Analysis and simulation of multimodal cardiac images to study the heart function

This thesis focuses on the analysis of the cardiac electrical and kinematic function for heart failure patients. An expected outcome is a set of computational tools that may help a clinician in understanding, diagnosing and treating patients suffering from cardiac motion asynchrony, a specific aspec...

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Main Author: Prakosa, Adityo
Language:ENG
Published: Université Nice Sophia Antipolis 2013
Subjects:
Online Access:http://tel.archives-ouvertes.fr/tel-00837857
http://tel.archives-ouvertes.fr/docs/00/83/78/57/PDF/2013NICE4003.pdf
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spelling ndltd-CCSD-oai-tel.archives-ouvertes.fr-tel-008378572013-09-25T03:06:33Z http://tel.archives-ouvertes.fr/tel-00837857 2013NICE4003 http://tel.archives-ouvertes.fr/docs/00/83/78/57/PDF/2013NICE4003.pdf Analysis and simulation of multimodal cardiac images to study the heart function Prakosa, Adityo [SPI:OTHER] Engineering Sciences/Other Cardiac motion tracking Synthetic cardiac sequences Cardiac inverse electro-kinematic learning This thesis focuses on the analysis of the cardiac electrical and kinematic function for heart failure patients. An expected outcome is a set of computational tools that may help a clinician in understanding, diagnosing and treating patients suffering from cardiac motion asynchrony, a specific aspect of heart failure. Understanding the inverse electro-kinematic coupling relationship is the main task of this study. With this knowledge, the widely available cardiac image sequences acquired non-invasively at clinics could be used to estimate the cardiac electrophysiology (EP) without having to perform the invasive cardiac EP mapping procedures. To this end, we use real clinical cardiac sequence and a cardiac electromechanical model to create controlled synthetic sequence so as to produce a training set in an attempt to learn the cardiac electro-kinematic relationship. Creating patient-specific database of synthetic sequences allows us to study this relationship using a machine learning approach. A first contribution of this work is a non-linear registration method applied and evaluated on cardiac sequences to estimate the cardiac motion. Second, a new approach in the generation of the synthetic but virtually realistic cardiac sequence which combines a biophysical model and clinical images is developed. Finally, we present the cardiac electrophysiological activation time estimation from medical images using a patient-specific database of synthetic image sequences. 2013-01-21 ENG PhD thesis Université Nice Sophia Antipolis
collection NDLTD
language ENG
sources NDLTD
topic [SPI:OTHER] Engineering Sciences/Other
Cardiac motion tracking
Synthetic cardiac sequences
Cardiac inverse electro-kinematic learning
spellingShingle [SPI:OTHER] Engineering Sciences/Other
Cardiac motion tracking
Synthetic cardiac sequences
Cardiac inverse electro-kinematic learning
Prakosa, Adityo
Analysis and simulation of multimodal cardiac images to study the heart function
description This thesis focuses on the analysis of the cardiac electrical and kinematic function for heart failure patients. An expected outcome is a set of computational tools that may help a clinician in understanding, diagnosing and treating patients suffering from cardiac motion asynchrony, a specific aspect of heart failure. Understanding the inverse electro-kinematic coupling relationship is the main task of this study. With this knowledge, the widely available cardiac image sequences acquired non-invasively at clinics could be used to estimate the cardiac electrophysiology (EP) without having to perform the invasive cardiac EP mapping procedures. To this end, we use real clinical cardiac sequence and a cardiac electromechanical model to create controlled synthetic sequence so as to produce a training set in an attempt to learn the cardiac electro-kinematic relationship. Creating patient-specific database of synthetic sequences allows us to study this relationship using a machine learning approach. A first contribution of this work is a non-linear registration method applied and evaluated on cardiac sequences to estimate the cardiac motion. Second, a new approach in the generation of the synthetic but virtually realistic cardiac sequence which combines a biophysical model and clinical images is developed. Finally, we present the cardiac electrophysiological activation time estimation from medical images using a patient-specific database of synthetic image sequences.
author Prakosa, Adityo
author_facet Prakosa, Adityo
author_sort Prakosa, Adityo
title Analysis and simulation of multimodal cardiac images to study the heart function
title_short Analysis and simulation of multimodal cardiac images to study the heart function
title_full Analysis and simulation of multimodal cardiac images to study the heart function
title_fullStr Analysis and simulation of multimodal cardiac images to study the heart function
title_full_unstemmed Analysis and simulation of multimodal cardiac images to study the heart function
title_sort analysis and simulation of multimodal cardiac images to study the heart function
publisher Université Nice Sophia Antipolis
publishDate 2013
url http://tel.archives-ouvertes.fr/tel-00837857
http://tel.archives-ouvertes.fr/docs/00/83/78/57/PDF/2013NICE4003.pdf
work_keys_str_mv AT prakosaadityo analysisandsimulationofmultimodalcardiacimagestostudytheheartfunction
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