Use of immersive real-time metaverse and avatar and 3-D hologram for medical and veterinary applications using spatially coordinated multi-imager based 3-D imaging

Smart overview of the Invention

A novel approach is proposed for generating three-dimensional (3-D) virtual images of patients within a metaverse environment, specifically designed for surgical and medical procedures. This method allows a medical practitioner’s avatar to replicate their actions, enabling real-time identification of organs and instrument locations during operations. The integration of various imaging technologies facilitates a comprehensive visualization tool that supports training, diagnostics, and procedural guidance, thereby enhancing the capabilities of medical professionals.

Current Limitations in Medical Imaging

Presently, many surgical procedures rely on narrow-field views through microscopes or optical cables, limiting the surgeon's visual access to the operating area. While advanced imaging techniques like MRI, CT scans, and ultrasound are widely used for diagnostics, they often lack real-time capabilities necessary for surgical applications. The slow reconstruction processes and limited resolution of these imaging methods hinder their effectiveness during live procedures.

Proposed Imaging Techniques

The proposed method combines fast imaging techniques such as ultrasound or low-intensity X-ray with high-resolution scanning methods like MRI or CT. This combination aims to generate spatially aligned, continuously updating 3-D images that provide clear visibility of the surgical field. By embedding sensors in medical instruments and attire, the actions within the operating environment can be accurately tracked and represented in real-time within the metaverse.

Benefits for Medical Practitioners

The implementation of this immersive metaverse platform offers significant advantages for both medical and veterinary practitioners. It allows for real-time guidance on tool placement and medication administration while fostering collaboration among surgical teams through direct interaction as avatars. Additionally, this system enables virtual practice on 3-D holographic representations of patients before actual procedures, thereby reducing risks and improving success rates.

Future Implications

This innovative approach to medical imaging holds promise for transforming surgical practices by creating a fully immersive environment where practitioners can operate with enhanced visibility and control. As technology advances, it is anticipated that improvements in imaging speed and resolution will further enhance the efficacy of this method. Ultimately, this could lead to more efficient procedures, reduced costs, and better patient outcomes across various medical fields.