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HS Code |
743619 |
| Cas Number | 16509-43-8 |
| Molecular Formula | C11H19ClO |
| Molecular Weight | 202.72 |
| Appearance | Colorless to yellow liquid |
| Boiling Point | 130-132°C at 14 mmHg |
| Density | 0.978 g/mL at 25°C |
| Refractive Index | 1.452-1.454 at 20°C |
| Flash Point | 110°C |
| Purity | Typically ≥ 97% |
| Solubility | Decomposes in water; soluble in common organic solvents |
| Smiles | C=CCCCCCCCC(=O)Cl |
| Storage Temperature | Store at 2-8°C |
As an accredited 10-Undecenoyl Chloride factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The 10-Undecenoyl chloride is supplied in a 25-gram amber glass bottle with a secure, leak-proof screw cap for safe handling. |
| Shipping | 10-Undecenoyl Chloride is shipped in tightly sealed containers, protected from moisture and light, under a nitrogen or inert gas atmosphere. It is transported as a hazardous material in accordance with relevant regulations, requiring labeling for corrosive substances and secure packaging to prevent leaks during transit. Handle with appropriate safety precautions. |
| Storage | 10-Undecenoyl chloride should be stored in a cool, dry, and well-ventilated area, away from sources of moisture and direct sunlight. Keep it tightly sealed in a corrosion-resistant container, preferably under an inert atmosphere like nitrogen. Store away from incompatible substances such as strong bases, alcohols, and oxidizers. Handle with care, using appropriate personal protective equipment to prevent exposure. |
Applications of 10-Undecenoyl Chloride in Industrial Manufacturing10-Undecenoyl Chloride delivers targeted performance for specialized synthesis in fine chemicals and polymer manufacturing. As the original producer, we support formulation, compliance, and technical integration into downstream operations across select high-value application sectors. The following scenarios detail specific uses, regulatory frameworks, composition ratios, process positions, and typical final products realized by our industrial clients. 1. Synthesis of Azelaic Acid for High-Performance PolyamidesThis acid chloride serves as a key intermediate in the manufacture of azelaic acid via oxidative cleavage, a route which underpins the production of PA610 and PA1010 bio-based polyamides. Engineering polymers created with these monomers deliver enhanced flexibility and moisture resistance for demanding automotive and electrical applications. Integration of 10-Undecenoyl Chloride enables precise control over acid purity and molecular weight parameters. Industry compliance standards
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2. Synthesis of Undecylenic Acid Esters for Cosmetic Actives10-Undecenoyl Chloride is essential for creating high-purity undecylenic acid esters, widely applied as multifunctional anti-fungal actives and emollients within regulated personal care and pharmaceutical preparations. Direct acid chloride esterification ensures product stability and texture critical for skin care formulations. Producers achieve the required chain uniformity and purity by tightly controlling the acid chloride introduction step. Industry compliance standards
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3. Modification of Silica Surfaces in Advanced Material CompositesManufacturers of composite materials and specialty coatings leverage 10-Undecenoyl Chloride as a coupling agent for silica modification. Its terminal unsaturation and reactive chloride facilitate covalent bonding on silanol-rich inorganic surfaces, contributing to controlled hydrophobicity and reactivity. Accurate usage ensures robust surface grafting in tailored nanocomposite or filler systems employed in electronics or polymer compounding. Industry compliance standards
Typical usage ratio
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4. Building Block for Pharmaceutical Synthesis of Antifungal APIsPharmaceutical API producers rely on 10-Undecenoyl Chloride as a core intermediate in the synthesis of undecylenic acid derivatives, particularly in the production of actives such as undecylenic acid monoethanolamide and salts. Entry via the acid chloride route ensures efficient conversion with minimal byproducts, supporting strict impurity limits for GMP-regulated APIs. Facilities can fine-tune process safety and scalability for clinical and commercial batch sizes. Industry compliance standards
Typical usage ratio
Downstream process integration
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Every batch of 10-Undecenoyl Chloride we produce represents many years of hands-on process refinement. Our technicians have adjusted everything from distillation columns to handling routines. From raw materials through to packaging, we push for consistency not only in purity but in the handling experience. Technical teams know well that impurities influence downstream results; overlooked moisture or trace contaminants upset sensitive syntheses. We guard against that with careful feedstock selection and repetitive, controlled unit operations. In the end, each drum and bottle matches expectations: colorless to pale yellow, pungent, reactive, packed air-free to keep out humidity.
As producers working with 10-undecenoic acid and thionyl chloride, we have paid close attention to conversion rates and purification. Minimizing by-products such as sulfur dioxide and unreacted acid makes downstream processing more predictable. Whether using chlorination for acylation, amidation, or esterification, users rely on tight purity from the first step. Each customer’s synthesis has taught us the fine points: certain contaminants ruin yields during amide coupling. We've worked to detect and hold the acid content and color bodies well below industry tolerances in our standard model.
Our standard offering uses a molecular formula of C11H19ClO, molecular weight of 202.73. We run batch lots so each drum aligns within 98.5%-99.5% purity, usually surpassing this figure based on contemporary GC and titration data. We select not just for chemical, but for handling properties—low residual acid, undetectable water, minimal haze, and stability at room temperature. Drums and bottles have been tested by our longest-standing clients in both R&D and production. Their voices shaped everything from cap threading to label material. Some syntheses require material that meets even stricter thresholds, so we produce higher grades on request, using the same upstream controls and cleanroom filling lines to prevent any cross-contamination.
The most critical point we’ve learned through years of supply is that small impurities amplify across multi-step syntheses. That’s why we maintain in-process checkpoints: titration after distillation, GC-MS at filling, and retention-sample archiving. If you ever need certificates or historical batch data, our technical managers quickly provide them because we don’t store information for its own sake—it’s there for process troubleshooting and customer confidence.
In the field, 10-Undecenoyl Chloride gets pulled directly into organic synthesis labs working on high-value building blocks—pharmaceuticals, fragrances, agrochemicals. Its terminal alkene and acyl chloride function open a range of transformations. Most often, clients use it for producing amides, esters, and other derivatives where a controlled chain length matters. We have witnessed this product play a pivotal role in the synthesis of surfactant intermediates, antimicrobial agents, and specialty lubricants. In our own internal pilot work, we developed N-acylated derivatives, testing their biological activity in close collaboration with application chemists.
One user, working on an active pharmaceutical ingredient (API), pointed out how minor increases in color sometimes meant higher levels of polymerized by-products, compromising yields in subsequent coupling steps. Our technical team traced this to fractional solvent carry-over and remediated it by further isolating the product at lower pressures and in shorter residence times. This feedback loop between the plant and our users has steadily improved performance across dozens of applications. It shows why off-spec or poorly controlled versions of 10-Undecenoyl Chloride simply don’t work for sensitive pharma applications.
Working from a chemist’s perspective, it’s tempting to treat all mid-chain acid chlorides as interchangeable, but operational differences are significant. 10-Undecenoyl Chloride features an alkene at the terminal end of an eleven-carbon chain. Compared to undecanoic acid chloride (which lacks the double bond), our product opens routes for metathesis, epoxidation, or Michael addition, letting users introduce further functionality post-acylation. That single double bond—remote from the chlorinated terminus—lets downstream chemists perform cross-coupling, click chemistry, or selective oxidations that boost structural diversity.
Shorter-chain analogs like hexanoyl chloride or octanoyl chloride behave differently in synthesis—they’re less hydrophobic, more volatile, and cannot supply the same molecular frameworks for advanced materials or biologically active compounds. The extra backbone in 10-Undecenoyl Chloride helps you tailor surfactant hydrophobicity, match lipophilicity to formulation needs, or build more flexible carbon chains into your molecules. We make both saturated and unsaturated variants in our facility, and customer input has shown that slight differences in reactivity and volatility change the optimal handling methods. In R&D, those details often spell the difference between success and lab headaches.
Manufacturing at scale brings practical insights hard to glean from the literature. Thionyl chloride, for instance, generates dense fumes and exotherms with 10-undecenoic acid—crucial safety and environmental considerations. We invest in proper off-gas scrubbing, closed-system batch reactors, and precise feed control. Over time, process engineers have tweaked reaction temperatures and residence times to reduce byproduct formation. We collect every kilogram with dedicated lines on our filling floor, tracking drum identity from synthesis to loading dock.
Several clients required exceptionally low chloride residues; our process improvement team responded by refining post-reaction neutralization and washing, ensuring residual inorganic chloride meets tightest tolerances. Color bodies tend to rise if batch residence runs long; automated process controls prevent that drift. If a project needs analytical backup, our in-house lab uses titration, Karl Fischer, and spectroscopic benchmarks before shipping—nothing leaves without signatures from both the reactor technician and QC analyst.
We strongly believe that documentation and traceability set real manufacturers apart. Our facility holds a decade’s worth of retained samples and batch paperwork, meaning any technical query links to real-world process records and not just product data sheets. We regularly audit our supply chain and share key analytical results with both new startups and large established specialty firms using our product in advanced syntheses.
Producing 10-Undecenoyl Chloride responsibly means grasping the hazards as well as the product’s value. The material reacts sharply with water and alcohols, releases HCl fumes, and corrodes common metals. Over the years, we’ve switched from basic steel tanks and vented drums to lined packaging, PTFE gaskets, and nitrogen blanketing. Plant staff receive yearly hands-on safety refreshers. You won’t find empty assurances about the risks—only real information drawn from incidents, actual near-misses, and decades of careful improvement.
Our facility has steadily reduced overall emissions and solvent usage, both due to regulatory tightening and our own goals for safer, greener operations. Waste streams undergo in-house neutralization before off-site treatment, and solvent recovery is routine. Technicians who handle this product daily treat it with the same respect as any other highly reactive acyl chloride—protective clothing, ventilated fume hoods, and zero tolerance for cross-contamination. All this makes sure drums arrive clean, dry, and with intact seals.
Those planning to scale from lab grams to industrial kilos find our support valuable. We’ve helped dozens of groups fine-tune everything from storage times to pump seals, based on what we’ve learned from our own storage losses or shipping events. On the customer side, it’s about reducing the unknowns and passing along tips that make everyday handling more predictable and safe.
A chemical rarely stands alone. Downstream users—pharma formulation teams, fragrance chemists, materials scientists—depend on regular access and open communication. Every month we field requests for application notes, optimization hints, and troubleshooting help. We never use generic language because every synthesis presents a different challenge. What matters most is knowing what real-world hurdles look like and putting solutions into the hands of those who need them—fast.
Case in point: process chemists from a pharma company struggled with the instability of 10-Undecenoyl Chloride under local storage conditions. Our logistics and process team worked closely with them, delivering smaller drums filled under nitrogen, and arranging for more frequent replenishment. Our relationship didn’t stop at the drum hand-off; it continued with follow-up samples and direct lab visits, making sure process changes really worked. This approach, learned through years of client partnerships, earns trust and supports innovation.
We believe that high-quality starting materials underpin R&D progress. When something goes wrong, we’re present. Chromatograms, process flow diagrams, and archived batches sit ready—no guesswork or slow customer support lines. Our QA team picks up patterns from technical feedback and uses that data to make quick process changes, ensuring consistency across time for each client.
We stake our reputation on each bottle and drum. Above all, what sets a manufacturer apart is repeatable, honest output—our product never carries the uncertainties of imported or resold material. Plant workers, chemists, and shipping managers know how deviations affect real users. If there’s ever a concern about volatility of pricing, timing, or landscape shifts in global chemical sourcing, we discuss risk-management strategies frankly, not as a sales pitch but as a baseline for planning.
Material quality at scale takes careful raw material vetting, tight in-process monitoring, and responsive customer service. Behind every model and grade of 10-Undecenoyl Chloride, there’s a continuous feedback loop with customers and an internal team committed to measured, transparent improvement.
A quick glance at research publications and product launches from recent years says a lot about the importance of specialty intermediates like ours. Chemists in pharmaceuticals, polymers, and functional materials search for acyl chlorides with unique reactivity and functional handles. The double-bond on the undecanoyl chain lets application scientists develop tailored surface treatments, polymerizable surfactants, and next-generation active molecules.
We’ve seen creative approaches flourish because of the versatility built into our 10-Undecenoyl Chloride. At our plant, we often work with R&D partners looking to scale-up promising bench reactions. Delays usually stem not from technical complexity, but from bottlenecks in raw material purity or batch-to-batch variability. Our job remains delivering uniform material, offering technical knowledge, and being upfront about what’s possible with current methods.
Among alternative acyl chlorides, few match the breadth of transformations unlocked by the unsaturated eleven-carbon backbone. Cases that demand amide bond formation, selective derivatization, or downstream polymerization showcase how the right starting material pulls new discoveries within reach. We’ve crafted our offering to fit these ambitions, and as a manufacturer, we keep our ears open to new uses, unusual problems, and next steps that shape industry progress.
The chemical marketplace never stands still. Regulatory demands push us to rethink emissions, toxicology, and transport. Market shortages or technical problems challenge us to invent workarounds. Our team regularly invests in process upgrades, increases capacity to meet surges in demand, and experiments with greener reagents or better process controls. Ongoing collaboration with both clients and academic partners keeps everyone aware of changing standards.
New guidance on packaging, labelling, and reach compliance often means our product documentation changes, but our internal workflows have grown flexible enough to adapt quickly. We work directly with shipping partners to ensure the product stays compliant from factory dock to international warehouse.
In the end, only those willing to listen and respond to real-world demands will keep pace. Our focus never drifts from technical support, reliable supply, and compositional honesty.
Behind every bottle of 10-Undecenoyl Chloride stands a manufacturing team with deep, specific experience. Each specification, process tweak, and customer interaction has taught us the details that drive success on both sides of a transaction. Chemical manufacturing is more than just making molecules—it’s about connecting output to innovation, process control to scientific reliability, and technical dialogue to the needs of real researchers and producers.
Anyone searching for a dependable source of 10-Undecenoyl Chloride benefits most from a partnership rooted in practical know-how, stringent quality standards, and a willingness to share field-tested experience. As the global chemical industry faces new challenges and opportunities, our factory remains committed to straightforward support, high-quality materials, and continuous learning. Cultivating that blend of skill and integrity never gets old—it’s what keeps production lines running and new discoveries possible.