Big Chemical Encyclopedia

Chemical substances, components, reactions, process design ...

Articles Figures Tables About

Acute renal

Inflammatory and immune diseases Autoimmune disease (A,I), asthma (A), osteoarthritis (I), rheumatoid arthritis (I), septic shock (A,I), infections (A,I), familial cold auto-inflammatory syndrome (I), Muckle Wells syndrome (I), chronic infantile neurological cutaneous and articular syndrome/neonatal onset multisystemic inflammatory disease (CINCA/NOMID) (I), Crohn s disease (I), gout (I), acute renal failure (A,l)... [Pg.332]

Renal—hematuria, cystitis, elevated blood urea nitrogen, polyuria, dysuria, oliguria, and acute renal failure in those with impaired renal function... [Pg.162]

HMG-CoA REDUCTASE INHIBITORS AND FlBRIC ACID DERIVATIVES. The antihyperlipidemic drugp, particularly die HMG-CoA reductase inhibitors, have been associated with skeletal muscle effects leading to rhab-domyolysis. Rhabdomyolysis is a very rare condition in which muscle damage results in die release of muscle cell contents into die bloodstream. Rhabdomyolysis may precipitate renal dysfunction or acute renal failure The nurse is alert for unexplained muscle pain, muscle tenderness, or weakness, especially if tiiey are accompanied by malaise or fever. These symptoms should be reported to die primary health care provider because the drug may be discontinued. [Pg.413]

Mannitol (Osmitrol) is used for the promotion of diuresis in the prevention and treatment of the oliguric phase of acute renal failure as well as for the reduction of IOP and the treatment of cerebral edema Urea (Ureaphil) is useful in reducing cerebral edema and in die reduction of IOE Glycerin (Osmoglyn) and isosorbide (Ismotic) are used in the treatment of acute glaucoma and to reduce IOP before and after eye surgery. [Pg.447]

There is a risk of acute renal failure when iodi-nated contrast material that is used for radiological studies is administered with metformin. Metformin therapy is stopped for 48 hours before and after radiological studies using iodinated material. Alcohol, amiloride, digoxin, morphine, procainamide, quini-dine, quinine ranitidine, triamterene, trimethoprim, vancomycin, cimetidine, and furosemide all increase the risk of hypoglycemia. There is an increased risk of lactic acidosis when metformin is administered with the glucocorticoids. [Pg.504]

Human immune globulin intravenous (IGIV) products have been associated with renal impairment, acute renal failure, osmotic nephros s and death. Individuals with a predication to acute renal failure, such as those with preexisting renal disease, diabetes mellitus individuals older than 65 years or patients receiving nephrotoxic drugs should not be given human IGIV products... [Pg.579]

Renal Effects. Hemorrhage of the medullary layer of the kidneys was reported in three persons who died following ingeshon of endosulfan (Terziev et al. 1974). Acute renal failure was a major contributor to the deaths of two individuals who ingested unknown amounts of endosulfan (Blanco-Coronado et al. 1992 Loetal. 1995). In both cases, postmortem examination revealed extensive tubular necrosis. In contrast, no kidney lesions were found in a man who died 4 days after ingesting approximately 260 mg endosulfan/kg (Boereboom et al. 1998). [Pg.86]

There are numerous abnormalities of cysteine metabolism. Cystine, lysine, arginine, and ornithine are excreted in cystine-lysinuria (cystinuria), a defect in renal reabsorption. Apart from cystine calculi, cystinuria is benign. The mixed disulfide of L-cysteine and L-homocysteine (Figure 30-9) excreted by cystinuric patients is more soluble than cystine and reduces formation of cystine calculi. Several metabolic defects result in vitamin Bg-responsive or -unresponsive ho-mocystinurias. Defective carrier-mediated transport of cystine results in cystinosis (cystine storage disease) with deposition of cystine crystals in tissues and early mortality from acute renal failure. Despite... [Pg.250]

Gutch CF, Tomhave WG, Stevens SC. 1965. Acute renal failure due to inhalation of trichloroethylene. AnnlntMed 63 128-134. [Pg.269]

O Brien KL et al. Epidemic of pediatric deaths from acute renal failure caused by diethylene glycol poisoning. Journal of the American Medical Association, 1998, 279(15) 175-78. [Pg.138]

Arnold, P.E., Lumlertgul, D., Burke, T.J. and Schrier, RW. (1985). In vitro vems in vivo mitochrondrial calcium loading in ischaemic acute renal failure. Am. J. Physiol. 248, F845-850. [Pg.93]

Paller, M.S., Hoidal, J.R. and Ferris, T.F. (1984). Oxygen free radicals in ischaemic acute renal failure in the rat. J. Clin. Invest. 74, 1156-1164. [Pg.95]

Acute renal failure, visual deficits, microangiopathic hemolytic anemia, and pre-eclampsia/eclampsia... [Pg.45]

Acute renal failure/microangiopathic hemolytic anemia o Drugs of choice—nicardipine, fenoldopam... [Pg.47]

Replace with 8-10 g albumin/L of ascitic fluid removed o Avoid large-volume paracentesis in patients with pre-existing hemodynamic compromise, acute renal insufficiency, active infection, or active upper gastrointestinal bleed. Cautious large-volume paracentesis in patients with tense... [Pg.112]

Besides hypotension, the most frequent adverse reaction to an ACE inhibitor is cough, which may occur in up to 30% of patients. Patients with an ACE inhibitor cough and either clinical signs of heart failure or LVEF less than 40% may be prescribed an ARB.3 Other, less common but more serious adverse effects to ACE inhibitors and ARBs include acute renal failure, hyperkalemia, and angioedema. [Pg.102]

Identify pharmacotherapeutic outcomes and endpoints of therapy in a patient with acute renal failure. [Pg.361]

Apply knowledge of the pathophysiology of acute renal failure to the development of a treatment plan. [Pg.361]

Develop strategies to minimize the occurrence of acute renal failure. [Pg.361]

O Equations to estimate creatinine clearance that incorporate a single creatinine concentration (e.g., Cockcroft-Gault) may underestimate or overestimate kidney function depending on whether acute renal failure is worsening or resolving. [Pg.361]

There is no evidence that supports drug therapy in hastening the recovery period, decreasing length of hospitalization, or improving survival in acute renal failure. [Pg.361]

Loop diuretics are the diuretics of choice for the management of volume overload in acute renal failure. [Pg.361]


See other pages where Acute renal is mentioned: [Pg.165]    [Pg.209]    [Pg.213]    [Pg.11]    [Pg.598]    [Pg.1181]    [Pg.204]    [Pg.444]    [Pg.581]    [Pg.199]    [Pg.47]    [Pg.80]    [Pg.83]    [Pg.45]    [Pg.259]    [Pg.87]    [Pg.157]    [Pg.159]    [Pg.221]    [Pg.25]    [Pg.199]    [Pg.339]    [Pg.361]   
See also in sourсe #XX -- [ Pg.11 , Pg.116 , Pg.132 ]




SEARCH



Acute renal failure

Acute renal failure acetazolamide

Acute renal failure amphetamine

Acute renal failure and

Acute renal failure calcitonin

Acute renal failure clinical relevance

Acute renal failure cocaine abuse

Acute renal failure cyclosporine nephrotox

Acute renal failure dextran

Acute renal failure gentamicin

Acute renal failure hemoglobinuric

Acute renal failure hyperphosphatemia

Acute renal failure indometacin

Acute renal failure injury

Acute renal failure interstitial nephritis and

Acute renal failure intravenous immunoglobulin

Acute renal failure manifestations

Acute renal failure manifestations/treatment

Acute renal failure mannitol

Acute renal failure mechanisms

Acute renal failure mercury exposure

Acute renal failure pentamidine

Acute renal failure phases

Acute renal failure rifampicin

Acute renal failure suicide attempt

Acute renal failure sulfonamides

Acute renal failure, drug metabolism

Acute renal injury

Adenine acute renal failure

Burns acute renal failure

Dialysis acute renal failure

Dialysis in acute renal failure

Diazepam acute renal failure

Endocarditis acute renal failure

Exercise-induced acute renal failure (ALPE

Exercise-related acute renal failure

Furosemide acute renal failure

Glomerular filtration rate in acute renal failure

Glycerol-induced acute renal failure

Hemodialysis in acute renal failure

Hyperkalemia in acute renal failure

Hypermagnesemia in acute renal failure

In acute renal failure

Ischemic acute renal failure

Kidneys acute renal failure

Liver failure, acute renal impairment

Myoglobinuric acute renal failure

NSAIDs acute renal insufficiency

Non-myoglobinuric acute renal failure

Renal acute rejection

Renal failure, acute biopsy

Renal failure, acute classification

Renal failure, acute clinical presentation

Renal failure, acute creatinine clearance

Renal failure, acute definition

Renal failure, acute diagnosis

Renal failure, acute drug-induced

Renal failure, acute electrolyte balance

Renal failure, acute epidemiology

Renal failure, acute etiology

Renal failure, acute fluid balance

Renal failure, acute functional

Renal failure, acute hyperglycemia

Renal failure, acute hyperkalemia

Renal failure, acute hypocalcemia

Renal failure, acute intrinsic

Renal failure, acute laboratory tests

Renal failure, acute management

Renal failure, acute metabolic acidosis

Renal failure, acute monitoring

Renal failure, acute mortality from

Renal failure, acute outcomes

Renal failure, acute parenteral nutrition

Renal failure, acute pathophysiology

Renal failure, acute patient history

Renal failure, acute pharmacokinetics

Renal failure, acute postrenal

Renal failure, acute prerenal azotemia

Renal failure, acute prevention

Renal failure, acute risk factors

Renal failure, acute, causes

Renal failure, acute, treatment

Sepsis acute renal failure

Sodium in acute renal failure

Systemic lupus erythematosus acute renal failure

Torsemide in acute renal failure

Urinary system acute renal failure

© 2024 chempedia.info