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HS Code |
708902 |
| generic_name | Idarubicin Hydrochloride |
| chemical_formula | C26H28ClNO9 |
| molecular_weight | 563.96 g/mol |
| drug_class | Anthracycline antibiotic |
| appearance | Orange-red powder |
| route_of_administration | Intravenous |
| mechanism_of_action | Inhibits DNA and RNA synthesis by intercalating between base pairs |
| indications | Acute myeloid leukemia (AML) |
| half_life | 18-25 hours |
| storage_conditions | Store at 20°C to 25°C (68°F to 77°F) |
| cas_number | 57852-57-0 |
| solubility | Soluble in water |
| pregnancy_category | D (Positive evidence of risk) |
As an accredited Idarubicin Hydrochloride factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Idarubicin Hydrochloride is supplied in a 10 mg amber glass vial, sealed, labeled with product details, and stored in a carton. |
| Shipping | Idarubicin Hydrochloride is shipped as a hazardous material under controlled temperature conditions, typically 2–8°C, in secure, leak-proof, and properly labeled packaging. Transport follows strict guidelines for cytotoxic substances to ensure safety and regulatory compliance. Appropriate documentation and handling instructions are included for safe receipt and storage upon delivery. |
| Storage | Idarubicin Hydrochloride should be stored in a tightly sealed container at 20°C to 25°C (68°F to 77°F), with excursions permitted to 15°C to 30°C (59°F to 86°F). Protect from light and moisture. Keep out of reach of children and ensure storage in a secure area reserved for cytotoxic drugs, in accordance with institutional safety guidelines. |
Applications of Idarubicin Hydrochloride in Industrial ManufacturingAs a specialized manufacturer, we supply Idarubicin Hydrochloride to established pharmaceutical companies focused on oncology, research reagent suppliers, and bulk injectables manufacturers. Our material underpins precise processes in these demanding sectors, where regulatory, compositional, and production requirements are strictly enforced by international authorities. Below, we detail its deployment in key downstream segments, drawn from validated industrial practice. 1. Pharmaceutical Active Pharmaceutical Ingredient (API) Production for OncologyOncology-focused pharmaceutical plants use Idarubicin Hydrochloride as a central API component for manufacturing intravenous chemotherapeutic injectables, especially for acute myeloid leukemia (AML) therapy. Production follows intense regulatory scrutiny, mandating traceable sourcing, process validation, and strict adherence to oncology drug pharmacopoeias. Formulators adjust input ratios to meet targeted potency and product release profiles, with QC checkpoints for impurity limits and residual solvents at each stage. Industry compliance standards
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2. Cytotoxic Reference Standard Manufacturing for Analytical LaboratoriesSpecialty chemical labs involved in pharmaceutical quality control and regulatory compliance require certified reference standards of Idarubicin Hydrochloride for validating analytical instrumentation. Production lines demand precise dilution, purity assessment via HPLC, and certified labeling to meet traceability audits, enabling end-users to calibrate and validate drug assays across global sites. Industry compliance standards
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3. Oncology Combination Drug Formulation DevelopmentDevelopment departments in collaborative pharmaceutical partnerships use Idarubicin Hydrochloride for investigative and generic fixed-dose formulations in combination regimens, such as idarubicin with cytarabine. The blending ratio is critical and depends on pharmacokinetic modeling, compatibility with stabilizers, and legal limits set for fixed-dose combinations. Compliance with global clinical trial supply standards drives documentation at each step, and batch scale varies from preclinical supermicron batches to clinical pilot lots. Industry compliance standards
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4. Preclinical & Toxicology Batch Material SupplyContract research organizations (CROs) and toxicology testing units purchase Idarubicin Hydrochloride bulk lots for rigorous in vivo toxicity, safety, and distribution studies prior to regulatory submission of new drug applications. These runs require the material to meet stringent animal-testing safety profiles, stability standards, and documentation for batch traceability. Scale-down and scale-up adjustment support customized formulation experiments to aid in dose-ranging and exposure studies as defined in regulatory guidelines specific to non-clinical development. Industry compliance standards
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On our production line, precision defines every batch of Idarubicin Hydrochloride. This anthracycline antineoplastic drug sees heavy use across chemotherapy protocols. Our hands are on every stage, from raw material inspection to the final sterile filtration, always focusing on purity and integrity. Decades of handling specialized cytotoxic drugs have given us an up-close view of the compound’s real-world significance. Hospitals and research institutions rely on a molecule that meets specific standards, not just for regulatory compliance, but because patients and clinicians count on stability and repeatability every time. If a single impurity sneaks past our checks, the risk shifts downstream; that isn’t something we risk.
We manufacture Idarubicin Hydrochloride primarily as a fine red-orange powder, distinguished by a sharp crystalline profile under the microscope. For clinical application, the most common concentration is a highly controlled 98.0%–102.0% HPLC assay, usually formulated for either raw research usage or further compounding in injectable form. We do not allow tolerance for stray particles, visible contaminants, or excessive moisture. Water content stays below one percent, verified batch by batch in our in-house lab. Free acidity and related substance levels fall far below pharmacopoeial thresholds, with each certificate listing those numbers transparently.
While many chemists hear about batch record review or cGMP compliance, our team lives that process in a hands-on environment. Auditors, both internal and external, have queried our logs and watched our operators in cleanroom gear—an experience that reinforces constant vigilance throughout the workflow. We keep a sample from every lot, reference-checked for any future query. If a customer ever walks in for an audit, we show them the line, not a sanitized boardroom slide.
End use falls into two main categories: clinical and laboratory. Clinical units, mostly hospital pharmacies and injection formulation companies, depend on our strict aseptic lines. Lab orders, especially those traced to universities and oncology research sites, take single-use vials or bulk powder. Handling requirements often spark debate during customer visits, which makes sense. Idarubicin Hydrochloride is potent and poses occupational safety risks. That’s why our containers are tamper-evident, amber glass or fluoro-polymer, fitted with primary and secondary seals to keep air and light from undermining stability. Hazard communication isn’t a paperwork exercise for us; our QC team runs actual breakage and exposure simulations, then updates protocols if anything fails.
Pharmacy practice professionals sometimes contact us looking for tips on reconstitution, solubility, or shelf-life extension after opening. Water-soluble but susceptible to photodegradation, Idarubicin Hydrochloride resists common oxidizing agents due to its anthraquinone core, but sitting it near UV sources or heat will slowly unravel the compound. Some labs add antioxidants, others stick to ice-cold saline. In truth, a product’s fate depends on both the formulation’s design and the handling wisdom of the site. This feedback loop—what we learn from pharmacists, clinicians, and researchers—feeds directly into each new batch we release.
Idarubicin Hydrochloride may come in a standard pharmacological label, but the route from precursor chemicals to finished glass vial isn’t identical across manufacturers. We’ve learned the critical steps—solvent handling, light control, crystallization, solvent-removal, filter sterilization—require more than protocol compliance. Even a slight skip in solvent switch temperature or filter type can leave a fingerprint in residuals or cause micro-particulate load to spike. Every technician here has practiced the “what-if” scenario for vacuums failing or agitation pausing at the wrong step; not every supplier’s operators have that same muscle memory.
We run all API synthesis and downstream finishing in vertically integrated facilities. By keeping every step in-house, we control quality. We have seen what goes wrong in job-shop environments where contract synthesis splits between suppliers; cross-contamination and inconsistent crystal formation show up in stability failures and out-of-spec batches. Our material consistency draws heavily from empiric process refinement. For example, we monitor not just yield but the impurity fingerprint, which changes batch to batch depending on reaction kinetics. Fine-tuning these variables, then controlling them across scale-up, provides a reliable pathway for lot-to-lot repeatability.
Pharmacy buyers and R&D formulators often ask: What’s the real difference between our Idarubicin Hydrochloride and generic lots from other sources? The difference doesn’t lie in the raw chemical formula—it’s about cumulative quality control, how strictly storage and atmosphere are managed, the frequency and sophistication of our analytical checks, and our willingness to reject borderline product. Chemically, Idarubicin Hydrochloride is sensitive not just to raw environmental factors but also mechanical stress during shipping and storage. Every warehouse manager at our plants carries out temperature, humidity, and light exposure audits weekly. Some producers settle for less thorough checks. The result: occasional vials with visible color changes or compromised potency.
Our analytical instrumentation—HPLC, LC-MS, FT-IR—routinely detects impurities far below ICH threshold levels. We don’t just file those results away; we run root-cause analysis on any outlier, tracking it back to a specific production date, operator, or synthesized precursor. Buyers trust that the same standards hold regardless of order size. In fact, we’ve responded to emergency hospital requests with lots manufactured to the same scrutiny as a 500-vial commercial batch. There’s a difference between selling a compound and standing behind its real-world performance, and we choose the latter every time.
Every chemist in our organization understands the stakes. Failures here don’t just mean a rejected batch; they carry consequences for patients. Idarubicin Hydrochloride treats acute myeloid leukemia and certain lymphomas—conditions where dose timing and purity change outcomes. If our API arrives unstable, or with excess solvent, the clinical impact ripples outwards. We supply some batches intended for clinical trials. If those trial results turn ambiguous due to off-quality drug, the setback sets progress back by years. That’s not a hypothetical—it’s something we’ve seen firsthand across the industry when manufacturing standards slip.
Chemistry and public health meet on the bottling line. If the API causes an allergic reaction because a residual solvent wasn’t fully removed, the incident doesn’t stay within the lab—regulatory audits, media inquiries, and, above all, risk to patient trust follow. Avoiding these mistakes requires experienced chemists and trained inspectors watching every transfer, filtration, and fill. Our batch records tell a story of process improvement led by incident review, not just box-ticking compliance checks.
Supply chain shifts dominate pharmaceutical manufacturing these days. Idarubicin Hydrochloride draws scrutiny during global events that choke precursor chemical routes or disrupt shipping. We prepare buffer inventories and monitor forward contracts on key ingredients to insulate customers against shortage spikes. COVID-era shipping delays taught everyone that even one lagging supplier can impact critical therapy in hospitals a continent away. By investing in domestic precursor synthons, and forging partnerships with reliable global logistics firms, we minimize risk of bottlenecks. Customers see their own anxiety about shortages reflected in our own contingency planning and crisis drills.
Interest in generic oncology APIs continues to grow. We field more inquiries about biosimilar compatibility, compound reformulation, and improved storage approaches than ever before. Hospitals want longer shelf lives, and researchers look for alternate salt forms or lyophilized variants. Our R&D teams are working in tandem with compounders and hospital pharmacists to answer these needs, but every adjustment comes with validation and stability testing cycles. We don’t release a new variant until degradation and stability meet or exceed those of finished reference products. Transparency about lead time and sample availability keeps expectations realistic on both sides.
Handling requirements set Idarubicin Hydrochloride apart from more forgiving pharmaceuticals. The compound responds to light and moisture exposure, so opaque, sealed containers come standard. Our packers measure and record internal temperature and moisture content before each shipment. Uncooled air shipping isn’t acceptable—a dedicated cold chain solution keeps the drug within a tight temperature window all the way to a customer’s facility. We encountered more than one lost batch early on, which led us to implement smart tracking and RFID monitoring for bulk shipments.
From firsthand experience, onsite temperature spikes above 30°C begin eroding the compound’s shelf life. We provide those details in our documentation, not just as a formality, but because one missed guideline can handicap an entire supply batch. For smaller research-scale orders, rapid turnaround enables researchers to use their product quickly, well within recommended storage times. Fragility during transport, risk of glass breakage or seal failure, and urgency of hospital requests have shaped how we prioritize packaging improvements. Standard operating procedure here blends risk-prevention with an aim to make the process as transparent as possible for customers.
Degradation reactions for Idarubicin Hydrochloride present a serious challenge—oxidation, hydrolysis, and photodegradation shift both potency and side effect profiles. We’ve invested in ongoing project work with academic chemists to unravel minor degradation products. Not every batch, even at 99% purity, behaves identically in solution. Our in-process samples undergo both short- and long-term stability stress, exposing them to real-world disturbances like intermittent warm air, trace minerals in saline, and even the agitation caused by mechanical pumps in hospital environments. This collection of stability data shapes our recommendations and the incremental process improvements we apply.
Where some suppliers focus solely on delivering the listed assay or mass spec result, we take a broader approach. Each lot shows analytical fingerprints—subtle patterns indicating earlier storage conditions or synthesis variables. We trace these patterns over hundreds of releases, which enables us to catch the early warning signs of product drift. That history doesn’t fit into a single spec sheet, but our customers recognize it during technical discussions or site audits. Real-world performance, as seen in hospital mixing rooms and in the hands of pharmacy techs, proves whether our methods work.
Success with Idarubicin Hydrochloride depends on an attitude of constant questioning. Our line engineers sit down weekly to review deviations, complaints, and outlier lab results. We’ve learned to expect surprises—from a batch of solvent that showed trace chlorine levels, to a microfilter that failed months before its expiration date. Each incident informs tweaks to process controls, staff training, and QC protocols. We view regulatory inspection not as a burden, but as a useful outside perspective to make our systems stronger.
Change comes slowly in highly regulated environments, but even minor process changes can have a pronounced effects. We ran a cycle recently testing new fluoropolymer seals, thanks to feedback from a distributor in a humid climate who saw higher-than-expected spoilage rates. Testing didn’t just occur on a lab bench—our packaging team subjected test batches to simulated transport stress, drop tests, and shelf-life studies under varied humidity cycles. By combining these approaches, we helped customers reduce spoilage rates and improved compliance with shipping standards across markets.
Every year, new regulatory requirements and market expectations shift the goalposts for Idarubicin Hydrochloride. Sourcing precursors at pharmaceutical grade has grown tougher as global inspection standards tighten. Our procurement team spends time on-site at supplier factories, checking not just for paperwork, but for actual production environment and staff training standards. No certificate substitutes real engagement. Batch recalls by competitors have shown us how a single error hundreds of miles upstream can travel through the supply network.
Clinical demands for faster delivery and on-demand compounding create new pressures out of the lab and into the clinical workflow. We’ve partnered directly with major hospitals to create more standardized dilution protocols and improve traceability on every unit. We offer direct training support for compounding teams, passing on lessons learned from our own floor about mixing speeds, container selection, and contamination avoidance.
Manufacturing Idarubicin Hydrochloride means dealing responsibly with hazardous waste and occupational risk. Our team receives annual safety and environmental training covering spill response, exposure monitoring, and safe disposal. We built a contained solvent reclamation system that recycles over 60 percent of our used wash solutions—reducing both environmental impact and cost. Sustainable practices only stick when they make sense on the floor, so we’ve fine-tuned these recycling systems with operator input.
Every operator here signs off not just on their technical skills, but on a culture of safety that extends to our downstream customers. We supply both a full residual solvent profile and detailed handling notes with every shipment, favoring full disclosure over selective reporting. Hospital pharmacists and lab managers have voiced their appreciation for this level of support, seeing it as a practical tool rather than regulatory overkill.
Questions don’t end after shipment. Our technical staff stay available for all sorts of troubleshooting, from cloudiness in a reconstituted solution to unusual color changes. Chemists on our team answer queries by reviewing batch records, looking at real-time analytics, and liaising with shipping and handling teams. Our direct link with end users in hospitals, clinics, and labs closes a feedback loop that guides both production and refinement.
Customers have shared examples where past experiences with unreliable batches forced them to rethink suppliers. We use these stories to highlight the direct impact manufacturing integrity has on patient care. We listen not just for complaints, but for subtle trends—such as rising customer interest in alternate vial sizes, or emerging use cases in off-label research studies. As always, lab data backs up what gets discussed.
The landscape for anthracycline manufacturing keeps changing. Scientific research points to evolving oncology uses, combinations with new biologics, and stricter impurity standards. Our R&D pipeline runs parallel to production, trialing improved stabilization methods, optimizing the balance between API potency and shelf life, and exploring alternate delivery forms for clinical teams.
We commit daily to making sure Idarubicin Hydrochloride stands up to these changing expectations, delivering performance that pharmacy technicians and hospital clinical trial coordinators can trust. New applications and more rigorous regulatory frameworks may arrive, but we approach these as opportunities to lead. Our story is still being written, one batch at a time, under the eyes of operators who know that every step tells part of a bigger story—one that ultimately links back to patients, clinicians, and a shared expectation of uncompromising quality.