Abstract: A method for controlling a steering system of a vehicle during an autonomous steering development mode may include performing, by one or more computing devices, high-authority autonomous steering control of a steering system of the vehicle. The method may further include receiving, by the one or more computing devices, an input from at least one sensor of the steering system indicative of manual operation of the steering system by an operator of the vehicle. Additionally, the method may include transitioning, by the one or more computing devices, from the high-authority autonomous steering control to a low-authority autonomous steering control of the steering system for a predetermined time period in response to receiving the input from the at least one sensor.

Abstract: A diagnostic method for an automated vehicle includes monitoring data from a first vehicle subsystem of a plurality of vehicle subsystems to establish a current operating zone for the first vehicle subsystem, transmitting a master diagnostic message with an anomalous status for the first vehicle subsystem in response to the current operating zone for the first vehicle subsystem being outside of an anomalous behavior boundary of a normal operating zone for the first vehicle subsystem for at least a predetermined period of time, the common master diagnostic message being transmitted to each vehicle subsystem of the plurality of vehicle subsystems, and adjusting operation of at least a second one of the plurality of vehicle subsystems in response to receiving the master diagnostic message with the anomalous status for the first vehicle subsystem. A related diagnostic system is also provided.

Abstract: A collision avoidance method for a vehicle includes monitoring a lateral distance between the vehicle and a target vehicle while the vehicle is travelling within a first lane and the target vehicle is travelling within an adjacent second lane, activating a warning on the vehicle and automatically adjusting operation of the vehicle to increase the distance between the vehicle and the target vehicle when the lateral distance between the vehicle and the target vehicle is less than the threshold distance while the vehicle is travelling within the first lane. Automatically adjusting operation of the vehicle may include one or both of steering the vehicle laterally away from the target vehicle and adjusting a longitudinal velocity of the vehicle. A related collision avoidance system is also provided.

Abstract: A method for controlling a steering system of a vehicle during an autonomous steering development mode may include performing, by one or more computing devices, high-authority autonomous steering control of a steering system of the vehicle. The method may further include receiving, by the one or more computing devices, an input from at least one sensor of the steering system indicative of manual operation of the steering system by an operator of the vehicle. Additionally, the method may include transitioning, by the one or more computing devices, from the high-authority autonomous steering control to a low-authority autonomous steering control of the steering system for a predetermined time period in response to receiving the input from the at least one sensor.

Abstract: A collision avoidance method for a vehicle includes monitoring a lateral distance between the vehicle and a target vehicle while the vehicle is travelling within a first lane and the target vehicle is travelling within an adjacent second lane, activating a warning on the vehicle and automatically adjusting operation of the vehicle to increase the distance between the vehicle and the target vehicle when the lateral distance between the vehicle and the target vehicle is less than the threshold distance while the vehicle is travelling within the first lane. Automatically adjusting operation of the vehicle may include one or both of steering the vehicle laterally away from the target vehicle and adjusting a longitudinal velocity of the vehicle. A related collision avoidance system is also provided.

Abstract: A diagnostic method for an automated vehicle includes monitoring data from a first vehicle subsystem of a plurality of vehicle subsystems to establish a current operating zone for the first vehicle subsystem, transmitting a master diagnostic message with an anomalous status for the first vehicle subsystem in response to the current operating zone for the first vehicle subsystem being outside of an anomalous behavior boundary of a normal operating zone for the first vehicle subsystem for at least a predetermined period of time, the common master diagnostic message being transmitted to each vehicle subsystem of the plurality of vehicle subsystems, and adjusting operation of at least a second one of the plurality of vehicle subsystems in response to receiving the master diagnostic message with the anomalous status for the first vehicle subsystem. A related diagnostic system is also provided.

Abstract: A method of controlling platooning of a lead vehicle and at least one follow vehicle traveling in a first lane of a roadway includes indicating an intended lane change of the lead vehicle to a second lane. A third vehicle is detected in a blind spot of the at least one follow vehicle preventing the at least one follow vehicle from changing lanes to the second lane. A signal is sent from the at least one follow vehicle to the lead vehicle indicative of the prevention of the at least one vehicle to change lanes to the second lane. The lead vehicle is automatically prevented from changing lanes to the second lane in response to the signal.

Abstract: A method of organizing and accessing vehicle steering preferences includes identifying first operating configurations from a first list and second operating configurations from a second list. The same file is assigned to each of the first and second operating configurations that are identical to one another. A unique file is assigned to each of the first and second operating configurations that is different from all the other first and second operating configurations. A request is received to operate the vehicle in a driving mode associated with one of the first operating configurations. The vehicle is automatically configured with the first operating configuration associated with the requested driving mode.

Abstract: Systems and methods that facilitate protecting vehicle impact event data from overwrite include an electronic control unit (ECU) having a processor that records event data related to vehicle operation, a memory that stores the event data, and an electronic tool that communicates with the ECU and comprises a data locking module that sends a data lock signal to the ECU to lock the stored event data as locked data such that the stored event data cannot be overwritten. The ECU, in response to the data lock signal, stores the event data as locked data in a dedicated portion of the memory to preserve the event data for subsequent review.

Abstract: A method for controlling an own vehicle to participate in platoon with at least one other vehicle, wherein the own vehicle and the at least one other vehicle each having communication devices configured to wirelessly transmit DSRC-signals over a vehicle-to-vehicle communication link between each other. The method includes checking initiation conditions to determine if the own vehicle is ready for platooning, identifying at least one other vehicle in signal-transmittal-range to determine if the at least one other vehicle is ready for platooning and the at least one other vehicle is a valid platooning partner, and requesting to an adaptive cruise control system to hold a following-distance between the own vehicle and the at least one other vehicle to form a platoon if the at least other vehicle is ready for platooning and is a valid platooning partner and if the own vehicle is assigned as a following vehicle.

Abstract: A method for controlling an own vehicle to participate in platoon with at least one other vehicle, wherein the own vehicle and the at least one other vehicle each having communication devices configured to wirelessly transmit DSRC-signals over a vehicle-to-vehicle communication link between each other. The method includes checking initiation conditions to determine if the own vehicle is ready for platooning, identifying at least one other vehicle in signal-transmittal-range to determine if the at least one other vehicle is ready for platooning and the at least one other vehicle is a valid platooning partner, and requesting to an adaptive cruise control system to hold a following-distance between the own vehicle and the at least one other vehicle to form a platoon if the at least other vehicle is ready for platooning and is a valid platooning partner and if the own vehicle is assigned as a following vehicle.

Abstract: Methods and apparatus are provided for updating at least one software component of a motor vehicle in coordination with predetermined safe operational modes of the vehicle permitting the updating without danger to a driver operating the motor vehicle. The method operates such that a receiver circuit of a hub controller of the motor vehicle receives and stores a software update module in a memory of the hub controller. A processor of the hub controller determines an operational condition of the motor vehicle and selectively updates at least one software component of the motor vehicle with the software update module responsive to the operational condition of the motor vehicle being in a predetermined safe operational mode permitting the updating without danger to a driver operating the motor vehicle. Preferably, the updating of the at least one software component with the software update module takes place only during DPF regeneration.

Abstract: Systems and methods that facilitate protecting vehicle impact event data from overwrite include an electronic control unit (ECU) having a processor that records event data related to vehicle operation, a memory that stores the event data, and an electronic tool that communicates with the ECU and comprises a data locking module that sends a data lock signal to the ECU to lock the stored event data as locked data such that the stored event data cannot be overwritten. The ECU, in response to the data lock signal, stores the event data as locked data in a dedicated portion of the memory to preserve the event data for subsequent review.

Abstract: A backward movement indicator apparatus is provided for a vehicle having an alert device. The backward movement indicator apparatus comprises an image capture device arranged to capture image data which is representative of objects in vicinity of the vehicle. The backward movement apparatus further comprises an electronic controller arranged to process the captured image data to provide a signal which is indicative of the vehicle moving backwards.

Abstract: Methods and apparatus are provided for updating at least one software component of a motor vehicle in coordination with predetermined safe operational modes of the vehicle permitting the updating without danger to a driver operating the motor vehicle. The method operates such that a receiver circuit of a hub controller of the motor vehicle receives and stores a software update module in a memory of the hub controller. A processor of the hub controller determines an operational condition of the motor vehicle and selectively updates at least one software component of the motor vehicle with the software update module responsive to the operational condition of the motor vehicle being in a predetermined safe operational mode permitting the updating without danger to a driver operating the motor vehicle. Preferably, the updating of the at least one software component with the software update module takes place only during DPF regeneration.

Abstract: A backward movement indicator apparatus is provided for a vehicle having an alert device. The backward movement indicator apparatus comprises an image capture device arranged to capture image data which is representative of objects in vicinity of the vehicle. The backward movement apparatus further comprises an electronic controller arranged to process the captured image data to provide a signal which is indicative of the vehicle moving backwards.

Abstract: Systems and methods that facilitate protecting vehicle impact event data from overwrite include an electronic control unit (ECU) having a processor that records event data related to vehicle operation, a memory that stores the event data, and an electronic tool that communicates with the ECU and comprises a data locking module that sends a data lock signal to the ECU to lock the stored event data as locked data such that the stored event data cannot be overwritten. The ECU, in response to the data lock signal, stores the event data as locked data in a dedicated portion of the memory to preserve the event data for subsequent review.

Abstract: When employing an adaptive cruise-with-braking (ACB) system to control host vehicle following distance, a forward vehicle is detected using one or both of a radar sensor (14) and a camera sensor (82). The radar sensor classifies the forward vehicle as a motorcycle, passenger car, or heavy vehicle by comparing a detected radar signature to reference radar signatures for different vehicles. The camera sensor classifies the forward vehicle as a motorcycle, passenger car, or heavy vehicle by comparing a captured vehicle image to reference pixel and contrast profiles (PCPs) for different vehicles. An adaptive cruise control (ACC) module (12) selects and implements a following distance alert (FDA) protocol for the classified vehicle, where the FDA protocol prescribes following distance limits that inversely proportional to the size of the forward vehicle. Following distance limits can be further adjusted as a function of host vehicle mass.

Abstract: When employing an adaptive cruise-with-braking (ACB) system to control host vehicle following distance, a forward vehicle is detected using one or both of a radar sensor (14) and a camera sensor (82). The radar sensor classifies the forward vehicle as a motorcycle, passenger car, or heavy vehicle by comparing a detected radar signature to reference radar signatures for different vehicles. The camera sensor classifies the forward vehicle as a motorcycle, passenger car, or heavy vehicle by comparing a captured vehicle image to reference pixel and contrast profiles (PCPs) for different vehicles. An adaptive cruise control (ACC) module (12) selects and implements a following distance alert (FDA) protocol for the classified vehicle, where the FDA protocol prescribes following distance limits that inversely proportional to the size of the forward vehicle. Following distance limits can be further adjusted as a function of host vehicle mass.