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Hemodynamic assessment in heart failure
Christopher Charles Jain1, Barry A Borlaug1
1Department of Cardiovascular Medicine, Mayo Clinic, Rochester, Minnesota.
Insights
Optimizing heart failure (HF) management requires careful hemodynamic assessment. Understanding determinants of cardiac output and filling pressures guides treatment, improving patient outcomes and reducing hospital readmissions.
Area of Science:
- Cardiovascular Medicine
- Clinical Physiology
Background:
- Heart failure (HF) pathophysiology is intrinsically linked to complex hemodynamic alterations.
- Accurate assessment and optimization of hemodynamic status in HF patients remain a clinical challenge.
Observation:
- Hemodynamic assessment in the cardiac catheterization laboratory provides critical insights into volume status and cardiac function.
- Evaluating determinants of cardiac output (preload, afterload, contractility, lusitropy) and congestion is key.
- Exercise hemodynamics offer valuable prognostic information and aid in understanding symptom causation in HF.
Findings:
- Decreasing biventricular filling pressures to normal ranges improves morbidity and reduces HF readmission rates.
- Reducing afterload, within renal and symptomatic tolerance, is crucial for patients with HF and reduced ejection fraction.
- Optimizing preload and afterload can improve low cardiac output states, often obviating the need for inotropes.
Implications:
- Critical evaluation of hemodynamic interplay enhances clinical decision-making in HF management.
- Targeting specific hemodynamic parameters can lead to actionable therapeutic strategies.
- Right heart function is a critical determinant of outcomes in advanced heart failure.
Abstract:
Hemodynamics play a central role in the pathophysiology of heart failure (HF), yet their proper assessment and optimization remains challenging. Heart failure is defined as the inability of the heart to deliver adequate perfusion (cardiac output) to the body at rest or exercise, or to require an elevation in cardiac filling pressures in order to do this. This bedrock definition is important because it relies on measurable quantities (filling pressures and output) that are readily assessed in the cardiac catheterization laboratory. Here we present three cases to illustrate how better understanding of the determinants of cardiac output and stroke volume: preload, afterload, contractility, and lusitropy, as well as the determinants of congestion (high filling pressures) may be used to guide optimization of hemodynamic status. The goal is that the readers will be able to think more critically when evaluating the hemodynamics of their patient in HF and recognize the complex interplay that determines the complex balance between cardiac ejection and filling capabilities, and how this alters symptoms and outcomes for patients with HF. KEY POINTS: Careful assessment of hemodynamics in the catheterization laboratory allows for actionable insight to a patient's volume status, cardiac function and can help prognosticate outcomes. Exercise hemodynamics in heart failure is a powerful tool to better understand the cause of symptoms and predict outcomes. Clinicians should aim to decrease biventricular filling pressures to normal values to improve morbidity and reduce risk for readmission. In patients with heart failure and reduced ejection fraction, clinicians should aim to decrease afterload as much as can be tolerated by the renal function and patient's symptoms. Low cardiac output can often be improved by optimizing preload and afterload rather than initiating inotropes, which should be reserved until needed. In advanced heart failure, the right heart function becomes a key determinant of symptoms and outcomes.
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