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Published on: May 24, 2021
Automatic classification of heart failure based on Cine-CMR images
Yuan Xie1, Hai Zhong1, Jiaqi Wu2
1School of Biomedical Engineering, Shanghai Jiao Tong University, Shanghai, China.
Insights
This study introduces 4D-SSLHF, a novel framework for classifying heart failure (HF) using cardiac MRI. The method effectively integrates spatial and temporal data, improving diagnostic accuracy for personalized patient treatment.
Area of Science:
- Cardiology
- Medical Imaging
- Artificial Intelligence
Background:
- Heart failure (HF) is a critical condition with high mortality.
- Accurate HF classification aids clinical diagnosis and treatment planning.
- Previous self-supervised learning (SSLHF) for HF classification on Cine-CMR lacked 4D data integration.
Purpose of the Study:
- To propose an automatic 4D heart failure classification algorithm.
- To enhance HF classification by integrating spatial and temporal information from Cine-CMR.
- To develop an advanced self-supervised learning framework for HF diagnosis.
Main Methods:
- Introduced the 4D-SSLHF framework, combining self-supervised image restoration and HF classification.
- Utilized three image transformation methods for enhanced spatial and temporal information exploration.
- Employed a Siamese Conv-LSTM network to integrate four-dimensional features simultaneously.
Main Results:
- Achieved an AUC of 0.8794 and ACC of 0.8402 on 184 patients via five-fold cross-validation.
- Demonstrated significant improvements over previous work, with AUC increasing by 2.89% and ACC by 1.94%.
- Validated the framework's effectiveness in accurately classifying different HF categories.
Conclusions:
- Proposed the novel 4D-SSLHF framework for HF classification using Cine-CMR.
- The 4D-SSLHF effectively mines 3D spatial and temporal information for accurate HF classification.
- The method shows potential in assisting physicians with personalized HF treatment strategies.
Purpose:
Heart failure (HF) is a serious and complex syndrome with a high mortality rate. In clinical diagnosis, the correct classification of HF is helpful. In our previous work, we proposed a self-supervised learning framework of HF classification (SSLHF) on cine cardiac magnetic resonance images (Cine-CMR). However, this method lacks the integration of three dimensions of spatial information and temporal information. Thus, this study aims at proposing an automatic 4D HF classification algorithm.
Methods:
To construct a 4D classification model, we proposed an extensional framework called 4D-SSLHF. It mainly consists of self-supervised image restoration and HF classification. The image restoration proxy task utilizes three image transformation methods to enhance the exploration of spatial and temporal information in the Cine-CMR. In the classification task, we proposed a Siamese Conv-LSTM network by combining the Siamese network and bi-directional Conv-LSTM to integrate the features of the four dimensions simultaneously.
Results:
Experimental results on 184 patients from Shanghai Chest Hospital achieved an AUC of 0.8794 and an ACC of 0.8402 in the five-fold cross-validation. Compared with our previous work, the improvements in AUC and ACC were 2.89 % and 1.94 %, respectively.
Conclusions:
In this study, we proposed a novel self-supervised learning framework named 4D-SSLHF for HF classification based on Cine-CMR. The proposed 4D-SSLHF can mine 3D spatial information and temporal information in Cine-CMR images well and accurately classify different categories of HF. The good classification results show our method's potential to assist physicians in choosing personalized treatment.
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