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HS Code |
797695 |
| Chemical Name | Tianeptine Sodium |
| Molecular Formula | C21H24ClN2NaO4S |
| Molecular Weight | 458.94 g/mol |
| Appearance | White to off-white powder |
| Solubility | Highly soluble in water |
| Melting Point | 180-184°C |
| Cas Number | 30123-17-2 |
| Pharmacological Class | Atypical antidepressant |
| Mechanism Of Action | Enhances serotonin reuptake |
| Half Life | Approximately 2.5 hours |
As an accredited Tianeptine Sodium factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Tianeptine Sodium, 10 grams, sealed in a white, airtight plastic jar with a tamper-evident lid and clear labeling. |
| Shipping | Tianeptine Sodium is shipped in secure, airtight packaging to prevent moisture exposure and contamination. The product is labeled according to regulatory guidelines and accompanied by a safety data sheet. Shipping is typically through licensed couriers with tracking, ensuring safe, prompt delivery, and compliance with all relevant transportation and chemical safety regulations. |
| Storage | Tianeptine Sodium should be stored in a tightly sealed container, protected from light, moisture, and air to prevent degradation. Keep it in a cool, dry place, ideally at room temperature (15-25°C), away from heat sources and incompatible substances. Ensure it is stored in a secure area, inaccessible to unauthorized personnel, and according to all relevant legal and safety regulations. |
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Purity 99%: Tianeptine Sodium with purity 99% is used in pharmaceutical research, where it ensures reliable reproducibility and efficacy in compound screening. Particle Size <10 µm: Tianeptine Sodium with particle size <10 µm is used in oral formulation development, where it enhances dissolution rate and bioavailability. Melting Point 180-184°C: Tianeptine Sodium with a melting point of 180-184°C is used in thermal processing applications, where it maintains stability and integrity during manufacturing. Moisture Content <0.5%: Tianeptine Sodium with moisture content <0.5% is used in long-term storage studies, where it minimizes degradation and extends shelf-life. Stability Temperature up to 40°C: Tianeptine Sodium stable up to 40°C is used in hot climate shipping logistics, where it prevents loss of content potency. Molecular Weight 436.53 g/mol: Tianeptine Sodium with molecular weight 436.53 g/mol is used in pharmacokinetic profiling, where it allows accurate dosing and compound tracking. Specific Rotation +8 to +12°: Tianeptine Sodium with specific rotation +8 to +12° is used in stereochemical analysis, where it confirms chirality and compound authenticity. High Solubility in Water: Tianeptine Sodium with high solubility in water is used in injectable drug formulation, where it supports rapid and homogeneous solution preparation. pH Stability 5-8: Tianeptine Sodium stable at pH 5-8 is used in buffer solution testing, where it maintains chemical integrity across physiological conditions. Assay ≥98%: Tianeptine Sodium with assay ≥98% is used in clinical batch production, where it guarantees precise and consistent therapeutic effect. |
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From where we stand as chemical manufacturers, every kilo of Tianeptine Sodium tells a story of raw material sourcing, strict reaction controls, and a finished product that owes its quality to disciplined process management. This isn’t an off-the-shelf molecule produced without care. Behind Tianeptine Sodium, model number TS-001A, production builds on years of improving lab practices, sourcing better reagents, and learning from feedback. Over time, the approach to purity targets, moisture limits, and safe package handling grows more disciplined. Each lot receives a chromatographic fingerprint, tracked right down to trace impurities and residual solvents. Feedback from longstanding customers in research, analytical, and pharmaceutical sectors helps define specifications that actually fit application needs, as opposed to theoretical standards.
In the production line, our Tianeptine Sodium comes out as a white or nearly-white crystalline powder—sometimes with a very faint beige tint depending on batch size and minor natural variations in precursor lots. Chemists here take pride in hitting purity not less than 99%. Testing stretches across methods—HPLC checks for the main peak and signal-to-noise ratio, Karl Fischer titration picks up water, gas chromatography hunts for any volatile leftovers. These controls might seem standard on paper, but in practice they need trained eyes and hands.
Customers request specifications, but as manufacturers it’s our job to balance those wishes with what the raw chemistry can truly deliver batch by batch. Our Tianeptine Sodium lands between 99.0% and 99.7% HPLC purity, which satisfies rigorous lab analysis as well as reliability for downstream synthesis. Water content stays lower than 1.0% by mass. We advise storage at room temperature tightly sealed, but years in chemical logistics teach that not everyone will have climate-controlled shelving, so we design packaging to cushion shipping shocks and resist minor humidity spikes.
Our experience reminds us to prioritize not just lab safety, but also safe packing and repeatability. Staff with decade-long experience recommend storing Tianeptine Sodium in amber glass bottles, capped under a dry nitrogen flush wherever feasible. Packaging lines check every vessel to prevent leaks, and every dispatch includes double-bagging with desiccant packs. These measures don’t come from policy documents—they’re drawn from past incidents and learning the hard way about what travel, port delays, and customs inspection can do to even the most stable product.
Most end users take our Tianeptine Sodium as a starting point in R&D, pharmaceutical research, or as a lab-scale reference material. Over the past decade, researchers in several fields have guided us toward minor adjustments in handling particle size and flow properties to lessen material loss. That feedback loop often gets lost in corporate product brochures, but on the manufacturing floor, it’s common sense. For direct use in solid dosage forms and formulations, no chemical manufacturer can afford batch-to-batch deviations; at our facility, we maintain consistent milling and sieving parameters to meet expectations on bulk density and powder flow.
One of the most talked-about traits for this compound is its application versatility. Labs working on CNS models lean on our sodium salt for its solubility and fast dissolution under physiological pH. Researchers have shown that the sodium form outpaces tianeptine free acid and slower-reacting analogues both in dissolution time and consistency of dosing accuracy in pilot studies. For scientists working in basic research, that cuts down variability and supports more reliable experimental outcomes.
It’s easy to treat Tianeptine variants as interchangeable, but experience shows that small differences in salt form or manufacturing route can mean big differences during practical use. Tianeptine Sodium is not just a generic version of “tianeptine.” Our sodium salt, TS-001A, offers higher water solubility and a sharper, more reliable melting range than either the free acid or the sulfate salt. This proves critical in applications demanding speed—such as rapid I.V. formulation research or pharmacokinetic assays where dissolution time matters. The sodium salt performs well in both buffered and unbuffered aqueous systems, avoiding precipitation even when conditions change mid-process.
Tianeptine Sulfate looks superficially similar but displays lower solubility by weight. Researchers typically find it slower to dissolve and a poor substitute when protocol calls for quick aqueous mixing. Some customers switch between the sodium and sulfate forms purely based on availability or price without realizing these practical tradeoffs. As a manufacturer, we recommend the sodium salt for any application where pH swings or concentration gradients are expected. The stability in open air is not dramatically different between salts, but our sodium form stands out for dry-flow handling, which reduces dusting losses during scale-up or analytical weighing.
Every facility brings its own approach to scale-up, but here, up-to-date synthesis routes help guarantee consistency and minimize unwanted byproducts. Over the years, we’ve refined a direct amidation technique instead of older multistep protocols, shaving days off turnaround time and reducing chlorinated waste. Our plant chemists run parallel pilot reactions on each raw material lot before committing to full-scale batches. That way, we avoid out-of-spec issues and unexpected degradation peaks during Q.C.
A lot of newcomers still overlook process impurities—things that rarely display on a single HPLC run but might accumulate with repeated usage, especially in sensitive downstream work. By aligning production with cGMP guidelines, and running forensics on every exception report, we reduce the chance of anomalous process contaminants. Last year, a small change in inlet flow sensors led to better mixing and higher conversion rates, shaving off part-per-million error margins which users downstream do notice. We don’t claim to make a product that’s sterile or regulated for patient administration out-of-the-vat, but our commitment is to reproducibility and transparency from lot to lot.
Feedback from the end users determines much of how we adapt our practices. Some labs needed smaller, precision-filled vials instead of kilogram jars; others required a slightly larger particle size to match their custom feeders. Our team responds with practical adjustments. When a research partner flagged static build-up in hot, dry climates, packaging suppliers worked with us on anti-static liners, and the next season’s complaints dropped away. Online reviews or faceless audits won’t pick up on these details, but steady customer relationships do.
Requests for more robust COAs and reference chromatograms continue to grow, and we answer by tightening analytical method documentation and archiving every control result for each batch. Labs running mass spectrometry screens want to cross-check our product in days, so our Q.C. sends digital reference libraries linking UV, MS, HPLC, and NMR scans for each lot. Many of these internal improvements don’t show up on the standard web page, but they define the difference between chemical manufacturing and generic repackaging.
Shipping high-purity Tianeptine Sodium across continents means contending with habits and climates very different from our own. Customs delays turn short rests at the airport into weeks in humid warehouses. Years back, lightweight plastic jars caused issues, so now all transit-sensitive orders go out double-sealed with silica gel packs and vacuum liners. We train warehouse crews to watch for shifting internal pads and check each box for dry seal integrity. Chemists on the receiving end often call to share minor packaging issues, which in practice leads to faster packaging redesigns than anything a formal product manager could manage.
Hazard communication travels with the product, not just as a regulatory checkbox, but as a shared understanding of the real risks. Tianeptine Sodium is not classified as a controlled substance in most jurisdictions, but we share caution notes like “avoid inhalation,” “store below 30°C,” and “avoid aqueous solutions contact with skin” not to sound legalistic, but as a real reflection of hands-on worker safety. Our own staff carry decades of experience—and a few stories too many about minor desktop spills and the cleanup headaches that follow.
The reality of the chemical marketplace brings plenty of pressure to compete with cut-rate vendors or repackers happy to skip certain quality controls. From time to time, we receive samples from outside sources that claim 99% purity but come with obvious UV signal mismatch or missed impurity peaks that our own Q.C. would never release. Rather than chasing the lowest price, we double down on transparency—sharing batch data, impurity specs, and handling profiles in open conversations with customers.
Nobody really sees the complexity behind every carton that leaves our factory: rising solvent costs, shifting supply contracts, regulatory updates, and the never-ending jostle of freight schedules. But in our experience, staying on top of these details is what sets a manufacturer apart from distributors and traders who don’t control the process. Investing in long-term raw material partnerships, retaining experienced process chemists, and offering technical consults keeps our product trusted, batch after batch. Every deviation flagged by a lab abroad—every feedback email—turns into a process change or an update in our production workflow.
Over the years, we’ve built direct sourcing routes for our starting chemicals. This means less chance of unidentified contaminants and easier traceability down the supply chain. Each raw material command spells out impurity thresholds, plus independent sampling before ever entering our reactors. More traceable inputs lead to fewer headaches during downstream Q.C. Over time, that translates into steadier supply, fewer out-of-spec rejections, and less product lost to rework.
Digging into the day-to-day, it’s clear a well-documented chain of custody for every shipment becomes more important every year, especially as global traceability rules tighten. Customer audits often start with a simple potency or COA check, but on closer inspection, most want proof of origin and handling for every major ingredient. Meeting this need means tightening paperwork and opening the doors for site visits and sample root-to-batch tracking on request. Many buyers, especially from larger labs, see these efforts as proof of value and reliability.
Customers using Tianeptine Sodium in research—or as a reference analyte—gain the most from storing it away from direct sunlight and moisture, never letting the powder rest open to the air for more than a few minutes. Those using it as a bulk laboratory reagent should reseal immediately after weighing. Smaller pack sizes help reduce oxidation or exposure loss for long-term projects. Over years of working with a wide variety of labs and process sites, we’ve seen best results among those who train personnel on how to move and weigh the material—no shortcuts in that practice.
End users rare to the compound often worry about batch-to-batch differences, so as a manufacturer, we make real lot documentation and reserve samples available for verification. Occasional minor color changes—trace pigment or amorphous halo around a bulk jar—stem from trace synthetic precursors or minute storage changes but do not indicate functional loss. As always, direct dialogue with buyers and researchers heads off confusion before it wins a foothold.
Experience in the factory tells a simple story: not all products named “Tianeptine Sodium” behave the same in the lab. Cheaper reprocessed or cut blends turn up from time to time, bearing foreign excipients or fines that disrupt flow or skew analytical results. We avoid these approaches, even at a short-term margin hit. Customers hoping to mix Tianeptine Sodium into complex research blends or long-term compound libraries will find our carefully sifted, filtered powder simpler to manage. Over many quality rounds, deviation records show fewer outliers and cleaner test data when sticking with a tightly defined process.
Some newer facilities have tried to improve margins by blending sodium salt with low-cost analogues or bulk fillers. Our method differs—every batch receives full-scale chromatography testing, and outliers never leave the premises. In the rare instance where a parameter slips—say, a one-off moisture result or borderline mass spec value—we halt shipping, document the case, and reprocess or discard the run to maintain continuity. Our practice is shaped by experience, not abstract standards: one batch recall or one failed research project’s worth of wasted hours matters far more than the promise of cheaper production.
Operating as a manufacturer holds a unique perspective—every successful shipment leads back to decisions made months earlier in the raw materials store, or under the hands of a plant technician who’s seen every phase of scaling up and troubleshooting. Our team keeps records stretching back over a decade, and this institutional memory feeds into recurring product improvements, batch forecasting, and crisis planning.
We invest in lab-scale pilot trials, then run industrial upgrades cautiously instead of gambling on untested flowsheets. Continuous staff education and building a culture that values not just regulatory compliance, but actual hands-on craft, means our chemists catch small deviations before they become field problems. On the back end, open phone lines and direct communications help fix breakdowns faster than bureaucracy ever could. Many improvements—in filter swaps, packaging tweaks, and testing workflows—grow from customer comments and field results, rather than top-down instructions.
Product development and quality assurance in Tianeptine Sodium have to move with the times. As regulations change, and end users request more bespoke batch sizes and data, we adapt. Not every trend from the tech or pharmaceutical world translates into valuable upgrades, but staying open to new synthesis techniques, green chemistry, and analytical improvements keeps the product sharp and market-relevant. Coming years may bring even sharper demands on trace documentation or batch-to-batch reproducibility, and we’re already investing in data systems to keep those standards within reach.
Safety, traceability, and trust come from discipline, real experience, and openness. Tianeptine Sodium remains a challenging product—demanding tight controls but rewarding careful attention with consistent results and user trust. As a manufacturer, the greatest value we can add comes not from just filling jars, but from maintaining a transparent, responsive operation shaped by the chemists, operators, and customers who live with this product every day.