|
HS Code |
336425 |
| Chemical Name | Atropine Sulfate Monohydrate |
| Molecular Formula | C34H48N2O14S2·H2O |
| Molecular Weight | 746.8 g/mol |
| Appearance | White crystalline powder |
| Solubility | Freely soluble in water |
| Melting Point | Approximately 189-194°C |
| Storage Temperature | Room temperature (15-30°C) |
| Cas Number | 5908-99-6 |
| Pharmacological Class | Anticholinergic (Antimuscarinic) agent |
| Usage | Used to treat bradycardia and as an antidote for organophosphate poisoning |
As an accredited Atropine Sulfate Monohydrate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Atropine Sulfate Monohydrate, 25g, is packaged in a sealed amber glass bottle with a tamper-evident cap and detailed labeling. |
| Shipping | Atropine Sulfate Monohydrate should be shipped in tightly sealed containers, protected from light and moisture. Transport must comply with local, national, and international regulations for hazardous chemicals. Use appropriate labeling and packaging to ensure safety, and store in a cool, dry place during transit to prevent decomposition or contamination. |
| Storage | Atropine Sulfate Monohydrate should be stored in a tightly closed container, protected from light and moisture, at room temperature (15–30°C or 59–86°F). Keep it away from incompatible substances and in a well-ventilated, dry area. Ensure storage in accordance with local regulations, and restrict access to trained personnel to prevent unauthorized handling. |
Competitive Atropine Sulfate Monohydrate 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.
We will respond to you as soon as possible.
Tel: +8615365186327
Email: sales3@ascent-chem.com
Flexible payment, competitive price, premium service - Inquire now!
In our facility, every kilogram of Atropine Sulfate Monohydrate reflects years of dedicated chemical engineering and strict attention to detail. We learned the value of refining our processes through hands-on trials and direct feedback from partners in the pharmaceutical sector. Our teams do not just supervise reactors—they actively study each batch, monitor crystallization rates, and adjust environmental conditions with precision. The goal is simple: produce material that consistently meets the needs of people who rely on finished medicines downstream.
Atropine sulfate monohydrate stands apart because of its stable crystalline form and the way we achieve high purity in each manufactured lot. In the pharmaceutical world, stability reduces variability—a crucial point. The monohydrate version carries a single water molecule in its structure, leading to tighter control over storage and shelf life than the anhydrous variant. That added water molecule stabilizes the compound during handling, a lesson learned after watching how different forms behave in real-world storage environments.
Other producers sometimes offer atropine sulfate without the water, known as the anhydrous form. Both versions deliver the desired physiological effect, yet monohydrate’s resilience against atmospheric changes has drawn preference from our partners in pharmaceutical compounding and injectable formulations. Over years, we noticed clients return to the monohydrate option after encountering issues with flow or loss of potency from alternatives.
Our best-known model, specifically produced for sterile use, comes as a bright white or near-white crystalline powder. Consistent particle sizing, usually kept between 100 and 200 microns, supports fast dissolution in solution and repeatable dosing in formulation. Heavy metal analysis, loss on drying checks, and purity assessments take place with every batch, not just on occasional samples. In our lab, every lot clears full identification tests using HPLC and FTIR methods.
Pharmacopeial compliance matters every time. We align our processes with standards such as those set by the USP and EP whenever possible and above all, monitor for any trace residual solvents or degradation products. From hands-on work, we learned that relying just on literature specification is not enough. Only by tracking trends in each production cycle and staying ready to correct course mid-process can we ensure reproducibility across years of production.
Injectable atropine formulations, which hospitals keep for emergency uses, draw on the solubility and consistency of our monohydrate batches. Many years ago, a customer flagged an inconsistency in behavior when reconstituting with water for injection. Honest troubleshooting at the plant revealed a subtle shift in our drying step, which we fixed by updating condenser performance and closely tracking humidity in the final stage.
Pharmacy compounding centers and finished dose manufacturers rely on ease of handling. Even the smallest clumping tendency in the powder affects dose precision or requires extra time during mixing. Because sterile preparations allow no margin for error, our QA team tracks particle morphology every cycle. These checks, as tedious as they sometimes are, emerged from listening to what real users faced on their filling lines.
Some partners use our atropine sulfate monohydrate in eye drops and prefilled syringe formats. Drug stability and comfort depend upon controlled osmolality, which ties directly to the monohydrate form. Omitting excess water and confirming tight purity limits supports both shelf life and end user safety. We learned from lengthy stability trials and accelerated aging studies how even mild swings in water content or impurity concentration manifest months later for patients or clinicians.
Manufacturing atropine sulfate monohydrate covers more ground than just matching technical specs. Plant operators face real limits—mechanical wear during grinding and blending, seasonal shifts in plant humidity, and even minor pH drifts during recrystallization. Each of these factors can shift material performance downstream. Years ago, a burst of static discharge in the filling room triggered a review of grounding measures; these lessons built into our batch protocols today.
Each day, our production runs depend upon reliable sourcing of the base alkaloid. We buy in belladonna derivatives only from vetted, longstanding growers. Even a small source change sometimes brings in slight profile changes—chloride or sulfate residuals, or alkaloid ratios. Lab verification does not end with raw material approval; review continues through every unit operation, and processes adapt based on what hands-on observation teaches.
Atropine chemistry means direct human contact carries risks. Our plant design separates high-risk processing from routine operations. Automated dispensing, contained transfer systems, and regular health checks underpin safe operations for every technician and batch manager on site. Plant air undergoes dedicated scrubbing after each filtration cycle to prevent worksite contamination or community exposure.
Waste stream management has improved in our line since stricter environmental controls came into force. Solvent recycling, in-line pH monitoring, and closed-loop rinsing cut down on emissions and plant loads. Those changes followed direct feedback from regulators and plant neighbors, not just internal review. We learned the strength in running a clean site comes from continuous vigilance and a willingness to invest in sustainable technology.
Shipping atropine sulfate monohydrate means staying at the mercy of border security rules, weather delays, and logistical red tape. It took real-world experience—missed delivery windows, back-orders at critical hospitals, and product recalls after shipping container leaks—to understand where custom packaging design overtakes standard approaches. Pharmaceutical-grade liners, moisture indicators, and tamper-evident closures became standard after field failures showed their necessity, not just as a marketing point.
Temperature and humidity controls during long-haul transit support both stability and regulatory inspection. Some global markets implement release testing on arrival; every consignment we ship carries a full certificate of analysis, with micro-lot traceability embedded from plant to distribution hub. That level of quality evidence comes off weeks of log-sheet documentation, pulled from shifts working around the clock.
Specialty requirements come from research labs, hospital pharmacy teams, and even field medics requesting single-use packaging or special-grade microdoses. Decades back, a partner’s need for a colored identifier in the powder led our team to develop a harmless coloring protocol, with full validation for formulation stability. Other times, clients sought out micronized grades for faster solubility, and we tweaked jet-milling settings, monitoring each pass for accelerated dissolution profiles.
Direct line feedback—whether a simple request for smaller lot sizes, hazard-labeled packs, or co-manufacturing with other compounds—drives our R&D calendar. We use each cycle as a chance to trial new approaches, always weighing feedback against batch experience.
People sometimes ask why not choose the anhydrous form, or even switch to related antimuscarinic agents. Feedback teaches us that the monohydrate’s controlled water content brings better resilience for bulk storage, lower dusting when filling containers, and more predictable shelf life, especially under non-ideal warehousing. Side-by-side, the monohydrate outperforms in humid climates, where shipping containers or stockrooms risk condensation and spoilage.
Competing agents, like scopolamine, serve in similar roles but diverge from atropine’s signature action profile. Those working deep in anesthesia or ophthalmology know the subtle differences in onset and duration matter for procedure safety. Stability studies published in major journals echo what we see on our production line: monohydrate’s shelf-life meets the demands for end-use applications where formulation reliability cannot falter.
Generic supply fails to address personal relationships our team maintains with regulatory inspectors, local hospital pharmacy directors, and long-term global public health buyers. We never rely on a single method; continual development, guided by these conversations, keeps our atropine sulfate monohydrate competitive with any major supplier.
Our work does not stop at batch release. Scientific partners often request stability data under simulated light, temperature, and humidity extremes. Our reference samples undergo monthly tracking, not just one-off analysis. Even after years of stable output, we learn from rare deviations—recrystallization lines in stored material, or minor discoloration if a packaging shipment once faced prolonged customs hold-ups.
Automation and process controls gained momentum in our plant only after repeated challenges running manual dosing under expansion. Traceability and error reduction improved when we synchronized batch records with plant SCADA systems. Even so, production staff play active roles in catching unexpected trends—shifts in powder density, for instance—before any issue reaches the final filling room.
Academic collaborations remain a key element of our approach. Grant-funded research sometimes uncovers faster or less energy-intensive processes, or more specific impurity tests. We routinely trial new protocols in pilot runs before scaling up to commercial operation. Not all experiments prove out; failed tests add as much value as successful improvements, grounding our approach in firsthand evidence rather than speculation.
Evolving disease profiles and global emergencies drive fluctuating demand for atropine sulfate monohydrate. Sometimes, sudden global health alerts call for surge production, and our plant responds with round-the-clock output and emergency release processes. In quieter times, slow, steady production and shelf stock allow flexibility for hospital and supplier drawdowns.
Generic contract manufacturers may undercut on spot price, yet we built our place in the industry on a reputation for traceable results, technical service, and transparent problem-solving. That comes across in our willingness to audit every process and improve based on genuine user experience.
Real-world production of atropine sulfate monohydrate ties every technical detail—particle size, purity, handling safety—to people and outcomes, not abstract benchmarks. The pharmacopoeial numbers on the specification sheet only tell part of the story. Every day, manufacturing teams face and solve problems, whether tackling logistical headaches, responding to custom requests, or keeping plant technology up to date with environmental and safety regulations.
Our success comes not just from the synthetic pathway but from a commitment to documentation, process review, and real two-way communication with our customers and technical partners. Lessons learned one batch at a time, feedback received, and steady refinement make atropine sulfate monohydrate from our plant a dependable choice for anyone needing a stable, high-purity antimuscarinic compound in critical formulation work.
Each lot of atropine sulfate monohydrate leaving our site carries more than a serial number—it carries the sum of our experience and the responsibility to deliver safe, stable ingredients. The lessons we learned from every scaled-up campaign, and every returned batch, inform every run. This focus on process, quality, and real-world application ensures we provide a product that aligns with the expectations and safety requirements of partners and patients worldwide.