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HS Code |
892802 |
| Chemical Name | Tauroursodeoxycholic Acid |
| Synonyms | TUDCA, Taurine-conjugated ursodeoxycholic acid |
| Chemical Formula | C26H45NO6S |
| Molecular Weight | 499.7 g/mol |
| Cas Number | 14605-22-2 |
| Appearance | White to off-white powder |
| Solubility | Soluble in water, slightly soluble in ethanol |
| Melting Point | 198-204°C |
| Storage Temperature | 2-8°C |
| Usage | Choleretic and hepatoprotective agent |
| Ph Value | Neutral to slightly acidic (aqueous solutions) |
| Origin | Synthetic or derived from bile acids |
| Stability | Stable under recommended storage conditions |
| Biological Role | Bile acid derivative |
| Administration Routes | Oral, intravenous |
As an accredited Tauroursodeoxycholic Acid factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Tauroursodeoxycholic Acid, 5g, is packaged in a sealed amber glass vial with tamper-evident cap and clear labeling. |
| Shipping | Tauroursodeoxycholic Acid is shipped in tightly sealed containers to protect from light, moisture, and air. The chemical is packaged following standard safety protocols and labeled appropriately. It is delivered at ambient temperature unless otherwise specified, ensuring product stability and integrity throughout transit. Handle according to local regulations for safe chemical transport. |
| Storage | Tauroursodeoxycholic acid should be stored in a tightly closed container, protected from light and moisture, at 2-8°C (refrigerator temperature). Keep it in a well-ventilated, dry area away from incompatible substances. Ensure the container is clearly labeled and avoid exposure to extreme temperatures. Follow standard chemical storage guidelines and local regulations for safe handling and storage. |
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Purity 99%: Tauroursodeoxycholic Acid with 99% purity is used in pharmaceutical formulations, where it ensures high efficacy and minimal impurities. Melting Point 204°C: Tauroursodeoxycholic Acid with a melting point of 204°C is used in heat-stable drug manufacturing, where it maintains chemical integrity during processing. Particle Size <10 μm: Tauroursodeoxycholic Acid with particle size less than 10 μm is used in tablet production, where it enables uniform blending and rapid dissolution. Stability Temperature 25°C: Tauroursodeoxycholic Acid stable at 25°C is used in long-term storage of medical products, where it preserves compound potency over time. Molecular Weight 499.7 g/mol: Tauroursodeoxycholic Acid with molecular weight 499.7 g/mol is used in biochemical research studies, where precise quantification and analysis are required. HPLC Assay ≥98%: Tauroursodeoxycholic Acid with HPLC assay greater than or equal to 98% is used in quality-controlled clinical trials, where consistent therapeutic outcomes are measured. Water Solubility 53 mg/L: Tauroursodeoxycholic Acid with a water solubility of 53 mg/L is used in injectable solutions, where adequate bioavailability is achieved. Endotoxin Level <0.25 EU/mg: Tauroursodeoxycholic Acid with endotoxin level below 0.25 EU/mg is used in parenteral drug products, where contamination risks are minimized. Residual Solvent <0.05%: Tauroursodeoxycholic Acid with residual solvent content under 0.05% is used in API manufacturing, where regulatory compliance and safety are maintained. Optical Rotation +36°: Tauroursodeoxycholic Acid with optical rotation of +36° is used in chiral synthesis applications, where enantiomeric purity supports desired pharmacological activity. |
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Behind every drum or package of tauroursodeoxycholic acid, there’s a story that begins at the manufacturing level. Years of refining process control, building relationships with suppliers, and watching customer needs shift in the pharmaceutical and supplement markets have shaped our view of this unique bile acid. Unlike synthetic fillers or commodity ingredients, tauroursodeoxycholic acid comes with a reputation earned by clinical research and supported by real-world application. Our direct experience spanning production, testing, and feedback from clients in both the pharmaceutical and academic fields sets the groundwork for how we view this compound.
Tauroursodeoxycholic acid, widely known in scientific circles as TUDCA, belongs to a select group of bile acids with notable biological functions. Its primary structure, a taurine-conjugated form of ursodeoxycholic acid, sets it apart from other bile acids both in terms of physicochemical stability and in its compatibility with human physiology. The choice to manufacture TUDCA over other bile acids comes from demand driven not only by researchers but by clinicians who recognize its effectiveness for certain liver and cellular protection protocols.
Rather than treating this as just another small molecule to ship by weight, manufacturers know that TUDCA production requires precision and discipline. Crude techniques never deliver the consistency in purity that modern customers expect. That’s why, in our facility, the process begins with high-precision selection of raw materials, moves through a tightly controlled conjugation and crystallization process, and ends only after rigorous high-performance liquid chromatography verification.
Each batch we release carries defining markers: a crystalline white powder with a specified melting point and a purity confirmed above 99%, with minimal related impurities and solvent residues. These specifications aren’t just lines on a certificate; they’re the result of feedback loops between R&D, quality teams, and end users who return with data and questions in hand.
Our teams have watched the global rise in research regarding bile acids and their medical applications. Tauroursodeoxycholic acid stands out, not because it is trendy, but because data supports its compatibility with human systems—chiefly for cholestatic liver diseases, cellular protection under extreme duress, and those seeking novel approaches to conditions connected to endoplasmic reticulum stress. This interest didn’t arise out of thin air. Long before tauroursodeoxycholic acid became a keyword in supplement circles, it earned its keep in accredited hospitals treating challenging conditions.
Feedback from our partners in academic labs keeps us close to the ground. We hear about novel mechanisms—everything from modulation of protein misfolding to emerging neuroprotective research. We see the shift toward clinical-grade materials for research, leaving behind generic quality standards. These changes force manufacturers to push for higher precision, greater batch-to-batch traceability, and full transparency in ingredient origin and processing conditions. That’s how change in drug and supplement development trickles up to the factory floor.
There are plenty of bile acids on the market, each suited for different end uses. What differentiates TUDCA from conventional options like chenodeoxycholic acid or ursodeoxycholic acid is a balance of safety and potency. We noticed that TUDCA’s taurine conjugation raises its solubility and stability. More importantly for us as manufacturers, it behaves reliably under stress tests—handling exposure to varying temperatures and humidity levels more consistently than unconjugated variants. All this means less headache during storage, shipment, and formulation, whether the destination is a compounding pharmacy or a university cleanroom.
From years of direct feedback, we recognize that clients working on neurodegenerative disease models or metabolic conditions rely on TUDCA for its membrane-stabilizing properties and its ability to alleviate cellular stress. Many end users started with generic ursodeoxycholic acid, only to pivot to TUDCA after encountering limits with absorption and biocompatibility in their particular applications. That trend keeps us focused on purity, granulation, and the right particle size distribution—knowing that every small change ripples outward in a research pipeline.
In our facility, there’s hardly a day when teams aren’t discussing method variation or scrutinizing batch data. Producing tauroursodeoxycholic acid isn’t simply a matter of combining ingredients and waiting for a reaction. The conjugation step, which links taurine and ursodeoxycholic acid, must run under a narrow spectrum of temperature and pH conditions. Getting it wrong can produce off-target compounds and unwanted residual solvents. Our plant runs dedicated vessels, not multipurpose equipment, to avoid cross-contamination.
Our technicians follow robust analytical schedules—checking for contaminants like ethidium or residual solvents, and confirming values with both internal and third-party labs. Over the years, we’ve responded to increased regulatory scrutiny by developing robust in-house documentation processes. We track every lot of starting material and maintain digital records of process parameters. These efforts aren’t window dressing. Without that data chain, it gets harder for our pharmaceutical partners to defend their own investigational drug filings.
Our experiences have shown that the smallest shifts in solvent grade or reagent source can produce out-of-spec results, requiring rework or disposal. Error margins might seem small, but to those assembling a clinical trial protocol, the difference is life or death for a project. We take that seriously and encourage direct dialogue between our process chemists and the finished-formulator staff downstream.
We’ve observed plenty of interest from client groups handling a wide range of usages: pharmaceutical investigation, cell culture, animal model research, and even exploratory dietary interventions. Because our TUDCA goes directly into such sensitive environments, we never take shortcuts on endotoxin control or heavy metal screening. We know biologists often choose TUDCA for its ability to modulate bile acid pools, offset endoplasmic reticulum stress, and help protect against hepatotoxic agents during drug metabolism studies.
When shipped to pharmacological labs, our material often goes directly into sterile formulations. The feedback we get from those front-line researchers has guided us to adopt stricter microbial testing and doubled our focus on batch sterility. For a manufacturer, traceability isn’t just about compliance. Supplying clinical researchers and hospitals, we take pride in eliminating guesswork around purity grades and batch consistency.
In animal science, feedback circles back especially around consistency: same absorption curve, same performance profile, reproducibility across experiments. Anything less, and we’d see requests for batch replacements or reports of unexplained data deviation. Meeting those needs means ongoing investment in analytical instrumentation, continual staff training, and close control of material flows.
Ursodeoxycholic acid (UDCA) often gets mentioned in the same breath as TUDCA. While both share a common molecular backbone, our observations and batch performance data reveal several practical distinctions. UDCA tends to display weaker water solubility and sometimes fails to reach desired tissue concentrations in certain applications—pharmacokinetic profiles back this up. In contrast, TUDCA’s conjugation with taurine promotes greater bioavailability, benefiting those working on applications where rapid uptake and distribution matter.
From a formulator’s standpoint, tauroursodeoxycholic acid integrates more predictably into complex preparations, especially for injectables or controlled-release studies. We hear from formulation scientists who struggled with clumping or precipitation in powder blends containing UDCA or CDCA, issues less pronounced with our crystalline TUDCA. Both animal and clinical researchers also stress the stronger safety profile—lower risk of provoking adverse bile-salt-induced cytotoxicity during chronic exposure scenarios.
It’s not just about chemical properties; manufacturing complexity comes into play as well. Tauroursodeoxycholic acid requires more stringent control over reaction impurities and residual solvents post-synthesis. We find this keeps us sharper, tying the integrity of each shipment back to the practices set into motion in the earliest stages of the supply chain. Such vigilance isn’t as essential for more generic bile acids, which see broader impurity tolerances under pharmacopeia standards.
Our perspective as a manufacturer centers on transparency. Every batch is accompanied by full test documentation, including methods for residual solvent detection, heavy metal quantification, and microbial limits. Meeting compendial monographs is a floor, not a ceiling, for us. We accept on-site audits from pharmaceutical and supplement partners, knowing that real trust isn’t won through paperwork alone but earned through consistency of output and willingness to explain the details.
Staying in line with evolving regulatory guidance from regional bodies keeps us honest. Several years back, heightened questions around animal origin contaminants spurred us to strengthen our supplier verifications and introduce additional viral inactivation steps. It’s a cycle of adopting best practices, seeing where new risks could emerge, and ensuring our protocols grow alongside those expectations. Customers have grown more sophisticated too—expecting robust data packages and clear statements on allergen, BSE/TSE status, and compliance with current Good Manufacturing Practice regulations. We not only match these but aim to anticipate the next wave of standards.
It’s clear to us that tauroursodeoxycholic acid’s reputation rides on more than flyers and web listings. Our engagement with developers in Asia, Europe, and North America has put us at the center of market evolution for specialty bile acids. Growth in rare disease drug development, mounting consumer interest in advanced nutraceuticals, and a wave of government support for orphan drug research drive greater segmentation in buyer needs.
We’ve seen a shift away from basic purity claims toward broader analytical disclosure—chloride content, isotopic ratios, particle sizing, even non-target trace elements. As clients have climbed the learning curve, we’ve moved in tandem: setting aside older batch correction protocols in favor of root-cause investigations for every deviation, however minor. This has meant greater investment in data handling and relationship-building with certified contract laboratories.
One challenge remains in reconciling the tight specs needed for clinical use with the realities of mass-scale output. Larger batch sizes can mean a greater opportunity for minor heterogeneity, which must be tracked and addressed through spot checks and in-process analytics. As a manufacturer, we don’t pretend there’s no room for error; instead, we focus on speed and transparency in communicating any issues, keeping customer trust at the heart of every proposed solution.
Keeping pace with demand for high-purity tauroursodeoxycholic acid won’t come from resting on previous years’ best practices. We’ve identified several areas where targeted change can benefit customers and society alike. Greater digitization in batch documentation promises more direct feedback and quicker verification for regulatory bodies. By automating certain process-monitoring steps, we can cut both cost and variability, increasing throughput for hospitals and researchers alike.
Another area of focus lies in advancing sustainability. Manufacturing specialty bile acids brings with it environmental considerations, especially around waste water, solvent recycling, and energy consumption. We remain committed to greener chemistry—minimizing reliance on hazardous reagents in favor of catalytic and enzymatic transformations when feasible. For every kilogram shipped, we ask how the upstream and downstream impact can be minimized and communicate openly about both our successes and our misses.
Customer education also plays a major role in shaping the tauroursodeoxycholic acid market. Too often, early-stage buyers stumble over terminology, misinterpret certificates of analysis, or overlook necessary validations for their use case. By running regular open-house events, inviting key clients for process tours, and publishing batch-level stats online, we aim to eliminate confusion and set clearer expectations. Our work doesn’t end when drums leave the plant; follow-up on performance and trace deviations back into plant operations helps close the loop, ensuring continuous product improvement.
For us as a manufacturer, producing tauroursodeoxycholic acid is not just about meeting technical specs—it’s about accelerating scientific progress and supporting better patient outcomes. Each refinement in the process, every bit of analytical data collected, each conversation with a formulation chemist or a research scientist, shapes how we produce and deliver this compound. TUDCA has moved far beyond its origins as a clinical curiosity. It interacts directly with the most current theories on cellular resilience, neurodegeneration, metabolic stability, and liver health. Our responsibility is to keep the standard high so those developments can continue.
In the coming years, we anticipate wider adoption of tauroursodeoxycholic acid as both a research tool and a therapeutic ingredient, spanning borders and therapeutic categories. Meeting that promise takes more than just technical skill; it demands a willingness to keep learning from everyone along the supply chain, to push for more precise answers, and to build lasting partnerships rooted in shared purpose. Only through continued dialogue, vigilance, and honest assessment will we keep up with the needs of those who depend on tauroursodeoxycholic acid for drug development, disease research, and patient care.