|
HS Code |
162868 |
| CAS_Number | 97-88-1 |
| Molecular_Formula | C8H14O2 |
| Molecular_Weight | 142.20 g/mol |
| Appearance | Colorless liquid |
| Odor | Fruity, ester-like |
| Density | 0.89 g/cm3 at 20°C |
| Boiling_Point | 163-165°C |
| Melting_Point | -65°C |
| Flash_Point | 49°C (closed cup) |
| Solubility_in_Water | Immiscible |
| Refractive_Index | 1.418 at 20°C |
| Vapor_Pressure | 3.8 mmHg at 20°C |
As an accredited N-Butyl Methacrylate [Stabilized] factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The packaging for N-Butyl Methacrylate [Stabilized], 1 liter, features an amber glass bottle with a secure screw cap and hazard labeling. |
| Shipping | **Shipping Description for N-Butyl Methacrylate [Stabilized]:** Ship N-Butyl Methacrylate [Stabilized] in well-sealed containers, protected from heat, sunlight, and incompatible materials. Label as a flammable liquid (UN 2229, Class 3). Ensure ventilation and grounding during transport. Follow all applicable regulations for hazardous chemicals; handle with care to prevent leaks or spills. |
| Storage | N-Butyl Methacrylate [Stabilized] should be stored in a cool, dry, well-ventilated area, away from direct sunlight, heat sources, and incompatible substances such as strong oxidizers and acids. Keep containers tightly closed and protected from physical damage. Use only stabilized product, and prevent polymerization by maintaining recommended storage temperatures and conditions. Ground and bond containers when transferring the liquid. |
Applications of N-Butyl Methacrylate [Stabilized] in Industrial ManufacturingN-Butyl Methacrylate [Stabilized] serves as a key monomer in various industrial sectors. The material provides distinctive polymerization and functional benefits across specific downstream applications, each governed by strict compliance and production requirements. As a direct manufacturer, we ensure consistency, regulatory conformity, and technical suitability for industry needs. 1. Acrylic Emulsion Polymers for Architectural CoatingsAcrylic emulsion manufacturers incorporate this monomer to improve film flexibility, weather resistance, and substrate adhesion in water-based architectural paints. Its molecular structure facilitates low-temperature film formation and enhances alkali resistance for exterior wall coatings. Process engineers adjust the monomer ratio according to the desired final paint performance and coating durability specifications set by commercial and residential building standards. Industry compliance standards
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2. Pressure-Sensitive Adhesives (PSAs) for Industrial TapesPSA manufacturers use this material to adjust tackiness, cohesive strength, and removability in acrylic-based adhesive formulas for industrial tapes. Its hydrophobic butyl side chain allows for balancing initial adhesion and long-term bonding on low-energy surfaces like plastics and metals. Chemical engineers control copolymer composition during solvent or water-based polymerization to target application-specific peel and shear requirements. Industry compliance standards
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3. Acrylic Casting Resins for SanitarywareSanitaryware resin formulators leverage N-Butyl Methacrylate for its contribution to resin impact strength, surface gloss, and thermal stability in cast acrylic sheets. These resins are essential for the production of bathtubs, basins, and wall panels that must withstand daily abrasion and chemical exposure. Process technicians modulate the monomer mix to tailor sheet hardness and machining properties according to downstream fabrication steps and end-user requirements. Industry compliance standards
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4. Impact-Modified Acrylic Sheets for Automotive GlazingDownstream automotive glazing material producers use this methacrylate derivative to develop lightweight, UV-stable, and impact-resistant acrylic sheets for vehicle windows, sunroofs, and panoramic roof panels. Polymer chemists optimize monomer ratios to meet OEM standards for UV transmission, haze, and impact performance, ensuring durability during high-speed driving and temperature cycling. This application requires stringent molecular weight control and batch traceability throughout copolymerization and sheet extrusion. Industry compliance standards
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5. Industrial Floor and Road Marking PaintsChemical flooring systems and road marking paint producers include this monomer in high-durability acrylic copolymer binders. Its chemical structure improves abrasion, oil resistance, and color durability on concrete and asphalt surfaces. Technicians customize formulation based on expected mechanical load, exposure to chemicals, and required drying rates during application in factories, parking structures, and public roads. Industry compliance standards
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Competitive N-Butyl Methacrylate [Stabilized] prices that fit your budget—flexible terms and customized quotes for every order.
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Work in polymer chemistry offers few shortcuts, and producing N-Butyl Methacrylate [Stabilized] delivers daily reminders that experience matters. We’ve watched this monomer earn its place across coatings, adhesives, and specialty plastics—especially as demand shifts toward materials that balance flexibility with high performance and weather resistance. Those of us who handle it don’t see bottles and barrels. We see a product shaped by process discipline, careful stabilization, and a long history of troubleshooting batch-to-batch variability. Every liter we ship carries that legacy.
Inside our production halls, the difference starts with raw material sourcing. We select butanol and methacrylic acid only after rigorous acceptance standards, and even trusted suppliers know we don’t tolerate wide analytical swings. In the reaction tank, temperature control and dosing precision are watched hour by hour. It’s the only way we meet even the tightest limits for purity, acidity, and inhibitor residuals. Our N-Butyl Methacrylate almost always arrives stabilized with 10-30 ppm of MEHQ, which counteracts unwanted polymerization during storage and shipment. Skipping this step would spell disaster for both our facility and our customers’ operations.
Our engineers constantly cross-check lot samples against published chromatographic benchmarks for inhibitor levels and monomer purity. One might think of stabilization as an afterthought, but in this environment, it’s a gatekeeper. Unstable or “off-spec” monomer catalyzes runaway reactions—something customers in the coatings or floor polish industry cannot tolerate. From our perspective, stabilization defines real commercial N-Butyl Methacrylate. If a manufacturer cuts corners, surface finish and emulsion systems can break down, and everyone in the supply chain feels it.
Unlike traders and resellers, we stand behind every specification. N-Butyl Methacrylate [Stabilized] coming from our reactors consistently delivers purity above 99.5 percent and water content below 0.05 percent. Trace acetic acid, aldehydes, and oligomers remain tightly controlled. These details might look small in a lab report, but end-users notice even minor deviations. Acrylic resins produced with inferior monomer crack or yellow faster under UV light, and adhesive tack times fluctuate unpredictably. Our in-house teams run their own polymerization trials monthly, checking sample performance in real-world resins, not just on paper.
Our quality team keeps a sharp eye on chromatic clarity and refractive index. Tinting or cloudiness is your first sign something has gone wrong. We don’t wait for customer returns—periodic stability checks and accelerated storage tests form part of our standard operation. These methods pick up trace contamination before it reaches downstream users. There’s a reason veteran coatings chemists keep a jar of our monomer on their shelf for side-by-side comparison.
Few chemicals traverse such a range of applications as N-Butyl Methacrylate. Most output heads for the coatings world—industrial lacquers, auto refinishes, and architectural paints that confront heat and UV year-round. The construction industry has turned to this monomer in modified acrylics for flexible wall coatings and waterproofing membranes, finding that the long carbon chain of the butyl group adds toughness with needed ductility. Swimming pool paints and floor finishes last longer when formulated with high-purity monomer.
We hear frequent stories from adhesive and sealant formulators grappling with low-viscosity acrylic copolymers. Here, stray metal ions, or traces of peroxides, from poorly manufactured monomer gum up the process. Our customers demand certainty. That’s why we maintain in-line sensors monitoring color and acidity in every shift. The bigger lesson: no matter how small the monomer share appears in a finished product, these details make or break performance on-site.
In specialty plastics and acrylic latexes, end-use demands have sharpened. Manufacturers of glossy display cases or toughened plastic panels specify N-Butyl Methacrylate for clarity and impact strength. We’ve seen clients in the optical field reject entire shipments from other sources over haze or odor issues. Every step—from distillation to filling drums—affects those outcomes, and none can be left to chance.
Our stabilization practice sets our product apart. Even a few decades ago, N-Butyl Methacrylate could ship “as is,” but polymerization hazards and evolving safety standards forced a rethink. Today, adding MEHQ at carefully calibrated levels remains standard. Too little, and you risk exothermic runaway. Too much, and downstream polymerization (like acrylic resin formation) slows to a crawl. Our operators weigh every addition, double-checking against UV-Vis spectroscopy to lock in the right inhibitor band. Older techniques left some batches with hot spots or unblended streams—modern process automation now removes that uncertainty. This approach allowed us to cut product recalls to practically zero in the last ten years.
Field engineers know old tricks don’t always translate to modern safety. Some users try to “wash” out inhibitors before catalyst charging. This introduces needless hazard, as any trace water or air can speed up unwanted side reactions. We emphasize real-world stability data in our customer bulletins, showing that careful inhibitor dosing saves far more headaches than cutting corners ever could.
It’s tempting to group all methacrylate monomers together, but from a production standpoint, each brings its own set of quirks. N-Butyl Methacrylate’s longer alkyl group means it delivers more flexibility and less glassiness compared to its methyl or ethyl cousins. Customers moving from Methyl Methacrylate often expect faster hardness but sacrifice elasticity. Butyl versions let formulators dial in softer, impact-resistant resins while still delivering gloss and weatherability.
Acrylate and methacrylate monomers sometimes arrive on loading docks without clear distinction, leading to performance mysteries later on. As a direct producer, we field troubleshooting calls from those who have blended with commodity acrylics and run into fogging, embrittlement, or migration issues. Years in this business taught us the value of working directly with end-users and development labs to solve these puzzles. Tracking which lot went into which batch can mean the difference between flawless application and a warehouse full of unusable paint.
Our technical support advises chemists to compare glass transition temperatures, chain transfer rates, and copolymerization profiles before downshifting to less expensive monomers. We run head-to-head tests under local climate conditions, because performance in Vietnam or South Africa rarely follows textbook predictions. N-Butyl Methacrylate shines in hot, humid environments, where other monomers turn brittle or yellow with age. This isn’t marketing spin—it’s information gathered from decades of field data and returned product analysis.
Safe handling protocols developed over years, not just from regulatory compliance but as a necessity to avoid real hazards. Flash point, vapor pressure, and exothermic potential guide everything from tank material to ventilation requirements. We invest in closed-loop loading systems with active vapor recovery. Distribution failures or leaky drums set off alarms far beyond raw materials cost—fire risk, odor complaints, and insurance headaches disrupt everyone’s business. Stabilized N-Butyl Methacrylate travels only in inhibitor-checked, lined containers, shielded from heat and direct sunlight. On-site storage involves regular inhibitor level monitoring, shelf-life checks, and keeping containers dry and firmly sealed.
Years ago, a minor power outage during summer heat triggered a localized runaway in one of our older polymerization tanks. Emergency venting worked as designed, but that experience overhauled our investment priorities: modernized cooling, continuous temperature logging, and reinforced training for every production technician. We share these lessons with major customers, offering advice on their own on-site handling to minimize safety interruptions and unplanned downtime. This happens not because of compliance pressure, but from understanding just how quickly overlooked safety lapses escalate.
Environmental responsibility remains a growing facet of chemical production. Our refinery recycles process waste streams, recovers unreacted monomer from side products, and sends spent stabilizer solutions to licensed waste processors. The regulatory landscape surrounding volatile organic compounds (VOCs) and hazardous air pollutants requires constant adaptation. We actively reduce fugitive emissions by keeping tanks blanketed and loading operations splash-free.
Customers often ask how monomer choice affects the environmental footprint of finished products. N-Butyl Methacrylate typically delivers lower VOC emissions than shorter alkyl chain monomers at comparable film hardness. The chemical’s higher boiling point helps when formulating low-odor, fast-drying surface coatings. By integrating real recovery and abatement systems on site, we share quantifiable VOC reduction figures with partners, not just marketing claims.
Handling spent monomer and cleaning solvents draws on lessons we learned the hard way. Whether through mechanical recovery or safer incineration, we track how each batch and rinse residue moves from our plant. End-users appreciate having access to environmental data that comes straight from the production source.
Industry veterans have seen product specifications float as goods pass through layers of distribution. At our plant, we refuse to compromise on controls for purity, color, acidity, and inhibitor levels. Many batch issues—cloudiness, resin gelling, slow cure—trace directly to upstream manufacturing shortcuts. Field complaints rarely come from laboratory number mismatches, but from real failures during resin synthesis or coating application. As a result, our teams maintain end-to-end traceability, linking each drum to its plant batch and reactor log.
We often host formulating chemists on our plant tours, showing them the production line and sharing side-by-side monomer performance testing. Real transparency gives users confidence the specifications on paper reflect what arrives at their door. Requests for custom inhibitor levels, acetate content, or purity are common, but we handle them because the expertise to adjust comes from doing—not brokering.
Chemical manufacturing faces constant evolution, not just in product properties but in how we meet new market and regulatory demands. Our research organization pushes for higher throughput, safer process automation, and more effective contaminant removal than ever before. Advances in distillation and on-line process monitoring shrink variability, cut waste, and let customers prime their own shifts with more reliable feeds.
Some trends—like the move to waterborne systems or stricter VOC limits—make new technical demands on monomer producers. Our focus stays on supporting customers adjusting their formulations to meet tightening standards. Factory engineers experiment with alternative stabilizers and advanced purification, aiming to minimize color, odor, and side reaction by-products. Every small gain brings hundreds of downstream benefits, from smoother extrusion lines to fewer customer disruptions.
Years of direct dialogue have given us a different perspective than those working through a broker or catalog listing. Every “off” batch reported by a customer means reviewing not just lab data but also process logs and shipment records. Comments about odor, gel time, or incompatibility move quickly up our engineering queue, prompting new pilot work or even tweaks to cleaning cycles.
We’ve developed troubleshooting guides built entirely from user experiences—no speculation, just practical solutions. By tracking where in the value chain issues emerge, our technical teams refine processes or issue handling recommendations, nipping problems before they multiply. This feedback loop delivers a better product, rooted in the realities of application rather than abstract theory or distant marketing.
Working on the front lines of chemical manufacturing means living with the day-to-day consequences of decisions made at every stage: raw material selection, process control, stabilization, final drumming. N-Butyl Methacrylate [Stabilized] represents far more than a commodity monomer. It’s a benchmark for how closely a production team respects both science and the real-world pressure of batch delivery, safety, and customer trust.
By holding ourselves to a standard developed from years of hands-on production—and by remaining open to change and external feedback—we offer something more than just a barrel with a label. We offer process knowledge, stability, safety, and reliability, proven in every batch by people who know what’s at stake.