|
HS Code |
476133 |
| Chemicalname | Cyclopentadecane |
| Casnumber | 293-62-9 |
| Molecularformula | C15H30 |
| Molecularweight | 210.4 g/mol |
| Appearance | Colorless liquid |
| Boilingpoint | 276 °C |
| Meltingpoint | 33.3 °C |
| Density | 0.82 g/cm³ |
| Refractiveindex | 1.453 |
| Flashpoint | 121 °C |
| Solubilityinwater | Insoluble |
| Odor | Odorless |
| Pubchemcid | 12311 |
As an accredited Cyclopentadecane factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Cyclopentadecane is packaged in a 100 mL amber glass bottle with a secure screw cap and clear hazard labeling. |
| Shipping | Cyclopentadecane should be shipped in tightly sealed containers, protected from heat, sparks, and open flames. It is typically transported as a non-hazardous liquid under normal conditions. Ensure compliance with local and international regulations. Proper labeling and documentation are required, and the chemical should be handled by trained personnel during shipping. |
| Storage | Cyclopentadecane should be stored in a tightly closed container in a cool, dry, and well-ventilated area, away from sources of ignition and incompatible substances like strong oxidizers. The storage area should be free from direct sunlight and excessive heat. Proper labeling and secure shelving help prevent accidental spillage or exposure. Store according to established chemical safety protocols. |
Applications of Cyclopentadecane in Industrial ManufacturingCyclopentadecane serves specialized functions across several advanced industrial sectors. As an experienced manufacturer, we supply this raw material strictly for clearly defined downstream purposes proven in global practice. The following sections present real, differentiated application scenarios, including regulatory frameworks, formulation ratios, placement in downstream workflows, and types of finished goods. Every segment below draws from customer formulations, compliance documentation, and reference data from regulated industries. 1. Fine Fragrance Base Stock for Perfume CompoundingPerfumery houses utilize cyclopentadecane as a fixative and base molecule to structure long-lasting musky notes in high-end fragrances. Its role bridges synthetic musk and natural muscone markets, supporting stable evaporation profiles and a clean base that performs across alcohol and oil-based product lines. Our partners integrate it into core formula design rather than surface blends. Industry compliance standards
Typical usage ratio
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2. Functional Wax Modifiers in Cosmetic FormulationLeading personal care manufacturers incorporate cyclopentadecane as a structure modifier in high-melting point cosmetic wax blends. This ingredient adjusts spreadability and gloss, particularly in lipsticks and foundation sticks requiring smooth application at skin temperature. The material’s hydrocarbon nature reduces sweating and migration in stick products under variable storage conditions. Industry compliance standards
Typical usage ratio
Downstream process integration
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3. High-Performance Lubricant Base for Precision EngineeringComponent manufacturers serving the watchmaking, micro-motor, and instrument segments rely on cyclopentadecane as a synthetic hydrocarbon in specialty grease and light oil formulations. The molecule’s molecular ring structure imparts thermal and oxidative stability, contributing to long service intervals and clean lubrication in high-load contact surfaces found in miniaturized systems. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. High-Purity Reference Standard in Analytical LaboratoriesPharmaceutical and environmental laboratories require cyclopentadecane as a certified reference material for retention time calibration and matrix studies in gas chromatography (GC) and GC-MS systems. The highly pure substance supplies a stable, well-characterized retention marker across a broad temperature range, supporting regulatory analytical workflows and instrument qualification protocols. Industry compliance standards
Typical usage ratio
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5. Macrocyclic Musk Intermediate for Aroma Chemical SynthesisIndustrial aroma chemical producers employ cyclopentadecane as a core feedstock in the syntheses of high-purity macrocyclic musk compounds, such as exaltolide and ambrettolide. Its reactivity enables selective functional group transformation under catalytic or oxidation conditions, setting it apart as a preferred starting material compared to other long-chain cycloalkanes. Downstream companies benefit from reliable physical-chemical consistency in batch processing. Industry compliance standards
Typical usage ratio
Downstream process integration
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Every year, industries that rely on complex organic molecules look for raw materials that offer true reliability in physical properties, chemical stability, and predictability at scale. Cyclopentadecane, with its distinctive fifteen-membered carbon ring, delivers these characteristics straight from our reactors. Years of direct manufacturing experience have shown the value of purity and consistency, especially as projects move from R&D to full-scale operations.
Working with paraffinic hydrocarbons often means distinguishing between grades that seem similar at first glance but perform quite differently in applied settings. Our cyclopentadecane emerges as a colorless, odorless solid under ambient conditions, melting at about 46–49 °C. Chemically, it resists oxidation and degradation under standard handling, creating predictable behavior batch after batch. Synthesizing with our own reactors—not through outsourcing or secondary markets—lets us keep tight reins on quality assurance, so purity checks are a part of our daily workflow, not a formality.
Quality differences between manufacturers show up most clearly during processes where subtle impurities cause cascading problems—hydrogenation reactions, fragrance development, or pharmaceutical excipient formulation. Our plant achieves over 99% purity with routine GC-FID and NMR checks, ensuring clients don’t have to chase down off-odors or unexplained residuals. High boiling point stability and absence of unsaturated byproducts translate into tangible advantages for end-users tackling challenging synthesis, where side reactions aren't an option.
Out in the field, cyclopentadecane finds its main roles where high molecular weight saturated hydrocarbons are needed—and where linear forms like pentadecane just don't cut it. The cyclic structure imparts lower volatility and higher melting points compared with linear alkanes, which matters when end uses demand waxes or solid carriers that don’t seep, lose mass, or degrade at moderate heat.
Cosmetic, personal care, and pharmaceutical customers value its non-reactive baseline. Cyclopentadecane behaves as a stable base in long-wear skin formulations, without introducing odors or clouding the product. When scale-up happens, and processes require a reproducible vehicle that won’t interact with actives or add toxicity, teams reach for our cyclopentadecane. We've committed years to fine-tuning purification so these applications never get derailed by batch-to-batch swings.
Fragrance chemists and material scientists also turn to cyclopentadecane when seeking to balance volatility and retention. The molecule’s ring structure holds fragrance notes without evaporating prematurely, supporting both fixative properties in scents and carrier roles in specialty waxes. Unlike standard mineral wax additives or shorter-chain cycloalkanes, cyclopentadecane’s higher carbon count anchors it in a physical window that’s especially hard to mimic synthetically.
Clear differentiation between cyclopentadecane and its alkane relatives shapes what users can get from their processes. Where linear pentadecanes break down faster upon exposure to oxygen or UV, the cyclic structure of cyclopentadecane grants it a resilience appreciated by those compounding high-performance polymers, specialty lubricants, or phase-change materials. Our experience supplying temperature-stable mediums for controlled-release and calibration standards points toward a simple truth: tiny molecular differences echo through the supply chain.
We’ve watched engineers push boundaries using cyclopentadecane in thermochromic and phase-change technologies. The melting range allows it to lock energy or shift phase at application-specific temperatures, whether storing solar energy in specialty panels or stabilizing conditions in datacenter cooling systems. End-users no longer have to compromise between safety—since the compound avoids the flammability issues of shorter-chain alkanes—and reliability, due to its negligible odor and resistance to hydrolysis.
Working at the manufacturing level, as opposed to relying on external traders or intermediaries, offers a unique vantage. Purity claims become reality or risk depending on direct control over feedstock, process environment, and final QC release standards. Our operators understand how process drift can threaten homologous compound formation—such as tetradecane or hexadecane contaminants—so routine monitoring of key production variables forms part of our shop-floor DNA. Our cyclopentadecane consistently meets purity specs through this hands-on vigilance, rather than leaving cleanup to downstream purification steps or blaming lot variations on external suppliers.
Regulatory and end-market pressure has grown around traceability and sustainability. We maintain digital records for every lot produced, linking back to the raw hydrocarbon sources. This makes it easier to collaborate with partners aiming for ISO or GMP conformance, rather than scrambling for paperwork after the fact. Working straight from the manufacturing floor, we provide answers—not delays or third-party finger-pointing—when audit or compliance questions crop up.
Industries focused on green chemistry and next-generation biotech applications are redefining what’s acceptable for hydrocarbon carriers. As environmental concerns climb, we’ve adjusted our process in ways resellers can’t touch, substituting lower-impact catalyst systems, recycling process water, and fine-tuning energy consumption. Our teams collaborate with clients iterating on biodegradable polymer blends or sustainable fragrance deliveries, delivering cyclopentadecane that checks both chemical and lifecycle assessment boxes.
Startups and established firms tackling battery innovation or advanced materials routinely come to us for assurance about the thermal, chemical, and storage stability of each lot. Direct access to the production team makes troubleshooting faster, especially where even trace sulfur or halogen contaminants threaten high-value product lines.
We’ve worked through tough questions about long-term global supply chain resilience. Natural feedstocks shift in composition or price, but in-house process optimization insulates supply by recycling and internally recovering side streams for further use or safe disposal. Our cyclopentadecane’s traceability, from the first barrel to final packout, solves the headaches clients encounter with intermediated supply or variable imports, where documentation and lot merging can hide inconsistencies.
It’s easy to confuse cyclopentadecane with linear pentadecane or smaller ring analogues like cyclododecane. In lab-scale testing, all function as high-molecular-weight hydrocarbons but only the fifteen-membered ring brings together the properties that matter for demanding formulations. Pentadecane, with a lower melting point and higher volatility, struggles to deliver stable film formation or carrier functions without loss to evaporation or leaching at moderate temperatures. Cyclododecane carries risk in lengthier drying times and lower solid-state retention, particularly where consistent film formation or release dynamics are essential.
From our floor, cyclopentadecane’s higher molecular weight improves longevity in coatings that must survive routine temperature spikes, repeat cycling, and long storage periods. We have seen in practice how cyclic structures outperform branched or linear forms in resisting solvent haze or separation during aging. These aren’t just data points—they track back to stories from long-term users whose processes stopped stalling once they upgraded to our specification.
Third-party products can’t promise much beyond stock spec sheets and middleman assurances. Our teams run performance comparisons for customers side-by-side, so those who need the extra resilience, shelf stability, or activity-neutral characteristics know where differences genuinely emerge. User feedback from pharmaceutical, agricultural, or specialty chemical fields confirms that with cyclopentadecane, small molecular changes allow for significant improvements in process reliability.
Real progress comes from listening to customers who bring unique problems. A few years back, we partnered with a specialty wax producer wrestling with lot-to-lot inconsistencies that created headaches for their downstream customers—uneven melting, varying hardness, and unexpected odor traces that forced expensive recalls. Switching them to our cyclopentadecane, which passes permeation and reactivity checks at the point of manufacture, cut both warranty claims and rework costs. These wins don’t show up in standard datasheets but have shaped our continuous improvement on the production line.
Another client, developing advanced delivery systems for cosmeceuticals, struggled with interactions between their payload and earlier carrier molecules, resulting in reduced overall efficacy and batch failures at commercial scale. After mapping their process side by side with our chemists, we recommended a switch to our in-house purified cyclopentadecane, which, thanks to its zero-polarity and low reactivity, eliminated the problem. They scaled up, and output held steady from the first lot through yearly expansion runs.
Working as a manufacturer gives us practical insight that simply doesn’t circulate in trading circles. We’re tapped for advice when regulations tighten, such as cuts in permissible levels of aromatic hydrocarbons, or requirements for higher documentation and traceability. Our teams know precisely which process steps are most sensitive to upstream variations, and how seemingly minor process tweaks—fractional distillation cut points, catalyst refresh cycles, or in-process filtration—alter the final product’s odor, solubility, and melting range.
Supply assurance in today’s environment also means supporting scale-up and process validation. For example, users in electronics manufacturing need tight controls on trace metals, while those working in medical device coatings depend on absence of chlorinated byproducts. By staying close to production, we can quickly confirm the absence of flagged impurities, run real-time batch tests, and provide supporting documentation on short notice—saving days or weeks in fast-moving project cycles.
Clients rarely ask about what running an efficient cyclopentadecane plant entails, but our quality system extends beyond documents. Our audits trace through raw material suppliers, batch tracking numbers, in-house analytical techniques (GC, HPLC, occasionally HR-MS), and technician certification logs. Recently, we implemented parallel validation by third-party labs so our claims about heavy metal traces, purity levels, and other critical specs always stand up to outside scrutiny. We see such steps as part of raising industry reliability and peace of mind for our customers.
Lean manufacturing has forced us to revisit old habits. Energy and resource footprints matter much more today, so we target not just purity, but cycle times, water recycling, and energy use per ton. These factors influence both our cost and the environmental profile downstream. For customers needing audits or green supply chain certifications, our data doesn’t live in a black box—it’s available for review.
Supply chain tensions and calls for greater transparency have turned process control from a luxury into a necessity. A decade ago, most demand for cyclopentadecane came from established players looking for consistency. Today, emerging applications—like specialty phase-change mediums, advanced lubricants without typical toxicity flags, or development-stage pharmaceutical carriers—require close interaction between producer and user. Our workbench samples are tuned based on direct feedback, not just algorithmic optimization.
We invest in application-driven R&D, pulling suggestions not only from in-house chemists but frontline feedback in fields as varied as bioplastics, high-value coatings, and next-generation adhesives. That feedback loop, from production plant to project pilot lines, guides us to pursue new grades and modify process parameters to meet end-user requirements. Clients stay with us not only for consistent quality but because we treat manufacturing as a dynamic process, attuned to practical use challenges.
Over years of direct production, we’ve seen cyclopentadecane move from niche hydrocarbon to backbone in a slate of mainstream and emerging applications. The ability to guarantee purity, control production variables, and respond immediately to technical questions sets true manufacturers apart. As regulations, market requirements, and environmental pressures evolve, a tight relationship between user needs and factory expertise will define which suppliers help end-users thrive. Our commitment runs beyond numbers on a sheet—we pair every batch with a straightforward approach to transparency, process improvement, and technical support.