|
HS Code |
544380 |
| Chemical Name | (-)-Arctigenin |
| Cas Number | 7770-78-7 |
| Molecular Formula | C21H24O6 |
| Molecular Weight | 372.41 g/mol |
| Appearance | White to off-white powder |
| Melting Point | 114-116°C |
| Solubility | Slightly soluble in water, soluble in methanol and ethanol |
| Purity | Typically ≥98% (HPLC) |
| Storage Condition | Store at -20°C, protected from light and moisture |
| Iupac Name | (3R,4R)-4-[(3,4-dimethoxyphenyl)methyl]-3-(3,4-dimethoxybenzyl)oxolan-2-one |
| Synonyms | Lappaol, Arctigenine |
| Source | Principal lignan compound from Arctium lappa (burdock) |
As an accredited (-)-Arctigenin factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | (-)-Arctigenin, 100 mg: Supplied in a clear glass vial with screw cap, labeled for purity, structure, and storage instructions. |
| Shipping | (-)-Arctigenin is shipped in compliance with all applicable regulations for chemicals, typically in sealed, chemically resistant containers to prevent contamination or degradation. Packaging is designed to protect from light, moisture, and physical damage. Shipping includes safety documentation and conforms to international standards for laboratory and research materials transport. |
| Storage | (-)-Arctigenin should be stored in a tightly sealed container, protected from light and moisture. Keep it in a cool, dry place, ideally at 2–8°C (refrigerator temperature), and away from incompatible substances. Properly label the container and ensure it is kept in a secure area to prevent unauthorized access. Avoid repeated freeze-thaw cycles for optimal stability. |
Competitive (-)-Arctigenin prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please contact us at +8615365186327 or mail to sales3@ascent-chem.com.
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Tel: +8615365186327
Email: sales3@ascent-chem.com
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As chemical manufacturers long invested in the detailed extraction and processing of plant-derived active compounds, we’ve had extensive hands-on experience with (-)-Arctigenin. This naturally occurring lignan, predominantly isolated from the seeds of Arctium lappa (commonly known as burdock), has gained ground as both a research material and a base for product development in food supplements and pharmaceuticals. Each time our process technicians step onto the production line, quality checks in hand, they aren’t just repeating batches—they’re continuing a legacy of refining the reliable production of botanical actives. Our model for (-)-Arctigenin production draws from the roots of organic chemistry, mature extraction techniques, solvent systems honed through hundreds of optimizations, and a standard that always puts raw material purity ahead of yield claims.
The story of (-)-Arctigenin runs deeper than an academic note. Extracted with care, purified via crystallization and chromatographic steps, this molecule demonstrates reproducibility batch after batch—a sizeable advantage for research and industrial development teams. In our daily drive for consistency, our analytical chemists routinely monitor every shipment, confirming identity and purity by HPLC and NMR. Yields matter, but reliability is the benchmark that endures scrutiny and supports innovation. For colleagues developing new formulations, or scientists searching for a lead candidate, real consistency can’t be left to chance. Year after year, we’ve maintained a standard of no less than 99% purity by HPLC across our production scale—because downstream users deserve a product they can trust with their reputations.
Differentiation among chemical suppliers often boils down to batch-to-batch guarantees, reproducibility, and technical support when projects hit uncharted territory. Experience compels honesty here: (-)-Arctigenin demands vigilance in raw material sourcing, since crop conditions and seasonal change can vary the precursor content in Arctium lappa seeds. We build our supply chain starting from vetted harvesters—partners who understand the influence of climate and agronomy on arctiin content, our extraction starting point. Over the years, we’ve worked hand-in-hand with farmers, not just to secure harvests but to optimize the profile of the starting seeds themselves. By maintaining this chain of custody, we avoid the common drift seen in outcomes from less rigorous programs, and this results in an active content that aligns with scientist and regulatory expectations worldwide.
Manufacturing (-)-Arctigenin isn’t just about the yield. The separation of the (+)- and (-)-isomers, a crucial step, has shaped our process development. Our dedicated facilities—set up for precise chiral resolution—alert us whenever a subtle deviation in solvent system or pH threatens enantiomeric purity. We don’t just rely on instrument readouts; our chemical engineers run kinetic and thermodynamic studies as standard practice whenever the raw materials or process conditions shift, making sure chirality remains spot-on. This attention to detail often puts our lots ahead of those offered by resellers, who, in our experience, may have limited ability to trace process changes through their supply chains or provide technical feedback during customer troubleshooting.
Direct experience with researchers and product developers reveals truth that’s missing from catalogs—(-)-Arctigenin is rarely a one-size-fits-all ingredient. In the lab, it finds use as a standard for reference in phytochemistry work, cell signaling studies, and bioactivity assays linked to anti-inflammatory or antitumor pathways. Pharmaceutical engineers seeking to exploit its unique inhibitory effects on protein synthesis turn to our well-characterized material to control for experimental variability. We routinely get calls from institutes whose early-stage screening relies on the confidence they place in the observed activity of this very batch of (-)-Arctigenin, due to the purity and data we provide. From hands-on feedback, we know that our technical documentation, derived from our own analytical runs, eliminates guesswork that can stall a research cycle. This clarity, rooted in our day-to-day manufacturing practices, leads not only to thinner error bars but stronger conclusions in final publications and patent filings.
Beyond the beakers, formulators working in the dietary supplements and traditional medicine sectors have adopted (-)-Arctigenin for its potential to support immune modulation, metabolic balance, or even cognitive function. Years of engagement with premium supplement brands taught us that standardized extracts often lack the potency or specificity of the isolated constituent, especially in complex formulations. With our focused production workflows, we deliver (-)-Arctigenin with emission and residue profiles suitable for both advanced compounding and compliant commercial releases. This supports the trending pivot toward transparency in ingredient sourcing and manufacturing traceability. Whether for encapsulation, tableting, or functional beverage fortification, integrity of the active never takes a back seat to process economics.
Colleagues sometimes ask how our (-)-Arctigenin stacks up against bulk arctiin, the natural glycoside precursor present in burdock and several common botanicals. The nuance deserves attention: arctiin’s glycosidic linkage gets cleaved metabolically or during extraction, so the biological activity alters depending on the stage applied in product formulation. We process arctiin into free (-)-Arctigenin early in manufacturing, enforcing rigorous purification and milligram-to-kilogram scalability without loss of structural integrity. This matters in situations where lot-to-lot variability can stall regulatory approvals, disrupt ongoing clinical studies, or complicate registrations in key markets.
Rival products, often sourced through several hands before reaching the end-user, can pick up solvent residues or encounter stability problems—especially if stored without proper temperature and humidity controls or packaged with extemporaneous fillers. Our practices, hammered out by years of regulatory inspections and customer site audits, reduce these risks. We offer clear audits of our environmental and process controls, showing our commitment to both material quality and operator safety. In high-stakes research or commercial manufacturing, such details aren’t just footnotes; they determine whether downstream outcomes meet industry standards or wind up as expensive setbacks.
Detailed, real-time specification management stands as a bedrock of our technical approach. While it’s easy to list generic content like melting point, molecular formula, or solubility, the functional requirements for researchers and product developers reach deeper. Our QA managers reject batches that deviate from defined optical rotation, water content, or allowed impurity profiles. Every specification on our certificate evolves through dialogue between bench researchers, plant managers, and end users who share their challenges and goals. No specification survives unchanged—every analytical deviation sparks immediate root cause assessment and, if required, a process tweak on our shop floor.
This work pays off during customer verification trials. Chemists frequently compare our analytical data to their own, expecting a seamless match. Feedback gained from university departments and pilot plant partners recognizes this, especially when tracking stability from raw material storage to final compounded product. We retain reserve samples from each batch, held under monitored conditions, to help investigate questions long after shipment. The lessons pulled from each batch’s lifecycle circle back into improved procedures, better lot management, and smarter in-process controls.
In recent years, we’ve noticed growing pressure throughout the supply chain due to shifting environmental regulations, tightening guidelines on solvent use, and renewed focus on traceability for plant-based actives. Our position as direct manufacturers, not brokers, lets us respond faster during raw material shortages or input price jumps, passing stability along to customers. We’ve invested in closed-loop solvent recovery and frequent supplier audits—not just for compliance, but to secure the future of high-purity (-)-Arctigenin. Our QA chemists collaborate with academic experts and regulatory authorities, updating methods to minimize possible contaminants and verifying absence of pesticides, especially as demand grows for low-residual botanical actives in health-oriented markets.
Our sales and tech teams routinely engage with supplement developers to design easy-to-implement, traceable material flows. The support doesn’t end at shipment; we follow up on performance in end-product, provide fresh documentation based on customer reviews, and keep lines open for troubleshooting and process improvement advice. Through direct manufacturer-even customer partnerships, it’s possible to respond to batch-specific questions or adapt manufacturing lots for particular needs, rather than just swapping paperwork down the chain as distributors do.
The movement for environmental responsibility shapes our facility upgrades. Some years back, a key customer from Europe raised concerns over persistent solvent residues in most botanical isolates offered on the market. We re-engineered parts of our process: switching extraction solvents where feasible, ramping up recovery systems, testing for trace levels previously left unchecked, and open-sourcing our improvements to peer manufacturers who also supply regulated markets. This raised the bar across our supply chain—not only stabilizing our own outputs, but influencing the industry to advance together.
Over the past decade, regulatory shifts and the globalization of scientific standards have increased scrutiny on product information, from impurity profiles to certificate authenticity. Our response comes from having faced multiple onsite audits and ongoing dialog with inspectors, both local and international. We’ve learned that overpromising or relying on generic claims sets up for trouble; instead, transparency in manufacture and analytical backing reduces misunderstandings upfront. For (-)-Arctigenin, this translates into advance documentation outlining origin, processing, and test results. Sometimes, it involves signing quality agreements tailored to specific research projects or ongoing supply contracts.
Being directly responsible for every stage in the process, our team tracks adverse event reports in global databases for plant-derived actives, adjusting our risk management plans proactively. Though issues have proven rare with (-)-Arctigenin when produced and applied as intended, each learning point from peer-reviewed published cases and regulatory advisories feeds into our review cycle. For multinational research partners, our willingness to provide supporting documentation—chromatograms, mass spectra, supplier tracebacks—makes the difference between hitting regulatory roadblocks and advancing toward product launch.
From a manufacturing perspective, the challenge in bringing pioneering actives like (-)-Arctigenin to market often comes down to managing variability that arises as the plant source or extraction technology evolves. We maintain strong partnerships with agronomists, botanical breeders, and local harvesting operations, sharing best practices and feedback from analytical results to refine upstream processes. This grassroots integration ensures long-term supply and supports ongoing development projects, while also providing a steady employment base in participating communities.
We’ve learned through long experience that claims are only as strong as the customers backing them. The repeat business our (-)-Arctigenin line draws from top institutes and regulated manufacturers comes from the intersection of technical confidence, production quality, and responsive support. Manufacturers who lack firsthand control over sourcing or rely exclusively on paper-based value add rarely keep pace when complex projects demand a quick pivot. With direct process ownership, we share real stories—troubleshooting an unexpected impurity bump, solving a solubility challenge for a nutraceutical client, or working through chiral purity issues spotted late in a pharmaceutical submission. Having the technical and practical reach to adjust the process or engage experts, our team delivers science-backed solutions, not just standard product claims.
Looking across the competitive landscape, many in the chemical trade segment compete on price or broad product lists, performing little internal innovation. By maintaining both research and production arms, it’s possible for us to develop improvements, file patents, and apply these advancements straight into commercial output. Examples include solvent optimization based on in-house analytics, drop-shipping direct from certified lots to elite partners, and keeping redundant QC records for every shipment—practices that better protect downstream manufacturers compared to loose, price-driven environments fostered by intermediaries.
The stories we hear from both new and established partners confirm one thing: direct, expert-led manufacture of (-)-Arctigenin smooths the transition from idea to implementation. Whether providing teaching material to university faculties or supporting new health product launches, transparency and the willingness to troubleshoot side-by-side beat hands-off product brokering, especially for actives with scientific attention and regulatory complexity.
The path of our (-)-Arctigenin production isn’t static. We invest consistently in cross-disciplinary training, taking lessons from synthetic chemistry, pharmacognosy, and regulatory science. Our technical leads work closely with research partners to adjust specifications, extend shelf life, or improve packing for diverse transport environments. By holding open forums with longtime users, we gather feedback not just on the material, but on support services, documentation updates, and future project needs.
Future-oriented thinking matures through direct manufacturing. We track the literature for emerging applications—antiviral properties, novel synthetic analogs, or new delivery forms—and build pilot processes to test industrial feasibility. This close connection to evolving research supports not just new sales, but enduring technical partnerships, both in academia and industry. Our plant engineers and lab scientists join customer meetings, often going onsite to oversee installations or support early production runs. Customer feedback loops directly into process improvements, helping us keep pace with an industry that changes each year.
With every lot of (-)-Arctigenin released, we renew our commitment to reproducibility, safety, and technical responsibility. We take pride in providing a product shaped by manufacturing experience, constant learning, and honest engagement with our users. As regulatory landscapes tighten and end-user requirements grow more ambitious, our manufacturing team ensures that both quality and direct support stay at the center of our partnership model.