|
HS Code |
478256 |
| Cas Number | 21282-97-3 |
| Molecular Formula | C10H14O5 |
| Molecular Weight | 214.22 |
| Appearance | Colorless to pale yellow liquid |
| Boiling Point | 148-150°C at 4 mmHg |
| Density | 1.12 g/cm³ at 20°C |
| Refractive Index | 1.449-1.453 |
| Flash Point | 114°C |
| Purity | ≥98% |
| Solubility | Soluble in organic solvents like acetone, ethyl acetate, and toluene |
As an accredited 2-(Methacryloyloxy)ethyl acetoacetate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 2-(Methacryloyloxy)ethyl acetoacetate is supplied in a 500g amber glass bottle with a secure screw cap and safety labeling. |
| Container Loading (20′ FCL) | Container Loading (20′ FCL) for 2-(Methacryloyloxy)ethyl acetoacetate: 14 metric tons, packed in 200 kg iron drums, on pallets. |
| Shipping | 2-(Methacryloyloxy)ethyl acetoacetate is typically shipped in tightly sealed containers to prevent moisture and air exposure. It should be kept at a cool, dry place, away from direct sunlight and incompatible substances. During shipping, it is classified as non-hazardous, but standard precautions for organic chemicals apply. Consult the SDS for detailed handling guidelines. |
| Storage | 2-(Methacryloyloxy)ethyl acetoacetate should be stored in a cool, dry, and well-ventilated area, away from sources of heat, ignition, and direct sunlight. Keep the container tightly closed and protected from moisture. Store separately from strong oxidizers and acids. Use only inert, compatible containers and avoid prolonged storage to minimize the risk of polymerization or decomposition. |
| Shelf Life | 2-(Methacryloyloxy)ethyl acetoacetate has a shelf life of about 12 months when stored in a cool, dry, and dark place. |
Competitive 2-(Methacryloyloxy)ethyl acetoacetate prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please contact us at +8615371019725 or mail to sales7@boxa-chem.com.
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Every day, the requirements in advanced polymers and coatings shift a little. Our shop floor conversations deal less with flashy slogans and more with whether a new batch of monomer hits the purity benchmarks, and if the latest synthesis run turns out a cleaner profile than last week’s. That’s where our product, 2-(Methacryloyloxy)ethyl acetoacetate, truly stands out. Around here, names get shortened—most folks just call it MEAA—but out in the world, this specialty monomer has become a backbone for businesses chasing low-VOC resins, advanced latexes, and tailored acrylic systems in a relentless push for better performance.
We synthesize MEAA with tight control on every batch. Our usual standard features purity of over 98%, minimal residual solvents, and coloration kept to absolute minimums—a true result of our hands-on approach in maintaining reactors and adapting cleaning practices over years. Any scale-up process brings its own headaches (reflux control, reactor fouling, timing initiator addition at just that moment between peak reactivity and runaway), but each of these details determines whether you’re delivering something a customer can use to push the edge in their next R&D milestone or running to patch up a batch gone off-spec. That experience shapes how we talk about our product—MEAA isn’t just a bottle on a shelf, but a tool developed from countless conversations and iterative tweaks with end users who know what makes a difference during actual production.
Chemical manufacturers like us live in the reality of unexpected downtime, tricky purification steps, and evolving environmental regulations. We’ve watched mandates for lower VOCs go from industry rumor to wide-reaching law. For anyone building waterborne coatings, resin adhesives, or functional monomers, the real advancement boils down to which raw materials let you remove problematic solvents, improve adhesion and crosslinking, and sometimes speed up curing without needing a slew of new toxic additives. Our MEAA delivers that. It features both a methacryloyloxy functional group—highly reactive and compatible in free-radical polymerizations—and an acetoacetate moiety, which lends additional nucleophilicity and offers unique options for post-polymerization crosslinking.
Most people new to this product ask about its differences from similar monomers. Standard methacrylates like MMA let you build tough, clear polymers but sometimes lack adhesion or chemical reactivity beyond the initial cure. Traditional acetoacetate esters have value for self-crosslinking or chelating uses but don’t always integrate well into copolymer chains during emulsion processes. By integrating both functional groups, MEAA gives formulators a flexible backbone, opening up more crosslinking options than simple methyl methacrylate or hydroxyethyl methacrylate while maintaining ease of processing and workable reaction rates.
We’ve worked shoulder-to-shoulder with chemists and engineers scaling up waterborne resins for architectural paints. During one pilot run, a customer’s old recipe left a sticky, low-tack residue on primer boards in high humidity. After tweaking the composition to include MEAA, the issue faded—film-forming improved, blocking resistance rose, and the end product passed spec without last-minute post-additions. We see similar results in specialty inks, where the acetoacetate functionality reduces migration and bleeding, answering regulatory concerns about persistent organic pollutants. Every performance leap, whether eliminating plasticizers in self-crosslinking resins for wood finishes or cutting baking times in low-temperature metal coatings, ties back to properties unique to MEAA.
Our factory’s QC logs show steady demand for finer control in viscosity and open time when customers switch to MEAA. Many appreciate that while older monomers sometimes forced the use of extra surfactants or cosolvents, MEAA handles within standard parameters in acrylic copolymerizations. The acetoacetate group interacts with amines or carbamates in downstream reactions, forming films tougher and more compatible with sensitive substrates like plastics or aluminum alloys.
Environmental pressures are real and constant in the manufacturing world. Looking back over compliance audits, we’ve seen a steady shift away from VOC-heavy precursors and halide-containing modifiers. MEAA fits into this evolution by supporting all-acrylic and acrylic-urethane systems that exceed regulatory baselines for VOC content. Because it offers both easy copolymerization and post-polymerization crosslinking, formulating zero-VOC or near-zero-VOC coatings becomes much more practical. Our raw material sourcing team works with local suppliers to ensure our MEAA avoids common residual contaminants, which helps keep our customers’ end products within compliance for international exports.
On the production side, we regularly receive feedback from downstream chemical engineers adjusting their process windows after replacing a portion of older monomers with MEAA. The result is reduction—sometimes dramatic—in required bake times and curing temperatures. That brings energy savings right to the bottom line, an advantage for any plant feeling the pinch from fluctuating gas or electricity costs.
Switching to a new monomer ingredient like MEAA isn’t as simple as plugging in a new raw material. Our technical service teams have spent countless hours at customer sites, troubleshooting batches with unexpected gel points or off-target molecular weight distributions. We help customers tune initiator levels and emulsifier concentrations specifically for MEAA, as its reactivity profile can shift polymerization rates compared with standard monomers. This direct involvement shortens the learning curve, giving production chemists confidence in scaling up to full-batch runs without risking wasted materials.
Epoxy and urethane formulators turn to MEAA when they need to fine-tune flexibility or tack without losing heat resistance or weatherability. Our own R&D lines have demonstrated that combining MEAA with polyol or amine components opens up new crosslinking routes—useful for dual-cure or two-part systems. With surge in demand for rapid-curing overlays, flooring materials, and vehicular topcoats, MEAA becomes part of a solution that’s both technically effective and commercially viable, shaped by practical experience rather than theoretical guesswork.
Years of shipping specialty chemicals have taught us to respect sensitive monomers like MEAA. We take care with container selection, lining drums with inert polymers and monitoring for trace water ingress to avoid premature hydrolysis. Our staff know from experience that MEAA can, in poorly sealed conditions, pick up enough moisture to alter its reactivity—not a risk laboratory bench tests always reveal. Keeping everything under nitrogen blanket for large-scale shipments, we match our packaging solutions to real industrial transit routes, factoring in warehouse delays and ambient humidity, not just theoretical specs.
We regularly run retention sampling on old lots to measure stability. Storage information from technical literature only gets you so far—a monomer stable for six months in a spec sheet may behave differently in a shipping container crossing a humid climate. We prefer to back up recommendations with real retention data, proving over time that our MEAA holds to established purity and color thresholds, even after long-haul transit.
Field feedback often highlights the gap between lab reports and production realities. Formulators used to the nuances of hydroxyethyl methacrylate, for example, will notice immediately that MEAA’s acetoacetate function leads to lower VOC output and better flexibility. Polyacrylates using simple methyl methacrylate tend towards brittleness and poor adhesion on challenging substrates like galvanized steel or PE films. Replacing a fraction of MMA with MEAA can raise impact resistance and offer prospects for lower-temperature cure, all without turning to classified hazardous additives.
Our own development team keeps a running record of how MEAA compares against its peers. Field trials over the past decade show that adding MEAA lets you strike a balance between molecular weight and crosslink density—crucial for adhesion, chemical resistance, and optical clarity. We’ve found that simple blends with alkyl methacrylates or even acrylate oligomers lead to a sharper improvement in water resistance and a manageable shelf-life, which holds real-world value for exporters needing broad distribution windows.
For water-based ink applications, MEAA gives a boost to pigment wetting and helps retain rheology control during aging—something not always possible with older acetoacetate monomers that have higher reactivity and tendency towards background crosslinking. Our hands-on knowledge comes from countless hours in the applications lab, not just textbook projections.
After decades refining our MEAA process, we’ve settled on conditions delivering high purity, minimal by-products, and steady conversion yields. We use high-vacuum distillation and continuous inline monitoring to catch early deviation. These practical steps guard against inadvertent color formation or lingering volatile contaminants—the devil’s in the details, and it’s experience that keeps downtime down and product consistency up, more than simply what patents or published processes claim.
We find constant tweaking—cleaner reactor wall coatings, optimized catalysts, and batch automation—makes more of a difference for end users than chasing after extreme yield numbers at the expense of stability. We take pride in QC logs that show MEAA lots matching within a fraction of a percent on analytical parameters, batch after batch. This is our real contribution: not theoretical purity, but reliable usability on every shipment, so our customers stay focused on their own process improvements instead of worrying about off-flavors or contaminants in the monomer supply.
More of our customers face regulatory surprises from clients or government inspections. We know traceability demands aren’t going away. We maintain detailed batch tracking, dating back years, on raw materials and process conditions. If an end user faces an audit or needs confirmation on a particular lot, our archives and retained samples back up our paperwork. Our regulatory affairs team keeps abreast of REACH, TSCA, and other global chemical standards, making sure every production run of MEAA follows the latest compliance paths.
We watch as new lists appear, adding new solvents or residuals to those flagged for concern. We adjust upstream suppliers and cleaning protocols rapidly, learning from the practical experience that even tiny changes upstream can spiral into real costs and headaches for downstream users. This kind of proactive flexibility matters far more than abstract promises about “regulatory readiness.”
From technical support calls to on-site troubleshooting, our team’s relationship with end users doesn’t end with a shipment. We field regular questions from formulators dealing with stubborn wetting problems, unexpected haze, or batch-to-batch film inconsistency. Our technical experts—many who once ran our own reactors—offer advice based on what actually works at scale, not just what looks promising in a lab notebook.
Pigment dispersion, crosslinking optimization, and viscosity tuning occupy much of our collaboration time. MEAA provides answers in many of these common pain points, though applied factors—the extractables in local water, the sequence of raw material addition, or even the particulars of end-use environment—always complicate the picture. Sharing firsthand knowledge, rather than hiding behind neutral phrases, lets us help our partners react quickly and avoid costly trial-and-error cycles.
In our business, learning never stops. Annual reviews of process yield, product feedback, customer returns, and even packaging failures shape every improvement round. Feedback from the field drives tweaks like deepening supplier QCs or investing in better process automation. No sales pitch replaces hearing from a customer whose production line shut down because of unrelated surfactant incompatibility—our next MEAA production run reflects that experience. Each enhancement—from better carbon filtration to faster order fulfillment—comes from years spent talking directly to users running the real plants.
We stay in close touch with R&D teams adapting to changing VOC regulations or new substrate demands—MEAA’s adaptability keeps it a mainstay through formula changes, equipment upgrades, and shifting raw material costs. Every new lot builds on this cycle of improvement, answering emerging obstacles with practical chemistry and concrete action.
Years of focus in producing MEAA have proven that attention to detail, reactiveness to end-user concerns, and honest communication form the foundation for supplying a specialty monomer that actually performs in real-world settings. From advanced architectural coatings to low-migration inks, MEAA occupies a niche at the intersection of performance and regulatory ease. With chemical manufacturing growing ever more competitive and regulated, these hands-on truths—not just abstract data—form the story of why our MEAA remains a preferred option for formulators seeking to innovate with confidence and consistency.