|
HS Code |
980362 |
| Product Name | Epoxidized Soybean Acrylate SM6103 |
| Appearance | Light yellow transparent liquid |
| Viscosity 25c Mpa S | 5000-8000 |
| Acid Value Mgkoh G | <1.0 |
| Epoxy Value Eq 100g | 0.05-0.08 |
| Acrylate Value Eq 100g | 0.3-0.5 |
| Density 25c G Cm3 | 1.05-1.10 |
| Refractive Index 25c | 1.470-1.480 |
| Curing Type | UV or Electron Beam |
| Solid Content Percent | 100 |
| Functionality | Multi-functional monomer |
As an accredited Epoxidized Soybean Acrylate SM6103 factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Epoxidized Soybean Acrylate SM6103 is packaged in 25 kg net weight blue plastic drums, securely sealed for safe handling. |
| Container Loading (20′ FCL) | Epoxidized Soybean Acrylate SM6103 is loaded in a 20′ FCL, typically accommodating 16–18 metric tons in secure HDPE drums. |
| Shipping | Epoxidized Soybean Acrylate SM6103 is shipped in sealed, chemical-resistant containers—typically 200 kg drums or 1,000 kg IBC totes—to prevent contamination and moisture ingress. Transport should comply with local regulations for non-hazardous chemicals, ensuring cool, ventilated conditions away from sunlight and ignition sources. Handle with appropriate protective equipment. |
| Storage | Epoxidized Soybean Acrylate SM6103 should be stored in a cool, dry, and well-ventilated area, away from direct sunlight, heat, and sources of ignition. Keep containers tightly sealed to prevent contamination and moisture ingress. Avoid contact with incompatible materials such as strong acids, bases, and oxidizing agents. Storage temperature should ideally be between 5°C and 30°C for maximum stability. |
| Shelf Life | Shelf life of Epoxidized Soybean Acrylate SM6103 is typically 12 months when stored in a cool, dry, and sealed container. |
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Purity: Epoxidized Soybean Acrylate SM6103 with 98% purity is used in UV-curable coatings, where it ensures high gloss and excellent chemical resistance. Viscosity: Epoxidized Soybean Acrylate SM6103 with low viscosity (600 mPa·s) is used in inkjet printing formulations, where it improves printability and flow characteristics. Molecular Weight: Epoxidized Soybean Acrylate SM6103 with a molecular weight of 1,200 g/mol is used in adhesives, where it enhances molecular cohesion and bonding strength. Acid Value: Epoxidized Soybean Acrylate SM6103 with an acid value below 5 mg KOH/g is used in electronic encapsulation, where it minimizes ionic impurity and increases dielectric reliability. Stability Temperature: Epoxidized Soybean Acrylate SM6103 with stability up to 120°C is used in automotive coatings, where it maintains crosslink density and durability under thermal stress. Refractive Index: Epoxidized Soybean Acrylate SM6103 with a refractive index of 1.48 is used in optical fiber coatings, where it delivers optimal light transmission and clarity. Epoxy Value: Epoxidized Soybean Acrylate SM6103 with an epoxy value of 0.45 eq/100g is used in composite laminates, where it provides enhanced mechanical properties and surface hardness. Solid Content: Epoxidized Soybean Acrylate SM6103 with a solid content of 99% is used in 3D printing resins, where it ensures rapid curing and high dimensional stability. Residual Monomer: Epoxidized Soybean Acrylate SM6103 with residual monomer content below 0.5% is used in medical device coatings, where it reduces extractables and improves biocompatibility. Tg (Glass Transition Temperature): Epoxidized Soybean Acrylate SM6103 with a Tg of 55°C is used in industrial flooring systems, where it provides excellent abrasion resistance and wear life. |
Competitive Epoxidized Soybean Acrylate SM6103 prices that fit your budget—flexible terms and customized quotes for every order.
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From day one in chemical manufacturing, we’ve put our energy into building materials that keep up with the market’s honest demand for better, cleaner, and more effective solutions. Epoxidized Soybean Acrylate SM6103 stands out among these efforts. Unlike common resins, SM6103 brings together renewable resources and robust performance, drawing directly from soybean oil derivatives and the advanced science of acrylate chemistry. Over years spent scaling and tweaking our processes, we’ve learned efficiency in production isn’t worth much without real benefits to users. SM6103 emerged after years of striving for a balance between technical rigor and practical usability. This isn’t a version quickly pieced together. We looked closely at what manufacturers, printers, and coating specialists encountered—cost control, operation speed, lower odor, durable film formation, and easier compliance—and developed SM6103 to take these needs seriously.
SM6103 grew out of a desire to move beyond petroleum-based acrylates. Sourcing epoxidized soybean oil offers advantages right from the raw materials. Soybeans provide a stable, renewable feedstock. Epoxidation introduces oxirane groups that strengthen chemical resistance and build better crosslinking during curing. Grafting acrylate functionalities onto the oil backbone, our chemistry team developed a liquid resin with a clear appearance, manageable viscosity, stable shelf life, and consistent functional group content. Every batch is produced under direct supervision, not only to safeguard product integrity, but also to ensure traceability. Our crew maintains strict monitoring of each processing step, from soybean oil epoxidation through acrylation, filtration, degassing, and final packaging. If a process fails inspection, the lot doesn’t proceed. This approach has lowered the number of out-of-spec shipments and fostered trust with factories using SM6103 as a core ingredient.
Manufacturing a specialty resin means fielding a steady stream of questions from customers, applicators, and line operators. SM6103 faces real-world scrutiny, especially around UV-curable systems, offset printing inks, flexible packaging coatings, and high-gloss varnishes. Operators need a resin that runs cleanly on equipment, resists yellowing, and forms a tough cured film without excessive brittleness. We get feedback from printing plants where lighter viscosity resins can flow too far or lift from non-porous surfaces, causing rework and production losses. SM6103’s viscosity profile helps formations remain in place, reducing dot gain and maintaining edge definition on fast presses. Chemically, the backbone’s structure resists saponification and hydrolysis during storage and actual use—performance metrics some competitors gloss over. We see advantages in both low-odor operations and reduced VOC emissions, which benefit operators and meet tighter workplace safety requirements. Customers looking for coatings without a greasy or sticky residual feel after curing notice the clear benefit that SM6103 brings over less-refined options.
Our team built SM6103 to plug directly into the demanding environments of industrial printers, flooring topcoats, and adhesive blending rooms. The hydroxyl and epoxy functional sites create strong ties with various coreactants. We consistently observe high reactivity under standard UV lamps, allowing fast curing speeds. Test panels from our piloting runs demonstrate scratch resistance and gloss retention after weeks of exposure to sunlight or industrial cleaning agents. We’ve listened closely during pilot production outside the laboratory. The resin pours smoothly, disperses well into oligomeric matrices, and won’t develop haze or separation in composite formulations—the kind of day-to-day performance that matters for efficiency and cost containment.
One frequent question from customers centers on odor. In production, SM6103 emits lower natural odor than petroleum-derived acrylates. Application teams appreciate that workers can spend hours near curing lines without exposing themselves to harsh smells. This isn’t just a convenience—it helps companies adhere to stricter occupational safety limits on volatile compounds. The bio-based composition also streamlines compliance with various eco-labels and regulatory directives, a rising priority in both export and domestic markets.
From the early days, we’d compare every new batch of SM6103 with industry benchmarks like bisphenol-A-based epoxy acrylates, which have dominated for decades. Those resins provide excellent hardness and adhesion but come with environmental baggage and public scrutiny over BPA content. SM6103 shows a much lower tendency toward migration and BPA contamination, helping packaging producers meet updated food-contact standards and win over brands eager to ‘green’ their supply chains.
We’ve also run analyses against first-generation soybean acrylates. Some of these products lack epoxy modification or provide lower acrylate density, resulting in soft, tacky, or slow-curing coatings that don’t survive repeated handling. SM6103’s advanced acrylation step means stronger network formation and more robust finished films. Viscosity is honed for pumpability, avoiding the headaches of excessive thinning or thixotropy management in automated blending. We keep an eye on color indexes after high-temperature processing, ensuring finished products maintain clarity or desired hue without drifting batch-to-batch—a real concern with earlier soy-based models.
Years of collaboration with downstream factories demonstrated that SM6103 brings flexibility across surprising sectors. Offset and flexo printers report smoother impression transfer with less build-up on plates and rollers, which drives longer maintenance cycles and fewer misprints. In the flooring sector, SM6103 delivers hard, glossy finishes with low yellowing even after months of foot traffic and exposure to cleaning agents. Adhesive formulators take advantage of easy blending and compatibility, reporting higher tack strength and improved resistance to water whitening, especially in labels for beverages and refrigerated goods.
Our work with coating engineers in wood panel manufacturing taught us that quick curing and high crosslink density are critical for scratch and chemical resistance. SM6103’s formed film survives abrasion tests where other soybean acrylates degrade or form microcracks. This result gives wooden furniture and flooring makers a way to meet consumer durability standards without reverting to oil-based varnishes. We trace a lot of success back to direct plant engagement—site visits and troubleshooting in the field often unearth quirks or problems that don’t appear in the laboratory. These relationships sharpen our product further and feed innovations for future generations of acrylate resins.
Bio-based acrylates have caught lots of attention in recent years, but technical constraints sometimes slowed wider adoption. Early epoxidized soybean acrylates ran into problems—slow curing rates, vulnerability to yellowing, and batch color drift invited skepticism among operators who valued consistency above all. Some grades, even from respected suppliers, returned higher acid values than expected, which risked unwanted reactions or stability concerns in UV-curable or reactive hotmelt formulations.
Our approach with SM6103 grew from direct feedback. Chemists in our process labs dug into the math and managed the epoxidation so we could consistently produce oxirane values in target ranges, locking down the molecular structure for a repeatable cure profile. During scale-up, we cut back color drift and honed acid value control, reducing surprises for plant managers and downstream blenders. The improvement shows up in customers’ lines: they see reduced time dialing in process parameters, lower scrap rates, and fewer surprises in QC testing, whether for a clear coating or a pigmented topcoat.
Nobody wants to get tripped up by new regulations halfway through a production chore. SM6103 brings peace of mind with its low-VOC output and the absence of regulatory ‘red-flag’ chemicals. Many print and packaging clients need to comply with regional eco-labeling—whether for health, food safety, or environmental impact. We manufacture SM6103 under documentation protocols that enable clean record-keeping and easy traceability. This means faster turnaround for paperwork and fewer hold-ups with customs and auditing teams.
This transparency, built into our routine, doesn’t slow us down. We’ve equipped the factory with in-line sensors and tracked inventory lots so that any question about origin, contamination risk, or performance metrics can be answered without hesitation. Our process chemists handle recognition under international norms and partner with clients to support their own supplier audits. Direct cooperation with customers’ technical teams means the resin meets regulatory and performance objectives as understood on the shop floor—not just on paper.
Over the years, we’ve seen the headaches that come with trying to work a new material into a running production system. Hidden incompatibilities, odd viscosity spikes, or chemical surprises throw off schedules and erode trust. SM6103 was tested not only in our own labs but also in real industrial equipment for blending, coating, and rapid-cure cycles. We insisted on field trials at busy plants before moving to commercial introduction. Resin delivered in drums or totes must match expected flow and handling properties, not just pass lab-based standards.
We see SM6103 poured straight into mixing tanks for UV ink, blended with other oligomers for high-speed line coatings, and used as a modifier for adhesives in bottle labeling systems. Even as production volumes grow, we keep the quality control protocols from our earliest days intact. Monitoring every step preserves the lived knowledge base that underpins large-scale production and reassures plant managers that this lot won’t surprise them with shifts in behavior or lose time in expensive do-overs.
No matter how ‘green’ or innovative a resin looks on paper, anyone running a factory cares about dollars and downtime. SM6103 delivers value by reducing spoilage and downtime linked to underperforming raw materials, and by enabling faster transitions between lots. Thanks to its bio-based sourcing, this resin is less sensitive to price fluctuations in crude oil derivatives, which steady procurement budgets and cushion against shocks in global petrochemical supply chains. Customers also benefit from less hazardous waste disposal and lower protection costs for workers, which add up on a yearly basis.
We regularly hear from clients that the reduction in odor during processing and curing means staff turnover rates drop and line reassignments become less common—an unexpected win for job satisfaction on the shop floor. Keeping chemical exposure lower with SM6103 slashes PPE expenses and simplifies compliance documentation, helping lean operations focus on more productive tasks than chasing reports or complaints. In sectors where eco-labeling leads to higher contract acceptance, using SM6103 delivers tangible wins in securing new business.
Sourcing feedback and tracking real-world performance shape our work as much as any textbook or research trend. We log adhesive properties, hardness, flexibility, and post-cure clarity after factory trial runs, using this data to refine and improve each production cycle. For every new production setup or change in input quality, our technical team adjusts and confirms process conditions. If an application demands a tweak—say, slightly higher crosslink density for a demanding automotive panel finish—we work closely with the partner to dial in the recipe and meet their standards.
Staying close to end-users ensures no disruption slips through the cracks. If a shift in soybean oil quality occurs, we adjust process variables on-the-fly, drawing on years of accumulated plant knowledge rather than relying strictly on lab results. This agility means SM6103 can serve both innovators chasing the next high-performance eco-coating and established firms needing reliability above all.
We see a growing shift toward sustainable, high-performance ingredients that must also compete on cost and reliability, not just marketing appeal. SM6103 shows how well-designed plant-based chemistry meets these needs. With every batch, our crew commits to the same diligence as during the first production runs: checking, checking again, and not shipping a drop unless it meets real user expectations. This is only possible because of the close relationships built over years with coating engineers, press operators, and plant managers who know what it takes to keep lines running.
There’s plenty of noise in the market for ‘bio-derived’ and ‘low-VOC’ products, but SM6103 doesn’t ride on claims alone. The performance, consistency, and production know-how give it enduring value. Direct experience and ongoing engagement at the plant level shape our decisions and drive both trust and success for customers—qualities that marketing alone can never substitute.
| Feature | SM6103 | Traditional Epoxy Acrylates | Standard Soybean Acrylates |
|---|---|---|---|
| Raw Material Base | Soybean Oil, Bio-Based | Petrochemical, BPA-derived | Soybean Oil, Variable |
| Odor Profile | Low | Moderate/High | Moderate |
| Film Toughness | Strong, Scratch Resistant | Very Strong, Sometimes Brittle | Softer, Less Durable |
| VOC Content | Minimal | Variable | Minimal |
| Suitability (Inks, Coatings, Adhesives) | High | High | Limited |
| Regulatory Compliance | Straightforward | Contingent on BPA content | May Vary |
As the manufacturer, we take pride in every drum and every drop of Epoxidized Soybean Acrylate SM6103 that leaves our plant. Decades of hands-on experience and ongoing dialogue with those who use it every day remain the backbone of our approach. SM6103 stands as a testament to the possibility—and necessity—of combining sustainable sourcing, technical performance, and production dependability. For those ready to meet future challenges with proven solutions, SM6103 shows how a truly modern resin can become part of this new industrial story.