|
HS Code |
790877 |
| Name | Cholestanol |
| Iupac Name | 5α-cholestan-3β-ol |
| Cas Number | 80-97-7 |
| Molecular Formula | C27H48O |
| Molecular Weight | 388.67 g/mol |
| Appearance | White crystalline powder |
| Melting Point | 153-155°C |
| Solubility In Water | Insoluble |
| Solubility In Organic Solvents | Soluble in chloroform, ether, and benzene |
| Pubchem Cid | 64936 |
| Density | 1.06 g/cm³ |
As an accredited Cholestanol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Cholestanol is packaged in a 1-gram amber glass vial with a secure screw cap, labeled with chemical details and safety information. |
| Shipping | Cholestanol is shipped in tightly sealed containers to protect it from moisture and light. The packaging complies with chemical safety regulations, ensuring secure transport. It is typically dispatched at ambient temperature, with appropriate labeling for chemical substances. Documentation accompanying the shipment details handling, storage, and safety instructions. |
| Storage | Cholestanol should be stored in a tightly sealed container, protected from light and moisture. Keep it in a cool, dry place, ideally at room temperature (15–25°C). Ensure good ventilation in the storage area and avoid exposure to strong oxidizing agents. Properly label the container and restrict access to trained personnel to ensure safe handling and prevent contamination or degradation. |
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Purity 99%: Cholestanol Purity 99% is used in pharmaceutical intermediate synthesis, where it ensures high-yield and low-impurity final products. Melting Point 146°C: Cholestanol Melting Point 146°C is used in analytical research applications, where thermal stability enables accurate compound identification. Molecular Weight 388.68 g/mol: Cholestanol Molecular Weight 388.68 g/mol is used in metabolic pathway studies, where precise molecular profiling improves enzymatic reaction tracking. Particle Size <20 µm: Cholestanol Particle Size <20 µm is used in formulation of lipid-based drug delivery systems, where enhanced dispersion increases bioavailability. Stability Temperature up to 50°C: Cholestanol Stability Temperature up to 50°C is used in extended storage conditions for biochemical assays, where product integrity is maintained over prolonged periods. HPLC Grade: Cholestanol HPLC Grade is used in chromatographic standards preparation, where high purity allows for reliable quantitative analysis. Solubility in Ethanol: Cholestanol Solubility in Ethanol is used in the manufacture of reagent solutions, where complete dissolution ensures uniform reagent activity. Residual Solvent <0.5%: Cholestanol Residual Solvent <0.5% is used in certified reference material production, where low solvent residue meets regulatory compliance. |
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Not a day goes by in the lab or clinical practice without running into a molecule that feels almost too familiar—cholesterol. Still, Cholestanol, a molecule with its own profile, has found a space where standard cholesterol measurement tools stop short. Analysts, researchers, and even certain doctors have learned to lean on Cholestanol to gain insights that cholesterol levels alone can't deliver.
From years working with reference standards and specialty biochemical tools, it’s clear that not all compounds are created, purified, or finished the same way. Cholestanol typically arrives as a powder, either crystalline or nearly so, with a purity trailing above 98 percent when sourced from reliable suppliers. Researchers can look for specific isomeric forms, depending on whether their work focuses on metabolism pathways or uses the compound as an analytical standard. Those numbers sound like the fine print of a contract, but when purity slides or the wrong isomer sneaks in, research goes sideways fast. Reputable suppliers provide specs backed by batch-specific chromatograms. Those finer points—melting point, spectral data, solubility in organic solvents—may feel esoteric, but losing sight of them introduces more noise than data.
My own experience with Cholestanol started in a clinical biochemistry lab, measuring plasma levels in children suspected of rare metabolic conditions. Over time, its relevance broadened. Diagnostics uses Cholestanol to zero in on disorders such as cerebrotendinous xanthomatosis (CTX), a genetic condition that cannot be trusted to cholesterol assays alone. For these patients, elevated Cholestanol is a clue that can change the course of treatment and prognosis.
Research groups taking on animal models of lipid metabolism or sterol biosynthesis use Cholestanol as a benchmark. Standard curves depend on a well-characterized, pure reference. This isn’t just nitpicking; skewed reference values mean wrong diagnoses, missed findings, or wasted months in the lab.
Preparative chemists sometimes introduce Cholestanol into synthesis chains exploring new bioactive compounds. Once, during a late-night synthetic run, what was intended as a trace intermediate managed to become a choke point, and Cholestanol’s precise structure—hydroxyl group at C3, hydrogenation at the double bond—made all the difference for downstream steps. Even in food science, it finds applications as an internal standard, helping analysts untangle complex sterol mixtures in edible oils or supplements.
Cholestanol’s real power emerges in conditions where cholesterol tests fall flat. Consider CTX again. Cholesterol levels can read perfectly normal, lulling clinicians into a false sense of security. I’ve watched seasoned physicians grow frustrated with vague neurologic symptoms and tendon xanthomas, all while cholesterol labs draw a blank. Add a Cholestanol test, and a decades-old mystery unravels in a few days. For patients and families, this isn’t a small victory; it alters the entire trajectory of care.
Moreover, in the world of inherited disorders, Cholestanol picks up changes in certain enzyme activities that cholesterol itself overlooks. That subtlety matters, and with wider availability of LC-MS/MS assays, more labs have turned to Cholestanol to complement (not replace) cholesterol screening. Some might worry about cost or complexity, yet compared to the expenses of missed diagnoses and delayed treatment, a targeted test makes sense.
Similar molecules, including phytosterols and various cholesterol analogues, offer some overlapping uses, but Cholestanol stands out for a few key reasons. First, its specific structure—a saturated sterol with the side chain and ring system mimicking cholesterol but missing the double bond at C5–6—equips it to play a distinct metabolic and pathological role. That difference isn’t academic; it’s why the body handles Cholestanol just differently enough to turn it into a diagnostic target.
In a laboratory setting, Cholestanol’s chemical stability sets it apart. Some cholesterol derivatives oxidize quickly or form peroxides, especially under light or fluctuating temperatures. Cholestanol resists these changes, storing safely as long as it sits in a cool, dry place away from oxygen. That reliability means stored reference standards don’t drift in purity, so calibration curves built around Cholestanol remain valid batch after batch.
Anyone who’s ever handled sterol standards knows the letdown that follows when a shipment shows up clumped, discolored, or poorly labeled. Cholestanol isn’t immune from these issues. Sourcing pure material means sticking with suppliers that publish transparent quality data. Vague labeling or missing certificates throw the entire workflow into question. There have been times—midway through a study—when newly arrived Cholestanol didn’t match the provided spectra, and those delays cascaded into missed deadlines.
Storage matters, too. Despite its stability, exposure to humidity or strong acids can trigger breakdown. So, even though Cholestanol resists the rapid oxidation seen with some sterols, careful handling keeps it trustworthy. Some labs go as far as aliquoting new batches and vacuum-sealing vials to avoid these hiccups. It's not overkill; it’s the difference between robust results and confusion.
Years on, the one thing that separates reliable Cholestanol use from failure is traceable documentation. Leading suppliers assign each lot a certificate of analysis with chromatographic data, spectroscopy (usually proton NMR and mass spec), and batch-specific purity statements. I’ve learned, often the hard way, to archive this paperwork. Regulatory agencies keep tightening standards, and journals increasingly ask for this level of transparency.
Traceability doesn’t just check a box on an audit. If a strange outlier crops up in your results, reliable certificates give you a place to start troubleshooting instead of tossing out months of work. For clinical use, especially when guiding lifelong therapy, that peace of mind matters.
With lipid disorders climbing worldwide, Cholestanol now features in more research and diagnostic tools. Those of us in academic or clinical settings have watched as gene panels and high-throughput ‘omics’ push classic molecules back into the spotlight. Even as medicine moves toward personalized approaches, old-fashioned biochemistry hasn’t disappeared. Instead, it pairs up with molecular biology to shed light on problems that genetics alone won’t solve.
For inherited metabolic disease units, a Cholestanol test sits on the shortlist of non-negotiable tools. Outside rare disease circles, the number might not mean much, yet it transforms the path for patients once labeled as medical mysteries. The expanded use of liquid chromatography coupled with mass spectrometry has made Cholestanol measurement affordable and more consistent, shrinking the turnaround time from weeks to days.
Every product, especially in the chemical and life sciences sector, breeds confusion. Colleagues and students often ask whether Cholestanol acts interchangeably with cholesterol analogues or phytosterols. The short answer—no. It sits in its own metabolic corner, shaped by enzymes like CYP27A1, and changes in its levels send specific clinical signals. Mistaking it for a general sterol or misreading results due to impure standards only muddies the waters.
Some worry that adding Cholestanol to testing routines complicates things. My answer draws from firsthand frustration with elusive diagnoses. It adds a layer of complexity, but it also delivers clarity when nothing else works. Instead of broadening testing panels indiscriminately, targeted use of Cholestanol helps focus the search for answers, saving time, money, and sometimes lives.
Quality control remains a frontline issue. Labs bring in Cholestanol to anchor assays, yet even the best materials can let down a workflow through poor storage or bad handling. Regular training, clear documentation, and routine cross-checks help. I’ve seen junior technicians catch mistakes by comparing batch certificates before prepping solutions, preventing avoidable errors. It is this culture of double-checking that separates thrown-together results from trusted science.
Sharing data between institutions also matters. Too often, studies use non-standardized materials and publish results that cannot match up across borders or time. By sticking to recognized Cholestanol reference materials and standardized reporting, some of this noise can be squeezed out of the literature, closing the gap between discovery and real-world benefit.
Science keeps finding new roles for classic compounds. Recent work examines how Cholestanol levels might interact with gut microbiome profiles or link to neurodegenerative disease risk. As our understanding deepens, measurement techniques refine as well. What used to need milliliters of serum now runs on micro-liters with vastly improved sensitivity.
Industry moves quickly. More research groups now synthesize custom-labeled Cholestanol molecules for advanced tracer studies, tracking metabolism and molecular traffic in real time. This wasn’t available a decade ago. Enhanced purification and clever chemical synthesis mean today’s Cholestanol products perform well above the generic stuff listed in dusty catalogs of the past. These advances don’t just impress; they define what’s possible for labs working at the edges of medicine and biochemistry.
No discussion would feel complete without addressing accessibility. Not every hospital or research unit can afford high-end standards, and not all countries have equal access to reliable suppliers. Several collaborative networks and public sector agencies work to pool resources, reducing costs through bulk purchasing or joint tenders. From my own work in resource-limited settings, these partnerships often bridge gaps the private market leaves open.
Grant agencies and nonprofit groups can also play a role. By earmarking funds for reference standards, they level the playing field. Data sharing and publishing open protocols enable teams in low-resource settings to check the purity and performance of locally-sourced Cholestanol, mitigating risk and boosting confidence in outcomes.
Scientists and clinicians have a duty to avoid overreliance on any single marker. Cholestanol unlocks answers in targeted scenarios—primarily rare inborn errors of metabolism. Applying it to broad, unscreened populations without solid evidence risks both overdiagnosis and waste of strained resources.
The solution comes from guidelines developed by experts and patient voices. By following evidence and applying Cholestanol wisely—in patients with compatible histories or screening red flags—outcomes improve and guesswork drops. The product's greatest value shows itself in the transition from vague symptoms to a named, actionable diagnosis. My time in clinics has proven that, for patients living in limbo, a specific, evidence-driven approach matters more than any marketing promise.
Looking at the market, some might suggest Cholestanol is just ‘another sterol.’ Yet decades in the science and clinical trenches lead to a different conclusion. It’s the way Cholestanol punctuates a lab report, transforms a pathway diagram, or rewrites a family’s future that sets it apart. This product, in its purest form, shows what carefully tailored solutions can offer when standard tools have reached their limits.
The journey from synthesis to bedside has never looked simple, and Cholestanol bridges that gap like few compounds do. It guides researchers, informs clinicians, and, most importantly, changes outcomes for real people— all thanks to the years of refinement baked into every batch. For anyone with a stake in metabolic research, rare disease detection, or clinical biochemistry, having Cholestanol in the toolkit isn’t about keeping up with trends. It’s about trusting a product with a proven record and a peer-reviewed foundation, making sure today’s answers lead to tomorrow’s cures.