TABLE 4.
Application of AI in TCM industry technology.
Aim of study | AI methods | Results | REF |
---|---|---|---|
Study the value of tongue picture and tongue coating microflora in the diagnosis of gastric cancer | Deep learning | Developed three artificial intelligence deep learning diagnosis models based on tongue images | Yuan et al. (2023) |
Propose an artificial intelligence (AI) system for diagnosis of congenital heart diseases | Computed tomography images, deep learning | Proved the potential of our model to be integrated into current clinic practice to improve the diagnosis of CHD globally | Xu et al. (2023b) |
Introduce an automated tool -computer-assisted cardiac cavity tracking (CACCT) to identify complicated cardiac malformations in mouse hearts | Deep learning | CACCT can identify complicated cardiac malformations in mouse hearts automatically | Chu et al. (2020) |
report a clinically applicable system to detect gastric cancer | Deep convolutional neural network | The system could aid pathologists in improving diagnostic accuracy | Song et al. (2020) |
Propose a graph based multichannel feature fusion (GBMFF) method for wrist pulse diagnosis | Graph convolutional networks | Demonstrated the proposed AI-based method can obtain great performances | Zhang et al. (2021b) |
Assist diagnosis of tongue images and realize intelligent tongue diagnosis | U-Net with Global Convolution Network Module | Proposed an improved U-Net network which has a better segmentation effect and higher segmentation accuracy for fissured tongue image dataset | Li et al. (2021) |
Construct tongue coating recognition model to assist syndrome diagnosis | Convolutional neural network technique, greasy tongue coating recognition networks (GreasyCoatNet) | Derived a disease-specific deep learning network by finetuning the generic GreasyCoatNet | Wang et al. (2022e) |
Construction of Chinese herbal prescriptions from tongue images | Deep learning, CNNs | Verified the feasibility of the proposed method for the automatic construction of herbal prescriptions from tongue images | Hu et al. (2021) |
Developed an SPL analysis system for wide-field images | Deep convolutional neural networks (DCNNs) | The method can achieve dermatologist-level detection of suspicious pigmented skin lesions | Soenksen et al. (2021) |
Develop an artificial intelligence network to simulate the clinical decision-making of radiotherapy | 3D convolutional neural network | Proved the feasibility of artificial intelligence in predicting the dose prescription of CDM radiotherapy | Cao et al. (2023) |
Opens an avenue for mental health and evaluates the impact of therapeutic interventions to enhance a holistic state of health | Decision Tree Algorithms, machine learning | Offered a unique approach to characterizing health issues related to psychosomatic health | Morande (2022) |
Enhance the explainability of AI applications in healthcare for hospital recommendation | Deep learning, decision trees | Improved the explainability of AI applications in healthcare | Wang et al. (2023c) |
Summarize the application of AI in healthcare sector | Machine learning | Although AI holds significant potential for improving patient care, it also presents risks and challenges | Polevikov (2023) |