Abstract: An unmanned vehicle management system includes an unmanned aircraft system (UAS) control station controlling one or more unmanned vehicles (UV), a collaborative routing system, and a communication network connecting the UAS and the collaborative routing system. The collaborative routing system being configured to receive flight parameters from an operator of the UAS control station and, based on the received flight parameters, automatically present the UAS control station with flight plan options to enable the operator to operate the UV in a defined airspace.

Abstract: Passive verification of operator presence in handling requests for vehicle includes initiating activation of a power-operated vehicle component that is subject to a supervised control mechanism. The activation is initiated in response to a request from an operator-controlled device. The passive verification also includes verifying a presence of the operator-controlled device indicative of a presence of an operator of a vehicle, transmitting intermittent signals to the operator-controlled device, monitoring response signals received in response to the intermittent signals, and continuing activation of the power-operated vehicle component until the activation is complete so long as the response signals are received responsive to the monitoring.

Abstract: A vehicle burglarproof system and a vehicle burglarproof method are disclosed. The vehicle burglarproof system comprises a vehicle component, an electrocardiography (ECG) sensor, a first register, a remote controller and a microcontroller. The remote controller comprises a second register. The ECG sensor senses current ECG information. The first register stores the current ECG information. The second register stores pre-recorded ECG information. If the current ECG information matches the pre-recorded ECG information, the microcontroller controls the vehicle component to change to a second state from a first state which is different from the second state.

Abstract: In a vehicle lamp control device, a control unit is configured to a) hold a road surface angle reference value and a vehicle posture angle reference value in a volatile manner, b) generate an optical axis adjusting signal using a vehicle posture angle in response to variation in a total angle during the stop of the vehicle, c) avoid generating or outputting the optical axis adjusting signal or output an optical axis holding signal, and hold a road surface angle as a new reference value, in response to variation in the total angle during travelling of the vehicle. The control unit, in response to receiving the turn-off signal of the switch, d-1) writes at least the road surface angle reference value in the storage unit or continues to execute the step (c) while delaying the step (d-1).

Abstract: Provided is a control device for a hybrid vehicle, which makes it possible to manually select a degree of acceleration in tune with user's preferences and user's intended running quality. Provided is a control device for a hybrid vehicle 1 including an engine and a motor for assisting the engine with power, in which an ECU 20 is provided with a first changing unit, which prepares to increase the assist amount of the motor 12 in response to a user depressing a Plus Sport mode switch 30, and subsequently increases the assist amount of the motor 12 in response to the user pressing an accelerator pedal to cause a variation ?AP in an accelerator position to be at least a predetermined value.

Abstract: A system includes a GPS module, user interface module, database and routing engine. To find nearby POIs in one embodiment the routing engine identifies POIs in the database located within a threshold distance from the planned route in Euclidean distance. The routing engine filters the results by exploring the road network to determine whether each of the POIs is within the threshold distance of the route in driving distance. The filtering may include exploring outward from the POI, until all roads within the threshold distance are explored or the route is reached; alternatively, distance to the POIs is checked by exploring outward from the route until all roads within the threshold distance of the route have been exposed. For those POIs reached in the exploration, the nearest point on the route and the distance to that point are known. Similar searches are performed based on driving time rather than distance.

Abstract: A method for determining a driving maneuver for a motor vehicle includes the steps of ascertaining an imminent accident with an external object, ascertaining characteristic variables for accident damages in different driving maneuvers and determining the driving maneuver whose characteristic variable is indicative of the least accident damage.

Abstract: A method, device, and vehicle information system are provided for persisting application context from the vehicle information system to the mobile device. The mobile device provides access to at least one application executing on the mobile device to the vehicle information system. On termination of that access, an operating context is determined for each of the mobile device applications where possible. In some cases, where application context is persisted from one system or device to the other, the current data is presented in accordance with a transport modality associated with the other device or system.

Abstract: Systems and methods for detecting a vehicle. One system includes a controller. The controller is configured to receive images from a camera mounted on a first vehicle, identify a surface of a second vehicle located around the first vehicle based on the images, and generate a three-dimensional model associated with the second vehicle. The model includes a first plane and a second plane approximately perpendicular to the first plane. The first plane of the model is associated with the identified surface of the second vehicle. The controller is further configured to track a position of the second vehicle using the three-dimensional model after the identified surface falls at least partially outside of a field-of-view of the at least one camera.

Abstract: A control apparatus includes a first control part and a second control part. The first control part controls a control target based on a control amount that is output from the second control part and a command amount that is manually input, and permits the control amount to exceed a predetermined amount based on a standard when respective control directions of the control amount and the command amount are coincident with one another.

Abstract: An apparatus and method are disclosed for providing route guidance based on emotion. The apparatus includes an emotion information acquisition unit, a route information calculation unit, and a route guidance unit. The emotion information acquisition unit obtains information about a user's emotion using an emotion acquisition sensor. The route information calculation unit calculates emotion route information using the obtained emotion information and map information. The route guidance unit provides route guidance to the user using the calculated emotion route information.

Abstract: Providing reserved routes for a plurality of vehicles, in which the at least a location is monitored and communicated from each of a plurality of vehicles having GPS devices and traveling to destinations on reserved routes with guaranteed arrival times. For a traffic event along one of the reserved routes; determining if any of the plurality of vehicles are affected or will be affected by the traffic event and calculating alternate routes for those vehicles The alternate routes are sent to the GPS devices in the affected or possibly affected vehicles and once the vehicle has reached the destination, comparing an actual arrival time of the vehicle at the destination to the guaranteed arrival time, and if the actual arrival time is later than the guaranteed arrival time, crediting a user of the vehicle for at least a portion of an amount paid for reserving the reserved route.

Abstract: A technique is directed to operating a UAV. The technique involves launching (or guiding) the UAV into flight. The technique further involves performing a series of aileron (or other control surface) deflection evaluations while the UAV is in flight. The technique further involves performing a UAV remedial operation in response to the series of aileron deflection evaluations indicating abnormal aileron behavior, e.g., the UAV can send a warning message to a ground control station (GCS), land the UAV at a target location, deploy a chute, and so on. Such operation enables detection of an unexpected change in the UAV's center of gravity, e.g., due to a blocked fuel bladder connection, icing on one side of the UAV, mechanical failure of an aileron, etc.

Abstract: Any one of ECUs that are operating detects a present power supply voltage repeatedly. When the voltage detected at the present time is changed from the voltage detected at the previous time, a difference is calculated as a variation value and the repeatedly calculated variation values are integrated to provide a voltage variation integrated value. When the variation of the power supply voltage of an ECU becomes great relatively due to a loose connection in a power supply line, the calculated voltage variation integrated value becomes greater than those of the other ECUs. In addition, when a defect arises in a common power supply source, the voltage variation integrated value increases in all the ECUs. Therefore, each integrated value of the variation values of the power supply voltage in each of the ECUs enables an anomaly diagnosis of an occurrence point of the defect.

Abstract: A method for determining change of direction of a vehicle includes steps of maintaining a rolling window of ABS data indicative of ABS tooth count and capturing a relevant rolling window of ABS data at the predetermined one-measurement point; storing the rolling window of the ABS data indicative of ABS tooth in a buffer; monitoring the ABS data and detecting a valid stop event which causes the rate of change of ABS tooth count to substantially decrement to zero; and monitoring the ABS data and detecting a valid move event which causes the rate of change of ABS tooth count to substantially increment from zero.

Abstract: The invention includes methods and devices for an improved onboard vehicle diagnostic system. The methods and devices provide for more detailed information and presentation of diagnostic and vehicle performance data for a user. In one example, real time diagnostic and trip system performance data is gathered and displayed relative to time for improved understanding of vehicle performance and operation by a user.

Abstract: A coupling device system for use in a motor vehicle is provided including a coupling device and a memory chip. The coupling device has an input member, an output member, and at least one modulating clutch assembly selectively coupling the input member to the output member. The modulating clutch assembly includes an electrical clutch operator and clutch plates. The clutch plates include at least one first clutch plate coupled to the input member and at least one second clutch plate coupled to the output member. The second clutch plate is disposed adjacent the first clutch plate. The memory chip is integrated with the coupling device and is configured to store data related to a measured characteristic of the coupling device. The memory chip is also configured to communicate with a vehicle controller. A method of providing a calibration curve of the coupling device to the vehicle controller is also disclosed.

Abstract: The present invention relates to a parking control apparatus and a parking control method. In particular, the present invention relates to a parking control apparatus and a parking control method in which an initial parking space searched while a vehicle is moved is corrected into a final parking space in a space recognition correction section based on a situation at the time of searching by the vehicle and information for an obstacle which is acquired while the vehicle moves along a first parking route, the position of the vehicle is changed, and then a final parking route is calculated.

Abstract: Automatic monitoring to determine whether, during a parking process of a parking assistance system of the vehicle, the vehicle is at an end of a current maneuver of the parking process. If the vehicle is at the end of the current maneuver of the parking process, a braking request of the driver of the vehicle to activate a brake of the vehicle is generated automatically.

Abstract: A cooling system according to an exemplary embodiment may include a heat generation device that is cooled by a coolant solution that exchanges heat with the heat generation device to maintain the heat generation device at a required temperature. More specifically, the cooling system includes a temperature sensor that detects a temperature of the coolant solution, a conductivity sensor that detects the conductivity of the coolant solution, and a controller that uses coolant solution temperature and coolant solution conductivity that are detected through the temperature sensor and the conductivity sensor to determine a condition of the coolant solution.