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HS Code |
469505 |
| Cas Number | 564-20-5 |
| Molecular Formula | C16H26O2 |
| Molar Mass | 250.38 g/mol |
| Appearance | White to off-white crystalline powder |
| Melting Point | 121-122°C |
| Solubility In Water | Insoluble |
| Purity | Typically ≥98% |
| Storage Conditions | Store in a cool, dry place |
| Odor | Mild, similar to clary sage |
| Chemical Class | Sesquiterpene lactone |
| Synonyms | Norambreinolide |
| Application | Used in fragrance, flavor, and as a precursor in synthesis |
As an accredited Sclareolide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Sclareolide is packaged in a sealed, amber glass bottle, labeled clearly, containing 25 grams with tamper-evident closure for secure storage. |
| Shipping | Sclareolide is shipped in secure, sealed containers, protected from light, moisture, and extreme temperatures. Standard packaging complies with chemical safety regulations, ensuring safe transit. Shipping documents include safety data sheets (SDS) and labeling according to international transport requirements. Expedite shipping options are available to maintain product stability and integrity. |
| Storage | Sclareolide should be stored in a cool, dry, and well-ventilated area, away from direct sunlight and sources of ignition. Keep the container tightly closed when not in use to prevent contamination and moisture absorption. Store at room temperature, typically between 2°C and 8°C. Ensure the storage area is equipped for handling chemicals and complies with local regulations. |
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Purity 98%: Sclareolide 98% purity is used in fragrance formulation, where it ensures a high intensity and stability of scent profiles. Molecular weight 256.42 g/mol: Sclareolide with molecular weight 256.42 g/mol is used in flavor enhancement, where it provides consistent and reproducible organoleptic properties. Melting point 121°C: Sclareolide with melting point 121°C is used in pharmaceutical synthesis, where it contributes to optimal processability and thermal stability. Particle size 50 microns: Sclareolide with particle size 50 microns is used in dietary supplement manufacturing, where it achieves uniform dispersion in tablet blends. Stability temperature 40°C: Sclareolide with stability temperature 40°C is used in long-term storage of cosmetic formulations, where it maintains product efficacy over time. Optical rotation +52° (c=1, CHCl3): Sclareolide with optical rotation of +52° is used in chiral compound synthesis, where it ensures enantiomeric purity in final products. Solubility in ethanol 10 mg/mL: Sclareolide solubility 10 mg/mL in ethanol is used in alcoholic beverage flavoring, where it allows easy incorporation and homogeneity. Ash content ≤0.2%: Sclareolide with ash content ≤0.2% is used in food additive applications, where it guarantees minimal residual impurities for safety compliance. |
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Some things in the chemical world draw attention for their versatility and not just the usual talk about purity or grade. Sclareolide steps in as one of those underappreciated workhorses. This compound, not a household name by any stretch, actually pops up in places where people least expect it. I’ve spent a good part of my career sorting through chemical candidates for various projects, from perfumery to metabolic studies, and Sclareolide has that knack for fitting into more than one storyline.
Sclareolide shows up as a white crystalline solid, packing a molecular formula of C16H26O2. As far as model numbers or trade codes go, most laboratories and procurement departments just classify it under its chemical name. It finds roots in nature, most commonly sourced from Clary Sage. This natural side stands out, because a big portion of synthetic compounds comes with a long chemical history and sometimes, more baggage than benefit. The real-world application of a compound like this puts it on a different shelf than many synthetic-only resources.
What caught my eye with Sclareolide from the beginning was how industries, from flavors and fragrances to sports nutrition, started leaning into it for completely different reasons. Perfumers can’t get enough of its musky, amber-like scent. It doesn’t bring a loud, overpowering note. More like it nudges the base notes, builds body, and helps scents linger. It reminds me a bit of vanilla in baking: you don’t always notice it, but you’d miss it if it was gone.
Moving over to the nutrition world, the talk around Sclareolide pivots. Now it’s about its relationship with compounds like sclareol, and the theories run hot about whether this molecule can support things like metabolism or weight management. There’s not a long regulatory nod for such claims, but that hasn’t stopped supplement makers from experimenting and marketing it as “natural support” or similar terms. Some of these uses spark plenty of debate in the scientific community—whether that’s progress or marketing hype depends on which study lands on your desk. Still, the interest alone shows that Sclareolide isn’t just another laboratory relic.
Chemists working with Sclareolide look for certain benchmarks. High purity doesn’t just make a better product; it cuts down on noise when moving from the source to the end formula. Typical lab inventory lists describe Sclareolide as being over 98% pure, melting at a point north of 120°C. The crystalline structure allows for solid handling, no cloud of dust, no strange clumping or sludgy behavior that can make weighing out a chore. Since it’s only slightly soluble in water but dissolves well in alcohol and oils, this opens the door for it to blend into creams, sprays, and even supplements.
Packaging tends to stick with neutral glass bottles for research settings, but large-scale batches for perfumery and other industries arrive in bigger drums or safe polyethylene bags. I’ve handled both and, honestly, prefer the small containers. Less chance for moisture creep, easier tracking, less warehouse headache.
Having tested and worked with plenty of synthetic musks and natural fragrance ingredients, Sclareolide has never struck me as trying to imitate anything else. There’s a dryness and a persistence to its aroma—unlike lab-engineered musks, it doesn’t turn sharp or artificial over time. It shoulders the weight for base notes, giving a slow-release effect instead of a quick hit. I’ve also noticed that its plant origins seem to make it a touch more stable in high-heat applications—important for candles and scented waxes, where synthetic musks can burn out or go off.
The dietary supplement angle is a different beast. Sclareolide isn’t an alkaloid, so people don’t get the stimulant punch that sometimes comes with other plant extracts aimed at metabolism. This means finishes as a milder offering. Supplement makers pitch it on that basis—it can be included in blends without risking the same level of side effects as some big-name botanical extracts.
On paper, some synthetic alternatives might look cheaper. From experience, though, they’re usually less adaptable when it comes to natural labeling, and that’s a major factor both for marketing and for regulatory compliance. Some countries started treating natural and synthetic sources very differently over these past years, and end-users are tuned into that difference. Sclareolide reaps the benefit—not just as a marketing checkbox but as a practical solution for brands aiming to boost the “from nature” message, especially in fragrances and foods.
Years ago, my old lab took part in a comparison study on musk fixatives. The push was to find what kept high-end perfumes lasting through hot summers. Sclareolide grabbed attention because its lactone structure didn’t just survive temperature swings; it outlasted several synthetics in open-air tests. This endurance tells a silent story: Sclareolide isn’t a one-trick scent. It adds heft and stability, a chemistry that lets other ingredients shine without breaking down before their time.
Digging through research, Sclareolide has also been looked at for uses that go way beyond “button” ingredients. Biologists have explored its roles as a starting point for semi-synthetic drug compounds, tapping into that unusual bicyclic lactone structure for further modifications. Extraction remains tricky if you’re after big yields, and the methods change depending on what the end use dictates. The old-style maceration or steam distillation of sage plants still works, but industrial demand means a lot of the commercial supply comes from refined, more modern extraction routes.
Unlike big-ticket molecules that command premium pricing because of a single, hyped purpose, Sclareolide circulates in the background. It rarely headlines a project; more often, it connects the dots between product stability, natural sourcing, and scent longevity. In circles I’ve worked in, nobody ever tried to disguise it or dress it up with a fancy name. It’s the journeyman: doesn’t demand center stage, but quietly shapes end products in ways customers feel but don’t always trace back to the chemistry itself.
Quality and authenticity drive ongoing concerns—especially since the world woke up to supply chain vulnerability and ingredient fraud. Sclareolide, being naturally derived, faces continuous scrutiny from companies worried that suppliers slip in synthetic imitations or stretch the truth about plant sources. Having worked with companies facing ingredient audits, I know chemical fingerprinting and isotope ratio mass spectrometry make a solid defense. Labs use these methods to compare batches directly to authentic plant extracts. The goal isn’t just to play detective, though; brands want the comfort that their “from nature” marketing isn’t quietly undermined by cost-saving swaps at the supplier level.
Market demand for Sclareolide stays steady, although environmental pressures on plant cultivation—especially Clary Sage—can bottleneck supply. Organic certification sometimes enters the conversation, with certain buyers demanding broader transparency, right down to the field where the plant grew. Producers with traceability documentation, pesticide-residue testing, and consistent batch analysis tend to win the long game. From my side, I’ve seen these extra steps play out as less drama with recalls and better customer satisfaction, even if procurement costs rise.
Not every chemical story gets translated into something you can sniff, taste, or spot on a daily label. Sclareolide pops up in more places than people imagine. If you’ve worn a high-end perfume and it managed to keep its base note long after the top notes had faded, odds are Sclareolide helped with that tenacity. It’s not loud like aldehydes or overly sweet like simple vanillin derivatives; its contribution hides in plain sight, filling out the base and letting other molecules carry the melody.
Sports supplement enthusiasts might have seen Sclareolide listed in smaller print, buried among ingredients. Whether the metabolic effects live up to all the claims remains a topic that researchers haven’t fully settled. Some studies raise the possibility of adipogenesis and weight management support. Consumer feedback tends to be more nuanced—some folks swear by consistent effects, others notice nothing at all.
Flavorists poke around this molecule, too. Its presence in food flavoring doesn’t bring punchy fruit or candy notes. Instead, it helps bind flavors together, smoothing the rough edges and sometimes providing creative scaffolding for more complex formulations. Because the taste impact stays mild, the molecule works well for giving natural products a little “extra” without drawing too much attention.
A recurring theme in ingredient research is the drive to keep improving both yield and sustainability. Farmers and processors keep a close eye on sage crops, tweaking harvest, boosting yields with selective planting, using more resource-efficient extraction setups. The push isn’t about creating more Sclareolide for the sake of abundance but minimizing waste and maximizing what each plant gives.
On the lab side, I’ve watched companies experiment with biotechnological platforms—microbial fermentation rather than field-grown sage. This isn’t about just cheaper Sclareolide: it leans into the argument for consistent, reliable quality, and offers a hedge against crop failures caused by climate stress. The challenge turns out to be regulatory. Getting “nature-identical” molecules from fermentation classified the same as plant-extracted versions triggers scrutiny, especially in countries with strict natural labeling criteria. Once companies plot a clear line between process and purity, the market will shift again.
My years seeing the shift from field-grown to biotechnological ingredients tells me the debate over authenticity won’t die down anytime soon. The truth sits somewhere between end-user demand for "naturally sourced" and the science-driven need for reliability and safety.
Anytime an ingredient gains broader use, new problems come into the picture. Sclareolide’s popularity in different sectors puts stress on natural sources. Overharvesting sage, for example, can put pressure on land and disrupt local ecosystems. Transparency helps—good suppliers document their farming practices, rotate crops, and keep pesticide use low. Knowing where and how an ingredient grows matters.
Laboratory methods for confirming authenticity and purity adapt, but there’s always a risk that less scrupulous suppliers cut in synthesized material. Routine fingerprinting—backed by partnerships with accredited labs—remains one of the strongest options for brands serious about quality control. Over the years, adoption of these safeguards has helped some companies dodge public recalls and lost trust.
On the research and development front, sharing findings across industries and regulatory agencies brings its own value. Scientists in flavor chemistry, fragrance formulation, and nutrition don’t always set foot in the same conferences or journals. More open, cross-field research would help standardize processes, set clearer quality benchmarks, and keep consumer safety front and center.
My experience in quality assurance has driven home the importance of embedding traceability into every supply chain step. Smart labels, QR-coded supply documents, and blockchain records can sound like overkill, but having a trail for every ingredient batch pays dividends during audits or a public inquiry.
The ingredient world doesn’t thrive on flash in the pan discoveries; it keeps turning because reliable, flexible molecules prove their worth on the ground, in products that reach everyday consumers. Sclareolide works across markets because it doesn’t pigeonhole itself as only for scent, or only for supplements, or only for foods. It stands as an example of what careful natural sourcing, honest supplier transparency, and skilled handling deliver to end consumers, whether or not they ever learn the name.
More regulation and consumer interest are driving the industry toward better stewardship of natural resources. Sclareolide reminds me that ingredients don’t need to stand out in the press release sense. Their real power comes from getting the fundamentals right: authenticity, responsible sourcing, and supporting the broader ecosystem of scientists, farmers, and manufacturers.
For anyone stepping into this field, knowing what goes into common products, how each ingredient weathers scrutiny, and how businesses adapt reveals what separates commodity supplies from the kind of trusted building blocks that make up the safest, most effective formulations. Sclareolide’s journey from farm to finished product touches on all the key lessons that matter—for E-E-A-T, for sustainability, and for the long-term trust that underpins this hidden engine of industry.