|
HS Code |
106042 |
| Cas Number | 94596-28-4 |
| Molecular Formula | C22H22O10 |
| Molecular Weight | 446.41 g/mol |
| Iupac Name | 7-(6-Methoxy-2-oxo-2H-chromen-8-yl)-2,4-dihydroxy-5-methoxy-8-(β-D-glucopyranosyloxy)chromone |
| Synonyms | 5-Methoxypuerarin |
| Appearance | Powder |
| Solubility | Slightly soluble in water |
| Purity | ≥98% |
| Storage Temperature | 2-8°C |
| Source | Pueraria lobata (Kudzu Root) |
As an accredited Methoxypuerarin factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Methoxypuerarin is supplied in a sealed amber glass vial containing 100 mg, labeled with product details and storage instructions. |
| Shipping | Methoxypuerarin is shipped in securely sealed, chemical-resistant containers to prevent contamination and degradation. Packages are labeled per regulatory guidelines (GHS/CLP) and include safety data sheets. Shipping is conducted via approved carriers, ensuring compliance with local, national, and international chemical transport regulations. Temperature and light-sensitive precautions may be applied if necessary. |
| Storage | Methoxypuerarin should be stored in a tightly closed container, protected from light and moisture. It is best kept in a cool, dry place, ideally at 2–8°C (refrigerated conditions). Avoid exposure to excessive heat, humidity, and incompatible substances. Proper storage ensures stability and prevents degradation or contamination of the chemical over time. Always follow safety guidelines and regulatory requirements. |
| Purity 98%: Methoxypuerarin with 98% purity is used in pharmaceutical intermediate synthesis, where it ensures high yield and minimal by-product formation. Molecular weight 416.38 g/mol: Methoxypuerarin with a molecular weight of 416.38 g/mol is used in anti-inflammatory formulation development, where it provides targeted bioactivity and consistent pharmacokinetic profiles. Particle size <10 μm: Methoxypuerarin with particle size less than 10 μm is used in tablet manufacturing, where it enables uniform blending and enhanced dissolution rates. Melting point 222–225°C: Methoxypuerarin with a melting point of 222–225°C is used in solid dosage form preparation, where it offers thermal stability during processing. UV absorbance 260 nm: Methoxypuerarin exhibiting UV absorbance at 260 nm is used in quality control assays, where it allows for precise quantification and purity assessment. Stability at 40°C: Methoxypuerarin stable at 40°C is used in long-term storage testing, where it maintains efficacy and chemical integrity under accelerated conditions. HPLC assay ≥99%: Methoxypuerarin with HPLC assay ≥99% is used in intravenous formulation, where it guarantees low impurity levels and patient safety. |
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Experts in chemical manufacturing get to know the materials they work with more closely than a surface glance ever allows. Methoxypuerarin stands as a strong example. With years of direct handling and refinement within our facility, we have seen firsthand how this molecule distinguishes itself. Methoxypuerarin, assigned the model MPR-98 in our catalog, consistently draws interest from R&D teams, academic chemists, and formulators pushing for plant-based innovation in medicine and nutrition.
Methoxypuerarin is derived from Pueraria lobata roots, belonging to the isoflavone class. Its value comes from structural nuances compared to standard puerarin. Our team noticed that the presence of a methoxy group on the aromatic ring leads to not just altered solubility, but also different interaction with target compounds in both pharmaceutical and nutraceutical settings.
The raw material sourcing impacts the final profile of Methoxypuerarin, and selecting root material from the proper cultivation zones remains crucial for purity and consistency. Our production process focuses on both the initial extraction and a multi-step purification, resulting in a white to light-beige crystalline powder that holds up under demanding analytical controls.
Manufacturers live with the reality that specifications are not thin lines on a tech sheet, but the outcome of many choices and years of process control. For Methoxypuerarin MPR-98, we commit to a minimum purity of 98% by HPLC. Moisture and ash content are strictly limited—water below 0.5%, ash under 0.2%—through both vacuum drying and microfiltration. Particle size influences blending, encapsulation, and even bioavailability, so we monitor mean diameter in real time during milling. Tests for heavy metals, pesticide residues, and microbial contaminants reflect the tough standards any reputable producer must meet.
Differences in finished product often trace back to overlooked steps. Some players might skip depth filtration or struggle to manage temperature swings during crystallization—problems that cause micro-impurities, color shifts, or odd odors in the powder. Technicians here rely on clean room protocols, frequent batch sampling, and thorough operator training. These measures may sound routine, but their absence shows quickly in an unstable or off-spec product.
Customers ask why Methoxypuerarin sometimes looks or behaves differently between batches or suppliers. Our own hands-on experience shows that consistency depends on both the controls mentioned above and transparency about raw material selection. Many smaller suppliers blend extract batches or hesitate to discard material with off-limits levels of related compounds. We are strict about discarding what doesn’t meet the internal cutoffs—even at the cost of lower yield.
Methoxypuerarin is not a theoretical product for us. It reaches lab benches every week for project trials, process evaluations, and translation work from bench to industry scale. In pharmaceutical settings, researchers use it for its potential modulation of enzyme activity, antioxidant properties, and effects on vascular and neural pathways. Its structural tweak from pure puerarin often means a different set of biological targets or improved cell permeability. With more hydrophobicity brought on by methoxy substitution, solubility in organic phases increases—a plus for certain drug delivery systems.
Nutrition companies see it as a specialized addition to functional food, beverage, or supplement blends. Formulators try it for combinations alongside soy isoflavones, resveratrol, or catechins. Our production batches have supplied both clinical trial teams and product pilot runs. Employees have developed a familiarity with formulation challenges: taste masking, dissolution rates, and even capsule discoloration can all be early warning flags that something in the source or purification altered from the prior run.
Quality testing includes not just HPLC and TLC fingerprints, but also in-house thermal stability and light-exposure studies. This stems from the needs of real customers—not as a checkbox measure, but as a direct response to failed pilot capsules or food matrices. Authentic experience with customer product development means knowing that actual product lifecycle requirements go beyond mere purity: ease of blending, predictable stability, and regulatory acceptance weigh equally.
Through these cycles, staff get an informed sense for how Methoxypuerarin diverges from run-of-the-mill isoflavones. Compared to daidzein or puerarin, it resists hydrolytic breakdown a bit more. Ask any formulation chemist or QC analyst here: a compound stable in the reference sample sometimes drifts after a few weeks in a multivitamin blend. Methoxypuerarin’s resilience owes to its methoxy group, according to both peer-reviewed literature and repeated stress tests at our site.
Having worked with various flavonoids and isoflavones, our technicians recognize Methoxypuerarin’s practical differences quickly. For one, its melting range consistently registers higher than puerarin—over 215°C by differential scanning calorimetry. This trait provides an advantage in processes requiring short-time high temperatures, like hot-melt extrusion or certain tablet compressions.
Solubility characteristics prove different. Methoxypuerarin dissolves more efficiently in certain ethanol-water mixtures, which benefits formulators in beverage or tincture platforms. Our pilot lab often sets up split batches of extract to verify which ratios speed up or slow down dissolution or precipitation. Small solubility improvements can have a major effect on yield, active ingredient recovery, or shelf appearance.
Technically, Methoxypuerarin’s molecular tweak narrows potential interference with other phytoestrogens, which designers of complex supplement blends appreciate. This distinction marks it as a unique part of the isoflavone spectrum, especially when precision in pharmacological programs drives the research.
From a regulatory and documentation perspective, the methoxy substitution also prompts extra scrutiny from compliance departments. We are familiar with these audits, so batch traceability and purity documentation come standard with every lot we produce. Working within regulated industries reminds the team constantly of the real-world pressures product developers feel, so meticulous record-keeping isn’t just a formality—it has real impact on our partners’ progress.
Over years of producing Methoxypuerarin, tests and tweaks have become part of our daily routine. For instance, after a customer reported higher-than-expected levels of a related flavonoid impurity, we began using dual-zone temperature controls during solvent recovery. Staff noticed this adjustment cut unwanted byproducts by over 40% in subsequent batches.
Sensitivity to requested specification changes happens frequently. If a project specifies lower than typical particle size, our milling line slows feed rates and adjusts filter mesh mid-batch, then returns to routine after confirming mean size with laser diffraction. Learning to spot subtle shifts in powder texture or color comes from pouring over hundreds of lots, not from reading a standard operating procedure or following textbook advice. These habits build the reliability product developers depend on.
Feedback loops go both ways between production and application teams. Methods in extraction or purification are often improved because customer outcomes indicate issues not visible in the lab. A surge in interest from beverage formulators, for example, led us to create a hydrophobicity panel and test dissolution in various non-aqueous solvents. The hands-on complexity makes each process more than a check-box exercise.
Veteran chemical makers recognize that every new lot or customer requirement brings new challenges. Consistent potency ranks high among demands. Maintaining compound integrity from extraction, purification, to granulation sometimes strains capacity at certain scales. After doubling batch size to fit a large dietary supplement order, we spotted minor upticks in moisture content, and tuning the drying cycle and airflow pattern solved it. Failures become practical engineering lessons, directly translating into better output next cycle.
Sourcing root stock brings its own complications. Overharvest, crop variability, and environmental influences shift isoflavone yields, so incoming material screening never stops. Teams learned the risk of shortcutting this step: impure root leads to unsatisfactory extraction no matter how precise the downstream steps. A clutch of trained staff and long-term supplier ties is the answer, not a mysterious black-box fix. Investments in supplier verification, on-site visits, and growing zone analysis enhance starting material quality.
On the other end, customer project managers want documented support if they transition to a new active or need custom documentation. We now invest more in digital lot tracking, from field to finished jar, so each batch’s fingerprint and audit trail is always on hand. Requests for expanded heavy metals testing or nuanced contamination analysis get built into the process with input from experienced chemists and regulatory teams—never just copy-pasted from industry templates.
As new applications for Methoxypuerarin emerge, teams face pressure to test new process parameters and adapt. Molecular tweaking—either through slight hydrolysis or other subtle modifications—becomes part of development pipelines. By keeping open lines between production, lab, and application staff, we create small but important innovations: from improved filtration stages to better moisture-resistant packaging.
Each challenge—be it from supply chain, process hiccups, or new regulatory standards—fuels improvements in the way we produce and support Methoxypuerarin. What makes the product valuable is not simply the raw purity, but the embedded knowledge, continuous problem-solving, and willingness to respond to evolving industry demands.
End users—be they R&D chemists, formulation scientists, or quality managers—rely on Methoxypuerarin’s predictable performance. Product failure in a pilot batch or a shift in analytical readings points back to the manufacturer, so living up to those expectations sits at the core of our approach.
Our team spends as much time on process documentation and customer support as on actual manufacturing. Real-world application experience has taught us the cost of shortcuts. Each new lot represents an opportunity for improvement, whether driven by fresh technical research, feedback after a formulation issue, or a new market trend in botanical actives.
With each kilogram produced, staff stay aware that Methoxypuerarin is part of much larger projects—sometimes requiring adaptation to specialized analytical techniques, other times needing a tweak in physical properties. Experience has shown that open collaboration with clients, regular process review, and investment in both people and technology combine to shape a product that delivers in dynamic field conditions.
Working daily with Methoxypuerarin means understanding more than what a chemical formula or CAS number can convey. Every adjustment, from sourcing standards to the design of new application tests, stems from a direct line of feedback between what happens in the factory and what’s needed at the point of use.
Veteran chemical workers draw daily lessons from the realities of handling Methoxypuerarin. Challenges with extraction, shifts in regulatory limits, application setbacks, and user requests have shaped our offering over the years. The molecule’s subtle modifications relative to its parent compounds yield benefits in real-world formulations—higher tolerance for heat, improved solubility in mixed-phase systems, and steady resistance to certain degradation pathways.
A successful product, we find, comes not just from aiming for a certificate of analysis but from building in the practices and practical knowledge that ensure users can rely on each batch. Many performance trends seen in the field return to production in the form of tighter process windows, smarter QA measures, or more adaptable packaging. Every lesson, whether a minor batch failure or a customer’s breakthrough application, feeds a loop that creates better material for the next user.
Methoxypuerarin, as produced in our facility, ships with the hard-won assurance that each kilogram grew out of real-world challenges, repeated feedback, and long-term commitment to quality over convenience. Industry changes, customer expectations, and supply pressures never subside; they only serve to refine both the product and the team behind it.
In a crowded marketplace where claims of quality come cheap, the value of experience, transparency, and sustained attention to evolving science becomes clear through every lot we ship and every satisfied user we support.