material at specific condensation or substitution stages, controlling temperature and pH for optimized yield. In-line analysis monitors residual solvent and by-product clearance to meet finished goods containment specifications demanded by regulatory authorities in key agricultural regions. Industry compliance standards
Typical usage ratio
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3. Fragrance and Aroma Chemical ProductionAroma chemical plants employ Ethyl Benzoylacetate to generate high-purity key notes and fixatives crucial for fine fragrance and personal care formulation. The raw material acts as a substrate for further transformation—via condensation, hydrolysis, or acylation—into fruity and floral tonality esters, deployed by both specialty houses and volume producers. All batches undergo strict organoleptic and analytical review before blending, with supply chains geared to perfumery industry norms set by IFRA and domestic regulations. The consistent input profile directly impacts the reproducibility and grade of the finished aroma concentrate. Industry compliance standards
Typical usage ratio
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4. Dye and Pigment Intermediate ManufacturingEthyl Benzoylacetate participates in the synthesis of specialty dye intermediates, particularly for use in high-performance organic pigments and solvent dyes. Industrial users value its reactivity for coupling reactions, especially in constructing azo and anthraquinone dye frameworks. Dosing control and reaction purity directly affect chromatic strength and stability in the downstream pigment. Tight process and inventory management support batch-to-batch color consistency. Only batches meeting technical acceptance criteria enter the pigment synthesis stream to prevent finished product recalls. Industry compliance standards
Typical usage ratio
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As a chemical manufacturer who’s handled Ethyl Benzoylacetate from the earliest gradients to final QA checks, I’ve spent years watching its value grow in the eyes of industries needing more reliability in their chemical supply chain. We synthesize it in-house, tracking every step, every degree Celsius, and every trace impurity. With our process, purity doesn’t just matter—it’s the backbone. Missteps at even one synthesis stage can ruin a batch, and anyone who’s ever run multiple reactors in a summer heat wave knows not all batches reach spec without sweat, tenacity, and experience.
The standard we produce is identified by the code our QC operators etched on paperwork for years: EBA 99. Technical folks who visit our plant always push for lot-to-lot reliability. We took that to heart—GC analysis data, moisture content, and byproduct reporting all get stored for every drum we fill. Typical assay for our Ethyl Benzoylacetate hovers at 99% purity or greater, with water below 0.2% and heavy metals below 10 ppm. Those numbers weren’t set by abstract policy but hammered out by repeated demands from perfumery, agrochemicals, and pharmaceutical labs struggling with contaminants from cheap imports.
Our Ethyl Benzoylacetate looks like a clear, oily liquid at room temperature—no cloudiness, no unexpected tints. The distinct, pleasant aroma makes it easy for experienced noses to identify; vendors who cut corners can’t mask that hint of off-note some buyers tolerate when pure supply runs thin. Any deviation or persistent odor signals contamination, sometimes untraceable unless you measure from scratch. We prefer customers contact us directly if they suspect a change, because feedback helps us root out handling issues at the ground level.
Most inquiries about Ethyl Benzoylacetate still come from flavor and fragrance houses. The compound’s sweet-fruity scent forms the backbone of many designer perfumes. High-end flavorists blend it into confections or beverages as a supporting note for fruity flavors; its safety profile, once confirmed batchwise from our own GC data, makes them more confident in declaring trace-level usage for food applications.
But the world keeps shifting. Over the last decade, crop protection research groups started reaching out because Ethyl Benzoylacetate’s backbone fits precursors for several fungicides and herbicides. The plant operators in charge of these actives don’t want untracked aldehydes or unknown esters tagging along for the ride. For these customers, we never rely on spot checks—full batch analytics stay with every shipment. Any repeat issue? We pull production logs and vet everything back to the raw benzoic acid.
Pharmaceutical uses require perhaps the highest scrutiny. Some intermediates in synthesis demand Ethyl Benzoylacetate at such a grade that even days in a poorly sealed drum can raise questions. We test our headspace purity, not just the bulk, because trace solvents off-gassing from recycled barrels can compromise a high-value downstream product. Pharmaceutical chemists become our most exacting auditors. We appreciate it; their push for cleaner production data keeps our lines tight and routines unforgiving.
The main question that surfaces across customer meetings: why pick Ethyl Benzoylacetate over other structurally similar esters? The aromatic ring, in combination with the β-keto ester side chain, lends it greater chemical stability during storage and formulation compared to lighter, more volatile esters such as ethyl acetate. In practice, batches left in storage for months show much less evaporation loss. You can detect barely any decrease in assay even after a harsh logistics schedule.
Supply chain managers tried switching to methyl benzoylacetate in times of surplus, thinking a methyl group might not make much sensory difference. They learned that fragrance profiles shifted, solubility changed, and some downstream applications faced annoying shifts in crystallization rates. Our documentation from side-by-side blend stability studies tells the story plainly: Ethyl Benzoylacetate behaves much closer to what formulation and QC teams expect; the methyl analog often does not, especially in multistep organic syntheses.
Some users think benzyl acetate could “fill in” as a fragrance note. In our hands, substitution fails. Benzyl acetate distills off faster, interacts differently with bases or oxidants, and breaks down in blends more rapidly under conditions where Ethyl Benzoylacetate holds up. This is not a hypothetical: quality-conscious fragrance developers send us their trial failures with competitor batches. We run their samples through our GC-MS and spot everything from unreacted starting materials to breakdown products. Looking at real batches in the lab beats relying on catalog promises.
Day-to-day manufacturing doesn’t just mean running vessels; it’s constant vigilance over temperature, pH, and vacuum conditions. Ethyl Benzoylacetate forms in an esterification that can turn on you—too much catalyst, and you get color development; not enough, and the reaction leaves unconverted acid. Our plant’s protocol requires two-fold checking: in-line reaction monitoring and end-point titration. If you don’t watch, you find out too late during refining or, worse, get a call from an annoyed lab tech in another country.
Handling distillation and purification presents repeated challenges. We’ve overhauled condenser setups to trap every gram of volatile byproducts—each tweak based on batch trends and customer complaints about lower-purity offerings from less rigorous sources. We dedicate one line to Ethyl Benzoylacetate during multi-shift campaigns; cross-contamination from different ester runs ruins purity, and repeated cleaning carries real labor costs. Our operators choose the right gaskets and check seals, because an unnoticed micro-leak impacts final odor. Routine isn’t just protocol. It’s pride in the outcome.
Storage for Ethyl Benzoylacetate isn’t glamorous. Shifting temperatures or high humidity can invite trace water pickup, shifting the purity numbers. We use nitrogen blanketing for bulk tanks because our studies show oxygen exposure can prompt slow color or odor changes. Leaky seals or reused barrel closures invite hassle even for end-users. That’s why we regularly retire old drums and keep tank cleaning cycles tighter than minimum code.
Every transport run gets a batch certificate and the loading data. Over years, we’ve seen how minor handling mistakes along the supply chain create weeks of headaches. Contaminating a batch with a trace of common plasticizer or cleaning agent sends staff back through sample logs and, all too often, lab retesting. We advise all customers to use glass or lined steel, not just for regulatory compliance, but from seeing what happens inside our own warehouse when a seal fails. Product integrity directly results from handling care at every stage—not from paperwork or wishful thinking.
Over decades, this product’s real-world value showed up clearest in repeat customer stories. Flavor and fragrance producers who struggled to consolidate their raw material list did so by requesting slightly tweaked assay specs. We refined production even more, building in real-time results reporting and batch reservation. Agrochemical users drove us to improve our batch retention, so that two years down the line, a traceability request doesn’t devolve into a chase through storage archives. Pharmaceutical inquiries push us to keep analysis sharp and swiftly accessible. These pushes have changed how we run our process more than any regulatory checklist.
Customers began asking for certificates that went beyond base regulatory forms—full chromatographic profiles and impurity tables, both as PDF and raw lab data. While it might sound like overhead from a distance, responding to these needs has kept our product at the standard demanded internationally. We value direct calls from technician to our own engineers; their process feedback drives our ongoing improvements. They report back on off-notes, slight color changes, or performance glitches. As a result, we treat feedback on Ethyl Benzoylacetate as an evolving part of production, not a static afterthought.
Ethyl Benzoylacetate is more sensitive to cleaning solvents than many realize; trace residues left behind can taint large batches. Over-enthusiastic cleaning might seem safe, but alcohols or incompatible rinses leave fingerprints in the product, raising questions in subsequent QA checks. Our plant’s policy encourages careful record-keeping for every drum and line run—batch operators flag any irregularity before final packaging. Mistakes in loading or bulk sampling—like sample containers with detergent residues—taught us lessons we do not forget. Our rule: the best prevention beats troubleshooting days later.
Sometimes calls come in about separation at low temperatures. We’ve logged this with multiple users, especially in cooler climates. Most times, gentle warming with air is enough, but we run stability studies to catch any precipitate risks, and inform customers up front if variations in storage temperature need attention. Sincere troubleshooting beats long email chains. We stand ready to share storage best-practices honed from dozens of real incidents, instead of theoretical possibilities.
Modern chemical production faces mounting expectation to minimize environmental footprint. This doesn’t happen overnight. Over years, we’ve swapped in lower-footprint catalysts and optimized solvent recovery, based on data directly from our batch emissions reports. Our operators spearheaded these changes, motivated as much by personal pride in a cleaner process as by compliance audits. We track raw material uptake, water usage, and distillation losses for every batch. Our byproduct streams route through controlled paths with all QA checkpoints logged.
Risk assessments, from feedstock checks to logistics security, stem from decades overcoming both supply and in-plant interruptions. A transport freeze or unexpected import restriction forced change in our raw material planning. By holding more critical intermediates onsite, we buffer both our production stability and the confidence of buyers several links downstream. Real sustainability is not a one-time declaration but a week-in, week-out improvement, keeping the plant competitive and responsible for years.
In a global market saturated with traders and repackagers, true manufacturing control makes all the difference. Direct plant origin means traceable data—no guesswork over lots, practices, or origin stories. Our own teams handle everything from distillation design to last-step bottling. If a batch fails, there’s no blame passed around to “an upstream source.” This protects both end-users and our own reputation.
Market research shows that many “cheaper” options mask inconsistency. One-off purchases may seem to save, but end up costing users more during troubleshooting. Feedback cycles prove tight manufacturer-customer connections benefit both sides—less downtime, fewer recalls, shared knowledge. Experienced buyers come back knowing that no spreadsheet price can match the value of tight batch control and honest feedback.
Direct manufacturing lets us answer nuanced application questions: how does Ethyl Benzoylacetate react if subject to a specific blend of antioxidants? How does it fare during microencapsulation or high-shear mixing? Fielding these questions from plant floor up means our technical support doesn’t just repeat literature but builds on lived experience. Changes in raw material, shifts in climate, or process renovations get reported by technicians walking down the same corridors year to year—not by anonymous supplier chains with no stake in customer outcomes.
Making Ethyl Benzoylacetate year after year, we’ve learned trust builds through consistency, data, and honest engagement. We do not shy away from feedback; it sharpens us and improves reliability. The market expects more every year—in purities, sustainability, traceability—and direct manufacturers must meet this with both investment and hands-on rigor. Every tank, every sample, every certificate links back to the work of our operators, lab staff, and support team.
For any user, the difference between a passable batch and an exceptional one shows up in final product performance, fewer rejections, and fewer “root cause” investigations. Our commitment to making Ethyl Benzoylacetate sets the bar high, but it’s seeing our materials play essential roles in so many products globally that gives meaning to every shift. From fragrance blends to crop protection to pharmaceutical synthesis, the journey of every drum tells a story of hands-on care and pride in chemical craftsmanship.