Abstract: In a vehicle-mounted device, a first time period measuring unit starts measurement of a first time period when detecting an exit movement of a user. Before an elapse of the first time period, a vehicle side transmission unit periodically transmits a response request signal at a predetermined transmission period; and a locking and unlocking control unit keeps a door unlocked while receiving a response signal, locks the door when incapable of receiving the response signal, and keeps the door unlocked when capable of receiving the response signal at the elapse of the first time period. After the first time period is elapsed, the vehicle side transmission unit periodically transmits the response request signal at a second time period; and the locking and unlocking control unit keeps the door unlocked while receiving the response signal, and locks the door when incapable of receiving the response signal.

Abstract: A vehicle includes an engine. The vehicle includes a controller configured to start a timer having a duration defined by a charge limit of a traction battery and during which the engine braking is maintained and reduce a predetermined rate of change speed limit of the engine is reduced. The starting of the timer is responsive to application of an accelerator pedal during engine braking. The controller is further configured to increase the predetermined rate of change speed limit such that engine braking is predicted based on the limit of the battery, responsive to application of an accelerator pedal during engine braking.

Abstract: Embodiments provide techniques, including systems and methods, for determining curb segments within a threshold boundary of a transport request location, which when evaluated with respect to travel time, among other factors, result in travel efficiencies over the original transport request location. For example, a curb identification system uses building perimeter edges and road parameters to determine curb segments, which are stored as curb segment data. The curb segment data is used to identify alternate request locations corresponding to an original request location, such as being with a radius or boundary. A time for a requestor to travel from the original request location to the alternate request location is evaluated with regard to travel time.

Abstract: The disclosure concerns a control device for the remote control of a motor vehicle including a display device for visualizing the surroundings of the motor vehicle detected by motor vehicle sensors of the motor vehicle, and a motor vehicle symbol in a surrounding area of the motor vehicle. An input device inputs a desired parking position within the detected surrounding area of the motor vehicle by displacement of the motor vehicle symbol that is represented on the display device.

Abstract: An Electronic Control Unit (ECU) includes a diagnosis control request calculator, a power controller, a vehicle behavior monitor and the like. The ECU performs an auto-drive of a vehicle, during which a vehicle power source is controlled by the ECU for improving a rate achieve ratio of a fault diagnosis item. The ECU obtains vehicle information from a drive support ECU, a navigation device and the like. The ECU performs a control for improving a rate achieve ratio during the auto-drive. The ECU ranks the diagnosis items by the rate achieve ratios, i.e., from a low achiever diagnosis item toward a high achiever diagnosis item. The rate achieve ratio of the low achiever diagnosis item is improved by the ECU, by changing a controllable-state detection condition within a detection condition range.

Abstract: A computing device implemented method includes receiving one or more signals that represent an angular speed of a permanent magnet electric motor of a hybrid electric vehicle, the one or more signals being provided by an angular sensor connected to the electric motor, receiving a signal representing a voltage from the electric motor, the voltage being a direct axis voltage component of a three-phase motor model, determining if the angular speed is within a predetermined threshold, calculating an error angle representing a correction factor for an alignment of the electric motor based on a ratio of the voltage and the angular speed, storing the correction factor, and determining a binary indication of a status of error angle, and repeating the steps until the binary indication is positive.

Abstract: A method for wire connectivity testing includes receiving wiring data indicating at least a length of a wire segment of a vehicle from a design database. The method further includes receiving spread-spectrum time-domain reflectometry (SSTDR) data associated with the wire segment from an SSTDR device coupled to an endpoint of the wire segment. The method also includes calculating a distance-to-fault based on the SSTDR data. The method includes comparing the distance-to-fault to the length of the wire segment. The method further includes, in response to the distance-to-fault being less than the length of the wire segment, generating fault data indicating a failure within the wire segment. The method also includes sending the fault data to a user output device.

Abstract: According to one embodiment, a roll-in cot may include a support frame, a pair of back legs, a pair of front legs, and a cot actuation system. The pair of back legs and the pair of front legs can be slidingly coupled to the support frame. Each of the pair of front legs can include a front wheel and an intermediate load wheel. The intermediate load wheel is offset from the front wheel by a load wheel distance. A front actuator can raise the pair of front legs such that the front wheel and the intermediate load wheel of each of the pair of front legs are aligned along a loading level. The intermediate load wheel of each of the pair of front legs can be offset from the pair of back legs by a loading span. The load wheel distance can be greater than the loading span.

Abstract: A double cut control system and method are disclosed for a felling head having a saw disc. The felling head may be positioned by a knuckle boom, which includes a hoist boom and a stick boom coupled by a knuckle and positioned by hydraulic cylinders actuated by a hydraulic pump and hydraulic control valves. The control system has an operator input device for input of operator commands including a double cut control input command. Position sensors provide position values for the knuckle boom and the felling head. At least one controller receives the operator commands and position values. After receiving the double cut control input command, the controller generates a first cut control signal to direct flow of hydraulic fluid to the hydraulic cylinders to position the knuckle boom to advance the felling head in a single fore-aft direction a set distance corresponding to a partial depth cut.

Abstract: A method of monitoring a vehicle includes monitoring a precollision fuel level, detecting a collision event, and detecting a vehicle orientation based at least on the precollision fuel level and a postcollision fuel level. The method can be executed by a controller having a processor and a memory storing processor-executable instructions where the processor is programmed to monitor the precollision fuel level, detect the collision event, and detect the vehicle orientation based on at least a precollision fuel level and a postcollision fuel level.

Abstract: A navigation system for use on an automated vehicle includes a global-positioning-system-receiver (GPS-receiver), a vehicle-to-vehicle-transceiver (V2V-transceiver), an object-detector, and a controller. The GPS-receiver indicates a receiver-coordinate of a host-vehicle. The receiver-coordinate is characterized by a receiver-error. The V2V-transceiver receives a GPS-coordinate from each of a plurality of other-vehicles proximate to the host-vehicle. The object-detector determines a distance and a direction relative to the host-vehicle to each of the plurality of other-vehicles. The controller is in communication with the GPS-receiver, the V2V-transceiver, and the object-detector.

Abstract: A hover-control method for multirotor unmanned aerial vehicle (UAV) upcast at any angle to take off is applied to correct at least one tilt angle of the multirotor UAV by dual-feedback schemes. When any of the at least one tilt angle is greater than a corresponding angle limitation, an open feedback scheme is executed to drive a plurality of motors of the multirotor UAV until a predetermined condition is achieved. When all of the at least one tilt angle are not larger than the respective angle limitations, a negative feedback scheme is executed to drive the motors of the multirotor UAV until a hover condition is achieved.

Abstract: A computer-implemented method of using telematics data at a destination device is provided. The destination device may be a mobile device associated with a driver, or a smart vehicle controller of a destination vehicle. The telematics data is generated by an originating mobile device (i) having a Telematics Application (or “App”), and (ii) associated with a second driver/vehicle, the telematics data including acceleration, braking, speed, heading, and location data associated with an originating vehicle. The telematics data may be broadcast from the originating mobile device to the destination device that (a) analyzes the telematics data received, (b) determines that an abnormal travel condition exists, and (c) automatically take corrective action that alleviates a negative impact of the abnormal travel condition on the destination vehicle to facilitate safer travel.

Abstract: A system is configured to produce an alarm when wheel misalignment of a vehicle occurs. The system includes: a navigation device; a lane change detector configured to detect lane change frequency information of the vehicle; a driving information detector configured to detect vehicle speed information and brake frequency information; a steering wheel rotation angle detector configured to detect a rotation angle of a steering wheel; and a controller deriving a criterion based on the rotation angle, for determining whether or not the vehicle travels straight by receiving from the navigation device, the lane change detector, the driving information detector, and the steering wheel rotation angle detector, information necessary to determine whether or not the vehicle travels straight, the controller transmitting an alarm signal to a driver when a current rotation angle of the steering wheel detected by the steering wheel rotation angle detector fails to satisfy the criterion.

Abstract: A hybrid vehicle including a front motor for driving front wheels, a rear motor for driving rear wheels, and a step-up converter for stepping-up the voltage from a battery and supplying power to the front motor, in which an engine is started to shift the vehicle from an EV mode into a series mode when the output power of the step-up converter is lower than the required power of the front motor, the hybrid vehicle includes a hybrid control unit which computes maximum output power of the step-up converter and, when the output power of the step-up converter is more than the maximum output power, increases the distribution ratio of the travel driving torque of the rear wheel, thereby increasing the output torque of the rear motor.

Abstract: A mobile device configured to receive telematics data from another vehicle when the mobile device is traveling in a moving vehicle and take corrective action when a travel event exists may be provided. The mobile device may receive telematics data associated with an originating vehicle, analyze the telematics data, and determine or identify that a travel event associated with the originating vehicle exists and, when the travel event is determined to exist, determine whether the travel event is relevant to the moving vehicle or a route that the moving vehicle is presently traveling, and if so, direct corrective action such that safer vehicle travel for the moving vehicle is facilitated based upon the telematics data that is collected by the originating vehicle. An insurance provider may collect an insured's usage of the vehicle safety functionality to calculate, update, and/or adjust insurance premiums, rates, discounts, points, or programs.

Abstract: A system for positioning an unmanned aerial vehicle is provided including a position reference system including an electromagnetic radiation transmitter configured to modulate a transmission signal to encode location information associated with a coordinate system relative to the electromagnetic radiation transmitter. The system further includes an unmanned aerial vehicle including at least one control device configured to control a position of the unmanned aerial vehicle and an electromagnetic radiation receiver configured to receive the transmission signal. The unmanned aerial vehicle further includes a control system configured to control the at least one control device based at least in part on the location information received by the electromagnetic radiation receiver.

Abstract: A system of broadcasting information related to hazards impacting vehicle travel may include a mobile device configured to: (1) mount within a vehicle dashboard cradle so that the mobile device is positioned to take images forward of a vehicle; (2) collect telematics data, with customer permission or affirmative consent, when the vehicle is moving, including GPS location, speed, heading, lane, braking, cornering, acceleration, and/or route data of the vehicle; (3) generate an alert based upon the telematics data and the images, and/or broadcast data including the images and the telematics data; and/or (4) broadcast the alert and/or the data collected to (a) a nearby vehicle(s) and/or (b) a smart infrastructure component(s) to facilitate warning of hazards upon the nearby vehicle(s) and/or the smart infrastructure component(s) receiving and processing the alert and/or the broadcasted data. Insurance discounts may be generated based upon the risk mitigation or prevention functionality.

Abstract: A computer system configured to use train telematics data to reduce risk of accidents via a mobile device traveling within a vehicle may be provided. The mobile device may be configured to (1) receive train telematics data associated with a train that includes GPS location, speed, route, heading, acceleration, and/or track data; (2) determine when, or a time period of when, the train will pass through, be passing through, or be within a predetermined distance of a railroad crossing based upon the train telematics data; (3) determine an alternate route for the vehicle to take to avoid waiting at the railroad crossing; and (4) cause display of the alternate route on a display of the mobile device or a vehicle navigation system to allow the train to pass and to avoid train-vehicle collisions. Insurance discounts may be generated based upon the risk mitigation or prevention functionality.

Abstract: A computer-implemented method of generating and broadcasting telematics and/or image data is provided. Telematics and/or image data may be collected, with customer permission, in real-time by a mobile device (or a Telematics App running thereon) traveling within an originating vehicle. The telematics data may include acceleration, braking, speed, heading, and location data associated with the originating vehicle. The mobile device may generate an updated telematics data broadcast including up-to-date telematics data at least every few seconds; and then broadcast the updated telematics data broadcast at least every few seconds via wireless communication to another computing device to facilitate alerting another vehicle or driver of an abnormal traffic condition or event that the originating vehicle is experiencing.