Development and Clinical Application of Left Ventricular-Arterial Coupling Non-Invasive Assessment Methods.
Alvaro Luis GamarraPablo Díez-VillanuevaJorge SalamancaRio AguilarPatricia MahiaFernando AlfonsoPublished in: Journal of cardiovascular development and disease (2024)
The constant and dynamic interaction between ventricular function and arterial afterload, known as ventricular-arterial coupling, is key to understanding cardiovascular pathophysiology. Ventricular-arterial coupling has traditionally been assessed invasively as the ratio of effective arterial elastance over end-systolic elastance (E a /E es ), calculated from information derived from pressure-volume loops. Over the past few decades, numerous invasive and non-invasive simplified methods to estimate the elastance ratio have been developed and applied in clinical investigation and practice. The echocardiographic assessment of left ventricular E a /E es , as proposed by Chen and colleagues, is the most widely used method, but novel echocardiographic approaches for ventricular-arterial evaluation such as left ventricle outflow acceleration, pulse-wave velocity, and the global longitudinal strain or global work index have arisen since the former was first published. Moreover, multimodal imaging or artificial intelligence also seems to be useful in this matter. This review depicts the progressive development of these methods along with their academic and clinical application. The left ventricular-arterial coupling assessment may help both identify patients at risk and tailor specific pharmacological or interventional treatments.
Keyphrases
- left ventricular
- heart failure
- mitral valve
- hypertrophic cardiomyopathy
- artificial intelligence
- left atrial
- acute myocardial infarction
- cardiac resynchronization therapy
- aortic stenosis
- ejection fraction
- blood pressure
- healthcare
- multiple sclerosis
- pulmonary hypertension
- room temperature
- high resolution
- end stage renal disease
- systematic review
- transcatheter aortic valve replacement
- fluorescence imaging