Use of real-time and storable image data stream for generation of an immersive virtual universe in metaverse or a 3-D hologram, for medical and veterinary teaching and training

Smart overview of the Invention

A method has been developed to create a three-dimensional (3-D) virtual image of a patient within a metaverse or as a 3-D hologram for surgical procedures. This approach allows medical practitioners to visualize organs and instrument placements in real-time, enhancing their ability to perform complex operations. The generated image data can be stored for later use, serving as an educational and training resource for medical professionals.

Current Limitations in Medical Imaging

Surgeons currently face challenges with limited visibility during procedures, relying on narrow optical views through microscopes or instruments. While existing imaging technologies like MRI and CT scans provide high-resolution images, they do not offer real-time visualization necessary for immediate surgical guidance. Moreover, real-time imaging techniques like ultrasound and X-ray have lower resolution, making them less effective for detailed surgical tasks.

Proposed Solution

The proposed solution combines fast imaging techniques such as ultrasound with high-resolution scans from MRI or CT. By merging these data sources, a continuously updating 3-D virtual image can be generated, allowing practitioners to navigate the surgical field with enhanced visual capabilities. This integration creates a metaverse environment where surgical actions can be monitored and adjusted in real-time.

Benefits of the Metaverse Implementation

The immersive metaverse platform provides significant advantages for both medical and veterinary fields. It allows for real-time interaction among surgical teams, represented as avatars, improving communication and coordination during procedures. Additionally, it serves as a diagnostic tool and training platform, enabling practitioners to familiarize themselves with specific cases before surgery, thereby reducing risks and improving outcomes.

Future Prospects

The ongoing development of imaging technologies is expected to enhance the feasibility of using high-resolution scans in real-time applications. With advancements in computing power and imaging sensitivity, the potential for combining various scanning methods will lead to more effective real-time monitoring during medical procedures. This innovative approach could revolutionize how surgeries are conducted, ultimately improving patient care and procedural success rates.