| Names | |
|---|---|
| Preferred IUPAC name | methyl prop-2-enoate |
| Other names | Acrylic acid methyl ester MA Methyl propenoate 2-Propenoic acid, methyl ester |
| Pronunciation | /ˈmɛθ.ɪl ˈæk.rɪ.leɪt/ |
| Identifiers | |
| CAS Number | 96-33-3 |
| 3D model (JSmol) | `/3D/JSmol/C4H6O2` |
| Beilstein Reference | 635068 |
| ChEBI | CHEBI:16040 |
| ChEMBL | CHEMBL11240 |
| ChemSpider | 5464 |
| DrugBank | DB14045 |
| ECHA InfoCard | 100.003.374 |
| EC Number | 202-500-6 |
| Gmelin Reference | Gm. 800 |
| KEGG | C01605 |
| MeSH | D000440 |
| PubChem CID | 10797 |
| RTECS number | GF1925000 |
| UNII | HB945RGW6O |
| UN number | UN2031 |
| Properties | |
| Chemical formula | C4H6O2 |
| Molar mass | 86.09 g/mol |
| Appearance | Colorless liquid with a characteristic odor |
| Odor | Acrid; pungent |
| Density | 0.954 g/cm³ |
| Solubility in water | 7.5 g/100 mL (20 °C) |
| log P | 0.739 |
| Vapor pressure | 47.97 mmHg at 20 °C |
| Acidity (pKa) | 13.5 |
| Basicity (pKb) | pKb = 9.02 |
| Magnetic susceptibility (χ) | -13.03 x 10^-6 cm^3/mol |
| Refractive index (nD) | 1.402 |
| Viscosity | 0.6 mPas (25 °C) |
| Dipole moment | 1.77 D |
| Thermochemistry | |
| Std molar entropy (S⦵298) | S°₍₂₉₈₎ = 274.8 J·mol⁻¹·K⁻¹ |
| Std enthalpy of formation (ΔfH⦵298) | -425.15 kJ/mol |
| Std enthalpy of combustion (ΔcH⦵298) | -1886 kJ/mol |
| Hazards | |
| GHS labelling | GHS02, GHS07, GHS08 |
| Pictograms | GHS02,GHS07 |
| Signal word | Danger |
| Hazard statements | H225, H301, H311, H315, H317, H319, H331, H335 |
| Precautionary statements | P210, P261, P280, P305+P351+P338, P312, P337+P313, P370+P378, P403+P235, P501 |
| NFPA 704 (fire diamond) | 2-3-2-F |
| Flash point | 10 °C (50 °F) |
| Autoignition temperature | 445 °C (833 °F) |
| Explosive limits | Explosive limits: 2.8–25%(V) |
| Lethal dose or concentration | LD50 (oral, rat): 600 mg/kg |
| LD50 (median dose) | 640 mg/kg (rat, oral) |
| NIOSH | NIOSH Pocket Guide to Chemical Hazards: 1005 |
| PEL (Permissible) | PEL (Permissible Exposure Limit) for Methyl Acrylate: 10 ppm (35 mg/m³) |
| REL (Recommended) | 50 ppm |
| IDLH (Immediate danger) | 250 ppm |
| Related compounds | |
| Related compounds | Acrylate Acrylic acid Methyl methacrylate Ethyl acrylate Butyl acrylate |
| Product Identification | Manufacturer Commentary |
|---|---|
|
Product Name: Methyl Acrylate IUPAC Name: Methyl prop-2-enoate Chemical Formula: C4H6O2 CAS Number: 96-33-3 Synonyms & Trade Names: Acrylic acid methyl ester, 2-Propenoic acid methyl ester, MA HS Code & Customs Classification: 29161200 (generally used for methyl acrylate; check region-specific tariff schedules for updates) |
Methyl acrylate leaves production plants in bulk liquid form, commonly as a colorless, volatile, flammable ester with an acrid odor. Industrial lots may contain trace acrylic acid, residual monomer, and stabilizer content that vary as per grade (polymerization stabilizers like hydroquinone or MEHQ typically controlled as per shipment/customer requirement). Key raw materials include acrylic acid and methanol; product identity and purity relate directly to process route, catalyst choice, and post-reaction purification. Trade identification may occasionally be influenced by customer-specific labeling, but most global customs declarations rely on the standardized HS Code above. In manufacturing, consideration of feedstock origin, process configuration (such as continuous esterification versus batch), and impurity management governs batch-to-batch consistency. The presence and control of inhibitor type is often defined at contract negotiation. Logistics shortens shipment timelines due to volatility; minor variations in inhibitor volume may occur depending on storage duration and regional transport regulations. Nameplate capacity, trade synonym, and customs classification form mandatory documentation for export/import clearance, but manufacturing records hold added product traceability details not typically disclosed beyond contracting partners. |
Methyl acrylate is commonly supplied in liquid form at room temperature. Appearance ranges from colorless to slightly yellow depending on grade and storage conditions. Any perceptible odor points towards its volatile ester nature. Boiling parameters and melting point measurements vary according to sample purity and analytical approach.
Grades with elevated color or turbidity usually indicate oxidation, prolonged storage, or suboptimal purification. Certain applications set stricter limits on color and odor, especially for downstream polymer or specialty ester synthesis.
Reactivity hinges on purity, stabilizer addition, and contamination control. Unstabilized material is prone to rapid polymerization, especially with heat or peroxides. Stabilizers such as hydroquinone monomethyl ether (MEHQ) are added to inhibit premature polymer growth. Storage atmosphere and headspace gas management remain crucial for stability, particularly in bulk and transit.
Water solubility is modest, with higher solubility at elevated temperatures. Miscibility with a range of polar and nonpolar organic solvents supports flexible formulation for coatings, adhesives, and acrylic resins. Customers targeting latex or emulsion applications may select grades for maximum compatibility with polymerization mediators and surfactant systems.
Specification ranges are typically agreed upon per contract or application. Color, purity by GC, acidity, and inhibitor content are the main release criteria. Detailed figures depend on the selected grade and are validated at each batch release.
Key impurities stem from side-reactions, incomplete purification, or carryover from feedstocks. Acrylate homopolymers form rapidly in poorly stabilized material. Ethyl acrylate, methanol, and specific aldehydes rank among the nonconforming compounds periodically detected. Residual solvent, unreacted monomer, and stabilizer content receive analytical monitoring.
Industrial testing incorporates gas chromatography for organic purity, potentiometric titration for acidity, and colorimetric analysis for optical properties. Stabilizer content is benchmarked by standardized protocols, but customer-specific requirements may add more stringent tests. Release standards reflect both internal QA targets and external regulatory expectations.
Feedstock decisions start from methanol and acrylic acid of suitable industrial purity. Batch-to-batch performance varies with the grades of both; low-water, low-aldehyde grades reduce off-spec production risks. Sourcing optimizes local availability, cost-efficiency, and impurity minimization.
Manufacture typically follows an acid-catalyzed esterification of acrylic acid with methanol. Reactor choice, catalyst selection, and water removal drive conversion efficiency. Some producers opt for continuous reactors with in situ water separation, while others use batch systems for flexible campaign manufacturing.
Key process variables are temperature, catalyst dosage, and reaction time. Condensation of byproduct water and methanol recycling boost yield. Column distillation serves as the primary purification method, stripping lower-boiling methanol and concentrating methyl acrylate near its atmospheric boiling point. Stabilizer addition occurs post-purification just before packaging.
QA programs monitor in-process conversion, byproduct accumulation, and post-reaction organics content. Batch release only proceeds upon confirmation that GC-purity, color, inhibitor concentration, and acidity meet the pre-set criteria. Internal standards reflect cumulative process learning and customer feedback.
Methyl acrylate, as an alpha, beta-unsaturated ester, undergoes Michael addition, free-radical polymerization, and transesterification. Application in polymer synthesis benefits from fast propagation rates, which also create unwanted gels if inhibitor fades or temperature control fails.
Customers set reaction parameters based on catalyst type, temperature range, and solvent preference. Free-radical polymerization responses strongly to radical initiator choice and solvothermal conditions. Water and basic impurities, even at trace levels, increase uncontrolled side-reactions.
Methyl acrylate serves as a building block for copolymers, resins, and functional esters. Suitable purity levels differ by downstream route: higher residual acidity or aldehyde content interferes with electronics and specialty acrylics, whereas bulk plastics can tolerate looser specs.
Drums and tanks require cool, well-ventilated spaces, away from direct sunlight and ignition sources. Repeated agitation or overheating promotes polymer growth, especially if headspace oxygen or stabilizer content drops. Closed storage under nitrogen blanket extends shelf life and reduces oxidative product.
Stainless steel and compatible polymers (such as high-density polyethylene) resist corrosion and help prevent contamination. Tinned steel and reactive metals must be avoided to limit catalytic side-reactions and product darkening.
Shelf life depends on initial purity, stabilizer load, temperature control, and sealing quality. Sign of product degradation includes increased color (yellowing), sediment or polymer formation, and reduced inhibitor content. Specific shelf time and retest intervals are set according to grade and end-use.
Applicable GHS hazard categories reflect the monomer’s flammability, acute toxicity, skin and eye irritancy, and potential for respiratory hazard. Final product marking aligns with regulatory updates and package size.
Operators must manage fire risk due to low flash point, ensure good ventilation, and wear appropriate personal protective equipment. Inhalation or skin contact triggers immediate decontamination procedures.
Acute toxicity and occupational exposure guidelines are set by regulatory bodies. Prolonged or repeated exposure exacerbates sensitization risk, especially for production workers and handlers in manual filling or maintenance tasks.
Exposure thresholds derive from published workplace guidelines, which are periodically reviewed with safety committee oversight. Ventilated transfer systems, spill containment, and reaction quenching procedures form the core of operational handling practices across all plants.
In global methyl acrylate production, capacity and output align tightly with raw material supply, catalyst lifecycle, and reactor uptime. Most manufacturers operate batch or continuous reactors fed by refinery-sourced propylene and carbon monoxide. Facility nameplate capacity only translates to real output when supported by uninterrupted feedstock logistics and market-justified operating rates. During turnaround season and in high-energy cost environments, effective availability may drop below rated figures. Grades intended for textile, adhesives, and specialty polymers often require campaign runs to minimize cross-contamination, especially at sites with multi-product reactors. Schedule commitments are strongest on recurring contracts, while spot offers hinge on plant utilization and downstream orders.
Lead time reflects both in-plant scheduling and outbound logistics. For standard grades, order fulfillment from inventory can move in under two weeks, barring regional transport or container constraints. Specialty grades may require dedicated batch scheduling, extending lead times to one month or longer. Minimum order quantity (MOQ) typically depends on the lowest economically viable packaging and transport unit—often one ISO tank, multiple drums, or flexitanks for overseas shipments. Custom pack sizes or off-spec-grade lots are subject to negotiated MOQs due to higher handling and lab analysis costs.
Bulk methyl acrylate is most commonly loaded into ISO tanks, railcars, or road tankers dedicated to acrylic esters. For smaller batch sizes or regions lacking bulk infrastructure, metal drums, IBCs, or lined totes mitigate contamination and evaporation. A barrier liner may be required for transport in warm climates to limit product loss and polymerization risk, especially for high-purity or stabilized grades. Package format often influences both price and storage discipline, particularly for grades sensitive to oxygen and UV exposure.
Manufacturers generally ship methyl acrylate under Incoterms matching the buyer’s risk appetite and destination port infrastructure. FOB and CIF dominate for bulk maritime trade, while DDP and EXW may apply for domestic transfer or cross-border truck shipments. Payment terms remain rooted in commercial risk: established buyers obtain open account or 30/60-day payment options, while new or high-risk market entries require advance payment or L/C structure, reflecting the tight margins and exposure to price swings in the acrylic esters market.
Methyl acrylate pricing ties directly to the cost and volatility of propylene, methanol, and sometimes n-butanol, depending on the synthesis route. Propylene remains the key cost driver, with refinery pricing dictating feed economics. Catalyst and process additives show smaller proportional impact but can cause cost spikes during supply shortages or force the use of suboptimal alternatives, impacting downstream product consistency. Utilities and energy costs further shape per-ton output price, especially in markets with variable gas or electricity tariffs.
Price variability often results from upstream disruptions—cracker outages, planned turnarounds, or geopolitical shocks affecting feedstock flow. Changes in downstream demand, such as the surge in water-based adhesives, can rapidly tighten market supply without warning. Regulations driving up purity or specification tighten the supply of compliant product, raising premiums for higher-purity or low-inhibitor grades. Regional imbalances sometimes force intercontinental shipments, introducing freight rate volatility to final delivered price.
Price differences track closely with product grade, as high-purity material incurs both higher synthesis cost (due to tighter in-process controls and additional downstream purification) and more stringent packaging requirements. Polymer-grade and pharma-intermediate methyl acrylate often command double-digit percentage premiums over technical grade, reflecting batch segregation and special stabilization. Certified packaging—UN, REACH, DOT-approved formats—raises logistics and compliance overhead, directly reflected in delivered price. Custom certification or QA-driven release testing adds both lab cost and administrative uplift.
Methyl acrylate remains a globally traded commodity, with supply and demand tightly linked to regional acrylic acid integration and the health of the adhesives, coatings, and textile chemical markets. Asia Pacific, led by China and South Korea, supplies the largest fraction of export-grade product. North America and Europe both run integrated units, often targeting value-added monomers or captive downstream demand.
US manufacturers leverage local shale gas economics for propylene-cost advantage and target NAFTA and Latin American buyers. European production faces cost pressure from stricter energy and emission controls, driving either operational optimization or offshoring of intermediate steps. Japan’s capacity operates on steady, high-spec contracts for electronics and specialty polymers, controlling batch variability. India ramps up local production, mainly targeting coatings and BOPP-modified polyolefins, though reliant on imported feedstock. China’s units offer volume at competitive rates but often focus on standardized technical and polymer grades, with tighter export control on pharma intermediates due to evolving compliance demands.
Looking into 2026, input cost volatility persists as the key uncertainty. Any long-term shift in refinery slate or global propylene oversupply could pressure average selling prices downward, particularly in Asia. Western markets could see upward drift on the back of regulatory-driven capacity reduction and persistently high utility pricing, amplified by stricter sustainability requirements on both packaging and process. Margins for high-purity and pharma-intermediate grades are projected to widen, as traceability and certification requirements tighten. Data and forecasts trace back to a mix of industry capacity reports, Argus and ICIS pricing analytics, and manufacturer market intelligence.
Production and pricing trends are extracted from in-house plant utilization data, feedstock contract pricing, regional customs data, and cross-verified with weekly industry bulletins. Global market positioning incorporates both direct sales order intake and customer-supplied offtake forecasts.
The past year has seen supply-side consolidation, with several independents merging captive manufacturing to avoid surplus and minimize logistics friction. New capacity announcements in the Middle East and Southeast Asia carry the potential to reset global arbitrage channels, while continued restrictions on hazardous material transport elongate lead times for some export destinations.
Recent regulatory shifts include tighter inventory controls for monomer transport in the EU and added documentation for export into North America, driven by both environmental and supply chain risk frameworks. Process changes—such as mandatory lower-emission catalysts and efforts to phase out conventional stabilizers—affect both product processing and delivery margin, especially in pharma and specialty grades.
To manage volatility and new compliance requirements, manufacturers have upgraded in-line purity monitoring and batch recordkeeping. Forward purchasing of propylene feed and spot catalysis evaluation have become routine to sustain grade continuity across campaigns. Diverse sourcing of packaging—both domestic and import—helps buffer against last-minute disruptions due to certification or customs clearance changes, a strategy increasingly critical as markets adjust to shorter planning horizons and periodic supply shocks.
Methyl acrylate functions as a monomer and intermediate for several major sectors. Its largest consumption occurs in the manufacture of acrylic and latex polymers for adhesives, paints, nonwovens, and coatings. Chemical synthesis employs it as a building block for specialty esters and pharmaceuticals. Water treatment, textile, and construction applications account for further downstream demand, each relying on process- and product-specific characteristics.
| Industry/Application | Recommended Grade(s) | Key Parameter Drivers |
|---|---|---|
| Adhesives & Sealants | Polymerization Grade (Low Water, Low Inhibitor) | Residual acid, moisture, color, inhibitor content, polymerizability |
| Paints & Coatings | General/Technical Grade | Color, inhibitor, residual aldehydes, consistency in flow properties |
| Textiles (Fiber Treatment) | High Purity Grade | Pigment compatibility, water content, by-product control |
| Pharmaceutical Intermediate | Custom Purified, Low Residuals | Low heavies, low aldehyde/acid content, trace metals profile |
| Water Treatment | Industrial/Technical Grade | Process specific; residual content matched to downstream sensitivity |
Properties such as color, residual acid, and moisture impact downstream polymerization efficiency or end-product clarity. Inhibitor content directly affects shelf stability and safety during storage, and may need to be adjusted to match the reactivity profile of the customer’s process. For medical or food-contact polymers, residual esters, aldehydes, and trace metal levels must be assessed batch-wise. Factors such as trace organics and heavy metals are usually adjusted or specified based on end-use and regulatory acceptance in the target market.
Specify the industrial segment and technical role. A customer running a bulk emulsion polymerization will need different viscosity, moisture, and inhibitor profiles than a facility producing high-purity pharmaceutical intermediates.
Regulatory obligations set minimum and sometimes maximum requirements for metals, acid value, or specific impurities. In regions subject to REACH, TSCA, or FDA regulation, grades can require certification and batch traceability, requiring the supplier to match documentation and analytical protocol.
It is important to determine the purity level each application tolerates. Water-borne adhesives and high-performance coatings handle technical grade, while medical and food packaging markets may demand ultra-pure or custom-refined grades. Our technical department can discuss process historic data to tune batch control specifications.
Volume influences both delivery format (bulk, IBC, drum) and batch release strategy. Budget impacts which purification and QC route is feasible for your target cost structure. Secondary purification (distillation, carbon bed, etc.) for trace impurity removal adds lead time and cost, justified for high-value downstream products.
We recommend always validating product grade with a sample, especially for new campaigns, process changes, or qualification runs. Handle samples under site-specific safety procedures, and request full batch documentation for any regulatory audit trail. Our lab provides full COA and, if needed, third-party analytical backup.
Quality reliability stems from process validation and documentation. In our operations, we follow internationally recognized management systems. Certification bodies audit our supply chain periodically, reviewing process records, deviation management, and raw material traceability. Our process control teams maintain documentation for batch release and critical control points. Quality management systems in place cover sourcing, production, storage, and delivery steps. These certifications ensure that changes in production parameters and raw material batches are documented and evaluated for downstream impacts.
Methyl acrylate certification requirements are most frequently set by customers specifying intended markets, end-use regulations, and performance standards. This includes compliance with direct product standards, material registration with appropriate authorities, as well as application-focused specifications such as polymer, adhesive, or coating formulary compliance. Grades intended for high-purity applications—such as specialty polymer synthesis—undergo more stringent tests for impurities and residuals. Final batch documentation tracks all inspections related to these requirements, with customer audit support provided on request.
Each shipment receives a batch release laboratory report, aligned to certified in-house or external protocols. Test items reflect grade, application, and customer requirements. Typical documentation includes COA, analytical results, and trace records for raw input. For customers with specific auditing or regulatory compliance needs, additional documents may cover in-process testing records, deviation justifications, and supply chain certifications. Retention samples are kept for each batch for traceability and follow-up.
Manufacturing capacity and supply depend on several factors established by our production planning and raw material teams. The plant’s backbone is built around continuous operations, with scheduled process turnarounds, and alternate sourcing strategies for raw materials. Batch consistency relies on equipment condition monitoring, raw input verification, and automated dosage systems. Volume allocation for regular and spot orders is based on forecasted demand and confirmed purchase agreements, with regular review mechanisms for production flexibility.
Process routes are selected to balance capacity utilization, raw material logistics, and impurity risk. The production department monitors equipment condition, feedstock purity, and conversion for every campaign. Supply capability relies on inventory strategy, downstream shipping arrangements, and multi-month production planning, which are supported by routine coordination with customer supply chains. Contingency plans include alternate raw material sourcing and process tuning as needed for sustained output.
Sample provision is governed by grade availability, application specification, and logistics feasibility. Technical and commercial staff coordinate to understand the intended evaluation protocol and minimum quantity required. Depending on the sampling requirement, we can provide small batches reflecting production conditions. Analytical support accompanies each sample to facilitate downstream testing. Feedback from customer evaluations feeds back into future production and QC protocol adjustments.
Business cooperation may adapt to periodic bulk orders, custom grade tailoring, or smaller volume, higher-frequency deliveries. Flexible terms are supported by modular production scheduling, configurable storage solutions, and shipment lot variation. For clients with variable monthly consumption or evolving formulation needs, the supply chain team arranges rolling forecasts and adjustable contract volumes. Technical support is provided for grade specification adjustments based on direct customer process feedback. Joint supply planning meetings can be arranged for long-term project or market development requirements.
Industrial R&D resources for methyl acrylate target process efficiency, purity enhancement, and feedstock integration. One main focus tracks monomer purity and residual inhibitor control, as different polymerization applications require different inhibitor specifications. For grades used in medical and packaging materials, R&D often examines trace impurity profiles and odor thresholds. Customization of stabilizer systems allows for extended storage stability tailored to export or remote delivery, especially in climates where ambient temperature rises above standard warehouse averages. Downstream, attention shifts to controlled copolymerization behavior in water-based acrylic emulsions, where methyl acrylate content fine-tunes elasticity and crosslinking, and to grafting efficiency for performance polymers.
Performance adhesives, electronics encapsulation, and specialty coatings drive new requirements for methyl acrylate. Electronics and optical film applications call for low-metal and low-ion grades, which necessitate additional purification steps during production. Medical applications push for extensive biocompatibility testing on final copolymers derived from methyl acrylate, which in turn shifts upstream requirements on stabilizer selection, impurity content, and packaging. In water treatment and EOR (enhanced oil recovery) polymers, the long-term stability of copolymers with methyl acrylate units is under lab-scale and pilot-scale scrutiny.
Achieving consistent, low-residual solvent levels across all batches requires careful management of reactor purge systems and distillation cut strategies. Ethylene- and propylene-based process routes each bring distinct impurity risks; for example, ethylene-based processes expose the product to different aldehydic contaminants, while propylene-derived feedstock introduces risk of isomeric byproducts. Automated real-time monitoring for polymerization inhibitor content reduces polymerization risk during storage and transit. Flexible inhibitor systems, adaptable for various supply chain durations and local temperature cycles, represent a manufacturing-led response to downstream logistical complexities.
Global demand for methyl acrylate is projected to track closely with acrylic polymer growth, with specialty end-uses growing at a faster rate than legacy textile and paper modification segments. Price pressure is expected from both crude oil and natural gas feedstock volatility, which will influence raw material strategy. Markets in Asia-Pacific and South America will drive incremental volume growth, while regulatory shifts in Europe and North America influence grade eligibility tied to local REACH and TSCA compliance.
Continuous improvement in process automation underpins capacity expansion and energy efficiency targets. Advanced distillation and selective catalyst upgrades address purity yield improvements. Online impurity fingerprinting shortens product-release cycle times and supports customer-specific certificate documentation. Co-monomer blend flexibility also influences reactor setup, as customer requests vary by season and project. Process modularity makes it possible to switch between high-purity and technical grades with minimal downtime, based on order composition.
Pressure to reduce greenhouse gas intensity in vinyl monomer production drives research into bio-based feedstock substitution, with pilot trials integrating bio-acrylic acid intermediates into existing methyl acrylate syntheses. Recovery and recycling of spent inhibitors and non-condensable gases factor into emissions reduction programs, as do solvent capture strategies on purification units. For applications targeting low-VOC (volatile organic compound) performance, the design of customized low-residual-monomer grades becomes central not only in formulation but also in ensuring downstream product certifications.
Technical teams routinely address questions regarding compatibility of methyl acrylate with specific co-monomers and stabilizers. Inquiries extend to suggested polymerization conditions to minimize gel formation and optimize particle size distribution for emulsion applications. Customers receive guidance based on batch history, grade specifications, and documentation from internal quality assurance records.
Support services include laboratory-scale trial assistance for new copolymer developments and on-site troubleshooting for production scale-ups. Recommendations depend on plant-specific reactor design, available blending infrastructure, and target application properties such as elongation or solvent resistance. Guidance for adjusting inhibitor levels to correspond with unique logistics and storage conditions is offered after direct assessment of the customer’s operating environment.
Each shipment includes batch-specific analytical data as agreed with the customer. Repeat orders trigger automatic release of historical QC documentation for process comparison. If off-spec material ever reaches a customer, corrective action procedures include expedited analytical review and, when required, dispatch of technical staff to onsite locations. Ongoing process improvement efforts rely on feedback cycles between customer technical teams and plant process engineers, prioritizing both product consistency and resolution of any post-shipment performance questions within the context of agreed technical parameters.
Methyl acrylate holds a key position in many industrial value chains. Our factory has spent decades studying and refining every detail of its production. From raw materials through final packaging, every batch is controlled directly on our plant floor with audited process monitoring. Reliability matters most to our customers in adhesives, coatings, plastics, and specialty chemical manufacturing.
Across the adhesives industry, methyl acrylate is selected for its polymerization reactivity and performance in forming pressure sensitive adhesives, sealants, and paper coating compounds. In plastics, methyl acrylate copolymers set high standards for impact resistance and flexibility in films and molded products. Paint and coating producers value its role in latex emulsions that deliver fast-drying, adhesive, and weather-resistant finishes. Textile and leather processing companies run continuous operations with methyl acrylate as a reactive finish modifier, seeking predictable dosages and downstream handling results.
Our plant teams control all production steps in-house, using process automation, batch tracking, and real-time analysis to manage product purity and specification ranges. Each production run yields traceable records—this degree of control keeps optical clarity, reactivity, and impurity levels in line with customer process requirements. By controlling every lot, the factory minimizes variation and reduces operational risks for downstream plants. Our team reviews both final product and retained samples to avoid surprises at scale-up or finished goods inspection.
Packaging comes straight from the filling line to the dock, managed on-site. This avoids third-party errors and protects product chemistry from contamination. Choices include drums, intermediate bulk containers, and bulk tankers for large-scale processors. Since shipping departments and production management work side-by-side, orders are fulfilled without split responsibilities, which speeds up turnaround and reduces bottlenecks.
The technical support desk connects directly to plant chemists and process engineers, so buyers receive advice based on real production data, not theoretical calculations or marketing brochures. This hands-on knowledge matters for problem solving in unique applications, scale-ups, or process changes where fine-tuning monomer ratios impacts polymer quality and plant yields. Support covers application compatibility, troubleshooting, and process optimization, not just product identification.
Direct dealings with a producing plant give commercial customers predictable delivery, reliable inventory planning, and clarity on supply agreements. The factory’s control over manufacturing, logistics, and order fulfillment minimizes cross-chain risks. Procurement managers benefit from transparency in supply and production schedules, while operations teams gain uninterrupted access to material for continuous production. This factory-to-plant approach reduces downtime from logistics rerouting or specification mismatches, supporting industrial buyers looking for tight control over critical feedstocks.
At our manufacturing plant, we work with methyl acrylate every day, so we see firsthand what makes this compound valuable. Methyl acrylate is prized in industrial processes for its rapid polymerization, low viscosity in monomer form, and good solubility across a range of organic solvents. Its relatively low glass transition temperature contributes flexibility in copolymers, allowing formulation scientists to dial in the right balance of hardness and elasticity across a broad spectrum of products. In practice, these features let downstream industries create products that perform reliably, even under challenging conditions.
One of the biggest users of our methyl acrylate is the adhesives and sealants sector. These companies want fast-setting, strong bonds that can hold up to moisture and chemicals. Formulating with methyl acrylate brings that balance. Its reactivity supports quick cure times, while its copolymerization with other acrylates and methacrylates leads to strong, yet flexible, finished materials. Customers often request different grades or additives based on end-use—construction, automotive, or packaging. We coordinate production runs to ensure consistent batch-to-batch quality and supply customizations as needed.
As a bulk monomer for synthesizing specialty chemicals, methyl acrylate underpins a wide range of intermediate and finished products. In our facility, we use controlled processes to limit impurities and support high-purity requirements, whether our customers are making detergents, textile finishes, or new polymeric surfactants. Its electrophilic double bond makes methyl acrylate a cornerstone in Michael addition reactions and other transformation steps, so chemists across the value chain depend on reliable sourcing. Meeting specifications in functionality and purity isn’t negotiable—and our analytical team monitors every lot accordingly.
Resin manufacturers regularly purchase methyl acrylate for waterborne and solvent-based systems. Its use in copolymers with styrene, acrylic acid, and other monomers brings a combination of weather resistance, toughness, and gloss—crucial for automotive coatings, industrial finishes, and ink applications. With regulatory standards always in focus, we maintain production practices aligned with environmental and safety norms. Our on-site laboratories support product development partners by supplying trial quantities with adjusted inhibitor content, allowing for immediate scale-up to commercial batches.
Polymer dispersions containing methyl acrylate improve abrasion resistance and durability in textile coatings. We receive regular technical requests concerning particle size, residual monomer levels, or surfactant systems for nonwoven and woven fabric end uses. Our technical service team works with formulators to optimize polymer blends, ensuring downstream consistency at every stage of textile processing.
Strong odors and volatility require robust containment and ventilation at our plant. We use closed transfer and automated filling systems to protect both operators and product integrity. As methyl acrylate is flammable and a skin sensitizer, our engineering controls and mandatory PPE standards are strict. Waste minimization and responsible emissions handling guide every part of the process, from distillation through to loading finished material into drums or tanks.
Industrial demand isn’t static. We invest in process improvements for lower residuals, greater operator safety, and tailored additives that keep pace with market needs. Our partnerships with downstream manufacturers inform the way we develop product grades and packaging solutions, so the entire supply chain benefits from consistency, safety, and technical transparency.
Direct supply of Methyl Acrylate means every aspect of packaging and minimum order structure comes straight from the source. We build our packaging around what actually protects the quality of the product and supports efficient movement through the logistics chain. Over decades of chemical production, we have seen that packaging directly affects both product safety and the customer's production planning. Our approach stays focused on practicality and reliability for industrial users.
We handle Methyl Acrylate in packing options that match both regulatory needs and handling realities. The most common formats for industrial volumes start at 200-liter steel drums, designed for chemical compatibility and to withstand transportation strain. Our drums use UN-rated closures and linings that minimize permeation while ensuring safe handling for downstream processing environments. Drum packaging keeps handling straightforward on an industrial floor and locks down the material’s integrity for extended periods.
For operations with bulk requirements, we support delivery in intermediate bulk containers (IBC totes), with typical capacities of 1000 liters. IBCs reduce changeover downtime, lower the cost per ton for bulk handlers, and are engineered for easy transfer with standard pumping systems. Our IBC packaging comes with tamper-evident seals and appropriate labeling for traceability in regulated markets. Customers operating continuous lines or managing large-scale emulsion polymerization plants see significant advantages in tote deliveries—less handling and fewer transfer losses.
On the high-volume end, tank truck and ISO tank shipments address the needs of major processors. We can load product directly from our reactors into dedicated tankers, streamlining delivery to customer storage onsite. Each tank is pre-cleaned and certified for acrylic monomers, with loading managed by trained operators following strict safety checklists. This minimizes cross-contamination risk and enables immediate offloading for integration into large storage tanks, keeping production lines running without interruption.
The economics of chemical logistics establish certain thresholds below which efficiency drops sharply. For Methyl Acrylate, our minimum order for drum supply stands at 800 kilograms, which generally matches a full pallet of 200-liter drums. This keeps both packaging integrity and shipping safety controls in place, while allowing production planning that fits standard industrial consumption rates.
For IBC tote supply, the minimum is set at a single 1000-liter tote (approximating around 950 kilograms net), again designed with typical batch processes in mind. Orders below this level do not efficiently utilize the resources required for safe and compliant production, packaging, and shipment. Large-scale customers often book product by the full tanker; our minimum volume for direct tank truck supply usually starts at 15 metric tons, keeping logistics straightforward for both filling and transfer at the client’s facility.
We have worked extensively to balance inventory management and delivery efficiency while meeting legitimate production scale needs. Reducing risk, ensuring material traceability, and controlling logistics costs shape our MOQ policies. Our logistics team prepares all required documentation, including batch numbers and certificate of analysis, so the end-user receives product ready for immediate inspection and use.
Changes in market demand or shifts to specialty applications sometimes call for a more tailored packing or batching strategy. Our technical and logistics teams regularly consult with customers facing unique consumption patterns or regulatory challenges. While we maintain established minimums for standard formats, we analyze each situation to identify the best route—be that through shared delivery slots, planned quarterly allocations, or specialized handling approvals.
Direct purchase from our factory assures access to up-to-date production batches, clarity in lot traceability, and technical documentation aligned to actual process parameters. We continuously review packaging and order size policies based on both customer feedback and transportation safety data. Our focus on factory-direct transparency means buyers always know exactly what packaging and ordering structure to expect, directly from the production line to their facility.
Producing methyl acrylate at scale brings a long list of precise logistics steps on our factory floor and throughout our supply chain. We view the safe transport and storage of this monomer as an extension of our production process, not just an afterthought. Our packing team oversees the journey from reactor to drum, right up to the delivery dock, to ensure clear hazard control at every handoff.
Methyl acrylate falls under flammable liquid, UN 1919, Class 3 according to international shipment regulations. It ranks high for both fire risk and the potential for causing respiratory or skin irritation. Our safety protocols treat every filled drum and ISO tank with the same priority as on-site storage, because a mishap on the road or in a warehouse can have community-wide consequences.
On our site, even brief exposure in an unventilated area gets flagged immediately. All containers bear the flame symbol and hazard information, as required by the Globally Harmonized System (GHS). Our logistics staff receive updated training on proper labeling and documentation for maritime, rail, or bulk trucking.
We use high-performance drums, IBCs, and ISO tanks designed to handle volatile liquids. Our engineers specify gaskets and seals that resist the permeation and attack specific to acrylates. Outgoing material never leaves the factory without weight checks and pressure integrity tests.
For land or sea shipments, we prepare documentation to meet national and international standards—Material Safety Data Sheets (MSDS), emergency phone details at the point of origin, and full manifest records. Our logistics team works with certified drivers and carriers familiar with solutions for leak or spill scenarios. Loads travel with segregated placements, far from foodstuffs and incompatible chemicals.
Our own bulk storage tanks come fitted with nitrogen blanketing and vapor return lines to reduce the risk of peroxide formation or fume buildup. We keep storage rooms well vented and monitor temperature and pressure around the clock. Direct sunlight, open flames, or static discharge sources find no place near methyl acrylate vessels.
We never warehouse this material near oxidants, acids, or strong alkalis. Our inventory management rotates stock to prevent extended holding, because acrylates do not benefit from long-term storage. Firefighting apparatus and spill kits sit close to our methyl acrylate inventory, with staff trained to intervene rapidly if the alarm activates.
Our technical and compliance teams review local, national, and international regulations each year and scout for upcoming changes that may affect container standards or transportation practices. We keep strong relationships with fire marshals and port authorities to align factory and warehouse protocols with industry-wide best practices.
Industry-wide, automation and remote monitoring now back up human inspection forces. Our warehouses use electronic logging to track every movement and record any deviation, while incident drills with municipal responders test our plans beyond paper checklists. As both manufacturers and stewards of industrial safety, we invest directly in redundant safeguards, not just because rules require it, but because factory experience shows the smallest error can cost much more than a shipment’s worth of product. Our commitment remains firm: every drum, every shipment, every storage cycle deserves the same scrutiny as the first batch off our line.
For product inquiries, sample requests, quotations or after-sales support, please feel free to contact me directly via sales3@ascent-chem.com, +8615365186327 or WhatsApp: +8615365186327
