Abstract: A robot state monitoring device 2 comprises: a camera which captures an image of a robot 3 under the control of a controller; a moving image generation unit which associates video data of the robot 3 acquired by the camera with input/output signals DO[1], AO[1], DI[1], and AI[1] of the controller along a time axis 830, and generates a moving image showing a state change of the robot 3 and the input/output signals DO[1], AO[1], DI[1], and AI[1]; and a moving image playback device which plays back the moving image generated by the moving image generation unit The moving image generation unit acquires the values of the input/output signals DO[1], AO[1], DI[1], and AI[1] at the recording time of each frame under the same cycle as the frame rate of the video data.

Abstract: A surgical robotic system is provided including a suspension structure, a manipulator arm for holding a surgical instrument, one or more actuators to adjust a pose of the manipulator arm, and a control system configured to establish a master-slave coupling between a user input device as a master device and the manipulator arm as a slave device. The manipulator may be manually reconfigurable from a first configuration in which the manipulator arm assumes a first pose to a second configuration in which the manipulator arm assumes a second pose which is mirrored with respect to the first pose about a mirroring plane which runs through a tip of the surgical instrument. The control system may temporarily disable the master-slave coupling the enable said manual reconfiguration, and after the manual reconfiguration, resume the master-slave coupling from the second pose.

Abstract: Aspects of the disclosure relate to using machine learning methods for customized output generation. A computing platform may train a model (using historical data) by classifying the historical data by a trip context, a device interaction context, and physical condition context, or a personality context, and training models using the classified historical data. The computing platform may monitor a data source system to collect new data, which may include information about multiple drivers. The computing platform may generate, by inputting the new data into the model, a customized driving output for a first driver, where the customized driving output is based at least in part on information about a second driver. The computing platform may send, to a computing device, the customized driving output and commands directing the computing device to display the customized driving output, which may cause the computing device to display the customized driving output.

Abstract: A traversal method and system, a robot, and a readable storage medium are disclosed, wherein the method may include: acquiring a grid map and establishing the rectangular coordinate system covering the grid map; and if traversal is performed for the first time, driving the robot to arrive at the starting point, and driving the robot to, according to a randomly selected preset rule, traverse the working region in which the starting point is located and work synchronously; when it is confirmed that the current preset rule applied to the first traversal cannot continue to be executed, acquiring the area of each independent working region in the remaining working region, if the area of any independent working region is not less than a preset area threshold, selecting any coordinate point as a working start point in the working region the area of which is not less than the preset area threshold, driving the robot to arrive at the working start point, and, starting from the working start point, randomly selecting t

Abstract: Universal Trajectory Calculators and Directors (UTCD) of the present disclosure may include a UTCD application running on a network that includes a desktop computer or mobile device and one or more servers. The UTCD application calculates trajectories and directs multiple targets or objects simultaneously along those calculated trajectories in two- or three-dimensional space without experiencing interference among the targets and/or with obstacles.

Abstract: A device and method for aligning a robot coordinate system, being a coordinate system of a robot for moving an operating point three-dimensionally, and a measuring instrument coordinate system, being a coordinate system of a three-dimensional measuring instrument which is capable of executing a light sectioning method and of which a position and attitude with respect to the operating point are unchanging, characterized by including the steps of: determining a relationship between the coordinate systems; radiating sheet-like slit light from the three-dimensional measuring instrument onto a reference object in the shape of a rectangular cuboid which is fixed; finding the attitude of the three-dimensional measuring instrument relative to the reference object; and moving the three-dimensional measuring instrument such that the attitude of the three-dimensional measuring instrument falls within a predetermined standard attitude range.

Abstract: Movement of an object can occur while a control system corrects for compliance within a robotic system. The control system can include the object to be moved, the robotic system that moves the object, a primary sensor positioned on the object, at least one ancillary sensor positioned on the object, and a controller. The sensors can record position and orientation data at different points on the object. The controller can use a sensor data and a delta value to correct for compliance in the robotic system. The delta value can be based on the differences between the primary sensor and the at least one ancillary sensor. The compliance correction can be applied to poses of the object to modify the trajectory of the object for more accurate movements.

Abstract: A surgical robot includes: a surgical instrument; a manipulator that supports a surgical instrument without holding a trocar and includes an instrument interface to which the surgical instrument is attached, an arm including rotational joints, and a prismatic joint; and a controller. The controller may store a center of motion of the surgical instrument and control motion of the manipulator such that with the shaft inserted through the trocar and the tool located in a body cavity of the patient, a relationship T1?L is established in a case of L?T0, wherein: L represents an intra-body cavity length of the surgical instrument; T0 represents a maximum possible linear movement amount of the prismatic joint from an origin position along the axial direction; and T1 represents a first linear movement amount of the prismatic joint from the origin position to a current position along the axial direction.

Abstract: Embodiments of this specification provide an autonomous robot, a moving path planning method and apparatus therefor, and a storage medium. The method includes: obtaining terrain distribution information of a target working area; determining, according to the terrain distribution information, whether a slope area exists in the target working area; and determining, if a slope area exists in the target working area, a width value between adjacent path segments according to the terrain distribution information during planning of a moving path in the slope area, to keep a work overlap value between the adjacent path segments within a specified range.

Abstract: A method for controlling gait of a biped robot includes: collecting a lateral center of mass (CoM) speed and a lateral CoM position of the biped robot when the biped robot walks in place; calculating phase variables of virtual constraints corresponding to the CoM of the biped robot in a first phase and a second phase according to the lateral CoM speed and the lateral CoM position; constructing motion trajectory calculation equations for the biped robot based on the phase variables corresponding to the first phase and the second phase, respectively; and finding inverse solutions for joints of the biped robot using the motion trajectory calculation equations to obtain joint angles corresponding to each of the joints of the biped robot to realize gait control.

Abstract: In order to provide an image processing device capable of supporting installation of an imaging unit, an image processing device includes: an image acquiring unit configured to acquire an image; a feature information extracting unit configured to extract feature information from the image; and a first generation unit configured to generate installation support feature information used for supporting installation of the imaging unit on the basis of the feature information extracted by the feature information extracting unit.

Abstract: A device for steering an agricultural machine having independently steerable axles includes first and second steerable axle interface to couple with a first steering mechanism of a first steerable axle and a second a second steering mechanism of a second steerable axle. The device includes a planning module having a guidance path for the agricultural machine, and a steering control module to coordinate steering of the steering mechanisms. The steering control module includes a translational comparator to determine a translational difference between a location of the agricultural machine relative to the guidance path, an angular comparator to determine an angular difference between an angular orientation of the agricultural machine relative to the guidance path, and a translation steering controller to actuate the first and second steering mechanisms according to the translational difference.

Abstract: This application relates to an apparatus and method for providing a wrap-around view based on three-dimensional (3D) distance information. The apparatus may include a camera module, a sensor module, and a controller. The camera module acquires image information in all directions, and the sensor module measures 3D spatial information in all directions. The controller is configured to generate 3D distance information by projecting the measured 3D spatial information onto a two-dimensional (2D) plane, to generate a 3D model in a 3D space by using the generated 3D distance information, and to generate a wrap-around view by mapping the acquired image information to the generated 3D model.

Abstract: The information processing device 1B includes an acquisition unit 51A, a potential function synthesizing unit 53A, and an objective function outputting unit 54A. The acquisition unit 51A acquires a task logical expression in which an objective task to be performed by a robot is expressed by a combination of a plurality of atomic tasks. The potential function synthesizing unit 53A synthesizes atomic potential functions, each of which is a potential function corresponding to each of the atomic tasks, based on the task logical expression. The objective function output unit 54A outputs an atomic potential function synthesized based on the task logical expression as an objective function for controlling the robot.

Abstract: Aircraft guidance with a multi-vehicle network is disclosed. A disclosed example apparatus to determine a position of an aircraft in a contested area includes a direction and distance calculator to determine a relative position of the aircraft to a mobile platform based on a signal transmitted between the aircraft and the mobile platform. The apparatus further includes a position calculator to calculate the position of the aircraft based on the relative position and a position of the mobile platform.

Abstract: A growing system, which includes: at least one growing space having different locations for plants, a robotic arm provided with at least one tool, and a moving element arranged to move the robotic arm between the different location; an electronic and/or computerized communication element; and a remote control station which is at a distance from the at least one growing space and includes a control element arranged to control the robotic arm in each growing space via the communication element, the control element being arranged to control the moving element so as to move the robotic arm in the growing space between the different locations in the growing space and/or to control actions of the robotic arm in said growing space. Also, a corresponding method utilizing the growing system.

Abstract: A method in an aircraft is disclosed. The method includes: arming an automatic TOGA flight operating mode when a predetermined condition has been detected, and monitoring for a TOGA trigger condition. When operating in a first mode, the method includes: generating and causing a TOGA advisory to be provided to flight crew, advising that an automatic TOGA will be executed, and triggering and causing the TOGA to be executed. When operating according in a second mode, the method includes: generating and causing a TOGA advisory to be provided to flight crew, advising the flight crew to manually trigger a TOGA, and triggering and causing the TOGA to be executed if the flight crew did not trigger the TOGA. When operating in a third mode, generating, and causing a TOGA advisory to be provided to flight crew and advising the flight crew to manually trigger a TOGA.

Abstract: The present provides a visual positioning method and system based on a Gaussian process and a storage medium. The method includes: collecting image of surrounding environment and moving trajectory points while traveling (S100); extracting global features and semantic features from images (S200); processing the extracted global features and semantic features and the moving trajectory points according to a preset processing rule to obtain a Gaussian process observation model (S300); and reconstructing a Bayes filtering framework according to the Gaussian process observation model, endowing a current trajectory with an initial position point, and generating a next position point of the current trajectory, the next position point being used for providing a positioning guidance for navigation (S400). An association between a current state and a historical state can be established, so that the accuracy of a predicted next position point is improved, and accurate navigation can be provided for a robot motion.

Abstract: Systems and methods for laser and imaging odometry for autonomous robots are disclosed herein. According to at least one non-limiting exemplary embodiment, a robot may utilize images captured by a sensor and encoded with a depth parameter to determine its motion and localize itself. The determined motion and localization may then be utilized to verify calibration of the sensor based on a comparison between motion and localization data based on the images and motion and localization data based on data from other sensors and odometry units of the robot.

Abstract: An information processing device is provided including a recognition unit that executes recognition processing used to determine an action of an autonomous operating body on the basis of sensor information collected, in which the recognition unit includes a feedback recognizer that recognizes feedback from a user on behavior executed by the autonomous operating body, and the feedback recognizer recognizes a degree of the feedback on the basis of recognition results of a contact action and a non-contact action by the user for the autonomous operating body.