Abstract: A teleoperated manipulator system includes a manipulator assembly and a tool actuation assembly coupled to the manipulator assembly. The tool actuation assembly inserts a tool, such as a surgical instrument, along an insertion axis and also rotates the tool around the insertion axis. The manipulator assembly includes an arm that rotates with reference to a mounting base to rotate the tool around a yaw axis that intersects the insertion axis. A distal portion of the arm defines an arcuate pitch arc, and a center of the pitch arc is coincident with the intersection of the insertion axis and the yaw axis. The tool actuation assembly is driven along the pitch arc to pitch the tool. The manipulator system is optionally a telesurgical system, and the tool is optionally a therapeutic, diagnostic, or imaging surgical instrument.

Abstract: A traction module for a robot system and a robot system using the traction module having, an outer frame and a rotating frame rotatably mounted within the outer frame. A drive system is operatively coupled to the rotating frame and configured to drive a traction drive component to propel the robot. An actuator is operatively connected to the rotating frame to controllably rotate the rotating frame. During a first portion of a rotating movement of the rotating frame, the drive system moves between a flat mode position relative to the outer frame and a clearance mode position in which the drive system extends outwardly from the outer frame to a greater extent than in the first position. During a second portion of the rotating movement of the rotating frame, the drive system may be positioned in a desired orientation to propel the robot.

Abstract: An automatic torque control system and methods for automatically controlling a torque of a vehicle are disclosed. The method includes detecting when the vehicle engages a load. The method further includes automatically decreasing the torque when the vehicle engages the load and prior to one or more wheels of the vehicle slipping.

Abstract: A propulsion control arrangement (1) for a self-propelled robotic tool (3) is disclosed, wherein the robotic tool (3) comprises at least one swivel caster wheel (5, 5?) configured to abut against a ground surface (7) during operation of the robotic tool (3). The control arrangement (1) is configured to, upon detection of a stop event of the robotic tool (3) after travel in a first longitudinal direction (ld1) of the robotic tool (3), turn the robotic tool (3) a predetermined angle (a1), and then initiate propulsion in a second longitudinal direction (ld2) of the robotic tool (3) being opposite to the first longitudinal direction (ld1). The present disclosure further relates to a self-propelled robotic tool (3), a method (100) of propelling a self-propelled robotic tool (3), a computer program, and a computer-readable medium (200).

Abstract: One embodiment can provide a robotic system. The robotic system can include a robotic arm comprising an end-effector, a robotic controller configured to control movements of the robotic arm, and a dual-resolution computer-vision system. The dual-resolution computer-vision system can include a low-resolution three-dimensional (3D) camera module and a high-resolution 3D camera module. The low-resolution 3D camera module and the high-resolution 3D camera module can be arranged in such a way that a viewing region of the high-resolution 3D camera module is located inside a viewing region of the low-resolution 3D camera module, thereby allowing the dual-resolution computer-vision system to provide 3D visual information associated with the end-effector in two different resolutions when at least a portion of the end-effector enters the viewing region of the high-resolution camera module.

Abstract: A network management system may allocate different amounts of bandwidth to different types of data traffic. The traffic types may be distinguished by their source device address, and whether the source device is part of, or external to, a first network. Packets may also be marked by their sender with information to identify a traffic type, and the marking may be used to determine the packet's treatment. The allocations given to the various types of traffic may be dynamically modified with changing traffic demands and conditions.

Abstract: A surface disease repair system and method for an infrastructure based on climbing robots are provided. The system includes a detection and marking climbing robot and a repair climbing robot. In the process of moving on a surface of an infrastructure to be detected, the detection and marking climbing robot collects a front surface image in real time through a binocular camera arranged at a front end, detects a disease on the basis of the front surface image, and performs localization and map reconstruction at the same time; when a disease is detected, the position of the disease is recorded, and a marking device is controlled to mark the disease; after detection and marking are completed, the position of the disease and the map are sent to the repair climbing robot; and the repair climbing robot receives the map and the position of the disease, reaches the position of the disease, and repairs the disease according to the mark by using a repair device.

Abstract: In some embodiments, a robotic process automation (RPA) agent executing within a browser window/tab interacts with an RPA driver executing outside of the browser. A bridge module establishes a communication channel between the RPA agent and the RPA driver. In one exemplary use case, the RPA agent exposes a robot design interface, while the RPA driver detects interactions of a user with a target user interface (e.g., an instance of a spreadsheet application, an email program, etc.) and transmits data characterizing the interactions to the RPA agent for constructing a robot specification.

Abstract: An artificial intelligence robot includes a camera configured to acquire image data, a memory configured to store an object recognition model used to recognize an object from the image data, and a processor configured to acquire a speech command, determine whether an intention of the acquired speech command is object search, recognize an object from the image data based on the object recognition model during traveling when the intention of object search, and output a notification indicating that the object has been recognized when the recognized object is an intended object.

Abstract: The technology disclosed relates to filling video ad requests with video ad content that begins in a format incompatible with the mobile device that is requesting the ad content. In particular, it relates to accessing available on ad content, transcoding the ad content to a video stream and publishing the video stream to the mobile device that requested the head content. This sometimes requires synchronization between a player on the mobile device and the video stream transcoder.

Abstract: A computer-assisted medical system includes a display unit configured to provide images to an operator of the display unit, a headrest configured to receive a mechanical input provided by a head of the operator in mechanical contact with the headrest, a headrest sensor interfacing with the headrest and configured to provide sensor signals based on the mechanical input, and a controller. The controller includes a computer processor, and is configured to process the sensor signals to obtain a driving input, drive, by the driving input, a virtual mass to obtain a simulated virtual mass movement, and cause movement of the headrest, the movement of the headrest tracking the virtual mass movement.

Abstract: The present disclosure discloses an automated calibration system and calibration method for a flexible robot actuator. The calibration system includes a support frame. A visual positioning system, a pressure measuring system and a pneumatic pressure control system are respectively installed on the support frame. The visual positioning system is configured to measure a relative displacement and an angle between two ends of the flexible actuator. The pneumatic pressure control system is configured to charge air into an actuating end of the flexible actuator and measure an input pneumatic pressure of the flexible actuator. The pressure measuring system includes a pressure gauge installed on the support frame through a vertical axis motor system, and the flexible actuator to be calibrated installed on the support frame through a horizontal axis motor system and a rotating motor system.

Abstract: A vehicular vision system includes a camera viewing exterior of the vehicle and capturing image data, and an electronic control unit (ECU) having an image processor for processing captured image data to detect presence of objects in the view of the camera. The ECU, responsive to processing of captured image data, determines presence of an intersection controlled by at least one stop indicator, with one stop indicator designated for the lane along which the vehicle is traveling. The ECU determines a right-of-way order of other vehicles at the intersection relative to the equipped vehicle and determines when the equipped vehicle has the right-of-way based on the determined right-of-way order. The ECU provides an indication to the driver of the equipped vehicle when the equipped vehicle has the right-of-way.

Abstract: A system for verifying quality of a part using an arm robot includes an arm robot, which includes a camera to acquire image data of a part assembled in each manufacturing process of a vehicle, a carrier, which includes a sliding rail allowing the arm robot to be movable around the vehicle along the sliding rail to acquire the image data, and a server which receives the image data acquired by the camera, compares the image data with modeling data of the vehicle, which is stored in a database, and determines whether the assembled part satisfies a preset inspection item, to verify quality of the assembled part, verifying the quality of the part in each process before the vehicle is completely manufactured.

Abstract: An electronic device includes a first set of sensors configured to generate motion information. The electronic device also includes a second set of sensors configured to receive information from multiple anchors. The electronic device further includes a processor configured to generate a path to drive the electronic device within an area. The processor is configured to receive the motion information. The processor is configured to generate ranging information based on the information that is received. While the electronic device is driven along the path, the processor is configured to identify a location and heading direction within the area of the electronic device based on the motion information. The processor is configured to modify the estimate of location and the heading direction of the electronic device based on the ranging information. The processor is configured to drive within the area according to the path, based on the location and heading direction.

Abstract: Elements of a machine are moved relative to one another along several axes. A monitoring device receives groups of position values of the axes which specify the relative position of the elements to one another. The surfaces and/or volumes of the elements taking up working space are determined therefrom. The monitoring device checks whether a collision risk between the elements exists. The monitoring device models at least parts of the surfaces of the elements with two-dimensional splines defined by nodes and checkpoints. The monitoring device further determines from the checkpoints of the splines for sections envelopes which envelop respective element in the respective section, and uses the respective envelope as a surface that is taken up by the respective element in the respective section. Boundary lines of faces of the envelopes are straight connecting lines of the checkpoints.

Abstract: An electronic apparatus is provided. The electronic apparatus includes: a storage configured to store control code sets corresponding to each of a display apparatus and one or more external electronic apparatuses providing contents to the display apparatus; a communicator comprising communication circuitry configured to communicate with the display apparatus and a remote control apparatus; and a processor configured to determine a source apparatus, providing a content that is currently displayed on the display apparatus, of the display apparatus and the one or more external electronic apparatuses, and controlling the communication circuitry of the communicator to transmit a control code set corresponding to the determined source apparatus to the remote control apparatus.

Abstract: A system and strategy for reducing rapid steering wheel movement at the end of an autopark maneuver. The strategy includes maintaining or ramping-out power-steering motor torque to reduce steering wheel movement that may occur due to tire windup that has occurred up to that point in the autopark maneuver. The strategy may include the stopping of an autopark maneuver at any time during the maneuver, or functioning at the end of an autopark maneuver. The autopark event may be a park-out maneuver.

Abstract: The present disclosure relates to a moving robot that generates image information by accumulating results of sensing a corner area using a 3D camera sensor, and detects an obstacle by extracting an area for identifying the obstacle from the image information, and a traveling method thereof in corner areas.

Abstract: Systems, methods, and computer program products for guiding vehicles. A vehicle control system detects obstacles and avoids contact between the vehicle, and the obstacles by solving a path planning problem using a four-phase system. In a parking scenario, switching control laws are used to drive the vehicle to a target line, and a forward path segment and a reverse path segment defined. The two path segments are connected along the target line to define a path for entering or exiting the parking space. Objects in a driving environment may be avoided by identifying an obstacle corner, defining an avoidance circle (62), (185) around the obstacle corner, and determining a path that allows the vehicle to avoid penetrating the avoidance circle. A line-of-sight guidance method may be used to follow the path by defining target points on the path at a lookout distance l, and steering the vehicle using the target points.