C8–10 Fatty Alcohol
- Product Name: C8–10 Fatty Alcohol
- Chemical Name (IUPAC): octan-1-ol, nonan-1-ol, decan-1-ol
- CAS No.: 68937-66-6
- Chemical Formula: C8H18O–C10H22O
- Form/Physical State: Liquid
- Factroy Site: Yuanchuang Guojilanwan Creative Park, Huoju Road, Hi-Tech Zone, Qingdao, China
- Price Inquiry: sales9@boxa-chem.com
- Manufacturer: Fufeng Biotechnologies Co.,Ltd
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- C8–10 Fatty Alcohol is typically used in formulations when emulsification properties and viscosity, and temperature and pH stability must be controlled within specific ranges.
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HS Code |
668021 |
| Chemicalname | C8–10 Fatty Alcohol |
| Casnumber | 68987-81-5 |
| Molecularformula | C8H18O – C10H22O |
| Molecularweightrange | 130–158 g/mol |
| Appearance | Clear to pale yellow liquid |
| Odor | Mild fatty odor |
| Meltingpoint | −6°C to 12°C |
| Boilingpoint | 185°C to 265°C |
| Solubilityinwater | Insoluble |
| Density | 0.82–0.83 g/cm³ at 20°C |
As an accredited C8–10 Fatty Alcohol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | C8–10 Fatty Alcohol is packaged in a 200 kg blue HDPE drum with a secure screw cap and clear labeling. |
| Container Loading (20′ FCL) | Container Loading (20′ FCL) for C8–10 Fatty Alcohol typically allows bulk or drum packing, with max load around 16-19 metric tons. |
| Shipping | C8–10 Fatty Alcohol should be shipped in tightly sealed, clearly labeled containers, such as drums or IBCs, to prevent leaks and contamination. Transport must follow applicable regulations, including ADR, IMDG, or DOT standards. Store and ship in a cool, dry, and well-ventilated area, away from incompatible substances and ignition sources. |
| Storage | C8–10 Fatty Alcohol should be stored in tightly closed containers, away from heat, sparks, and open flames. Store in a cool, dry, and well-ventilated area, away from incompatible substances like strong oxidizers. Protect from direct sunlight and moisture. Ensure containers are properly labeled and kept upright to prevent leaks. Follow all relevant regulations for flammable or combustible liquids. |
| Shelf Life | C8–10 Fatty Alcohol typically has a shelf life of 24 months when stored in tightly sealed containers under cool, dry conditions. |
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Purity 98%: C8–10 Fatty Alcohol with 98% purity is used in surfactant formulations, where it enhances foaming performance and cleaning efficiency. Viscosity grade low: C8–10 Fatty Alcohol of low viscosity grade is used in liquid detergent production, where it improves pourability and processability. Molecular weight 130–160 g/mol: C8–10 Fatty Alcohol with molecular weight 130–160 g/mol is used in personal care emulsions, where it provides stable emulsion characteristics and improved skin feel. Melting point 20–27°C: C8–10 Fatty Alcohol featuring a melting point of 20–27°C is used in cosmetic creams, where it delivers smooth texture and consistent spreadability. Stability temperature up to 60°C: C8–10 Fatty Alcohol stable up to 60°C is used in industrial cleaner synthesis, where it ensures chemical integrity during high-temperature processing. Hydroxyl value 260–280 mgKOH/g: C8–10 Fatty Alcohol with a hydroxyl value of 260–280 mgKOH/g is used in esterification reactions, where it achieves high ester yields and improved reaction rates. Acid value <0.1 mgKOH/g: C8–10 Fatty Alcohol with an acid value below 0.1 mgKOH/g is used in pharmaceutical excipient production, where it minimizes impurities and ensures product safety. Water content <0.2%: C8–10 Fatty Alcohol with water content below 0.2% is used in adhesive formulations, where it improves shelf-life and reduces batch variability. |
Competitive C8–10 Fatty Alcohol prices that fit your budget—flexible terms and customized quotes for every order.
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- C8–10 Fatty Alcohol is manufactured under an ISO 9001 quality system and complies with relevant regulatory requirements.
- COA, SDS/MSDS, and related certificates are available upon request. For certificate requests or inquiries, contact: sales9@boxa-chem.com.
C8–10 Fatty Alcohol: Direct from the Factory Floor
Up Close with C8–10 Fatty Alcohol Production
Every batch of C8–10 fatty alcohol that leaves our tanks starts its journey with the strictest selection of natural feedstocks. At our facility, we prioritize sourcing raw materials with known origins and traceable supply chains. We have seen firsthand how raw material consistency affects downstream applications. Some users overlook this, but it only takes one failed batch in an end product — a cloudy detergent, an off-odor in a fragrance base — to learn that origin matters. After years of refining our process, we rely on tried-and-true hydrogenation of natural fatty acids, producing C8–10 blends mostly derived from coconut and palm kernel oil. We've calibrated our systems to produce high purity, minimizing unsaturation and byproducts. Every stage, from fractionation to purification, involves direct supervision. Our team monitors moisture, acid value, and color indices closely, since a minor variation in any of these will ripple through to a product’s final result.
Why We Make the C8–10 Cut
In our plant operations, we've seen why the C8–10 fraction strikes the right balance for formulators. These molecules — mostly caprylic (C8) and capric (C10) alcohols — have moderate chain lengths, which brings a balance between solubility and emolliency. Shorter chains like C6 or C7 tend to be volatile and can cause unwanted odor issues, and longer chains begin to lose water solubility and become less practical for many surfactant and wetting agent blends. Years of feedback from downstream users in surfactant and fragrance lines tell us that C8–10 finds its way smoothly into traditional and next-generation chemical formulations.
Unlike single-chain alcohols, this blend offers a soft, substantive feel on the skin. Surfactant manufacturers in personal care value this, making the product a staple in mild cleansers and makeup removers. We’ve also heard from lubricant and plasticizer formulators that the mix reigns in volatility issues seen with pure C8 or C10 grades. Repetitive seasonal testing (especially in tropical or arctic shipping) has exposed the headaches of short supply chains or inconsistent C8–10 ratios. So, as a producer, we've found it pays to keep the blend tightly controlled in the 65:35 to 55:45 range. Deviations spike melting point and solubility, throwing off critical manufacturing endpoints for our partners.
Our Process: What Goes In, What Comes Out
Our factory setup revolves around keeping the blend even throughout the year. Temperature fluctuations, especially in the feedstock holding tanks, once caused product to slip out of spec — a problem we fixed with improved insulation and tighter real-time monitoring. For every shipment, our QC lab runs final checks for carbon distribution, moisture (<0.1%), acid value (usually under 0.05 mg KOH/g), and color (Gardner <1). Downstream users in emulsifier and surfactant production have remarked that this diligence saves time and money on incoming raw material checks and formulation troubleshooting.
Once the product passes its laboratory check, it moves to stainless steel storage with nitrogen blanketing, guarding against oxidation. We’ve encountered the nuisance of “off” odors from improper storage firsthand, and prevent this at source. From experience, drums and IBCs come with tamper-proof seals that preserve the low-odor, low-color nature of every load.
Technical Parameters We Watch Closely
The detailed technical numbers shape daily factory life: carbon number (C8 and C10, typically no more than 2% odd-chain side alcohols), color, moisture, odor threshold, and acid content. As a producer, we value up-to-date calibration and repetitive staff training — years ago, a missed moisture spike in one batch led to downstream users facing saponification issues. Since then, we've kept our Karl Fischer and colorimetric methods at the ready for every lot. Even if some applications don’t demand such narrow specs, the more demanding end users set the bar. If someone making a pharmaceutical-grade solubilizer or a hospital-grade wipe expects less than 10 ppm water, we’ve learned to deliver every time.
Not all buyers use the technical sheet. Many talk results: crystal-clear shampoos, reliable detergent concentrates, or low-residue flavor carrier bases. Having worked with dozens of application chemists, we are often asked to support scale-up trials. Some have given feedback directly from their lab benches that minor grade improvements — like switching from a blended alcohol to a specific C8–10 ratio — relieve clogging issues in emulsifying equipment or boost product shelf life. We note these wins and channel them into continuous factory improvements.
Real Differences from Other Fatty Alcohols
Over two decades of production, we’ve watched the confusion between grades: users sometimes ask for lauryl alcohol (C12) or cetyl alcohol (C16) and get frustrated with their results when using C8–10 substitutes or blends. The main difference, in our view, lies in handling characteristics and product applications. Lauryl alcohol (C12) holds its own for foaming surfactant and detergent purposes but falls short on volatility and solubility required for finer emulsifiers or specialty cleaning agents. C16 and longer-chained alcohols support thickeners and opacifying agents but bring in waxy residues, which don’t play well in applications like solubilizers, dispersants, or light emollient systems.
C8–10 fatty alcohols, thanks to their balanced carbon length, offer a liquid state at standard storage temperatures, making for direct, pumpable use in blending tanks. No melting, no pre-mix headaches for formulators. We heard plenty of stories from partners using other grades who faced clogged lines, uneven blending, or graininess in creams and cleaning gels. Pure C8, for example, evaporates fast, which isn’t ideal for retention in final consumer products, while pure C10 sometimes crystallizes in colder plants, wasting time and labor for redissolving.
Experience with Batch Quality and Reliable Supply
Our teams work longer hours during peak production months to guarantee on-time shipments, especially during high demand. Once, several years ago, a global supply shortage for C8–10 forced us to open up night shifts to handle the surge. We learned to hedge against raw material bottlenecks and external disruptions, which led to better stock management and direct dialogue with our feedstock growers. It’s clear: our outcomes depend on every link in the chain and on never taking shortcuts to stretch supply.
We often field calls from partners struggling with inconsistent supply from resellers or traders who lack manufacturing oversight. Inferior product often sneaks in at cut-rate prices, but always at a long-term cost: higher QA rejections, rework, or even product recalls. As a chemical producer, our experience says that sticking close to the source, holding raw material traceability, and enforcing batch retention samples have always proven more valuable than chasing a lower short-term price. Lifetime partnerships develop this way and often lead to early warnings about feedstock trends or sudden changes in demand.
Feedback Loops: From Blenders and End Users
We don’t just produce a commodity and forget it. Our technical service team keeps an open channel with customers’ line engineers and QC labs. When suppliers are open and ready to run a few extra tests, formulators gain trust in moving quickly into new product development. Some users in the personal care sector have even come to us with ideas for novel co-surfactant blends, which we trial at the pilot level. We've helped integrate C8–10 fatty alcohol into fire-fighting foams, textile auxiliaries, and performance detergents after repeatedly troubleshooting transition points for new processes. Improvements in our blend fractionation were suggested by a long-standing client after they pinpointed a solubility kink in their cleaning agent. After digging into our own technical data and field results, we adjusted the blending valve cycle, resulting in more consistent performance over every season.
Direct relationships with factories have given downstream users the ability to troubleshoot on the spot: a detergent blend’s unexpected turbidity, a cosmetic emulsion’s shelf-life problem, or a production line’s foaming surge. In our experience, staying connected and acting fast on feedback trumps sending out blanket technical bulletins or relying on generic troubleshooting trees.
Challenges in Market Expectations
Markets fluctuate — not just in price, but in technical expectations and logistics. One challenge we track is the increasing demand for products with full RSPO certification and a detailed environmental footprint. Our plant has gradually incorporated more sustainable sourcing, but the transition isn’t simple. Small tweaks in certified feedstock sometimes shift physical properties, so we run small-scale trials on every switch. Formulators frequently push for naturally derived blends, which our C8–10 blend fulfills, but every new regulation means fresh paperwork, traceability steps, and lab tests.
Shipping remains a constant balancing act, especially with temperature-sensitive cargo. We set up heated, insulated tankers for long-haul transport in cold climates, and ship in fully sealed drums to avoid moisture pickup in humid regions. One shipment that sat too long in a port warehouse during the rainy season came back with off-color and slight odor — a hard-earned reminder of handling’s importance.
Adapting to these challenges from the manufacturing side involves real-time coordination with logistics, frequent plant audits, and tight integration with end users. Lessons picked up over the years shape every ounce we ship out. As the market shifts toward greener chemistries and customized grades, factories sticking to outdated processes fall out of favor fast. We are routinely pushing updates in automation and process monitoring to keep process variables narrow and outputs predictable. Still, no amount of technology can replace hands-on plant experience and direct, honest discussion with customers.
Applications Where We See C8–10 Shine
Manufacturing for the cleaning industry, we've seen how C8–10 fatty alcohols underpin new surfactant systems meant to be tough on dirt but gentle on skin. Used directly or as ethoxylated derivatives, this blend forms the core for mild dishwashing liquids, hand sanitizers, and household cleaners. Builders in the textile and leather industries also count on a steady supply of high-purity C8–10 for their emulsification processes. For agricultural adjuvants, the product brings the wettability required for evenly spreading agrochemicals on leaf surfaces, avoiding the burn or runoff that makes uniform application almost impossible. Our partners in the fragrance world turn to C8–10 blends for low-odor carrier solutions, supporting stability and clarity in fine perfumes and diffusers.
In each application, field data and direct customer outcomes have helped shape our routines. For example, foam stability in detergent production links back to our control over acid value and presence of residual unsaponifiables. When targets aren’t met, our operators look hours, not days, for process causes. It’s not guesswork; the best application results grow from tight quality control at the tank, fill line, and truck.
Pushing for Greener Manufacturing
Sustainability in fatty alcohol production means more than public statements about “green chemistry.” At the plant, staff training on responsible waste management, closed-loop water recycling, and reduced solvent use have shown both environmental and economic benefits. We moved to invest in solvent recovery, trimming both expenses and emissions. The high level of purity in C8–10 allows for direct wastewater treatment, skipping caustic or acidic post-wash steps that other grades demand. Stepwise improvements in our heat exchange systems reclaimed waste heat and cut back on burning fossil fuels year-over-year.
We started integrating more certified sustainable sources early, after firsthand discussions with buyers who needed verifiable documentation for their downstream exports. Certification audits may feel like a paperwork headache at times, but they have improved our process documentation and made the plant more efficient and resilient. Sometimes, end users want shared documentation covering life cycle analysis or the source plantation records. This new level of transparency means chemical manufacturers need to invest beyond the shop floor — in traceability tools, open data, and compliance workflows.
Observations from Decades on the Factory Floor
Having overseen numerous expansions and upgrades, experienced process engineers in our plant know how small process tweaks affect both product and downstream application. In one instance, a tiny reduction in the fractionation cut point shifted downstream detergent blends from clear to hazy, even though the lab specs were still in line. We learned quickly that specs on paper never replace hands-on trials and real user outcomes. Our longest-tenured operators recall years when lesser grade material overtook the market, and the headache it created down the line — ghost odor complaints from soap bars, flaky soft pastes used in industrial lubricants, separation in high-end serums.
Cross-training staff from the QC lab to the final drum-filling bay breeds an understanding of the full supply loop. Issues like static buildup in IBCs, clogging of transfer lines, or contamination from shared pumps show up fast and are fixed just as quickly by people who know the product, not just the process. With every new hire, we pass along the value of close monitoring, documented best practices, and fast escalation. This approach reflects in the noticeable drop in customer complaints over the years and quicker turnaround on special batch requests.
Looking Toward Future Challenges
Demand for C8–10 fatty alcohol isn’t just rising in quantity but growing in complexity. The diversity of application — from green surfactant development to high-purity specialty uses — will only increase. Maintaining this standard means responding to feedback, investing in equipment, and building experience-based knowledge in every plant corner. As regulation and consumer expectations rapidly shift, our lesson from years of chemical manufacturing is clear: there is no substitute for accurate records, thorough batch control, and direct collaboration with the people who use the material each day.
The C8–10 fatty alcohol market keeps evolving, and every improvement in process, supply reliability, or technical support fuels further innovation downstream. Working as a direct manufacturer, rather than a distributor or third party, anchors us in a community of hands-on chemists, plant engineers, and development teams whose insights carry more weight than any generic datasheet. It's this close loop between production and application that will steer the next generation of cleaner, greener, and more reliable chemical solutions.