|
HS Code |
417069 |
| Chemical Name | Citicoline Sodium |
| Synonyms | CDP-Choline Sodium Salt |
| Cas Number | 33818-15-4 |
| Molecular Formula | C14H25N4NaO11P2 |
| Molecular Weight | 510.31 g/mol |
| Appearance | White to off-white powder |
| Solubility | Freely soluble in water |
| Storage Conditions | Store in a cool, dry place, away from light |
| Usage | Nootropic and neuroprotective agent |
| Route Of Administration | Oral, intravenous, intramuscular |
| Melting Point | 168-172°C (decomposes) |
| Ph Value | 6.0-7.5 (1% solution in water) |
| Stability | Stable under recommended storage conditions |
| Odor | Odorless |
| Assay Purity | ≥98% |
As an accredited Citicoline Sodium factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Citicoline Sodium is packaged in a 500g white HDPE bottle with a tamper-evident seal and clear labeling for laboratory use. |
| Shipping | Citicoline Sodium is shipped in sealed, airtight containers or drums to protect from moisture and contamination. Packaging complies with safety regulations, ensuring stability during transit. Labels indicate chemical identity and hazard information. Store and transport in cool, dry conditions, away from incompatible substances, with documentation provided for safe chemical handling. |
| Storage | Citicoline Sodium should be stored in a tightly sealed container, protected from light and moisture. Keep it at room temperature, typically between 15°C and 30°C (59°F to 86°F), and away from incompatible substances. Store in a dry, cool, and well-ventilated area. Avoid exposure to excessive heat or freezing conditions, and adhere to local guidelines for safe chemical storage. |
Competitive Citicoline Sodium prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please contact us at +8615365186327 or mail to sales3@ascent-chem.com.
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Tel: +8615365186327
Email: sales3@ascent-chem.com
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After decades in chemical synthesis, one principle holds up under scrutiny: the journey from raw material to finished product shapes every attribute of a compound. Citicoline Sodium, which carries the chemical structure of cytidine-5'-diphosphocholine sodium salt, provides no exception, and our perspective never comes from a warehouse shelf or shipping manifest — our knowledge builds each day from reactor clean-out to the finished batch analysis. Many know citicoline sodium through its use in nutraceutical, pharmaceutical, and research pipelines. In each case, confidence hinges on structural purity and stability. Here, we take a candid look at why those features require hands-on, manufacturer-level diligence, and we share firsthand what distinguishes a batch with origins in synthesis over one mixed far down the supply chain.
Citicoline Sodium results from the phosphorylation of cytidine and choline, two molecules that require careful moisture control, precise stoichiometry, and clear lines between each process stage. Large-scale synthesis places heavy demands on both equipment and operators: exposure to oxidizing environments, temperature fluctuations, or cross-contamination can quickly undermine product quality. Every batch brings new variables. Small hydrogen bonds, which often get overlooked in sales copy, can make or break the way citicoline sodium dissolves or reacts when mixed with other ingredients for final drug formulations.
Cutting corners in the crystallization stage or using lower-grade solvents can hint at hidden impurities, leading to inconsistent color, off-odors, or unpredictable behavior during dissolution. Many times on our production line, we’ve faced the temptation to speed up a process cycle after a day of mechanical downtime or a delay in precursor delivery. Experience has taught us that taking the slow route and letting the crystals fully settle never wastes effort. Our lab’s batch yield may dip a few percent, but the final purity, typically at 99% or above with a specifically monitored moisture content, safeguards downstream manufacturing and ensures a longer, more stable shelf life.
It’s easy to talk about “high purity” on a flyer, but numbers only matter when real samples keep matching their promise. We follow rigorous chromatographic analysis with every batch, confirming citicoline sodium’s chemical identity and monitoring for secondary amines or residual solvents. Inspections include heavy metal screening, microbial load counts, and particle size distribution because the end user — whether compounding for infusion or formulating for a tablet blend — lives with the results of any shortcuts. Not every order asks for the same composition. Some require ultra-low endotoxin grades, while others prioritize a balance between cost and tight moisture control. Here, we don’t warehouse generic product; we adapt technique and scale for each order size, always built on long-term process validation instead of last-minute adjustments.
Every kilo of citicoline sodium moves from batch record to quantitative HPLC chart through a well-documented, repeatable chain of custody. Specifications are not marketing boilerplate but reflect hundreds of checks at each stage, shaped by direct feedback from people using material in real-world scenarios. Many adjustments in our process have come from customers. One client flagged issues with tableting because of trace levels of a byproduct not previously prioritized by compendial monographs. After joint troubleshooting, we narrowed down a reaction step needing further solvent degassing. That change, although small, produced smoother flow rates and improved compressibility for everyone we serve, not just that one buyer. The difference lies in accountability: direct manufacturing dialogue speeds improvement cycles in a way impossible through indirect sources.
Users trust citicoline sodium for its role in supporting acetylcholine synthesis, cell membrane repair, and cognitive function in a range of clinical and research settings. Each function brings demands stretching from the laboratory bench to the patient bedside. Think of an injectable where solution clarity is non-negotiable, or an oral capsule requiring free-flowing, non-hygroscopic powder that doesn’t clump in high-humidity environments. Manufacturing close to the active site means anticipating use cases rather than reacting to them. We continually work with formulation teams to tweak granulation, adjust sieve fractions, or minimize trace ion content according to end use — not just the baseline compendial pharma grade.
Some partners need granular data: the impact of different analytical standards (such as EP vs. USP monographs) or consistent behavior under stress testing regimes. Instead of citing what “should” work, we often run real-time stability trials with partners in regions with high temperature and humidity profiles, using their packaging and handling routines. Insights come from sharing both the successes and failures: observing caking or color change and correlating it back to raw precursor quality, then refining process control parameters for the next cycle.
Our in-house QA teams have fielded requests going far beyond off-the-shelf expectations. A research collaborator wanted a citicoline sodium fraction with a specific particle size range to study absorption kinetics. Scaling down the milling process and setting tighter screen limits required not just equipment tweaks but deep knowledge of how the compound behaves during recrystallization. Those modifications wouldn’t have happened in a setting detached from synthesis. Such direct, iterative improvements keep finding real-world value and define our connection with customers and their evolving projects.
Differences between manufacturer-produced citicoline sodium and repackaged or trader-sourced material go well beyond GST numbers on an invoice. Many market listings pool material of varying provenance, with traceability lost at the warehouse consolidation stage. Quality control claims often reflect aggregator diligence rather than the original lot that left the synthesis reactor. End users get left with guesswork over batch-to-batch attributes. We believe this represents a risk — not an abstract, legalistic risk, but one that hits home when a lot performs unpredictably on a line or in a clinical pilot.
Direct manufacturing allows continuous control over process water and solvent quality, real-time adjustments to reaction pH or temperature, and instant response to deviations. Each parameter gets logged, trends analyzed, and corrective actions implemented where they matter most. For us, a batch number isn’t just a label. It’s backed by audit trails, retention samples, and screens for all critical quality attributes. Nobody in our facility outsources problem-solving — when a customer asks about a batch’s performance, the chemists and operators who made it review the record and respond directly. This type of transparency secures confidence and insulates customers from the disappointing surprises too common with indirect supply.
Transparency also extends to collaborative troubleshooting. Sometimes a customer’s formulation changes, demanding a shift in moisture range or particle morphology. We welcome direct feedback and can adapt our process accordingly, usually delivering prototypes for joint evaluation within days. No patchwork adjustments or lengthy translation between reseller and originator. We solve problems as cohorts — those who make, those who test, and those who use. This model shortens the control loop, keeping both risk and time-to-resolution firmly in hand.
Consistency in citicoline sodium doesn’t result from serendipity. It grows from practices engrained across every step, from choosing raw materials to responding to the final QA check. Our staff feels the consequence of every decision. Suppose precipitation runs too fast, or the final drying step isn’t closely watched; the batch yields a moisture content that throws off downstream blending or encapsulation. Consequences land swiftly: rework, delays, lost confidence. Instead, our operations managers oversee routine equipment mapping, environmental monitoring, and regular staff training built on evolving GMP standards. Nobody spends a shift without knowing exactly why each step matters for the compounds in play.
We commit to full traceability, beginning with vendor qualification for cytidine and choline, extending through robust in-process monitoring, and culminating in the detailed certificate of analysis issued with every release. If a customer calls with a question, there’s no detour through supply chain intermediaries. Instead, technical staff who understand both production and application walk through details and present customized solutions. That level of familiarity and responsibility is seldom matched by brokers and remains at the foundation of genuine manufacturer value.
One principle often overlooked: robust value chains fix problems far upstream, rather than letting downstream customers bear the costs of shortcuts or unresolved process errors. We encourage prospective buyers to ask questions — not just for one certificate or approval but about actual process changes, raw material substitutions, and long-term data. We share samples, supply technical papers, and arrange open facility visits for partners needing verification or insight at any stage.
No manufacturing setup operates in a vacuum. Every new regulatory guideline, every industry recall, and every formulation bottleneck in the wild triggers conversations across our team. We tweak assay procedures, reevaluate cleaning protocols, and invest in analytical upgrades not because a sales team asks, but because our own process history keeps us honest. For example, advances in ion-exchange purification or new chromatography resins have let us push impurity levels lower than most market standards, benefiting customers who need material with ultra-low thresholds of specific residuals for sensitive applications.
Improvement doesn’t mean chasing fads. We test innovations through controlled pilot batches, comparing output to historical controls, then gather findings across QA, process, and R&D before introducing new protocols sitewide. Open communication with pharmaceutical customers, supplement formulators, and research collaborators pushes us to refine every margin — and provides a constant check against complacency.
Quality manufacturing involves more than perfecting a single compound. Every day, we see how citicoline sodium plays a role in rehabilitation protocols, cognitive support therapies, and early-stage research around brain health. Our clients operate on the front lines of therapeutic advancement and patient care. That role demands scrutiny of both product and process. When a product batch underperforms, regardless of documented conformance, patient outcomes and researcher timelines can suffer. Responsibility grows with every successful delivery, and so does the drive to do better on every subsequent run.
We keep open books on environmental impact, invest in waste stream improvements, and continue life-cycle assessments not out of obligation to a marketing slogan but from firsthand understanding. Watching a city’s water table or air emissions over multiple years while running constant synthesis cycles imparts a deep respect for byproduct control and responsible waste management. This experience translates into careful reagent selection, batch traceability, and investment in solvent recovery systems, all of which ensure the health of both the supply chain and surrounding communities.
Citicoline sodium finds itself reviewed by agencies from the European Medicines Agency to the U.S. FDA and others for both substance monographs and finished dosage product registrations. Regulations evolve quickly, and keeping pace demands not just paperwork but firsthand familiarity with both legacy and updated analytical methods. Our staff undergoes regular validation training — we test against upcoming compendial changes and maintain method transfer capabilities in-house. If a monograph changes a test protocol or expands impurity panels, we do not simply relabel. Instead, we validate new assays, adjust processes, and retune our spec to match both letter and intent. Traceability isn’t optional; it’s the unbroken chain that lets researchers and regulatory bodies trust a vial or drum that originated here.
Real-world consistency turns on small details. Each batch requires calibration across several methods: titration of sodium, ultraviolet spectrophotometry for chromophore drift, and sterility or bioburden checks for injectable grades. Over the years, we’ve adapted equipment, rewritten SOPs, and trained new staff to handle both routine production runs and rare, specialized request scenarios. The end result is a staff culture that takes both pride and accountability in every production cycle.
As demand for citicoline sodium grows both in established markets and in new, research-driven sectors, we continue examining the most meaningful upgrades — from analytics to batch automation and traceability. Rising quality expectations push the standard higher, not as a static checklist but as a moving target shaped by both customers and the regulatory environment. Direct manufacturing always imposes a steeper learning curve, but it supplies the know-how to meet challenges head-on and deliver material that meets nuanced, real-world demands every time.
This direct approach stands on experience, transparency, and commitment, not just a history of compliance. Every kilo shipped leaves behind both documentation and a human chain of care that only forms in a facility where synthesis, feedback, and improvement never stop. For users ranging from clinical trial sponsors to product innovators, this means you can talk directly with the team that makes your citicoline sodium — staff who solve problems and celebrate outcomes alongside you. Confidence, reliability, and improvement never happen by accident. Step-by-step, batch-by-batch, these qualities define the difference when working directly with a genuine manufacturer.