Abstract: Techniques and examples pertaining to vehicle sensor health monitoring are described. A processor of a road-side station may receive first data from a vehicle and receive second data from one or more sensors associated with the road-side station. The processor may compare the first data and the second data. In response to a result of the comparing indicating a difference between the first data and the second data, the processor may generate a report.

Abstract: Techniques and examples pertaining to vehicle water wading safety are described. A processor implementable to a vehicle approaching a waterbody may receive data related to the waterbody from one or more above-water or under-water sensors. The processor may determine a top surface and a bottom profile of the waterbody, and calculate one or more critical trajectories of water-sensitive components of the vehicle if the vehicle is to wade through the waterbody by traversing the bottom profile. The processor may then determine the wading safety based on the critical trajectories and the top surface of the waterbody. The processor may further determine a wading route, and autonomously drive the vehicle to wade the waterbody via the optimal wading route.

Abstract: A vehicle controller determines likelihood of downshifting, such as by detecting braking and clutch disengagement. In response, the vehicle controller determines a desired angular velocity for the engine for a gear lower than a current gear. A tachometer display is updated to indicate the current angular velocity of the engine and the desired angular velocity. A difference between current and desired angular velocities is determined and fill in a region of the tachometer display, such as a sector between needles indicating current and desired angular velocities or most or all of a surface of the tachometer. The tachometer may be updated in the same manner according to a desired angular velocity in cases where the drive shifts into gear following coasting in neutral.

Abstract: Techniques and examples pertaining to vehicle sensor health monitoring are described. A processor of a road-side station may receive first data from a vehicle and receive second data from one or more sensors associated with the road-side station. The processor may compare the first data and the second data. In response to a result of the comparing indicating a difference between the first data and the second data, the processor may generate a report.

Abstract: Techniques and examples pertaining to vehicle sensor health monitoring are described. A processor of a road-side station may receive first data from a vehicle and receive second data from one or more sensors associated with the road-side station. The processor may compare the first data and the second data. In response to a result of the comparing indicating a difference between the first data and the second data, the processor may generate a report.

Abstract: A vehicle trunk includes a retractable carriage that is extendable from a position flush with a floor of the trunk, and mountable to opposing walls of the trunk when extended. The trunk further includes retractable dividers that are extendable from the floor, each having a rod at a free end thereof. The carriage is configured to receive first ends of the rods for supporting the respective divider when extended to form a customizable array of storage receptacles.

Abstract: Techniques and examples pertaining to vehicle water wading safety are described. A processor implementable to a vehicle approaching a waterbody may receive data related to the waterbody from one or more above-water or under-water sensors. The processor may determine a top surface and a bottom profile of the waterbody, and calculate one or more critical trajectories of water-sensitive components of the vehicle if the vehicle is to wade through the waterbody by traversing the bottom profile. The processor may then determine the wading safety based on the critical trajectories and the top surface of the waterbody. The processor may further determine a wading route, and autonomously drive the vehicle to wade the waterbody via the optimal wading route.

Abstract: Techniques and examples pertaining to vehicle sensor health monitoring are described. A processor of a road-side station may receive first data from a vehicle and receive second data from one or more sensors associated with the road-side station. The processor may compare the first data and the second data. In response to a result of the comparing indicating a difference between the first data and the second data, the processor may generate a report.

Abstract: A vehicle controller determines likelihood of downshifting, such as by detecting braking and clutch disengagement. In response, the vehicle controller determines a desired angular velocity for the engine for a gear lower than a current gear. A tachometer display is updated to indicate the current angular velocity of the engine and the desired angular velocity. A difference between current and desired angular velocities is determined and fill in a region of the tachometer display, such as a sector between needles indicating current and desired angular velocities or most or all of a surface of the tachometer. The tachometer may be updated in the same manner according to a desired angular velocity in cases where the drive shifts into gear following coasting in neutral.