|
HS Code |
695190 |
| Name | Myricetin |
| Chemical Formula | C15H10O8 |
| Molecular Weight | 318.24 g/mol |
| Cas Number | 529-44-2 |
| Appearance | Yellow powder |
| Solubility | Slightly soluble in water, soluble in alcohol and DMSO |
| Melting Point | 357-358°C |
| Source | Natural flavonoid found in fruits, vegetables, tea, and wine |
| Purity | Typically >98% (HPLC) |
| Storage Conditions | Store in a cool, dry place away from light |
| Synonyms | 3,3',4',5,5',7-Hexahydroxyflavone |
| Usage | Used in research on antioxidants and anti-inflammatory agents |
As an accredited Myricetin factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Myricetin is supplied in a 25g amber glass bottle with a screw cap, featuring a detailed chemical label and hazard warnings. |
| Shipping | Myricetin is shipped in tightly sealed, light-resistant containers to protect it from moisture and degradation. The package is labeled according to regulatory standards, including hazard and handling information. During transit, it is kept at a controlled room temperature, and shipping documentation is provided to ensure compliant and safe delivery. |
| Storage | Myricetin should be stored in a tightly closed container, protected from light and moisture. It is best kept in a cool, dry, well-ventilated area, ideally at 2-8°C (refrigerated conditions). Avoid exposure to air and heat, as myricetin is sensitive to oxidation and degradation. Proper storage ensures its stability and maintains the compound’s purity for laboratory use. |
Competitive Myricetin 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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We produce Myricetin for customers looking to source flavonoid ingredients directly from professionals with years of synthetic and extraction experience. The Myricetin we supply typically reaches purity levels above 98%, based on HPLC analysis from our batch testing. Our main model, coded as MYR-98, features a yellow crystalline powder. Every kilogram comes with specific assay certificates tied to that production lot, a practice we have maintained for over a decade to ensure batch consistency. We have refined our process so impurities are tightly controlled, and we regularly improve upon both yield and purification efficiency.
Our technical team focuses heavily on quality details because our end users work in industries—not only supplements and food, but also analytical labs—where process deviations matter. We control moisture content rigorously and confirm the product meets low heavy metal thresholds. We ship Myricetin with solvent residues far below international standards. The molecular formula is C15H10O8 and it typically melts around 357°C–358°C. Each bag, drum, or jar is vacuum-sealed and labeled. Customers often mention that our product dissolves smoothly in ethanol or DMSO, which streamlines their own downstream processing steps.
Research professionals exploring antioxidant and anti-inflammatory compounds come back to our Myricetin because of reliable composition and proven stability. Some teams test its inhibition of specific kinases or its role in modulating cellular oxidation markers. Over the years, pharmaceutical and nutraceutical R&D labs use our batches as reference standards or study material. In food science, customers investigate Myricetin for natural colorant or functional ingredient projects. Personal care formulators ask for it as a botanical antioxidant for cosmetic blends, citing the high polyphenol content.
Making Myricetin isn’t simply a case of extraction or synthesis followed by shipment. Our process starts with botanical selection, often utilizing bark from Myrica rubra or other well-documented sources. Extraction involves ethanol-water systems, then several chromatographic steps. Each fraction is monitored with UV and HPLC fingerprinting to map out the flavonol's integrity through each stage. Working as a manufacturer, we recognize how small process changes affect the final product’s application results.
In the past, we saw supply chain disruptions stemming from both agricultural variability and regulatory shifts. This challenge prompted us to build robust contingency plans and to invest in reliable analytical testing. We maintain strong transparency in our specification sheets and stay responsive to questions about the bark or leaf origin, environmental controls, and chemical traceability. Routine feedback loops with buyers lead to ongoing upgrades to our cleaning processes and document management.
Shoppers often ask how Myricetin stacks up against quercetin, kaempferol, or rutin. From a chemistry standpoint, Myricetin includes six hydroxyl groups, lending it higher polarity and distinct antioxidant behavior compared to its flavonol siblings. In our pilot-scale reactors, the extra phenolic hydroxyl content changes both solubility and extractability. Feedback from R&D users mentions that Myricetin’s free radical scavenging activity works differently in model systems and cell cultures.
From a technical angle, the increased hydrophilicity of Myricetin affects the way it binds with proteins and enzymes during screening assays. Our synthetic chemists also explain that this characteristic sometimes demands gentler handling during purification, plus lower temperatures for optimal stability. Teams exploring protein tyrosine kinase or other enzymatic inhibition mechanisms request Myricetin specifically because of its unique activity profile. Those working with quercetin or kaempferol sometimes find they don’t match the same biological performance in their hands.
Differences between our Myricetin and off-the-shelf flavonols from brokers or blenders usually come down to batch traceability, production scale, and documented QC controls. After market recalls in the dietary supplement industry a few years ago, the value of consistent documentation became clear. We archive every COA, including impurity peaks from chromatography, finished-batch moisture, and any deviation logs. We know small molecule contaminants from solvents or pesticides can trip up an entire research run, so we over-test, catching issues before they leave our floor.
Producing at commercial scale has forced us to engineer a workflow that manages both micro-batch R&D and ton-lot pharmaceutical orders. Our team handles segregation of plant material, cross-validates retention times, and discards lots with off-spec peaks. Years of analytical experience means our staff flag invalid batches before they move to drying, grinding, and packaging. Every year, audits drive us to update packaging, contamination prevention, and barcode tracking. Customers counting on consistency find these changes translate to fewer headaches downstream.
Sourcing has transformed as supply chain expectations grow. As a direct manufacturer, we build relationships with local farmers who provide barks or leaves subject to regular residue checks. We rotate fields for sustained yields and meet with growers to discuss best practices in harvesting. Adapting to stricter environmental requirements, we switched to closed-loop solvent recovery systems, reducing both airborne emissions and operator exposure.
In the early 2010s, some manufacturers used wildcrafted botanicals that risked heavy metal uptake or unclear origin. Our team switched to contracted fields, allowing us tighter controls over soil nutrients, irrigation, and harvest intervals. Internal audits uncover points of vulnerability, such as cross-contamination from neighboring fields. Our technical staff sets aside samples for quarterly pesticide analysis and randomly checks new suppliers. With recent regulatory changes worldwide, this approach sets us apart from bulk commodity suppliers who lack full process control.
Statutory thresholds for residual solvents, heavy metals, and pesticides tighten yearly. The only way to stay ahead is to monitor regulations in every customer’s region and pre-emptively adapt. Our regulatory specialists scan updates from FDA, EFSA, CFDA, and local compliance groups. To avoid last-minute shipment holds, we pilot new extraction protocols and cleanouts before they become legal requirements. Our QA office issues documentation supporting these efforts for customers needing import dossiers or registration support.
We have tracked several cases where finished products using unvetted Myricetin created costly recall situations. Most issues stemmed from contamination from unfiltered solvent, or mislabeling of plant species upstream. We train every operator to match process logs against barcode data and finished COAs before approval. By archiving both raw botanical and finished product samples, we give auditors a traceable timeline from field to end-user lab. This structure reassures clients investing in long-term supply partnerships.
End users’ goals shape our manufacturing priorities. Pharmaceutical development teams require GMP-compliant documentation, with attention to bioburden, solvent recovery, and element speciation. Beverage or functional food companies need standardized lots that mix well and withstand pasteurization. Cosmetic formulators ask about micro-encapsulation or carrier-free powder, so we’ve invested in both lyophilization and spray-drying lines.
In R&D circles, some customers value highly pure crystalline Myricetin, while others prefer amorphous or finely milled material for compound screening. We accommodate by offering custom particle sizes on request, backed by technical support and stability studies. An experienced manufacturer recognizes the difference these details make for scaling pilot runs or investigating structure-activity relationships in synthetic analogs.
A few years ago, a client’s animal nutrition project required micron-sized Myricetin, undetectable as visual specks in feed. Our response wasn’t to use stock processing, but to develop a micronization line designed to prevent bulk heating and oxidation. Several months of stability and recovery studies later, the result allowed product adoption in broader industrial applications, a level of adaptability less common among brokers.
Manufacturers who supply Myricetin to projects in pharmaceuticals, nutraceuticals, or food need to support scale-up and registration. Our technical staff regularly fields data requests from research teams: solubility studies, thermal and photostability data, and spectral fingerprint libraries. Recently, an R&D customer working on targeted anti-inflammatory formulations turned to us for additional samples, not only to confirm prior results but to validate consistency across growing seasons. Our maintained retention samples made these studies possible, helping the project gain sponsorship.
As pharmaceutical clients push Myricetin through preclinical to clinical stages, they look for process validation, reproducibility, and full traceability. Having invested early in process documentation, we easily produce batch production records and cleaning logs as part of regulatory filings. We also keep reference spectra and impurity profiles for all scale-up batches. This direct support keeps projects moving, especially for international partners facing multi-country review boards.
Flavonol manufacture brings two persistent problems: batch-to-batch variability in extraction and risk of contamination. Variability can arise even using the same botanical species, if seasonal weather, harvest timing, or soil conditions change. To deal with this, we map plant material input to final batch output, often running parallel small-batch pretests to gauge incoming lot potency. On the contamination front, we focus on cleaning protocols and solvent recycling, continually investing in equipment upgrades to reduce residuals.
Another challenge comes from customer preference shifts: one year, food companies demand more fine powder; another year, clean-label supplement brands request larger granules or custom blends. As a result, we operate both small and large-scale lines, designed to switch between requirements without compromising on safety or crossing allergen lines. This flexibility comes only from years of direct operational experience and ongoing investment in staff training.
Feedback has shaped most of our best improvements. R&D clients suggested lower-dust packaging, which led to changes in liner bags and container sealing. QA managers in supplement companies requested more frequent heavy metal screenings, which we achieved by adding in-house rapid tests. Cosmetic industry buyers needed certificates proving absence of certain preservatives—new lot release protocols now include this in outgoing paperwork.
Academic groups studying Myricetin often share publications and findings, giving us insight into novel applications and analytical pitfalls. Our approach is to document findings and collaborate when new activity, or unexpected results, appear. That way, we catch both potential compliance issues and emerging uses for the compound before they disrupt supply chains or create confusion in the market.
We work with partners who seek more than a price quote—they want consistency, reliability, and expert support. Having endured disruptions from crop disease, changing tariffs, and regulatory shifts, our team knows that being the manufacturer means standing behind every drum and bottle. The investments made in process control, sample retention, and documentation give customers the confidence they need to advance their own innovations.
Myricetin’s appeal comes from its diverse bioactivity and natural origin. Producing it at scale takes dedication, real-world testing, and attention to shifting scientific and regulatory landscapes. We see ourselves as more than raw material providers. We strive to enable discovery, innovation, and problem-solving for every research group and product developer who turns to us for reliable Myricetin in a crowded and ever-evolving market.