General large language models (LLMs) such as ChatGPT have shown remarkable success.
Mobile ultrasound device suffer from low imaging quality due to hardware limitations. This research aims to improve the image quality by developing a deep learning-based algorithm, providing a more clear and high-quality ultrasound image.
In recent years, especially during the COVID-19 pandemic,a large number of Computerized Tomography (CT) imagesare produced every day for the purpose of inspecting lung diseases.
Remote photoplethysmography (rPPG) is a non-invasive method that monitors heart rate (HR) and other vital signs by detecting tiny color changes in the face caused by blood flow under the skin.
The quality of multi-focus microscopic image fusion hinges upon the precision of the image registration technology.
Nuclear medicine imaging uses radioactive tracers to reveal cellular physiology, providing key insights for diagnosis and treatment. It transcends traditional imaging by focusing on molecular activity, promoting personalized medicine.
A hybrid supervised fusion deep learning framework for microscope multi-focus images
Our research focuses on the intricate world of cross-organ, multi-modality imaging, delving into a diverse array of medical imaging techniques
The application of artificial intelligence algorithms in the diagnosis of retinal diseases is progressively leading the transformation of the field of medicine.
Computer-assisted surgery (CAS) has ushered in a transformative era for minimally invasive procedures, with the DaVinci Surgical System at the forefront as a cutting-edge robotic surgical platform
Analysis of MRI images included APTw imaging analysis and tumor segmentation, whole-genome analysis, and denoising.
Traditional pigeon farming heavily relies on manual observation and experience-based judgment, making it difficult to monitor the health status of the flock and detect abnormal behaviors in real-time.
Efficient PCB defect detection is vital for maintaining high-quality and reliable electronic devices, leading to benefits such as improved product quality, cost reduction, regulatory compliance, brand reputation, and enhanced device lifespan. Additionally, it enhances market competitiveness by meeting industry standards.
The study of breast dense tissue is of great significance for the evaluation of breast health, the early detection of breast diseases and the risk assessment of breast cancer
Ultrasound imaging is widely utilized in clinical settings due to its cost-effectiveness, mobility, and safety. While current research in medical universal AI predominantly focuses on language models and general image segmentation, our study introduces a novel universal framework tailored specifically for ultrasound applications
In radiation therapy planning, CT images provide crucial tissue electron density information for dose calculation. However, CT scans expose patients to additional radiation. Although MRI images do not produce radiation, their unique signal characteristics require precise mapping to corresponding CT manifestations to ensure the effectiveness and safety of treatment. Therefore, generating high-quality pseudo-CT images from specific organ MRI data is of significant importance.
This research highlights the potential of transfer learning and contrastive learning in enhancing CAD performance for breast cancer detection
Breast cancer claims many lives annually. Early and accurate detection via AI-enhanced mammography improves diagnosis of calcifications and masses, easing radiologists' workloads and boosting patient survival rates. Our project uses a modified U-Net model
In real-world applications, the performance of artificial intelligence models often declines when there are discrepancies between training data and the data encountered in deployment environments—a challenge commonly known as domain shift. This issue is particularly critical in data-sensitive fields such as medical imaging, where collecting and labeling new domain-specific data is costly and time-consuming.
Advancements in deep learning and computer vision provide promising solutions for medical image analysis, potentially improving healthcare and patient outcomes.Self-supervised learning has the potential to make significant contributions to the development of robust medical imaging models through its ability to learn useful insights from copious medical datasets without labels.
3D medical image segmentation is pivotal in both academic and engineering domains. nnUNet, a recent deep learning-based innovation, has demonstrated state-of-the-art performance.
With the increasing of population aging, aging research has gradually become an important subject in the biomedical field. Human aging is not only the accumulation of physiological changes, but also the precursor of many diseases. Therefore, in-depth research on the aging process is of great significance for early disease prevention and health management.
Artificial Intelligence Generated Content (AIGC) is a hot research direction in the field of artificial intelligence. Our team is dedicated to exploring the applications of AIGC technology in computer vision and graphics.
In echocardiography, accurate segmentation of the left ventricle at end-diastole (ED) and end-systole (ES) is crucial for quantitative assessment of left ventricular ejection fraction. However, as a dynamic imaging modality requiring real-time analysis and frequently performed in various clinical settings with portable devices, this challenges mainstream approaches that primarily enhance model performance by increasing the number of parameters and computational costs, while lacking targeted optimization for its characteristics. To address these challenges, we propose BLENet, a lightweight segmentation model inspired by biological vision mechanisms.
Camera-based remote photoplethysmography (rPPG) enables contactless monitoring of important physiological signals such as heart rate (HR), with transformative potential for clinical applications. Despite the unprecedented advancements achieved by deep learning-based approaches, they predominantly overlook age-specific physiological differences, limiting their clinical generalizability.