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Beta-(1,3)-D-Glucan

    • Product Name Beta-(1,3)-D-Glucan
    • Alias Curdlan
    • Einecs 618-503-1
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
    VTB
    Specifications

    HS Code

    649253

    Chemical Name Beta-(1,3)-D-Glucan
    Molecular Formula (C6H10O5)n
    Molecular Weight Varies (polymer)
    Structure Linear homopolymer of glucose with β-1,3 linkages
    Appearance White to off-white powder
    Solubility Insoluble in cold water, partially soluble in warm water
    Source Derived from the cell walls of fungi, yeasts, and some cereals
    Function Immunomodulator and diagnostic marker
    Cas Number 9041-22-9
    Storage Conditions Store in a cool, dry place
    Purity Typically >95%
    Melting Point Decomposes before melting
    Application Used in assays for fungal infection detection
    Synonyms 1,3-beta-D-glucan, β-1,3-glucan
    Ph Neutral to slightly acidic (in solution)

    As an accredited Beta-(1,3)-D-Glucan factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Beta-(1,3)-D-Glucan is packaged in a sealed, amber glass vial containing 100 mg, with a tamper-evident cap and detailed labeling.
    Shipping Beta-(1,3)-D-Glucan is shipped in sealed, tamper-evident containers to ensure product integrity. It is transported under dry, ambient conditions and protected from light and moisture. Appropriate labeling and documentation, including safety data sheets (SDS), accompany all shipments to comply with regulations and ensure safe handling during transit.
    Storage **Beta-(1,3)-D-Glucan should be stored in a tightly sealed container at 2-8°C (refrigerated), protected from light, moisture, and heat. Avoid prolonged exposure to air and humidity to prevent degradation. Store separately from incompatible substances, such as strong oxidizers. Ensure the storage area is dry, clean, and well-ventilated to maintain the compound’s stability and quality.**
    Application of Beta-(1,3)-D-Glucan

    Applications of Beta-(1,3)-D-Glucan in Industrial Manufacturing

    As a direct manufacturer specializing in high-purity Beta-(1,3)-D-Glucan, we supply this ingredient for specific industrial applications requiring stringent quality controls, consistent bioactivity, and documented regulatory compliance. Below, we detail major downstream processing sectors where our product integrates as a key material, specifying compliance frameworks, real-world formulation ratios, workflow integration, and representative finished goods manufactured by industrial end users.

    1. Pharmaceutical Injectable Formulations

    Leading biopharmaceutical companies incorporate Beta-(1,3)-D-Glucan as an approved immunomodulatory agent and adjuvant in parenteral preparations, following rigorous pharmacopeial guidelines for parenteral excipients. Dosing in injectable therapies must balance activity and safety, accounting for active range and product-specific regulatory expectations.

    Industry compliance standards

    • European Pharmacopoeia (Ph. Eur.) monograph for parenteral excipients
    • United States Pharmacopeia (USP) compendial standards for injectable-grade excipients
    • Good Manufacturing Practice (EU GMP Annex 1, US FDA cGMP for sterile drug products)
    • ISO 9001:2015 and ICH Q7 for pharmaceutical API manufacture

    Typical usage ratio

    • 0.01% – 0.5% w/v in final injectable solution, titrated based on product-specific preclinical safety and immune response profiles

    Downstream process integration

    • Addition during solution blending before sterile filtration and aseptic filling; controlled heating to ensure complete hydration and dispersion, followed by sterile filtration (0.22 μm) prior to vial or syringe filling under Class A cleanroom conditions

    Final product types

    • Subcutaneous and intravenous injectable immunomodulators
    • Parenteral adjuvants for cancer immunotherapy
    • Pediatric and adult vaccine adjuvant blends
    • Hospital-formulated biologic response modifiers

    2. Functional Food and Beverage Fortification

    Major functional food and nutrition brands use Beta-(1,3)-D-Glucan as a dietary fiber with documented health claims concerning immune support. Regulatory agencies define permissible inclusion rates and labeling. Our ingredient supports label claims in processed drinks, powders, and ready-to-eat cereals, requiring specific process adaptations for stability and efficacy retention.

    Industry compliance standards

    • Food Chemicals Codex (FCC) for food additive purity
    • EU Regulation (EC) No 1333/2008 on food additives
    • U.S. FDA GRAS status (Generally Recognized as Safe) for use in foods
    • HACCP and FSSC 22000-certified facility supply chain traceability

    Typical usage ratio

    • 0.2% – 2.0% w/w, adjusted based on local health claim maximums and end product solubility/texture; higher ratios for powdered drink mixes, lower for clear beverages or snacks

    Downstream process integration

    • Blending into dry premixes during batch compounding for powdered products; direct addition into heated liquid formulations followed by homogenization for RTD beverages; pre-gelatinization step in cereal and bakery lines for uniform texture

    Final product types

    • Fortified powdered drink blends (immunity-focused)
    • Ready-to-drink functional beverages
    • High-fiber breakfast cereals and granola bars
    • Nutritional supplement sachets and sticks

    3. Animal Feed and Aquaculture Nutrition

    Commercial livestock and aquaculture feed mills rely on Beta-(1,3)-D-Glucan as a non-antibiotic performance enhancer to promote immune development in young animals and maximize survivability. Usage must comply with veterinary feed additive directives and established residue limitations. Our input integrates at precise stages with specific technical requirements for heat stability and uniformity.

    Industry compliance standards

    • EU Regulation (EC) No 1831/2003 on feed additives
    • China GB/T 17893 feed additive specification
    • US Association of American Feed Control Officials (AAFCO) guidelines
    • GMP+ FSA feed safety assurance system

    Typical usage ratio

    • 50 – 300 mg/kg complete feed, with exact inclusion level set by species, lifecycle stage, and veterinary oversight; lower doses in finishing feed, higher in starter diets

    Downstream process integration

    • Dry blending into compound premixes, with subsequent extrusion or pelleting at controlled temperatures (<90°C) to preserve bioactivity; liquid spray application possible for post-pelleting enrichment

    Final product types

    • Starter, grower, and finishing feeds for swine, poultry, and ruminants
    • Specialty feeds for marine shrimp and finfish hatcheries
    • Veterinary nutrition premix concentrates
    • Pet dietetic supplements for immune support

    4. Cosmetic and Topical Dermal Preparations

    Personal care and cosmetics formulators use Beta-(1,3)-D-Glucan for its protective barrier enhancement and skin-soothing characteristics, concentrating on hypoallergenic profiles and documented safety. Compliance with international cosmetic regulatory codes and dermal irritation studies is mandatory, and incorporation demands precise emulsion or gel processing adaptations.

    Industry compliance standards

    • EU Cosmetics Regulation (EC) No 1223/2009
    • US FDA Voluntary Cosmetic Registration Program (VCRP) ingredient reporting
    • Japan Standards for Cosmetics (JSQC)
    • ISO 22716:2007 (cosmetic GMP)

    Typical usage ratio

    • 0.02% – 0.3% w/w of total formulation, selected based on viscosity targets and clinical dermal data; lower end for leave-on lotions, higher for intensive creams or masks

    Downstream process integration

    • Dispersion into aqueous phase with controlled mixing and mild heating (40-50°C); homogenization during emulsion or gel formation; addition before final fragrance or preservative input to avoid chemical interference

    Final product types

    • Moisturizing face and body creams
    • Barrier-repair gels and serums
    • Wound care or after-sun topical sprays
    • Pediatric dermatology creams

    5. Biotechnology Fermentation and Cell Culture

    Contract development and research facilities utilize Beta-(1,3)-D-Glucan as a defined bioactive supplement in cell culture and microbial fermentation systems to investigate immune pathway modulation and optimize recombinant protein yields. Operations must conform with laboratory-grade contamination controls and traceable formulation protocols.

    Industry compliance standards

    • ISO 13485 quality management for biotech laboratories
    • USP Chapter <1043> for ancillary materials in biotechnology
    • GLP (Good Laboratory Practice) certification for research material handling
    • OECD Principles of Good Laboratory Practice

    Typical usage ratio

    • 0.001% – 0.05% w/v in culture media, optimized by cell line type and experimental protocol requirements

    Downstream process integration

    • Dissolution into basal media pre-autoclave or sterile filtration; addition as a concentrated stock to bioreactors or static flasks immediately prior to inoculation

    Final product types

    • Cell-conditioned media for immunology research
    • Biofermentation-derived biotherapeutics
    • Preclinical assay system reagents
    • Transgenic protein production feedstocks
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    Certification & Compliance
    More Introduction

    Beta-(1,3)-D-Glucan: A Closer Look from the Manufacturer’s Floor

    The Foundation of Our Beta-(1,3)-D-Glucan Production

    After decades of refining fermentation and purification processes, we've seen firsthand how Beta-(1,3)-D-Glucan consistently finds itself at the center of new advances in food, animal nutrition, and biomedical applications. Our team doesn’t approach production like an assembly line. Instead, we rely on direct control of raw materials and quality metrics that have been developed through daily hands-on experience—backed by years of documented test results.

    Beta-(1,3)-D-Glucan, in our plant, usually comes from carefully selected sources such as baker’s yeast (Saccharomyces cerevisiae). We keep the extraction and purification processing as straightforward as possible, to keep structural integrity and ensure tight batch consistency. Each lot passes a rigorous set of QC checkpoints—our QC people value reliability as much as purity. We routinely monitor parameters like molecular weight, branching ratios, and polysaccharide content (often >85% by dry weight in our concentrated form) to maintain a narrow band of specifications fit for further formulation, not just lab experiments.

    Understanding the Role and Value of Beta-(1,3)-D-Glucan

    Beta-glucans form a large family, but Beta-(1,3)-D-Glucan sets itself apart by its backbone structure—each glucose molecule connects with a 1,3 link on the D configuration, sometimes with limited branching at the 1,6 position. This unique structural set-up, evidenced by consistent glycosidic bond analysis in our own lab, changes the way these polysaccharides interact with living systems and water-based formulations.

    In the nutritional field, our experience shows a direct preference for highly pure Beta-(1,3)-D-Glucan when formulators seek immune-supporting claims, mainly because beta-glucan with higher and consistent 1,3-linkage, measured by NMR or HPLC, delivers more predictable biological response. Years ago, we would see requests for poorly characterized mixed beta-glucans, often cut with alpha-glucans or with low polymerization degree, but the market has shifted. Customers demand cleaner certificates and traceable input streams.

    Food and beverage companies want predictability in textures. We supply various mesh sizes—our fine powder (typically 100 mesh or finer) disperses smoothly in beverages, while slightly coarser grades suit animal feeds and functional food toppings. In tablet or capsule manufacturing, flowability and compressibility need careful tuning, so our technical staff regularly provides onsite support to help formulators.

    What Sets Beta-(1,3)-D-Glucan Apart in Application

    Comparing Beta-(1,3)-D-Glucan with common cereal beta-glucans like oat or barley exposes distinct differences that show up in both processability and biological use. The backbone in cereal beta-glucans relies more on 1,4-linkages. That means cereal-based polysaccharides behave differently in water and display weaker interaction with immune receptors in animal trials we’ve seen. In our plant, product consistency edges ahead of anything less characterized.

    Downstream users recognize that Beta-(1,3)-D-Glucan sourced from yeast displays far higher biological activity per gram, based on binding affinities to host beta-glucan receptors. We have multiple customers in the livestock and pet food sectors who see faster returns in animal health improvements, especially gut and immune response, with yeast-derived Beta-(1,3)-D-Glucan than with cereal-derived material.

    Manufacturers seeking solution clarity in beverages often prefer our highly decolorized, protein-free Beta-(1,3)-D-Glucan. Beverage developers care a lot about finished appearance and mouthfeel. Our process pulls away nearly all residual proteins, fats, and colored impurities, leaving a neutral, almost flavorless ingredient that integrates cleanly into high-acid or dairy blends. In clinical and pharmaceutical uses, customers consistently report that our Beta-(1,3)-D-Glucan, with certified low endotoxin content, outperforms other beta-glucans in both solubility and biocompatibility.

    Additionally, our teams regularly field requests from supplement brands that need a genuinely “vegan” label and want close control over trace allergens and gluten. Since our source material never loops through wheat or barley supply chains, we certify gluten-free content and document allergen status with every batch.

    Production Methods: What Matters on the Plant Floor

    Our production facility runs nearly year-round, with teams rotating through fermentation halls and purification stations. Unlike some suppliers, we don’t outsource core steps. Our Beta-(1,3)-D-Glucan passes through an optimized fermentation, cell-wall lysis, and multi-stage purification train. Acid and alkaline steps, always monitored for close temperature and pH control, remove non-glucan residue and remove protein that would otherwise hurt solubility or shelf life.

    The real grind comes during isolation and drying. Our equipment—specifically designed for polysaccharide crystallinity control—delivers a consistent powder with clear water dispersibility profiles. Powder moisture typically sits below 8%, which limits product aggregation, a problem some users have encountered with less rigorously dried material. We grind and sieve in controlled air conditions, limiting the chance for cross-contamination with other actives or plant-derived co-products.

    Our team has learned through trial that the extraction solvents and drying time both shape the final product’s usability. Pressure filtration speed, drying temperature, and even air humidity influence both water solubility and rehydration rates. Each year, we tweak equipment setup to keep up with changing customer specifications, sometimes shifting towards finer mesh or even granulated forms for tablet blends.

    Purity and Consistency in Manufacturing

    Laboratory-grade Beta-(1,3)-D-Glucan isn’t just about high numbers on paper. It needs to prove itself batch after batch. Routine high-performance liquid chromatography and NMR analysis confirm not only 1,3-linkage content but also molecular weight distribution. Most of our bulk production achieves lower than 1% protein residuals by weight and undetectable levels of yeast DNA.

    Some industries, especially parenteral preparations, ask about trace endotoxins or heavy metals. Unlike many Asian producers who sell at rock-bottom price without batch-level monitoring, we keep heavy metals below the strictest regulatory limits, typically below 1 ppm for lead, arsenic, and cadmium. Endotoxin levels usually fall below pharma-grade thresholds. Each year, multiple regulatory auditors tour our plant to verify alignment with Good Manufacturing Practices; documentation must always remain ready for surprise inspections from either domestic or international authorities.

    As producers, our direct access to every stage—starting with procurement of yeast, moving through to drying and grinding—means fewer unknowns. We keep careful logs of every quality event. In rare cases of customer complaint or test deviation, we review the whole batch history, adjusting either processing temperature or purification stages to correct any drift from specifications.

    Traceability and Source Integrity

    Raw material traceability remains a foundation of trust. By sourcing yeast exclusively from vetted partners who provide full chain-of-custody documentation, we close the possibility for substitution or contamination. Each fermentation batch is mapped from input to finish. Our in-house tracking system permanently records the time, operator, cleaning cycle, and linked analytical data.

    Buyers—especially those selling into North American, European, and Japanese markets—demand documentary proof of source. We support every lot with certificates not only for composition, but also for GMO status, allergen status, and feed/food suitability. In more than ten years of direct shipment, we have never faced a recall event linked to our Beta-(1,3)-D-Glucan line.

    Because our team works so close to the supply chain, questions about adulteration or split batches rarely arise. The controls we use for incoming yeast—checking for moisture, colony-forming units, microbial contaminants—tie directly into our downstream purity. Our traceability approach foregoes the need for post-hoc fixes common among repackagers or traders, and we keep every process step open to audit.

    Product Formats: Practical Choices for Real-World Processors

    Beta-(1,3)-D-Glucan leaves our facility in several forms, tailored to real-world uses. Our most popular format comes as a loose, fine powder—free-flowing, with a bright white to off-white color, and typically less than 8% moisture. Beverage and supplement formulators value this grade for its quick dispersibility and ease of handling in both water and hydrocolloid blends.

    Some of our customers, in animal nutrition and feed supplements, request a slightly coarser granule or pelletized material. These grades yield better handling on automated feed lines and reduce the build-up of dust, a key concern for bulk processors. The feed market has asked for tailored mesh ranges, so we offer between 40 mesh up to 200 mesh, depending on customer process needs.

    Every processor cares about shelf-life. In our experience, proper airtight packaging and humidity control matter most. We never ship in “re-used” or repurposed bags, and every drum or carton carries a unique batch trace code, so feedback or recall actions can move quickly if needed.

    Supporting Product Development and Customer Challenges

    Buyers often assume Beta-(1,3)-D-Glucan is a “simple” ingredient. Hands-on use proves otherwise. Whether in beverage innovation or veterinary health, customers have specific hydration, dispersibility, or mixing requirements. Our technical team fields questions almost daily about solution clarity, viscosity modification, and thermal stability under process conditions.

    Food brands worry about precipitation or haze in their finished drink. Our R&D people adjust extraction and drying to provide finer particle sizes and test in real-time beverage simulations for at least 30 days shelf-life. For tableting, it’s all about compressibility and minimal loss—so we support field testing and, if necessary, suggest customized blending with microcrystalline cellulose or other excipients to balance flow and hardness.

    Feed companies want assurance that our Beta-(1,3)-D-Glucan will degrade appropriately in the gut and not simply pass through. Our collaborations with academic labs and in-house simulation studies show good resistance to gastric acid, but ready breakdown via gut microbiota or enzymatic processing, ensuring most of the active makes it to its site of action.

    Supplements targeting “immune health” prefer the highest possible beta-1,3 content and the narrowest molecular weight distribution. We run routine batch analyses with third-party labs to back up these values and update specification sheets for each customer.

    Comparing Beta-(1,3)-D-Glucan with Other Beta-Glucans and Competitive Products

    Our long-term buyers have tested common barley, oat, and mushroom beta-glucans against our yeast-derived Beta-(1,3)-D-Glucan in a range of end-use applications. The difference is rarely just about price. Yeast-derived Beta-(1,3)-D-Glucan almost always wins out for applications demanding high biological activity. Oat and barley beta-glucans—mostly 1,4-linkages—make good thickening agents or cholesterol-lowering ingredients, but don’t show the same immune system activation profiles in documented clinical studies, or in our own partnership trials.

    Mushroom-derived beta-glucans are another competitor. They are famous in traditional medicine, but purification and consistency can vary widely depending on the source and the fungal species. We have analyzed commercial mushroom beta-glucans and confirm batch-to-batch variance is quite high. This is partly due to co-extracted proteins, pigment, and a more complex matrix, making consistent formulation more difficult for pharma and supplement brands.

    In our hands, yeast Beta-(1,3)-D-Glucan proves easier to process, offers tighter quality control, and produces more reliable finished goods, whether for a beverage blend, an animal supplement, or a clinical nutrition product.

    Logistics, Storage, and Handling—Seeing Beyond the Lab

    Our logistics team understands the realities of the global supply chain. Beta-(1,3)-D-Glucan doesn’t tolerate moisture swings during shipping or long-term storage, so packing and sealing must be precise. Our warehouses monitor temperature and humidity around the clock. Each shipment leaves on moisture-barrier lined drums or sealed cartons. On arrival, customers appreciate immediately measurable freshness—crisp white color, no clumping, and free powdering—without surprise caking or off-odors that can result from transit delays.

    Documenting shelf-stability remains part of our quality commitment. Accelerated and real-world stability trials on each batch lot support stated shelf-lives, usually up to 24 months under cool, dry storage. Our advice to all end-users: keep Beta-(1,3)-D-Glucan cool and dry, away from direct sunlight, to extend utility. This advice doesn’t just stem from best practices—it comes from real-world shipping experience.

    On rare occasions where temperature excursions or packaging tears happen in transit, we trace back to the batch level, examine condition, and advise customers directly—always based on test results, not guessing or generic recommendations. We do not blind-ship or drop-ship for traders, so we retain direct relationship with every recipient.

    Developing for the Future

    The story of Beta-(1,3)-D-Glucan has shifted in the last decade. Ten years ago, bulk buyers focused mostly on cost per kilo. Investment from nutraceutical giants and functional food innovators has shifted attention to supply chain stability, batch documentation, and demonstrated bioactivity. Our plant’s ability to supply lot-after-lot with tight QA and fully documented certificate batches provides the foundation that growing brands need for reliable growth and regulatory approval.

    Our R&D focus continues to evolve. Current projects target not only tighter molecular weight control, but ease of wetting in powder drink mixes and next-generation compatibility with other functional food actives such as vitamins, minerals, and probiotics. New pilot batches include “neutral” taste and odor grades, plus micro-granulated forms for improved compaction and granule flow.

    As manufacturers, we engage not only with ingredient buyers but also with R&D, QA, and compliance teams directly. Our reputation stands or falls on consistency, live support, and some real troubleshooting. Many of our procedures have come from such troubleshooting efforts—problems solved for one customer turning into best practices applied to the whole output.

    We document and track shifts in regulations worldwide. Changing standards in labeling, safety, and allowable product claims mean we update both our production documents and customer datasheets regularly—often months ahead of enforcement. The trust between manufacturer and downstream user goes far deeper than just pricing.

    Facing Common Challenges and Solutions

    No raw material is without headaches. Powder caking, unexpected color shifts, lower-than-target beta-1,3 purity can all strike if upstream material changes or a valve slips in the purification stage. We watch for these issues using batch logs, upfront and in-process testing, and tight communication with storage managers. We make adjustments—adding extra drying cycles, tweaking fermentation input blends, or retraining staff—before any batch leaves the warehouse.

    Regulatory audits raise the bar, not just in paperwork but real-world reliability. Our continual audit readiness has led to immediate improvements, especially in allergen and cross-contamination checks. As a manufacturing team, we see every change as a point of pride—not just ticking boxes, but building a culture of improvement.

    Customers who use our Beta-(1,3)-D-Glucan regularly contribute to these improvements. Some have developed novel product lines after consultations with our technical staff, translating lessons from our batch production into practical, stable finished goods. Rare product complaints or feedback, whether on solubility or taste, prompt us to investigate root cause, resolve with additional analysis, and turn into updated handling and process control guidance.

    Conclusion—The Manufacturer’s Perspective

    Producing Beta-(1,3)-D-Glucan that lives up to modern standards demands a relentless focus on purity, documentation, and technical responsiveness. Our team’s decades of experience—on fermentation lines, filtration units, and drying floor—feed into every drum, carton, and bag that leaves the facility. From immune supplements to animal nutrition, from clinical trials to functional food launches, our product provides a foundation not just for claims, but for real-world performance, safety, and customer trust.