12results about "Robotics systems" patented technology

A control system and a method for controlling a surgical robotic system are provided. The surgical robotic system comprises a surgical robot arm. The surgical robot arm comprises a plurality of joints by which its configuration can be altered. An input is received which indicates a desired motion of the surgical robot arm when the surgical robotic system is operating in a mode in which the surgical robot arm is controlled in accordance with an objective. The objective is to control a particular part of the surgical robot arm to have a desired position and / or orientation. The control system determines that the desired motion of the surgical robot arm would cause a limit to be exceeded. In response to determining that the desired motion of the surgical robot arm would cause the limit to be exceeded, a control signal is generated for controlling the surgical robot arm, and the generated control signal is sent to the surgical robot arm in order to control the surgical robot arm. The control signal is generated, in response to determining that the desired motion of the surgical robot arm would cause the limit to be exceeded, such that: (i) movement of a first set of one or more of the joints of the surgical robot arm is restricted, and (ii) movement of a second set of one or more of the joints of the surgical robot arm is not restricted.

Various embodiments of an apparatus, methods, systems and computer program products described herein are directed to an agricultural observation and treatment system and method of operation. The agricultural treatment system may receive captured sensor data of an agricultural environment by one or more image capture devices, generate a first image from the captured sensor data, detect a first real-world agricultural object from the first image, determine a first pose of the first real-world agricultural object, identify the detected first real-world agricultural object as a new agricultural object or a preidentified agricultural object, and determine a treatment policy associated with the first real-world agricultural object.

The present disclosure relates to the field of robotics and discloses a control method for a robotic system comprising multiple motion arms. The control method comprises: determining a motion mode of one or more target motion arms among the multiple motion arms based on an operation command; determining an initial position of the one or more target motion arms; executing one or more motion control cycles based on the initial position of the one or more target motion arms and a motion step length corresponding to the motion mode, wherein for each motion control cycle, a target position of the one or more target motion arms is determined; and controlling the one or more target motion arms to move toward the target position. This method enables the target motion arms to accurately, quickly, and safely reach the target position, thereby achieving efficient and safe preoperative preparation for surgery.

A robotic system according to at least one embodiment of the present disclosure includes a robot arm including a proximal end and a distal end, a mount flange rotationally connected to the robot arm at the distal end along a rotation axis, and an end effector interconnected to the mount flange via an attachment interface disposed between the mount flange and the end effector. The attachment interface fixedly arranges the end effector in one of at least two select positions. A first position of the at least two select positions orients a surgical tool axis of the end effector at a first angle relative to the rotation axis, and a second position of the at least two select positions orients the surgical tool axis of the end effector at a second angle relative to the rotation axis. The second angle is different from the first angle.

The invention relates to a system and method for changing liners of a mill, the configuration of which allows the automated robotic manipulation of liners of mills for ore grinding in comminution processes. The configuration and operation of the system allows the task of manipulation to be improved, having a greater degree of freedom and / or flexibility in its movements, thereby providing a greater degree of certainty and efficiency to the method and thus optimising the time that the mill is halted for maintenance, and also preventing the risks to which maintenance staff may be exposed. The system comprises at least one support structure, at least one system for supplying and moving liners, at least one robotic manipulator system for manipulating the liners, at least one liner manipulation tool, at least one artificial vision system, and at least one control system.

The present disclosure pertains to systems, methods, apparatuses, and techniques for an automated food production system. Various embodiments may include cloud computer software, a kiosk, dispensers, delivery systems and other techniques for automating food production.

The present application discloses a method, system, and computer system for determining an arrangement of a set of objects for loading to a transport container. The method includes (i) receiving an indication of the set of objects to be loaded into the transport container for transport from a source location to a destination location, (ii) determining, based at least in part on object information corresponding to the set of objects, an arrangement of the set of objects loaded into the transport container according to a stability model, and (iii) providing the arrangement of the set of objects to a robotic system to implement in connection with loading the set of objects to the transport container.

A control system and a method for controlling a surgical robotic system are provided. The surgical robotic system comprises a surgical robot arm. The surgical robot arm comprises a plurality of joints by which its configuration can be altered. An input is received which indicates a desired motion of the surgical robot arm when the surgical robotic system is operating in a mode in which the surgical robot arm is controlled in accordance with an objective. The objective is to control a particular part of the surgical robot arm to have a desired position and / or orientation. The control system determines that the desired motion of the surgical robot arm would cause a limit to be exceeded. In response to determining that the desired motion of the surgical robot arm would cause the limit to be exceeded, a control signal is generated for controlling the surgical robot arm, and the generated control signal is sent to the surgical robot arm in order to control the surgical robot arm. The control signal is generated, in response to determining that the desired motion of the surgical robot arm would cause the limit to be exceeded, such that: (i) movement of a first set of one or more of the joints of the surgical robot arm is restricted, and (ii) movement of a second set of one or more of the joints of the surgical robot arm is not restricted.

A closed-circuit television (CCTV) online pipeline detection system includes a detection robot and a control terminal of the detection robot, where the detection robot is provided with a CCTV pipeline detection system adapted to the detection robot; the CCTV pipeline detection system includes a GTR8600 monitoring module, a drive device, and a power drive device; the control terminal is separately electrically connected with the GTR8600 monitoring module, the drive device, and the power drive device through a control system; and the control system is provided inside the control terminal.

A method transports and / or handles components, in particular sheet metal parts, and a production plant includes a manipulator arrangement having a first manipulator arm and at least one second manipulator, wherein the first manipulator and the at least one second manipulator are designed to pick up, transport, hold and / or deposit a component, at least one processing device for carrying out processing steps on the component, wherein the component is transferred from the first manipulator to the at least one second manipulator after a first processing cycle at a predetermined re-gripping time, the re-gripping time being between the first processing cycle and at least one second processing cycle, wherein the component at least in portions rests on the processing device during the re-gripping time and is supported in a load-dissipating manner solely by the processing device.

The present disclosure relates to the medical instrument field and discloses a control method for a robot system, the robot system having a plurality of movement arms including first and second movement arms, the control method including: determining a movement strategy for the distal ends of the first and second movement arms of the robot system, the movement strategy including overall movement of the distal ends of the first and second movement arms; determining a movement path for the first and second movement arms based on the movement strategy and a relative position and orientation relationship between the distal ends of the first and second movement arms; and controlling the movement of the first and second movement arms based on the corresponding movement path so that the distal ends of the first and second movement arms move according to the movement strategy while maintaining a constant relative position and orientation relationship between the distal ends during movement. The distal ends of the plurality of movement arms can be moved overall while maintaining a constant relative position and orientation relationship between each other during movement, thereby enabling rapid and accurate movement of the plurality of movement arms.