Abstract: A vehicle computer is communicatively coupled to a portable computing device and is programmed to determine, in a lead vehicle, that one or more conditions for a diagnostic test, such as an onboard diagnostic (OBD) test, are met and to send a vehicle-to-vehicle message to one or more following vehicles at a specified time. The sent message provides data to indicate to each following vehicle to perform the test at a specified time. The vehicle computer is further programmed to perform the test in the lead vehicle at the specified time.

Abstract: A system of one or more computers configured to perform operations or actions by virtue of having software, firmware, hardware, or a combination of them installed on the system that causes the system to perform the actions. The programs can be configured to perform operations, when executed by computer, cause the computer to perform the actions. One general aspect includes a system, a program to initiate an evaporative control engine off natural vacuum test in a vehicle and identify a geolocation where a fuel was obtained for the vehicle. The system then determines an e100 value and an e0 value for a temperature of the fuel and determines a vehicle percentage of ethanol of the fuel using at least the e100 value, the e0 value, a timestamp, and a fuel tank pressure and adjusts at least one engine parameter based upon the percentage of ethanol of the first fuel.

Abstract: An operating mode is determined for a vehicle according to respective control states of each of a plurality of vehicle subsystems that include braking, steering, and propulsion. The operating mode is one of manual control, partial manual control, and no manual control. A route for the vehicle is determined based in part on the operating mode.

Abstract: A method according to an exemplary aspect of the present disclosure includes, among other things, scheduling charging of an energy storage device of an electrified vehicle based on a learned key-on pattern. The learned key-on pattern is derived by recursively updating the probability that a subsequent key-on event is likely to occur at any given time and day.

Abstract: A system of one or more computers configured to perform operations or actions by virtue of having software, firmware, hardware, or a combination of them installed on the system that causes the system to perform the actions. The programs can be configured to perform operations, when executed by computer, cause the computer to perform the actions. One general aspect includes a system, a program to initiate an evaporative control engine off natural vacuum test in a vehicle and identify a geolocation where a fuel was obtained for the vehicle. The system then determines an e100 value and an e0 value for a temperature of the fuel and determines a vehicle percentage of ethanol of the fuel using at least the e100 value, the e0 value, a timestamp, and a fuel tank pressure and adjusts at least one engine parameter based upon the percentage of ethanol of the first fuel.

Abstract: A vehicle may include an identification system configured to acquire information from a token in a vicinity of the vehicle and to classify a driver of the vehicle based on the information. The vehicle may also include at least one controller in communication with the identification system and configured to characterize a driver's control of the vehicle and to record a history of the characterization if the driver classification is of a particular type.

Abstract: A method for advising a driver of a vehicle including a haptic driver interface may include determining a speed of the vehicle, determining a distance between the vehicle and another vehicle, and activating the haptic driver interface based on the speed and distance.

Abstract: An operating mode is determined for a vehicle according to respective control states of each of a plurality of vehicle subsystems that include braking, steering, and propulsion. The operating mode is one of manual control, partial manual control, and no manual control. A route for the vehicle is determined based in part on the operating mode.

Abstract: A vehicle system includes a communication interface in communication with a processing device. The communication interface is configured to receive ambient light information from a remote server over a communication network. The processing device is configured to selectively enable a vehicle lighting system in accordance with the ambient light information.

Abstract: A vehicle computer is communicatively coupled to a portable computing device and is programmed to determine, in a lead vehicle, that one or more conditions for a diagnostic test, such as an onboard diagnostic (OBD) test, are met and to send a vehicle-to-vehicle message to one or more following vehicles at a specified time. The sent message provides data to indicate to each following vehicle to perform the test at a specified time. The vehicle computer is further programmed to perform the test in the lead vehicle at the specified time.

Abstract: A method is provided for estimating distance to empty (DTE) for a vehicle. The method includes a controller which may, in response to detecting a change in a vehicle kinetic energy level due to vehicle acceleration or deceleration during a drive cycle, output a DTE modified by a predicted DTE range adjustment selected to include a kinetic energy compensation input corresponding to and correcting for the change in the vehicle kinetic energy level. An electrified vehicle having an energy conversion device, an energy source, one or more brake systems, and at least one controller is also provided. The controller may be programmed to, in response to detecting a change in a vehicle kinetic energy level due to vehicle acceleration or deceleration during a drive cycle, output a distance to empty to the interface based on conditions of vehicle components and the energy source compensated by a kinetic energy compensation input.

Abstract: A system includes a processor configured to receive environmental context data upon which automatic engagement of a fuel economic driving mode (eco-mode) is conditioned. The processor is also configured to evaluate the context data to determine if the eco-mode should be automatically engaged based on a data correspondence to an engagement factor and engage the eco-mode upon correspondence of the data to an engagement factor.

Abstract: A system includes a processor configured to receive environmental context data upon which automatic engagement of a fuel economic driving mode (eco-mode) is conditioned. The processor is also configured to evaluate the context data to determine if the eco-mode should be automatically engaged based on a data correspondence to an engagement factor and engage the eco-mode upon correspondence of the data to an engagement factor.

Abstract: A method for advising a driver of a vehicle may include measuring a plurality of parameters representing the vehicle's current handling condition and the vehicle's limit handling condition, determining a margin between the vehicle's current handling condition and limit handling condition, and initiating an alert for the driver before the vehicle achieves the limit handling condition if the margin exceeds a predetermined threshold.

Abstract: A vehicle includes a communication interface, a memory device, and a processing device. The communication interface is configured to communicate over a communication network. The memory device is configured to store a connectivity map associated with a geographic area. The connectivity map defines a communication quality at a plurality of locations in the geographic area. The processing device is configured to initiate a remote data transfer over the communication network in accordance with the connectivity map.

Abstract: A vehicle computer is configured to perform one or more operations of the vehicle without occupant input. Data is stored relating to a baseline occupant state. Data is collected relating to a current occupant state. A comparison is performed of the baseline occupant state to the current occupant state. A parameter is modified governing performance of the one or more operations according to the comparison.

Abstract: A system includes a processor configured to project monitoring needs for a road segment. The processor is further configured to contact one or more vehicles traveling on the road segment during a time of monitoring need. The processor is additionally configured to instruct a first number, determined based on a projected monitoring need, of contacted vehicles to being monitoring and reporting traffic data for the road segment.

Abstract: A vehicle selectively operates in a plurality of operational modes. The operational modes carry with them different commands for operating a controlled suspension system such as a continuously controlled damping suspension system, a controlled steering system such as an electronic power-assist steering system, and a powertrain of the vehicle. For example, in one operational mode, the powertrain might be more sensitive to output torque from a motor or engine quickly with little hesitation. The vehicle includes a sensing system, such as a plurality of suspension height sensors and a corresponding controller programmed to receive suspension height signals indicating the characteristic of the road, to categorize the signals, and to compute categorized vehicle characteristics such as vehicle pitch, heave, roll, yaw, etc. The controller can discretize the categorized signals into a discrete number of index values, and then command the vehicle to change operational mode based on the discrete index value.

Abstract: A system includes a processor configured to gather historical risk-affecting data with respect to a current road. The processor is also configured to gather current risk-affecting data with respect to the current road. Further, the processor is configured to generate a baseline risk index for the road based on the historical data.

Abstract: A vehicle may include a driver interface and at least one controller operatively arranged with the interface. The at least one controller may be configured to determine a speed and acceleration of the vehicle, to predict a time until a future speed of the vehicle exceeds a predefined speed based on the predefined speed and the speed and acceleration of the vehicle, and to issue an alert via the interface if the time is less than a predefined time.