|
HS Code |
100087 |
| Chemicalname | Decanoic Anhydride |
| Casnumber | 110-38-3 |
| Molecularformula | C20H38O3 |
| Molarmass | 326.51 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Density | 0.93 g/cm³ |
| Meltingpoint | Around 7°C |
| Boilingpoint | 323°C |
| Solubilityinwater | Insoluble |
| Refractiveindex | 1.435 - 1.437 |
| Flashpoint | 168°C |
| Odor | Characteristic, fatty |
As an accredited Decanoic Anhydride factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Decanoic Anhydride, 100g, packed in a sealed amber glass bottle with tamper-evident cap and chemical hazard labeling. |
| Shipping | Decanoic Anhydride should be shipped in tightly sealed containers, protected from moisture and incompatible materials. Use appropriate hazardous material labeling and follow all regulatory guidelines for transport. Store and ship in a cool, well-ventilated area, away from heat or open flames. Handle carefully to prevent spills and exposure. |
| Storage | Decanoic anhydride should be stored in a cool, dry, well-ventilated area, away from sources of moisture, heat, and incompatible materials such as strong oxidizers and bases. Keep the container tightly closed and clearly labeled. Use only containers made of compatible materials, and protect from physical damage and direct sunlight. Store under inert gas if prolonged storage is required. |
Applications of Decanoic Anhydride in Industrial ManufacturingAs a direct manufacturer of Decanoic Anhydride, we supply this specialty intermediate to key sectors enabling high-value and controlled transformations. Below, we present verified downstream application scenarios with detailed formulation, regulatory, and integration guidance based on production experience. 1. Pharmaceutical Intermediate SynthesisMedicinal chemistry operations utilize Decanoic Anhydride as an acylating agent in the synthesis of specialty esters and amides for prodrugs, antibiotics, and lipid-conjugated actives. Operations require strict adherence to process validation throughout batch manufacturing, with the compound often serving as a reagent in esterification or amidation steps to modify solubility or bioavailability properties. All product must be accounted for using traceable batch records to support regulatory filings and market clearances for actives and their intermediates. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Cosmetic Raw Material ManufacturingCosmetic ingredient producers incorporate this anhydride for esterification reactions yielding medium-chain esters with excellent emolliency and controlled volatility. Quality and safety require GMP-like procedures, with all starting materials traceable and chemical conversions tightly monitored to guarantee negligible anhydride residue in end formulations. Cosmetic compliance further demands REACH registration and statements regarding trace impurities and allergen content. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Lubricant Additive SynthesisIndustrial lubricant formulators employ Decanoic Anhydride in conversion reactions to produce tailored esters, which function as base oils for specialty greases and hydraulic fluids. Careful control of conversion and post-processing is mandatory to ensure stability under operational temperature ranges and to prevent hydrolytic breakdown. Systematic blending and QC routines validate each batch for acid value, viscosity, and compatibility with downstream additive packages. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Polymer Modification and Plasticizer ProductionPolymer additive producers introduce this anhydride as a chain-modifying agent to functionalize polyols and polyesters, enhancing compatibility and migration resistance in finished polymer blends. The conversion rate of the anhydride must align with controlled process parameters, and all input streams require thorough QC verification for batch reproducibility. Safe-handling SOPs and ventilation safeguards prevent operator exposure, as the intermediate stage includes volatile reaction by-products. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
5. Food Contact Surface Treatment (Processing Aids)Networks processing stainless steel and non-reactive surfaces for food production use this compound in controlled, temporary surface hydrophobization processes. Treatment levels, duration, and post-application rinsing operate under validated guidelines to guarantee elimination of transferable residues. All process steps must remain traceable and validated by standard QC protocols, with regular monitoring of any residual organics on finished equipment using industry-standard swab tests and GC analysis. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
|
Competitive Decanoic Anhydride prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please call us at +8615371019725 or mail to admin@sinochem-nanjing.com.
We will respond to you as soon as possible.
Tel: +8615371019725
Email: admin@sinochem-nanjing.com
Flexible payment, competitive price, premium service - Inquire now!
Our team works with long-chain fatty anhydrides daily, and Decanoic Anhydride stands out from the first pour. Years of handling acids and anhydrides in liquid and powder forms have taught us to appreciate chemical nuance. Decanoic Anhydride, or capric anhydride, brings a specific balance of chain length and reactivity that suits it to applications where both stability and performance matter.
Our own production batches confirm its sharp yet manageable odor, a far cry from lower-chain analogues that tend to sting the senses or cause workplace discomfort. Its oily liquid nature streamlines transfer and storage much better than comparable anhydrides, which thicken, crystallize or clog transfer lines at standard temperatures. Consistency forms a core part of every manufacturing day. We see Decanoic Anhydride flowing smoothly through jacketed pipes and reacting without runaway side reactions, which cuts down on downstream troubleshooting and waste disposal.
On our plant floor, it often arrives with a purity of 97% or greater, and we confirm those values with inhouse GC and NMR checks. Side impurities tend to come from incomplete dehydration of decanoic acid during synthesis, but our optimized process—anchored by carefully tuned temperature and vacuum—keeps byproducts well below actionable levels. Long-term storage hasn’t presented issues either, provided containers remain dry and tight; exposure to ambient moisture or air quickly leads to hydrolysis and decay, a reality every anhydride manufacturer learns to respect.
Across many industries, people look to medium-chain anhydrides for their unique reactivity. Our contacts in the fragrance industry use it for controlled acylation reactions, creating esters and other intermediates with the sort of chain length developers prefer for balancing volatility and skin compatibility. The C10 backbone sets Decanoic Anhydride apart from shorter-chain agents, which can leave an unpleasant residue or break down unpredictably in finished goods.
On the polymer and coating side, Decanoic Anhydride’s reactivity helps form specialty esters, softening agents, and plasticizers. The anhydride’s two reactive carbonyls allow for efficient modification of polyols and alcoholates, tuning properties like flexibility, hydrophobicity, and thermal resistance. The results show up tangibly in finished films and coated surfaces: better scuff resistance, controlled release rates, or hydrophobic barriers, all achieved without the harshness or toxicity tied to traditional chloride-based reagents. Our on-site technicians prefer working with capric anhydride over alternatives, as it avoids much of the corrosion and toxic fume risk that comes from sulfur- or halide-based reagents.
Decanoic Anhydride also plays a valuable role in specialty lubricants, surfactant synthesis, and pharmaceutical intermediates. Saponification and controlled hydrolysis yield chain-specific decanoic acid and derivatives that fit tightly regulated formulations. From our experience, it can be difficult to match this kind of performance with either shorter or longer fatty acid anhydrides, unless users are prepared to accept tradeoffs in volatility or reactivity pace.
Over the years, we have handled a broad series of fatty acid anhydrides and their close cousins. Someone searching for something softer or with a more volatile kick might look at octanoic or even acetic anhydride. These lighter molecules front-load reactions and flash off quickly, but they come with increases in flammability and can generate unpredictable byproducts under less-than-perfect conditions. Our real-world tests with octanoic and acetic anhydride-based acylation never quite match the yield and process reliability when using Decanoic Anhydride.
If the process needs an anhydride with higher stability or slow-release properties, stearic or palmitic anhydrides attract attention. These heavier anhydrides become cumbersome to handle; they can gum up lines, create irregular melts, and require aggressive heating just to move between vessels. Our operators often comment that clogs and maintenance downtime eat into the bottom line faster than any theoretical gains in product stability. Decanoic Anhydride offers a reliable midpoint: fast enough to meet just-in-time manufacturing but not so reactive it triggers costly containment or toxicology countermeasures.
Some manufacturers lean toward industrial standards like phthalic or succinic anhydride for certain esters, but these bring an entirely different risk profile. Aromatic anhydrides can be potent irritants and raise environmental questions owing to their ring structure and persistence. We have moved several in-house product lines away from aromatic anhydrides and toward Decanoic specifically because of its straightforward decomposition and manageable waste stream. Water, alcohol, or even mild base neutralization turns spent Decanoic Anhydride back into decanoic acid, a substance with far fewer regulatory burdens and easier handling.
On the production side, consistency comes from upstream controls and seasoned operators. We favor stepwise dehydration of pharmaceutical-grade decanoic acid, using a proven catalyst under reduced pressure. Unchecked water or oxygen presence causes discoloration and loss of reactivity—a lesson that comes from batches ruined by shortcuts or miscalibrated columns. Our analytical chemists routinely check incoming acid for chain length purity, and we run every finished batch of Decanoic Anhydride through at least three QC screens before drum filling.
We also rotate stock tightly and maintain clear lot traceability, which keeps supply interruptions down and ensures customers receive fresh material with predictable shelf life. Over the years, some clients have mentioned using supplier change to troubleshoot unexplained reactions in their own processes. Many times, the problem traces back to an off-spec or aging batch acquired through secondary markets. By dealing directly with chemical manufacturers who control their own synthesis and QC, users directly measure benefits in yield and predictability.
We cannot overstate the importance of good practice with anhydrides. Even a fraction of a percent of moisture in pipelines can cause foaming, heat generation, or erratic batch profiles. We build and maintain our lines in-house using stainless steel and PTFE where any joint contacts Decanoic Anhydride. At sampling ports, our operators wear gloves and eye protection—not only because of irritation risks but also to keep microscopic sweat or moisture from contaminating the batch.
Our crews receive targeted training for emergency neutralization and have clear spill control plans. There is no substitute for regular equipment checks and a clear understanding of reaction exotherms; we have witnessed minor scale-up errors lead to pressure spikes or maintenance headaches for less well-prepared plants. Decanoic Anhydride wins converts not just for its performance but also for its drop-in compatibility with standard lab neutralization, which lessens long-term environmental and health risks.
We benchmark competing anhydrides every quarter to justify our production portfolio. Decanoic Anhydride holds its own both in continuous and batch operations. The controlled reactivity curve makes it more forgiving in scaled operations, letting line operators dial in residence time with accuracy. Metric after metric—reaction yield, downstream ease of washing, purity recovery—favors Decanoic Anhydride when compared to both lighter and heavier analogues, and especially when compared to aromatic anhydrides requiring more aggressive containment.
Aside from its measured reactivity, its output remains remarkably pure post-reaction. Our NMR analysts report negligible side-chain cracking or isomerization, even at larger scale; this is often not the case with anhydrides of lower or irregular chain length, where energy balance in the reactor can shift unpredictably.
Over years of direct feedback from process engineers, QC managers, and technical leads, the common refrain concerns cost control and predictability. Raw numbers from our plant show that Decanoic Anhydride typically reduces rework and disposal rates by double-digit percentage points compared to mixed-chain anhydride blends. The process teams frequently point out time saved during wash-downs and changeovers. In multi-shift operations, process stability spells savings not only in reagents, but also in labor and unplanned maintenance.
Lab chemists, who often develop new reaction protocols or pilot runs, comment on less exposure to irritants and simpler fume hood cleanup with Decanoic Anhydride as the main reactive ingredient instead of a more aggressive anhydride. These working realities translate directly into long-term relationships with downstream partners, who tire quickly of raw material issues in addition to everyday production stress.
From our own support desks, we notice many inbound technical queries on anhydride cross-compatibility and reaction efficiency. Real-world results regularly match our own observations: Decanoic Anhydride shaves days off troubleshooting cycles and brings processes into spec with fewer pilot runs, a measurable difference for plants looking to push throughput and maintain a tight supply chain.
High-purity Decanoic Anhydride must start with high-quality acid, so we buy raw materials from vetted, traceable sources. To minimize contamination or spoilage risk, raw acid and finished anhydride remain in nitrogen-blanketed storage and ship out only in lined, sealed containers. Every facet—dehydration catalyst choice, column design, purge flows—reflects decades of collective learning. Production rarely rails against scaling limits, because we design our lines for pressure control and condense water removal, not just on-paper batch size.
We have responded to customer concerns about environmental impacts with system improvements, waste stream management, and safer neutralization options. Investment in closed transfer and vapor scrubbing tailors the process for both employee health and broader regulatory compliance. Management teams see the payoff in improved worker retention and reduced emergency downtime. Logistics teams appreciate that Decanoic Anhydride’s non-aromatic, high-flash profile lessens hassle with warehousing and long-haul documentation.
Continuous improvement conversations with our industry partners rarely call for sweeping changes. Instead, they drive tweaks: new drum liners, better batch scheduling, and direct engagement between chemists on both sides about optimal dosing strategies. Customers running pilot projects typically want hands-on advice instead of generic material safety repeats. As a direct producer, we put technical support in direct contact with plant floor teams to share tips that only become visible after dozens or hundreds of real-world runs.
Any chemical plant runs best when surprises stay rare. Cost and complexity multiply when suppliers play telephone or cut corners on quality assurance. From our end, we’ve seen that Decanoic Anhydride holds up across seasonal temp swings, maintaining stability without need for elaborate cooling or heating unless shipments sit out for days in direct sun. Finished product keeps well in steel or high-grade polymer drums. Areas with high humidity need special attention, but design tweaks—dehumidified transfer rooms, silica-packed vent lines, and blanketing—provide reliable safeguards.
Our engineering team pays close attention to clean-in-place protocols and thorough drying after every batch. Early lessons with mixed-chain anhydrides taught us that even small residues can kill downstream runs or blend unpredictably, leaving headaches for operators. We structure our shift schedules around preventive maintenance, so lines do not fall victim to accumulated residue or scale. It’s not glamorous work, but these ground-level details keep production and supply on track in ways customers feel, even if most never visit the plant.
Manufacturing Decanoic Anhydride bridges theory with the tangible, physical execution that separates manufacturers from clipboard resellers. Our operators recognize the individuality of each reactor, responding in realtime and relying on muscle memory tuned by years of practice. Troubleshooting only rarely follows a written flowchart. Instead, it adapts to subtle hints—a shift in odor, a change in reaction tone, even a trace clouding on sight glass. Replacement operators pick up the skill set through shoulder-to-shoulder mentorship, and subtle process tweaks pass between crews directly, not via paperwork or generic distributor notes.
The difference also appears in flexibility: quick-switch production, pilot batch support, and technical fixes based on actual plant conditions instead of sales scripts. Direct engagement means if a reaction falters due to incoming raw material shift, we can adjust upstream or redirect further processing without finger-pointing or wasted time.
Our reputation for quality Decanoic Anhydride stems from these details, not just raw numbers. We know from practical experience which contaminants halt reactions, what storage conditions make a difference, and how to correct batch profiles before an off-spec lot ever reaches the customer. Anyone searching for a dependable, balanced chain anhydride benefits from buying straight from the source—one that shares both product and experience without filters from the middleman world.
Decanoic Anhydride isn’t just another chemical on a product list. The unique properties created by its C10 backbone, paired with careful production oversight, have shaped it into a mainstay for industries demanding a finely tuned blend of performance and safety. Competitive pricing means little if each drum brings hidden supply or reactivity risks—details only laboratories and plants with years in the field can truly judge.
By staying hands-on, continuously testing, and never outsourcing our standards, we make sure every sample and shipment of Decanoic Anhydride delivers results that keep our own production lines moving—and our customers’ operations running each day without costly interruption.