|
HS Code |
963746 |
| name | Galanthamine |
| CAS_number | 357-70-0 |
| molecular_formula | C17H21NO3 |
| molecular_weight | 287.36 g/mol |
| chemical_class | Alkaloid |
| source | Extracted from Galanthus (snowdrop) and related plants |
| appearance | White crystalline powder |
| solubility | Sparingly soluble in water, soluble in alcohol |
| pharmacological_use | Treatment of Alzheimer's disease |
| mechanism_of_action | Acetylcholinesterase inhibitor |
| route_of_administration | Oral |
| storage_conditions | Store at 2-8°C, protect from light |
| IUPAC_name | 4a,5,9,10,11,12-hexahydro-3-methoxy-11-methyl-6H-benzofuro[3a,3,2-ef][2]benzazepin-6-one |
As an accredited Galanthamine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Galanthamine, 10g, supplied in an amber glass vial with secure screw cap, labeled with product name, quantity, and safety information. |
| Shipping | Galanthamine is shipped in compliance with all relevant chemical transport regulations. It is securely packaged in sealed containers to prevent contamination or leakage, protected from light, moisture, and extreme temperatures. Documentation, including Safety Data Sheets (SDS), accompanies each shipment to ensure safe handling and regulatory compliance during transit. |
| Storage | Galanthamine should be stored in a tightly sealed container, protected from light and moisture. It is best kept at a temperature between 2–8°C (refrigerated) to maintain stability and prevent degradation. Avoid exposure to extreme heat or direct sunlight. Store in a secure area, away from incompatible substances, and clearly label the container to prevent accidental misuse. |
| Purity 98%: Galanthamine Purity 98% is used in pharmaceutical formulations, where it ensures consistent therapeutic efficacy for Alzheimer’s disease management.Melting Point 120°C: Galanthamine Melting Point 120°C is used in tablet manufacturing, where it facilitates stable tablet formation under standard processing conditions.Particle Size <50 μm: Galanthamine Particle Size <50 μm is used in oral suspension preparations, where it enables rapid and uniform dispersion.Stability Temperature 25°C: Galanthamine Stability Temperature 25°C is used in room temperature storage scenarios, where it prolongs shelf life and maintains active ingredient potency.Molecular Weight 287.35 g/mol: Galanthamine Molecular Weight 287.35 g/mol is used in chromatographic analysis, where it provides reliable identification and quantification for quality control.Chirality (S)-Enantiomer: Galanthamine Chirality (S)-Enantiomer is used in enantioselective drug synthesis, where it enhances the selectivity and reduces adverse effects in therapeutic applications.Solubility in Water 12 mg/mL: Galanthamine Solubility in Water 12 mg/mL is used in injectable formulations, where it allows for optimal bioavailability and dosing accuracy.Residual Solvent ≤0.5%: Galanthamine Residual Solvent ≤0.5% is used in GMP manufacturing environments, where it meets regulatory compliance for pharmaceutical safety. |
Competitive Galanthamine prices that fit your budget—flexible terms and customized quotes for every order.
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Galanthamine has earned its status among alkaloids thanks to decades of focused research and real-world medical applications. We produce Galanthamine with a dedication that goes far beyond simple extraction; the process requires a careful mix of tradition, innovation, and ongoing dialogue with leading investigators. In our facilities, every stage draws on our industry experience and the feedback of research chemists who use these compounds daily. From the raw bulbs of Galanthus and Leucojum species to our finished crystalline product, our process reflects control over every factor—solvent selection, temperature profiles, and chromatographic purity—ensuring the end user receives consistency in every shipment.
Each batch gets its own journey through HPLC and mass spectrometry, not because these are regulatory hoops, but because we have learned, over years of customer feedback, that every decimal point in purity can change laboratory outcomes. Typical specifications we achieve push past 98.0% pure Galanthamine hydrobromide, verified with trace-level impurity reports. We find this makes the difference for pharmaceutical research and formulation, especially where other sources have left behind telltale signs of residual alkaloids or plant matter. Impurities disrupt results, and inconsistency stalls entire projects; our long-term customers rarely have to recalibrate or repeat an experiment due to material quality.
Most inquiries come from medical researchers and drug formulation teams developing cognitive enhancers for neurodegenerative disorders. Galanthamine has stood out as a reversible cholinesterase inhibitor and allosteric modulator of nicotinic acetylcholine receptors, which researchers use to design therapies for memory loss and early Alzheimer’s disease. What makes our Galanthamine suitable for these applications comes back to how tightly we control the stereochemistry and absence of related alkaloids. Over time, we have supplied not just pharmaceutical researchers, but also academic groups working on new delivery systems, and biochemists investigating the broader pharmacology of Amaryllidaceae alkaloids. The usage extends to analytical reference materials, calibration standards, and even in rare botanical drug development, but the common thread is the need for a transparent and controlled origin of the active ingredient.
With years invested at the production bench, it becomes clear Galanthamine supplies from global sources do not all meet the same benchmarks. Major challenges arrive with variability in botanical supply chains—a wet season can subtly affect alkaloid profiles, and poorly controlled extractions let unwanted plant compounds ride along into the final product. We counter these by vertically integrating: our botanical sourcing teams work directly with regulated cultivators, and our analytical teams do not release a lot unless it passes a multi-step, instrument-verified sign-off. Other products in the marketplace can reach acceptable purity on paper, but our regular customers point to a visible difference in color, flow characteristics, and in some cases, the time to dissolve in common solvents. Synthetic and fermentation-derived versions exist, but the stereochemistry and minor alkaloid content tend to differ in ways that matter for strict pharmacological protocols.
Our main model for surface research and pharmaceutical use is crystalline Galanthamine hydrobromide, offered in multi-gram through kilogram quantities. Over years of consultations with formulation experts, we refined our drying protocols to produce material that resists caking and moisture absorption in storage. The typical particle size we provide supports both solid and solution phase applications. Our specifications have shifted in response to user needs—powder flow and shelf stability sometimes matter more than what looks ideal under a microscope. By staying in steady contact with end users, not just specifiers or procurement teams, we modify these aspects to extend shelf life and support easier weighing and blending in fast-paced laboratory environments.
Scaling production from research batches to industrial scale reveals distinct hurdles, especially given the biological origin of Galanthamine. For several years, our team wrestled with annual plant yield fluctuations, meaning our extraction teams needed to develop quick assays to monitor alkaloid content in raw bulbs before extraction starts each season. We invested heavily in greenhouse propagation technologies to smooth out natural fluctuations, and now keep a year-round buffer stock of raw material. There was a time when a harsh winter could have delayed supply by months; this is largely solved through protected cultivation and micropropagation. Other manufacturers depending on wild harvesting or small-scale contracts often find it difficult to guarantee continuity, and we have traded stories with R&D directors who spent weeks stalled by supply hiccups from other sources.
Trust builds batch by batch. Many of the researchers we supply have shared personal accounts of switching over to our Galanthamine after sustaining failures with less consistent batches. We hear about mass spectrometry traces littered with byproducts from non-controlled sources, ruined stability studies, and even entire project delays tied to obscure lot-to-lot differences from anonymous suppliers. In feedback sessions, a recurring theme emerges: control at source, detailed batch documentation, and open channels for technical support make the real difference in critical research. We learn directly from analytical chemists operating near the detection limits of their instruments, so we refine our purification steps specifically to help bring down background noise in their assays.
Producing Galanthamine without depleting wild plant populations has become a core concern within the field, and we have taken deliberate steps toward sustainable propagation and land stewardship. Partnering with regional botanic conservatories allows us to propagate source material without harvesting from endangered species in the wild. The original strains of Leucojum aestivum used for Galanthamine production in our facilities are all cultivated under agreements that require replanting and habitat restoration. We commit to keeping records of all plant stock movement, adapting propagation ratios yearly based on ecological feedback. These steps have proved crucial during audits by oversight agencies, but the deeper reason comes from observing the decline in wild populations over the years. Loss of genetic diversity in wild lily-of-the-valley populations impacts us directly, so our long-term outlook goes beyond the next fiscal quarter. It also earns buy-in from customers and regulators concerned about the environmental impact of their supply chain.
One area where we find increasing scrutiny is in traceability—from bulb to powder, our records close every gap. We map every incoming batch to its propagation lot, sample at harvest, and then append a unique identifier at every extraction and crystallization stage. This does not end up as a marketing slogan, but rather as real insurance against mix-ups and recalls. Customers with FDA-regulated projects demand this clarity; knowing exactly when and where a plant grew, which technicians handled it, and which instruments purified it, all feeds into regulatory compliance. A single missing record in this process could unravel years of work for a pharmaceutical partner, so we keep nothing generic. Our own product management team regularly reviews and upgrades the traceability chain in response to customer requests for ever finer records.
Over the last decade, synthetic Galanthamine analogs and semi-synthetic approaches have entered the market. We have compared analytical profiles of these products to our naturally derived Galanthamine. Synthetic versions often introduce minor stereoisomeric impurities, which may not alter pharmaceutical performance in broad-brush but become problematic for pinpoint academic assays or formulation with strict chiral purity requirements. Some researchers accept the trade-off in exchange for scalable supply, but those in regulatory or cleanroom settings routinely target natural product-like impurity profiles. From hands-on experience sharing control samples, we observe the difference when running side-by-side solubility, UV-spectra, and chiral chromatography. For medical formulations, achieving regulatory approval can come down to trace impurity levels only met by fully documented, plant-derived Galanthamine.
Our technical support is staffed by chemists who have worked the same benches as our clients. Rather than fielding generic queries, we walk through unusual solubility issues, co-formulation incompatibilities, or contamination concerns hand-in-hand with the teams actually mixing, measuring, and analyzing the compound. By sharing specific use cases encountered in our own labs and drawing on technical data from previous production runs, we help resolve practical problems that arise in scaling or regulatory submission. Our willingness to run comparison tests or adapt physical parameters of a batch has kept customers returning—the support covers not only the compound but how it actually performs in the systems and workflows we understand from our own practice.
The alkaloid supply market remains fractured by resellers, traders, and white-label distributors. Customers burn out looking for clarity on source, composition, and support. As a direct manufacturer, our focus lands squarely on transparency and sustained dialogue. Laboratories and formulation houses can approach us with technical issues without getting a brochure response or “we’ll forward this” e-mails. This builds trust among regulatory professionals, who know they can expect a real answer about trace metals, residual solvents, or allergenic contaminants within hours, not after days of back-and-forth.
Experience brings scars. Years ago, an entire lot traced back to improperly stored bulbs resulted in a minor recall—trace fungal contamination found by an independent researcher hours before that batch shipped. Recovering from such events, we instituted pre-shipment freeze-drying and regular lot eDNA scans, transforming our process so that no similar event has repeated. Similar incidents at other firms often vanish into silence, but we openly publish details, learning as much from problems as from successes. Mistakes teach more than any standards manual, and other manufacturers stand to benefit by putting practical corrective actions at the center of their quality systems.
Demand curves change as drug candidates move through clinical trial phases and as regulatory attitudes shift toward green chemistry and renewable feedstocks. We are investing in both propagation research and chemical process intensification, trying to stretch the plant material further while shrinking the compound’s environmental footprint. Automation and continuous processing cut solvent consumption, while targeted plant breeding raises alkaloid yield per hectare. Our R&D branch tracks collaborative efforts with partners in enzyme catalysis and biotransformation, aiming to someday meet demand without straining land use. From quarterly research meetings, we gain insights well ahead of market signals; these shape the next round of quality benchmarks and scale-up strategies.
Much as Galanthamine commands respect in drug development for cognitive disorders, it sits alongside a suite of alternative cholinesterase inhibitors. Where our product distinguishes itself lies in the absence of off-target isomers and predictable supply. Rivastigmine and donepezil, both synthetic, pose different challenges for regulators: they sometimes bypass plant-based production risks, but often bring a higher analytical hurdle for chiral purity and final formulation validation. We openly discuss these trade-offs with customers exploring second-generation therapies, reflecting the reality that every innovation in this space begins with honest data sharing and limitations as well as benefits.
We often engage with pharmaceutical QA departments during pre-validation and process transfer phases. Material supplied by our team comes with detailed analytical dossiers: full HPLC traces, NMR spectra, residual solvent panels, and documentation of every purification batch. We invite independent validation and cross-lab proficiency tests, welcoming side-by-side verification of physical and chemical identity against customer reference standards. These partnerships produce robust data packages that stand up to regulatory submission worldwide.
Regulation adapts faster than most production workflows. Over recent years, trace-level contamination—be it residual pesticides, mycotoxins, or cross-alkaloid carryover—has received stricter scrutiny. Our operations folded advanced QTOF mass spectrometry and specialized traces for botanical origin markers directly into the release process. Rather than treating this as a burden, we engage with regulatory consultants and update protocols, reducing risk across the board. This flexibility and willingness to respond to new compliance regimes distinguishes manufacturers operating transparently from generic or white-label operations.
We share best practices openly with other direct manufacturers, especially on propagation, analytical challenges, and customer education. Over time, this collaboration has improved available supply for everyone, prevented shortages, and promoted sustainability over mere market competition. Stories shared at technical conferences about accidental cross-contamination, storage pitfalls, or mishandled documentation form the backbone of incremental quality improvement across the field. The industry grows when technical lessons, not just product flyers, circulate freely among those who actually work with the compound.
Experience at the source provides a perspective that goes beyond technical bullet points. Every successful batch reflects a lineage of botanical care, exacting purification, and honest engagement with those who rely on Galanthamine for scientific progress. Our commitment extends from carefully maintained greenhouse beds to transparent records and immediate support for researchers and pharmaceutical pioneers. The compounds we deliver represent more than a product—they carry the efforts, insights, and care of every person along the supply chain.