|
HS Code |
507381 |
| Name | Oxytocin |
| Type | Peptide hormone |
| Molecular Formula | C43H66N12O12S2 |
| Molecular Weight | 1007.19 g/mol |
| Cas Number | 50-56-6 |
| Route Of Administration | Intramuscular, intravenous, nasal |
| Mechanism Of Action | Stimulates uterine muscle contraction and milk ejection |
| Storage Conditions | 2-8°C, protect from light |
| Appearance | White to off-white powder |
| Indications | Induction of labor, postpartum hemorrhage, lactation support |
| Half Life | Approximately 3-5 minutes |
| Atc Code | H01BB02 |
| Contraindications | Hypersensitivity, fetal distress, unfavorable fetal presentation |
| Prescription Status | Prescription only |
| Manufacturer Examples | Pfizer, Novartis, Ferring Pharmaceuticals |
As an accredited Oxytocin factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
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Purity 98%: Oxytocin Purity 98% is used in obstetric labor induction, where it ensures efficient uterine contractions and reduced labor duration. Stability Temperature 2-8°C: Oxytocin Stability Temperature 2-8°C is used in clinical pharmacy storage, where it maintains molecular integrity and therapeutic efficacy. Molecular Weight 1007.19 Da: Oxytocin Molecular Weight 1007.19 Da is used in peptide synthesis for biomedical research, where it enables precise receptor interaction studies. Injection Viscosity Low: Oxytocin Injection Viscosity Low is used in intravenous drug delivery, where it allows rapid administration and consistent dose delivery. Endotoxin Level <0.1 EU/µg: Oxytocin Endotoxin Level <0.1 EU/µg is used in parenteral formulations, where it minimizes risks of pyrogenic responses. Peptide Sequence Purity ≥97%: Oxytocin Peptide Sequence Purity ≥97% is used in cell signaling assays, where it enhances assay reliability and reproducibility. Bulk Powder Form: Oxytocin Bulk Powder Form is used in pharmaceutical manufacturing, where it facilitates accurate dosing and streamlined formulation processes. Sterility Confirmed: Oxytocin Sterility Confirmed is used in injectable solutions, where it prevents microbial contamination and supports patient safety. Solubility in Water >50 mg/mL: Oxytocin Solubility in Water >50 mg/mL is used in hospital preparations, where it allows high-concentration formulations for rapid therapeutic effect. Lyophilized Form: Oxytocin Lyophilized Form is used in long-term drug storage, where it provides extended shelf life and convenient reconstitution. |
| Packing | Oxytocin comes in a 10 mL amber glass vial, sealed with a rubber stopper and labeled with dosage and safety information. |
| Container Loading (20′ FCL) | Container Loading (20′ FCL) for Oxytocin: Typically shipped in secure, temperature-controlled packaging to ensure stability, with safety and compliance documentation. |
| Shipping | Oxytocin should be shipped in leak-proof, clearly labeled containers, protected from light and moisture. It requires cold-chain shipping, typically at 2-8°C, to maintain stability. Packaging should conform to local, national, and international regulations for transporting pharmaceuticals and sensitive biological substances. Expedite shipping to prevent temperature excursions and degradation. |
| Storage | Oxytocin should be stored in a tightly closed container, protected from light, and kept at a temperature between 2°C and 8°C (36°F to 46°F). Avoid freezing. If diluted, use the solution promptly and do not store for extended periods. Proper storage ensures stability and potency, preventing degradation and maintaining the medication's effectiveness. Dispose of expired or unused oxytocin safely. |
| Shelf Life | Oxytocin typically has a shelf life of 2–3 years when stored at 2–8°C, protected from light and freezing. |
Competitive Oxytocin 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
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Every vial that leaves our factory represents years of relentless research and exacting manufacturing standards. We produce Oxytocin with a focus on tranquility and reliability in both medical and laboratory settings. The synthesis of this peptide hormone follows protocols outlined in major pharmacopeias, using highly filtered environments and solid-phase peptide synthesis. We prioritize purity, stability, and strict identity checks through HPLC, mass spectrometry, and amino acid analysis. This hands-on approach in our plant means that every batch consistently meets quality expectations, contributing to dependable results for users.
We manufacture Oxytocin as sterile, lyophilized powder and as injectable solutions. Our most frequently produced strength is 10 IU per ampoule or vial, though we have the facilities to adjust content or fill volumes based on specific regional regulations and customer feedback. Each lot passes sterile filtration and microbial testing, ensuring peace of mind during clinical use and minimizing contamination risks in laboratory applications. From our perspective, accurately specifying concentration, pH, excipients, and container closure integrity forms the backbone of our finished product release process.
Handling source raw materials carries its own set of sometimes overlooked practicalities. Every amino acid building block comes from traceable suppliers, logged meticulously in batch records. Chain of custody documentation grows critical: mistakes compound rapidly and threaten not just business relationships, but also patient safety. Raw material purity verification saves untold costly headaches during final product release.
Every industry player talks about compliance, but for us, every bottle of Oxytocin is a direct testament to lived experience. Medical professionals rely on this product for obstetric and gynecological procedures, especially during labor augmentation and postpartum hemorrhage management. Any deviation from stated strengths or impurity limits can lead to real consequences — ranging from compromised outcomes to legal scrutiny, to patient harm.
Those of us on the manufacturing line develop a sharp respect for the differences between biologically derived and synthetic Oxytocin. Synthetic variants, such as those we produce, bring pronounced batch-to-batch consistency. We eliminate the risk of animal-borne side effects by sticking to chemical synthesis, while natural-source counterparts sometimes carry unwanted proteins or minor components. This approach allows clinicians to titrate doses with confidence, as each ampoule mirrors the last. In research settings, this reproducibility helps teams draw meaningful conclusions without worrying about background variability.
Manufacturing pharmaceutical peptides never offers shortcuts. Every run presents opportunities and risks — sometimes contamination, sometimes oxidation, sometimes process drift. These aren’t theoretical threats. We’ve scrapped whole batches over subtle anomalies because trust in the final product outweighs any short-term savings. Real-time monitoring and post-production analytics involve a mix of analytical chemistry and old-fashioned vigilance.
Stability during storage often proves more challenging than many suppose. Moisture ingress or temperature swings risk transforming an otherwise perfect lot into a substandard one. We invest in climate-controlled logistics and robust packaging because we’ve seen minor oversights lead to catastrophic failures — rejections, recalls, and lost business relationships. Investments in these systems pay for themselves many times over, not just in regulatory compliance but also in trust built with customers.
Our experience has shown that effective use in clinical and research environments starts with transparent information. Healthcare providers need to draw from ampoules safely and avoid contamination. Storage at 2–8°C remains crucial, but brief exposures above this range can accelerate degradation, harming activity. We field calls from busy medical teams asking about temperature excursions and offer practical guidance honed by decades of product support in real-world environments. Providing clear educational resources prevents waste and misadministration. With Oxytocin, misuse from poor training or misunderstanding isn’t rare, so active engagement through technical bulletins and direct conversations forms part of our core mission.
From a manufacturer’s perspective, Oxytocin occupies a unique position among peptide therapeutics. Unlike insulin or vasopressin, both of which we also manufacture, Oxytocin features a comparatively simple cyclic nonapeptide structure — but the critical disulfide bridge demands scrupulous monitoring. Misfolding during synthesis or improper storage can lead to loss of biological activity, so our technicians have developed rapid, noninvasive batch assessment tools.
Peptides like vasopressin possess similar synthesis steps, but can require more complex protecting group strategies and more demanding purification. Insulin, on the other hand, involves not only chain assembly and folding, but also disulfide linkage formation that tests the limits of solid-phase technology. Oxytocin offers a baseline challenge: maintain accurate structure, high purity, and sterility without overcomplicating the process. Having produced all three under one roof, we approach each with the same respect for rigor, but we tailor our QC checkpoints so nothing gets missed in the specific bottlenecks of one peptide over another.
Years in pharmaceutical manufacturing have made us see regulation as a living dialogue, not a static checklist. GMP compliance sometimes forces us to halt production and investigate issues deeply. Documentation discipline defines our daily work — if a signature is missing, product stops moving. Shifting guidelines on permissible impurities or excipients are never just paperwork; they signal lessons from past industry experience. We serve on technical committees, offer anonymous reports of process improvements to authorities, and track global recalls to adapt our own preventive controls. International harmonization still leaves room for local nuances in documentation, so our teams keep multilingual SOPs and training sessions up to date with evolving standards.
Beyond rule-following, we believe in ethical obligations, particularly about animal testing and sourcing. Our switch to fully synthetic Oxytocin cut out animal-derived components for good, which brought positive feedback from customers who care about animal welfare and batch safety. This move also affected cost structures and led to sourcing negotiations with multiple chemical suppliers. We prove each change with process validations and openness about our ingredient chain. We see increasing demand for vegan or non-animal-derived medicines in both human and veterinary contexts, and our process aligns with those values. Pharmacopeial compliance follows as a result of these operational decisions, not the other way around.
Many customers ask why pricing sometimes shifts even as the product remains the same. Raw material costs, shipping policies, and inflation each play their part, but unforeseen disruptions like global pandemics, natural disasters, or logistics breakdowns also hit hard. We have weathered volatile supply chain events that forced us to rethink inventory manage ment, buffer stocks, and lead time commitments. During these times, direct communication closes gaps faster than contractual fine print ever can. Our approach means warning customers early of impending delays, offering alternative shipment forms, or even providing direct technical consultations during critical shortages.
Anti-counterfeit protections have taken priority as well. Genuine risks of fake Oxytocin, sometimes packaged to look exactly like our genuine product, put end-users and patients in danger. We now use serialization, tamper-evident seals, and unique identifiers on each package. Gains from technology only matter when backed by public engagement, so our education team works directly with hospital procurement groups and research labs, demonstrating clear methods to spot unauthorized sources. We urge buyers to inspect every shipment, confirm supplier identity, and remain alert to suspicious pricing or broken chains of documentation. Trust in our brand grows from consistent vigilance, not just from certificates in a folder.
Our learning curve runs steep and ongoing. We treat every production record, deviation, and customer complaint as a chance to upgrade systems and processes. Routine trending of QC data signals early warning for impurity drifts, and those trends quickly lead to root cause analyses that drive updates on equipment, vendor qualification criteria, and staff training. Investing in automation reduced subjectivity but did not remove the place for hands-on inspection — machines flag statistical outliers but people catch nuance, especially in smaller anomaly cases. No process runs in a vacuum; inter-departmental sharing speeds resolution, so technical, analytical, and operations teams meet regularly for open discussion.
We pass along key lessons from our own errors and near-misses to institutional clients. Sometimes minor process tweaks, such as swapping tubing types or recalibrating balances, led to order-of-magnitude improvements in yields or consistency. By sharing these pragmatic corrections, customers recognize our willingness to learn and adapt. This openness keeps long-term relationships healthy, especially with clinical investigators and supply chain managers aware of the subtleties between certificate specifications and real-world performance.
Experience on the production floor makes gaps in supply chains impossible to ignore. Regular scenario planning bridges these gaps — from the mundane (delayed reagent deliveries) to the dramatic (multi-country transportation lockdowns). Redundant suppliers, real-time inventory tracking, and in-house contingency manufacturing reduce the length and severity of disruptions. Each strategic investment in our infrastructure originated from one or more learning moments — sometimes expensive, always invaluable.
Staff competence underpins product reliability. In-house apprenticeships and cross-training between chemical synthesis, QC, packaging, and documentation teams mean staff can troubleshoot problems that cut across specialties. During times of labor shortages, especially throughout global crises, multi-skilled teams can pivot to urgent production lines swiftly. Retaining skilled staff proves more cost-effective than retraining or constant hiring, so we foster career growth and knowledge sharing internally.
Education for external stakeholders remains a critical solution. We know that consistent communication with clinical users, regulatory bodies, and logistics partners elevates safety, compliance, and adoption rates. Technical webinars, validation workshops, and prompt responses to field questions ensure the intended use matches our design and testing parameters. Working directly with clinicians who handle difficult deliveries or manage post-partum bleeding, we invite real feedback and adapt formulations, packaging, or support materials to improve ease-of-use, safety, and robustness in these pressured settings.
Peptide technology advances quickly. We see potential for continuous flow chemistry and on-demand manufacturing to trim both costs and timelines while improving batch scalability. Traceable blockchain-based batch certification is moving from theory to early reality, offering even more secure provenance for end-users worried about counterfeit supplies. As new analytical techniques emerge, even subtle impurities or side products can be detected and removed, improving both product safety and patient outcomes.
Wider adoption of digital supply chains, including automated order tracking and digital batch notification, speeds up procurement for hospitals, wholesalers, and research groups. We review and pilot new platforms with the aim of streamlining deliveries and troubleshooting. These tools bring transparency and responsiveness, both of which become more important as Oxytocin’s clinical demand grows in both developed and emerging markets.
Through all growth and change, the lesson remains: product reliability comes from daily discipline, not just from numbers on a specification sheet. Direct experience on the production floor shapes the way we make decisions, tackle challenges, and build better medicine. Every ampoule and vial of Oxytocin that passes through our plant reflects a chain of choices grounded in science, transparency, and care. That’s what our customers recognize — not just in paperwork, but in lived, dependable results.