Abstract: A remote control unit configured to wirelessly control a mobile robot moving through an environment and having a robot camera. The remote control unit comprises a privacy button operable by a local user and configured to engage a privacy mode of the mobile robot, and a wireless transmitter configured to emit a wireless control signal to the mobile robot based on input from a keypad of the RC unit. The wireless control signal is configured to cause the robot camera to block the field of view of the robot camera such that the environment of the mobile robot is obscured when the privacy mode of the mobile robot is engaged.

Abstract: A robot system includes a movable component with a mark thereon, a control unit that controls the movable component in a three-dimensional coordinate system on the basis of control information, a digital camera that outputs image data by imaging a range of movement of the mark, and a calibrator that creates a transformation parameter for correlating a two-dimensional coordinate system of the image data with the three-dimensional coordinate system on the basis of the image data obtained by imaging the mark at different positions and the control information.

Abstract: An apparatus comprising a robot; an end effector coupled to the robot and configured to grasp or transfer a probe of a size for use in a probe card; and instructions stored on a machine readable medium coupled to the robot, the instructions comprising to configure the robot to transfer a probe to a probe card substrate or, where the probe is attached to a probe card substrate, to move the probe. A method comprising automatically transferring a probe to a probe card substrate in an assembly process or, where the probe is attached to a probe card substrate, moving the probe in a repair process; and after transferring or moving the probe, heating the probe with a heat source.

Abstract: A system for layup of a solar cell string on a substrate includes a robotic arm having a pickbar attached to a free end thereof. The pickbar has an elongated body with a plurality of vacuum grippers spaced along the body each for gripping an individual solar cell of the solar cell string. A vacuum source applies a vacuum through the vacuum grippers to grip the solar cells and a controller connected to the robotic arm positioned the solar cell string gripped by the pickbar on a substrate. A pair of sensor assemblies mounted on the pickbar generates signals representing positions of portions of the solar cell string and features of the substrate. The controller responds to the signals for positioning the gripped solar cell string relative to the substrate.

Abstract: Provided are cleaning methods and systems to remove unintended metallic deposits from electroplating apparatuses using reverse current deplating techniques. Such cleaning involves positioning a cleaning (deplating) disk in an electroplating cup similar to a regular processed substrate. The front surface of the cleaning disk includes a corrosion resistant conductive material to form electrical connections to deposits on the cup's surfaces. The disk is sealed in the cup and submerged into a plating solution. A reverse current is then applied to the front conductive surface of the disk to initiate deplating of the deposits. Sealing compression in the cup may change during cleaning to cause different deformation of the lip seal and to form new electrical connections to the deposits. The proposed cleaning may be applied to remove deposits formed during electroplating of alloys, in particular, tin-silver alloys widely used for semiconductor and wafer level packaging.

Abstract: A pair of manipulators are caused to take a plurality of attitudes in a state where distal ends of the manipulators are coupled to each other, coordinates of joints between links at each attitude change are acquired on the basis of detection signals, at each attitude change, of rotary encoders provided for servomotors that drive the links of the manipulators, and a position and attitude of an installation point of a slave robot with reference to an installation point of a master robot are calculated on the basis of the joint coordinates acquired at the corresponding attitude change in a forward kinematics manner. A deviation vector for each attitude change between actual measured values of the installation point of the slave robot and the calculated values of the installation point of the slave robot is calculated, and robot constants of both manipulators are identified from the deviation vector.

Abstract: A distal end of a manipulator having a redundancy is constrained so as to leave one degree of freedom, an attitude of the manipulator is changed into a plurality of attitudes that are allowed by the redundancy by outputting joint position command values from a controller to servomotors that drive links that constitute the manipulator of which the distal end is fixed, and calibration is performed by obtaining parameter deviations of a robot constant of the manipulator on the basis of the joint position command values and actual measured values from rotary encoders, which are respectively provided at the servomotors, after each attitude change.

Abstract: A method for controlling a robot includes the step of controlling operation of the robot with a robot controller executing a control program having a plurality of process instructions. Associated process data for each of predetermined ones of the process instructions executed by the robot controller is then collected. The collected process data is subsequently stored in a form uniquely identified by at least one unique identifier. The at least one unique identifier may include both the program identifier and the process instruction identifier. The collected process data may be stored on the robot controller.

Abstract: From a desired wrist joint position and a desired elbow rotation angle, a temporary elbow joint position is calculated on the assumption that a distance between a shoulder joint and an elbow joint is fixed. The shoulder joint has a first axis, a second axis, and a third axis, and the elbow joint has a fourth axis. From the calculated temporary elbow joint position, temporary angles of the first and second axes or temporary angles of the first to fourth axes are determined. The temporary angles are corrected in accordance with at least one evaluation function calculated from the temporary angles.

Abstract: An assembling device which does not use a positioning device for articles to be assembled, nor a feeder mechanism and a pneumatic mechanism for a bolt for assembling. The article assembling device includes a first robot which takes out and aligns a bolt by using a detection result of a first camera; a second robot which grips a first article by using a detection result of a second camera and conveys the first article to a position where the first article can be attached to a second article; and a bolt holding and fastening section which fastens the articles by using the aligned bolt.

Abstract: Disclosed is an underwater robot based on flapping comprising: an actuator including a smart material and directional material, wherein the smart material is changed in its shape according to an external signal, and the directional material restricts a deformation in a specific direction; a body connected with the actuator; and a controller which makes the actuator perform a first stroke in a direction, and a second stroke in another direction being different from that of the first stroke; wherein the actuator performs at least one deformation of bending and twisting according to position of the smart material and directionality of the directional material, and furthermore enables to simultaneously perform the smooth bending and twisting motion with the simple structure by adjusting the position of the smart material functioning as the active component, and the directionality of the directional material functioning as the passive component.

Abstract: A control system that guides a robot or articulated device with a laser distance meter for 3D motion, or guides a robot or articulated device with a computer pointing device (such as a mouse) for 2D or 3D motion. User needs to point to a desired physical location of the end point, and then the difficult work of finding the right joint angles to get there is done by a computer. System works like hand eye coordination. The hand goes wherever the eye is pointed so long as the eye is pointed within the reachable boundary of the jointed arm or articulated device.

Abstract: The invention refers to a method for controlling the effector trajectory from a current state to a target state. First invariant control parameters of the trajectory are determined. The effector trajectory is then represented in a task description being void of the invariant control parameters. The effector trajectory is controlled on the basis of this task description. The invention further refers to a method for controlling the effector trajectory wherein the effector trajectory is calculated by mapping increments from a control parameter space on a configuration space. The dimensional difference between the configuration space and the control parameter space leaves redundant degrees of freedom of a Null space. The degrees of freedom of the Null space are increased using a task description being void of invariant control parameters.

Abstract: The inventive concept of the metrology system (the system) actively determines the 6 Degree of Freedom (6-DOF) pose of a motion device such as, but not limited to, an industrial robot employing an end of arm tool (EOAT). A concept of the system includes using laser pointing devices without any inherent ranging capability in conjunction with the EOAT-mounted targets to actively determine the pose of the EOAT at distinct work positions of at least one motion device.

Abstract: A sample processing system that may be automated and methods are disclosed where samples are arranged on a carrier element and a process operation control system automatically processes the samples perhaps robotically with an operationally-influential exteriorly-consequential information monitor or a data capture element. Significant process details as well as operationally-influential exteriorly-consequential information may be monitored and an automatic notice element may cause notification of a person at some display that may be remote. Various people may be notified, such as an administrator, a supplier, or a manufacturer of an opportunity for some action such as reagent reordering or the like. A simulated motion display may be included to “watch” simulated operation in real time or long after completion of the actual processing.

Abstract: A robot control system includes a start position storage that stores a start position or orientation in a manual operation, a redundancy trajectory storage that successively stores a position or orientation of optimized redundancy during the manual operation, and a reverse movement controller which performs movement control for changing the position or orientation of a robot hand, which have been changed by the manual operation, in a reverse direction from the current position or orientation to the start position or orientation. The reverse movement controller also performs movement control for reversely changing the position or orientation of the redundancy by following the position or orientation of the redundancy that have been successively stored in the redundancy trajectory storage.

Abstract: An autonomous mobile robot apparatus and a method for avoiding collision due to rush-out, being applicable under the circumstances where persons and robots come and go each other, comprises an obstacle detector unit 3, which detects an obstacle, a route producer unit 7, which determines a route for reaching to a destination while avoiding the obstacle detected by the obstacle detector unit upon basis of a predetermined avoiding method, as well as, a velocity thereof, and a moving unit 2, which loads the obstacle detector unit and the route producer unit thereon and moves, thereby operating under circumstances mixing with a human being(s), wherein the obstacle detector unit, further, detects a terminal point of an article lying in an advancing direction of the autonomous mobile robot apparatus, and a distance between the terminal point and the autonomous mobile robot apparatus, and the route producer unit, when the obstacle detector unit detects the terminal end of said article, controls at least either one of

Abstract: A transfer system according to an embodiment includes a transfer room, a robot, a trajectory generator, a determination unit, and an output unit. The transfer room has an exclusive area defined by a predetermined distance. The robot has an arm unit that is equipped with a robot hand transferring a thin plate-like workpiece and that operates in horizontal directions. The robot is installed in the transfer room so that a minimum turning area of the arm unit overlaps with a part of the exclusive area. The transfer system generates a trajectory of the robot hand, then determines, based on the generated trajectory, whether a part of the arm unit is included in the exclusive area, and outputs a predetermined signal.

Abstract: A conveying system according to an embodiment includes a robot and a controller. The controller includes a switching unit. The robot includes an arm unit formed of a hand and a plurality of arms connected rotatably with respect to one another, and a base unit. An arm on a rear end side is connected to the base unit rotatably about a rotation axis, and the hand is rotatably connected to an arm on a front end side. The switching unit switches cylindrical coordinate control for controlling the arm unit such that a trajectory of the hand overlaps with any one of lines radiating from the rotation axis and rectangular coordinate control for controlling the arm unit such that the trajectory of the hand overlaps with none of the lines at a predetermined timing.

Abstract: A robot apparatus includes a robot arm, a multi-fingered hand disposed at an end of the robot arm and including a force sensor for use in force control, an image processor that acquires at least location information on a gripping target by detection made by a visual sensor, and a control device that moves the robot arm on the basis of the at least location information on the gripping target acquired by the image processor to cause the multi-fingered hand to approach the gripping target, detects a contact location of actual contact with the gripping target on the basis of an output of the force sensor of the multi-fingered hand, and modifies the location information on the gripping target on the basis of information indicating the detected contact location.

Abstract: An actuator main body (6) mounted on an operating bench (50) includes a main body base end housing (4) fixed to the operating bench (50), an elongated spindle guide section (3) having its base end connected with the main body base end housing (4), a distal end member (2) fitted to a front end thereof for alteration in attitude, and a tool (1) rotatably provided in the distal end member (2). Within the spindle guide section (3), a rotary shaft (22) for transmitting a rotation of a tool rotation drive source (41) to the tool (1) and an attitude altering member (31) for altering the attitude of the distal end member (2) are provided. Within the main body base end housing (4), an attitude altering drive mechanism (43) for selectively advancing or retracting the attitude altering member (31) when driven by an attitude altering drive source (42) is provided.

Abstract: A robot controller includes a force control unit that outputs a correction value of a target track of a robot based on a detected sensor value acquired from a force sensor, a target value output unit that obtains a target value by performing correction processing on the target track based on the correction value and outputs the obtained target value, and a robot control unit that performs feedback control of the robot based on the target value. The force control unit includes an impedance processor that obtains a solution of a differential equation in force control as the correction value before the conversion processing, and a nonlinear convertor that obtains the correction value after the conversion processing by performing nonlinear conversion processing on the correction value before the conversion processing acquired from the impedance processor and outputs the obtained correction value after the conversion processing.

Abstract: Methods and computer program products for generating robot grasp patterns are disclosed. In one embodiment, a method for generating robot grasp patterns includes generating a plurality of approach rays associated with a target object. Each approach ray of the plurality of approach rays extends perpendicularly from a surface of the target object. The method further includes generating at least one grasp pattern for each approach ray to generate a grasp pattern set of the target object, calculating a grasp quality score for each individual grasp pattern of the grasp pattern set, and comparing the grasp quality score of each individual grasp pattern with a grasp quality threshold. The method further includes selecting individual grasp patterns of the grasp pattern set having a grasp quality score that is greater than the grasp quality threshold, and providing the selected individual grasp patterns to the robot for on-line manipulation of the target object.

Abstract: Robots, computer program products, and methods for trajectory plan optimization are disclosed. In one embodiment, a method of controlling a robot having a first manipulator and a second manipulator includes receiving a trajectory plan including a plurality of sequential motion segments. The method further includes determining a moveable motion segment, and shifting the moveable motion segment and motion segments subsequent to the moveable motion segment backward in time to a shifted time such that one or more unshifted segments of the trajectory plan occur at a same time as one or more shifted segment segments. The method may further include controlling the robot according to the optimized trajectory plan such that one or more components of the first manipulator are moved concurrently with one or more components of the second manipulator.

Abstract: Methods correcting wafer position error are provided. The methods involve measuring wafer position error on a robot during transfer to an intermediate station. This measurement data is then used by a second robot to perform wafer pick moves from the intermediate station with corrections to center the wafer. Wafer position correction may be performed at only one location during the transfer process. Also provided are systems and apparatuses for transferring wafers using an intermediate station.

Abstract: A method of controlling a robotic manipulator of a force- or impedance-controlled robot within an unstructured workspace includes imposing a saturation limit on a static force applied by the manipulator to its surrounding environment, and may include determining a contact force between the manipulator and an object in the unstructured workspace, and executing a dynamic reflex when the contact force exceeds a threshold to thereby alleviate an inertial impulse not addressed by the saturation limited static force. The method may include calculating a required reflex torque to be imparted by a joint actuator to a robotic joint. A robotic system includes a robotic manipulator having an unstructured workspace and a controller that is electrically connected to the manipulator, and which controls the manipulator using force- or impedance-based commands. The controller, which is also disclosed herein, automatically imposes the saturation limit and may execute the dynamic reflex noted above.

Abstract: Methods of and a system for providing force information for a robotic surgical system. The method includes storing first kinematic position information and first actual position information for a first position of an end effector; moving the end effector via the robotic surgical system from the first position to a second position; storing second kinematic position information and second actual position information for the second position; and providing force information regarding force applied to the end effector at the second position utilizing the first actual position information, the second actual position information, the first kinematic position information, and the second kinematic position information. Visual force feedback is also provided via superimposing an estimated position of an end effector without force over an image of the actual position of the end effector. Similarly, tissue elasticity visual displays may be shown.

Abstract: An object gripping apparatus comprises an imaging unit configured to capture an image of a plurality of workpieces; a workpiece state estimation unit configured to estimate positions and orientations of the plurality of workpieces from the captured image; a pickup-target workpiece selection unit configured to select a pickup-target workpiece from among the plurality of workpieces based on a result of the estimation of the workpiece state estimation unit; a workpiece pickup unit configured to grip and pick up the pickup-target workpiece in accordance with an operation path associated with a position of the pickup-target workpiece; and a path setting unit configured to determine an evacuation path along which the workpiece pickup unit that has gripped the pickup-target workpiece evacuates to the outside of an imaging range of the imaging unit based on an estimated moving time required for the evacuation.

Abstract: A robotic system that identifies surgical instruments, sorts them by type, stores them, and retrieves them for packaging in surgical containers. The system is comprised of robotic components, a surgical instrument input mechanism, a surgical instrument identification system, a machine-vision system to assist in locating and identifying these items, a set of surgical instrument storage bins or stacks, a set of robotically accessible mechanisms for organizing surgical instruments within their containers, and a software control system that allows the device to perform its functions autonomously.

Abstract: Provided is a fully automatic gravure plate-making processing system capable of manufacturing a gravure plate-making roll more quickly as compared to a conventional case, achieving space saving, performing an unattended operation even in the nighttime, and reducing dust between individual processes.

Abstract: The present invention relates to a system and a method for providing safe remote access to a plurality of robot controllers positioned at a local site for a person positioned on a remote site. The system includes a plurality of robot controllers, each capable of receiving credentials and including an authentication component for authentication of the credentials, and an authorization component for handling authorization for access to the robot controller based on the result of the authentication, a remote computer located at a remote site and capable of communicating with the robot controllers and having an interface capable of receiving credentials and configured to send the credentials to the robot controllers, a server component capable of communicating with the robot controllers, and an identifying component positioned at the local site configured to receive proof of local access.

Abstract: A vision-guided alignment system to align a plurality of components includes a robotic gripper configured to move one component relative to another component and a camera coupled to a processor that generates an image of the components. A simulated robotic work cell generated by the processor calculates initial calibration positions that define the movement of the robotic gripper such that position errors between the actual position of the robotic gripper and the calibration positions are compensated by a camera space manipulation based control algorithm executed by the processor to control the robotic gripper to move one component into alignment with another component based on the image of the components.

Abstract: The invention relates to a welding robot for resistance welding, which exhibits a welding tongs (21), a welding current generator (1) connected to the welding electrodes (24, 25) of the welding tongs (21), for supplying the welding electrodes (24, 25) with electric energy during the resistance welding, and an industrial robot. The industrial robot comprises a robot arm (2) and a robot control device (9) for moving the robot arm (2). The welding tongs (21) is connected to the robot arm (2) and the robot control device (9) is connected to the welding current generator (1) and a tongs drive (26, 27) of the welding tongs (21).

Abstract: A submersible robot for operating a tool relative to a surface of an underwater structure has a tool holder movably mounted on a support assembly provided with a driving arrangement for movably holding the tool in operative position relative to the surface. Position and orientation of the support assembly relative to the surface is locked and adjusted by locking and leveling arrangements. A programmable control unit operates the driving, locking and leveling arrangements and the tool and receives measurements from a sensor unit. The control unit has an operation mode wherein a positioning of the robot is determined and controlled as function of an initial position for defining a first work area, and shifted positions of the robot for defining additional work areas, the work areas having overlapping portions with one another for tracking displacements of the robot relative to the surface of the structure using the sensor unit.

Abstract: A conveyance system. The conveyance system includes a movable device for conveying an article, and a robot selected from the group consisting of an articulated robot and an orthogonal robot. The movable device is configured to be both vertically and horizontally movable; and, the robot is mounted on the movable device. The robot includes a hand and a gripper disposed on the hand. The gripper is configured to hold the article. The movable device and the robot are configured to convey the article in conveyance operations that include an extraction, a conveyance, and an installation, of the article; the range of the conveyance operations lies within a working range of the robot from a present position that is selected with priority. The movable device is configured to remain in a stationary state when the article is conveyed by the robot using the conveyance operations within the working range.

Abstract: An industrial robot system including a workcell including a load area and a process area. A detector detects when a human enters the load area. A manipulator is located in the workcell. At least one positioner is adapted to hold a workpiece and to change the orientation of the workpiece about at least one axis while the manipulator processes the workpiece. A station exchanger is movable about an axis and adapted to move, upon command, the manipulator or the positioner between the load and process area. Each of the axes is provided with a motor and a drive unit. An axis controller is adapted to switch between executing a first task in which the axes of the positioner and the station exchanger are commanded to a standstill, and a second task in which the axes of the positioner and the station exchanger are allowed to move.

Abstract: The invention relates to a control method applied to an automated work cell which includes at least one robot arm (4) having at least three degrees of freedom controlled according to a plurality of control axes (A1-A6; X, Y, Z, Rx, Ry, Rz); a control centre (8); a device (6) for controlling the robot arm (4), which includes a plurality of motor controllers (61-66) each controlling the operation of one motor (M1 -M6) along one axis, suitable for operating at least one portion of the robot arm (4); and a communication bus (14) between the control centre (8) and the device (6) for controlling the robot arm (4).

Abstract: An analytical laboratory system and method for processing samples is disclosed. A sample container is transported from an input area to a distribution area by a gripper comprising a means for inspecting a tube. An image is captured of the sample container. The image is analyzed to determine a sample container identification. A liquid level of the sample in the sample container is determined. A scheduling system determines a priority for processing the sample container based on the sample container identification. The sample container is transported from the distribution area to a subsequent processing module by the gripper.

Abstract: Apparatus and a method for balancing and damping control in whole body coordination framework for a biped humanoid robot. The method comprises the steps of: (a) damping the structural vibration of the main body of the robot caused when the robot walks; (b) compensating for the trajectories of the zero moment position (ZMP) and the center of mass (COM) of the robot which changes in accordance with the damping of the structural vibration; and (c) compensating for the body orientation of the robot which changes in accordance with the damping of the structural vibration and the trajectory of the COM.

Abstract: A robot system according to one aspect of an embodiment includes a robot and an instructing module. The robot holds one of a plurality of feed materials used for processing a workpiece. The instructing module gives instructions to the robot, when the feed materials are used for processing the single workpiece, for an operation in which the feed material held last in the previous round of processing a workpiece is used first in the subsequent round of processing a workpiece.

Abstract: The invention relates to a surgery assistance system for guiding a surgical instrument. The surgical instrument (3) is fastened lo an arm system (10, 12, 14), the tip (S) of the surgical instrument (3) can be moved in a controlled manner by means of the arm system (10, 12, 14) in a Cartesian patient coordinate system (PKS), one of the three spatial axes (x, y, z) of the Cartesian patient coordinate system (PKS) extends through the surgical opening or the trocar point (T) receiving the surgical instrument (3). Advantageously, the angle of inclination (w) of the surgical instrument (3) is determined with respect to the spatial axis (z) of the Cartesian patent coordinate system (PKS) extending through the trocar point (T), the angle of inclination (w) so determined is compared with a predetermined set angle of inclination (ws) for the purpose of guiding the tip (S).

Abstract: A wireless communication system comprises a first computing device and a second computing device, wherein the first computing device and the second computing device communicate over a wireless channel that is selected based in part on a geographic location of at least one of the first computing device and the second computing device. The wireless channel that is selected provides long range communications, on the order of 60 miles and more. The computing devices may be a robot controller and a controlled robot, or they may be wireless router and a computing device configured with a wireless transceiver.

Abstract: A robot controlling device includes: a position error calculator calculating a position error between an endpoint position of a robot and a position commanded value for the endpoint position; an external force calculator calculating an external force applied to the endpoint position; a force commanded value generator generating a force commanded value for the endpoint position; a force error calculator calculating a force error between the external force and the force commanded value; a storage storing the compliance model for the endpoint position; a first correction amount calculator calculating a first correction amount for the position commanded value, according to the force error, using the compliance model; and a second correction amount calculator calculating a second correction amount for the position commanded value, on the basis of the first order lag compensation for the first correction amount. The position error calculator calculates the position error, using the second correction amount.

Abstract: A control interface for inputting data into a controller and/or controlling a robotic system is displayed on a human-to-machine interface device. The specific configuration of the control interface displayed is based upon the task to be performed, the capabilities of the robotic system, the capabilities of the human-to-machine interface device, and the level of expertise of the user. The specific configuration of the control interface is designed to optimize the interaction between the user and the robotic system based upon the above described criteria.

Abstract: At present, the removal the sticks from the mineral feeding lines, as a result of the mineral extraction, is carried out manually or using mechanical equipment, which means a loss of efficiency of the grinding and crushing system, high exposure to the risks associated to the removal of foreign elements of grinding material, this method does not guarantee problems from this cause in the subsequent stages in the grinding and crushing process. Due to the above, a robot system and method have been developed for the removal of sticks from the conveyor belts. The robotic system is composed mainly of an anthropomorphous robotic manipulator of at least 5 degrees of freedom, and a gripping mechanism which is supported by a vision system allowing, in a sequential and programmed way, to remove the sticks. In this regard, most of the problems associated to the safety of the personnel and the productivity of the current manual and/or mechanical process are eliminated.

Abstract: A 3 degree of freedom (3DOF) tactile feedback apparatus and method are provided. The 3DOF tactile feedback apparatus may include a movable unit that may move in at least one direction to be in contact with human skin, and an actuator to move the movable unit based on an input signal.

Abstract: A motor control device controls a motor using an angle data signal and a rotational speed signal output from a rotation detector detecting a rotation state of a rotating shaft of the motor. The motor control device includes a speed control unit that outputs a torque instruction signal corresponding to a difference between the rotational speed of the rotating shaft and a speed instruction using the speed instruction of the rotating shaft and the rotational speed signal, a limit value setting unit that sets a torque limit value indicating the maximum value of the torque applied to the rotating shaft, and a torque limit control unit that limits the torque of the rotating shaft driven by the torque instruction signal to the torque limit value or less.

Abstract: In a method for controlling motion of a mechanical arm, the method moves the mechanical arm horizontally or vertically so that an image capturing device of the mechanism arm focuses on an object. The contours of the object are analyzed, and a central area of the object is established. By making the center of the image area of the image capturing device coincide with the center area of the object at least twice, the method records two positions of the mechanical arm, and calculates a total apparent displacement value of the object and a distance between the object and camera lens of the image capturing device according to the first position, the second position of the mechanical arm and the total apparent displacement value of the object. The method ensures accurate positioning of the mechanical arm.

Abstract: The systems and methods disclosed herein generally involve a robotically-assisted surgical system in which a platform for supporting a patient is physically and operatively coupled to a surgical robot and an associated controller. As a result, the position of the patient can be controlled remotely using the robot, and the controller can have an awareness of the position and orientation of the patient with respect to the operating room and with respect to various components of the robot. Such systems can thus maintain a fixed frame of reference between the patient and one or more end effectors of the surgical robot, eliminating the need for recalibration of the system due to patient movement.

Abstract: A method is provided for distributing tension among tendons of a tendon-driven finger in a robotic system, wherein the finger characterized by n degrees of freedom and n+1 tendons. The method includes determining a maximum functional tension and a minimum functional tension of each tendon of the finger, and then using a controller to distribute tension among the tendons, such that each tendon is assigned a tension value less than the maximum functional tension and greater than or equal to the minimum functional tension. The method satisfies the minimum functional tension while minimizing the internal tension in the robotic system, and satisfies the maximum functional tension without introducing a coupled disturbance to the joint torques. A robotic system includes a robot having at least one tendon-driven finger characterized by n degrees of freedom and n+1 tendons, and a controller having an algorithm for controlling the tendons as set forth above.