Hyperglycemia drug-induced

Hyperglycemia drug-induced Hypertension treatment of Hypertensive emergencies treatment of Hypnotics... 

Toxicities are numerous and include nephrotoxicity, hypertension, hyperglycemia, liver dysfunction, hyperkalemia, altered mental status, seizures, and hirsutism. Cyclosporine causes very little bone marrow toxicity. While an increased incidence of lymphoma and other cancers (Kaposi s sarcoma, skin cancer) have been observed in transplant recipients receiving cyclosporine, other immunosuppressive agents may also predispose recipients to cancer. Some evidence suggests that tumors may arise after cyclosporine treatment because the drug induces TGF-B, which promotes tumor invasion and metastasis. 

Compared with previously available therapy, the adverse effects associated with cyclosporine are much less severe but still worthy of concern. Nephrotoxicity, which can occur in up to 75% of patients, ranges from severe tubular necrosis to chronic interstitial nephropathy. This effect is generally reversible with dosage reduction. Vasoconstriction appears to be an important aspect of cyclosporine-induced nephrotoxicity. Hypertension occurs in 25% of the patients and more frequently in patients with some degree of renal dysfunction the concomitant use of antihypertensive drugs may prove useful. Hyperglycemia, hyperlipidemia, transient liver dysfunction, and unwanted hair growth are also observed. 

Clinical trials of ARIs have yielded encouraging results in alleviating painful symptoms of diabetic complications. However, unacceptable side effects related to toxicity or inadequate pharmocokinetic profiles have rendered most of the drug candidates undesirable. Nevertheless, several ARIs are commercially available in some countries and more appear to be in the pipeline. The therapeutic rationale for treatment of human diabetics with ARIs to delay or prevent onset of diabetic complications is compelling. Animal models with experimentally induced hyperglycemia develop complications that are morphologically and functionally similar to that seen in the human diabetic patient. Many structurally... 

When a 45-year-old man with severe lithium-induced diabetes insipidus developed hyperosmolar, nonketotic hyperglycemia, it was suggested that poorly controlled diabetes mellitus may have contributed to the polyuria (684). Prior contact with a female patient who had developed hyperosmolar coma secondary to lithium-induced diabetes insipidus (685) allowed physicians 4 years later to treat her safely after a drug overdose and a surgical procedure, by avoiding intravenous replacement fluids with a high dextrose content (despite stopping lithium several years earlier, the patient continued to put out 10 liters of urine daily) (686). 

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