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1,2-Epoxycyclododecane

    • Product Name 1,2-Epoxycyclododecane
    • Alias Cyclododecene oxide
    • Einecs 214-010-3
    • 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

    777508

    Name 1,2-Epoxycyclododecane
    Cas Number 286-20-4
    Molecular Formula C12H22O
    Molar Mass 182.30 g/mol
    Appearance White to off-white solid
    Melting Point 34-36 °C
    Boiling Point 135-137 °C at 4 mmHg
    Density 0.98 g/cm³
    Flash Point 126 °C
    Refractive Index 1.486 (20 °C)
    Solubility In Water Insoluble
    Synonyms Cyclododecene oxide, Cyclododecylene oxide

    As an accredited 1,2-Epoxycyclododecane factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing 1,2-Epoxycyclododecane is supplied in a 250g amber glass bottle with a secure screw cap, labeled with hazard warnings.
    Shipping 1,2-Epoxycyclododecane should be shipped in tightly sealed containers, away from heat, sparks, or open flame due to its potentially reactive nature. The packaging must comply with local and international regulations for chemical transport. Ensure proper labeling and include safety documentation. Handle with care to avoid leaks or spills during transit.
    Storage 1,2-Epoxycyclododecane should be stored in a cool, dry, well-ventilated area, away from direct sunlight, heat sources, and incompatible materials such as strong acids, bases, and oxidizers. Keep the container tightly closed and properly labeled. Avoid moisture ingress to prevent degradation. Store in a chemical storage cabinet designed for organic chemicals and ensure access is restricted to trained personnel.
    Application of 1,2-Epoxycyclododecane

    Applications of 1,2-Epoxycyclododecane in Industrial Manufacturing

    As a specialist producer of 1,2-Epoxycyclododecane, we support high-precision downstream sectors in polymer modification, advanced adhesives, specialty coatings, synthetic lubricants, and high-performance elastomer production. Our material addresses critical functional and regulatory requirements in these fields, ensuring consistent integration in both batch and continuous production environments.

    1. Polyamide Modifier for High-Temperature Engineering Plastics

    Manufacturers of nylon-based engineering resins utilize 1,2-Epoxycyclododecane as a reactive chain extender and end-capper to increase the ring stability and processing window of polyamide 12 and its copolymers. The compound reacts during the final polycondensation step, improving molecular weight distribution for better impact resistance and reducing processing volatility. Strict control of dosage and reaction time under nitrogen atmospheres are critical for achieving uniform polymer structure.

    Industry compliance standards

    • ISO 1874-1/2: Polyamide resin properties and requirements
    • REACH registered, European regulation (EC) No 1907/2006
    • RoHS compliance (2011/65/EU) for electrical and electronic components
    • UL Yellow Card for polymeric materials (HB, V-2 flammability levels, if used in E&E)

    Typical usage ratio

    • 0.2% – 1.5% by weight, relative to the total monomer mix
    • Adjusted based on desired molecular weight and viscosity targets in resin batch

    Downstream process integration

    • Direct metering into polymerization reactors post-hexamethylenediamine addition
    • Optional in-situ addition during reactive extrusion for specialty grades
    • Feeds through sealed autoclave or twin-screw compounding stages

    Final product types

    • High heat-resistant nylon 12 pellets
    • Automotive under-the-hood structural parts
    • Flexible pneumatic tubing
    • Cable sheathing for the electronics industry

    2. Curing Agent in Cycloaliphatic Epoxy Coatings

    In the production of specialty anti-corrosive coatings, epoxycyclododecane serves as a functional curing agent, imparting improved yellowing resistance and weatherability. The epoxide ring structure limits crosslink density, optimizing film flexibility and reducing brittleness on metal substrates exposed to harsh outdoor conditions. Operators control reaction temperature and solvent polarity to balance gel time and coating film properties during process scale-up.

    Industry compliance standards

    • ASTM D2578: Wetting tension for surface preparation
    • ISO 12944-5: Performance of industrial protective paint systems
    • Directive 2004/42/EC on VOC content for paints and varnishes
    • SGS or TÜV audited ISO 9001:2015 process QA/QC in coating lines

    Typical usage ratio

    • 2% – 10% by total base resin weight
    • Typically blended with bisphenol-based epoxy oligomers in a staged addition

    Downstream process integration

    • Pre-dispersion into the epoxy resin blend at 60–80°C prior to solvent addition
    • Roll mill or high-shear mixer incorporation for uniform distribution
    • Activation with amine or anhydride co-curing agents during final mixing

    Final product types

    • Outdoor powder coatings for agricultural machinery
    • Immersion-resistant pipeline coatings
    • Heavy-duty steel structure topcoats
    • Clear and matte architectural finish paints

    3. Precursor for Synthetic Lubricant Base Oils

    In the lubricant industry, formulators use this material as a reactive intermediate in the synthesis of polycycloaliphatic diols. These diols serve as structured building blocks for high-stability synthetic base oils, particularly in greases and high-load transmission fluids. End-users benefit from controlled viscosity indices and improved oxidative stability. Plant operators ensure tight batch control and residue monitoring to meet finished-lubricant purity requirements.

    Industry compliance standards

    • API SN/CF (Automotive lubricants performance specifications)
    • DIN 51517-3 (Industrial lubricating oils: CLP)
    • ISO 6743-4 (Class L-HS: Hydraulic system lubricants)
    • ASTM D445: Viscosity standards for lubricating oils

    Typical usage ratio

    • 5% – 15% in blend formulation, determined by target low-temperature performance
    • The precise loading depends on chain length tailoring in downstream diol synthesis

    Downstream process integration

    • Introduced as a ring-opening monomer in polyol reactors
    • Stepwise addition during transesterification with fatty acid derivatives
    • Purification by molecular distillation before blending into finished lubricant base stocks

    Final product types

    • Long-life synthetic compressor oils
    • Heavy-duty gear lubricants
    • Greases for high-temperature bearings
    • Hydraulic oils for mobile industrial equipment

    4. Reactive Component for Thermoplastic Elastomers (TPE)

    Producers of high-performance TPE use our material as a crosslinking monomer in block copolymer synthesis to achieve targeted elasticity and thermal properties. During solution or melt polymerization, precise addition timing ensures uniform network formation and targeted mechanical modulus. Stringent monitoring of unreacted epoxide residuals is crucial for medical and food-contact elastomer grades.

    Industry compliance standards

    • FDA 21 CFR 177.1810: Elastomeric article safety for food contact
    • USP Class VI for pharmaceutical grade components
    • EN 71-3: Safety of toys—migration of certain elements (for elastomer toys)
    • ISO 180: Impact strength testing for finished TPE parts

    Typical usage ratio

    • 0.5% – 3% by total polymer mass
    • Adjustments based on desired crosslinked density and hardness

    Downstream process integration

    • Continuous feed into reaction vessel during block copolymer synthesis
    • Co-initiated during anionic polymerization with styrene or butadiene segments
    • Downstream stripping and devolatilization ensure compliance with migration limits

    Final product types

    • Medical device seals and gaskets
    • Multilayer food packaging films
    • Flexible overmolding compounds
    • High-durability playground components
    Free Quote

    Competitive 1,2-Epoxycyclododecane prices that fit your budget—flexible terms and customized quotes for every order.

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    Certification & Compliance
    More Introduction

    1,2-Epoxycyclododecane: Insights from a Chemical Manufacturer’s Bench

    An Introduction Built on Practical Know-how

    Chemistry often stands behind the scenes of everyday products, but some compounds carry a reputation for real performance on the factory floor. 1,2-Epoxycyclododecane falls into that category. Our experience, stretching across years of batch production, quality control, and direct feedback from industrial users, has taught us how this specialty intermediate fits uniquely into the mix of cyclic epoxides. This isn’t a story reshuffled from a datasheet—it’s the perspective of a manufacturer who has seen this molecule’s true value and the complexities it brings from batch reactors to the end of the downstream pipeline.

    What We Produce: Knowing 1,2-Epoxycyclododecane

    The structure of 1,2-Epoxycyclododecane gives rise to distinctive performance in both chemical synthesis and manufacturing processes. Its twelve-membered cyclododecane ring bonded with an epoxide group isn’t just a theoretical point; it shows up in real process conditions, affecting solubility, curing kinetics, and compatibility with various reactants. We maintain tight control around isomeric purity and impurity profiles—crucial, since even small fluctuations can shift reaction yield or change the attributes of finished polymers. Handling hundreds of kilograms through our facilities every month, we invest in both reactor technology and constant staff training to ensure that each lot consistently meets the expectations of specialty coating and adhesive producers.

    How It’s Made—and Why It Matters

    Our production line treats precursors according to well-established, validated synthesis routes, drawing from years of chemical engineering trial and error. Epoxidation on the cyclododecane backbone doesn’t occur without challenges: pressure, temperature ramp profiles, and the nature and purity of the oxidizing agents all play their part. Inconsistent parameters mean out-of-spec batches that could cause issues in customer curing processes. Reactors, feeds, and workup conditions have all been optimized for energy efficiency and reproducibility. Results aren’t left to chance: each batch undergoes GC-MS analysis to quantify the epoxide content and verify the abatement of any residual solvents or byproducts. We regularly audit our plant and supply chain to avoid disruptions in critical raw materials.

    Specifications: Not Just a List, but a Benchmark

    When customers reach out to us, they’re looking for more than purity on paper. The numbers carry weight because they predict performance under production conditions. Our 1,2-Epoxycyclododecane is supplied in forms that have been tested for melting point, color (APHA), GC purity, and peroxide value. Over the years, the most scrutiny falls on two things: purity and the absence of trace contaminants. We maintain typical purity levels above 99%, which means downstream reactions operate reliably time after time. Impurity controls—especially unreacted cyclododecane or trace chlorinated byproducts—guard end product aesthetics in polymers and coatings. These metrics earn trust because we know from past projects how even small deviations complicate both R&D and large-scale applications.

    Difference Starts at the Chemistry

    1,2-Epoxycyclododecane’s strength lies in the balance between its rigidity and flexibility. The cyclododecane ring provides thermal stability and chemical resistance, while the epoxide ring puts reactive handles at the user’s disposal. Compared with more common cyclic epoxides like ethylene oxide or propylene oxide, our product’s ring size drives slower reactivity and reduced volatility. This translates to greater control over polymer network formation, slower curing cycles, and improved safety during handling. Where small epoxides may flash off or cause runaway reactions, 1,2-Epoxycyclododecane gives formulators more room to adjust process variables—useful in high-performance composites or specialty adhesives.

    In our experience, users often draw direct comparisons with epoxidized cyclohexane and cyclooctane derivatives. The difference, we have found, is that 1,2-Epoxycyclododecane excels in imparting hydrophobicity and maintaining mechanical strength in polymers operating under demanding environments. Its chemical attributes make it valuable for insulation, corrosion-resistant linings, and even in certain elastomeric compounds. It’s not a drop-in replacement for other epoxides but a tailored solution for users who have targeted demands—long-chain flexibility with a two-site reactive group.

    Applications Span Real-World Demands

    Decades in manufacture and customer feedback cycles have shown that most of our 1,2-Epoxycyclododecane finds its way into specialty thermosetting resins. This isn’t a niche product reserved for R&D alone—batch orders often run in the metric tons. From the beginning, our clients have integrated our product into formulas for corrosion protection, automotive sealants, and advanced fiber-reinforced plastics. In these uses, it grants unique resistance to acids and bases, as well as mechanical resilience under cyclic loading. We have observed notable uptake in the electrical insulation sector: the cyclic epoxide structure suppresses dielectric loss and withstands thermal cycling.

    The work does not stop at shipping barrels. Our technical teams often partner with customers’ R&D labs to fine-tune formulations and troubleshoot integration issues. This boots-on-the-ground knowledge lets us offer insights beyond standard technical support. End products such as circuit board coatings, composite wind turbine blades, and specialty adhesives for aerospace structures have benefited from tweaks to both purity and blending ratios developed during these collaborative efforts. The versatility shows up—over years of real production data—as higher yield retention, fewer product returns, and repeat orders from our long-term partners.

    Handling and Processing—Lessons from the Shop Floor

    Manufacturing large volumes of 1,2-Epoxycyclododecane brings challenges that smaller labs might never see. The compound needs careful temperature management to prevent partial polymerization or yellowing. In our facilities, every drum is filled only after meeting strict shelf-life and storage stability tests. We learned from early missteps—where trace moisture led to slow hydrolysis and a drop in finished product quality—that even minor environmental control lapses impact downstream users. As a result, both transport and storage follow tightened protocols drawn from audited best practices.

    Safety remains a top priority. While the material does not share the acute hazards of short-chain epoxides, we’ve seen that poor ventilation or improper use of personal protective equipment can still lead to eye or respiratory irritation during large-scale transfers or blending. We equipped our lines with closed transfer systems and trained staff in rapid spill containment and neutralization. This effort reduces exposure risk and supports compliance with global regulatory frameworks, which grow more stringent every year.

    Beyond the Molecule: Customer-Focused Support

    Many manufacturers offer 1,2-Epoxycyclododecane, but our clients return because we engage directly with their technical teams. Each formulation project reveals new requirements—sometimes purity thresholds must tighten, or supply timing shifts. Rather than a transactional supplier relationship, we spend time onsite, learning the production intricacies of partners’ plants, and then tailoring our processes to fit. Whether it’s special packaging for automated handling or piloting new purification steps in response to customer feedback, we have learned that close dialogue beats generic support. Regular visits and technical exchanges create a feedback loop that improves both product quality and customer productivity.

    Occasionally, a project demands a deeper dive: for one electronics adhesive client, our team developed a purification protocol that dropped trace ionic content below typical commercial grades, achieving better electrical properties in their finished devices. In another case, adjusting peroxide initiator profiles in our process delivered a purer, more stable intermediate for a high-performance paint. Over hundreds of such collaborations, we have built a knowledge base that flows into every new shipment, reinforcing reliability over the long haul.

    Comparing with Other Epoxides—Hard-Won Knowledge

    Much academic literature describes epoxides, but experience on the plant floor tells a fuller story. 1,2-Epoxycyclododecane differs from short-chain analogues by resisting unwanted side reactions—alkali-catalyzed ring opening occurs less readily, which means better consistency from batch to batch. Customers who previously used ethylene oxide or cyclohexene oxide in their formulations have shown us where volatility and acute toxicity caused both loss and operational headaches. Our product’s larger ring structure avoids these pitfalls. Beyond obvious safety improvements, it delivers process repeatability, especially where slow curing or extended pot life is critical.

    We have experimented with competitive alternatives, including 1,2-epoxyhexadecane and various linear epoxides. These trials have made it clear that 1,2-Epoxycyclododecane’s combination of low polarity and moderate bulk viscosity gives it a real edge in blending with hydrophobic base resins and promoting miscibility with certain plasticizers. In both low-temperature and high-shear processing, it delivers consistent results, avoiding common setbacks like phase separation or inconsistent mechanical properties. We’ve participated in customer-led head-to-head trials—our feedback consistently shows higher retained tensile strength and better chemical resistance in challenging end-use environments.

    Sustainability and Regulatory Standpoint—Supporting Progress

    Regulatory attention on specialty chemicals continues to rise—this is a reality affecting anyone in chemical manufacturing. Years of regulatory compliance programs position us to monitor and respond to changing rules surrounding hazardous substances, labeling, and environmental controls. 1,2-Epoxycyclododecane benefits from its lower volatility and relatively non-reactive bulk characteristics, easing environmental risk profiles in comparison to smaller epoxides.

    Our plant regularly invests in emission control and waste management, deploying solvent recovery systems and rigorous water treatment protocols. We track and limit traceable emissions through annual audits. These operational decisions spring from both regulatory need and a broader sense of stewardship—an approach that resonates with customers focused on lifecycle impacts and supply chain transparency.

    In the past, certain applications drew concern over persistent organic pollutants, particularly in regions enforcing REACH and similar frameworks. Because 1,2-Epoxycyclododecane does not degrade into more hazardous chlorinated derivatives and typically stays locked within cured matrices, lifecycle analysis points toward a more favorable profile than some legacy technologies. We provide technical documentation and ongoing consultation to support customers during product registrations or compliance audits.

    Challenges, Solutions, and What Experience Teaches

    No production process runs without hitches. Over the years, several challenges around 1,2-Epoxycyclododecane signaled the need for practical solutions. Batch scale-up once introduced unwanted byproducts based on mixing inconsistencies; we solved this by retrofitting our reactors with improved agitation systems and real-time monitoring. Variable quality in raw material supplies sometimes threatened consistency; we built stable, long-term contracts with vetted upstream vendors and introduced parallel sourcing strategies.

    We have also seen evolving technical demands—from higher product purities in niche electronics applications to new environmental requirements for sustainable packaging. Each new demand led us to invest in plant upgrades, analytical testing, and process improvements. Problems in storage stability at high humidity climates initially caught us off guard, but through improved packaging design and on-site customer training, these were addressed, reducing returns and bolstering trust.

    One lesson carries through: Responsive, collaborative troubleshooting outpaces working in isolation. Every technical hiccup or feedback cycle sharpens not just our processes, but our shared knowledge with the entire ecosystem of producers, formulators, and end-users who depend on specialty cyclic epoxides.

    The Human Side of Production

    Behind every lot shipped, teams of chemists, operators, and engineers shoulder the responsibility of product quality and performance. We see dedication daily—batch monitoring during the overnight shift, hands-on troubleshooting during equipment maintenance, review of analytical data before each outbound pallet is released. This culture of accountability means our product earns its reputation through reliability and repeat engagement.

    Mentorship within the plant remains a focus, as transfer of tribal knowledge from senior technicians to newcomers helps avoid previous missteps and ensures tacit know-how remains alive. We reward curiosity, encourage technical exchange with customers, and reflect on feedback to identify incremental or systemic improvement opportunities.

    What Sets Us Apart

    Long-term relationships have always outweighed one-off sales for us. This attitude flows through every technical inquiry and production decision. Our role does not end at order fulfillment; we see ourselves as partners invested in customer outcomes. From modifying production variables in response to an off-spec feedback, to supporting troubleshooting in client plants, we care about the real end-use performance and the reputations tied to our material down the line.

    Fast response, transparency in communication, and continuous learning earned us a place in value chains spanning multiple industries. The cycle of manufacturing, troubleshooting, learning, and improvement never pauses. Each quality checkpoint, each innovation in reactor design, and each technical service call translates into greater trust from our users.

    Looking Ahead—Innovation Built on Experience

    As markets change and application requirements grow more sophisticated, our attention remains on quality, safety, and sustainability. We follow emerging research, engage in international technical forums, and track real-world usage trends. Fresh application spaces—from bio-based composites to high-voltage insulation—present opportunities, but each demands ongoing material and process refinement. Our commitment: remain agile, invest in equipment and people, and support every new technical challenge with a foundation built on years of manufacturing experience.

    1,2-Epoxycyclododecane will continue to shape the chemistry of durable, high-performance materials. Our journey with this molecule reflects the reality that specialist chemicals succeed not through abstract properties, but through hands-on problem solving, transparent partnerships, and a relentless focus on what matters for every customer project. The lessons learned in making, testing, and supporting this product enrich every partnership—and promise to deliver solutions, batch after batch, as market demands evolve.