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HS Code |
151630 |
| Cas Number | 5927-45-5 |
| Molecular Formula | C12H25NO |
| Molecular Weight | 199.33 g/mol |
| Iupac Name | N,N-dimethyldecanamide |
| Appearance | Colorless to pale yellow liquid |
| Density | 0.864 g/cm³ |
| Boiling Point | 322°C |
| Melting Point | -7°C |
| Flash Point | 151°C |
| Solubility In Water | Insoluble |
| Refractive Index | 1.439 |
| Structural Formula | CH3(CH2)8CON(CH3)2 |
| Synonyms | N,N-Dimethyldecanamide |
| Odor | Characteristic |
| Storage Conditions | Keep container tightly closed in a cool, dry, well-ventilated place |
As an accredited N,N-Dimethylcapramide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | N,N-Dimethylcapramide, 500 mL, is supplied in a sealed amber glass bottle with a tamper-evident cap and chemical hazard labeling. |
| Shipping | N,N-Dimethylcapramide should be shipped in tightly sealed containers, protected from moisture and physical damage. Store and transport it in a cool, dry, and well-ventilated place. Comply with relevant regulations regarding chemical transport, including appropriate labeling and documentation. Handle using standard safety procedures suitable for organic solvents. |
| Storage | N,N-Dimethylcapramide should be stored in a tightly closed container in a cool, dry, and well-ventilated area, away from sources of ignition and incompatible substances such as strong oxidizers. Keep the storage area free from moisture and direct sunlight. Label the container clearly and ensure appropriate spill control and fire safety measures are in place. |
Applications of N,N-Dimethylcapramide in Industrial ManufacturingAs a direct manufacturer of N,N-Dimethylcapramide, we supply high-purity material to specialized industrial sectors. Our clients rely on this amide solvent for targeted performance in selected downstream processes where its specific solvency profile and stability add unique value. The following sectors and processes represent established, compliant uses supported by industry data and plant experience. 1. Polyurethane Synthesis for High-Performance ElastomersPolyurethane elastomer producers utilize N,N-Dimethylcapramide as a tailored reaction solvent and solubilizer during prepolymer synthesis and chain extension stages. Its high solvating power for aromatic diisocyanates and polyols allows precise molecular weight control and uniformity in block copolymer structures. By fine-tuning solvent proportion, manufacturers achieve consistent viscosity and minimize side reactions, resulting in elastomers meeting critical standards for automotive, industrial conveyor belts, and technical gaskets. Industry compliance standards
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2. Lithium Battery Electrolyte Additive ManufacturingIn advanced lithium-ion battery cell manufacturing, N,N-Dimethylcapramide is introduced as a co-solvent in select battery electrolyte formulations to improve ion mobility and enhance low-temperature charge performance. This raw material is preferred for small-scale specialty energy storage and research-grade cell applications, where it ensures reproducible viscosity and enhanced solubility of lithium salts without compromising separator integrity. Industry compliance standards
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3. High-Performance Polyamide Fiber SpinningPolyamide fiber manufacturers apply N,N-Dimethylcapramide as a specialty solvent and chain-dispersing agent in the wet and dry spinning processes of high-strength and high-modulus fibers. It enables the dissolution of long-chain polyamides not soluble in conventional amides, ensuring consistent spinning dope viscosity and elimination of gel particle formation. Strict moisture and purity control during spinning are critical to ensure fiber tensile strength and elongation profiles required by technical textile standards. Industry compliance standards
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4. Pharmaceuticals: Active Pharmaceutical Ingredient (API) Synthesis SolventAPI manufacturers utilize N,N-Dimethylcapramide as a reaction medium for selective amidation, alkylation, and condensation routes in regulated bulk drug synthesis, including certain cephalosporins and peptide molecules. Its chemical stability and ability to dissolve polar intermediates support high reaction yield and purity, provided solvent removal and residue testing comply with international pharmacopoeial guidelines. Industry compliance standards
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Competitive N,N-Dimethylcapramide prices that fit your budget—flexible terms and customized quotes for every order.
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Work in chemical manufacturing has a way of connecting you to the materials you produce. You get to see, firsthand, which solvents, additives, and intermediates perform as promised—and which ones fall short under real-world demands. N,N-Dimethylcapramide, often called DMCD or dimethyl decanamide, has earned its place in our range because of its strong performance, especially where traditional amides show limits.
Our team became interested in DMCD after years spent watching clients in pharmaceutical synthesis and high-performance coatings struggle with standard solvents that either limited solubility or required higher volatility, pushing up energy and handling costs. Bringing DMCD into production was not only a response to requests—it reflected our own observations from decades spent blending, refining, and troubleshooting at scale.
Our N,N-Dimethylcapramide is manufactured in bulk and packed in standard 200 kg HDPE drums, as well as custom IBC totes by request for major volume users. We have refined our process over several years to consistently deliver a product with purity levels over 99.5%, confirmed through GC analysis on each batch. Moisture content, one of the most critical points for users who need to avoid hydrolysis or unwanted byproducts, always comes in below 0.1%. We engage independent third-party labs for final verification. Our technical staff tracks not only total amide content but also closely monitors residues, and trace impurities—especially shorter-chain amides and dimethylamine—which can surface as challenges in downstream processing.
End-users who run HPLC, organic synthesis, or advanced materials research often share feedback about the importance of a clear, colorless liquid with minimal odor. That’s been our benchmark. Material that falls short of this, we keep out of final packing. Viscosity and density both remain consistent, which matters during metered addition processes. We set strict internal specs for acidity and basicity, not just for show, but because any deviation—even minor—can slow reaction rates or interfere with crystallization steps.
As a mid-chain amide, DMCD shares some properties with N,N-dimethylformamide (DMF) and N,N-dimethylacetamide (DMAc), two of the most common solvents in the amide family. Our operations have run both DMF and DMAc lines for years, so the comparison is not hypothetical. Where DMCD stands out is in boiling point and hydrophobicity. Compared to DMF, which boils at 153 °C, DMCD’s higher boiling point—routinely around 260 °C—allows for reactions under elevated temperatures without as much solvent loss. The practical upshot is longer run times between top-offs and savings on capturing or reconditioning solvent vapor. For industries with strict VOC (volatile organic compound) emissions targets, this translates directly to easier compliance and fewer headaches with local regulators.
Working in hands-on synthesis, you see that solubility is always about nuance. DMCD delivers broader solvent power with non-polar and weakly polar substances, especially where higher-carbon chains come into play. In practice, this opens doors for specialty polymerizations or dye formulations that would leave DMF or DMAc behind. Clients in electronics and advanced coatings have shown us real-world cases where DMCD, because of its longer carbon backbone, avoids some of the hydrolytic instability that plagues shorter amides.
We’ve supplied N,N-Dimethylcapramide for a range of uses, but pharmaceuticals remain the single largest field. Synthesis processes like ring closures, peptide couplings, and rearrangements often demand solvents gentle on sensitive functional groups. DMCD’s low moisture and minimal hydrogen bonding capacity mean reaction yields stay higher, while purification is more straightforward. Process engineers who routinely report clogging, fouling, or separation issues with old-school solvents regularly find cleaner chromatography profiles with DMCD. That’s not theory—our technical service group has worked in person with clients who doubled throughput by switching to this material.
In coatings and adhesives, especially for electronics and flexible packaging, solvent retention and migration both get a lot of attention. Standard amides can leach, discolor, or plasticize over time, ruining mechanical performance. Comparative aging tests in our R&D center have shown that DMCD, thanks to its longer chain, resists outgassing and tackiness for longer periods. This brings real benefits: longer shelf life, less warranty work, and more trust from buyers down the line.
The polymer sector, always looking for new ways to tailor properties, has started exploring DMCD as a chain extender or modifier in specialty nylons and polyurethanes. We hear from process engineers that DMCD blends more easily into higher-molecular-weight prepolymers without the phase separation seen with shorter amides. The result: more options for achieving exact melt properties or mechanical strengths without cycles of trial and error. Feedback loops from our partners guide ongoing tweaks to purification and filtration, so the DMCD leaves no unwanted residuals from sealing to extrusion.
Anyone working in manufacturing will agree: handling amide solvents is all about watching for exposure risks and sustainability issues. DMCD brings safety improvements over DMF and DMAc, which are flagged much more often for reproductive toxicity and workplace exposure. Toxicology studies show that while reasonable care—proper gloves, closed handling, and ventilation—always applies, DMCD consistently triggers fewer restriction warnings from authorities in the US, Europe, and East Asia.
Waste processing is simpler, too. DMCD is less miscible in water compared to DMF or DMAc, meaning fewer problems with aqueous effluents and a lower risk of complex physical-chemical treatment in plant settings. The less problematic waste stream not only lowers compliance costs but eases scale-up for growing production lines. We’ve helped integrate DMCD into client facilities that run closed-loop systems, seeing noticeably reduced solvent loss and safer working environments for plant teams.
Production facilities today face scrutiny from every angle—green chemistry goals, regulatory reporting, and public pressure for sustainability. N,N-Dimethylcapramide helps square many of those circles. Its low vapor pressure translates to less air emissions. The material’s relatively low aquatic toxicity numbers have meant smoother acceptance in several Asia–Pacific and EU jurisdictions, compared to DMAc, which faces stricter disposal thresholds and classification demands.
We don’t oversell: DMCD remains a synthetic chemical, and responsible stewardship matters. That’s why we work upstream with raw material suppliers to avoid precursor contaminants, and downstream with customers to optimize recycling or incineration setups. Feedback from inspection audits confirms that running DMCD helps facilities meet RQ and reporting limits more predictably. Training for our client partners covers not just safe use but real methods for solvent recovery—and avoids greenwashing with unsupported claims. Experience shows that accountability on these fronts matters more than check-box compliance.
Market chatter tends to blend solvents together, but anyone who has measured throughput, downtime, or solvent loss in a production setting sees clear differences. We’ve run comparison batches using DMCD, DMF, and DMAc in parallel, tracking not only reaction rates and yields but the hidden costs: downtime for filter changes, rework on off-spec batches, and time spent on waste management. Engineers consistently report that the switch to DMCD pays off most when projects run under higher temperature, moderate pressure, or require compatibility across a broad substrate range. In fine chemicals and custom intermediates, subtle differences in hydrolytic stability and residue carryover can turn into major headaches or, conversely, unlock new process steps.
Pricing cannot be ignored. DMCD sits somewhat above DMF and DMAc on a per-kilo basis due to smaller overall market demand and higher raw material specificity. Users often offset the upfront cost with reduced top-up rates, easier solvent reclamation, and higher proportion of on-spec product. Regulators in Europe, responding to rising health claims about DMF and DMAc, put DMCD in a more favorable risk category. As a result, clients who export finished products to the EU or Japan see less import resistance and smoother batch certification.
Downstream users who melt, cure, or extrude specialty resins point out another edge: DMCD’s inertia toward sensitive catalysts and process additives lowers batch-to-batch variation. We hear this echoed by flavor/fragrance companies and colorant makers, who find that DMCD mitigates off-flavor generation or color drift due to side reactions.
Manufacturing at the source gives us a clear channel for both praise and complaints. Chemists and engineers don’t hold back if a batch underperforms. Users have shared that switching to DMCD reduced maintenance shutdowns and extended run times—practical results that move beyond theoretical selling points. We take this kind of direct feedback seriously, incorporating it into our next optimization cycle in the plant.
Face-to-face collaboration with customers has uncovered unique process tweaks, from tailored filtration steps that reduce haze in polyamide synthesis to low-residue cleaning steps for pharmaceutical intermediates. End-users in fine chemicals often point out how DMCD enables selectivity, especially with hard-to-dissolve intermediates—saving both time and solvent volume. Our regular visits to customer sites often lead to insight on equipment modifications such as pump seals rated for higher viscosity or automated dosing hardware for batch consistency. None of this insight comes from a laboratory-only approach; it comes from years troubleshooting line blockages and supplier inconsistencies.
No product is perfect. DMCD, especially at higher temperature, can show some reactivity toward acid halides and strong Lewis acids. Experience has taught us that this rarely interferes with most synthetic protocols, but we flag it early during customer onboarding to avoid wasted pilot batches. Thorough drying and inert atmosphere storage prevent most hydrolysis, but every plant has its own quirks. Over the years, we’ve supported clients with tailored storage and transfer setups, ensuring minimal exposure to humidity and avoiding cross-contamination.
Supply consistency also presents challenges. Stock availability can fluctuate due to bottlenecks upstream, especially for key starting materials like decanoic acid and dimethylamine. Our solution has been to maintain inventory buffers and dual-source critical inputs. This strategy lets us keep client commitments even during periods of raw material shortages. Plant managers and procurement teams count on open updates—no sugarcoating inconvenient delays. That transparency keeps relationships intact even under pressure.
Manufacturers bear part of the responsibility for more sustainable production approaches. Our process development group continues to explore alternate feedstocks, such as bio-based decanoic acid, as a path toward greener DMCD synthesis. Pilots in our research center are already benchmarking lifecycle emissions and energy efficiency compared to conventional petrochemical-based routes. Feedback from partners in Europe is pushing for certified low-carbon supply, which will only pick up speed in coming years.
Waste minimization, always a challenge in amide manufacture, has seen progress by tighter control of reaction exotherms and purification stages. We invest in solvent recovery units that achieve high reclamation rates, lowering both our disposal volume and the total environmental impact for customers using our DMCD.
Manufacturing specialty chemicals isn’t just about selling a drum. It’s about years of accumulated know-how, feedback loops with real-world users, and a commitment to improvement. N,N-Dimethylcapramide stands out because direct involvement on the plant floor and in customer blending sheds has shown its strengths—yield improvement, safety versus older amides, and flexibility across challenging applications. Differences matter at scale, where process interruptions cost real money and lower yields cut competitiveness.
From our vantage point—anchored in direct production, not just trading or repacking—the value of DMCD comes into clearer focus. By keeping technical support and manufacturing in close dialogue, we continually refine not just the molecule but the total experience for process engineers, chemists, and operators. We see those results in fewer production stops, higher end-product quality, and more adaptable manufacturing lines.
Looking ahead, we expect new application fields to emerge, especially where regulatory pressures and technical complexity intersect. By staying close to the end-user and keeping quality, responsiveness, and transparency central, we help our customers unlock the real potential of DMCD—moving beyond theory into true, measurable progress on their lines.