Midterm 1 Drugs Flashcards
Magnesium
Other Anti-Arrhythmic Drugs MOA: unknown
Nebivolol
Beta 1 Selective Blockers MOA: Lower BP mainly by decreasing cardiac output, also decrease sympathetic outflow from CNS and inhibit release of renin
Spironolactone
Potassium-Sparing Diuretics MOA: Act on the collecting tubule/duct; Blocks aldosterone receptors and prevents production of proteins that stimulate Na/K exchange sites of the collecting tubules
Dabigatran (Pradaxa)
Anticoagulants MOA: Direct thrombin inhibitor that are competitive and reversible. (Thrombin, when present, causes the conversion of fibrinogen to fibrin to form a stable clot)
Gemfibrozil
Fibrates
MOA: Increase the expression of GENES coding for proteins responsible for lipoprotein structure and function, which causes a decrease in triglyceride concentrations and increased HDL level (used to treat increased triglyceride levels)
Prazosin
Alpha Blockers MOA: Competitive block of alpha 1 receptors to result in a relaxation of arterial and venous smooth muscle. Vasodilation decreases peripheral vascular resistance and decreases BP
Fondaparinux
Factor Xa Inhibitors MOA: Selectively inhibit Factor Xa in the clotting cascade
Doxazosin
Alpha Blockers MOA: Competitive block of alpha 1 receptors to result in a relaxation of arterial and venous smooth muscle. Vasodilation decreases peripheral vascular resistance and decreases BP
Niacin
Other Hyperlipidemia Drugs
MOA: Strongly inhibits lipolysis in adipose tissue, increases secretion of tissue plasminogen activator and lowers level of plasma fibrinogen (reverses some endothelial cell dysfunction), may prevent liver from removing HDL from the blood
Most effective agent for increasing HDL levels
Nitroprusside
Parenteral Agents MOA: Causes release of NO with result of increased intracellular cGMP and dilates arterioles and veins
Fenoldopam
Parenteral Agents MOA: Peripheral dopamine-1 receptor agonist Relaxes mainly the renal and mesenteric arterial vessels and increases renal blood flow
Lidocaine
Class 1 - Sodium Channel Blockers (Type IB) MOA: Shortens phase 3 repolarization in ventricular muscle
Methyldopa
Centrally-acting Alpha-2 Agonists MOA: Decrease sympathetic output and reduces NE release
Pentoxifylline
Treatment of Sickle Cell Anemia MOA: Improves RBC flexibility and reduced blood viscosity
Colestipol
Bile Acid Sequestrants
MOA: BInd to bile acids and bile salts in the small intestine, so the liver must then increase the conversion of cholesterol to bile acids (so increase cell surface LDL receptors, thus used to treat high LDL level)
Chlorthalidone
Thiazide Diuretics MOA: Act on the distal convoluted tubule; Inhibits the Na/Cl co-transporter
Erythropoietin
Treatment of Anemia MOA: a protein that regulates RBC proliferation and differentiation in the kidney
Argatroban
Anticoagulants MOA: Direct thrombin inhibitor that are competitive and reversible. (Thrombin, when present, causes the conversion of fibrinogen to fibrin to form a stable clot)
Nicardipine
Calcium Channel Blockers MOA: Prevent inward movement of Ca and causes muscle to relax
Streptokinase
Thrombolytic Agents MOA: Activate conversion of plasminogen to plasmin - hydrolyzes fibrin and dissolves clot
Fenofibrate
Fibrates
MOA: Increase the expression of GENES coding for proteins responsible for lipoprotein structure and function, which causes a decrease in triglyceride concentrations and increased HDL level (used to treat increased triglyceride levels)
Isradipine
Calcium Channel Blockers MOA: Prevent inward movement of Ca and causes muscle to relax
Propranolol
Class II - Beta-adrenoreceptor Blockers MOA: Diminish phase 4 depolarization in the SA and AV node
Esmolol
Class II - Beta-adrenoreceptor Blockers MOA: Diminish phase 4 depolarization in the SA and AV node
Acebutolol
Beta 1 Selective Blockers MOA: Lower BP mainly by decreasing cardiac output, also decrease sympathetic outflow from CNS and inhibit release of renin
Methazolamide
Carbonic Anhydrase Inhibitor MOA: Prevent carbonic anhydrase from catalyzing the reaction that form bicarbonate and decrease the kidney’s ability to exchange Na for H
Vitamin K
Treatment of Bleeding MOA: Antagonizes agents that interfere with Vitamin K (like Warfain!)
Acetazolamide
Carbonic Anhydrase Inhibitor MOA: Prevent carbonic anhydrase from catalyzing the reaction that form bicarbonate and decrease the kidney’s ability to exchange Na for H
Candesartan
Angiotension-Receptor Blockers MOA: Blocks Angiotension II from binding to its receptor and thus blocking its action, BUT DOES NOT increase bradykinin levels
Dobutamine
Inotropes (Beta-adrenergic agonists) MOA: Cause positive inotropic effects and vasodilation; increase cAMP which activates protein kinase, and protein kinase increases calcium influx into cells
Adenosine
Other Anti-Arrhythmic Drugs MOA: Activates an inward rectifier K current and inhibits Ca current; Marked hyperpolarization and suppression of Ca-dependent action potentials; also directly inhibits AV nodal conduction and increases the AV nodal refractory period when given as a bolus dose
Digoxin
Inotropes (Cardiac glycosides) MOA: Inhibits the ability of the monocyte to actively pump Na from the cell
Epleronone
Potassium-Sparing Diuretics MOA: Act on the collecting tubule/duct; Blocks aldosterone receptors and prevents production of proteins that stimulate Na/K exchange sites of the collecting tubules
Flecainide
Class 1 - Sodium Channel Blockers (Type IC) MOA: Markedly shows Phase 0 depolarization in ventricular muscle (same as IA but NO class III activity)
Fosinopril
ACE Inhibitors MOA: Prevent the conversion of angiotension I to angiotension II and Increase levels of bradykinin (vasodilator)
Milrinone
Inotropes (Phosphodiesterase inhibitors) MOA: Prevent hydrolysis of cAMP, Increase activity of calcium channel causing greater influx of Ca and also cause vasodilation
Ethacrynic acid
Loop Diuretics MOA: Act on the ascending loop of henle; Inhibit cotransport of Na/K/2Cl
Supplements
Treatment of Anemia Iron (ferrous suldate), folic acid, Vitamin B12
Rivaroxaban
Factor Xa Inhibitors MOA: Selectively inhibit Factor Xa in the clotting cascade
Ticagrelor
Anti-platelet Inhibitors MOA: Block ADP P2Y receptors and inhibit expression of GP receptors for fibrinogen (Prevents ADP-induced platelet aggregation)
Dipyridamole
Anti-platelet Inhibitors MOA: coronary vasodilator that increases intracellular levels of cAMP to result in decreased thromboxane A2 levels and decreased platelet adhesion
Disopyramide
Class 1 - Sodium Channel Blockers (Type IA) MOA: Slows phase 0 depolarization in ventricular muscle fibers (Metabolites show class III activity which slows Phase 3 of the AP)
Desirudin
Anticoagulants MOA: Direct thrombin inhibitor that are competitive and reversible. (Thrombin, when present, causes the conversion of fibrinogen to fibrin to form a stable clot)
Hydroxyurea
Treatment of Sickle Cell Anemia MOA: Increases fetal HB levels, diluting the normal Hb-S
Cholestyramine
Bile Acid Sequestrants
MOA: BInd to bile acids and bile salts in the small intestine, so the liver must then increase the conversion of cholesterol to bile acids (so increase cell surface LDL receptors, thus used to treat high LDL level)
Propranolol
Beta Non-Selective Blockers MOA: Lower BP mainly by decreasing cardiac output, also decrease sympathetic outflow from CNS and inhibit release of renin
Quinapril
ACE Inhibitors MOA: Prevent the conversion of angiotension I to angiotension II and Increase levels of bradykinin (vasodilator)
Amlodipine
Calcium Channel Blockers MOA: Prevent inward movement of Ca and causes muscle to relax
Alteplase
Thrombolytic Agents MOA: Activate conversion of plasminogen to plasmin - hydrolyzes fibrin and dissolves clot
Tocainide
Class 1 - Sodium Channel Blockers (Type IB) MOA: Shortens phase 3 repolarization in ventricular muscle
Furosemide
Loop Diuretics MOA: Act on the ascending loop of henle; Inhibit cotransport of Na/K/2Cl
Perindopril
ACE Inhibitors MOA: Prevent the conversion of angiotension I to angiotension II and Increase levels of bradykinin (vasodilator)
Diltiazem
Calcium Channel Blockers MOA: Prevent inward movement of Ca and causes muscle to relax
Captopril
ACE Inhibitors MOA: Prevent the conversion of angiotension I to angiotension II and Increase levels of bradykinin (vasodilator)
Lepirudin
Anticoagulants MOA: Direct thrombin inhibitor that are competitive and reversible. (Thrombin, when present, causes the conversion of fibrinogen to fibrin to form a stable clot)
Felodipine
Calcium Channel Blockers MOA: Prevent inward movement of Ca and causes muscle to relax
Sotalol
Class III - Potassium Channel Blockers MOA: Prolongs phase 3 repolarization in ventricular muscle fibers
Ezetimibe
Cholesterol Absorption Inhibitor
MOA: Inhibits the absorption of dietary and biliary cholesterol in the small intestine, which decrease the delivery of intestinal cholesterol to the liver and reduces hepatic cholesterol stores and increase clearance of cholesterol from blood
Ranolazine
Sodium (NA) Channel MOA: Inhibits the late phase of the Na current, and reduces intracellular sodium and calcium overload Improves diastolic function
Verapamil
Class IV - Calcium Channel Blockers MOA: Inhibits action potential in the SA and AV nodes
Moexipril
ACE Inhibitors MOA: Prevent the conversion of angiotension I to angiotension II and Increase levels of bradykinin (vasodilator)
Hydrochlorothiazide (HCTZ)
Thiazide Diuretics MOA: Act on the distal convoluted tubule; Inhibits the Na/Cl co-transporter
Eptifibatide
Anti-platelet Inhibitors MOA: Binds to and blocks the GP receptor
Hydralazine
Vasodilators MOA: Releases NO
Trandolapril
ACE Inhibitors MOA: Prevent the conversion of angiotension I to angiotension II and Increase levels of bradykinin (vasodilator)
Atenolol
Beta 1 Selective Blockers MOA: Lower BP mainly by decreasing cardiac output, also decrease sympathetic outflow from CNS and inhibit release of renin
Inamrione
Inotropes (Phosphodiesterase inhibitors) MOA: Prevent hydrolysis of cAMP, Increase activity of calcium channel causing greater influx of Ca and also cause vasodilation
Colesevelam
Bile Acid Sequestrants
MOA: BInd to bile acids and bile salts in the small intestine, so the liver must then increase the conversion of cholesterol to bile acids (so increase cell surface LDL receptors, thus used to treat high LDL level)
Isosorbide mononitrate
Organic Nitrates MOA: Enzyme activation of drug causes release of NO and NO combines with guanylyl cyclase causing an increase in cGMP
Lovastatin
HMG CoA Reductase Inhibitors
MOA: Inhibits the first comitted enzymatic step of cholesterol synthesis,
Analogs of HMG and competes with HMG for the HMG CoA reductase enzyme, causing a lowering of circulating LDL level
Cilazapril
ACE Inhibitors MOA: Prevent the conversion of angiotension I to angiotension II and Increase levels of bradykinin (vasodilator)
Lisinopril
ACE Inhibitors MOA: Prevent the conversion of angiotension I to angiotension II and Increase levels of bradykinin (vasodilator)
Nifedipine
Calcium Channel Blockers MOA: Prevent inward movement of Ca and causes muscle to relax
Dofetilide
Class III - Potassium Channel Blockers MOA: Prolongs phase 3 repolarization in ventricular muscle fibers
Eprosartan
Angiotension-Receptor Blockers MOA: Blocks Angiotension II from binding to its receptor and thus blocking its action, BUT DOES NOT increase bradykinin levels
Urokinase
Thrombolytic Agents MOA: Activate conversion of plasminogen to plasmin - hydrolyzes fibrin and dissolves clot
Bivalirudin
Anticoagulants MOA: Direct thrombin inhibitor that are competitive and reversible. (Thrombin, when present, causes the conversion of fibrinogen to fibrin to form a stable clot)
Metolazone
Thiazide Diuretics MOA: Act on the distal convoluted tubule; Inhibits the Na/Cl co-transporter
Clonidine
Centrally-acting Alpha-2 Agonists MOA: Decrease sympathetic output and reduces NE release
Bisoprolol
Beta 1 Selective Blockers MOA: Lower BP mainly by decreasing cardiac output, also decrease sympathetic outflow from CNS and inhibit release of renin
Tirofiban
Anti-platelet Inhibitors MOA: Binds to and blocks the GP receptor
Warfarin
Anticoagulants MOA: Vitamin K antagonist; Inhibits vitamin K epoxide reductase, which prevents the regeneration of Vit K and results in the production of clotting factors with diminished activity
Labetalol
Beta Non-Selective Blockers MOA: Lower BP mainly by decreasing cardiac output, also decrease sympathetic outflow from CNS and inhibit release of renin
Aminodarone
Class III - Potassium Channel Blockers MOA: Prolongs phase 3 repolarization in ventricular muscle fibers
Protamine
Treatment of Bleeding MOA: Antagonizes heparin and forms a complex
Dopamine
Inotropes (Beta-adrenergic agonists) MOA: Cause positive inotropic effects and vasodilation; increase cAMP which activates protein kinase, and protein kinase increases calcium influx into cells
Nisoldopine
Calcium Channel Blockers MOA: Prevent inward movement of Ca and causes muscle to relax
Carvedilol
Beta Non-Selective Blockers MOA: Lower BP mainly by decreasing cardiac output, also decrease sympathetic outflow from CNS and inhibit release of renin
Aliskiren
Renin Inhibitor MOA: Directly inhibits renin
Simvastatin
HMG CoA Reductase Inhibitors
MOA: Inhibits the first comitted enzymatic step of cholesterol synthesis,
Analogs of HMG and competes with HMG for the HMG CoA reductase enzyme, causing a lowering of circulating LDL level
Pitavastatin
HMG CoA Reductase Inhibitors
MOA: Inhibits the first comitted enzymatic step of cholesterol synthesis,
Analogs of HMG and competes with HMG for the HMG CoA reductase enzyme, causing a lowering of circulating LDL leve
Ramipril
ACE Inhibitors MOA: Prevent the conversion of angiotension I to angiotension II and Increase levels of bradykinin (vasodilator)
Procainamide
Class 1 - Sodium Channel Blockers (Type IA) MOA: Slows phase 0 depolarization in ventricular muscle fibers (Metabolites show class III activity which slows Phase 3 of the AP)
Clopidogrel
Anti-platelet Inhibitors MOA: Block ADP P2Y receptors and inhibit expression of GP receptors for fibrinogen (Prevents ADP-induced platelet aggregation)
Propafenone
Class 1 - Sodium Channel Blockers (Type IC) MOA: Markedly shows Phase 0 depolarization in ventricular muscle (same as IA but NO class III activity)
Darbepoetin
Treatment of Anemia MOA: Long-acting version of darbopoetin
Telmisartan
Angiotension-Receptor Blockers MOA: Blocks Angiotension II from binding to its receptor and thus blocking its action, BUT DOES NOT increase bradykinin levels
Aminocaproic Acid
Treatment of Bleeding MOA: Inhibits plasminogen activation
Metroprolol
Class II - Beta-adrenoreceptor Blockers MOA: Diminish phase 4 depolarization in the SA and AV node
Diltiazem
Class IV - Calcium Channel Blockers MOA: Inhibits action potential in the SA and AV nodes
Reteplase
Thrombolytic Agents MOA: Activate conversion of plasminogen to plasmin - hydrolyzes fibrin and dissolves clot
Eicosapentaenioc acid
Omega 3 Fatty Acids
Fluvastatin
HMG CoA Reductase Inhibitors
MOA: Inhibits the first comitted enzymatic step of cholesterol synthesis,
Analogs of HMG and competes with HMG for the HMG CoA reductase enzyme, causing a lowering of circulating LDL level
Indapamide
Thiazide Diuretics MOA: Act on the distal convoluted tubule; Inhibits the Na/Cl co-transporter
Ibutilide
Class III - Potassium Channel Blockers MOA: Prolongs phase 3 repolarization in ventricular muscle fibers
Heparin (high molecular weight protein)
Anticoagulants MOA: Binds to antithrombin III, leads to rapid inactivation of Thrombin and Factor Xa (antithrombin III activity is normally very slow)
Isosorbide dinitrate
Organic Nitrates MOA: Enzyme activation of drug causes release of NO and NO combines with guanylyl cyclase causing an increase in cGMP
Nadolol
Beta Non-Selective Blockers MOA: Lower BP mainly by decreasing cardiac output, also decrease sympathetic outflow from CNS and inhibit release of renin
Digoxin
Other Anti-Arrhythmic Drugs MOA: Shortens refractory period in myocardial cells and prolongs refractory period in the AV node
Benazepril
ACE Inhibitors MOA: Prevent the conversion of angiotension I to angiotension II and Increase levels of bradykinin (vasodilator)
Mexiletine
Class 1 - Sodium Channel Blockers (Type IB) MOA: Shortens phase 3 repolarization in ventricular muscle
Cilostazol
Anti-platelet Inhibitors MOA: Inhibits PDE III which ultimately increases cAMP levels (to result in decreased thromboxane A2 levels and decreased platelet adhesion)
Olmesartan
Angiotension-Receptor Blockers MOA: Blocks Angiotension II from binding to its receptor and thus blocking its action, BUT DOES NOT increase bradykinin levels
Valsartan
Angiotension-Receptor Blockers MOA: Blocks Angiotension II from binding to its receptor and thus blocking its action, BUT DOES NOT increase bradykinin levels
Quinidine
Class 1 - Sodium Channel Blockers (Type IA) MOA: Slows phase 0 depolarization in ventricular muscle fibers (Metabolites show class III activity which slows Phase 3 of the AP)
Rosuvastatin
HMG CoA Reductase Inhibitors
MOA: Inhibits the first comitted enzymatic step of cholesterol synthesis,
Analogs of HMG and competes with HMG for the HMG CoA reductase enzyme, causing a lowering of circulating LDL level
Abciximab
Anti-platelet Inhibitors MOA: Binds to GP receptor and blocks the binding of fibrinogen
Bumetanide
Loop Diuretics MOA: Act on the ascending loop of henle; Inhibit cotransport of Na/K/2Cl
Potassium
Other Anti-Arrhythmic Drugs MOA: Either too much or too little potassium can cause arrhythmia
Aspirin (ASA)
Anti-platelet Inhibitors MOA: Inhibits COX-1 (which shifts the balance of chemical mediators to favor prostacyclin and impedes platelet aggregation
Nitroglycerin
Organic Nitrates MOA: Enzyme activation of drug causes release of NO and NO combines with guanylyl cyclase causing an increase in cGMP
Irbesartan
Angiotension-Receptor Blockers MOA: Blocks Angiotension II from binding to its receptor and thus blocking its action, BUT DOES NOT increase bradykinin levels
Ticlopidine
Anti-platelet Inhibitors MOA: Block ADP P2Y receptors and inhibit expression of GP receptors for fibrinogen (Prevents ADP-induced platelet aggregation)
Minoxidil
Vasodilators MOA: Hyperpolarizes smooth muscle by opening potassium channels
Apixaban
Factor Xa Inhibitors MOA: Selectively inhibit Factor Xa in the clotting cascade
Atorvastatin
HMG CoA Reductase Inhibitors
MOA: Inhibits the first comitted enzymatic step of cholesterol synthesis,
Analogs of HMG and competes with HMG for the HMG CoA reductase enzyme, causing a lowering of circulating LDL level
Mannitol
Osmotic Diuretics MOA: Filtered through the glomerulus and carries water with them
Prasugrel
Anti-platelet Inhibitors MOA: Block ADP P2Y receptors and inhibit expression of GP receptors for fibrinogen (Prevents ADP-induced platelet aggregation)
Docosahexaenoic acid
Omega 3 Fatty Acids
Losartan
Angiotension-Receptor Blockers MOA: Blocks Angiotension II from binding to its receptor and thus blocking its action, BUT DOES NOT increase bradykinin levels
Verapamil
Calcium Channel Blockers MOA: Prevent inward movement of Ca and causes muscle to relax
Enalapril
ACE Inhibitors MOA: Prevent the conversion of angiotension I to angiotension II and Increase levels of bradykinin (vasodilator)
Dronedarone
Class III - Potassium Channel Blockers MOA: Prolongs phase 3 repolarization in ventricular muscle fibers
Clevidipine
Calcium Channel Blockers MOA: Prevent inward movement of Ca and causes muscle to relax
Dalteparin
Anticoagulants (Low Molecular Weight Forms of Heparin/ LMWHs) MOA: LMWHs binds to antithrombin III complex which ONLY inactivates Factor Xa
Tenecteplase
Thrombolytic Agents MOA: Activate conversion of plasminogen to plasmin - hydrolyzes fibrin and dissolves clot
Enoxaparin
Anticoagulants (Low Molecular Weight Forms of Heparin/ LMWHs) MOA: LMWHs binds to antithrombin III complex which ONLY inactivates Factor Xa
Azilsartan
Angiotension-Receptor Blockers MOA: Blocks Angiotension II from binding to its receptor and thus blocking its action, BUT DOES NOT increase bradykinin levels
Metoprolol
Beta 1 Selective Blockers MOA: Lower BP mainly by decreasing cardiac output, also decrease sympathetic outflow from CNS and inhibit release of renin
Torsemide
Loop Diuretics MOA: Act on the ascending loop of henle; Inhibit cotransport of Na/K/2Cl
Terazosin
Alpha Blockers MOA: Competitive block of alpha 1 receptors to result in a relaxation of arterial and venous smooth muscle. Vasodilation decreases peripheral vascular resistance and decreases BP
Esmolol
Beta 1 Selective Blockers MOA: Lower BP mainly by decreasing cardiac output, also decrease sympathetic outflow from CNS and inhibit release of renin