Latent Space Denoising Model for High-Precision 3D Cardiac Model Generation

This study introduces a Latent Space Denoising Model for generating high-precision 3D cardiac models, tailored to assist in the diagnosis and treatment of cardiac-related diseases. By integrating patient-specific physiological data, medical imaging reports, and advanced Diffusion model techniques, the proposed method overcomes the limitations of traditional geometric reconstruction and image registration methods. The generated 3D models accurately preserve critical anatomical features such as the aortic root, valve junction, and aortic annulus, enabling enhanced preoperative evaluation and surgical planning. Experimental results demonstrate the model's ability to produce detailed and physiologically accurate cardiac structures, emphasizing its potential for clinical applications. The study lays the groundwork for further development and validation of 3D cardiac modeling technologies, with the ultimate goal of improving precision and outcomes in cardiac care.

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Published
2025-03-29
DOI
https://doi.org/10.1109/icct-pacific63901.2025.11012812
Primary Topic
Medical Image Segmentation Techniques
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article
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Latent Space Denoising Model for High-Precision 3D Cardiac Model Generation

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Latent Space Denoising Model for High-Precision 3D Cardiac Model Generation

Chia-Hsuan Wu, Doan Hung Tran, Yi-Zeng Hsieh, Chien-Hsing Chou, Zhexiao Lin, Mu Su, Yi Liu, Chun Chen, Cheng-Hou Chou, Yudhistira Arditya Pratama, Theophilus Ezra Nugroho Pandin
article en

Abstract

This study introduces a Latent Space Denoising Model for generating high-precision 3D cardiac models, tailored to assist in the diagnosis and treatment of cardiac-related diseases. By integrating patient-specific physiological data, medical imaging reports, and advanced Diffusion model techniques, the proposed method overcomes the limitations of traditional geometric reconstruction and image registration methods. The generated 3D models accurately preserve critical anatomical features such as the aortic root, valve junction, and aortic annulus, enabling enhanced preoperative evaluation and surgical planning. Experimental results demonstrate the model's ability to produce detailed and physiologically accurate cardiac structures, emphasizing its potential for clinical applications. The study lays the groundwork for further development and validation of 3D cardiac modeling technologies, with the ultimate goal of improving precision and outcomes in cardiac care.

National Taiwan University of Science and Technology (TW), National Taipei University of Education (TW)
Affordable and clean energy
Openalex Percentile: Top 90%
Medical Image Segmentation Techniques
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