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HS Code |
382495 |
| Product Name | Ceftazidime Dihydrochloride |
| Chemical Formula | C22H24N6O7S2·2HCl |
| Molecular Weight | 582.55 g/mol |
| Appearance | White to off-white powder |
| Solubility | Soluble in water |
| Usage | Antibiotic (third-generation cephalosporin) |
| Storage Temperature | 2-8°C |
| Cas Number | 78439-06-2 |
| Purity | ≥98% |
| Ph | 4.5-6.5 (1% aqueous solution) |
| Stability | Stable under recommended storage conditions |
| Merck Index | 14, 1810 |
As an accredited Ceftazidime Dihydrochloride factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Ceftazidime Dihydrochloride, 10g, packaged in a sealed amber glass vial with tamper-evident cap and clear labeling for laboratory use. |
| Shipping | Ceftazidime Dihydrochloride is shipped in tightly sealed containers, protected from light and moisture. The package is labeled in compliance with safety regulations and may require temperature-controlled shipping (2-8°C) depending on stability data. All transport follows chemical handling protocols to prevent contamination, spillage, or degradation during transit. |
| Storage | Ceftazidime Dihydrochloride should be stored in a tightly closed container, protected from light and moisture. Store at 2–8°C (refrigerated) and avoid exposure to excessive heat or freezing. Keep the chemical in a well-ventilated area, away from incompatible substances, and ensure proper labeling. Follow all local regulations and safety guidelines for chemical storage. |
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Purity 99%: Ceftazidime Dihydrochloride with purity 99% is used in pharmaceutical formulation development, where it ensures optimal antimicrobial potency and batch consistency. Molecular weight 546.5 g/mol: Ceftazidime Dihydrochloride with molecular weight 546.5 g/mol is used in parenteral drug delivery systems, where it provides precise dosing and reliable therapeutic outcomes. Melting point 210°C: Ceftazidime Dihydrochloride with melting point 210°C is used in sterile powder manufacturing, where it maintains product integrity during heat-exposure phases. Particle size <10 µm: Ceftazidime Dihydrochloride with particle size less than 10 µm is used in intravenous suspension preparations, where it enables rapid dissolution and improved bioavailability. Stability temperature up to 25°C: Ceftazidime Dihydrochloride stable up to 25°C is used in cold chain logistics for hospital pharmacies, where it ensures prolonged shelf life and maintained efficacy. pH 4.5–7.5: Ceftazidime Dihydrochloride with pH 4.5–7.5 is used in buffered infusion solutions, where it minimizes patient irritation and enhances compatibility with other medications. |
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Ceftazidime Dihydrochloride stepped into the modern medical landscape at a point when healthcare workers and researchers faced stubborn and dangerous hospital-acquired infections. Antibiotic resistance did not arrive suddenly; it crept up gradually, revealed by cases that failed to respond even to our most trusted antibiotics. Doctors like myself have watched treatments that worked for decades subtly lose ground, especially against tough Gram-negative bacteria. Ceftazidime Dihydrochloride brought much-needed tools against Pseudomonas aeruginosa and other problematic pathogens often found resisting older options. I've seen cases where rapid escalation to ceftazidime made all the difference for immunocompromised patients — whether in hematology wards or intensive care.
Manufactured in sterile powder form, ceftazidime dihydrochloride dissolves quickly in injectable solutions, allowing hospital teams to act fast. In the real world, time is not a luxury — patients developing septic shock or at risk for deep invasive infections need a treatment that can be measured, reconstituted, and given at precise doses. Unlike some earlier antibiotics that struggled with stability issues or took ages to prepare, ceftazidime’s chemical robustness streamlines hospital routines. In a decade working closely with infectious disease pharmacists, I’ve seen how this stability prevents costly errors and reduces waste on crowded wards.
Specifically, the dihydrochloride salt makes a difference many outside medicine overlook. Ceftazidime is available as sodium and dihydrochloride salts, each designed for clean dissolution in sterile water, but the dihydrochloride model avoids contributing sodium load to vulnerable patients. For those with compromised renal function or on sodium-restricted diets, every milligram matters. Pharmacists I trust have pointed out that, especially in cardiac and nephrology units, switching to a formulation with less sodium means easier dosing and peace of mind—minor technical differences manifest as patient safety in practice.
Ceftazidime belongs to the third-generation family of cephalosporins, a group that redefined modern treatment of severe bacterial infections. I remember early clinical rounds in teaching hospitals, often reviewing cases of febrile neutropenia where standard beta-lactam drugs couldn’t break through. When patients battled opportunistic or drug-resistant infections, older cephalosporins fell short. Ceftazidime distinguishes itself with better action against hard-to-treat Gram-negative bacteria, especially Pseudomonas, one of the last lines of defense in critical care.
Other third-generation cephalosporins like ceftriaxone or cefotaxime protect against many Gram-negative and some Gram-positive bacteria, but their anti-pseudomonal activity lags behind. Ceftazidime’s distinct structure enables it to lock onto key targets within those tricky cell walls. While some colleagues argue about over-prescribing, infectious disease guidelines consistently point to ceftazidime’s value in patients with hospital-acquired pneumonia, serious urinary tract infections, and complicated intra-abdominal infections. Its reach into the cerebrospinal fluid also means direct use in meningitis cases where Pseudomonas may lurk.
Over the years, I have noticed the difference ceftazidime makes when narrowing down therapies. Early broad-spectrum antibiotics shield patients until culture results come in, but as soon as sensitivity data arrives, switching to ceftazidime where appropriate helps limit antibiotic pressure and resistance. Unlike carbapenems or colistin, which bring concerns about toxicity or steep cost, ceftazidime often strikes a more balanced profile between safety, cost, and spectrum. This sort of practical choice keeps treatments sustainable, an issue front-line doctors wrestle with daily as we hear government calls for antibiotic stewardship.
Decisions on dosing can make or break outcomes in serious infection. Ceftazidime dihydrochloride’s model delivers on precise dosing, ready for adaptation in both bolus injections and slow intravenous infusions. My memory returns to a patient with relapsed leukemia who developed a fever after neutropenia; with renal adjustments factored in, pharmacy was able to personalize her dosing right down to the milligram. For children and older adults, being able to finely tune antibiotic doses with confidence means fewer adverse events and shorter hospital stays.
A clear point stands out in ceftazidime dihydrochloride’s favor: its safety profile. All antibiotics carry risks, and I have encountered rare cases of allergy, especially in people with other beta-lactam allergies. Yet, monitored closely, most patients tolerate ceftazidime better than some newer, more toxic alternatives. During multiple outbreaks of multi-resistant bacteria, its relatively low risk of kidney injury mattered. Hospitals adopt protocols that rely on predictable pharmacokinetics and manageable side effects. Nurses and pharmacists working overnight shifts have shared stories of how ceftazidime avoids the surprises sometimes seen with more experimental drugs.
All products in this field come with trade-offs. Cefepime, another anti-pseudomonal cephalosporin, entered the scene later with a broader spectrum, tackling some resistant Enterobacteriaceae strains ceftazidime cannot. Yet, cefepime also poses higher risk for neurotoxicity, particularly in elderly patients or those with renal impairment. Medicine balances need with risk constantly. Ceftazidime’s narrower focus can be an advantage by sparing the broader microbiome and lowering the selection pressure for new forms of resistance. I often see stewardship teams debate these trade-offs, making fine decisions about rotation strategies, sparing last-line antibiotics wherever possible.
In my experience collaborating with microbiologists, no drug survives on its spectrum alone. The dihydrochloride model of ceftazidime secures a key role in protocols where sodium content, preparation speed, and reliability tip the balance. Emergency departments and ICUs may see subtle improvements in workflow efficiency and drug administration safety. This seems minor compared to headline-grabbing breakthroughs, but in healthcare, incremental gains often add up to real changes in patient survival and recovery times.
From a daily workflow angle, ceftazidime’s ease of reconstitution stands out. Pharmacy technicians working under pressure appreciate the quick dissolution and compatibility with common intravenous fluids. Over ten years, I have seen how medication errors can drop when staff are familiar with a formulation’s characteristics. Even simple factors like clear labeling, rapid dissolving, and lack of visible particulate matter make real-world delivery smoother. Mistakes don’t just harm patients; they tie up emergency teams in paperwork and reports, sapping resources from direct care.
Storage is another concern often overlooked by outsiders. Hospitals wrestle with limited refrigerator space and variable patient demand. Ceftazidime dihydrochloride keeps well in standard medicine cabinets under room temperature, sometimes lasting for years unopened. Stable shelf-life supports both urban teaching centers and remote clinics, where supply shipments can be infrequent. On humanitarian missions abroad, I have personally relied on drug kits including ceftazidime after other options had expired or become degraded by heat. Choosing a drug that holds up through logistical problems solves many headaches before they begin.
Antibiotic stewardship remains a core principle of responsible medicine. Watching resistance patterns shift year by year, it feels strange to realize how fragile old assumptions have become. Ceftazidime’s role keeps evolving as new resistance genes emerge. Many laboratories now test for extended-spectrum beta-lactamases and metallo-beta-lactamases that can thwart cephalosporins. I have seen frustrated teams lose ground against sudden outbreaks, only to pivot quickly as new surveillance data prompts immediate practice changes.
Through these cycles, ceftazidime maintains value in targeted situations where resistance profiles justify its use. In multidisciplinary infection meetings, clinical teams compare not just published studies, but also hospital-specific antibiograms — yearly summaries of what bacteria look like locally, and what works best. In many settings, including my own, ceftazidime dihydrochloride surfaces as a workhorse for challenging cases, often second only to carbapenems, with a much better safety and cost profile.
No amount of data substitutes for the seasoned judgment of clinicians who have managed hundreds of infection cases. One of my mentors, a veteran infectious disease physician, always stressed the practical side of antibiotic choice. For ceftazidime dihydrochloride, this means weighing risks of cross-resistance, double-checking compatibility with other infusions, and adjusting quickly as laboratory results develop. Years of experience taught us not to rely on a single product — yet ceftazidime consistently earns a place near the frontline in protocols dealing with ventilator-associated pneumonia, neutropenic sepsis, and hospital-acquired urinary infections.
In real-world rounds, learning from pharmacists and nurses, I’ve seen how antimicrobial switch protocols save lives and resources alike. Cephalosporin non-allergenic status carries real clinical implications in complex patients on polypharmacy regimens. Dealing with immunosuppressed populations, like transplant recipients or oncology patients, ceftazidime’s ability to minimize drug interactions gives it an edge. Days are long in critical care, and the tools that simplify monitoring and reduce adverse incidents remain invaluable for exhausted teams.
The biggest picture stretches beyond the busy corridors of major hospitals. Global antibiotic demand has exploded, driven not only by hospitals, but by urgent needs in clinics, rural settings, and disaster relief missions. I have watched small health centers in developing regions struggle with inconsistent supply chains and poor refrigeration. Products like ceftazidime dihydrochloride bridge those gaps, supporting predictable care even in unstable environments.
Doctors without access to every possible resource often rely on flexible, shelf-stable antibiotics that do not require exacting storage conditions. Ceftazidime dihydrochloride often finds a place in medical kits intended for emergency response. Its formulation supports rapid scaling up of care for outbreaks, mass casualty events, or field hospitals. Every dose delivered accurately means another life protected against deadly sepsis or complications of untreated infection.
The world faces a future with both terrifying superbugs and unprecedented tools for clinical care. Studies show that Pseudomonas aeruginosa, a common culprit in ventilator-associated pneumonia and complicated infections, already displays resistance to multiple drug classes. Choosing ceftazidime dihydrochloride is not about nostalgia for older medicines, but about safeguarding flexibility. No single drug suffices, and innovation sits in using every available option responsibly.
In my career, I have seen stewardship programs shift from chasing every new antibiotic to protecting the ones that work right now. Investment in supply chain reliability and ongoing drug development still matter, yet a solidly manufactured ceftazidime dihydrochloride product solves concrete problems for real patients. This is not a theoretical advantage — it is a daily reality for nurses, physicians, and pharmacists balancing urgency and caution at every bedside.
Improving infection outcomes means more than developing new drugs. It means supporting products like ceftazidime dihydrochloride that integrate well with hospital routines and adapt to a broad range of clinical situations. Standardized dosing and stable packaging empower everyone from junior doctors to experienced pharmacists. Real teamwork shows in the daily grind — checking for compatibility with local protocols, watching renal function closely, and documenting any adverse reactions. Open communication and shared experience build safer, more responsive care.
Adding new layers of hospital oversight helps reduce overuse while still keeping access open. Many institutions now require review by senior infectious disease consultants before using advanced antibiotics, with real-time culture and sensitivity data guiding every choice. Ceftazidime dihydrochloride’s specific uses stand out because it does a difficult job well without overreaching, making it a trusted component as opposed to a last-resort gamble.
In the end, the future of infection management depends on pursuing reliable, proven tools while experimenting thoughtfully with new approaches. Supporting staff education, real-time laboratory surveillance, and transparent reporting allows every patient — from bustling metropolitan hospitals to remote communities — to benefit. Amid uncertainty, familiarity and performance still matter. Ceftazidime dihydrochloride keeps earning its place through qualities that seem simple, but make a profound difference in the reality of modern medicine.