Cardiac valve event timing in echocardiography using deep learning and triplane recordings

Fuente: arXiv
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Hauptverfasser: Fermann, Benjamin Strandli, Nyberg, John, Remme, Espen W., Grue, Jahn Frederik, Grue, Helén, Håland, Roger, Lovstakken, Lasse, Dalen, Håvard, Grenne, Bjørnar, Aase, Svein Arne, Snar, Sten Roar, Østvik, Andreas
Format: Preprint
Veröffentlicht: 2024
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author Fermann, Benjamin Strandli
Nyberg, John
Remme, Espen W.
Grue, Jahn Frederik
Grue, Helén
Håland, Roger
Lovstakken, Lasse
Dalen, Håvard
Grenne, Bjørnar
Aase, Svein Arne
Snar, Sten Roar
Østvik, Andreas
author_facet Fermann, Benjamin Strandli
Nyberg, John
Remme, Espen W.
Grue, Jahn Frederik
Grue, Helén
Håland, Roger
Lovstakken, Lasse
Dalen, Håvard
Grenne, Bjørnar
Aase, Svein Arne
Snar, Sten Roar
Østvik, Andreas
contents Cardiac valve event timing plays a crucial role when conducting clinical measurements using echocardiography. However, established automated approaches are limited by the need of external electrocardiogram sensors, and manual measurements often rely on timing from different cardiac cycles. Recent methods have applied deep learning to cardiac timing, but they have mainly been restricted to only detecting two key time points, namely end-diastole (ED) and end-systole (ES). In this work, we propose a deep learning approach that leverages triplane recordings to enhance detection of valve events in echocardiography. Our method demonstrates improved performance detecting six different events, including valve events conventionally associated with ED and ES. Of all events, we achieve an average absolute frame difference (aFD) of maximum 1.4 frames (29 ms) for start of diastasis, down to 0.6 frames (12 ms) for mitral valve opening when performing a ten-fold cross-validation with test splits on triplane data from 240 patients. On an external independent test consisting of apical long-axis data from 180 other patients, the worst performing event detection had an aFD of 1.8 (30 ms). The proposed approach has the potential to significantly impact clinical practice by enabling more accurate, rapid and comprehensive event detection, leading to improved clinical measurements.
format Preprint
id arxiv_https___arxiv_org_abs_2403_10156
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Cardiac valve event timing in echocardiography using deep learning and triplane recordings
Fermann, Benjamin Strandli
Nyberg, John
Remme, Espen W.
Grue, Jahn Frederik
Grue, Helén
Håland, Roger
Lovstakken, Lasse
Dalen, Håvard
Grenne, Bjørnar
Aase, Svein Arne
Snar, Sten Roar
Østvik, Andreas
Image and Video Processing
Computer Vision and Pattern Recognition
Cardiac valve event timing plays a crucial role when conducting clinical measurements using echocardiography. However, established automated approaches are limited by the need of external electrocardiogram sensors, and manual measurements often rely on timing from different cardiac cycles. Recent methods have applied deep learning to cardiac timing, but they have mainly been restricted to only detecting two key time points, namely end-diastole (ED) and end-systole (ES). In this work, we propose a deep learning approach that leverages triplane recordings to enhance detection of valve events in echocardiography. Our method demonstrates improved performance detecting six different events, including valve events conventionally associated with ED and ES. Of all events, we achieve an average absolute frame difference (aFD) of maximum 1.4 frames (29 ms) for start of diastasis, down to 0.6 frames (12 ms) for mitral valve opening when performing a ten-fold cross-validation with test splits on triplane data from 240 patients. On an external independent test consisting of apical long-axis data from 180 other patients, the worst performing event detection had an aFD of 1.8 (30 ms). The proposed approach has the potential to significantly impact clinical practice by enabling more accurate, rapid and comprehensive event detection, leading to improved clinical measurements.
title Cardiac valve event timing in echocardiography using deep learning and triplane recordings
topic Image and Video Processing
Computer Vision and Pattern Recognition
url https://arxiv.org/abs/2403.10156