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HS Code |
257969 |
| Chemical Name | Beta-D-Allose |
| Molecular Formula | C6H12O6 |
| Molar Mass | 180.16 g/mol |
| Cas Number | 2595-97-3 |
| Appearance | White crystalline powder |
| Solubility In Water | Soluble |
| Optical Rotation | [α]D20 +20.1° (c=1, H2O) |
| Melting Point | 118-120°C |
| Synonyms | β-D-Allopyranose |
| Chemical Structure | Monosaccharide, aldohexose |
| Storage Temperature | 2-8°C |
| Pubchem Cid | 439471 |
As an accredited Beta-D-Allose factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Beta-D-Allose is packaged in a 1-gram amber glass vial, sealed with a screw cap, and labeled for laboratory use. |
| Shipping | Beta-D-Allose is shipped in tightly sealed containers under cool, dry, and inert conditions to prevent moisture absorption and degradation. Packaging complies with relevant regulations for safe transportation of chemicals. Accompanied by a Safety Data Sheet (SDS), the shipment ensures secure handling and delivery to maintain product integrity. |
| Storage | Beta-D-Allose should be stored in a tightly sealed container in a cool, dry, and well-ventilated area, away from moisture and direct sunlight. Maintain storage at room temperature, ideally between 2–8°C (refrigerated) for optimal stability. Keep the chemical away from strong oxidizing agents and incompatible materials. Always follow laboratory safety guidelines and consult the product's safety data sheet for further details. |
Applications of Beta-D-Allose in Industrial ManufacturingBeta-D-Allose serves a unique function in advanced industrial manufacturing, particularly in regulated biochemical, pharmaceutical, and food-related processes. With strict quality control and defined regulatory landscapes, its use aligns with precise formulation requirements and process specifications across specialty sectors. 1. Low-Calorie Sweetener Formulation for Specialized Food ProductsAs a rare sugar, Beta-D-Allose provides near-zero caloric sweetness for applications demanding natural-origin sugar alternatives. Global food producers integrate it as a functional sweetener in nutritional bars, sugar-free confectionery, and diabetic-friendly syrups. Its stability during high-temperature processes enables direct addition at slurry, mixing, or coating stages, minimizing post-processing degradation. Industrial users rely on its compatibility with food matrices for controlled texture, crystallization, and flavor masking, especially in specialized markets targeting health-conscious consumers or regulated nutritional profiles. Industry compliance standards
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2. Pharmaceutical Intermediate for Targeted Drug FormulationPharmaceutical developers adopt Beta-D-Allose as a specialty intermediate in projects focused on modifying glycosylation profiles to enhance active pharmaceutical ingredient (API) properties or stability. Medicinal chemists integrate it via enzyme or chemical synthesis steps in investigational drugs and oligosaccharide-based therapies. This controlled use ensures desirable pharmacokinetics or targeted delivery, particularly in anti-tumor, immunomodulatory, or rare-disease formulations where stereochemistry of sugar moieties is critical. Full traceability and validation support required GMP documentation and clinical trial submissions. Industry compliance standards
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3. Bioactive Compound Research and Development for Life SciencesIn advanced biosciences laboratories and industrial-scale biofoundries, Beta-D-Allose supports functional ingredient screening and biotransformation studies. Research teams employ it to investigate modulation of cellular processes such as oxidative stress, apoptosis, or anti-inflammatory pathways. The material enters automated high-throughput screening workflows or fermentation platforms for downstream isolation of novel metabolites or secondary modifications. Accurate documentation throughout enables traceability, reproducibility, and data reporting for regulatory studies or product registration dossiers. Industry compliance standards
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4. Cosmetic Ingredient for Advanced Skin Care FormulationsRegulated cosmetic factories utilize Beta-D-Allose as a novel humectant and bioactive component in skincare and personal care products. Its functional profile allows formulators to enhance skin hydration, texture, and antioxidative claims, especially in premium and science-backed product lines. The ingredient enters batching and emulsification steps, requiring controlled temperature and pH conditions to maintain integrity for stability across commercial shelf life. Full ingredient traceability, safety evaluation, and documentation enable product launch in global high-end cosmetic markets. Industry compliance standards
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In our chemical factory, the word “rare” doesn’t mean unattainable; it means we work a little harder to put value into every kilogram pulled from our reactors. Beta-D-Allose belongs to a small family of rare monosaccharides that have made us rethink what’s possible with sugars. We produce Beta-D-Allose through controlled isomerization processes, giving us a product that stands out for its consistent purity, crystalline texture, and clear analytical profile. Every day, we watch a colorless, crystalline powder accumulate, knowing its properties set it apart from common glucose or fructose. The difference always starts with that first analytical run — our chromatographs confirm the conversion, the crystals flow into their final containers, and nobody here takes the process for granted.
It’s always tempting to talk numbers first, but years on the line have taught us the real value comes from seeing those numbers translate into results in your hands. Our Beta-D-Allose, Model BA-99, typically arrives as a fine powder, dissolving readily in water. Lab analysis confirms a minimum assay of 99%, with moisture checked weekly for less than 0.5%. Each batch is screened through mesh to achieve a uniform size that supports dissolution and handling in formulation environments. Parameters aren’t wishful thinking at our plant; they’re the outcome of daily calibrations, hands-on testing, and knowing that even one off-target batch can undermine a customer’s formulation. We use high-purity water during crystallization, and each lot receives FTIR and HPLC fingerprinting before shipment. Impurity profiles are run for both common and rare contaminants, chasing down traces that might get overlooked by lower-volume purveyors.
Most folks looking for Beta-D-Allose ask right away what makes it “better” compared to the usual sugars. Structurally, it’s a C-3 epimer of D-glucose, changing the configuration at one hydroxyl. That subtle difference doesn’t just sound technical — it means a real shift in metabolism and stability when you blend it into formulations for food, pharma, or biotech research. In our hands, this subtlety means watching for co-eluting sugars during prep, monitoring color shifts after isomerization, and running density checks if ever the mash looks off.
Over the years, clients have surprised us with the places Beta-D-Allose winds up. On first glance, it seems just another rare sugar for the “specialty” shelf, but its impact keeps growing as teams test it across new use cases. Research groups prize its mild sweetening — not as sweet as sucrose — which means they aren’t dealing with overpowering flavor or fast-cycling glycemic loads. Projects arrive from both large food conglomerates and boutique food labs looking to formulate not just for taste, but for metabolic response. Beta-D-Allose stands out in applications requiring low-calorie content and minimal impact on blood glucose, opening doors for diabetic-friendly or weight-management products that don’t compromise texture or mouthfeel.
Pharmaceutical development departments tend to come calling for Beta-D-Allose to craft innovative excipient blends. Its chemical stability turns out to be handy for formulation under heat or prolonged storage. In oral care, certain formulations exploit its low fermentability by oral bacteria, reducing acid generation and risk of caries compared to standard sugars. We field technical questions about solubility curves, interaction with other monosaccharides, and its compliance with regulatory guidelines. Each answer tracks back to experience gained with real-world usage, not just academic tables.
In biotech, Beta-D-Allose means something special for folks running high-throughput enzyme tests or probing carbohydrate metabolism. It acts as a substrate in rare enzymatic pathways, letting researchers examine differentiation in microbial growth, selective utilization, and transport mechanisms. Several industrial customers have adapted our Beta-D-Allose for bacterial culture media to optimize yield in recombinant protein production. We tune mesh size and dissolveability based on their feedback, saving them steps during sterilization and feeding cycles.
Our factory doesn’t chase headlines about “next-generation” sweeteners — we chase batch-to-batch consistency, real-world solubility, and the technical support that follows if you run into a challenge. Manufacturing Beta-D-Allose at scale taught us simple lessons. The difference between laboratory and kilogram reactors isn’t just volume — it’s the potential for small variables to multiply if unchecked. Every temperature shift or timing irregularity can nudge stereochemistry off-course, so sensors and manual in-process checks anchor each shift. When a moisture meter deviates, our technicians watch for shifts in crystalline habit and catch issues before packing.
Our team understands the frustration of getting poorly characterized material — off-smells, irregular particle size, or slow dissolution. Run-to-run analytics aren’t optional here: each finished batch of Beta-D-Allose earns a pack of documentation, HPLC traces, and moisture logs. If you ever call us about a problem, you reach the technical staff who know the line, not a call center with scripts.
Conversations with clients often circle back to how Beta-D-Allose compares with its more common chemical relatives. On a molecular level, it resembles glucose, yet just one shift at the C-3 hydroxyl opens new physiological pathways. Traditional sugars like sucrose, fructose, or regular glucose flood the bloodstream with rapid glycemic impact. Beta-D-Allose changes that story — absorption tends to be much slower, and metabolism less direct, offering lower glycemic response and greater dietary flexibility.
Some buy Beta-D-Allose expecting the same functionality as D-allulose or tagatose. Experience shows each rare sugar creates its own impact. Unlike D-allulose, Beta-D-Allose doesn’t have the recognized bulk laxative effect at moderate doses, which customers targeting broad population groups appreciate. Allulose delivers a soft, rounded sweetness — Beta-D-Allose offers just one-tenth the sweetness of sucrose, allowing recipes that highlight other flavor notes, or deliver clean, neutral matrix. You get chemical stability akin to D-glucose, yet without the high oxidative sensitivity sometimes flagged with other epimers.
On the technical side, we watch how various rare sugars behave under pH stress or long storage. Beta-D-Allose typically outperforms other sugars in chemical stability. In solid-state food processing or dry pharma blends, degradation or color changes happen less often, and the finished product remains photostable and contamination-resistant.
For researchers, Beta-D-Allose stands out for allowing unique metabolic studies. It’s a reliable control for uptake and utilization studies in both prokaryotic and eukaryotic systems. Compared to more mainstream rare sugars — which sometimes attract regulatory restrictions or inconsistent batch profiles from smaller resellers — our Beta-D-Allose comes supported by chemistry you can prove in a blind assay.
What sets our Beta-D-Allose apart isn’t a clever marketing claim; it’s the work that goes into ensuring scale, on-time delivery, and real-world utility. We built production lines to move quickly from pilot to full-scale batches, using reactors that can handle temperature gradients and avoid racemization or incomplete conversions. Every kilogram that leaves our plant has spent time under eyes that know what a deviation looks like. We run repeated purification steps to eliminate glucose residues, checking by HPLC against authenticated reference standards.
We have seen materials from other producers that arrive with off-white color, erratic flow properties, or inconsistent solubility. Our focus remains on pinning every lot to a traceable reference, maintaining ISO-compliant logs, and storing retain samples in climate-controlled rooms for every month of the year. If a batch doesn’t meet our expectations, it doesn’t leave our doors — that keeps our client complaints to a minimum and lets us sleep at night.
For customers in the EU or North America, we navigate changing regulatory tides and offer detailed traceability from raw material to finished container. We can support user audits and technical visits, sharing how raw sugar stocks are hydrolyzed, isomerized, and purified. Each time we hand over a lot, we offer technical data that shows how the product behaves in formulation — not just ideal conditions, but actual stress tests that match commercial realities.
One of our long-term partners, a mid-size ingredients developer, began working with Beta-D-Allose to reformulate their reduced-sugar fruit fillings. They struggled with common replacements that caused crystallization, gritty mouthfeel, or rapid spoilage. Using our Beta-D-Allose batch, their food scientists cut sugar levels without losing texture, and shelf-life remained stable through simulated transport. They later shared analytics showing that the final bake color tracked with sucrose controls, an outcome that surprised their own R&D team.
Pharmaceutical customers often challenge us to screen polyol blends for stability at elevated temperatures. In one stability program, an antacid tablet formulation showed no visual decomposition after three months at 40°C — a result not seen with standard dextrose blends. These aren’t isolated victories — they represent cumulative feedback from users who want problems solved and batches they can count on.
Researchers sometimes face hurdles scaling from lab to production size. A US-based university recently scaled its microbial growth experiments and required more precise mesh customization for its fermenter. We adjusted our granulation, delivered a dozen pilot lots, and sent certificates for each one. Their fermentation yields rose, and they avoided the filter clogging reported with other vendors. Practical adjustments, not glossy brochures, keep clients loyal year after year.
Scaling up Beta-D-Allose production isn’t a hands-off task. Impurities sneak in at the smallest shift, and odd flavors start cropping up if the process drifts outside critical parameters. Operators here have learned to trust experience over instructions — if the solution cloudiness creeps up, or the pH meanders, we take action before problems escalate. We don’t swap technical staff every quarter; most of our supervisors started on the line and know the detail you miss watching monitors in an office.
Supply chain interruptions pose a perennial risk. Over the years, world events or transport disruptions have suddenly squeezed our access to key raw sugars. We weathered these by doubling up on critical suppliers, establishing long-term contracts, and setting aside buffer stocks in temperature-controlled areas. Our process tolerates certain feedstock variability, but our staff will not cut corners. If ratios edge out of range, the run halts, and corrective testing starts before the batch resumes.
Customer requests sometimes stretch beyond documented strengths. A beverage formulator asked if Beta-D-Allose could survive an ultra-high temperature fill line with minimal breakdown. Together, we ran pilot tests, adjusted cooling rates, checked post-process sugars, and recommended tweaks. Supporting these experiments builds both our technical knowledge and client trust.
In analytical chemistry, requests come in to document trace elements or unusual contaminants. We invested in more advanced testing equipment and trained staff to spot even low-level anomalies that might disrupt sensitive end uses, especially in pharma or biotech settings. We calibrate daily and keep strict logs for every instrument, removing any doubt for our customers.
Quality isn’t a buzzword tossed about at meetings; it’s the rhythm set by each shift, every day. Our plant learned tough lessons about what happens when lines chase production numbers at the cost of geometry, color, or purity. In the early days, we caught unstable lots only because technicians trusted their own senses and flagged problems others overlooked. We promote a continuous dialogue between production and analytical teams, making improvements not only when a complaint lands but before it has a chance to occur.
Our documentation practices reflect the realities of regulated industries: every sample and analytical run ties back to batch records you can audit. We maintain full records of our critical control points, monitor every step, and record human interventions alongside automated logs. Food and pharma partners appreciate being able to match their own product outcomes directly to our manufacturing records.
We see recalls and compliance failures in the industry from others who take shortcuts or conceal process weaknesses. We prefer the hard road — making incremental changes to preserve integrity and avoid surprises in the hands of downstream processors. Long-term relationships grow from small decisions made in the thick of production, not through grand pledges or slogans.
The story of rare sugars is only beginning, and customers keep finding incredible ways to extend Beta-D-Allose’s reach. It informs projects in functional foods, medical diets, and targeted pharmaceutical blends. Diet trends and health regulations create steady demand, but what keeps us agile is the constant back-and-forth with partners exploring new formulations. Each novel usage pushes us to improve process yields, shorten lead times, and pin our analytics ever tighter.
On site, we invest in new reactors and more efficient separation equipment. These aren’t just for scale; they help us refine the crystalline habit, improve lot-to-lot homogeneity, and push trace impurity levels even lower. Our view is that every advance here means fewer headaches and unexpected complications for the end user. In collaboration with academic partners, our process chemists adapt and trial new isomerization routes, keeping us ahead of global developments.
Environmental responsibility remains on our agenda — we minimize energy use by heat recovery, recycle as much water as possible, and treat all process effluent to standards exceeding local regulation. Internal reviews ensure that production increases never come at the cost of worker safety, air quality, or unnecessary waste.
Rare sugars like Beta-D-Allose represent more than cutting-edge chemistry; they’re products of trust and experience that cross from production floor decisions to finished consumer benefits. The path from feedstock to finished powder involves problem-solving, adaptation, and consistent execution. In our experience, customers always come back for these qualities, whether they're reformulating a flagship food line or starting a new clinical trial.
We invite you to bring us your next application challenge or to visit our site. Here, you’ll see not just finished Beta-D-Allose, but the work, continuity, and commitment that shape each batch. In the world of rare sugars, we stand by the results in your hands — and that’s a distinction that makes all the difference.