|
HS Code |
835635 |
| Chemical Name | Cyclodecane |
| Molecular Formula | C10H20 |
| Molar Mass | 140.27 g/mol |
| Appearance | Colorless liquid |
| Density | 0.858 g/cm³ |
| Melting Point | −30 to −27 °C |
| Boiling Point | 180-182 °C |
| Cas Number | 293-97-2 |
| Solubility In Water | Insoluble |
| Structure | Cycloalkane (10-membered ring) |
| Vapor Pressure | 1.15 mmHg (25 °C) |
| Refractive Index | 1.464 |
| Flash Point | 61 °C (closed cup) |
As an accredited Cyclodecane factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Cyclodecane is supplied in a 500 mL amber glass bottle, labeled with hazard warnings, chemical details, and safety instructions. |
| Shipping | Cyclodecane is shipped in tightly sealed, corrosion-resistant containers such as glass or metal drums. It should be handled in accordance with safety regulations, kept away from heat, sparks, and open flames. During transportation, ensure proper labeling and secure packaging to prevent leaks or spills, following all relevant local and international shipping regulations. |
| Storage | Cyclodecane should be stored in a cool, dry, and well-ventilated area away from sources of ignition, heat, and direct sunlight. Containers must be tightly closed and clearly labeled. Avoid storing with oxidizing agents. Use appropriate fireproof and chemical-resistant materials for shelving. Ensure that safety equipment and spill kits are available nearby in case of accidental release. |
Applications of Cyclodecane in Industrial ManufacturingAs a dedicated manufacturer of cyclodecane, we supply this high-purity cyclic hydrocarbon for critical industrial processes requiring stringent consistency and reliability. Below, we detail key downstream segments where cyclodecane plays an essential role, with specific industry requirements, compositional data, integration stages, and finished product examples. 1. PA12 Monomer Preparation for Engineering PlasticsCyclodecane enables the efficient synthesis of laurolactam, the primary building block for polyamide 12 (PA12). Industrial polymerization processes utilize cyclodecane as an intermediate, where its controlled conversion under tailored oxidation and cyclization routines ensures high molecular weight and enhanced mechanical strength in the resulting polymer chain. Producers adjust cyclodecane input volume based on the required viscosity index and end-use polymer grade. PA12 resins support critical automotive, electrical, and pneumatic applications due to their impact resistance, flexibility, and chemical inertness. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Cold Flow Modifier Formulation in Specialty LubricantsCyclodecane can serve as a structural template during the synthesis of cold flow modifier additives for paraffinic mineral oils. By introducing controlled ring content, lubricant formulators can regulate wax crystal morphology at low temperatures, enhancing pour point and viscosity characteristics without compromising base oil compatibility. The usage proportion depends on the crude base oil quality and the intended pour depression performance specified by heavy-duty engine manufacturers. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Calibration Standard for Gas Chromatography TestingThe well-defined boiling point and chemical purity of cyclodecane make it a reliable reference substance in analytical quality control, particularly as a retention index standard in gas chromatography (GC) for hydrocarbon analysis. QC laboratories utilize it for calibrating retention time in simulated distillation (SIMDIS) set-ups, where traceability to ISO and ASTM protocols ensures result comparability across international petrochemical and analytical centers. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Intermediate for Fragrance Ingredient SynthesisOwing to its saturated cyclic structure, cyclodecane is employed as a key starting intermediate when synthesizing specific musk aroma compounds for perfumery bases. Chemical transformation through stepwise functionalization introduces targeted functional groups to achieve the desired olfactive profile while adhering to international fragrance material regulations, ensuring safe use in personal care. Perfume chemical houses accurately modulate cyclodecane input in multi-stage batch reactions to control product purity and olfactory tonality. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
5. Process Solvent in Adhesive ManufactureIn select high-performance adhesive systems, cyclodecane operates as a process solvent due to its unique volatility characteristics and non-reactivity with key polymer binders. Its use supports controlled film formation in solvent-borne contact adhesives where rapid evaporation profiles are necessary to avoid defects such as blisters or voids. Manufacturers determine solvent concentration according to formulation viscosity and final application performance, adapting the process for complex assembly or automation lines in footwear, automotive interiors, and industrial construction. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
|
Competitive Cyclodecane 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!
Cyclodecane, as produced in our reactors, stands out through the consistency that only a direct-from-source manufacturer can provide. We do not rely on intermediaries or multiple transfer points. Our technicians control the entire process, from choosing raw cyclohexyl precursors to final purification. This makes every kilogram of our Cyclodecane traceable, repeatable, and reliable. We take a practical approach to every batch, tracking production parameters in real time, and tweaking the process to keep specifications tight.
Practical experience tells us that Cyclodecane is less known compared to cyclohexane or cyclododecane, but its niche advantages matter. Its unique C10 structure brings different physicochemical properties into play, such as a melting point that makes it solid at room temperature, moderate volatility, and a distinctive hydrocarbon profile. In our own operations, workers recognize it instantly by its waxy, crystalline texture and hydrocarbon odor—a pure expression of controlled alicyclic synthesis.
All Cyclodecane batches leave our factory with tight control on purity. Internal gas chromatography typically confirms purities of 99% and above. Our product appears as white crystals, showing a melting point in the 31–33°C range. Moisture, residual solvents, and trace aliphatic byproducts remain at minimum concentrations, thanks to careful process selection and post-reaction treatments backed by decades in cyclic hydrocarbon chemistry.
Customers frequently ask about the relevant specification differences—cyclodecane versus cyclododecane, or versus common alkanes. Cyclododecane, for example, stands out for its volatility and tendency to sublime, suiting it to temporary binding in art conservation. In contrast, Cyclodecane’s solid, wax-like behavior above room temperature gives it a longer residence time, making it unsuitable where complete volatile removal is needed, yet handy in fuel and reference applications where stability outweighs instant vaporization.
We do not simply look at market trends from a distance. Our technical team works hands-on with industrial partners who use Cyclodecane in laboratory and industrial chemistry, reference standards, and organic synthesis. Several clients prefer Cyclodecane as an internal standard for hydrocarbon analysis, since its chemical fingerprint shows distinct, interference-free peaks on chromatograms. Other customers include research groups conducting studies on naphthenic ring opening—Cyclodecane serves as both a model compound and a test substrate for evaluating catalyst selectivity and hydrogenation performance.
A common scenario involves heat transfer systems. Cyclodecane’s phase-change properties allow it to serve as a model phase-change material (PCM) in engineering studies, since its melt and freeze cycles are well-studied and repeatable. At our plant, we often benchmark new packaging or batch homogenization approaches by tracking Cyclodecane’s behavior through production and shipping.
Some customers mistakenly group Cyclodecane with its smaller and larger cousins, like cyclooctane or cyclododecane. In practice, our staff sees profound differences. Cyclooctane boils at a much lower temperature and cannot hold solid form at room temperature, so it slips out of reach for PCM or certain specialty coatings. Meanwhile, cyclododecane, while superficially similar in handling, sublimes far more quickly, which limits its use to short-span masks and specialty molding.
Our Cyclodecane serves best in scenarios needing a balance—solid at standard temperature, straightforward handling, and predictable melting. This makes it preferable in applications where even minor volatility matters, such as in reference fuel blends or long-duration material aging trials. We have worked with formulators who tried to substitute with cheaper paraffins and found unwanted side effects ranging from co-crystallization to volatility losses. These issues have taught our chemists to appreciate Cyclodecane’s distinct utility.
Clients often need surety concerning batch-to-batch uniformity and impurity profiles. As actual producers, we bring practical insights. Our staff carries out quality control at each step—hydrogenation, distillation, recrystallization—under strict process analytics. This tightens control over isomer content, suppresses trace linear alkanes, and avoids problems seen in product passed through multiple handlers.
On one occasion, an industrial lab received Cyclodecane of unclear provenance and unraveled months of experimentation due to trace cyclononane contamination. Such stories circulate regularly. Our hands-on approach, frequent calibration, and vertical integration reduce such risks. We view each drum or flask as the outcome of years managing temperature controls, inerting protocols, and solvent minimization.
From a practical angle, Cyclodecane demands stable storage—its crystalline structure degrades if repeatedly cycled above and below its melting point. To avoid caking during storage in warmer climates, we coordinate with logistics partners to keep product within a defined temperature band until delivered.
A chemical like Cyclodecane also resists automation. Packing operators find that bucket-style or bulk pellet feeders work better than screw-feeding systems, since the product can fuse under pressure if ambient temperatures rise unexpectedly. We have adapted our filling and drum-sealing equipment through trial and error, learning that even small changes in fill rate or chute angle can result in packing inefficiencies or bridging. Many solutions in our plant come from feedback loops, both between floor teams and the technical management, and with long-time buyers whose processes we’ve studied in detail.
No commentary would be complete without a look at broader safety and environmental context. Cyclodecane, unlike lighter refinery alkanes, shows low vapor pressure at ambient temperatures. Our technicians appreciate this obvious fact every day: it’s far less flammable in typical factory settings. Main hazards arise from dusting when charging solid forms or from exposure during melting. Our team has reduced such risks with local exhaust hoods and modification of melt kettles, based on direct observation.
As for disposal or accidental release, Cyclodecane doesn’t present acute aquatic toxicity, but it persists if not handled with care. Our plant uses closed-loop recycling for off-spec batches, reducing the environmental footprint. We avoid unnecessary use of plastic drums, shipping in metal barrels recycled directly in-house. Real-world production teaches these lessons—watching waste output drop and worker complaints fall when the right handling methods get used.
Several industry research groups have worked directly with us to refine application-specific grades of Cyclodecane. In one notable collaboration, a battery materials research team needed cycloalkane standards matched to strict GC fingerprint requirements. Together, we fine-tuned distillation cut points and post-processing, supplying a purer, more reproducible standard than market intermediaries could ever broker. Direct involvement at each stage allows for feedback-driven improvements that traders or brokers cannot offer.
We have hosted visiting chemists running catalyst deactivation studies. Their observations of subtle impurities shifting performance outcomes led us to take another look at our hydrogenation step. After some study and minor catalyst adjustments, we reached new purity benchmarks, validated side-by-side with academic partners. These relationships push our know-how further, a cycle of improvement unique to companies running their own reactors and QA labs.
Industrial customers sometimes worry about the transport of Cyclodecane across climates, particularly if the product melts and then recrystallizes en route. Having handled bulk shipments for more than a decade, we tackle this challenge by shipping with thermal insulation and tracking delivery windows during hot months. Our logistics group maintains direct contact with buyers so they can prepare for acceptance and immediate transfer to climate-controlled storage.
Another recurring theme is product compatibility in formulation labs. Chemists often test various cycloalkanes in model system blends—solvents, resins, fuels. We provide technical support to help interpret outcomes, as only the original manufacturer sees the full range of potential interactions. Every time a downstream specialist calls to describe a solubility surprise or unexpected viscosity shift, our technical team pulls production data, looks for minute batch differences, and, when needed, prepares custom pilot runs matching requested properties. It’s a feedback loop that builds trust and technical proficiency over time.
Sustainability represents an ongoing concern, both for us and our clients. Our facility sources precursor hydrocarbons from certified origin suppliers, favoring feedstocks with robust audit trails. Instead of leaning on narrative claims, we track input yield, waste rates, and solvent recovery rates in every lot. We have reduced our solvent-to-product ratio substantially by swapping legacy purification methods for energy-efficient fractional crystallization.
We keep open records available during customer audits, not as a marketing ploy, but as a sign of transparent operation. Years of running reactors have convinced us that incremental waste reduction stacks up, not simply for cost savings, but for real-world ESG performance.
There’s a reason many technical users seek to work with direct producers. They expect not just a consistent product but a responsive technical backstop. Our chemists who run the purification columns often take technical calls themselves, connecting production details with field issues. This tight feedback improves both product and process.
Through these close interactions, we have improved handling guidance, proposed alternate packaging, and even modified our recrystallization technique after discovering new data from industrial partners’ field results. The resulting product does not just meet a generic "specification" but supports more repeatable outcomes in real-world scenarios. In other words, factory-floor know-how shapes outcomes far beyond the production area.
Years on the factory floor bring a grounded sense of what matters. At one point, a customer’s pharmaceutical synthesis hit a snag—trace silicon contamination from a legacy seal leaked into a Cyclodecane batch and caused a series of failed runs. Rapid cross-team troubleshooting pinned the issue, swapped in new gasket materials, and got production back on track. Each such incident adds to collective expertise.
Cyclic hydrocarbon production isn’t static. Changes in demand, shifts in end-use trends, or regulatory adjustments force continual improvement. We re-certify feedstock lots, swap catalyst vendors after performance evaluation, and solicit feedback at every audit. Over the years, data has shown that the more tightly we manage the process and document every step, the fewer unforeseen outcomes confront downstream users relying on Cyclodecane in their own quality-critical applications.
Recent trends show a growing focus on specialized uses for Cyclodecane, from advanced lubricant formulations to new polymer intermediates. In these fields, only high-purity, well-characterized raw materials guarantee success. Our R&D team works alongside engineering partners to capture application-specific data—boiling point dependencies, melt transition kinetics, or contamination profiles—and incorporate the findings directly into production tweaks.
Industry colleagues developing high-reliability reference fuels or specialty PCM installations have called for smaller, more precisely weighed packages. As direct manufacturers, we’ve responded by adapting filling lines for small-volume, tamper-evident shipping—as opposed to the usual large drums—without sacrificing batch documentation or contaminant control. This direct technical relationship closes the loop between chemistry and engineering in a way market aggregators can’t replicate.
Handling Cyclodecane is best done with a keen eye toward its melt/freeze profile. In the field, our technical team has seen more than one lab lose hours to a blocked melt line or a jammed feed hopper from uncontrolled temperature fluctuations. The trick lies in anticipating real-world temperatures along the distribution pathway—something we actively monitor and share with regular buyers.
Technical users running analytical methods, such as GC or NMR, benefit from Cyclodecane’s sharp interpretability—not masked by odd alkanes or through degraded isomers commonly introduced by rushed or poorly controlled synthesis. As the manufacturer, we routinely retest retained samples from past batches to double-check for long-term stability and purity drift, keeping historical reference points available to all customers.
We believe producing Cyclodecane requires not just chemistry and engineering, but an ethos shaped by years of dealing directly with technical users. Quality comes from deliberate choices at each stage—starting from raw material vetting, to hands-on control of batch synthesis, to a culture of iterative feedback. This results in Cyclodecane that serves not simply as a raw material, but as a reliable foundation for applied chemistry, reference standards, and specialized manufacture where every parameter counts.
Those working with Cyclodecane understand the value of consistency, openness, and practical problem-solving at every step. The chemical itself may seem simple, but meeting the needs of advanced industry and science means relying on direct knowledge gained at the source. We put our full experience behind every shipment—so our customers can move confidently from bench scale to production line, knowing their results rest on sound manufacturing, attentive quality assurance, and decades of continuous improvement in cyclic hydrocarbon chemistry.