Abstract: A stereoscopic vision system uses at least two cameras having different parameters to image a scene and create stereoscopic views. The different parameters of the two cameras can be intrinsic or extrinsic, including, for example, the distortion profile of the lens in the cameras, the field of view of the lens, the orientation of the cameras, the positions of the cameras, the color spectrum of the cameras, the frame rate of the cameras, the exposure time of the cameras, the gain of the cameras, the aperture size of the lenses, or the like. An image processing apparatus is then used to process the images from the at least two different cameras to provide optimal stereoscopic vision to a display.

Abstract: Embodiments described herein are directed to optical systems creating an optical image on an image sensor, the optical image having at least one foveated region of interest created using at least one localized magnification optical feature on an optical surface. The optical system can be useful to increase the number of infrared pixels that are used to image a specific target which is only in a part of the object scene, while still being able to image the whole scene in the RGB part of the spectrum. In a preferred embodiment, the optical system is used in an automotive scenario to image with higher resolution the driver in order to more efficiently run face tracking and recognition algorithms.

Abstract: Embodiments relate to systems and methods for electronically booking ride share trips. The systems and methods can involve a data storage device storing ride sharing records with itineraries including a plurality of legs. The systems and methods can involve at least one processor configured to receive a trip booking request for a passenger, the trip booking request defining passenger constraints including a desired pickup time or drop off time.

Abstract: Embodiments relate to systems and methods for electronically booking ride share trips. The systems and methods can involve a data storage device storing ride sharing records with itineraries including a plurality of legs. The systems and methods can involve at least one processor configured to receive a trip booking request for a passenger, the trip booking request defining passenger constraints including a desired pickup time or drop off time.

Abstract: Embodiments relate to systems and methods for electronically booking ride share trips. The systems and methods can involve a data storage device storing ride sharing records with itineraries including a plurality of legs. The systems and methods can involve at least one processor configured to receive a trip booking request for a passenger, the trip booking request defining passenger constraints including a desired pickup time or drop off time. The at least one processor is configured to generate trip booking options from available ride sharing itineraries, each trip booking option including a leg that satisfies the passenger constraints of the trip booking request. The at least one processor is configured to compute objective values for the trip booking options and remove at least one trip booking option based on a comparison of its objective value and temporal proximity to at least one other trip booking option.