Abstract: A 360 video is presented in a three dimensional (3D) environment. Rather than simply stacking graphics in two dimensions, graphics are placed using both 3D models and textures. The 3D models may be altered so that the texture is aligned in three dimensions into the 360 video space. An instance of a 3D model combined with a key and fill texture form a group. The group has a 3D orientation and placement so that the group as aligned into the 360 degree video space may not be visible from all user look directions. The inserted groups, including live video as well as static graphics, may be projected into either mono or stereo views to give the viewer a sense of space, depth, and orientation.

Abstract: A 360 video is presented in a three dimensional (3D) environment. Rather than simply stacking graphics in two dimensions, graphics are placed using both 3D models and textures. The 3D models may be altered so that the texture is aligned in three dimensions into the 360 video space. An instance of a 3D model combined with a key and fill texture form a group. The group has a 3D orientation and placement so that the group as aligned into the 360 degree video space may not be visible from all user look directions. The inserted groups, including live video as well as static graphics, may be projected into either mono or stereo views to give the viewer a sense of space, depth, and orientation.

Abstract: There is provided a system and a method for use by the system to provide live panoramic image capture and distribution. In one implementation, such a method includes capturing multiple perspectives of a visual environment, combining at least a subset of those perspectives to produce a panoramic image of the visual environment, and encoding the panoramic image to generate panoramic image data. The method also includes transmitting the first panoramic image data to a routing and processing portal for distribution of the panoramic image in real-time.

Abstract: There is provided a system and a method for use by the system to provide live panoramic image capture and distribution. In one implementation, such a method includes capturing multiple perspectives of a visual environment, combining at least a subset of those perspectives to produce a panoramic image of the visual environment, and encoding the panoramic image to generate panoramic image data. The method also includes transmitting the first panoramic image data to a routing and processing portal for distribution of the panoramic image in real-time.

Abstract: An interpolator for enlarging or reducing a digital image includes an interpolation coefficient memory containing interpolation coefficients representing several different one dimensional interpolation kernels. A row interpolator receives image pixel values, retrieves interpolation coefficients from the memory, and produces interpolated pixel values by interpolating in a row direction. A column interpolator receives multiple rows of interpolated pixel values from the row interpolator, retrieves interpolation coefficients from the memory, and produces rows of interpolated pixel values by interpolating in a column direction. A logic and control unit monitors the content of the input data and switches between interpolation kernels to provide optimum interpolation for each type of content.