Exercise intolerance in patients with chronic heart failure*

https://doi.org/10.1016/S0033-0620(05)80011-8Get rights and content

Patients with chronic heart failure (CHF) experience significant morbidity because of dyspnea and fatigue with activities of daily living. Although central hemodynamic abnormalities are the hallmark of this disorder, investigators have not shown a relationship between left ventricular ejection fraction or exercise pulmonary capillary wedge pressure and exercise intolerance in this disorder. Recent studies have focused on the contributions of pulmonary abnormalities and alterations in peripheral vasomotor control and skeletal muscle in exercise intolerance in this disorder. Early anaerobic metabolism occurs in patients with CHF and appears to be caused by a combination of reduced skeletal muscle blood flow and decreased aerobic enzyme content in skeletal muscle. Atrophy in skeletal muscle and alterations in skeletal muscle fiber typing are accompanied by alterations in contractile function in skeletal muscle. These results suggest that exercise intolerance in patients with CHF is multifactorial, and that research efforts must consider central hemodynamic abnormalities, pulmonary abnormalities, and alterations in peripheral blood flow and skeletal muscle biochemistry and histology. The present review will explore current research in this area and develop a model for understanding exercise intolerance in CHF.

References (175)

  • YounisLT et al.

    Prognostic value of exercise testing

    Cardiol Clin

    (1993)
  • IngramRH et al.

    Respiratory changes during exercise in patients with pulmonary venous hypertension

    Prog Cardiovasc Dis

    (1976)
  • MassieBM

    Exercise tolerance in congestive heart failure: Role of cardiac function, peripheral blood flow, and muscle metabolism and effect of treatment

    Am J Med

    (1988)
  • WilsonJR et al.

    Exercise intolerance in patients with chronic left heart failure: Relation to oxygen transport and ventilatory abnormalities

    Am J Cardiol

    (1983)
  • SullivanMJ et al.

    Central hemodynamic response to upright exercise in normal subjects: Stroke volume is augmented by similar mechanisms in men and women

    Am J Cardiol

    (1991)
  • WilsonJR et al.

    Objective detection of muscle fatigue in patients with heart failure

    Am J Cardiol

    (1992)
  • ManciniDM et al.

    Respiratory muscle deoxygenation during exercise in patients with heart failure demonstrated with near-infrared spectroscopy

    J Am Coll Cardiol

    (1991)
  • NeryLE et al.

    Contrasting cardiovascular and respiratory responses to exercise in mitral valve and chronic obstructive pulmonary disease

    Chest

    (1983)
  • EichackerPQ et al.

    Methacholine bronchial reactivity testing in patients with chronic congestive heart failure

    Chest

    (1988)
  • BruceRA et al.

    Maximal oxygen intake and nomographic assessment of functional aerobic impairment in cardiovascular disease

    Am Heart J

    (1973)
  • FrancisGS et al.

    Relationship of exercise capacity to resting left ventricular performance and basal plasma norepinephrine levels in patients with congestive heart failure

    Am Heart J

    (1982)
  • WeberKT et al.

    Lactate production during maximal and submaximal exercise in patients with chronic heart failure

    J Am Coll Cardiol

    (1985)
  • SullivanMJ et al.

    Central hemodynamic response to exercise in patients with chronic heart failure

    Chest

    (1992)
  • HammondHK et al.

    Normal and abnormal heart rate responses to exercise

    Prog Cardiovasc Dis

    (1985)
  • SmithWM

    Epidemiology of congestive heart failure

    Am J Cardiol

    (1985)
  • SullivanMJ

    Congestive heart failure: Trends in epidemiology and therapy

  • GhaliJK et al.

    Trends in hospitalization rates for heart failure in the United States, 1973–1986

    Arch Intern Med

    (1990)
  • BengeW et al.

    Exercise capacity in patients with severe left ventricular dysfunction

    Circulation

    (1980)
  • WeberKT et al.

    Oxygen utilization and ventilation during exercise in patients with chronic cardiac failure

    Circulation

    (1982)
  • MarantzPR et al.

    The relationship between left ventricular systolic function and congestive heart failure diagnosed by clinical criteria

    Circulation

    (1988)
  • FransciosaJA et al.

    Relation between hemodynamic and ventilatory responses in determining exercise capacity in severe congestive heart failure

    Am J Cardiol

    (1984)
  • WeberKT et al.

    Cardiopulmonary Exercise Testing

    (1986)
  • Cohen-SolalA et al.

    Cardiopulmonary exercise testing in chronic heart failure

    Heart Failure

    (1994)
  • ManciniDM et al.

    Value of peak oxygen consumption for optimal timing of cardiac transplantation in ambulatory patients with heart failure

    Circulation

    (1991)
  • BrooksSE et al.

    Prognostic features in patients with congestive heart failure and selection criteria for cardiac transplantation

    Mayo Clin Proc

    (1992)
  • EvartCK et al.

    Usefullness of self efficacy in predicting over-exertion during programed exercise in coronary artery disease

    Am J Cardiol

    (1986)
  • FrolicherESS et al.

    Exercise testing

  • SullivanMJ et al.

    Exercise training in patients with severe left ventricular dysfunction. Hemodynamic and metabolic effects

    Circulation

    (1988)
  • ElbornJS et al.

    Reproducibility of cardiovascular parameters during exercise in patients with chronic heart failure

    Eur Heart J

    (1990)
  • DicksteinK et al.

    Reproducibility of cardiopulmonary exercise testing in men following myocardial infarction

    Eur Heart J

    (1988)
  • HansonP

    Exercise testing and training in patients with chronic heart failure

    Med Sci Sports Exerc

    (1994)
  • RectorTS et al.

    Patients self assessment of their congestive heart failure

    Heart Failure

    (1987)
  • DubachP et al.

    Cardiac rehabilitation for heart failure patients

    Cardiology

    (1989)
  • PackerM et al.

    Which objective measurements parallel the courses of disease progression in patients with congestive heart failure

    J Am Coll Cardiol

    (1988)
  • Hlaff-NelsonCL et al.

    Relation of clinical and angiographic factors to functional capacity as measured by Duke Activity Status Index

    Am J Cardiol

    (1991)
  • WassermanK

    Coupling of exernal to cellular respiration during exercise: the wisdom of the body revisited

    Am J Physiol

    (1994)
  • BrooksGA

    Anaerobic threshold: Review of the concept and directions for future research

    Med Sci Sports Exerc

    (1985)
  • MatsumuraN et al.

    Determination of anaerobic threshold for assessment of functional state in patients with chronic heart failure

    Circulation

    (1983)
  • SullivanMJ et al.

    Exercise training in patients with chronic heart failure delays ventilatory anaerobic threshold and improves submaximal exercise performance

    Circulation

    (1989)
  • WassermanK et al.

    Detecting the threshold of anaerobic metabolism in cardiac patients during exercise

    Am J Cardiol

    (1964)
  • Cited by (138)

    • Exercise Therapy for Older Heart Failure Patients

      2017, Heart Failure Clinics
      Citation Excerpt :

      In patients with systolic HF, also known as HFrEF, peak HR and SV are reduced approximately 20% and 45%, respectively, compared with normal individuals.13,14 Peripheral factors contributing to reduced AVO2 difference, thence, peak Vo2, include reduced muscle mass, decreased mitochondrial density in exercising muscle, and peripheral vasoconstriction because of intrinsic abnormalities of smooth muscle vasodilation and neurohormonal factors.15,16 A similar constellation of peripheral abnormalities contributes to the age-associated decrease in AVO2 difference at peak exercise (Table 1).17

    View all citing articles on Scopus
    *

    Supported by Grant No. HL-54314 from the National Heart, Lung, and Blood Institute, Bethesda, MD, and by General Medical Research Funds from the Veterans Administration Medical Center, Durham, NC. M.J.S. was supported by an established investigatorship from the American Heart Association.

    View full text