Products

Sorbitol

    • Product Name: Sorbitol
    • Chemical Name (IUPAC): D-glucitol
    • CAS No.: 50-70-4
    • Chemical Formula: C6H14O6
    • Form/Physical State: Crystalline or Liquid
    • Factroy Site: No.777 Mingyue Road, Huangdao District, Qingdao, China
    • Price Inquiry: sales7@bouling-chem.com
    • Manufacturer: Qingdao Bright Moon Seaweed Group Co., Ltd
    • CONTACT NOW
    Specifications

    HS Code

    456319

    Chemical Name Sorbitol
    Chemical Formula C6H14O6
    Molecular Weight 182.17 g/mol
    Appearance White, crystalline powder or colorless, odorless syrup
    Solubility In Water Very soluble
    Taste Sweet, about 60% as sweet as sucrose
    Melting Point 95-100 °C
    Boiling Point 296 °C (decomposes)
    Cas Number 50-70-4
    Uses Sweetener, humectant, laxative, pharmaceutical excipient
    E Number E420
    Density 1.489 g/cm³ (at 20 °C)
    Stability Stable under normal conditions
    Ph Solution 5-7 (10% solution at 20 °C)
    Origin Naturally occurs in fruits and plants

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

    Packing & Storage
    Packing Sorbitol is typically packaged in 25 kg multi-layered kraft paper bags with inner polyethylene lining for moisture protection and secure storage.
    Container Loading (20′ FCL) Container loading (20′ FCL) for Sorbitol: 25-27 metric tons packed in 1,000 kg jumbo bags or 25 kg bags, palletized.
    Shipping Sorbitol is shipped in tightly sealed containers or drums, protected from moisture and contamination. It should be stored in a cool, dry, well-ventilated area away from strong oxidizing agents. During transport, ensure packaging integrity to prevent leaks or spills. Sorbitol is non-hazardous and typically shipped as a solid or solution.
    Storage Sorbitol should be stored in a tightly closed container, in a cool, dry, and well-ventilated area away from moisture and incompatible substances. Protect it from direct sunlight and strong oxidizers. Store at room temperature and avoid excessive heat. Ensure proper labeling, and keep away from food and drink to prevent contamination. Follow all relevant safety and regulatory guidelines.
    Shelf Life Sorbitol typically has a shelf life of 2 to 3 years when stored in a cool, dry place in a tightly sealed container.
    Application of Sorbitol

    Purity 99%: Sorbitol with Purity 99% is used in pharmaceutical syrups, where it provides consistent sweetness and enhanced stability.

    Molecular Weight 182.17 g/mol: Sorbitol with Molecular Weight 182.17 g/mol is used in toothpaste formulations, where it ensures optimal texture and moisture retention.

    Melting Point 95°C: Sorbitol with Melting Point 95°C is used in confectionery production, where it improves heat resistance and prevents crystallization.

    Particle Size <100 µm: Sorbitol with Particle Size <100 µm is used in tablet manufacturing, where it enables uniform compression and smooth tablet surfaces.

    Viscosity Grade 70% Solution: Sorbitol with Viscosity Grade 70% Solution is used in liquid oral formulations, where it provides effective viscosity control and dosing consistency.

    Stability Temperature up to 40°C: Sorbitol with Stability Temperature up to 40°C is used in cosmetic creams, where it maintains product integrity during storage and distribution.

    Water Activity 0.32: Sorbitol with Water Activity 0.32 is used in food preservation, where it reduces microbial growth and extends shelf life.

    Residual Moisture <0.5%: Sorbitol with Residual Moisture <0.5% is used in powder drink mixes, where it ensures free-flowing properties and prevents caking.

    Free Quote

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    Certification & Compliance
    More Introduction

    Sorbitol: A Trusted Solution from Reliable Manufacturing

    Understanding Sorbitol and Why It Matters

    Sorbitol, also known by its chemical name D-glucitol, represents a sugar alcohol with broad application across food, pharmaceuticals, personal care, and industrial uses. As a company involved in sorbitol production from the first sourcing of raw materials to the final delivery, we witness the daily importance of consistent quality, granular control, and transparent communication. Our facilities engage in the full process, from starch hydrolysis through catalytic hydrogenation and final purification. We work to ensure the end result remains stable, pure, and meets strict requirements. Through years of careful operation, sorbitol has earned its role across key sectors for good reasons.

    Production Insights: Process and Purity

    Modern sorbitol manufacturing relies on enzymatic and catalytic methods using either maize or cassava as starch sources, often dictated by local crop production and customer requests. After starch is hydrolyzed to glucose syrup, we pass it across high-pressure reactors under controlled temperatures with nickel catalysts. It demands precision: even small process deviations can lead to off-flavors or unwanted byproducts. Each batch runs through multi-stage filtration, ion-exchange columns, vacuum evaporation, and fine filtration steps. Regular laboratory monitoring supports decisions, as finished sorbitol must fall within narrow bands for ash, moisture content, and heavy metals. An unmonitored process would yield erratic product—potentially unsafe, seldom usable outside lower-end sectors.

    Sorbitol stands apart from other polyols such as mannitol or xylitol because it is relatively easier to synthesize on an industrial scale, and it provides a reliable supply chain for both large and small buyers. Tight integration between raw material procurement, processing line scheduling, and on-site storage ensures we adapt fast to demand changes. Years of operational experience taught us the value of investing in downstream purification and waste stream management, which not only reduces the product’s environmental impact but results in a cleaner, more stable output over time.

    Models, Specifications, and Physical Properties

    We supply sorbitol in liquid and crystalline forms. The liquid model, usually at 70% solution concentration, fits food and beverage production—often used as a humectant, sweetener, or texturizer in soft drinks, low-sugar foods, syrups, and candies. Several toothpaste and oral-care formulas use this same product batch, benefiting from its non-cariogenic properties and ability to retain moisture without promoting microbial growth. The crystalline model appeals to pharmaceutical companies molding tablets and chewables, as its low hygroscopicity and granular stability can support direct compression and coating requirements. In every run, we track specific parameters: reducing sugar levels (often set below 0.3%), clarity (minimum 20% transmittance at 420 nm in typical liquid batches), detectable odors, and pH. Crystalline sorbitol, sourced from the same synthesis process, undergoes additional crystal refinement, screening, and sometimes micronization depending on granule size targets.

    Each format demands different approaches to storage and logistics. Liquid forms require food-grade tanks, inert gas blanketing to prevent contamination, and routine microbiological testing, as the aqueous medium represents an occasional risk for spoilage. Crystalline shipments need packaging with strong moisture barriers, as unintended water entry leads to caking and handling problems. This logistical attention doesn’t only affect shelf life—it often decides which model a downstream customer chooses for a given application.

    Sorbitol vs. Other Sugar Alcohols

    Comparing sorbitol to related polyols helps put these product choices in context. Mannitol, another widely used polyol, tends to crystallize more slowly and with greater difficulty; its sweeter profile and limited solubility restrict mannitol’s role in syrups and toothpastes where a clear, stable solution is expected. Xylitol boasts a higher sweetness index—almost identical to sucrose—but introduces a cooling mouthfeel and higher cost owing to the more complex conversion process from hemicellulose. As a manufacturer, these physical and economic differences drive operational decisions. Sorbitol’s production delivers higher yields per input ton and fewer off-grade fractions, lowering scrap rates and energy demand. Its stable pricing, backed by mature crop procurement pipelines, means buyers can lock in contracts and forecast budgets with better accuracy than with emerging or more volatile polyols.

    Sorbitol differs further in glycerol tolerance and metabolism. The human body handles sorbitol slowly, with lower intestinal absorption compared to xylitol or maltitol. This results in lower glycemic impact—one of the main reasons food and beverage manufacturers blend it into reduced-calorie, diabetic-friendly formulations. Compared to high-intensity sweeteners such as aspartame or sucralose, sorbitol delivers both bulk and texture, making it an irreplaceable ingredient in formulations that require body, sheen, or chewiness. Toothpaste producers count on sorbitol’s non-cariogenic property for cavity protection, a foundation for decades’ worth of popular personal care products. Our technical staff participates in reformulation projects with customers who push beyond standard sweetener needs, as taste and functional properties prove crucial for consumer satisfaction and compliance.

    Application Experiences: Behind Product Choices

    Large confectionery workshops visit our plant to check current sorbitol lots, measuring both microbial load and functional consistency. Years ago, specification differences between batches led to sticky issues in their final products. Now, each drum ships with a detailed certificate of analysis, and our team answers direct questions about process changes, resin renewal schedules, or adjustments in vacuum concentration. This data-driven approach builds confidence among partners and prevents the kinds of surprises that disrupt production lines.

    Pharmaceutical clients value crystal size control to guarantee tablet performance. A smooth, compression-friendly granule means predictable tablet hardness, dissolution rates, and appearance. Our investment in fine sieving and high-precision drying equipment followed years of feedback from those users. No machine can replace repeated meetings, open audits, and sample sharing between our engineers and formulation planners. We collaborate on unusual requests: lower water activity for moisture-sensitive actives, reduced trace elements to meet new regulatory reviews, or surface treatments that address specific application issues. Every change comes with risk. By controlling each step ourselves, we minimize unplanned variables.

    In food processing, bakery chains choose liquid sorbitol to minimize sugar crystallization and preserve shelf softness. Their procurement managers expect each blend to perform identically, regardless of season or local crop fluctuations. Plant operators keep direct lines of communication open with their QA teams during peak production. During periods of major ingredient recalls in other carbohydrates, our teams have fielded urgent requests for substitution or increased volumes. Our experience preparing contingency plans and buffer stocks for such events has shown value, not just in business survival but in earning client trust.

    Safety and Regulatory Standards

    Sorbitol counts among the best-studied polyols, with a long record of regulatory acceptance. Food and Drug Administration and European Food Safety Authority guidelines specify purity standards and safe consumption thresholds. Every lot we produce undergoes in-house quality control backed by third-party validation, as our facility must comply with audited food and pharmaceutical GMP. Our track record with regular site inspections and surprise audits supports open supplier relationships. We never release sorbitol without confirming compliance with limits on heavy metals (such as lead at less than 1 mg/kg in food-grade batches), residual solvents, and microbiological purity.

    While direct ingestion rarely causes adverse effects, sorbitol can induce gastro-intestinal discomfort at high doses due to incomplete absorption and osmotic activity. Product labeling regulations require warning statements for food and snack applications with high inclusion rates. As a producer, it falls to us to accurately report actual lot content, provide SDS documentation, and offer technical guidance based on end use and market jurisdiction. Recent calls for increased traceability and transparency led our team to upgrade batch tracking, automated rejection protocols, and customer recall readiness. No shortcut justifies increased risk—our decades in the market taught us the cost of reactive decisions when preventable mistakes reach the supply chain.

    Innovation: Meeting Future Demands

    Demand for sustainable ingredients drives innovation, not just in product performance but throughout the entire production cycle. Sorbitol’s status as a derived carbohydrate feeds into circular economy models, especially where local starch supplies support crop rotation and soil improvement strategies. Our environmental impact engineers collaborate on water recycling upgrades, energy efficiency studies, and effluent recovery—the sort of work that does not always make product headlines but shapes real value in the long run. Feedback from our food and pharma partners looks for further reductions in trace contaminants, carbon footprint, and process-related waste.

    Broader polyglycol trends now push interest in bio-based, low-impact production cycles. New fermentation-based routes to sorbitol, leveraging engineered enzyme systems or yeast cultures, currently face higher costs and scale-up challenges yet offer a promising way to limit chemical catalysts and harsh process conditions. Our R&D works both on core process improvements and these advanced biotechnology pilots. Conversations with regulatory leaders and sustainability councils guide our facility upgrades, so product traceability and emissions reporting meet tightening standards. Facing increased scrutiny gives every manufacturer an incentive to strengthen controls and communicate real progress rather than rest on compliance minimums.

    The Real Value of Direct Manufacturing

    Many differences separate direct manufacturers like us from distributors or resellers. Full process knowledge allows us to adapt production runs, revise process conditions, and troubleshoot quality deviations at their source. Where a distributor might chase a missing specification from a remote supplier, we walk across the plant floor, review historical runs, and draw new samples to isolate any shift. Customers frequently visit or request remote process audits. We grant real-time access to process data streams, tracking analytics, and supply dashboards—these partnerships build solutions across commercial and technical boundaries, not just transactional sales.

    Transparent delivery schedules, open technical files, and access to plant reports all increase supplier reliability. By controlling each link in the supply chain, from raw starch sourcing through conversion, purification, storage, and outbound logistics, we shorten lead times and prevent the quality fades that occur when product sits in package transitions. Our staff provides direct troubleshooting, not just after-sales apologies; hands-on experience cuts through complex or ambiguous situations. Downstream processors, especially those in life sciences or health products, stress the importance of batch consistency, trace components, and regulatory record-keeping that only a direct manufacturer can truly guarantee.

    Industry Changes and New Challenges

    Supply chain disruptions introduced new volatility across every raw material input. We adjust procurement practices to hedge against crop failures, shifts in global shipping, and rapid regulatory swings. Constant engagement in supply networks, advance contracts with growers, and periodic audits limit exposure to such risks. In recent years, novel pathogens, weather shifts, and unexpected export bans changed the cost structure and availability of common starches. Our past dependence on a single crop gave way to more diversified sourcing strategies, spread geographically and across plant varieties. Production continuity relies on nimble scheduling and the willingness to adjust blend ratios, reactor temperatures, and even warehouse stocking priorities on short notice.

    Another challenge lies in emerging market regulations on food additives, food contact materials, and micro-contaminant levels. Legislators and technical panels review product limits more often, pushing manufacturers to anticipate likely changes and develop pre-emptive answers. Our technical staff spends time in workshops, scientific panels, and regulatory advisories—not just to comply but to help shape practical, science-backed outcomes. As policy moves, so must our plant systems and monitoring logic. In some cases, customers demand specifications that exceed current standards, preparing for domestic or export law updates. The practical experience of executing plant upgrades under real production pressure, coordinating with certifiers, and documenting each change forms a large part of our daily reality.

    Customer Support and Partnership

    Long-term buyers stress the value of technical support over mere fulfillment. On more than one occasion, our engineers visited partner plants to troubleshoot mixing consistency issues, solvent compatibility, or textural outcomes. These exchanges lead to shared approach improvements, faster incident resolution, and in some cases, the development of completely new application techniques. We regard each technical support call as an extension of our own production knowledge: the more insight we share, the stronger our joint operational base grows.

    As market trends move toward functional health, sugar replacement, and increased nutritional claims, our customer support teams invest heavily in education and regulatory clarity. We address both basic ingredient inquiries—suitable blends for caloric limits, allergen status, chemical compatibility—and advanced formulation conflicts. Our experience with real-time product issue investigation, from plant audits to process analytics, sets us apart from third-party merchants and abstract technical sheets. Every answer we give comes from recent production learning, not recycled catalog remarks.

    Continuous Quality Improvement

    Quality rankings depend less on hitting internal targets than on the real-world performance at customer sites. Our management encourages feedback, rapid sample turnaround, and collaborative troubleshooting. During product transitions, such as moving from sodium-reduced to sulfate-free resin beds or switching filter formats, we align pilot runs with client process lines. Minor tweaks—for example, changing drying temperatures—have led to measurable differences in handling or storage at the end user. Each production cycle includes a post-lot review: Were any deviations logged? Were there trace contaminations? Did any clients register support calls about a particular batch?

    We avoid standing still. Our facility design allows for pilot studies and modification, whether as small as instrument upgrades or as large as bringing in new starch hydrolysis technologies. Several years ago, customer requests for low-ash sorbitol in high-recovery tablet lines prompted us to invest in multi-stage ion-exchange columns, despite an up-front cost increase. The payoff arrived as stable contracts and repeat business, proving that investment in lasting process control beats the marginal gain of cost-only approaches. With every round of feedback and continuous improvement, our position strengthens—not just for us, but for every partner relying on reliable, traceable sorbitol.

    Concluding Insights: Staying Grounded While Growing

    Sorbitol’s reliability as an ingredient mirrors the diligence of those producing it. Our direct involvement in each manufacturing stage means we stake our reputation on every lot. Real improvement comes from listening to users, responding to disruption with transparency, and investing in cleaner, safer, and more predictable production. Trust, forged over years through technical rigor and clear communication, continues to define our role for large and small clients alike. Sorbitol, though derived and refined through evolving processes, never loses its relevance so long as quality, adaptability, and partnership remain paramount in chemical manufacturing.