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HS Code |
846462 |
| Product Name | D-(+)-Cellobiose |
| Cas Number | 528-50-7 |
| Molecular Formula | C12H22O11 |
| Molecular Weight | 342.30 |
| Appearance | White crystalline powder |
| Melting Point | 229-230 °C (dec.) |
| Solubility In Water | Easily soluble |
| Optical Rotation | [α]D20 +35° (c=1, H2O) |
| Ec Number | 208-436-4 |
| Synonyms | 4-O-β-D-Glucopyranosyl-D-glucose |
| Pubchem Cid | 222451 |
| Storage Temperature | Room temperature |
| Chemical Class | Disaccharide |
| Inchi Key | GMGRUFSZAQQENS-UNKTZDKYSA-N |
As an accredited D-(+)-Cellobiose factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | D-(+)-Cellobiose is packaged in a 25g sealed amber glass bottle with a secure screw cap, labeled for laboratory use. |
| Shipping | D-(+)-Cellobiose is shipped in securely sealed containers to protect against moisture and contamination. It is packaged according to standard chemical safety regulations, often in sturdy, labeled bottles or drums. During transport, it is kept in cool, dry conditions, ensuring product stability and integrity throughout delivery. |
| Storage | D-(+)-Cellobiose should be stored in a tightly sealed container, protected from moisture and light. It should be kept in a cool, dry place, ideally at room temperature (15–25°C), and away from strong oxidizing agents. Properly labeling the container and avoiding exposure to high humidity helps maintain the chemical’s stability and prevents degradation or contamination. |
Applications of D-(+)-Cellobiose in Industrial ManufacturingAs a direct manufacturer of D-(+)-Cellobiose with industrial production experience, we supply this disaccharide for specific processing and downstream conversion applications. Our product supports strict compliance, well-defined formulation, and consistent processing for customers in specialized sectors. Below, we detail the main application tracks with practical integration guidance for B2B users. 1. Pharmaceutical Fermentation and Cell Culture MediaBioprocessing companies utilize D-(+)-Cellobiose as a specialized carbohydrate source to cultivate recombinant microorganisms, especially in the screening and fermentation of engineered cellulolytic strains for bioactive compound production. Its slow metabolizing property supports process control and yield stability in controlled bio-fermentation processes. Customers adjust concentrations to align with microbial uptake rates and optimize bioconversion to high-value metabolites, such as rare antibiotics precursors or recombinant proteins in R&D and upstream development. Industry compliance standards
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2. Food Ingredient for Special Nutrition and Functional FoodsNutraceutical and food ingredient producers employ D-(+)-Cellobiose as a low-calorie carbohydrate for formulation of special dietary foods, especially in prebiotic blends or sugar-replacement products. Given its resistance to mammalian digestive enzymes, it functions as a non-digestible oligosaccharide supporting gut health. Applications include fortification of prebiotic drink mixes, dietary fiber bars, and foods for special medical purposes where glycemic control is required. Dosing depends on the target health claim and regional food additive listings. Industry compliance standards
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3. Analytical Reagent in Laboratory and DiagnosticsIVD kit manufacturers, university labs, and reference labs use D-(+)-Cellobiose as a substrate and calibration standard for enzyme activity assays, especially in the quantification and QC release of β-glucosidase in clinical and food diagnostics. Its well-defined chemical structure and purity profiles enable reproducible, specific substrate response in spectrophotometric or colorimetric analytical methods. Standardization levels must meet high-purity and traceability requirements for regulated test kits. Industry compliance standards
Typical usage ratio
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4. Biotechnological Synthesis of Bio-based ChemicalsIndustrial biotech companies integrate D-(+)-Cellobiose as a feedstock in multi-step enzymatic or microbial cascades for the high-yield production of rare sugars and value-added oligosaccharides. Its utility arises from controlled hydrolysis to glucose or transformation into cellobiose-derived glycosides via engineered biocatalysts. The raw material can serve as a precursor, intermediate, or rate-limiting substrate in proprietary conversion routes for new carbohydrate derivatives. Process engineers fine-tune molar ratios and reaction sequences according to intended downstream targets. Industry compliance standards
Typical usage ratio
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D-(+)-Cellobiose’s reputation stands on the precision poured into every synthesis run within our own manufacturing plant. Direct production grants our chemists clear control over conditions—no crossed wires from sub-suppliers, no surprises in purity. Each batch walks through the same monitored stages, every crystallization point checked for expected outcome. This attention shapes cellobiose into a reliable standard for both academic research and industrial use. Those who specify D-(+)-Cellobiose by CAS Number 528-50-7 will find a powder with consistent grain and true-to-form chemical profile, spared of variability that frustrates downstream application.
Starting with renewable cellulose sources, the process takes cellobiose from its natural polymer matrix and strips it into a controlled, pure disaccharide. We take pride in running hydrolysis reactions not by automation but with oversight from actual chemists who have handled hundreds of batches. Over the years, this direct experience has shortened troubleshooting times, allowing us to clamp down on by-products and reliably achieve purity above 98 percent as confirmed by HPLC and optical rotation standards. The hands guiding this process know every odd smell and texture—signs of deviation never slip by.
Some distributors pad out specifications with technical jargon, glossing over the details that matter in day-to-day lab life. In direct manufacturing, the priorities look different. Every lot emerges from comprehensive testing for moisture (Karl Fischer titration, always below 1%), trace metals, and residual solvents. No blend tricks, no unexplained aroma. Whether dissolved in water for physiological studies or processed into fine crystals for chromatographic reference, D-(+)-Cellobiose keeps its identity intact. End users save hours chasing unexplained peaks or inconsistent solubility because the material’s journey from cellulose hydrolysis to finished powder remains in the hands of the same team.
Within our own R&D, we have watched D-(+)-Cellobiose plug into a spectrum of test systems. Unlike glucose or sucrose, its structural beta(1,4) linkage opens unique opportunities for enzymatic assays—a crucial edge in cellulase activity testing or carbohydrate chemistry. We know the chemistry beyond the numbers. Cellobiose resists rapid breakdown by amylases, which filters its application to those who need clean enzymatic discrimination. In fermentation projects, its steady conversion shapes practical experiments, testing the influence of exogenous enzymes or engineered bacteria. Pharmaceutical teams, food industry innovators, and academic labs value this distinction, using cellobiose to challenge or tune bioconversions without confounding side reactions.
Specifications listed for D-(+)-Cellobiose aren’t theorized; they reflect data we’ve gathered from over a decade of actual process monitoring. The product crystallizes as fine, white to off-white powder, displaying water solubility typical of disaccharides at a specification of about 20 grams per 100 mL at 25°C. Empirical checks ensure melting points show up between 223-229°C. These numbers don’t just fill in a chart—they are the thresholds that keep our lot release predictable for routine users. Chromatographic and IR spectra fingerprint the identity so any uninvited by-product triggers a production halt. End-to-end traceability comes from in-house logs, not third-party paperwork.
Working with D-(+)-Cellobiose straight from the manufacturer means no surprises in method development. In contrast, off-brand, resold, or relabeled materials sometimes show color tints, sub-visible particles, or unexpected baseline drift in analytical systems. We’ve helped customers troubleshoot odd viscosity or inaccurate enzyme results down to differences in drying procedures or packaging storage—issues that disappear when control stays with the primary manufacturer. These real-world effects carry weight for teams focused on assay reproducibility or batch scale-up, where small deviations have compounding consequences.
Early on, much of our own research used D-(+)-Cellobiose to establish calibration curves for cellulolytic enzyme kinetics. Its resistance to incidental hydrolysis gives clearer endpoints. That practical benefit extends to outside labs, where the material often stands as a reference substrate in enzyme validation work. By running hundreds of enzyme digests ourselves, we’ve seen how purity dips even by half a percent can erode statistical power. Direct feedback from customers prompted us to tighten quality targets, translating lab lessons straight into improved production rigor.
For chemists shopping for saccharides, common options like maltose and lactose present unique handling demands. D-(+)-Cellobiose holds its own as a non-reducing sugar under physiological conditions, discriminated by its β(1,4) bond that closely mimics native cellulose units. Unlike glucose, which represents the endpoint of many enzymatic chains, cellobiose bridges the space between polymer and monomer—enabling kinetic studies that need an intermediate step. In our workflow, selection of D-(+)-Cellobiose simplifies differentiation of glycosidase specificities, a detail important for both screening enzyme libraries and validating new microbial strains. Labs leveraging cellobiose find fewer false positives in activity panels and more reliable rates for time-course monitoring.
Stories of moisture seeping into bags during long transit seasons drove us to abandon porous liner materials in favor of hermetically sealed, food-grade HDPE. Years on, we no longer see powder caking or microbe blooms upon opening. Container size options grew out of repeated customer requests for both kilo-scale jars and lab bench vials, and every filled container gets nitrogen-flushed before sealing. These measures come from routine inspections, not policy checklists—with both large bulk users and small-batch innovators benefiting from the practical evolution of our packaging practice. Every complaint received sparks a real change, not just a logged case.
Not everyone settles for off-the-shelf material. Some partners demand specification tweaks, like ultra-low endotoxin or custom mesh size distributions. Having formulation know-how on the factory floor puts us in position to say yes—delivering requests for granular, spray-dried, or micronized grades based on direct discussions with users. There’s no need to draft intermediary agreements or chase imported samples with uncertain veracity. The technical team listens to use cases, runs small test lots, and iteratively tweaks output so scale-up never means an unwelcome drop in quality. New production lines incorporate lessons from old runs, directly addressing filtration bottlenecks or odd sample stability issues.
Questions about trace elements or cross-contamination risk never go unanswered, because every kilogram comes tagged with production data down to the reaction batch, drying oven, and lot tester. That transparency cuts down on headaches in regulatory or GLP settings, letting external audits review an exact record trail. The link between synthesis, crystallization, drying, and packaging stays unbroken, closing loops that often get muddied by middlemen. Customers involved in regulated applications—like food technology or pharmaceutical research—gain assurance straight from the original logs, not after-the-fact assurances.
Over the years, facing customs hold-ups, holiday crunches, and seasonal humidity, our logistics team has adapted to keep product fresh and shipment predictable. Direct-from-factory dispatch lets us keep shelf time minimal—the powder does not linger in unclear storage conditions or swapping hands between brokers. International customers particularly value pre-lot sample dispatch, which clears up pre-qualification with their own QC teams weeks before the main consignment lands. Requests for custom doc sets or country-specific declarations see a fast turnaround, since the same records management system serves both production and export control.
Having a direct role in both chemical production and solvent recovery, we’ve watched our own waste streams evolve along with regulatory frameworks. Transitioning from single-use extraction solvents to closed-recycle distillation systems came not from marketing pressure, but from seeing firsthand the hassle and cost of dealing with offspec effluent. Every improvement reflected actual pain points—lowered water usage, higher catalyst recovery efficiencies, and minimal product loss in solvent switchovers. Ongoing investment in post-reaction purification—using activated carbon and low-temperature crystallization—means every environmental claim is backed by our own records.
Direct lines of conversation with scientists using D-(+)-Cellobiose shape how we adjust specs. An academic researcher once flagged haze in an aqueous solution during a protein-binding trial; analysis pinpointed a subtle issue in rinse water quality. Following that, rinse protocols underwent change, translating into every future batch. Industrial partners tuning food-grade enzyme production asked for clearer documentation on protein contaminants—a request that led us to introduce additional SDS-PAGE screening, shaving background bands that undermined data reproducibility. These are living changes, not perfunctory responses, shaped by actual use scenarios.
Sourcing raw cellulose for cellobiose production takes more than just bulk order placement. Years of running pilot lines revealed small variables—anomalies in fiber fineness or moisture content—that later disrupt product yield or crystallization. Having buying oversight and technical staff cross-check sources means each supply chain is short, inspectable, and rigorously documented. This investment in raw material know-how—sometimes overlooked in downstream stages—stands out most for clients frustrated by unexplained quality swings from traders or warehouse resellers.
Manufacturing D-(+)-Cellobiose as a core product, rather than a side catalog entry, keeps effort centered and technical investment current. Product managers and operators don’t split their focus between dozens of unrelated specialty chemicals, so troubleshooting happens in real time and new research into improved processing finds a practical home. This approach cuts out the market distractions that too often dilute accountability. For users in continuous or critical production processes—like those running biotech incubators or high-volume screeners—this reliability spells fewer production halts and lower risk of needing lots re-certified.
Third-party intermediaries can create confusion when protocol issues come up for sensitive products like D-(+)-Cellobiose. By handling inquiries firsthand, the technical support team closes the loop between real working scientists and the original process owners. If a customer requests additional certificates, clarification on lot analytical reports, or hands-on advice optimizing dissolution rates, the same production chemists who signed off on batch release can respond directly. No script, no vague promises—just actionable answers rooted in actual batch history. This practical handshake has built trust, evidenced by long-term direct relationships and repeat orders from the same labs year after year.
Annual review cycles for production protocols don’t just exist to tick compliance boxes. Each year’s data, from particle size distribution logs to moisture pickup trends in different shipping seasons, feeds into a collective factory process memory. Running batch-by-batch comparisons informs tweaks in crystallizer cooling rates or sieve cut points, changes actioned right on the shop floor. These iterative improvements mean no stagnation—the D-(+)-Cellobiose we send out this quarter stands tangibly improved over products shipped several years back, with tighter spec windows, fewer outliers, and greater confidence for demanding application fields.
Working as a manufacturer at the intersection of lab research and industrial production underscores a key lesson: fine granularity in process control translates to real reliability at the end user’s bench. This product isn’t a sideline—it’s the result of daily investment, hands-on oversight, and continuous adaptation. Labs and plants that put trust in material directly from the maker sidestep many headaches common among products sourced through diffuse channels. Their results show it—in better yield, tighter QC results, and smoother scale-ups time after time.
Directly manufactured D-(+)-Cellobiose enables confident assay development, puts fewer samples at risk, and lets users focus R&D investment on real science—not troubleshooting questionable material. Industrial partners fed up with shifting baselines or inconsistent solubility pick direct sources and find the difference marked not by words but by every analysis they run. Academic collaborators note improvements in reproducibility, while regulatory inspections become short and to-the-point thanks to traceable documentation stretching back to the original fiber lot. No marketing story can substitute for the day-to-day reduction in guesswork experienced by users choosing directly from the original producer.
Developing, refining, and scaling manufacture of D-(+)-Cellobiose has given a clear sense that reliable chemistry emerges from responsible practice—not slogans or catchall claims. By talking openly about both our solutions and our past pain points, we help users pick the right tool for their own project, confident it will perform as described every time. This integrity not only advances science and technology, but also creates a virtuous feedback loop, turning direct user experience into next generation chemical solutions.