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HS Code |
544001 |
| Product Name | Apiin |
| Chemical Formula | C26H28O14 |
| Compound Type | Flavonoid glycoside |
| Appearance | Yellow powder |
| Solubility | Soluble in water and ethanol |
| Molecular Weight | 564.49 g/mol |
| Source | Parsley (Petroselinum crispum) and celery |
| Cas Number | 26544-34-3 |
| Uses | Reference standard, research, nutraceutical applications |
| Storage Conditions | Store in a cool, dry place, away from light |
As an accredited Apiin factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Apiin is supplied in a 100 mg amber glass vial, tightly sealed with a screw cap, clearly labeled with product details and safety information. |
| Shipping | Apiin is typically shipped in tightly sealed containers, protected from light, moisture, and extreme temperatures. It is handled as a non-hazardous phytochemical but with care to prevent contamination or degradation. Packaging often includes inner vials within protective outer containers to ensure safe delivery and preservation of product integrity during transit. |
| Storage | Apiin should be stored in a cool, dry, and well-ventilated area, away from direct sunlight, moisture, and sources of ignition. Keep the container tightly closed when not in use and protect from physical damage. Store at a controlled room temperature, ideally between 2–8 °C, and keep separate from incompatible substances. Follow standard laboratory chemical storage protocols for safety. |
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Purity 98%: Apiin with purity 98% is used in pharmaceutical formulations, where it enhances bioavailability and therapeutic efficacy. Molecular weight 564.49 g/mol: Apiin of molecular weight 564.49 g/mol is used in nutraceutical supplements, where it ensures consistent dosing and compound stability. Particle size <50 µm: Apiin with particle size less than 50 µm is used in cosmetic creams, where it promotes faster skin absorption and homogeneous distribution. Stability temperature 60°C: Apiin with stability temperature of 60°C is used in food additives, where it maintains potency during heat processing. Melting point 185°C: Apiin with a melting point of 185°C is used in chemical synthesis, where it allows precise reaction control without premature degradation. Water solubility 20 mg/L: Apiin with water solubility of 20 mg/L is used in beverage fortification, where it provides improved dispersion and clarity in liquid systems. Viscosity grade low: Apiin of low viscosity grade is used in topical ointments, where it ensures smooth texture and easy application. |
Competitive Apiin prices that fit your budget—flexible terms and customized quotes for every order.
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In over two decades of hands-on work with active plant glycosides, we’ve learned that successful product development rarely comes down to a single molecule or an abstract certificate. Instead, customers across the pharmaceutical, nutraceutical, and functional foods industries value consistency, traceability, and practicality. Apiin, a naturally occurring flavonoid glycoside sourced from parsley leaves and celery seeds, fits this profile because real-world plants don’t make life easy. Extraction isn’t simply a matter of soaking some chopped vegetables in ethanol and hoping for the best. We’ve tested dozens of plant batches and harvest seasons to see how apiin content rises and falls with weather, soil, or harvest timing. Only a thorough, seasonally adjusted approach delivers a powder that companies can count on.
Our Apiin offering adheres to a model refined through repeated pilot and commercial runs, with process parameters anchored in our ongoing in-house research. We use fresh plant material rather than dried, which keeps plant enzymes at bay and helps us sidestep hydrolysis of the apiin structure. This matters because hydrolyzed components can interfere later in the product chain. Our standard extraction process uses food-grade ethanol with tightly controlled temperature and pressure, stripping away bulk cellulose without degrading the glycoside. We set rigorous specs for moisture and particle size because wet, chunky powders clump in downstream mixing lines and turn into expensive downtime. With apiin, purity runs above 96 percent by HPLC, and batch-to-batch consistency hovers within two percent. The finished product appears as a pale yellow, free-flowing powder, and the aroma makes it clear there’s no heavy bleaching or solvent masking involved.
Consistency isn’t an abstract sales point. More than half of our product support conversations come from customers who switched, even once, to an unverified supplier and ended up with sticky, off-color, or insoluble powder. Such issues usually trace straight back to a missed step in process controls. Our team starts each campaign of extraction with a complete phytochemical profile of the incoming plant material. We adjust variables—solvent ratios, contact time, centrifugation speeds—based on empirical lab results rather than a fixed protocol. This helps us correct for raw material variations, which happen every harvest. We also run stability studies in-house, watching apiin’s glycoside linkage under challenge conditions that mimic industrial warehouses—temperature cycling, humidity spikes, and light exposure. This way, technical teams buying from us can plan their storage and shelf-life settings based on reality rather than promises.
The two largest sectors using our apiin are dietary supplement formulators and pharmaceutical researchers. Our pharmaceutical partners look for high bioactivity in the glycoside form, using apiin in anti-inflammatory, antioxidant, and vascular health trials. Their formulations need a powder that stays solid through direct compression tableting without caking or browning. We test flow properties and compaction under these specific requirements, then tune our drying cycle during spray-granulation as needed. Nutraceutical companies, by contrast, focus on boosting their final total flavonoid content while steering clear of off-tastes or extra ingredients. Since our own apiin comes from edible plants, our process produces no off-odor, avoiding masking agents in finished oral supplements. For food applications, especially functional drinks, we developed a finer-milled grade that disperses fully in cold liquids, confirmed by extensive dissolution trials. Customers send feedback about sediment-free mixing and a neutral taste profile that shows up in fresh-squeezed greens rather than processed extracts.
Anyone working with botanical isolates notices quickly that not all plant powders are created equal. Take the case of common parsley extract versus refined apiin: parsley extract can show a brownish tinge from oxidized phenols and a flavor profile ranging from earthy to metallic, depending on the drying method and extraction temperature. Many commercial grades of “leaf extract” offer only vague minimums of total flavonoids, with no breakdown by composition or by glycoside type. Apiin stands apart for its unique glycoside structure, which delivers higher solubility in water and milder taste than quercetin or kaempferol-glycosides from other sources. While celery seed is another option, celery extracts often concentrate unwanted phthalides or strong odors, which can disrupt flavor or mask associated actives in complex formulations. We monitor cross-contaminant profiles during our process, especially checking for residual family-specific allergens or pesticides.
Many customers question the difference between using apiin versus apigenin itself. Apiin is an apigenin glycoside, so it features a carbohydrate tail that enhances water solubility and digestive stability. While aglycone apigenin (sold as a yellow, crystalline material in the market) can provide higher antioxidant punch in acute cell culture models, it generally arrives with a tighter solubility window and risks recrystallization in beverage systems or liquid-filled capsules. Our data, collected with partner labs, show that apiin passes more smoothly through gastrointestinal models, translating to sustained bioavailability. This aligns with observations from clinical partners who report improved product acceptability in patient trials—not just a technical win, but a practical one.
Many newcomers to apiin rely on brokers who cut costs by buying non-food-grade parsley or mixing in carriers. This can cause cloudiness, off-odors, or inconsistent labeling. As manufacturers who visit our raw material sources directly, we commit to traceability all the way back to the farm. Over the years, we’ve rejected countless loads of parsley or celery for non-visual reasons: abrupt API level drops, spikes in lead or pesticide residues, or inconsistent moisture readings picked up in our intake warehouse. One example stands out: a batch from a new European grower had color and aroma on point, but testing revealed unacceptably high isoflavone byproducts—likely due to an unregulated fertilizer regimen. Our lab flagged and quarantined the lot before a single kilo hit the mixer.
Mislabeling in plant powders causes more headaches than it solves. As chemical manufacturers who shoulder recall risk, we scrutinize each lot with authentication markers found in our own method-validated chromatography system. Most food labs can confirm apiin only by basic TLC fingerprinting. By running in-house HPLC, plus third-party repeat analysis, we not only lock down composition but catch adulterants that would otherwise slip through. This habit grew out of painful lessons early in our manufacturing journey. A spike in in-process complaints years ago made us double up on QA training and batch retention. Walking production lines ourselves, we watch for subtleties that spreadsheets don’t catch: powder caking in airlocks, faint color shifts near drying beds, or an uptick in the hum of mixer motors when carrier starch leeches out and gums up the system.
The functional ingredients sector faces constant regulatory adjustment. Apiin, as a distinctly identified and characterized flavonoid, often flies below the radar of novel foods—but border compliance is never taken for granted. We always verify local legal status and provide full documentation packages, showing not only source, but stepwise process flow and impurity profiles. If regulations change, we share risk analysis with our partners and adapt our process line where necessary. For example, as trace allergen limits grow more stringent, we built dedicated cleaning cycles for our parsley-derived lines, including rigorous swab tests for celery allergens or heavy metals that batch testing in third-party labs sometimes misses.
Downstream partners in drinks, tablets, or softgel production often face novel formulation demands each year. Customers push for lower residual solvents, cleaner taste, and interchangeable powder lots with zero regulatory surprises. We answer these calls by regularly validating our own manufacturing shifts, replacing or upgrading line materials to meet new standards. Each cycle brings hiccups—leaks in peristaltic pump seals, froth in concentration tanks when temperatures rise even a few degrees—but troubleshooting directly at the production floor, we find and fix. This real-time adaptation pays dividends in finished apiin quality and in stronger partnerships.
As a manufacturer driven as much by discovery as delivery, our team invests heavily in R&D. We know that every raw material harvest and every downstream project brings new challenges. Feedback from partners often triggers lab projects: questions about long-term stability in complex blends, flavor fading in ready-to-drink functionals, or haze appearing during microencapsulation. In-house research teams regularly trial new granulation techniques or tweaking solvent ratios to maintain powder uniformity across seasons and supply transitions.
Results come back to our core product line. Through years of repeated side-by-side solvent extractions, we established that apiin holds dermatological bioactivity comparable to more famous flavonoids—without the taste or solubility baggage. Our current R&D stream explores applications beyond health products, such as antioxidant packaging and even biostimulant granules for sustainable agriculture. Field trials with academic partners confirm apiin’s compatibility with both oil-based and water-dispersed delivery systems, opening up new commercial routes.
Making an ingredient is only half the business. Supporting technical teams downstream often makes the critical difference, and here our manufacturing perspective pays off. Ingredients like apiin don’t always behave as planned during pilot blending or scale-up. Batch blenders can gum up, or powders can show visual cues that point to a process kink. Sharing our own real-world troubleshooting logs has helped partners rapidly optimize their own lines, rather than chase causes by trial and error.
For example, one supplement customer reported light brown speckling during early tab compression runs. Reviewing their powder reconstitution protocol and moisture logs, we identified a mismatch in humidity calibration with our own post-drying parameters. Adjusting both sides’ dehumidifier cycles solved the problem and improved shelf-life. Other clients encounter mixing challenges in beverage syrups: after reviewing their shear mixing graphs, we recommended a finer milling grade of apiin, which minimized settling without the need for added emulsifiers. These problem-solving cycles, rooted in shared process insights, make quality a real partnership rather than just a handoff.
Apiin isn’t a static product on a warehouse shelf. Each batch tells the story of plant growth, supply chain adaptation, and process refinement. Large customers with multi-country production lines need confidence that a kilo from our next lot will behave just like the last. This means not only maintaining tight process specs but also staying honest about supply limits when raw material harvests dip or logistics slow at borders.
Through direct farm contracts, periodic supplier audits, and contingency planning, we keep our supply resilient. During supply chain crunches—whether from drought, price spikes, or regulatory surprises—we keep communication open with downstream users. In a year when parsley harvests in a major growing region tanked from early frost, we pivoted, brought forward a reserve crop, and only released delayed apiin lots after confirming full compliance with retained-batch analysis. Small details like these turn manufacturers into reliable partners rather than mere suppliers.
The journey from plant field to finished apiin powder relies on transparency at every stage. Rather than just ticking regulatory boxes, we detail our own process controls, turn over analytical data on request, and walk partners through both our historical challenges and ongoing improvements. Any partner facing an unexpected QA concern can access current and historical data, not just a polished CoA. This openness extends to regular in-plant visits, sample retention policies, and joint troubleshooting during pilot or commercial production runs.
Markets and regulatory norms change, and customer requirements grow more exacting. Manufacturers of apiin who last, and who add value, adapt quicker than the product cycles themselves. That means growing R&D efforts, open sharing of process advancements, and listening carefully to partners’ feedback from the field. Our commitment remains simple: deliver validated plant chemistry, adapted to real-world constraints, while standing up for both product quality and trusted business relationships.
Putting it plainly, a reliable apiin supply isn’t built overnight—it grows from patient, iterative improvements by people who walk every day through their production lines and who take pride in every kilogram shipped. From the agronomy of sustainable plant sourcing, through fine-tuned extraction, to batch-level customer feedback, the quality and reliability of our apiin reflect the depth of our practical chemical manufacturing experience. Our partnerships depend on this real-world engagement—an ongoing loop of research, adjustment, and open communication as the field continues to evolve.