|
HS Code |
367901 |
| Cas Number | 9037-37-2 |
| Molecular Formula | C25H24O12 |
| Molecular Weight | 516.45 g/mol |
| Iupac Name | 1,5-bis(3,4-dihydroxycinnamoyl)quinic acid |
| Synonyms | Cynarin, 1,5-DCQA |
| Appearance | White to off-white powder |
| Solubility | Soluble in water, methanol, and ethanol |
| Melting Point | 200-203°C (decomp.) |
| Purity | Typically ≥ 98% |
| Structure Type | Polyphenolic compound |
As an accredited 1,5-Dicaffeoylquinic Acid factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 1,5-Dicaffeoylquinic Acid is packaged in a 100 mg amber glass vial with a secure screw cap, clearly labeled for identification. |
| Shipping | 1,5-Dicaffeoylquinic Acid is shipped in sealed, light-resistant containers with appropriate labeling to ensure stability and safety during transit. Packaging complies with relevant chemical transport regulations. Temperature and handling instructions are included to maintain product integrity. Shipping is typically via trusted carriers, with tracking and documentation provided to ensure secure delivery. |
| Storage | 1,5-Dicaffeoylquinic Acid should be stored in a cool, dry place, away from light and moisture. Ideally, it should be kept in a tightly sealed container at 2–8°C (refrigerator) to prevent degradation. Protect the compound from air and strong oxidizing agents. Store under an inert gas if possible to maintain stability and prolong shelf life. |
Competitive 1,5-Dicaffeoylquinic Acid 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
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Every year, as the scientific community peers deeper into the benefits of botanical compounds, old hands in this industry welcome a new wave of curiosity about molecules that have floated under the radar. With more research teams publishing findings on phenolic acids, 1,5-Dicaffeoylquinic Acid (1,5-DCQA) has stepped into the spotlight. Our daily work with plant-derived actives places this complex compound right at the interface of discovery and practicality. In crowded production halls and development labs, we watch demand for pure 1,5-DCQA rise—driven not just by academia, but by health-focused manufacturers and cosmetic innovators who aim to keep their products at the edge of what’s possible.
We synthesize and supply 1,5-Dicaffeoylquinic Acid in high-purity crystal powder, developed for maximum stability and ease of handling. Our process uses green extraction and purification, a decision shaped by decades of watching solvent residues trip up reliability and safety. When research teams compare naturally sourced vs. synthetically prepared 1,5-DCQA, the conversation always circles back to batch consistency. We streamline each run with validated protocols to push batch-to-batch variation well below industry averages. Stability keeps the clockwork of downstream formulation ticking without headaches over degradation.
Technical groups and QA teams need more than assurance. They want hard proof. Our powder presents as fine, pale-yellow crystals—a color hinting at phenolic complexity without the dark hues that typically point to oxidative byproducts. The purity runs at least 98% by HPLC, which is a benchmark that emerged after several years of subtle tweaks to our chromatographic separation. Contaminant screening rules out residual solvents, pesticides, and heavy metals, reflecting regulatory landscapes from California to the EU. We don’t chase checklist compliance; the job's not done until powders pass actual chromatograms and mass spectrometry profiles, not just marketing claims.
Our clients land in three camps: pharmaceutical R&D, natural ingredient developers for supplements, and advanced cosmetics formulators. Each space has its quirks, but they all push 1,5-DCQA for its cellular and antioxidant effects. Academic data underline its role in modulating inflammation and oxidative stress, and there’s steady movement exploring its impact on hepatic and cardiovascular systems. Supplement designers fold our product into capsules and tablets—sometimes, they test new blends with other caffeoylquinic acids to gauge synergistic bioactivity. Skin-care labs seek strong antioxidants, and 1,5-DCQA checks several boxes for stability and molecular size—both crucial for topical absorption.
Bulk buyers operating on industrial scales cite one big frustration: unpredictable solubility. We’ve fielded every sort of call about clumping in tanks, grit in datasets, or sediment in suspension. By fine-tuning the polarity of our solvents and freezing the crystalline structure at an optimal state, we provide a product that dissolves smoothly in ethanol, methanol, and phosphate-buffered solutions—key for preclinical work. End users running high-throughput screens report significantly fewer solubility-related artifacts, a surprisingly common “silent” problem. We diagnose these issues with our own hands-on lab work rather than shuffle off complaints through traders or brokers—problems get fixed by the folks who built the process.
Lab groups and manufacturers often tell us about the pitfalls of uneven raw materials. Subtle changes in the isomer profile or water content can torpedo the function of an otherwise well-built supplement or serum. Having designed both small- and large-scale lines, we lock in drying temperatures, protect against moisture re-uptake, and integrate rapid-turnover storage to trim the shelf-life risks. Those extra steps seem like details until someone’s efficacy trial falls short or a cosmetic batch splits half in testing. Consistency has a direct link to spend—making the argument for tight QC more compelling than any marketing blurb.
New clients often ask: what distinguishes 1,5-Dicaffeoylquinic Acid from its relatives such as 3,5-DCQA or mono-caffeoylquinic acids? Our technical staff breaks it down from real-life chromatogram runs. The substitution pattern alters antioxidant behavior, water/lipid solubility, and sometimes, how the molecule fares during metabolism. 1,5-DCQA stands out for its double esterified caffeic acid residues at the 1 and 5 positions—a configuration contributing to unique free radical scavenging. Mono-caffeoylquinate products, for example, work reliably in simple antioxidant formulations but often lack the multi-faceted impact seen with our 1,5-DCQA in cell culture and enzyme inhibition studies. Those structural nuances set the tone for every bioactivity outcome.
Not all extraction routes deliver the same performance once you blend actives into finished products. Up close, cosmetic laboratories mention clogging and precipitation if the particle size isn’t fine enough or if co-extracted sugars sneak through. Our roots in process engineering led us to extra microfiltration and a cold-crystallization step that strips out residual carbohydrates—less grit, more reliable dispersions in serums and lotions. Whether a powder goes into a humid European production line or a North American capsule filler, the shelf stability and freedom from off-odors mean a much lower return rate from downstream partners. Fewer headaches for buyers translates into less rework at every step.
International buyers track ingredient listings and residue tolerances with increasing scrutiny. Labs in China, the U.S., and parts of South America question botanical credentials on a finer grain, sometimes citing admixture incidents or supply chain ambiguity. We keep documentation open for review by providing signed certificates of analysis tied to individual lots, along with traceability records stretching back to raw material harvesting or synthetic precursor origin. From a practical side, recalls tied to mislabeling or unexpected chemical content rarely come from manufacturers who keep process records tight. We see it as insurance, supplied in every kilogram we pack out.
Machines can only do so much; hands and eyes often catch what software will not. Every kilo we produce passes through manual checks and spot runs to catch polymorph crystals or nonconforming bulk density. Testers with years on the job know what to feel for in a batch of fine acid powder: a certain friction under the spatula, the glint under halogen, the scent sharp but not “off.” We’ve learned that small details uncovered during routine cleaning or batch tests prevent future complaints.
Receiving a bulk shipment is one thing—getting value from each batch is another. Over the years, we’ve helped dozens of new buyers tune their own handling protocols. Simple training on humidity control, drum resealing, and rapid-inventory rotation means fewer unexplained potency losses. Storage never runs on autopilot, especially with climate swings in shipping or warehousing. We developed written guides and site visits for clients who want to get the most out of their inventory and avoid the staleness that haunts poorly managed lots. Account managers collect feedback, which cycles back into better packing or smarter desiccant use.
A few years ago, we worked with a supplement group frustrated by caking and undissolved residue. By adjusting the final drying process and screening mesh, we dropped incidents of lumping by more than 80%. Those iterative tweaks—a shift of a few degrees or a percent point of moisture—drive performance. Clients gain more usable material from every drum, and switching costs to new lots crash through the floor. Bigger companies sometimes prefer to regrind raw powder before blending, but our refinements make this extra step unnecessary for most practical scenarios. Close dialogue between production teams here and users in diverse industries provides wins that trickle up to the final consumer.
Taste and odor create direct sensory signals in both nutritional and cosmeceutical contexts. With 1,5-DCQA, poorly refined extracts carry bitterness that migrates through into end capsules or serums. Cosmetic formulators flag this trait if not addressed during purification—it can overwhelm masking agents or neutral fragrances. We invested in extra rinse cycles and gas-purge steps that strip much of the harshness from our finished product. Customer feedback slid from persistent complaints about “herbal edge” to a near-neutral reception. For direct oral use, especially in functional drinks or fast-dissolving tabs, these checkpoints influence repeat purchases even more than analytical metrics.
Several years back, a batch scheduled for a long-haul shipment to a European pharmaceutical client stalled after viscosity spikes emerged mid-process. On investigation, we traced the hiccup to a shift in solvent composition and an unnoticed change in ambient humidity over a holiday week. This exposed a blind spot, so we invested in process monitoring and redundancy steps at each critical transition. Delays sting, but they shape a culture of attention that actually shortens lead times over the long haul. Current process clusters now flag unexpected solvent behavior, with cross-shift teams trained to troubleshoot before problems snowball. Mistakes teach more than any consultant’s slide deck.
Discussions with partners in research and commercial spaces often turn toward extraction authenticity versus synthetic reproducibility. Botanically derived samples can carry a fingerprint of minor constituents, which might bolster the activity profile in certain functional foods or supplements. On the other hand, synthetic 1,5-DCQA eliminates the specter of pesticides or seasonal variability. We keep both approaches at hand, adjusting which pipeline to activate based on timeline, client preference, and volume needed. Some clients looking for “clean label” positioning always ask for native-extracted powder, backed by source documentation. Others opt for lab-synthesized product, citing tighter tolerances or budget constraints. In both paths, a disciplined approach to documentation and post-processing sets the foundation for fault-free and compliant production.
Switching from harsh chemicals to greener solvents and optimizing energy use wasn’t a marketing-led decision—it came from tracking water and energy bills, and fielding questions about residuals from municipal inspectors. Process waste from natural extractions can form a significant environmental liability if not managed up to code. We close the loop on plant waste by arranging for third-party composting or low-grade energy recovery. These changes cut disposal costs but also safe-guard long-term access to valuable plant partners. Several of our long-term partners started asking for LCA (Life Cycle Assessment) for their supply chain, pushing us to invest in cleaner, more measurable steps. Sustainability is not just about optics, but about securing raw material access decades into the future.
Raw material adulteration poses risks few talk about openly, but veterans have seen the effects up close. “Cut” caffeoylquinic acids can slip through loose supply chains, piggybacking cheaper monoesters or unrelated plant extracts. Strict material inspection at every intake, coupled with in-house NMR and LC-MS confirmation, closes that loophole. These steps can slow things down, but catching a single off-spec batch pays back the time spent a hundredfold when regulatory audits come around. Keeping a small, known group of upstream partners matters far more than finding the lowest price in international markets—it’s the difference between reactive scrambling and calm, documented flow during any recall or compliance crisis.
Direct dialogue with clients at technical conferences or in feedback sessions stirs up new application areas. Last year, one collaboration kicked off a research line into 1,5-DCQA as a stabilizing agent for environmentally sensitive active ingredients. Their results mapped out new stabilizer-blend profiles improving shelf life for natural colorants. Another long-term supplement producer flagged issues with competitive ingredient pricing and together we devised a custom packaging size, trimming shipping and handling costs. Many of these project ideas grow out of on-the-ground conversations, not trade-show press releases or generic surveys. Investing time in true partnerships pays off in technical wins and market differentiation.
Many users lump 1,5-DCQA with 3,5-DCQA or single-caffeoylquinic acids, yet the molecular distinctions matter. A single ester swap on the quinic acid ring alters absorption rates, solubility in non-aqueous media, and biological outcomes. For instance, standard chlorogenic acids usually dominate beverage markets, but data now show that 1,5-DCQA can outperform them in oxidative challenge models and provide distinctive bioavailability. We stand ready to furnish side-by-side sample lots, letting clients walk results out in their own processes rather than depending on theory. One beverage developer moved to 1,5-DCQA after a trial period, reporting more predictable flavor and performance attributes. Every novel batch feeds back practical insights for future improvements.
Long years in this sector reveal the evolving patterns of both regulation and market focus. Nutraceuticals, functional foods, and advanced cosmeceuticals remain on the rise, fueling demand for ingredients like 1,5-DCQA that promise more nuanced physiological effects. Regulatory bodies, both state and international, largely accept this molecule when supported by clean sourcing, documented composition, and validated safety data. The next frontiers likely center on optimizing miniaturized delivery systems—liposomal, nanoparticle, or gel matrix—where the stability and consistent sizing of 1,5-DCQA create a basis for reliable release profiles. Our technical partnerships with downstream formulation teams already feed into design tweaks for capsules, suspension gels, and skin-delivery patches.
Research and process teams on our side devote significant time to tuning not just purity but also compatibility with trending formulation technologies. Rather than rest on “just enough” QC, we stay alert to market shifts, emerging technologies, and even setbacks at partner plants. Those insights feed daily improvement in crystallization, packing, and even smaller details like humidity-control liners inside bulk drums. Fielding patents on improved derivatives or co-formulation methods often starts with challenges users hit in the wild. Whether developing a more flowable form for fast-blending drinks or stabilizing blends for direct tableting, test batches and customer-led trials keep us a step ahead. Our cycle of feedback, in-house iterative testing, and reinforcement of process controls carves out technical edges.
Decades spent at the interface of plant chemistry, process engineering, and end-user product design anchor our perspective on 1,5-Dicaffeoylquinic Acid. Trends may wax and wane, but the value of a tight, transparent, and responsive manufacturing ethos never fades. By holding the product to exacting analytical and sensory standards, tracing the source through to every final drum, and focusing on where our powders actually land—in people’s research, supplements, or skin-care regimens—we cut through white-noise and build actionable reliability. Experience teaches that real-world wins rarely come from the cheapest or quickest path—they result from an unbroken chain of solved problems, measured improvements, and hands-on know-how few can fake. 1,5-Dicaffeoylquinic Acid is not merely another point on a spec sheet. For those managing formulations and process flows themselves, its precise, proven, and thoughtfully engineered supply makes all the difference.