Interactions between Ceftizoxime and Cidomycin
1 drug interaction and 19 additional warnings found for the following 2 drugs:
- ceftizoxime
- Cidomycin (gentamicin)
Drug interactions
Moderate drug interactions
Moderate:
ceftizoxime gentamicin
Applies to: ceftizoxime and Cidomycin (gentamicin)
Monitor
Coadministration of aminoglycosides and cephalosporins may increase the risk of nephrotoxicity. Aminoglycosides are potentially nephrotoxic; therefore, concomitant use with other nephrotoxic agents may result in additive effects. An increased incidence of nephrotoxicity has been reported during concomitant use of aminoglycosides and some cephalosporins. The risk may be greatest in the elderly or in patients with preexisting renal impairment, when large doses are used, and during prolonged treatment. However, some studies have reported no adverse interaction between certain combinations of these agents.
Adjust dosing interval
Concomitant use of beta-lactam-type antibiotics, including cephalosporins, with aminoglycosides may lead to mutual inactivation, particularly during intravenous (IV) coadministration. The proposed mechanism for this inactivation involves the opening of the beta-lactam ring, allowing the beta-lactam and the amino group from the aminoglycoside to form a biologically inactive amide. In vitro and limited in vivo data suggest that inactivation can occur with administration via the same route, either concurrently or in close succession. For example, when tobramycin (IV over 3-5 minutes) was followed immediately by ticarcillin (IV infusion over 20-30 minutes) in healthy cystic fibrosis patients with normal renal function (n=18), serum tobramycin concentrations decreased by 11%. However, authors concluded this was of minor clinical significance. In vivo, aminoglycoside inactivation has been shown to be clinically significant only in patients with severe renal impairment, as they maintain a higher level of the beta-lactam over a longer period. Other supporting evidence is largely limited to in vitro compatibility studies and IV coadministration; data for same-route use (e.g., oral) other than the IV route are unavailable. The risk also varies by the specific agents used, and/or the interval between administrations. This inactivation is theorized to affect the aminoglycoside to a greater extent than the beta-lactam and has not been observed to be clinically significant in patients with normal renal function, or when the agents are administered via separate routes (e.g., IV, oral, inhalation). However, data are conflicting, limited to small studies, and not available for all aminoglycoside and beta-lactam combinations.
Management
When concurrent use of an aminoglycoside and a cephalosporin is necessary, additional monitoring of renal function, and administering the agents separately is advised. This is particularly important for patients with renal failure, or those receiving both agents intravenously. While no consensus exists on the exact timing of separation, some manufacturers recommend staggering the administration of each drug by several hours. Additionally, when the agents are administered too closely together, inaccurate aminoglycoside readings are possible, as the inactivation from the cephalosporin may occur in specimen(s) collected for assay. Renal function and aminoglycoside levels should also be more closely monitored, particularly in the elderly or in patients with preexisting renal impairment. While the dosing interval may not need to be adjusted when the cephalosporin and aminoglycoside are given via separate routes, closer monitoring should be considered due to potential systemic absorption. Individual product labeling for the aminoglycoside and cephalosporin should be consulted for further guidance.
References (46)
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- Aronoff GR, Brier RA, Sloan RS, Brier ME (1990) "Interactions of ceftazidime and tobramycin in patients with normal and impaired renal function." Antimicrob Agents Chemother, 34, p. 1139-42
- Wade J, Smith C, Petty B, et al. (1978) "Nephrotoxicity of gentamicin or tobramycin with methicillin or cephalothin." Curr Chem, 2, p. 971-2
- Plager JE (1976) "Association of renal injury with combined cephalothin-gentamicin therapy among patients severely ill with malignant disease." Cancer, 37, p. 1937-43
- Schultze RG, Winters RE, Kauffman H (1971) "Possible nephrotoxicity of gentamicin." J Infect Dis, 124, s145-7
- Kleinknecht D, Ganeval D, Droz D (1973) "Acute renal failure after high doses of gentamicin and cephalothin." Lancet, 1, p. 1129
- Dellinger P, Murphy T, Barza M, et al. (1976) "Effect of cephalothin on renal cortical concentrations of gentamicin in rats." Antimicrob Agents Chemother, 9, p. 587-8
- Fanning WL, Gump D, Jick H (1976) "Gentamicin and cephalothin-associated rises in blood urea nitrogen." Antimicrob Agents Chemother, 10, p. 80-2
- Yasuhara H, Kobayashi S, Sakamoto K, Kamijo K (1982) "Pharmacokinetics of amikacin and cephalothin in bedridden elderly patients." J Clin Pharmacol, 22, p. 403-9
- Barbhaiya RH, Knupp CA, Pfeffer M, Pittman KA (1992) "Lack of pharmacokinetic interaction between cefepime and amikacin in humans." Antimicrob Agents Chemother, 36, p. 1382-6
- Schentag JJ, Cerra FB, Plaut ME (1982) "Clinical and pharmacokinetic characteristics of aminoglycoside nephrotoxicity in 201 critically ill patients." Antimicrob Agents Chemother, 21, p. 721-6
- Krcmery V, Fuchsberger P, Gocar M, et al. (1991) "Nephrotoxicity of aminoglycosides, polypeptides and cephalosporins in cancer patients." Chemotherapy, 37, p. 287-91
- Kabins SA, Cohen S (1964) "Cephalothin serum levels in the azotemic patient." Antimicrob Agents Chemother, 10, p. 207-14
- Klastersky J, Hensgens C, Debusscher L (1975) "Empiric therapy for cancer patients: comparative study of ticarcillin-tobramycin, ticarcillin-cephalothin, and cephalothin-tobramycin." Antimicrob Agents Chemother, 7, p. 640-5
- Pasternak DP, Stephens BG (1975) "Reversible nephrotoxicity associated with cephalothin therapy." Arch Intern Med, 135, p. 599-602
- Fanning WL, Gump D, Jick H (1976) "Gentamicin- and cephalothin-associated rises in blood urea nitrogen." Antimicrob Agents Chemother, 10, p. 80-2
- Gonzalez-Vitale JC, hayes DM, Cvitkovic E, Sternberg SS (1978) "Acute renal failure after cis-Dichlorodiammineplatinum (II) and gentamicin-cephalothin therapies." Cancer Treat Rep, 62, p. 693-8
- Kleinknecht D, Ganeval D, Droz D (1973) "Acute renal failure after high doses of gentamicin and cephalothin." Lancet, 05/19/73, p. 1129
- Cockram CS, Richards P, Bax RP (1980) "The safety of cefuroxime and gentamicin in patients with reduced renal function." Curr Med Res Opin, 6, p. 398-403
- Sanders WE, Jr Johnson JE, 3d Taggart JG (1974) "Adverse reactions to cephalothin and cephapirin. Uniform occurrence on prolonged intravenous administration of high doses." N Engl J Med, 290, p. 424-9
- Hansen MM, Kaaber K (1977) "Nephrotoxicity in combined cephalothin and gentamicin therapy." Acta Med Scand, 201, p. 463-7
- Engle JE, Drago J, Carlin B, Schoolwerth AC (1975) "Letter: Reversible acute renal failure after cephalothin." Ann Intern Med, 83, p. 232-3
- Cabanillas F, Burgos RC, Rodriguez C, Baldizon C (1975) "Nephrotoxicity of combined cephalothin-gentamicin regimen." Arch Intern Med, 135, p. 850-2
- Carling PC, Idelson BA, Casano AA, Alexander EA, McCabe WR (1975) "Nephrotoxicity associated with cephalothin administration." Arch Intern Med, 135, p. 797-801
- Fillastre JP, Laumonier R, Humbert G, et al. (1973) "Acute renal failure associated with combined gentamicin and cephalothin therapy." Br Med J, 2, p. 396-7
- Schwartz JH, Schein P (1978) "Fanconi syndrome associated with cephalothin and gentamicin therapy." Cancer, 41, p. 769-72
- Bobrow SN, Jaffe E, Young RC (1972) "Anuria and acute tubular necrosis associated with gentamicin and cephalothin." JAMA, 222, p. 1546-7
- Tvedegaard E (1976) "Letter: Interaction between gentamicin and cephalothin as cause of acute renal failure." Lancet, 2, p. 581
- Tobias JS, Whitehouse JM, Wrigley PF (1976) "Letter: Severe renal dysfunction after tobramycin/cephalothin therapy." Lancet, 1, p. 425
- Pickering MJ, Spooner GR, Quesada A, de Cade JR (1970) "Declining renal function associated with administration of cephalothin." South Med J, 63, p. 426-8
- Gurwich EL, Sula J, Hoy RH (1978) "Gentamicin-cephalothin drug reaction." Am J Hosp Pharm, 35, p. 1402-3
- Foord RD (1975) "Cephaloridine, cephalothin and the kidney." J Antimicrob Chemother, 1, p. 119-33
- Wade JC, Smith CR, Petty BG, et al. (1978) "Cephalothin plus an aminoglycoside is more nephrotoxic than methicillin plus an aminoglycoside." Lancet, 2, p. 604-6
- (2001) "Product Information. Mycifradin (neomycin)." Emerson Laboratories
- Trollfors B, Alestig K, Rodjer S, Sandberg T, Westin J (1983) "Renal function in patients treated with tobramycin-cefuroxime or tobramycin-penicillin G." J Antimicrob Chemother, 12, p. 641-5
- Agencia Española de Medicamentos y Productos Sanitarios Healthcare (2008) Centro de información online de medicamentos de la AEMPS - CIMA. https://cima.aemps.es/cima/publico/home.html
- (1973) "Renal failure in combined gentamicin and cephalothin therapy." Br Med J, 2, p. 776-7
- (2018) "Product Information. Arikayce (amikacin liposome)." Insmed Incorporated
- (2024) "Product Information. Amikacin Sulfate (amikacin)." Hikma USA (formerly West-Ward Pharmaceutical Corporation)
- (2023) "Product Information. Amikacin (SXP) (amikacin)." Southern Cross Pharma Pty Ltd
- (2025) "Product Information. Tobramycin (tobramycin)." Northstar Rx LLC
- (2023) "Product Information. Gentamicin Sulfate, Injectable (gentamicin)." Fresenius Kabi USA, LLC, v2
- Tindula RJ, Ambrose PJ, Harralson AF (2025) Aminoglycoside inactivation by penicillins and cephalosporins and its impact on drug-level monitoring https://pubmed.ncbi.nlm.nih.gov/6653408/
- Riff LJ, thomason jl (2025) Comparative aminoglycoside inactivation by beta-lactam antibiotics. Effects of a cephalosporin and six penicillins on five aminoglycosides https://pubmed.ncbi.nlm.nih.gov/7174538/
- Giamarellou H, mavroudis k, Petrikkos G, Zissis N (2025) In vitro and in vivo interactions of recent cephalosporins with gentamicin and amikacin https://pubmed.ncbi.nlm.nih.gov/6529775/
- roberts gw, Nation RL, Jarvinen AO, Martin AJ (2025) An in vivo assessment of the tobramycin/ticarcillin interaction in cystic fibrosis patients. https://pmc.ncbi.nlm.nih.gov/articles/PMC1364694/#:~:text=Abstract,exclude%20concurrent%20use%20of%20ticarcillin
Food/lifestyle interactions
No alcohol/food interactions were found. However, this does not necessarily mean no interactions exist. Always consult your healthcare provider.
Disease interactions
19 potential interactions Applies to: 18 conditions, including High Blood Pressure, Heart Failure, Seizures, Diarrhea, and Tinnitus.
Botulism
Major:
Cidomycin
The gentamicin in Cidomycin has a major potential interaction with Botulism.
Therapy with aminoglycosides should be administered cautiously in patients with neuromuscular disorders (e.g., myasthenia gravis, parkinsonian syndrome, botulism) or hypocalcemia. Aminoglycosides can aggravate muscle weakness because of their potential curare-like effects on the neuromuscular junction, and may cause neuromuscular blockade, respiratory failure, and prolonged respiratory paralysis on these patients. Aminoglycoside- induced neuromuscular blockade is generally self-limiting, it may rarely result in respiratory paralysis. Neomycin is thought to be the most potent neuromuscular blocking agent in the class. However, the risk is greatest with intraperitoneal or intrapleural instillation of large doses or rapid intravenous administration of parenteral aminoglycosides. If signs of respiratory paralysis occur during aminoglycoside therapy, the drug should be discontinued and mechanical respiratory assistance provided if necessary.
Dehydration
Major:
Cidomycin
The gentamicin in Cidomycin has a major potential interaction with Dehydration.
Adequate hydration is crucial to minimize the risk of oto- and nephrotoxicity associated with the use of aminoglycosides. Dehydration should preferably be corrected prior to initiation of therapy. In patients who may be at risk for dehydration, such as those with severe and/or prolonged diarrhea or vomiting, fluid status should be monitored closely. If signs of renal irritation develop during therapy, hydration should be increased as indicated, accompanied by a reduction in dosage if necessary. Therapy should be withdrawn if urinary output decreases progressively or azotemia increases.
Diarrhea
Major:
Cidomycin
The gentamicin in Cidomycin has a major potential interaction with Diarrhea.
Adequate hydration is crucial to minimize the risk of oto- and nephrotoxicity associated with the use of aminoglycosides. Dehydration should preferably be corrected prior to initiation of therapy. In patients who may be at risk for dehydration, such as those with severe and/or prolonged diarrhea or vomiting, fluid status should be monitored closely. If signs of renal irritation develop during therapy, hydration should be increased as indicated, accompanied by a reduction in dosage if necessary. Therapy should be withdrawn if urinary output decreases progressively or azotemia increases.
Fluid Retention
Moderate:
ceftizoxime
Ceftizoxime has a moderate potential interaction with Fluid Retention.
Parenteral ceftizoxime sodium contains approximately 60 mg (2.6 mEq) of sodium per each gram of ceftizoxime activity. The sodium content should be considered in patients with conditions that may require sodium restriction, such as congestive heart failure, hypertension, and fluid retention.
Hearing Loss
Major:
Cidomycin
The gentamicin in Cidomycin has a major potential interaction with Hearing Loss.
Aminoglycosides can cause eighth cranial nerve damage, resulting in vestibular and/or auditory toxicities. Symptoms include dizziness, nystagmus, vertigo, ataxia, tinnitus, and varying degrees of hearing impairment. Permanent hearing loss may occur, including, rarely, total or partial irreversible bilateral deafness after the drug has been discontinued. Therapy with aminoglycosides, particularly if prolonged (> 10 days), should be administered cautiously in patients with preexisting vestibular and/or auditory impairment, since it may delay the recognition or confound the diagnosis of a drug-induced ototoxic effect. To minimize the risk of toxicity, patients should be adequately hydrated, the usual aminoglycoside dosage should not be exceeded, use with other ototoxic agents should be avoided, and peak and trough serum aminoglycoside concentrations should be periodically determined and dosage adjusted to maintain desired levels. Serial audiograms should be obtained in patients old enough to be tested, since loss of high- frequency perception usually precedes clinical hearing loss. The dosage should be reduced or therapy withdrawn promptly if signs and symptoms of toxicity develop.
Heart Failure
Moderate:
ceftizoxime
Ceftizoxime has a moderate potential interaction with Heart Failure.
Parenteral ceftizoxime sodium contains approximately 60 mg (2.6 mEq) of sodium per each gram of ceftizoxime activity. The sodium content should be considered in patients with conditions that may require sodium restriction, such as congestive heart failure, hypertension, and fluid retention.
Hemodialysis
Moderate:
ceftizoxime
Ceftizoxime has a moderate potential interaction with Hemodialysis.
Most cephalosporin antibiotics are removed by hemodialysis. Doses should either be scheduled for administration after dialysis or supplemental doses be given after dialysis. Cefonicid, cefixime, and ceftriaxone are not significantly removed by hemodialysis.
High Blood Pressure
Moderate:
ceftizoxime
Ceftizoxime has a moderate potential interaction with High Blood Pressure.
Parenteral ceftizoxime sodium contains approximately 60 mg (2.6 mEq) of sodium per each gram of ceftizoxime activity. The sodium content should be considered in patients with conditions that may require sodium restriction, such as congestive heart failure, hypertension, and fluid retention.
Hypernatremia
Moderate:
ceftizoxime
Ceftizoxime has a moderate potential interaction with Hypernatremia.
Parenteral ceftizoxime sodium contains approximately 60 mg (2.6 mEq) of sodium per each gram of ceftizoxime activity. The sodium content should be considered in patients with conditions that may require sodium restriction, such as congestive heart failure, hypertension, and fluid retention.
Hypocalcemia
Major:
Cidomycin
The gentamicin in Cidomycin has a major potential interaction with Hypocalcemia.
Therapy with aminoglycosides should be administered cautiously in patients with neuromuscular disorders (e.g., myasthenia gravis, parkinsonian syndrome, botulism) or hypocalcemia. Aminoglycosides can aggravate muscle weakness because of their potential curare-like effects on the neuromuscular junction, and may cause neuromuscular blockade, respiratory failure, and prolonged respiratory paralysis on these patients. Aminoglycoside- induced neuromuscular blockade is generally self-limiting, it may rarely result in respiratory paralysis. Neomycin is thought to be the most potent neuromuscular blocking agent in the class. However, the risk is greatest with intraperitoneal or intrapleural instillation of large doses or rapid intravenous administration of parenteral aminoglycosides. If signs of respiratory paralysis occur during aminoglycoside therapy, the drug should be discontinued and mechanical respiratory assistance provided if necessary.
Liver Disease
Moderate:
ceftizoxime
Ceftizoxime has a moderate potential interaction with Liver Disease.
Cases of hepatitis have been reported with the use of certain cephalosporins. Transient rise in AST, ALT, and alkaline phosphatase levels have also been observed. Caution and monitoring are recommended when these agents are prescribed to patients with hepatic disorders.
Myoneural Disorder
Major:
Cidomycin
The gentamicin in Cidomycin has a major potential interaction with Myoneural Disorder.
Therapy with aminoglycosides should be administered cautiously in patients with neuromuscular disorders (e.g., myasthenia gravis, parkinsonian syndrome, botulism) or hypocalcemia. Aminoglycosides can aggravate muscle weakness because of their potential curare-like effects on the neuromuscular junction, and may cause neuromuscular blockade, respiratory failure, and prolonged respiratory paralysis on these patients. Aminoglycoside- induced neuromuscular blockade is generally self-limiting, it may rarely result in respiratory paralysis. Neomycin is thought to be the most potent neuromuscular blocking agent in the class. However, the risk is greatest with intraperitoneal or intrapleural instillation of large doses or rapid intravenous administration of parenteral aminoglycosides. If signs of respiratory paralysis occur during aminoglycoside therapy, the drug should be discontinued and mechanical respiratory assistance provided if necessary.
Noninfectious Colitis
Major:
ceftizoxime
Ceftizoxime has a major potential interaction with Noninfectious Colitis.
Clostridioides difficile-associated diarrhea (CDAD), formerly pseudomembranous colitis, has been reported with almost all antibacterial drugs and may range from mild diarrhea to fatal colitis. The most common culprits include clindamycin and lincomycin. Antibacterial therapy alters the normal flora of the colon, leading to overgrowth of C difficile, whose toxins A and B contribute to CDAD development. Morbidity and mortality are increased with hypertoxin-producing strains of C difficile; these infections can be resistant to antimicrobial therapy and may require colectomy. CDAD must be considered in all patients who present with diarrhea after antibacterial use. Since CDAD has been reported to occur more than 2 months after antibacterial use, careful medical history is necessary. Therapy with broad-spectrum antibacterials and other agents with significant antibacterial activity should be administered cautiously in patients with history of gastrointestinal disease, particularly colitis; pseudomembranous colitis (generally characterized by severe, persistent diarrhea and severe abdominal cramps, and sometimes associated with the passage of blood and mucus), if it occurs, may be more severe in these patients and may be associated with flares in underlying disease activity. Antibacterial drugs not directed against C difficile may need to be stopped if CDAD is suspected or confirmed. Appropriate fluid and electrolyte management, protein supplementation, antibacterial treatment of C difficile, and surgical evaluation should be started as clinically indicated.
Parkinsonism
Major:
Cidomycin
The gentamicin in Cidomycin has a major potential interaction with Parkinsonism.
Therapy with aminoglycosides should be administered cautiously in patients with neuromuscular disorders (e.g., myasthenia gravis, parkinsonian syndrome, botulism) or hypocalcemia. Aminoglycosides can aggravate muscle weakness because of their potential curare-like effects on the neuromuscular junction, and may cause neuromuscular blockade, respiratory failure, and prolonged respiratory paralysis on these patients. Aminoglycoside- induced neuromuscular blockade is generally self-limiting, it may rarely result in respiratory paralysis. Neomycin is thought to be the most potent neuromuscular blocking agent in the class. However, the risk is greatest with intraperitoneal or intrapleural instillation of large doses or rapid intravenous administration of parenteral aminoglycosides. If signs of respiratory paralysis occur during aminoglycoside therapy, the drug should be discontinued and mechanical respiratory assistance provided if necessary.
Renal Dysfunction
Major:
Cidomycin
The gentamicin in Cidomycin has a major potential interaction with Renal Dysfunction.
Aminoglycosides are potentially oto- and nephrotoxic. Eighth cranial nerve damage may manifest as vestibular and/or auditory toxicities, including dizziness, nystagmus, vertigo, ataxia, tinnitus, and varying degrees of hearing impairment. Nephrotoxicity is usually evidenced by tubular necrosis; increases in BUN, nonprotein nitrogen, and serum creatinine concentration; decreases in urine specific gravity and creatinine clearance; proteinuria; and cells or casts in the urine. Rarely, renal electrolyte wasting may occur, resulting in hypocalcemia, hypomagnesemia, and hypokalemia that may be associated with paresthesia, tetany, confusion, and positive Chvostek and Trousseau signs. Although aminoglycoside- induced nephrotoxicity is generally reversible following discontinuation of the drug, death from uremia has occurred rarely. Therapy with aminoglycosides should be administered cautiously at reduced dosages in patients with renal impairment, since they may be at increased risk for oto- and nephrotoxicity due to drug accumulation. To minimize the risk of toxicity, patients should be adequately hydrated, the usual aminoglycoside dosage should not be exceeded, use with other neuro- and nephrotoxic agents should be avoided, and peak and trough serum aminoglycoside concentrations should be periodically determined and dosage adjusted to maintain desired levels. Renal and eighth cranial nerve function should be closely monitored, and the dosage reduced or therapy withdrawn if toxicity develops.
Moderate:
ceftizoxime
Ceftizoxime has a moderate potential interaction with Renal Dysfunction.
Most beta-lactam antibacterial agents are eliminated by the kidney as unchanged drug and, in some cases, also as metabolites. The serum concentrations of beta-lactam antibacterial agents and their metabolites may be increased, and the half-lives prolonged, in patients with impaired renal function. Neurotoxic reactions (e.g., encephalopathy, aphasia, asterixis, myoclonus, seizures, nonconvulsive status epilepticus, coma) have been reported in such patients treated parenterally with these agents. Dosage adjustments may be necessary, and modifications should be based on the degree of renal dysfunction as well as severity of infection in accordance with the individual manufacturer product information. Renal function tests should be performed periodically during prolonged and/or high-dose therapy since nephrotoxicity and alterations in renal function have occasionally been associated with the use of these drugs.
Seizures
Moderate:
ceftizoxime
Ceftizoxime has a moderate potential interaction with Seizures.
Cephalosporins have been implicated in triggering seizures. Nonconvulsive status epilepticus, encephalopathy, coma, asterixis, neuromuscular excitability, and myoclonia have been reported with cephalosporins, particularly in patients with a history of epilepsy and/or when recommended dosages of cephalosporins were exceeded due to renal dysfunction. Dosage should be adjusted based on the degree of renal function. Anticonvulsant therapy should be continued in patients with known seizure disorders. If CNS adverse reactions including seizures occur, patients should undergo a neurological evaluation to determine whether treatment should be discontinued.
Tinnitus
Major:
Cidomycin
The gentamicin in Cidomycin has a major potential interaction with Tinnitus.
Aminoglycosides can cause eighth cranial nerve damage, resulting in vestibular and/or auditory toxicities. Symptoms include dizziness, nystagmus, vertigo, ataxia, tinnitus, and varying degrees of hearing impairment. Permanent hearing loss may occur, including, rarely, total or partial irreversible bilateral deafness after the drug has been discontinued. Therapy with aminoglycosides, particularly if prolonged (> 10 days), should be administered cautiously in patients with preexisting vestibular and/or auditory impairment, since it may delay the recognition or confound the diagnosis of a drug-induced ototoxic effect. To minimize the risk of toxicity, patients should be adequately hydrated, the usual aminoglycoside dosage should not be exceeded, use with other ototoxic agents should be avoided, and peak and trough serum aminoglycoside concentrations should be periodically determined and dosage adjusted to maintain desired levels. Serial audiograms should be obtained in patients old enough to be tested, since loss of high- frequency perception usually precedes clinical hearing loss. The dosage should be reduced or therapy withdrawn promptly if signs and symptoms of toxicity develop.
Vomiting
Major:
Cidomycin
The gentamicin in Cidomycin has a major potential interaction with Vomiting.
Adequate hydration is crucial to minimize the risk of oto- and nephrotoxicity associated with the use of aminoglycosides. Dehydration should preferably be corrected prior to initiation of therapy. In patients who may be at risk for dehydration, such as those with severe and/or prolonged diarrhea or vomiting, fluid status should be monitored closely. If signs of renal irritation develop during therapy, hydration should be increased as indicated, accompanied by a reduction in dosage if necessary. Therapy should be withdrawn if urinary output decreases progressively or azotemia increases.
More resources
ceftizoxime
A total of 49 drugs are known to interact with ceftizoxime.
- Ceftizoxime is in the drug class third generation cephalosporins.
-
Ceftizoxime is used to treat the following conditions:
- Bacteremia
- Bladder Infection
- Bone infection
- Epiglottitis
- Gonococcal Infection, Disseminated
- Gonococcal Infection, Uncomplicated
- Intraabdominal Infection
- Joint Infection
- Kidney Infections
- Meningitis
- Pelvic Inflammatory Disease
- Peritonitis
- Pneumonia
- Skin or Soft Tissue Infection
- Urinary Tract Infection
Cidomycin
A total of 226 drugs are known to interact with Cidomycin.
- Cidomycin is in the drug class aminoglycosides.
-
Cidomycin is used to treat the following conditions:
- Bacteremia
- Bacterial Endocarditis Prevention
- Bacterial Infection
- Bone infection
- Brucellosis
- Burns, External
- Cystic Fibrosis
- Endocarditis
- Endometritis
- Febrile Neutropenia
- Intraabdominal Infection
- Kidney Infections
- Meningitis
- Pelvic Inflammatory Disease
- Peritonitis
- Plague
- Pneumonia
- Rabbit Fever
- Skin or Soft Tissue Infection
- Surgical Prophylaxis
Drug Interaction Classification
| Highly clinically significant. Avoid combinations; the risk of the interaction outweighs the benefit. | |
| Moderately clinically significant. Usually avoid combinations; use it only under special circumstances. | |
| Minimally clinically significant. Minimize risk; assess risk and consider an alternative drug, take steps to circumvent the interaction risk and/or institute a monitoring plan. | |
| No interaction information available. |
Further information
Always consult your healthcare provider to ensure the information displayed on this page applies to your personal circumstances.