20240045491. MEDICAL IMAGE OVERLAYS FOR AUGMENTED REALITY EXPERIENCES simplified abstract (Unknown Organization)

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MEDICAL IMAGE OVERLAYS FOR AUGMENTED REALITY EXPERIENCES

Organization Name

Unknown Organization

Inventor(s)

Alexander Sourov of Seattle WA (US)

MEDICAL IMAGE OVERLAYS FOR AUGMENTED REALITY EXPERIENCES - A simplified explanation of the abstract

This abstract first appeared for US patent application 20240045491 titled 'MEDICAL IMAGE OVERLAYS FOR AUGMENTED REALITY EXPERIENCES

Simplified Explanation

The abstract describes a patent application for a medical image overlay application that can be used with augmented reality (AR) eyewear devices. The application allows users to activate an image overlay on the display of the eyewear device when the camera field of view detects a medical image location. These locations are defined relative to virtual markers. The image overlay includes one or more medical images presented with a configurable transparency value. An image registration tool is used to transform the location and scale of each medical image to match the physical environment, ensuring that the displayed medical image closely matches the location and size of real objects.

  • The patent application is for a medical image overlay application for AR eyewear devices.
  • Users can activate an image overlay on the display when a medical image location is detected.
  • Medical image locations are defined relative to virtual markers.
  • The image overlay includes one or more medical images presented with a configurable transparency value.
  • An image registration tool is used to match the location and scale of each medical image to the physical environment.
  • This ensures that the displayed medical image closely matches the location and size of real objects.

Potential Applications

  • Medical training and education: The technology can be used to enhance medical training and education by overlaying medical images onto real objects, providing a more immersive and interactive learning experience.
  • Surgical guidance: Surgeons can use the image overlay to visualize medical images during procedures, improving accuracy and reducing the need for additional imaging equipment.
  • Telemedicine: The technology can be used in telemedicine applications, allowing remote healthcare providers to view and interact with medical images in real-time, enhancing diagnostic capabilities.

Problems Solved

  • Accurate image visualization: The technology solves the problem of accurately visualizing medical images in the physical environment, ensuring that the displayed images closely match the location and size of real objects.
  • Improved user experience: The image overlay application provides a more intuitive and immersive user experience, allowing users to interact with medical images in a natural and seamless way.

Benefits

  • Enhanced medical visualization: The technology allows for the overlay of medical images onto real objects, providing healthcare professionals with a better understanding of the spatial relationship between the images and the patient's anatomy.
  • Improved accuracy and efficiency: By visualizing medical images in real-time during procedures, surgeons can improve accuracy and efficiency, leading to better patient outcomes.
  • Cost-effective solution: The use of AR eyewear devices eliminates the need for additional imaging equipment, reducing costs and improving accessibility to medical imaging technology.


Original Abstract Submitted

a medical image overlay application for use with augmented reality (ar) eyewear devices. the image overlay application enables a user of an eyewear device to activate an image overlay on a display when the eyewear device detects that the camera field of view includes a medical image location. medical image locations are defined relative to virtual markers. the image overlay includes one or more medical images, presented according to a configurable transparency value. an image registration tool transforms the location and scale of each medical image to the physical environment, such that the medical image as presented on the display closely matches the location and size of real objects.