左心室舒张功能评估:英国超声心动图学会的指导和建议。

IF 3.2 Q2 CARDIAC & CARDIOVASCULAR SYSTEMS
Shaun Robinson, Liam Ring, David Oxborough, Allan Harkness, Sadie Bennett, Bushra Rana, Nilesh Sutaria, Francesco Lo Giudice, Matthew Shun-Shin, Maria Paton, Rae Duncan, James Willis, Claire Colebourn, Gemma Bassindale, Kate Gatenby, Mark Belham, Graham Cole, Daniel Augustine, Otto A Smiseth
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引用次数: 0

摘要

左心室(LV)舒张功能受损在左心疾病患者中很常见,并且与严重的发病率有关。简单地说,心室只能射出其充盈时的容量,而因心力衰竭(HF)住院的患者中约有一半左心室射血分数正常/"保留"(HFpEF)(Bianco 等人,发表于《JACC Cardiovasc Imaging》,13:258-271,2020 年。13:258-271, 2020.10.1016/j.jcmg.2018.12.035),其中心室充盈异常是导致症状的原因,很明显,评估左心室舒张功能(LVDF)对于了解整体心脏功能和识别疾病过程的广泛影响至关重要。测量左心室舒张压和充盈压的侵入性方法被认为是调查舒张功能的黄金标准。然而,经胸超声心动图(TTE)的时间分辨率高,测量结果经过广泛验证且具有可重复性,可在患者床旁进行,无需进行涉及电离辐射的侵入性操作,这使得超声心动图成为主要的成像方式。因此,全面评估 LVDF 是标准 TTE 的基本要素(Robinson 等人,Echo Res Pract7:G59-G93, 2020.)然而,舒张功能的超声心动图评估非常复杂。从最广义和最基本的角度来说,心室舒张包括一个早期充盈阶段,此时血液通过抽吸被吸入心室,心室在之前的收缩收缩和缩短后迅速回缩和延长。在舒张晚期,当心房收缩对心室充盈起积极作用时,顺应性左心室随之扩张。当左心室舒张功能正常时,无论是在静息状态还是在用力时,心室都能在低压下充盈。然而,这一基本描述仅仅概括了使舒张过程得以进行的复杂生理过程,并根据心室充盈的机械方法对其进行了定义,忽略了决定左心室充盈能力的心肌功能、心腔顺应性和压力差的特性。与利用单一参数(左心室射血分数(LVEF)和整体纵向应变(GLS))来定义心肌功能的心室收缩功能不同,舒张功能的评估依赖于对多个心肌和血流速度参数以及左心房(LA)大小和功能的解读,以诊断心肌功能是否受损及其受损程度。因此,舒张功能的超声心动图评估是多方面的、复杂的,需要一种算法方法,将不同负荷条件下的心肌松弛/回缩、心腔顺应性和功能参数以及发生这些过程的腔内压力结合起来。本指南概述了评估舒张功能的结构化方法,包括评估左心室松弛和充盈压的建议。在介绍非常规超声心动图测量方法的同时,还介绍了在特定情况下的应用指南。此外,还介绍了揭示用力时充盈压增加的启发性方法,并考虑了新出现的模式。为便于快速查阅舒张功能指南的核心建议,指南主文件还附有快速参考指南(附加文件 1)。该指南非常简短地详细描述了每个患者组的舒张功能检查,并包括所有算法和核心参考表格。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
The assessment of left ventricular diastolic function: guidance and recommendations from the British Society of Echocardiography.

Impairment of left ventricular (LV) diastolic function is common amongst those with left heart disease and is associated with significant morbidity. Given that, in simple terms, the ventricle can only eject the volume with which it fills and that approximately one half of hospitalisations for heart failure (HF) are in those with normal/'preserved' left ventricular ejection fraction (HFpEF) (Bianco et al. in JACC Cardiovasc Imaging. 13:258-271, 2020. 10.1016/j.jcmg.2018.12.035), where abnormalities of ventricular filling are the cause of symptoms, it is clear that the assessment of left ventricular diastolic function (LVDF) is crucial for understanding global cardiac function and for identifying the wider effects of disease processes. Invasive methods of measuring LV relaxation and filling pressures are considered the gold-standard for investigating diastolic function. However, the high temporal resolution of trans-thoracic echocardiography (TTE) with widely validated and reproducible measures available at the patient's bedside and without the need for invasive procedures involving ionising radiation have established echocardiography as the primary imaging modality. The comprehensive assessment of LVDF is therefore a fundamental element of the standard TTE (Robinson et al. in Echo Res Pract7:G59-G93, 2020. 10.1530/ERP-20-0026). However, the echocardiographic assessment of diastolic function is complex. In the broadest and most basic terms, ventricular diastole comprises an early filling phase when blood is drawn, by suction, into the ventricle as it rapidly recoils and lengthens following the preceding systolic contraction and shortening. This is followed in late diastole by distension of the compliant LV when atrial contraction actively contributes to ventricular filling. When LVDF is normal, ventricular filling is achieved at low pressure both at rest and during exertion. However, this basic description merely summarises the complex physiology that enables the diastolic process and defines it according to the mechanical method by which the ventricles fill, overlooking the myocardial function, properties of chamber compliance and pressure differentials that determine the capacity for LV filling. Unlike ventricular systolic function where single parameters are utilised to define myocardial performance (LV ejection fraction (LVEF) and Global Longitudinal Strain (GLS)), the assessment of diastolic function relies on the interpretation of multiple myocardial and blood-flow velocity parameters, along with left atrial (LA) size and function, in order to diagnose the presence and degree of impairment. The echocardiographic assessment of diastolic function is therefore multifaceted and complex, requiring an algorithmic approach that incorporates parameters of myocardial relaxation/recoil, chamber compliance and function under variable loading conditions and the intra-cavity pressures under which these processes occur. This guideline outlines a structured approach to the assessment of diastolic function and includes recommendations for the assessment of LV relaxation and filling pressures. Non-routine echocardiographic measures are described alongside guidance for application in specific circumstances. Provocative methods for revealing increased filling pressure on exertion are described and novel and emerging modalities considered. For rapid access to the core recommendations of the diastolic guideline, a quick-reference guide (additional file 1) accompanies the main guideline document. This describes in very brief detail the diastolic investigation in each patient group and includes all algorithms and core reference tables.

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来源期刊
Echo Research and Practice
Echo Research and Practice CARDIAC & CARDIOVASCULAR SYSTEMS-
CiteScore
6.70
自引率
12.70%
发文量
11
审稿时长
8 weeks
期刊介绍: Echo Research and Practice aims to be the premier international journal for physicians, sonographers, nurses and other allied health professionals practising echocardiography and other cardiac imaging modalities. This open-access journal publishes quality clinical and basic research, reviews, videos, education materials and selected high-interest case reports and videos across all echocardiography modalities and disciplines, including paediatrics, anaesthetics, general practice, acute medicine and intensive care. Multi-modality studies primarily featuring the use of cardiac ultrasound in clinical practice, in association with Cardiac Computed Tomography, Cardiovascular Magnetic Resonance or Nuclear Cardiology are of interest. Topics include, but are not limited to: 2D echocardiography 3D echocardiography Comparative imaging techniques – CCT, CMR and Nuclear Cardiology Congenital heart disease, including foetal echocardiography Contrast echocardiography Critical care echocardiography Deformation imaging Doppler echocardiography Interventional echocardiography Intracardiac echocardiography Intraoperative echocardiography Prosthetic valves Stress echocardiography Technical innovations Transoesophageal echocardiography Valve disease.
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