|
HS Code |
603417 |
| Productname | Methylophiopogonanone B |
| Casnumber | 104018-82-6 |
| Molecularformula | C17H16O5 |
| Molecularweight | 300.31 |
| Appearance | Yellow powder |
| Purity | >98% (HPLC) |
| Solubility | Soluble in DMSO, methanol |
| Storagetemperature | -20°C |
| Source | Ophiopogon japonicus (natural product) |
| Synonyms | 7-Methoxyophiopogonanone B |
As an accredited Methylophiopogonanone B factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Methylophiopogonanone B, 10 mg, is supplied in a sealed amber glass vial with a tamper-evident label and desiccant. |
| Shipping | Methylophiopogonanone B is shipped in sealed, chemically-resistant containers to ensure stability and prevent contamination. The packaging complies with all hazardous material guidelines. During transit, it is protected from heat, light, and moisture, with temperature control if required. Accompanied by safety documentation, it is handled exclusively by trained personnel. |
| Storage | Methylophiopogonanone B should be stored in a cool, dry, and well-ventilated area, away from direct sunlight and sources of heat. Keep it in a tightly sealed container, preferably under inert gas such as nitrogen or argon, to avoid moisture and oxidation. Store at 2–8°C (refrigerator) for optimal stability and keep away from incompatible substances like strong oxidizers. |
Competitive Methylophiopogonanone B prices that fit your budget—flexible terms and customized quotes for every order.
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Tel: +8615365186327
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Methylophiopogonanone B is not a compound you find every day, and most of the time, questions about it begin at our own laboratory doors. Our experience runs back over a decade, producing this rare homoisoflavanone in batches starting with Ophiopogon japonicus tuber extractions. The pathway, purification, and crystallization call for technical patience and a close eye on details, with no shortcuts. Reliable origins matter in the world of plant-derived molecules, and as a genuine producer, we insist on strict controls, direct testing, and traceability at every stage.
We approach synthesis as a conversation between plant and process. Fresh tubers, properly sourced and seasonally harvested, contain only trace amounts—rarely enough for research, certainly never enough for scalable application. To address this, we invested in multi-stage extraction and chromatographic refinement. These steps do more than filter out plant debris. We see, under the lens and through HPLC curves, how each fraction behaves, how the desired compound emerges from its close chemical relatives. Every batch profile receives scrutiny in our own analytical suite. For research requiring certainty—be it pharmacology, analytical method development, or natural products chemistry—this purity means everything. Our typical shipped lots exceed 98 percent by HPLC, confirmed by both NMR and MS, because we have learned that minor isomers can derail downstream experiments or applications. Unchecked, even small impurities become problematic, especially with compounds as sensitive to light and oxidation as Methylophiopogonanone B.
In today’s market, this molecule stands out for more than just its rarity. Many labs search for the right isoflavanone to unlock new frontiers in metabolic or anti-inflammatory research. Structural analogues—such as ophiopogonanone A or B, or even more distant glycosylated saponins from the same class—display overlapping, yet distinct activity. Custom chemists, often operating from intermediates, claim to supply similar products. Actual side-by-side comparisons tell another story. Methylophiopogonanone B carries a uniquely methylated backbone, which influences both its solubility and its receptor affinity. Practical testing in our partner labs demonstrates a sharper, more selective biological response. This is partly why many papers cite our material and why journals require precise documentation of source and spectral consistency.
Most requests we field come from university groups and pharmaceutical companies. The usual question: Is this batch reproducible and is it truly isolated from botanical material? The answer is yes—our reputation rests on our processes and our ability to provide full analytical documentation, from raw tuber intake to final vial. More than one researcher has come to us after failed trials with off-the-shelf intermediates. Inferior synthesis often produces side products that masquerade as actives. There is no substitute for direct extraction paired with careful chromatographic isolation.
We worked with a cancer pharmacology unit last year exploring synergistic effects between saponin fractions and pure Methylophiopogonanone B in immunomodulation. Their results, as they described firsthand, remained inconsistent until switching to material produced and certified by us. Subtle differences—hardly visible outside expert hands—can yield conflicting data. Years ago, while collaborating on a glucoside mapping project, we saw how even single-molecule methylation shifted solubility curves and enzyme interactions. Rigorous science thrives on consistency, and this is the promise we make as a manufacturer.
Handling this compound is not a trivial matter. Melt-point shifts quickly, depending on humidity and ambient light. Solubility spans polar and semi-polar solvents, but we have learned that even trace moisture can impact storage life. Clients with long-term screening projects sometimes struggle if supplied product rests on warehouse shelves too long before shipping. Manufacturers controlling their own warehousing and transport conditions can assure protection from oxidation and light-induced degradation. We ship in amber glass under vacuum and avoid plastic contact, since it can leach phthalates and confound analytic purity. For solubilization, DMSO, ethanol, and methanol work, but the sequence of dissolution and dilution determines recovery yield—a fact evident if working daily with the crystalline material.
We run reference analyses on analogues as a matter of course. Methylophiopogonanone B, unlike its demethylated siblings, remains less prone to glycation and is more readily detected at lower UV wavelengths. This matters for labs performing sensitive bioassays or tracking metabolism in cell lines. The methyl group on the aromatic ring resists phase II metabolism, which affects both duration of action and metabolic stability in pharmacokinetic tests. We once conducted an in vitro screen comparing its degradation with ophiopogonanone C and several semi-synthetic variants. The metabolism rates diverged by an order of magnitude, backing up anecdotal reports from drug metabolism groups who had tried material from alternative sources. The lesson stays with us: detailed comparison only becomes possible if you control material from start to finish, owning not only isolation but precise documentation and batch records.
Production in our own facility eliminates guesswork. Our QA team checks each batch at multiple steps, not simply the final vial. For those seeking support with analytical data, we share complete spectral files—proton and carbon NMR, full MS traces, and even the raw chromatograms if required. A number of published groups acknowledge this level of transparency, because journal editors and peer reviewers now expect origin confirmation for reference standards. Someone using repackaged commodities cannot match this level of traceability or technical depth. Years ago, when we supplied one of the first labs attempting large-scale fractionation for preclinical work, the value of clear, reproducible recordkeeping became obvious. Today, grant managers and patent reviewers expect evidence, not marketing.
While regulatory requirements for botanical-derived compounds tighten, researchers are pressed to document every aspect of their supply chain. Because we own the process, every drum, lot, and analytical file sits ready for inspection or audit. For clients submitting Investigational New Drug applications or planning clinical trials, this chain of custody links directly to experimental reliability. Several working groups rely on our compound lines to ensure full compliance with national and international standards governing raw material sourcing, manufacturing practice, and batch-level reporting. Skipping steps or relying on unlabeled imports means inviting risk. As a producer, we keep documentation from initial harvest through every stage, internally reviewed and available for partner verification. This transparency is not just for corporate clients – even university research centers have started auditing material suppliers with increasing frequency, responding to journal policy shifts that ask not just “where was it bought,” but “how was this made and verified.”
Some clients need more than a reference vial. Our facility supports both gram-scale trial runs and kilogram-scale projects, with dedicated technicians acting as a bridge between synthesis and application. Last month, a major cosmetics laboratory requested a purity adjustment, seeking the optimal compound for their bioactive screening platform. Our team adapted purification grades, provided pilot-batch HPLC profiles, and ran solubility tests in their own proprietary excipients. This level of interaction is rarely possible with brokered or relabeled supply. Feedback cycles between the point of manufacture and end-user accelerate discovery and reduce wasted effort in secondary purification. For researchers seeking even higher enantiopurity or isotopic labeling, our custom projects provide routes unavailable on the open market. We approach every request as an opportunity for hands-on science, not just fulfillment.
Direct procurement of raw tubers brings responsibility. We cultivate partnerships with agricultural collectives near our main site, working on a closed-cycle, traceable system. This grants control over the environmental footprint, marks the start of every batch record, and means every lot’s origin can be pinpointed by season and field. Maintaining a long-term relationship with growers also improves crop quality and guarantees material availability. At a time when some intermediates blend undocumented imports, our commitment to sustainable, transparent sourcing provides confidence in authenticity. We audit working conditions to ethical standards, invest in organic cultivation, and use post-extraction residues for soil amendment and biomass fuel. National and international researchers increasingly ask about these origins, not only for regulatory documents but to support grant applications and publication ethics.
Experience matters. We have seen labs derailed by unreliable reference standards and have cleaned up more than one confusion caused by uncertain impurity profiles. Researchers who deal directly with the source avoid unnecessary delays, incorrect results, and failed repeatability. Once, a collaborator contacted us with a concern: their results using chemistry-grade material from a distributor failed to match literature benchmarks for anti-inflammatory signaling. Our comparison run, using our own Methylophiopogonanone B, revealed the distributor’s vial carried contaminating isoflavanone—a common issue with reprocessed products. The lesson carried through across projects: transparency at the manufacturing level prevents confusion in the data downstream. When peer review moments arise, it helps to know exactly what sits in the tube, backed by warranty and full batch tracing.
While purity and process reliability set us apart, real-world manufacturing throws curveballs that never appear in textbook summaries. Crop variation, year-to-year, can nudge precursor concentrations just enough to warrant recalibration of extraction parameters. We learned this the hard way after a rainy spring two years ago, which changed water content per tuber and called for altered solvent ratios. Our QA lab flagged the initial runs, and by moving rapidly to adjust, we saved months on downstream purification. A trading agent relying solely on commodity blending will never see or solve such problems—because the link to plant chemistry is already lost. These lessons shape our hands-on expertise and benefit our clients through lower batch-to-batch variability and faster troubleshooting.
Interest in homoisoflavanones like Methylophiopogonanone B only grows as natural product-based drug leads become central to discovery efforts. Pressure on suppliers to provide ever-purer, better-documented material aligns with our established manufacturing philosophy. As research expands into new therapeutic areas—immunomodulation, metabolism, even dermatology—direct engagement with the people making the compound guarantees results that stand up to rigorous replication. Intellectual curiosity thrives best on solid experimental ground. Publishing in high-impact journals, winning patents, and entering regulated markets all begin with knowing your material, and we are proud to remain a trusted fixture in this specialized world.
Every production line at our facility is supervised by staff with years of practice at the bench. No handoff occurs between unknown parties, no hiding behind faceless distribution. Clients talk directly with our chemists and quality team, receiving answers that come from practical experience, not translated sales scripts. Often this reduces both lead times and uncertainty, as questions about custom preparation or scale-up receive thoughtful, technically informed responses. This is our everyday approach and what sets manufacturers apart from disconnected resellers. Feedback from the research world tells us that direct engagement saves both time and effort—especially for first-in-class projects, investigative research, and grant-funded screening programs.
Producing Methylophiopogonanone B demands substantial investments in people, technology, and agricultural anchoring. The compound’s subtle behavior, limited occurrence, and challenging purification profile resist shortcuts. Every lesson learned, every collaboration built over years, feeds back into our production cycle. Those using our product access both the molecule and decades of accumulated expertise, ensuring the confidence to pursue new discovery. In the chemical landscape, where knowledge and reliability combine, a producer who knows their own material from inception to delivery gives researchers the strongest starting point. Every batch reflects not just a chemical structure, but the working knowledge gained from hands-on experience, scientific partnership, and a genuine commitment to advancing what is possible in natural product research.