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HS Code |
174877 |
| Cas Number | 629-50-5 |
| Molecular Formula | C23H48O |
| Molecular Weight | 340.62 g/mol |
| Iupac Name | Tricosan-1-ol |
| Appearance | White waxy solid |
| Melting Point | 78-80°C |
| Boiling Point | 385°C at 760 mmHg |
| Solubility In Water | Insoluble |
| Density | 0.82 g/cm³ |
| Flash Point | 196°C |
| Refractive Index | 1.455 (at 20°C) |
| Pubchem Cid | 12392 |
As an accredited 1-Tricosanol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 1-Tricosanol is packaged in a 25-gram amber glass bottle with a secure screw cap, labeled with chemical details and safety warnings. |
| Shipping | 1-Tricosanol is typically shipped in sealed, chemical-resistant containers to prevent contamination and degradation. It should be stored and transported in a cool, dry place, away from heat sources and incompatible materials. Proper labeling and documentation, in accordance with regulatory requirements, ensure safe handling during transit. Use personal protective equipment when handling. |
| Storage | 1-Tricosanol should be stored in a tightly closed container, kept in a cool, dry, and well-ventilated area, away from sources of heat and ignition. Protect the chemical from moisture and direct sunlight. Store separately from incompatible materials such as oxidizing agents. Proper labeling and adherence to relevant safety standards are recommended to ensure safe handling and storage. |
Applications of 1-Tricosanol in Industrial Manufacturing1-Tricosanol, a long-chain fatty alcohol, serves as a specialty raw material in multiple industrial sectors for its unique functional properties. Our vertically integrated manufacturing ensures precise quality standards required for demanding downstream applications. The following sectors represent the primary industrial routes where 1-Tricosanol is used as an ingredient or process aid. 1. Agrochemical Emulsifier SystemsProducers of pesticide and herbicide formulations rely on 1-Tricosanol for its superior wetting and spreading performance in high-concentration emulsion systems. It works as a co-emulsifier and adjuvant, improving dispersion of active ingredients and enhancing foliar uptake. Formulators select precise chain-length alcohols to balance emulsification and retention on crop surfaces, optimizing both active delivery and rainfastness. Inclusion rates and process steps directly affect emulsion stability across storage and field application environments. Industry compliance standards
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2. Food-Grade Antifoam AdditivesIndustrial food processors, especially in edible oil, sugar refining, and yeast fermentation, use 1-Tricosanol as a component in food-grade antifoam systems. Its ability to destabilize persistent protein and carbohydrate foams supports efficient throughput and prevents loss of valuable product to froth-over or overflow. Technologists adjust usage levels according to process parameters, batch sizes, and the foaming properties of matrix ingredients, with close attention to regulatory residue limits in foods. Industry compliance standards
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3. Polyethylene Wax and HDPE Lubricant ManufactureProducers of polyethylene waxes and high-density polyethylene molding compounds incorporate 1-Tricosanol as an internal or external lubricant to control melt flow, reduce die build-up, and fine-tune surface gloss. Its chemical compatibility and precise melting range ensure successful dispersion and stable plasticizing action, particularly in high-throughput extrusion or calendaring lines. Process engineers monitor feed ratios to balance viscosity reduction with dimensional control in final molding or finishing operations. Industry compliance standards
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4. Cosmetic Emollient and ThickenerManufacturers in the personal care sector formulate 1-Tricosanol into luxury skin creams, hair conditioners, and lip care items for its high-melting consistency and non-greasy emollient profile. The long, linear molecular structure increases viscosity, enhances sensory feel, and stabilizes oil-in-water emulsions against phase separation or texture breakdown during storage. Cosmetic chemists select this material both for its tactile properties and its physical barrier function in finished skincare items. Industry compliance standards
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5. Pharmaceutical Tablet and Capsule Processing (Specialty Lubricant)Contract pharmaceutical manufacturers utilize 1-Tricosanol in select oral solid dosage forms as a specialty lubricant and anti-adherent for high-speed tablet presses and encapsulation lines. The material’s low reactivity with actives and defined slip characteristics make it suitable where magnesium stearate induces excessive hydrophobicity or capping problems. Pharmacists customize lubricant blends based on granule compressibility, downstream coating compatibility, and validated cleaning cycle parameters. Industry compliance standards
Typical usage ratio
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Our production team has worked with 1-Tricosanol for decades, learning how to coax quality from each batch. This is a long-chained fatty alcohol that stands out from many similar compounds, and its distinctive character starts with the purity and structure we guarantee in our manufacturing line. We don’t rely on standard shortcuts, and anyone who visits our plant sees that. From raw wax sourcing to the last drying step, we keep an eye on crystallinity, particle size, and trace contaminants, because these small details shape material performance when customers process it further.
1-Tricosanol, with its 23-carbon backbone, provides specific behavior that separates it from shorter or longer chain fatty alcohols. Our primary product comes as a high-purity white powder or waxy solid, usually with purity above 98%. Our typical packaging varies according to customer needs, but every lot moves through the same refined filtering and recrystallization that the pharmaceutical and cosmeceutical industries demand. Regular users tell us they notice the difference during blending, melting, and downstream processing compared to more generic, less filtered material sourced elsewhere.
We source feedstocks from established growers because plant origin makes a difference. Each batch begins with carefully harvested plant waxes, mainly from sugar cane, but the market sometimes brings palm wax into the mix during certain seasons. By controlling sourcing closely, we keep lot-to-lot differences in check. That’s critical for researchers and manufacturers who need a steady melting point profile, consistent color, and a reliable trace impurity background for their formulations. The long-chain structure also means fewer volatile impurities, which matters for applications like cosmetic creams and lubricants, where off-odors or unexpected reactivity ruin months of development work.
1-Tricosanol makes itself useful through the very things that make high-purity manufacturing tough: it tends to form long, fibrous crystals and needs careful cooling to avoid clumping or bridging in storage. Many suppliers cut corners by blending in similar fatty alcohols such as 1-Docosanol or 1-Tetracosanol, driven by availability or a pursuit of quick batch turnover. We’ve spent years developing a fractional crystallization process that leaves these behind — a small difference on paper that translates to much better consistency in use. Customers working with sensitive emulsions or time-release matrices come back to us specifically because this purity removes uncertainty from their process diagrams.
Raw material variability can surprise even seasoned formulators. We run gas chromatography and spectrometry on every batch, but real assurance comes from experience watching batch behaviors through the process chain. The difference surfaces in simple things like shelf-life, melting profile, or ease of incorporation into host matrixes — factors that engineers and chemists don’t always document, but the manufacturing line feels immediately. Over the years we have tweaked our cooling rates, filtration setups, and even wax pressing methods to cut down on micro-impurities and control granule size.
Manufacturers using 1-Tricosanol in skin creams often comment on batch-to-batch performance. A batch with the wrong crystal size can create graininess or affect hand-feel, while residual plant oils lead to unexpected color or scent shifts. Because we maintain a tight feedback loop between our plant and our application lab, we can spot anomalies faster. This setup stems from working side by side with customer engineers, sometimes changing sampling protocols or adjusting storage recommendations to make sure our material stays fresh and predictable through the logistics cycle.
Longer-chain alcohols like 1-Tricosanol supply stiffness and lubricity without the sticky or greasy residue left by shorter chains. In lip balms, antiperspirants, and solid creams, formulators push for very low residual odor and color. Shorter chain alcohols cause emulsion destabilization, and longer ones can be too waxy and resist uniform melting. 1-Tricosanol fits in the middle: solid at room temperature, but soft enough to blend well with other waxes and oils. We tend to see strong demand from high-end cosmetic houses who rightfully demand notification of any raw plant source shifts, even if only for regulatory documentation, because their R&D teams pick up on small changes no one else does.
Unlike multi-grade wax or technical alcohol blends, 1-Tricosanol gives more control over melting point, gloss, and viscosity. In laboratories, research teams see improved batch yields and lower scrap rates by avoiding blends with double peaks or variable melting behavior. This repeatability lets R&D teams invest their energy into tailoring actives rather than troubleshooting material drift. If you’ve ever run a stability study and lost batches from an off-lot blend, the value makes itself clear very quickly.
In agricultural coatings, 1-Tricosanol protects seed and crop surfaces from excessive moisture loss without interfering with germination or root uptake. Excess unsaponifiable matter, common in less pure grades, can block transport pathways if left unchecked. Decades on the line have taught us to control these fractions and provide technical documents with full impurity profiles for critical export shipments. The stakes are high with specialty crops: unexpected chemical migration costs farms yield, and field results travel fast through supply chains. We have hosted quality audits and on-site inspections for both international certification agencies and some of the world’s largest food ingredient conglomerates. Many choose our material specifically to avoid last-minute batch re-testing or hold-ups at customs — details only the producer truly experiences on a day-to-day basis.
Our long-term industrial buyers from the plastics and lubricants sectors need high slip and anti-wear properties without added discoloration. Lubricant makers testing batch after batch of wax blends easily spot when a lot doesn’t meet standards for melting range or color point. Similarly, plastics molders see flow property changes the minute raw materials vary. Direct feedback from operators has helped us adjust not just purification, but also drying and packaging protocols. Vacuum-sealing, nitrogen-blanketing, and foil-laminated bags all originated from these production floor discussions and customer-driven improvements.
Processing lines benefit from consistent and well-characterized inputs. Anyone running a reactor or mixer with variations in particle size or melting point knows the pain of cleaning out a line after a batch misses downstream targets. 1-Tricosanol, if produced with shortcuts or lax process controls, can clump, segregate, or plug conveying equipment. Our teams log performance metrics across storage, transport, and dispensing lines. We tweak product granule size and minimize static charge, minimizing handling issues before material ever leaves our dock. It’s not uncommon for customers to run a test batch with material from three or four sources, then settle on ours because their operators notice fewer process stoppages or deviations. The value is plain during scale-ups or when running high-throughput formulation trials.
Producers in today’s world cannot ignore the spotlight on product sourcing and footprint. Our supply chain has shifted toward renewable-only plant waxes, supported by traceability documentation. We take environmental testing seriously, conducting regular contamination checks to ensure fields and refining partners meet expectations for PAH and pesticide residues. Material tracing and batch certification have expanded over the years, and we pass this data along with each shipment. Regulations in Europe and North America keep evolving, and so do our documentation and control processes. Ensuring a responsible, certifiable, and auditable process has never been optional for us — customer audits, regulatory changes, and updated sustainability schemes all force constant improvement. By keeping production under one roof, we reduce risk points and keep response times short when a sorting or documentation issue arises.
Each application demands subtle formula tweaks, whether for pharma, cosmetics, or technical blends. In some cases, we adjust filtration fineness for customers who need near-zero insoluble residue. Others want tight melting range controls for time-release excipient work. Many bulk buyers order full-traceability grade with signed-off impurity audits or allergen reviews. Our technical support comes directly from the team that designs the purification and pressing protocols, so field questions reach production staff quickly. This minimizes the delay if a batch shows off-spec results, and it allows real-world user issues to loop straight back to our engineers for process improvement. That kind of feedback only works in a producer-managed plant, not in a purely trading environment. The end result: batches that meet the precise specifications labs and plants expect, with fewer rework cycles or inspection failures on finished products.
Safety isn’t a marketing checkbox for manufacturers — it’s woven into each day. 1-Tricosanol itself poses minimal hazard compared to more volatile or reactive chemical intermediates. Still, slip potential from spilled powder, combustible dust risk, or residual solvent control all become important in real production environments. We teach handling to downstream logistics and blending staff and share updated safety sheets every time new storage requirements surface. Powdered forms, for example, can create static if handled through plastic pipes. Bulk packers need tailored guidance to keep employee exposure and fire risk under control. We have redesigned dust collection, filter press maintenance, and storage bin loading procedures through actual experience, not just from a standard operating manual. Customers learn from our incidents and improvements, using our field data to avoid preventable loss. The end goal remains unchanged: safe, reliable product every time, shipped with honest information and practical tips for safe usage down the line.
Markets for specialty fatty alcohols like 1-Tricosanol remain focused, demanding, and price-sensitive. Customers that treat this as a true specialty chemical spot the cut corners or unexplained quality drifts instantly. Traders and third-party repackagers often lack not just process control, but also the feedback loop that explains where a lot went off track. We stay in direct communication with R&D and production departments of our core customers, getting real usage feedback. Some of the most valuable lessons come from failure: a batch that tints a lip balm unexpectedly, an emulsion that loses viscosity, or a shipment that encounters customs delays because a distributor cannot answer source traceability questions. In direct production, one learns to diagnose, retest, and improve. Our team documents these lessons in updated protocols, giving new customers a clear view of what production means at the source. This difference lies not only in paperwork, but in the knowledge, experience, and continual improvement that defines industrial chemical manufacturing.
On paper, 1-Tricosanol shares features with other fatty alcohols, but downstream users know that paper can’t tell the full story. Shorter chains like 1-Octadecanol or 1-Docosanol melt at lower temperatures, feel waxier, and dissipate fragrance or texture differently. Longer chains, such as 1-Tetracosanol, produce firmer matrices and resist absorption in pharmaceutical bases, sometimes leading to product failures. 1-Tricosanol rides this middle ground, thanks to its specific number of carbons and refined processing. End products come out with just the right level of firmness for sticks or creams, and that consistency matters for user acceptance across entire product lines.
There’s often an assumption that all fatty alcohols are interchangeable or ‘close enough’ so long as the process runs smoothly. Experience teaches the limits quickly. Substituting with blends, particularly in cost-driven markets, causes drifting performance and sneaky failures that appear weeks or months after production. Product recalls, lost brand trust, and expensive reformulation rounds trace back to small differences in raw ingredients. So much of this comes down to manufacturing vigilance. We stick with production protocols we know, testing improvements where they count, and sharing practical lessons learned with our user base.
Every year brings new challenges for 1-Tricosanol users, whether in regulation, supply chain stress, or processing innovation. Manufacturers in our industry learn early to value honest customer feedback. The best improvements on our line come less from boardroom meetings and more from plant floor conversations: a missed granule size spec, an off-color lot, or a handling issue during a heat wave. Over the years, we have built direct quality review cycles into our process — field issues make their way straight back to manufacturing for root cause analysis, not filtered through layers of sales teams or resellers. This lets us fix problems before they magnify down the supply chain and maintains user trust not by pitch, but by proof-of-performance in everyday operations.
Demand for high-purity, traceable input chemicals continues to grow, and as downstream processors set stricter expectations around documentation, safety, and batch lot documentation, the importance of active, ground-level manufacturing experience grows with it. 1-Tricosanol owes its reputation to skilled technical staff and hands-on learnings. We’re constantly upgrading and refining our processes — switching to more sustainable plant sources, tightening analytic controls, building out application guidance, and maintaining transparent customer lines. Every improvement reflects shared experience with end users who rely on consistency and the confidence that every drum stands up to real-world performance tests.
For those of us making this product day-in, day-out, the reward comes less from industry awards or buzzwords and more from the simple knowledge that each shipment will work just as reliably for new startups as for seasoned multinational labs. As production partners, we invest in the quiet, diligent work that defines quality chemical manufacturing, and that investment shows wherever 1-Tricosanol makes its mark — in your line, your lab, or your next breakthrough product.