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HS Code |
642217 |
| Name | Trifolirhizin |
| Chemical Formula | C21H20O9 |
| Molecular Weight | 416.38 g/mol |
| Iupac Name | 5-hydroxy-2-(4-hydroxyphenyl)-7-{[β-D-glucopyranosyl]oxy}-4H-1-benzopyran-4-one |
| Cas Number | 5041-82-7 |
| Appearance | Yellow powder |
| Solubility | Soluble in DMSO, methanol |
| Source | Isolated from Sophora flavescens and Trifolium species |
| Pubchem Cid | 5281662 |
| Compound Type | Flavonoid glycoside |
| Melting Point | 216-218°C |
| Storage Conditions | Store at 2-8°C, protected from light |
As an accredited Trifolirhizin factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Trifolirhizin, 100 mg, is supplied in a sealed amber glass vial with a clear label, ensuring protection from light and contamination. |
| Shipping | Trifolirhizin is shipped in tightly sealed containers, protected from moisture and light to preserve stability. Packaging conforms to chemical safety regulations, and all shipments include proper labeling and documentation. Trifolirhizin typically ships at ambient temperature unless specified otherwise and complies with international and local hazardous material transportation standards if required. |
| Storage | Trifolirhizin should be stored in a cool, dry place, ideally at 2–8°C (refrigerated). Protect it from light, moisture, and excessive heat. Ensure the container is tightly closed to prevent contamination and degradation. For long-term storage, it is advisable to keep Trifolirhizin in an inert atmosphere, such as under nitrogen or argon, and avoid repeated freeze-thaw cycles. |
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Purity 98%: Trifolirhizin with purity 98% is used in pharmaceutical formulations, where it ensures high bioactivity and batch-to-batch consistency. Stability Temperature 40°C: Trifolirhizin stable at 40°C is used in long-term storage applications, where it maintains its efficacy over extended periods. Molecular Weight 592.5 g/mol: Trifolirhizin with molecular weight 592.5 g/mol is used in targeted drug delivery systems, where precise molecular control supports optimized therapeutic performance. Particle Size <10 µm: Trifolirhizin with particle size below 10 µm is used in oral dosage forms, where increased surface area enhances dissolution and absorption rates. Melting Point 220°C: Trifolirhizin with a melting point of 220°C is used in heat-processed formulations, where thermal stability prevents compound degradation during manufacturing. Solubility 10 mg/mL (aqueous): Trifolirhizin with aqueous solubility of 10 mg/mL is used in injectable solutions, where optimal solubility ensures effective systemic delivery. HPLC Purity 99%: Trifolirhizin with HPLC purity 99% is used in analytical reference standards, where accurate quantification is critical for validation methods. Residual Solvent <0.1%: Trifolirhizin with residual solvent below 0.1% is used in regulatory-compliant drug products, where low impurities minimize toxicity risks. Optical Rotation +25°: Trifolirhizin with optical rotation +25° is used in chiral drug synthesis, where stereochemical integrity ensures targeted biological activity. Moisture Content <2%: Trifolirhizin with moisture content under 2% is used in dry powder inhalers, where reduced hygroscopicity improves shelf-life and product stability. |
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In the chemical manufacturing world, some compounds challenge both our technical skill and our patience more than others. Trifolirhizin belongs to a small group in our catalogue that we keep revisiting because of what scientists, clinicians, and partners have consistently uncovered about its plant-derived backbone. This flavonoid glycoside does not simply turn up on a list of routine syntheses – its structure, applications, and market needs all push us to refine our craft again and again. Extraction, purification, and preservation present harder problems than working with simpler molecules, pushing us to adopt techniques that learn from decades of factory floor experience as much as they do from academic journals. Trifolirhizin, recognized for its role in traditional herbal sources like Sophora flavescens, demonstrates the bridge between time-honored natural compounds and industrial chemistry. Its presence in our lineup underscores an ongoing relationship between scientists and the environment – every batch is a measure of trust in both nature’s complexity and the engineer’s hands.
Our lab team spends much of their daily focus on nailing down appropriate standards for each produced lot. When we receive raw material — typically sourced from trusted agricultural partners — variability shows in pigment, residual moisture, and plant matrix contaminants. Low-grade solvents or careless heating can ruin the yield or introduce by-products that haunt the rest of the purification process. We were once forced to recall an early-season batch because the supplier delivered roots stored too long in suboptimal conditions, driving up levels of humic and fulvic by-products and eating away at purity.
Practically, we now target both chemical and organoleptic controls at each phase. The crystalline form, color, S content, and particle size distribution are far from cosmetic details: they reflect the process integrity and ultimately impact solubility, storage stability, and reproducibility in later applications. Even a few tenths of a percentage point in glycoside analogues can steer research outcomes off course. Purity of more than 98% (by HPLC) stands as our in-house minimum for this compound, based on years of feedback from pharmacologists and formulation chemists. Each time we consider relaxing this specification for cost savings, a new customer application reminds us why we don’t.
Those who have worked in research settings know that Trifolirhizin’s significance comes from more than its chemical fingerprint. Here, feedback from our niche customers – often cell biologists and alternative medicine researchers – informs our approach as much as any ISO standard. The compound is frequently sought for investigation into cellular oxidative stress, apoptosis modulation, and anti-inflammatory signaling. Quality inconsistencies or minute contamination can wreck weeks of costly studies, especially as cell lines or bioassays prove hypersensitive to foreign peaks on the chromatograph. This category of flavonoid glycosides brings subtler batch-to-batch impact than synthetic actives or mineral excipients, complicating both upscaling and cross-application.
One of our oldest partners described needing three technical-grade alternatives before finding that a single residue peak in Trifolirhizin could alter their pathway assays. That experience underlined why we continuously invest in updating our column setups, calibration checklists, and lot traceability to isolate even obscure glucoside isomers. Such stories reinforce that our presence in the market isn’t about selling a generic powder, but about building reliability into critical research and nutraceutical supply chains.
Much has been written elsewhere about the molecular weight, melting point, and solubility of Trifolirhizin. Our factory teams routinely verify these points, but the insight that sets manufacturing apart comes from routine troubleshooting and experimentation on the process line. Chasing a consistent solubilization profile in water, for instance, has challenged us to filter out batch-dependent polysaccharides and saponin carry-over from upstream botanical sources. For research or pharmaceutical application, anything other than a fine white to pale yellow crystalline powder signals red flags, so we lean heavily on staged recrystallization and solvent exchange processes. This puts more responsibility on maintaining clean, temperature-stable environments over hundreds of kilograms, not just the gram-level pilot batches seen in academia.
Considering shelf life, our teams have found that Trifolirhizin is prone to gradual yellowing and caking if exposed to ambient moisture above 60% or light over long storage. Unlike many synthetic intermediates, even a moderate loss in appearance standards can result in entire orders being rejected by vigilant buyers. Sealing in nitrogen-purged packaging, controlling every degree during warehouse transitions, and batch coding with precise manufacture dates are habits we have built through years of missed deadlines and lessons learned. For new customers accustomed to bulk chemicals with loose storage rules, this requirement for precision comes as a surprise—but their downstream results bear out the need.
Some ask what differentiates Trifolirhizin from related flavonoids like saponarin, baicalin, or genistein. Each shares core chemical scaffolding, but subtleties in glycoside attachments, steric hindrance, and polarity drive different biological activity. As the direct manufacturer, we watch for these differences especially when buyers attempt to substitute one flavonoid for another in large orders due to cost or availability. Time and again, we end up spending more on customer education than on technical troubleshooting, clarifying how shifts in aglycone or sugar moiety fractions influence cell-based screening or chromatography profiles. Even within the family of naturally-derived glycosides, Trifolirhizin retains a tight place in markets focused on anti-inflammatory research, botanical supplements, and high-purity analytical standards.
We’ve found it easy to lose track of these distinctions when cost pressures squeeze purchasing departments. Still, the regulatory landscape—stretching from Chinese pharmacopoeia to European food safety authorities—does not bend to expediency. Each certificate of analysis, each supporting technical document, receives scrutiny from auditors familiar with subtle differences in structure-activity relationships. Inconsistent documentation or unexplained shifts in purity undermine confidence not just in a single order, but in the entire production chain.
We hear often about hurdles faced once our material leaves our warehouse. Researchers speak about unexpected by-products in commercial extracts, supply chain managers recount interrupted flows due to seasonal volatility, and marketers battle consumer skepticism when batch traceability fails. These aren’t hypothetical issues for us—they arrive as direct calls and urgent emails, pushing us to overhaul documentation protocols or requalify brokers after a contamination scare downstream.
Several times we've witnessed ambitious clients trying to use lower-grade material manufactured for non-clinical applications in advanced research studies. Inevitably, the savings on procurement dissolve after costly troubleshooting and failed validations emerge. One diagnostic developer returned with complaints about color instability and inconsistent HPLC response, which on closer analysis traced to improper drying during packaging. Our switch to fluidized bed drying, despite the investment, put a stop to reoccurrences and won back trust among discerning partners in the biopharma sector.
Every year brings updated expectations from regulators, whether in labeling, traceability, or impurity documentation. As stricter standards roll out, previous shortcut solutions fall away. More than once, we’ve revisited older records to provide historic data points for customers re-registering products in new jurisdictions. This culture of open records and rigorous in-house auditing comes from lived experience with surprise site visits and the growing sophistication of third-party quality inspectors. Our philosophy is simple: if we wouldn’t ship it for our own research, it doesn't go out at all.
The legal climate makes clear distinctions between standardized extracts and chemically pure substances. While dietary supplement manufacturers may focus on broader marker compound presence, pharmaceutical firms drill into the percentage of Trifolirhizin per lot and tolerances on side-compounds down to single digit parts-per-million. From a manufacturer’s perspective, committing to overly ambitious guidance without the traceable technical backbone risks not only monetary penalties but long-term damage to reputation. Having once lost a multi-year supply agreement due to a missed heavy metals threshold, our commitment to ongoing batch validation and multi-continent compliance documentation runs deep. Audited processes, recurring staff training, and periodic capital investment in purification infrastructure form the baseline at our site, even if global competitors cut corners for speed or price.
In practice, experience teaches that achieving over 98% purity doesn’t happen by accident, nor does complaint-free shipping at scale. This process begins at raw material selection and continues through to final packaging. Over the years, we’ve invested in better grading systems for fresh botanicals, mass spectrometric fingerprinting, and ongoing validation protocols. Early batches sometimes failed due to unanticipated oxidation or poor crystallization—all traced back to overlooked process controls. Today, we ask more of our teams at every level: visual checks, loss-on-drying analysis, and double-authenticated chromatographic validation before green-lighting shipments.
One pivotal upgrade involved real-time in-line monitoring of temperature and solvent gradients—a response to lost yields from a bricked crystallizer in the rainy season. Rather than pass losses onto customers, we built redundancy and shared banner year yields in pricing calculations, smoothing out supply predictability. These steps do not come through in simple specification sheets but show themselves when supply chain shocks hit the market and buyers seek out suppliers able to keep up consistency.
Partnership counts as much as product in our view of Trifolirhizin’s future. We enter into regular feedback cycles with specialty research groups, discussing pain points and testing minor process adjustments on pilot batches. An emerging use in skin health research prompted us to trial different physical grading procedures, while requests for more granular solubility documentation forced us to invest in replicated dissolution trials across variable buffer systems.
This approach paid off last year, as an international nutrition company asked for tailored batch validation for their clinical pipeline. Collecting feedback from their downstream clinical partners, we matched batch-to-batch uniformity closely enough to accelerate regulatory applications. In a separate case, our input influenced a drug development effort, advising on solvent compatibility to maximize bioavailability in capsule forms. These experiences help close the loop from the manufacturing floor to the laboratory bench, moving beyond transactional selling to building technical partnerships rooted in earned trust.
Sourcing botanicals for Trifolirhizin mirrors larger debates about ecological stewardship. Because such compounds start with cultivated plants, we face the dual responsibility of supporting local growers and protecting biodiversity. Over-harvesting or careless land use not only hurts local ecosystems—it threatens long-term supply stability. Our choice to work exclusively with certified partners comes from seeing firsthand the volatility in raw root quality when the supply chain opts for cheaper, less traceable sources.
We enforce policies on careful harvesting, fair trade, and transparent labor relationships. In practice, this sometimes means holding off on scaling output during poor harvest years, or intervening early if agricultural partners report disease or contamination in the field. Our team regularly audits farms and runs full traceability checks, refusing shortcuts that might lower near-term costs but damage both environments and industry relationships. Times when raw supply was scarce due to regional flooding, we communicated delays forward instead of diluting standards—a habit that has built loyalty with both suppliers and buyers alike.
Trifolirhizin serves specialized sectors spanning nutraceuticals, pharmaceuticals, and chemical research. Buyers most often approach us for high-purity material suited for detailed pharmacological studies, clinical trials, or integration into advanced herbal products. The active’s unique blend of glycoside and aglycone chemistry, plus its historical use in botanical traditions, drives ongoing research into potential anti-inflammatory, antioxidant, and cell-modulating properties. Unlike commodity actives with broad-spectrum use, demand hinges on precise, well-documented specification adherence and an ability to trace each lot from field to finished canister.
Future demand, in our observation, will likely lean even more heavily on ecological accountability and certificate-rich, authenticated supply. As gene-editing, metabolic engineering, and cell-based manufacturing approaches evolve, the standard for natural product comparators will only rise. Those who keep pace will invest in both farm-level partnerships and high-end analytics, preserving consistent quality while scaling to meet new applications. Based on our cumulative experiences — both hard-won and routine — the enduring value of Trifolirhizin in our portfolio lies not in mass production, but in controlled, credible, and purpose-driven supply that withstands regulatory scrutiny and scientific expectation alike.