Disease Analysis and Patient follow-ups
Two critical aspects of healthcare that aim to provide the best possible care to patients. Disease analysis involves the identification, diagnosis, and treatment of different diseases that affect individual.
Optimized Surgical Training
Using advanced imaging and computer-aided design to create a precise surgical plan, resulting in more accurate surgeries, shorter operating times and improved patient outcomes.
AI medical system
AI medical systems are an exciting development in the field of healthcare, with the potential to transform the way we diagnose, treat, and manage medical conditions.
3D printing for Customized Medicine
Using advanced technology to create custom medical implants tailored to an individual patient's anatomy and needs.
Computer Vision for Medicine
The process of aligning two or more medical images of the same patient, taken at different times or using different modalities, to enable comparison and improved diagnosis and treatment planning.
Robotic surgery Monitoring
Using advanced imaging and computer-guided technology to assist surgeons in performing highly precise surgical procedures with greater accuracy and efficiency.
AIMed commits to investigate the cutting-edge AI techniques for clinical applications
Years Of Exps.
Resources for Deep Learning
Enhancement of computational hardware for deep learning for grant-funded and self-initiated projects, and providing servers to multiple departments for clinical big data analysis, integrated with the most advanced hardware and software architecture, i.e. GPU speed up, training distribution. Advanced imaging requirements including µCT and 7T MRI. A data center with real-world clinical data with follow ups.
MRP/038/20X - A Non-radiation Artificial Intelligence Spine Deformity Diagnosis Dystem
ITS/404/18 - A Novel Mobile Application Enabling Automated Body Contour Comparison and Spine Alignment Examination Using Artificial Intelligence
ITS/470/16 - A Novel Osteoporotic Bone Fracture Simulation System Enabling Safer and More Effective Fracture Fixation Surgery and Implant Design for Elderly Patients
Hospital Authority HADCL Project A000005 - Automatic hip fractures detection using deep learning
AI (computer vision) segmentation of spine, knee, hip and shoulder and recognition of fracture pathologies for 3D printing and surgical guidance
AI (natural language) analysis of disease natural history and clinical notes in treatment response predictions and automated treatment planning
Clinical big data analysis,advanced hardware and software architecture.
Holographic sensing and Visualization
Holographic sensing and display system to simulate accurate or mobile geometries of body parts and/or implants, as well as visualize the geometry of the implants and/or the complex pathological parts for the purpose like teaching, pre-operative planning, surgical training, preparation for 3D printing and prototyping, development of the complex matrix for bio-printing, etc.
3D printed, surgical planning, medical education
Medical 3D printing
Medical 3D printing is a rapidly evolving technology that involves creating three-dimensional objects from digital models, specifically for use in healthcare and medical applications. By using materials such as plastics, metals, ceramics, and even living cells, it enables the production of patient-specific medical devices, implants, prosthetics, and anatomical models.
3D Printer,healthcare and medical applications.
World-class pre-clinical prototyping
World-class pre-clinical prototyping refers to the development and testing of innovative medical devices, therapies, or pharmaceuticals at the highest level of quality and precision before they enter clinical trials. This crucial phase ensures that the prototypes are safe, effective, and optimized for performance, minimizing risks and maximizing the likelihood of success in clinical testing and eventual market approval.
State-of-the-art facilities,Interdisciplinary collaboration,Rigorous testing and validation.
Implant quality control and performance testing
Advanced medical robotics include motion and stress simulation robot, exoskeleton and the surgical robot can upgrade the existing biomechanical simulation platform to a multipurpose robotic system. Thus, high-fidelity biomechanical conditions can be simulated in the laboratory environment, and automated navigated robotic surgeries can be investigated.
Medical robotics,navigated robotic surgeries.