Abstract: A system includes a processor and a memory. The memory stores instructions executable by the processor to determine an action for a vehicle based on an identified risk condition, to determine a minimum time for performing the action, and based on data including a vehicle battery state of charge, an outdoor temperature, and a vehicle mode of operation, to determine an available electrical power for performing the action. The instructions further include instructions to determine maximum permissible electrical energy discharge rate based on the minimum time for performing the action and the determined available electrical power, to determine a load control plan for a plurality of electrical devices in the vehicle based on the maximum permissible electrical energy discharge rate, an electrical load status of the vehicle, and load priority data; and to execute the determined load control plan.

Abstract: A plurality of fault conditions are detected on a communication network onboard a vehicle. The detected fault conditions, a fault condition importance, environment conditions, and a vehicle operation mode are input to a neural network that outputs rankings for respective detected fault conditions. The neural network is trained by determining a loss function based on a maximum likelihood principle that determines a probability distribution that ranks the detected fault conditions. The vehicle is operated based on the rankings of the fault conditions.

Abstract: A plurality of fault conditions are detected on a communication network onboard a vehicle. The detected fault conditions, a fault condition importance, environment conditions, and a vehicle operation mode are input to a neural network that outputs rankings for respective detected fault conditions. The neural network is trained by determining a loss function based on a maximum likelihood principle that determines a probability distribution that ranks the detected fault conditions. The vehicle is operated based on the rankings of the fault conditions.

Abstract: A system includes a processor and a memory. The memory stores instructions executable by the processor to determine an action for a vehicle based on an identified risk condition, to determine a minimum time for performing the action, and based on data including a vehicle battery state of charge, an outdoor temperature, and a vehicle mode of operation, to determine an available electrical power for performing the action. The instructions further include instructions to determine maximum permissible electrical energy discharge rate based on the minimum time for performing the action and the determined available electrical power, to determine a load control plan for a plurality of electrical devices in the vehicle based on the maximum permissible electrical energy discharge rate, an electrical load status of the vehicle, and load priority data; and to execute the determined load control plan.

Abstract: A computer includes a processor and a memory, the memory storing instructions executable by the processor to collect steering, speed, and position data about a plurality of vehicles from one or more infrastructure sensors, identify a vehicle that varies from a specified position in a roadway lane relative to a roadway lane marker or exceeds a threshold speed based on the collected data, instruct the identified vehicle to move to a side of a roadway, and send a message to a central server including an identification of the vehicle.

Abstract: A method including determining a status of a power supply of a first telematics control unit (TCU) as one of active or inactive, the first TCU programmed to communicate with a server via a network, determining a status of a second TCU in communication with the first TCU via a vehicle network, the second TCU is programmed to communicate with the server via the network, and determining a risk condition based on the statuses of the power supply and the second TCU. The risk condition is a measure of severity of an inactive status.

Abstract: A method including determining a status of a power supply of a first telematics control unit (TCU) as one of active or inactive, the first TCU programmed to communicate with a server via a network, determining a status of a second TCU in communication with the first TCU via a vehicle network, the second TCU is programmed to communicate with the server via the network, and determining a risk condition based on the statuses of the power supply and the second TCU. The risk condition is a measure of severity of an inactive status.

Abstract: A computer includes a processor and a memory, the memory storing instructions executable by the processor to collect steering, speed, and position data about a plurality of vehicles from one or more infrastructure sensors, identify a vehicle that varies from a specified position in a roadway lane relative to a roadway lane marker or exceeds a threshold speed based on the collected data, instruct the identified vehicle to move to a side of a roadway, and send a message to a central server including an identification of the vehicle.

Abstract: A computer includes a processor and a memory, the memory storing instructions executable by the processor to identify a failure in one of a first, second, or third vehicle power networks and to instruct one of a first display controller connected to the first vehicle power network or a second display controller connected to the second vehicle power network to provide a message to displays respectively connected to the first vehicle power network or the second vehicle power network.

Abstract: A vehicle includes a traction battery, a cold plate, and a thermoelectric device including a pair of thermally conductive plates disposed between the battery and cold plate and separated by doped junctions. The thermoelectric device is configured to, responsive to flow of current through the junctions, drive a temperature difference between the conductive plates to transfer heat between the battery and cold plate.

Abstract: A battery pack includes a battery cell, a thermal interface material adjacent the battery cell and a heater element integrated with the thermal interface material.

Abstract: A thermal fin according to an exemplary aspect of the present disclosure includes, among other things, a body, a leg that extends from the body and a thickened region of the body including a first thickness that is greater than a second thickness of another region of the body.

Abstract: An assembly includes a traction battery of an electrified vehicle, and a blend door moveable between a first position that permits a first flow of air to move toward the traction battery and a second position that permits a second flow of air to move toward the traction battery. The first flow includes more air that has moved through an engine compartment than the second flow.

Abstract: A thermal fin according to an exemplary aspect of the present disclosure includes, among other things, a body, a leg that extends from the body and a thickened region of the body including a first thickness that is greater than a second thickness of another region of the body.

Abstract: An exemplary assembly includes a traction battery of an electrified vehicle, and a blend door moveable between a first position that permits a first flow of air to move toward the traction battery and a second position that permits a second flow of air to move toward the traction battery. The first flow includes more air that has moved through an engine compartment than the second flow.

Abstract: An exemplary assembly includes a blend structure moveable between a first position and a second position. The blend structure in the first position permits a first flow of air. The blend structure in the second position permits a second flow of air. The first flow includes more air that has moved through an engine compartment of an electrified vehicle than the second flow.

Abstract: An exemplary assembly includes a blend structure moveable between a first position and a second position. The blend structure in the first position permits a first flow of air. The blend structure in the second position permits a second flow of air. The first flow includes more air that has moved through an engine compartment of an electrified vehicle than the second flow.

Abstract: A battery assembly according to an exemplary aspect of the present disclosure includes, among other things, an array frame including a frame body and a slot formed through the frame body. A heat exchanger is received within the slot.

Abstract: A vehicle traction battery heat sink includes a first fin having a cell contact portion in thermal contact with a plurality of battery cells. The first fin also includes a connector portion extending from the cell contact portion. The heat sink further includes a thermal plate in thermal contact with the connector portion and a thermal agent circulated within the thermal plate. The heat sink allows heat generated by the plurality of battery cells to be transferred through the fin to the thermal plate.

Abstract: A battery pack includes a battery cell, a thermal interface material adjacent the battery cell and a heater element integrated with the thermal interface material.