Safety of concomitant use has not been established and use is not recommended.
Source: NLP:raloxifene hydrochloride
65 interactions on record
Safety of concomitant use has not been established and use is not recommended.
Source: NLP:raloxifene hydrochloride
Other 5-HT1 agonists have additive vasospastic effects. Coadministration within 24 hours of rizatriptan benzoate is contraindicated.
Source: NLP:rizatriptan benzoate
Concomitant use with lenalidomide may increase the risk of thrombosis. Use with caution after benefit-risk assessment.
Source: NLP:lenalidomide
Estrogens produce hyperglycemia and may lead to loss of blood glucose control in patients receiving Acarbose. Close observation for loss of glucose control is recommended.
Source: NLP:acarbose
May decrease hepatic metabolism of certain corticosteroids, thereby increasing their effect.
Source: NLP:betamethasone sodium phosphate and betamethasone acetate
Increases risk of hypercalcemia when used concomitantly. Increase frequency of calcium concentration monitoring.
Source: NLP:calcium chloride
Concurrent administration may cause hypercalcemia. Monitor plasma calcium concentrations.
Source: NLP:calcium gluconate
Increases biliary cholesterol secretion and may counteract the effectiveness of chenodiol.
Source: NLP:chenodiol
Cholestyramine may delay or reduce the absorption of estrogens.
Source: NLP:cholestyramine
Cholestyramine may delay or reduce the absorption of estrogens.
Source: NLP:cholestyramine powder for suspension
Cholestyramine may delay or reduce absorption of estrogens.
Source: NLP:choleystyramine light
May elevate plasma total cortisol levels and affect test accuracy. Stop estrogen-containing drugs 4-6 weeks before COSYNTROPIN testing to allow cortisol binding globulin normalization.
Source: NLP:cosyntropin
Caution advised with concomitant use. Hepatotoxicity has occurred more often in women over 35 years receiving concurrent estrogen therapy.
Source: NLP:dantrolene sodium
Estrogens may decrease hepatic metabolism of certain corticosteroids, increasing their effect.
Source: NLP:depo-medrol, lidocaine, isopropyl alcohol
Estrogens may decrease hepatic metabolism of dexamethasone, thereby increasing its effect.
Source: NLP:dexamethasone
Estrogens may decrease hepatic metabolism of dexamethasone, thereby increasing its effect.
Source: NLP:dexamethasone intensol
May produce hyperglycemia and lead to loss of glycemic control; monitor closely.
Source: NLP:empagliflozin, metformin hydrochloride
Increased levels of corticosteroid-binding globulin increasing bound inactive fraction. May require reduction in corticosteroid dosage when initiated and increased amounts when terminated.
Source: NLP:fludrocortisone acetate
May increase phenytoin serum levels; monitoring of phenytoin levels recommended.
Source: NLP:fosphenytoin sodium
Estrogens may produce hyperglycemia and lead to loss of control of glyburide. Patients should be closely observed for loss of control.
Source: NLP:glyburide
May reduce glucose-lowering effect of glimepiride, leading to worsening glycemic control.
Source: NLP:glimepiride
Estrogens may produce hyperglycemia and lead to loss of glycemic control. Patient should be observed closely for loss of control when initiated or withdrawn.
Source: NLP:glipizide
Griseofulvin may enhance hepatic metabolism of estrogens, reducing effectiveness and causing menstrual irregularities. Alternate birth control may be indicated.
Source: NLP:griseofulvin
CYP inducing drugs increase activity of ALAS leading to induction of ALAS1 through feedback mechanism, counteracting PANHEMATIN therapy.
Source: NLP:hemin
Large doses of estrogens may require larger amounts of hyaluronidase for equivalent dispersing effect; these drugs render tissues partly resistant to hyaluronidase action.
Source: NLP:hyaluronidase
May increase serum cortisol-binding globulin, reducing hydrocortisone efficacy; may require dose increase.
Source: NLP:hydrocortisone
Estrogens may decrease hepatic metabolism of certain corticosteroids, thereby increasing their effect.
Source: NLP:hydrocortisone sodium succinate
May decrease blood glucose lowering effect. Dose adjustment and increased glucose monitoring may be required.
Source: NLP:insulin aspart
May decrease blood glucose lowering effect. Dose adjustment and increased glucose monitoring may be required.
Source: NLP:insulin aspart-szjj
May decrease blood glucose lowering effect. Dosage increases and increased glucose monitoring may be required.
Source: NLP:insulin degludec
May decrease blood glucose lowering effect of insulin glargine; dosage increases and increased glucose monitoring may be required.
Source: NLP:insulin glargine
May decrease blood glucose lowering effect. Dose adjustment and increased glucose monitoring may be required.
Source: NLP:insulin glulisine
May decrease blood glucose lowering effect; dose adjustment and increased glucose monitoring may be required.
Source: NLP:insulin human
May decrease the blood glucose lowering effect. Dose adjustment and increased frequency of glucose monitoring may be required.
Source: NLP:insulin lispro
May decrease blood glucose lowering effect. Dose increases and increased glucose monitoring may be required.
Source: NLP:insulin lispro-aabc
Mutual inhibition of effects; β-blockers should be used cautiously in hyperreactive airways patients, with preference for β1-selective agents.
Source: NLP:ipratropium bromide and albuterol sulfate
Estrogens increase serum thyroxine-binding globulin, potentially decreasing free levothyroxine. Patients without functioning thyroid gland may require increased thyroid dose.
Source: NLP:levothyroxine, liothyronine
May increase serum thyroxine-binding globulin concentration, resulting in initial transient increase in FT4 followed by decreased serum T4.
Source: NLP:levothyroxine sodium
Estrogens may produce hyperglycemia and lead to loss of glycemic control. Close monitoring of glycemic control is recommended.
Source: NLP:linagliptin and metformin hydrochloride
Oral estrogens may increase serum thyroxine-binding globulin concentration, altering T3 serum transport. Closely monitor thyroid hormone parameters.
Source: NLP:liothyronine sodium
Produce hyperglycemia and may lead to loss of glycemic control when used with metformin.
Source: NLP:metformin
May produce hyperglycemia and lead to loss of glycemic control. Monitor patient closely for loss of blood glucose control.
Source: NLP:metformin er 500 mg
Drugs that produce hyperglycemia and may lead to loss of glycemic control; monitor blood glucose.
Source: NLP:metformin hydrochloride
May produce hyperglycemia and lead to loss of glycemic control during metformin therapy; monitor blood glucose.
Source: NLP:metformin hydrochloride extended-release tablets
May produce hyperglycemia and lead to loss of glycemic control when used with metformin.
Source: NLP:metformin hydrochloride tablet
Estrogens may decrease hepatic metabolism of corticosteroids, thereby increasing their effect.
Source: NLP:methylprednisolone acetate
Estrogens may decrease the hepatic metabolism of certain corticosteroids, thereby increasing their effect.
Source: NLP:methylprednisolone sodium succinate
May increase phenytoin serum levels; monitoring of phenytoin levels recommended.
Source: NLP:extended phenytoin sodium
Delay and reduce absorption of prasugrel's active metabolite due to slowed gastric emptying. Consider parenteral antiplatelet agent alternative.
Source: NLP:prasugrel
Estrogens decrease hepatic metabolism of certain corticosteroids, increasing their effect.
Source: NLP:prednisolone sodium phosphate
Estrogens may decrease hepatic metabolism of corticosteroids, thereby increasing their effect.
Source: NLP:prednisone
Safety of concomitant use has not been established; concomitant use is not recommended.
Source: NLP:raloxifene
Rifampin decreases estrogen exposure. Advise patients to change to non-hormonal birth control methods during rifampin therapy.
Source: NLP:rifampin
Higher doses of estrogens reduce clearance of ropinirole; starting or stopping hormone replacement therapy may require ropinirole dose adjustment.
Source: NLP:ropinirole
May produce hyperglycemia and lead to loss of glycemic control. Monitor blood glucose closely during concomitant use.
Source: NLP:sitagliptin and metformin hydrochloride
Oral estrogens may reduce the serum IGF-1 response to SOGROYA, potentially requiring higher SOGROYA dosages.
Source: NLP:somapacitan-beco
Oral estrogens may reduce the serum IGF-1 response to NGENLA. Patients receiving oral estrogen replacement may require higher NGENLA dosages.
Source: NLP:somatrogon-ghla
Larger doses of somatropin may be required in women using oral estrogen.
Source: NLP:somatropin
Increases serum thyroxine-binding globulin (TBg), decreasing free levothyroxine (T4) in patients without functioning thyroid glands. May require increased thyroid dose.
Source: NLP:thyroid, porcine
Concomitant use not recommended; hypotensive effects may be cumulative.
Source: NLP:tizanidine
Concomitant use not recommended; hypotensive effects may be cumulative.
Source: NLP:tizanidine hydrochloride
Estrogens may decrease hepatic metabolism of corticosteroids, increasing their effect.
Source: NLP:triamcinolone acetonide
Estrogens may decrease hepatic metabolism of certain corticosteroids, thereby increasing their effect.
Source: NLP:triamcinolone acetonide extended-release injectable suspension
Increase hepatic cholesterol secretion and may counteract the effectiveness of ursodiol.
Source: NLP:ursodiol
Increase hepatic cholesterol secretion and encourage cholesterol gallstone formation, potentially counteracting ursodiol effectiveness.
Source: NLP:usodiol