|
HS Code |
299187 |
| Chemical Name | Sodium Taurocholate |
| Molecular Formula | C26H44NNaO7S |
| Molecular Weight | 537.68 g/mol |
| Cas Number | 145-42-6 |
| Appearance | white to off-white powder |
| Solubility | freely soluble in water |
| Storage Temperature | 2-8°C |
| Purity | typically ≥98% |
| Ph Value | 6.5-8.5 (1% solution in water) |
| Application | used as a bile salt in microbiology and biochemical studies |
As an accredited Sodium Taurocholate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Sodium Taurocholate, 25g, is supplied in a sealed amber glass bottle with a secure screw cap and clear hazard labeling. |
| Shipping | Sodium Taurocholate is shipped in tightly sealed containers, protected from light, moisture, and contamination. Packaging typically follows regulations for non-hazardous chemicals. Shipments are labeled appropriately and accompanied by safety data sheets. Storage and transport are maintained at ambient temperatures, ensuring product stability during transit. Handle with standard laboratory safety precautions. |
| Storage | Sodium Taurocholate should be stored in a tightly sealed container, away from moisture and light, in a cool, dry, and well-ventilated area. The recommended storage temperature is between 2–8°C (refrigerated). It should also be kept away from incompatible substances and direct sources of heat. Proper labeling and access restrictions are essential to ensure safety and stability. |
Competitive Sodium Taurocholate prices that fit your budget—flexible terms and customized quotes for every order.
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Tel: +8615365186327
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Our work runs at the crossroads of chemistry and biology, and Sodium Taurocholate stands out as a fine example of how careful manufacturing can answer real scientific needs. For decades, we've watched uses evolve and tailored our process to match the expectations of researchers who rely on both consistency and quality. Sodium Taurocholate (NaTC) has earned a reputation as a unique bile salt, and we have witnessed firsthand its power in laboratory protocols, drug studies, and diagnostic system development.
Producing Sodium Taurocholate requires more than pure materials and clean equipment. Over time, small variations in raw feedstock, temperature, and purification parameters create marked differences in the finished compound. Our plant leans on a process mapped through years of close monitoring, batch analysis, and constant feedback from the scientific community. We designed our manufacturing line to give researchers a batch-to-batch reproducibility that we’ve verified with our own documentation and tracked through outside validation reports. Impurities—even those hovering at low ppm levels—have ruined more than a few studies, so our purification steps focus on ruling out any such risk.
From experience, we know analytical labs rely on well-documented lot records, high-resolution spectra, and chromatographic purity checks. Each lot of Sodium Taurocholate leaves our facility paired with its full analytical record, including proton NMR, mass spectrometry, and HPLC chromatograms. These records come not out of regulatory burden, but out of regular user requests and our own pride in showing exactly what we’ve made. We back every delivery with access to technical documentation tracing the process from raw input to final inspection, and we stand by that record in any user audit.
Our Sodium Taurocholate is produced as a white to off-white powder, free of detectable color-forming impurities by visible and UV inspection. We focus on providing a standard grade designed to exceed the typical reference requirements for bile salt research, including microbiology, biochemistry, and pharmacological testing. Several grades are available—regular for general analytical use and high-purity for applications demanding sub-ppm control of contaminants.
The product formula, C26H44NNaO7S·xH2O (commonly encountered as the hydrate), ensures proper solubility and climatic stability in standard laboratory conditions. Each batch comes determined for at least 99% purity by reversed-phase HPLC, with bounds on known impurities (including free cholate and non-conjugated bile salts) set below 0.5%. We bring water content within narrowly controlled limits, generally under 6%. Our microbial specification reflects strong control—no detectable growth of bacteria and fungi in standard environmental monitoring tests, something many customers in pharmacology or clinical diagnostics particularly value.
We produce several standard pack sizes, starting from 1 gram for research through multi-kilogram lots for industrial studies. Bulk production runs follow the same quality system as laboratory-sized batches. Each container is sealed to avoid humidity ingress and uses HDPE, avoiding cross-contamination risk. We ship with continuous temperature monitoring in all seasons. Having experimented—sometimes with bitter lessons in the early days—with long-haul logistics, we no longer overlook any vulnerability that can impact stability.
Sodium Taurocholate finds frequent use as a critical bile salt in cell culture work, enzymatic studies, and pharmaceutical dissolution tests. Our researchers often cooperate with pharmaceutical process teams, who turn to this product for reliable simulation of bile in in vitro permeability and drug solubility assessments—particularly those addressing BCS class II drug absorption. Notably, taurocholates provide micellization behavior quite distinct from the more common sodium cholate or sodium deoxycholate, and we are asked again and again to confirm these profiles in our material.
A decade ago, most requests came from university labs running classical biochemistry assays—such as facilitating lipase or phospholipase activity analysis. In recent years, the work has shifted. We routinely supply to teams using Sodium Taurocholate as a modulator in transporter assays (such as for the NTCP and ASBT bile acid transporters), in Caco-2 monolayer permeability measurements, and in designing innovative diagnostic sensors for liver function tests. We learned early that the repeatability of results in these procedures tracks almost perfectly with the consistency of the sodium taurocholate source, so we built our systems to eliminate that source of error.
Animal nutrition customers benefit from Sodium Taurocholate as a model compound when testing mechanisms for fat digestion in experimental feeds or digestive enzyme systems. We've received ongoing feedback from users working with bovine and porcine digestive models, who value the close mimicry of mammalian bile provided by our product. This is not just about chemistry; it’s about the actual outcome at the bench—whether an enzyme digests a fat, or a model gut correctly simulates digestion.
Not all bile salts behave alike, and we see this reflected in the patterns of demand and research focus. Sodium Taurocholate features the conjugation of taurine, which changes both polarity and biological activity compared to classical sodium cholate or deoxycholate. The taurine group lowers the compound’s critical micellar concentration (CMC), increases solubility, and supports a wider pH tolerance in aqueous systems—crucial for those studying bile-dependent processes under physiological conditions.
We routinely compare our sodium taurocholate to sodium cholate and sodium glycocholate for functional characteristics. Our own lab studies confirm that taurocholate’s stronger hydrophilic domain supports more robust solubilization of lipophilic compounds, which affects drug formulation predictions and micelle size distribution in model systems. Some processes (like horizontal electrophoresis of membrane proteins or cholesterol disaggregation) call for taurocholate specifically to ensure proper protein folding or to limit unwanted hydrophobic interactions.
In feedback from leading pharmaceutical developers, sodium taurocholate’s metabolic and transport properties stand noticeably apart from glyco-conjugated analogs. Its use in transporter studies can reveal transporter selectivity that glycocholate or cholate alone might obscure. Our QC team documents subtle shifts in retention time and mobility in analytical runs that can mean success or failure in separating pathway effects—a detail only surface-experienced manufacturers catch and document for customers.
We believe that detailing these differences matters. Switching between bile salts can lead to subtle shifts in biological results—sometimes drastic enough to throw off months of work. All bile salts can form micelles, but micellar size, shape, and stability differ. Pharmaceutical labs working on passive and active permeability need sodium taurocholate’s particular characteristics to build dependable predictive models.
Another often overlooked difference lies in salt sources. We source our taurine and cholate intermediates after cross-checking for origin, trace metals, and processing aids. We work to avoid cross-contamination with sodium deoxycholate or other bile salt forms, as their presence can confound enzyme or membrane studies. Some researchers, after discovering unexplained assay variability, later found contamination from mixed-source bile salt products—an error we’ve eliminated through dedicated production areas and rigorous source segregation.
Based on long-standing customer partnerships, we know accuracy and reliability rank above all. This can’t be achieved with slipshod controls or remote supply chains. Each Sodium Taurocholate batch goes through a detailed review—purity, identification, microbial status, trace residual solvents, and heavy metal content.
For some buyers, the most value comes from our practice of providing full COA, spectrum, and test data for each batch, not just a summary. This helps with compliance and troubleshooting. If a discrepancy arises—a shift in assay condition, an outlier analytical result—we offer open data and can track back to both our material and our methods.
Years ago, we learned not to cut corners. Our QC group repeats every identity and purity test across multiple analysts and instruments, using current pharmacopeial methods. Our documented detection limits and operational parameters get shared with our clients. Researchers have used our data as benchmarks to validate their own methods—and sometimes spot gaps in emerging standards. This two-way improvement has, over the years, made the product stronger for everyone.
Some customers expect end-to-end traceability. We log each intermediate step, from the batch of taurine used to the glassware for the final crystallization. Problems get solved faster—on both sides—when documentation and experienced staff can identify a cause in the unlikely event of a deviation. We keep samples from every lot produced, so future checks and investigations can use original stocks, keeping science moving without waiting for fresh product reruns.
Our plant fields requests from highly traditional clinical labs and from progressive research startups working on next-generation diagnostic and pharmaceutical strategies. Old and new directions merge around Sodium Taurocholate, because its behavior isn't easily repeated with synthetic detergents or generic bile mixtures. Enzyme function tests, membrane protein preparations, and receptor-ligand studies stock our product as a staple, and we gather user feedback regularly.
Application support matters. A few years ago, a leading pharmaceutical laboratory observed batch-to-batch variation in their in vitro permeability assays traced to minor taurocholate impurities. We worked alongside their team, reviewed their protocols, and proposed minor adjustments in solution preparation; our own chemists simulated their setup to guarantee that the observed effect traced back to product details. This kind of intervention—real, not theoretical—stems from our manufacturing background and our focus on listening to actual users.
Customer use cases build our collective knowledge. In microbiology, certain strains show sensitivity not just to bile salt concentration, but to the exact conjugate present. Differentiating enteric pathogenic bacteria in selective diagnostics depends on sodium taurocholate’s properties. Feedback from public health labs reached us early, and we factor this input into our own product documentation—flagging parameters most critical to users in clinical and food safety spheres.
Today's regulatory landscape looks very different from that of previous decades. Sodium Taurocholate production must not only meet chemical standards but also follow evolving guidelines on traceability, waste management, and risk control. Our manufacturing plant built protocols both to maintain product performance and to reduce environmental impact.
All raw materials pass through a documented approval system. We set up our processing lines to avoid cross-contact with animal-derived components from uncontrolled sources. Any batch meant for pharmaceutical or diagnostic production undergoes full audit trails. Solvent recovery and waste stream separation are now routine steps in our factory, with monitored discharge and recycling standards. Open communication with environmental auditors helps keep our process modern and responsible.
Research teams around the world need confidence both in what they receive and in how it was made. We recognize that meeting E-E-A-T standards isn’t just paperwork—it’s about experienced staff making the right decisions at every step. Our plant managers, with decades in specialty chemical production, oversee both routine runs and complex, high-specification orders. These precautions and process improvements have kept us in good standing, both with end-users and regulatory reviewers.
Supplying Sodium Taurocholate involves more than shipping fine white powders—it's a partnership with labs troubleshooting day-to-day issues and pushing new boundaries. If a study involves kinetic measurements or transport assays, our technical staff helps optimize experimental conditions based on what’s learned in-house and from customer feedback.
We actively participate in collaborative problem-solving. When a pharmaceutical analytical group struggled with unexpected background peaks in HPLC, we supplied reference profiles and ran comparison tests using our own taurocholate and competing brands. Our findings, based on side-by-side trial reports, uncovered the difference: trace deoxycholate as a confounder in a lower-purity reagent from another source. This kind of practical investigation strengthened a decade-long customer relationship and simplified their downstream purification strategy.
We also act as a resource for safety and risk assessment, drawing from our own archives of hazard data and exposure records. Having handled hundreds of kilograms under varied conditions, our technical and safety teams publish guidelines grounded in direct factory experience: with skin protection, containment, storage, and ventilation. When unusual incidents have occurred—such as unplanned temperature rises or accidental spills—we have documented fail-safes and incident response strategies, not based on theory but on actual practice.
We owe much of our progress to close communication with users: scientists, analysts, and industrial researchers worldwide. Feedback loops from ongoing studies, troubleshooting calls, and audit reviews feed directly back into our SOPs and technical files. Over time, we’ve responded to persistent requests—such as demand for lower water content, faster-dissolving grades, or certifiable animal-free sources. These updates required investments in process development and new QC equipment, but the improvements have served customers well and advanced the standard in our field.
We participate in consortia focused on method validation and reference standard development. Our product data have become supporting evidence in peer-reviewed publications and regulatory submissions. Whether a user faces a tough separation in proteomics, a stubborn recovery problem in pharmaceutical grade chromatography, or a compliance hurdle for GMP qualification, our background in manufacturing gives us the tools and expertise to help.
Because we make every gram in-house, not simply repackage third-party sources, we can adjust our approach rapidly to answer a specific inquiry or solve an emerging problem. This responsiveness marks the difference between traditional, slow-moving supply chains and the adaptable, engaged approach we take as specialist manufacturers.
Science advances through reliable materials as much as it does by innovative thinking. Our experience making Sodium Taurocholate exposes us directly to the consequences—good and bad—of consistency, purity, and transparency. Every batch we produce and every question we answer goes toward building a knowledge base that benefits both current clients and the wider scientific community.
We see new fields opening up, from advanced digestive modeling to next-generation transporter inhibitor screens. The demand for robust, well-characterized sodium taurocholate is stronger than ever, and we view our manufacturing expertise as a resource for the next round of scientific progress.
We remain committed to open communication and technical rigor. Every lot, every shipment, and every customer request adds to the collective foundation supporting life sciences, pharmaceutical research, and diagnostic innovation. Our focus will stay grounded in the practice of chemistry, the needs of scientists, and in the honest, day-to-day work of making a product that actually serves its purpose—right at the bench, in every application it touches.