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HS Code |
620484 |
| Product Name | Phenyl Alpha-D-Glucopyranoside |
| Molecular Formula | C12H16O6 |
| Molecular Weight | 256.25 g/mol |
| Cas Number | 3610-93-7 |
| Synonyms | α-Phenyl-D-glucopyranoside |
| Appearance | White to off-white powder |
| Solubility | Soluble in water |
| Melting Point | 158-162 °C |
| Storage Conditions | Store at 2-8°C |
| Purity | Typically ≥98% |
As an accredited Phenyl Alpha-D-Glucopyranoside factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Phenyl Alpha-D-Glucopyranoside is supplied in a 25g amber glass bottle with a tamper-evident cap and labeled for laboratory use. |
| Shipping | **Shipping Description for Phenyl Alpha-D-Glucopyranoside:** This product is shipped in tightly sealed, chemical-resistant containers to prevent moisture and contamination. It is handled as a non-hazardous material but kept away from incompatible substances. During shipping, temperature and humidity are controlled to maintain product integrity. Accompanying documentation complies with relevant chemical transport regulations. |
| Storage | Store Phenyl Alpha-D-Glucopyranoside in a tightly closed container, in a cool, dry, and well-ventilated area. Protect from moisture, direct sunlight, and incompatible substances such as strong oxidizing agents. Keep at room temperature (15–25°C). Ensure the storage area is appropriately labeled and follow all relevant safety guidelines for handling organic compounds. Avoid sources of ignition and static discharge. |
Applications of Phenyl Alpha-D-Glucopyranoside in Industrial ManufacturingPhenyl Alpha-D-Glucopyranoside has a defined role as a specialty raw material in several high-value industrial and scientific production sectors. Its unique glycosidic structure enables targeted performance in downstream formulations, delivering process advantages in various regulated applications. The following sections detail specific industrial scenarios where this material integrates into end-use processing with established compliance and quality standards. 1. Pharmaceutical Intermediate for Glycoside SynthesisPharmaceutical manufacturers use Phenyl Alpha-D-Glucopyranoside as a key intermediate in the preparation of glucosylated drug molecules and glycoside-linked active pharmaceutical ingredients (APIs). This compound serves as a glycosyl donor or aglycone precursor in enzymatic or chemical glycosylation reactions, ensuring bioavailability enhancement and improved pharmacokinetic profiles in certain drugs. Production lines adopt optimized reaction ratios to manage yield and purity, with strict adherence to GMP and pharmacopeial guidelines governing impurity levels and process controls. Industry compliance standards
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2. Substrate for Enzyme Assays in Life SciencesLife science research and diagnostic kit manufacturers employ this compound as a substrate for beta-glucosidase and related enzyme assays due to its chromogenic or fluorogenic properties after enzymatic cleavage. This application demands high purity for reproducibility and specificity in biochemical quantification. Enzyme activity test kit formulation controls the substrate input, balancing signal strength with substrate stability and shelf life. Industry compliance standards
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3. Synthesis of Specialty Flavors and FragrancesIn the flavors and fragrances sector, manufacturers use Phenyl Alpha-D-Glucopyranoside as a precursor or reactant in synthesizing aroma-active glycosides. These glycosides release phenolic aroma compounds under controlled enzymatic hydrolysis, enabling extended-release flavor technologies. The compound enters into flavor matrix formulation or direct enzymatic transformation, and each process is validated for food contact safety and dose-dependent organoleptic profiles. Industry compliance standards
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4. Synthetic Reference Compound for Analytical StandardsChemical and analytical standards producers apply Phenyl Alpha-D-Glucopyranoside as a certified reference material (CRM) or analytical standard for chromatography, mass spectrometry, and NMR calibration. These standards underpin laboratory quality control, quantification, and identity verification of glycoside analytes in food, pharma, and biotech QC workflows. Material quality is closely controlled, and packaging documentation provides traceability to recognized metrological references. Industry compliance standards
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5. Research Reagent for Carbohydrate ChemistryAcademic and industrial R&D laboratories employ Phenyl Alpha-D-Glucopyranoside in carbohydrate chemistry studies, including glycosylation mechanism investigation and the synthesis of oligosaccharides for biological probing. The selection and dosing align with reaction pathway exploration, structural analysis, and structure-activity relationship (SAR) determination. This scenario typically requires catalog-quality grade and fully characterized material provenance, supporting publishable science and method reproducibility. Industry compliance standards
Typical usage ratio
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Work in chemical manufacturing carries a certain rhythm you only understand after years on the production floor. Raw materials pass through reactors and purification tanks, pressure gauges never rest, and every batch must match the one before it. Among the sugars and glycosides we handle, Phenyl Alpha-D-Glucopyranoside stands out for its reliability and distinctive place in research chemistry and specialty synthesis. Our factory started working with this compound well before there was much mention of glycoside derivatives outside academic journals. Back then, most work in the field called for classic O-glycoside syntheses. We began producing Phenyl Alpha-D-Glucopyranoside not because it sounded impressive, but because researchers, enzyme engineers, and industrial biochemists asked for it again and again.
For years, we have kept our model consistent: Phenyl Alpha-D-Glucopyranoside shows a formula that brings together a glucose ring and a phenyl group through an alpha linkage. This connection matters since it defines how the molecule interacts with potential hydrolytic and enzymatic environments. We always emphasize the alpha-anomeric configuration because laboratories working with glycosidase screening and kinetic assays rely on predictable structure and reactivity. During production, we ensure product purity above 98%, with ash and moisture content tightly monitored after every batch. Our facility doesn’t just settle for analytical confirmation; staff walk the line every shift, watching for any deviation. If even a mild off-odor or color shift appears, production pauses and every relevant monitor gets reviewed.
People often ask about where Phenyl Alpha-D-Glucopyranoside fits in the long run of chemical supply. To us, the answer seems simple: Scientists want a predictable substrate for glycosidase activity. Enzyme manufacturers testing performance can’t afford surprises due to an inconsistent raw material. That’s one reason we put so much effort into gentle drying and maintain strict batch segregation. It’s common for research labs, especially in universities or biotech startups, to order this glucoside for detection of α-glucosidase and similar enzyme activities. Even small errors in purity or incorrect alpha/beta ratios can ruin months of screening.
Another role takes shape in the field of specialty organic synthesis: Phenyl Alpha-D-Glucopyranoside often serves as a precursor or an intermediate in the preparation of more complex glycomimetics and natural product derivatives. Our experience shows that clean material improves yields and reduces purification steps later. It’s not just about the baseline product – it’s about saving time and labor for downstream chemists, too.
Our team produces several glycosides every year, from common methyl or butyl-linked glucose derivatives to bulkier aromatic compounds. Phenyl Alpha-D-Glucopyranoside draws interest because its phenyl group changes the compound’s solubility profile and interaction with both enzymes and organic catalysts compared to, for example, methyl α-D-glucopyranoside. The aromatic ring adds rigidity and a distinct hydrophobic face. This makes it particularly useful in fine-tuning enzyme specificity assays or for binding studies in biochemical research.
Working with this compound day after day, we’ve seen pharmaceutical and biotechnological customers increase their requests as they look for reliable probes and standards. Phenyl Alpha-D-Glucopyranoside won’t behave like p-nitrophenyl or o-nitrophenyl glucosides, which release colorimetric or fluorescent signals. It doesn’t supply a straightforward visual change upon enzymatic action, so its subscribers prefer it for non-colorimetric measurements, or as a reference standard, or in multi-step pathways where byproducts can cause trouble. We also hear from those who need high selectivity, since the compound’s natural chromophore lets researchers analyze products by NMR or HPLC without extensive additional derivatization.
The minute differences in solubility, stability, and reactivity do more than fill a datasheet; they affix directly to customer needs. A synthetic chemist working on carbohydrate mimics prefers the phenyl-linked alpha product for stability and downstream compatibility. By contrast, food scientists or industrial fermentation specialists might turn to simpler alkyl glycosides for gentler substrate handling and lower cost.
Every sugar derivative we send out passes through hands and eyes that know what trouble looks like. Factory staff test for residual solvents; thin-layer chromatography runs every morning to sniff out possible byproducts. We hear a lot about GMP in brochures, but on the shop floor, it’s about catching real-world mistakes – a wet filter, a clogged vacuum, or a slowed reaction due to humidity.
Most reported problems in this field come from inconsistent drying or contamination in crystallization steps. Our answer is simple: longer drying cycles and check-weighing after every major step. Our workers don’t let a batch out unless it looks like the one before. Sometimes that means re-running a process. It stings short-term, but those calls from labs reporting unusable substrate drop sharply. That sort of quiet feedback – the absence of complaints months down the line – is proof enough for us.
Our best refinements haven’t come from management meetings, but from the late-night emails and urgent requests from graduate students and plant process leads halfway across the world. We’ve tuned our grind size and filtration not to meet some abstract standard, but because years ago, a lead researcher reported filtration bottlenecks at their scale. Adjusting our own processes took time, but now repeat purchasers expect the same easy-to-handle crystalline or powder forms, batch after batch.
One researcher in glycomics returned with feedback about trace metallic impurities that caused interference in mass spectrometry. We invested in new filtration—a cost not recouped immediately, but we saw rapid adoption by labs working on glycan profiling. That’s one example among many; very few of our advances come purely from following regulations or standards. They come from the realities of getting a job done better.
Academic research keeps driving demand, mainly for enzyme activity testing and substrate specificity analysis. Biotechnologists use Phenyl Alpha-D-Glucopyranoside as a clean, reliable substrate, especially in projects mapping carbohydrate-processing enzymes. The compound’s alpha-anomeric configuration suits work involving human or microbial glucosidases, which prefer the alpha-linkage for catalysis.
A growing area involves specialty organic synthesis, ranging from protected sugar intermediates to more advanced natural product targets. Clients working with glycomimetics and multi-step oligosaccharide synthesis use our material to initiate sequences that might otherwise get bogged down with poorly-characterized starting materials.
Feedback shows the compound’s melt and handling characteristics work well for both small bench-scale runs and larger, multi-liter preparations. Our production teams keep in contact with both front-line users and project managers to catch new use profiles before they become urgent production “one-off” requests.
Manufacturers talk a lot about consistency, and the word belongs in print, but only if every jar matches from top to bottom. We’ve carved out our approach by holding batches to match tight NMR, melting point, and HPLC standards with no surprises between lots. Processes run throughout the year, and raw material assessments occur each time to offset fluctuations in imported feedstock.
Sticking with direct oversight of every crystallization allows us to chase out residual solvents better than automated lines. Our factory workers know that a change in pressure or a faint stray odor signals a problem—one that seldom shows up in digital logs but can wreck an entire batch. It’s a hands-on touch lost in outsourced or brokered material.
Where other suppliers chase volume, we’ve invested in smaller, more tailored equipment for this product, connected directly to our in-house analytical lab. Our product gets released only after side-by-side comparison to our retained “gold-standard” samples from every previous run. Traceability down to bottle and batch lets us pinpoint and fix problems in real time, not a quarter later.
Several new and returning customers told us straight that the lack of cross-contamination from other sugar derivatives made a measurable difference in their data quality. We run Phenyl Alpha-D-Glucopyranoside on a dedicated line, cleaned and inspected by hand, cutting the risk of unwanted side products common in less specialized production environments.
Handling sensitive glycosides like Phenyl Alpha-D-Glucopyranoside brings its own set of headaches, from moisture uptake and clumping to light-driven decomposition. We’ve learned, often the hard way, to ship in double-sealed, UV-protected containers and urge customers to keep them tightly re-capped between uses. That’s a detail missed by plenty of factories focused on just-in-time manufacturing–our crews pack and seal by hand.
Batch-to-batch repeatability causes tension for many end-users. A standard practice for us is to keep reference samples for five years or more, available anytime a customer needs to check a result from an older run. Sample retention began after one customer flagged a subtle stereoisomer issue years back. We learned by tracking back, identifying the process hiccup, and setting it right for every future run. Our compliance isn’t just a formality; we see it as a practical way to shorten communication loops and squash recurring mistakes.
Shipping delays and product breakdown during transit crop up every so often. Over time, we phased in moisture-barrier secondary packaging and flexible lot allocation so distributors and end-users receive the freshest possible batch, even when shipping halfway across the world.
Factories rarely get much glory; most folks see the results in vials and bottles, far from the labors of staff who built them. Yet, our track record with Phenyl Alpha-D-Glucopyranoside stands on years of improvement sparked by actual users. Every odd laboratory inquiry or unexpected complaint gets followed all the way back to the source. We don’t hide behind shipping or storage as excuses; every QC slip sits on our record for future training. Newer staff work shoulder to shoulder with veterans, cross-checking steps and refining their knack for identifying problems before they hit the customer.
We encourage transparency. Any query about batch history, heavy metal content, or validation data earns a prompt reply from someone who handled production, not just a salesperson or a desk-based respondent. Queries for analytical data bring real documentation, with backup samples when requested.
Trends in glycoside and sugar chemistry point toward tougher requirements: lower minor impurity thresholds, more scrutiny on alpha/beta ratios, and higher demands on lot-to-lot reproducibility. We keep pace by keeping production nimble rather than sprawling, taking in specialist feedback quickly rather than chasing market hype. Working with Phenyl Alpha-D-Glucopyranoside gave us a front seat to the evolution of modern glycomics, biocatalysis, and carbohydrate research.
Those who need a sturdy, high-purity alpha-glucoside with the predictability to serve as a model substrate find us steady partners. Every improvement in handling, detection, or reproducibility first serves the frontline user, not just the marketing or regulatory departments. Our perspective comes from seeing the cost – in spoiled research, lost production, or wasted time – when subpar material enters a workflow.
Our team approaches each batch with a hands-on determination bred by repeated hard lessons, real-world collaboration, and factory pride. There’s no silver bullet in producing high-quality Phenyl Alpha-D-Glucopyranoside – only patient routine, listening to tough feedback, and putting quality ahead of expedience. We see ourselves as part of the progress in chemical and biological research, not passive suppliers but part of the supply chain that shapes scientific results from the ground up.