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HS Code |
672826 |
| Product Name | Stevia Polysaccharides |
| Source | Stevia rebaudiana leaves |
| Appearance | white to off-white powder |
| Solubility | water-soluble |
| Molecular Weight | varies, typically 10-200 kDa |
| Main Components | polysaccharides, minor proteins |
| Sweetness | non-sweet (distinct from steviol glycosides) |
| Applications | food additive, functional ingredient |
| Stability | stable to heat and pH changes |
| Bioactivity | antioxidant and immunomodulatory effects |
As an accredited Stevia Polysaccharides factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Stevia Polysaccharides, 1kg, packed in a sealed, food-grade aluminum foil bag with clear labeling, moisture-proof and light-resistant. |
| Shipping | Stevia Polysaccharides are securely packaged in sealed, food-grade containers to preserve quality during transit. Shipments are dispatched via reliable couriers, with temperature and moisture safeguards as required. Shipping documentation, including safety data sheets, accompanies each order. Delivery typically takes 5–10 business days, depending on destination and regulatory requirements. |
| Storage | Stevia polysaccharides should be stored in a cool, dry, and well-ventilated area, away from direct sunlight and moisture. The storage container must be tightly sealed and made of material compatible with food ingredients to prevent contamination. Keep the product away from strong oxidizing agents, acids, and bases. Recommended storage temperature is generally below 25°C (77°F) to maintain stability and quality. |
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Purity 98%: Stevia Polysaccharides with 98% purity is used in low-calorie beverage formulations, where it enhances sweetness intensity while maintaining a natural profile. Molecular Weight 300 kDa: Stevia Polysaccharides with a molecular weight of 300 kDa is used in gummy candies, where it improves texture and chewiness. Solubility 25°C: Stevia Polysaccharides with high solubility at 25°C is used in instant drink powders, where it ensures rapid and complete dissolution. Stability Temperature 120°C: Stevia Polysaccharides with stability temperature up to 120°C is used in baked goods production, where it retains functional properties after thermal processing. Viscosity Grade 150 mPa·s: Stevia Polysaccharides with a viscosity grade of 150 mPa·s is used in yogurt, where it provides desirable thickness and mouthfeel. Particle Size D90 < 50 µm: Stevia Polysaccharides with D90 particle size under 50 µm is used in powdered supplements, where it offers smooth blending without residue. Ash Content < 0.5%: Stevia Polysaccharides with ash content below 0.5% is used in pharmaceutical syrups, where it ensures product purity and safety. pH Stability Range 3–8: Stevia Polysaccharides stable in pH range 3–8 is used in acidic soft drinks, where it maintains efficacy and sweetness across varied formulations. |
Competitive Stevia Polysaccharides prices that fit your budget—flexible terms and customized quotes for every order.
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Every day on the production line, we see stevia polysaccharides make their way from raw material to a finished functional ingredient. These aren’t isolated molecules—these are complex sugar chains we’ve learned to extract and refine from Stevia rebaudiana leaves. Unlike the pure steviol glycosides many people already know for their sweetness, polysaccharides open up entirely new uses. The texture, binding, and functional enhancements make them valuable for anyone looking to move beyond simple sweetening.
From start to finish, our crew pays attention to the details others might overlook. We use water-based extraction, because we see that solvents undermine both purity and safety. Every batch runs through our triple-filtration system, where we remove plant debris and residual proteins, leaving behind those long-chain sugars. The result comes out as a pure white to off-white powder, consistently tested between 95% and 98% polysaccharide content (model SP210). We don’t chase purity for marketing—our aim is functionality. That’s what our bakery clients demand, and what producers of nutritional beverages call us for.
There’s always a number on the bag, but the chemistry matters more. Stevia polysaccharides exhibit a molecular weight that falls between 20,000 and 80,000 Daltons, giving them the thickening power many applications require without turning products into glue. That long chain length delivers viscosity, but also gives better moisture migration control. Our lab spends each week measuring these numbers—not because clients ask, but because a missed spec can ruin a full run of gummies, snack bars, or dairy alternatives.
Moisture matters, so we keep our specs tight. Finished powder holds less than 7% moisture, limiting caking and extending shelf life. Granulation size ranges from extra-fine (passing a 100-mesh sieve) to standard grade (60-mesh), since we know texture must match the end use. All powder is heat-treated to limit microbial load—a decision we made after one humid summer batch taught us just how fast things can spoil. Now, bacteria counts sit below 1,000 CFU/g, and our food safety techs double check each lot manually.
Ordinary stevia sweeteners can’t build body or texture—they stick to sweetness and leave everything else to other additives. Stevia polysaccharides move past this single-note functionality. We see beverage producers add these into fiber-enriched drinks because the polysaccharides dissolve easily in cold water and stay stable down to pH 3. That kind of acid resistance gets real when you run high-acid juices or fermented plant drinks.
Bakers use our polysaccharides differently. Rather than leaning on gums or modified starches, they blend in our powder to improve crumb softness and moisture retention. In side-by-side tests inside our pilot bakery, we’ve watched shelf life extend by two days or more compared to untreated controls. The same mechanism gives gluten-free doughs improved cell structure. Texture is less crumbly, and the eating experience moves closer to conventional wheat products—without extra chemicals or mystery blends.
In plant-based dairy, formulators use polysaccharides for mouthfeel that mimics dairy fat. Our technical team spent months working with coconut- and oat-based quad blends, comparing stevia polysaccharides with carrageenan, guar gum, and inulin. Results show ever so slightly more consistent viscosity and noticeably less aftertaste than some traditional thickeners. This direct feedback comes from both large-scale processors and artisanal ice cream shops, highlighting the usefulness of these clean-label carbohydrates.
Nutraceutical gummies benefit as well. Polysaccharides allow for reduced sugar matrices without making a hard, dry chew. We’ve worked closely with a handful of supplement brands who wanted to delete gelatin, add fiber, and cut sweetness all in one step. By dialing in the hydration and heating steps, gums keep a tender bite and hold their shape on store shelves under normal temperatures.
Many companies label “stevia extract” on the package—usually referring to high-purity steviol glycosides such as Reb A or Reb D. These target sweetness. Our experience tells us that most users don’t realize that 100% glycoside extract delivers little beyond flavor and sweetness intensity. Sometimes it struggles with bitterness or a lingering aftertaste, so formulators bury it behind masking agents. In contrast, stevia polysaccharides work quietly behind the scenes, delivering function without sweetening. They let the original stevia component play its part, without amplifying off-notes.
We hear from food developers who thought all stevia was the same. This confusion often leads to failed recipes. One beverage partner once tried to thicken a sugar-free tea with steviol glycoside powder alone: the result was thin and watery, with uneven dispersion after storage. After consulting with our team, they switched to the polysaccharide grade. Stability improved, mouthfeel thickened, and complaints dropped. It’s these hands-on lessons that set the two stevia products clearly apart.
Stevia polysaccharides push further into the “clean label” territory than most hydrocolloids. Pulling complex carbohydrates straight from stevia leaves, without chemical modification, reduces label clutter and increases supply chain transparency. While some contract manufacturers blend hydrocolloids from multiple botanical sources—or employ chemical treatments—our process holds true to natural extraction.
No batch runs without raw material, and growers in our partner network know our standards. We source directly from stevia farms with documented planting and harvesting records. Our in-house agronomists visit fields and run leaf cuttings through our own chromatographic checks. Leaf age, growing condition, and plant variety all impact finished powder specs—so we never blindly accept bulk shipments without field verification. We know our product quality starts long before the extractor ever runs.
Warehousing remains simple—cool, dry, and light-controlled environments keep our lots stable over twelve months. We mark each drum with date and field-of-origin codes, so any product can be traced back to the acre it grew on. Every major buyer tours our facilities if they wish, and some do spot audits each quarter. We support this because the only way to build trust in a new category like stevia polysaccharides is through open and full documentation.
Food safety claims don’t hold water without proof. Each batch submits to microbiological analysis, and certificate copies stay on file for all shipments. Mold counts, yeast, and pathogen checks run ahead of release. We keep the process strictly free from cross-contact allergens, as we run only one plant source and sanitize between runs. Our customers in the baby food and sports supplement industries depend on this rigour. For global export, our records remain available for third-party audits.
Stevia remains a non-GMO crop in our pipeline. Farmers grow non-GMO seed stock under contract, and we regularly test leaves and powder for GMO markers. This gives downstream partners confidence when selling to regions with strict labeling rules. Every spec sheet, lot, and delivery ticket notes this point, because it’s more than a checkbox—it’s a matter of ethics for us and the food system.
Food science isn’t abstract inside our plant. Our own R&D team works alongside customer teams to develop new uses for stevia polysaccharides. One recent collaboration focused on creating plant-based pudding with shelf stability. The developer needed to cut sodium and avoid animal thickeners—yet the old hydrocolloid blend wouldn’t set the product well at reduced salt. We supplied trial lots, and after a few rounds of formula tweaking, the new pudding sets at fridge and ambient temperatures with a pleasant spoonable texture. End product costs decreased, and sensory panels scored the stevia-rich sample higher than the carrageenan control.
For beverage applications, we’ve seen sports drink brands increase the soluble fiber in finished drinks with stevia polysaccharides. One notable case involved reducing sugar by 30%, adding fiber claims without extra calories, and preserving clear solution in plastic bottles for four months at room temperature. Customers notice improved mouthfeel and digestive tolerance. This solves the previously difficult problem of maintaining clarity and solubility, especially when the product faces high-speed filling and international shipping.
Gluten-free baking is another application where our product shines. Traditional loaves crumble and stale quickly when wheat proteins disappear. By integrating low levels of polysaccharide powder into their blends, gluten-free bakeries have extended softness and improved internal cell structure. After months of side-by-side shelf-life testing, several clients standardized on our product to stabilize muffins and bread, cutting waste rates by nearly a third.
Few people see the technical hurdles we navigate in production. Extracting polysaccharides at commercial scale brings batch-to-batch variability: raw leaves change composition with every harvest, precipitation, and fertilizer schedule. This feeds through into molecular weight, ash content, and color of the powder. The challenge lies in keeping specs inside narrow lines without losing yield or purity. Smart controls and real-time analytics now help, but human expertise remains essential—our lead operators and technicians adjust batch sequences on the fly.
Quality control means continuous, year-round vigilance. Drying too hot scorches carbohydrates and darkens powder. Drying too slow risks growth of spoilage organisms. Filtration removes fine particulate but can strip lighter chains if not monitored closely. We invest in both labor and equipment for these steps, as customer feedback travels fast—and no brand wants off-flavors or inconsistent texture in the market.
Supply chain bottlenecks sometimes challenge our production cycle. A drought or unusual cold snap on a major stevia plantation can drop incoming leaf quality. To buffer this variability, we keep rotating contracts with growers in different regions. We’ve learned that over-reliance on a single supply line puts the factory at risk of missing deadlines and losing product consistency. This season, new grower relationships in emerging agricultural zones helped us smooth out the supply and keep the quality high, regardless of any one region’s weather.
The world pays attention to sustainability, and so do we. Stevia crops use significantly less water than sugar cane and beet. Our own process runs on recirculated water loops, minimizing waste. We send plant biomass back to the farm as soil amendment. Our ongoing energy efficiency projects include heat exchangers that capture and reuse energy across sequential extraction steps. Reducing ecological impact makes sense not just as a value, but as a necessity to maintain a long-term supply.
Packaging waste gets similar attention. Customers asked us for alternatives to plastic-lined bags, so our packing plant now offers recyclable paperboard drums that maintain powder integrity for up to nine months. On a logistical level, we work with shippers on consolidated loads, reducing per-shipment carbon footprint. It’s not perfect, but every efficiency ultimately contributes to both profit and reduced environmental stress.
Stevia polysaccharides hold food-grade status under multiple regulatory regimes. Our compliance department tracks status in major global jurisdictions, conducting regular reviews to keep documentation current. Production lines meet standards for HACCP, and our internal audits lock in alignment with relevant food additive codes. We register product dossiers with the authorities as requested by downstream brands and stay in regular discussion with scientific advisors and regulators on new ingredient approvals and thresholds. This has helped to prevent expensive recalls and market withdrawal incidents in both Europe and Asia.
The regulatory environment keeps evolving. Years ago, stevia faced skepticism in major export markets. Today, growing research confirms the safety and functionality of its polysaccharide fraction. Still, vigilance stays high, with our company participating in industry groups and technical committees. A single failing in documentation or an unapproved ingredient could close entire categories, and the stakes remain high for all involved in the supply chain. We meet regularly with legal and scientific advisors to review upcoming changes and make preemptive adjustments rather than scramble in response.
The food market keeps shifting toward reduced sugar and higher-fiber profiles. Consumers expect clear labels, safety traceability, and a lower environmental impact. Polysaccharides deliver on all these vectors—less as a trend, more an evolution. For many years, we fielded requests from clients frustrated by gums with uncertain origins, non-customer-friendly ingredient names, and off tastes. With every factory batch, feedback loop, and technical call, we’re able to tighten our processes and keep raising performance. Our team leads technical support calls with end-users to help adapt recipes and troubleshoot issues, and this has become a major point of difference compared to other suppliers.
Ongoing research may yield even more from the unique chemistry of stevia. Collaborative work with universities aims to explore antioxidant properties of these polysaccharides—findings remain in the early stages, but prospects for both nutritional and application-based discovery remain high. We see potential in expanding into prebiotic uses, improved encapsulation systems, and natural stabilizer blends for fortification-ready foods.
Looking at the bigger picture, our journey with stevia polysaccharides stands as a direct conversation with the ingredient’s future. Feedback from real users, daily production runs, and market changes continually teach us more than many scientific papers. Sharing those insights—failures and fixes both—helps keep our product valuable and trusted across food, beverage, and nutraceutical markets. We remain committed to advancing clean, responsible, and forward-thinking polysaccharide manufacturing, ready to tackle the next project or challenge that comes our way.