|
HS Code |
296353 |
| Name | Isoxepac |
| Cas Number | 55453-87-7 |
| Molecular Formula | C12H13NO3 |
| Molecular Weight | 219.24 |
| Iupac Name | 2-(4-oxo-4,5-dihydro-1,3-oxazepin-3-yl)benzoic acid |
| Appearance | White to off-white powder |
| Drug Class | Nonsteroidal anti-inflammatory drug (NSAID) |
| Route Of Administration | Oral |
| Atc Code | M01AB13 |
| Pubchem Cid | 65677 |
| Mechanism Of Action | Inhibits cyclooxygenase enzymes (COX-1 and COX-2) |
| Use | Treatment of inflammation and pain |
As an accredited Isoxepac factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | White, opaque plastic bottle containing 100 grams of Isoxepac powder, labeled with product name, concentration, CAS number, and safety instructions. |
| Shipping | Isoxepac is shipped in tightly sealed containers, compliant with regulatory standards for chemical transport. It should be stored in a cool, dry, and well-ventilated area, away from incompatible substances. During transit, handling precautions must be followed to prevent exposure, spillage, and environmental contamination. Safety data sheets accompany all shipments. |
| Storage | Isoxepac should be stored in a tightly closed container, protected from light and moisture, at room temperature (20–25°C or 68–77°F). It should be kept away from incompatible substances such as strong oxidizing agents. Ensure storage is in a well-ventilated, dry area, and restrict access to authorized personnel. Follow all applicable local, state, and federal regulations. |
Competitive Isoxepac prices that fit your budget—flexible terms and customized quotes for every order.
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Tel: +8615365186327
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In the decades since we first began producing Isoxepac, we have seen its role move well beyond just another raw material. As a manufacturer, not a distributor or reseller, we are intimately involved in each stage—from sourcing starting reagents with stable supply lines, to managing rigorous process control in the factory, right up to final QC before it leaves our facility. Isoxepac has drawn the attention of project leaders in both academic and industrial labs, particularly for its distinct utility as a non-steroidal anti-inflammatory drug (NSAID) intermediate and its anti-inflammatory properties. Trusted suppliers set themselves apart through process transparency, consistent product, and a commitment to serving long-term partners. That’s how we’ve earned the confidence of our colleagues in pharmaceutical and life sciences manufacturing, season after season. We have a direct view of the unique challenges faced by research groups and pharmaceutical formulation teams, and over the years, our chemists have worked closely with clients as pilot programs move up in scale.
Isoxepac carries a chemical structure rooted in the arylacetic acid class, with distinguishing elements that set it apart from common alternatives. Laboratories working with diverse NSAIDs have recognized certain structural profiles that yield predictable profiles of anti-inflammatory and analgesic activity, but not all drugs in this category offer the same safety margin or compatibility in downstream synthesis. Isoxepac, for many in our community, fills a gap where alternative molecules either pose unnecessary side effects, run into supply chain issues, or complicate synthesis because of unstable intermediates.
The model our team manufactures adheres to a strict specification range—its chemical purity regularly surpasses industry baselines, backed by HPLC and NMR data collected batch-by-batch in-house. Unlike generalized intermediates, this molecule features both the isoxazole and arylacetic acid skeletons that many medicinal teams seek out for rapid downstream modification. Researchers in pharmacology and medicinal chemistry observe the reliable function of Isoxepac as an inflammation modulator in preclinical models, supporting its selection as a reference compound in numerous projects.
Isoxepac holds its own with a chemical purity we consistently monitor above 99 percent. Every shipment carries a finished batch analysis, and our laboratory repeats quantification using proton NMR and high-performance liquid chromatography for each lot, not just a sample tablet. We document melting point ranges tightly, ensuring that the material researchers receive will behave predictably in their hands, from benchtop synthesis to full-scale process trials. This approach strips uncertainties out of process development and leaves more bandwidth for project leaders to focus on results rather than troubleshooting supply issues.
As the manufacturer, we invest heavily in proper packaging and robust cold storage logistics when needed, helping clients in regions with varied climates maintain sample integrity. Years back, clients would report occasional isomerization during long transports from some sources, resulting in costly delays and repeated work. In response, our team adapted packaging protocols, improving barrier materials and shipping methods designed for broad ambient conditions. These practical steps have improved client confidence. Our earliest collaborations with pharmaceutical development labs taught us the importance of being responsive when a specification is even slightly off. We report details that clients actually care about: exact lot origins, time-stamp data for every analysis, and transparent impurity profiling (not just a vague statement of "meets requirements").
It has taken patience, hands-on troubleshooting, and plenty of open phone calls with our clients to set up this level of detail. We do not take for granted the trust teams place in us by using our product in initial screenings, scale-up work, or downstream derivatizations.
Chemists working in R&D frequently turn to Isoxepac for its known ability to serve as a building block or intermediary in the synthesis of tailored non-steroidal anti-inflammatory drugs. In practice, research scientists have found Isoxepac’s arylacetic acid core to be an ideal starting point for designing derivatives with adjusted bioactivity or altered pharmacokinetic profiles. Its mild side-effect profile compared to other NSAIDs makes it attractive for both animal and in vitro models, and in specialized cases, as a reference drug in comparative studies. We have seen an uptick in contract research organizations specifying our Isoxepac for pilot studies exploring safer or more potent pain management alternatives.
Therapeutic researchers handle Isoxepac as either an active reference material or as a reactant in stepwise synthesis. Our technical support team frequently fields questions about how best to optimize yields in downstream esterification or amidation reactions, to which we share practical suggestions based on our in-house experiments and the feedback loop from years of collaboration with research partners. Over time, our technical data sheets have expanded—directly in response to questions from real working scientists, not from boilerplate guidance.
The behind-the-scenes work to produce Isoxepac is far from trivial. Our chemists continually optimize not just for chemical purity but for steps that ensure environmental footprint gets minimized. Solvent choice, waste stream treatment, and emission capture all play a role. Many well-meaning outsiders overlook the complexity of integrating green chemistry into a practical industrial process, choosing talking points over the realities of schedule pressures and customer expectations.
Our operations team works daily to monitor each phase of the synthesis, using feedback from scale-up runs to adjust temperature controls and filtration methods. Over the last 15 years, our process engineers introduced a solvent recovery system that now captures over 90 percent of specific organic solvents during production—directly reducing operational costs and lowering the impact on air and water systems. We didn’t adopt these upgrades out of regulatory compulsion alone; many changes came from intense problem-solving within our own team. Younger chemists have shown interest in lifecycle analysis and data-driven reductions in energy use, and we empower them to act on those interests in collaboration with quality control and HSE staff.
Keeping a clean process also means less cross-contamination and better batch-to-batch reproducibility, leading to more reliable outcomes in customer labs. We regularly attend technical conferences and share our solutions—our process for Isoxepac has been benchmarked against other global producers, and we remain competitive by adopting advances as soon as they demonstrate clear benefits to safety, quality, and cost.
Experienced medicinal chemists see right away that Isoxepac’s molecular structure places it in a separate class compared to indomethacin, naproxen, or traditional salicylates. For those who have spent years in the field, shifting from a cyclooxygenase inhibitor like indomethacin to Isoxepac often comes down to seeking an improved safety profile or isolating specific structure-activity relationships. Unique functional handles on the Isoxepac skeleton improve its compatibility with a range of substituents, and its overall metabolic profile fits preclinical studies aiming to predict fewer adverse effects.
On the manufacturing side, Isoxepac demands an entirely different set of reaction conditions than what would be typical for a simple salicylate. This strategy makes the product more than just another NSAID intermediate—it becomes an adaptable piece of the puzzle for researchers tailoring new pharmaceutical entities. We keep close relationships with formulation scientists and understand that a minor shift in parent structure can alter solubility, stability, or even downstream regulatory alignment. In hands-on trials, Isoxepac has repeatedly demonstrated the right combination of reactivity and stability, which earns it repeat use across divergent project lines.
Over the years, we’ve weathered fluctuations in global raw material pricing, shifts in demand as new drug candidates rise or fall, and regulatory updates that periodically scramble logistics. As manufacturers, we have to think many moves ahead—raw materials procurement, solvent recycling, and even managing trained staff to handle changes in national chemical policy. There is no shortcut to robust supply practices.
Clients occasionally share stories of sudden supply stoppages from overseas brokers or the arrival of off-spec product that throws off their timelines. To prevent similar headaches, we maintain redundancy across storage and freight partners, and rely on an established team of chemical engineers who are empowered to step in and resolve issues rapidly. Our open-door policy for partners—academic and industrial alike—means that if our product ever falls out of tolerance, we move directly to root cause analysis and remediation rather than shifting blame or offering canned apologies.
Consistent supply matters. Without it, pharmaceutical partners risk wasting months of project time and incurring unexpected costs. That’s a lesson that has shaped our operations model. Instead of over-promising, we regularly update clients on lead times and keep the lines of communication open so that resource planning integrates seamlessly with production flow.
As a manufacturer, we shoulder all obligations for compliance from the ground up. This extends from detailed ingredient traceability and recordkeeping for every chemical lot, to frequent audits of our plant safety and emissions logs. We don’t outsource regulatory risks to upstream brokers or shift liability onto clients. Our team has gotten used to unannounced third-party inspections and have built up our systems so that every relevant certificate, analysis, and export document holds up to scrutiny.
Each client expresses different regulatory priorities, particularly for products entering regulated drug development pipelines. We understand these realities and participate directly in the preparation of technical documentation, shipping compliance, and site visits. Over the years, we have responded to new requirements in several key markets by developing new data packages and upgrading materials-handling systems. This approach has helped us earn ongoing partnerships instead of one-off transactions.
Empirical feedback is central to our regulatory alignment. If an end-user signals an issue with registration or technical documentation, we respond with person-to-person follow-up, not just another digital form email. Our regulatory relations staff train alongside our production chemists, so no one is out of touch with the technical fundamentals. That shared language improves both our compliance record and our batch-to-batch reliability.
Clients who come to us after troublesome experiences with unproven sources regularly comment on the predictability and straightforward service our team offers. We don’t simply ship boxes and walk away; our chemists and supply specialists keep a close line of feedback so any performance issues are addressed early. We have learned over time that establishing trust requires more than advertising certificates or touting quality scores. It comes from making tough calls on whether a batch truly meets the performance expectations set by trial or pilot runs, even at the expense of short-term margins.
Over the years, we have gathered real case studies where rapid response made all the difference. In one instance, a pharmaceutical developer in North America needed a reformulation in the middle of a regulatory window—our plant team worked overtime to supply a new Isoxepac batch with tighter impurity limits within days, not weeks. These kinds of results build lasting client confidence, especially among smaller teams with limited resources for troubleshooting or expedited restarts.
We treat every inquiry as a partnership, not a sales pitch. The feedback loop runs both ways—our staff gain valuable insight into methods, application, and even emerging safety requirements, while our customers rely on our reliability when trial phases become go/no-go decision points.
Complacency rarely serves the fast-changing world of pharmaceutical chemistry. We invest in continuous learning, benchmarking not only against technical metrics but also by seeking direct feedback from principal investigators and formulation chemists. Our R&D squads spend time participating in roundtable sessions, technical working groups, and innovation incubators to ensure our Isoxepac production stays ahead of shifting expectations.
Our analytical facilities are rarely idle. While legacy methods ensure batch reproducibility, our teams experiment with new characterization techniques and continually review academic papers and patent trends relevant to Isoxepac and its analogues. Not everything we test gets released, but the most promising innovations feed into our refinement roadmap. That allows us to bring updated information directly into technical discussions with partners seeking differentiated performance or novel applications.
Over time, many clients have expressed frustration with the black box approach taken by some suppliers. We see technical support as a core duty—not an afterthought. Our chemists are available to answer detailed questions, ranging from suggested solvent systems for purification to troubleshooting unexpected side reactions in derivative synthesis. We view ourselves as problem-solvers, not pure commodity producers. Decisions made on our production floor aim to support client success, so user feedback drives frequent small updates to our informational materials and application notes.
We frequently share findings—sometimes informally—about optimization tips gleaned from lab-scale tests and pilot runs. Not all knowledge comes from textbooks; the day-to-day sharing between manufacturing personnel and R&D specialists builds practical intelligence you cannot find in published literature.
Recognizing that mistakes or unexpected results will occasionally occur, we own up to those as well. Every production team member learns early on that honesty and promptness build the trust that research-intensive partners count on when navigating strict development timeframes. We back up our words with data, and with availability, long after the initial order is filled.
The chemical industry never stays still. Emerging research trends, heightened scrutiny on environmental impact, and the push for greater transparency reshape how Isoxepac is produced and valued within the global marketplace. With all eyes on both therapeutic value and sustainability, we know we must deliver both. Listening closely to our clients has helped us refine not just our product, but the way we communicate and collaborate.
Over the years, we’ve learned that excellence in chemical manufacturing grows from open dialogue, technical fluency, and a willingness to solve unanticipated problems together. Isoxepac’s continued reputation among our partners owes as much to this philosophy as to any single batch statistic. It is a privilege to be not just a supplier, but a practical partner, trusted by research and development leaders when the stakes for safety, purity, and on-time supply are higher than ever.