Abstract: A system comprising one or more computing devices implements a vehicle information extraction service. The vehicle information extraction service enables customers to optimize an amount of relevant vehicle sensor information extracted from vehicles by reducing instances of collection of redundant data. The vehicle information extraction service additionally, or alternatively, enables customers to maintain a model of a fleet of vehicles and determine number of the vehicles of the fleet in a certain partition to calculate a data reduction factor that will filter out sensor data. The vehicle information extraction service communicates the reduction factor to the vehicles in the geographical region using a vehicle scheme to indicate to the vehicles the probability with which the vehicle is to transmit a particular type of sensor data.

Abstract: A system comprising one or more computing devices implements a vehicle information extraction service. The vehicle information extraction service enables customers to optimize an amount of relevant vehicle sensor information extracted from vehicles by reducing instances of collection of redundant data. The vehicle information extraction service additionally, or alternatively, enables customers to maintain a model of a fleet of vehicles and determine number of the vehicles of the fleet in a certain partition to calculate a data reduction factor that will filter out sensor data. The vehicle information extraction service communicates the reduction factor to the vehicles in the geographical region using a vehicle scheme to indicate to the vehicles the probability with which the vehicle is to transmit a particular type of sensor data.

Abstract: The view frustum culling technique described herein allows Free Viewpoint Video (FVV) or other 3D spatial video rendering at a client by sending only the 3D geometry and texture (e.g., RGB) data necessary for a specific viewpoint or view frustum from a server to the rendering client. The synthetic viewpoint is then rendered by the client by using the received geometry and texture data for the specific viewpoint or view frustum. In some embodiments of the view frustum culling technique, the client has both some texture data and 3D geometric data stored locally if there is sufficient local processing power. Additionally, in some embodiments, additional spatial and temporal data can be sent to the client to support changes in the view frustum by providing additional geometry and texture data that will likely be immediately used if the viewpoint is changed either spatially or temporally.

Abstract: Using client-server session parallelism (CSSP), a client device establishes multiple network communication sessions with different remote servers and requests the same unsegmented data item from each server. Whichever copy of the unsegmented data item is received earliest at the client device is provided to an application. The CSSP software may be part of a network stack, or it may be part of a particular application such as a browser or a media player. The servers are not necessarily CSSP-aware, but when they are, sessions may be load-balanced. CSSP sessions may also be transferred to other CSSP-aware servers in view of server loads, imminent server reboots, or other events. A CSSP client may notify a CSSP server of status information describing session(s) established at the client with other server(s), allowing the server to reallocate bandwidth to other clients when the CSSP client has sufficient alternate data sources.

Abstract: Using client-server session parallelism (CSSP), a client device establishes multiple network communication sessions with different remote servers and requests the same unsegmented data item from each server. Whichever copy of the unsegmented data item is received earliest at the client device is provided to an application. The CSSP software may be part of a network stack, or it may be part of a particular application such as a browser or a media player. The servers are not necessarily CSSP-aware, but when they are, sessions may be load-balanced. CSSP sessions may also be transferred to other CSSP-aware servers in view of server loads, imminent server reboots, or other events. A CSSP client may notify a CSSP server of status information describing session(s) established at the client with other server(s), allowing the server to reallocate bandwidth to other clients when the CSSP client has sufficient alternate data sources.

Abstract: An object placed on an interactive display surface is detected and its position and orientation are determined in response to IR light that is reflected from an encoded marking on the object. Upon detecting the object on an interactive display surface, a software program produces a virtual entity or image visible through the object to perform a predefined function. For example, the object may appear to magnify text visible through the object, or to translate a word or phrase from one language to another, so that the translated word or phrase is visible through the object. When the object is moved, the virtual entity or image that is visible through the object may move with it, or can control the function being performed. A plurality of such objects can each display a portion of an image, and when correctly positioned, together will display the entire image, like a jigsaw puzzle.