Optimal Adrenergic Blockades in Heart Failure. Jae-Joong Kim MD, PhD Asan Medical Center, University of Ulsan, Seoul, Korea

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Optimal Adrenergic Blockades in Heart Failure Jae-Joong Kim MD, PhD Asan Medical Center, University of Ulsan, Seoul, Korea

Contents Harmful effects of adrenergic system in heart failure Clinical studies of beta-blockers in CHF Questions in use of beta-blockers in CHF Recommendation of beta-blockers in CHF

Autonomic Control of the Circulation in Health Baroreceptors Adrenergic activity Cardiopulmonary receptors Chemoreceptors Vasomotor center Ergoreceptors Parasympathetic activity

Autonomic Control of the Circulation in CHF Baroreceptors Adrenergic activity Cardiopulmonary receptors Chemoreceptors Vasomotor center Ergoreceptors Parasympathetic activity

Cardiac and Adrenal Catecholamine Cardiac Output Local Catecholamine Excess Discharge of Sympathetic Efferent Ca ++ channel Activation Cellular Calcium Overloading Ca ++ Overload of the Mitochondria Cell Apoptosis Ca ++ Activation of phospholipases, proteases & endonucleases Cell Necrosis

Sympathetic NS in CHF Sympathetic Nervous Systems Initially, Cardiac adrenergic drive supports the performance of the failing heart Other Neurohormonal systems Peripheral vasoconstriction Increase Ventricular Volume and Pressure Decrease Na excretion by the kidneys Automaticity Triggered activity Hypokalemia Arrhythmia Cardiac hypertrophy and Restrict ability of coronary supply Myocardial Ischemia Programmed cell death Apoptosis

β-blocker Effects in CHF Decrease energy demand Reduce activation of neuroendocrine activation Increase high energy phosphate Reverse pathologic remodeling Improve microcirculation Increase contractility ( slowing heart rate ) Long-term favorable effect on SERCA activity Modulation of adrenergic receptor or signal transduction

History of β-blockers in CHF 1975, Waagstein F ; effect of β-blocker in 7 pts with CHF 1979, Swedberg K, Waagstein F ; prolongation of survival (historical comparison) 1985, Anderson JL ; a long-term randomized trial of low dose metoprolol in 50 DCMP --- only a modest beneficial effect 1993, MDC trial, Waagstein F, Bristow MR ; the 1st major placebo controlled study in DCMP(metoprolol) using combined end point 1994, CIBIS; bisoprolol in CHF, the 1st trial using mortality as end point 1996, Packer M, Bristow MR ; US Carvedilol Study, MOCHA 1999, CIBIS II (bisoprolol), MERIT-HF (metoprolol) 2001, BEST (bucindolol), COPERNICUS (carvedilol) 2003,COMET (carvedilol vs metoprolol)

Metoprolol in Dilated CMP(MDC) Waagstein F et al Lancet 1993;342:1441-1446 Randomized, double blind, placebo-controlled, multicenter 383 pts (LVEF< 40%) were enrolled, follow-up for 12-18 months Target metoprolol dose ; 100-150mg/d (mean 108mg/day) Placebo Metoprolol P-value Total mortality or need of 38 heart transplantation 25 0.058 Need for transplantation 19 2 0.0001 Total mortality 19 23 NS Progressive heart failure 5 5 NS Sudden cardiac deaths 12 18 NS Ejection fraction(% increase) 6 13 <0.005

Cardiac Insufficiency Bisoprolol Study (CIBIS) CIBIS Investigators Circulation 1994;90:1765-1773 Randomized, double blind, placebo controlled, multicenter the 1st trial using mortality as end point 641 pts with NYHA class III or IV and LVEF <40%, Mean F/U 1.9±0.1 years, target dose 5mg/d Premature withdrawal ; 25.5% in bisoprolol, 23.4% in placebo Bisoprolol Placebo P-value Mortality 16.6% 20.9% NS Sudden death 4.7% 5.3% NS Death d/t VT,Vf 1.3% 2.2% NS Hospitalization 19.1% 28.0% <0.01 1 NYHA 21.3% 15.0% <0.03

US Carvedilol Heart Failure Study Packer M et al NEJM 1996;334:1349-1355 Randomized, double blind, placebo-controlled, multicenter study Total 1197 pts with symptomatic CHF 3 months and LVEF 0.35, after open-label phase, 1094 (94.4%) pts were enrolled. Follow-up 6 months or more Carvedilol Placebo Reduction Total mortality 3.2% 7.8% 65% Death d/t CHF 0.7% 3.3% 82% Sudden death 1.7% 3.8% 55% Hospitalization 14.1% 19.6% 27% Combined 15.8% 24.6% 38%

MERIT-HF MERIT-HF Study Group. Lancet 1999;353:2001-2007 Double-blind placebo controlled randomized study at 313 center in 13 European countries and US Metoprolol; lipophilic, β 1 -selective blocker NYHA II(41%), III(55%) and IV(4%), Primary end points all cause mortality and combined all cause mortality and admission Total 2991 pts (metoprolol 1990, placebo 2001) Mean F/U; 1 year, mean 63 yrs old, ischemic in 65% Target dose; 200mg qd(64%), 100mg qd in 87%, mean 159mg/Day

Cumulative mortality (%) 20 15 10 Placebo Metoprolol CR/XL p=0.0062(adjusted) p=0.00009(nominal) HR=0.66 MERIT-HF 5 0 0 3 6 9 12 15 18 21 Follow-up (months) MERIT-HF Study Group. Lancet 1999;353:2001-2007

MERIT-HF Study Group. Lancet 1999;353:2001-2007 MERIT-HF Metoprolol CR/XL better Risk reduction (%) Total mortality 34 Cardiovascular mortality Sudden death Death from worsening CHF 38 41 49 0 0.5 1.0 1.5 Relative risk (95% CI)

CIBIS-II CIBIS-II Investigators and Committees Lancet 1999;353:9-13 A multicenter double-blind randomized placebo-controlled trial at 274 hospitals in 18 European countries Bisoprolol ; lipophilic, β 1 -selective blocker NYHA III(83%) or IV(17%) Primary end-point all cause mortality Total 2647 patients (1320 in placebo, 1327 in bisoprolol), mean F/U 1.3 years, target dose 10mg(51%) Results Admission d/t VT or Vf(6 vs 20, p=0.006), hypotension (3 vs11, p=0.03) less in bisoprolol group bradycardia(14 vs 2, p<0.004) more in bisoprolol group

CIBIS-II Investigators and Committees Lancet 1999;353:9-13 1.0 CIBIS-II Bisoprolol 0.8 Survival Placebo 0.6 0 p<0.0001 HR=0.66 0 200 400 600 800 Time after inclusion (days)

CIBIS-II Investigators and Committees Lancet 1999;353:9-13 CIBIS-II Ischemia Primary DCM Undefined NYHA III NYHA IV Total Bisoprolol Placebo (n/total) (n/total) 75/662 121/654 13/160 15/157 68/505 92/509 116/1106 173/1096 40/221 55/224 156/1327 228/1320 (11.8%) (17.3%) Relative risk 0.4 0.6 0.8 1.0 1.2 1.4 1.6 1.8

β-blocker Effects on Mortality in CHF

Beta-blockers in CHF Proven favorable effects on prognosis in controlled trials in patients with chronic heart failure Carvedilol Bisoprolol Metoprolol succinate

Questions about Blockers in Heart Failure Low dose vs high dose MOCHA Effective in NYHA class IV patients? Nonselective, selective, or with vasodilating Are they same or which is more beneficial?

Multicenter Oral Carvedilol Heart Failure Assessment (MOCHA) n=345, mild- moderate CHF, EF 35% LVEF 9 8 7 6 5 4 3 2 1 0 8 6 5 2 Placebo 6.25 mg bid 12.5 mg bid 25 mg bid Carvedilol 6 month mortality (%) 16 15.5 14 12 10 8 6 6.7 6 4 2 1.1 0 Placebo 6.25 mg bid 12.5 mg bid 25 mg bid Carvedilol Bristow MR, et al. MOCHA trial Circulation 1996;94:2807.

Questions about Blockers in Heart Failure Low dose vs high dose Effective in NYHA class IV patients? COPERNICUS Nonselective, selective, or with vasodilating Are they same or which is more beneficial?

COPERNICUS Packer M et al N Eng J Med 2001;344:1651-1658 Prospective, randomized, double-blinded, placebocontrolled trial at 334 centers in 21 countries Dyspnea or fatigue at rest or on minimal exertion 2 mos and LVEF 25% despite appropriate conventional therapy Clinical euvolemia and not on iv inotropics nor vasodilator within 2 weeks Carvedilol (n=1156) vs placebo (n=1133) Primary end point; death of any reason Mean F/U; 10.4 months, 67% IHD, mean age 63 yrs No lost F/U and <5% protocol violence (open-label)

Total Mortality COPERNICUS Survival (% of patients) P=0.0014 HR=0.65 Carvedilol Placebo Months

Death Favors carvedilol Favors placebo COPERNICUS

Withdrawal from Medication COPERNICUS Placebo Carvedilol P=0.02 Months Percentage of Patients with Permanent Withdrawal of the Study Medication

Questions about Blockers in Heart Failure Low dose vs high dose Effective in NYHA class IV patients? Nonselective, selective, or with vasodilating Are they same or which is more beneficial? COMET

Change in peak exercise heart rate(%) 20 10 0-10 -20-30 -40 Metra Bristow -20 0 Waagstein ANZ trial Woodley Anderson Nemanich Pollock Anderson Engelmeier Metoprolol Bucindolol Carvedilol r=0.81 p<0.001 20 40 60 Change in maximal functional capacity(%)

β-blockade OH O-CH 2 -CH-CH 2 -NH-CH 2 -CH 2 O CH 3 O N H α-blockade Anti-oxidant Carvedilol = 1-(9H-Carbazol-4-yloxy)-3-{[2-(2- methoxyphenoxy)ethyl]amino}-2-propanol

Carvedilol β-and α 1 -adrenergic receptor blocker Receptor affinity ; β 1 : α 1 = 3 : 1 cf) expression of adrenergic receptor in failing heart ; β 1 : β 2 : α 1 = 2:1:1 Potent antioxidant effect ;10-fold more potent than Vit E Hydroxylated derivatives 50 to 80-fold more potent than carvedilol, 1000-fold more potent than vitamin-e Blocks the production of angiotensin II Suppresses the synthesis of endothelin Antiproliferative activity

Cardiac wall stress Cardiac ischemia Neurohormonal system Oxygen Radicals SAPK activation Transcription activation JNK-1, ATF-1 NF B activation Growth factors Matrix proteins Cytokines inos Adhesion molecules

Cardiac wall stress Cardiac ischemia Neurohormonal system Oxygen Radicals SAPK activation Transcription activation JNK-1, ATF-1 Carvedilol NFB activation Growth factors Matrix proteins Cytokines inos Adhesion molecules

Effects on Heart Failure Progression and Remodeling Beta 1 Beta 2 Alpha 1 Positive inotropic +++ ++ + Positive chronotropic +++ ++ 0 Myocyte hypertrophy +++ + ++ Fibroblast hyperplasia +++ + NA Myocyte toxicity +++ + + Myocyte apoptosis ++ - - Tachyarrhythmias ++ ++ + Vasoconstriction 0 - ++ Sodium retention 0 0 ++ Renin secretion + 0 0

Worsening CHF after β-blockade β 2 -blockade β 1 -blockade Cardiac output Vasodilation α 1 -blockade α 1 -blockade Renal blood flow Worsening heart failure Sodium retention

COMET Poole-Wilson PA et al Lancet 2003;362:7-13. Multicenter, double-blind, randomized parallel study Chronic heart failure, LVEF<0.35 with optimal treatment 1511 pts with carvedilol vs 1518 pts with metoprolol tartrate Primary endpoint; all cause mortality Composite endpoint; all cause mortality or all admission Results (carvedilol vs metoprolol tartrate) Mean study duration; 58 months All cause mortality; 34 vs 40%(HR 0.83, p=0.0017) Composite endpoint; 74 vs 76%(HR 0.94, p=0.122) Drug withdrawal and side effects; no difference

COMET-all cause mortality Metoprolol Carvedilol P=0.0017, HR 0.83 Number at risk Metoprolol Carvedilol Time (years)

COMET-predefined subgroup

COMET-heart rate Metoprolol Carvedilol Time (years) Heart rate (beats per min)

β-adrenergic Receptor Blockers Recommendation 1 Recommended for the treatment of all patients with stable, mild, moderate and severe heart failure from ischemic and nonischemic cardiomyopathies and reduced LV ejection fraction, in NYHA class II to IV, on standard treatment, including diuretics and ACE inhibitors, unless there is contraindications for - blockers

β-adrenergic Receptor Blockers Recommendation 2 Recommended in patients with LV systolic dysfunction, with or without symptomatic heart failure, following an acute myocardial infarction in addition to ACE inhibition to reduce mortality

β-adrenergic Receptor Blockers How to use β-blocker therapy should be initiated at low doses and up-titrated slowly, generally no sooner than at 2-week intervals Patient education regarding early recognition of symptom exacerbation and side effects is considered important

Titration Scheme of -blockers in Recent Large, Controlled Trials β-blocker First dose (mg) Increments (mg. Day -1 ) Target dose (mg. Day - 1 ) Titration period Bisoprolol 1 25 2 5, 3 75, 5, 7 5, 10 10 Weeks-month Metoprolol tartrate 5 10, 15, 30, 50, 75, 100 150 Weeks-month Metoprolol succinate CR 12 5/25 25, 50, 100, 200 200 Weeks-month Carvedilol 3 125 6 25, 12 5, 25, 50 50 Weeks-month

β-adrenergic Receptor Blockers Worsening heart failure symptoms/signs After drug initiation or during titration adjustment of concomitant medication or reduction of β-blocker dose

β-adrenergic Receptor Blockers Worsening heart failure symptoms/signs During chronic maintenance treatment less likely caused by chronic β-blocker therapy than other precipitating factors should be continued on β-blocker therapy

Rationale for β Blocker + PDEI Type III PDEI, different site of action beyond the β adrenergic receptor, retain their hemodynamic action in the face of β-blocker. Type III PDEI inhibit the phosphorylation of the phospholamban on the SR β-blocker can reduce the adverse event profile of the type III PDEIs by lowering HR and decreasing proarrhythmic potential.