Abstract: A video processor decompresses stereoscopic left and right reference frames of compressed 3D video. New left and right frames are interpolated. The frames may be stored and/or communicated for display. The left and right frames are combined into a single frame of a single stream or may be sequenced in separate left and right streams. The left and right frames are interpolated based on the combined single stream and/or based on the separate left and right streams. Motion vectors are determined for one of the separate left or right streams. The frames are interpolated utilizing motion compensation. Areas of occlusion are determined in the separate left and right streams. Pixels are interpolated for occluded areas of left or right frames of separate streams from uncovered areas in corresponding opposite side frames. The left and right interpolated and/or reference frames are displayed as 3D and/or 2D video.

Abstract: A video receiver receives a compound transport stream (TS) comprising 3D program video streams and spliced advertising streams. The received one or more 3D program video streams are extracted and decoded. Targeted advertising streams are extracted from the received advertising streams according to user criteria. Targeted advertising graphic objects of the extracted or replaced targeted advertising streams are spliced into the decoded 3D program video streams. The decoded 3D program video with the spliced targeted advertising graphic objects is presented in a 2D video. The extracted or replaced targeted advertising streams are processed to generate the targeted advertising graphic objects to be spliced based on focal point of view. The generated targeted advertising graphic objects are located according to associated scene graph information. The decoded 3D program video streams and the spliced targeted advertising graphic objects are converted into a 2D video for display.

Abstract: A device for rapidly instituting an active mode of a digital-television enabled system, the system including a first, volatile memory configured to load and store software instructions, includes: an input configured to receive first digital audio and video information; a first output configured to convey second audio and information toward a display regarding the first audio and video information; at least one second output configured to convey commands to, and receive information from, the first memory; and a processor configured to perform functions in accordance with software instructions stored in first and second memories and to cause the first memory to load software instructions for provision to the processor such that first instructions for processing at least one of the first audio information and the first video information are loaded and stored by the first memory with a higher priority than second instructions for performing other functionality.

Abstract: A device and method for receiving a compressed video bit stream, and providing decoded video pixels and associated video attributes synchronously to a video processor are disclosed. A compressed video bit stream is received and decoded. The decoded pictures have associated video attributes. A subset of the video attributes is provided to a video processor interconnected to a display. The video attributes are provided synchronously with the picture or pixel data so that the attributes are available to video processor before the associated picture is displayed.

Abstract: In accordance with the invention, a video source is received by a first video adapter. The video source is captured in the video memory associated with the first VGA. The stored video source is associated with a window of an existing application. When the window location of the existing application is shifted to coincide with the video memory of a second graphics adapter, a data transfer occurs to the appropriate video memory location of the second graphics adapter to allow the rendering of that portion of the video now residing on a second monitor.

Abstract: A method and apparatus for recognizing and initializing second level peripherals on busses local to add-on cards. During startup, a personal computer receives an identifier from an add-on peripheral. A driver is executed that initializes the add-on peripheral, and determines whether any peripherals are attached to a secondary bus associated with the add-on peripheral. When a peripheral is identified on the secondary bus, information concerning the peripheral is added to a configuration file.