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HS Code |
602299 |
| Cas Number | 119-84-6 |
| Iupac Name | 3,4-dihydro-2H-1-benzopyran-2-one |
| Molecular Formula | C9H8O2 |
| Molecular Weight | 148.16 |
| Appearance | White crystalline powder |
| Melting Point | 78-80 °C |
| Boiling Point | 280-282 °C |
| Solubility In Water | Slightly soluble |
| Density | 1.186 g/cm³ |
| Odor | Sweet, coumarin-like |
| Flash Point | 164 °C |
| Refractive Index | 1.561 |
As an accredited Dihydrocoumarin factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Dihydrocoumarin is packaged in a 100g amber glass bottle with a secure screw cap and chemical hazard labeling for safety. |
| Shipping | Dihydrocoumarin should be shipped in tightly sealed containers, protected from light and moisture, and compliant with local, national, and international regulations. It is not classified as hazardous for transport but should be handled with care. Ensure labeling is clear, and include safety data sheets with the shipment for proper handling and emergency information. |
| Storage | Dihydrocoumarin should be stored in a tightly sealed container, away from light and moisture, in a cool, dry, and well-ventilated area. Keep it away from incompatible substances such as strong oxidizing agents. Ensure proper labelling and separation from food and feedstuffs. Storage conditions should minimize exposure to heat, sparks, and open flames to maintain its stability and prevent degradation. |
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Purity 99%: Dihydrocoumarin Purity 99% is used in food flavorings formulation, where it enhances aroma intensity and ensures regulatory compliance with food safety standards. Melting Point 78°C: Dihydrocoumarin Melting Point 78°C is used in cosmetic cream manufacture, where it provides excellent blendability and heat stability during processing. Particle Size ≤10 µm: Dihydrocoumarin Particle Size ≤10 µm is used in powder-based fragrances, where it ensures uniform dispersion and improved sensory profile. Stability Temperature 120°C: Dihydrocoumarin Stability Temperature 120°C is used in pharmaceutical excipients, where it maintains structural integrity under thermal processing. Molecular Weight 148.17 g/mol: Dihydrocoumarin Molecular Weight 148.17 g/mol is used in chemical synthesis intermediates, where it enables precise stoichiometric calculations and product yield optimization. Viscosity Grade Low: Dihydrocoumarin Viscosity Grade Low is used in liquid flavor concentrates, where it facilitates easier mixing and homogenous distribution. Residual Solvent <0.1%: Dihydrocoumarin Residual Solvent <0.1% is used in oral care products, where it minimizes potential toxicity and ensures product safety for consumer use. Refractive Index 1.545: Dihydrocoumarin Refractive Index 1.545 is used in specialty polymer additives, where it contributes to desired optical clarity in end products. |
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Dihydrocoumarin doesn’t get much attention at dinner tables or coffee shops, but walk through any bakery, chocolate factory, or perfumery, and you catch its distinct, sweet note. Some folks call it a secret ingredient. It brings that creamy, vanilla-like aroma which signals something special in the recipe. When I first visited a food lab working on natural flavor solutions, the chemists let me take a whiff from a container of pure dihydrocoumarin. The smell was unmistakable: like a cross between freshly cut hay and new vanilla beans, soft and subtle, but persistent.
This compound belongs to the family of lactones, and its structure means it can blend smoothly into edible products, always aiming to highlight core flavors instead of overpowering them. Manufacturers noticed its advantages early on, which is why dihydrocoumarin found its way into snacks, candies, and even tobacco for decades. Its popularity never boomed like artificial vanilla, but those who understand flavor chemistry recognize it for what it adds, and just as importantly, what it avoids: the heavy, cloying aftertaste.
You might see bottles or containers labeled “Dihydrocoumarin, 99% pure.” That number means a lot for food technologists, especially when it comes to consistency. Impurities, even at 1% or 2%, can twist the final scent or taste and mess up months of product development. In labs or factories, the 99% figure signals a certain standard: stable, predictable, and repeatable flavor production. The white crystalline powder dissolves in alcohol and oils and survives moderate heat without breaking down—which matters whenever baking, candy-making, or cooking processes reach well above 100 degrees Celsius.
Packaging usually comes in sealed, food-grade drums or plastic jars, sized for needs ranging from micro-batch to industrial. As someone who’s toured dozens of flavor houses, I’ve seen how companies obsess over storage. They keep it dry, sealed tight, and away from sunlight, preserving that core aroma and taste for as long as possible. Some flavorists keep a small jar on their personal workbench, using it like chefs use salt—enhancing sweetness, hiding rough notes, or lending backbone to delicate recipes.
Walk into a modern flavor house and you’ll see dihydrocoumarin’s fingerprints across product lines. Its primary use—baked goods and confectionery—reflects where our senses crave a lingering sweetness that doesn’t shout “artificial.” I remember a project for an ice cream brand searching for the natural edge that sets their vanilla apart. The trick came not from more vanilla extract, but from introducing a touch of dihydrocoumarin, rounding off the sharpness and giving a flavor reminiscent of old-fashioned custards.
Candy manufacturers use it to add nuance, letting a little go a long way in caramels, fudge, or soft chews. In chewing tobacco, it smooths roughness, blending with honey and fruit notes. Even in personal care—lotions, creams, and aftershaves—a pinch changes the profile from simple chemical to “something familiar and lush.” Not every scented product on a store shelf admits its formula, but trained noses pick up those deep, hay-like undertones.
Nobody wants nasty surprises from their favorite sweets or creams. Safety matters both at the production line and the dinner table. In my years tracking the history of food chemicals, dihydrocoumarin’s story stands out. At one point, the food industry saw it as a next-generation vanilla replacer—that is, until scientists noticed high consumption counted in the grams might mess with livers in animal tests. National food authorities paid attention. Regulations today keep a firm cap on the allowable amounts in food products, and large-scale producers run routine batch testing to stay in line.
The take-away? At permitted levels, dihydrocoumarin hasn’t been linked to major health scares in humans. Like any food additive, context and moderation matter. I’ve met risk managers who remind us that water itself can be dangerous in excess, so demonizing a compound used in trace amounts doesn’t do much good. Still, responsible manufacturers pair quality testing with clear labeling and rely on up-to-date toxicological reviews.
While dihydrocoumarin’s structure resembles that of coumarin (itself widely used in flavoring and perfume, until regulators stepped in), it differs both in effect and safety profile. The hydrogenation step in production transforms coumarin’s double-bond, reducing bitterness and softening its taste. Both chemists and chefs enjoy this edge—taking the botanical charm of field-cut grass and vanilla, without pushing up against coumarin’s known drawbacks.
Its close relatives often bring with them far more baggage: regulatory hurdles, health warnings, or off-notes that spoil delicate recipes. I’ve seen large chocolate manufacturers switch from older, coumarin-based recipes to dihydrocoumarin for a reason: less risk, smoother processing, and more reliable consumer acceptance. No shortcuts, but a clear improvement in how flavors harmonize.
A generation ago, food flavoring walked a fine line between what customers expected and what science could deliver. Today, with stricter oversight and deeper understanding of taste perception, dihydrocoumarin fits right in. It underscores sweet notes without dominating, pairing naturally with other lactones, vanillin, or even fruity esters.
In the hands of skilled formulators, a sprinkle of dihydrocoumarin fills gaps that other ingredients leave behind. Imagine a butter cookie—soft, rich, but a bit flat. Add a trace of this compound and suddenly the cookie lifts, with subtle vanilla and grassy hints that finish smoothly. My experience working alongside bakery R&D teams showed that flavors aren’t just about chemical lists—they’re about memory, comfort, and expectation. Dihydrocoumarin, more than flashier aroma chemicals, makes that connection possible.
Not every bottle of dihydrocoumarin is the same. The method, whether extraction from natural tonka beans or by synthetic hydrogenation, changes trace elements that influence performance. Large companies prefer synthetic, refined batches for their purity and reproducibility, while some boutique flavor houses experiment with tonka sources, claiming added nuance.
From my own tasting trials, the synthetic route wins on stability—every scoop smells and tastes like the last. Smaller food brands that pride themselves on “natural flavors” usually blend a tiny amount with other natural extracts, seeking the complexity that appeals to the discerning customer. Either way, regulatory paperwork follows each step, ensuring traceability and accountability. Skipping these steps risks flavor inconsistency and possible recalls—something hard to fix once a new product hits store shelves.
Lots of products try to do what dihydrocoumarin does: add pleasant, vanilla-hay notes, improve sweetness, and fill out a recipe. Vanillin and ethyl vanillin dominate the vanilla category, but both carry an assertive punch that sometimes overpowers mild bases. Tonka absolute, a natural extract rich in coumarin, got pulled from the U.S. market for safety reasons. Other lactones—gamma-nonalactone, delta-decalactone—bring fruit or cream notes, but each misses that grassy charm.
It’s that middle ground where dihydrocoumarin shines. Not as easily identified by consumers as vanilla, not as strong as artificial enhancers, yet able to boost everything from soft drinks to baked snacks. For my palate, it’s the equivalent of a background singer who makes the front line sound even better. It doesn’t demand the spotlight, but the finished product suffers without it.
No additive comes free from challenges. Push dihydrocoumarin beyond strict usage limits and risk regulatory scrutiny or odd flavor balances. Some groups worry about its presence even at low levels. This means food scientists walk a tightrope, balancing its benefits against long-term safety data, customer perception, marketing claims, and evolving health guidelines.
A practical solution involves multi-pronged flavor design. Nobody puts all their eggs in one basket. Instead, brands mix dihydrocoumarin in minute doses with other flavor components. I’ve watched teams test blends against panels of trained tasters, adjusting ratios until the winning formula delivers signature character without breaking rules. Keeping up with research is essential; reputable firms fund toxicological studies and maintain crisis protocols should future data demand reformulation.
Transparency stands as a pillar of consumer trust, especially with flavor additives. Labels matter. More companies feature not just “natural flavors,” but also break down ingredients and highlight why each gets used. This shift came because shoppers want to know what goes into their food. In my own kitchen, I read every list—parents, chefs, and even curious kids deserve no less.
If dihydrocoumarin appears in ice cream, chocolates, or lotions, companies doing it right also share sourcing information, batch quality reports, and clear, honest customer support. Nobody benefits from playing hide-and-seek with additives. Instead, by collaborating with regulatory scientists and flavorists, brands keep both products and reputations intact.
Looking forward, the market keeps shifting. Natural sourcing rises in importance, but synthetic methods provide consistency and safety guarantees. Food and cosmetic brands experiment with lower doses, matching new regulatory targets, or seek novel blends that provide multi-layered scents and tastes. At flavor symposiums, dihydrocoumarin draws interest exactly because it bridges old and new worlds—reliable enough for big brands, nuanced enough for specialty lines.
Large retailers ask suppliers probing questions: Is your dihydrocoumarin batch tested by independent labs? Can you trace it to its source, and have you kept up with the latest food safety findings? The industry answers with tighter documentation, innovation in blending, and continued investment in both natural and synthetic purification systems. This stands as a solid example of E-E-A-T: experience in production, expertise in safety, authority through transparent communication, and trust built by sharing data openly.
The world’s appetite for authentic taste keeps growing, even as expectations rise for cleaner labels and safer sourcing. Some experts argue that the most successful flavors tomorrow will combine scientifically verified safety, compelling taste profiles, and honesty throughout the supply chain. Dihydrocoumarin may never become a buzzword the way “natural vanilla” or “no artificial flavors” have. Yet, its role behind the scenes—bridging traditional taste expectations with modern food safety demand—remains indispensable.
I’ve spoken with flavorists who see new potential: micro-dosed dihydrocoumarin in plant-based chocolates, reduced sugar confections, or as a quiet co-star in botanical beverages. They push for standards above regulatory minimums, often self-policing their own processes and publishing results for peer review. As customers get more label-savvy and ingredient-conscious, only companies that put transparency first will earn loyalty and trust.
Dihydrocoumarin’s journey reflects the best of what food chemistry can do—finding the balance between tradition and science, experience and oversight. Those lessons, learned in labs and on production lines, matter just as much at the checkout counter as they do in R&D meetings. For anyone invested in making food and daily products better, dihydrocoumarin’s story offers more than a lesson in chemistry. It serves as a reminder: the smallest details often make the biggest difference in taste, safety, and the future of what we eat.