Abstract:
A method for operating a hybrid vehicle which comprises at least one internal combustion engine with a fuel tank and a filter, and an additional motor for driving the vehicle. The filter is designed to receive fuel vapors from the fuel tank in a filtering mode and to discharge the fuel vapors to the internal combustion engine in a flushing mode. In the method, a current operating point of the internal combustion engine is detected and the flushing mode of the filter is activated according to the current operating point and an operating time of the vehicle.
Abstract:
Systems and methods for traffic learning are described. One embodiment of a method includes predicting a vehicle route of a vehicle, determining historical traffic data related to at least one segment along the vehicle route, and determining an energy traffic budget for electric power consumption of the vehicle along the vehicle route, where the energy traffic budget is learned from the historical traffic data. Some embodiments include creating a schedule for transitioning between gasoline power and electric power for the vehicle route, implementing the schedule as the vehicle traverses the vehicle route, and in response to encountering traffic along the vehicle route, implementing the energy traffic budget.
Abstract:
A method for dynamic notification generation for a driver of a vehicle, including receiving a first data set indicative of vehicle operation, predicting an imminent driving event based on the first data set, determining a notification associated with the imminent driving event, controlling a vehicle notification system to provide the notification, receiving a second data set indicative of vehicle operation, determining a notification effect of the notification on a behavior of a driver of the vehicle, and generating a user profile based on the notification effect.
Abstract:
Methods and systems for controlling an adaptive cruise control feature of a vehicle are provided. In accordance with one embodiment, a system includes a sensing unit and a processor. The sensing unit is configured to detect passengers, other than a driver, in a vehicle. The processor is coupled to the sensing unit. The processor is configured to at least facilitate controlling an adaptive cruise control feature of the vehicle using a first profile if no passengers are detected in the vehicle, and a second profile, different from the first profile, if one or more passengers are detected in the vehicle.
Abstract:
A method is provided for optimizing power consumption of a vehicle which may include sending data from a vehicle Electronic Control Unit and vehicle Global Positioning System receiver to a network cloud and/or server upon starting the vehicle, calculating a most probable final destination and most probable optimized route of the vehicle in the network cloud and/or server based on the sent vehicle data, and calculating a most probable driving mode map in the network cloud and/or server. The method may further include calculating an optimized power utilization of propulsion sources for the vehicle in the network cloud and/or server, returning the optimized power utilization of propulsion sources to the vehicle from the network cloud and/or server, and using the optimized power utilization of propulsion sources to control drive train modes and/or peripheral equipment of the vehicle during driving in order to optimize the power consumption of the vehicle.
Abstract:
A method for processing data with parameters of a vehicle, power train or power train component of different origin comprises reading out of the data and the carrying out a statistical analysis for determining the minimum and maximum axis values of the data associated with the same parameters. Subsequently, the data is converted and compressed into a common format, and the data associated with the same parameters is provided with common axes and the same number of sampling points, wherein the start and end figures of the axes results from the minimum and maximum axis figures. The data processed in this way may then be subjected to further processing.
Abstract:
A method for determining the efficiency of an electric energy system of a hybrid vehicle includes determining a measure representative of a relation between the electrical brake energy and the mechanical brake energy, by determining a requested brake energy for a first vehicle retardation, and by determining an actual electrical brake energy and the actual mechanical brake energy during the vehicle retardation, determining a new measure representative of a relation between the electrical brake energy and the mechanical brake energy at a subsequent second similar vehicle retardation, comparing the determined measures representative of a relation between the electrical brake energy and the mechanical brake energy of the first and second vehicle retardations, where the actual efficiency of the energy system is obtained from the change in the measure representative of a relation between the electrical brake energy and the mechanical brake energy of the first and second vehicle retardations.
Abstract:
A method for measuring an engine load of a drive motor in a vehicle. Here, at least one parameter which characterizes the engine load is allocated a driving distance equivalent. This driving distance equivalent is then incremented by a driving distance counter. If the vehicle is equipped with a sailing functionality, the driven distance is counted only if the vehicle is moving and the drive train is coupled to the drive motor without slip. A rate of rotation sensor, a clutch sensor and a driving distance counter able to be switched on and off are required for running the method of the present invention. A computer program is used in addition.
Abstract:
An information processing apparatus includes a generation section configured to generate, from a state of a mobile vehicle in each position obtained by discretizing a traveling route along which the mobile vehicle travels, a state of the mobile vehicle in a next position for each use state of drive means contained in the mobile vehicle; and an optimization section configured to optimize the use state of the drive means in each position based on at least one of states of the mobile vehicle in each position generated by the generation section.
Abstract:
A control device for a hybrid vehicle having an engine, a motor, a clutch and an air conditioner, the engine and the motor being connected to each other via the clutch, the air conditioner having a compressor driven by the engine, has a controller. The hybrid vehicle has an EV mode in which the engine is disconnected from the motor by release of the clutch, and an HEV mode in which the engine rotates together with the motor by engagement of the clutch. The controller is configured to execute a diagnosis of whether the clutch is in a released state during selection of the EV mode. When the HEV mode is selected in response to an operation request for the air conditioner, the controller temporality switches the running mode to the EV mode based on a running history of the hybrid vehicle in a stop state of the hybrid vehicle.