|
HS Code |
138267 |
| Generic Name | Enoxacin |
| Drug Class | Fluoroquinolone antibiotic |
| Chemical Formula | C15H17FN4O3 |
| Molecular Weight | 320.32 g/mol |
| Mechanism Of Action | Inhibits bacterial DNA gyrase and topoisomerase IV |
| Route Of Administration | Oral |
| Indications | Treatment of urinary tract infections and gonorrhea |
| Bioavailability | 60-80% |
| Half Life | 4 to 6 hours |
| Protein Binding | 35-40% |
| Brand Name | Penetrex |
| Metabolism | Hepatic |
| Excretion | Renal (urine) |
| Atc Code | J01MA12 |
| Cas Number | 74011-58-8 |
As an accredited Enoxacin factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | White plastic bottle containing 100 enoxacin tablets (400 mg each), secured with a tamper-evident cap and labeled with dosage details. |
| Shipping | Enoxacin is shipped in tightly sealed, labeled containers under cool, dry conditions to prevent degradation. Packaging complies with regulatory standards for handling pharmaceuticals and chemicals. The shipment includes safety documentation and is handled by certified carriers to ensure chemical integrity and user safety during transit. |
| Storage | Enoxacin should be stored in a tightly closed container at room temperature, ideally between 20°C and 25°C (68°F and 77°F), away from light, moisture, and heat sources. Keep it out of reach of children and incompatible substances, such as strong oxidizers. Proper storage ensures the chemical’s stability and prevents degradation or accidental exposure. |
Applications of Enoxacin in Industrial ManufacturingAs a specialized manufacturer of Enoxacin for industrial use, we supply this fluoroquinolone compound exclusively to downstream sectors where pharmaceutical-grade antibacterial agents are essential in regulated processing environments. The following application scenarios reflect actual market adoption and integration of Enoxacin as a functional ingredient along global pharmaceutical and veterinary production chains. 1. Oral Solid Dosage Pharmaceuticals (Human Use)Major pharmaceutical manufacturers incorporate Enoxacin in the commercial-scale synthesis of oral solid dosage forms targeting bacterial infections. Production teams introduce Enoxacin during the blending stage, where active pharmaceutical ingredient (API) performance, uniformity, and compliance with pharmacopeial monographs align with health authority requirements for human use. Quality control ensures each batch meets dissolution and content uniformity metrics, supporting scalable production of regulated antibiotics. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Sterile Powder for Injectable AntibioticsFinished medicine plants utilize Enoxacin to formulate sterile lyophilized powders intended for parenteral administration, especially where rapid systemic delivery is necessary in clinical settings. Production integrates Enoxacin after filtration and sterilization validation, ensuring absence of pyrogen and compliance with injectable-drug sterility requirements. Downstream packaging fills, seals, and vials the sterile API mixture. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Veterinary Formulations for Livestock HealthAnimal health product manufacturers deploy Enoxacin as a potent broad-spectrum component in veterinary oral and injectable antibacterial formulations. Batch production addresses explicit regulatory frameworks for food-producing animals and companion species, overseen by national agricultural authorities. Integration emphasizes strict withdrawal periods, residue controls, and safe formulation ratios for diverse livestock applications. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Pharmaceutical Intermediate for API Synthesis ExpansionChemical and pharmaceutical synthesis firms employ Enoxacin as a core intermediate in the R&D and scale-up of new fluoroquinolone derivatives. Multi-stage chemical processes use Enoxacin’s quinolone ring as a substrate for further molecular modification. These operations, situated in cGMP-validated API plants, require strict analytical and traceability protocols to support subsequent impurity profiling and regulatory filings. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
|
Competitive Enoxacin prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please call us at +8615371019725 or mail to sales7@sinochem-nanjing.com.
We will respond to you as soon as possible.
Tel: +8615371019725
Email: sales7@sinochem-nanjing.com
Flexible payment, competitive price, premium service - Inquire now!
Manufacturing Enoxacin calls for careful attention at every stage. We have synthesized this fluoroquinolone antibacterial for over a decade, drawing on both our direct plant experience and ongoing dialogue with our partners in active pharmaceutical ingredient development. Over time, changes in industry standards have pushed our facility to adapt and refine process controls, from tracked raw material traceability through final crystallization and drying steps. This approach lets us deliver a product that meets GMP specifications and aligns with the quality expectations of leading finished dose formulators worldwide.
On the technical side, our production lines turn out Enoxacin as a white or off-white crystalline powder, which we keep rigorously free from foreign matter. Particle size sits within strict batch ranges to support rapid dissolution and robust blending in formulation. Each shipment undergoes HPLC testing to track purity against industry benchmarks, and infrared spectroscopy confirms molecular identity against standards in the current pharmacopeia. Moisture content remains closely watched—routine Karl Fischer measurements are a fixture in our labs—because even small shifts alter both product shelf life and performance in compressed tablets or capsules.
Deep knowledge of Enoxacin’s behavior helps us tailor the product for both API and direct pharmacopeial formulations. Healthcare providers and formulators rely on Enoxacin for tackling Gram-negative and some atypical pathogens, giving it a place in the infectious disease toolkit where other fluoroquinolones sometimes fall short. The broad-spectrum activity is well documented. What separates a capable manufacturer from a simple blender is an ability to drive down impurity profiles. We monitor for synthetic side-products, including common by-products like 6-hydroxylated analogs and those from incomplete cyclization, because excessive levels compromise both in vivo safety and regulatory acceptance. Long-standing in-process analytics and timely interventions keep our impurity levels below 0.2%—beyond most published requirements.
We supply Enoxacin in bulk packs containing fine crystalline powder, typically ranging between 99.5% and 99.9% assay by HPLC. Each lot gets individually validated for loss on drying, all in line with pharmacopeial limits. Consistently controlling pH in solution is one area where experience has made a difference—years of rotating between different acid quenching steps have shown us that trace adjustments to neutralization yield better stability downstream.
Every batch we manufacture comes from a closed, stainless steel system. This keeps risk of cross-contamination low and supports smooth transitions between campaigns. Equipment cleaning is tracked by product-specific protocols honed by years of regulatory audits, not shortcut practices or superficial checklists.
Traceability grows more important each year. Our documentation system links each batch to specific starting materials and operators with full logbooks kept on site. Regulatory inspectors and customer audits often review the depth of our track and trace records before approving product shipments. Our in-house team supports custom documentation, including full qualitative and quantitative impurity listings, to help accelerate regulatory submissions for our customers. Over the years, our process design choices have made it easier for partners to prepare for both domestic and international filings without needing to request extra clarifications on API source or quality.
As manufacturing chemists, we follow close developments in the antibacterial market. Enoxacin’s main chemical cousins, like Ciprofloxacin and Norfloxacin, each have their own place. What separates Enoxacin comes down to both its antimicrobial spectrum and its behavior during granulation or direct compression. Enoxacin tends to form less hygroscopic crystals, so formulating stable solid-dosage forms becomes easier even in challenging humidity conditions. This technical edge traces back to optimized process controls during post-crystallization steps, which we confirm batch after batch.
Pharmacologically, Enoxacin interacts less with certain CYP450 metabolic pathways, which shifts its interaction profile relative to Ciprofloxacin. End users and formulators have found value in this reduced drug-drug interaction risk, especially in populations already prescribed other medicines. Our job is not to claim clinical superiority—that is for prescribers and regulatory bodies—but to ensure physical and chemical stability while reporting all impurity data in line with the latest guidelines.
From a manufacturer’s perspective, the story often begins—and ends—with impurity control. Unwanted by-products sometimes arise from over-heat or short reaction times in the cyclopropylation step. Various process tweaks, such as modifying solvent ratios and optimizing reaction temperature, have helped us squeeze down impurity traces over multiple years. We learned to maintain higher purity yields without stretching cleaning cycles or running longer reactor hours. These measures don’t just support regulatory acceptance; they also translate to lower risks of side effects, since certain impurities in this chemical class have known phototoxicity or renal impacts if left unchecked.
We draw our raw quinolone intermediates from vetted partners, all of whom follow the same traceability standards we use internally. Using direct supply networks instead of resellers allows for faster resolution of quality deviations. This matters every time a shipment triggers extra scrutiny from customs or port inspectors. At each step—storage, solvent treatment, production, packaging—every container and drum is logged. We oversee the logistics from our own facility, including labeling with internal batch codes. Only lots that match release paperwork and background supply-chain checks leave our doors.
Finished dose manufacturers rely on API lots that behave the same in a mixer or tablet press. A batch with poor or inconsistent solubility slows down line speeds and increases reject rates. By controlling crystal shape and size through careful process adjustments, we help our partners avoid downstream manufacturing headaches. With fluoroquinolones, even minor process drift translates to yield swings or issues at scale; those lessons grew out of feedback from early customers. Direct, ongoing engagement with process engineers shapes the improvements we continue making, year on year.
Around the world, regulatory standards differ, but most authorities have tightened impurity thresholds and documentation requirements for APIs like Enoxacin. Our manufacturing controls and in-house labs are audited both by our local authorities and by overseas partners. Every year brings updates, so we keep documentation open for regular review, with full access logs and deviation records ready for inspection. Clients in the generics business often need help with CTD dossier preparation and repeat questions about specification ranges and impurity data. Instead of canned answers, we provide validated certificates with real test results and analyst signatures.
Exposure to moisture or oxygen can degrade many synthetic APIs. Enoxacin presents its own storage challenges. Each drum and liner we use matches food and pharmaceutical grade standards. Moisture-absorbing sachets are added by default, not as an afterthought, keeping product dry up to delivery. Controlled storage rooms with tight temperature monitoring let us guarantee the shelf life agreed with each partner, often stretching to the full three years from date of manufacture, provided doors remain sealed until the point of use. Finished products pass stability tests not just at the start but at time points out to 36 months. These practices reflect input from years of global shipments in hot and humid climates.
Industry expectations keep rising on sustainability. Over the past few years, we’ve modernized solvent selection to reduce environmental impact—replacing high-emission solvents with low-impact choices and running waste recovery units on site. These improvements stem from both ethical concerns and the need to meet stricter environmental audits. Minimizing hazardous waste from the Enoxacin process requires careful solvent recycling and fine-tuned pH manipulation so downstream effluents land within local treatment thresholds. Beyond basic compliance, we work with partners to identify points for further improvement, such as implementation of continuous monitoring for air emissions and regular reviews of water usage benchmarks.
No process remains fixed. Each time we close a campaign, our teams swap notes on what worked and what held up yield or delayed batch release. Sometimes the answer comes down to a single storage tank transfer or an unexpected variation in incoming intermediate purity. Our chemists regularly meet with partners in regulatory affairs, logistics, and plant engineering to review any deviations. These reviews aren’t just for our books: they guide tweaks to process parameters and improve batch consistency. We take feedback from auditors seriously and invest in training so each new staff member understands not just how but why we follow each step.
Besides commercial supply, we support R&D and pilot-scale partners who look for customized lots. Some partners need only a few kilograms for formulation development, so we scale down and adjust processing on dedicated lines. Working in close collaboration, we share not just material but also methods and technical tips learned through hands-on work. This back-and-forth approach has allowed some of our clients to accelerate product launches, navigate regulatory hurdles faster, or refine formulations without waiting for multiple large-scale runs.
Fluoroquinolone resistance rates have become a concern for the global medical community. While Enoxacin is not always front-line, it holds a valuable position for certain persistent infections and in settings where other options face resistance. We stay abreast of updates from clinicians and regulatory bodies. This helps us anticipate when clients in generic production or special formulation will need custom grades or want extra analytics. Rapid response and adaptability, not just scale, keep us relevant as markets shift.
Formulators look for APIs that don’t introduce hurdles into their processes. Every time a new excipient enters the picture, or a partner tests direct-to-granulation, we run supplementary compatibility testing and pass on advisories built from actual batch histories. Reports cover crystal changes, hygroscopicity under forced conditions, and any risk of cross-reaction with proposed binders or coatings. Trust grows from this style of transparent information sharing and from our commitment to reflecting new findings in future QC protocols.
Decades of hands-on experience preparing Enoxacin give us confidence not just in our process but in the value this compound brings to the wider pharmaceutical world. Each improvement in consistency or purity we achieve directly affects the quality of the finished medicine on the pharmacy shelf. By building strong supply chains, upskilling operators, and investing in continuous analytics upgrades, we do more than just turn out another bulk chemical: we add real, tested value for those developing and delivering new treatment options.