ETHY1 ACETOACETATE

    • Product Name: ETHY1 ACETOACETATE
    • Chemical Name (IUPAC): ethyl 3-oxobutanoate
    • CAS No.: 141-97-9
    • Chemical Formula: C6H10O3
    • Form/Physical State: Liquid
    • Factroy Site: No.968 Jiangshan Rd., Nantong ETDZ, Jiangsu, China
    • Price Inquiry: sales7@boxa-chem.com
    • Manufacturer: Nantong Acetic Acid Chemical Co., Ltd.
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    Specifications

    HS Code

    892721

    Chemicalname Ethyl acetoacetate
    Casnumber 141-97-9
    Molecularformula C6H10O3
    Molarmass 130.14 g/mol
    Appearance Colorless liquid
    Density 1.02 g/cm³
    Boilingpoint 180 °C
    Meltingpoint -45 °C
    Flashpoint 82 °C
    Solubilityinwater Moderate (12 g/L at 20 °C)
    Refractiveindex 1.418
    Vaporpressure 0.4 mmHg (20 °C)
    Odor Fruity, pleasant
    Storagetemperature Store at 2-8 °C
    Synonyms Acetoacetic acid ethyl ester

    As an accredited ETHY1 ACETOACETATE factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Ethyl acetoacetate is packaged in a 500 mL amber glass bottle with a secure screw-cap and clear hazard labeling.
    Container Loading (20′ FCL) Container Loading (20′ FCL) for ETHYL ACETOACETATE typically holds 14 metric tons in 200-liter drums, efficiently arranged for safe transport.
    Shipping **Ethyl acetoacetate** should be shipped in tightly sealed containers, stored upright to prevent leaks. It must be kept away from heat, sparks, and incompatible materials such as oxidizers. Shipping requires proper labeling according to regulations (such as UN number 1170, class 3), and transportation should comply with relevant chemical transport guidelines for flammable liquids.
    Storage Ethyl acetoacetate should be stored in a tightly closed container in a cool, dry, and well-ventilated area away from sources of ignition, heat, and direct sunlight. Keep it away from incompatible substances such as oxidizing agents and strong acids. Store at room temperature, and ensure proper labeling to avoid accidental misuse. Use appropriate safety containment to prevent leaks or spills.
    Shelf Life Ethyl acetoacetate typically has a shelf life of 12–24 months if stored tightly sealed, cool, and protected from moisture and light.
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    Certification & Compliance
    More Introduction

    ETHYL ACETOACETATE: APPLICATION INSIGHTS FROM THE MANUFACTURER’S DESK

    Understanding the Core of ETHYL ACETOACETATE

    In the world of chemical manufacturing, experience with core intermediates sets the tone for innovation across pharmaceuticals, agriculture, and high-performance materials. Over decades, our team has come to value the versatility of ETHYL ACETOACETATE, commonly called EAA. As a manufacturer, engaging daily with the subtleties of both large and specialty-scale production, we see first-hand why this clear, colorless liquid frequently earns its place in a chemist’s toolkit. Its chemical formula—CH3COCH2COOC2H5—offers more than numbers or structure; it enables a range of reactivity that fuels entire value chains. ETHYL ACETOACETATE’s utility grows from its dual functional groups, allowing for both acylation and alkylation, making it a frequent choice for synthesis in tightly regulated environments.

    Specifications and Quality Factors from the Production Line

    Manufacturing begins with purity. A small deviation in the percentage of main content can alter the yield and quality of downstream products. Our ETHYL ACETOACETATE usually enters the market at a minimum purity of 99 percent, as verified by gas chromatography, with water content less than 0.2 percent. Every batch undergoes tight control for acidity, heavy metals, and other trace impurities. As operators, we check for a refractive index that should not stray beyond acceptable ranges to maintain reliability for pharmaceutical clients.

    We have found that impurities such as ethanol or diethyl ether—sometimes present from competing or less-controlled processes—directly impact shelf-life and can spark headaches for industrial users. By investing in continuous distillation and robust quality control, our process stops these contaminants at the source, instead of letting flaws trickle downstream. Colleagues in fine chemical synthesis appreciate this extra step, especially those whose work turns into capsules, dyes, or agrochemical actives.

    Industrial Experience Driving Product Development

    Years spent beside reactors, centrifuges, and tanks have taught us the value of batch-to-batch consistency. Customers designing APIs, pigment precursors, or fine flavor intermediates have brought forward granular requests: “Can you ensure this batch smells neutral—no trace of off-note?” “Do you control heavy metals to below 2 ppm?” These details might look academic from afar, but in practice, every deviation risks lost product or regulatory review. The real-world cost is delay, not just dissatisfaction.

    On the scale-up side, certain applications call for modified or customized grades of ETHYL ACETOACETATE. Where the pharmaceutical field asks for high-purity, low-residual solvent solutions, other sectors can tolerate slightly broader impurity spectra. For example, in use as a paint additive or industrial solvent, the purity floor might rest slightly lower, while batch documentation takes a back seat to cost efficiency. The technical skill comes in tuning production to serve different markets—without cross-contamination or quality compromise.

    Comparing to Similar Ketone Esters and Related Chemicals

    Chemists often ask how ETHYL ACETOACETATE stands up against other acetoacetates, like methyl acetoacetate, or even against diketones such as acetylacetone. In our own plants, we see the clear preference for ETHYL ACETOACETATE in multi-step synthesis. Its slightly heavier ethyl moiety provides an ideal balance: faster reaction rates and manageable volatility. Methyl acetoacetate offers higher reactivity, but makes handling riskier, especially in facilities not equipped with sufficient ventilation. Acetylacetone, being a diketone without ester function, moves in different chemical circles altogether. For product lines where enolate formation at moderate pH is essential, ETHYL ACETOACETATE consistently rises as the most versatile candidate.

    We have also noticed preferences shift based on downstream regulatory pressures. Pharmaceutical processes tend to favor ETHYL ACETOACETATE partly because the availability of robust impurity profiles and broad pharmacopeia documentation helps streamline audits. Agrochemical manufacturers sometimes switch to isopropyl acetoacetate for volatility, but supply chain logic brings them back to the ethyl derivative for availability and cost. In every comparative test we have run between grades, the main tradeoff is between reactivity and volatility—never a simple one-size-fits-all answer.

    End-use Cases Seen Through a Manufacturer’s Lens

    We have watched ETHYL ACETOACETATE move from a textbook intermediate to a daily necessity as industries demand higher performance from every raw material. One of the strongest uses appears in the manufacture of pyrazolones and pyridines, essential scaffolds for pharmaceuticals. Our direct clients often use ETHYL ACETOACETATE as a starting material for barbiturates, antimalarial drugs, and even non-steroidal anti-inflammatory drugs. Many synthetic protocols take advantage of its ability to undergo nucleophilic substitution at the methylene carbon, forming carbon-carbon or carbon-heteroatom bonds under mild conditions. Because our output meets stringent reaction demands for conversion and selectivity, process chemists frequently report higher yields and clearer workups.

    Outside pharma, the pigment and dye industry relies heavily on the consistency of this chemical for the production of azo dyes. Farmers may never see it in pure form, but ETHYL ACETOACETATE ultimately contributes to the herbicides and fungicides applied to fields worldwide. In our own experience supplying agrochemical clients, any deviation in purity or acidity can lead to precipitation in formulation tanks—interrupting production and driving up costs for everyone in the supply chain. Paint and coating manufacturers use it as a component in high-performance lacquer thinners, exploiting its solvent strength and compatibility.

    Our conversations with adhesive manufacturers point to another benefit. Low water content and controlled acidity prevent foaming and discoloration in polyurethane dispersions. For each sector, direct feedback guides our plant adjustments and quality benchmarks—creating a cycle where technical improvements and market needs push each other forward in practice.

    Production Experience: Safety, Environmental Responsibility, and Supply Assurance

    People in chemical manufacturing quickly learn that no product leaves the plant unless the process delivers reliability and safety along every step. For a liquid with moderate volatility, ETHYL ACETOACETATE requires well-maintained closed systems and careful monitoring of fugitive emissions. Tank farm experience confirms the importance of vapor containment—one misstep and the local team faces both business and environmental headaches. In our own practice, attention to leak testing, process sensors, and storage compatibility forms the backbone of daily operations.

    Over the years, environmental regulations have pushed every manufacturer to look beyond efficiency and start measuring waste and discharge. Starting with solvent recovery, our team reclaims a significant share of off-spec or vented material through fractional distillation circuits, year-on-year. We also engage with downstream blenders to recapture value from off-grade batches, which reduces total waste. In regions with strict discharge standards, our in-house water treatment ensures compliance without last-minute crisis management. Colleagues in the field have come to expect not only on-spec product but also open records on residuals and recycling rates—transparency cemented by years of direct audits.

    In logistics, transport partners often encounter stability and packaging concerns. Based on our hands-on experience, only corrosion-resistant containers—typically coated drum interiors or stainless IBCs—handle ETHYL ACETOACETATE without degradation. Temperature spikes during transit test even the best packaging. Our dispatchers watch weather forecasts to schedule shipments, and temperature loggers are standard for each shipment during peak seasons. It is this attention to foresight, learned through spilled shipments and delayed deliveries in the past, that keeps customers loyal amidst market volatility.

    Why Production Consistency Matters Most

    Every chemical plant tells its own story through the rhythm of its reactors and the records of its quality logs. In scaling up ETHYL ACETOACETATE, a pattern emerges: consistency trumps quantity. A process operator once pointed out, “Any variable we let slide today haunts tomorrow’s batch.” Mistakes in distillation lead to higher acidity or unwanted by-product formation—outcomes that spiral beyond production into complaints or rejects.

    One recurring inquiry comes from project managers seeking to avoid supply interruptions. Over the years, we have refined our production schedule and invested in redundancy so that a single equipment failure does not jeopardize client timelines. By maintaining secondary feedstock suppliers and facilitating regular offline overhauls, we rarely face the dreaded unplanned shutdown. We share production data openly with clients—not because regulations ask for it, but because shared context prevents misunderstandings and builds trust. The real benefit flows both ways: customers adapt their expectation to real-world capability, and we turn client forecasts into actionable production plans.

    For industries where a missing shipment means a line stoppage, reliability is not a buzzword. It forms binding agreements and, more importantly, builds reputations. Our partners frequently ask about response plans, emergency stock, or alternative transport routes. Over time, this demand has forced us to refine processes, not settle for “industry standard” but move toward continuous improvement cycles unique to our plant’s rhythm.

    Cost Drivers and Long-term Value in ETHYL ACETOACETATE Procurement

    On the plant floor and in the boardroom, tension between cost and quality never disappears. Raw material swings, regulatory levies, and evolving customer requirements all drive product pricing. Our experience shows no formula exists for predicting month-to-month changes, yet long partnerships ground supply stability. Where cost-driven buyers try to substitute with lower-purity or imported alternatives, technical teams often circle back after field failures expose hidden costs—material incompatibility, unexpected side reactions, or regulatory headaches.

    We have learned directly through tough months that cost and value are interwoven. Long-term users gain more from predictable performance, technical support, and documented compliance than from fleeting discounts. Supply chain risk multiplies where sourcing shifts without regard for manufacturing standards. We spend less time resolving complaints and more time collaborating with R&D teams when customers understand that every cent saved through corner-cutting returns as risk. Buyers in pharmaceuticals and agrochemicals who stick with trusted manufacturing partners protect their own output—an outcome seen in fewer recalls and stable regulatory audits.

    Moving Forward: Innovations and New Applications

    As plant chemists and production engineers, we never stop watching for new directions where ETHYL ACETOACETATE can add value. The rise of green chemistry has sparked interest in biobased alternatives—not only in the end-user product but also in solvent, intermediate, and carrier roles. Research projects with university partners now test catalytic upgrading and process intensification, aiming to achieve greater atom-efficiency and minimize waste.

    We are also responding to new requirements from electronics and advanced materials producers. They demand higher-purity intermediates, and push for lower trace metals and higher documentation levels. Each new specification leads to fresh engineering investments on our side, from upgraded distillation columns to smarter plant sensors and digital quality control. As a manufacturer, each demand represents both a challenge and an invitation—to stretch knowhow, invest in people and equipment, and meet standards that would have seemed excessive a decade ago.

    Collaborative projects sometimes start with a phone call about a niche synthesis, and occasionally develop into new product lines featuring functionalized acetoacetates or fine-tuned solvent blends. We treat all these requirements as opportunities to prove how manufacturing experience delivers results—creative solutions supported by hard-won technical skill.

    Trust Built Through Transparency and Experience

    After many years supplying ETHYL ACETOACETATE to demanding sectors, our takeaway is simple: in chemicals, accountability and technical depth matter more than even the best marketing. Long days in pilot plants have shown how quickly small oversights compound into big problems, and how honest feedback—both positive and critical—reaches upstream to shape better process solutions.

    Modern buyers care about audit trails, production philosophy, environmental reporting, and technical backup. We not only share compliance records but also invite client engineers to observe at key manufacturing stages, giving real eyes on the process, not just certificates. This culture of transparency, embedded in daily routine rather than press releases, sets borders for acceptable compromise. In every specification adjustment, batch test, or logistics decision, our engineers and operators bring direct, hands-on knowledge to every customer interaction.

    By viewing ETHYL ACETOACETATE not as a commodity but as a precision tool for innovation, we support users in pharmaceuticals, agriculture, pigments, coatings, and new technologies. Each batch that leaves our plant reflects the results of continual investment in experience, equipment, and open dialogue—a philosophy proven in the details of daily production, never just promotional material.

    The Value of Manufacturer Perspective

    A product story crafted from the lab or plant floor differs from one shaped behind a sales desk. Working directly with raw materials and process equipment means every shortcut is visible, every risk has a cost. Across many years producing and shipping ETHYL ACETOACETATE, our approach focuses on delivering what documentation and sales materials cannot always show—real performance, service reliability, and a drive for ongoing improvement.

    Every advance in application—from pharmaceuticals to new-generation coatings—puts new demands on manufacturing. Our daily practice remains grounded in the belief that responsible chemical production solves problems, protects people and the planet, and creates value in every molecule shipped.