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HS Code |
103741 |
| Cas Number | 32449-92-6 |
| Molecular Formula | C6H8O6 |
| Molecular Weight | 176.12 |
| Iupac Name | D-Glucurono-3,6-lactone |
| Appearance | White crystalline powder |
| Solubility In Water | Soluble |
| Melting Point | 176-178°C |
| Boiling Point | Decomposes before boiling |
| Ph In Aqueous Solution | 2.2-3.0 (at 5% solution) |
| Synonyms | Glucuronolactone, D-Glucuronic acid lactone |
| Odor | Odorless |
| Storage Temperature | Store at 2-8°C |
| Purity | ≥98% |
As an accredited D(+)-Glucurono-36-Lactone factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The packaging for D(+)-Glucurono-3,6-Lactone (25g) is a sealed, amber glass bottle with a labeled, tamper-evident screw cap. |
| Shipping | D(+)-Glucurono-3,6-Lactone is shipped in tightly sealed containers to protect against moisture and contamination. It should be kept in a cool, dry place, away from direct sunlight and incompatible substances. Standard shipping procedures for non-hazardous chemicals apply, including clear labeling and appropriate documentation to ensure safe transit and regulatory compliance. |
| Storage | D(+)-Glucurono-3,6-lactone should be stored in a cool, dry, well-ventilated area, away from direct sunlight, heat, and moisture. Keep the container tightly closed when not in use to prevent contamination. Store at room temperature or as specified on the label, avoiding exposure to strong oxidizing agents. Follow all safety recommendations and local regulations for chemical storage. |
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Purity 99%: D(+)-Glucurono-36-Lactone with 99% purity is used in pharmaceutical synthesis, where it ensures high-yield production and reduced impurities in final formulations. Molecular weight 194.14 g/mol: D(+)-Glucurono-36-Lactone with molecular weight 194.14 g/mol is used in analytical standards preparation, where it enables precise calibration in chromatographic analysis. Melting point 170°C: D(+)-Glucurono-36-Lactone with a melting point of 170°C is used in solid dosage form manufacturing, where it provides thermal stability during granulation processes. Particle size ≤50 μm: D(+)-Glucurono-36-Lactone with particle size ≤50 μm is used in beverage fortification, where it enhances solubility and uniform dispersion. Stability temperature up to 40°C: D(+)-Glucurono-36-Lactone stable up to 40°C is used in nutritional supplement formulations, where it maintains efficacy over shelf life. Water-soluble grade: D(+)-Glucurono-36-Lactone of water-soluble grade is used in functional foods, where it allows rapid bioavailability in oral intake. Heavy metals <10 ppm: D(+)-Glucurono-36-Lactone with heavy metals below 10 ppm is used in cosmetic ingredient blends, where it ensures compliance with safety and purity standards. Assay ≥98%: D(+)-Glucurono-36-Lactone with assay ≥98% is used in laboratory reagent kits, where it guarantees reproducible experimental results. |
Competitive D(+)-Glucurono-36-Lactone prices that fit your budget—flexible terms and customized quotes for every order.
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Working in chemical production, certain compounds start to command more attention as clients focus on health, quality, and reliability. D(+)-Glucurono-3,6-Lactone belongs in that group. We oversee its production from raw input to the final packing, and understand the demands from industries that use it in energy drinks, pharmaceuticals, and nutraceuticals. Discussions about its value often ignore what truly sets one version apart from another. The conversation should focus less on buzzwords and more on how deep manufacturing experience shapes the outcome.
D(+)-Glucurono-3,6-Lactone, known by its chemical structure as a lactone form of glucuronic acid, holds significance for both its purity and bioavailability. Chemical accuracy and batch consistency don’t always impress those far removed from the plant floor, but those details shape trustworthiness for the end user. Whether destined for a supplement or a next-generation beverage, the importance of strict controls at every stage—including crystallization, drying, and sieving—cannot be understated.
Looking at our actual process for producing D(+)-Glucurono-3,6-Lactone, the first focus lies in raw material integrity. Poor-quality input leads to off-flavors or worse, so tight relationships with feedstock suppliers matter. The next deciding factor: how thoroughly the conversion from D-glucose or glucuronic acid takes place. Attention to temperature and reaction time makes or breaks yield and prevents contaminants from surviving the final wash. We invest in reactor design, PLC-based batch tracing, and post-processing testing to catch problems early rather than passing them along to a consumer.
Some buyers mistake a technical-grade certificate for pharmaceutical assurance, but there’s more to the story. We learned this lesson while reviewing requests from both global beverage leaders and regional supplement startups. Applications in dietary supplements or functional beverages force us to set the bar at purity exceeding 99.5%, with strong attention to trace metal content, microbial count, and low-residue solvents. Not every batch meets the mark; failed lots are held back, which tightens confidence for those relying on every kilogram we ship.
Fine-tuning crystallinity and particle size goes beyond meeting a number on spec sheets—it influences solubility in water, flow through mixing lines, and even the stability in finished drinks or capsules. Inconsistent size distribution leads to clumping, which beverage formulators detest. Controlling polymorphism isn’t just academic: differences here explain why some products dissolve cleanly, while others leave grit at the bottom. Our granulation lines use high-shear granulators and precision dryers instead of shortcuts like hammer mills, which keeps batch-to-batch performance steady.
Every few years, audit cycles force us to compare our product to others. We act on what we discover—specifically, how minor impurities play out once product hits a customer’s line. Low levels of reducing sugars or residual acids can accelerate browning or off-aromas in canned drinks over time. Even trace solvents that escape initial notice emerge months later as quality complaints. Our own technical team pushed to introduce UPLC testing to flag those issues ahead of time. Working directly with trusted customers means getting boots-on-ground information about which details matter most in reality, far different from theoretical lab comparisons found on routine COA paperwork.
Monitoring moisture content, preventing caking, and ensuring a smooth powder take creativity and constant investment. Over several years, we incrementally decreased our moisture target—thinking it would be enough. But the real breakthrough came after collaborating with encapsulation specialists, who explained how residual moisture tripped up their presses. The shift to a lower moisture profile demanded tweaks to our drying and closed transfer systems but earned positive feedback for reducing waste in their process. This type of openness accelerates improvement in our facility and, in the long run, serves everyone along the supply chain.
Having tested samples from several regions, disparities become clear quickly. Cheap, commodity versions sometimes cut corners through incomplete crystallization or lower-purity feedstocks. These shortcuts save cents up front but routinely bring higher endotoxin count or trouble with heavy metal residues. Repeat tests show Chinese and European suppliers vary both in color and odor, especially if they lack advanced washing and drying technology. Some pellets appear gray and carry a lingering taste—a problem for direct intake or clear liquid use. Not every supplier uses dedicated lines, so cross-contamination with other carbohydrates pops up, introducing variability impossible to correct at the formulation stage.
Recognizing those realities, our approach builds in redundant testing—including chiral HPLC profiling to confirm the D(+) configuration dominates, as even small deviations impact bioactive claims made by supplement producers. Other sources, focusing only on total glucuronic acid content, may technically comply but cannot guarantee a single isomer, which makes a difference in some therapeutic applications being researched today. Pharmaceutical oversight requires rigorous control, traced to specific vessels, operators, and even environmental monitoring during production runs.
Demand for D(+)-Glucurono-3,6-Lactone rises as beverage brands seek non-stimulant compounds to enhance perceived wellness benefits. Energy drinks, which used to rely on high caffeine alone, now incorporate lactone for its reputed detoxifying role and synergy with other actives like taurine. Everyday consumers rarely know the backstory, but our team works directly with food scientists who push for ever-clearer solutions. Listening to those voices shaped our own investment in better filtration and more advanced dust controls, reducing airborne losses and keeping handling safer for our staff and customers alike.
Pharmaceutical and nutraceutical brands push for tighter impurity limits and expanded safety data. Collaborations with R&D teams at those companies inform our own surveillance protocols—not just meeting monograph requirements, but offering full transparency for residue profiling, allergen status, and potential microbial carryover. Years ago, we would occasionally dismiss a request as too niche to bother tracking. Today, even a minute customer concern often triggers a process reevaluation internally. It’s a mark of partnership over simple arm’s-length trade.
Feedback from industries relying on D(+)-Glucurono-3,6-Lactone varies by geography and application. Japanese drink companies scrutinize every impurity down to sub-ppm levels, requiring extra steps post-crystallization. North American supplement brands, dealing with stricter end-use regulations, prefer more detailed allergen and contaminant statements. In each case, we adjusted our process to track and document vaping byproducts, carryover allergen risk, and even batch-to-batch traceability.
Failures and recalls remain real risks in this sector, as one contaminated batch can disable a product launch or draw regulatory action. We experienced the consequences directly following a customer’s third-party lab discovering a previously undetected contaminant. Rather than stonewall or evade responsibility, we invited their investigators into our plant, reviewed our logs and process data, and overhauled relevant sections of our system. The move cost money and time, but restored trust—and deepened our understanding of both production practice and customer necessity.
Traceability keeps growing in importance. Modern buyers—not just compliance teams, but even consumers—want to know where ingredients originate, how they move through supply chains, and what standards govern production. We publish lot numbers traceable back to individual production days, record operator interventions, and keep digital logs of every ingredient shipment. Early efforts with manual paperwork proved clumsy; shifting to digital real-time recording exposed process gaps that we corrected over time. Staff training plays just as big a part as equipment, which means turnover or poor buy-in at the plant floor can undo upstream investment.
Regulatory frameworks evolve, often overnight. We follow not only national standards but also export rules for each client destination—including EU directives, Japanese Food Additive requirements, and United States Pharmacopeial (USP) standards for purity and safety. By testing pilot batches under harsher conditions than most actual uses bring, we find issues before they scale. Our regulatory compliance staff meets with both production and marketing every month to cross-check evolving rules—not out of bureaucratic habit, but because that finger on the pulse has helped avoid disasters faced by less-prepared operators.
Packaging doesn’t attract attention until something goes wrong. Light, moisture, and oxygen all threaten the long-term quality of D(+)-Glucurono-3,6-Lactone. Years ago, we adopted layered foil-laminate bags inside secondary drums, but initial failures in hot, humid shipping regions forced changes. Now, we double-seal with food-grade liners, employ color-change humidity indicators, and periodically validate storage at partner warehouses. Clients in Southeast Asia and South America appreciate these steps after encountering issues with standard kraft bags elsewhere, which invite caking or appear fine until short shelf life results in wasted product.
Logistics connects producers and buyers. Shipment stability sits at the center of our planning—delayed customs clearance, rough handling at ports, and even seemingly small mishaps like misplaced palletization can undo investments in upstream quality. By assigning dedicated batch tracking through GPS-tagged containers and direct partnerships with shippers, we intervene rapidly if issues appear en route. Investing here isn't glamorous but spells the difference between reliable supply and emergencies that force customers to scramble for alternatives at a premium.
Every season brings new challenges. Last year, supply chain snarls tied up input materials while customer urgency spiked. Flexible procurement strategies, strong raw material agreements, and modular production lines gave us breathing room. The focus never strayed from controlling batch quality and maintaining open communication—especially if temporary delays were unavoidable. Some competitors responded by stretching lead times or relaxing standards; we chose transparency and, where necessary, short-term prioritization of disease-prevention sectors over lower-priority demand.
Technical advances often come from outside formal R&D. A floor line worker first flagged a problem with agglomeration during a particularly humid spell. Instead of blaming storage, we modified our HVAC and upgraded to desiccant driers in the packing area. The improvement rippled through finished product performance. Technical teams in formulation labs later called to note fewer rejections and less troubleshooting—a rare win from simple hands-on changes rather than theoretical tweaks.
Use cases for D(+)-Glucurono-3,6-Lactone keep multiplying. Brands seek differentiation with scientifically backed ingredients. Energy drinks, wellness shots, pharmaceutical excipients, and even topical cosmeceuticals use this compound in expanding roles. We watch research emerging about detoxification, antioxidant properties, or novel delivery systems—and weigh these realities against what’s practically achievable today. A manufacturer’s view sits at the interface of aspiration and day-to-day production, balancing the risks and rewards of change far more carefully than marketing teams or regulatory theorists.
Operating as an actual manufacturer means every raw material, every production parameter, and every outbound package presents opportunities for error—or excellence. Knowledge grows less from manuals and more from repeated cycles of process feedback, customer collaboration, and problem-solving under stress. Our line supervisors, analytical chemists, and QA staff pool lessons and failures, turning mishaps into improved SOPs and tighter internal controls. Distance from the point of production usually blurs these lessons, so customers sometimes overlook the hard-won knowledge embedded in each finished lot.
D(+)-Glucurono-3,6-Lactone won’t solve every formulation challenge, but getting the source right ensures reliability for those relying on it down the line. We continue to adapt, seeking out customer input and technology upgrades not because standards demand it, but because firsthand experience proves these moves pay off—for quality, safety, and long-term trust. As the uses for this compound evolve, keeping true to high-touch production pays dividends for our partners and raises the standard for the industry.