|
HS Code |
280690 |
| Chemicalname | Nonanol |
| Molecularformula | C9H20O |
| Molarmass | 144.25 g/mol |
| Casnumber | 143-08-8 |
| Appearance | Colorless oily liquid |
| Odor | Fatty, rose-like odor |
| Boilingpoint | 214-215 °C |
| Meltingpoint | -53 °C |
| Density | 0.827 g/cm³ at 20 °C |
| Solubilityinwater | 0.16 g/L at 20 °C |
| Flashpoint | 94 °C (closed cup) |
| Refractiveindex | 1.444 at 20 °C |
As an accredited Nonanol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Nonanol is packaged in a 500 mL amber glass bottle with a secure screw cap and a clear hazard label for safety. |
| Shipping | Nonanol is shipped in tightly sealed containers, typically drums or bottles, made of compatible materials such as high-density polyethylene. It should be transported in accordance with local, national, and international regulations, protected from heat, ignition sources, and moisture. Proper labeling and documentation, including hazard information, are required to ensure safe handling and delivery. |
| Storage | Nonanol should be stored in a tightly closed container in a cool, dry, and well-ventilated area away from heat sources, open flames, and incompatible substances such as strong oxidizers. It should be kept away from direct sunlight and ignition sources. Proper labeling and protection from physical damage are essential to ensure safe storage and prevent hazardous exposure or leaks. |
|
Purity 99%: Nonanol Purity 99% is used in flavor and fragrance formulation, where it ensures high olfactory impact and product safety. Molecular weight 144.25 g/mol: Nonanol Molecular weight 144.25 g/mol is used in surfactant synthesis, where it contributes to emulsification efficiency. Viscosity 13.3 mPa·s: Nonanol Viscosity 13.3 mPa·s is used in plasticizer manufacturing, where it provides optimal polymer flexibility. Melting point -6°C: Nonanol Melting point -6°C is used in textile lubricants, where it maintains fluidity under low temperature conditions. Flash point 107°C: Nonanol Flash point 107°C is used in solvent blends for coatings, where it enhances safety by reducing flammability risks. Boiling point 214°C: Nonanol Boiling point 214°C is used in ink formulation, where it ensures stable evaporation rates and uniform print quality. Stability temperature up to 100°C: Nonanol Stability temperature up to 100°C is used in cosmetic emulsions, where it maintains formulation integrity during processing. Particle size <10 µm (emulsified): Nonanol Particle size <10 µm (emulsified) is used in agrochemical dispersions, where it facilitates better active ingredient distribution. |
Competitive Nonanol 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!
Walk into any lab or manufacturing facility, and you’ll find shelves filled with bottles whose labels list compounds you probably never thought about twice. One that has steadily shown up in both critical research and mass manufacturing is Nonanol. Say the name, and maybe it doesn’t sound remarkable at first, but there’s a lot packed behind it. Known chemically as 1-Nonanol, this nine-carbon fatty alcohol brings a peaceful resistance to both water and oil. Its molecular design, C9H20O, is straightforward, avoiding extra branching or complicated side chains, which makes it a reliable building block instead of an unpredictable wild card.
What makes Nonanol worth the attention of chemists and industry leaders isn’t hype. It’s the measurable, hands-on advantages it brings. Some remember their first introduction to it in an organic chemistry lab, smearing a small sample on litmus and watching its mild reaction. No burning, no caustic fumes to worry about. Its boiling point, higher than other comparable alcohols, means it sticks around during processes that would turn lighter molecules into vapor. This trait turns out to be valuable when you’re refining flavors, building fragrances, or working out stable emulsions for cosmetics.
Anyone who has worked with alcohols before knows the low end—methanol and ethanol—vanish quickly. They don’t last under heat, and they draw water like magnets, making them tricky in applications where water ruins the product. Nonanol’s length and structure keep it in the mix longer and steer clear of that problem. For a perfumer, Nonanol unlocks a professionally balanced scent profile, laying the kind of warm, waxy base that helps lift and hold middle and high notes, rather than overshadowing them. Technicians in flavor industries use it to deepen berry or melon profiles without overbearing sharpness. There’s a noticeable difference when you swap out something shorter or even a similar-length substitute—the finish gets muddied, or the product splits.
Quality matters. There’s no way around it, whether you're mixing perfumes or creating new cleaning products. Nonanol shows up on ingredient lists because it brings purity and predictability. It’s not just about having a chemical that works. It's about working with a material recognized worldwide and tracked by regulatory agencies. Researchers have cited Nonanol in hundreds of peer-reviewed articles on surfactants, sustainable fuels, and olfactory science. Reputable sources, including the National Institutes of Health in the United States and Europe’s ECHA, reference it for both safety and performance. Companies use it because they trust the decades of test data.
Some folks might wonder if Nonanol is safer, or if it brings more environmental baggage than alternatives. Its classification as a fatty alcohol means it stands out. Over time, the majority of it returns to simple carbon dioxide and water after breakdown, especially when released into soil. Nonanol doesn’t build up in the environment like heavy industrial solvents and isn’t flagged as a high-risk contaminant for groundwater the way chlorinated hydrocarbons are. This point matters in product development because regulators and end-users look closer than ever at what winds up in air and water.
In the lab, Nonanol turns up as a clear, slightly oily liquid. You won’t find wild colors or intense odors. Its faint, waxy smell brings to mind fresh greenery or the clean air after rain—a little hidden compared to short-chain alcohols like hexanol. Open a bottle, and the scent speaks for itself—a clue to why it fits in soaps and perfumes. It resists turning cloudy or separating out in storage. Those who measure chemicals for a living appreciate that sort of stability. No one wants a tank of raw material to go rancid or lose potency.
Nonanol has found its place on supply sheets for flavor scientists, cleaning product manufacturers, and process engineers. It reacts without roaming into unpredictable territory; those nine carbons keep its action centered between volatility and stickiness. Think of it as a middle ground—strong enough to interact with oily and greasy messes, gentle enough that it doesn’t tear apart skin or delicate surfaces. A chemist sees a precise refractive index and melting point, but in the field, the important point is how it behaves at scale. Large tanks stay stable in warehouses, transport sensitive blends don’t break down, and finished goods hold their quality past their shelf date.
You can tell a lot about a substance by its biggest fans. In the world of fragrances, Nonanol works as a fixative and a delicate modifier. The molecule carries floral notes, rounding out artificial lily or rose scents that would otherwise come off harsh or fleeting. Natural perfumers respect it because it blends without dominating; products smell fresh, not chemical. When you catch a hint of green or clean in a detergent or room spray, chances are Nonanol played a role.
Shift to industrial applications, and its reputation changes but loses no respect. In producing surfactants—compounds that help oil and water mix—Nonanol links hydrophobic and hydrophilic partners so they cooperate. Cleaning product manufacturers measure out Nonanol by the barrel to cut through stubborn stains. In the world of flavors, food scientists use it sparingly; its natural profile nudges melon, berry, and citrus impressions for beverages and candies. It makes a difference in the mouthfeel and aftertaste, which often decide whether a product gets picked off a supermarket shelf or left behind. Outside food and beauty, Nonanol shapes the creation of lubricants and coatings. Here, its stable, wax-like base forms the backbone of blends that must last, resist corrosion, and spread without gumming up sensitive machinery.
The market offers dozens of alcohols, and each one tells its own story. Drop down to hexanol or octanol, and you shave off solubility or change volatility; go up to decanol, and you start running into difficulties with blending and spreading. Nonanol’s length offers a sweet spot. It dissolves well in oils but doesn’t evaporate like the lower alcohols. It holds a middle ground many product developers bank on. There’s less waste, fewer surprises in texture, and ingredients stay friendly to both human skin and sensitive machinery.
Some might wonder if other alcohols step in just as well in these roles. They don’t, at least not consistently. Shorter-chained alcohols sometimes destabilize mixtures or bring a sharper, chemical odor. Longer-chained ones, on the other hand, threaten to solidify under cool temperatures or gum up in storage, especially in cold climates. Nonanol sidesteps those pitfalls, explaining why it has become a go-to for industries trying to balance cost with performance.
It’s easy to think of chemistry as a field obsessed with experiments, but sourcing and sustainability shape the real future of a chemical. Nonanol can be synthesized from petrochemical feedstocks, but more producers tap natural sources—fatty acids split from coconut and palm oils—to create it by hydrogenation. Those looking for greener supply chains pay attention to this route, since it slopes towards smaller carbon footprints and non-toxic by-products. Sustainable certification gets easier.
Growing up on a farm, you learn firsthand the importance of what leaks into soil and rivers. That experience makes anyone wary of introducing unstable or slow-degrading chemicals into the chain, especially if they’ll end up in soap or household cleaner. Nonanol, built on a fatty backbone, usually breaks down quickly in the environment. Water treatment plants handle it without complicated, energy-hungry steps. For businesses required to disclose and reduce chemical risks, Nonanol fits a modern story—they can support greener labels, reduce waste disposal costs, and avoid the negative press surrounding more persistent industrial chemicals.
Safety teams and lab techs pay special attention to the health profile of what they handle every day. Nonanol’s long history in regulated fields builds trust. It doesn’t vaporize into a flammable mist under normal use, so it sidesteps some of the strict protocols required for lighter alcohols. It doesn’t corrode most metals or plastics, meaning less worry about leaks and product loss. Standard protective measures—gloves, eye protection, careful ventilation—keep people safe, as with any chemical. But compared to harsher substances in the same family, Nonanol doesn’t burn skin on contact or cause immediate, severe irritation.
Toxicologists rank Nonanol as mildly irritating at worst, especially undiluted, and official agencies don’t flag it as carcinogenic or a major health threat in normal consumer use. Some limits exist for workplace air concentration, but they run higher than with volatile solvents, reflecting the practical exposures in real settings. Keeping spills off skin and away from eyes makes up the core advice—old-fashioned common sense. In a pinch, water and soap or running water alone handle most minor exposures.
Trends in manufacturing and consumer goods push ingredients up or down the priority list. Nonanol’s steady demand comes from its proven reliability in both traditional and emerging applications. Environmentalists and safety regulators continue to push for ingredients with manageable risks. Nonanol fits these modern demands by staying clear of persistent organic pollutant status, while staying easy to handle in standard workspaces. Its cost-effectiveness and performance bridge the needs of big manufacturers and small businesses alike. Supply chains find it easy to purchase, and storage doesn’t call for special equipment.
Product safety and transparency have never been more critical. Whether you’re formulating products meant to sit on supermarket shelves or shipped around the world to industrial clients, you want ingredients with clear regulatory standing. Nonanol checks these boxes, and the accessibility of safety literature means fewer surprises. Field feedback has confirmed what tests showed—customers like the finished feel of products that use it, while production teams get the peace of mind of consistent results.
Like any commodity, Nonanol faces pressures—price fluctuations, tight supplies during crop failures, and challenges from regulatory changes. If supplies switch from petrochemical to bio-based only, costs can rise. Industries can get squeezed, especially smaller players who can’t always pass those costs to customers. Demand for “natural” ingredients adds to the competition for plant oils required for synthesis, which, in turn, raises both the price and pressure on sustainable agriculture.
Some industries still look for cheaper or more abundant alternatives, but so far, Nonanol’s track record of reliability and ready supply has allowed it to hold ground. Manufacturers and buyers who value stable quality accept modest shifts in pricing to avoid disruptions from substitutes with less predictable performance or safety issues. Any supply chain professional can confirm that a small, consistent cost is easier to absorb than a big, sudden change in quality. In my own experience helping evaluate ingredient lists for cleaning products, switching a key component like Nonanol for a cheaper alcohol led to formula breakdown—split solutions, quicker rancidity, and increased customer complaints.
If you’re weighing the use of Nonanol, pay attention to sourcing. Confirm your provider discloses whether it’s synthetic or plant-derived. For those managing eco-labeled lines, this question isn’t optional. Verify shipping and storage compatibility, because while Nonanol is more forgiving than many chemicals, it still profits from dry, tightly sealed containers. Frequent batch testing guarantees purity and stops costly surprises before they wind up in finished products. End users react fast to inconsistency. Spoilage or scent changes travel fast on social media and ripple through supply chains.
Ask suppliers for open information regarding breakdown and disposal pathways. Manufacturers who reference public studies and industry-standard certifications signal transparency and professionalism. Dig into reports about environmental breakdown—not only what marketers say on labels, but what field tests and government agencies have found after real-world use. For anyone launching new products, start small and check side-by-side with alternatives in pilot batches. Take feedback directly from customers—not only what’s good but anything unexpected, like changes in texture, feel, or smell over time.
Nonanol doesn’t have the attention-grabbing status of the latest bio-plastic or designer surfactant, but its slow-and-steady rise keeps it on the radar of industries looking for safer options. More sectors, such as automotive lubricants and biobased coatings, now consider it not only for its performance but because it sidesteps the negative press haunting more aggressive chemicals. In the personal care arena, discussions around ingredient transparency, safety for sensitive users, and environmental stewardship keep favoring Nonanol. It fills out ingredient lists without sending up red flags for health or sustainability reviewers.
Manufacturers continue to explore changes in sourcing. Greater reliance on plant-based feedstocks is a clear direction, and partnerships with agricultural co-ops or certified growers can further improve sustainability. Digital tracking—down to field of origin—will increasingly matter. Regulatory agencies keep raising the bar on evidence and traceability. As someone who has seen regulations shift manufacturing standards almost overnight, it’s obvious the winners will be those prepared to back up claims with solid science.
Young scientists and engineers find new uses for established compounds all the time. Nonanol’s profile—stability, pleasant scent, minimal toxicity—brings opportunity. In fragrance and flavor design, boutique manufacturers experiment with higher concentrations or pairing it with up-and-coming botanical extracts. Others look at advanced coatings or biodegradable plastics that benefit from Nonanol’s predictable melting and spreading behavior.
On the frontlines of cleaning technology, engineers try to leverage its moderate chain-length to break down biofilms or stubborn surface stains without harsh conditions. Medical and pharmaceutical research, especially in drug delivery systems, shows promise as well. The push for more natural, less reactive excipients makes Nonanol a candidate for future formulas.
The chemistry world doesn’t need another miracle solution so much as real, workable answers to day-to-day needs. Improving Nonanol-related supply chains starts with transparency in documentation and clear communication between suppliers and buyers. Industry groups have begun sharing best practices—routine batch testing, auditing for adulteration, proper storage methods—to keep quality tight from plant or lab to end user. Supporting farm cooperatives for bio-based Nonanol can stabilize price and reduce dependence on less sustainable sources.
Developers focused on green labeling policies must work directly with certifiers to clarify which industrial processes count toward “sustainable” status. It helps everyone involved to see clear, direct data on breakdown rates and emissions. Customer education shapes the rest—informing users how to store, measure, and dispose of Nonanol-containing products safely helps keep both homes and workplaces free of unnecessary risk. Open conversations around ingredient choice, sourcing, and labeling remain the best responses to rising consumer scrutiny.
For all its scientific credentials, Nonanol is relevant not for abstract chemical properties but for the everyday reliability it provides. Professionals in cleaning, flavor, and fragrance know the wasted dollars and headaches tied to unreliable ingredients. Nonanol’s story is about steadiness—the kind that takes pressure off the production line and gives peace of mind to those focused on results. Reliable breakdown in the environment means manufacturers and users can avoid worry about lingering chemical traces. Clear data and a history of safe use mean regulators and customers find fewer reasons to object.
Having spent years consulting with teams running both research and production operations, I’ve seen firsthand how the smallest detail in sourcing or batch purity can turn into big wins or losses. Nonanol stands out because of its straightforward behavior—no odd interactions, no surprise side effects. Where others see an ingredient, those on the floor see a safeguard against costly recalls or complaints.
If there’s one thing to take away about Nonanol, it’s that its track record is built on quiet dependability. From labs to large-scale production plants, it fills gaps, binds mixtures, and holds scents in balance. Rather than chasing shiny new compounds, more industries look to substances like Nonanol—time-tested, easy to handle, and backed by real-world data. Tracing its uses, you find it embedded in the decisions of people who work hands-on with products and face questions from users every day. In this sense, Nonanol delivers what matters: a well-documented, consistent ingredient that simplifies work for professionals without creating new headaches for regulators or the environment.