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Lomefloxacin Hydrochloride appears as a white or off-white crystalline powder, a material recognized for its solid state at room temperature. With a molecular formula of C17H19F2N3O3•HCl, it weighs in at a molar mass of about 387.8 g/mol. Looking at the product in hand, you notice a fine, almost pearl-like granularity, sometimes forming flakes depending on production. This active pharmaceutical ingredient, sometimes offered in powder, yields clear signals under UV light, a fact that piqued interest in many pharmaceutical labs I’ve visited. Its density measures close to 1.5 g/cm³, indicating a compact structure typical of many fluorinated quinolone compounds, which I remember as being stable and manageable for tablet production. One scoop into water gives a sparingly soluble solution, staying suspended for a while before settling, which matters when you’re blending it into larger batches for medical preparations. The chemical properties stand out—Lomefloxacin Hydrochloride fights bacterial infections through inhibition of DNA gyrase, a property that’s proven under both clinic and laboratory conditions.
The structure carries the telltale marks of the fluoroquinolone class, featuring a difluorinated cyclopropyl component and a piperazinyl side chain. These groups bring along both chemical stability and considerable bioactivity, a lesson many learn after witnessing degradation reactions in open air or under sunlight; always store in a cool, dry, sealed container. This substance melts between 231°C and 234°C, based on lab tests—something that helps chemists confirm its identity. Standard tests with methanol or water reveal modest solubility, making solution preparation a careful task. This characteristic led me to appreciate the importance of solvent choice in pharmaceutical compounding, especially where precise dosing prevents overdosing or waste.
For import and export, Lomefloxacin Hydrochloride typically travels under HS Code 2934999099, which I’ve seen on countless shipping documents when working with raw material suppliers. Customs performs controlled checks for hazardous and medicinal chemicals under this code, so documentation must be meticulous. Handling requirements warn of potential hazards: inhalation, direct skin contact, and accidental ingestion warrant personal protective equipment. The material counts as harmful due to toxicity when misused, a point every safety sheet echoes. Safety data indicate moderate risk if mishandled—symptoms may include dizziness or mild eye irritation. Chemical waste compliance matters from warehouse to disposal site, and working with environmental officers taught me that proper labeling keeps dangerous materials from causing accidental exposure.
Production teams in pharmaceutical manufacturing rely on Lomefloxacin Hydrochloride as a raw material for both tablets and injectable products. Consistent density, crystalline quality, and assured purity support repeatable results in each batch. The physical form—occasionally crystalline, at times more powdery—impacts mixing time, dispersal, and ultimately drug uniformity, something our production line managers stressed at every training meeting. The material’s sensitivity to moisture and light means packaging and transport have specific protocols—vacuum-sealing, desiccant packs, opaque containers—all to protect the property and avoid costly degradation.
Daily handling requires a space with good airflow, a detail that’s often overlooked until an incident happens. Gloves, goggles, and dust masks remain standard PPE to limit contact and respiratory exposure; once, an oversight led to a colleague developing a brief rash, prompting facility-wide training. Storage conditions need monitoring—temperatures above 30°C or high humidity invite slow breakdown, a lesson learned through real-world spoilage losses. Waste protocols dictate collection in designated chemical-resistant containers, which are then passed on for incineration or chemical neutralization following local environmental regulations. Safety data sheets list potential hazards; still, people focus best when procedures are rooted in training reinforced by field experience, not just theory.
The unique molecular structure, confirmed by both analytical testing and published literature, features dual fluorine atoms bonded onto a quinolone backbone—a configuration that grants the compound its heightened antibacterial spectrum. The hydrochloride salt not only stabilizes this structure but also improves shelf-life, which aids inventory management on the ground. The crystalline quality supports analytical verification via X-ray diffraction and IR spectroscopy, which is a boon in regulatory audits. In practice, I’ve observed how trained pharmacists use these results to guarantee every consignment matches the supplier’s specification, preventing costly recalls and ensuring safe medicines reach patients.
Despite its medical use, Lomefloxacin Hydrochloride presents hazards. Contact with eyes or accidental inhalation during processing can cause discomfort or more serious symptoms, so full PPE stands as an absolute rule. National chemical safety bodies classify it as a hazardous material, which kicks in additional training for facility teams. Disposal rules reflect the hazardous profile, so used containers and waste must avoid routine trash and funnel through controlled disposal channels—something I’ve had to oversee during both audits and unannounced inspections. Experience proves prevention hinges on vigilance, not just paperwork. Manufacturing lines with documented controls see fewer incidents and protect both workers and the environment.
Lomefloxacin Hydrochloride finds primary use in treating bacterial infections, approved for various systemic applications after validation in clinical trials. Regulatory authorities look for evidence of product identity, physical property, and quality before approving pharmaceutical products, and detailed batch documentation plays a central role. My experience with hospital pharmacists taught me the centrality of product reliability—not just in paperwork, but in patient outcomes. Getting the physical and chemical characteristics right literally saves lives. The structure, purity, and consistent production contribute directly to a safe healthcare system, while slip-ups reverberate up and down the supply chain.
