Abstract: The control device (20) corrects a basic movement command for a mobile body (1), which is based on an operator's maneuvering operation, in accordance with a positional relationship between the mobile body and an obstacle, and performs movement control of the mobile body (1) in accordance with the corrected movement command. The control device (20) is configured to correct the basic movement command, when a distance d between the obstacle and the mobile body (1) has become a predetermined value d1 or less, to cause a yaw rate in a direction away from the obstacle to be additionally generated on the mobile body (1), and also configured to correct the basic movement command so as to cause a rate of increase in magnitude of the yaw rate with respect to a decrease of the distance to be increased as the distance d is closer to the predetermined value d1.

Abstract: A method for selecting a grasp posture of a dual-arm robot includes: setting a fitness value range, an iteration quantity threshold, and a fitness function; calculating the fitness value of the population, determining whether the population is within the value range, ending an iteration if the population is within the value range or continuing to determine whether a quantity of iterations reaches the iteration quantity threshold if the population is not within the value range, ending the iteration if the quantity of iterations reaches the iteration quantity threshold or performing crossover and mutation operations if the quantity of iterations does not reach the iteration quantity threshold, and dynamically selecting a gene retention strategy based on an iteration depth and a fitness value to retain a gene; updating a gene population representing a grasping position and performing determining cyclically; and obtaining an optimal target corresponding to dual arms after the iteration.

Abstract: A work vehicle and a method of controlling propulsion of a work vehicle includes an auxiliary work tool. The method includes receiving a propulsion input for propelling the work vehicle at a propulsion speed, determining a prime mover speed for a prime mover configured to propel the work vehicle, propelling the work vehicle with a prime mover output based on the propulsion input, operating the auxiliary work tool while propelling the work vehicle, determining an auxiliary work tool load from operation of the auxiliary work tool, determining whether the auxiliary work tool load of the auxiliary work tool exceeds an auxiliary work tool load threshold, and reducing the propulsion speed of the work vehicle if the auxiliary work tool load of the auxiliary work tool exceeds the auxiliary work tool load threshold.

Abstract: The present invention relates to a system for control and audit of chemical products application made by vehicles for the agriculture, pestilence, plague, or insects control, or other chemical applications in determined areas to receive these chemical products such the agrochemical application made by manned or unmanned vehicles, being these vehicles aerial, land or watercraft with the aim of treating soil and/or seeds and/or plants characterized by the system comprises a web server running an application; a database application; an internet communication method between the application cloud environment and its end users; desktop computers running web browsers; mobile devices to access the application through the internet; and a GPS device from where GPS files are collected by a device, being the GPS embedded in a vehicle where these files are used as input data for generating the final application reports which contains all detailed information about how much and in which areas (plots) the product was applie

Abstract: Systems and methods for determining a location of a robot are provided. A method includes receiving, by a processor, a signal from a deformable sensor including data with respect to a deformation region in a deformable membrane of the deformable sensor resulting from contact with a first object. The data associated with contact with the first object is compared, by the processor, to details associated with contact with the first object to information associated with a plurality of objects stored in a database. The first object is identified, by the processor, as a first identified object of the plurality of objects stored in the database. The first identified object is an object of the plurality of objects stored in the database that is most similar to the first object. The location of the robot is determined, by the processor, based on a location of the first identified object.

Abstract: The Transformable Swarm Robots for Pipe Inspection and Maintenance (TSRPIM) represent a comprehensive system that include a single or multiple robots, each featuring distinct functionalities and designs, that can work independently or collaboratively to accomplish the primary objective of inspecting and maintaining different pipeline systems. The robots in TSRPIM can be physically connected/disconnected with/from other robots through an electromagnetic locking mechanism. They can bypass each other inside the pipe through overriding techniques, and they can communicate through WIFI, Bluetooth, and Long-range RF communication, thus the system has intranet and internet communications.

Abstract: There is provided an information processing apparatus and an information processing method to increase movement patterns of an autonomous mobile body more easily, the information processing apparatus including an operation control unit configured to control an operation of a driving unit. The operation control unit generates, on the basis of a teaching movement, control sequence data for causing a driving unit of an autonomous mobile body to execute an autonomous movement corresponding to the teaching movement, and causes the driving unit to execute the autonomous movement according to the control sequence data, on the basis of an action plan determined by situation estimation. The information processing method includes controlling, by a processor, an operation of a driving unit, and the controlling further includes generating control sequence data, and causing the driving unit to execute an autonomous movement according to the control sequence data.

Abstract: A control method of a robot according to an aspect of the present disclosure includes receiving from an external computer information that instructs the robot to encourage a user to exercise; sensing a user's current position; moving the robot into a predetermined area that includes the user's current position; causing the robot to perform a gesture to encourage the user to exercise; monitoring behavior of the user; and performing driving of the robot along with exercise of the user, based on a result of the monitoring.

Abstract: Continued and precise operation of an agricultural implement exists even where a subsystem, such as a GPS receiver, wireless communicator, a sensor, or the like, fails, falters, or is otherwise unusable. Data is continually tracked to the extent possible during failure or faltering and is temporarily stored. The temporary data is later stitched or otherwise harmonized with historical data once the failing system is repaired or otherwise once again available. During failure or faltering, views, and even mapped views, of historical and real-time data are displayed. Predicted or anticipated data can be included within these views or can even be used when stitching.

Abstract: Various embodiments provide for a bike-supported communication network that manages and facilitates communications between components of an electric bicycle and a wireless network. In some embodiments, the systems and methods determine that a mobile device associated with the electric bicycle is in contact with a mount disposed on the electric bicycle, and cause a lock assembly to unlock the electric bicycle in response to the determination that the mobile device is in contact with the mount.

Abstract: A surgical practice system including a box that defines an inner compartment, and multiple articulable arms mounted to the box within the inner compartment, each arm including a gripping element provided at its distal end that is configured to grip an object.

Abstract: A method for determining at least one action of a robot, including capturing, with an image sensor disposed on the robot, images of objects within an environment of the robot as the robot moves within the environment; identifying, with a processor of the robot, at least a first object based on the captured images; and actuating, with the processor, the robot to execute at least one action based on the first object identified, wherein the at least one action comprises at least generating a virtual boundary and avoiding crossing the virtual boundary.

Abstract: A first process acquires movement data including a position of a lead machine. A second process controls one or more work machines so that the one or more work machines follows the lead machine based on the movement data.

Abstract: A robot control system according to the present embodiment is a robot control system that controls a plurality of transport robots that is travelable autonomously in a facility. The robot control system: acquires error information indicating that an error has occurred in a first transport robot; acquires transported object information related to a transported object of the first transport robot; determines a second transport robot able to transport the transported object of the first transport robot among the transport robots based on the transported object information and the error information; and moves the second transport robot to a transfer location of the transported object of the first transport robot.

Abstract: An automatic driving vehicle, that is automatically movable, includes a front window, a LIDAR disposed at an inner side of the front window and configured to acquire external world information on an automatic movement, a display device disposed at the inner side of the front window, a cover member covering the LIDAR and the display device, and a blowout port configured to discharge air toward the LIDAR and the display device along the inner side of the front window. The cover member includes a first introduction port formed by a gap between a portion overlapping the LIDAR in a width direction of the moving body and the front window, and a second introduction port formed by a gap between a portion overlapping the display device in the width direction and the front window. The gap of the first introduction port is larger than the gap of the second introduction port.

Abstract: Some embodiments are directed to a surgical robotic system for use in a surgical procedure, including a surgical arm having a movable arm part for mounting of a surgical instrument having at least one degree-of-freedom to enable longitudinal movement of the surgical instrument towards a surgical target. Some other embodiments are directed to a human machine interface for receiving positioning commands from a human operator for controlling the longitudinal movement of the surgical instrument, and an actuator configured for actuating the movable arm part to effect the longitudinal movement of the surgical instrument, and controlled by a processor in accordance with the positioning commands and a virtual bound. The virtual bound establishes a transition in the control of the longitudinal movement of the surgical instrument in a direction towards the surgical target. The virtual bound is determined, during use of the surgical robotic system, based on the positioning commands.

Abstract: A mobile robot includes a communication unit that communicates with another mobile robot, a sensing unit for sensing the other mobile robot existing in a detection area encompassing a predetermined projected angle with respect to the front of a main body of the mobile robot, and a control unit configured for rotating the main body so that the other mobile robot is sensed in the detection area. The communication unit transmits a control signal configured to cause the other mobile robot to travel in a linear direction by a predetermined distance, to the other mobile robot when the other mobile robot is present in the detection area.

Abstract: A server 3 includes a user dynamic data recognition unit 3a1 that recognizes, during guidance, user dynamic data; a guidance request estimation unit 3c that estimates a guidance request of a user during the guidance, based on the user dynamic data; and a guidance action determination unit 3f that determines a guidance action to be taken by a robot 2 during the guidance, based on the estimated guidance request.

Abstract: A system preconditions a battery pack of a vehicle to support fast charging. The system detects a trigger that that indicates the vehicle will be traveling or the battery pack of the vehicle has been reduced to a predetermined capacity. The system collects a plurality of samples of location data of the vehicle. The system predicts a destination of the vehicle based on the samples. The system determines a propensity of a user to charge the vehicle based on previous charging behavior of the user. The system determines a confidence score of the predicted destination and the determined propensity. The system determines whether to schedule preconditioning of the battery pack based on the confidence score meeting a threshold.

Abstract: Aspects of the disclosure are directed towards path generation. A method includes a device registering working frame of a target object with a reference frame of a robot. The device can generate a path over a representation of a surface of the target object. The device can generate a trajectory over the surface of the target object based on the registration, the path, and a normal. The device can classify a target type for the real-world target using a machine learning model based on scanned data of the surface of the target object. The device can generate a robot job file, wherein the robot job file comprises the trajectory and an autonomous operation instruction. The device can transmit the robot job file to a robot controller.