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Overview of the Whole Heart and Heart Chamber Segmentation Methods
Marija Habijan1, Danilo Babin2, Irena Galić3
1Faculty of Electrical Engineering, Computer Science and Information Technology Osijek, Kneza Trpimira 2b, 31000, Osijek, Croatia. marija.habijan@ferit.hr.
Insights
This review overviews cardiac image segmentation methods for cardiovascular disease (CVD) research. It compares edge-based, model-fitting, and deep learning approaches across CT, MRI, and echocardiography, highlighting challenges and performance factors.
Area of Science:
- Medical Imaging
- Cardiovascular Research
- Image Processing
Background:
- Cardiovascular disease (CVD) research prioritizes heart and vessel health.
- Advanced imaging techniques enhance understanding of disease physiology and progression.
- Cardiac image processing aims for comprehensive cardiac analysis, but modality differences pose segmentation challenges.
Purpose of the Study:
- To critically review segmentation methods for the whole heart, bi-ventricles, and left atrium.
- To compare segmentation techniques across Computed Tomography (CT), Magnetic Resonance Imaging (MRI), and echocardiography (echo).
- To summarize segmentation challenges, classify contributions, and evaluate method performance and accuracy.
Main Methods:
- Methods are classified into edge-based, model-fitting, and machine/deep learning approaches.
- Segmentation methods are further categorized by the targeted cardiac structure.
- A critical review assesses the performance and accuracy of various segmentation techniques.
Main Results:
- Edge-based methods offer semi-automatic control for physicians.
- Model-fitting methods are robust to image quality variations but require prior knowledge.
- Deep learning methods show high performance with sufficient, accurate training data.
Conclusions:
- The choice of segmentation algorithm depends on imaging modality and desired level of automation.
- Each segmentation approach (edge-based, model-fitting, deep learning) has distinct advantages and limitations.
- Future research should focus on improving the robustness and data efficiency of deep learning cardiac segmentation.
Background:
Preservation and improvement of heart and vessel health is the primary motivation behind cardiovascular disease (CVD) research. Development of advanced imaging techniques can improve our understanding of disease physiology and serve as a monitor for disease progression. Various image processing approaches have been proposed to extract parameters of cardiac shape and function from different cardiac imaging modalities with an overall intention of providing full cardiac analysis. Due to differences in image modalities, the selection of an appropriate segmentation algorithm may be a challenging task.
Purpose:
This paper presents a comprehensive and critical overview of research on the whole heart, bi-ventricles and left atrium segmentation methods from computed tomography (CT), magnetic resonance (MRI) and echocardiography (echo) imaging. The paper aims to: (1) summarize the considerable challenges of cardiac image segmentation, (2) provide the comparison of the segmentation methods, (3) classify significant contributions in the field and (4) critically review approaches in terms of their performance and accuracy.
Conclusion:
The methods described are classified based on the used segmentation approach into (1) edge-based segmentation methods, (2) model-fitting segmentation methods and (3) machine and deep learning segmentation methods and are further split based on the targeted cardiac structure. Edge-based methods are mostly developed as semi-automatic and allow end-user interaction, which provides physicians with extra control over the final segmentation. Model-fitting methods are very robust and resistant to the high variability in image contrast and overall image quality. Nevertheless, they are often time-consuming and require appropriate models with prior knowledge. While the emerging deep learning segmentation approaches provide unprecedented performance in some specific scenarios and under the appropriate training, their performance highly depends on the data quality and the amount and the accuracy of provided annotations.
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