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HS Code |
991584 |
| chemical_name | Cetyl Ether |
| alternative_name | Hexadecyl Ether |
| CAS_number | 629-82-3 |
| molecular_formula | C16H34O |
| molecular_weight | 242.44 g/mol |
| appearance | White waxy solid |
| melting_point | 32-35°C |
| boiling_point | 285°C |
| solubility_in_water | Insoluble |
| solubility_in_organic_solvents | Soluble |
| odor | Mild, characteristic |
| product_use | Emulsifier, surfactant |
| density | 0.82 g/cm³ |
| HLB_value | Approximately 12 |
| flash_point | 140°C |
As an accredited Cetyl Ether factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Cetyl Ether is packaged in a 500g amber plastic bottle, labeled with product name, purity, safety information, and manufacturer details. |
| Shipping | Cetyl Ether is shipped in tightly sealed, corrosion-resistant containers to prevent contamination and moisture absorption. It should be stored and transported in a cool, dry, well-ventilated area, away from sources of heat, ignition, and incompatible substances. Ensure proper labeling and compliance with transportation regulations for chemicals. Handle with appropriate safety precautions. |
| Storage | Cetyl Ether should be stored in a tightly closed container in a cool, dry, and well-ventilated area, away from direct sunlight, heat sources, and incompatible materials such as strong oxidizers. Protect it from moisture and physical damage. Ensure proper labeling and keep away from food and drink. Follow all applicable local, state, and federal regulations for chemical storage. |
Applications of Cetyl Ether in Industrial ManufacturingAs a specialized manufacturer of cetyl ether, we support high-value industrial applications in focused downstream markets where this ingredient delivers proven performance. Our product consistently meets manufacturing standards and traceability requirements for each sector. Below, we outline major application scenarios recognized in the industry, each with technical guidance for compliance, formulation integration, and end product development. 1. Cosmetic Emulsions and Skincare FormulationsCetyl ether plays a significant role as an emollient and stabilizing fatty alcohol within premium skin care emulsions including creams, lotions, and milks. Cosmetic manufacturers leverage its skin-friendly feel and compatibility with actives, using the material as an O/W emulsion stabilizer and texture modifier. Our clients specify cetyl ether in formulations to enhance spreadability, improve viscosity, and optimize product appearance during continuous production. The raw material enters the manufacturing process during the heated oil phase, ensuring full dissolution and even dispersion prior to high-shear homogenization. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Pharmaceutical Ointments and Topical Delivery SystemsWithin regulated pharmaceutical manufacturing, cetyl ether functions as a penetration enhancer, oily base, and structure improver for ointments, gels, and topical drug delivery creams. Pharmacopeia-compliant production requires this excipient for improved drug release and skin absorption in hydrophobic/anhydrous compositions. Pharmacies and contract manufacturers rely on its defined physicochemical profile to maintain batch uniformity and consistency through scale-up. The ingredient is introduced during the melting phase, co-processed with actives, and incorporated prior to the filling of aluminum or laminate tubes or jars. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Industrial Lubricant and Metalworking Fluid FormulationIn the field of advanced lubricants and metalworking fluids, cetyl ether acts as a boundary lubricant additive, friction modifier, and anti-wear agent for specialty fluid systems. Lubricant blenders employ this ingredient to boost lubricity in water-miscible metalworking emulsions and boost low-temperature flow. Its unique alkyl structure enhances boundary film formation for demanding cutting, drilling, and stamping operations. Blenders introduce the ether into the base oil blend, followed by post-blend stirring and QA sampling for consistency prior to bulk drum filling or IBC transfer. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Textile Fiber Finishing and Softening AgentsTextile manufacturers incorporate cetyl ether into fiber finishing and softening agent baths to promote smooth handling, improved fiber slip, and antistatic properties in both natural and synthetic textiles. Fiber finishing specialists formulate this ingredient into nonionic emulsions used at the post-wash or pre-shrinking stage. The material is introduced into aqueous baths or solvent-based dispersions under agitation, and distribution across textile surfaces ensures uniform fabric feel and processability during further manipulation, packaging, and end-use. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
5. Household Detergent and Hard Surface Cleaner ManufacturingCetyl ether serves as a foam stabilizer, detergent base booster, and soil-dispersion agent in concentrated household cleanser and hard-surface cleaner formulations. Producers of multi-surface and kitchen detergents rely on the ingredient’s ability to stabilize microemulsions and support greasy soil removal in alkaline systems. The material enters the detergent blending line after the primary surfactants, enabling stable incorporation and compatibility with fragrance and dye microcapsules before final product packaging. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
6. Industrial Polyurethane Foam Processing (Flexible and Rigid Types)Foam manufacturers adopt cetyl ether as a cell structure modifier and surface-active additive in the production of both flexible and rigid polyurethane foams. As part of the foaming agent package, this ingredient regulates cell size and pore distribution during the exothermic expansion and gelling stages, contributing to improved surface skin, enhanced resilience, and dimensional stability. Raw material integration occurs during pre-polymer mixing, with in-line dosing monitored closely for reproducibility on large continuous lines and batch reactors. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
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Competitive Cetyl Ether prices that fit your budget—flexible terms and customized quotes for every order.
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Cetyl ether, also known as cetearyl ether or hexadecyl ether, carries a long legacy on our production line. We’ve invested years perfecting its synthesis, monitoring raw material quality, and tuning our process controls. As the primary manufacturer, we do more than shape molecules—we study trends in personal care, pharmaceuticals, and even ink formulation to keep our product a step ahead.
In chemical terms, cetyl ether’s backbone is a simple, saturated 16-carbon chain linked by an ether bond. This might sound textbook to people outside the lab, but for us, the simplicity of the structure guarantees reliable performance batch after batch. Our main production model typically delivers greater than 98% purity, with low moisture and consistent appearance—white flake or powder, easy to handle on a plant floor and in downstream blending. We’ve tweaked our process to keep color index low, so end formulas don’t pick up unwanted hues.
Raw material consistency sets the tone for every batch. Cetyl alcohol and high-purity hydrogen sources drive reactions at controlled temperatures, and the hourly logbooks from our synthesis teams tell us which tweaks yield the tightest product specs. We don’t rely on recycled feedstock for cetyl ether—those shortcuts open the door to unwanted byproducts and inconsistent chain lengths. For users in pharma or cosmetics, trace contaminants lead to headaches, so we watch every intermediate and adjust as needed.
Before dispatch, samples move to our own QC lab. Each lot sees gas chromatography, Karl Fischer moisture readings, and melting point checks because no customer wants to build a process around a moving target. Lab requests from long-term partners have prompted us to add extra assays over the years. Haze points, peroxide values, and residual solvents get documented for anyone running high-performance or sensitive blends.
Many users approach us after struggling with irregular blends containing fatty alcohols or low-cost cetyl ether substitutes. Blended materials cause formulating headaches: thinner viscosity, unexpected separation, cloudiness, or odor migration during storage. Cetyl ether from our reactors leaves those issues behind, built for uniformity—not just at the start, but through every shipment.
Natural alternatives have surged in popularity due to clean-label marketing. Some are derived from coconut or palm, and sustainability matters. We’ve sampled these in our lab, but natural variability often means fluctuations in chain length or impurities. Our process delivers one major component—cetyl ether—time after time, so ingredient buyers and R&D chemists always know what’s in the drum. Our sourcing team tracks origin for eco-labeling and RSPO requirements, confirming what’s possible and what doesn’t fit with regulated markets such as Europe or Japan.
Our largest volumes head out to personal care producers. Cetyl ether turns up in lotions, creams, cleansers, hair styling creams, and even sticks like deodorants. We talk regularly with development chemists about blend behavior: why cetyl ether creates a consistent feel in emulsions, why it reduces soaping, why it brings gloss without feeling heavy. These are not abstract benefits but discoveries through years of small-scale batch tests and customer feedback. The waxy solid becomes a reliable emollient and texturizer, prized because it’s gentle, non-sensitizing, and doesn’t clog pores.
We’ve also seen steady demand from topical pharma producers. Cetyl ether acts as an occlusive but non-greasy layer. Because of the tight impurity profile, there is confidence that no trace residues will interact with actives in dermatological creams. Finished drug products rely on excipients like ours for batch-to-batch repeatability, so drift in physical characteristics is never tolerated. Our process gives compounding pharmacists and production lines a consistent performance base.
In specialty coatings, cetyl ether works as a slip agent and spread modifier—areas often misunderstood. It doesn’t just float on the surface but distributes evenly to prevent drag. Small differences in melting point and color often matter to ink formulators and coating producers because off-shade products or viscosity spikes mean costly rework. We learned early to benchmark our product against tough customer standards and have built feedback cycles to eliminate ‘surprise’ events in downstream use.
We didn’t land on our current process overnight. In the beginning, we ran into high color formation due to trace oxidation in storage. Long back-and-forths with global partners taught us to re-engineer our plant’s air filtration and storage protocols. Now, nitrogen blanketing and polymer-lined bags are standard, keeping each batch as colorless as possible.
Our logistics team learned the hard way about moisture pickup—one rainy summer led to off-spec batches. We moved to climate-controlled warehouses and designed new drum seals, even as raw material costs went up. Customer complaints dropped, and we gained confidence that each shipment stays fresh, even with long shipping routes.
We have turned ‘difficult’ customer requests into improvements. A French cosmetics client once requested a lower peroxide value—something we never targeted before. Multiple pilot batches, with careful control over reaction exotherms and new catalyst suppliers, led to a line extension. Now, those peroxide values are routine, often setting a new standard for what others consider possible.
The family of fatty alcohols and fatty ethers all carry similar carbon backbones, so it’s natural to think of them as interchangeable. In practice, we get called to troubleshoot problems when a switch is made from cetyl ether to, say, stearyl ether or oleyl ether. Those variants introduce subtle changes—melting point, solubility, and feel on the skin or hair.
Cetyl ether’s melting point sits in a sweet spot: high enough to stabilize emulsions, low enough for easy process flow at elevated temperatures. Stearyl ether, with two more carbon atoms, turns hard and less pliable, making it a poor texturizer for light creams. Oleyl ether, with an unsaturated double bond, invites oxidative instability—a nightmare for those chasing all-day performance and long shelf life. Our cetyl ether occasionally faces competition from cetearyl alcohol, a blend of cetyl and stearyl alcohols, but users find clear differences in spread, gloss, and handfeel, especially where subtle texture changes matter to consumers.
Product traceability reaches beyond meeting customer checkbox requests. Regulators in many markets demand transparent origin and process disclosure. On our end, we log batch details and raw material sourcing in secure databases, ready to handle audits without scrambling for documentation. From a manufacturer’s side, real documentation brings reassurance—nobody wants to risk a recall just because the paper trail fell short.
REACH and FDA registrations are a moving target, with annual updates and more stringent chemical safety demands. Our technical team answers detailed substance information requests every quarter. We take the time to stay current on European Union ‘substances of very high concern’ lists. If trace contaminants edge near regulatory limits, we act fast to adjust process parameters, select clean feedstocks, or increase downstream purification.
Almost every new inquiry begins with a question about purity. Whether the customer needs cetyl ether for leave-on face creams or technical-grade blends for coatings, there’s a baseline expectation for transparency. We openly share all analytical reports, from purity percentages to microbiological status. MOQ and lead times come next, and our production specialists offer realistic timelines tailored to our own current output and global supply challenges.
For formulators, melting point and compatibility rank near the top of their checklist. We recommend running pairing studies in the end-use formula—our application team often joins roundtable discussions, sometimes creating small-batch blends to challenge the boundaries. Some want to push the amphiphilic properties, aiming for hybrid emulsions or enhanced water resistance. Based on the machinery and process limitations of each partner—homogenization speeds, shear tolerances—we suggest the optimal concentration range, usually 2-8% for most emulsions. Dilution tests and stability trials reveal the sweet spot between function and cost.
We often get unique requests. One cosmetics buyer needed a non-coconut origin for certain markets, due to raw material traceability concerns. For this, we tapped our global sourcing arm, verified non-coconut chains through supplier disclosures, and ran side-by-side performance checks on every lot. In another case, a food packaging customer requested more documentation on potential migration of chemicals into contact surfaces. Given cetyl ether’s high molecular weight, it shows negligible migration, but we helped arrange panel tests to build regulatory comfort.
As environmental impact rises up the agenda, our manufacturing team faces new pressures to document and reduce the footprint of every kilogram produced. Large brands want carbon-footprint data and explanations for every solvent, thermal input, and transport method. We made early investments in heat-recovery loops and live energy monitoring to slash process emissions. This isn’t just for glossy sustainability reports—it means tangible cost savings and meets the demands of buyers framing their own products as climate-conscious.
Palm-based inputs stay under the global microscope. We’ve migrated key supply lines to RSPO-certified sources where required, and we disclose those supply chains so our partners can feel confident in their own ‘green’ label claims. We are honest about what is and isn’t possible from a chain-of-custody standpoint due to the complexity of global feedstock markets. In more mature markets such as the EU, preference tilts to certified supply as a cost of doing business, not as a differentiator.
Waste reduction at our site comes down to practical action—improved solvent recovery, controlled batch swings, and continuous training for staff on spill and off-grade management. In our own operation, small leakages in process equipment can add up to significant loss and downstream complications. Regular process audits and real-time monitoring systems help us catch contaminants before product QA is put at risk.
From our vantage point, demand for cetyl ether ties closely to trends in personal care product launches and global consumer preferences shifting toward more natural and safer alternatives. As the popularity of vegan and allergy-safe items rises, we have seen a growth in requests for detailed documentation of every ingredient touchpoint. This has prompted us to invest further in both analytical capability and transparent supplier relations.
Global supply chain pressures aren’t letting up. Shipping costs, regulatory scrutiny, and political volatility have all sharpened our daily focus. Regular scenario planning with partners keeps our operation agile—open communication about lead times, backup raw material sources, and real-time documentation means fewer surprises for everyone involved.
Innovation remains a strong suit. We’ve partnered with universities and contract labs to explore new uses, from biodegradable lubricants to advanced polymer blends. Early results show promise when cetyl ether is paired with next-generation surfactants, and we expect our technical team to keep translating lab-scale proofs into commercial innovation.
After years in the field, we’ve learned that the utility of cetyl ether stems from more than chemistry—it’s built on reliability, traceability, and open lines with users looking for performance and peace of mind. From cream manufacturers needing texture, through pharmaceutical firms chasing strict impurity profiles, to specialty industries searching for technical performance, every partner relies on our understanding of process and product.
Through quality control, regular plant upgrades, and face-to-face feedback, we keep cetyl ether relevant for today’s changing markets. Every year brings new requests and higher standards—but we welcome them, because in our experience, only forward action improves the product incrementally, reinforcing our position not just as a producer, but as a true partner to our customers.