Erythritol

    • Product Name: Erythritol
    • Chemical Name (IUPAC): (2R,3S)-butane-1,2,3,4-tetrol
    • CAS No.: 149-32-6
    • Chemical Formula: C4H10O4
    • Form/Physical State: Crystalline Powder
    • Factroy Site: Lingwu, Yinchuan, Ningxia, China
    • Price Inquiry: sales2@liwei-chem.com
    • Manufacturer: Anhui Liwei Chemical Co.,Limited
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    Specifications

    HS Code

    710160

    Name Erythritol
    Chemical Formula C4H10O4
    Molar Mass 122.12 g/mol
    Appearance White crystalline powder
    Taste Sweet, similar to sucrose
    Energy Value 0.24 kcal/g
    Solubility In Water High
    Glycemic Index 0
    Melting Point 121°C
    Source Natural and synthetic (fermentation of glucose by yeast)
    E Number E968
    Allergenicity Generally recognized as safe (GRAS)
    Sweetness Relative To Sucrose 60-80%

    As an accredited Erythritol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing A 1 kg resealable plastic pouch labeled "Erythritol," featuring purity details, nutritional information, and appropriate safety and handling instructions.
    Container Loading (20′ FCL) 20′ FCL container can load approximately 24 metric tons of Erythritol, packed in 25kg bags, 960 bags per container.
    Shipping Erythritol is shipped as a non-hazardous, food-grade sweetener. It is typically transported in tightly sealed, moisture-proof bags or drums, ensuring protection from moisture and contamination. Shipping conditions generally require a cool, dry environment. Labeling should comply with food safety regulations, and handling should prevent physical damage to the packaging.
    Storage Erythritol should be stored in a tightly sealed container in a cool, dry, and well-ventilated area, away from moisture, heat, and strong odors. Keep it away from incompatible substances and direct sunlight. Proper storage helps prevent clumping and degradation, ensuring the stability and quality of the product. Label containers clearly and handle according to standard hygiene and safety practices.
    Shelf Life Erythritol typically has a shelf life of 2 to 3 years, stored in a cool, dry, and sealed environment.
    Application of Erythritol

    Applications of Erythritol in Industrial Manufacturing

    As a direct manufacturer of erythritol, we supply this multifunctional polyol to established industrial clients who require precise consistency, high purity, and full regulatory transparency throughout advanced production chains. Below, find detailed, scenario-specific applications reflecting true, large-scale, and specialty downstream utilization within tightly regulated segments.

    1. Calorie-Reduced Food and Beverage Formulation

    Food processors employ erythritol as a caloric reduction agent and bulk sweetener, taking advantage of its clean taste profile, negligible caloric value, and oral health neutrality. Product developers utilize erythritol in functional beverage lines, confectionery, and sugar-free bakery to meet consumer labeling requirements for "sugar-free," "no added sugar," and "light" designations, while also ensuring satisfactory mouthfeel and sweetness intensity. Formulation teams select erythritol based on its stability under thermal processing and its ability to reduce bulk sugar without affecting browning or moisture content in baked and extruded finished goods.

    Industry compliance standards

    • Codex Alimentarius General Standard for Food Additives (GSFA)
    • EU Regulation (EU) No 231/2012, additive code E968
    • US FDA 21 CFR 184.1924, GRAS status
    • China GB 2760-2024 National Food Safety Standard for Food Additives

    Typical usage ratio

    • Beverages: 0.5–3.5% by weight, based on target sweetness and osmotic pressure
    • Chocolate and confectionery: 10–35%, adjusted for bulk and textural requirements
    • Baked goods: 5–20%, according to sweetener replacement level and moisture retention needs

    Downstream process integration

    • Dissolved in initial liquid blend stage for soft drinks
    • Dry-blended with other polyols for chocolate mass or fondant base prior to tempering
    • Added in dough mixing phase for cookies, cakes, and bars

    Final product types

    • Dietetically-labeled soft drinks, juices, and flavored waters
    • No-sugar or sugar-free chocolate, chewing gum, and hard candies
    • Low-calorie pastries, muffins, and biscuits

    2. Pharmaceutical Oral Dosage Excipients

    Pharmaceutical manufacturers rely on erythritol as a filler, binding agent, and taste-masking excipient in solid oral dosage forms such as chewable tablets, lozenges, effervescent powders, and powders for suspension. The substance’s non-hygroscopic crystal structure helps optimize tablet integrity and increases consumer compliance for pediatric and geriatric use, while its low cariogenicity profile adds value in oral health and dental therapeutics.

    Industry compliance standards

    • European Pharmacopoeia (Ph. Eur.), monograph 1655
    • International Pharmaceutical Excipient Council (IPEC) GMP Guide
    • USP/NF Erythritol Monograph
    • ICH Q7 Good Manufacturing Practice for Active Pharmaceutical Ingredients

    Typical usage ratio

    • Chewable tablets: 15–50% of total tablet mass, based on active ingredient bulk and compressibility
    • Oral powders and granules: 10–60%, varying by formulation target (flavor/sweetness masking vs. flow improvement)

    Downstream process integration

    • Incorporated in wet or dry granulation stage for direct compression products
    • Premixed with actives and secondary excipients prior to tableting or filling
    • Used in coating applications for mouthfeel adjustment and taste masking

    Final product types

    • OTC and Rx chewable tablets (calcium, vitamin C, antacids)
    • Medicated lozenges and pastilles
    • Pediatric oral powders for reconstitution or direct oral administration

    3. Oral Hygiene and Dental Care Manufacturing

    Major oral care brands integrate erythritol into high-performance toothpaste, mouth rinse, and sugar-free chewing gum as both a non-cariogenic sweetener and a plaque-inhibiting agent. The material is valued for reducing Streptococcus mutans adhesion and facilitating remineralization, enhancing efficacy claims for sensitive teeth and dry mouth products. Manufacturers require erythritol’s verified purity (low microbiological load, absence of residual solvents) where direct oral contact and safety for chronic use are essential.

    Industry compliance standards

    • ISO 16128 Safety and Functionality Guidelines for Cosmetic Ingredients
    • US FDA OTC Dental Health Products Regulation (21 CFR 355)
    • European Union Cosmetics Regulation (EC) No 1223/2009
    • China Hygienic Standard for Cosmetics (GB 7916-2022)

    Typical usage ratio

    • Toothpaste: 3–7%, adjusted for viscosity, foam texture, and flavor masking
    • Mouthwash: 1–5%, dependent on desired mouthfeel and co-solvent performance
    • Sugar-free gum: 10–35%, for base composition and long-lasting sweetness

    Downstream process integration

    • Dissolved with humectants and sorbitol during slurry phase for toothpaste
    • Pre-blended with surfactants and flavors for mouthwash
    • Dry-mixed with gum base and active agents prior to extrusion or rolling

    Final product types

    • Sensitivity relief and enamel care toothpaste
    • Therapeutic mouth rinses for anti-cavity and dry mouth formulas
    • Sugar-free, dental hygienist-recommended chewing gum

    4. Specialized Polyol-Based Food Coatings and Glazings

    Industrial baking and snack producers select erythritol for non-stick and transparent glazings on high-value products such as protein bars and coated nuts. Utilized for its non-hygroscopic properties, rapid crystallization, and stability at broad humidity and temperature ranges, erythritol-based coatings extend shelf life and inhibit mold growth without imparting off-flavors or stickiness. This function assists factories seeking to guarantee label compliance for “no added sugar” claims and antifungal performance, especially where products undergo long cross-border transportation or high ambient storage.

    Industry compliance standards

    • EU Regulation (EC) No 1333/2008 on food additives
    • US FDA GRAS determination for direct food application
    • FSSC 22000 Food Safety Management System for production process control
    • Japan Food Sanitation Act Additives List

    Typical usage ratio

    • Protein bar and biscuit coating: 5–25% (w/w), depending on coating thickness and target gloss
    • Glazed nuts and dried fruit: 3–15%, adjusted for anti-caking and appearance

    Downstream process integration

    • Prepared as a hot-spray syrup, applied to cooled product prior to packaging
    • Blended with other polyols and minor ingredients in batch or continuous mixing systems
    • Chilled and solidified in air-blast tunnels for rapid crystallization and hardening

    Final product types

    • Sugar-free protein and nutrition bar coatings
    • Baked snack glazings for commercial biscuit and cracker lines
    • Enrobed and polished nut mixes and dried fruit snack products

    5. Fermentation and Bioprocess Optimization Media

    Biotechnology and fermentation businesses introduce erythritol as both a fermentable carbohydrate source and an osmoprotectant in large-scale bioprocesses for specialty metabolites and recombinant protein production. Researchers and plant operators depend on its high purity and reproducible lot-to-lot properties to ensure consistent cell growth, to modulate osmotic pressure, and to enhance yields in yeast and bacterial fermentation systems. Erythritol minimizes by-product accumulation and enables downstream purification efficiency for pharmaceutical and specialty ingredient applications.

    Industry compliance standards

    • USP 43–NF 38 standards for excipient-grade material (where used as cell culture component)
    • ISO 9001:2015 Quality Management Systems for bioprocess material traceability
    • Relevant national biosafety guidelines (biosafety level per application, e.g. FDA cGMP for biologics)
    • ISO 13485:2016 (for medical-grade fermentation outputs)

    Typical usage ratio

    • Fermentation enrichment: 1–10 g/L as primary or supplemental carbohydrate, tailored to microbial strain and batch goal
    • Osmotic regulation: 0.1–2.0% (w/v) for stress adaptation in sensitive microbes

    Downstream process integration

    • Sterile-dosed into reactor media at pre-inoculation, often combined with other polyols or sugars
    • Maintained via fed-batch dosing for high-cell-density cultivations
    • Monitored and adjusted throughout process to optimize cell viability and product yield

    Final product types

    • Specialty microbial metabolites (e.g., vitamins, amino acids)
    • Recombinant enzymes and therapeutic proteins
    • Fermented food flavor precursor blends

    6. Sugar-Free Table-Top Sweetener Tablets and Powders

    Producers of table-top sweetener tablets and powder sachets leverage erythritol for its crystalline structure, rapid solubility, and high bulk density, enabling compact pressing, even tablettability, and convenient dosing for end users. Beyond sweetness, the ingredient imparts cooling sensation and provides bulking without raising glycemic load, supporting diabetics and calorie-controlled dietary programs. Production lines utilize either direct compression or granulation methods tailored for high-speed automated packaging.

    Industry compliance standards

    • EU Food Additives Regulation (E 968 as table-top sweetener)
    • Directives under US FDA Code of Federal Regulations 21 CFR (parts 172, 184)
    • Codex ADI limits and food labeling codes
    • ISO 22000 Food Safety Management for consumer retail sweeteners

    Typical usage ratio

    • Tablets: 85–99%, as major or dominant matrix substance, supporting intense sweeteners such as sucralose or stevia
    • Powder sachets: 90–100%, often blended with minor flavoring or flow agents

    Downstream process integration

    • Dry-blended and transferred to tablet presses with direct compressibility modifiers
    • Granulated for flow improvement, then filled into stick sachets or canisters
    • Combined with non-nutritive sweeteners in dosing control prior to automated packaging

    Final product types

    • Press-fit table-top sweetener tablets for beverage and food service markets
    • Single-serve calorie-free sweetener powder sachets
    • Home-use and hospitality industry multi-portion canisters

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    Certification & Compliance
    More Introduction

    Erythritol: Production Perspective and Industry Insights

    Introduction to Erythritol in Modern Manufacturing

    Erythritol stands out today as a popular sugar alcohol. As manufacturers, our involvement with erythritol runs deep, shaped by years of process development, raw material sourcing, and rigorous attention to product safety. Unlike traders or resellers, we see it daily from its fermentation roots through purification and crystal extraction. Its rise in the food and beverage industry mirrors a larger demand for solutions that align with sugar reduction initiatives, clean-label desires, and consumer health consciousness.

    We produce erythritol primarily through fermentation, starting with non-GMO corn or wheat starch. Enzyme-driven hydrolysis breaks starch down to glucose, which serves as a feedstock for specialized yeast. Erythritol is produced as a metabolic byproduct, which we then extract via filtration and several rounds of recrystallization. Each of these steps requires precision—process parameters, like pH and temperature, must hit tight tolerances. From the earliest days, we've worked to minimize residual byproducts and maximize purity, often exceeding regulatory thresholds for food and beverage applications. High-purity erythritol enters markets both as a white crystalline powder and in granular form, with specification ranges tailored to end-users' needs.

    Model Types and Specifications

    Demand patterns shape our production batches. We typically provide erythritol under different mesh sizes—including fine powder (100-200 mesh) and standard granular grades (20-60 mesh). Mesh size directly affects dissolution rates and mouthfeel. Beverage manufacturers who need rapid dissolution opt for fine mesh, while bakers and confectioners often prefer a granulated version for better textural results. No matter the granulation, we maintain a purity level of at least 99.5%, with moisture content usually kept below 0.2%. Water solubility and heat stability come into play for some applications, and we track these with every lot using in-house lab facilities.

    Product certificates stem from real-world batch data. Each batch undergoes physical testing for color, odor, taste, and heavy metals content. Microbiological testing follows strict, globally recognized standards. Zero-calorie status remains a major selling point, supported by a molecular structure that resists human metabolic breakdown, resulting in negligible caloric absorption.

    Erythritol vs. Other Polyols and Sweeteners

    Direct comparison with sorbitol, xylitol, and maltitol comes up frequently in discussions. Unlike xylitol, erythritol produces almost no gastrointestinal discomfort—an observation validated through repeated feedback from multiple downstream manufacturers. This low laxative effect can be traced to the way it's rapidly absorbed by the small intestine and excreted unchanged. We have worked with confectionery manufacturers who, after switching to erythritol from maltitol, reported fewer customer complaints regarding digestive issues, especially in high-intake scenarios.

    Compared to sucrose, erythritol delivers around 70% of the sweetness. This requires slight formulation tweaks, especially in products where taste parity is a marketing claim. It remains non-cariogenic, so we see dental product companies interested in its application for toothpastes and chewing gums. Unlike high-intensity sweeteners—acesulfame-K or aspartame, for example—erythritol does not carry any aftertaste. The sensory profile speaks for itself, with no chemical or metallic undertones.

    Applications and Customer Experiences

    Customers rely on erythritol for sugar reduction, caloric reduction, and improved gut tolerance. Every month, we coordinate with large bakers, beverage formulators, and even home food kit brands. Erythritol integrates smoothly in gluten-free baking thanks to low moisture pickup and resistance to Maillard browning. We've seen long shelf life for finished products such as chocolate, cookies, and chewing gums.

    Our participation goes beyond order fulfillment. Technical questions frequently arise—such as the impact on browning, crystallization, and freeze point depression in frozen desserts. Some clients initially expect erythritol to mimic sugar identically across all parameters, but we clarify that baking times and temperatures may require slight adjustment for best results. We run pilot trials in our test kitchen to directly observe dough spread, crumb texture, and caramelization. That firsthand look at finished goods tells us more than any technical data sheet.

    Understanding the Manufacturing Process

    Fermentation stands at the heart of our erythritol production. Inputs, including purified water, glucose syrup, and nutrients, support healthy cell growth but are also costly if wastage runs high. Precision in pH and oxygenation maintains target yields. During scale-up, controlling contaminant bacteria or yeasts requires both routine analysis and rapid corrective action. A single out-of-control batch can compromise dozens of tons of product.

    We operate closed systems to reduce cross-contamination risks. Automated controls monitor temperature, dissolved oxygen, and substrate flow. As the yeast completes the conversion, we isolate fermentation broth and subject it to microfiltration. The core erythritol solution moves through activated carbon beds and deionization resins. These steps guarantee low color and odor.

    Crystallization, aided by controlled cooling, pulls solid erythritol out of solution. We then wash and centrifuge the crystals before drying. Dust minimization matters for both environmental compliance and downstream blending. In our experience, achieving a consistent batch-to-batch flow relies on both operator skill and robust process automation. Each deviation costs energy, water, and, ultimately, product value.

    Quality Control and Product Integrity

    Customers want assurances that every shipment meets target specifications. Our approach relies not only on end-point testing but also on in-line analysis. Real-time checks for pH, temperature, and solid content alert us to process drift before it impacts final outcomes.

    Product integrity hinges upon low microbial load. We follow local and international regulations for pathogenic bacteria, with environmental monitoring in every production shift. Each batch of erythritol undergoes sensory evaluation in addition to routine analytics. Our in-house panels taste and compare samples against prior production lots, since sensory changes can often precede analytical findings.

    Packaging choices affect finished product shelf life. Moisture barriers, correctly chosen inner liners, and dust-tight heat-sealed closures hold importance for every bulk and retail pack. We test packaging under different storage conditions and update our offerings as necessary in response to climate or regulatory changes in key markets.

    Industry Role and Regulation

    Erythritol must conform to evolving food safety standards. Regulatory recognition varies somewhat by market, but we supply documentation and support for food additive petitions and GRAS certifications. Traceability—starting from our raw corn or wheat providers, through every processing stage—means we provide full batch history to customers on request. Non-GMO and allergen documentation has become a center point for many market segments.

    Audits—both internal and external—shape continuous improvement efforts. We keep up with the requirements for BRC, FSSC 22000, and ISO certifications. Auditors look for documented corrective actions, root cause analysis, and evidence that we learn from deviations. Our quality and regulatory staff cross-train in both lab analytics and quality system management.

    Environmental and Social Responsibility

    We see environmental stewardship not as a compliance box but as a driver of process innovation. Lowering water and energy inputs in fermentation and crystallization saves both resources and cost. Every year, we review our energy usage data and invest in changes such as variable speed drives, heat recovery systems, and improved water re-use loops.

    As a producer, we must control byproducts. Fermentation residues, such as spent yeast and process water, are treated with on-site facilities using aerobic digestion and biofilters. We document reductions in chemical oxygen demand and suspended solids before wastewater enters city systems. We discuss these issues with local authorities and respond quickly if metrics trend poorly.

    Social responsibility ties back to the communities in our supply chain. Our raw material comes from farms with documented land stewardship practices. We source as locally as possible to minimize transport impacts. In regions where we operate, employment practices favor local hiring and professional development. We participate in food industry groups focused on responsible sourcing and sustainability certification.

    Challenges and Continuous Improvement

    Food sector trends shift quickly. Sugar reduction may drive erythritol demand higher, but changing regulatory attitudes or new health research can pose risks. Keeping a flexible manufacturing footprint matters. We maintain capacity for both routine large orders and small-scale specialty production, so that we can pivot as our customers change their own formulations.

    Supply chain volatility throws up real-world obstacles. Crop disruptions—caused by weather, pests, or tariffs—impact starch input prices and availability. We hedge by building redundant supplier pools, both regional and global. Rapid communication with our supply chain management team prevents major shortfalls in production schedules.

    Quality management systems remain living documents. Internal feedback loops—from our lab to production to logistics—spot trends such as minor color changes or dusting increases. Every quarter, we revisit process controls, sensory protocols, and packaging assessments. External feedback, most often from customers adjusting to new recipes, shapes next-generation improvements.

    The Role of Erythritol in Nutritional Trends

    Consumers, often influenced by dietary trends and changing guidelines, put pressure on our clients to offer reformulated options. We’ve witnessed an upturn in erythritol use not only in sugar-free candies and sodas, but also in protein bars, yogurts, and even flavoring syrups. Many wellness-oriented brands specifically point to erythritol as a non-caloric, tooth-friendly alternative.

    We partner with food scientists at brand companies to troubleshoot recipe hurdles—crystallization, solubility at cold temperatures, and textural integrity in both dry and wet systems. Classroom learning only goes so far; hands-on process work and sensory evaluation continue to guide real-world decisions. Food compositions evolve, and so too must the properties of the erythritol we deliver.

    Differences that Set Producer-Grade Erythritol Apart

    Manufacturing from the source brings advantages. Vertical integration means tighter batch controls, faster responses to raw material shifts, and more transparent documentation. Shorter lead times from batch to shipment—sometimes as little as a few days—help customers avoid stock-outs in fast-moving sectors.

    Producer-grade erythritol differs from reprocessed or repackaged alternatives in practical ways. Granule size distribution holds true to specification throughout the shipment. Storage conditions, from final drying all the way to loading dock, remain strictly monitored. No mixing with outside lots. Every sale carries a tested lot traceable to base ingredients and fermentation data.

    Direct feedback flows straight from end-user application teams to our engineers. We adjust process parameters or mesh sizes for unique customer needs instead of relying on generic post-processing. This flexibility leads to higher customer retention and fewer product returns or complaints.

    Market Outlook and Future Focus

    Erythritol continues to attract attention from both legacy food processors and upstart brands. The global push for healthier eating—fewer added sugars, dietary diversity, and individualized nutrition—pushes us to innovate. We invest steadily in research: fermentation efficiency, new yeast strains, improved purification, and alternate starch sources.

    Collaborative pilot projects with research institutes explore ways to enhance the mouthfeel or improve blend performance with other natural sweeteners such as stevia or monk fruit. Some of these joint efforts have resulted in new patent applications for stable blends or encapsulation techniques.

    Our R&D staff tracks not just food trends, but also regulatory decisions and consumer advocacy campaigns. We foresee demand for erythritol in new markets such as functional beverages, medicinal foods, and plant-based protein systems. Each new use case brings different technical requirements, from particle size to solubility and interaction with hydrocolloids or emulsifiers.

    Practical Considerations for Buyer and User

    Working directly with a manufacturer brings advantages. On-site technical support, batch traceability, and regular shipment updates help customers plan production confidently. We’ve seen the consequences of late or mismatched deliveries—downtime, spoilage, or costly reformulation. Careful inventory planning matters, especially for brands operating with tight profit margins.

    Raw material quality can shift due to upstream factors—crop quality, climate, or supplier changes. Our team tracks these variables closely. We remain available for guidance on inventory rotation, optimal storage conditions, and shelf-life extension strategies.

    Consignment deals, blanket orders, and demand forecasting play increasing roles in partnership discussions. We maintain transparency on any changes in process, raw material attributes, or packaging.

    Conclusion

    We approach erythritol production with a focus not just on consistency and quality, but also on partnership. The chain from field to end product includes technology, attention to market signals, and practical support for customers at every turn. The future of erythritol lies in the hands of both manufacturers and users, with every improvement in production or application bringing broad benefits. As trends evolve and technical hurdles arise, our direct experience in producing and refining erythritol informs solutions grounded in daily practice rather than abstraction. This perspective drives our commitment to provide products that perform reliably across diverse applications and changing market landscapes.