|
HS Code |
134026 |
| Product Name | Diosgenin |
| Cas Number | 512-04-9 |
| Molecular Formula | C27H42O3 |
| Molecular Weight | 414.62 g/mol |
| Purity | ≥95% |
| Appearance | White to off-white powder |
| Melting Point | 205-208°C |
| Solubility | Insoluble in water, soluble in ethanol and chloroform |
| Storage Temperature | 2-8°C |
| Ec Number | 208-134-3 |
| Synonyms | Diosgenine, Colgenin, Costogenin |
| Unspsc Code | 12352100 |
| Brand | Sigma-Aldrich/Merck/TCL Chemical |
As an accredited Diosgenin factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Diosgenin from Sigma Aldrich/Merck/TCI Chemical is packaged in a 25g amber glass bottle with a secure screw cap for protection. |
| Shipping | Diosgenin from Sigma Aldrich/Merck/TCI Chemical is shipped in tightly sealed, chemical-resistant containers to ensure safety and stability during transit. Packaging follows international regulations for hazardous materials, including appropriate labeling and documentation. Products are protected from moisture, heat, and light, and shipped via certified carriers to maintain product integrity and compliance. |
| Storage | Diosgenin (Sigma Aldrich/Merck/TCI Chemical) should be stored in a tightly closed container, in a cool, dry, and well-ventilated area away from direct sunlight and incompatible substances. Recommended storage temperature is typically at room temperature (20–25°C). Protect from moisture and sources of ignition. Ensure proper labeling and follow all relevant safety guidelines as per the manufacturer's instructions and Safety Data Sheet (SDS). |
Competitive Diosgenin prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please call us at +8615371019725 or mail to sales7@bouling-chem.com.
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Tel: +8615371019725
Email: sales7@bouling-chem.com
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Every year, our production teams source thousands of tons of wild yams and related plant materials, transforming them through established extraction processes into diosgenin. Over decades of hands-on work in our facility, we have learned that diosgenin isn't just another plant steroid. Chemists know it for its role in steroid hormone synthesis, but in the manufacturing world, its true value comes from close attention to purity, consistency, and supply chain reliability. Diosgenin serves as the starting material for a range of pharmaceutical corticosteroids and sex hormones. That path from a plant tuber to the backbone of life-saving medicines demands not just technical know-how, but a dedication to environmental responsibility and operational transparency.
Raw diosgenin never comes off the truck clean and ready. What ends up in the production line has already survived unpredictable rainfall, variable harvest yields, and shifting land use in its origin regions. Half of our sourcing headaches come from tracking droughts, plant diseases, and local land tenancy disputes. Reliable diosgenin supply demands more than contracts — it depends on long-term relationships with growers, transparent auditing, and direct field assessments.
Harvest season changes slightly every year. Our staff’s boots-on-the-ground efforts mean catching that moment when dioscorea species reach maximum sapogenin levels. That hands-on approach pulls up analytics that go far beyond typical supplier certificates. Yields fluctuate fifteen percent or more season by season. We keep redundancy in supply chains, own secondary extraction facilities closer to raw material origins, and maintain multiple grades of in-process inventory to ensure smooth and continuous fulfillment.
Specification sheets highlight diosgenin content, often quoted as pure as 98%. But anyone who has shoveled harvested roots into a washer or watched a crude sapogenin melt knows paperwork never tells the full story. Tiny differences in residual moisture or trace alkaloids can create headaches downstream. Only persistent in-house analysis, rigorous small-batch blending, and fine-tuned drying cycles achieve a reproducible purity, so those figures on the drum mean the same thing, every shipment, every year.
Some pharmaceutical partners design their syntheses to tolerate minor waxes, while others demand diosgenin at its crispest and most defined melting point. Over time, we’ve found that even a half-percent shift in detected purity can throw off catalytic conversions or decrease yields further down in the pipeline. As a manufacturer, our role is to get that starting material right, so the research downstream rolls smoothly.
The journey diosgenin takes into pharmaceuticals starts with a careful catalytic oxidation and migration of its double bonds — a step that transforms this plant-derived molecule into the foundation for cortisone, progesterone, testosterone, and other critical steroids. Most buyers look for diosgenin’s integrity in every lot, since a consistent starting material improves overall cost of goods in high-volume syntheses.
We routinely see that any batch variability—whether from slightly aged roots or uneven processing parameters—means more post-processing to reach the tight pharmaceutical-grade. Every improvement in upstream diosgenin purity removes steps for our customers, saves solvent, and makes regulatory documentation smoother. Over time, we've built a reputation for diem-by-diem traceability, from primary field to finished drum, a discipline that pharmaceuticals expect from earnest chemical manufacturers.
Diosgenin commands a different level of complexity compared to synthetically derived intermediates. Synthetic alternatives often begin with petrochemical feedstocks. They allow more control over cost and production rhythm, but they rarely match the chiral purity or sustainability profile of natural diosgenin. Suppliers working with soya-derived stigmasterol or cholesterol may offer lower prices in some markets, yet their chemical backbones require extra steps for transformation into the same hormones.
Based on our own process economics, the hydrolysis, extraction, and purification steps for diosgenin remain competitive, provided the agricultural supply chain holds steady. Production from natural diosgenin leaves behind fewer environmental liabilities and meets consumer and regulatory demand for plant-derived pharmaceutical precursors. Our on-site experience suggests that processes built around diosgenin tend toward more straightforward downstream chemistry, especially for the manufacture of corticosteroids, making whole-supply-chain risk lower over the long term.
Trace elements in alternative plant steroids can introduce unexpected byproducts. We invest in extensive chromatographic testing to guarantee diosgenin is the only significant sapogenin present at meaningful concentrations, whereas mixed-steroid extracts often leave labs wrestling with unpredictable reaction profiles.
A typical diosgenin product coming off our lines shows a creamy white to off-white crystalline powder form, usually in the range of 98% to 99.5% purity by HPLC. Final moisture level always sits below 0.5%, with a melting point tight enough to trigger strict internal release parameters. Each lot leaves the plant tagged with bulk density, precise handfuls delivered in fiber drums lined with aluminum bags. Packaging standards have evolved through decades of partnership with global buyers. Those preferences inform everything from pallet design to temperature loggers in our containers.
For laboratories, we create diosgenin lots in sub-kilogram increments, allowing researchers to scale up methods without risking product stability. For larger manufacturers, we scale packing to suit reactor loads and storage constraints, helping minimize exposure to ambient humidity and UV. Model type and lot selection always answered by practical needs — whether a customer faces space, cost, or regulatory bottlenecks, our technical team points to the lot that solves their real hurdle.
Pharmaceutical operators trust diosgenin’s predictable reactivity. Every production season, as raw steroid synthesis kicks off, diosgenin sits at the first rung of the value ladder. Manufacturers engage in catalytic conversions — often starting with diosgenin’s spirostane backbone — through selective oxidation, isomerization, and protection/deprotection steps. Handle the starting material well, and reaction bottlenecks stay rare. When diosgenin comes in off-grade, the cost shows up months later as cleaning up downstream impurities. Our line operators recognize problem batches at the source and divert them to non-pharmaceutical outlets, where purity demands run lower.
Veterinary pharmaceuticals and cosmetic hormone precursors also draw on diosgenin as a direct feedstock. In those cases, formulation builds around diosgenin’s physical stability, solubility in ethanol and acetone, and its non-toxic handling profile compared to some fossil-derived intermediates. Each function puts its own scrutiny on color, powder flow, and crystal habit. Decades of repeated production runs give us a sixth sense for which lots work best for fast dissolution and which press into tablets with fewer flow aids.
In smaller-scale chemical research, diosgenin offers a convenient chiral building block. University and research institute orders fill our dispatch schedule each year. Most researchers call for diosgenin because it reduces synthesis time and improves outcome predictability for side-chain modifications and advanced hormone analog development.
Diosgenin comes with hidden risks that buyers may only learn through experience. Monsoon failure in Asia or policy shifts on wild tuber harvesting affect global supply more than any annual price change. Our risk mitigation approach developed from hard experience: keep a rolling stock equal to at least two harvests, maintain dual extraction sites in different climatic zones, and support our contract farmers with seedling advances before each planting season.
We have invested in independent lab verification for every incoming raw material shipment. Early adoption of chemometric fingerprinting and rapid on-site HPLC means counterfeits and subpar material stand out before blending. Only processors who have sent back hundreds of tons of non-conforming crude know the value of these investments. Traceability from root batch code to individual diosgenin pack makes regulatory documentation, GMP audits, and customer peace of mind much easier to deliver.
Diosgenin manufacturing, especially at our plants, doesn’t simply meet regulatory requirements — we design operations to support real sustainability. Decades ago, waste water and alkali residue posed problems, but years of refining precipitation and water recycling now pay dividends. Our spent plant material is composted for local agriculture or processed into biochar whenever plausible. We joined third-party certification schemes to ensure the yam harvest aligns with local replanting and biodiversity standards, even where regulation lags behind the best practices the industry expects.
The regulatory environment only gets tighter: countries where we operate ask for complete environmental impact disclosures. Transparent solvent handling, confirmed low heavy metal contamination, and proof of responsible root sourcing all factor into diosgenin qualification. Our team works with auditors from both customer countries and local authorities, opening up internal process flow data, audit trails, and even our labor practices for review. These steps build customer trust — not on promise, but on track record.
The best process controls don’t end at the plant gate. Diosgenin leaves our facility with proper documentation, but our quality team checks back with customers after each new shipment. Any reports of off-color, caked product, or atypical melting point receive an immediate investigation at our own cost, including full trace sample recalls. Feedback from customers has fine-tuned our screening to catch problems earlier every production quarter. Those learning loops, built on real-world problems, support better diosgenin at each turn.
We share anonymized aggregate test results and batch histories with partners in pharmaceutical, veterinary, and cosmetic markets. This data underscores the reliability of diosgenin delivered from our plants, whether for US drug master file submission or routine API manufacturing. Only by addressing issues transparently, batch by batch, could we achieve preferred supplier status across such a wide range of buyers.
Over the last ten years, diosgenin's role in major pharmaceutical syntheses has shifted. Demand for naturally sourced hormone intermediates has grown as regulatory and consumer expectations evolved. Amidst debates on sustainability and the risk profile of synthetic intermediates, diosgenin’s plant origins and well-documented supply chains position it favorably for GMP-grade drug production. Markets tend to respond to scandals and interruptions with rapid specification changes — partners using diosgenin avoid these shocks because they can readily supply traceability and third-party proof of natural origin.
Some customers turn to us not just for diosgenin as a product, but for our technical experience troubleshooting upstream process modifications. New purification strategies, alternative extraction solvents, or green chemistry platforms benefit from hearings and data from our operations teams. That knowledge-sharing goes both ways: customer-driven quality improvement projects push us to innovate, upgrade equipment, and take risks on new sourcing partnerships ahead of regulatory or market-driven disruption.
Case examples make diosgenin’s story clear. A European pharmaceutical major, shifting production in response to a raw material scare, tripled its diosgenin demand overnight and expected GMP release with full analytics inside six weeks. Those who handled diosgenin manufacturing directly know such pivots only pay off with disciplined bulk inventory, flexible packaging, and a tight-knit technical team on call for all-hour support. In another case, a veterinary hormone producer requested diosgenin in a flow-optimized powder form, compatible with existing conveyance silos. Implementing changes required real time process mapping at our drying line — something contract manufacturers rarely attempt due to volume constraints.
Some of the most rewarding diosgenin deliveries land at university laboratories, where PhDs design novel anti-inflammatory or reproductive hormone analogs. The diosgenin they call for reflects not just research need, but trust built on prior deliveries — granular traceability, consistent powder feel, and support setting up pilot syntheses.
Decades-long investment into process control, batch documentation, and raw material auditing create diosgenin that not only meets written standards, but also supports innovation. Each season uncovers new obstacles — windstorms affecting tuber yield, regulatory updates changing solvent status, customer reformulations requiring alternate particle sizes. Only adaptation, direct communication with partners, and honest evaluation of mistakes allows us to offer diosgenin you can depend on.
Looking ahead, diosgenin's future includes investments in greener processing, expanded collaborations with plant geneticists for higher-yield crops, and further automation at our extraction sites. Maintaining skilled plant and quality staff remains central to these efforts. Experience proves that partnerships, not transactions, build the resilient diosgenin supply the market depends on for next-generation pharmaceuticals.
Nothing about diosgenin is generic once you’ve cleaned a ton of wild tuber or faced down a customs backlog before a major batch release. Manufacturers who have weathered market dips and regulatory curveballs know that what matters isn’t some abstract promise, but repeated delivery, clear accountability, and the willingness to revisit every process when conditions change. Years of commitment to diosgenin make every drum that leaves our gates more than a batch number — it’s a challenge met and a partnership honored, batch after batch.