Minimalist Approach to 3-D Heart Modeling: a Novel Morphing Algorithm Relying on Four Anatomical Landmarks

Computer heart modeling serves as a pivotal tool across diverse disciplines, facilitating the interpretation of electrical and mechanical information.The process of generating accurate patient-specific 3D heart model poses significant challenges, demanding time, expertise, and computational resources as established by both manual and artificial intelligent and deep-learning driven methods.In this paper, we introduce a novel morphing algorithm for generating 3D heart models with minimal input.By pinpointing four key anatomical landmarks which are the heart apex and the centers of the Mitral, Pulmonary, and Tricuspid valves -our approach leverages a template model for the ventricles.This algorithm scales the ventricles of the heart along their primary axes and aligns them using translation and rotation based on the landmark locations.It was tested on a dataset of 94 models revealing promising outcomes, both visually and quantitatively.Specifically, the median percentage error in the estimation of endocardial left volume and of endocardial right volume are lower than 13% and 6%, respectively.Importantly, our method offers a rapid, efficient alternative, making it accessible to a broader range of users which would open the way for a new modeling method that is fast and might satisfy the need in inverse ECG applications.1.

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Publication Details

Journal
Computing in cardiology
Published
2024-12-01
DOI
https://doi.org/10.22489/cinc.2024.276
Primary Topic
Medical Image Segmentation Techniques
Type
article
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article

Minimalist Approach to 3-D Heart Modeling: a Novel Morphing Algorithm Relying on Four Anatomical Landmarks

Agnese Sbrollini, Peter van Dam, Laura Burattini, MHD Jafar Mortada
Computing in cardiology
Medical Image Segmentation Techniques
article

Minimalist Approach to 3-D Heart Modeling: a Novel Morphing Algorithm Relying on Four Anatomical Landmarks

Agnese Sbrollini, Peter van Dam, Laura Burattini, MHD Jafar Mortada
article en

Abstract

Computer heart modeling serves as a pivotal tool across diverse disciplines, facilitating the interpretation of electrical and mechanical information.The process of generating accurate patient-specific 3D heart model poses significant challenges, demanding time, expertise, and computational resources as established by both manual and artificial intelligent and deep-learning driven methods.In this paper, we introduce a novel morphing algorithm for generating 3D heart models with minimal input.By pinpointing four key anatomical landmarks which are the heart apex and the centers of the Mitral, Pulmonary, and Tricuspid valves -our approach leverages a template model for the ventricles.This algorithm scales the ventricles of the heart along their primary axes and aligns them using translation and rotation based on the landmark locations.It was tested on a dataset of 94 models revealing promising outcomes, both visually and quantitatively.Specifically, the median percentage error in the estimation of endocardial left volume and of endocardial right volume are lower than 13% and 6%, respectively.Importantly, our method offers a rapid, efficient alternative, making it accessible to a broader range of users which would open the way for a new modeling method that is fast and might satisfy the need in inverse ECG applications.1.

Computing in cardiologyVol. 51
Openalex Percentile: Top 77%
Medical Image Segmentation Techniques
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