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2-Methoxyethyl Methacrylate

    • Product Name 2-Methoxyethyl Methacrylate
    • Alias 2-Methoxyethyl methacrylate
    • Einecs 203-486-4
    • 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

    398313

    Cas Number 2370-63-0
    Molecular Formula C7H12O3
    Molecular Weight 144.17 g/mol
    Appearance Colorless liquid
    Boiling Point 195°C
    Melting Point -70°C
    Density 1.04 g/cm³ (at 20°C)
    Refractive Index 1.434 (at 20°C)
    Flash Point 88°C (closed cup)
    Solubility In Water Miscible
    Odor Mild, ester-like
    Vapor Pressure 0.23 mmHg (at 20°C)

    As an accredited 2-Methoxyethyl Methacrylate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing 2-Methoxyethyl Methacrylate is packaged in a 500 mL amber glass bottle with a secure screw cap and hazard labeling.
    Shipping 2-Methoxyethyl Methacrylate is typically shipped in tightly sealed, chemical-resistant containers to prevent leaks and contamination. During transport, the chemical should be kept away from heat, sparks, and incompatible substances. Proper labeling and documentation are required, in compliance with local and international hazardous materials regulations. Handle with appropriate safety precautions.
    Storage 2-Methoxyethyl Methacrylate should be stored in a cool, dry, well-ventilated area away from direct sunlight and sources of heat or ignition. Keep the container tightly closed and protected from moisture. Store separately from oxidizing agents, acids, and bases. Use containers made of materials compatible with methacrylates, and avoid exposure to high temperatures to prevent polymerization.
    Application of 2-Methoxyethyl Methacrylate

    Applications of 2-Methoxyethyl Methacrylate in Industrial Manufacturing

    2-Methoxyethyl Methacrylate (MEMA) is valued in specialized polymer synthesis and advanced material production for its strong solvency, controlled reactivity, and ability to impart specific physical properties. As a direct manufacturer, we supply MEMA for highly regulated and technically demanding downstream processes. Below are core B2B industrial applications adopted by established producers across several sectors.

    1. High-End UV-Curable Coatings for Electronics

    Electronics manufacturers integrate MEMA in UV-curable formulations for precision electronic coatings, where fine adhesion, low volatility, and micro-thin film formation are essential. MEMA enhances substrate wetting and facilitates rapid in-line curing processes for digital devices, printed circuit boards, and opto-electronic sensors. Proper selection of photoinitiators and co-monomers ensures compliance with restricted substance directives and consistent commercial-scale outcome in automated clean-room facilities.

    Industry compliance standards

    • European RoHS (EU Directive 2011/65/EU) for hazardous substance limitation
    • IEC 61249-2-21 for halogen-free baseboards
    • UL 94 flammability standards for electronic components
    • GB/T 2423 reliability testing in Chinese electronics manufacturing

    Typical usage ratio

    • Composition in UV-cured coatings: 5–25% by weight
    • Adjustment depends on viscosity targets and adhesion requirements
    • Higher ratios (up to 30%) for primer layers; lower for overprint varnishes
    • Dosage tailored based on substrate material and target cure speed

    Downstream process integration

    • Premixing with acrylate and methacrylate comonomers in solvent-free systems
    • Continuous in-line blending with photoinitiators at point of application
    • Roll-to-roll or sheet-feed coating, followed by high-intensity UV exposure
    • Direct application to PCB or mobile device frameworks under ISO 14644 cleanroom standards

    Final product types

    • Protective and conformal coatings for PCBs
    • Touchscreen surface protectants
    • Encapsulant layers in LED modules
    • UV-cured coatings for wearable electronics and display panels

    2. Dental Restorative Resin Systems

    Dental material producers use MEMA as a multifunctional monomer in light-curable composite resins for fillings, prosthetic bases, and sealants. It supports improved flow, lower polymerization shrinkage, and enhanced mechanical flexibility for intraoral applications. Safe use requires toxicological assessment and compounding in accordance with dental regulatory guidelines. End-users value reproducible handling properties and stability under oral conditions.

    Industry compliance standards

    • ISO 4049 for polymer-based restorative dental materials
    • FDA 21 CFR 872.3690 for dental resin devices (USA)
    • EN ISO 10993 biocompatibility evaluation
    • China YY/T 0640 technical requirements for dental materials

    Typical usage ratio

    • Monomer fraction in resin matrices: 2–10% of total monomer mass
    • Lower levels for flowable composites; higher for adhesive layers
    • Adjusted based on viscosity and radiopacity specifications
    • Formulation tested for residual monomer content regulatory thresholds (≤1%)

    Downstream process integration

    • Direct charging into monomer blend during resin polymer synthesis
    • High-shear mixing with glass or silica microfillers
    • Vacuum degassing in cleanroom compounding lines
    • Inline quality testing for polymerization rate and water sorption

    Final product types

    • Direct filling composite resins
    • Dental adhesives and bonding agents
    • Orthodontic adhesive cements
    • Pit and fissure sealants

    3. Adhesives for Optical Fiber Assembly

    MEMA alters the mechanical and optical properties in high-performance adhesives used in optical fiber assembly, where clarity, low viscosity, and rapid photo-curing are required. Its inclusion enables encapsulation, bonding, and splicing of fiber ends in telecommunication connectors under rigorous geometry and transmission specifications.

    Industry compliance standards

    • Telcordia GR-326-CORE for optical connector applications
    • IEC 61300-2-25 fiber optic interconnect reliability
    • JEITA EMIC 1002 guidelines for fiber optic component adhesives (Japan)
    • Restriction of hazardous substances in fiber cable production (per EU RoHS)

    Typical usage ratio

    • Polymer adhesive formulations: 4–18% by mass
    • Adjusted for flow rate and curing depth per fiber diameter
    • Lower content for clear encapsulant gels; higher for permanent bonding adhesives
    • Viscosity control additives adjusted in parallel to maintain flow under fiber alignment fixtures

    Downstream process integration

    • Pre-mixed with urethane or epoxy acrylate backbones in controlled batch reactors
    • Dispensing through micro-tip applicators onto fiber termination points
    • UV or visible light curing in precision alignment stages
    • Post-cure mechanical cycling and attenuation testing

    Final product types

    • UV-cured optical fiber splice adhesives
    • Connector potting compounds
    • Encapsulant materials for optical splitters
    • Low-loss pigtail cable assembly adhesives

    4. Specialty Acrylic Resins for Automotive Finishes

    Leading automotive coatings formulators utilize MEMA in high-solids acrylic resins for both basecoat and clearcoat systems, especially where flexibility, resistance to stone chipping, and weathering are pivotal. It allows tuning of surface tension, flow-out, and crosslink density, supporting large-scale automated spray processes and post-cure durability required by OEM specifications.

    Industry compliance standards

    • OEM paint specifications such as GM GMW15406 and Ford WSS-M2P100
    • ISO 12944-5 corrosion protection by coatings
    • VOC emission limits per EU 2004/42/EC (Paints Directive)
    • China GB 24409 for automotive coating systems

    Typical usage ratio

    • MEMA content in crosslinkable acrylic resin: 2–12% by resin mass
    • Basecoat uses 5–10% to achieve chip resistance
    • Lower end for clearcoats requiring higher optical clarity
    • Formulators balance with conventional MMA and butyl acrylate for targeted gloss

    Downstream process integration

    • Feedstock charging during resin prepolymerization in reactor vessels
    • Incorporation into high-speed dispersion phases for pigment wetting
    • Final blending with crosslinkers and curing agents prior to canning
    • Spray application followed by oven baking under automotive finishing lines

    Final product types

    • Factory-applied automotive basecoats
    • OEM clearcoat lacquers
    • Aftermarket repair coatings
    • Stone chip-resistant primer surfacers

    5. Medical Device Polymer Encapsulation

    Medical device manufacturers deploy MEMA in encapsulation and potting compounds for sensitive electronic and diagnostic device assemblies. The compound imparts flexibility, chemical resistance, and durability to housings and encapsulant layers. Production must ensure strict biocompatibility and extractables/leachables testing for patient-contacting components.

    Industry compliance standards

    • ISO 10993-1 and ISO 10993-12 for biocompatibility and sample preparation
    • USP Class VI testing for plastic materials
    • FDA 21 CFR 820 Quality System Regulation for medical devices
    • MDR 2017/745 for medical device safety (European Union)

    Typical usage ratio

    • Encapsulant formulations: 3–9% by polymer system mass
    • Formulation depends on substrate type and post-curing requirements
    • Lower content for thin flexible encapsulant films; higher for rigid potting
    • Balance required between chemical resistance and delamination risk

    Downstream process integration

    • Batch blending under controlled humidity and temperature to minimize hydrolysis
    • Metered dosing into injection moulding or potting systems
    • Low-extractable purification steps before device assembly
    • Post-cure at specified temperatures to reach required mechanical properties

    Final product types

    • Encapsulated vital sign sensors
    • Wearable diagnostic device cases
    • Potting compounds for implantable electronics
    • Protective coatings for blood glucose monitors

    6. Acrylic Printing Ink Binders for Security Documents

    Producers of security printing inks incorporate MEMA to optimize flow, adhesion, and durability on non-porous substrates such as synthetic banknotes, ID cards, and passports. Its use enables formulation of acrylic binders that support tamper-evident features and high-speed intaglio or offset print processes in restricted-access facilities.

    Industry compliance standards

    • ISO 14298 for management of security print processes
    • OHSAS 18001 for safe ink manufacturing environments
    • Compliance with European Central Bank (ECB) guidelines for euro banknote substrates
    • Environmental controls per local emissions guidelines (e.g., EU 2008/50/EC)

    Typical usage ratio

    • MEMA content in binder fraction: 4–15% of total polymer solids
    • Higher content for adhesion on polymer-based substrates
    • Adjusted to control print dot gain and ink transfer
    • Low levels for back-side or watermark security inks

    Downstream process integration

    • In-situ polymerization of acrylic binder resins in reactor kettles
    • Blending with pigment concentrates in high-shear dispersion tanks
    • Filtration and quality control for viscosity and drying speed
    • Packing in tamper-proof containers for secure facility delivery

    Final product types

    • Security inks for polymer banknotes
    • Offset printing inks for government-issued IDs
    • UV-cured inkjet formulations for passports
    • Intaglio inks for anti-counterfeit certificates
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    Certification & Compliance
    More Introduction

    Understanding 2-Methoxyethyl Methacrylate from a Chemical Manufacturer’s Perspective

    Getting to the Core: What Makes 2-Methoxyethyl Methacrylate Stand Out

    Years spent inside the plant, with the constant rhythm of pumps and the sharp scent of esters, reveal many truths that don’t always show up in a technical bulletin. 2-Methoxyethyl Methacrylate (often called MMAE or MEMA by those of us with long experience) walks a different path from standard methacrylate monomers. Its structure—a methoxyethyl side chain attached to the methacrylate backbone—infuses it with a set of properties you don’t get from more basic monomers. The clear, nearly colorless liquid we package carries both a flexibility in application and a distinct solvency profile that has changed the formulation game for a range of industries.

    Most of what the world calls “methacrylate” relies on methyl or butyl side chains. Those workhorse monomers have their place, especially in plastics and coatings built for rigidity or weatherability. In contrast, MEMA owes its difference to the ethereal oxygen in its chain: the methoxy group lengthens and softens the molecule, allowing finished polymers to breathe, bend, and stretch. Paint chemists who once fought with brittleness and print makers wrestling with adhesion or flexibility have seen that shift in performance.

    Specifications You Can Count On: How We Keep It Consistent

    On our lines, tight process control means the product hits a purity above 99 percent, usually with acid values under 0.01 and color numbers that stay inside the lowest part of the scale. Those numbers are not just benchmarks; they lead to predictable results in downstream resin syntheses. Contaminants or wide spreads in molecular weight drive headaches no one wants—polymerization drifts, batch failures, and haze. Over the years, our team has whittled filtration, vacuum stripping, and distillation methods to a set of steps that catch the byproducts before the material leaves the plant.

    Most processes call for the oxirane-free version because even parts-per-million of reactive aldehydes or peroxides will play havoc with storage and stability. We cycle through multiple analytical runs for trace organics and stabilizer content. Color is more than vanity here: even faint tinting often signals fouling in the system. Transparent, water-like color wins the day—especially for optical-grade or electronics work.

    Practical Use Cases—From Laboratories to Large-Scale Factories

    Concrete examples often prove more valuable than any theoretical summary for those of us producing hundreds of tons a month. Take a look at specialty coatings for flexible electronic circuits. MEMA flows into these systems because it gives the right blend of adhesion to polyimide and glass—stickier than methyl methacrylate, but less prone to phase-separation than longer-chain alternatives. The result: printed circuitry that can be bent, rolled, or compressed, with the methoxyethyl chain acting as an invisible cushion.

    In dental prosthetics and medical adhesives, formula makers rarely settle for brittle matrices or slow curing. MEMA’s lower glass transition temperature translates into soft, pressure-sensitive gels, ideal for skin patches or wound dressings. Polymers containing MEMA resist fracturing under repeated motion, and its miscibility with polar solvents outpaces that of standard alkyl methacrylates. We have supplied this product into wound care, hydrogel patches, and transdermal drug formulations, often to meet international pharmacopeia and FDA requirements.

    Ink and print industries toss out many monomers before converging on one that accepts high pigment loads without clumping or phase separation. MEMA often proves its worth where traditional acrylates fail: you’ll find that ink remains both elastic and colorfast. Over the years, print shops using modified acrylic systems with MEMA have reported longer printhead life, lower drying times, and fewer clogging incidents. Our batch samples seldom go to waste for these partners, who value both the operational reliability and performance uplift.

    Understanding the Differences: MEMA vs. Other Methacrylates

    People on the purchasing end sometimes ask why not stick with methyl methacrylate (MMA) or butyl methacrylate (BMA), especially since they cost less. The answer appears in the chemistry but proves itself in the final product. MEMA’s larger, oxygen-containing side chain increases flexibility and reduces shrinkage stress in the polymer. MEMA-based resins stretch and recover far better than MMA-based ones. This quality matters for coatings on flexible substrates, elastomeric adhesives, and even pressure-sensitive tapes.

    Those who have tried substituting with 2-ethylhexyl methacrylate or lauryl methacrylate sometimes report trouble with compatibility or increased yellowing. MEMA brings a near-neutral odor and a slow, predictable cure—suitable for photopolymerizations and thermal initiators alike. MEMA pairs with acrylamide, hydroxyethyl methacrylate, and urethane acrylates for blends that hold up under operational stress.

    You see, in the plant, shrinkage and uneven conversion create trouble in batch polymerizations. MMA and BMA usually leave microvoids or rigid domains, showing stress-whitening and embrittlement under load—even after careful curing. MEMA slips into the matrix and controls stress concentrations, yielding a more forgiving, longer-lasting network. Those working in optics or encapsulation often see less birefringence and more stable refractive indexes thanks to MEMA.

    Production Realities and How We Maintain Quality

    From the manufacturing side, MEMA presents its own unique challenges. The compound tends to pick up traces of moisture during distillation, which must get stripped without excessive heating or you risk side reactions. Glycol-methacrylate reactions generate slow-forming side products if the line isn’t managed tight enough, so we monitor both residual acidity and inhibitor content.

    Every batch moves through a closed system to limit air and light exposure. Over years we’ve learned that oxygen-free conditions and continuous monitoring with in-line FTIR allow for the best stabilization. Packaging shifts depending on customer needs but always follows the same tight protocols—nitrogen purged, light-barrier drums or totes, with regular rotated storage. No matter the shipping size, our operators and quality team treat every unit the same, knowing that one off-grade drum can wreck a production run down the supply line.

    For custom fields—like biomedical or electronics—different customers need optional stabilizer levels. We field these requests every month, delivering either standard MEHQ-inhibited grades or ultra-low stabilizer formulations for direct reactive use. That kind of flexibility isn’t a tagline for us. The shift to high-purity MEMA in next-generation displays, microfluidic devices, or advanced composite matrices traces back to plant-floor decisions about purity and control—not just compliance with a datasheet.

    Impact on Downstream Processes and End-Use Benefits

    In practice, MEMA stretches its impact far beyond initial formulation. Technical teams across adhesives, biomedical, and electronics rely on predictable viscosity, flow, and curing profiles. MEMA’s moderate reactivity enables staged curing—perfect for processes requiring open working time followed by rapid set, such as casting or precision bonding. Film formers using MEMA often see improved leveling, less orange peel, and a tack-free finish even on complex substrates.

    Operational advantages show over long production campaigns. Lower odor and reduced volatility translate to easier handling, better air quality, and fewer plant shutdowns. Where storage stability once caused concern with older methacrylates, MEMA’s inherent oxidative resistance allows extended shelf life when properly stabilized. The ability to blend with both hydrophobic and hydrophilic monomers increases its use for water-based systems and hybrid emulsions.

    Consider the effect in medical-grade hydrogels: old issues with chalking or white bloom on skin-contact adhesives often vanished after switching to MEMA-modified blends. Similarly, membrane manufacturers report improvements in pore uniformity and toxin resistance. MEMA-based polymers stay clearer over time, hold less protein fouling, and withstand frequent sterilization. Working directly with these downstream partners, we tune batches to their viscosity targets or residual inhibitor needs—not simply boxing off a “standard” resin grade.

    Environmental and Worker Safety Considerations

    Safety and environmental stewardship never stop at the fence line. During manufacturing, our first concern is controlling vapor losses: process engineers install scrubbers and maintain positive-pressure systems, limiting fugitive emissions. Compared to older-generation esters, MEMA gives off less volatile organic content, making a direct impact on both workplace air and broader compliance efforts. Operators receive routine training—gloves, goggles, monitors—as soon as they work near transfer points or fill stations.

    Spill mitigation plans, regular inspections, and ongoing data review support sustainable operations. Our laboratory tracks not just key product performance but environmental markers in workplace air, effluent streams, and solid waste. Closed transfer systems and secondary containment prevent both loss and exposure—backed by MSDS documentation and regulatory oversight.

    Customers often partner with our team to design safer, more efficient handling schemes at their own plants and labs. Shifting to MEMA-based systems sometimes allows reduced solvent loads or lower-temperature cures, trimming both energy use and overall emissions. Not all sustainability claims carry weight, but direct metrics—lower VOC counts, fewer rework batches—back up these choices every year.

    Responding to Industry Changes and New Applications

    Even as research surges ahead, customers still value the voice and experience of those closest to production. With MEMA, trends toward electronics miniaturization, high-clarity optics, and skin-friendly medical devices drive growing demand. Emerging sectors, such as printed electronics or flexible wearables, bank on polymer platforms that blend flexibility with strength. We’ve watched design teams move from classic styrene-acrylics to MEMA-rich systems, citing significant improvements in feel, lifespan, and surface quality.

    From our vantage point, collaborations with university labs and advanced R&D groups matter as much as contracts with traditional manufacturers. We share process improvements, failure data, and emerging findings with partner labs, tightening the gap between experimental curiosity and production feasibility. Some of the most exciting developments—antimicrobial surfaces, tunable soft actuators, and drug-delivery matrices—all rest partly on the performance advantages that MEMA’s chemistry brings. The conversations running between our plant and the innovators at the lab bench keep driving progress.

    Challenges That Still Require Focus

    Nothing in chemicals ever moves without hurdles. MEMA remains slightly more moisture-sensitive than basic alkyl methacrylates. Unless strictly stored and handled, even trace water can hydrolyze the monomer, creating acidity and gumming up batch reactors. Solution? Years of investment in tank farm design, continuous monitoring, and swift turnover—no stagnant storage, no halfway measures.

    Market volatility sometimes drives customers to ask about alternatives or cheaper blends. Our long-term data demonstrates that inconsistent batches or shortcuts with off-grade substitutions nearly always invite future costs: failed product launches, higher warranty claims, or lost customers. Transparent dialogue—upfront about possible cost drivers and supply fluctuations—keeps the relationship steady. It pays for both sides to know what’s behind each shipment: chemistry, not just commerce.

    The Role of Direct Manufacturer Relationships in Progress and Problem-Solving

    Working as an actual producer—close to the process and the product—gives a unique vantage point. Unlike resellers or brokers, we know what comes out of the reactors, when it shifted, and why. From the ground up, our operators, engineers, and technical partners invest in the process, not just the price. Specifications reflect not market demands but operational realities, yield targets, and direct customer feedback.

    Relationship-building, troubleshooting, and continuous improvement run right through the heart of what we do. Problems with reactivity or downstream filter clogging? The feedback loop moves from the customer’s line back to our plant, sometimes with joint troubleshooting, sample swapping, and reformulation. Decades of experience have taught us that the closer the relationship, the fewer unexpected problems down the road. Even in the context of shifting regulatory targets—new REACH updates, stricter FDA requirements—our team holds the expertise to adapt plants, develop new test protocols, and update documentation.

    Our value is not just in the drum or the data sheet. It’s in knowing why a given batch performs, which raw material lots offer the fewest problems, how to troubleshoot crystallization, or how to tailor stabilizer levels for specific process equipment. MEMA represents more than a commodity—it stands as the output of technology, discipline, and experience, all backed by a crew dedicated to continually pushing performance standards.

    Moving Forward: Demand, Innovation, and Ongoing Improvements

    Trends in adhesives, coatings, biomedical, and electronics point to a future where innovation matters as much as established practice. MEMA finds itself at the intersection of these needs—solutions for flexible screens, stretchable biomaterials, and low-energy processing. Recent years have seen expanded pilot programs for low-VOC paints, UV-curable resins, medical dressings, and energy storage membranes, all drawing on MEMA’s strengths.

    We watch and invest alongside our partners. Plant upgrades target both efficiency and process agility, enabling faster adaptation to new requests. Research groups working on surface-grafted materials or next-generation hydrogel sensors often look to us for both the high-purity MEMA and the operational know-how needed to get unusual concepts off the lab bench and into scalable practice.

    That dedication carries through to every shipment, each batch tested and documented, each request for technical support or specialty packaging. We recognize that success depends on listening as closely as we speak—whether the challenge comes from a new application or a market supply swing. MEMA continues to power innovation not by standing still, but by continually pushing the envelope with direct, hands-on experience and unwavering technical rigor.