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Diacetonefructose

    • Product Name Diacetonefructose
    • Alias Dihydroxyisopropylidene fructose
    • Einecs 'EINECS 216-067-6'
    • 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

    616834

    Name Diacetonefructose
    Cas Number 20880-92-6
    Molecular Formula C9H14O6
    Molecular Weight 218.20 g/mol
    Appearance White crystalline powder
    Melting Point 130-136°C
    Solubility In Water Soluble
    Boiling Point Decomposes before boiling
    Density 1.42 g/cm³
    Main Use Intermediate for organic synthesis
    Iupac Name 1,2:4,5-Di-O-isopropylidene-β-D-fructopyranose
    Storage Conditions Store in cool, dry place
    Stability Stable under recommended storage conditions
    Smiles CC1(O)[C@@H](O)C2(O)OC(C)(C)O[C@H]2C1(C)O
    Refractive Index N/A

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

    Packing & Storage
    Packing 500g Diacetonefructose packaged in a sealed, amber glass bottle with tamper-evident cap, labeled with safety information and batch details.
    Shipping Diacetonefructose should be shipped in tightly sealed containers, protected from moisture and direct sunlight. Store in a cool, dry, and well-ventilated area. Handle with care to prevent leaks or spills. Comply with all relevant transportation regulations for chemicals, including proper labeling and documentation. Avoid contact with strong acids or bases during shipping.
    Storage Diacetonefructose should be stored in a tightly closed container, in a cool, dry, and well-ventilated area away from sources of heat and direct sunlight. It should be kept separate from incompatible substances, such as strong oxidizers. Avoid moisture contact and store at room temperature. Clearly label the container to prevent accidental misuse and ensure compliance with all relevant safety regulations.
    Application of Diacetonefructose

    Applications of Diacetonefructose in Industrial Manufacturing

    As a manufacturer of Diacetonefructose, we enable advanced formulation and production in several specialized industries. The following application segments reflect the primary industrial fields using this specialty carbohydrate derivative, based on real-world supply chain data and regulatory context.

    1. Pharmaceutical Intermediate for Nucleoside Analog Synthesis

    APIs for antiviral and anticancer therapies often require complex sugar intermediates. Our Diacetonefructose serves as a key chiral building block in the synthesis of modified nucleosides. Chemists utilize it in multi-step protection and deprotection sequences to deliver selectivity and high-purity yields in active ingredient manufacturing. Stringent process controls ensure integrity across purification, crystallization, and isolation stages, supporting cGMP production of specialty nucleosides.

    Industry compliance standards

    • ICH Q7A (Good Manufacturing Practice for Active Pharmaceutical Ingredients)
    • USP–NF Monographs (specific nucleoside APIs)
    • EU GMP Directives (Active Pharmaceutical Ingredients)
    • FDA 21 CFR Part 211

    Typical usage ratio

    • Usage falls between 0.6–1.1 molar equivalents per nucleoside target, adjusted according to required protection group availability and yield optimization during multi-step synthesis.

    Downstream process integration

    • Introduced in early-stage glycosylation and protection reactions during active ingredient synthesis.
    • Participates in conversion sequences involving protected sugar intermediates before final coupling.
    • Removed or converted during deprotection and purification to furnish the required nucleoside intermediate.

    Final product types

    • Pharmaceutical nucleoside analogues
    • Antiviral drug raw materials (e.g., lamivudine, entecavir)
    • Oncology API precursors
    • Diagnostic reagent sugars used in research

    2. Chiral Pool Reagent for Agrochemical Synthesis

    Select agrochemical compounds require accurately configured sugar units in active cores or side chains. Technical teams in crop protection and plant growth regulator industries use Diacetonefructose as a preparative chiral pool reagent. Direct implementation in glycosylation, acylation, or selective oxidation steps ensures stereochemical integrity in complex molecules. Material supply meets ongoing needs for high reproducibility and batch-to-batch consistency in pilot and commercial scale plants.

    Industry compliance standards

    • ISO 9001:2015 Quality Management System
    • REACH Regulation (EC) No 1907/2006 (for raw material registration and safety data)
    • FAO/WHO Specifications for pesticide production
    • National standards for agrochemical manufacturing (GB/T, ASTM where available)

    Typical usage ratio

    • Ranges from 1.0–1.5 molar equivalents per chiral center, according to the structural requirements and complexity of the target agrochemical scaffold.

    Downstream process integration

    • Employed at early functionalization stages and sugar chain elaboration for chiral intermediates.
    • Feeds into subsequent oxidation or condensation reactions to produce final pesticide actives.
    • Residues removed with standard chromatographic or crystallization techniques.

    Final product types

    • Chiral herbicide intermediates
    • Fungicide building blocks
    • Insecticide synthesis precursors using protected sugars
    • Plant growth regulator key intermediates

    3. Food Ingredient for Advanced Maillard Reaction Modulation

    Leading food technology firms utilize Diacetonefructose in low-dose applications to influence Maillard reaction profiles in baked and extruded snacks. This specialty carbohydrate supports tailored browning and flavor compound development without contributing excessive sweetness or caloric value. Formulators closely monitor both local and international standards on food safety and ingredient labeling when using this product in formulation labs or pilot plants.

    Industry compliance standards

    • FAO/WHO Codex Alimentarius (for food additives, sugar derivatives)
    • EU Regulation (EC) No 1333/2008 (Food Additives)
    • FDA GRAS Notification (where applicable)
    • China GB 2760—National Food Safety Standard for Use of Food Additives

    Typical usage ratio

    • Inclusion levels span 0.05–0.25% by weight, adjusted by batch depending on desired browning intensity and final product matrix.

    Downstream process integration

    • Added at dough-mixing or batter preparation stage for bakery and snack production lines.
    • Participates during heat-induced browning stages to generate targeted aroma and color profiles.
    • Does not persist as an isolated compound in the finished product due to conversion under process conditions.

    Final product types

    • Baked crackers and biscuits
    • High-protein snack bars
    • Processed cereal products
    • Custom toasting control for breakfast goods

    4. Chemical Intermediate for Specialty Resin Synthesis

    Producers of high-performance, water-soluble resins use Diacetonefructose as a chemical intermediate in the formation of carbohydrate-based polymers. Its defined protective groups and solubility profile enable controlled polycondensation or crosslinking reactions. Quality teams rely on validated raw material traceability and strict lot acceptance testing before full-scale integration into polymer pathways.

    Industry compliance standards

    • ISO 14001:2015 (Environmental Management in manufacturing processes)
    • Registration, Evaluation, Authorisation and Restriction of Chemicals (REACH)
    • ASTM D7858–21 (Standard Specification for Polymer Feedstock Materials, where applicable)
    • Internal customer QC protocols for resin manufacturing

    Typical usage ratio

    • Typical ranges between 8–15% w/w of monomer charge, based on targeted crosslink density and mechanical property requirements.

    Downstream process integration

    • Feeds directly into melting, blending, or in situ polymerization tanks during batch or continuous mixing.
    • Participates in controlled crosslinking or co-polymerization reactions alongside polyols or amines.
    • Monitoring includes residual carbohydrates and unreacted monomers in final QC.

    Final product types

    • Water-borne coating resins
    • Paper impregnation binders
    • Bio-based adhesive polymers
    • Crosslinked hydrogel components
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    Certification & Compliance
    More Introduction

    Introducing Diacetonefructose: A Manufacturer’s Perspective

    Deep Roots and Real Experience

    At our production facilities, we craft Diacetonefructose with a steady eye on reliability and purity. Every kilogram comes direct from our own reactors, avoiding the pitfalls that can follow uncertain sourcing. Over decades, our line crews and chemists have encountered nearly every upstream and downstream challenge tied to specialty sugars, and we draw on this experience with every batch.

    Diacetonefructose, known in the field as 1,2:3,4-Di-O-isopropylidene-β-D-fructopyranose, isn’t just another chemical on a packing list. It begins as a simple plant-derived sugar. Through a sequence of careful steps, we transform this natural starting material using acetone and acid catalysts, then move it through purification columns and crystallization tanks. The result: white, crystalline solids meeting tight purity demands fit for customers who value consistent output and reproducible results.

    Technical Features and Model Strengths

    Every customer defines success a bit differently. We understand that from our own daily struggles meeting batch-to-batch targets. Our Diacetonefructose leaves the plant in lots typically above 99.5% purity, and our internal controls flag every deviation—long before a drum reaches a truck. The moisture is kept low, not only to meet analytical standards but because excess water can spike downstream reaction times or cause sticky caking in hoppers. Over the years, our team refined the drying and sieving to make sure nothing slows down dosing equipment or causes unexpected results in the next synthetic step.

    Pack sizes matter in the real world. We offer Diacetonefructose in bagged quantities suitable for both frequent lab-scale users and large-batch processing plants. Each format comes from a line built around safety, traceability, and prompt shipment. Our standard commercial model delivers loose-flowing crystals. We run extra tests on particle size distribution and consistently find that this helps both manual weighing and automated powder feeders.

    Adulteration and contamination risk always ride the mind of any plant manager. Every customer asks about source and verification. For years, we developed an in-house GC-MS fingerprint protocol, comparing retention times and spectra with archive samples. Downtime for retesting or rework after delivery never serves either side. We see this as the real line between commodity and specialized products: guarantee that every sack performs as expected, no matter when or where it ships.

    Usage: From Synthesis to Innovation

    Application defines value in chemicals. In our own projects and from customers’ stories, we see Diacetonefructose excel as both a protecting group and a precursor. When synthetic chemists need to safeguard hydroxyl groups during multi-step sequences, this molecule offers a sturdy shield. Its double isopropylidene protection stands up against a range of reaction conditions. Many researchers still favor it for glycoside synthesis because it releases cleanly on deprotection, leaving no stubborn byproducts. Over the years, we heard from many process chemists in pharmaceutical and natural products synthesis who rely on this reliability during late-stage intermediate purification.

    Outside of protection chemistry, curiosity fueled industrial uses beyond classic synthesis. Our R&D partners reported success turning Diacetonefructose into specialty surfactants, novel monomers for targeted polymers, and even as a building block in carbohydrate-based materials. Experience taught us the value of a raw material that acts predictably across pilot and full-scale runs—fewer surprises, less rework, and smoother compliance paperwork.

    We’ve also seen demand from academic labs, research institutions, and fine-chemical specialists who need gram-to-multikilogram quantities for method development. Quick, authentic access without middlemen cuts project delays. Years of direct conversation built a picture of what matters: narrow melting point range, absence of residual solvents, and full traceability back to the batch in case they need more. An unmatched combination of stability, solubility in common organic solvents, and ready formation of derivatives define the experience for end-users.

    Distinction from Other Specialty Sugars and Protecting Agents

    Most protecting groups in carbohydrate chemistry frame their worth in practical terms: security against hydrolysis, fuss-free removal, minimal introduction of side products. Compared to benzyl, acetate, or even silyl-type protections, Diacetonefructose holds a distinct advantage in terms of clean deprotection and resilience under acidic conditions. Many of our clients learned this the hard way—lost time and product with more fragile groups or with protection groups that require hazardous cleavage conditions. Field results back up the published literature: in batch after batch, our Diacetonefructose shields, then leaves, just as intended.

    Against other commercially available diacetal-protected sugars, our product’s finer crystal size and steady purity bring several day-to-day benefits. Operators report fewer dissolution issues, fewer filtered solids in process lines, and less waste caused by inconsistent melting. Because our process skips the introduction of alloyed catalysts, users report less metal content on final test—removing a major headache for those sending product into pharma APIs or regulated markets.

    We’ve also seen advantages in storage life. Tight control on residual acetone and water content stops browning and clumping—a nagging issue when buying from less careful sources. Long-term stable storage without yellowing or degradant formation keeps raw material budgets in check and prevents awkward shelf recalls.

    Safety counts. In contrast to some protecting agents requiring handling of strong bases or hazardous reagents during introduction or removal, Diacetonefructose stays easy to handle throughout its lifecycle. Our team always monitors the process for residuals, but the product itself shows lower hazard potential than many alternatives. Safety managers consistently favor it as a lower-risk choice.

    Commitment to Quality, Trust, and Traceability

    Early in our company’s history, we saw demand for specialty sugars flare with every new pharmaceutical or biotech trend. Rushed deliveries and unproven sources brought quality risks and cost overruns to customers—lessons we took to heart. Every Diacetonefructose batch starts from known origin raw materials, tracked through the entire chain of custody. Workers on our lines undergo regular training, and laboratory staff confirm key specs onsite. This is the everyday, unglamorous work behind every kilogram we ship.

    Our internal records stretch back decades, supporting inquiries on historical lots and root cause analysis if ever needed. Recalls remain nearly unknown in our history, a result we attribute to rigorous attention at the shop floor and lab level. Auditors from regulated industries found our retained samples, batch records, and release test sheets met or exceeded their standards.

    We recognize reputations on both sides rest not only on the quality of finished goods but on transparency and responsiveness in every transaction. Our technical team constantly updates raw material qualification and test protocols as industry standards shift. Whenever an improved analytical test emerges in the literature, our lab checks current protocols and, where a real benefit arises, brings it into the QC workflow. This pursuit keeps us at the sharp edge, not chasing trends after the fact.

    Real-World Support for Application Challenges

    Chemistry is seldom as tidy as the textbooks. Even the best procedure sometimes stumbles on scale-up, unexpected impurities, or storage quirks. Through customer partnerships, we developed a habit of listening to use-case problems before offering solutions. Once, a bulk user flagged strange color development in a storage tank. After thorough joint investigation, we found trace iron from a recent line maintenance was catalyzing degradation. By switching to our Diacetonefructose with documented low metal content, and a newly cleaned tank, their problem disappeared. This direct feedback cycle runs constantly and helps us hold ourselves to account.

    Some clients face regulatory hurdles for product introduction in pharmaceutical or food-adjacent processes. While Diacetonefructose itself rarely enters end-consumer formulations, clear answers on residuals, supply chain security, and analytical support form the backbone of regulatory filings. We keep detailed Certificates of Analysis, impurity profiles, and even archived NMR data for every batch. Our technical liaisons routinely answer detailed customer inquiries—avoiding vague assurances in favor of data-backed documents.

    In scale-up settings, users have flagged handling and solution preparation as a common chokepoint, especially in semi-automated reactors. Our operations staff share insights on best practices—optimal dissolution temperatures, filtration setups, and feed rates—based not on guesswork but on years of process experience. This communal learning flows both ways: we continually refine packing and delivery options based on customer needs as much as our own facility constraints.

    Toward Future Innovations and Partnerships

    Markets and methods in specialty chemicals shift as fast as any other technology. New demand for sustainable chemicals, biodegradable polymers, and innovative food-contact safe reagents all feed into the researcher’s pipeline. We believe Diacetonefructose will play a role in several of these areas. As a sugar-derived platform molecule, it opens possibility for chemistry steps that dodge petroleum-based starting materials entirely, feeding broader circular economy and green chemistry goals.

    We see our mission as more than just keeping supply stable and the product pure, though these are table-stakes. The best advances occur in partnership, where real process feedback and customer innovation sharpen application knowledge on both sides. Our plant teams and R&D staff thrive when they can help bridge customer intent and laboratory reality—whether in helping optimize a synthesis route, finding ways to decrease solvent usage, or tuning spec sheets to meet newly imposed industry regulations.

    Every day, chemists in our facility walk the production line, review the analytics, and weigh what worked—what didn’t. These lessons, accumulated batch after batch, give us unique insight into the strengths and quirks of Diacetonefructose as a specialty chemical. Our focus stays fixed on the practical: minimizing waste, lowering unexpected costs, supporting compliance, and making sure every box delivers on its promise.

    We invite every user, new or seasoned, to reach out with production questions, challenges in application, or ideas for new research avenues. Our doors are open to real dialogue—the kind that improves standards for everyone, not just short-term orders. For us, the measure of a good manufacturer rests on more than just product leaving the dock; it starts and ends with visible, truthful, reliable support for every partner we serve.