|
HS Code |
403987 |
| Chemical Name | Epichlorohydrin |
| Cas Number | 106-89-8 |
| Molecular Formula | C3H5ClO |
| Molecular Weight | 92.52 g/mol |
| Appearance | Colorless liquid |
| Odor | Garlic or chloroform-like smell |
| Boiling Point | 117.9°C (244.2°F) |
| Melting Point | -57°C (-70.6°F) |
| Density | 1.18 g/cm³ at 20°C |
| Solubility In Water | Moderate (6.6 g/100 mL at 20°C) |
| Flash Point | 33°C (91°F) |
| Refractive Index | 1.439 at 20°C |
| Vapor Pressure | 15 mmHg at 20°C |
As an accredited Epichlorohydrin factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Epichlorohydrin is packaged in a 200-liter blue UN-rated steel drum with secure cap, featuring hazard labels and clear product information. |
| Container Loading (20′ FCL) | Container Loading (20′ FCL) for Epichlorohydrin: 16-18 metric tons, packed in steel drums or ISO tanks, safely secured, hazardous material protocols followed. |
| Shipping | Epichlorohydrin should be shipped in tightly sealed, corrosion-resistant containers, clearly labeled as hazardous. It must be transported in accordance with international regulations (UN 2023, Class 3, Packing Group I). Keep away from heat, sparks, and incompatible substances. Ensure secure, upright placement and proper ventilation during transit. Handle by trained personnel only. |
| Storage | Epichlorohydrin should be stored in a cool, well-ventilated area, away from heat, ignition sources, and direct sunlight. Keep it in tightly closed, corrosion-resistant containers. Store separately from strong acids, bases, oxidizers, and amines. Ensure proper labeling and secondary containment to prevent leaks or spills. Access should be restricted to trained personnel, with appropriate emergency and spill response equipment available nearby. |
| Shelf Life | Epichlorohydrin typically has a shelf life of 1 year when stored in tightly sealed containers, away from heat and direct sunlight. |
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Purity 99%: Epichlorohydrin with 99% purity is used in the production of epoxy resins, where it ensures high mechanical strength and chemical resistance in the final polymer. Viscosity 2.5 mPa·s: Epichlorohydrin with a viscosity of 2.5 mPa·s is used in synthetic glycerol manufacturing, where it allows for efficient processing and high product yield. Molecular Weight 92.52 g/mol: Epichlorohydrin with a molecular weight of 92.52 g/mol is used in ion-exchange resin synthesis, where it provides consistent cross-linking and optimal ion selectivity. Stability Temperature 35°C: Epichlorohydrin with a stability temperature of 35°C is used in elastomer formulation, where it maintains reactivity and production safety conditions. Water Content ≤0.1%: Epichlorohydrin with water content not exceeding 0.1% is used in surfactant production, where it minimizes side-reactions and improves product purity. Color APHA ≤10: Epichlorohydrin with a color APHA of 10 or less is used in specialty coating applications, where it ensures clarity and aesthetic quality in transparent films. Melting Point −57°C: Epichlorohydrin with a melting point of −57°C is used in low-temperature adhesive formulations, where it provides reliable handling and storage without crystallization. |
Competitive Epichlorohydrin prices that fit your budget—flexible terms and customized quotes for every order.
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Every kilogram of epichlorohydrin that leaves our production facility carries decades of hard-earned know-how. Our specialized team runs an integrated plant where raw materials, energy management, and quality checks intersect on every shift. We have seen the global demand for this chlorinated epoxy compound grow along with the world’s appetite for high-performance polymers and resins. The chemistry never gets easier, but it’s become more precise, more controlled, and—just as importantly—safer for our people and the environment.
We focus on producing technical grade and refined grades of epichlorohydrin with tight control over purity, stabilizers, and chloride content. Common orders request purity above 99.5 percent, low water levels, and color indices below APHA 10. During manufacturing, our engineers keep a direct eye on factors like internal pressure, reaction heat, and proper stripping methods. Quality assurance teams spot even faint off-odors, catch discoloration, and test for each trace of unreacted chlorides. Those small details mean our end product remains suitable for sensitive downstream processes—especially epoxy resin synthesis.
In our experience, the real-world performance of epichlorohydrin comes down to these two things: purity and batch-to-batch reliability. Small impurities, like excess allyl chloride or traces of organic acids, can cripple the curing and toughness of final epoxy resins. Over the years, we’ve worked with global clients who cite how minor improvements in our distillation steps translated into measurable leaps in their output—more reliable circuit board laminates, tougher automotive sealants, lower rejection rates on aerospace parts.
The tight physical specifications of our epichlorohydrin allow for fewer surprises in curing time, viscosity, and finished resin color. Those parameters play a role for users, whether making glass fiber composites, water treatment membranes, ion-exchange resins, or specialty elastomers. The hazards and flammability of epichlorohydrin only add to the pressure on suppliers to handle it at the highest standards.
Production models in our facility range from small-batch glass-lined reactors for R&D work to high-volume continuous units for industrial contracts. We take pride in customizing output, such as producing lower-free-chloride lots for pharmaceutical excipient manufacturers, or using specific stabilizer blends for regional requirements in electronics applications. Our long-standing customers appreciate not just the chemical itself, but the technical support that comes with it.
Many buyers ask about differences between our product and generic material on the open market. Physical properties—like color or haze—tell only part of the story. Behind every batch lies a process designed for robust corrosion control, minimum exposure to unwanted byproducts, and reliable stabilization against hydrolysis. Every stage, from raw propylene chlorination to the final purification, holds just as much weight as what’s printed on the shipment certificate.
Epoxy resin producers form a steady base of our customers, purchasing technical grade epichlorohydrin on a monthly or annual contract. The reaction of bisphenol A with epichlorohydrin remains the core chemistry for thermosetting epoxy resins. Our partners in coatings, electrical laminates, and composites manufacturing depend on our material to produce everything from printed circuit boards to wind turbine blades.
As a chemical manufacturer, we also work with clients in the synthetic rubber industry who utilize epichlorohydrin as a monomer in hydrin elastomer production. This class of polymers delivers unique resistance to oxygen, ozone, and fluids—a mainstay in auto parts, hoses, and seals. Demands for precise molecular weight control and low-level impurities push us to consistently improve process parameters, solvent usage, and in-process testing.
Another set of partners applies our product in water treatment sectors, particularly for producing ion-exchange resins. These applications require epichlorohydrin of certain particle size characteristics and highly predictable reactivity, as they affect the mechanical integrity and service life of water softening and demineralization equipment.
Manufacturing epichlorohydrin involves more than meeting product specs. Over the years, we’ve adapted our plant to comply with and often exceed safety protocols. The compound’s volatility, acute toxicity, and cancer warnings from international agencies force every manufacturer to adopt detailed process containment, employee training, and emissions control. Reactors sit beneath an extensive containment and vapor recovery system. Our operators perform routine leak checks and wear full protective gear during loading. Laboratory staff carry out regular chromatographic screenings for impurities contributing to potential worker exposure or downstream release.
Environmental controls range from multi-stage scrubbers for process vent gases to dual-stage wastewater treatment. Internal procedures extend to every truck that carries epichlorohydrin past our gates—drainage maps, spill plans, and decontamination setups all matter just as much as what takes place on the production line. Local regulators visit our facility regularly, and periodic third-party audits give us valuable outside perspective.
During our decades in this industry, we have seen the public demand a higher standard for both transparent labeling and proactive hazard mitigation. Our plant response? Constant investment in safer packaging, automation in sample collection, and closed-loop loading arms to reduce manual intervention. No shortcuts—each improvement feeds back into safer communities and a more trusted supply chain for everyone downstream.
Epichlorohydrin earns frequent comparison with other chlorinated or epoxidized raw materials, like ethylene oxide or propylene oxide. Our product’s lower reactivity, higher boiling range, and unique bifunctional character bring specific handling and storage needs, but also drive its role as the preferred precursor in many applications. More importantly, we commonly discuss with technical buyers how our tight compositional controls help reduce costly production stops and downstream byproduct formation—real impacts in their plant operations.
Other chlorinated intermediates, such as allyl chloride or chloropropanols, fail to match epichlorohydrin’s reactivity profile for regiospecific epoxy formation. Our manufacturing team invests time analyzing trace feedstock differences to ensure minimal formation of these and other structurally similar impurities. After years of customer audits, we can say with confidence that these finer points at the reaction level help reduce foaming, off-gassing, and discoloration during large-scale epoxy synthesis.
Nobody in this industry escapes the need for continual technical engagement. Whether working with small specialty composite shops or global resin companies, we maintain open support for troubleshooting and performance tuning. Many clients take time to visit our plant, send their own samples for cross-comparison, and collaborate directly on formulation trials.
Our own development laboratories go beyond producing standard certificates of analysis. Long-term stability tests, accelerated resin curing under heat and humidity, and advanced spectroscopic fingerprinting keep us ahead in matching evolving demands. For example, automotive customers ask for evidence that our epichlorohydrin runs clean in high-throughput mixing lines with minimal release of low molecular weight contaminants. Similar scrutiny comes from electronics manufacturers after electronic grade batches, needing very tight voltage breakdown and dielectric loss margins in their finished circuit boards. Our quality commitment reaches every tank, drum, and railcar that leaves our premises.
Through years of operation we have watched regulatory frameworks adapt and become far stricter, especially in Europe, North America, and parts of Asia. Some clients initially focus on specification sheets, but it soon becomes clear in technical discussions that compliance history and track record matter just as much. Our facility regularly updates its documentation and hazard communication protocols for all downstream handlers and formulators. Importers and users want not just a clean product, but the traceability now expected across the full supply chain.
We work closely with port authorities, logistics agents, and end-users to ensure safe transit. Every delivery cycle provides lessons in contingency planning. Hurricane seasons, port shutdowns, political uncertainty, and price volatility all affect both our raw material supply and our customers’ operations. As a rule, we build deeper safety stock and seek out alternate logistics partners—many of whom have become long-time allies in keeping plants running. The scale of our facility gives us added negotiating power, but the real security comes from direct relationships and trusted channels tested over decades.
Every day in chemical manufacturing reveals a new challenge or a fresh opportunity for improvement. Plant process engineers constantly review steam usage, solvent recovery, and catalyst longevity to drive down energy intensity. We scrutinize every step, often with expert help, looking for even minor waste reductions or cycle-time gains. Investments in thermal integration, advanced distillation techniques, and digital process controls keep us competitive and responsive to customer feedback.
Our research teams experiment with alternative process chemistries, aiming to lower the environmental impact per ton of epichlorohydrin produced and to reduce reliance on fossil-sourced feedstocks. Not every experiment pays off quickly, but careful pilot work has proven its worth time and time again. Partnerships with academic centers and industry consortia keep us exposed to the latest green chemistry principles and process intensification insights. A direct line runs from plant trial results to commercial-scale rollouts.
We see ourselves as more than suppliers. Clients rely on our manufacturing team for advice on integrating epichlorohydrin into their processes, troubleshooting batch inconsistencies, or tuning performance in new applications. On-site visits, regular review meetings, and joint testing programs form part of our ongoing relationships. Our technical group maintains a line of communication with R&D chemists and production supervisors at customer plants. Many partnerships have evolved from one-off trial shipments into multi-year innovation projects.
Responding to market needs, we help blueprint resin formulations for new energy storage applications, high-durability construction materials, and simplified curing systems. One composite manufacturer came to us struggling with foaming in their resin casting. Through collaboration, we adjusted feed ratios and helped implement expanded in-process filtration, with immediate improvement visible in product yields and surface finish. Such direct partnerships stem from a shared goal: safer, more reliable, and higher quality industrial outputs, whether for megawatt-scale wind blades or precision medical devices.
Behind every ton of epichlorohydrin stands a manufacturing workforce challenged by tough conditions and complex chemistry. We invest heavily in staff training, recognizing that experience and instinct play as much a part as digital monitoring systems. Plant managers rotate through each section of the facility, learning the unique signatures and quirks of reactors, distillation banks, and scrubbers. We maintain open lines with local emergency services, municipal water authorities, and regulatory enforcement. Each improvement in safety training has roots in real plant incidents—an unexpected leak, a failed valve, or an unusual analytical reading. Stories get shared not to assign blame, but to equip everyone for the next possible challenge.
Many of our customer partnerships have spanned decades, surviving market turbulence, raw material scarcities, and changing technology. They value transparency and technical responsiveness as much as reliable deliveries. Our approach has always focused on flexibility and direct communication, not just in the technical but in day-to-day plant operations and logistics.
Looking at the next generation of chemical manufacturing, we anticipate a stronger shift toward process electrification, circular feedstocks, and minimized byproduct streams. Most industrial users of epichlorohydrin demand ever-higher standards, not only for technical performance but for assurance of sustainability. Recent advances call for tighter lifecycle analysis, from raw propylene origins to off-gas valorization and spent resin recycling. Already, some of our research investments target bio-based synthetic routes and closed-loop process water systems, expected to bear fruit as regulatory and market pressures mount.
At every stage, innovation comes from putting boots on the ground and learning from each batch, shipment, and customer challenge. For manufacturers on the ground, that’s where progress happens: not in the abstract, but in the daily pursuit of cleaner, safer, and higher-quality epichlorohydrin that makes a difference in every corner of industry.