Key result
Optimizing HF diuretic therapy requires targeting renal physiology and pharmacokinetics to overcome resistance.
Why the study?
Robust clinical trial evidence to guide the use of diuretics in heart failure is sparse despite their central role in treatment.
A nuanced understanding of renal physiology and diuretic pharmacokinetics is essential for the skillful use of diuretics in the management of heart failure.
Expansion of extracellular fluid volume is central to the pathophysiology of heart failure. Increased extracellular fluid leads to elevated intracardiac filling pressures, resulting in a constellation of signs and symptoms of heart failure referred to as congestion. Loop diuretics are one of the cornerstones of treatments for heart failure, but in contrast to other therapies, robust clinical trial evidence to guide the use of diuretics is sparse. A nuanced understanding of renal physiology and diuretic pharmacokinetics is essential for skillful use of diuretics in the management of heart failure in both the inpatient and outpatient settings. Diuretic resistance, defined as an inadequate quantity of natriuresis despite an adequate diuretic regimen, is a major clinical challenge that generally portends a poor prognosis. In this review, the authors discuss the fundamental mechanisms and physiological principles that underlie the use of diuretic therapy and the available data on the optimal use of diuretics.
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Felker et al. (2020) conducted a review in Heart failure. Diuretic therapy was evaluated. Diuretic therapy is a cornerstone of heart failure management, requiring a nuanced understanding of renal physiology and pharmacokinetics to optimize use and overcome diuretic resistance.
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