|
HS Code |
196681 |
| Name | Equisetin |
| Molecular Formula | C22H29NO4 |
| Molecular Weight | 371.47 |
| Appearance | Yellowish crystals |
| Solubility | Soluble in DMSO, methanol, chloroform |
| Origin | Fungal secondary metabolite |
| Cas Number | 135608-57-6 |
| Structure Type | Tetrahydroisoquinoline alkaloid |
| Bioactivity | Antibacterial, cytotoxic |
| Mechanism Of Action | Inhibits bacterial cell division |
| Iupac Name | 4-(4,8-dimethyl-1-oxo-3,4,6,7,8,9-hexahydro-1H-benzo[f]isoquinolin-2-yl)-4-hydroxy-2-methylpentanoic acid |
| Source Species | Fusarium heterosporum |
| Storage Conditions | Store at -20°C, protected from light |
| Purity | Typically ≥98% (HPLC) |
As an accredited Equisetin factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Equisetin, 100 mg, supplied in an amber glass vial with a secure screw cap, labeled with product details and safety information. |
| Shipping | Equisetin is shipped in compliance with all applicable chemical transport regulations. It is securely packaged in sealed containers to prevent leakage and contamination, and protected against light and moisture. Shipped via accredited carriers, all relevant safety documentation and labeling are provided to ensure safe handling during transit and upon arrival. |
| Storage | Equisetin should be stored in a tightly sealed container, placed in a cool, dry, and well-ventilated area away from direct sunlight and sources of heat or ignition. It should be kept away from incompatible substances such as strong oxidizing agents. For optimal stability, refrigeration (2-8°C) is recommended. Proper labeling and secure storage minimize risks of accidental exposure or contamination. |
| Purity 98%: Equisetin with purity 98% is used in antibiotic screening assays, where it ensures reliable inhibition of Gram-positive bacterial growth.Molecular weight 354.4 g/mol: Equisetin with molecular weight 354.4 g/mol is used in natural product research, where precise mass allows accurate quantification in LC-MS analysis.Solubility in DMSO 20 mg/mL: Equisetin with solubility in DMSO 20 mg/mL is used in cell-based cytotoxicity assays, where it enables consistent compound delivery at required concentrations.Stability temperature 4°C: Equisetin with stability at 4°C is used in long-term storage for pharmaceutical development, where it maintains structural integrity and bioactivity.Melting point 210°C: Equisetin with a melting point of 210°C is used in medicinal chemistry formulation studies, where high thermal stability allows for diverse processing methods.Particle size <10 µm: Equisetin with particle size less than 10 µm is used in nanoparticle formulation, where optimal dispersion improves bioavailability in drug delivery systems.UV absorbance λmax 263 nm: Equisetin with UV absorbance λmax at 263 nm is used in spectrophotometric quantification, where it facilitates precise monitoring of compound concentration during purification.Optical rotation -45° (c=1, MeOH): Equisetin with optical rotation -45° (c=1, MeOH) is used in chiral purity verification processes, where defined stereochemistry supports pharmacological activity profiling. |
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In our line of work, producing and refining compounds like Equisetin takes real hands-on experience. Equisetin itself stands out as a natural product first isolated from the fungus Fusarium equiseti. What pushes this compound into demand is its rare bicyclic octadiene core structure and its broad spectrum of bioactivities. Over the years, professionals in microbiology and chemical manufacturing have sought solutions to address the increasing resistance of pathogens to conventional therapies. In that context, Equisetin earns attention thanks to its unique mode of action and chemical backbone.
Pulling Equisetin from fermentation broths into a solid, practical reagent means controlling each step from culture to purification. In our factory, Equisetin normally takes the form of a yellowish crystalline powder. Specification on purity matters, not only for researchers but for anyone incorporating this material into downstream applications. Our typical batch reaches a purity of over 98% as verified by HPLC, with moisture content below 2%. Every shipment carries a certificate of analysis that details these numbers based on real-time batch data. The molecular formula, C25H31NO4, and a molecular weight around 409 g/mol, help analytical chemists confirm identity and trace any variation from lot to lot.
Manufacturing Equisetin for reliable use in research or industrial projects brings its own set of challenges. Employees see firsthand how variables like fermentation temperature, pH, and oxygen volumes impact not only yield but metabolite profiles. Fungal fermentation produces a host of other secondary metabolites, and purification involves multi-step chromatography and crystallization routines. A skilled technical team constantly monitors extraction solvent ratios and column elution programs. It’s these practices—sharpened by experience—that prevent adulteration, batch-to-batch drift, and minor impurities that could cripple a sensitive application.
Unlike typical microbial extraction products that often fluctuate in appearance and content, our own process consistently targets chemically identical Equisetin with minimized byproduct residues. We avoid shortcuts such as bulk solvents recycling that might compromise product profile or stability over extended storage.
A glance through a bin of microbial natural products will show plenty of polyketides and alkaloids. Equisetin, though, features both a decalin-based core and a tetramic acid substructure—this unlocks biological functions uncommon in most other fungal isolates. Colleagues in medicinal chemistry have singled out Equisetin’s ability to inhibit the bacterial enzyme DNA gyrase, a target distinct from conventional antibiotics. Most analogs from other manufacturers lack the same structural integrity or fall short on consistent activity profiles due to process contaminants.
We produce Equisetin as a standalone product, steering away from mixtures with other related molecules. That makes life easier for scientists and product developers focused on mechanistic studies or pilot-scale next-generation drug design. Many competitors, particularly suppliers that merely repackage or distribute, can only provide mixed extracts or semi-pure grades that complicate screening and structure-activity relationship analysis.
Research communities use Equisetin to probe new antibacterial strategies, since its activity profile covers both Gram-positive and select Gram-negative species. Internal studies and published literature have noted effective MIC values against some stubborn pathogens, especially Staphylococcus and rhizobial genera. Beyond infectious disease scenarios, Equisetin’s biochemical properties allow teams to deploy it as a reference standard in high-throughput screening or bioassay-guided fractionation.
Veteran development chemists will remember how important consistent batch quality becomes during pilot studies. Yields of secondary metabolites like Equisetin tend to swing wildly across unregulated sources, hindering experiment reproducibility. Our years of effort refining the culture and downstream processing steps help ensure that every order supports reliable comparisons across laboratories and over time.
The earth’s soil yields thousands of bioactive metabolites, but few have demonstrated the utility of Equisetin. Pathogen resistance and the search for new chemical scaffolds put pressure on the discovery pipeline. Equisetin, with its unique fused-ring structure and mode of action, gives medicinal researchers a leg up. In some antimicrobial assays, Equisetin shows activities on par with established clinical agents, and sometimes even outperforms older compounds that have lost ground to drug-resistant strains.
The unusual molecular architecture also opens doors in synthetic chemistry, where innovators graft or rearrange functional groups to produce novel derivatives. A proprietary fermentation and isolation regime ensures that each shipment contains uncontaminated material, meeting specifications demanded by medicinal, agricultural, and environmental laboratories alike. We routinely handle stability tests at various temperatures and humidity conditions, offering real-life advice for long-term storage and stock solution preparation.
Supplying Equisetin directly from our factory means direct control. Unlike trading firms that act as middlemen, direct manufacturers feel pains and payoffs from every error or improvement. When clients report minor inconsistencies or send feedback on downstream process hiccups, our in-house technicians respond by probing at fermentation data, solvents, or isolation steps—often within the same shift. This brings operational agility and built-in accountability. Seasoned procurement managers regularly push for this transparency, demanding rapid clarification if a lab batch veers off specification.
The learning curve in microbial metabolite production runs steep. Early batches a decade ago occasionally exhibited color drift or high-bead impurity levels, revealing bottlenecks in crystallization or liquid-liquid partitioning. Today’s Equisetin production leverages improved filters, phase monitors, and moisture-controlled packaging lines. We invested in precise temperature-controlled rooms and 21 CFR Part 11-compliant batch recording systems. Real-time analytics track every step, and historical databases let staff trace an issue from raw resource all the way to the outgoing drum or vial.
Every order leaves our facility only after hitting key checkpoints—HPLC, MS, and NMR confirmation. Customers get a document package that supports regulatory submissions, patent filings, or publication standards without the uncertainty of untraceable or ambiguous reference materials. Direct feedback loops let customers shape future improvements with their ground-level realities in mind.
Plenty of research-grade fungally derived antimicrobials circulate in global supply channels. Yet in decades of experience, few other compounds in this category show the same stability, resistance profile, and bioactivity spectrum as genuine, well-made Equisetin. Many products labeled as “equisetin” often turn out to be mixed extracts or contain structural analogs such as alteramide or fusarubin, leading to ambiguous bioassay results and wasted downstream effort.
What sets authentic Equisetin apart is not mere purity level claimed on a data sheet. Only manufacturers who ferment, isolate, and characterize the compound on-site know the challenges posed by residual fungal lipids, co-eluting metabolites, and potential mycotoxin traces. Attempts by third-party redistributors to blend or adulterate high-value products occasionally muddy both analytical testing and data reliability, breaking research momentum. Our output keeps every step under one roof, down to solvent lot intake, without relying on subcontracted toll processing.
Academic and pharmaceutical users particularly value this focus on integrity. Experience shows that long-term research contracts and repeat orders follow when a supplier’s batch-to-batch consistency lines up with published analytical fingerprints. Any deviation—even at the 0.1% impurity scale—brings questions, headaches, and follow-up logistics that divert teams from their real work at the bench.
Standard packaging for Equisetin includes amber glass vials under inert atmosphere, minimizing degradation during transit and storage. Bulk lots ship in high-barrier drums lined with PTFE bags. Years of monitoring lot stability under varying geographies put confidence behind our storage advice—below -20°C for multiyear shelving, with routine checks if opened. Repeated customer experience overwhelmingly confirms good solubility in standard DMSO, ethanol, or low-polarity organic solvents.
In a few cases, researchers handling larger biomolecule conjugates ask about off-smell, discoloration, or sediment formation. These issues usually trace to improper solution mixing or exposure to high humidity environments, not defects from upstream processing. Every batch comes with reconstitution guidance pooled from hundreds of real laboratory experiences, tightening the feedback loop between manufacturing and application.
Based on our own production trials and customer dialogue, Equisetin occasionally presents technical challenges. It is sensitive to hydrolysis in strongly basic aqueous solutions, a problem managed by employing buffered workups and handling in inert atmospheres during critical steps. Lyophilization, rather than oven drying, keeps the product color and structure stable. Our learning speaks directly from warehouse to downstream user, not filtered through layers of detached contractors.
Some new users worry about rapid loss of antibacterial potency on repeated freeze-thaw cycles. Empirical testing shows that, provided aliquots remain under nitrogen and labs avoid repeated warming, most lots maintain full activity for well over a year after initial opening. Regular dialogue with reference labs sharpened these guidelines, reflecting actual data instead of defaulting to safe but inefficient “single-use only” mandates seen from less experienced vendors.
Analytical teams who regularly compare performance of different natural product libraries usually find fewer false negatives and less chromatogram interference with our pedigree Equisetin. That pays off during method development, reducing troubleshooting cycles and ambiguous negative hits.
Microbial chemistry never sits still. The research world’s demands for higher throughput and new derivatives push manufacturers like us to expand scale, shorten lead times, and meet stricter quality criteria. Given Equisetin’s structural potential as a chemistry platform, scientists working on semi-synthetic derivatives aim for tailored activity or selectivity—projects calling for gram-scale, analytically pure starter material as a baseline.
Regulatory questions become front of mind as Equisetin edges toward preclinical and agricultural testing. Early outreach to oversight authorities steers formulation and documentation choices, leading to relevant safety, traceability, and compliance features ahead of time. We continue refining documentation and testing protocols learned from past hurdles so that regulatory approval, patent filings, and collaborative ventures proceed as smoothly as possible. Our production team joins academic or industrial consortia when practical, ensuring that what we learn gets folded back into both daily operations and innovation pipelines.
A decade refining Equisetin production left us with a simple principle: real quality emerges only when each batch comes under direct control—no shortcuts, no speculative claims. Consistency and structural confidence don’t happen by accident. They grow out of improvements, setbacks, and a culture of listening to feedback straight from the bench rather than product literature. Equisetin’s journey, from fermentation flask to finished vial, will always bring complications, but direct factory experience proves its worth day after day. Researchers and developers depending on solid, authentic compounds deserve nothing less.