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Vinyltri(2-Methoxyethoxy)Silane

    • Product Name Vinyltri(2-Methoxyethoxy)Silane
    • Alias A-172
    • Einecs 213-934-0
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
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    Specifications

    HS Code

    518297

    CAS Number 1067-53-4
    Molecular Formula C11H24O5Si
    Molecular Weight 264.39 g/mol
    Appearance Clear colorless to pale yellow liquid
    Boiling Point 285 °C
    Density 1.029 g/cm³ at 25°C
    Flash Point 131 °C
    Refractive Index 1.428-1.432 at 20°C
    Purity Typically ≥98%
    Solubility Hydrolyzes in water; soluble in organic solvents
    Synonyms Vinyltris(2-methoxyethoxy)silane
    EC Number 213-934-0

    As an accredited Vinyltri(2-Methoxyethoxy)Silane factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing 500 mL clear glass bottle, tightly sealed with a screw cap, labeled "Vinyltri(2-Methoxyethoxy)Silane," includes hazard and handling information.
    Shipping Vinyltri(2-Methoxyethoxy)Silane is typically shipped in sealed, corrosion-resistant containers such as HDPE or glass bottles to prevent moisture contact. The containers are labeled according to regulatory requirements and handled as a potentially hazardous chemical, with storage and shipping under cool, dry conditions to ensure safety and product integrity during transit.
    Storage Vinyltri(2-Methoxyethoxy)silane should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from moisture, heat sources, and direct sunlight. It should be kept away from incompatible materials such as oxidizing agents and acids. Proper labeling and secondary containment are recommended to prevent leaks or spills. Always follow relevant local and regulatory guidelines for storage.
    Application of Vinyltri(2-Methoxyethoxy)Silane

    Applications of Vinyltri(2-Methoxyethoxy)Silane in Industrial Manufacturing

    Vinyltri(2-Methoxyethoxy)Silane acts as a functional additive and coupling agent across several advanced manufacturing fields. Our direct integration into production supports critical adhesion, crosslinking, and surface modification steps for leading industrial clients. Below we detail specific downstream applications, technical requirements, and the roles this silane compound serves in each sector.

    1. Crosslinking Agent in Polyethylene Cable Compounds

    In the cable industry, this silane activates crosslinking in polyethylene insulation, particularly for medium and high-voltage cables. Applied in silane crosslinked polyethylene (Si-XLPE) formulations, it reacts with moisture during extrusion or post-processing to form a three-dimensional network, improving thermal stability, mechanical strength, and aging resistance essential for underground and energy transmission systems.

    Industry compliance standards

    • IEC 60502 and IEC 60840 for MV and HV cable insulation materials
    • UL 44 and UL 854 for thermoset polymer insulation
    • RoHS Directive 2011/65/EU for restricted substances
    • ISO 9001 for quality management in compounding

    Typical usage ratio

    • 0.5%–1.5% by weight in polyethylene resin systems
    • Ratio adjusted based on polymer grade and targeted dielectric performance

    Downstream process integration

    • Added during compounding with PE resin, antioxidants, and catalysts
    • Incorporation in twin-screw extruder before pelletizing or direct cable extrusion
    • Moisture-induced crosslinking post-processing step

    Final product types

    • Medium-voltage and high-voltage cable insulation compounds
    • Crosslinked PE cables for power distribution
    • Automotive wiring with heat and chemical resistance
    • Underground transmission cables

    2. Coupling Agent in Glass Fiber Reinforcement for Unsaturated Polyester Resins

    Composite manufacturers use vinyl-functional silanes to enhance the chemical bonding between glass fiber surfaces and thermoset polyester matrices. The reactive silane moiety forms stable covalent links with both the glass fiber surface and the resin phase during pultrusion, molding, or lamination processes, upgrading flexural, tensile, and impact properties. Improved interface adhesion delivers composites with higher mechanical reliability for building, marine, and automotive structures.

    Industry compliance standards

    • ASTM D256 and ASTM D790 for mechanical composite testing
    • EN ISO 527 for tensile properties in fiber-reinforced plastics
    • REACH (EC 1907/2006) compliance for chemical safety
    • EN 10204 for material traceability

    Typical usage ratio

    • 0.2%–0.8% by weight based on glass fiber content
    • Optimized by process type—higher loadings for spray-up, lower for continuous roving

    Downstream process integration

    • Formulator applies as part of glass sizing cocktail during fiber production
    • Alternatively, user pre-treats fiber or introduces directly into resin mix
    • Crosslinks during resin curing with other functional additives

    Final product types

    • Glass fiber reinforced unsaturated polyester laminates
    • Boat hulls, automotive body panels
    • High-strength gratings and structural profiles
    • Industrial tanks and pipes with enhanced chemical resistance

    3. Surface Modifier for Mineral-Filled Polymeric Compounds

    Producers of automotive and electrical plastic parts utilize this silane for the surface functionalization of inorganic fillers such as calcium carbonate, talc, or silica. The surface modification increases dispersibility of fillers in nonpolar polymer matrices and improves compatibility, reducing compounding viscosity and boosting mechanical reinforcement. The increased filler-resin interaction also lowers water uptake and enhances weatherability in filled polypropylene and engineering thermoplastics.

    Industry compliance standards

    • ISO 4892 and ISO 11357 for polymer durability and thermal analysis
    • VDA 278 for volatile emissions in automotive plastic parts
    • ISO/TS 16949 for automotive polymer compounding
    • RoHS and ELV for hazardous substance limits

    Typical usage ratio

    • 0.5%–2.5% by weight based on total filler mass
    • Ratio depends on particle surface area and end-use environment

    Downstream process integration

    • Pre-treatment of mineral fillers via spray or batch coating
    • Integration during masterbatch or direct compounding step
    • Standard twin-screw or high-shear mixers ensure full dispersion

    Final product types

    • Automotive PP and PA6/PA66 parts with mineral loadings
    • Electrical housings and connectors
    • Household appliance enclosures
    • Technical extruded sheets and profiles

    4. Adhesion Promoter in Industrial Sealants for Building Façades

    Sealant formulators employ this vinyl-functional silane in silicone and hybrid polymer (MS polymer) formulations. It reinforces adhesion to inorganic substrates including glass, aluminum, anodized metals, and some painted surfaces. Present at curing interface, silane molecules co-condense to the substrate and the polymer backbone, creating durable, weather-resistant bond lines. This approach is critical for curtain wall, structural glazing, and high-performance building envelope applications demanding compliance with climate cycling and resistance to water ingress.

    Industry compliance standards

    • EN ISO 11600 for building sealants classification
    • ASTM C920 for elastomeric joint sealants
    • ETAG 002 for structural sealant glazing
    • VOC content compliance: LEED v4 and BREEAM

    Typical usage ratio

    • 0.3%–1.2% by weight in base polymer phase
    • Dosage fine-tuned by substrate reactivity and final cure kinetics

    Downstream process integration

    • Direct addition to prepolymer mix or silane-functionalized polymer platforms
    • Participates in moisture or humidity cure step, forming network at interface
    • Inline mixing ensures multi-component systems have uniform silane availability

    Final product types

    • Silicone and hybrid sealants for façade and glazing
    • Curtain wall and structural adhesives
    • Weatherproof window gaskets
    • Expansion joint fillers for infrastructure projects

    5. Primer Component for Waterborne Industrial Coatings

    Waterborne coating producers use this silane to formulate adhesion-promoting primers and tie coats designed for glass, ceramics, and selected metal surfaces. Its vinyl functionality enables efficient co-polymerization during film formation, while the silane group covalently bonds to the substrate, significantly enhancing intercoat adhesion and moisture barrier performance compared to conventional acrylics. Applications include functional coatings for containers, architectural glass, and process equipment requiring repeated cleaning or exposure to harsh environments.

    Industry compliance standards

    • ISO 12944 for protective paint systems
    • ASTM D3359 for adhesion testing
    • REACH registration for coating ingredients
    • Directive 2004/42/EC for industrial VOC limits

    Typical usage ratio

    • 0.2%–1.0% as supplied, relative to total binder solids
    • Level depends on substrate porosity and water exposure conditions

    Downstream process integration

    • Introduced during primer pre-mix with pigments and dispersants
    • Stirred into water or solvent phase before final letdown
    • Film forms via coalescence and crosslinking at curing stage

    Final product types

    • Industrial glass/ceramic primers
    • Waterborne tie coats for container coatings
    • Interior and exterior glass building coatings
    • Hybrid anti-corrosion primers for metal process equipment
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    Certification & Compliance
    More Introduction

    Vinyltri(2-Methoxyethoxy)Silane: Real-World Value from a Proven Manufacturer

    Our Perspective: Introducing Vinyltri(2-Methoxyethoxy)Silane

    Manufacturing chemicals with real-world impact involves much more than blending ingredients or hitting a purity spec. Decades on the plant floor and in the lab make one thing clear—consistent quality and transparency matter as much as the molecule itself. Today, I’m writing from direct experience about Vinyltri(2-Methoxyethoxy)Silane, a specialty silane that’s been earning its keep in a range of industries thanks to both its versatile chemistry and the reliability it brings to formulations.

    What Sets Vinyltri(2-Methoxyethoxy)Silane Apart in the Lab and on the Line

    We produce Vinyltri(2-Methoxyethoxy)Silane under the designation Model A-172ME, where every kilogram is tracked for batch homogeneity and functional performance. The product’s CAS No. is 1067-53-4, and its formula—C11H24O5Si—provides something that isn’t just theoretical. With a molecular weight of 264.39 g/mol, you get a silane that delivers reliable coupling behavior in real manufacturing settings.

    From firsthand observation, the appeal of this silane comes down to its unique alkoxy groups: the tri(2-methoxyethoxy) moiety opens doors to compatibility with waterborne systems without the rapid hydrolysis seen with basic trialkoxysilanes. That translates to actual time and cost saved when prepping resin mixtures, coating blends, or sealant systems. Waterborne or high-humidity environments no longer have to fight with premature gelation or silo wall build-up—a pain point many of us have spent too many hours troubleshooting.

    Specifications Based on What Works

    Our manufacturing process ensures a colorless to pale yellow transparent liquid, generally within a refractive index of 1.425–1.435 and a density in the range of 1.06–1.10 g/cm³ at 25°C. Purity runs above 98%, as checked by GC analysis. Hydrolyzable chloride content stays consistently below 50 ppm—the low figure speaking for itself in terms of compatibility and reduced side reactions. Every detail reflects where formulation meets reality. We’ve seen that minor impurities or uncontrolled water content can bring paint reactors or rubber mixers to a halt, so nothing about this production is left to chance or guesswork.

    Why Vinyltri(2-Methoxyethoxy)Silane Matters for End Users

    In adhesives and sealants, performance hinges on the molecular handshake between mineral surfaces, resins, and fillers. This vinyl-functional silane strengthens that bond. I’ve witnessed off-spec formulations get back on track—often without reformulation—just by switching to a better silane source. Improved adhesion to glass, metal, and inorganic fillers is the direct result. Epoxy and acrylic developers have commented on the long-term stability gains in crosslinking, especially for high-moisture, outdoor, or marine applications. Weathering studies from partner labs bear those anecdotes out: coatings don’t chalk or flake as readily, and sealant seams hold tight even after cyclic freeze-thaw testing.

    Rubber compounding is another place this silane steps away from the pack. We supply grades that blend easily into silica-filled EPDM, NBR, and SBR compounds, enabling that critical filler-polymer interaction. Tire manufacturers report lower rolling resistance and improved wet traction; cable and hose makers gain enhanced mechanical strength at reduced cure times. These aren’t marketing claims—they come right from direct, side-by-side plant trials. It’s not unusual to see fewer off-spec lots and less scrap when Vinyltri(2-Methoxyethoxy)Silane is in the mix, especially compared with older, simpler silanes that struggle under challenging extrusion lines or elevated temperatures.

    Working with the Manufacturer: Implications for Quality and Cost

    End-users often face the gamble of not knowing what’s really in a shipment. As manufacturers, we vouch for every drum’s traceability, retesting periodically even for stock material, not just whatever’s fresh off the reactor. Regular feedback loops with R&D teams and plant managers—often on the customer’s side—help us make practical adjustments. Bulk users avoid downtime from inconsistent batches, and product managers stop hearing complaints about surface compatibility or shelf life.

    Shipping Vinyltri(2-Methoxyethoxy)Silane asks for real attention. We use lined steel drums or HDPE containers, sealed under nitrogen to preempt moisture and oxygen ingress. Silane degradation from careless packaging can wipe out a whole batch of adhesive or composite resin; hard-won experience taught us this lesson years ago. One shortcut—skimping on packaging—can undermine months of downstream work. We don’t take those risks. There’s a reason our overseas and domestic buyers come back: they count on never encountering an unusable drum, and that trust is a direct result of manufacturer-led quality protocols.

    How It Behaves Unlike Other Silanes in Practical Applications

    General-purpose trialkoxysilanes like Vinyltrimethoxysilane deliver fast reactivity—sometimes too fast. For waterborne coating lines or resin emulsions, that speed translates into short pot life and unstable storage. By using 2-methoxyethoxy substituents, this silane offers a measured hydrolysis rate. Blending and application windows stretch comfortably, giving line workers and R&D techs more time to adjust dosages, handle unexpected pH swings, or tweak solvent blends.

    Some manufacturers steer clear of alkoxy silanes altogether based on previous headaches from odor, skin contact, or volatility. Our version of Vinyltri(2-Methoxyethoxy)Silane resolves most of these issues—lower volatility at room temperature means improved worker comfort and less vapor-phase transfer. That means downstream fabrication rooms stay clearer, and there’s less need for constant ventilation tweaks or PPE upgrades. Facility managers appreciate the reduced need to handle hazardous atmosphere alarms, and long-term users report that spill cleanups require less PPE and less downtime.

    Talk to any compounding specialist, and they’ll mention that the nuanced balance between silane structure and resin system matters far more than any glossy brochure can claim. Vinyltri(2-Methoxyethoxy)Silane’s blend of reactivity and stability bridges stubborn divides where some silanes just don’t deliver—particularly for hybrid adhesive systems or waterborne construction sealants. It prevents compatibility snags that derail deadlines, which makes life easier for process engineers and reduces the risk of entire batches being tossed for failing adhesion requirements.

    Manufacturing Process: Transparency from Start to Finish

    We begin with high-purity vinylchlorosilane and react it with carefully metered 2-methoxyethanol under anhydrous conditions, using proprietary purification steps to weed out trace contaminants. Inline GC and NMR monitoring back up every blend; deviations trigger automatic lockdowns to keep subpar material from reaching storage tanks. Plant habit builds real resilience, and every process technician knows the shortcutting risks—from catalyst breakdown to ignition hazards—if trace impurities are left unchecked. Quality isn’t just a slogan on a wall chart—it’s visible in every test report handed over at shipment, reviewed personally by both batch manager and QC head.

    Meeting Tough Standards Without Cutting Corners

    Making high-performance silane is more than making numbers line up in QC spreadsheets. We engage with external audits from major resin and sealant firms, opening up our plant documentation to direct inspection. We’ve rebuilt part of our synthesis line to eliminate risk of cross-contamination with amine-functional silanes, based directly on client feedback from a lost-shipment incident six years ago. Problems turn into process improvements—for our customers and ourselves. We factor in the experience of warehouse crew, shippers, and bulk transfer experts because we’ve lost time and money ignoring their advice, too.

    Industry standards for adhesives and coatings increase every year, especially with growing attention to environmental and workplace health requirements. Vinyltri(2-Methoxyethoxy)Silane finds a fit with these changing regulations, since it offers lower VOC contribution and avoids a handful of regulated impurities tied to older silane types. Project managers and procurement leaders using our product for the first time often highlight the predictable performance that cuts down on re-testing and re-qualification work, freeing tech teams for innovation instead of routine troubleshooting.

    Supporting Customers Beyond the Purchase Order

    Customers still call us when a new resin blend or composite part isn’t up to spec, even if our silane is just one small ingredient. Our technical support team comes straight from plant-floor backgrounds and knows the practical value of troubleshooting over the phone, swapping out a tank valve, or reviewing viscosity charts together. We’ve flown out staff to work alongside client engineers after a batch of sealant failed environmental aging in the field. Failures aren’t swept under the rug—they’re used to sharpen both process and product design, and every improvement cycles back into the next production run.

    Scale-up matters, too. Vinyltri(2-Methoxyethoxy)Silane that behaves perfectly in a 2-liter beaker sometimes misbehaves in a 2,000-liter mixer. We routinely assist in transition from bench-top to full-scale, sharing practical advice about dosing pumps, pre-blending protocols, and storage requirements that only come from years on the job. It takes more time, but cutting down trial-and-error cycles at our customer’s facility always pays back through reduced downtime and waste. Working with the actual producer, not a faceless broker, gives downstream users answers that align with their day-to-day workflow and feedback cycles.

    Comparing Vinyltri(2-Methoxyethoxy)Silane to Other Silicone Coupling Agents

    Silanes with ethoxy, methoxy, or isopropoxy groups each approach reactive surfaces differently. Feedback from customers regularly highlights Vinyltri(2-Methoxyethoxy)Silane’s balanced hydrolysis profile—neither too slow nor explosively reactive. It fits waterborne and solventborne systems that sit on the edge between long pot life and rapid cure. This helps compounders manage inventory and prep times with less stress, as the extended open time matches real-world production cycles instead of textbook schedules.

    Some project teams have swapped out older short-chain silanes because of persistent yellowing or phase separation in high-resin weight formulations. The bulk of those issues vanish with Vinyltri(2-Methoxyethoxy)Silane, as fresher, cleaner production routes mean little risk of discoloration or visible product drift. We’ve found that in high-throughput urethane or acrylic lines, it’s the small headaches—like stringing at the nozzle, pitting on the final coat, or faint sulfur odors—that mark problematic silane choices. Our product helps clients sidestep those pitfalls and smooth the path from R&D to retail packaging.

    The Real Impact: Feedback from the Field

    We’ve learned to pay attention to hands-on feedback—paint crews blocking off a failed batch due to poor mixing; field installers reporting easier clean-up and stronger seals with our product; QA teams logging fewer issues with shelf life or reactivity. A large flooring supplier documented a 40% drop in adhesive complaints over a six-month rollout using our silane versus their previous blend. A European wire manufacturer reported consistent mechanical strength in cable jacketing, cutting their rework costs for two consecutive quarters. These aren’t isolated wins—they’re a reflection of process choices, customer collaboration, and the steady drive toward minimizing production hiccups at every scale.

    Staying Ahead: Evolving Production and Customer Support

    Every year brings new demands from industry partners, whether it’s improved labeling, UN-certified shipping drums, or trace impurity data tied to local compliance laws. We maintain an in-house testing protocol, renewing certifications as needed. Our on-site analytics team works in parallel with customers’ own QC labs, sharing methods and aligning on measurement standards. Sharing standards, not just numbers, means each new facility rollout goes smoother and faster, with fewer surprises along the way.

    We keep building redundancy into our logistics too, ensuring that surge orders or customs delays don’t disrupt manufacturing. If a customer needs a last-minute railcar switch or expedited sample batch for pilot testing, we step up. Decades servicing adhesives and coatings producers have sharpened our approach to include practical partnerships, where we actively support scale-up trials or regulatory updates.

    Looking Forward: Continuous Improvement from the Plant Up

    Vinyltri(2-Methoxyethoxy)Silane stays in demand not through static specifications, but through ongoing upgrades in both process and application support. We invest in greener synthesis routes, reducing waste output and improving energy efficiency batch by batch. That means not just checking boxes for environmental audits, but lowering long-term operating costs for both our plant and our downstream users.

    By working directly with raw material sources, we’ve secured stable supply chains for core precursors, avoiding the volatility and delays often experienced by third-party traders. Quality silane isn’t just about today’s shipment; it’s about ongoing reliability years down the line, especially for large-scale producers in the automotive, construction, and electronics sectors where process breaks can be catastrophic.

    It’s not just the molecule, but the production experience, real-world feedback, and technical support behind it that separates our Vinyltri(2-Methoxyethoxy)Silane from alternatives. Industry relies on more than specs—it depends on certainty, clear communication, and lessons learned through direct involvement. Every drum shipped carries with it a history of corrections, improvements, and partnerships built for the long haul.

    Experience Beyond the Drum: Conclusion from the Manufacturer

    Vinyltri(2-Methoxyethoxy)Silane has earned its place as a go-to coupling agent thanks to its track record in demanding applications. Behind each kilogram stands a team that has worked through breakdowns, reworked processes, and listened closely to the needs of partners on every continent. As manufacturers who live and breathe these challenges and solutions every day, we believe that supporting innovation, improving safety, and strengthening performance starts at the production line—and continues straight through to the customer’s plant, warehouse, and end-use site.