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HS Code |
874519 |
| Compound Name | Coluracetam |
| Chemical Formula | C19H23N3O3 |
| Molecular Weight | 341.41 g/mol |
| Cas Number | 135463-81-9 |
| Classification | Racetam nootropic |
| Appearance | White to off-white powder |
| Solubility | Soluble in water and ethanol |
| Mechanism Of Action | Increases high-affinity choline uptake (HACU) in neurons |
| Bioavailability | Low to moderate (varies by administration route) |
| Half Life | Approximately 3 hours |
| Synonyms | BCI-540, MKC-231 |
| Origin | Originally developed in Japan |
As an accredited Coluracetam factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Coluracetam is packaged in a sealed amber glass vial containing 10 grams of pure powder, labeled with product details and safety information. |
| Shipping | Coluracetam is shipped in secure, airtight containers to protect the compound from light and moisture. Packaging complies with regulatory standards for chemical transport. It is usually dispatched via tracked, insured courier services, ensuring safe and timely delivery. Proper labeling and documentation are included to meet international shipping and safety requirements. |
| Storage | Coluracetam should be stored in a cool, dry place, away from direct sunlight and moisture. Ideally, keep it in a tightly sealed container at room temperature, between 20–25°C (68–77°F). Avoid exposure to heat and humidity to maintain its stability. Always keep the chemical out of reach of children and follow the manufacturer's specific storage recommendations for maximum shelf life and safety. |
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Purity 99%: Coluracetam with purity 99% is used in neuropharmacological research, where it provides consistent receptor activation and reliable experimental outcomes. Molecular weight 341.39 g/mol: Coluracetam with molecular weight 341.39 g/mol is used in cognitive enhancement studies, where it ensures accurate dosing and reproducible psychometric effects. Melting point 128°C: Coluracetam with melting point 128°C is utilized in pharmaceutical formulation development, where it provides stability during production and optimal shelf life. Stability temperature 25°C: Coluracetam with stability temperature 25°C is employed in nootropic supplement manufacturing, where it maintains chemical integrity under ambient storage conditions. Particle size <10 µm: Coluracetam with particle size less than 10 µm is applied in oral tablet preparations, where it promotes uniform dispersion and enhanced bioavailability. Solubility in DMSO 10 mg/mL: Coluracetam with solubility in DMSO at 10 mg/mL is utilized in in vitro assays, where it allows for high-concentration stock solutions and efficient compound screening. Optical rotation -12°: Coluracetam with optical rotation -12° is used in chiral purity validation processes, where it confirms enantiomeric consistency for regulatory compliance. Moisture content <1%: Coluracetam with moisture content below 1% is used in powder capsule production, where it prevents hydrolytic degradation and extends product shelf life. Assay by HPLC 98%: Coluracetam with HPLC assay 98% is deployed in reference standard preparation, where it supports accurate calibration and traceable analytical measurements. Residual solvent <0.05%: Coluracetam with residual solvent less than 0.05% is used in GMP manufacturing, where it meets safety specifications and minimizes toxicological risks. |
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Walk through our production bay late any night, and you’ll catch the unmistakable aroma of raw starting materials transforming into something much more refined and purposeful. Coluracetam, or BCI-540, isn’t a simple molecule. Its structure, C19H23N3O3, carries a legacy of design straight from organic chemistry’s hardest-won traditions. Our teams wrestled through challenging hydrogenation steps and precise purification cycles before a single kilo ever left our reactor. The demand for coluracetam started off as a whisper; only researchers and formulators in cognitive neuroscience seemed to care about another member of the racetam family. Today, those requests come in steady each week—not from speculators, not from middlemen, but from groups running pilot studies or formulating for direct cognition research.
Most inquiries start with a straightforward question: “Is it pure?” We’ve learned never to assume what people mean by purity. Research grade isn’t a marketing word here; it’s what keeps each batch trusted. We run HPLC and NMR on every lot, not just spot checks, and keep residual solvents to the tightest possible standards, even where guidelines are silent. Most lots exceed 99% area purity by HPLC. Heavy metal content always stays under single-digit ppm, with recent tests showing well under ICH Q3D requirements. These are not regulatory box-ticking measures. Whether a team runs biochemical assays on hippocampal function or a chemist seeks reference-grade samples for analytical calibration, small artifacts lost in a less disciplined process can throw off an entire set of experiments.
Every racetam carries its own legacy. Piracetam, the one most people have heard about, comes plain, steady, sometimes clunky in its effects. Aniracetam sits next on the shelf—oilier, faster, but short-lived. Oxiracetam lands somewhere between caffeine and a brisk walk on a cold morning. Then there’s coluracetam: our own production experience tells us this compound rarely acts like the others. Chemically, the bulky dimethylaminoethyl segment changes both its solubility and affinity for certain tissue structures. In processing, you notice the difference through the yellow-orange tinge—one result of the extra aromatic ring unique to coluracetam.
On the technical side, coluracetam crystallizes as a fine off-white to pale yellow powder, and our chromatography confirms the expected UV absorbance in both water and ethanol systems. Water solubility runs low, barely above 3 mg/mL, but dissolves much better in DMSO or propylene glycol—important for formulation, especially for those working with aqueous solutions or injectables. Our batches usually clock a melting point of 128-132°C, with a stable shelf life exceeding two years under nitrogen in lightproof packaging.
Accountability in manufacturing starts with how the first grams get scaled. We don’t source intermediates from shadow supply chains. Instead, we optimize each step of the synthetic route ourselves. Early on, our team scrapped a route using hazardous nitrophenyl intermediates—too volatile, too many chances for trace contamination—and switched to a less exothermic process. Our production scientists sometimes spend weeks tuning reaction temperatures and solvent ratios, chasing a single percent increase in yield or narrower impurity profiles. This relentless focus isn’t for headlines; it keeps pilot projects from being compromised by off-target results.
Customers tell us anything less than this is unacceptable. The majority of clients talk plainly about their experiments—some with EEG and animal models, others running high-throughput screens. They need the main peak. They dread side products or unaccounted-for moieties. It’s striking how many teams demand full impurity maps, not just a printout with a purity number. Some want detailed residual solvent analysis, including solvents like dichloromethane, methanol, and even tetrachloroethylene, because their own teams or journals scrutinize every chemical entity that enters their system.
Manufacturing coluracetam isn’t a basic copy-paste operation from a literature procedure. Many synthesis routes published in academic journals gloss over real-world challenges. Literature often skips rigorous washing and neutralization steps or ignores the fate of minor byproducts. Our process eliminated certain organotin reagents due to toxicity risks that don’t always show up in final tests, but linger as process risks or subtle downstream contaminants. We store our key intermediates under argon, not just for shelf life, but to maintain clean reactions and limit peroxide formation. Scale-up brings its own set of headaches—stirring large batches through exotherms, making sure yields stay consistent, and catching contaminants before they sneak into a packed drum.
Shipping coluracetam introduces another layer of complexity. The compound holds up reasonably well if packaged tight and cold. We use moisture-proof liners and thermal protection during transport. Some of our earliest shipments to northern customers turned up clumped or discolored, a direct signal to beef up our handling procedures. From experience, good packaging prevents headaches for everyone, especially in climates with more swings in temperature or humidity.
Researchers often push us hardest for answers. They call out variations in solubility, sometimes from one lot to the next. We take these questions as part of the work, not as complaints to dodge. Any legitimate concern—whether about microcrystalline texture or clumping—triggers a review of reaction parameters or drying procedures. It’s not enough to match an old certificate; we dig into every chat, sometimes holding back entire lots while our QC team runs extra chromatograms. Labs tell us up front: reliability in experimental work means reproducibility batch to batch. Our own chemists have lived through the pain of erratic results, and we refuse to pass those problems downstream.
Questions about comparison come up nonstop. Teams familiar with racetams want to know exactly where coluracetam fits. From a manufacturing point of view, coluracetam is consistently tougher to purify than piracetam or oxiracetam. Presence of extra aromatic moieties calls for longer silica columns during initial purification and sometimes more rounds of recrystallization. The small differences in structure lead to profound differences on the user and researcher side.
For example, water solubility is a constant request. Testing shows piracetam dissolves in water with little trouble, while coluracetam resists even at higher temperatures. That means researchers get better results pairing coluracetam with glycol-based solvents or liposomal carriers. Chemically, coluracetam’s higher lipophilicity shifts both its handling requirements and its physiological action; this distinction shapes choice for both raw material purchasers and formulating chemists. We engage with those teams on the realities of encapsulation, whether they’re working with hydroxypropyl methylcellulose or MCT oil.
We have seen some clients leery of the characteristic odor and color, especially compared to the more neutral look of other racetams. That color emerges from conjugated ring structures not present in other compounds, and it directly impacts detection and quantification in analytical labs. It necessitates extra clarity in documentation, especially for groups filing reports or preparing preclinical data packages. It’s a distinction not everyone notices up front, but it becomes critical as products advance from bench to regulatory filings.
Our customers frequently ask about certification. We stick to rigorous internal standards—ISO-level process controls, consistent audit trails, and electronic record-keeping for real-time traceability. Sometimes we share C of A data, but mostly we focus on keeping an open line of communication. We know certificates look good on paper, but what matters is the batch at hand—not promises about generic compliance. We invest in contaminant and residue testing beyond the baseline, based not just on published standards but feedback from customers who work under the harshest regulatory conditions.
There’s no shortcut in sourcing materials, no way to cut quality on cleaning solvents, and no passing off questionable raw goods, even during times of supply chain chaos. These decisions play out every day in order fulfillment and process scheduling. Whenever raw material supply tightens, we make hard choices rather than risk compromised lots. This approach cuts into throughput, but it earns real trust. We’ve weathered market shifts and changing regulations by keeping every detail visible to our partners, including real stability data for stored product and accelerated aging tests for exposed samples.
Manufacturing coluracetam isn’t standing still. Each year brings tweaks: cleaner isolation, improved crystallizer designs, new protocols for solvent strip and recovery. Our experienced chemists focus on minimizing environmental impact. We recover and reuse solvents wherever we can, and we implement temperature mapping in all warehouse facilities to ensure no lot gets exposed to dangerous heat cycles. Each drum gets labeled with real-time tracking codes, and our team monitors for any sign of degradation, so surveys for freshness don’t just fall to our buyers.
This year, we’re piloting a continuous-feed reactor system, designed to squeeze even higher yields and cut cycle times for mid-size batches. The drive to decrease byproduct formation and reduce waste isn’t fueled by pressure from above—it’s a lesson from decades in the chemical trenches, seeing firsthand what happens when shortcutting costs leads to headaches for everyone in downstream R&D. By listening to direct requests from neuroscientists, pharmacists, and preclinical developers, our process engineers keep tuning parameters for better results, not just higher output.
After production, safe storage and transport matter almost as much as synthesis itself. Most of our coluracetam leaves our plant packaged in nitrogen-purged, triple-sealed drums or double vacuum-sealed aluminum bags, guarded from both moisture and light. These precautions come straight from lab experience; moisture intrusion degrades the compound over time, and UV exposure does real damage to the aromatic ring structure. We recommend cold chain transport for shipments heading toward equatorial regions and always insist our partners store their material in desiccators or controlled environments.
A surprising number of teams neglect proper transfer methods for weighing or sampling, sometimes resulting in small surface discolorations or agglomerations. Our technical teams remain available post-sale, not just to help move product, but to field real troubleshooting calls. This support ranges from dissolving large-scale lots for screening assays to advising on long-term storage and container compatibility. Some researchers rely on pre-made solutions, so our knowledge covers formulation steps as well—how to get coluracetam into suspension, which carriers protect against hydrolysis, and how to check for physical degradation before use.
Coluracetam’s story goes deeper than any technical data sheet. Sitting at the intersection of neuroscience and organic chemistry, its impact gets measured in cognitive research and patient lives, not just kilogram shipments. Our core staff includes veterans of bench chemistry, method development, and even clinical research, so every experimental hiccup or process improvement traces back to lived experience. We understand the pain of a compromised batch because many of us have faced that struggle ourselves, years before entering manufacturing.
Feedback from end users—whether it’s about the subtle color changes or handling properties—doesn’t get filed away as background noise. Instead, it guides our process control charts and next rounds of procedural refinements. Our production meetings start with updates on real-world issues, not theoretical targets. If one customer reports moisture uptake during routine weighing, we recheck packaging batch logs for seal integrity. If a formulary team can’t get full dissolution for a clinical submission, our QC team runs new solvent screens and circulates the findings.
Mistakes happen; what matters is making them right and preventing their repeat. That’s not a marketing line—it’s the central lesson of manufacturing chemistry at any scale. Trust doesn’t stem from batch to batch consistency alone, but from being available and transparent about every hiccup and every fix. We supply more than just compound; we offer the combined knowledge of scientists, manufacturers, and technical specialists who learn from every synthesis and every order.
Research on coluracetam keeps evolving. More groups come forward with proposals for new delivery formats, chiral separations, and animal studies targeting both psychiatric and neurodegenerative endpoints. Nearly every new year brings a better understanding of how coluracetam interacts with cholinergic modulation or glutamatergic pathways. From our perspective, these advances only heighten pressure on manufacturers to anticipate both new regulatory requirements and technical demands.
Anticipating these needs, we are investing further in both process scale and analytical rigor. Expanded in-house LC-MS capacity, clean-room upgrades, and new partnerships with secondary testing labs all funnel back to our central goal: enabling researchers and developers to work with materials they won’t have to doubt. Our commitment to science and end-user safety ensures every gram of coluracetam we ship reflects the highest level of scrutiny and real-world experience.
No manufacturing process stands still for long, especially in the dynamic world of cognitive science. Open collaboration with our research partners continues to teach us ways to adjust, improve, and innovate. Researchers push us to confront shortcomings, whether in particle sizing, solvent compatibility, or analytical support. Sometimes these corrections prompt immediate process changes, sometimes they require longer R&D cycles. What always remains is the back-and-forth—the transparent dialogue between those who create and those who depend on these compounds for progress.
Our production staff remain available for technical calls, on-site audits, and troubleshooting across time zones. Improving the product means more than just watching purity readings; it requires real engagement with application science, regulatory conditions, and shifting market expectations. Each synthesized batch of coluracetam tells a story—not simply of chemical bonds made and broken, but of countless conversations, shared challenges, and ongoing adaptation in pursuit of science that matters.
From the manufacturer’s bench to the field, coluracetam demands care, expertise, and a willingness to learn from every user. Our production reflects years of experience with finicky reactions, challenging purifications, and critical feedback from the real world of neuroscience research. As our knowledge grows and our partnerships deepen, we remain committed to providing not just a compound, but a foundation for the next generation of discovery in cognitive science.