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HS Code |
655499 |
| name | Cholic Acid |
| chemical_formula | C24H40O5 |
| molecular_weight | 408.57 g/mol |
| CAS_number | 81-25-4 |
| appearance | White crystalline powder |
| melting_point | 202-204°C |
| solubility_in_water | Slightly soluble |
| storage_conditions | Store at room temperature, keep container tightly closed |
| pKa | 5.0 |
| usage | Used in the treatment of bile acid synthesis disorders |
| synonyms | 3α,7α,12α-Trihydroxy-5β-cholan-24-oic acid |
As an accredited Cholic Acid factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Cholic Acid is supplied in a 25g amber glass bottle with a secure screw cap, labeled with product details and safety information. |
| Shipping | Cholic Acid is shipped in tightly sealed containers to prevent contamination and moisture absorption. Store and transport at room temperature, away from incompatible substances. Handle with appropriate personal protective equipment. Ensure packages are clearly labeled according to regulations for safe chemical handling during transit. Follow all applicable local and international shipping guidelines. |
| Storage | Cholic acid should be stored in a tightly closed container, protected from light and moisture. Keep it in a cool, dry, well-ventilated area, ideally at room temperature (15–25°C). Ensure it is securely labeled and kept away from incompatible substances. Avoid storing it near heat sources or strong oxidizers to prevent decomposition and maintain its stability. |
Applications of Cholic Acid in Industrial ManufacturingAs a core bile acid derived from animal sources, cholic acid serves as a foundational chemical intermediate within several industrial sectors. We supply cholic acid manufactured under stringent quality control for direct integration into pharmaceutical, biochemical, and specialty production lines. Below, we outline key applications based on authentic downstream use cases, each with specific compliance, dosage, process, and product considerations. 1. Pharmaceutical Synthesis of Ursodeoxycholic Acid (UDCA)Pharmaceutical manufacturers routinely use cholic acid as the starting substrate for ursodeoxycholic acid synthesis. After extraction and purification, technicians subject the compound to regioselective epimerization and oxidation-reduction reactions to generate UDCA for API (Active Pharmaceutical Ingredient) markets. Tight specification controls and GMP-compatible handling are mandatory during this multi-step chemical conversion process to ensure compliance and minimize impurity generation. Industry compliance standards
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2. Analytical Standards and Diagnostic Kits ManufacturingProducers of clinical diagnostic reagents buy highly purified cholic acid for use as calibration standards and enzyme substrate controls. Laboratories require precisely weighed and characterized material for use in mass spectrometry, HPLC, and ELISA-based test kit manufacturing. The raw material must meet specific trace impurity thresholds to prevent erroneous analytical readings or compromised diagnostic accuracy in downstream hospital, research, or quality assurance workflows. Industry compliance standards
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3. Specialty Synthesis of Biological Detergents for Biotech ProcessingIn biotechnology and bioprocessing operations, cholic acid-based detergents function as critical membrane solubilizing agents. Manufacturing plants rely on formulated bile acid salts to aid protein solubilization, cell membrane fractionation, and purification processes. The consistency of raw material characteristics directly influences reproducibility and scalability of biotech protocols. Production lines adjust concentration and grade to balance effectiveness with downstream compatibility needs. Industry compliance standards
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4. Cosmetic Ingredient Manufacturing for Emulsifiers and Skin FormulationsPersonal care formulators utilize cholic acid derivatives as natural emulsifying and skin-conditioning agents. Industrial-scale plants process raw cholic acid into sodium or potassium salts and incorporate them into cosmetic emulsions or skin barrier creams. Traceability and microbiological compliance are essential, especially for products marketed in regions with advanced cosmetic regulatory frameworks. Manufacturing focuses on maintaining tight pH control and blending ratios for stability. Industry compliance standards
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5. Food Additive and Nutraceutical Ingredient ProductionSelected producers develop food-grade cholic acid derivatives for use in bile acid supplements and specialty feed additives in regulated markets. Manufacturing involves refined purification to meet critical food safety and trace environmental contaminant specifications. Accurate dosage is vital for safe integration into health-focused food matrices or compound feeds. Quality assurance teams track all production stages to satisfy food-grade audits and regulatory filings in each destination country. Industry compliance standards
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Competitive Cholic Acid prices that fit your budget—flexible terms and customized quotes for every order.
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Manufacturing cholic acid isn’t about cranking out commodity chemicals. Every batch draws on decades of plant expertise, strict process controls, and a constant drive for real scientific accuracy. Our cholic acid is based on a deep knowledge of steroidal chemistry and comes from carefully selected raw materials. Out in the real world, people care less about marketing phrases and more about purity, stability, and actual product safety. This is why the standards we apply to our cholic acid production go beyond the baseline required by pharmacopoeias.
Our current lead model for cholic acid synthesis uses a refined multi-stage extraction followed by highly controlled crystallization. Specifications reflect a daily pursuit of quality – not just because regulators ask, but because poor purity leads to unstable downstream reactions for anyone making APIs or high-value intermediates.
Cholic acid leaves our facility as white crystalline powder, with HPLC purity standards not less than 98%. Water and volatile content are regularly checked by Karl Fischer and loss-on-drying assays, staying within the single-digit percentage range, which matters for stability during shipping and storage.
Heavy metals, organic residues, and solvents show up individually in our QC logs. Whenever there's talk about heavy metal limits in APIs, we’re already running ICP-MS screens that stay ahead of new guidelines. Each year we adapt, since new analytical methods force us to keep our lab techniques fresh, translating international guidance into shop-floor routines.
Microbial control isn’t optional. Modern GMP expects bacterial endotoxin limits that sometimes push us to rethink handling procedures. There are always new points in the chain, from initial extraction to drying, where contamination can crop up. Our environmental sampling routines track the real risk, not just what’s written on a checklist.
Customers in pharma and research fields don’t want surprises. Every time someone talks about batch-to-batch uniformity, the problem gets more practical. Plant operators aren’t reading out of a textbook, but making dozens of small decisions—sometimes instinctive—that keep the chemical nature of cholic acid on point. Fluid-bed dryers and centrifuges don’t compensate for poor raw materials or misjudged reaction times; it’s the staff monitoring color, odor, and crystal size throughout the cycle who set the quality bar.
There's a temptation to automate cholic acid production end-to-end. From our view on the ground, judgment still matters as much as robotics. Some contaminant levels, like resin impurities or unreacted precursor, only show up on certain analytical screens after the batch is complete. The key is building a record of experience backed by strict process documentation—not just to keep up with audits, but to recognize and fix problems before they show in the product.
Cholic acid has found an irreplaceable role in pharmaceuticals—particularly drugs developed for rare genetic disorders, such as bile acid synthesis defects. The stakes are real. Patients depend entirely on the purity and safety profile of chemically-sourced cholic acid, since even small deviations can cause side effects or worsen their condition.
But it’s not just about finished drugs. Cholic acid pushes its way into many early-stage R&D pipelines. Scientists use it as a standard for bile salt studies, to better understand metabolic pathways, cholesterol transport, and liver function. The origin and consistency of cholic acid has a direct impact on the reproducibility of basic research.
For food and supplement industries, there’s growing talk—sometimes justified, sometimes hyped—about cholic acid as a feed additive or metabolite marker. Experience tells us the regulatory environment isn't consistent worldwide. Some buyers operate in a gray area between nutraceutical and full pharmaceutical compliance. Our role here is to make sure those end-users still get cholic acid that could pass high-end scrutiny, even if their jurisdiction doesn’t currently ask for it. It keeps everyone out of trouble when requirements catch up.
There’s more than one way to produce cholic acid, and not all products are created equal. Focusing only on published purity, melting point, or color neglects the sources and downstream risks.
Some platforms rely heavily on enzymatic conversions from natural bile, while others use chemical synthesis routes starting with plant phytosterols. We stick to controlled extraction from animal-derived sources, followed by purification steps that break down residual biological matter and tightly control solvents. By relying on trusted, traceable animal inputs, we reduce the chance of contaminant biomolecules that show up in shortcuts and cheap imitations. Every year, someone new tries to shortcut the purification, and the result is a product you can smell—sometimes literally—on receipt.
There’s a story in every lot number. For research-grade cholic acid, buyers often see lower prices from casual traders. Their product might meet one analytical standard but miss another. We’ve encountered shipments that look clean but trigger problems on mass spectrometry, or fail to dissolve properly in expected solvents. Traders and brokers rarely see the fall-out; the real cost hits end-users when their project stalls.
Our process weeds out batch-to-batch variability not by accident, but through deep experience managing source material changes and environmental factors. Operators regularly recalibrate process timing, temperature curves, pH endpoints, and drying periods—based on running feedback, not automated scripts. Relying only on finished product certificates can’t guarantee the true absence of abnormal variants or problem tautomers.
If someone focuses on “USP cholic acid” or “EP grade,” there’s often a false sense of security. Pharmacopeia standards name minimums, but don’t police the nuances: recent studies found that by-products, photodegradation products, or residual animal peptides sometimes sneak below specification thresholds. Our team designed endpoint assays not just to pass “standard” requirements, but to actually surface these trace contaminants. Anyone looking for exact chromatograms or advanced impurity profiles can expect full transparency from our side, the way we wish every supplier worked.
Talking to customers reveals a broad range of end applications. Some rely on cholic acid as a direct active pharmaceutical ingredient for rare disease drugs, where purity determines patient health. Small differences in impurity profiles have direct clinical effects, so the bar sits higher than the average commodity output.
Other partners develop semi-synthetic bile acids—using our cholic acid as building block—for more common cholestatic liver condition therapies. If the chemical backbone isn't consistent, downstream synthesis leads to unwanted isomers or low product yields. It’s not just wasted time; regulatory authorities demand detailed traceability and impurity tracking for every precursor batch.
In research, laboratory teams use cholic acid in functional assays, metabolic pathway studies, and as reagents for enzymatic activity tracking. Some protocols are extremely sensitive to trace contaminants; we’ve seen more than one published study revised after finding out the “100% pure” product from a reseller skewed their results.
Biotechnology and analytical services groups run solubility and dissolution tests with cholic acid to create reference controls in bioassays. These applications put extra stress on particle uniformity and water content, both of which our drying and micronization steps keep within controlled limits.
Agrochemical developers investigate its role as a supplement or metabolic marker in animal feed, often under strict regulation for natural substance residues. Here, consistency of the product, lot-to-lot, becomes as important as purity for researchers conducting longitudinal animal studies.
Fielding customer questions isn’t a department in a manual—it's a daily ritual. We trade insights with research scientists, process managers, and regulatory affairs teams. Conversations focus on practical issues: Do we have records tracing every input used in a batch? How do we certify absence of prohibited animal pathogens? What about lot release timelines? No one wants a surprise at port clearance or during an audit.
A significant concern: suppliers sometimes deliver variable color or odor, even if the spec sheet looks solid. This hints at incomplete removal of parent bile acids or solvent breakdown. Years of experience taught us that subtle cues—such as a faint off-yellow tint—predict downstream solubility problems. We’re open about in-house corrective measures, whether it means repeating a crystallization run or switching to a more robust drying technique.
Another common client worry: animal-sourced ingredients and the risk of cross-contamination with unwanted biological markers. With modern DNA and protein-sequencing tests, no batch escapes without screening. Every production cycle means extensive documentation—not just to “tick the box,” but to guard the supply chain for our own peace of mind.
We’ve learned tough lessons from raw material instability. Seasonal or geographic variations in feedstocks introduce small, real shifts in chemical profiles. Plants in colder climates, or animals raised on different diets, might yield small but detectable fingerprints in the final cholic acid. Buffering these differences means tighter blending protocols and more frequent analytical controls. Nobody wants to find out a slight change snowballed into a regulatory headache downstream.
Demand for cholic acid occasionally swings sharply. Rare disease drug launches or research upswings bring pressure on supply. Traders sometimes exploit these swings, promising rapid fulfillment with little substance behind their offers. We’ve seen market upsets caused by intermediaries substituting lower-grade or mislabeled stocks, which then fall apart in customer hands.
Our answer is to keep a careful reserve capacity and cultivate relationships with long-term partners. We don’t chase spot market spikes or cut corners on raw material checks, which keeps supply disruptions from hitting regular clients. Taking shortcuts for a quick sale might work for middlemen, but for manufacturers, it comes back as a long-term liability.
Traceability is a sticking point. Finished product buyers in North America and Europe often ask for a full chain-of-custody, from animal origin right to the packed drum. We maintain batch and lot records that survive review by major pharma audits, including pathway documentation and archiving. Few casual dealers can do the same, and we openly share our process details with serious partners.
Some regulatory changes loom large. Markets increasingly demand proof of absence for bovine viruses or specific prions in animal-derived products. Our proactive approach includes regular engagement with veterinary experts, pre-screening at the raw material acquisition stage, and constant updating of decontamination protocols.
Industry-wide, the call for greener and more sustainable chemistry grows louder. We recognize that animal-derived starting materials raise questions about ethical sourcing, environmental risk, and carbon footprint. Our plant keeps detailed sourcing and animal welfare documentation, and when the time is right, we’re investigating pilot-scale production from non-animal starting materials, such as microbial or plant-based fermentation. Success here would close the gap between purity, sustainability, and global supply security in ways no quick fix can match.
If every supplier made real cholic acid to the standards we do, there’d be less confusion in the market. Over the years, we’ve seen how buyers burned by sub-par material become strict about vetting new sources. Chemical manufacturing relies as much on expertise and real-world learning as it does on equipment or automation.
A feedback loop connects our quality control team to customers and to process engineers on the plant floor. Any deviation in feedback from end-users—whether in solubility, stability, particle size, or trace contaminants—leads to practical improvements. Compliance paperwork isn’t a burden for us; it’s the cost of maintaining credibility. Real transparency, not just on spec sheets, builds trust that wins long-term business.
Our reputation grows not from advertising, but from hard lessons, open conversations, and reliable problem-solving. We see cholic acid as more than a chemical—it’s a distillation of the knowledge, integrity, and dedication poured into every step by the people in our facility. Whether customers are developing breakthrough therapies, running essential research, or supporting animal health, we stay committed to delivering more than just a powder in a drum. The goal remains unchanged: to set the bar higher and keep clients ahead in a shifting regulatory and scientific landscape.