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Allyl Acrylate

    • Product Name Allyl Acrylate
    • Alias 2-Propenoic acid, allyl ester
    • Einecs 221-482-2
    • 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

    742027

    Cas Number 999-28-4
    Molecular Formula C6H8O2
    Molecular Weight 112.13 g/mol
    Appearance Colorless liquid
    Boiling Point 128°C (262°F)
    Melting Point -75°C (-103°F)
    Density 0.963 g/cm³ at 20°C
    Flash Point 21°C (closed cup)
    Solubility In Water Insoluble
    Refractive Index 1.432 at 20°C
    Vapor Pressure 8.9 mmHg at 25°C

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

    Packing & Storage
    Packing Allyl Acrylate is packaged in a 500 mL amber glass bottle, labeled with hazard symbols, product details, and safety information.
    Shipping Allyl Acrylate (CAS 999-55-3) should be shipped as a hazardous chemical in tightly sealed, corrosion-resistant containers. It must be clearly labeled, stored away from heat, ignition sources, acids, and oxidizers. Transport according to regulations for flammable and toxic substances, ensuring prompt, leak-free delivery with all necessary safety documentation.
    Storage Allyl acrylate should be stored in a cool, dry, and well-ventilated area, away from heat, sparks, open flames, and direct sunlight. Store in tightly closed containers made of compatible materials. Keep separate from oxidizing agents, acids, and bases. Use proper chemical storage cabinets and ensure containers are clearly labeled. Avoid contact with air and moisture to prevent polymerization.
    Application of Allyl Acrylate

    Applications of Allyl Acrylate in Industrial Manufacturing

    As a direct manufacturer, we supply Allyl Acrylate for industrial customers operating in consistently regulated downstream sectors requiring high-purity acrylate monomers. Our production and quality management processes focus on the demands and compliance requirements of the most advanced polymer, electronics, coatings, adhesives, and specialty resin industries. Below, we detail the key application segments where Allyl Acrylate plays a significant technical role, including regulatory compliance, formulation parameters, integration points, and final product typologies.

    1. High-Performance UV-Curable Coatings

    Leading companies in the electronics and automotive industries incorporate Allyl Acrylate in the formulation of UV-curable coatings, benefiting from its unique balance of crosslink density and cure reactivity that improves scratch-resistance and adhesion to plastic, glass, and metal surfaces. The selection of additive levels and photo-initiator systems directly impacts both the mechanical durability and optical clarity required in touchscreens, display panels, and precision instrument housings.

    Industry compliance standards

    • RoHS Directive (2011/65/EU)
    • REACH Regulation (EC) No 1907/2006
    • ISO 9001:2015 certified QC for specialty coatings
    • IEC 61010-1 for electronic device surfaces

    Typical usage ratio

    • 3–8% by weight as a co-monomer, adjusted for target cure speed, hardness, and flexibility, balancing viscosity and acrylate functionality across different substrate systems.

    Downstream process integration

    • Added during the pre-polymer blending stage with oligomers and reactive diluents, followed by photo-initiator addition and UV curing on roll-to-roll or batch coating lines.

    Final product types

    • Touchscreen hardcoats
    • Automotive display panel coatings
    • Transparent protective films
    • Wear-resistant electronic housings

    2. Electronics-Grade Photoresists and Lithography Materials

    Semiconductor and display manufacturers use Allyl Acrylate as a functional monomer to enhance the performance of negative-tone photoresists. Its presence increases resolution, minimizes swelling, and enables faster pattern transfer during UV or electron-beam lithography, which is essential for the fabrication of integrated circuits, printed circuit boards, and flat-panel displays. The controlled reactivity supports advanced pattern fidelity required in sub-micron process nodes.

    Industry compliance standards

    • IPC-6012 for rigid printed board fabrication
    • SEMI C57-0401 for photoresist materials
    • ISO 14001:2015 process environment
    • Restriction of Halogen-Free processes (IEC 61249-2-21)

    Typical usage ratio

    • 1–4% by weight, modifiable based on imaging contrast and dry film adhesion strength requirements; higher levels may be specified for advanced microfabrication applications.

    Downstream process integration

    • Introduced into the photoresist resin synthesis step, then formulated into spin-coat or spray-coated films with solvents and sensitizers prior to substrate deposition and patterning.

    Final product types

    • Lithography photoresist solutions
    • Dry film resists for PCBs
    • OLED and LCD display patterning resists
    • Microelectromechanical systems (MEMS) resists

    3. Specialty Adhesive and Sealant Formulation

    Industrial producers of high-strength adhesives utilize Allyl Acrylate as a reactive crosslinker in acrylate-based structural adhesives. Its molecular structure improves tack, bond integrity, and chemical resistance in formulations used for electronics laminates, medical device assembly, and specialty automotive gaskets. Usage ratio optimization depends on substrates such as aluminum, EPDM rubber, or polycarbonates, as well as on cure cycle parameters.

    Industry compliance standards

    • ASTM D1002 for adhesive bond strength testing
    • ISO 10993-5 for medical-grade adhesives (cytotoxicity)
    • UL 94 for flame-retardant adhesives in electronics
    • EU Regulation (EC) No 1935/2004 for indirect food contact materials (if applicable)

    Typical usage ratio

    • 2–7% by weight within adhesive matrix, selected according to desired open time, cure profile, and flexibility—lower levels for surface primers, higher for bulk-filled systems.

    Downstream process integration

    • Blended during resin synthesis or pre-polymerization phase, preceding catalyst or peroxide addition, then co-extruded or compounded with fillers and rheology modifiers.

    Final product types

    • Electronics assembly adhesives
    • Instant-bond industrial adhesives
    • Solventless pressure-sensitive tapes
    • Flexible medical device sealants

    4. Chemical-Resistant Thermoset Polymers and Laminates

    Composite manufacturers incorporate Allyl Acrylate in the formulation of thermoset resins, particularly in vinyl ester and epoxy-acrylate hybrid systems, to boost chemical resistance and dimensional stability under aggressive environments. Process engineers leverage its crosslinkability for improved network structure integrity, applicable in corrosion-resistant tanks, gratings, and high-wear industrial laminates.

    Industry compliance standards

    • ASTM D2996 for filament-wound reinforced thermoset
    • EN 13121-3 for GRP tanks and vessels
    • ISO 178 for flexural properties of plastics
    • UL 746C for polymeric composite materials

    Typical usage ratio

    • 2–5% by weight as co-monomer in resin mixes, allowing tuning for glass transition temperature and chemical barrier performance per laminate structure and end-use temperature.

    Downstream process integration

    • Charged alongside base resin and crosslinkers prior to fiber wet-out or prepreg manufacture, then fully crosslinked under elevated temperature in autoclave or compression molding lines.

    Final product types

    • Chemical storage tanks and linings
    • Acid- and alkali-resistant gratings
    • High-performance printed circuit board laminates
    • Industrial pipework and ducting

    5. Radiation-Curable Inks for Industrial Printing

    Printing ink manufacturers use Allyl Acrylate to formulate radiation-cured inks designed for rapid digital and offset printing lines, especially where low-migration and fast surface cure are required. The monomer enhances pigment dispersion and print definition, contributing to ink systems for packaging, electronics marking, and high-resolution label production.

    Industry compliance standards

    • Swiss Ordinance on Materials and Articles in Contact with Food (SR 817.023.21, Annex 10, for packaging inks)
    • EuPIA Guidelines for Printing Inks
    • ISO 2846 for ink color and composition
    • REACH Art. 33 Substances of Very High Concern

    Typical usage ratio

    • 1–6% by weight, adjusted by ink type (UV or EB), pigment loading, and desired print speed; lower dosage for flexographic, higher for digital printing to balance curing and flow.

    Downstream process integration

    • Added at the pigment dispersion premix stage, then incorporated with other monomers and oligomers followed by photoinitiators; final blend dispensed through high-shear mixers before line filling.

    Final product types

    • High-definition digital inks
    • UV-curable offset inks
    • Food packaging printing inks
    • Electronics marking and coding inks

    6. Performance Modifiers in Medical Device Acrylics

    Producers of medical diagnostic equipment and device housings apply Allyl Acrylate as a secondary reactive agent in acrylic and methacrylic compound formulations, increasing impact strength while maintaining transparency and chemical inertness. This integration supports stringent bio-compatibility assessments and sterilizability—critical for both single-use and implantable component production.

    Industry compliance standards

    • ISO 10993 series for biological evaluation of medical devices
    • USP <661> Plastic Packaging Systems
    • FDA 21 CFR 177.1010 for acrylic polymers
    • IEC 60601-1 for non-cytotoxic medical electronics enclosures

    Typical usage ratio

    • 0.5–2% by weight, with lower levels for high transparency applications and higher for reinforced acrylic blends used in housings and connectors under impact or repeated sterilization.

    Downstream process integration

    • Polymerized with base acrylic monomers during bulk, solution, or suspension polymerization, preceding molding into finished parts using injection or extrusion equipment under GMP regimes.

    Final product types

    • Bio-diagnostic cartridge housings
    • Medical imaging device covers
    • Pump and catheter component shells
    • Autoclavable surgical case parts
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    Certification & Compliance
    More Introduction

    Allyl Acrylate: Reliable Performance Rooted in Real Production

    Understanding Allyl Acrylate in our Workshop

    Every day, our production team works with chemicals designed for high performance and consistent results. One of the materials that has earned its place in our lineup is Allyl Acrylate. We produce it from the ground up, always with hands-on attention to detail. The chemical formula, C6H8O2, defines its structure, but what sets Allyl Acrylate apart has a lot more to do with the process and the standards met here at our plant.

    Physical and Chemical Properties

    Allyl Acrylate comes as a colorless, slightly volatile liquid with a sharp, pungent odor—distinctive enough that seasoned operators recognize it right away. It carries a molecular weight of about 112.13 g/mol, and its density sits close to 0.97 g/cm3. The refractive index hovers just above 1.4 at 20°C. Its boiling point registers near 139°C, with a flash point typically around 32°C. Controlling the hydroperoxide content during manufacture keeps impurities at bay and also makes the material safer for transport and storage.

    Guided by Applications—Acrylic Polymers and Beyond

    Allyl Acrylate shows its greatest strengths in acrylic polymer production. Operators prefer it for crosslinking, where durability and flexibility matter most. Coatings, adhesives, specialty resins, and plastics frequently depend on this raw material for its ability to promote rapid, even polymerization. Teams building pressure-sensitive adhesives choose Allyl Acrylate because it introduces both hardness and resistance to aging, which adhesives need for many industrial and packaging uses.

    In our own facility, we’ve developed production settings where Allyl Acrylate steps in to enhance glass fiber sizing agents. It helps anchor resin to fiber, improving composite material integrity for automotive or construction projects. Other operators tap Allyl Acrylate to provide hydrophilic character in superabsorbent polymer lines for hygiene products. The choices come down to the way this molecule balances fast reactivity with enough toughness to stand up in demanding applications.

    Product Specifications that Matter on the Floor

    Model variations depend on purity levels, inhibitor type, and storage conditions. Our highest-grade Allyl Acrylate holds purity levels at or above 99%. We manage inhibitor content closely—typical batches arrive inhibited with MEHQ (monomethyl ether hydroquinone) at 100-300 ppm. Reliable temperature and light controls keep shipment stability high. Packing protocols use acid-prepared drums, and production staff regularly test closure and container integrity before things leave the yard.

    What Makes Allyl Acrylate Different from Standard Acrylates?

    Colleagues in acrylics often ask: how does Allyl Acrylate compare with the likes of Methyl Acrylate, Butyl Acrylate, or Ethyl Acrylate? The answer starts with molecular structure. While Methyl and Butyl Acrylates introduce side-chain effects that change reactivity and end-use flexibility, Allyl Acrylate's allyl group promotes a faster cure rate for those who need short cycle times or instant set.

    Our team finds that polymers containing Allyl Acrylate absorb ultraviolet light more readily. So, for UV-curable inks and coatings, this monomer gives performance that regular acrylates can’t always provide. The crosslink density—essential for chemical resistance and thermal stability—also comes out higher when operators use Allyl Acrylate. Our process engineers see this difference most clearly in protective coating lines intended for electronics and optical devices, where both toughness and clarity are non-negotiable.

    Water absorption and flexibility keep polymers in working order as temperatures swing. Allyl Acrylate strikes a different balance than standard acrylates, reducing swelling in some blends while improving resistance to wear and tear in others. Workers who have handled both types during casting or extrusion report greater stability and less sticking or fouling of production equipment.

    Handling and Safety Lessons from Our Plant

    Experience in our facility counts for something. Production runs with Allyl Acrylate move more smoothly with good housekeeping and proper PPE. This monomer volatilizes quickly and the odor catches attention fast, so we run continuous monitoring for vapor concentrations in the air. Tank farm staff use explosion-proof pumps and grounded connections at every transfer point. Regular training drills prepare everyone to respond to leaks, and emergency shower and eyewash stations line every corridor near process lines.

    No laboratory test beats the experience of a technician watching for polymerization around valves and seals. Even traces of metal contamination can trigger runaway reactions. We keep maintenance logs tight and swap seals per schedule, not per failure. A day without incident means we stuck to procedures. The balance of safety and productivity isn’t a theory in our shop—it’s the result of day-in, day-out attention to detail.

    Environmental and Compliance Realities

    In manufacturing, no decision lives in a vacuum. Proper management of leftover Allyl Acrylate—waste streams, container cleaning, off-gassing—demands tracking and regular audits. Our waste treatment system neutralizes monomer residues under controlled temperature and pH. Vapor emissions run through activated carbon filters. Regulatory teams pull air and effluent samples in line with local requirements. All records sit ready for surprise inspections.

    From experience, shortcutting compliance creates far more cost and risk than doing things right from the start. The health of operations staff and the community depend on the choices we make inside these walls. Our process and environmental engineers cooperate on upgrades and training, sometimes re-working old lines to further reduce emissions and minimize waste. Lessons learned in remediation keep energy sharp and the work honest.

    Why Our Customers Rely on this Specific Product

    Innovation in adhesives, advanced coatings, and functional resins comes back to the quality and reliability of the monomers introduced in early stages. Process chemists counting on tight specifications need feedback from verified batch testing, not just assumptions or literature data. Our customer notes flag differences in polymer strength, color stability, and long-term durability when raw monomers deviate from expected values.

    For pressure-sensitive adhesives, the inclusion of Allyl Acrylate creates peel strengths that hold up during full-scale life cycle testing. Resin manufacturers engaged in specialty casting report that parts set consistently with fewer rejects and less surface tack. Feedback after switchover from competitive acrylates to our Allyl Acrylate points to improved clarity and chemical resistance—a need in electronics and optical films where exposure to solvents and high voltages remains common.

    Blending trials in our industry partner labs often reveal subtleties that don’t show up at bench scale—differences in flow, pigment uptake, or long-term elastic recovery. We respond to these findings with process adjustments, shipping modified grades or with stabilizer tweaks based on real data, not guesswork. The open lines of communication between users and our technicians close the loop on new and existing applications.

    Quality Control Built on Evidence

    Running a chemical line for years, it becomes clear that the biggest difference between suppliers is in what happens after loading dock. Consistency in viscosity, color, and purity isn’t just a marketing point here—it’s a badge earned through morning and night shift tests. Our lab uses gas chromatography, titration for acid values, and spectrophotometry for contaminant detection—so any drift in process alerts the operators immediately.

    Records match every outgoing drum or tank with its retention sample. Field returns or performance complaints get first priority, and the batch in question is checked by the same people who ran it on the floor. This culture of direct feedback and accountability keeps the focus on reliability for our customers and pride for our own crew.

    Process Improvements Born from Operation

    Over time, new filtration and distillation methods have cut the duration of process cycles. Lowering the formation of peroxides made a real difference in both quality and workplace safety. Heat exchange setups now run more efficiently, keeping the product closer to theoretical purity without risk of runaway exotherms. Implementing remote system monitoring after a plant incident several years back now allows for rapid intervention at the first sign of deviation.

    We recognized that staff engagement shortens learning curves and exposes flaws in old routines. Operator suggestions moved us to install better ventilation hoods and redesign tank cleaning procedures, cutting downtime and reducing exposure. Shift leads build their teams around those who work the safest and move the most product, not just the fastest. Each year, the best innovations seem to rise up from the floor, not down from a whiteboard.

    A Perspective on Market Trends and Supply Security

    As demand grows in electronics, printing, and specialty adhesives, calls for Allyl Acrylate follow. Market fluctuations in propylene, acrylic acid, or energy costs drive up pricing volatility. Our forward contracts and local sourcing stabilize raw input streams. Fiber-optic cable makers now scale up volume, and we've expanded production lines to meet these surges. We also maintain contingency stock and multiple packaging formats to prevent delivery interruptions.

    The experience of past shortages proved the value of local and dedicated logistics partners who know product quirks and ensure deliveries remain on time and in-spec. Even minor changes—like switching drum coatings or pallet strapping—emerged from working shoulder-to-shoulder with drivers and dock crews. Product keeps moving because real people keep talking and adapting to the market every quarter.

    Continuous Learning as a Way Forward

    Manufacturing Allyl Acrylate teaches something new every cycle. Operators get the first alerts about process hiccups, and their expertise guides modifications before problems spill over to customers. Our safety committees, technical groups, and customer liaisons all draw from lived experience at the plant, not just textbook knowledge.

    Workers who started in handling now lead training on PPE and process flow. Old logbooks carry details on operational bottlenecks and past incidents, woven with practical fixes—like taming moisture ingress during rainy season or adapting process controls for high-heat runs in summer. New hires learn by shadowing veterans; knowledge moves faster that way than through a manual.

    Allyl Acrylate in the Broader Industrial Story

    Looking at industry changes, we acknowledge mounting environmental standards and calls for greener chemistries. Our commitment takes shape in smaller process footprints, recovery of unreacted monomer, and sharing best practices with peers who also produce at volume. We build on what works, setting examples that move beyond compliance toward long-term trust with customers and neighbors alike.

    In our facility, an emphasis on people, evidence, and process control comes before branding. Lessons learned after each campaign shape a product that meets both specification and expectation. Allyl Acrylate’s market journey keeps evolving, but the foundation remains our people and their dedication to safe, reliable, high-purity production.