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HS Code |
595627 |
| Product Name | Stachyose Tetrahydrate |
| Synonyms | Stachyose hydrate, β-D-Galactosylsucrose tetrahydrate |
| Molecular Formula | C24H42O21 · 4H2O |
| Molecular Weight | 666.61 g/mol |
| Cas Number | 10094-58-3 |
| Appearance | White crystalline powder |
| Solubility In Water | Soluble |
| Melting Point | Starts to decompose above 112°C |
| Purity | Typically ≥98% |
| Storage Condition | Store at 2-8°C, dry and tightly closed |
| Ec Number | 233-404-9 |
| Ph In Water | 4.0 - 6.0 (5% solution) |
| Odor | Odorless |
As an accredited Stachyose Tetrahydrate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Stachyose Tetrahydrate is packaged in a 500g sealed, amber HDPE bottle with a tamper-evident cap and clear labeling. |
| Shipping | Stachyose Tetrahydrate should be shipped in tightly sealed containers to protect it from moisture and contamination. It is typically transported at ambient temperature and protected from direct sunlight. Ensure compliance with regulatory guidelines, including proper labeling and documentation. Handle with care to avoid damage during transit. Not classified as hazardous for shipping. |
| Storage | Stachyose Tetrahydrate should be stored in a tightly sealed container, protected from moisture and light. Keep it in a cool, dry place, preferably at 2–8°C (refrigerated), to maintain stability and prevent degradation. Avoid exposing it to heat and humidity, and ensure the storage area is well-ventilated and free from incompatible substances. |
Applications of Stachyose Tetrahydrate in Industrial ManufacturingStachyose tetrahydrate serves as a functional ingredient in several high-value industrial sectors, with specialized roles determined by its unique oligosaccharide structure. As a direct producer, we focus on applications supported by established market demand and verified industrial adoption, ensuring accurate compliance, consistent supply, and batch-level traceability for global B2B customers. 1. Functional Food and Beverage FortificationIn the nutraceutical food and beverage industry, manufacturers add stachyose tetrahydrate as a prebiotic oligosaccharide to expand the dietary fiber content and support digestive health claims on clean-label products. Integration centers around formulating digestive-enhancing drinks, dairy substitutes, and functional yogurts, where its low sweetness profile allows a high fiber load without altering taste profiles. The regulatory environment demands that labeling meets local food additive limits, and manufacturers must validate fiber claims through analytical controls post-production. Industry compliance standards
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2. Infant Formula Prebiotic Fiber SupplementationInfant formula manufacturers utilize stachyose tetrahydrate as a select milk oligosaccharide analogue to improve the oligosaccharide profile closer to human milk, targeting the development of gut flora in infants. Its inclusion must strictly adhere to global infant nutrition law, requiring precision batch QC to confirm oligosaccharide identity and purity. Its low allergenic risk and neutral flavor support incorporation into both bovine and hypoallergenic base formulas. Processing requires tight control to ensure heat stability during wet blending and spray drying without degrading functional oligosaccharide structure. Industry compliance standards
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3. Pharmaceutical Excipient for Oral Dosage FormsPharmaceutical industries incorporate stachyose tetrahydrate as a functional excipient in controlled-release tablet and capsule formulations. Its profile as a low-sweetness, non-cariogenic prebiotic aids in masking unpleasant API tastes and supporting colon-targeted delivery of active substances. Compliance with pharmacopeial excipient standards requires thorough identity, purity, and microbial limit testing per batch prior to GMP batch release for medicinal production. Integration calls for uniform mixing in powder blends and compatibility checks with other excipients and actives to ensure dosage form stability throughout projected shelf life. Industry compliance standards
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4. Synbiotic Animal Feed AdditiveAnimal nutrition and feed manufacturers apply stachyose tetrahydrate as a synbiotic additive to stimulate beneficial gut microbiota development in juvenile and high-performance livestock, particularly in poultry, swine, and aquaculture starter feeds. Inclusion responds to non-antibiotic growth promotion strategies, with its stability allowing integration early in pelleting or extrusion up to moderate temperatures. Regulatory programs require residue tests and adherence to limits on permissible prebiotic loadings to ensure animal product safety and compliance with global livestock feed law. Industry compliance standards
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5. Low-Glycemic Bakery and Confectionery DevelopmentIndustrial bakeries and confectioners deploy stachyose tetrahydrate to formulate low-glycemic index products aimed at health-focused consumer markets, particularly for glucose management and reduced sugar claims. Its mild sweetness and thermal resilience suit it for inclusion in baked goods, energy bars, and sugar-reduced candies without sacrificing texture or process flow. Regulatory frameworks require precise nutrition labeling and compliance with glycemic load claims, especially in export-driven product lines subject to multi-jurisdictional food labeling audits. Industry compliance standards
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Producing Stachyose Tetrahydrate takes patience, technical finesse, and a willingness to work through inevitable setbacks. Every batch tells a story that connects the centuries-old craft of extraction and purification with the latest advances in quality control. I’ve watched the process mature from modest beginnings—tubs and pails and near-countless tests of solubility—into an operation built on an ecosystem of tanks, columns, and the hum of constant monitoring. All this effort serves a clear goal: a pure, stable product for the scientists and manufacturers who rely on it.
We produce Stachyose Tetrahydrate as a crystalline powder, well-known for its exceptional water solubility and cleanliness. The product leaves our facility as uniform, sparkling crystals—closely monitored from source to package. Contaminants and byproducts pose risks for both analytical and practical work, so our sorters and testers scrutinize every kilogram for residual sugars or impurities. Specifications such as loss on drying, heavy metal thresholds, and optical rotation numbers anchor our batch records, and we document all measurements. Buyers often ask about moisture content. The tetrahydrate form naturally holds four water molecules per stachyose molecule, and any drift in that balance—whether through careless storage or rough handling—changes how the ingredient performs. To keep this delicate hydration level, we train our team to keep conditions tightly controlled from the crystallizer through final packing.
The industry’s focus on traceability is more than a regulatory checkbox for us. Plant-based sugars attract interest from food makers concerned about allergens, and from researchers targeting the role of oligosaccharides in health. Rigorous tracking calms their concerns. From the arrival of raw plant materials forward, we trace every step, linking each output to a batch file that travels onward with the order. By refusing shortcuts and keeping our process open for audit, we back every technical claim with genuine transparency.
In the lab, Stachyose Tetrahydrate serves as far more than an inert filler. Its primary draw lies in its use as a prebiotic—a tool for shifting the balance of gut microbiota or improving digestive health outcomes. Functional food manufacturers build entire product lines around stachyose powders, touting their unique digestion profile compared to simpler sugars.
We see stachyose’s impact most clearly in nutrition research, especially in trials that track reductions in harmful microbe populations or increases in beneficial bifidobacteria when stachyose forms part of a dietary supplement. Our partners in academia and health food manufacturing return to stachyose again and again for its ability to encourage beneficial changes in the human microbiome without the sweetness or calorie load found in standard sugars.
As a manufacturer, keeping purity high matters for more than regulatory reasons; trace compounds can skew research findings and impact human health. Stachyose powder made without proper attention invites headaches for the end user—unstable measurements, batch inconsistencies, and unreliable results. We solve these by keeping our supply chain tight, using food-grade stainless steel equipment, and assigning veterans to every key stage.
Our Stachyose Tetrahydrate model is finely milled for full solubility in both cold and hot water. End users report favorably on this point. No one wants to spend hours coaxing crystals into solution or sifting out undissolved grit from formulations. Years ago, we fielded repeated complaints about “clumping,” so we overhauled our dryer designs and refined our precipitation step, and the complaints finally faded.
Typical concentration achieves more than 98% stachyose by HPLC. Ash values stay well below industry limits, and heavy metals rarely register. For nutrition applications, this tight control delivers a predictable prebiotic response. For chemical synthesis or diagnostic assay use, low interference from sugars such as raffinose or sucrose becomes essential.
Still, even the best-laid plans meet real-world problems. One winter, an unexpected cold snap froze part of our filtration line. Slow melting altered the humidity inside the plant, and crystals formed with a haze of moisture we’d never encountered before. It’s moments like these that force a re-examination of each safeguard, and these small “tragedies” raise the bar each time. Over the years, our operation learned that investing in active dehumidification and continuous monitoring makes for a far more reliable ingredient, especially in climates with wide temperature swings.
On the food side, clients choose this oligosaccharide when working on fiber-rich bakery products, yogurts, and nutritional supplements aimed at boosting gut health. Since stachyose does not spike blood glucose or add noticeable sweetness, it easily fits the needs of those with strict dietary requirements or anyone turning to lower-glycemic foods. Large-scale clients often blend stachyose with inulin or FOS to fine-tune taste and function. The unique four-sugar structure, along with the stable tetrahydrate form, permits these blends to stand up to thermal processing better than more fragile carbohydrates.
Outside food and health, Stachyose Tetrahydrate finds a niche in biological research. Its specific oligosaccharide chain makes it a valuable substrate in microbial fermentation and enzyme assays. Scientists appreciate knowing impurity levels before running tests. Impurities in this molecule, even parts per million, obscure fluorescence or enzyme activity assays. We get feedback from researchers running into erratic readings with reprocessed or off-brand sugars, who then turn to us for reliable results.
The shelf is crowded with possible alternatives—raffinose, sucrose, inulin, FOS—but the tetrahydrate stachyose offers a few advantages that come directly from our production experience. Compared to raffinose, stachyose delivers better prebiotic activity and higher selectivity for certain beneficial bacteria. Its extra galactose unit lets it resist easier breakdown by human digestive enzymes, ensuring it reaches the lower intestine where its function takes place. This subtle difference, seemingly minor, changes where and how the body digests the sugar, resulting in softer energy release and less gas formation than many other oligosaccharides.
Raffinose and stachyose originate in similar plant sources, but our extraction and purification process for stachyose needs significantly more steps. The tradeoff: investing more time and equipment yields a product with a far more predictable performance in both food and research settings.
Inulin and FOS fall under the general “prebiotics” banner, yet users point out the consistency of our stachyose in beverage or supplement formulations. Inulin can form cloudy dispersions or thick gels at high concentrations, while stachyose supports clear solutions and a neutral taste profile. We often run side-by-side tests with clients who need clarity in finished beverages, and stachyose earns its keep by saving downstream processing time and cost.
One common challenge with oligosaccharides involves batch-to-batch consistency. Some producers gamble on yield over reliability, occasionally letting residual saponins or sugars slip through to the final product. We have chosen the opposite tack—sacrifice the occasional kilogram in the name of tighter fractions. This discipline has won us repeat business with firms burned by too many “off” batches from less careful suppliers.
Sourcing raw plant material, usually from legumes, sets the foundation for everything downstream. Plants grown in unsupervised soils or under variable weather introduce their own quirks into the extraction step. We learned this the hard way. There was a year when a particularly rainy harvest brought us beans heavy with foreign biological debris. The product coming out of our evaporation columns changed—solids content fluctuated, filtration times dragged out, and yield dropped. The cure lay in getting involved further up the supply chain. Now we visit sites, sample fields, and insist on proper drying before transport. These habits, tedious as they are, give birth to dependable raw material for every batch.
Food technologists value repeatability more than most end users. Every time the ingredient profile shifts, new questions pop up about interaction with proteins, shelf-life of the final product, or consistency of prebiotic claims. By weathering years of these customer trials and audits, our facility has learned how to control particle size, packaging atmosphere, and temperature exposure. It’s not about producing a commodity powder in bulk. Instead, the focus turns to supporting teams pushing the boundaries of food functionality.
Recent years brought more collaboration. Customers come through our plant armed with new analytical protocols and push us to stretch past regulatory minimums. This pressure sharpened our methods—tighter HPLC calibration, faster batch records, and a standing offer to return a product if it doesn’t meet standard. Clients investing in shelf-stable snack bars, sports drinks, or advanced dairy alternatives rely on these habits to avoid project delays.
An essential lesson for every stachyose plant operator involves the truth about water content. Tetrahydrate compounds always risk drifting into pentahydrate or lower hydration states with unplanned moisture loss, or swelling with atmospheric humidity. Either event damages solubility and undermines shelf-stability. We keep our storage rooms at carefully leveled temperatures and humidity, cycling test batches from stock weekly to catch any drift early.
Microbial control also rears its head now and then. Residual moisture plus trace plant nutrients make perfect breeding grounds for unwanted bacteria or mold. The solution involves not only constant cleaning but a test-and-hold framework. No batch leaves our facility untested for microbial load, and if readings exceed our set points, the entire lot gets reprocessed or destroyed. This seems heavy-handed, but past lessons taught us that reoccurring contamination costs more in trust and time than vigilant prevention ever can.
The movement in diagnostics and microbiology for plant-derived oligosaccharides placed stachyose tetrahydrate in high demand. Most production lines never see the rigors of analytical testing—QC departments often only verify total sugar content and general purity. We consistently calibrate our systems for higher precision. Several biotech clients set strict limits on trace carbohydrates, requiring us to test against both standard and custom reference materials.
Researchers trust our batches because our facility invested in both personnel training and analytical backup. Every release certificate contains actual measurements, not averages or “typical values.” We collaborate with university labs to run real-world tests, sometimes adjusting our batch protocols in response to their findings.
Product developers in nutrition and beverage sectors return to stachyose when taste, stability, and function must blend seamlessly. Our ongoing interactions with R&D managers reveal consistent praise for its neutral flavor. In contrast, inulin and similar fibers introduce off-notes or require masking flavors in finished goods. The understated sweetness of stachyose supports subtle flavor balancing, not the overpowering effects seen with high-potency sweeteners.
Real-world stress tests—thermal cycling, freeze/thaw, long-term storage—confirm stachyose’s resilience in combined formulations. These findings echo the steady feedback we gather through ongoing partnerships and troubleshooting sessions onsite at customer plants. We often send our technical team directly to client facilities when unexpected gelling or other process hiccups appear. Documentation cannot replace hands-on knowledge when navigating unplanned process events.
The past decade saw a surge in products aimed at gut health, digestive wellness, and low-glycemic nutrition. As one of the backbone ingredients, stachyose tetrahydrate draws attention from both product designers and the agencies looking for proof behind label claims. We continue responding by fine-tuning lab support, updating traceability protocols, and remaining available for supplier audits. Trends move quickly, but by staying close to our partners and acting on direct feedback, we keep our stachyose relevant and effective.
The demands of global food and research markets drive our evolution. Building on hard-won lessons from thousands of batches, our process now mixes high-throughput automation with manual checkpoints where human judgment still matters. Traceability requirements press us toward better digital record-keeping, allowing quick responses to client and regulator questions.
Improving our facility isn’t just about shiny equipment. Ongoing staff training—both in plant safety and analytical skill—anchors every goal we set. Building a reliable supply of pure Stachyose Tetrahydrate means more than a certificate; it means putting time into the daily routines and refinements that strengthen our product at every stage.
Years of direct feedback, international research, and end-user results inform our approach to manufacturing. Engineers walk the plant floor with the same mindset as QC chemists and customer-facing teams. Every technical claim finds foundation in routine, real-world validation—whether in the form of field reports, troubleshooting stories, or visual inspection of the next shipment out the door.
The community of food and research professionals expects more than a mere bulk chemical. They look for consistency, technical partnership, and the certainty of knowing that one batch equals the last. We are committed to delivering on these principles. Our Stachyose Tetrahydrate has earned its reputation through diligence, collaboration, and an unflagging focus on purity that persists even as industry trends shift.