Abstract: A vehicle monitoring system includes a controller and one or more vibration sensors that measure operational frequencies of different vehicle components during operation of the vehicle. The controller receives the measured operational frequencies and compares them to modeled frequencies for one or more operational states of each of the different vehicle components. The controller determines that the operational frequencies in a particular frequency range associated with a specific component correspond to an abnormal operational state for that specific component in response to the operational frequencies in the particular frequency range deviating from the modeled frequencies for a normal operational state of the specific component or matching the modeled frequencies for the abnormal operational state of the specific component. The controller generates and presents the abnormal operational state of the specific component on one or more of a vehicle console or a user device.

Abstract: Disclosed is a system and associated methods for color correcting three-dimensional (“3D”) objects by leveraging the 3D positional data associated with point cloud data points that form the 3D objects and by adjusting the defined or inherited color values of the data points to account for multiple factors that are derived from the data point 3D positions. The system determines a color variance between the color values of the first set of points and the color values of the second set of points, determines a variance factor based on the positional elements of the second set of points that contributes to the color variance between the points, and adjusts the color variance to a modified color variance based on the variance factor. The system then modifies or color corrects the color values of the second set of points based on the modified color variance.

Abstract: Disclosed is a system and associated methods for color correcting three-dimensional (“3D”) objects by leveraging the 3D positional data associated with point cloud data points that form the 3D objects and by adjusting the defined or inherited color values of the data points to account for multiple factors that are derived from the data point 3D positions. The system determines a color variance between the color values of the first set of points and the color values of the second set of points, determines a variance factor based on the positional elements of the second set of points that contributes to the color variance between the points, and adjusts the color variance to a modified color variance based on the variance factor. The system then modifies or color corrects the color values of the second set of points based on the modified color variance.

Abstract: A sound and illumination system for a handbag is provided. The handbag includes at least one wall defining an opening and an interior compartment that is accessible therethrough. The opening is configured for being selectively placed in an opened position to allow access to the interior compartment. The system comprises a sound module configured for emitting sound upon activation of the sound module, the sound being generated based upon an audio file stored in a memory. An illumination module is configured for emitting light upon activation of the illumination module, the light being emitted based upon a light emission file stored in the memory. A mounting system is configured for attaching the sound and illumination modules with the wall of the handbag. A switch mechanism is configured for selectively activating the sound and illumination modules to emit light and sound within the interior compartment of the handbag.