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Ethyl Phenoxyacetate

    • Product Name Ethyl Phenoxyacetate
    • Alias Phenylglycolic acid ethyl ester
    • Einecs 221-963-3
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
    VTB
    Specifications

    HS Code

    753606

    Cas Number 1879-13-8
    Molecular Formula C10H12O3
    Molecular Weight 180.20 g/mol
    Appearance Colorless to pale yellow liquid
    Boiling Point 285°C
    Melting Point -27°C
    Density 1.09 g/cm³ (at 20°C)
    Refractive Index 1.502 (at 20°C)
    Solubility In Water Insoluble
    Flash Point 123°C (closed cup)

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

    Packing & Storage
    Packing Ethyl Phenoxyacetate is packaged in a 25 kg blue HDPE drum with secure sealing, labeled with chemical details and hazard warnings.
    Shipping Ethyl Phenoxyacetate should be shipped in tightly sealed containers, away from moisture, heat, and incompatible substances. It is typically transported as a liquid in drums or bottles approved for chemicals. Handle with care, following all regulatory and safety guidelines. Proper labeling and documentation are essential for compliant and secure shipping.
    Storage Ethyl Phenoxyacetate should be stored in a cool, dry, and well-ventilated area, away from heat sources, open flames, and direct sunlight. Keep the container tightly closed and clearly labeled. Store away from incompatible materials such as strong oxidizing agents and acids. Ensure proper grounding and use of non-sparking tools to prevent static discharge. Follow all relevant safety regulations.
    Application of Ethyl Phenoxyacetate

    Applications of Ethyl Phenoxyacetate in Industrial Manufacturing

    Our facility produces Ethyl Phenoxyacetate under strict quality management, supplying leading manufacturers in established downstream sectors. The applications below reflect recognized industrial scenarios, each with process parameters and compliance expectations our clients face in production lines worldwide.

    1. Agrochemical Formulations: Insecticide Solvent Carrier

    Ethyl Phenoxyacetate integrates into concentrated insecticide emulsions as an efficient solvent carrier, valued by agrochemical producers for its stability in active ingredient dispersion and compatibility with a range of hydrophobic pesticides. Downstream formulators benefit from its low volatility and consistent solvency in large-batch blending, especially for EC (Emulsifiable Concentrate) and ME (Microemulsion) products targeting broad-leaf crops and horticultural protection. Our on-site QC monitors batch assurance to support smooth scale-up in customer blending operations.

    Industry compliance standards

    • FAO/WHO Pesticide Specifications (current edition)
    • ISO 9001:2015 for chemical formulation plants
    • REACH (EC No 1907/2006) registration requirements for solvent use
    • China GB/T 20784-2006: Agrochemical Formulation Safety

    Typical usage ratio

    • 10–30% w/w in EC and ME pesticide blends; customers adjust for actives’ solubility and field residue regulations

    Downstream process integration

    • Added during main solvent phase charging after active dispersal; homogenization temperature controlled at 20–40°C to preserve solvent profile

    Final product types

    • Emulsifiable concentrate pesticide solutions (e.g., pyrethroid ECs)
    • Microemulsion horticultural insecticides
    • Broad-spectrum field application agrochemicals for commercial farming

    2. Flavor and Fragrance Intermediate: Aroma Ester Manufacturing

    Downstream aroma chemical and fragrance houses employ Ethyl Phenoxyacetate as an intermediate for synthesizing intricate esters used in perfumery and fine fragrances. Its controlled reactivity enables precise build-up of musky or woody base notes, consistently reproducible in automated batch reactors. The ingredient provides formulating flexibility in both mass-produced and bespoke fragrance solutions, with batch documentation supporting IFRA and GHS compliance for export and cosmetic safety audits.

    Industry compliance standards

    • IFRA Standards (latest amendments for fragrance material restrictions)
    • EU Regulation (EC) No 1223/2009: Cosmetic safety for fragrance ingredients
    • GHS/CLP Regulation (EC No 1272/2008) for downstream labeling
    • ISO 9001:2015 and FSSC 22000 in certified aroma chemical plants

    Typical usage ratio

    • 5–18% w/w as an intermediate or blending component; typically set by GC-MS trace compliance in finished perfume bases

    Downstream process integration

    • Charged during synthesis of complex esters, prior to distillation and blending with terpenoid bases; used for both bulk and fine fragrance bases

    Final product types

    • Perfume and eau de toilette concentrates
    • Personal care fragrance blends (shampoos, lotions)
    • Room air freshener and laundry scent additives

    3. Pharmaceutical Intermediate: API Synthesis Building Block

    Pharma manufacturers utilize Ethyl Phenoxyacetate as a defined structure-building block in the synthesis of select active pharmaceutical ingredients (APIs), providing reproducible yield in esterification steps. Recognized in process chemistry for batch-to-batch purity and identity, its application supports cGMP manufacturing environments under full traceability. Downstream integration focuses on targeted reactions with amine or alcohol groups, controlled via in-process HPLC and NMR verification according to regional regulatory requirements.

    Industry compliance standards

    • ICH Q7 Good Manufacturing Practice for APIs
    • USP/NF Monographs (where structurally relevant)
    • EU EMA Guidelines for excipient and intermediate traceability
    • 21 CFR Part 211 (US FDA GMP for finished pharmaceuticals)

    Typical usage ratio

    • Variable by target API: 0.5–7% w/w in reaction mass; controlled addition to minimize by-products, based on specific synthetic pathway

    Downstream process integration

    • Enters multistep organic synthesis following initial condensation; typically added as a limiting reagent during controlled temperature phases in closed reactors

    Final product types

    • Cardiovascular and CNS small-molecule APIs
    • Pharmaceutical intermediates for patent synthesis flows
    • Branded and generic oral and parenteral medicine APIs

    4. Specialty Coatings and Resin Modification

    Industrial coatings manufacturers use Ethyl Phenoxyacetate within resin formulations to enhance flow, film formation, and gloss retention in specialty lacquers and finishes, particularly for automotive plastics and high-resistance wood surfaces. This additive achieves targeted solubility modulation, aiding pigment wetting and resin compatibility during high-shear mixing. Consistency of grade helps downstream clients maintain batch reproducibility and validate physical property claims for customer QC audits.

    Industry compliance standards

    • RoHS 2011/65/EU for restricted substances in finished coatings
    • EN 71-3:2019 (Toy Safety - migration of certain elements if applied to toys/furniture)
    • ISO 9001:2015 for coatings and paint production
    • ASTM D4236: Labeling Art Materials for Chronic Health Hazards

    Typical usage ratio

    • 3–12% w/w in high-solids and specialty resin coatings; adjusted for target viscosity and final product drying curve

    Downstream process integration

    • Added during high-shear mixer charge with main resin and co-solvent phase; introduction optimized for uniform dispersion before pigment loading

    Final product types

    • Automotive interior and exterior plastic coatings
    • High-durability wood lacquers
    • OEM factory-applied specialty films and industrial sealers

    5. Industrial Lubricant Additive

    Ethyl Phenoxyacetate functions as a polarity modifier and lubricity enhancer in advanced industrial lubricants, helping blenders develop synthetic and semi-synthetic solutions for high-temperature machinery and precision metalworking. Its chemical structure optimizes viscosity-temperature profiles and minimizes volatility loss, improving stability in both gear oils and specialty greases formulated for demanding OEM specifications.

    Industry compliance standards

    • DIN 51517 (Lubricating oils for industrial gears)
    • ISO 12925-1:2020 (Industrial gear oils)
    • REACH (EU) and TSCA (USA) registration for industrial lubricants
    • ISO 14001:2015 Environmental Management in lubricant manufacturing

    Typical usage ratio

    • 1–5% w/w in finished formulations; varies with blend type and volatility specifications set by OEM approval processes

    Downstream process integration

    • Added post-base oil blending, before introduction of performance additives; tank mixing under nitrogen atmosphere preferred to limit oxidation

    Final product types

    • High-temperature synthetic gear oils
    • Precision machinery greases
    • Industrial-grade cutting fluids
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    Certification & Compliance
    More Introduction

    Ethyl Phenoxyacetate: A Practical Ingredient for Modern Formulation

    The Value of Ethyl Phenoxyacetate in Industrial Production

    Ethyl Phenoxyacetate stands up as a key ingredient for those manufacturers who rely on both versatility and technical consistency. Our work brings us into daily contact with demands for precision, shelf life, and performance, and for over a decade we have seen how Ethyl Phenoxyacetate bridges the gap across multiple downstream uses. Developed in our own plant, the model we offer emphasizes purity, ease of handling, and controlled volatility. We manufacture it directly under strict batch management, with typical purity above 99%. Density and viscosity remain predictable between shipments, so users can rely on regular outcomes in chemical reactions or blends.

    Choosing Ethyl Phenoxyacetate for Specific Applications

    Customers in pharmaceuticals, agrochemicals, and fragrance manufacturing seek raw materials capable of both reacting cleanly and keeping unwanted trace byproducts away from their final formulas. Some solvents bring harsh odors or high evaporation rates that disrupt process timing or downstream quality. Ethyl Phenoxyacetate contains no halides, and its odor profile remains mild compared to related esters such as methyl phenoxyacetate or benzyl phenoxyacetate. We hear from formulators how our product’s moderate boiling point lends enough working time for controlled reactions. Pharma partners tell us that the stable structure of Ethyl Phenoxyacetate resists hydrolysis far better than many short-chain esters, making it a preferred carrier or intermediate in sensitive ingredient synthesis.

    Over years of batch production, we have watched customers using alternate esters run into quality drift—especially where high-purity requirements bottle-neck entire production lines. Where ethyl acetate and butyl acetate often leave residual taste or triggers for regulatory retesting, Ethyl Phenoxyacetate keeps downstream processes on schedule, without unplanned rework or scrapped lots.

    Understanding the Difference from Industry Alternatives

    The chemistry world does not lack for esters, but only a handful perform as reliably as Ethyl Phenoxyacetate in specific jobs. Compared to isobutyl phenoxyacetate and methyl phenoxyacetate, Ethyl Phenoxyacetate balances volatility and solvency right between their extremes. Isobutyl phenoxyacetate brings greater bulk to base note in fragrances, but users complain of slower evaporation and heavier scent. We do not see the same layering effect in Ethyl Phenoxyacetate; its scent gently lifts without overwhelming the entire composition, which suits fine perfumery and sensitive skincare blends.

    In pesticide formulations, the ability to hold actives in solution without promoting rapid breakdown matters. Field trials with agrochemical partners showed improved spray stability and lower off-target drift compared to ordinary ester solvents. Where methyl alternatives sometimes react rapidly and break down actives before application, Ethyl Phenoxyacetate prolongs stability. Laboratory stability testing across seasons and humidity conditions gave us clear feedback: microencapsulation holds together longer, and we observed reduction in loss during storage.

    Material Handling Adds Practicality

    Those working in large-batch production know the importance of consistent, manageable physical properties. We ship Ethyl Phenoxyacetate in tightly monitored drums and IBC totes under closed transfer systems. With its pour point and flash point properly balanced, there are fewer worries about crystallization or flammability during onsite storage. Our plant team has improved drum filling over the years, minimizing headspace and residual oxygen to cut down on oxidation. This brings pronounced stability in color and odor, which is especially important for sensitive fragrance and food-contact uses.

    We listen closely when operators mention ease of cleaning lines or the absence of stubborn film residues. Unlike some heavier esters, Ethyl Phenoxyacetate rinses cleanly after use. Machinists have little trouble prepping equipment between batches. This cuts downtime and reduces labor requirements, which helps plant managers looking for efficient ingredient swaps.

    Regulatory and Quality Considerations

    Supplying a wide range of manufacturing partners means we track every step of the production chain. Our Ethyl Phenoxyacetate batches are produced under third-party audit, and every shipment includes in-house GC-MS verification of purity. When regulations shift, such as new REACH notifications in the EU or updated TSCA norms in the United States, our team takes immediate steps to document changes. Our experience dealing with flavor and fragrance regulatory filings means customers are not left guessing about restricted substances or trace compliance. The complete absence of phthalates and low aromatic content sets our Ethyl Phenoxyacetate apart as a low-risk option for those meeting food contact or cosmetic ingredient standards.

    Reporting to regulatory agencies or auditors can feel overwhelming. We work directly with customers to supply Certificates of Analysis, change documentation, and traceability records tailored to their internal review cycles. This coordination shortens audit times and smooths production approvals for new product launches.

    Supporting Sustainability Goals

    Every manufacturer faces rising expectations around carbon footprint, resource intake, and supply chain transparency. Ethyl Phenoxyacetate comes with a clear record of Responsible Care sourcing: our plant sources raw phenoxyacetic acid and ethanol from regionally audited partners. Recovery and distillation procedures return high yields, cutting down on overall waste generated per ton of finished product. Customers concerned about lifecycle analysis have pressed for lower energy and water inputs per unit—improvements we implement year on year. Our process team has optimized solvent recovery to reduce atmospheric releases and recycles wash solvents for non-pharma grades.

    For downstream formulators looking to support “green chemistry” commitments, Ethyl Phenoxyacetate makes a strong case: no persistent halogenated byproducts, no legacy priority pollutants, and routes for closed-loop recycling. Some advanced coatings customers work directly with our technical group to evaluate new blend grades that re-use portions of off-spec material, feeding circular manufacturing strategies.

    Manufacturing Perspective: Feedback from the Factory Floor

    Consistency counts more than any theoretical performance curve. Our plant engineers document variance after every batch, and we rely on machine operators to highlight anything from odor drift to increased sediment in finished drums. Early batches of Ethyl Phenoxyacetate taught us to extend holding times during esterification for maximum conversion, and incremental tuning over years has paid off in downstream stability.

    One challenge involved balancing drying processes with warehouse management: overzealous drying led to evaporation loss, which the shift team solved with an upgraded condenser array. It’s experiences like these where an in-house team makes the difference—real problems, addressed with real-time trial and error, often lead to process changes that stick. We build feedback loops across the entire team, from feedstock receiving to secondary packaging, which means field complaints come straight back to R&D for testing and (where needed) plant process modification.

    The effect for our customers shows up in fewer production halts, more shipment punctuality, and less off-grade material reaching their sites. Some of our earliest partners remain with us because we take these incremental improvements seriously and communicate changes before they show up as end-product headaches.

    Adapting Ethyl Phenoxyacetate for New Market Demands

    Innovation cycles in the chemicals industry turn quickly, particularly in pharmaceuticals and personal care. Our technical team remains on-call for collaborative projects with customers who develop new active ingredients or fragrance profiles that require a specific balance of solubility and evaporation. Through small-scale trial runs and application testing, we find that Ethyl Phenoxyacetate adapts well to new mechanized filling lines, supporting the drive for automated dosing and minimizing spillage. The moderate molecular weight makes it more compatible with recent non-phthalate plasticizer systems now appearing in baby care and rapid-release medicine coatings.

    Practicalities stack up during pilot plant runs: operators have commented on reduced foaming during mixing, fewer cross-contamination concerns in shared tanks, and lower static build-up compared to higher-molecular esters. These are details that lab data sometimes overlook, but they matter at scale. The shift away from restricted solvents means manufacturers want drop-in replacements, and we work to ensure Ethyl Phenoxyacetate meets those expectations on every scale-up.

    Supporting the Future with Real-World Testing

    We run new batch grades through automation-driven QC lines and sample finished product in both sealed and open-air storage to model real user conditions. This helps predict shelf life both on the warehouse rack and after arrival at the customer’s plant. Our pilot batches simulated long-haul transport under high-humidity and heat scenarios—Ethyl Phenoxyacetate batches arrived without trace haze or container corrosion. Over time, time, these measures reduce product loss after shipment, which benefits both the environment and our customer relationships.

    Field trials with partners in emerging economies revealed a need for drums and IBCs that minimized exposure to tropical cycling. After several returns with discolored product, we tightened sealing specs and adopted nitrogen blanketing, protecting both color and purity. Now, partners in more challenging geographies find that quality holds up through customs and regional warehousing.

    Key Experience Gained from Industry Collaboration

    Whether blending for fragrance bases, agrochemicals, or coatings, nearly all our users have faced harsh learning curves with similar esters. Lessons come from both successes and failures: a partner in food flavors once replaced a more reactive ester, only to see their sampling pass double the shelf life without brown-out or flavor shift. Other formulators have substituted Ethyl Phenoxyacetate in place of overly volatile alternatives and reported faster filling times, with lower ambient emissions in the plant.

    We keep an open dialog with tech teams working on scaling new applications. As the push for biodegradable, low-toxicity ingredients gets louder, we share testing data and review field performance to help them adjust processes on the fly. Some partners test our ester for use in medical diagnostic coatings, where low background interference is critical. Their feedback drives minor changes in synthesis or filtration to improve downstream suitability.

    Reliable Sourcing and Inventory

    Maintaining robust lead times and consistent inventory helps keep production lines running smoothly. Our manufacturing lead time now sits under four weeks for most orders, even during high-demand periods. We carry out extensive risk evaluation of our supply partners and maintain local storage for steady regional delivery. Bottlenecks in global logistics over recent years have underscored the value of this model, as interrupted ingredient flow can halt entire lines downstream.

    Real stories come from monthly calls: a coating manufacturer recounted switching to our Ethyl Phenoxyacetate during a surge and avoided both overtime costs and idle equipment by receiving on-time replenishment. Frequent and transparent updates sit at the heart of our process: rather than relying on proxies or resellers, our customers connect directly with in-plant teams familiar with current production status and inventory cycles.

    Conclusion: A Manufacturer’s Commitment to Practicality and Consistency

    Every step in the process, from sourcing feedstock to final QA release, stands on a foundation of experience and attention to practical realities. Our Ethyl Phenoxyacetate emerges from this direct hands-on approach, offering consistent quality, practical performance advantages, and responsive support for adapting to modern market shifts. Differences from competing esters do not just live in the fine print—they show up in daily plant operation, field test longevity, and final user satisfaction. By centering our work around documented lessons and customer feedback, we continue to refine and advance this product in ways that help our partners keep pace with a changing regulatory and technical landscape.