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HS Code |
694600 |
| Cas Number | 106-92-3 |
| Molecular Formula | C6H10O2 |
| Molecular Weight | 114.15 g/mol |
| Appearance | Colorless liquid |
| Odor | Ether-like |
| Density | 0.978 g/cm3 at 20°C |
| Boiling Point | 156-158°C |
| Melting Point | -85°C |
| Flash Point | 49°C (closed cup) |
| Solubility In Water | Slightly soluble |
| Refractive Index | 1.432 at 20°C |
| Vapor Pressure | 2.3 mmHg at 20°C |
As an accredited Allyl Glycidyl Ether factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Allyl Glycidyl Ether is packaged in a 200-liter blue HDPE drum with secure screw cap, featuring hazard labeling and handling instructions. |
| Shipping | Allyl Glycidyl Ether should be shipped in tightly sealed, corrosion-resistant containers, protected from heat, sparks, and open flames. It must be labeled as a flammable liquid and handled according to applicable transport regulations (e.g., UN 2920). Ensure proper ventilation, and segregate from oxidizers, acids, and ignition sources during transit. |
| Storage | Allyl Glycidyl Ether should be stored in a cool, dry, well-ventilated area away from heat, ignition sources, and direct sunlight. Keep the container tightly closed and isolated from acids, oxidizing agents, and strong bases. Use corrosion-resistant containers. Store under inert gas, if possible, to prevent moisture absorption and polymerization. Properly label and ground all containers to prevent static discharge. |
Applications of Allyl Glycidyl Ether in Industrial ManufacturingAllyl Glycidyl Ether (AGE) serves as a critical monomer and reactive diluent in numerous advanced material manufacturing sectors. As a direct manufacturer, we supply industrial users with high-purity AGE that supports enhanced process control, precise formulation, and compliance with demanding quality systems across diverse downstream production environments. 1. Epoxy Resin Modification for Electrical LaminatesElectrical laminate producers utilize AGE to modify the structure and flexibility of epoxy resins. Introducing AGE into the resin system lowers viscosity and provides targeted control over crosslink density, which in turn improves processing and final laminate electrical insulation performance. AGE’s epoxide and allyl reactive sites allow precise control of molecular architecture—essential for the reliability required in PCB base materials and high-performance copper clad laminates. Industry compliance standards
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2. Specialty Elastomer Synthesis for High-Performance RubberAGE is a key reactive monomer in the synthesis of specialty elastomers, especially epoxidized and allylic rubber types for automotive and industrial sealing applications. Introducing AGE into copolymerization improves oil and chemical resistance while maintaining processability. Its epoxide group participates in crosslinking during vulcanization, imparting high strength and durability to the final rubber compound, critical for seals, gaskets, and hoses exposed to harsh environments. Industry compliance standards
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3. Reactive Diluent for High-Solids Industrial CoatingsIndustrial coatings manufacturers rely on AGE as a reactive diluent when formulating high-solids or solvent-free epoxy and urethane coatings. Its dual functionality allows it to reduce overall viscosity without introducing volatile solvents, facilitating higher pigment loadings, improved flow, and reduced VOC emissions in finished coatings. AGE reacts into the cured network, ensuring mechanical integrity and limiting leachable extractables, critical for barrier coatings and corrosion protection in heavy industry and infrastructure. Industry compliance standards
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4. Intermediate in Ion Exchange Resin ProductionProducers of ion exchange resins use AGE to functionalize polymer backbones, introducing epoxide and allyl groups that allow further reactions to anchor quaternary amines and sulfonic acid sites. This tailored functionalization is crucial for tuning ion selectivity, capacity, and resistance to fouling in ultrapure water preparation, food processing, and pharmaceutical separations. The manufacturing process demands high-purity AGE to ensure batch-to-batch consistency, leachables control, and reliable downstream reactivity during resin bead formation. Industry compliance standards
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5. Crosslinking Agent in Cationic UV-Curing OligomersManufacturers of UV-curable adhesives and coatings leverage AGE as a functional crosslinker in cationic polymerization systems. The high reactivity of the epoxide group enables rapid curing under UV exposure, producing dense, tack-free films with excellent adhesion and low migration. The unique structure of AGE provides flexibility during design of oligomer backbone, allowing fine-tuning of hardness, flexibility, and chemical resistance for high-value electronics coatings and precision adhesives. Industry compliance standards
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6. Precursor for Advanced Polyol Synthesis in Polyurethane SystemsPolyurethane producers synthesize advanced polyols using AGE as a building block, introducing epoxide and allyl groups to control hydroxyl functionality. This modification allows tailored reactivity with isocyanates, improved crosslinking, and resistance to hydrolysis, critical for high-performance foams, elastomers, and castable parts in transportation and industrial environments. The unique backbone generated with AGE enables fine-tuning of product density, compressive strength, and long-term aging properties for demanding end uses. Industry compliance standards
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In the ever-evolving chemical industry, the choice of raw materials shapes the quality of finished goods. Our history with Allyl Glycidyl Ether (AGE) runs deep; we have relied on our own capabilities and R&D to refine each batch directly from our facility floor. As a genuine manufacturer, the material, batch after batch, comes straight from our reactors under strict control. Over the years, we have distilled hard lessons from daily production and built our knowledge on what gives this compound its coveted functional versatility.
Allyl Glycidyl Ether is chiefly recognized for its combination of both an allyl and an epoxide group. Our regular product, known under the model number AGE-99, contains over 99% purity with water content typically under 0.1%. Consistent purity in this range is not a goal on paper but a practical advantage. We learned this after fielding calls from downstream operations over minor impurities disrupting their polymerizations or coatings. Even slight contamination drives up scrap rates and wastes resources. We keep viscosity at close range so that transfer and dosing work as customers expect. Each lot receives verification on GC for purity and IR for key functional groups, just as we promised our downstream partners.
Looking at its uses, every gram of AGE represents hundreds of small adjustments in our reactors and columns. Most of our clients run it as a reactive diluent or for chain extension. In epoxy resins, AGE introduces flexibility into the cured product because the allyl group resists crosslinking under usual conditions, giving coatings a usable combination of toughness and elasticity. Manufacturers in electronics take advantage of this property for potting compounds that handle constant thermal cycling.
Waterborne resins see a lift from AGE because its structure offers both reactivity and solubility control. We have seen success stories where a slightly higher AGE addition lowered viscosity without wrecking film formation. In some alkyds and polyols, AGE brings an added handle for further functionalization—our clients in these areas often return for technical discussions after trials because not all ethers behave equally in demanding formulations.
A lot of technical documents list Allyl Glycidyl Ether next to other glycidyl ethers like BGE (butyl glycidyl ether) or PGE (phenyl glycidyl ether). We have handled all three in the same facility. Their reactivity, volatility, and handling hazards stand apart in real production. Compared to BGE, AGE sports a longer vapor retention time, making it easier to handle at modest reactor temperatures with less loss through evaporation. Formulators aiming for reduced toxicity also take note: AGE rates lower on several regulatory scores compared to its higher aromatic cousins, making local compliance easier.
Chemical reactivity also draws a clear line. The allyl group in AGE slows down uncontrolled side reactions, helping operators manage curing windows. In potting and encapsulation, we’ve had fewer customer complaints about gel times getting out of hand with our AGE than with fast-acting glycidyls. That reliability wins loyalty from midsized electrical equipment makers who value predictable cycle times.
Side-by-side with epichlorohydrin derivatives, AGE gives a clear edge in formulations requiring enduring UV stability, especially in optical resins. Compared to PGE, the absence of aromatic content cuts down on discoloration after exposure to UV light—something our partners in lens casting and LED encapsulation appreciate.
As a factory-based producer, we meet regulations head-on every day. Our people handle AGE in atmospheric and full control setups. The exothermic nature of its polymerization means the margin for error stays narrow. We actively limit operator exposure with containment and maintain sub-ppm emissions. Actual accident and incident logs keep us grounded—every improvement raises operational comfort for our shift teams.
In wastewater and vent streams, AGE shows moderate degradability. We keep up with regional discharge limits not just as a check box but because the cumulative effect matters. Authorities visit our plant, audit records, check monitoring logs, and test the limits—downstream water balances confirm our in-house systems keep residual organics well within local requirements.
Our decades of production have shown which specifications translate best into field performance. Average viscosity, color (Gardner scale), and purity each play into what the user can achieve down the line. A batch of AGE with off-spec color or slight by-product content led to downstream discoloration or higher curing exotherms—customers sometimes lose entire lots before tracing the root cause to their monomer shipment. We treat every tank as destined for a critical application.
Electronics encapsulation lines running in three shifts need AGE that shows reliable cure performance and leaves no streaks or voids, even after storage. Adhesive formulators call back about odor and final product transparency, pushing us to further narrow tolerances on sulfur content and aldehyde impurities. Decades of feedback form the backbone of why we dial in specs the way we do.
The global logistics behind chemical feedstocks keep every real producer working round-the-clock. Distributors and traders can trade stories, but running a reactor when power flickers or a raw supplier misses a barge, a manufacturer feels the heat. Reliability means having production crews and R&D support onsite to fix a quality drift. We overhaul our reactors, automate control valves, and test samples day in, day out.
One year, upstream shortages squeezed the industry and a wave of substandard glycidyl ethers hit the market. Downstream audits flagged multiple failures in compliance and performance. Clients with open lines to our team secured allocations of pure AGE, all traceable from batch to batch. That experience showed the tangible difference of working with chemical manufacturers who commit resources right through to product delivery.
A product like Allyl Glycidyl Ether demands technical know-how at every stage. We routinely host formulation workshops and technical Q&A with users—formulators count on our knowledge, especially when pushing for new formulations in adhesives, floorings, or coatings.
Our lab team tested alternative dosages on epoxy-AGE ratios and tracked the performance in mechanical, chemical, and heat-resistance properties. The right purity and moisture readings make the difference between a formula that scales from lab to demo line or fails after a few months on the shelf. For customers scaling up, our technical staff shares mixing tips, storage best practices, and reaction troubleshooting based on firsthand plant records, not theory.
Not every batch comes out perfect the first time; we spot patterns in plant data, following root causes of side-products or color drifts back to catalyst charge, feedstock variation, or column packing. We raise alarms, redirect batches, and fine-tune process points. These aren’t abstract improvements. Years ago, careful process upgrades let us drop dioxane formation levels below competitive standards. The result: AGE that sails through approvals even at progressive downstream users.
Sometimes a customer needs higher functionality, so we run custom purifications and share the data from pilot to full scale. All changes are tracked and validated in our QA system, guided by lived knowledge—not just a spec sheet.
Modern manufacturing must limit environmental footprint or face both regulatory and moral consequences. We recover process heat, treat vent gases, and invest yearly in upgrades to cut waste off at the source. This isn’t window dressing; improved yields mean lower cost and less impact for everyone down the chain. In regions with stricter EHS requirements, we structured our operations to maintain fault tolerance and continuous improvement, with regular engagement by outside experts and regulatory bodies.
Foresight on restrictions guides product planning. As legislation evolves, our plant pivots quickly, always looking to reduce volatile organic compounds and hazardous byproducts before they become concerns for the entire value chain. Tech teams inside our own walls help users pre-adapt formulas to new rules or industry certifications.
After years serving a cross-section of industries—coatings, adhesives, composites—the demand shifts with regulation, end-use innovation, and regional trends. Electric vehicle adoption, 5G hardware, and sustainable building materials all look for higher-performance monomers. More buyers ask for digital proof of origin. Only a manufacturer with integrated traceability, lot history, and transparent reporting earns those business relationships in the long term.
We equip our AGE supply with full batch history, test data, and logistics documentation so our customers stand up to their own audits. Every drum links back to a defined production date, raw material lot, and test report.
Every technical sales call follows similar patterns at the outset. Clients ask how AGE impacts final film hardness or stability in crosslinked systems. We walk through the effect on glass transition temperatures and aging resistance, drawing on field data and in-house labs. Others want guidance on compatibility with latent hardeners, pigment dispersions, and solvent blends—our chemists advise based on what we have run, not just theoretical values.
More advanced queries touch on side reactions, such as homopolymerization under elevated temps or potential odor development. We share experience from actual storage and aging cycles conducted at the plant, setting realistic expectations and giving concrete process adjustments. This knowledge breaks the trial-and-error cycle for new formulators and plant managers.
Continuous improvement keeps us competitive and our products resilient across market needs. The push for higher-purity monomers, reduced waste, and smarter QC analytics keeps our engineers and chemists busy. In the next phase, we are running pilot lines with advanced online monitoring for faster batch release and aiming for new grades with even tighter impurity profile and water content control.
Our vision remains focused on real performance at the point of product integration—not just numbers on a spec sheet, but hands-on reliability for businesses that depend on every molecule in their workflow. Our Allyl Glycidyl Ether stands as a reflection of direct experience, producing for the long term, and taking feedback seriously.
Shoppers, engineers, and procurement teams find value in open channels and traceable supply. By pairing production expertise with ongoing technical support, our teams build trust batch by batch. Real relationships grow not in online catalogs, but in the support we give after a shipment lands on the plant floor.
Working shoulder-to-shoulder with our industrial customers, we have refined what it means to supply Allyl Glycidyl Ether. Each step, from feedstock arrival to finished tank, reflects a commitment to putting reliable materials in capable hands. Over time, these small but constant improvements shape the way the entire supply chain functions, delivering impact that goes beyond any standard product description.
From our manufacturing floor, Allyl Glycidyl Ether stands as a versatile compound built on hard-won process know-how and ongoing partnership with real users. Each batch reflects commitment to practical performance, safety, and compliance. As regulations shift and end-use demands grow more complex, we keep innovating, staying available to address questions, solve challenges, and help our partners build better products—one reliable shipment at a time.
