Abstract:
A deceleration control system includes: a travel distance acquisition unit configured to acquire a travel distance measured by a sensor of a vehicle; a measured distance recording unit configured to record a measured distance in a recording medium for each travel road segment through which the vehicle travels, the measured distance being the travel distance from a predetermined measurement start position; a reference position setting unit configured to set a reference position based on the measured distance and a deceleration position in which the vehicle decelerates, the reference position being a position located on the near side of the deceleration position by a predetermined reference distance; and a deceleration control unit configured to perform deceleration control based on the travel distance from the reference position.
Abstract:
ADK includes a computer and a communication module. VP includes a non-redundant control system that performs a non-redundant control function, a first bus, a second bus, a first VCIB that is configured to be communicable with the communication module via the first bus and provides a control instruction to the non-redundant control system in accordance with a non-redundant control command for controlling the non-redundant control system from ADK, a second VCIB that is configured to be communicable with the communication module via the second bus, and a third bus that connects the first VCIB and the second VCIB. When the communication via the first bus is abnormal, the computer controls the communication module to send a non-redundant control command to the first VCIB via the second bus and the third bus.
Abstract:
The vehicle comprises a vehicle platform for controlling the vehicle and a ADK for transmitting commands for autonomous driving to the vehicle platform. A base vehicle of a vehicle platform includes a radiator device and a body ECU (first control device). The radiator device includes a radiator fan and is configured to cool ADK. The body ECU is configured to control the radiator fan according to a command from ADK.
Abstract:
A server device includes a communication unit and a control unit. The control unit is configured to acquire information on a first power purchase price from a charging point and a second power purchase price from a facility, and when the second power purchase price is lower than the first power purchase price, send to a power supply vehicle configured to supply power to another vehicle an instruction to move along a travel route that passes through the facility.
Abstract:
A delivery support apparatus according to the present disclosure includes a controller configured to acquire information about a vehicle used for delivery of a package, the information having been acquired on the vehicle, determine, based on the information about the vehicle, a loading/unloading location at which the package was loaded or unloaded, and generate, based on the loading/unloading location, information about a location at which packages can be loaded/unloaded.
Abstract:
A vehicle control apparatus of the invention is applied to a hybrid vehicle. The apparatus executes an enlarged regeneration control for applying an increased regeneration braking force larger than a normal regeneration braking force to at least one vehicle wheel when a position where it is predicted that a deceleration of the hybrid vehicle ends is set as a target deceleration end position and the acceleration operation amount is zero. The apparatus executes a downslope prediction control when determining that a downslope zone exists on a scheduled traveling route of the hybrid vehicle in order to decrease a battery charge amount. The apparatus forbids an execution of the enlarged regeneration control when both a condition for executing the downslope prediction control and a condition for executing the enlarged regeneration control are satisfied.
Abstract:
A driving assistance apparatus outputs a deceleration recommendation indicator as an indicator of recommending deceleration of a vehicle to a display section. The deceleration recommendation indicator recommends deceleration of the vehicle for a target position ahead in the traveling direction of the vehicle. The deceleration recommendation indicator varies in accordance with the speed of the vehicle.
Abstract:
A traveling history learning section circuitry stores learning information based on the traveling history of the vehicle in association with the position of a to-be-learned zone and with the traveling direction of the vehicle in the to-be-learned zone. A learning information obtaining section circuitry obtains learning information corresponding to the position of a host vehicle from the learning information storage section. A display control section circuitry displays a learning status display showing a learning status corresponding to a traveling direction of a host vehicle.
Abstract:
The vehicle control device is a vehicle control device connected between an autonomous driving system and a vehicle platform that performs automated driving in accordance with a command from the autonomous driving system, and includes a memory in which a program including a predetermined API defined for each signal is stored, and a processor that controls the vehicle platform in response to the command from the autonomous driving system by executing the program. The vehicle control device has a manual driving mode and an automatic driving mode as vehicle modes. The vehicle platform is capable of receiving a manual driving operation in the manual driving mode, and is capable of receiving a driving command from the autonomous driving system in the automatic driving mode. The processor prohibits the transition from the automatic driving mode to the manual driving mode on condition that the vehicle platform is not stopped.
Abstract:
The server device includes a communication unit and a control unit that performs communication using the communication unit, and the control unit determines the remaining battery level based on information about the user's travel schedule and the remaining battery capacity of the user's vehicle. A point and time at which a predetermined state will occur is predicted, and information proposing dispatch of a power supply vehicle to the point is sent to the user's terminal device at the time, prompting the user to decide on the dispatch.