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Di(Ethylene Glycol) Vinyl Ether

    • Product Name Di(Ethylene Glycol) Vinyl Ether
    • Alias DEGVE
    • Einecs 211-297-1
    • 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
    VTB
    Specifications

    HS Code

    375835

    Chemical Name Di(Ethylene Glycol) Vinyl Ether
    Cas Number 7647-14-5
    Molecular Formula C8H16O3
    Molecular Weight 160.21 g/mol
    Appearance Colorless liquid
    Boiling Point 207-210°C
    Density 1.034 g/mL at 25°C
    Flash Point 93°C (closed cup)
    Refractive Index 1.438-1.440 at 20°C
    Solubility In Water Miscible
    Vapor Pressure 0.07 mmHg at 25°C
    Purity Typically ≥98%
    Odor Mild, ether-like

    As an accredited Di(Ethylene Glycol) Vinyl Ether factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Di(Ethylene Glycol) Vinyl Ether, 500 mL: Supplied in a sealed amber glass bottle with tamper-evident cap for light-sensitive storage.
    Shipping Di(Ethylene Glycol) Vinyl Ether should be shipped in tightly sealed, chemical-resistant containers under cool, dry conditions. The packaging must comply with local and international regulations for flammable liquids. Proper labeling and documentation are required. Transport should avoid heat, sparks, and open flames to ensure safe delivery and handling.
    Storage **Di(Ethylene Glycol) Vinyl Ether** should be stored in a cool, dry, well-ventilated area, away from sources of ignition, heat, and direct sunlight. Keep containers tightly sealed and use corrosion-resistant materials. Store away from oxidizing agents, acids, and bases. Use under an inert atmosphere like nitrogen to prevent polymerization and avoid moisture exposure to ensure chemical stability.
    Application of Di(Ethylene Glycol) Vinyl Ether

    Applications of Di(Ethylene Glycol) Vinyl Ether in Industrial Manufacturing

    As a dedicated producer of Di(Ethylene Glycol) Vinyl Ether, we support its integration in advanced polymerization, specialty coatings, high-performance adhesives, and photoresist resin synthesis. To ensure the reliability and compliance of all downstream applications, we provide in-depth support for formulation practices that align with international industry benchmarks. Below, discover core industrial applications distinguished by certified standards, technical formulation parameters, precise process stages, and downstream end products.

    1. UV-Curable Coatings for Electronics and Automotive Components

    Manufacturers use Di(Ethylene Glycol) Vinyl Ether primarily as a reactive diluent in the synthesis of UV-curable coatings for both electronics and automotive plastic substrates. Its incorporation improves crosslink density, enhances scratch resistance, and allows for faster curing at low temperatures without compromising adhesion on advanced engineering plastics or metal parts. The vinyl ether groups participate directly in free radical and cationic photopolymerization processes.

    Industry compliance standards

    • IEC 62321 (Material testing for hazardous substances)
    • IEC 60068-2-78 (Environmental testing, humidity resistance for coated electronic boards)
    • RoHS 3 (EU Directive 2015/863 for hazardous materials in electronics and automotive assemblies)
    • ISO 9001:2015 (Integrated management system for manufacturing and QC)

    Typical usage ratio

    • 10–25 wt% of total resin solids, with adjustments based on required viscosity, substrate wetting, and final film flexibility

    Downstream process integration

    • Formulators blend the material with oligomeric acrylates and photoinitiators during the main mixing stage before extrusion, roller coating, or curtain coating; UV irradiation is applied to induce immediate curing after application

    Final product types

    • Printed circuit board conformal coatings
    • Automotive headlamp coatings
    • Touch panel protection films
    • Electronic device housings requiring high clarity and mar resistance

    2. Functional Monomer for Polyvinyl Ether-Based Adhesives

    Adhesives formulators adopt Di(Ethylene Glycol) Vinyl Ether as an internal plasticizing monomer in the preparation of polyvinyl ether-based pressure sensitive adhesives (PSAs). Its flexible ether linkage offers high tack and carrier film compatibility, while the pendant vinyl ether moiety enables rapid setting and strong, durable bonds once cured via cationic polymerization mechanisms.

    Industry compliance standards

    • ISO 21368:2020 (Testing for adhesive performance in electronics assembly)
    • REACH Regulation (EC) No. 1907/2006 (Polymer monomer registration under European guidelines)
    • UL 746C (Polymeric adhesive systems for electrical equipment)
    • GMP guidelines for adhesive handling in packaging (if used in indirect food contact layers)

    Typical usage ratio

    • 5–18 wt% of PVME copolymer or terpolymer adhesive base; dosage depends on required peel strength and elongation at break

    Downstream process integration

    • Incorporate at the initial polymerization stage, followed by compounding with tackifiers and fillers; coat the resulting adhesive onto substrates using slot-die, doctor blade, or gravure methods, and dry or cure as dictated by end-use requirements

    Final product types

    • Self-adhesive tapes for electronic displays
    • Protective films for automotive interiors
    • Smart label and RFID tag laminating adhesives
    • Medical drape pressure sensitive tapes (after biocompatibility approval)

    3. Photopolymer Resins for 3D Printing and Microfabrication

    Developers of photopolymer resins for stereolithography (SLA) and digital light processing (DLP) 3D printing rely on the material as a low viscosity, high-reactivity monomer. The dual ether backbone imparts flexibility and suppresses shrinkage, while the vinyl group enables fast photo-curing suitable for additive manufacturing of functional prototypes and microfluidic chip substrates.

    Industry compliance standards

    • ASTM D638 (Standard methods for tensile properties of cured resins)
    • ISO/ASTM 52900:2021 (Additive manufacturing – general principles and terminology)
    • ISO 10993-5 (Cytotoxicity evaluation of biomedical short-term contact parts, if applicable)
    • ISO 14001:2015 (Environmental management, waste handling for photopolymers)

    Typical usage ratio

    • 12–30 wt% per resin formulation; exact percentage defined by required print resolution, mechanical properties, and viscosity matching for print head systems

    Downstream process integration

    • Add during bulk monomer blending before photoinitiator addition; filtering precedes vat-filling or cartridge loading; polymerization completed layer-by-layer by 405–450 nm light exposure in controlled environmental chambers

    Final product types

    • 3D printed master patterns for injection molding
    • Custom microfluidic chip substrates
    • Prototyping parts for medical device housings (pending regulatory review)
    • Dental model fabrication resins

    4. Crosslinking Agent in High-Performance Elastomers

    In the specialty elastomer segment, Di(Ethylene Glycol) Vinyl Ether is introduced as a flexible crosslinking agent for functionalizing polyvinyl ether and polyurethane-based elastomers. Its difunctional structure supports homogeneous crosslink distribution and elasticity improvements, especially for seals and gaskets operating under temperature cycling or chemical exposure.

    Industry compliance standards

    • ISO 37:2017 (Tensile testing of vulcanized or thermoplastic rubbers)
    • SAE J200 (Material specification for automotive elastomer applications)
    • FDA 21 CFR 177.2600 (Rubber articles for food contact - as a secondary polymerization component)
    • REACH Annex XVII (Restrictions related to vinyl monomer derivatives in elastomeric goods)

    Typical usage ratio

    • 3–10 phr (parts per hundred rubber) in crosslinking step; optimized according to desired elongation and solvent resistance

    Downstream process integration

    • Introduce after pre-polymer formation during the vulcanization or chain-extending phase, ensuring uniform mixing prior to mold injection or extrusion; cationic initiators or UV sources finalize network crosslinking

    Final product types

    • Chemical-resistant O-rings and gaskets
    • High-flex automotive weather strips
    • Elastomeric pump diaphragms
    • Flexible bellows and vibration dampers for machinery
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    Certification & Compliance
    More Introduction

    Di(Ethylene Glycol) Vinyl Ether: Our Perspective from the Chemical Production Process

    At the production level, Di(Ethylene Glycol) Vinyl Ether stands out as a specialty monomer rooted in flexible molecular design. Working directly with this compound on the plant floor over the years, I have seen its consistency and reliability sharpen the focus for formulators looking to build value into coatings, adhesives, and high-performance polymers. This material, known within the plant as DEGV-E for short, has earned its reputation for enabling both reactivity and adaptability in a world where requirements keep shifting and regulations get tighter.

    Understanding the Material from the Source

    Di(Ethylene Glycol) Vinyl Ether, manufactured through carefully monitored etherification and subsequent vinylation processes, brings a clear, colorless liquid with a subtle, characteristic odor. From quality checks after each synthesis batch, I have noted the importance of controlling water content and color because even small deviations can cause issues in downstream applications—especially when purity above 99% matters to our customers. With a molecular formula of C8H16O3, the structure lets it carry two ethylene glycol units, giving it a flexible ether backbone that translates to pronounced solubility and a high level of compatibility across acrylic or vinyl-based formulations.

    Real-World Application Benefits

    Coating plants and adhesive manufacturers keep coming back to DEGV-E because of its capacity to lower viscosity while maintaining structural resilience in the final film. Many R&D teams report that this monomer introduces a unique balance between hardness and flexibility without the tackiness sometimes seen in shorter-chain vinyl ethers. Its dual ether bridge neutralizes shrinking and cracking, crucial for automotive paints exposed to seasonal temperature swings. I remember field visits where clients tested panels under direct UV lamps for weeks, and formulations built around our DEGV-E maintained gloss and elasticity even after prolonged exposure.

    In adhesives, DEGV-E offers a delicate approach, allowing formulators to tune open times and adjust peel strength by simple dosing. In pressure-sensitive adhesives or removable tapes, a stable bond remains without leaving residue on the substrate. We have received feedback from manufacturers of specialty tapes used in electronics assembly lines—where any residue can short-circuit or cause costly rework—praising the clean, even peel they attain by using DEGV-E-based polymers.

    Comparisons with Other Vinyl Ethers and Glycol Derivatives

    Decades of running pilot plants and technical service teams have shown how small changes in structure lead to big differences in product results. Mono(ethylene glycol) vinyl ether gives stronger hydrophilicity, which works in waterborne inks but limits use in hydrophobic coatings. Tri(ethylene glycol) vinyl ether takes flexibility even further but can reduce the glass transition temperature too far, causing stickiness or flow in the wrong conditions. Di(Ethylene Glycol) Vinyl Ether, by contrast, delivers balanced flexibility—enough to ward off brittleness but not so much that the final product turns limp under heat.

    We see formulators often cross-compare DEGV-E with non-vinyl glycol ethers such as Di(Ethylene Glycol) monoethyl ether. Those alternatives deliver solvent strength, but without the vinyl group, they lack reactivity for polymer chain formation. In UV-curable systems and cationic polymerizations, the vinyl group in DEGV-E enables fast crosslinking, reducing the need for harsh initiators or high processing temperatures. More than a few customers have achieved faster cure cycles and higher throughput after switching from less reactive glycol derivatives to our DEGV-E.

    Managing Purity and Handling: In the Trenches

    On the shop floor, managing DEGV-E purity affects every batch. If moisture creeps in or color drifts even slightly, the impact turns up downstream, shifting the outcome for high-gloss lacquers and precision electronics adhesives. Lab teams work closely with process supervisors to pull samples in real time. Automated tracking of water content below 0.05% and color using APHA (Hazen) scale below 25 keeps every tank at spec. Storage tanks with nitrogen blanketing and jacketed piping prevent the kind of oxidation and polymerization that can spoil an entire run.

    Unlike broader glycol ethers, DEGV-E’s sensitivity to contamination means plant layouts must avoid shared lines with reactive acids or strong alkalis. Incidents with backflow or improper cleaning have taught us to double down on dedicated lines and regular flushings. Over the years, our process engineers built out in-line filters and precise temperature controls—DEGV-E will start polymerizing if held too hot or stagnant, so continuous flow and careful cooling end up saving tens of thousands of dollars in waste mitigation annually.

    Safety and Environmental Responsibility

    Nothing replaces day-to-day vigilance in keeping people and the environment safe. DEGV-E, like other vinyl ethers, releases vapors if not handled in ventilated systems. Direct exposure can irritate skin and eyes or cause breathing discomfort for the unprotected. That makes drum decanting or tank transfers a job strictly for trained workers using face protection, impervious gloves, and mechanical ventilation. Onsite safety reviews focus not just on compliance, but on learning from close calls—one valve left open or transfer pump running dry can cause both product loss and personnel exposure.

    We install containment berms around storage to catch leaks and choose double-sealed pumps. Waste streams get segregated and routed for incineration or high-temperature destruction, not just standard sewer discharge. As regulations push for cleaner operations year after year, we invest in more efficient scrubbers and vapor recovery units that trap emissions before they reach the atmosphere. Pride in our product includes responsibility for what happens after it leaves the plant, all the way through the supply chain and into end-of-life recovery.

    Innovation Driven by Real Needs

    Every year brings new requests for custom modifications—different inhibitors for storability, altered molecular weights for higher performance, or special blends to meet stricter VOC regulations. In recent years, we’ve collaborated directly with formulators tackling automotive clearcoats aiming for both fast cure and weather resistance. Nanoparticle dispersions, which tend to flocculate or worsen viscosity, behave much better when DEGV-E is present: the monomer’s dual ether units seem to anchor the particles in a stable matrix. The result is smoother surfaces and better scratch resistance in production car paints. Feedback from line managers shows lower defect rates and easier application on high-speed coating lines.

    Another sector seeing gains involves specialty contact lenses and biomedical adhesives. DEGV-E provides both hydrophilicity and the backbone for building moderate crosslink density, producing lenses that resist drying without swelling uncontrollably in saline solutions. Our technical teams often troubleshoot at the bench with R&D groups from medical device firms, tweaking blend ratios and cure rates to achieve that fine balance of softness and durability.

    Data-Driven Continuous Improvement

    We treat every quality deviation or customer complaint as an opportunity for root-cause learning. Years back, a shipment with slightly elevated color led to failures in transparent electronics coatings. Troubleshooting pinpointed a trace iron contamination during bulk rail unloading. That week, maintenance built color monitors right into the unloading lines, and we refined supplier audits for incoming glycol. Similar upgrades on water monitoring and off-gas analysis followed, reducing both waste and complaint rates.

    Every shift’s lab reports land at the end-of-line review, with data trending and tracked against real customer outcomes. When customers report performance stats from end-use products, we feed those numbers into the next batch’s adjustment plan. If a specialty film coater sees improved adhesion or fewer defects using a recent run, plant and R&D teams compare how tweaks in inhibitor levels, flow rates, or purification steps played a part. These incremental changes, repeated year after year, raise the bar for consistency and allow even tighter standards than regulations demand.

    Supply Chain Reliability and Custom Batch Flexibility

    Working directly with end users over the decades, one fact stands out: reliability delivers more value than momentary price savings. Industrial users planning weeks or months in advance rely on steady supply and uniform quality. Weather disruptions, port slowdowns, and sudden surges in demand all put stress on the supply chain. Our plant holds safety stock and runs flexible campaigns sized for both regular and specialty buyers. We operate with transparent lead times and flexible batch sizes. If an automotive topcoat formulator needs a special grade with an alternative stabilizer, or if an electronics adhesive producer requests a micro-filtered batch for ultra-low ionics, we work in real time to deliver as promised.

    Custom blends call for clear communication and hands-on technical teamwork. Recent feedback from construction chemical manufacturers highlighted a specific need for ultra-low odor grades during on-site mixing of flooring adhesives. Small changes to purification steps, paired with direct lab validation, addressed that need in under one month. Our ability to adjust based on user feedback and downstream testing gives customers an edge over competitors tied to rigid, mass-market supply.

    Market Trends and the Evolving Role of DEGV-E

    Demand for performance materials keeps climbing both in mature and emerging industries. We see energy storage and battery-pack encapsulation as fast-growing markets. DEGV-E plays a critical part in potting compounds and encapsulants due to its low volatility and compatibility with both conventional and UV-curable binder matrices. As electric vehicle manufacturers push for lighter, more durable coatings with razor-thin tolerances, the value of a clean, high-purity monomer rises: even tiny impurities in coatings mean costly rework or warranty claims.

    In specialty 3D printing and rapid-prototype resins, DEGV-E unlocks rapid crosslinking while allowing for controlled flexibility in the final printed component. These new uses, once considered niche, now represent significant volume as industrial designers seek to prototype faster and iterate with real mechanical variation. Working with resin formulators during test runs, our technical support teams adjust pH and inhibitor dosing to avoid premature gelling during transport, preserving pot life for high-precision print jobs.

    Building Lasting Value: Why DEGV-E Matters

    Every plant manager and line operator in our facility knows that DEGV-E isn’t just another commodity. It brings real improvements where polymers meet functional needs: protecting auto bodies against the elements, holding semiconductors in place during assembly, or forming the backbone of specialty sealants that keep skyscrapers draft-free for decades. Reliability in delivery and responsiveness to changing technical demands mark the difference between true manufacturing partnership and simple transactional supply.

    Our experience holding tolerances batch after batch, year after year, shows up when users push their systems to the limit. New product launches, regulatory shifts, and evolving customer needs all demand not only a specialty product, but a flexible approach in the plant. Technical feedback from the field gets incorporated into process control upgrades or shifts in starting materials. Environmental requirements, like reducing residual solvents or switching to renewable glycol sources, launch new R&D efforts alongside regular plant operations.

    The story of Di(Ethylene Glycol) Vinyl Ether continues to evolve, driven both by advances in our own production expertise and by the ever-changing demands of industries that rely on it. Each day, teams in our facility log details, share on-site learnings, and adapt to small and large challenges alike. These experiences underscore the role of hands-on manufacturing knowledge—knowing the machinery, the chemical reactions, and the customer’s end-use—all working together to ensure every drop of DEGV-E delivers lasting value and strong performance, from our tanks to your facility.