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HS Code |
129642 |
| Product Name | Phloridzin |
| Chemical Formula | C21H24O10 |
| Molecular Weight | 436.41 g/mol |
| Cas Number | 60-81-1 |
| Appearance | White to off-white crystalline powder |
| Solubility | Soluble in ethanol, slightly soluble in water |
| Melting Point | 106-109°C |
| Source | Primarily found in apple trees (Malus species) |
| Category | Natural dihydrochalcone glycoside |
| Uses | Used in research of diabetes and as a natural sweetener |
| Synonyms | Phlorizin, Phloretin-2'-O-glucoside |
| Storage Conditions | Store in a cool, dry place, away from light |
| Purity | Typically >98% (varies by supplier) |
| Stability | Stable under recommended storage conditions |
| Pka | Approx. 9.5 |
As an accredited Phloridzin factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Phloridzin, 5 grams, supplied in a sealed amber glass vial with a tamper-evident cap and clear product labeling for identification. |
| Shipping | Phloridzin is shipped in tightly sealed containers to protect it from moisture and light. The packaging complies with regulatory guidelines, ensuring safe transportation. It is typically shipped at ambient temperature unless otherwise specified. All handling and shipping procedures follow standard chemical safety protocols to prevent degradation or contamination during transit. |
| Storage | Phloridzin should be stored in a cool, dry place, protected from light and moisture. It is best kept in a tightly sealed container at 2-8°C (refrigerator) and away from incompatible substances or strong oxidizing agents. For long-term storage, keep the chemical in a desiccator or under inert gas to prevent degradation and ensure stability. |
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Purity 98%: Phloridzin Purity 98% is used in anti-diabetic drug formulations, where it enhances glucose reabsorption inhibition for improved glycemic control. Molecular Weight 436.4 g/mol: Phloridzin Molecular Weight 436.4 g/mol is utilized in metabolic research studies, where it enables precise dose-response calculations in glucose transporter assays. Melting Point 106°C: Phloridzin Melting Point 106°C is applied in nutraceutical product manufacturing, where its defined phase transition ensures stability during encapsulation. Particle Size <50 µm: Phloridzin Particle Size <50 µm is used in food supplement preparations, where uniform dispersion improves bioavailability and absorption rates. Stability Temperature 25°C: Phloridzin Stability Temperature 25°C is incorporated into beverage enrichments, where it maintains potency and activity under standard storage conditions. Assay ≥99%: Phloridzin Assay ≥99% is implemented in clinical trial formulations, where high purity minimizes variability and ensures consistent therapeutic effects. Solubility in Methanol 100 mg/mL: Phloridzin Solubility in Methanol 100 mg/mL is used in analytical reference standards, where optimal solubility facilitates accurate HPLC quantification. UV Absorbance (λmax 265 nm): Phloridzin UV Absorbance (λmax 265 nm) is utilized in spectrophotometric assays, where specific wavelength detection enables reliable compound identification. Extracted from Malus domestica: Phloridzin Extracted from Malus domestica is used in natural product formulations, where botanical sourcing adds value for labeling and consumer appeal. Moisture Content <5%: Phloridzin Moisture Content <5% is employed in tablet production, where low moisture prevents degradation and enhances shelf life. |
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Phloridzin has long been a foundation in our facility’s production lineup. Working with this natural dihydrochalcone glucoside, we focus on both its traditional heritage and its modern demands in research and manufacturing. Our team pays close attention to the qualities that matter most—purity levels, reproducibility in synthesis, and batch-to-batch stability. Making Phloridzin is more hands-on than many realize; it begins with careful sourcing of raw apple tree bark and certain other fruit trees known to contain the compound in reliable concentrations. We’ve refined extraction and purification through years of in-house trial and examination, always weighing economic practicality with technical need.
We make Phloridzin in two principal grades, both responding directly to what our end-users—industrial processors and laboratory researchers—have identified as bottlenecks. The analytical grade comes in at over 98% purity, meeting the needs for trace analysis and standard preparation. Our food and supplement grade targets purity at no less than 90%, fully traceable and tested with our in-house quality control methods. Granular and fine powder forms address both dispersion into solvents and compounding into blends. We've chosen to keep moisture levels tight, under 5%, reducing clumping during storage and shipment. Melting point and optical rotation values have long served as first checks for quality on arrival and outward shipment alike.
Batch failures in certain seasons taught us to install redundancy in botanical sourcing. Still, we insist on non-GMO supply chains, and every lot receives full screening for heavy metals and pesticide residues using modern LC-MS and atomic absorption. For storage, double-layer moisture-barrier packaging remains our direct solution, especially to prevent hydrolysis during transit or at customer sites.
Research is the main driver among our Phloridzin customers. It shows up in diabetes research, often as a reference substance for studying SGLT inhibition. Our conversations with university clients highlight the challenge of analytical interference from common plant glycosides in crude extracts. Consistent, high-purity product lets projects move forward without repeated instrument recalibration. Functional food developers seek our food grade for prototype beverages and bars. Their focus lands on the natural origin and the established safety profile of Phloridzin, particularly as an ingredient in apple-based products. Ingredient formulators ask for properties detailed well beyond the COA: solubility curves for different pHs, detailed impurity profiles, even advice on masking slightly bitter notes in finished recipes. Our lab guides detail everything we’ve learned side-by-side with production staff and customer feedback, not just abstract numbers.
Globally, regulatory requirements diverge widely for natural compounds. We keep detailed technical files and maintain batch samples for years, respecting the reality that customs challenges may follow shipments well after production. This vigilance reflects shared risk; our direct responsibility as the producer outlasts a simple transaction.
Contact with customers over decades has illustrated the confusion that can exist between Phloridzin and others in the same class. Phloretin stands out as a sibling compound, sharing the backbone structure but lacking the attached glucose moiety. The two differ meaningfully in solubility—Phloridzin dissolves far more readily in aqueous systems, reshaping its use profile in beverage and supplement formulations. Flavonoid glycosides as a broader group include a maze of related molecules. Our technical guidance department spent hundreds of hours comparing the trace pigment content and all-purpose stability across sources and extraction methods. We have learned, based both on feedback and on our own troubleshooting, that standard resellers rarely account for the impact of trace oxidation byproducts which can complicate certain analytics.
Synthetic samples from non-plant sources show up in the market, especially where botanical harvesting is restricted or costly. We stay with genuine apple-derived starting material, which means our impurity signatures and isotopic ratios match regulatory scrutiny for natural-label claims. Our practical knowledge transfers to questions of chiral purity and enzymatic functionality—attributes that have caused difficulties for those relying on generic, multi-sourced material.
Year-to-year, the practical task of making Phloridzin stays tied to environmental cycles. Apple bark and related raw materials see yield fluctuations, and storms or droughts in particular zones can cut into available biomass, requiring us to invest in longer-term grower partnerships. We support local suppliers in regions with organic orchard practices to limit synthetic chemical carryover. Our own production crews monitor harvest schedules, holidays, and climate impacts directly, sometimes buying extra inventory ahead of forecasted shortages.
Extraction solvents must meet tough safety standards and minimize negative impact on the compound’s long-term stability. Ethanol remains the workhorse solvent here, given its track record for food safety and relatively straightforward disposal. For special runs, we use supercritical CO2 extraction, especially for clients focused on full organic certification. Each chemical used in the process meets traceability expectations not just from regulatory reviewers, but also from customers who have become much more critical toward the origin story of their ingredient materials.
Scaling up involves more than increasing vessel size—solubility changes, flow rates, and even foot traffic in the plant affect yields and purity. Our staff cycles between small pilot runs and full-plant campaigns, capturing learning each time. Equipment sanitation, validated clean-in-place protocols, and immediate cold storage after final purification stop batch-to-batch quality variation from creeping in. We keep a troubleshooting chart based on dozens of edge cases encountered over the decades, directly accessible to our teams for fast response.
Phloridzin is a high-profile ingredient in part due to consumer awareness of apple-related health claims, so our customers—from supplement houses to academic labs—demand lot-level traceability. Our documentation covers field location, harvest date, and transit history, all the way to in-house inspection data. If a batch ever triggers a question, we can trace it back through time, check archived samples, and answer with evidence instead of just hope.
Many clients work under the eye of auditors and must account for the complete path their input materials follow. We design our paperwork specifically for audit-readiness, aware that paperwork isn’t just a bureaucratic burden but a critical shield in the modern quality landscape. Product recalls do happen in the wider market; this makes us keenly aware of the value in keeping our end-to-end supply history clear and rapid to review.
Our R&D team spends time in dialogue, both on the phone and in person, because the most relevant insights come from active projects, not just from theoretical reading. When a partner runs into solubility limits or flavor masking challenges, we set up bench trials with their actual excipients, using materials from the same production lot as their order. University researchers sometimes ask us for help with structural confirmation and chiral HPLC: our chemists give them time and knowledge built from operating at scale.
On-site visits, regular sample sharing, and direct troubleshooting build trust, and more importantly, ensure product fit and satisfaction on the user end. We’ve learned over time that buyers turn into advisors; their feedback shapes not just specifications, but the way we train staff and how we talk about our own product’s strengths and limitations.
Equipment upgrades don’t happen in a vacuum. Changes to pressure, temperature control, or filtration types ripple through every other step. We schedule downtime in a way that minimizes risk to critical harvest-dependent runs. Staff training adapts each time; for example, a switch to finer filtration mesh called for retraining on cleaning practice and recalibration checks. Larger centrifuges allowed us to speed through separation stages, but required adjustments in handling of solids to prevent contamination and impurity carry-over.
We also track academic literature and patent filings across the globe, seeking promising innovations. Sometimes new analytical techniques change the definition of “pure” for Phloridzin. Each new method gets checked with our own archived samples before any change touches active production—knowledge acquired over years that helps maintain continuity and preemptively catch mistakes.
Defining quality in Phloridzin production boils down to more than chemical percentages. Contaminants, trace solvents, pesticide residues, and other environmental factors receive direct daily monitoring. We spot check labs for instrument drift, re-calibrate more frequently than most standards require, and keep duplicate samples for forensic review. These measures have prevented losses for customers dependent on our consistency, especially where an unexplained result would set back research by weeks or months.
We maintain records of every production run, linking them to storage histories and transport conditions. Sometimes customers turn up months or years later with advanced analytical tools, able to see impurities undetectable at time of shipment. We meet these findings head-on, tracing fault or confirming robust history, rather than hiding behind layers. Open dialogue lets us adjust for long-term changes in customer needs, even pushing modifications to process validation if recurring patterns emerge.
Phloridzin faces increasing scrutiny under both food and health regulations. Limits on pesticide residues have forced deeper engagement with upstream growers and field testing. Food safety initiatives shift the allowable ranges for various contaminants—our inspection teams work overtime during peak harvests, bringing in outside verification for results with any ambiguity.
Shipping and cross-border movement bring challenges—delays due to new import rules, last-minute demands for different certificates, or requests for extended test panels. We keep a dedicated compliance group on call, preparing both electronic and physical documentation ahead for anticipated snag points. Some regions now require advanced notice or export approvals, which increases our advance planning but strengthens relationships with authorities and downstream users.
Feedback doesn’t stop post-sale. We hear from users working in clinical trials, early-stage product launches, and fundamental research. Some found that trace starches from alternative plant sources caused trouble in assays; we modified our refining steps to remove those. Health-conscious brands care most about long-term stability; these clients prompted us to evaluate light-blocking packaging and turned us onto new desiccant blends.
In drug development, scale is everything. Larger runs place pressure on supply, which in turn called for redundancy in our provider network. We built a buffer stock of critical intermediates—a costly choice at times, but justified when a harvest failed overseas and our customers saw no delay in critical supply. The tension between generic and name-brand material keeps us motivated to supply detailed chemical fingerprints alongside regular COAs. Those case studies make their way into staff training and process documentation.
Looking ahead, Phloridzin faces both competition and collaboration opportunities. Synthetic biology could loosen the link to traditional agriculture, lowering risk during poor harvest cycles. Combined with our focus on transparency, synthetic or hybrid approaches will depend on keeping identity and labeling transparent, as some demand natural status and others value cost or environmental improvement.
Our scientists monitor advances in green chemistry methods, aiming to bring solvent recycling and low-energy purification steps forward as soon as proven safe and efficient at volume. Clients expect change—they ask for allergen statements, residual solvent improvements, and even “passport” histories for traceability from tree to tank. Each brings its own learning curve, but we see the effort as a long-term investment.
Collaborations with university labs and industry consortia result in new uses for Phloridzin; a recent trend focuses on its application in metabolic and anti-inflammatory research. We maintain a reserve for such partnerships, seeing the benefit in sharing early-stage findings before they become widely adopted, and sometimes adjusting process yield targets when a new market develops.
Producing Phloridzin at commercial scale feels different from making lab samples. Machines and people both develop quirks. Trends show up over years—filter clogging during humid seasons, difficulty reaching target crystal size after equipment upgrades, or rising impurity levels following upstream changes at the farm. We adapted by keeping open lines between lab, floor, and office; small problems caught early never turn into big headaches.
Long-term staff bring memory to the process; they spot subtle color changes or shifts in smell that instruments miss. Training the next generation centers on hands-on learning, pairing with experienced operators, and keeping ongoing notes accessible. Even so, every year introduces something new—from regulatory curveballs to unexpected customer requirements.
Innovation and tradition live side by side in our operation. Authenticity, reliability, and direct accountability ground our approach to Phloridzin production, with improvement fueled by both our own curiosity and the real needs expressed by a varied set of partners across the globe.
The heart of our work lies in finding the balance between technical rigor and practical use. As an actual producer, hearing directly from users shapes our process more than abstract trends or standards alone. We see Phloridzin’s best advances emerge at the points where farm, factory, lab, and final user work transparently together. Problems become chances to refine and share our knowledge, rather than headaches to be hidden.
Our ongoing commitment means Phloridzin leaves our warehouse not as a faceless commodity but as a testament to collaboration and real experience, shaped by hands that know the whole journey from tree to finished product.