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HS Code |
928857 |
| name | Cis-10-Nonadecenoic Acid |
| synonyms | 10-Nonadecenoic acid; (Z)-10-Nonadecenoic acid |
| chemical_formula | C19H36O2 |
| molecular_weight | 296.49 g/mol |
| CAS_number | 2566-42-9 |
| appearance | White to off-white solid |
| solubility_in_water | Insoluble |
| melting_point | 35-37°C |
| structure | Monounsaturated fatty acid with a cis double bond at the 10th carbon |
| IUPAC_name | (Z)-Nonadec-10-enoic acid |
As an accredited Cis-10-Nonadecenoic Acid factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Cis-10-Nonadecenoic Acid is packaged in a 1-gram amber glass vial, clearly labeled with product name, purity, and safety warnings. |
| Shipping | **Shipping Description for Cis-10-Nonadecenoic Acid:** Cis-10-Nonadecenoic Acid is shipped in tightly sealed containers under ambient conditions. The material is protected from moisture, direct sunlight, and extreme temperatures. Packaging complies with applicable safety regulations to prevent leaks or contamination. Appropriate hazard labeling and shipping documentation are provided per international and local chemical transportation standards. |
| Storage | Cis-10-Nonadecenoic acid should be stored in a cool, dry, and well-ventilated place, away from direct sunlight and sources of ignition. Keep the container tightly closed to prevent moisture absorption and contamination. Store at room temperature or as specified on the product label, preferably in an inert atmosphere such as under nitrogen or argon to minimize oxidation. |
Applications of Cis-10-Nonadecenoic Acid in Industrial ManufacturingCis-10-Nonadecenoic Acid is a high-purity monounsaturated fatty acid used as a key intermediate in several industrial sectors. As a direct manufacturer, we ensure batch consistency, traceability, and technical support for downstream formulators. Below, we outline true-use segments, each with distinct formulations, compliance, process stages, and end product types recognized by international industry practices. 1. Lubricant Additive Formulation for Precision EngineeringThis fatty acid serves as a structure-modifying co-base in synthetic ester lubricant additive production. Its C19 backbone and unique cis-double bond enable formulation of low-pour-point synthetic lubricants for high-temperature, low-wear actuators and gears, particularly in aerospace and robotics component manufacture. It enters at the blending stage after base oil selection, providing enhanced lubricity and resistance to oxidative degradation under extended service intervals. Industry compliance standards
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2. Specialty Surfactant Intermediate for Emulsion PolymerizationIn emulsion polymerization, this raw material provides a rare long-chain unsaturated structure for amphiphilic surfactant synthesis. Polymeric dispersants and stabilizers incorporate this acid to achieve controlled particle morphology, size distribution, and hydrophobicity, which are not possible with shorter-chain feedstocks. Its application targets performance polymers for paints, high-value adhesives, and controlled drug release matrices. Industry compliance standards
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3. High Purity Reagent in Analytical and Synthesis LaboratoriesWe offer stringent lot qualification for laboratory reagent customers using cis-10-nonadecenoic acid in chromatography and derivatization studies. Its long mono-unsaturated chain serves as a reliable retention time marker in GC and HPLC fatty acid profiling. Research formulators also use it as a model substrate in enzyme, catalyst, and hydrogenation pathway screening, due to its molecular specificity. Industry compliance standards
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4. Cosmetic Emollient and Emulsifier BaseCosmetic manufacturers use this fatty acid as an emollient and functional emulsifier base in high-end skin creams, lotions, and specialty personal care products. Its molecular weight and unsaturation provide targeted skin feel modification and aid in stabilizing water-in-oil emulsions. The acid is neutralized with cosmetic-grade bases at the emulsification stage, supporting manufacturers that claim “long-chain unsaturated fatty acids” for performance and label differentiation. Industry compliance standards
Typical usage ratio
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5. Biopolymer Synthesis for Biodegradable PlasticsThis fatty acid is utilized by polymer manufacturers as a chain-extension monomer and slip agent precursor for specialty biodegradable plastics. The unsaturation and carbon length support targeted melt-flow indices, mechanical pliability, and controlled microbial degradation rates, allowing formulators to meet compostability and single-use regulatory requirements. Reaction occurs during esterification or amidation, customized per end plastic grade. Industry compliance standards
Typical usage ratio
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Cis-10-Nonadecenoic Acid stands as one of the more precise unsaturated fatty acids we produce, and I can say firsthand that its manufacturing process pushes us to balance purity with consistency. This isn’t your bulk commodity acid or a product easily substituted in specialty formulations. For us as a chemical manufacturer, each batch results from continual improvement—tweaking process steps, keeping reaction conditions controlled, using verified raw feedstocks, and never shying away from batch-to-batch analysis.
We’ve long seen academic interest and niche industry demand come together on this material, especially because it serves functions that generic nonadecanoic acid simply can’t. The presence of the single cis double bond at the 10th carbon gives it notable characteristics. Day-to-day, in the plant, that double bond requires extra care—inert atmosphere, optimized temperatures, proper handling to minimize isomerization or unwanted side products. We have to keep things tight, and we do—not just for the sake of product purity but because the industries relying on us notice even small chemical drift.
We supply Cis-10-Nonadecenoic Acid in a model grade tailored specifically for research and advanced industrial applications. Most batches hover around a specification of greater than 98% purity by GC, and moisture content remains tightly checked before packing. Our team handles all quantitative and qualitative analysis in-house, relying on years of analytical troubleshooting to avoid surprises down the line. Melting point, acid value, and color stability are tested post-synthesis, and we keep a close eye for even minimal peroxide formation.
As a long-chain monounsaturated fatty acid, Cis-10-Nonadecenoic Acid holds its own, differing both structurally and functionally from more common C18 or C20 analogues. Odd-chain fatty acids like nonadecanoic have seen renewed interest lately for biomarker work, especially since their metabolic pathways and fate differ in animal systems and oxidative processes. Our technical partners often mention they require the specific odd-carbon chain for bioactive studies or synthetic intermediates where the template can’t be a substitute.
On our production line, the process starts well before the reactor even runs. We select feedstocks ourselves, preferring traceable origins. Odd-chain fatty acids are never as abundant in natural sources, and the availability of raw starting materials means we plan procurement cycles months in advance. Fatty acid chain length and unsaturation place this compound in a quality-sensitive niche. The distinctive cis-configuration at the 10th carbon delivers both a challenge to synthesize and separation headaches if side-products creep in. Our operators follow an SOP rooted in repetition, verification, and detailed documentation, always aiming for a clean, colorless to pale yellow acid with no extraneous odor.
Purification brings its own constraints: distillation under reduced pressure, chromatographic polishing, and regular sampling to ensure unwanted isomers stay out of product pools. Any deviation gets flagged during in-process analysis. This is the kind of process detail only hands-on manufacturing work exposes—for us, close is never good enough since our customers run sensitive experiments, formulation tests, or require certificates of analysis granular enough to satisfy regulatory bodies.
What we’ve observed is that Cis-10-Nonadecenoic Acid turns up more and more in bioactive compound studies, structural lipid research, and tailored surface chemistry work. Its unique chain length and point of unsaturation mean it fits in places less-specialized fatty acids simply don’t—think custom lipid membranes, specialty polymer intermediates, and sometimes in emerging pharmaceutical exploration where the backbone needs to match certain natural or synthetic analogues precisely.
Unlike its even-carbon cousins, this C19 acid plays a role in odd-numbered fatty acid metabolic tracking. Biomedical researchers have told us they select this molecule for accurate tracer studies, since natural biosynthetic pathways process it distinctly. European labs use it to mimic specific microbial lipid compositions, while North American formulators value the chemical handle at the 10th position for further modification.
Surfactant and lubricant innovators add Cis-10-Nonadecenoic Acid to formulations needing a balance between structural rigidity and functional flexibility. The long chain imparts hydrophobic character, the cis double bond brings conformational features that disrupt packing—allowing our clients to tune their products with a level of precision unattainable using saturated homologues. A few of our downstream partners leverage those properties for dispersants, investigating how the unique geometry alters micelle shape and surfactant effectiveness.
Several years ago, a synthetic biology startup decided to recreate certain membrane environments that reflect more primitive, oddly branched biosystems. They reached out to us after commercial suppliers refused to promise single-isomer, high-purity product. The challenge was clear: avoid partial hydrogenation, ensure full conversion, and strip all closely related fatty acids. We took it as a validation of our hands-on approach. With in-house fractionation and repeated GC-FID screening, we delivered the level of specification they required, helping them secure their own regulatory authorizations.
Feedback never arrives in a vacuum. One formulation chemist from a Swedish coatings manufacturer pointed out that even trace instability—where minor peroxides drift upwards during storage—impacted their final product’s shelf-life. We responded by developing a tighter headspace purging system and new packaging. The result: lower oxidative markers and renewed orders. The process becomes iterative, and both sides benefit from real dialogue about what works and what brings risk.
Drawing distinctions between Cis-10-Nonadecenoic Acid and similar products feels like second nature after years making both even- and odd-chain fatty acids for specialty users. Most commercially available fatty acids fall into the even-numbered realm, often derived from standard oleochemical sources like palm, coconut, or animal fats. These products come with established supply chains and familiarity, but never replicate the physical or chemical subtleties of C19:1 (cis-10).
Saturated nonadecanoic acid, for example, brings rigidity but offers none of the molecular flexibility imparted by a cis double bond. Stearic (C18:0) and oleic acids (C18:1 cis-9) fill countless industrial needs—yet neither positions the double bond at the specific carbon, and neither has the same odd-carbon backbone. For many applications, using the wrong chain affects properties like solubility, melting point, or enzymatic reactivity.
Manufacturers like us don’t have the luxury of treating odd- and even-numbered fatty acids as interchangeable—not in synthesis, nor in feedback from clients who notice the downstream impact on performance or reproducibility. Many distributors and resellers lack this hands-on understanding. We know what it means when a batch exhibits slight isomerization, and we know which downstream experiment might fail if the ratio isn’t correct.
After manufacturing, packaging keeps the conversation going. We have shifted to food-grade, nitrogen-purged, amber glass to preserve the sensitive double bond. While some bulk fatty acids tolerate regular polythene drums, that’s never been an option for this product; oxidation, peroxide development, and trace volatility all require better containment. Before shipment, every filled bottle gets an inspection—clean, dry, free from extraneous residues.
Storage, too, follows strict routines. Even minor exposure to light or air can shift the profile and, over time, cause a subtle change that research customers will notice. We keep real-time stability data, and not just from accelerated testing, but from actual inventory held at controlled temperatures. When academic partners or pharmaceutical customers take delivery, they want to know it has not drifted beyond agreed parameters. This demand shapes every improvement, from cap liner selection to storage schedules.
Over the years, we have resisted the temptation to delegate our quality assurance or fill labs with generalist equipment. Instead, repeat verification forms the backbone of our workflow. Our team runs gas chromatography, IR, and titration checks, each step rooted in years of mistakes and corrections. Our chromatograms show a tight single peak—no lingering byproducts, no unresolved isomer traces. The acid value tells a story about production discipline, not just product grade.
We accept only material traceable back to its process batch, and every stage—from distillation through packaging—receives a unique identifier and sample. This approach doesn’t just keep us out of regulatory hot water; it also reassures us as manufacturers that everything leaving the plant aligns with the expectations set during sales conversations or at trade shows. If something slips, we document, correct, and inform, always closing the loop.
Every so often, a customer arrives needing minor modifications—higher purity for toxicology, different solvent carriers, or research-grade validation. Because each stage happens in-house, we’re able to comply swiftly, without waiting on external labs or cobbling together compliance paperwork post-hoc. Production discipline supports flexibility when it matters most.
This category of compound doesn’t come easy in today’s market. Supply chain pressure sometimes limits access to odd-chain feedstocks, and market volatility for plant-based oil can scuttle planning. Unlike even-chain acids, making Cis-10-Nonadecenoic Acid never achieves the same scale or routine. Deviations in process—raw oil quality, catalytic selectivity, or batch duration—have far greater consequences, both for purity and for cost.
Price pressure occasionally undermines the incentive to do things right, which means only a few producers invest in the necessary analytical equipment and operator training required to succeed long-term. We’ve chosen to keep these capabilities in-house, even as costs rise, because we’ve seen how easy it is to lose customer confidence by delivering inconsistent batches.
Regulatory frameworks also bring complexity. Each region sets its own limits for impurities, packaging residuals, or allowable intermediates. Our technical team reads each update, not just to comply, but to anticipate customer concerns before they reach us. When a regulatory change approaches, we test, adapt, and record, ready to show our work. We end up with new insights and sometimes, with a better product.
Interest in specialty fatty acids rises as industries look for precise solutions—customizable lipids for biomedical applications, unique monomers for advanced materials, or traceable markers for food authenticity. As demand for Cis-10-Nonadecenoic Acid migrates away from bulk goods into specialty lab and pharmaceutical markets, we have had to grow with our partners. The greatest value comes from close collaboration—sharing application data, tailoring batch size, and delivering the compound you need without compromise.
We have seen researchers model future trends in functional foods around rare-chain fatty acids. As more studies explore dietary effects of minor lipid components, odd-chain acids gain attention for their novel metabolic impact. Compound manufacturers like us must maintain the ability to scale flexibly and reinforce traceability. As new pharmaceutical intermediates and clinical biomarker applications appear, our role becomes not just supplier but collaborator—advising on storage, use, and reformulation.
Sometimes, existing production methods need real overhaul. We’ve invested in reaction monitoring tools, customized distillation setups, and revised our plant protocols—all in response to industry stepping up the requirements. Where once a colorimetric test would suffice, our clients now ask for detailed spectra, impurity fingerprints, and shelf-life projections. The effect is tangible: what once counted as high purity now feels ordinary, and margins for error shrink.
Product launches always bring lessons to manufacturers. Years back, our team struggled with a double bond migration during scale-up. A subtle temperature spike at scale—barely noticed on the pilot line—drove a change in isomer distribution. We caught it through routine sampling and lost a week in root cause analysis. Still, the setback forced us to rethink our thermal management and improve process scripting. Without hands-on oversight, without an operator who knows how the reactor ought to sound, issues like this slip through. Our most reliable asset remains our people, not just our plant.
We continue to believe that true product value goes beyond certificates. Delivering consistent Cis-10-Nonadecenoic Acid involves caring about plant cleanliness, handling details during packing, and keeping benchmarks high. Our customers count on us not to cut corners, even as the market shifts and competition increases. Consistency built on experience, not just protocols, shapes every successful run. In this business, the best feedback comes not just from lab reports but from phone calls asking for the next batch.
More often, industry partners ask about product origin, traceability, and responsible sourcing—not just compliance, but actual commitment. As a hands-on manufacturer, we share production logs openly, supply MSDS documentation, and provide full process history with each order. Our approach means traceable supply chains, worker training on new protocols, regular safety reviews, and a commitment to minimize environmental impact. Odd-chain acid production doesn’t always sit in the spotlight, but our customers—especially those in biotech and pharma—hold us accountable for every detail.
As demand for traceability increases, we keep close digital and paper trails, audited regularly, continually evaluated for gaps or improvements. That transparency becomes part of the product. We have found that building credibility face-to-face at conferences or through direct plant tours brings far more trust than polished brochures or over-designed websites.
Customer needs change, and we stay in step by maintaining an open-door policy. Startups and established labs both reach out for insights on formulation, analytical support, and process troubleshooting—and we listen. Sometimes the solution comes in the form of a small process tweak: new solvent, different purification step, or custom lot testing for an urgent deadline. We see ourselves as partners, not just vendors, because only this business model allows us to keep up with evolving requirements.
Product reviews, regular visits, and ongoing feedback drive our roadmap. We keep technicians available for queries on handling, storage, or downstream compatibility. This isn’t an arms-length transaction; the best business grows from earning trust not once, but every run.
The story of Cis-10-Nonadecenoic Acid reflects a journey in specialty manufacturing—one of continual adaptation, close collaboration, and technical rigor. The result is more than a high-grade fatty acid; it’s a product backed by real accountability, process transparency, and chemistry that makes a difference.
From our plant floor to your lab bench, we respect the critical role Cis-10-Nonadecenoic Acid plays for our partners. We design every improvement, every control, and every conversation around your reality—not generic industry pablum, but the concrete details only a genuine manufacturing relationship can deliver.