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HS Code |
306378 |
| Source | Sugarcane |
| Type | Polysaccharide |
| Appearance | White to off-white powder |
| Solubility | Water-soluble |
| Molecular Weight | Varies, typically high molecular weight |
| Composition | Primarily glucose units |
| Purity | Typically above 90% |
| Taste | Neutral or slightly sweet |
| Applications | Food, pharmaceuticals, cosmetics, and biomaterials |
| Storage Conditions | Cool, dry place, away from direct sunlight |
| Hygroscopicity | Hygroscopic in nature |
| Stability | Stable under normal conditions |
| Viscosity | Forms viscous solutions in water |
As an accredited Sugarcane Polysaccharide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Sugarcane Polysaccharide is packed in a 25 kg net weight fiber drum, lined with a food-grade polyethylene bag for protection. |
| Shipping | Sugarcane Polysaccharide is securely packaged in sealed, moisture-resistant containers to ensure product integrity during transit. It is shipped via air or sea freight, with careful handling to prevent contamination and exposure. Standard shipping documentation and safety data sheets accompany each shipment. Delivery times and methods are arranged per customer requirements. |
| Storage | Sugarcane polysaccharide should be stored in a cool, dry, and well-ventilated area, away from direct sunlight and moisture to prevent degradation. It must be kept in a tightly sealed container, clearly labeled, and protected from contamination. Storage temperature should ideally be below 25°C. Avoid exposure to strong oxidizing agents and chemicals to maintain stability and quality. |
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Purity 98%: Sugarcane Polysaccharide with purity 98% is used in pharmaceutical formulations, where it ensures high bioactive compound consistency and reduced impurities. Molecular Weight 500 kDa: Sugarcane Polysaccharide with molecular weight 500 kDa is used in cosmetic emulsions, where it enhances moisture retention and skin barrier function. Viscosity Grade 1500 cps: Sugarcane Polysaccharide with viscosity grade 1500 cps is used in food thickeners, where it provides stable and uniform texture. Particle Size <50 μm: Sugarcane Polysaccharide with particle size less than 50 μm is used in beverage clarification, where it improves solubility and suspension stability. Stability Temperature 120°C: Sugarcane Polysaccharide with stability temperature of 120°C is used in hot-fill beverage processing, where it maintains structural integrity and functional performance. pH Stability 3-9: Sugarcane Polysaccharide with pH stability range 3-9 is used in acidic dairy drinks, where it prevents precipitation and maintains product clarity. Ash Content <1%: Sugarcane Polysaccharide with ash content below 1% is used in nutraceutical capsules, where it ensures low mineral residue and optimal formulation safety. Water Solubility 99%: Sugarcane Polysaccharide with water solubility of 99% is used in instant food mixes, where it allows for rapid dispersion and homogeneous mixing. |
Competitive Sugarcane Polysaccharide prices that fit your budget—flexible terms and customized quotes for every order.
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We know firsthand the leap sugarcane polysaccharide has made in the industrial world. Having grown with this product for over a decade – refining, scaling production, and monitoring downstream processing – we've witnessed how a single ingredient from a well-known crop can carry so much value for food, pharmaceuticals, agriculture, construction materials, and daily household products. As a manufacturer, we rely heavily on careful fermentation and controlled extraction methods to deliver reliable batches, batch after batch, because customers expect consistency. Our facility houses equipment specifically calibrated for the purity, viscosity, and molecular structure requirements of sugarcane polysaccharide, driven by customer demand and industry standards.
What sets sugarcane polysaccharide apart from other plant-based polymers lies in its ability to create stable gels and retain water without introducing off-flavors, cloudiness, or graininess into the finished product. Our line focuses on both high-molecular-weight and low-molecular-weight variants. We categorize our flagship model as SCP-180, which maintains an average molecular size of around 1.8 million Daltons. Each batch remains free of residual pesticides and features a low-ash profile, making it an obvious pick for companies emphasizing clean-label solutions or exporting to regions with tighter regulations on food additives.
Unlike many similar plant-derived gums or starches, sugarcane polysaccharide delivers uncommonly clear solutions, even when used at elevated concentrations. Competitors based on corn, potato, or cassava often carry subtle flavors or browning tendencies during high-heat applications. Our sugarcane-based product avoids those issues because our in-house process targets problematic residuals early on. From our first extraction tank, we employ closed-loop filtration and temperature-controlled drying to lock in native characteristics.
Our current main model, SCP-180, arrives in light cream powder form. Particle size sits at a median of 80 mesh, balancing fast hydration in cold water with low settling in storage. Moisture content runs below 8%. We put each production lot through microbial testing before release. We know some industries look for specific viscosity ranges, so we adjust processing to reach 600-1,200 mPa•s, measured at 2% concentration, 25°C. For customers focusing on personal care or topical applications, we produce a finer SCP-180F grade that skips bleaching entirely to retain natural color and micronutrients.
We ship in double-sealed, food-safe bags, and we trace each lot to crop origin, because traceability in a global supply chain keeps partners confident in the end product. We’ve met repeated audits from international firms, and our team routinely shares full chromatographic fingerprints for key clients each quarter. The discipline and detail in every batch let us serve food processors who want performance and drug manufacturers who cannot accept batch-to-batch randomness.
In the food sector, major manufacturers shift to sugarcane polysaccharide to bridge texture in dairy alternatives, extend the shelf life of frozen items, and build a creamy mouthfeel without dairy, eggs, or chemical thickeners. Beverage clients appreciate its clarity and film-forming ability, which aid in stabilizing syrups, fruit pulps, and even naturally cloudy nut milk. For bakeries, we’ve seen teams cut fat content by substituting sugarcane polysaccharide for certain gums, reporting not only retained moisture and soft crumb texture, but improved resilience of gluten-free doughs under prolonged freeze-thaw cycles.
Pharma and nutraceutical companies rely on its high biocompatibility and low immunogenic profile. The polysaccharide acts as a matrix, locking bioactive molecules into controlled-release tablets or gels. We’ve built relationships with teams developing new oral suspensions, as sugarcane polysaccharide’s viscosity profile resists syneresis – the main challenge behind unstable, watery gels. When they visit our site, R&D teams get access to our pilot-scale blending, which helps them work out rheology issues before scaling up.
Agriculture blends find it indispensable, too. When crop scientists visit, they discuss the ability of sugarcane polysaccharide to act as a binder for seed coatings and slow-release fertilizer pellets. High water-retention capacity lends value to arid-climate cultivators facing erratic rainfall, who seek polymers that persist in harsh field conditions without breaking down too quickly. This feedback drives our polymer chemists to routinely tweak deacetylation degrees and branching, aiming to maximize field performance based on partner observations versus just basing specs on lab tests.
Beyond classical sectors, demand for renewable, plant-derived binders grows in paper, textiles, and eco-building materials. We collaborate with customers who focus on molded fiber packaging, where sugarcane polysaccharide adds both tensile strength and flexibility compared to traditional starches. Adhesive formulators have told us our SCP-180 brings less variability during mixing and does not gum up machinery, so crews clean extrusion dies and pumps less often between lots.
Those of us who manufacture on industrial scale see the multitude of plant-derived polymers on the market. Each source has tradeoffs. Corn starch dominates bulk volume because it’s cheap and plentiful, but filtered corn starch powders sometimes hold hidden proteins or allergens and can show batch-to-batch inconsistency depending on seasonal crop swings. Potato-based thickeners deliver appealing viscosity but struggle with flavor masking and lose structure under high acidity. Cassava and tapioca roots yield clear gels yet suffer texture loss in reheating and can brown under high-temperature vacuum drying. Guar or xanthan gum supplies rapid thickening but typically demand stabilization with salts, and the resulting gels can be stringy, making them problematic in fast-processing beverage lines.
In contrast, sugarcane polysaccharide offers a smoother viscosity curve and holds up through thermal cycling better than most natural thickeners we’ve run on our lines. Our own pilot studies, repeated each quarter, consistently show that sugarcane-derived gels survive three freeze-thaw cycles with minimal syneresis or graininess. This property matters as frozen ready-to-eat food grows as a sector, where consumer complaints about texture receive quick amplification on social media. Because our extraction methods keep the natural branching pattern, our product retains its film-forming ability through baking, pasteurization, and spray drying. This consistent process allows our partners to run multi-week production without reformulating blends for each lot.
Cost matters for our end users. Sugarcane’s natural yield and year-round supply in many parts of the world keep price stable compared to botanicals tied to seasonal harvests or subject to fungal contamination. Years with heavy monsoon, for instance, drive up prices for alternative plant gums due to crop loss, while sugarcane-derived polymer pricing has stayed comparatively steady. Since we source directly from nearby growers, we can guarantee not only lower transport-related emissions but fast raw material turnaround.
Our team’s day usually starts in the plant, reviewing fermentation times and batch analytics, always on alert for changes in raw cane quality as the seasons turn. We’ve invested in closed bioreactors, UV sterilization, and doubled up on chain-of-custody controls. Every lot gets scanned for heavy metals and mycotoxins, not just basic microbiology. Several years ago, we fielded a client concern about trace pesticide residues, so we retooled upstream handling—partnering with organic-certified sugarcane plantations where synthetic inputs are strictly controlled. This step, though costly at first, now assures our pharmaceutical partners who need polymers for injectable drug carriers.
Safe handling and environmental compliance come from experience. Sugarcane processing consumes energy, yet our newer water circulation system reduces wastewater output by over a third compared to older evaporators. After extracting polysaccharide, we channel the leftover fiber to neighboring farms as animal feed or as a base for compost. That circularity keeps disposal costs low, wins goodwill in the local community, and makes us a more attractive choice in sustainability audits.
Continual monitoring isn’t just a rule—it avoids costly product recalls and maintains a direct line of trust with customers. Early on, we realized that even a minor deviation in pH or time during extraction could introduce off-odors or unwanted coloration, especially as finished uses have shifted toward neutral-tasting and transparent matrices. Teams now spend less time troubleshooting and more time innovating new grades and specialty blends, knowing our root process delivers the basics, every time.
Industry standards evolve quickly, as regulatory agencies in the European Union, North America, and Asia keep tightening requirements on food and pharmaceutical raw materials. Sugarcane polysaccharide stands out as a compliant material in part because of its low allergen profile, GMO-free status, and natively gluten-free composition. As end consumers look for labels free of “chemical-sounding” additives, demand tilts toward ingredients with both scientific legitimacy and simple sourcing stories.
Major global retailers now insist on documentation tracking each ingredient lot back to field. Our digital systems record chain-of-custody, and our QA team interfaces with auditors who run random checks. We encountered a situation recently where a customer flagged a minor change in gelling strength during a production run. Because we kept detailed records of extraction time and input source, we pinpointed a batch tied to a rare seasonal drought, and quickly implemented corrective action. Only that level of traceability lets ingredient suppliers keep up with the pace and rigor of today’s brand expectations.
In medical fields, regulations also consider endotoxin content, solvent traces, and polymer structure. Our reaction to a tightening European Pharmacopeia standard for injectable-grade excipients was to partner with hospital researchers and start running our own bacterial endotoxin tests, extending beyond minimum compliance. That advanced screening has brought in new medical device clients using sugarcane polysaccharide for wound dressings and sustained-release gels, who need reassurance that each shipment meets both chemical and biological specifications.
Collaborations with universities and partner R&D labs keep us nimble. We sponsor pilot projects to test novel uses, such as edible food packaging films, blending with other biopolymers, or even using sugarcane polysaccharide as a matrix for cell culture. Recently, our technical team worked with a start-up trialing new hydroponic crop nutrient carriers. They faced persistent issues with clumping and uneven release from alternative polymers. After tinkering with chain-length modification, we provided a custom sugarcane-derived material that solved their problem, winning a long-term contract and contributing new data to the field.
Each year, we set aside part of our output for open trials with food designers and flavor houses exploring new clean-label recipes. Feedback from these clients steers minor process tweaks that translate back up the supply chain. As digital food manufacturing and 3D printing become mainstream, designers demand more fine-tuned performance from their hydrocolloids, driving our team to refine particle size distribution, hydration speed, and even local taste.
Our team fields requests from partners exploring sustainable, plant-sourced materials for bioplastics and molded packaging. Unlike starches from other roots, our sugarcane polysaccharide mixes cleanly with traditional bioplastic resins. Feedback highlights better dispersion and more flexible films. One multinational packaging group remarked that switching to our product cut down on breakage during transit tests, while printers dealing with variable humidity levels noted smaller shifts in material behavior.
There’s no avoiding that every natural ingredient bears limits tied to biology and external variables – variable rainfall, pest pressure, and regional soil conditions can affect raw material quality. Building resilience into the supply chain means working closely with growers and introducing early-stage screening to spot issues before they affect production batches. We run varietal trials on partner plantations, screening hundreds of sugarcane strains for both high yield and optimal polysaccharide output. By offering agronomy support and pre-contract guarantees to growers, we foster loyalty and ensure raw material continuity.
Price pressure comes from larger commoditized crops, yet the ability to demonstrate performance value wins over the cost discussion. Our technical teams provide detailed application support, helping clients see that, by shifting formulations toward sugarcane polysaccharide, they gain lower loss rates and reduced quality control issues – savings that outweigh upfront price differences.
Scaling up to meet fast-rising demand challenges any manufacturer. In the last five years, we’ve invested in modular equipment, automation in batch monitoring, and leaner maintenance routines to avoid bottlenecks. Technical specialists keep a close eye on process water reuse and energy recovery, pushing plant efficiency while upholding product safety and traceability.
For the long term, producing sugarcane polysaccharide involves more than mixing and packaging. It calls for a constant focus on both the local farming base and the rapidly changing requirements of international manufacturing. Our customers demand quality and consistency, but increasingly, they ask for sustainability, traceability, and responsible stewardship up and down the supply chain.
With each ton produced, we build on our knowledge and feedback, adapting techniques and learning from every batch. As new uses for sugarcane polysaccharide emerge, we remain committed to keeping honest communication and deep engagement with R&D partners, manufacturers, and end users. Our work continues to shape sugarcane polysaccharide not as a commodity ingredient, but as a vital backbone for future-facing, cleaner, and more functional products across the world.