Products

Aurantio-Obtusin-6-O

    • Product Name: Aurantio-Obtusin-6-O
    • Alias: Aurantio-obtusin 6-O-β-D-glucoside
    • Einecs: 211-482-0
    • Mininmum Order: 1 g
    • Factroy Site: Yudu County, Ganzhou, Jiangxi, China
    • Price Inquiry: sales3@ascent-chem.com
    • Manufacturer: Ascent Petrochem Holdings Co., Limited
    • CONTACT NOW
    Specifications

    HS Code

    254388

    Productname Aurantio-Obtusin-6-O
    Chemicalformula C17H12O7
    Molecularweight 328.28 g/mol
    Casnumber 70500-36-0
    Appearance Yellow powder
    Solubility Soluble in DMSO, slightly soluble in water
    Purity ≥98%
    Storagetemperature -20°C, keep dry and tightly sealed
    Source Natural plant (Cassia obtusifolia seeds)
    Application Reference standard, pharmacological research
    Iupacname 8-Hydroxy-1,6-dimethoxy-3-methyl-9,10-anthracenedione-6-O-beta-D-glucopyranoside
    Synonyms Aurantioobtusin 6-glucoside
    Shelflife 2 years under recommended conditions

    As an accredited Aurantio-Obtusin-6-O factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing The packaging for Aurantio-Obtusin-6-O contains 10 mg in a sealed amber glass vial with a tamper-evident cap and label.
    Shipping Aurantio-Obtusin-6-O is shipped in tightly sealed, chemical-safe containers to prevent contamination and degradation. Packages are cushioned and labeled according to international hazardous material guidelines, with temperature and light control as required. Shipping includes compliant documentation and tracking for secure delivery, typically via expedited courier to ensure product integrity and prompt arrival.
    Storage Aurantio-Obtusin-6-O should be stored in a tightly sealed container, protected from light and moisture, at a temperature of 2–8°C (refrigerator). Keep the chemical in a dry, cool, and well-ventilated area, away from incompatible substances such as strong oxidizers. Ensure the area is secure and access is limited to trained personnel to maintain stability and safety.
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    Competitive Aurantio-Obtusin-6-O prices that fit your budget—flexible terms and customized quotes for every order.

    For samples, pricing, or more information, please contact us at +8615365186327 or mail to sales3@ascent-chem.com.

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    Tel: +8615365186327

    Email: sales3@ascent-chem.com

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    Certification & Compliance
    More Introduction

    Aurantio-Obtusin-6-O: A Manufacturer’s Commentary on Practical Innovation

    Direct Insights on a Unique Compound

    Aurantio-Obtusin-6-O stands out not just because of its rarity in the commercial world, but because of the depth of work that goes into its creation here at the plant. Our experience as a direct manufacturer, not a reseller or just another link in the chemical supply chain, colors every decision about how we refine, package, and introduce this compound. In the real world, practical bench time and day-to-day observations shape the path a product like Aurantio-Obtusin-6-O travels from raw material to finished specialty grade.

    Understanding Aurantio-Obtusin-6-O

    Every batch of Aurantio-Obtusin-6-O begins with the careful selection of Cassia obtusifolia seeds as our plant source. Experience showed us that the seeds from distinct regions deliver differences in raw aurantio-obtusin content and related anthraquinones, affecting not just downstream purification yields, but also consistency. Over years, one truth became clear: attention to raw material variability cuts rework, boosts final product purity, and reduces waste, even before the extraction process kicks off.

    The product Aurantio-Obtusin-6-O is characterized by the specific placement of its methyl group and glycosidic linkage at the 6th position. For those of us inside chemical synthesis, these structural quirks tell us more than any chemical registry number could. During extraction and isolation, these features demand precise control of solvent ratios and column parameters; temperature drifts and solvent purity snags cause fast, visible spikes in impurity levels. That’s why, across our manufacturing lines, thermal maps, analytical HPLC readings, and downstream filtration protocols are tightly synchronized.

    Specifications Shaped by Daily Reality

    Our typical product offers purity levels of at least 98% by HPLC, achieved through methodical chromatography and not just one-off lab successes. Meeting this bar is less about advertising numbers and more about living up to years of audit trails and in-house trial-and-error. At each stage, impurities are mapped, monitored, and addressed, including structurally similar anthraquinones that—if left unchecked—compromise stability and downstream usability.

    With a molecular formula of C21H18O10 and a molecular weight close to 430.37 g/mol, the physical reality translates into a fine, pale yellow powder at room temperature, with solubility pegged to both ethanol and DMSO. Staff working the crystallization lines know the specific density and flow properties that this product shows—the little clumping differences after each filtration or the way the powder settles in containers—far beyond what a technical data sheet might claim.

    Practical Usage Rooted in Direct Experience

    Aurantio-Obtusin-6-O gets cited plenty in scientific articles for its pharmacological potentials, including antioxidant, anti-inflammatory, and regulatory effects in various biological systems. Academic interest is strong, but from a chemical manufacturer’s point of view, it’s the reproducibility that counts. Our customers demand material that doesn’t just meet literature values, but shows consistent behavior, month after month, across applications like pharmaceutical R&D, analytical assay standards, and plant extract reference lots.

    Handling the product at scale, we learned firsthand how moisture content matters. Residual water pushes hydrolysis during long-term storage and shipping, dragging down purity and risking clumping. So we’ve implemented a finishing step using controlled vacuum drying and monitored desiccant protocols. Every drum shipped reflects direct lessons from observing failed lots—a detail that doesn’t come from theory, but through hands-on troubleshooting.

    Most research clients working on screening bioactive compounds want Aurantio-Obtusin-6-O at a narrow particle size range for reliable suspension in organic solvents. Our milling and sieving process now holds to a 100-200 mesh window (about 74-149 microns)—a spec adjusted after we saw pipetting headaches in pilot project feedback. Repeated complaints about dispersion and off-target settling didn’t just get our attention, but kicked off process tweaks visible today in how our final product pours and mixes.

    Distinct Paths from Competitors

    Comparing Aurantio-Obtusin-6-O with closely related anthraquinones like chrysophanol, physcion, or aloe-emodin, our production line treats each with a distinct separation and purification workflow. These molecules often differ by a single functional group or hydroxyl placement, yet that small shift results in wildly different solubility and reactivity. Our plant engineers spent months characterizing these side-products during early scale-up and designing stepwise elution and crystallization to keep them physically separated.

    The process we use for Aurantio-Obtusin-6-O focuses on maintaining the integrity of the 6-O-glycosidic linkage—a notoriously sensitive site during alkaline washing and solvent evaporation. Competitors who rely solely on standard liquid-liquid separation often see partial hydrolysis, leading to mixed fractions and questionable purity. Our hands-on plant operators spotted those failures in trial runs and now double-check each batch for degradation by rapid TLC and NMR monitoring, ensuring nothing slips through.

    Transparency from the Manufacturing Floor

    Standing beside the reactors and pilot columns gives a perspective no specification sheet can match. For example, product stability under temperature cycling exposed vulnerabilities we would never catch in short shelf-life testing. Continuous monitoring over many months revealed that micro-impurities from solvent carryover, particularly from dichloromethane or acetone, affected long-term crystal integrity. We took this field knowledge directly back into the line, investing in secondary purification steps and tighter solvent recovery protocols.

    Employees routinely flag little things: changes in color intensity, clumping during final drying, or shifts in flow during bottling. Feedback loops between plant technicians and the QA lab turned “soft” data into actionable process refinements. Every time a batch runs outside expected parameters, whether in yield, color hue, or spectral fingerprint, it prompts immediate review—not just to fulfill paperwork, but to get cleaner future runs. This direct oversight helps weed out issues that generic traders or brokers might miss.

    Quality: Lessons from Direct Oversight

    Layered quality control stands as the foundation of every container sent out. Chromatographic fingerprinting, residual solvent testing, and moisture analysis all happen in-house, watched over by technicians familiar with the quirks of Aurantio-Obtusin-6-O rather than by remote third parties. Regulatory queries sometimes raise the issue of non-volatile impurities, so our team reviews post-crystallization wash profiles for each production campaign. Documentation includes real-world notes emailed in from packing staff—their observations about dusting or abnormal bottling pressure alert us to subtle formulation drifts not always picked up by instruments.

    Every once in a while, a novel impurity or unexpected degradation pattern surfaces after a change in upstream plant operation—perhaps a seasonal difference in plant seed oil composition, or a new filtration cloth lot. The hands-on team uses these as real-time case studies, borrowing troubleshooting protocols from past mishaps, and rapidly adjusting handling and process steps. This boots-on-the-ground feedback creates a living reference manual for Aurantio-Obtusin-6-O—grounded in practical factory knowledge rather than generic literature.

    Challenges Worth Sharing

    The journey to reliable Aurantio-Obtusin-6-O production carries real obstacles. Raw material supply swings make batch consistency tough. Regional variation in Cassia obtusifolia seed stocks sometimes brings unpredictable profiles of co-extracted compounds. Staff on the receiving dock have grown adept at spot-checking color, oil content, and moisture right at intake—a lesson from painful recall events in our early days. By building supplier relationships and testing every batch of raw material, we've carved out a degree of reliability that protects our downstream line.

    Scaling up from pilot to full production exposed fresh headaches. Early lab processes seemed robust, but flange seal leaks, wildly differing mixing rates, and temperature stratification in larger vessels forced us back to the drawing board. Many tweaks developed not from abstract engineering plans, but from practical trial, error, and direct communication between operators, engineers, and lab analysts. Cooling protocols gradually adapted to keep hydrolysis at bay, and staff learned that even the speed of powder charging into reactors affected batch consistency.

    Innovation from Real-World Problems

    Solving product problems, large and small, brings out the best in a manufacturing environment. Regular staff suggestions—ranging from alternating solvent pools in extraction, to running side-by-side batches under different venting arrangements—yielded measurable improvements in both purity and yield. It’s innovation not written up in academic reports, but tested and adopted because it makes life easier on the floor and reliability stronger batch after batch.

    Our packaging room worked closely with warehouse staff to tackle issues around caking and settling during transit—a challenge unique to fine-particle products like Aurantio-Obtusin-6-O. Fielding complaints of powder hardening after international shipment, our team improved the moisture barrier in drum liners and switched to containers better suited for sensitive botanical extracts. Such iterative problem-solving, driven by both customer and internal feedback, leads to a product far more robust than just technical spec compliance.

    What Sets This Aurantio-Obtusin-6-O Apart

    The market features several anthraquinone products, but few manufacturers keep full control over each step from plant selection through chemical modification and quality testing. Our approach means every plant lot, every filtration column, every vacuum drying cycle is monitored by a team who touch and process the material daily. The knowledge accumulated from years of handling, missteps, and continuous tweaks shows up in the batches that leave our facility—each one offered with accountability and backed by hours of face-to-face troubleshooting on the plant floor.

    We don’t just rely on analytical instruments; visual inspection and hands-on handling matter just as much in our environment. Over time, patterns in settling rates, changes in powder granularity, or shifts in color helped shape operational checklists and batch review points. Our difference lies not just in the purity numbers but in the way these observations inform every adjustment and improvement. The cycle of production, monitoring, and feedback keeps our value grounded in real outcomes.

    Working Closely with End Users

    Pharmaceutical and research clients often find themselves frustrated by variability in reference standard lots or inconsistent assay results—a problem linked directly to overlooked details in manufacturing and storage. Relationships with these users, forged over years of conversations about specific solubility needs or storage practices, steered our technical support to go well beyond the norm. Our technical team fields calls ranging from residual solvent queries to optimal dilution protocols, and logs common patterns to inform process refinements at the source.

    Laboratories that depend on precise, reproducible standards make up the backbone of our user base. Each packet or drum of Aurantio-Obtusin-6-O draws on direct user experience with pipetting behavior, solution stability, and even response to repeated freeze-thaw cycles. These real-world demands reinforce the value of practical, experience-based manufacturing. Failures to deliver on such details aren’t just hypothetical complaints—they show up as lost bids, shrinkage in customer trust, and, in the rarest cases, urgent production reviews that put all hands on deck.

    The Ongoing Value of Hands-On Production

    Producing specialty chemicals like Aurantio-Obtusin-6-O doesn’t leave much room for shortcuts or distant management. Every awkward shipment, every repeat question from a researcher, and every upturned drum that carries a little too much dust, shapes future activity on our lines. By running a vertically integrated plant, we hold ourselves to practical, actionable standards—reflected in the living details of both the product in the jar and the stories told by staff who crafted it. Grounded experience, not just technical data or compliance paperwork, ensures that this product meets the highest standards for those who rely on it most.

    That's the reality of Aurantio-Obtusin-6-O production—anchored in daily practice, steady process improvement, and continual dialogue between factory floor and end user. The difference comes not just from chemical formulae or purity metrics, but from the habit of turning day-to-day learning into next-generation reliability and value.

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