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HS Code |
451151 |
| Name | Ozagrel |
| Chemical Formula | C18H16N2O2 |
| Molecular Weight | 292.34 g/mol |
| Drug Class | Thromboxane A2 synthase inhibitor |
| Mechanism Of Action | Inhibits synthesis of thromboxane A2 |
| Route Of Administration | Intravenous |
| Indications | Cerebral infarction, thrombosis prevention |
| Cas Number | 82571-53-7 |
| Atc Code | B01AC10 |
| Appearance | White to off-white powder |
| Solubility | Slightly soluble in water |
| Storage Conditions | Store at room temperature, away from light and moisture |
As an accredited Ozagrel factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Ozagrel is supplied in a white, sealed plastic bottle containing 100 grams of fine, off-white powder with a labeled chemical identifier. |
| Shipping | Ozagrel is shipped in secure, airtight containers to ensure stability and prevent contamination. The chemical should be transported in compliance with local and international regulations for hazardous materials, typically under cool, dry conditions. Proper labeling and documentation are required, and handling by trained personnel is mandatory to ensure safety during transit. |
| Storage | Ozagrel should be stored in a tightly closed container, protected from light and moisture. It should be kept at a temperature between 2°C and 8°C (refrigerated conditions). Avoid exposure to excessive heat and freezing. Proper storage is necessary to maintain its stability and effectiveness, ensuring it is kept out of reach of children and unauthorized personnel. |
Applications of Ozagrel in Industrial ManufacturingAs a manufacturer specializing in Ozagrel, we supply this active compound directly to downstream sectors that demand precise integration into their pharmaceutical and biotechnological processes. Our Ozagrel consistently meets rigorous quality requirements for advanced manufacturing procedures within regulated markets. Below we highlight major industrial segments and specific production contexts where Ozagrel forms an essential intermediate or raw material, ensuring both compliance and process efficiency. 1. Antithrombotic Active Pharmaceutical Ingredient (API) ProductionPharmaceutical manufacturers synthesize Antithrombotic APIs using Ozagrel due to its highly selective thromboxane A2 synthase inhibitory activity. API facilities require high chemical purity, consistent particle size, and robust stability to comply with strict regulatory demands. Downstream integrators add Ozagrel during the advanced synthesis stages, employing hydrogenation, crystallization, and purification processes under GMP conditions. Finished APIs serve as the basis for further drug product formulation, powering the production of oral and injectable thrombotic disorder therapies. Industry compliance standards
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2. Injectable Antithrombotic Drug ManufactureProducers of parenteral medications use Ozagrel as the active molecule in the formulation of injection-grade antithrombotic drugs aimed at hospital and critical care applications. Manufacturing lines focus on solution preparation, sterilization via filtration, and terminal filling, all under aseptic conditions. Ozagrel's high solubility and stability profile allow rapid dissolution, crucial for ensuring dose uniformity and shelf-life targets across sterile injectable products. Industry compliance standards
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3. Oral Formulation for Stroke Prevention DrugsOral capsule and tablet drug manufacturers employ Ozagrel in formulations aiming at secondary prevention of cerebral infarction and other thrombotic complications. Production leverages its physicochemical compatibility for direct granulation or dry blending, with a focus on achieving content uniformity and dissolution profile requirements. Downstream quality assurance ensures that the final dosage form delivers precise, reproducible drug release profiles as mandated by international regulatory authorities. Industry compliance standards
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4. Reference Standard Production for Pharmaceutical AnalyticsCertified standard producers utilize Ozagrel as a high-purity material for generating analytical reference standards. These standards enable pharmaceutical QC labs to conduct regulatory-compliant identity, purity, and impurity analysis of drug batches. Purification and blending processes follow international standards to ensure batch traceability and documented homogeneity. Industry compliance standards
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5. Pharmaceutical R&D and Clinical Trial Material SupplyResearch-based developers and clinical supply organizations incorporate Ozagrel as an investigational compound in preclinical toxicology, pharmacokinetic, and early-phase human studies. R&D compounding demands traceable sourcing, batch-to-batch reproducibility, and validated documentation to enable regulatory submissions and fulfill investigational new drug (IND) requirements for global trials. Industry compliance standards
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Ozagrel has grown into an important agent in the world of antiplatelet therapies. As producers, we live with every batch, every test result, and every customer feedback. The molecule, known chemically as (E)-3-(4-methoxyphenyl)-2-propenoic acid, has shown years of staying power in hospitals and clinics for the prevention and management of thrombosis. Its pharmacological value stems from its action as a thromboxane A2 synthase inhibitor, a specificity that our team has worked hard to preserve in every kilogram leaving our facility.
Across therapeutic landscapes, purity is non-negotiable. Pharmacopoeia standards demand a purity higher than 99.5%, and we have spent much of our development physically measuring batch after batch to minimize residual solvents and manage trace impurities well below allowable thresholds. This kind of assurance does not emerge from marketing theory, but from thousands of HPLC runs and GC-MS analysis in our labs. In our manufacturing environment, the white crystalline powder of Ozagrel must meet tight melting point specifications within 135-137°C, a range that reflects our careful recrystallization and precise handling. Deviating from this zone impacts solubility and shelf stability – real issues for hospital pharmacies where delays can put lives at risk.
The molecule may appear straightforward on paper, but there is nuance in its preparation. Many on the outside see antiplatelet agents as a crowded market, but practitioners draw clear lines between the raw powders they encounter. Product from over-rapid condensation or rushed purification leads to a yellowish tinge, or clogging during later formulation. These are not theories — these are observations drawn from conversations with pharmacists who have seen off-color vials and spent hours reprocessing supposedly pure samples. Resolving these issues has meant investing in cold filtration and multi-stage recrystallization, even if it slows output. Shipments built on these methods reach our partners clear and ready-to-use, with storied lot records to track every step.
Healthcare partners bring us much of our best feedback. Ozagrel’s role as an intravenous therapy in acute ischemic stroke puts the burden of quality on every liter of solution. Nurses and physicians report on ease of dissolution, particle-free clarity, and confidence in dosing accuracy. Our responsibility to these clinicians means real-world concerns like filter clogging and particulate formation reach our QC team and prompt immediate review — not a product recall, but a manufacturing evolution. We draw from formulation challenges to modify crystal size distribution, invest in even stricter in-process controls, and revalidate filling lines for sterile applications. The dialogue is ongoing; we treat each case of hospital dissatisfaction as a lesson, not a statistic.
It is easy for outsiders to lump Ozagrel among a jumble of antiplatelet options, but the differences in downstream utility do matter. Unlike aspirin or clopidogrel, which often come in oral tablets, Ozagrel serves a distinct role in acute IV therapy. Hospital protocols rely on its rapid onset and direct thromboxane A2 pathway inhibition. The half-life – typically around 1.5 hours – guides its clinical adoption, allowing for fine-tuned adjustments during procedures. Manufacturing for such time-sensitive delivery means batch reproducibility stands in place of guesswork, both for us and for the clinicians relying on an immediate effect. Our chemical engineers often liaise with clinical pharmacists to review dissolution rates, stability under various buffer systems, and light sensitivity for storage. These day-to-day exchanges rapidly separate high-grade material from poorly controlled alternatives that fail when clinical pressure rises.
Compliance with standards like GMP, ICH, and local agency requirements represents baseline expectation, not a badge. Our in-person audits — internal and regulatory — force our hands to fix what is broken, upgrade what is lagging, and record every data point. Failure for us is not a theoretical risk; it means lost contracts, patient complaints, and real financial loss. Preventing cross-contamination and batch-to-batch drift has driven investment in isolated lines, digital monitoring, and staff training. These efforts do not make for flashy headlines, but they support the reliability of every order. The outlier batch rarely gets a second chance in this sector. Our own experience has taught us that a single deviation — an odd color or slightly off melting range — is grounds for halting shipments and running comprehensive failure investigations. The market punishes hesitation less than it punishes sloppiness.
Over the past decade, clinics in countries across Asia and Europe have embraced Ozagrel for more than acute stroke. Expanded indications and increasing adoption rates press us to stay ahead of demand. Scaling up chemical synthesis without introducing new contaminants or losing control over polymorph distribution presents ongoing technical challenges. Multiton production looks easy in a spreadsheet but brings headaches in reactor temperature gradients, solvent reclamation bottlenecks, and worker safety. We learned this with our own hands during facility expansions, adjusting reaction kinetics and installing inline process monitoring to avoid unforeseen runaways or crystallization issues. We also adapted scheduling to handle parallel campaigns where legacy equipment bottlenecked throughput. The patience to re-engineer — rather than overdrive — keeps long-term reliability locked in and customers returning.
Chemical manufacturing, especially for active pharmaceutical ingredients, does not exist in a vacuum. Solvent recycling, wastewater treatment, and responsible disposal multiply the cost of every kilogram produced. We learned this lesson watching regulatory landscapes tighten after visible incidents across the sector. We closed open-loop cooling systems, replaced outdated solvent tanks, and built on-site effluent treatment capable of handling peak campaign loads. Simple box-ticking on environment and safety forms only satisfies a fraction of what the world needs. Our team embraces less energy-intensive synthetic steps where possible, recovering over 80% of solvents used in the condensation and purification stages. Continuous environmental audits mean occasional shutdowns — inconvenient but necessary to address emissions, particularly those notorious aromatic byproducts that characterize phenyl acrylate intermediates. Anticipating these costs and compliance hurdles does not come from consultant advice alone; it comes from years of renewing permits and fielding site inspections.
We deal daily with logistic partners, warehousing teams, and customs officials. Delivering Ozagrel across borders, whether as sterile finished API or as pure bulk powder, brings challenges that manufacturers alone are equipped to handle. Humidity, temperature fluctuations, and customs hold-ups affect product quality and shelf-life. Direct handling reduces the unknowns for our partners. Unlike traders plugging gaps, we track raw material lots, monitor container conditions in real time, and keep emergency shipments at hand for critical clinics. The relationships built between our QC leadership and importers, often forged in weekend phone calls over missing documentation or unexpected hold-ups, make a tangible difference when minutes matter for patients. These ties have seen us prioritize hospital needs during natural disasters and global transport disruptions. Hands-on involvement means knowing which warehouses can provide temperature monitoring records at a moment’s notice, and which shippers reliably maintain cold-chain integrity during customs delays.
Ozagrel’s research window remains open. Investigators continue to explore expanded uses, from neuroprotection in acute brain injury to possible benefits in vascular dementia models. Our R&D team sits on call for these partners, supplying small-lot quantities under controlled conditions and responding to requests for impurity profiles, spectral analysis, and alternate salt forms. Flexibility and transparency nurture collaborative innovation in ways that mere volume sellers cannot. As developers optimize drug delivery, our knowledge of compounding challenges — such as excipient compatibility, rapid reconstitution, and lyophilized product stability — shapes the way we tweak crystallization protocols on demand. Hard-won experience, not a rote adherence to a datasheet, allows us to respond with viable solutions when faced with unexpected insolubility or degradation kinetics. The continuity of these research relationships repairs the notorious trust deficit that often exists between academic labs and remote industrial sources. Instant responses and tailored deliveries fuel steady publication pipelines and cement our role in the scientific process.
Pharmaceutical manufacturing often carries the stigma of ‘commodity chemistry.’ Yet no amount of plant tonnage can substitute for trust in handling critical APIs. Every new customer presents different documentation requirements, complex regulatory filings, and recurring audits. Our doors stay open — not only for sales opportunities but for process transparency. Batch records, chromatograms, process validation protocols, and recall histories all flow directly from our site to regulatory inspectors. Over decades, these practices generate reputational dividends impossible to buy through discounts. Responding to lot failures or analytical disputes with documentation — not defensiveness — softens many regulatory conflicts before escalation. In heated debates about specifications, our process chemists walk authorities through protocols step by step. They do not hide behind legalese or paper compliance, because a missing signature or ambiguous test run erodes confidence more quickly than a late delivery ever could. The team sees this not as public relations, but as self-preservation — one infraction can erase years of painstaking relationship-building in the blink of an eye.
Reproducibility sits at the center of every run and audit. Field reports from distributor pharmacists guide not only minor tweaks like packaging tweaks, but core changes to how we construct synthesis steps. In one recent consultation, repeated feedback about post-reconstitution clarity highlighted a minority proportion of batches suffering micro-particulate formation after shipping. Rather than treating this as a one-off, our QA chemists mapped potential contamination risks throughout both crystallization and drying steps. This self-correction cycle refines reactant sourcing, washing frequency, and inspection points, fostering a manufacturing environment that anticipates rather than merely reacts to problems. Data flow — from the factory floor to senior management — blends direct operator observations with digitized process control records. The composite picture emerges from weighing each data point, not from cherry-picking flattering stats. The goal focuses not on over-polishing the numbers, but on rooting out underlying causes, no matter how small or slow-burning. These low-key process modifications, invisible to the end user, eventually evolve into published best practices.
Global pharma requirements evolve rapidly. What passed inspection five years ago can spark a warning letter today. Our manufacturing protocols stay in motion as we hunt emerging trace contaminants, accommodate changing analytical methods, and respond to updated thresholds from health authorities. Next-generation regulatory scrutiny introduces new requirements for elemental impurity analysis or nitrosamine risk assessments. Each brings more layers of sampling, more advanced analytical instrumentation, and yet greater demand for full documentation. Manufacturing teams split time between day-to-day output and longer-term protocol upgrades. We invest in team training — not for certification alone, but so chemists stay ready when unfamiliar problems emerge. Our seniors instruct new hires on tiger-team methodology, empowering quick root-cause analysis and documentation without panic in the face of unexpected out-of-spec batches. Being present for these teachable moments turns learning curves into long-term capability and resets the standard of quality upward for every subsequent batch.
Those who manufacture rarely interact with patients themselves, but conversations with attending clinicians ground us in reality. Most end users fixate on a handful of points: speed of preparation, reliability of effect, freedom from contaminants, and confidence in documentation. A pharmacist’s concern over delayed patient therapy due to incomplete records moves through our support lines with real urgency. We field post-marketing feedback every week and adjust protocols where avoidable bottlenecks inhibit patient care. The stories becoming most instructive are not the glowing endorsements but the rare damage reports — unexplained cloudiness, occasional slow dissolution, or odd shipment delays. These reveal gaps not discernible from a theoretical data sheet. Treating each report with hands-on urgency, our team learned to prioritize traceability and chain-of-custody, not just at the plant, but all the way to hospital pharmacies and nurse-prep stations. Surprising amounts of product loss trace back to minute lapses in packing discipline, or to documentation gaps at third-party storage sites. Fixing these has meant not only talking with logistics providers, but actively re-auditing storage conditions and packaging partners worldwide, sharing improvement results back with frontline hospital teams that keep records for their own internal compliance.
For those outside the chemical manufacturing sphere, Ozagrel’s quality might look interchangeable between brands. In reality, the distinctions extend beyond formula and spec sheets. A fine-tuned process, deep-rooted personnel culture, and responsive support distinguish a manufacturer’s product from that of a “commodity” seller cut off from the production floor. The knowledge that our teams treat every lot as tomorrow’s potential gold-standard for therapy holds far more weight than any marketing pitch. It means accountability for both the science and the impact, measured batch after batch, in real hospitals, with real patients relying on the smallest details going right. We build on years of reverse-engineering our own failures, learning firsthand from a marketplace that neither waits nor forgives. Our Ozagrel stands on the backbone of lived manufacturing experience, steady hands at the controls, and an open-door approach to feedback and partnership. This has become our competitive advantage — not by design, but by relentless practice.