Atri-U: assisted image analysis in routine cardiovascular magnetic resonance volumetry of the left atrium
Abstract Background Artificial intelligence can assist in cardiac image interpretation. Here, we achieved a substantial reduction in time required to read a cardiovascular magnetic resonance (CMR) study to estimate left atrial volume without compromising accuracy or reliability. Rather than deployin...
Guardado en:
Autores principales: | , , , , , , , , , , , , , , |
---|---|
Formato: | article |
Lenguaje: | EN |
Publicado: |
BMC
2021
|
Materias: | |
Acceso en línea: | https://doaj.org/article/2c7dad674455468f9cb132fffb8fde99 |
Etiquetas: |
Agregar Etiqueta
Sin Etiquetas, Sea el primero en etiquetar este registro!
|
id |
oai:doaj.org-article:2c7dad674455468f9cb132fffb8fde99 |
---|---|
record_format |
dspace |
spelling |
oai:doaj.org-article:2c7dad674455468f9cb132fffb8fde992021-11-14T12:12:48ZAtri-U: assisted image analysis in routine cardiovascular magnetic resonance volumetry of the left atrium10.1186/s12968-021-00791-81532-429Xhttps://doaj.org/article/2c7dad674455468f9cb132fffb8fde992021-11-01T00:00:00Zhttps://doi.org/10.1186/s12968-021-00791-8https://doaj.org/toc/1532-429XAbstract Background Artificial intelligence can assist in cardiac image interpretation. Here, we achieved a substantial reduction in time required to read a cardiovascular magnetic resonance (CMR) study to estimate left atrial volume without compromising accuracy or reliability. Rather than deploying a fully automatic black-box, we propose to incorporate the automated LA volumetry into a human-centric interactive image-analysis process. Methods and results Atri-U, an automated data analysis pipeline for long-axis cardiac cine images, computes the atrial volume by: (i) detecting the end-systolic frame, (ii) outlining the endocardial borders of the LA, (iii) localizing the mitral annular hinge points and constructing the longitudinal atrial diameters, equivalent to the usual workup done by clinicians. In every step human interaction is possible, such that the results provided by the algorithm can be accepted, corrected, or re-done from scratch. Atri-U was trained and evaluated retrospectively on a sample of 300 patients and then applied to a consecutive clinical sample of 150 patients with various heart conditions. The agreement of the indexed LA volume between Atri-U and two experts was similar to the inter-rater agreement between clinicians (average overestimation of 0.8 mL/m2 with upper and lower limits of agreement of − 7.5 and 5.8 mL/m2, respectively). An expert cardiologist blinded to the origin of the annotations rated the outputs produced by Atri-U as acceptable in 97% of cases for step (i), 94% for step (ii) and 95% for step (iii), which was slightly lower than the acceptance rate of the outputs produced by a human expert radiologist in the same cases (92%, 100% and 100%, respectively). The assistance of Atri-U lead to an expected reduction in reading time of 66%—from 105 to 34 s, in our in-house clinical setting. Conclusions Our proposal enables automated calculation of the maximum LA volume approaching human accuracy and precision. The optional user interaction is possible at each processing step. As such, the assisted process sped up the routine CMR workflow by providing accurate, precise, and validated measurement results.Constantin AnastasopoulosShan YangMaurice PradellaTugba Akinci D’AntonoliSven KnechtJoshy CyriacMarco ReisertElias KellnerRita AchermannPhilip HaafBram StieltjesAlexander W. SauterJens BremerichGregor SommerAhmed AbdulkadirBMCarticleMagnetic resonance imagingHeart atriaArtificial intelligenceWorkflowAtrial fibrillationBiplane area-length methodDiseases of the circulatory (Cardiovascular) systemRC666-701ENJournal of Cardiovascular Magnetic Resonance, Vol 23, Iss 1, Pp 1-10 (2021) |
institution |
DOAJ |
collection |
DOAJ |
language |
EN |
topic |
Magnetic resonance imaging Heart atria Artificial intelligence Workflow Atrial fibrillation Biplane area-length method Diseases of the circulatory (Cardiovascular) system RC666-701 |
spellingShingle |
Magnetic resonance imaging Heart atria Artificial intelligence Workflow Atrial fibrillation Biplane area-length method Diseases of the circulatory (Cardiovascular) system RC666-701 Constantin Anastasopoulos Shan Yang Maurice Pradella Tugba Akinci D’Antonoli Sven Knecht Joshy Cyriac Marco Reisert Elias Kellner Rita Achermann Philip Haaf Bram Stieltjes Alexander W. Sauter Jens Bremerich Gregor Sommer Ahmed Abdulkadir Atri-U: assisted image analysis in routine cardiovascular magnetic resonance volumetry of the left atrium |
description |
Abstract Background Artificial intelligence can assist in cardiac image interpretation. Here, we achieved a substantial reduction in time required to read a cardiovascular magnetic resonance (CMR) study to estimate left atrial volume without compromising accuracy or reliability. Rather than deploying a fully automatic black-box, we propose to incorporate the automated LA volumetry into a human-centric interactive image-analysis process. Methods and results Atri-U, an automated data analysis pipeline for long-axis cardiac cine images, computes the atrial volume by: (i) detecting the end-systolic frame, (ii) outlining the endocardial borders of the LA, (iii) localizing the mitral annular hinge points and constructing the longitudinal atrial diameters, equivalent to the usual workup done by clinicians. In every step human interaction is possible, such that the results provided by the algorithm can be accepted, corrected, or re-done from scratch. Atri-U was trained and evaluated retrospectively on a sample of 300 patients and then applied to a consecutive clinical sample of 150 patients with various heart conditions. The agreement of the indexed LA volume between Atri-U and two experts was similar to the inter-rater agreement between clinicians (average overestimation of 0.8 mL/m2 with upper and lower limits of agreement of − 7.5 and 5.8 mL/m2, respectively). An expert cardiologist blinded to the origin of the annotations rated the outputs produced by Atri-U as acceptable in 97% of cases for step (i), 94% for step (ii) and 95% for step (iii), which was slightly lower than the acceptance rate of the outputs produced by a human expert radiologist in the same cases (92%, 100% and 100%, respectively). The assistance of Atri-U lead to an expected reduction in reading time of 66%—from 105 to 34 s, in our in-house clinical setting. Conclusions Our proposal enables automated calculation of the maximum LA volume approaching human accuracy and precision. The optional user interaction is possible at each processing step. As such, the assisted process sped up the routine CMR workflow by providing accurate, precise, and validated measurement results. |
format |
article |
author |
Constantin Anastasopoulos Shan Yang Maurice Pradella Tugba Akinci D’Antonoli Sven Knecht Joshy Cyriac Marco Reisert Elias Kellner Rita Achermann Philip Haaf Bram Stieltjes Alexander W. Sauter Jens Bremerich Gregor Sommer Ahmed Abdulkadir |
author_facet |
Constantin Anastasopoulos Shan Yang Maurice Pradella Tugba Akinci D’Antonoli Sven Knecht Joshy Cyriac Marco Reisert Elias Kellner Rita Achermann Philip Haaf Bram Stieltjes Alexander W. Sauter Jens Bremerich Gregor Sommer Ahmed Abdulkadir |
author_sort |
Constantin Anastasopoulos |
title |
Atri-U: assisted image analysis in routine cardiovascular magnetic resonance volumetry of the left atrium |
title_short |
Atri-U: assisted image analysis in routine cardiovascular magnetic resonance volumetry of the left atrium |
title_full |
Atri-U: assisted image analysis in routine cardiovascular magnetic resonance volumetry of the left atrium |
title_fullStr |
Atri-U: assisted image analysis in routine cardiovascular magnetic resonance volumetry of the left atrium |
title_full_unstemmed |
Atri-U: assisted image analysis in routine cardiovascular magnetic resonance volumetry of the left atrium |
title_sort |
atri-u: assisted image analysis in routine cardiovascular magnetic resonance volumetry of the left atrium |
publisher |
BMC |
publishDate |
2021 |
url |
https://doaj.org/article/2c7dad674455468f9cb132fffb8fde99 |
work_keys_str_mv |
AT constantinanastasopoulos atriuassistedimageanalysisinroutinecardiovascularmagneticresonancevolumetryoftheleftatrium AT shanyang atriuassistedimageanalysisinroutinecardiovascularmagneticresonancevolumetryoftheleftatrium AT mauricepradella atriuassistedimageanalysisinroutinecardiovascularmagneticresonancevolumetryoftheleftatrium AT tugbaakincidantonoli atriuassistedimageanalysisinroutinecardiovascularmagneticresonancevolumetryoftheleftatrium AT svenknecht atriuassistedimageanalysisinroutinecardiovascularmagneticresonancevolumetryoftheleftatrium AT joshycyriac atriuassistedimageanalysisinroutinecardiovascularmagneticresonancevolumetryoftheleftatrium AT marcoreisert atriuassistedimageanalysisinroutinecardiovascularmagneticresonancevolumetryoftheleftatrium AT eliaskellner atriuassistedimageanalysisinroutinecardiovascularmagneticresonancevolumetryoftheleftatrium AT ritaachermann atriuassistedimageanalysisinroutinecardiovascularmagneticresonancevolumetryoftheleftatrium AT philiphaaf atriuassistedimageanalysisinroutinecardiovascularmagneticresonancevolumetryoftheleftatrium AT bramstieltjes atriuassistedimageanalysisinroutinecardiovascularmagneticresonancevolumetryoftheleftatrium AT alexanderwsauter atriuassistedimageanalysisinroutinecardiovascularmagneticresonancevolumetryoftheleftatrium AT jensbremerich atriuassistedimageanalysisinroutinecardiovascularmagneticresonancevolumetryoftheleftatrium AT gregorsommer atriuassistedimageanalysisinroutinecardiovascularmagneticresonancevolumetryoftheleftatrium AT ahmedabdulkadir atriuassistedimageanalysisinroutinecardiovascularmagneticresonancevolumetryoftheleftatrium |
_version_ |
1718429337097601024 |