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HS Code |
398042 |
| name | Morin Hydrate |
| CAS_number | 480-16-0 |
| molecular_formula | C15H12O8 |
| molecular_weight | 320.25 g/mol |
| appearance | Yellow powder |
| solubility | Slightly soluble in water, soluble in ethanol and DMSO |
| purity | Typically ≥98% |
| melting_point | 295-297°C |
| storage_temperature | 2-8°C |
| synonyms | 3,5,7,2′,4′-Pentahydroxyflavone hydrate |
| chemical_class | Flavonoid |
| IUPAC_name | 2-(2,4-dihydroxyphenyl)-3,5,7-trihydroxy-4H-chromen-4-one |
As an accredited Morin Hydrate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Morin Hydrate is packaged in a 5-gram amber glass bottle with a tightly sealed screw cap to protect from light and moisture. |
| Shipping | Morin Hydrate is typically shipped in tightly sealed containers, protected from light, moisture, and extreme temperatures. It is packed according to chemical safety standards, labeled with hazard information, and may require handling as a non-hazardous compound. Shipping follows local and international regulations to ensure safe transport and delivery. |
| Storage | Morin Hydrate should be stored in a tightly closed container, protected from light and moisture. Keep the chemical in a cool, dry, well-ventilated area, away from sources of ignition and incompatible substances. Ideal storage temperature is typically 2–8°C (refrigerator). Proper labeling and secure handling are essential to prevent contamination and ensure safety during storage. |
Applications of Morin Hydrate in Industrial ManufacturingMorin Hydrate, a naturally occurring flavonoid, finds targeted industrial applications due to its unique molecular structure and functional properties. We provide high-purity, quality-controlled supplies to large-scale manufacturers who require precise performance under regulated production environments. Below, we detail verified industrial sectors where Morin Hydrate acts as a critical input, with focus on compliance standards, optimal formulation, integration in downstream processes, and ultimate product forms. 1. Chromogenic Agent in Analytical Reagent ManufacturingThe chromogenic specificity of Morin Hydrate enables its deployment as a fluorometric and colorimetric reagent in laboratory and diagnostic kit manufacturing. Its chelating ability with aluminum ions underpins analytical workflows, including quantitative spectrophotometric detection. As a raw material manufacturer, we ensure that our customers in this sector receive technical-grade batches free from interfering impurities, supporting accurate end-test results and smooth scale-up from pilot to batch production. Industry compliance standards
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2. Natural Antioxidant Component in Food Packaging CoatingsFood-grade Morin Hydrate functions as a natural antioxidant additive for next-generation food contact packaging coatings. It inhibits oxidative degradation in biodegradable polymer films and protective edible coatings by scavenging free radicals, extending shelf-life for perishable packaged foods. Our manufacturing process involves strict GMP alignment and provides full traceability and allergen management to guarantee food-grade acceptability and reproducibility in customer formulations. Industry compliance standards
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3. Plant Tissue Culture Additive in Agriculture BiotechnologyMorin Hydrate serves as a protective antioxidant and anti-browning agent during the micropropagation of commercial horticultural crops. It reduces phenolic oxidation during explant disinfection and culture initiation, improving survival rates and tissue viability. We guarantee contaminant control and consistent particle size, critical for repeatable distribution in complex plant growth media and tightly managed laboratory production settings. Industry compliance standards
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4. Reference Standard for Analytical Quality Control in Pharmaceutical LaboratoriesMorin Hydrate operates as a certified reference substance for identity and purity testing during pharmaceutical QC and research. Its well-characterized spectral properties allow precise calibration and validation of analytical instruments and method performance when quantifying structurally related flavonoids. We provide full COA, HPLC/MS analysis, and batch traceability to meet strict pharmaceutical laboratory needs for validated standards. Industry compliance standards
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5. Marker Compound in Botanicals Authentication for Nutraceutical ProcessingDue to its characteristic UV-Vis spectrum and relatively high abundance in select plant materials, Morin Hydrate is widely used as a marker compound for authentication of herbal extracts, especially those derived from Moraceae and Anacardiaceae family plant products. It allows nutraceutical producers to verify raw material identity, ensure label compliance, and detect adulteration. We manufacture in accordance with trace-level purity specifications and provide origin documentation to simplify regulatory declarations during customer audits. Industry compliance standards
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Every chemical coming off our production line starts with a reason. For morin hydrate, that reason centers on its unique place among flavonoid compounds and how it has become essential for many scientific projects and industry processes. Morin hydrate’s technical term is 3,5,7,2',4'-Pentahydroxyflavone monohydrate, and our main manufacturing model delivers this molecule with a consistent CAS number (e.g., 654055-01-3). Its structure carries five hydroxy groups, giving it functional versatility that benefits research, formulation, and application testing, far beyond what most flavonoids offer.
In the production hall, the process demands real attention to purity. We produce morin hydrate as a yellow, crystalline powder, ensuring high purity—often above 98% by HPLC. This level of confidence is not just for ticking boxes on a certificate of analysis. Research teams and industrial partners rely on chemical consistency to generate reproducible results. Batch control starts from the sourcing of raw botanical extracts, right through isolation and crystallization. Throughout this process, we monitor moisture content and keep it controlled, since even minor changes in hydrate levels can affect solubility and application.
Manufacturing a flavonoid like morin hydrate comes with its challenges. Its main competitors in the industry—quercetin, rutin, catechin—share some similar structures, but morin hydrate brings that extra hydroxylation at unique ring positions. This gives it an edge in antioxidant and metal chelation properties, which pleases researchers working on trace metal analysis, food science, and plant biochemistry. For instance, morin hydrate forms strong complexes with aluminum ions, creating a detectable fluorescent marker that is hard to mimic with other flavonoids.
From our experience, users value the distinct difference between morin hydrate and closely related compounds. In food and environmental laboratories, morin’s reaction profile to ions outshines quercetin, which cannot achieve the same selectivity or sensitivity in fluorescence tests. When it comes to antioxidant comparisons, morin demonstrates slightly different radical scavenging efficiencies, which can matter in chromatographic assays and preservation formula research. Our team has worked closely with analytical chemists who find that morin hydrate’s colorimetric response and its stability in varying pH ranges give it a unique advantage, especially in quality control programs for food additives or cosmetic testing.
Static product listings make it easy to gloss over technical points, but the technical details define our process. We consistently produce morin hydrate with a minimum purity of 98% (HPLC), a moisture content between 4.0% and 6.0%, and fine powder granulation that disperses cleanly in both aqueous and certain polar organic solutions. We have refined our filtration and grinding processes to avoid unwanted residues or large aggregates—problems that used to slow down many laboratory workflows.
Average particle size rarely exceeds 100 microns after sieving, and samples pass through additional checks to confirm this, each time an order goes out the door. Color is another indicator we treat seriously; any visible deviation in yellow hue cues our quality team to run another round of purity and contamination checks. Over time, our clients have told us that visual clarity can mean the difference between successful visualization in fluorescence (especially in staining and microscopy applications) and wasted research effort.
Our customers use morin hydrate for more than just bench research. Food safety labs adopt it as a fluorometric reagent for aluminum detection, thanks to the distinctive green fluorescence of the Al-morin complex. Over years of manufacturing, we noticed that requests for custom packaging rose from food quality monitoring teams, who needed smaller aliquots to minimize exposure to moisture. In plant biology, researchers employ morin hydrate in staining cell walls or tracking biosynthetic pathways. Unlike generic flavonoids, the hydrate form stabilizes during staining cycles, making results more dependable.
Nutraceutical companies use morin hydrate during pilot testing of supplements—especially since there is growing research on morin’s anti-inflammatory and antioxidant activities. But translating lab data to product formulation can be tricky. We work with these teams to supply small-batch, consistent samples, focusing on particle dispersibility and ease of mixing, so their powder blends stay homogenous without unwanted sedimentation.
Pharmaceutical research groups care about morin hydrate’s inhibitory action on certain kinases and enzymes. As a raw material provider, we focus on minimizing contamination (e.g., trace solvents, heavy metals) that might interfere with lab assays. Within our facility, analytical teams benchmark each batch against internal references and client-supplied standards. Many researchers want precise melting points and spectral confirmation, so we share our internal FT-IR, NMR, and MS analysis snapshots for the most demanding clients, streamlining their regulatory and research paper submissions.
Making high-purity morin hydrate is about solving problems as they arise. We have experienced fluctuations in supply chain quality, especially when botanical source material varies in flavonoid content or comes from different harvests. To mitigate this, we partner with several suppliers and routinely run screening batches. Our chemists optimize extraction and crystallization to isolate morin hydrate while minimizing the carryover of structurally similar flavonoids (like kaempferol or isoquercetin).
Instrument calibration remains a constant focus, as miscalibrated HPLC can lead to purity assumptions that don’t match reality. We run duplicate analyses and cross-reference with reference materials from major scientific suppliers. Several customers have told us about problems with powders from less experienced producers—off-odors, poor solubility, and sometimes inconsistent fluorescence results. Those stories drive our commitment to methods that prove reproducibility, not just high purity on paper.
Morin hydrate hates high humidity and rough handling. It clumps, loses flow, and can develop surface grime that looks off in labs. This feedback, especially from universities in tropical regions, convinced us to revise packaging to moisture-protective foil laminates and include multiple size options. We always recommend storing product in a desiccator, a tip we picked up from researchers troubleshooting inconsistent analytical results.
What makes morin hydrate indispensable in trace aluminum analysis is its selectivity and the clarity of its color change. Colorimetric and fluorometric methods lean on the morin-aluminum complex to provide low detection limits and minimize false positives that plague less specific dyes.
We have supported method development teams in water testing facilities who rely on consistent lots of morin hydrate to maintain detection limits—especially important as regulatory agencies tighten threshold values for metal contaminants. Every batch gets run against certified reference standards. Our hands-on experience shows that minor changes in purity or hydrate level can shift calibration curves, so analytical reliability is top-of-mind every production cycle.
Morin hydrate also finds use in the quantification of flavonoids in plant samples. In those setups, our clients appreciate the ability to scale from small mg-level orders for method validation to bulk, multi-kg lots that feed routine monitoring and high-throughput sample screens. Delivering consistent product across scales takes a well-structured batch management system, and feedback from contract labs has guided us on how to adapt lot numbering and supply documentation.
Over the years, analytical and research customers have tried using quercetin, kaempferol, and other flavonoids in assays that eventually moved to morin hydrate. Structural differences matter: morin’s arrangement of hydroxyls improves metal chelation and influences both its color and fluorescence signals. Quercetin, a popular alternative, does not produce as bright a fluorescent complex with aluminum, nor does it maintain the same stability in varying pH—attributes we have confirmed in side-by-side testing.
Many supplement formulators prototype with these alternates but often return to morin for better solubility and handling, given the hydrate form’s slight edge in dispersibility, particularly in polar solvents. We see similar stories from those developing functional foods or evaluating antioxidants in storage testing. Product developers often report that switching from rutins to morin hydrate leads to improved analytical reproducibility and easier troubleshooting in the lab, thanks to cleaner, more predictable behavior.
From a production perspective, morin hydrate crystallizes with less aggression than rutin or catechin, reducing the risk of tough aggregates. Our grinding and air milling processes turn out a finer powder, which limits losses from sticking to equipment or failed suspensions.
We do not shelter clients from the raw details. Each morin hydrate shipment includes a recent batch-level certificate with HPLC chromatograms, elemental analysis, and ID testing using FT-IR. Regular regulatory audits drive us to keep historical quality records, not just to satisfy compliance review, but to support trouble-shooting in research projects when results differ from expectations.
Experienced customers sometimes request additional third-party analysis or blind samples to verify supplier consistency. We see that as a healthy partnership: open bench-testing makes the supply chain stronger. Issues like loss on drying, trace solvent peaks, or inconsistent melting point often come to light during independent checks. We proactively conduct our own cross-checks to confirm our production routines do not introduce unwanted side-products or excessive hydrate variability.
Morin hydrate may seem robust, but sensitive applications mean careful storage. Our feedback loop with clients pushed us toward using high-barrier, anti-static pouches. Several cases of powder clumping led to our addition of silica gel desiccants, especially in bulk packaging. Researchers consistently report that ambient humidity during transit can degrade analytical performance. In response, we support express shipping options and stagger deliveries where long-term storage outside controlled facilities is unavoidable.
We have assisted clients in tropical and coastal areas with strategies to extend shelf-life and minimize clumping—moving samples to low-humidity refrigerators, sealing after every aliquot, and conducting periodic visual and olfactory checks. Sharing these simple, experience-based solutions reduces waste and maintains product performance.
Each time we run a new batch, our lab team cross-validates results using more than one instrument—multiple HPLC columns, both C18 and diol—ensuring trace impurities don’t escape our checks. Consistency matters: even a small batch-to-batch purity discrepancy can disrupt repeatability in sensitive tests. Down the line, we’ve seen the benefit of this vigilance: credit from seasoned lab managers who can tie reproducible data directly to the quality of the morin hydrate they received.
We remain alert to any new research about morin hydrate’s properties. If journals point to new contaminants or unusual degradation products, we adjust screening routines. Recent client feedback has spurred the addition of more detailed log-sheets with every order, tracking production date, testing protocol, and even staff signoff. This paper trail helps clients assign confidence to analytical outcomes and resolve any questions that arise in multi-site studies.
Our production line is only as good as the feedback loop with our clients. Last year, we worked with a series of university teams running multi-center comparison studies. They stressed the need for tighter batch tracking and faster response to technical issues, leading us to roll out more structured documentation and open lines to our QA team for real-time troubleshooting.
In the nutraceutical sector, regulatory standards have been tightening. Several of our long-term partners moved to higher documentation requirements on source traceability and batch testing, reflecting their push for transparency and reduced risk. As a manufacturer, responding with real-time analytical support and flexible documentation sets the tone for successful partnerships.
We have learned that investment in staff training and continuous QC instrument calibration pays off. Process improvements—like in-line moisture measurement during drying, or integrating better ventilation in grinding zones—keep consistency up, which clients see in cleaner chromatograms and fewer reportable anomalies.
The science behind morin hydrate keeps evolving, and so do the requirements from researchers and developers. Whether it is new protocols in environmental monitoring, tighter standards for supplement testing, or more sophisticated uses in plant biology and pharmacology, we see a steady trend towards stricter controls and deeper scrutiny of raw material quality.
We stay alongside these trends by maintaining clear communication, leveraging customer feedback, and acting quickly when shifts in the regulatory environment or new scientific findings signal a need for adjustment. Our technical staff takes pride in knowing their work impacts everything from a research breakthrough in metal analysis to the reliability of a field test kit for food safety.
After years working with morin hydrate at scale, we see it not only as a commodity but as a catalyst for new ideas, supporting both daily lab routines and pioneering research. As standards grow ever more stringent, focus on maintaining purity, batch-to-batch reproducibility, and responsive technical support distinguishes morin hydrate that comes straight from a manufacturer with real-world experience.