A computer-implemented method of receiving and processing a wireless emergency alert at a vehicle comprises receiving, at a computer system of the vehicle, the wireless emergency alert over a wireless communication network. The wireless emergency alert may include an alert message and geographical coordinates defining one or more alert areas associated with the emergency alert. The method may further include comparing, via the vehicle computer system, a current location of the vehicle with the geographical coordinates to determine whether the vehicle is within or near the alert area(s) and, if the vehicle is within or near the alert area(s), generating via the computer system a map illustrating the current location of the vehicle with respect to the alert area(s), and displaying the map at a display screen of the vehicle.

A voice output unit is mounted on a vehicle. A determiner determines whether or not voice information generated in connection with traveling of the vehicle and output from the voice output unit is information for which an output point of the voice information is specified. A musical piece interval detector detects a time point at which there arrives an interval between musical pieces being reproduced, which are output from the voice output unit. An output controller changes an output time to the arrival time of the interval between musical pieces when the output time, which is specified for the voice information determined by the determiner as not being information for which the output point is specified, arrives at a time point other than the interval between musical pieces.

The present disclosure provides a vehicle control system capable of safely and forcibly controlling a vehicle. A vehicle control system VCS includes a mode setting unit 56 configured to output a forced mode signal upon receiving a forced control instruction from the outside of a vehicle V via a communication device 30, and a forced operation unit 58 configured to output a forced operation signal of forcibly operating the vehicle V to an operation control unit 20. Further, the vehicle control system VCS includes a signal selection unit 59 configured to allow all the operation signals to pass therethrough before receiving the forced mode signal, and block at least a part of the operation signals and allow the forced operation signal instead of the blocked operation signal to pass therethrough after receiving the forced mode signal. The vehicle control system VCS controls an operation of the vehicle V by controlling the operation control unit 20 based on the operation signal or the forced operation signal passing through the signal selection unit 59.

Systems and methods for generating calm or quiet routes are provided. When a user requests navigation directions and indicates a preference for a calm route, a plurality of routes between the origin location and the destination location requested by the user may be identified. Historical sensor data (e.g., including heart rate data, exterior vehicle noise level data, accelerometer data) and traffic data associated with route segments of each of the routes may be analyzed to identify indications of calmness associated with each route segment. Current traffic data associated with the route segments may be analyzed to assign a traffic score representing a level of congestion along the segment and corresponding to a level of insurance risk associated with traversing the segment. Based at least in part upon the indications of calmness and the traffic score associated with each route segment, a route may be selected and presented to the user.

An ego vehicle can be assisted when parking in a parking area. One or more sensors can be configured to acquire environment data of at least a portion of an external environment of the ego vehicle. The environment data can include at least a portion of the parking area. Parking availability data can be acquired for at least a portion of the parking area. The parking availability data can include a plurality of parking spaces and one or more vehicles parked in one or more of the parking spaces. The parking availability data can further include one or more attributes of the vehicles parked in the parking spaces. A current location of the ego vehicle within the parking area can be determined based on at least the parking availability data and the environment data.

The disclosed embodiments relate to recognition of navigation and/or guidance related information within an expressed conversational narrative between a provider of the narrative and a receiver thereof. The recognized navigation and/or guidance related information is then converted into navigation data which may be used to present a navigation route and/or guidance information related thereto to the receiver.

Provided is a method for berth allocation of a multiline bus station and speed guidance of buses. The intelligent control center sorts all buses between the current station and the previous station to form the BusNumber table, and performs speed guidance for all buses in the BusNumber table. Whether the guided bus can pass through the signalized intersection is determined. The buses that cannot pass through the signalized intersection are guided by acceleration, and those that cannot pass through the signalized intersection by acceleration guidance method update their speeds based on the phase state of signal light, so as to pass through the signalized intersection without stopping in most cases. All buses are conducted through speed guidance methods, and the berths are allocated for all the buses under different conditions.

The present disclosure provides a lane change route instructing device and a lane change route instructing system such that, by considering the necessity of a lane change of a multiple of vehicles existing in a periphery, a coinciding of travel routes accompanying a lane change is avoided, and the vehicles can be caused to carry out a traveling operation smoothly. A lane change route instructing device determines whether or not target travel routes of each vehicle will coincide with each other in accompaniment to a lane change, determines an inter-vehicle priority relating to a lane change, and when it is determined that a coinciding of the target travel routes will occur, transmits a command to maintain the target travel route to a highest priority coinciding vehicle among coinciding vehicles whose target travel routes have been determined to be going to coincide with each other, and transmits a command for evasive travel that avoids a coinciding with the target travel route of the highest priority coinciding vehicle to a low priority coinciding vehicle.

Concepts for generating navigation instructions for a driver of a vehicle are presented. One example, includes obtaining a current location of the vehicle, a route for the vehicle from the current location to a target destination, and a captured image of the surrounding environment of the vehicle, the image having a field of view comprising at least part of a field of view of the driver. An object is identified in the captured image. Navigation instructions for the driver are generated based on the current location of the vehicle, the route for the vehicle and the object identified in the captured image.

A method for air traffic control (ATC) radio communications authentication, includes receiving, by an aircraft, an ATC voice communication from an ATC facility. The method also includes receiving, by the aircraft, authentication data from the ATC facility substantially contemporaneously with the ATC voice communication. The authentication data is associated with the ATC voice communication. The method further includes authenticating the ATC voice communication using the authentication data.