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HS Code |
859869 |
| Chemical Name | Lactobionic Acid |
| Molecular Formula | C12H22O12 |
| Molecular Weight | 358.30 g/mol |
| Appearance | White to off-white crystalline powder |
| Solubility | Highly soluble in water |
| Ph 1 Solution | 2.5 - 3.5 |
| Cas Number | 96-82-2 |
| Melting Point | 120-130°C (decomposition) |
| Odor | Odorless |
| Stability | Stable under recommended storage conditions |
| Synonyms | 4-O-β-galactopyranosyl-D-gluconic acid |
| Boiling Point | Decomposes before boiling |
| Taste | Slightly acidic |
| Origin | Derived from oxidation of lactose |
| Storage Conditions | Keep in tightly closed container, dry, and cool place |
As an accredited Lactobionic Acid factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Lactobionic Acid, 500g: Supplied in a sealed, amber plastic bottle with a secure screw cap and clearly labeled for laboratory use. |
| Shipping | Lactobionic acid should be shipped in tightly sealed containers to prevent moisture absorption. Store and transport in a cool, dry place away from incompatible substances. Handle with appropriate personal protective equipment. Ensure compliance with local, national, and international regulations for chemical transportation. Avoid direct sunlight and extreme temperatures during shipping. |
| Storage | Lactobionic acid should be stored in a tightly sealed container, protected from moisture and light, at room temperature (15–25°C). Store in a cool, dry, and well-ventilated area, away from incompatible substances such as strong oxidizers and strong bases. Ensure the storage area is clearly labeled and complies with local chemical storage regulations. Avoid prolonged exposure to air and humidity. |
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Purity 98%: Lactobionic Acid with a purity of 98% is used in dermatological formulations, where it provides efficient exfoliation while maintaining high biocompatibility. Molecular Weight 358.3 g/mol: Lactobionic Acid with a molecular weight of 358.3 g/mol is utilized in anti-aging creams, where it promotes gentle keratolytic action and hydration. Stability Temperature 40°C: Lactobionic Acid stable at 40°C is incorporated into cosmetic serums, where it ensures consistent performance and shelf-life under elevated storage conditions. Particle Size <50 μm: Lactobionic Acid with a particle size below 50 micrometers is applied in skin smoothing masks, where it allows for rapid dissolution and uniform skin application. Viscosity Grade Low: Lactobionic Acid of low viscosity grade is used in liquid exfoliant solutions, where it enhances user spreadability and absorption rate. Solubility in Water >500 g/L: Lactobionic Acid with a solubility in water above 500 g/L is used in aqueous cosmetic gels, where it facilitates the creation of clear and stable formulations. Melting Point 120°C: Lactobionic Acid with a melting point of 120°C is employed in pharmaceutical excipients, where it assures robust solid-state stability during processing. Residual Impurity <0.1%: Lactobionic Acid with residual impurity below 0.1% is used in ophthalmic solutions, where it ensures high safety and minimal irritancy for sensitive applications. pH Stability Range 3.5–8.0: Lactobionic Acid stable between pH 3.5 to 8.0 is included in multifunctional skincare products, where it maintains efficacy across various formulations. Chelating Capacity High: Lactobionic Acid with high chelating capacity is used in antioxidant serums, where it improves free radical scavenging and protects against environmental damage. |
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Lactobionic acid’s rise in different industries has sparked a lot of curiosity. Inside every white powder or crystalline sample sits a multilayered story of chemistry and care. This molecule, which comes from oxidized lactose, carries a gentle touch unusual for acids—making it prized for sensitive skin, advanced pharmaceuticals, and even specialty foods. In skincare labs, technologists often trace their paths back to ingredients that make a real difference. Lactobionic acid brings similarities to gluconic acid in effect, but brings more: its molecular structure allows it to bind water molecules, helping boost skin hydration while supporting gentle exfoliation.
Over the years, users and formulators have drifted away from aggressive acts on the skin. Anybody who’s walked down the road of AHAs and watched their skin react with redness or peeling knows why chemists welcome this new option. I remember my own hesitation trying regular glycolic acid years ago—dealing with dryness and stinging. Lactobionic acid sidesteps these worries. Its structure makes it less likely to cause sensitivity, so folks with fragile or reactive skin can join in. That’s a big reason dermatologists recommend it for folks recovering from procedures or battling rosacea.
Lactobionic acid powders usually present with a fine, nearly white appearance. Moisture content and purity matter more than most realize: any excess water or impurities affect both stability and eventual shelf life of the finished product. Purity percentages often land near 98-100%, and those few remaining percent can shape texture, mixability in water, and final product clarity. I’ve seen some batches clump or brown over time—signaling exposure to air or careless handling during shipping. Laboratories stick to clear, airtight containers and low humidity storage, safeguarding the acid’s stability.
From a technical angle, molecular weight sits at 358.3 g/mol, which puts lactobionic acid among the heavier hydroxy acids. This size limits the depth it reaches in the skin, keeping it active on the uppermost layers. Solubility is impressive, mixing in water quickly when given a thorough stir, making it suitable for gels, serums, and aqueous solutions without much fuss. In food tech and biotech labs, clarity and solubility reduce headaches at scale—something food producers appreciate when seeking to add it as a mineral carrier, pH modulator, or texture ingredient.
Formulators bring lactobionic acid into cosmetics for its mix of gentleness and technical strength. Dry, flaky skin often finds balance, since it loosens stubborn dead skin cells without scraping away the healthy barrier beneath. I’ve seen it combined with vitamin C to reduce oxidative stress and hold onto skin moisture across hot and cold climates. In patches and masks, 2-5% concentrations give a noticeable smoothing effect within days. Some Korean and European brands lean into its ability to fade dark spots or soften lines for people who can’t tolerate AHA peels.
Beyond skin, lactobionic acid crops up in food fortification as a calcium carrier and as a humectant that helps certain sweets hold their shape and stay moist. Some recent research investigates how it protects minerals—improving both absorption and taste of supplements for people sensitive to bitterness. In the biotech world, it gets attention for reducing oxidative stress in preservation techniques and as a chelating agent for certain metals.
Pharmaceuticals push boundaries further. Formulas for eye drops use lactobionic acid to prolong shelf life and enhance ocular comfort; its gentle nature lowers the risk of irritation. Infusion solutions and wound dressings tap into its ability to pull moisture from deeper layers gently, creating a healing environment without dryness or maceration. Its antioxidant properties keep interest alive among researchers working on tissue scaffolds and medical coatings.
A closer look at its chemical backbone leaves clues about why lactobionic acid behaves so well. The molecule pairs a galactose sugar with gluconic acid, producing an acid that stands up against oxidants but resists quick breakdown. This dual structure also grants it a strong affinity for binding to calcium, copper, and iron ions. That’s why nutritionists consider it for improving mineral delivery.
Its sugar element draws in and holds water, much like hyaluronic acid—though without the sticky residue. Having sat through multiple formulation trials, I’ve watched the choice between lactobionic and other acids depend on target pH and the final user. Since this acid’s effective range leans towards a slightly acidic to neutral pH, it fits more easily into mainstream lotions and serums, making it less likely to trigger stinging.
Most people think of lactic or glycolic acid as the main tools for exfoliation, but not everyone can handle their punch. Glycolic acid, with its tiny molecule, travels deep and produces quick results but can unleash a wave of side effects—dryness, inflammation, and increased sun sensitivity. Lactic acid weighs in a bit heavier, striking a compromise between exfoliation and comfort.
Lactobionic acid keeps a lower profile, moving more slowly through the skin and targeting only loose, dead surface cells. This difference has real-world impact for aging or inflamed complexions that show signs of irritation with other AHAs and BHAs. In my practice, patients with eczema or post-procedure skin who could not tolerate even “gentle” formulas often managed well with skincare containing lactobionic acid. It doesn’t strip the skin’s protective layer or disrupt natural oils as quickly.
Polyhydroxy acids (PHAs) as a whole cover a spectrum, with lactobionic acid and gluconolactone leading the pack. PHAs have a knack for not just exfoliating, but also drawing water into the skin. While lactic acid may smooth skin in days, lactobionic acid does it without triggering sensitivity and keeps the skin moist, especially useful in dry climates or for those managing fine lines due to dehydration.
My first brush with lactobionic acid came in a trial serum meant for ultra-sensitive skin. Years of cycling through products that either underperformed or backfired left me skeptical. Within a week, roughness eased, and redness receded—without the telltale flaking or warmth that followed even low-strength glycolic creams. Friends with similar struggles shared that brightening or texture results took a bit longer than rapid-fire AHAs, but steadiness won in the end.
For those in the beauty aisle, the wide array of acids on labels can overwhelm. Sometimes, people think bigger names do the job better, but small chemical shifts make all the difference on real, living skin. Using lactobionic acid over months encouraged me to trust gentler options; friends managing rosacea or dry winter skin echoed this relief. One friend with recurring breakouts watched her skin smooth out—her irritation from past peels never returned.
In food spaces, bakers and candy makers recognize how just a touch improves moisture retention or alters texture. My own experiments swapping out lactobionic acid in soft sweets and fortified chocolates led to improved shelf time and a smoother mouthfeel, without added off-flavors. College labs turned to the acid during testing of mineral absorption in yogurt and cheese prototypes.
Nothing in science is without challenges, and lactobionic acid brings its own hurdles. Its hygroscopic nature—meaning it pulls water from the air—demands careful storage. Left open to air, the powder clumps and degrades. In busy labs, accidents happen and entire batches go to waste. Tight sealing, climate-controlled rooms, and quick handling all help keep product loss down.
Formulators sometimes struggle to balance lactobionic acid’s pH in water-based or oil-in-water emulsions. Add too much, and the final product grows sticky or changes in clarity. Lower concentrations (2-5%) sidestep most texture issues. Testing with stabilizers or pairing with compatible thickeners grants better control over viscosity. In baking or food, ensuring compatible starch and protein ratios means textures hold up, avoiding separation or graininess.
Cost creates pause for large-scale adoption. Lactobionic acid costs more than basic lactic or glycolic acid, pushing up prices for finished products. On the other hand, its high biocompatibility and performance mean smaller amounts do the job, and more brands keep it on as an anchor ingredient for high-value, sensitive-skin lines or specialized foods.
More attention on ingredient sourcing and end-of-life impact places lactobionic acid in a moderately green light. Production starts with lactose, commonly sourced from dairy byproducts, though some fermentation processes now use vegan or plant alternatives. Since it breaks down into simple sugars and acids, risk to waterways or environmental buildup remains low compared to persistent synthetic additives.
Safety data shows a low irritation risk and no serious adverse effects reported in standard concentrations across topical, oral, or medical uses. Still, individuals with rare lactose intolerances or allergies may need to read labels closely, as trace proteins from dairy can linger in some batches.
As consumer awareness of skincare and nutrition expands, demand for multitaskers like lactobionic acid keeps rising. Transparency in sourcing and proven gentleness matter to buyers with health conditions or chronic sensitivities. Skincare giants now include PHAs in “barrier repair” or “post-treatment” products, broadening the reach to folks put off by old-school exfoliants.
Academic labs explore new paths: testing higher doses for antioxidant therapies, pairing with nano-carriers for improved drug delivery, and adding lactobionic acid to enteral nutrition blends. Studies show that its mineral-chelating and free radical scavenging properties offer protective effects for cell cultures, expanding use in tissue engineering and organ preservation.
Update in manufacturing stands to lower price and expand access. As more vegan fermentation processes mature, consistency climbs and reliance on dairy drops. This shift not only appeals to plant-based consumers but also reduces potential allergen issues.
To minimize waste and extend shelf life, packaging innovations such as moisture-proof single-dose sachets or pre-dissolved concentrates could reduce degradation in storage and shipping. In high-humidity regions, transport in controlled-atmosphere containers safeguards quality from source to shelf.
For those worried about cost, shared research initiatives may allow smaller companies to access high-purity lactobionic acid and try pilot runs in specialty foods, supplements, or targeted skincare. Consumer education around PHAs will help set realistic expectations—initially slower results, but gentler, longer-lasting benefits fit for sensitive or long-term use.
People want more from what they put on skin or in food—cleaner processes, fewer flare-ups, and deeper scientific backing. Lactobionic acid ticks off many demands: gentle yet effective, science-based, and versatile across sectors. Watching the progress of this molecule since its introduction into mainstream products, I see it meet a real need that older acids never fully addressed. Its story is one of balance between science and daily life—a rare find in a chemical world often split between harsh efficacy and bland neutrality.
With more brands, researchers, and everyday users paying attention, lactobionic acid looks set to play a growing role not just as an ingredient, but as a symbol of how science finds gentler paths to effective solutions. Whether in a luxury serum, a fortified food, or a healing gel, this molecule shows that better options come from understanding, not just innovation for its own sake.