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Allyl Acetate

    • Product Name Allyl Acetate
    • Alias Acetic acid, allyl ester
    • Einecs 203-470-7
    • 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
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    Specifications

    HS Code

    421418

    Chemical Name Allyl Acetate
    Cas Number 591-87-7
    Molecular Formula C5H8O2
    Molar Mass 100.12 g/mol
    Appearance Colorless liquid
    Odor Fruity, pungent odor
    Boiling Point 103-104°C
    Melting Point -92°C
    Density 0.936 g/cm³ at 20°C
    Refractive Index 1.406 at 20°C
    Flash Point 16°C (closed cup)
    Solubility Slightly soluble in water; miscible with most organic solvents

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

    Packing & Storage
    Packing Allyl Acetate is supplied in a 1-liter amber glass bottle, tightly sealed, with hazard labels and a secure screw cap.
    Shipping Allyl acetate should be shipped in tightly sealed containers made of compatible materials, away from sources of ignition and strong oxidizers. It is classified as a flammable liquid (UN No. 1098, Class 3), requiring proper labeling and documentation. Transport must comply with relevant local, national, and international hazardous materials regulations.
    Storage Allyl acetate should be stored in a cool, dry, and well-ventilated area, away from direct sunlight, heat sources, and any ignition sources due to its flammability. Store in tightly sealed, corrosion-resistant containers clearly labeled for chemicals. Keep away from incompatible substances such as strong oxidizers, acids, and bases. Ensure storage area has appropriate spill containment and fire suppression systems.
    Application of Allyl Acetate

    Applications of Allyl Acetate in Industrial Manufacturing

    Allyl Acetate is a key intermediate in several critical industrial sectors. Direct integration into chemical syntheses, polymer processing, flavors chemistry, and specialty coatings has established this material as a preferred raw input for process engineers and formulation experts requiring high chemical reactivity and purity. Below are the primary industrial applications supported by our manufacturing-grade Allyl Acetate.

    1. Synthesis of Allyl Alcohol for Epoxy Resins and Plasticizer Production

    Major resin, plasticizer, and specialty chemical producers use this material to synthesize Allyl Alcohol via hydrolysis in fixed-bed or liquid-phase reactors. The yielded Allyl Alcohol provides essential reactivity for converting epoxy resin precursors and phthalate-based plasticizing agents. Industrial plants ensure that the hydrolysis process meets strict purity and throughput criteria, critical for downstream batch consistency and finished product performance. Inline monitoring and residue minimization enable reliable scale-up in continuous facilities.

    Industry compliance standards

    • ISO 9001:2015 Quality Management Systems
    • REACH Regulation (EC) No 1907/2006 for chemical intermediates
    • IECQ QC 080000 for hazardous substance process management
    • OECD Guidelines for Testing of Chemicals

    Typical usage ratio

    • Hydrolysis operations use 95–98 wt% feed in relation to total reactor charge. Water-to-raw-material ratio varies 2:1 to 5:1 based on desired purity.

    Downstream process integration

    • Direct feed to hydrolysis reactors for Allyl Alcohol formation
    • Continuous distillation and purification units
    • Transfer to resin synthesis lines or plasticizer esterification units
    • In-process QC maintains tight specifications on conversion and trace residuals

    Final product types

    • Bisphenol A-based epoxy resins
    • Phthalate and non-phthalate plasticizers
    • Reactive diluents for composites and coatings
    • Modifier agents for crosslinked thermosets

    2. Intermediate in Glycidyl Ether Manufacturing (Epichlorohydrin & Derivatives)

    Specialty chemical companies and resin manufacturers employ this raw material to synthesize Epichlorohydrin. A chlorination step followed by dehydrochlorination introduces reactive glycidyl groups, forming the primary backbone for epoxy resin systems. Process control focuses on minimizing chlorine byproducts and maximizing process throughput via optimized temperature and phase transfer catalysis. Precision feedstock quality ensures stable yields and high downstream epoxy purity, essential for demanding electrical and structural resin markets.

    Industry compliance standards

    • EN 14582:2016 for halogen content analysis
    • Good Manufacturing Practice (GMP) for Intermediates (ICH Q7)
    • REACH Annex VIII for classified substances and intermediates
    • ISO 14001:2015 for environmental management

    Typical usage ratio

    • Typically 90–100% molar equivalent as primary starter; exact input fine-tuned based on conversion rate and recirculating streams.

    Downstream process integration

    • Continuous feed to chlorination vessels
    • Phase transfer or basic dehydrochlorination reactors
    • Separation and epoxide purification trains
    • Direct transfer to epoxide conversion lines

    Final product types

    • Epichlorohydrin monomer
    • Glycidyl ether derivatives for advanced adhesives
    • Specialty epoxy resins for laminates
    • Electrical potting and encapsulation compounds

    3. Precursor for Production of Allyl-Based Polymers and Copolymers

    Manufacturers in the polymer industry adopt this compound as a monomer or comonomer precursor for allyl-based polymers, including poly(allyl acetate), poly(allyl alcohol), and copolymers with vinyl or acrylate groups. The material performs efficiently in both emulsion and solution polymerization processes, with molecular weight and branching precisely controlled by adjusting initiator and chain transfer levels. Final polymer properties, particularly for coatings, adhesives, and optical materials, rely on consistent incoming raw quality and controlled reactivity during polymer growth.

    Industry compliance standards

    • ASTM D256 for plastics impact strength testing
    • ISO 11357 for polymer thermal analysis
    • FDA 21 CFR 177.1200 for adhesives in packaging (if used in food-contact applications)
    • RoHS Directive 2011/65/EU for electronic component polymer applications

    Typical usage ratio

    • As monomer: 60–100% by polymer feed mass; as co-monomer: 5–30%, depending on desired copolymer properties.

    Downstream process integration

    • Direct addition to reactor charge for batch or continuous polymerizations
    • Integration with initiator dosing and chain control agents
    • In-line removal of unreacted monomer by vacuum stripping
    • Transfer to finishing lines (pelletizing, extrusion, compounding)

    Final product types

    • UV-curable coatings
    • Pressure-sensitive adhesives
    • Shrink-resistant optical films
    • Specialty copolymer modifiers for plastics

    4. Flavor Chemistry and Aroma Ingredient Synthesis

    The food ingredients and fragrance industries utilize high-purity grades of this raw intermediate to synthesize key aroma components such as allyl esters and aldehydes. Precision in feedstock selection and small-scale batch handling are crucial, ensuring compliance with food contact and biologically derived substance standards. Catalytic transesterification and selective oxidation steps convert Allyl Acetate into high-tonnage flavors including benzyl acetate and allyl caproate, used in citrus, pineapple, and tropical profiles. Controlled addition prevents excess substrate residuals and side-reaction byproducts.

    Industry compliance standards

    • FCC (Food Chemicals Codex) specifications
    • FEMA GRAS (Generally Recognized As Safe) status for flavor ingredients
    • ISO 22000:2018 for food safety management
    • EU Regulation (EC) No 1334/2008 for food flavorings

    Typical usage ratio

    • Selected lot sizes: 10–200 kg per batch, with use level at 70–99% of total input for flavor ingredient synthesis; ratio adjusted to yield and volatility control.

    Downstream process integration

    • Batched addition to esterification and oxidation reactors under food hygiene standards
    • Implementation of closed-system handling
    • Purification and removal of residual solvents to meet flavor quality
    • Direct transfer to food ingredient formulation lines

    Final product types

    • Benzyl acetate, allyl caproate, and similar aroma compounds
    • Flavor additives for beverages and confectionery
    • Baking and dairy flavor emulsions
    • Fragrance compositions for personal care products

    5. Crosslinking Agent in Synthetic Rubber and Specialty Elastomer Compounding

    Synthetic rubber and elastomer manufacturers integrate this material as a crosslinking modifier to improve resilience, aging resistance, and compressive properties of high-value rubbers, including EPDM, nitrile, and silicone systems. Controlled introduction, usually as a minor component, promotes formation of reactive allylic bridges in the polymer structure. Process engineers monitor crosslink density via rheology and mechanical testing at pilot and production scale. Precise dosing is key, as both under- and overdosing may reduce target elastomeric behavior or induce excessive rigidity.

    Industry compliance standards

    • ASTM D412 for vulcanized rubber tensile testing
    • ISO 37 for rubber and elastomer physical property determination
    • EN 45545-2 for railway fire safety (if applicable)
    • REACH Regulation for restricted substances content

    Typical usage ratio

    • Used at 0.5–3.0 wt% of total elastomer formulation; dosing rate tuned based on target crosslink density and rubber compound type.

    Downstream process integration

    • Mixing during mastication or pre-polymer stage
    • Incorporation before vulcanization or thermal curing
    • Monitoring by online viscometry and post-cure physical tests
    • Final processing through calendaring, extrusion, or molding

    Final product types

    • High-durability gaskets and seals
    • Automotive vibration dampers
    • Railway and construction elastomer pads
    • Chemically resistant hoses and membranes

    6. Additive for High-Performance Industrial Coatings

    Coating and paint formulators select this material as a functional additive for high-performance finishes, particularly those requiring enhanced film formation, flexibility, and chemical resistance. The additive reacts with base resins via copolymerization or in-situ modification, granting tailored crosslink profiles and handling characteristics. Controlled dosing and careful solvent compatibility prevent issues like phase separation or gelation. Strict batch traceability and blending controls are vital to meet application standards for automotive, marine, and architectural sector paints.

    Industry compliance standards

    • ISO 12944 for corrosion protection paints
    • ASTM D3359 for adhesion of coatings
    • Directive 2004/42/EC for VOC content in industry coatings
    • ISO 9001:2015 for batch traceability

    Typical usage ratio

    • 0.5–10.0 wt% of total resin or formulation solids; optimized in lab scale for flow and hardness balance.

    Downstream process integration

    • Addition during premix or post-emulsification
    • Micro-batch testing to calibrate application viscosity
    • Integration with anti-settling and wetting agents
    • Final production by dispersion, milling, and canning

    Final product types

    • Automotive OEM and refinish paints
    • Protective marine and offshore coatings
    • High-resistance architectural topcoats
    • Industrial machinery finishes
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    Certification & Compliance
    More Introduction

    Allyl Acetate: A Chemist’s Toolkit Essential

    Our Direct Experience with Allyl Acetate Production

    Every shift in our plant brings us up close with Allyl Acetate. We draw its clear, colorless liquid from the reactors and measure out exact volumes, noting the familiar sharp, slightly sweet odor. Our QC staff test every drum for purity, watching for any sign of water content or acetyl impurities, then send the all-clear for shipment. The demand for Allyl Acetate never slips in our industry, as users rely on dependable, unadulterated lots. We produce consistently at a purity level above 99.0%, starting with high-grade acetic acid and pure propylene feedstock, running them through our silvery palladium catalysts on silica carriers.

    Model, Batch Quality, and Chemical Identity

    We label our main product lines by batch number and production date. The IUPAC name, prop-2-enyl ethanoate, fits right on our documentation alongside its CAS number for full traceability. Staff keep a close eye on batch variance because slight fluctuations in trace byproducts can impact downstream reactions. Each batch comes with a full certificate of analysis. Consistent boiling point (96 °C), density, and refractive index create confidence for anyone using it, whether in laboratory syntheses or in larger plants.

    Where Our Customers Use Allyl Acetate

    Customers trust Allyl Acetate as a foundational ingredient for several synthesis routes. Manufacturers plug it right into the process for making allyl alcohol, which they value as a feedstock for plasticizers and drying oils. We see ongoing interest from producers of herbicides, dyes, and adhesives too. One notable application involves its transformation to glycidol, a precursor for epoxy resins. There are few substitutes that provide the same reactivity and clean conversion under industrial conditions; it’s the allyl group, paired with a volatile ester, that gives the chemical such broad utility. Our partner labs often highlight its sharp selectivity in allylation reactions compared to allyl chloride, which brings more safety hazards and potentially troublesome inorganic byproducts.

    The Manufacturing Process: Our Perspective

    Unlike many companies who repack or dilute chemicals, we run the reactors here and handle the raw materials ourselves. Our reactors stay in steady operation during each run, with the acetic acid and propylene introduced at a controlled pace over the catalyst bed. Pressures and temperatures challenge both our equipment and our operators’ knowledge—any slip can reduce catalytic activity or spike impurity levels. Operator experience shows up in product quality. Our routine includes routine catalyst regeneration, leak checks, and process tracking. After reaction, the mixture moves to distillation, where careful temperature control separates Allyl Acetate from heavier oligomers and residual acetic acid. The sharp boiling range means we recover a clean main fraction nearly every time, barring variations in feed quality.

    Allyl Acetate in Comparison with Similar Compounds

    We get frequent questions about similarities between Allyl Acetate and related esters like methyl acetate or ethyl acetate. While all are esters, the presence of the allyl group stands out—it’s reactive towards nucleophilic substitution and adds double-bond versatility. Many customers use ethyl acetate for extraction or solvent roles, but for chemical synthesis, Allyl Acetate plays a more focused part. Its double bond opens doors for Diels-Alder chemistry or selective oxidations, where simple alkyl acetates fall short.

    Few alternatives allow clean hydrolysis to allyl alcohol at scale. Allyl chloride, used widely before Allyl Acetate’s commercial emergence, brings more chlorine handling risk and generates persistent chlorinated waste. Many users tell us Allyl Acetate keeps operations cleaner, reducing the load on scrubbers and wastewater units. The industry shift toward greener practices keeps boosting interest in our product’s lower environmental impact.

    Safety and Environmental Handling

    We keep stringent protocols because of Allyl Acetate’s flammable nature and risk of respiratory irritation. Regular drills, sensor checks, and careful drum handling prevent leaks and accidental exposure. Storage tanks require nitrogen blanketing and continuous monitoring, as the vapor can reach explosive concentrations even near room temperature. Our facility implements vapor recovery and closed transfer systems that have evolved with years of regulatory changes. Drumming operations take place in ventilated bays, and operators wear full PPE during transfers.

    Our company regards safe environmental discharge highly. All process vent gases pass through activated carbon beds, catching fugitive emissions before air release. Wastewater goes to an on-site pre-treatment unit, designed to neutralize acid remnants and organic runoff. We keep record logs for every shipment, tracking volumes delivered and any deviation from tight quality specs. Partner firms in Europe and America often visit for audits, seeing our compliance and learning from our local improvements. This hands-on reality means our safety record and product integrity stand up to independent review.

    How Product Quality Shapes Downstream Success

    Allyl Acetate doesn’t forgive impurities in downstream operations. Polymerization, resin synthesis, or fine chemical reactions count on purity over 99%. Off-odors, coloring, or a trace excess of acetic acid can ruin an entire batch in some customers’ operations. Repeated orders come from long-term relationships with firms who have experienced the headaches of lesser-quality material. We field calls weekly from manufacturers needing troubleshooting on yield or product clarity—in most cases, switching to fresh, high-purity Allyl Acetate eliminates the bottleneck.

    Intensive testing, from GC analysis to Karl-Fischer titration, lets our chemists quickly spot and resolve any upstream problem before shipments leave our site. We never trust single-point testing; every batch runs through two or three analysts prior to final release. Our technical team sometimes visits customer facilities, evaluating raw material receipts and consulting on best reaction conditions. These exchanges may lead to a test order, then a trial run at the plant, and if successful, to a stable supply agreement.

    Role in Modern Industry

    The marketplace for Allyl Acetate shifts year by year. Demand grows in Asia, particularly among accelerator and resin manufacturers. Newer technologies for making non-phthalate plasticizers now use more allyl-based intermediates. Some of our output goes to pilot projects experimenting with bio-based propylene, pushing toward lower-carbon-footprint allyl derivatives. In coatings and adhesives, researchers turn to Allyl Acetate for its ability to introduce functional groups that improve bonding or durability.

    Producers of specialty chemicals tell us their best yields and cleanest product come from working with Allyl Acetate batches that meet tight requirements—controlled water content, minimal color, and sharp reactivity. Our operations team gets regular feedback about how lot purity affects polymer chain length or branching. Recipes for UV-curable coatings and dendritic polymer intermediates now routinely list our Allyl Acetate, since it delivers functional handles that other esters leave out.

    Improvements and Industry Challenges

    The push for lower-waste manufacturing prompts us to innovate. Spent catalyst reclamation reduces metal waste, and process integration squeezes more product from each input. Since acetic acid volatility creates potential losses, we reclaim and recycle overheads, tracking yield losses close. Strengthening containment and digitalizing process controls lessens human error and waste. The chemical sector faces raw material price swings and logistics uncertainties; we respond by qualifying dual suppliers, keeping pallets on-hand, and streamlining batch approval to prevent gaps in supply.

    Our staff keep the dialogue open with R&D teams at large end users, so upcoming market shifts or legislative changes reach us early. RoHS and REACH compliance audits shape our product documentation and trace contaminant control. Periodic reviews of new catalytic chemistries and reactor configurations guide investment in plant upgrades. We find steady incremental changes in catalyst efficiency pay off more than searching for drastic shifts. It’s the sum of each small improvement—faster QA checks, leaner energy use, leaner maintenance—that keeps us ahead.

    Key Takeaways for Our Partners

    Business partners trust us for a reason. Allyl Acetate from our plants always meets agreed specs, right down to water content and appearance. We listen when production managers request a packaging format tailored to their site—often 200-liter drums or custom ISOTanks—and respond if logistics need a tweak for on-time delivery. Rare issues like changes in lot color or odor trigger a review; staff track root causes, correct problems, and notify buyers upfront.

    Transparency matters. Our technical department produces clear data packages: GC chromatograms, IR spectra, water content numbers, full chain-of-custody records. When buyers want supporting documentation for regulatory filings, our compliance group supplies what’s needed, quickly. This hands-on category knowledge, from reaction scale-up to bulk logistics, distinguishes our approach. We stake our name on every shipment and follow the journey from our gate to the customer’s tank or warehouse.

    Why Industry Trusts the Direct Manufacturer

    Being a direct producer means greater accountability across every order. We know which operator ran the processing line, recall every analysis run, and track every drum filled and sealed. Years of operation give us insight into what works, and every improvement we make builds on practical experience. By handling raw material sourcing, reactor optimization, and product shipment ourselves, we bring lessons from each batch into the next. This ethos shapes how customers view us—a steady partner they can reach, ask questions, and rely on for ongoing support.

    Deep familiarity with Allyl Acetate’s quirks lets us answer complex technical questions. Incoming queries on impurity profiles, hydrolysis rates, or vapor management reach staff who have lived through production challenges and solved them. If a shipment ever falls below expectation, customers get a direct explanation, not a generic brush-off. We don’t just sell; we guide, support, and stand behind every ton shipped out.

    Looking Forward: The Next Stage for Allyl Acetate

    Allyl Acetate remains a critical building block for a chemical industry moving toward higher efficiency, cleaner processes, and specialty product innovation. Our focus stays trained on better yield, lower waste, and precise product control. Plant engineers oversee process digitalization, bringing more real-time analytics for tighter consistency. Regulatory shifts push us to continual improvement in environmental control and employee training. Every journey of Allyl Acetate from our plant to a new synthesis line depends on deep, hard-won expertise at every step—expertise we gladly share with those who build new value from this essential molecule.

    Partnering for Performance

    Our company keeps faith with its partners through credible data, direct technical support, and a working knowledge of complex chemistry. Whether you need a drum for laboratory research or a full tanker for plant expansion, we have the facilities and the know-how to deliver. Requests for new grades, formats, or delivery methods spark pilot projects in our R&D group. Together, we refine what Allyl Acetate can do, opening new pathways across paints, polymers, and specialty chemicals. Decades behind us prove that reliability and trust aren’t buzzwords—they’re the ground rules for manufacturing and supplying Allyl Acetate right, every time.