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HS Code |
563377 |
| Name | Decanoic Acid |
| Iupac Name | Decanoic acid |
| Other Names | Capric acid |
| Chemical Formula | C10H20O2 |
| Molar Mass | 172.27 g/mol |
| Appearance | Colorless oily liquid |
| Odor | Unpleasant, rancid-like odor |
| Melting Point | 31.5 °C |
| Boiling Point | 268.7 °C |
| Solubility In Water | 0.15 g/L (20 °C) |
| Density | 0.893 g/cm³ (20 °C) |
| Flash Point | 163 °C |
| Cas Number | 334-48-5 |
As an accredited Decanoic Acid factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Decanoic Acid is packaged in a sealed amber glass bottle, labeled clearly, containing 500 mL, with hazard and handling instructions. |
| Shipping | Decanoic acid is shipped in tightly sealed containers made of suitable materials, such as glass, plastic, or metal, to prevent leaks and contamination. It should be stored and transported in a cool, well-ventilated area, away from heat or open flame. Proper labeling and adherence to local, national, and international regulations are required. |
| Storage | Decanoic acid should be stored in a tightly closed container in a cool, dry, well-ventilated area away from heat, sparks, or open flames. Protect it from moisture and incompatible substances such as strong oxidizers. Ensure the storage area is equipped for handling corrosive substances, and clearly label the container. Personal protective equipment is recommended when handling the chemical. |
Applications of Decanoic Acid in Industrial ManufacturingDecanoic Acid, produced at industrial purity under direct synthesis, plays a critical role in various manufacturing sectors. As a direct manufacturer, we supply this raw material to established downstream processes that demand strict regulatory compliance and precise formulation. Below, we outline its real industrial applications, listing typical integration points, required quality certifications, formulation details, and the end-use product range for each sector. 1. Synthetic Lubricant Ester ProductionLeading industrial lubricant manufacturers utilize decanoic acid for the synthesis of synthetic esters, especially in high-performance lubricants for automotive and industrial equipment. During esterification, they react it with polyols or alcohols, such as neopentyl glycol, forming esters with low pour points and high thermal stability. Factories consistently regulate acid value and impurity content to ensure friction reduction, oxidative stability, and long drain intervals in formulated lubricants. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Plasticizer Manufacturing for Flexible PVCMajor producers of PVC and polymeric soft goods use decanoic acid to synthesize biodegradable plasticizers, as an alternative or co-plasticizer with phthalate replacements. They carry out direct esterification with aliphatic diols such as adipic acid or neopentyl glycol, producing esters designed to maintain flexibility, non-leaching properties, and enhanced migration resistance in wire, cable, and film applications. Quality control emphasizes consistent acid purity and batch traceability for stringent approval by global customers. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Manufacturing of Metalworking Fluid AdditivesFormulators of modern metalworking fluids directly introduce decanoic acid as a building block for tailored emulsifiers and corrosion inhibitors. Through controlled neutralization with amines or alkali metals, factories generate salts or esters conferring enhanced lubricity, surface wetting, and rust protection for water-miscible and neat oil systems. Producers monitor chain-length distribution and residual acidity to maximize tool life and minimize foam or staining on finished metal surfaces. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Fragrance and Flavor Ester SynthesisProducers in the fragrance and flavor sector rely on high-purity decanoic acid for synthesis of key esters, such as ethyl decanoate and methyl decanoate, imparting fruity and creamy notes in edible and personal care formulations. In food and fragrance processes, they monitor residual acid levels to ensure minimal off-flavor and compliance with strict purity demands. QC teams manage trace-level impurities and confirm non-GMO, allergen-free status where required. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
5. Pharmaceutical Intermediate for Anticonvulsant SynthesisLeading pharmaceutical manufacturers use pharmaceutical-grade decanoic acid as a precursor in the synthesis of select anticonvulsant APIs and medium-chain triglycerides for oral formulations in epilepsy management. Production facilities control residual solvents and microbiological profiles under cGMP, aligning with compendial monographs and market registration demands in regulated territories. Each batch undergoes full release testing for trace contamination and meets required particle size specifications if powders are used in solid dosage blends. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
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Competitive Decanoic Acid prices that fit your budget—flexible terms and customized quotes for every order.
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Every day in our chemical plant, we turn out metric tons of Decanoic Acid that head straight into various supply chains. This product, also known as capric acid, holds a straightforward place in both industrial and specialty manufacturing. With the CAS number 334-48-5 and a clear, slightly oily appearance, our Decanoic Acid comes with less than 0.2% moisture, and a minimum purity reaching over 98%. What we make is a twelve-carbon saturated fatty acid, packaged bulk or in drums, depending on where it’s going. Semi-solid at room temperature, it has a distinct fatty odor. For clients using it in flavor and fragrance, or as an intermediate in esters and lubricants, these basic physical details matter—not just for inventories, but for real handling.
Our experience blending and distilling Decanoic Acid has taught us that downstream users rely on its consistency. Detergent formulators ask not only for high purity but also for tight color and odor control, since these qualities affect the final product directly. If an end user wants uniform emulsification or predictable performance in surfactant production, deviations in the acid’s content or byproducts throw off recipes. We maintain our own QA testing for acid value, saponification value, melting point, and trace metals. Regularly, customers who switched from generic commodity material to ours mention the drop in off-notes or color drift in their finished product.
Decanoic Acid appears deceptively simple, but its reach spreads wide. In food, it ends up as a natural flavoring agent or part of the formula for artificial butter or dairy creamers; the FDA classifies it as generally recognized as safe at specified levels. In the fragrance world, Decanoic Acid supplies a fatty undertone, rounding out perfumes and masking sharp notes in cosmetics. Engine oil and lubricant blenders appreciate its stable ester production, and they look for high-purity Decanoic Acid because impurities increase deposit formation over time. Latex and rubber industries welcome it for its role in softeners and flexibilizers, as do textile companies improving dye uptake and reducing static from synthetic yarns.
Over years, we’ve seen manufacturers substitute Decanoic Acid for shorter or longer chain fatty acids depending on the functional need. In plastics, capric esters give enhanced plasticity, and in the pharmaceutical sector, Decanoic Acid features in anticonvulsant medicine and certain antimicrobial formulations. One of the most consistent requirements is full traceability to meet regulatory and customer-specific audits—our clients emphasize knowing exactly how their product originated and was processed.
Most of the time, a buyer choosing between Decanoic Acid and other similar acids like lauric or caprylic acid pays close attention to the source and downstream effect. We field a lot of questions about the real differences: Decanoic Acid is less volatile than caprylic, but more manageable than lauric acid, which often solidifies at higher room temperatures. In real-world manufacturing, this translates to easier handling and storage. Decanoic offers fewer odor issues than lower-chain fatty acids, making it suitable where scent profile matters—food processing facilities or fragrance blending houses prefer it for this reason.
Another key distinction is the acid's compatibility with process equipment. We’ve had customers face corrosion or build-up when switching fatty acids, mainly due to differences in oxidation or residue formation. Decanoic Acid strikes a balance in saponification speed and shelf-life, which is why it remains a steady performer in soap and surfactant plants. Compared to lauric acid, Decanoic delivers slightly different foaming characteristics in detergents and personal care items, and the end user might notice variations in product "feel" or emulsification strength.
Our production line runs are documented batch to batch, with archived samples and test records. Customers with supply contracts often request entire documentation chains—sourcing information, processing aids used, and shipping conditions. This isn’t lip service. In today’s regulatory environment, especially in Europe and North America, demonstrating that every ton of Decanoic Acid can be traced back to a known origin is vital for companies facing food, cosmetic, or REACH compliance demands.
We regularly audit our own raw material suppliers. Over the last decade, we’ve moved almost entirely to palm kernel and coconut oil feedstocks certified for sustainable sourcing because downstream users want third-party assurances. Some years back, a wave of demand for palm oil-free sourcing hit our customer base, and we initiated supply contracts with coconut-only procurement, which involved new extraction and purification steps and altered the product's cost profile. We've learned that transparency counts more than marketing buzzwords. Any deviation, even in trace impurity levels from new feedstocks, gets flagged fast during routine GC or colorimetry checks.
Our operators and chemists know that Decanoic Acid’s quality hinges on careful separation and controlled crystallization, especially when moving from crude oil through hydrolysis and distillation. Once, a client flagged batches that showed excess color after long-term storage. This led us back to tweak our final distillation temperature profiles and improve tank purging, and subsequent complaints dropped off. These are the kinds of adjustments that don’t show up in basic spec sheets yet matter greatly to industrial users with low tolerance for process downtime.
We run batch retention for both physical and chemical testing—acid value, saponification number, color (APHA/Pt-Co), peroxide value, and detailed GC analysis. Customers using Decanoic Acid in medical or food-grade applications ask for additional microbiological or heavy metal screens, so our plant set up clean zones and specialized filtration lines. Keeping consistent results isn’t a slogan: it goes back to shifting tankers, maintaining controlled ambient conditions, and regularly cleaning equipment to remove any cross-contaminants. One out-of-specification result sets off follow-up testing for the whole lot, sometimes even halting production until root cause investigations finish.
Concerns about environmental sustainability shape every tender and supply negotiation now. Our buyers track every step, from raw material origin to final bulk delivery. More of our capacity runs on RSPO-certified oil, and we’re rolling out new processing options for clients needing either GMO-free or entirely synthetic origin. These changes mean investments in plant upgrades, monitoring systems, and tracking via barcoded shipments. Export clients in the EU require documented proof of supply chain sustainability, or their importers face regulatory penalties.
We see significant interest in closed-loop or circular-economy initiatives, so we participate in industry roundtables with downstream partners. One major customer in the fragrance sector pushed to audit our water usage and effluent treatment processes, leading to greater investment in condensate recycling and monitoring of chemical discharge. This wasn’t just a box-ticking exercise; tight environmental controls became competitive advantages as more end users request quantitative life-cycle reporting.
In our technical labs, Decanoic Acid is more than just a raw material. R&D teams regularly work on improving blend uniformity in specialty esters and optimizing reaction yields with precise temperature and agitation controls. In lubricant base stocks, it acts as a foundation for producing biodegradable greases and specialty high-temperature fluids. Scientists in our plant experiment with catalysts that reduce the presence of high-boiling residues, making the acid cleaner for sensitive pharmaceutical synthesis.
Several new projects focus on decanoate esters in food-safe lubricants and non-toxic plasticizers for toys or medical devices. Regulations sharply limit the allowable impurities and demand additional testing for residual odor and migration levels—tasks our analytical chemists handle on a rolling schedule. This keeps the product competitive for manufacturers that need to meet evolving global standards. Decanoic Acid’s medium chain helps strike a balance between solubility, fluidity, and shelf-life—qualities crucial for customers blending their own additives or masterbatches.
Customers in hot, humid regions often report changes in product appearance or consistency during storage, which can lead to clumping or odor shifts if packaging isn’t tight. We solve this by double-bagging drum liners or advising about refrigerated container transport during sea shipping. Users in industrial soap-making once faced unexpected saponification delays; after troubleshooting, we worked jointly to pinpoint temperature drops in their process line as the culprit, unrelated to the material’s actual quality. Direct feedback shaped our packing and delivery standards.
The technical service team regularly visits client sites to see production lines first-hand. Observing actual use helps us tweak the acid's specifications—say, keeping the melting point at the low end of the range makes handling easier for customers relying on automatic dosing systems. Formulators working with fine fragrances or personal care sometimes need custom distillation cuts to minimize background odor. In such cases, the solution may be shifting run times or adding carbon filtration. All of these adjustments reflect practical, on-the-ground realities.
The fatty acid industry responds to both technical demands and policy shifts at the national and international level. Recent years have brought tighter controls on contaminants, greater scrutiny regarding process emissions, and a move to reduce environmental impact at every production stage. Facilities like ours keep up by investing in vapor recovery, energy-efficient steam boilers, and digital monitoring. Regular training programs teach plant staff about new regulatory changes and good manufacturing practice.
Modern automation allows us to trace production data in real time, flagging any deviation within minutes. If a customer reports a potential issue, we pull the actual run log and synchronize it with archived samples. End users often request more information about the source and processing history of the Decanoic Acid they buy; in response, QR-coded tracking and digital product passports are now standard for our bulk shipments. These developments don’t slow production—they streamline it, make quality issues rarer, and add greater confidence for both suppliers and users.
From a producer’s viewpoint, safe handling of Decanoic Acid means equipment in good order and trained people on the floor. As an oily solid at most plant temperatures, spills make footing slippery, so we use non-slip coatings and prompt post-shift washing. Handling drums or bulk containers, especially during high humidity, introduces minor risks due to hydrolysis residue that can accumulate near vents. Gloves and gowns are standard gear. In blending areas, localized exhaust manages fumes. Most safety alerts we’ve seen involve accidental contact leading to mild skin irritation or eye exposure—quick showers and eyewash stations stand close to filling lines. Fire hazard is low, yet storage away from open flames and oxidizers stays standard practice.
While Decanoic Acid itself is classified as a lower hazard compared to volatile organics, its derivatives can carry different safety levels. On the rare occasion outdated drums show signs of expansion or pressure build-up, we test for microbiological growth—these batches don’t reach customers. Our internal protocols tighten for food and pharma clients. Over time, working directly with regulatory inspectors during HACCP or ISO audits taught us the value of visible, recorded procedures. We keep current Safety Data Sheets available and update handling practices as new research enters the field.
Open communication helps us continually improve both Decanoic Acid itself and service to our clients. Our technical team meets regularly with downstream users—consumer product manufacturers, specialty chemical blenders, and industrial partners. These meetings spark process changes. In one example, a feedback loop with a surfactant producer led to a shift in our post-distillation filtration technique, improving product clarity and reducing filtration time for the customer. We measure success by reduction in claims, repeat orders, and increased customer audits—all pointing back to steady product quality and reliable delivery.
On a broader level, we belong to industry groups working to raise standards in fatty acid production. Being part of these networks means sharing insights with other producers, benchmarking against best-in-class practices, and lobbying for clear, science-based regulations. This cooperation supports fair competition and underpins the trust users place in the products we supply.
Several misconceptions exist in the market regarding the quality and capabilities of Decanoic Acid. Some believe all sources yield the same product, yet plant runs show that small differences in origin or purification method can dramatically affect usable yield and downstream blending. We notice, for example, that acids derived entirely from coconut oil produce less odor and color drift compared to those from mixed-source palm feedstocks. Frequent customer audits reinforce that even the smallest variable—say, a subprocess change in hydrolysis or fractionation—shows up in the final application, sometimes at parts-per-million levels.
There’s also a misconception that higher purity always means better performance. Through years of lab and plant trials, we found certain applications, especially where Decanoic Acid serves as a solubilizer or plasticizer, achieve optimum results at targeted purity, not simply the highest number possible. In some cases, trace co-products enhance downstream processes rather than hinder them. This level of nuance only emerges from direct, consistent contact with formulators and production chemists after repeated feedback cycles.
Decanoic Acid’s established uses keep it in steady demand, but emerging trends keep our plant adapting. From natural preservative systems to biodegradable packaging coatings, R&D teams inside and outside our facility often contact us with unique requests—fractionated esters, custom blends, or tailored impurity profiles. In these cases, we test small-batch runs, sometimes months in advance of commercial orders, working alongside customers to define both performance and regulatory compliance targets.
A growing field for Decanoic Acid covers next-generation bioplastics and green solvents—applications that don’t just replace legacy petrochemicals, but expand the possible uses of fatty acids altogether. Our participation in these efforts involves more than just producing acid to a specification; we handle project-based supply, continuous process verification, and periodic customer audits. Plant investment, especially in digital controls, lab automation, and process monitoring, remains a key differentiator. Product specialists review global developments to spot fresh customer needs before they emerge as the next standard.
Manufacturing Decanoic Acid brings a constant stream of learning—and a fair share of challenges. Suppliers look beyond commodity production: they want reliability, responsive handling, and open dialogue. We’ve seen demand rise for tailored specifications, sustainability, and forwards-thinking supply chain transparency. Each year, we balance operational efficiency with quality, compliance, and real-world application needs. The best gauge of success is hearing back from customers who rely on each batch to run their own processes smoothly. As manufacturers, we remain committed to not just supplying a raw material, but ensuring it matches the evolving demands of real users in a changing world.