Abstract: Camera simulation is extended to multi-camera systems. One aspect relates combine computer-graphics, single-camera simulation, multi-camera image signal processor (ISP) are combined to simulate and optimize a multi-camera system. Scene modeling is performed using synthetic computer generated scenes. The computer-graphics images are generated, taking into account the camera-intrinsic and camera-extrinsic parameters.

Abstract: In one example, a method for displaying three dimensional images can include generating a three dimensional image. The method can also include detecting a field of view of a user based on a position and orientation of the head of the user. The method can also include separating the three dimensional image into a plurality of frames based on the field of view of the user, wherein each frame corresponds to one of a plurality of display panels. Furthermore, the method can include modifying the plurality of frames based on a depth of each pixel in the three dimensional image. Additionally, the method can include displaying the three dimensional image using the plurality of display panels.

Abstract: Camera simulation is extended to multi-camera systems. One aspect relates combine computer-graphics, single-camera simulation, multi-camera image signal processor (ISP) are combined to simulate and optimize a multi-camera system. Scene modeling is performed using synthetic computer generated scenes. The computer-graphics images are generated, taking into account the camera-intrinsic and camera-extrinsic parameters.

Abstract: For a processor-based device capable of network communications, a workload associated with a wireless link to a network may be partitioned into software and hardware implementable portions based on a link communication profile. In response to a different link communication profile, the workload may be re-configured to simultaneously support another wireless link protocol different than that of the configured wireless link.