no code implementations • 9 Apr 2024 • Ching-Kai Lin, Di-Chun Wei, Yun-Chien Cheng
Batch Spectral Regularization (BSR) will be incorporated as a loss update parameter, and the Finetune method of PMF will be modified.
no code implementations • 2 Apr 2024 • Jyun-An Lin, Yun-Chien Cheng, Ching-Kai Lin
This study introduces a three-dimensional image-based object detection model.
no code implementations • 4 May 2023 • Ching-Kai Lin, Chin-Wen Chen, Yun-Chien Cheng
This study designs an automatic diagnosis system based on a 3D neural network, uses the SlowFast architecture as the backbone to fuse temporal and spatial features, and uses the SwAV method of contrastive learning to enhance the noise robustness of the model.
no code implementations • 3 Jun 2022 • Chia-Hung Yang, Yun-Chien Cheng, Chin Kuo
The clinical symptoms of pulmonary embolism (PE) are very diverse and non-specific, which makes it difficult to diagnose.
no code implementations • 17 May 2022 • Chia-Hung Yang, Yun-Chien Cheng, Chin Kuo
This study is expected to propose a new approach to the clinical diagnosis of pulmonary embolism, in which a deep learning network is used to assist in the complex screening process and to review the generated simulated CTPA images, allowing physicians to assess whether a patient needs to undergo detailed testing for CTPA, improving the speed of detection of pulmonary embolism and significantly reducing the number of undetected patients.
no code implementations • 8 Apr 2022 • Ting-Wei Cheng, Jerry Chang, Ching-Chun Huang, Chin Kuo, Yun-Chien Cheng
By training the model with both labeled and unlabeled images, the accuracy of unlabeled images can be improved and the labeling cost can be reduced.
no code implementations • 7 Apr 2022 • Ching-Yuan Yu, Ming-Che Chang, Yun-Chien Cheng, Chin Kuo
This study was conducted to develop a computer-aided detection (CAD) system for triaging patients with pulmonary embolism (PE).
no code implementations • 29 Jul 2021 • Ching-Kai Lin, Shao-Hua Wu, Jerry Chang, Yun-Chien Cheng
To process the EBUS data in the form of a video and appropriately integrate the features of multiple imaging modes, we used a time-series three-dimensional convolutional neural network (3D CNN) to learn the spatiotemporal features and design a variety of architectures to fuse each imaging mode.