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HS Code |
334613 |
| Chemical Name | Ethyl Salicylate |
| Cas Number | 118-61-6 |
| Molecular Formula | C9H10O3 |
| Molar Mass | 166.17 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Odor | Pleasant, wintergreen-like aroma |
| Boiling Point | 226 °C (439 °F) |
| Melting Point | -8 °C (17.6 °F) |
| Solubility In Water | Insoluble |
| Density | 1.14 g/cm³ (at 20 °C) |
As an accredited Ethyl Salicylate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Ethyl Salicylate is supplied in a 500 mL amber glass bottle featuring a secure screw cap and a detailed chemical safety label. |
| Shipping | Ethyl Salicylate should be shipped in tightly sealed containers, protected from light and moisture. Transport in compliance with local, state, and international regulations for chemicals. Label packages with appropriate hazard warnings. Store and ship at room temperature. Avoid exposure to heat, sparks, or open flames, as the chemical is combustible. |
| Storage | Ethyl Salicylate should be stored in a tightly closed container, in a cool, dry, and well-ventilated area, away from sources of ignition and incompatible materials such as strong oxidizers. Keep it protected from light and moisture. Proper labeling and secure shelving are essential to prevent spills or accidental exposure. Always follow local regulations and safety guidelines for storage. |
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Purity 99%: Ethyl Salicylate with purity 99% is used in pharmaceutical synthesis, where it ensures high reaction specificity and minimal impurities. Molecular Weight 166.18 g/mol: Ethyl Salicylate with molecular weight 166.18 g/mol is used in analytical chemistry standards, where it provides accurate quantitative reference. Density 1.14 g/cm³: Ethyl Salicylate at 1.14 g/cm³ density is used in solvent blends for flavor formulation, where it enables consistent miscibility and blending behavior. Melting Point -5°C: Ethyl Salicylate with a melting point of -5°C is used in low-temperature cosmetic formulations, where it ensures maintained liquidity and ease of incorporation. Stability Temperature 30°C: Ethyl Salicylate stable at 30°C is used in personal care emulsions, where it offers thermal reliability during storage and distribution. Boiling Point 225°C: Ethyl Salicylate with a boiling point of 225°C is used in fragrance compounding, where it ensures thermal persistence during processing. Refractive Index 1.503: Ethyl Salicylate with refractive index 1.503 is used in optical calibration fluids, where it achieves precise light transmission properties. Viscosity 3.7 mPa·s: Ethyl Salicylate with viscosity 3.7 mPa·s is used in topical medicated sprays, where it enables efficient atomization and spreadability. Particle Size <10 µm: Ethyl Salicylate with particle size below 10 µm is used in encapsulated flavor systems, where it provides uniform dispersion and enhanced release control. Assay ≥98%: Ethyl Salicylate with assay ≥98% is used in certified food additive preparations, where it guarantees compliance with purity standards and safety regulations. |
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Ethyl salicylate might seem just another compound name on a growing list of modern industry tools, but its impact reaches far beyond the surface. Many people recognize the faint, sweet odor of wintergreen and wonder where it originates. That aroma often comes directly from ethyl salicylate, a clear liquid often used in flavors and fragrances, as well as a core element in certain pharmaceutical applications. This organic ester, formed from salicylic acid and ethanol, provides a gentle blend of practical chemistry and sensory appeal—the kind of ingredient most wouldn’t notice unless something was missing.
Producers and product developers trust ethyl salicylate because it brings a dependable consistency every time. A lot of attention goes into getting the specifications right. High-purity ethyl salicylate typically contains no less than 99% active ingredient. Even a slight deviation can affect flavoring intensity or how smoothly it blends into a fragrance. Each batch comes as a colorless to pale yellow liquid, with a strong, pleasant, and unmistakably sweet aroma. The density usually falls around 1.14 g/cm³, and the boiling point ranges near 230°C. Pure material means reliable results—especially when mixing food flavors or producing finely tuned scents.
Ethyl salicylate belongs to a family of esters best known for their use in flavor and fragrance formulation. Chewing gum, toothpaste, cough syrup, soft drinks—these are places where that cooling, mint-wintergreen flavor pops out, even though most people never pause to think about the chemistry behind the taste. Some food manufacturers use it as a way of masking less pleasant flavors, especially in harsh medicinal syrups.
In perfumery, ethyl salicylate offers something unique. Its scent doesn’t overpower but weaves through other materials, lending depth to floral, herbal, and spicy notes. Scent-makers often rely on it for this reason, knowing that such a component adds complexity without distraction. Pharmaceuticals put it to work in topical products. It can be found in muscle rubs or balms, where the sweet wintergreen note both soothes and slightly tingles on the skin.
You can find plenty of esters in the flavor house or scent laboratory, but ethyl salicylate offers sharp advantages over its close cousins. For anyone who has spent time mixing fragrances, it’s clear how the right ester can mean the difference between a layered scent and one-note disappointment. Methyl salicylate, another member of the family, brings a punchier, sharper mint note that can overpower if not carefully dosed. Ethyl salicylate, by contrast, balances sweetness with gentle floral tones. It sticks close to the main notes instead of hijacking them.
Beyond flavor and scent, its physical stability allows for use in demanding conditions. Exposure to air does not quickly cause degradation, making it a reliable choice in products that require long shelf life. Since it is less volatile than methyl salicylate, formulations tend to maintain their intended character from point of production to final use. Reliability counts for a lot. If you’ve ever noticed a change in your mouthwash or muscle rub, it often signals a shift in raw material stability. Consistency in supply and quality builds lasting products.
I have seen firsthand in industry settings how manufacturers can overlook fine details, only to deal with batches of off-color or faintly sour-smelling ester leaking into finished goods. Skilled producers of ethyl salicylate put real effort into refining their production processes. Small changes in pressure or the quality of ethanol and salicylic acid used will affect outcomes. Some suppliers push for higher yield at the expense of purity, but that choice almost always comes back to haunt either the producer or the client. It doesn’t take long before an off-note in perfume or candy leads to irritated customers and wasted resources.
Quality control laboratories know to check for key markers. Water content, acidic impurities, and any sign of decomposition all threaten the clean, pleasant properties buyers expect. Modern producers routinely screen for these issues using GC and HPLC. I have watched as teams discard barrels due to faint contamination, learning from one season’s mistakes so the next brings better product. Over the years, the focus on steadier purification has reinforced ethyl salicylate’s reputation as an ingredient you can trust, not just a blind addition to a recipe.
For all its benefits, using ethyl salicylate responsibly matters. Direct ingestion in large quantities is not safe, though at flavor levels in food and beverages, it poses no known risk for healthy adults. Occupational exposure can irritate sensitive skin and mucous membranes, so operating with the right ventilation and skin protection is smart practice where people handle the compound directly.
Some people worry about salicylate sensitivity, since both methyl and ethyl versions share a similar backbone to aspirin. Companies using this ingredient in mass-market products take these allergies into account. They often work closely with medical and toxicology experts to evaluate safe levels, especially for vulnerable groups such as children or those with asthma. For most consumers, exposure through everyday products remains several orders of magnitude lower than harmful doses. Still, thoughtful manufacturing should always minimize unnecessary exposure. Responsible suppliers provide transparent labeling and respond to consumer questions about salicylate content.
As the world moves toward greener industry, the question comes up: what does ethyl salicylate production contribute to environmental strain? Raw materials still come mostly from petrochemical sources. A chunk of ethanol used in synthesis derives from biomass, but this varies by region and feedstock. The reality is that, compared to large-scale industrial chemicals, overall production volumes of ethyl salicylate remain modest. Still, the industry has a duty to look upstream as well as downstream.
Efforts to limit waste show up across responsible plants. Production facilities have shifted towards closed systems that capture and recycle solvents. In regions where environmental regulations set strict thresholds for emissions, companies remain on their toes, implementing safer waste management and investing in water treatment. I’ve spoken with engineers in facilities striving to reduce both energy input and product loss. Success often means balancing legacy infrastructure with research into catalysts and greener synthesis routes—work that rarely makes the news but quietly transforms the field.
Ethyl salicylate isn’t a headline product, yet global demand keeps growing. The food flavor sector continues to expand into emerging markets, driving new sales. Fragrance creators always scour the world for ingredients that deliver both character and stability. As middle-income economies develop, so does the expectation for personal care goods, lotions, and over-the-counter creams.
Import-export patterns matter. Strict quality controls in Europe and North America help shape global norms. Countries investing in quality certification see their product preferred by major clients. In contrast, buyers sometimes chase bargains in regions where oversight runs thin, only to discover authenticity or consistency problems later. Reliable producers usually stay in close conversation with their buyers, working together to anticipate needs, improve supply chain traceability, and resolve any technical challenge that arises.
Comparing ethyl salicylate to other esters running through similar industries reveals big differences. Methyl salicylate forms a punchy flavor and scent but brings higher volatility and skin-penetration risks. Amyl salicylate, another related molecule, pops up in floral perfumes but lacks the smooth, rounded base many artisans prize in ethyl salicylate. Benzyl salicylate goes further afield into UV-absorbers and sunscreen applications, with a thick, honey-like aroma and less fresh character.
Most food and fragrance developers rely on these distinctions, tuning their ingredient lists based on the final experience they seek. Even minor molecular tweaks result in huge changes at the sensory and safety levels. That’s why I find that specialists with years of hands-on blending often outperform software prediction. Product creation still rests on a blend of art and science, each batch validated by the lived experience of consumer feedback and technical testing.
Every sector faces its hurdles, and the ethyl salicylate market is no different. One challenge stands out: keeping a consistent supply chain amid fluctuating raw material costs and evolving regulations. Salicylic acid production often gets linked to broader pharmaceutical markets. If those markets shift goals or regulation tightens, ethyl salicylate supplies can face disruption. Some users hedge risk by maintaining long-standing partnerships with trusted suppliers, sometimes locking in advance purchases to avoid getting shut out during shortages.
Another difficulty involves controlling minute impurities. Even a subtle change in feedstock purity, water content, or reaction conditions shows up in a finished product’s aroma or stability. It pays for companies to invest in their own analytical infrastructure or build close partnerships with outside testing labs experienced in ester chemistry.
Industry players also face rising expectations for transparency. Modern buyers want to know exactly where their ingredients come from and how they are made. Meeting this need requires more than a basic compliance document—it takes a willingness to share data, invest in third-party certification, and open up about improvement efforts. Some of the most respected ethyl salicylate suppliers in the world built their reputation not just on product, but on openness and a record of learning from mistakes.
Few consumers ever see the name ethyl salicylate printed on a label, yet most interact with it weekly, sometimes daily. That smooth, cool blast in cherry cough drops or the flavor in certain carbonated drinks owes a lot to it. Even high-end perfumery and budget toothpaste makers alike pick it for direct sensory impact. Personal care products depend on it to soften the medicinal harshness of some active ingredients, making everything from pain-relief creams to skin balms more pleasant to use.
I’ve heard from product developers about arduous rounds of consumer testing that rarely mention the chemical name, but often reference the experience. “Fresh,” “smooth,” “soothing”—words consumers use more than any technical identification. Behind these impressions lies the quiet work of chemists and manufacturers focused on ingredient quality and sensory impact. Nothing brings home the importance of purity or careful formulation more than consumer feedback. Even minor shifts in ingredient chemistry can mean the difference between a product loved by millions and a product quietly discontinued.
Change is coming to the world of food flavors and fine fragrance, and ethyl salicylate stands right in that transition path. The push towards “clean label” products gets stronger each year. Manufacturers hunt for botanical derivatives and so-called “natural flavors,” hoping to position themselves for a new generation of aware consumers. Biologically derived ethyl salicylate, made from renewable inputs, sparks growing interest. Traditionalists warn that production scale and cost still lag behind conventional feedstocks, but environmental and consumer pressure makes progress inevitable.
Emerging research now looks at engineered yeast or bacterial strains capable of fermenting salicylic acid or its esters. A few pilot programs have managed to make ethyl salicylate from agricultural waste streams or other renewable biomass, though scaling up brings economic and logistical headaches. Investment in green production often comes from a mix of private companies and public research institutions, each looking for an angle in a crowded market. Industry leaders recognize that early adoption of greener pathways might sway buyers and improve brand value. Watching this space, innovation feels both real and within reach.
The people behind ethyl salicylate's journey from lab to finished product rarely get much attention. Chemists, line operators, technical sales staff, even regulatory experts—all play a role. After years in the industry, I’ve learned that problem solving comes just as often from informal conversations and shared experience as from the strict protocols. Mistakes happen, but the best teams respond with openness.
Industry groups, trade associations, and informal networks all help keep product quality and safety high. Open sharing of best practices, especially around emerging contaminants or regulatory changes, ensures everyone can react faster. Small producers gain from mentorship by seasoned teams, and new hires learn by doing alongside people who’ve seen it all before. I’ve seen companies recover from near disaster by pulling advice from former competitors, patching up their processes, and emerging stronger. At its best, the ethyl salicylate community prizes both the science and the shared challenge of responsible production.
No product journey stays the same for long. As demand changes and knowledge spreads, ethyl salicylate suppliers will have to keep raising the bar. Investments in better analytical tools, strong relationships up and down the supply chain, and honest reflection on past issues all add up to a more reliable and desirable product. Education for the next generation of chemists remains critical. Training that includes not just technical skill, but also ethical reasoning and environmental awareness, builds the informed workforce needed for a complicated future.
The lessons drawn from this relentless focus on quality, safety, and transparency don’t only matter for one compound or industry. They serve as a model for anyone balancing tradition and innovation, seeking to offer something of real value in a crowded and demanding marketplace. The story of ethyl salicylate might lack the drama of more visible substances, but its quiet importance runs through countless everyday moments, unnoticed but essential.