|
HS Code |
610024 |
| name | Dehydrocholic Acid |
| cas_number | 81-23-2 |
| molecular_formula | C24H34O5 |
| molecular_weight | 402.52 g/mol |
| appearance | White to off-white crystalline powder |
| solubility | Sparingly soluble in water, soluble in ethanol |
| melting_point | 189-192°C |
| chemical_class | Synthetic bile acid |
| iupac_name | 3,7,12-Trioxo-5β-cholan-24-oic acid |
| storage_temperature | Store at room temperature (15-30°C) |
| pka | 4.73 |
| usage | Diuretic and cholagogue in medicine |
As an accredited Dehydrocholic Acid factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Dehydrocholic Acid, 25g, is packaged in a sealed amber glass bottle with a secure cap and clear hazard labeling. |
| Shipping | Dehydrocholic Acid is shipped in tightly sealed, chemical-resistant containers to prevent moisture and contamination. Packages are clearly labeled with hazard information and handled according to regulations for non-hazardous chemicals. The product is protected from direct sunlight and extreme temperatures during transit, and all safety documentation accompanies the shipment for compliance. |
| Storage | Dehydrocholic acid should be stored in a tightly closed container, protected from light, moisture, and incompatible substances. Keep it in a cool, dry, and well-ventilated area away from strong oxidizing agents. Avoid excessive heat and freezing temperatures. Ensure containers are clearly labeled and check storage areas regularly for leaks or spills to maintain safe laboratory or industrial conditions. |
| Purity 98%: Dehydrocholic Acid with 98% purity is used in pharmaceutical intermediate synthesis, where high purity ensures consistent bioactivity and reduced impurities in final products. Melting point 202°C: Dehydrocholic Acid with a melting point of 202°C is used in controlled-release formulation development, where thermal stability enhances formulation integrity during processing. Particle size <20 µm: Dehydrocholic Acid with particle size less than 20 µm is used in oral tablet manufacturing, where fine particle distribution improves dissolution rate and bioavailability. Stability at pH 7.0: Dehydrocholic Acid stable at pH 7.0 is used in bile analysis reagents, where pH stability ensures reliable diagnostic performance. Molecular weight 408.55 g/mol: Dehydrocholic Acid with a molecular weight of 408.55 g/mol is used in research assays, where precise molecular characterization facilitates accurate experimental results. Hydrophobicity index 4.2: Dehydrocholic Acid with a hydrophobicity index of 4.2 is used in micellar system construction, where suitable hydrophobic interactions support efficient micelle formation. Solubility in water 0.2 g/L: Dehydrocholic Acid with water solubility of 0.2 g/L is used in injectable formulation applications, where limited solubility restricts precipitation risk during administration. Residual solvent <0.05%: Dehydrocholic Acid with residual solvent less than 0.05% is used in GMP-compliant drug production, where low residual solvents meet stringent regulatory standards. Thermal decomposition above 220°C: Dehydrocholic Acid with thermal decomposition above 220°C is used in high-temperature extraction processes, where enhanced thermal resistance prevents degradation. Optical rotation +30°: Dehydrocholic Acid with optical rotation of +30° is used in chiral separation techniques, where enantiomeric purity increases isolation efficiency. |
Competitive Dehydrocholic Acid 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!
Customers expect consistency, and behind every high-purity chemical lies a story about raw material selection, controlled processes, and accountability. As direct producers of dehydrocholic acid, our commitment starts before the raw materials enter our plant. Verified suppliers, documented handling routines, and years of experience guide every decision. We monitor each step, because the loss or degradation of a single intermediate can throw off an entire batch. The journey to the finished powder or crystal form always begins with rigorous authentication of inputs, especially since cholane skeletons can break down easily if not properly cared for.
Our lot-to-lot reproducibility comes from continuous calibration and not cutting corners on filtration or drying steps. Customer labs regularly test our products for traces of solvent residues or side-products. We share their results, sometimes even inviting their QA teams for factory walkthroughs. This gives users peace of mind. Direct communication removes blind spots from the supply chain and lets us answer questions about batch variances or stability. We frequently deal with customers who use dehydrocholic acid in bile acid metabolism studies, veterinary medicine, and pharmaceutical pre-formulations. From their feedback, we know stability under humidity, solubility in water-ethanol systems, and low impurity grades all make a difference in daily lab work.
A solid dehydrocholic acid product must meet both industry and research standards. Model selection matters, yet most buyers focus less on "model" and more on spectrum, particle size, and contamination profile. Over the years, requests have included coarse crystalline forms for tableting lines, and microfine grades for injectable vehicles or solvent suspensions. Microscale research often benefits from our high-purity powder, ground below 80 mesh, thanks to its ease of weighing and homogeneous dissolution.
What sets our manufacturing apart involves paying attention to small details in drying and recrystallization. Lab customers with HPLC and mass-spec capacity spot minor contaminants or trace degradation products that lower yields or introduce false signals. We adopt incremental filter changes and solvent selection based on year-round feedback, rather than broad, inflexible SOPs. Analysis data gets reviewed regularly, each finding acting as an index for the next batch.
Every order leaves the plant with a batch-specific CoA detailing water content, melting point, heavy metals, residual solvent levels, and specific optical rotation. We tailor our drying operations to guarantee a controlled water content, understanding how this impacts shelf life, powder flow, and downstream stability. Veterinary customers using our material in bile salt metabolism ask for low-chloride and low-ash variants, so we validate our ion exchange columns routinely. Pharmaceutical researchers rely on tight controls for non-aqueous content and want open access to chromatographic traces, not just manufacturer claims. Rather than hide results, we openly share failed batch notes and corrective procedures.
When discussing technical parameters, melting point remains a vital reference point. A tightly controlled range ensures the absence of unreacted starting material or harmful byproducts. As a producer, we catch subtle deviations using mechanical and microthermal techniques—far better than a one-shot check. This lets us spot batch splitting or unplanned oxidation before the final packaging stage.
Some customers need large volumes for pharmaceutical pre-mixes. Others order a few hundred grams for bench-scale purification drills. One research team in Asia, working on in vitro metabolite profiling, recently required a near-waterless product for a sensitive deconjugation assay. They reached out directly. We modified downstream drying and used nitrogen purges for six consecutive batches, delivered at less than 0.13% water, confirmed by Karl Fischer titration. Their feedback confirmed robust reproducibility and helped us refine our regular processes.
Manufacturers benefit from these exchanges. Another long-term buyer runs a veterinary compound formulation site, and their staff found excessive batch-to-batch variability with suppliers in years past. Our willingness to host inspections and audit trails has prevented misunderstandings. Regular exchanges of QA records ensure both parties know what to expect. The customer relationship deepens whenever direct technical insight replaces paper guarantees and vague promises.
Understanding the chemical structure matters. Dehydrocholic acid is a polyhydroxylated derivative of cholic acid, with extended oxidation along the side chain. This difference transforms both the physicochemical properties and biological activities. In practice, pure trihydroxy bile acids like cholic acid or chenodeoxycholic acid offer different salt-forming and solubility profiles, but dehydrocholic acid shows a unique, rapid action in bile flow modulation. Its reduced surface tension and ability to promote cholagogue effects stem directly from the extra keto groups in the molecular skeleton. Manufacturers see these distinctions up-close when monitoring side-products using chromatography, since oxidized bile acid analogs tend to break down or hydrate if not handled swiftly.
From a processing perspective, simple bile salts tolerate moisture swings, but dehydrocholic acid degrades quickly if wrongly crystallized or stored. Direct producers need vigilant moisture control in storerooms, tight scheduling for grinding, and sealed container transfers—all previously neglected by less-specialized suppliers. Batches exposed to humidity take on yellow tints and produce inconsistent dissolution rates, which can throw off both animal model dosing and analytical quantification. These are not theoretical concerns, but observed pitfalls in past shipments from traders or repackagers less connected to the manufacturing line.
Consistency rarely happens by chance. Our plant operates controlled circuits, but we have also learned from near-misses. Small trace contaminants—sometimes at tens of parts per million—introduce issues with end-user research and clinical sample prep. We have put in place online monitoring and short-interval QC cycles, not just multi-day batch lots. Each order goes through at least two endpoint visual and spectroscopic checks rather than trusting automation alone. These controls add labor but have saved countless shipments from later recalls or customer complaints. Direct producer knowledge, from operators who clock decades in the plant, often proves more valuable than theoretical spec sheets.
Attempting shortcuts has never paid off. Years ago, one competing manufacturer sped up acetylation steps to push more cycles per day. The resulting analogs burned end-user research budgets, as hidden impurities could not be traced by end laboratories in real time. These lessons guide us today. Modern monitoring catches both major and subtle deviations, and every operator follows a chain of responsibility, with traceable records.
Researchers, compounders, and industrial sites do not care about generic guarantees—they care about actual consistency and access to real-time production information. The tighter the process, the less room for surprises in critical applications.
We refine powder grades for syringeability, focusing on fine crystallinity and minimal flow aids for injectable forms. Other customers order coarser, less processed material for solid oral dosing. High-purity powder gives analytical chemists in biomed labs freedom from unwanted UV-absorbing contaminants and can be critical for studies involving high-resolution LC-MS. Our regular feedback loop ensures we calibrate—and not simply assume—what the next batch will look like. Each season brings adjustments, but the core processes stay robust due to practice and regular staff input.
Sticking rigidly to fixed guidelines does not allow for local conditions and nuanced shifts in materials. We tweak solvent use based on seasonality, as humidity changes can impact the speed of crystallization and even background ion content. Direct feedback from end-users, rather than distant compliance audits, gives us the most reliable pressure-check on quality. One recent example: a European research group wanted extra fine powder but could tolerate higher moisture. We discussed the risk tradeoff and sent custom lots as pilot samples. Their honest report on application, and willingness to share trial results, let us validate new granulation steps.
Regulatory authorities often regulate broad content levels—such as total organic impurities—but leave critical endpoints, such as melting transitions and hydration states, to the expertise of direct producers. Too many error-prone shipments trace back to suppliers who push out-of-spec materials down the line, hoping end-user checks will catch any issues. We reject this approach, sending only lots that pass on-site test protocols verified both internally and with friendly clients.
We measure success not by sales volume but by batch re-order rate and client retention. Our direct supply chain shuns relabeling and minimum reprocessing, so customers know the actual origin and background of their product. We offer transparency in all steps, giving customers access to inspection logs, deviation reports, and raw spectrograms rather than cropped summaries or after-the-fact justifications. These practices distinguish real makers from resellers or middlemen, who typically have less accountability to the end user.
Custom requests arise—sometimes a veterinary lab needs half a standard ash content, or a researcher wants a tweak in particle size. We offer short-run batches for special needs, but maintain a library of reference spectra and performance reports so we avoid accidental cross-contamination or the loss of critical traceability. Every product that leaves our gate includes both history and forward connection to the customer, whether that means repeat batch analysis or simple phone support for troubleshooting.
Dozens of labs have contacted us, frustrated by delivery delays, poor paperwork, and unexplained inconsistencies. They recount stories of erratic lot quality or off-brand imports. As original producers, we treat these setbacks as case studies to refine our own systems. We regularly audit our packaging and labeling; we revise storage guidance as field conditions change. We always give up-to-date documentation, so storage teams know how climate or packaging might influence shelf life. Our technical team follows up—by email or on-site visits—when there’s a challenge with dissolution, purity, or physical appearance.
One issue that keeps resurfacing involves mislabeling during repacking by third parties. To avoid breaking the authentication chain, we employ tamper-proof labels, batch-specific holograms, and direct-to-customer transport when possible. Our customers never need to waste time confirming product lineage or risking failed batches from suspect providers.
Manufacturers, unlike resellers, have a unique vantage point over every detail in the making of dehydrocholic acid. We know which raw material supplies trend unreliable, which reaction temperatures yield best recrystallization, and which drying times give lowest water retention. We treat every deviation as a learning opportunity. Customer quality claims, even rare ones, trigger investigations not only within a batch but often spanning an entire lot history.
Plant technicians and line managers regularly meet over batch notes, blending daily practical knowledge with the latest in analytical advances. Most staff began their careers with hands-on, manual production, and bring that experience to bear on refining large- and small-scale operations. These sessions anchor our overall product quality and help us catch sources of caking, color shifts, or inconsistent grind early.
With years of direct manufacturing under our belt, safety occupies top priority across every production, storage, and shipping step. Dedicated safety teams audit production lines, monitor chemical storage, and continually update handling procedures. Proven risk mitigation practices protect not only our staff but the products themselves from accidental exposure, cross-contamination, or mislabeling. Customers benefit from this culture, receiving only products that meet strict cleanliness and performance standards. We willingly share these protocols with client QA teams, ensuring a shared vocabulary and practical understanding.
Handling dehydrocholic acid demands respect for the base molecule’s reactivity and environmental sensitivity. Product packaging carries explicit guidance sourced directly from our own operational learnings—advice that goes beyond generic safety labels. Storage temperature, light exposure, and humidity control all play a part in maintaining product viability throughout its shelf life. Clear communication with customer receiving departments avoids accidental spoilage or improper use.
Producing and supplying dehydrocholic acid directly connects us to the realities of laboratory work and industrial use. Feedback from research sites informs incremental improvements, while large-scale buyers keep our systems nimble and our technical know-how sharp. Knowing how much depends on each batch—whether that’s clean enzyme profiling, reliable pharmaceutical development, or sound veterinary dosing—focuses our mindset not on claims but on daily follow-through.
The best dehydrocholic acid comes from experience and a willingness to adapt. A supplier far removed from the manufacturing floor will never notice the subtle signals that point to future problems. By remaining accountable for every package branded with our name, we create a culture of improvement and support our partners in research and industry alike.