|
HS Code |
932288 |
| Chemical Name | Vinyl Acetate |
| Synonyms | Acetic acid ethenyl ester |
| Cas Number | 108-05-4 |
| Molecular Formula | C4H6O2 |
| Molecular Weight | 86.09 g/mol |
| Appearance | Colorless liquid |
| Odor | Sweet, fruity odor |
| Boiling Point | 72 °C (162 °F) |
| Melting Point | -93 °C (-135 °F) |
| Density | 0.933 g/cm3 at 20 °C |
| Flash Point | -8 °C (18 °F) (closed cup) |
| Solubility In Water | 2.5 g/100 mL (20 °C) |
| Vapor Pressure | 114 mmHg at 20 °C |
| Stabilizer | Typically contains hydroquinone or similar inhibitor |
| Refractive Index | 1.394 at 20 °C |
As an accredited Vinyl Acetate [Stabilized] factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Vinyl Acetate [Stabilized], 2.5L, is packaged in a clear glass bottle with a tight-sealing cap and hazard labeling. |
| Shipping | **Shipping Description:** Vinyl Acetate [Stabilized] should be shipped in tightly sealed, corrosion-resistant containers under cool, dry, and well-ventilated conditions. It is a flammable liquid (UN1301, Class 3, PG II) and should be kept away from heat, sparks, and open flames. Proper labeling, placards, and adherence to local, national, and international regulations are required. |
| Storage | Vinyl Acetate [Stabilized] should be stored in a cool, dry, and well-ventilated area, away from sources of heat, sparks, and open flames. Store in tightly closed containers made of compatible materials, protected from direct sunlight. Avoid contact with oxidizing agents and acids. Temperature should not exceed recommended limits to prevent polymerization, and ensure containers are clearly labeled and grounded. |
Applications of Vinyl Acetate [Stabilized] in Industrial ManufacturingVinyl Acetate [Stabilized] supports multiple industrial sectors as a core monomer in polymer synthesis and as a performance-enhancing building block in resins and adhesives. As the primary manufacturer, we collaborate closely with formulators and production engineers to ensure consistent downstream integration and compliance with global regulations in diverse applications. 1. Water-Based Emulsion Polymers for Paints & CoatingsEmulsion polymerization of vinyl acetate, particularly when stabilized for storage and transport, forms the basis for copolymers used in architectural and industrial coatings. It reacts with monomers such as ethylene or acrylates to tailor properties like film hardness and flexibility. Production plants precisely meter stabilized vinyl acetate during the reactor feed phase, ensuring polymerization kinetics match batch protocols. Paint manufacturers leverage these dispersions in both primer and finish formulations, balancing volatilization parameters with final dry film durability. Finished goods undergo batch quality assurance, including VOC compliance testing and abrasion resistance assessment. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Polyvinyl Acetate Adhesives for Woodworking and PackagingIndustrial adhesive plants utilize stabilized vinyl acetate as the primary feedstock for polyvinyl acetate emulsions designed for joinery, furniture lamination, and paper bonding. The emulsion synthesis step involves batch dosing under controlled pH and the addition of protective colloids to ensure storage stability. Downstream, adhesive manufacturers adjust plasticizer and tackifier content based on client application—ranging from fast-setting wood glues to flexible carton sealing adhesives. All products meet end-use mechanical shear and peel resistance criteria and undergo color and viscosity QC prior to packaging. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Ethylene-Vinyl Acetate Copolymers for Foam and Film ManufacturingProducers of EVA copolymers incorporate stabilized vinyl acetate to adjust melt flow and improve softness, flexibility, and transparency in foamed products and extruded films. The ratio of ethylene to vinyl acetate enables engineers to tune mechanical strength and heat sealability. Precise dosing during autoclave polymerization maximizes conversion and ensures minimal residual monomer. Downstream, converters process EVA granules for foam, wire, and cable insulation or specialty films for packaging and photovoltaic modules. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Polyvinyl Alcohol Synthesis for Textile and Paper SizingManufacturers synthesize polyvinyl alcohol (PVA) by hydrolyzing polyvinyl acetate produced from stabilized vinyl acetate. The PVA solution enhances fiber strength and surface integrity during textile weaving and paper production. Plants control hydrolysis level for water solubility and adjust molecular weight distribution for targeted application. End users in textile mills and paper factories evaluate wet and dry strength performance, along with compatibility with additional coating or pigment systems. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
5. Vinyl Acetate-Based Surface Coatings for Flexible PackagingFlexible packaging converters and coating plants use vinyl acetate as a functional modifier in acrylic or PVDC latex coatings to boost adhesion and enhance printability on substrates such as BOPP, PET, and metallized films. Coating lines introduce the stabilized monomer during latex synthesis, ensuring uniform particle morphology and efficient anchoring to film surfaces. Finished coatings undergo migration and blocking resistance testing, as well as lamination bond strength evaluation before release for conversion. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
|
Competitive Vinyl Acetate [Stabilized] prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please contact us at +8615365186327 or mail to admin@ascent-chem.com.
We will respond to you as soon as possible.
Tel: +8615365186327
Email: admin@ascent-chem.com
Flexible payment, competitive price, premium service - Inquire now!
In working on the shop floor and alongside development teams over the years, I’ve seen how the precise handling and production of vinyl acetate [stabilized] make or break the reliability of end products. This compound isn’t just another line on a chemical order sheet—it’s a pivotal building block for industries ranging from adhesives to textiles to coatings. At our plant, every batch reflects a commitment to purity, consistency, and practical usability, shaped directly by the daily requirements of folks who depend on its performance.
Vinyl acetate, in its purest form, wants to react with the world. Its high reactivity is exactly why industries reach for it. Without stabilization, though, vinyl acetate becomes unpredictable. That’s where the stabilized grade comes in. We use precise levels of inhibitors during manufacturing—chosen from experience, not guesswork—to keep polymerization at bay during storage and transport. The stabilized version keeps its performance profile remarkably steady under normal logistics and warehousing conditions. We don’t cut corners with the inhibitor mix; it’s tailored through continuous measurement to deliver consistent, reliable flow in the plant and out in the field.
The chemical formula is C4H6O2, and the product takes the form of a clear, colorless liquid with a distinct, sweetish odor. Over the years, our team has found keeping free acidity and water levels tightly controlled matters a great deal for downstream processes, so we monitor these parameters batch after batch. Storage tanks and shipping containers get lined and maintained to avoid trace metal contamination, another source of unwanted reaction. Through hard-won experience, we’ve learned that even minor lapses here show up immediately in plant operations and client reports.
Our typical model’s purity sits above 99.0%, based on the gas chromatography results we pull from every batch. Inhibitor content, usually in the form of hydroquinone, tracks at firmly controlled concentrations—enough to stop runaway polymerization, not so much as to interfere in customer applications. Acidity never strays above 0.005% (as acetic acid), a limit set by the sticky residue side-effects we used to encounter before we honed in on our current process. These specifications didn’t come from a wish list—they emerged after years of troubleshooting clogged reactors, blocked pipes, and filter fouling. No customer wants downtime, and it’s these details that guarantee smooth process runs at adhesives, paint, or polymer production sites.
Packing is just as important. We learned the hard way that container selection changes everything. Drums and bulk tankers need careful inner coatings to prevent any trace reactions. This level of care upfront saves days of lost production time down the line. The stabilization recipe holds across both small batch laboratory shipments and large-scale industrial volumes. Whether the end use is as a monomer for polyvinyl acetate emulsions or as a comonomer in ethylene-vinyl acetate co-polymers, our specifications keep manufacturing lines moving and customers coming back.
Vinyl acetate [stabilized] has become a backbone product for a surprising range of modern industries. Its main application lies in producing polyvinyl acetate, the primary component in common adhesives for wood, packaging, and textiles. In the hands of an experienced operator, it also transforms into ethylene-vinyl acetate copolymers — think of the flexible foams in sports equipment or the waterproof layers in packaging film.
We see plenty of it diverted to paper coatings, where it delivers just the right blend of printability and resistance to moisture. Textile finishing experts rely on its role in forming latex emulsions to create soft, durable fabric finishes. Our best clients in the paint and coatings sector give us the most useful feedback: coatings made with our stabilized vinyl acetate resist chipping and peeling longer under real-world exposure. They want less downtime cleaning out stuck pumps and more time meeting their own delivery schedules. Stabilized VAM makes that possible.
Downstream handling matters. Direct from years on the job, I’ve learned most plant issues circle back to supply details that go unnoticed, like oxygen ingress or unexpected temperature spikes during storage. By prioritizing inhibitor stabilization and proper tank blanketing, we help customers avoid unplanned shutdowns and polluted products. Every time we deliver stabilized vinyl acetate, we have to think about how a busy manufacturing site will use it—not just how it looks in our own warehouse.
We’ve produced both stabilized and unstabilized grades over the years. The difference shows up immediately in handling and downstream yield. The unstabilized form has its applications, often for immediate polymerization under controlled lab settings. The moment you need to scale up or store the monomer for any amount of time, you see the risk—polymer gels can form, with subsequent headaches for filtration and pump mechanisms. Stabilized grades head off these headaches, letting users store and transport the monomer without watching the clock with every delivery.
There’s no universal solution for all users, so we listen to customer requirements in detail. For quick-use or specialty synthesis—the kind best handled inside the lab or production line—unstabilized vinyl acetate plays a role. For everyone else, including the majority of our industrial buyers, the stabilized version brings peace of mind and eliminates waste. We’ve occasionally fielded questions from newcomers about the price difference between grades. The stabilized option involves extra monitoring, added inhibitor control, and more rigorous QA, but these steps prevent much costlier plant stoppages after delivery.
For those new to vinyl acetate [stabilized], understanding the stabilization process comes through practical problems—not just textbook chemistry. Inhibitors such as hydroquinone act as a safety net, intercepting free radicals that would otherwise start runaway reactions inside drums or tanks. From plant experience, I can say nobody wants to deal with cleaning out a polymer plug from a tanker, or worse, shutting down a reactor train because material started to gel.
Our team tracks inhibitor content during each bulk transfer and at the end-user’s site when requested. Even temperature and light exposure during shipping play a role in inhibitor performance. I remember one summer shipment that sat on a hot railway siding—one missed temperature reading, and we wound up with a thick mass instead of a clear liquid. That lesson stuck: real-world stabilization takes more than just lab titration results and batch sheets; it demands careful control, shipping by knowledgeable carriers, and ongoing dialogue with those receiving the product.
Every plant manager knows downtime comes with a steep bill. Through the years, the biggest issues I’ve seen with vinyl acetate use stem from inconsistent monomer quality or surprise polymerization in storage. Stabilized product cuts the risk, keeping polymer plants and adhesive production lines turning longer without interruption. Quality control, both in our plant and out in the field, works as insurance against fouled batches and costly recalls. We trust our process because we’ve worked out the kinks directly with hands-on production teams—a story that doesn’t show up in spec sheets, but shows in the real-life reliability of flexible film and adhesive rolls being delivered on schedule.
Our own clients use vinyl acetate in high-stakes production where costs spiral quickly if something goes wrong. The feedback I hear most often centers on peace of mind—engineers and operators feel more comfortable pulling material they can trust. They tell me how stabilized vinyl acetate lets them focus on output and innovation, not emergency cleaning or supplier complaints.
Every large-scale user already knows vinyl acetate carries risks—its volatility and flammability cannot be shrugged off. Over decades, I’ve watched safety protocols evolve, from basic solvent handling to advanced monitoring for leaks and vapor. Our plant relies on well-ventilated storage, grounded containers, and regular atmospheric checks for fumes. The stabilized form doesn’t remove the flammability hazard, but it does make storage and transfer safer by minimizing unplanned polymerization and blockage potential in tanks and process lines.
We recommend users keep transfer lines dry and handle the product under an inert gas blanket. Spending a little more on equipment calibration and staff training pays off. Periodic sampling to check inhibitor levels during prolonged storage reveals developing problems before they threaten an entire batch. I’ve seen a few plant operators catch issues early, saving tens of thousands in downtime. These best practices come not just from manuals, but from years of learning what can go wrong and how to keep everyone safe.
Market demands keep evolving. Our engineering teams track both regulatory changes and process innovations hitting the adhesive, packaging, and textile worlds. Requests for even higher purity grades or ultra-low inhibitor levels for specialized syntheses now come more frequently. Each tweak means rethinking part of our process, investing in new equipment, and bringing operating staff up to speed.
We’ve built extra filtration and distillation capacity in response to customer demand for “cleaner” monomer. We’ve integrated real-time chromatographic monitoring in production, not just offline testing. Years ago, too many incidents taught us that a reactive product like vinyl acetate doesn’t forgive minor slips—color changes, unusual odors, or viscosity issues signaled problems that sometimes required full batch recalls. Our newer systems spot these problems before the batch gets out the door.
Clients increasingly require certifications and documentation with every shipment. We constantly undergo site audits and process reviews, opening our doors to technical teams from global adhesive and resin majors. Each audit means an opportunity to share experiences and trade best practices, with many suggestions eventually folded back into our standard operating routines.
Years in this line of work make it clear the industry owes attention to environmental challenges. Vinyl acetate is inherently volatile, so we’ve dedicated significant investment to closed-loop loading, vapor recovery systems, and improved drum cleaning procedures. Spills and fugitive emissions not only hurt the environment—they also signal lost product and threaten worker safety. We adopted advanced leak detection and recovery well before it became a regulatory expectation. Operators who see the benefit in cleaner air and safer storage need to know their chemical supply chain treats the environment with the same seriousness.
Waste minimization extends to inventory management, too. Old, expired stabilized vinyl acetate not only ties up capital but also presents a disposal hazard if not monitored. Our logistics team coordinates closely with customers to avoid overstock and idle barrels, shutting down the old mentality of “just ship a few extra tons for safety.” Precise production planning with a keen eye on shelf-life does a better job protecting both people and the bottom line.
We see ourselves as more than just suppliers. Our job goes beyond meeting a product spec or hitting a purity number—it stretches into ensuring our product allows our clients’ processes and innovations to flourish. Our best partnerships happen when customers share their line performance data, even when things go badly. These shared stories guide every serious improvement we make, from control of trace metals in our process to tailored inhibitor strengths for unique processing trains.
Here’s a real lesson from years of customer partnership: sometimes a small specifications tweak—adjusting inhibitor concentration by a fraction—translates into hours saved during compounding, or a cleaner gel formation at the end of a polymer run. These aren’t adjustments made lightly, but they come from trusting relationships and careful data exchange. A decade ago, these tweaks happened through trial and error; now we base them on real-time digital quality tracking and joint field experiments alongside client engineering teams.
Over the years, producing vinyl acetate [stabilized] from the ground up has given us a clear view of what matters for long-term success. This product’s reliability isn’t just a function of chemical formula but of people, process, and constant attention to detail. Specifications, inhibitor content, and controlled handling aren’t abstract values—they’re the difference between a smooth process and a costly disruption. Through thousands of deliveries and countless collaborative improvements, we’ve learned what works, what wastes time, and how to keep challenging ourselves at every stage.
As new applications for vinyl acetate evolve—biopolymers, specialty coatings, smart materials—we stay ready to adapt from direct line experience. Those planning new investments or thinking about the next generation of adhesives and coatings can look to our records, audits, and outcomes as proof of a product tested not just by the lab, but by years of making, moving, and improving vinyl acetate—always striving for even better standards.
Every bottle, drum, or tanker reflects thousands of hours of learning and dedication, earning the trust of generations of manufacturers. From our team to yours, that’s the promise carried in every drop of stabilized vinyl acetate we deliver.