|
HS Code |
287615 |
| Productname | Taurocholic Acid (Tcdca) |
| Casnumber | 145-42-6 |
| Molecularformula | C26H45NO7S |
| Molecularweight | 515.7 g/mol |
| Appearance | White to off-white powder |
| Solubility | Soluble in water and methanol |
| Storagetemperature | 2-8°C |
| Purity | ≥98% |
| Meltingpoint | 119-121°C |
| Synonyms | 3α,7α,12α-Trihydroxy-5β-cholan-24-oyltaurine |
| Ph | 5.0-7.0 (10 mg/mL in water) |
As an accredited Taurocholic Acid (Tcdca) factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Sealed amber glass vial containing 1 gram of Taurocholic Acid (Tcdca), labeled with product details, batch number, and safety information. |
| Shipping | Taurocholic Acid (Tcdca) is shipped in tightly sealed containers to protect from light and moisture. It is typically transported at ambient or refrigerated temperatures, depending on purity and supplier specifications. The packaging complies with all relevant regulations for safe handling and transport of laboratory chemicals. Safety documentation accompanies each shipment. |
| Storage | Taurocholic acid (Tcdca) should be stored in a tightly sealed container, protected from light and moisture. Keep it at 2–8°C (refrigerator temperature) and avoid prolonged exposure to air to prevent degradation. If supplied as a powder, ensure it is stored in a dry environment. Follow all relevant safety protocols for handling and storage of biochemical substances. |
| Purity 98%: Taurocholic Acid (Tcdca) with a purity of 98% is used in hepatobiliary research, where it enables accurate quantification of bile acid transport. Molecular weight 515.7 g/mol: Taurocholic Acid (Tcdca) of molecular weight 515.7 g/mol is applied in biochemical assays, where it ensures consistency in ligand-receptor binding studies. Stability temperature 2-8°C: Taurocholic Acid (Tcdca) stable at 2-8°C is used in storage for clinical diagnostics, where it maintains bioactivity over extended periods. High solubility in water: Taurocholic Acid (Tcdca) with high water solubility is utilized in in vitro enzyme substrate preparations, where it facilitates rapid dissolution for homogeneous reactions. Particle size <100 μm: Taurocholic Acid (Tcdca) with particle size less than 100 μm is used in pharmaceutical formulations, where it improves uniformity and bioavailability in dosage forms. Melting point 132°C: Taurocholic Acid (Tcdca) with a melting point of 132°C is used in analytical methods development, where it supports thermal stability during processing. Endotoxin level <0.1 EU/mg: Taurocholic Acid (Tcdca) with endotoxin level less than 0.1 EU/mg is used in cell culture applications, where it minimizes risks of cytotoxic contamination. UV absorbance 210 nm: Taurocholic Acid (Tcdca) showing distinct absorbance at 210 nm is used in HPLC analysis, where it enables precise detection and quantification. |
Competitive Taurocholic Acid (Tcdca) prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please call us at +8615371019725 or mail to admin@sinochem-nanjing.com.
We will respond to you as soon as possible.
Tel: +8615371019725
Email: admin@sinochem-nanjing.com
Flexible payment, competitive price, premium service - Inquire now!
Years of crafting bile acid derivatives have taught us that every molecule tells a story. Among them, Taurocholic Acid stands out for more than its technical description. Known by those in the field as Tcdca, this acid forms one of the primary bile salts. It’s the tauro-conjugated queen of cholic acid and marks its value by the way it integrates into animal and human physiology, and in the broader context, how well it serves as a benchmark for bile-related research and the pharmaceutical industry.
Manufacturing Taurocholic Acid takes deliberate effort and more than recipe knowledge. We’ve seen requests pour in from labs that require analytical-grade acid for precise LC-MS, another round for gram-quantities in preclinical projects, and another inquiry about kilogram lots for industrial use as a precursor. Each batch we make undergoes HPLC-based purity checks. Year by year, our record has shown purity levels consistently clocking over 97%. Some orders target upwards of 99%. The difference between 97% and 99% may look small, but analytical chemists can spot the difference easily. We pay close attention to the sulfate and tauro moiety, eliminating byproducts at every stage. We routinely validate the sodium and hydrate forms too, since even minor deviations in salt content could skew assay results downstream.
Our standard lots of Tcdca feature a molecular weight of 537.68 (for sodium salt dihydrate), a distinct crystalline structure, a sharp melting range, and a pale color reflecting high quality. Packing density, solution clarity, and easy solubility in water matter as well. We field dozens of technical questions about batch-specific water content and elemental analysis certificates. We keep Omega-purity, free from cross-contamination, and state final purity down to the second decimal place in the Certificate of Analysis. Purchase contracts with large pharma focus on the trace levels of heavy metals and absence of residual contaminants. We never release a batch that falls short of these requirements.
Tcdca sees use in a wide band of applications but always punches above its weight in the details. Start with bile acid research. Researchers who map gut microbiota and liver metabolism use our acid to set up carefully tuned media. With Tcdca as a supplement, those cultures steer growth of select bacteria, particularly those tuned into taurine metabolism. Another chunk of our shipments go into the hands of pharmaceutical scientists investigating drug absorption and transport across enterocytes. They use Taurocholic Acid to mimic bile acid pools in in vitro models and simulate the complexity of the human gut. Tcdca has become the gold standard against which secondary bile acids and mixed conjugates are measured.
A few clients in the enzyme diagnostics sector buy our Tcdca for substrate assays. These customers value reliability batch after batch since even a subtle shift in cholic content or tauro group can throw off activity measurements. When making custom derivatives or labeled standards, our labs rely on the absolute consistency of our main Tcdca stocks throughout the synthesis chain. Across the board, no one wants impurities or unexpected side chains. Clinical research programs exploring bile acid transporters or FXR and TGR5 agonists require maximum reproducibility, since shifting signal strengths muddy the data.
Many new buying managers ask why Taurocholic Acid gets chosen over deoxycholic or glycocholic acids. Taurocholic carries a taurine-conjugated sulfur group, which grants it distinct solubility and charge characteristics at physiological pH. That’s why it interacts differently with membranes and protein transporters compared to its glycine cousins. In microbiome culture, Tcdca resists certain deconjugation enzymes longer than glycocholic acid—a property important in mapping gut deconjugation kinetics or maintaining precise conditions in anaerobic tubes. In our hands, only Tcdca supports specific types of bacterial blooms and reaction selectivity. This keeps it indispensable in both reference standards and targeted biochemical experiments.
Switching Tcdca with unconjugated cholic acid just to save cost derails some enzyme assays outright—signal drops and off-target reactions spike. We’ve rescued more than one research project where pure Tcdca corrected erratic data from cheaper, ill-matched substitutes. Glycocholic acid gets used sometimes where more rapid deconjugation is needed, but replacing Tcdca with it often muddies data interpretation since the taurine group’s presence in Tcdca alters substrate behavior distinctly. Technicians and project leads who recognize these details ask us about our recent HPLC and NMR findings, seeking the deep chemical authenticity only true manufacturers can share on a batch’s journey.
Long experience tells us that storing Tcdca dry and sealed keeps its structure and clarity over the longest shelf lives. Hydrated forms handle a bit more gently—absorb moisture less violently and settle evenly in powder form. We’ve cataloged rare cases of color shift or caking in poorly conditioned storerooms; these almost always track back to packaging that’s not perfectly tight. We double-seal high-purity Tcdca to ward off air and moisture intrusion. For big lots, we ship in food-grade, lined drums and sample every container right before it leaves the plant. During the monsoon season, we ship smaller bottles first and monitor humidity trends carefully so that our product reaches the customer unaltered.
On stability, our product survives freeze-thaw cycles and long hauls, but repeated opening puts endotoxin levels at risk, and we flag any lots that fail to clear the toughest internal benchmarks. Researchers working in regulated environments often prefer single-use aliquots—our filling and sealing operation stands ready for those requests. Our technical team who synthesize and bag the product will tell you stories about the odd odor or slight visual cue that signals something is off long before cold QC reports do. Nothing replaces the combination of machine and human checks before any batch receives its release.
Each year, analytical labs sharpen their requirements. We keep pace with mass spectrometry advances that spot minor isomers or low-level contaminants. Feedback from customers using newer LC-MS/MS workflows led our process team to overhaul a filtration stage two summers ago. The old filters let trace organics through that showed up in some advanced spectra, and only after customer collaboration did we spot and fix the issue. Now, our whole production crew follows regular training on analysis calibration matching the top current labs.
Requests for isotopically labeled Tcdca, for example with D4 or 13C labels, have grown sharply. We stepped up our own benchwork to create synthesis routes compatible with both large-scale needs and rapid development for cutting-edge metabolic tracing. Years of feedback taught us where bottlenecks creep in, where yields drop, and how even minor changes in solvent grades rearrange crystallization. Delivering to this market demands both chemistry sense and honest, open communication with any customer troubleshooting a challenging protocol.
Unlike brokers who move boxes and invoices, we meet chemists, postdocs, project managers and QC leads on video, at conferences, and occasionally in person, talking through exactly what each user faces on their bench. Our technical sheets stand open for comment—and users never hesitate to point out where an odd standard deviated from expectation. We carry those stories back to the factory; almost every process tweak started with talks like these. Someone’s failed ELISA or patchy animal dose recovery becomes our next process reliability test. Cases where another supplier’s acid fell short, and our Tcdca restored project momentum, helped us refine traceability and improve packaging protocols. These are not footnotes on a website—they represent years of commitment and the blend of science and care that only shows up through deep manufacturer involvement.
Global demand for Tcdca sometimes fluctuates, with academic and industry orders rising around research grant cycles or regulatory submission deadlines. One memorable quarter, capacity nearly got swamped by a sudden uptick in metabolic disease studies. We held back from over-promising—allocating priority to long-term research partners and treating historic users with respect. Price swings in raw cholic acid or taurine impact overall cost, but we buffer these where possible. Direct sourcing of starting materials—sometimes from audited animal tissue processors, sometimes from plant-based approaches—keeps us nimble and responsive. We’re transparent about delays or price bumps, always aiming for open communication rather than fine print on an invoice.
Years ago, people rarely asked about solvents, waste, or animal origin in bile acid production. That shifted. We constantly review our process to reduce chemical footprints, recycle spent solvents, and limit animal-derived inputs. Teams inside the plant capture each step’s waste stream and push for less water use or safer neutralization. Our buffers and reagents leave as little impact as possible. Most of our pharma customers now request disclosure about residual solvents, and we share the full story, not just the ticked boxes. Some academic researchers even request plant-based Tcdca, which now forms a small but growing niche. We developed proprietary biosynthetic and semi-synthetic routes for these requests, even if they cost more to deliver. This isn’t a press release story—it’s the reality of staying relevant to a world waking up to its chemical choices.
No manufacturer can stay relevant without adapting to documentation requirements. We now see every global shipment follow with full Statements of Origin, Residual Solvents Declarations, and, for select clinical development programs, full DMF (Drug Master File) references. We keep an open record of each Tcdca manufacturing run—start and check logs, in-process QC, and full chain of custody. We provide custom batch statements on allergens and BSE/TSE for select users. In the past, a simple purity declaration passed muster, but today, R&D and Quality groups want spectral analysis, process audit summaries, and chain-of-custody for all lots destined for regulated clinical zones. We document process improvements, process deviations, and trace analytical results to each drum or vial shipped. This way, our users never face left-field regulatory queries unsupported.
Users in our circle have sent feedback that shaped our business. They tell us when a batch performed above expectation, flagged subtle lot-to-lot color changes, and described the unusual results in interaction with their test systems. We engage with those who question small pH shifts or minor handling ease issues. Over time, we see which features matter most—ease of redissolution, non-hygroscopicity, resistance to caking under varying humidity, and the ability to handle repeated freeze-thaw. An open channel with customers ensures that each new lot improves upon the last.
Our reputation gets built batch by batch, returning to basic skills: careful raw material selection, unbroken process lines, rigorous documentation, and a keen ear for the experience of users in the lab. By staying in conversation, not just pushing a product, we learn how Tcdca serves as a backbone of countless studies, clinical programs, and new drug applications.
Demand for advanced bile acid derivatives will keep evolving. Newer analytical methods, custom labeling, and requests for animal-free origin drive constant learning on our side. We keep pressing forward on process simplification, faster lot release, and reduced resource use. At the same time, traditions hold firm—the hand-checking of critical lots, the tasting notes some of our senior team swear help spot contaminants, and the pride in being approached by labs around the globe for both routine and breakthrough work. Our plant never stops adapting, but it also never forgets the foundation built by years of attention to detail, technical sharing, and real-world troubleshooting.
In every pack of Taurocholic Acid that leaves our docks, there runs a thread of technical devotion and an honest reflection of what manufacturing really means: standing behind each bottle, answering each query, and never letting down the science that relies on our expertise.