Abstract: We provide a method for operating a navigation system for a motor vehicle in a road network, and to a navigation system. To this end, first a zone of the road network is provided with an emissions class-dependent drive-through restriction, wherein the motor vehicle is associated with at least one emissions class. First, information about the geographical location of the zone and about the emissions class at least required there is stored in the navigation system. Then, information about the at least one emissions class of the motor vehicle is entered into the navigation system. Thereafter, the information entered is considered in the destination guidance process, wherein destination guidance into or through the zone is avoided if the at least one emissions class of the motor vehicle is affected by emissions class-dependent drive-through restrictions in the zone.

Abstract: An apparatus, method, and medium for dividing regions by using feature points and a mobile robot cleaner using the same are provided. A method includes forming a grid map by using a plurality of grid points that are obtained by detecting distances of a mobile robot from obstacles; extracting feature points from the grid map; extracting candidate pairs of feature points, which are in the range of a region division element, from the feature points; extracting a final pair of feature points, which satisfies the requirements of the region division element, from the candidate pair of feature points; forming a critical line by connecting the final pair of feature points; and forming a final region in accordance with the size relationship between regions formed of a closed curve which connects the critical line and the grid map.

Abstract: A docking station for an automated guided vehicle includes a station base unit and a shift unit adapted to move relative to the station base unit between an extended position and a retracted position, where movement of the shift unit from the extended position to the retracted position defines a shift unit movement direction. The docking station further includes an actuator coupled to the station base unit and the shift unit, where the actuator is adapted to move the shift unit between the extended position and the retracted position and at least one locator block coupled to the shift unit. The docking station stops an automated guided vehicle travelling in the shift unit movement direction when a portion of the automated guided vehicle contacts the at least one locator block with the shift unit in the extended position.

Abstract: A mobile terminal has a current-location information acquisition unit configured to acquire current-location information indicating a current location of the mobile terminal, a direction information acquisition unit configured to acquire direction information indicating a direction of orientation of the mobile terminal, a storage unit configured to store data added location information, a search unit configured to search for at least one of the data having the location information that is located in the direction from the current location of the mobile terminal and that falls within a predetermined range around the direction based on the current-location information and the direction information, and a display control unit configured to cause the retrieved data to be displayed.

Abstract: Disclosed are methods and devices for transitioning a mixed-mode autonomous vehicle from a human driven mode to an autonomously driven mode. Transitioning may include stopping a vehicle on a predefined landing strip and detecting a reference indicator. Based on the reference indicator, the vehicle may be able to know its exact position. Additionally, the vehicle may use the reference indictor to obtain an autonomous vehicle instruction via a URL. After the vehicle knows its precise location and has an autonomous vehicle instruction, it can operate in autonomous mode.

Abstract: Provided are methods and systems for the automatic assessment and presentation of data on a display device that describes the operational impact on mission critical parameters resulting from a change in a vehicle's mission plan. The change in mission plan may be inputted manually by the vehicle operator but may also be received electronically and automatically over a data up link from an outside authority.

Abstract: Method and system of vehicular path prediction for a vehicle travelling on a road. A yaw rate of the vehicle is estimated over a prediction time period based on vehicle sensor information and map information for the road. Then, a further path of the vehicle on the road is predicted for the prediction time period based on a speed and a direction of the vehicle, and the estimated yaw rate. Map information includes a geometry for a portion of the road on which the vehicle is travelling, and the vehicle sensor information includes yaw rate information from a yaw rate sensor on the vehicle, and location information of the vehicle relative to the map information from a positioning device on the vehicle. A vehicle provided for path prediction includes a communication system for transmitting the predicted path to other vehicles for collision avoidance.

Abstract: A method and system for navigation of one or more unmanned aerial vehicles in an urban environment is provided. The method comprises flying at least one Global Positioning System (GPS)-aided unmanned aerial vehicle at a first altitude over an urban environment, and flying at least one GPS-denied unmanned aerial vehicle at a second altitude over the urban environment that is lower than the first altitude. The unmanned aerial vehicles are in operative communication with each other so that images can be transmitted therebetween. A first set of images from the GPS-aided unmanned aerial vehicle is captured, and a second set of images from the GPS-denied unmanned aerial vehicle is also captured. Image features from the second set of images are then matched with corresponding image features from the first set of images. A current position of the GPS-denied unmanned aerial vehicle is calculated based on the matched image features from the first and second sets of images.

Abstract: An unmanned vehicle may include a vehicle body that comprises an enclosed hull. The unmanned vehicle may include a propulsion, a ballast control system, a center of gravity system, a pressurization system, a control surface system, a navigation control system, and an on board master control system. The on board master control system may execute local control over operation of the various systems of the unmanned vehicle. The unmanned vehicle may also include a power supply carried by a portion of the vehicle body to provide power to the various systems. The various systems of the unmanned vehicle may be independently operable to support selective operation of the unmanned vehicle in the air, on the surface of the water, and below the surface of the water.

Abstract: A system includes at least one sensor device configured to transmit a first detection signal over a first spatial region and a second detection signal over a second spatial region. The second region has a first sub-region in common with the first region. The system further includes a processing device configured to assign a first occupancy value to a first cell in an evidence grid. The first cell represents the first sub-region, and the first occupancy value characterizes whether an object has been detected by the first detection signal as being present in the first sub-region. The processing device is further configured to calculate, based on the first and second detection signals, the probability that the first occupancy value accurately characterizes the presence of the object in the first sub-region, and generate a data representation of the first sub-region based on the probability calculation.

Abstract: Methods, devices and systems for recognizing an object in an image are provided, in which the object is recognized by evaluation of both image data and digital map information that corresponds to an area represented by the image. Evaluation of the image data and the digital map information may involve various methods of evaluation including cross-checking, in which the digital map information is utilized to verify correct object recognition in the image data; prediction, in which digital map information is utilized to predict a feature of an object to facilitate object recognition in the image data; or modeling in which a generic model of an object is compared with the image data.

Abstract: An optical tracking vehicle control system includes a controller adapted for computing vehicle guidance signals and a guidance subsystem adapted for receiving the guidance signals from the controller and for guiding the vehicle. An optical movement sensor is mounted on the vehicle in optical contact with a travel surface being traversed by the vehicle. The optical movement sensor is connected to the controller and provides vehicle movement signals thereto for use by the controller in computing vehicle position. The optical movement sensor can be either mounted on a gimbal for movement independent of the vehicle, or, alternatively, multiple optical movement sensors can be provided for detecting yaw movements. GNSS and inertial vehicle position tracking subsystems are also provided. Still further, a method of tracking a vehicle with an optical movement sensor is provided.

Abstract: A method for controlling a remote controlled locomotive that is part of a train to insure effective braking, the method including calculating an estimated total energy of a train, calculating a threshold representing a predetermined braking capability limit of the locomotive, determining whether the estimated total energy is at least one of approaching and exceeding the threshold, and decreasing a velocity of the train until the threshold is at least one of no longer being approached and is no longer exceeded.

Abstract: An autonomous mobile device that moves while autonomously avoiding zones into which entry should be avoided even if no obstacle exists therein includes a laser range finder that acquires peripheral obstacle information, a storage unit that stores an environment map that shows an obstacle zone where an obstacle exists, and a no-entry zone map which shows a no-entry zone into which entry is prohibited, a self-location estimation unit that estimates the self-location of a host device by using the obstacle information acquired by the laser range finder and the environment map, and a travel control unit that controls the host device to autonomously travel to the destination by avoiding the obstacle zone and the no-entry zone based on the estimated self-location, the environment map, and the no-entry zone map.

Abstract: A control system controls a pair of vehicles in coordination to traverse a respective pair of trajectories. The control system is configured to specify a plurality of successive waypoints, a safe stopping interval and an intermediate interval greater than the safe stopping interval, and exchange waypoints between vehicles. The system controls each vehicle in coordination with the other, senses a rate of exchange of waypoint data between the vehicles, and determines the safe stopping interval. The control system updates positions with additional waypoints as the respective vehicles pass by waypoints of the forecasted trajectory, determines the length of the forecasted trajectory remaining and compares it with the intermediate interval and the safe stopping interval. The system generates a warning signal if distance is less than the intermediate interval, and if the distance is less than the safe stopping interval, stops within the safe stopping interval.

Abstract: An autonomous moving apparatus arranged to travel autonomously in a surrounding environment preferably includes: a distance measuring sensor arranged to output detection waves, detect a distance between the apparatus and an object which has reflected the detection wave based on a reflection state of the detection wave, and acquire information about the distance between the apparatus and the object which exists in the surroundings of the apparatus; an inclination sensor arranged to detect an inclination of the distance measuring sensor; and a control unit arranged to estimate the self-position in the surrounding environment and generate the global map of the surrounding environment based on the distance information. When the distance measuring sensor is determined to be inclined based on a detection result of the inclination sensor, the control unit stops estimating the self-position based on the distance information and stops generating the global map based on the distance information.

Abstract: Guide-by-wire vehicle steering involving (a) preparing a vehicle lane in a roadway with a passive, lane-following, elongate, lateral-triangulation responder, (b) equipping a selected vehicle having signal-controllable steering mechanism with a lateral-triangulation transceiver operatively associated, and interactive, with the responder, and signal-control-linked to the selected vehicle's signal-controllable steering mechanism, (c) with such a vehicle traveling along the roadway, interacting the transceiver and the responder, and (d) by such interacting, applying, as necessary, control signals from the transceiver to the vehicle's signal-controllable steering mechanism, thereby to control vehicle steering so as to assure vehicle following of the prepared vehicle lane. Also disclosed is system structure capable of performing these vehicle-steering steps, and selectively, additionally, communicating non-position roadway information in addition to steering-control information.

Abstract: Methods and systems for producing data describing states of a plurality of targets (105A, 105B) using a processor (102) in a system (100) having at least one onboard sensor (106). The method includes obtaining (404) data from at least one onboard sensor (106A, 106B) and performing a first data fusion process (412) on the obtained onboard sensor data to produce onboard sensor fused data. Data is also obtained (422) from at least one off-board sensor (108A, 108B), and a second, different data fusion process (430) is performed on the obtained off-board sensor data and the onboard sensor fused data to produce target state data.

Abstract: A method for the automatic operation of a vehicle in an autonomous driving mode not requiring user action is provided. This involves detection of a present traffic situation, a check whether the traffic situation fulfils a first criterion, and a blocking of a functionality which offers to a driver during the autonomous driving mode a secondary activity not related to driving the vehicle if the first criterion is fulfilled. A device for the automatic operation of a vehicle in an autonomous driving mode not requiring user action includes devices designed for carrying out the method for the automatic operation of a vehicle in an autonomous driving mode not requiring user action.

Abstract: A landmark-based method of estimating the position of an AGV (autonomous ground vehicle) or conventional vehicle, which has an onboard database of landmarks and their locations coordinates. During travel, the AGV looks for and identifies landmarks. It navigates according to position estimations that are based on measured yaw rate and speed. When a landmark s encountered and recognized, its true location coordinates are looked up from the database. These true coordinates are then used to enhance position estimation accuracy between landmarks.

Abstract: A target in a mobile platform's obstructed zone can be cleared from the obstructed zone and engaged in the most time-efficient manner by determining the direction of the maneuver that would require the shortest amount of time to clear the target and then maneuvering the mobile platform in that direction.

Abstract: An autonomous vehicle capable of determining its position in a space through improved communications with beacons is disclosed. The autonomous vehicle utilizes time of flight as well and angular information to determine position, and is capable of intelligent interaction with the beacons.

Abstract: A system for enabling a driver to input a vehicle control instruction into an autonomous vehicle controller while the autonomous vehicle controller is operating a vehicle in either an autonomous mode or a semi-autonomous mode is disclosed herein. The system includes, but is not limited to, a sensor that is configured to detect a driver input and to generate a signal corresponding with the driver input. The system further includes a communication sub-system communicatively coupled with the sensor and configured to be communicatively coupled with the autonomous vehicle controller. The communication sub-system is further configured to deliver the signal from the sensor to the autonomous vehicle controller. The autonomous vehicle controller controls the vehicle in a manner that corresponds with the driver input when the autonomous vehicle controller receives the signal.

Abstract: In a vehicle travel controlling apparatus including an automatic travel controlling ECU that controls a vehicle in a predetermined travel state by cooperation control of a vehicle driving amount and a vehicle braking amount, the automatic travel controlling ECU is provided with an automatic travel termination controlling unit. The automatic travel termination controlling unit obtains a brake fluid pressure during the cooperation control according to the vehicle driving amount during the cooperation control and a gradient of a road surface on which a vehicle is travelling. When the brake fluid pressure corresponding to a braking operation of a driver is more than the brake fluid pressure during the cooperation control, the automatic travel termination controlling unit terminates the cooperation control to switch operation to a braking operation according to the brake fluid pressure corresponding to the braking operation.

Abstract: The invention relates to a method and device for limiting the number of alarms generated by an anticollision system on board an airplane according to which the duration of a phase of capture of a setpoint altitude by the airplane is adjusted so that a theoretical time for collision with an intruder aircraft is greater than a predetermined threshold, when the airplane is close to said setpoint altitude and air traffic exists in the environment of said airplane.

Abstract: A method for scheduling mowing tasks by a robotic mower is provided. An estimated height of grass cut by the robotic mower is determined for a predetermined number of past mowing tasks. The estimated height of grass cut is compared with a predicted height of grass in an operating environment for the robotic mower. Then, a mowing schedule for the robotic mower is adjusted by decreasing a time between mowing tasks in response to the estimated height of grass cut being greater than the predicted height of grass. Alternatively, the mowing schedule for the robotic mower is adjusted by increasing the time between mowing tasks in response to the estimated height of grass cut being less than the predicted height of grass.

Abstract: An unmanned trackless order picking forklift system includes a vehicle-driving system, a vehicle-position-adjusting system and a pallet-scanning system each of which provided in a forklift truck and electrically connected with a CPU device. The vehicle-position-adjusting system is operated to detect a predetermined route so that the CPU device controls the vehicle-driving system to drive the forklift truck along the predetermined route from a first position to a second position. The pallet-scanning system is operated to scan a designated pallet along the predetermined route.

Abstract: A lawn mower comprising: a frame (10); wheels and motors (20a;20b) for moving the frame (10) relative to a work surface (L); one or more blades (30) for cutting the grass on the work surface (L); a plurality of sensors (S1, S2) for generating detection signals (SR) representative of a distance of a mass (M) relative to the frame (10); a control unit (40) for determining, as a function of the detection signals (SR), whether the mass (M) is at a distance from the frame (10) within a predetermined value range, and to adjust the operating conditions of the lawn mower (1) as a function of the detection signals (SR); a selection circuit (50) interposed between the control unit (40) and sensors (S1, S2) for selectively enabling a connection between each of the sensors (S1, S2) and an input of the control unit (40).

Abstract: In a route planning system and method for agricultural working machines, a defined working width is assigned to the agricultural working machines to generate driving routes in a territory, and dynamic adaptation of the planned driving route is carried out thereby ensuring that the driving route to be covered is flexibly adaptable to changing external conditions such as driving around obstacles, thereby largely relieving the operator of the agricultural working machine of the task of performing laborious steering maneuvers.

Abstract: A mobile station for an unmanned vehicle comprises a vehicular storage area for storing a vehicle during transit or at rest. A first wireless transceiver communicates a status or command between the vehicle and the mobile station during at least one of vehicular deployment and rest. A station controller manages a management plan of the vehicle comprising at least one of retooling the vehicle, loading a payload on the vehicle, and recharging or refueling of the vehicle.

Abstract: A GPS navigation system for a motor vehicle mounted within sight of a driver and/or navigator. The system comprises and/or consists of a memory module that contains a pre-stored map database including a plurality of locations and a receiver supported within the motor vehicle for receiving signals indicative of the current position of the map. The system also includes a monitor positioned in the position within sight of the driver and/or navigator for displaying the location of the vehicle with the respect to a pre-stored map. Means including the memory module, receiver and said monitor display an area of about ½ km in all direction and up to ½ km to 1 km from the current position of the vehicle. Further, means including a zoom optical system for zooming in and out of the ½ to 1 km radius of the vehicle location on the stored map and means for summoning help to the present location of the vehicle.

Abstract: Guiding speed is increased while an unmanned vehicle is prevented from straying from a travel passage width, to improve the work efficiency. Target speed of the unmanned vehicle increases as a distance between a current position of the unmanned vehicle and a guidable borderline increases, and the target speed of the unmanned vehicle decreases as the distance between the current position of the unmanned vehicle and a guidable borderline decreases. The unmanned vehicle travels, along a travel path having adjacent inbound/outbound lanes, in a direction opposite to a direction of a vehicle on an oncoming lane. If it is determined that the vehicle traveling along the oncoming lane is approaching the unmanned vehicle, then the target speed of the unmanned vehicle is reduced, whereby the unmanned vehicle is caused to travel at a low guiding speed.

Abstract: A device, method, computer program and computer readable medium allowing for vehicle to vehicle and vehicle to infrastructure communication. An ignition key radio technology may used in addition to WLAN-based communication in a vehicle in order to communicate with other vehicles or infrastructure. The ignition key radio technology is used to send only selected data which have been altered significantly. The remaining data are not sent or kept for the WLAN communication.

Abstract: A method and device automatically controls the driving of an aircraft along a ground path of an airport domain. A guidance system is configured to determine, with the aid of at least one current value of the aircraft and a ground rolling trajectory, a yaw rate setpoint enabling the aircraft to follow the ground rolling trajectory by application of a yaw rate command. The guidance system, with the aid of measured current values of parameters of the aircraft, the determined ground rolling trajectory and a speed profile that incorporates a variation of the longitudinal speed along the ground trajectory, a longitudinal speed setpoint that represents a longitudinal speed command to drive the aircraft along the ground trajectory, while complying with the speed profile. A piloting aid system calculates setpoints from the yaw rate command and applies the setpoints to control yaw motion of the aircraft.

Abstract: Provided is a combination of a tractor and a implement drawn by the tractor by way of a draw bar, supported on the ground by wheels, the implement having a processing element interacting with a field. A controller is connected to a first actuator disposed for adjusting the angle between the draw bar and the implement, and to a second actuator disposed for adjusting the angle of the wheels of the implement about the vertical axis. The controller can be operated for actuating the two actuators in such a manner that the longitudinal axis of the processing element is always oriented at least nearly orthogonal to a target line.

Abstract: Disclosed is a method and device, which provide an enhanced ability to monitor the navigation of an aircraft during a phase of flight in which the aircraft is close to the ground in which the aircraft uses positional information supplied by a satellite positioning system for the navigation. A display screen is used to display a first characteristic sign representing a selected setpoint value for a height parameter of the aircraft. The display screen also displays a second characteristic sign representing a current auxiliary value expressed in the form of an achievable height parameter. An alert is emitted when the second characteristic sign is determined to be within a predetermined height value of the first characteristic sign, and the alert is shown in visual format on the display screen. An alarm is also emitted following a predetermined time after the alert is emitted, if the setpoint value is not replaced by a new setpoint value.

Abstract: The invention is related to methods and apparatus that use a visual sensor and dead reckoning sensors to process Simultaneous Localization and Mapping (SLAM). These techniques can be used in robot navigation. Advantageously, such visual techniques can be used to autonomously generate and update a map. Unlike with laser rangefinders, the visual techniques are economically practical in a wide range of applications and can be used in relatively dynamic environments, such as environments in which people move. One embodiment further advantageously uses multiple particles to maintain multiple hypotheses with respect to localization and mapping. Further advantageously, one embodiment maintains the particles in a relatively computationally-efficient manner, thereby permitting the SLAM processes to be performed in software using relatively inexpensive microprocessor-based computer systems.

Abstract: A system and method are provided for launching and recovering an unmanned, water-born vehicle (UWBV) from a mother ship. The UWBV mimics the behavior of dolphins and is positioned ahead of the ship in preparation for bow riding. The UWBV uses a guidance system to position and keep in the bow wave. A high-frequency (HF) sonar transceiver array aboard the ship computes and sends course corrections to maintain the UWBV within the bow wave. The frequency range of the HF array can be 100 kHz or higher due to the short distance between the ship and the UWBV. Accordingly, the HF array can have a small aperture allowing for accurate bearing resolution. Course corrections can be sent on a near-continuous basis such that changes in thrust and rudder angle can be minimized to allow for accurate control of the UWBV.

Abstract: A power-saving robot system includes at least one peripheral device and a mobile robot. The peripheral device includes a controller having an active mode and a hibernation mode, and a wireless communication component capable of activation in the hibernation mode. A controller of the robot has an activating routine that communicates with and temporarily activates the peripheral device, via wireless communication, from the hibernation mode. In another aspect, a robot system includes a network data bridge and a mobile robot. The network data bridge includes a broadband network interface, a wireless command interface, and a data bridge component. The data bridge component extracts serial commands received via the broadband network interface from an internet protocol, applies a command protocol thereto, and broadcasts the serial commands via the wireless interface. The mobile robot includes a wireless command communication component that receives the serial commands transmitted from the network data bridge.

Abstract: A system maintains communication between a plurality of unmanned vehicles within an environment. The system includes a sensor component and an evaluator. The sensor component senses objects within the environment. The sensor component is located on a first unmanned vehicle. The evaluator evaluates data from the sensor component. The evaluator is located on the first unmanned vehicle. The evaluator compares data for the first unmanned vehicle and a second unmanned vehicle and determines whether a trajectory of one of the first and second unmanned vehicles may be modified to maintain communication between the first unmanned vehicle and the second unmanned vehicle.

Abstract: A steering mechanism is provided on an equilateral triangular base of a mobile mechanism, and three joints are attached to the base at the three vertexes thereof. Links are attached to the three joints respectively. On each link is provided a steering mechanism. The equilateral triangular base of the mobile mechanism is moved or rotated by periodically driving the three joints while steering the four steering mechanisms.

Abstract: Systems, methods, and user interfaces are used for controlling a robot. An environment map and a robot designator are presented to a user. The user may place, move, and modify task designators on the environment map. The task designators indicate a position in the environment map and indicate a task for the robot to achieve. A control intermediary links task designators with robot instructions issued to the robot. The control intermediary analyzes a relative position between the task designators and the robot. The control intermediary uses the analysis to determine a task-oriented autonomy level for the robot and communicates target achievement information to the robot. The target achievement information may include instructions for directly guiding the robot if the task-oriented autonomy level indicates low robot initiative and may include instructions for directing the robot to determine a robot plan for achieving the task if the task-oriented autonomy level indicates high robot initiative.

Abstract: A command and control system is provided including a core unit, with a processor and a map display engine. The core unit is configured to exchange information with a multi-domain heterogeneous unmanned vehicle command and control module, a multi-sensor command and control module, and an asset tracking module. The asset tracking module estimates a location of an indeterminate object. A control unit exchanges information with an input device. A detecting unit detects modules that are associated with the core unit. A subscription unit logs parameters associated with the detected modules and determines types of data to send to the detected units based on the parameters. A script unit receives and implements command and control scripts for the detected modules. A display output provides display information of a combined representation of information from the detected modules and map information, including locations of the vehicles and sensors under control and the estimated location of the indeterminate object.

Abstract: The present invention relates to a system and method for determining vehicle attitude and position from image data detected by sensors in a vehicle. The invention uses calculated differences between the locations of selected features in an image plane and the location of corresponding features in a terrain map to determine the attitude of the vehicle carrying the sensors with respect to a ground frame of reference.

Abstract: A passenger in an automated vehicle may relinquish control of the vehicle to a control computer when the control computer has determined that it may maneuver the vehicle safely to a destination. The passenger may relinquish or regain control of the vehicle by applying different degrees of pressure, for example, on a steering wheel of the vehicle. The control computer may convey status information to a passenger in a variety of ways including by illuminating elements of the vehicle. The color and location of the illumination may indicate the status of the control computer, for example, whether the control computer has been armed, is ready to take control of the vehicle, or is currently controlling the vehicle.

Abstract: The present invention provides a guidance, navigation, and control method and system for an underground mining vehicle that allow said vehicle to be taught a route by a human operator and then have it automatically drive the route with no human intervention. The method works in three steps: teaching, route profiling, and playback. In the teaching step the vehicle is manually driven by a operator along a route which can consist of an arbitrary sequence of maneuvers including tramming forwards, switching directions, tramming backwards, turning, or pausing movement. During this phase raw data from vehicle-mounted sensors including odometric sensors and rangefinders are logged to a file throughout teaching for later processing. During the (offline) route profiling step, the raw data in the log file are processed into a route profile, and a profile of desired speed as a function of distance along the path.

Abstract: Methods and devices to physically stabilize a unit load of stapled unit loads such as at least two standard containers applied atop each other and on top of at least one Automatically Controlled Vehicle (AGV), during transport of the load in all directions on the ground. The AGV arranged below the unit load has at least one wheel-bogie having at least one wheel at each corner, the bogie being controllably pivotable at its geometrical center to a frame of the AGV with each wheel being controllably pivotable at its respective fixation points. During transport in a longitudinal direction of the total unit, each bogie is translated to a diagonal position in relation to its position of introduction as the wheels simultaneously are controlled so as to maintain their rolling direction in the direction of transport, so as to enhance the traction of the AGV.

Abstract: A system for allowing an operator to switch between remote vehicle tele-operation and one or more remote vehicle autonomous behaviors. The system comprises: an operator control unit receiving input from the operator including instructions for the remote vehicle to execute an autonomous behavior; a control system on the remote vehicle for receiving the instruction to execute an autonomous behavior from the operator control unit; and a GPS receiver, an inertial measurement unit, and a navigation CPU on the remote vehicle. Upon receiving the instruction to execute an autonomous behavior, the remote vehicle executes that autonomous behavior using input from the GPS receiver, the inertial measurement unit (IMU), and the navigation CPU.

Abstract: A piezoelectric debris sensor and associated signal processor responsive to debris strikes enable an autonomous or non-autonomous cleaning device to detect the presence of debris and in response, to select a behavioral mode, operational condition or pattern of movement, such as spot coverage or the like. Multiple sensor channels (e.g., left and right) can be used to enable the detection or generation of differential left/right debris signals and thereby enable an autonomous device to steer in the direction of debris.

Abstract: A traveling control method, medium, and apparatus for autonomous navigation. The traveling control method of controlling an autonomous navigation machine, having at least on the right and left sides thereof at least first and second receivers that receive a radio signal transmitted from a transmitter disposed at a specific position in a traveling area, the method includes allowing at least one of the first and second receivers to receive the radio signal, recognizing a command included in the received radio signal, acquiring data indicating a size of a recognizable area reached by the radio signal and a position of the transmitter while the autonomous navigation machine moves along the border of the recognizable area, and executing the recognized command in the recognizable area.