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Sebacoyl Chloride

    • Product Name Sebacoyl Chloride
    • Alias Sebacoyl dichloride
    • Einecs 208-704-1
    • 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
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    Specifications

    HS Code

    635844

    ProductName Sebacoyl Chloride
    CASNumber 111-19-3
    MolecularFormula C10H16Cl2O2
    MolecularWeight 255.14 g/mol
    Appearance Colorless to pale yellow liquid
    BoilingPoint 320–324 °C at 760 mmHg
    MeltingPoint -12 °C
    Density 1.146 g/cm³ at 20 °C
    SolubilityInWater Reacts violently
    FlashPoint 138.3 °C
    Odor Pungent
    RefractiveIndex 1.498
    Purity Typically ≥98%

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

    Packing & Storage
    Packing 500 mL amber glass bottle with tight-sealing cap, hazard labeling, UN number, and clear identification of sebacoyl chloride contents.
    Shipping Sebacoyl chloride should be shipped in tightly sealed containers, compliant with hazardous materials regulations. It must be kept dry and away from incompatible substances. Shipments require labeling as a corrosive substance (UN 3261). Transport in well-ventilated vehicles, avoiding exposure to heat, moisture, and direct sunlight to ensure safety and stability.
    Storage Sebacoyl chloride should be stored in a tightly closed, corrosion-resistant container in a cool, dry, and well-ventilated area. Keep it away from moisture, heat sources, and incompatible materials such as strong bases, alcohols, and amines. Store under an inert atmosphere if possible. Avoid exposure to air and water, as sebacoyl chloride reacts violently with moisture and releases toxic fumes.
    Application of Sebacoyl Chloride

    Applications of Sebacoyl Chloride in Industrial Manufacturing

    Sebacoyl Chloride is an essential diacid chloride used as a reactive intermediate in various polymer and specialty chemical industries. Our direct manufacturing supply supports key sectors with accurate specifications, process consistency, and high purity grades demanded by regulated downstream segments.

    1. Nylon 610 Polymerization (Engineering Plastics)

    This material acts as the diacid chloride component in the interfacial polycondensation with hexamethylene diamine to synthesize Nylon 610. Polymer producers charge Sebacoyl Chloride into aqueous-organic two-phase reactors, controlling monomer stoichiometry to target precise molecular weights and viscosity. End-users choose this method for high-melting, chemically resistant polyamides required in injection-molded automotive parts, mechanical gears, and cable jacketing. Strict batch control and traceability are maintained to support compounders’ process validation and quality assurance targets.

    Industry compliance standards

    • ISO 9001:2015 Quality Management Certification
    • UL 94 Flammability Standards (for downstream compounds)
    • REACH Registration (EU)
    • RoHS Directive (for electrical application suitability)

    Typical usage ratio

    • Monomer stoichiometry: 1 mol Sebacoyl Chloride to 1 mol hexamethylene diamine
    • Feed ratio often in 45–55 wt% relative to aqueous phase, adjusted by desired polymer chain length and target viscosity

    Downstream process integration

    • Charged into polyamide polymerization reactors during monomer addition phase
    • Process controls pH and temperature to suppress by-product formation
    • Product purification by water washing and extraction

    Final product types

    • Nylon 610 pellets and resins for automotive engineering plastics
    • Wire and cable insulation compounds
    • Extrusion and injection molding grades
    • High-performance monofilaments

    2. Aromatic Polyamide (Aramid) Synthesis (Functional Fibers)

    Manufacturers use Sebacoyl Chloride as a diacid dichloride source in interfacial polymerization with aromatic diamines to prepare semi-aromatic polyamides. Aramid producers optimize concentrations and pH for high-strength polymers, delivering fibers with excellent mechanical and heat-resistant properties. These production lines require reliable purity for fiber spinning and strength uniformity in ballistic fabrics and heat-protective garments.

    Industry compliance standards

    • ISO 12952-2: Textile flammability regulations
    • Oeko-Tex Standard 100 (applicable to textile intermediates)
    • REACH Authorizations for aramid chemicals
    • NIJ Standard-0101.06 (downstream ballistic requirements)

    Typical usage ratio

    • Monomer feed typically at 0.8–1.2 equivalents versus diamine
    • 40–55 wt% in organic phase, adjusted to matched backbone rigidity and process viscosity

    Downstream process integration

    • Added during interfacial polymerization with aromatic diamines
    • Reaction performed under inert nitrogen with continuous agitation
    • Resulting polymer dissolved or spun into fibers post-neutralization

    Final product types

    • Aramid yarns (for protective clothing, heat-resistant textiles)
    • Technical fabric for aerospace and industrial applications
    • Industrial filter media and reinforcement threads
    • Ballistic protective gear

    3. Polyurethane Elastomer Synthesis (Specialty Elastomers)

    Used as a chain extender in the synthesis of linear and segmented polyurethanes, Sebacoyl Chloride reacts with polyols or diamines to introduce flexible, long-chain C10 segments. Elastomer producers target this material for applications demanding abrasion resistance, flexibility at low temperature, and non-migratory plasticizer alternatives. Systems require accurate dosing and handling procedures for both safety and polymer morphology.

    Industry compliance standards

    • ISO 9001:2015 for specialty chemical intermediates
    • ASTM D412: Physical properties of finished elastomers
    • REACH and GHS Hazard Communication
    • Specific downstream OEM automotive test protocols

    Typical usage ratio

    • Typically 10–20 mol% of total isocyanate/chain extender input
    • Ratio adjusted to optimize for tensile strength, flexibility, and desired hardness

    Downstream process integration

    • Incorporated into polyester/polyether polyurethane chains in batch or continuous reactors
    • Reaction with diols or diamines at controlled pH and temperature
    • Can be dosed during prepolymer synthesis or chain extension stage

    Final product types

    • High-performance thermoplastic polyurethane (TPU) sheets
    • Industrial wheels and rollers
    • Automotive suspension bushings
    • Flexible tubing and coating compounds

    4. Long-Chain Diacid Chloride for UV-Curing Oligomers (Coating Resins)

    Formulators use this diacid chloride to synthesize long-chain oligomers for UV-curable coating systems. The molecule introduces flexibility and weatherability, enhancing film properties for outdoor and industrial coatings. Coating manufacturers integrate it during oligomer synthesis, enabling tailored network density and reaction rates. This application relies on raw material consistency to meet paint and ink industry quality expectations.

    Industry compliance standards

    • ISO 9001:2015 (resin process control)
    • Directive 2004/42/EC (solvent emission in paints and varnishes)
    • ASTM D3359 (adhesion of films)
    • EN 71-3 (paint and coatings in toys, for relevant end uses)

    Typical usage ratio

    • Typically 5–15 wt% relative to total oligomer mass
    • Adjusted based on target film flexibility, hardness, and weather resistance

    Downstream process integration

    • Charged at oligomerization step in reactor with diols/acrylates
    • Monitored by acid value and molecular weight until endpoint
    • Subsequent blending with photoinitiators before UV curing

    Final product types

    • UV-curable resins for industrial metal and plastic coatings
    • Flooring topcoats
    • Graphic ink vehicles
    • Weatherable architectural coatings

    5. Specialty Plasticizer Intermediate (Flexible PVC and Cable Compounds)

    Sebacoyl Chloride serves as a starting intermediate in the custom manufacture of C10-based plasticizers for flexible PVC and rubber compounds. Producers react it with various alcohols to yield mono- and diesters, which provide low volatility and cold-flexibility to finished plastics. Downstream cable, flooring, and film manufacturers demand accurate composition and impurity control for performance and regulatory compliance.

    Industry compliance standards

    • EU REACH for plasticizer intermediates
    • RoHS and RoHS2 Directives
    • DINP-free designation as required
    • EN 50363-3 (Electrical cable insulation requirements)

    Typical usage ratio

    • Stoichiometry: 1 mol Sebacoyl Chloride reacts with 2 mol alcohol
    • Downstream usage in finished compound: 20–40 phr (parts per hundred resin), adjusted for flexibility and migration limits

    Downstream process integration

    • Esterification with alcohols in closed chemical reactors
    • Neutralization and vacuum stripping of unreacted acid chloride
    • Formulated into PVC plastisol or dryblend operations

    Final product types

    • Flexible cable insulation and sheathing
    • Flooring mats and underlays
    • Automotive interior films
    • Specialty plastisol coatings

    6. Organic Synthesis Intermediate (Agrochemical Ingredient Manufacturing)

    The diacid chloride group allows synthesis of symmetrical and asymmetrical diesters and diamides for specialty agrochemical actives and adjuvants. Agrochemical developers need this chemical for constructing long-chain selective herbicide or pesticide precursors with controlled release and soil mobility properties. Plant facilities rely on precise feed ratios and controlled hydrolysis prevention during scale-up.

    Industry compliance standards

    • ISO 9001:2015 (active ingredient batch traceability)
    • OECD Guidelines for the Testing of Chemicals
    • Registration under local pesticide legislation (e.g., EU, EPA US)
    • GHS Safety Data Sheet publication

    Typical usage ratio

    • Stoichiometric or slight excess depending on nucleophile activity
    • Typical industrial scale reactions 1:1 to 1:1.05, monitored for conversion yield

    Downstream process integration

    • Reacted in batch or continuous reactors with amine/alcohol partners
    • Precise temperature and solvent management to limit hydrolysis
    • Post-reaction purification for regulatory-compliant residuals

    Final product types

    • Herbicide and insecticide active ingredients
    • Controlled release agrochemical adjuvants
    • Long-acting seed coating agents
    • Specialty landscape defoliants
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    Certification & Compliance
    More Introduction

    Sebacoyl Chloride: Direct from the Manufacturer

    From Practical Chemistry to Industry Needs

    Working for years in the trenches of fine chemical manufacturing, I’ve come to appreciate what makes certain intermediates more valuable than others. Sebacoyl chloride hasn’t always turned heads like some of the more headline-grabbing reagents, yet whenever we’re fielding calls from research labs or industry partners, it’s clear that this molecule punches above its weight in terms of reliable performance. It surfaces regularly in specialty polymer synthesis and specialty coatings, playing a quiet but pivotal role.

    In our daily operations, we produce sebacoyl chloride—often referred to as decanedioyl dichloride or sebacoyl dichloride—to meet the needs of polymer engineers and application scientists focused on durability, flexibility, and chemical resistance. Our 99% pure product, with molecular formula C10H16Cl2O2, covers a spectrum of applications but is most valued for its reactivity with diamines, making it a go-to for producing specialty nylons. In fact, if you’ve worked in polymer R&D on nylon 6,10, you probably already know firsthand the influence that the purity and integrity of sebacoyl chloride has on process yields and product consistency.

    Quality Driven by Process, Not Just Paperwork

    Each drum of sebacoyl chloride rolling off our lines represents a detailed journey from raw material sourcing to finished product. We manage upstream supply—integrating European and domestic feedstocks—to guarantee secure, quality-controlled input. Our experienced synthesis team monitors during every batch process, maintaining precise control over chlorination and distillation. Over the years, we’ve learned that excessive HCl residues or trace organics, if not managed meticulously, show up as downstream process headaches.

    We rigorously check for trace impurities and reagent residuals. Not every product on the market offers the transparency that direct producers like us provide. Our product specification files never rely only on the lot’s initial assay; we pull frequent retention samples and send them out for independent verification. This extra scrutiny isn’t a bureaucratic burden—it’s a lesson learned from years spent minimizing customer downtime.

    Real-World Needs Set the Benchmark

    Conventional theory says sebacoyl chloride’s main value lies in its two acid chloride moieties. Working alongside customers in specialty materials, I’ve seen how seemingly small differences in batch-to-batch water content, free HCl, or color can affect high-end polyamide performance or block copolymer structure. Customers trust direct manufacturers because we understand these challenges at a practical level, not just a theoretical one.

    Most requests still focus on its established role in nylon 6,10 production, but we’re seeing a pronounced uptick in advanced acrylics, heat-resistant coatings, and even some experimental thermoplastic elastomers. Our technical support crew fields plenty of calls about incompatibility or side reaction issues—not every acid chloride fits neatly into every formulation. We’ve modified our purification routes, run pilot tests, and coordinated closely with clients’ engineering teams to help adapt the material for specialty uses.

    Handling, Safety, and Practical Concerns in Real Facilities

    Every chemist knows acid chlorides pack a punch both in reactivity and workplace risks. Sebacoyl chloride fumes sharply in moist air, and direct skin or eye contact leaves no room for missteps. In our facility, we focus as much on safe handling infrastructure as we do on chemical purity. Drum loading happens under dedicated hoods. Transfer lines run with dry nitrogen overlays. We maintain close relationships with industrial hygiene experts and update our training programs to reflect customer feedback about handling issues.

    For large-volume operations, we work alongside logistics partners who supply sealed transfer systems and custom delivery pipelines. Customers who process only small batches often need advice on safe bench-scale handling—our technical staff has decades of real-world experience. Over the years, we have collected stories from R&D teams whose entire pilot syntheses have hinged on resolving minor containment or moisture ingress hurdles. These teaching moments helped us articulate best practices to new users and tighten our own SOPs.

    Specifications That Serve a Purpose

    Some folks fixate on spec sheets, but living with these molecules day in and day out means you focus more on what actually enables high yields and clean end products. Our product boasts HPLC-verified purity above 99%. We target water content below 0.1% and internal benchmarks for color and free acid. Chemical suppliers may promise a similar number, but coming from the source, it’s clear those numbers must match reality batch after batch, especially when batch size scales up.

    Through customer-driven tweaks, we’ve learned to monitor for low-level organochlorine byproducts and ring structures that might appear with aggressive chlorination or from lower-quality recycled feedstocks. In applications ranging from long-chain polyamides to PBT copolymers, even these faint signals can matter. Our production history, with its feedback loop from bench chemists, has helped us tune every parameter—whether you’re scaling 10kg for a pilot or 10 tons for full production.

    Applications That Go Beyond the Textbooks

    While textbook chemistry describes sebacoyl chloride as a staple for polyamide synthesis, industry trends keep stretching its applications. We now routinely support customers in lubricants, adhesives, and ion-exchange resin sectors. Newer trends include specialty architectures in block copolymers, formulated coatings with controlled water resistance, and unique intermediates for pharmaceuticals. Over the past few years, increased regulatory scrutiny around side produkty and environmental discharge placed higher emphasis on cleaner, more manageable reaction intermediates.

    Sebacoyl chloride is rarely a standalone solution—every application brings its own set of bottlenecks and optimizations. Some users tune the equivalent ratios tightly to minimize residual acid in end products or reduce dense foaming during ring opening. We’ve often worked through iterative pilot runs, helping customers save valuable time by sharing troubleshooting notes: increased yield after switching from stock held by middlemen, reduced gel formation in specialty resins, fewer process interruptions by addressing minor impurity traps.

    Only actual production data and real user experiences reveal where the textbook ends and practical innovation begins. No spec sheet can substitute for that ongoing, practical knowledge-sharing between manufacturer and user.

    Comparing Sebacoyl Chloride with Other Acid Chlorides

    Some clients put us side by side with traders offering adipoyl chloride, chloroacetyl chloride, or isophthaloyl chloride. While overlapping in their acylating role, sebacoyl chloride brings unique characteristics—its longer linear chain supports superior flexibility in polyamides. That means tougher, less brittle plastics and fibers. In coatings, it offers greater resistance to solvents and hydrolysis. Switch to a shorter chain diacid chloride and the entire property profile pivots toward brittleness or limited thermal stability.

    In the past, we’ve been asked by customers why not choose the more abundant adipoyl chloride. The truth is, chemical structure sets the end-use fate. Nylon 6,10 or 10,10 polyamides owe their durability and low moisture sensitivity directly to the sebacoyl backbone. Finer chemical control and longer methylene segments help tune flexibility versus strength. Our process allows us to dial in these factors with trusted consistency, so users can depend on us when trying to replicate pilot-scale results at manufacturing scale.

    For reactive users in pharmaceutical or fine chemical synthesis, high purity and predictable reactivity matter above all. Some competitors’ chloride sources deliver erratic reactivity or untraceable impurity profiles. Working directly with new molecule developers, we’ve seen the expense and delay caused by inconsistent raw material. As the actual manufacturer, responding quickly to data requests, analytical support, and custom run conditions is second nature for us.

    Supporting Customers through Technical Partnership

    On-site visits, plant audits, and joint optimization projects are not distant promises but part of our day-to-day. Sometimes, the value lies in a short phone call with a process engineer or single-page troubleshooting guidance shared in response to a bottleneck. For customers pushing boundaries in membrane chemistry, engineered plastics, or reactive extrusion, direct access to the manufacturer creates the shortest route between theory and practice.

    A recent experience with a specialty film manufacturer drove home the difference this support makes. By examining impurity build-up across lots, identifying the specific agents causing cloudiness, and modifying our distillation cuts accordingly, we helped the client cut defect rates by over 30%. It’s impossible for a generic stockist or third-party trader to match that level of engagement—intimate knowledge of both production process and downstream effect is only possible on the manufacturing floor.

    You can count on direct producers like us not just for purity and traceability, but also for hard-won insight. We understand which parameters matter most for your synthesis or process: moisture, color, trace metals, or by-product profile. Through direct feedback from decades of specialty chemical supply, we’ve adapted our product to align with what actually solves challenges in the field—whether that means a tailored packing option, a modified drying regime, or rapid delivery to minimize stocking risk.

    Delivering What Matters Most to Innovators

    Inventing something new or optimizing complex materials requires more than supplier conformity. Over the last decade, regulatory frameworks have become stricter; REACH, TSCA, and related standards demand better documentation, less impurity load, and robust tracking of batch genealogy. We see compliance as more than box-ticking—our chemists maintain the highest sample integrity and near real-time batch data storage, so records are always transparent and retrievable.

    Developers working with long-chain polyamides or advanced composites increasingly seek reassurance that every starting component is secure, traceable, and auditable. We participated in several joint customer audits to address environmental impact, process sustainability, and long-term supplier dependability. Feedback from these audits—spanning waste stream minimization and downstream integration—channels directly into quality system upgrades and new product design.

    Some applications, like in high-value fiber spinning or specialty elastomer synthesis, have zero tolerance for persistent trace impurities or variable reactivity. Only by integrating firsthand user experience into production routines can we guarantee the consistent performance demanded by innovators. Having walked the floor, taken part in emergency response drills, and helped resolve unanticipated process hiccups, our team knows what it takes to keep your process moving and compliant.

    Building Trust through Transparency and Adaptability

    We remain committed to direct, unfiltered feedback loops—between operator, process chemist, and user. When market changes or regulatory requirements shift, we adjust our processes rapidly. This adaptability is based not just on in-house expertise but on countless lessons learned in cooperation with our customers. Our willingness to share analytical data, supply historical batch information, and collaborate on pilot runs ensures that we’re not simply a vendor, but a working partner invested in mutual success.

    For many customers, true value means more than product delivered on time—it requires clarity of sourcing, confidence in quality, and support throughout the innovation process. Our commitment shows in the time we invest with each client, in shared learnings, and in the incremental improvements we chase with every batch produced. As regulatory environments shift and technical requirements grow more demanding, this partnership approach remains our strongest asset.

    In a chemical world that prizes traceability, efficiency, and robust supply security, sebacoyl chloride from a dedicated manufacturer stands apart. Whether destined for next-generation polymers, advanced coatings, or experimental applications, it reflects decades of practical problem-solving—ensuring every end user receives not just a product, but a working solution based on experience, scientific rigor, and plain hard work.