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Octanoyl Chloride

    • Product Name Octanoyl Chloride
    • Alias Capryloyl chloride
    • Einecs 211-639-5
    • 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

    979794

    Chemicalname Octanoyl Chloride
    Casnumber 111-64-8
    Molecularformula C8H15ClO
    Molecularweight 162.66 g/mol
    Appearance Colorless to pale yellow liquid
    Boilingpoint 202-204 °C
    Meltingpoint -27 °C
    Density 0.95 g/mL at 25 °C
    Refractiveindex 1.427
    Flashpoint 85 °C
    Solubility Reacts with water
    Purity Typically ≥ 98%
    Synonyms Capryloyl chloride

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

    Packing & Storage
    Packing Octanoyl Chloride, 500 mL, is packaged in a dark amber glass bottle with a screw cap and hazard labeling.
    Shipping Octanoyl chloride should be shipped in tightly sealed containers, protected from moisture and incompatible substances. It must be labeled as a corrosive substance (UN 3265) and transported according to international and local hazardous materials regulations. Adequate ventilation, spill containment, and emergency procedures should be ensured during transit to prevent exposure and accidents.
    Storage Octanoyl chloride should be stored in a cool, dry, and well-ventilated area, away from moisture, heat, and incompatible substances like strong bases, alcohols, and oxidizers. It must be kept in tightly sealed containers made of resistant materials, and protected from physical damage. Use secondary containment to prevent leaks, and label all storage clearly to prevent accidental exposure or misuse.
    Application of Octanoyl Chloride

    Applications of Octanoyl Chloride in Industrial Manufacturing

    As a direct manufacturer, we supply Octanoyl Chloride for chemical synthesis and processing in tightly regulated downstream fields. Its reactive acyl chloride functionality underpins essential transformations in pharmaceutical, agrochemical, and specialty chemical manufacturing, with stringent requirements for quality, traceability, and compliance at every stage of the supply chain.

    1. Pharmaceutical Intermediate Synthesis

    Major pharmaceutical producers use Octanoyl Chloride as a key acylating agent in multi-step synthesis for the preparation of active pharmaceutical ingredients, notably within the family of cephalosporin and penem antibiotics. Its chain length and reactivity profile provide the correct balance of hydrophobicity and acylation selectivity, affecting both intermediate purity and overall yield. Controlled reaction parameters—such as low-temperature addition and precise molar ratios—help reduce impurity formation and ensure compliance with global pharmacopeial standards.

    Industry compliance standards

    • ICH Q7 Good Manufacturing Practice for Active Pharmaceutical Ingredients
    • EU GMP (EudraLex – Volume 4)
    • USP-NF Monographs & General Chapters
    • EDQM CEP and DMF documentation for regulated markets

    Typical usage ratio

    • Used at 1.0 – 1.3 molar equivalents relative to the nucleophilic substrate. Adjusted based on substrate reactivity and impurity control requirements, with in-process analytics guiding ratio optimization at pilot and commercial scale.

    Downstream process integration

    • Introduced during the acylation step after core ring or backbone formation, typically in anhydrous solvent under inert atmosphere, followed by aqueous work-up or purification.

    Final product types

    • Cephalosporin antibiotics (e.g., cefotiam, cefixime intermediates)
    • Penem beta-lactam intermediates
    • Pseudomonas-active API precursors

    2. Agrochemical Active Ingredient Manufacturing

    Octanoyl Chloride is employed by crop protection manufacturers for acyl group introduction in herbicide and fungicide synthesis, especially for selective alkyl-acylated active compounds. Its use ensures consistent molecular characteristics necessary for biological activity and regulatory approval, with special attention to minimizing residual chlorides and by-products to meet environmental and workplace safety benchmarks.

    Industry compliance standards

    • FAO/WHO Specifications for Agricultural Pesticides
    • REACH Regulation (EC 1907/2006)
    • ISO 9001:2015 Quality Management Systems
    • Local Environmental Permitting (e.g., China IECC, US EPA Section 5)

    Typical usage ratio

    • Applied at 5%–12% by weight of reaction mixture, adjusted based on target molecule’s acyl requirements and process scale. Usage rates are validated during laboratory and pilot trials before commercial implementation.

    Downstream process integration

    • Dosage occurs during late-stage molecule assembly or protective group strategies, often coupled with acid scavengers such as pyridine or tertiary amines. Process controls maintain by-product removal and solvent recycling.

    Final product types

    • Precursor compounds for pre-emergent herbicides
    • Intermediate steps in triazole fungicide synthesis
    • Acylated insecticidal compounds

    3. Specialty Plasticizer and Surfactant Precursor Production

    Manufacturers of specialty chemicals utilize Octanoyl Chloride as a building block in synthesizing high-performance esters and amides for plasticizer and surfactant applications. Its C8 chain provides hydrophobic character critical to end-use properties such as flexibility in PVC formulations or micelle stability in detergents. Quality assurance programs tightly monitor the introduction of the material to control color, odor, and volatility in intermediate and final products.

    Industry compliance standards

    • EU REACH Compliance (Registration, Evaluation, Authorisation and Restriction of Chemicals)
    • EN 71-3:2019 Migration of Certain Elements (for plasticizers in toys)
    • ISO 14001:2015 Environmental Management Systems
    • Safety Data Sheet (SDS) management in line with GHS (Globally Harmonized System)

    Typical usage ratio

    • Ranging from 8%–18% by weight in surfactant precursor synthesis, and 10%–25% by weight in esterification for plasticizer intermediates. Adjusted by target chain length and functional group density in the finished molecule.

    Downstream process integration

    • Fed directly into esterification or amidation reactors alongside alcohol or amine counterparts, with continuous monitoring of unreacted acid chloride and acid traps employed to ensure product quality and worker safety.

    Final product types

    • Non-ionic surfactant intermediates
    • Specialty plasticizers for flexible PVC
    • Lubricant additive esters

    4. Aroma and Flavor Compound Ingredient Synthesis

    Producers of aroma chemicals and food-grade esters use Octanoyl Chloride to impart unique octanoyl groups to select flavor and fragrance molecules. Its natural origin potential and strong chain specificity allow for replication of food keynotes (such as coconut and fruity notes) in both natural and synthetic formulations. Strict QA and regulatory documentation are necessary to ensure safe use in applications that may come into food chain contact.

    Industry compliance standards

    • FEMA GRAS (Flavor and Extract Manufacturers Association)
    • IFRA Code of Practice for Fragrance Ingredients
    • 21 CFR 172 – Food Additives Permitted for Direct Addition to Food for Human Consumption (US FDA)
    • ISO 22000:2018 Food Safety Management Systems (for food-adjacent applications)

    Typical usage ratio

    • Used between 4%–11% by weight in flavor esterification runs and up to 7% for specialty fragrance intermediates. Final content is limited by allowable thresholds in finished food or cosmetic formulations, determined via sensory trials and toxicological assessment.

    Downstream process integration

    • Charged into batch reactors or continuous columns under controlled addition rates, typically after sourcing the target alcohol or hydroxy-aromatic partner. Final product is filtered, neutralized, and subjected to odor/color assessment before bulk filling.

    Final product types

    • Octanoyl esters for use in beverages and confectionery
    • Fatty acid-derived aroma molecules in perfumery
    • Solvent carriers for food-grade flavor formulations

    5. Advanced Polymer Functionalization

    Producers of specialty resins and custom polymers rely on Octanoyl Chloride for grafting and end-group modification during the production of functionalized polyolefins, polyacrylates, and biopolymers. This modification imparts hydrophobicity, adjusts melting properties, and improves compatibility traits. Detailed analytical controls—such as GPC, NMR, and HPLC monitoring—accompany each production batch, and manufacturers track lot-specific data for downstream traceability requirements in industries such as electronics and automotive assemblies.

    Industry compliance standards

    • RoHS Directive (EU 2015/863) for electronic applications
    • ISO 9001 Quality Assurance for polymer manufacturing
    • TSCA Inventory Listing (US EPA)
    • EN ISO 11357 – Differential Scanning Calorimetry (resin thermal analysis/compliance)

    Typical usage ratio

    • Blended at 0.5%–6% by weight, depending on polymer backbone, chain transfer expectations, and end-use application. Adjusted according to final property targets and compatibility testing results.

    Downstream process integration

    • Feeds by metering pumps into backbone modification or chain-end capping reactors, often during solution or melt-phase polymerization; followed by neutralization step before pelletization or extrusion.

    Final product types

    • Hydrophobically modified polyacrylates
    • End-capped polyolefin masterbatches
    • Impact modifier resins for engineering plastics
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    Certification & Compliance
    More Introduction

    Octanoyl Chloride: Quality at the Source

    Introduction to Octanoyl Chloride

    Octanoyl chloride, known in laboratories as capryloyl chloride, serves as an acyl chloride with a reliable C8 straight-chain backbone. Over the years in our facility, we have consistently produced this compound, focusing on purity and safety, and we have seen how even slight variations during synthesis can alter the downstream results for manufacturers. Our product appears as a clear to pale yellow liquid, carrying a pungent odor signature to its family of acyl chlorides. Strong emphasis has always been placed on maintaining minimal impurity profiles, particularly reducing unreacted starting acids and residual solvents, which is crucial for clients who use this substance in sensitive synthesis environments.

    Model and Specifications: Precision Matters

    Our model for octanoyl chloride is built around consistent batch production, not just on the surface but right down to how trace water is excluded and how the product is stored to avoid decomposition or formation of hydrochloric acid. Each production batch undergoes gas chromatography analysis and titration to confirm content above 99%, meeting requirements imposed by active pharmaceutical ingredient synthesis and specialty polymer production. Many of our long-term partners in agrochemicals and flavors have highlighted the difference when contaminants like octanoic acid and mixed-chain chlorides are present even at low levels. By refining our purification and distillation processes, we have minimized these side products, which means researchers and formulators can skip tedious extra cleanup steps.

    Handled with Experience: Challenges in Production

    Manufacturing octanoyl chloride without exposing workers and the environment to corrosive fumes takes careful design, including closed-loop reactors, effective scrubbing systems, and regular maintenance. Early in our company’s history, small leaks led to pungent mists that disrupted workflow and risked safety. Years of feedback prompted investments in improved seals, operator training sessions, and real-time air quality checks. We learned the value of quality containers, as poorly capped drums lead to degradation and contaminated content. By sourcing lined steel drums or high-density polyethylene containers, we protect the product from atmospheric moisture, which could hydrolyze the acid chloride and degrade utility.

    Application in the Real World

    Most people hear “octanoyl chloride” and think of chemical equations rather than finished goods. In our experience supplying this chemical over several decades, we’ve seen formulators rely on it for producing pharmaceutical intermediates such as local anesthetic precursors, herbicide and pesticide molecules, and even novel surfactants. The acylation reactivity of octanoyl chloride speeds up condensation steps that would drag if acids or esters were used instead. In perfume manufacturing, adding an octanoyl group can create esters with distinctive fruity notes; this single step sometimes replaces more complex, less efficient routes from the past.

    Our factory’s output has also found its way into custom synthesis of functional polymers, where octanoyl chloride helps couple monomers under mild conditions. Unlike some shorter or longer chain acyl chlorides, octanoyl chloride bridges the right mix of hydrophobicity and volatility, allowing finished molecules that perform in water repellent coatings without transferring unwanted odors or instability. Customers from the electronics sector value this specific profile when working on special adhesives or heat-resistant materials.

    Why Octanoyl Chloride Not Another Acyl Chloride?

    Products like acetyl chloride or lauroyl chloride appear on many chemical suppliers’ lists, but after years of feedback from end users, it’s plain that selection goes beyond picking the cheapest supplier. Acetyl chloride has a higher vapor pressure, stronger odor, and mixes intimately into water; workers must pay extra attention to ventilation and emergency preparedness. Lauroyl and longer chain acyl chlorides, on the other hand, usually need more heat to react and frequently produce greasier residues that complicate reactor cleaning or haze up products designed for coatings or films.

    Octanoyl chloride offers a balanced chain length: not so short that unwanted byproduct evaporation clogs equipment or damages sensitive ingredients, not so long that it fails to participate in condensed phase reactions. From manufacturers’ point of view, this C8 chain distribution produces a more reliable stearic profile in final esters, improves solubility in organic phases, and gives manageable reactivity windows in both batch and continuous processes. Comparing to non-chloride activating agents, octanoyl chloride shortens reaction times and reduces energy costs because it reacts rapidly under milder conditions.

    Working Through Industry-Specific Needs

    Over years of supplying octanoyl chloride to the pharmaceutical sector, clients have often shared feedback about how the purity profile directly impacts patent filings and regulatory audits. Regulatory reviewers glance at impurity spectra and, in one case, an unexpected contaminant nearly caused a year-long delay for a generic drug launch. We responded by reformulating the quenching and washing steps during synthesis, stripping away these trace byproducts and sending samples to third-party labs to confirm the improvements. By prioritizing this close feedback loop, we’ve helped clients avoid the cost and risk of failed audits.

    In the agrochemical sector, material handling affects shelf life of the active ingredient. A major herbicide now reaching commercial scale in Asia uses octanoyl chloride in its last synthetic step. Since switching to our high-purity grade, the customer reported increases in final yield, fewer downstream plant shutdowns, and reduced time spent cleaning mixing tanks. Direct feedback like this highlights the practical value gained from close control at the point of manufacture, not just in downstream application labs.

    Environmental and Safety Considerations

    Handling and shipping octanoyl chloride brings up specific environmental and worker safety issues, especially its reactivity with water and formation of hydrochloric acid vapor. In the past, we experienced rejected containers due to trace leaks or caps not fully tightened after factory inspection. These lessons prompted extra operator training, improved container design, and coating secondary storage areas with neutralizing absorbents. Over the years, our chemical response team developed clear protocols for small and large leaks, including designated isolation and ventilation zones, ensuring risks are managed during unforeseen events.

    Air monitoring remains a significant investment. Early detection sensors, combined with frequent human checks, helped us catch smaller leaks and prevent larger issues. Local authorities have reviewed our site several times, citing our emission records as a local benchmark. These precautions prevent vapor loss and potential fines, and they show customers that strong production controls make a real difference for both worker health and long-term business.

    We have engaged directly with packaging vendors to upgrade the gasket materials in drum closures, switching to compounds that resist swelling and cracking over repeated use. These technical improvements have cut down on failed shipments and product recalls, which not only saves time and resources but keeps our relationships with customers strong and rooted in trust.

    Partnering for Technical Improvements

    Communication between our plant and major users of octanoyl chloride has shaped the evolution of our product line. One notable case emerged with a specialty flavor manufacturer who struggled with batch-to-batch variability from previous suppliers. Lab analysis showed extra isomer content and inconsistent acidity levels. After reviewing their feedstock requirements, we adjusted our distillation cut points and worked in partnership with their R&D staff to fine-tune both the manufacturing and application methods. Within several months, the customer reported steadier outcomes in their final product, faster blending, and longer shelf life.

    In another project, we supplied octanoyl chloride for a research group developing novel antimicrobial coatings. Their pilot plant needed lots of technical data—water content, specific gravity variation, trace metal profiles—that we had not commonly compiled. Recognizing the growing sophistication of our client base, we introduced routine extra analyses and transparency in reporting, providing the kind of documentation expected during tech transfer and scale-up. These steps helped the client secure further grants and deepen the collaboration for the next stages of their product development.

    Supporting Long-Term Reliability

    Consistency, not just of product quality but supply chain performance, tells the real story in B2B chemical manufacturing. Octanoyl chloride, as a raw material, has proven particularly sensitive to disruptions in transportation infrastructure, seasonal availability of precursor acids, and changing international regulations. To address these unpredictable pressures, we diversified our sourcing of feedstock n-octanoic acid, built redundancy into our shipment planning, and invested in local bulk storage tanks so shipments can go out at a moment’s notice.

    During the COVID-19 crisis, several downstream users in pharma and fragrance sectors gave us urgent requests because other suppliers dropped out due to logistic bottlenecks. Our plant kept working around the clock, and supply was maintained through a mix of careful workforce management, in-house COVID protocols, and real-time communication with end users. This level of reliability, combined with a deep technical understanding of octanoyl chloride’s quirks, cemented several new partnerships. Such relationships create value for both sides and drive ongoing process improvement.

    Customer Education: Reducing Risks and Improving Results

    Many industry newcomers underestimate the hazards of unprotected acid chloride handling. Over the years we have received calls about white fuming bottles or stuck valves. In response, we have developed plain-language handling guides and onsite training resources, covering sampling, dilution, emergency neutralization, and equipment compatibility. New users now routinely consult with our technical support staff when designing lines for acid chloride introduction. We learned that even small suggestions—from selecting proper gasket materials to setting nitrogen purges—make a measurable difference in field safety and productivity.

    Most production setbacks with acyl chlorides stem from overlooking basic handling or failing to anticipate potential hydrolysis. We advise all new site managers to monitor storage room humidity, rotate stocks, and always measure with dry, compatible glassware. Even as automation expands, a focus on raising worker awareness makes us confident customers will avoid costly accidents or product loss.

    Why We Produce Octanoyl Chloride In-House

    Outsourcing specialty chemicals tempts many manufacturing companies with the promise of cost savings, but decades of running our own process units have taught us hard-earned lessons about what really matters: traceability, control, and continuous quality improvement. By keeping octanoyl chloride production under our roof, small operational variables—acid purity, batch temperature distribution, work-up time—are noticed and corrected early. We see consistent analytical data from production, storage, and outgoing shipments, and we have decades of data to spot subtle trends before they become problems.

    This inside knowledge translates to day-to-day benefits for our users. By responding directly to feedback about specific application needs—such as reducing byproduct content for a drug master file or ensuring reactivity parameters are identical over time—we deliver not just a product, but a tested solution with every drum.

    Continuous Improvement and Looking Ahead

    Moving forward, we keep pace with evolving standards in both environmental compliance and product purity. Global customers expect stricter documentation, faster response times, and the ability to trace each drum back to its exact batch conditions and analytical record. By upgrading digital recordkeeping and integrating new analytical tools, we aim to stay two steps ahead of evolving customer needs.

    Our technical development team continues exploring routes to further reduce energy usage and streamline recovery of byproducts during octanoyl chloride production. Recent trials with improved catalytic systems have already brought process waste down by several percent, benefiting both the local ecosystem and operational margins.

    In Closing: Octanoyl Chloride in Practice

    The chemical supply business is full of raw materials like octanoyl chloride, but real value emerges from consistent manufacture, technical support, and a willingness to listen and adjust to end-user needs. Over decades of hands-on production, through equipment failures, market changes, and evolving application demands, we’ve shaped our approach—not just as a materials manufacturer, but as a true partner in solving process challenges. Octanoyl chloride remains one of our core products, trusted by leading sectors and improved year after year by practical, firsthand experience at the point of manufacture.