Abstract: Provided is an obstacle search device of a robot system, capable of creating a robot operation path in which it is not necessary to input information manually, human errors are eliminated, and the robot does not interfere with an obstacle efficiently and accurately. An obstacle search device of a robot system, for automatically specifying a region where an obstacle is present so that an operation path in which a robot does not interfere with an obstacle can be generated automatically includes: a non-contact three-dimensional measuring unit attached to the robot; and an obstacle search unit that searches for an obstacle in a search space using the three-dimensional measuring unit.

Abstract: The operation program creation device includes, an input unit, a storage unit that stores path data indicating a path along which predetermined position of the robot should pass for an operation of the robot to the workpiece, and a control unit which creates the operation program corresponding to the path data when the control unit receives, from the input unit, a start request for creating or renewing the operation program for the operation, wherein the control unit is capable of changing a position of at least one of the robot and the workpiece relative to each other based on an input to the input unit, the control unit provides predetermined notification information when a relative position between the robot and the workpiece when the start request is received is different from the relative position at the time when the operation program for the workpiece was created.

Abstract: Provided is an obstacle search device of a robot system, capable of creating a robot operation path in which it is not necessary to input information manually, human errors are eliminated, and the robot does not interfere with an obstacle efficiently and accurately. An obstacle search device of a robot system, for automatically specifying a region where an obstacle is present so that an operation path in which a robot does not interfere with an obstacle can be generated automatically includes: a non-contact three-dimensional measuring unit attached to the robot; and an obstacle search unit that searches for an obstacle in a search space using the three-dimensional measuring unit.

Abstract: A robot teaching device includes a processing unit for performing processing to warn or correct positional deviation of teaching points or teaching lines. The processing unit includes a teaching position acquisition unit for acquiring four or more teaching positions from a set of target teaching points or a set of target teaching lines, a normal vector calculation section which calculates a normal vector satisfying the set of teaching positions, a distance calculation section which calculates a distance between two teaching positions most distant in the normal vector direction from among the set of teaching positions, and a first warning command section which issues a command, based on a distance between the two teaching positions which are most distant, to warn that the teaching points or teaching lines corresponding to the teaching positions have deviated from an actual plane of a workpiece.

Abstract: The operation program creation device includes, an input unit, a storage unit that stores path data indicating a path along which predetermined position of the robot should pass for an operation of the robot to the workpiece, and a control unit which creates the operation program corresponding to the path data when the control unit receives, from the input unit, a start request for creating or renewing the operation program for the operation, wherein the control unit is capable of changing a position of at least one of the robot and the workpiece relative to each other based on an input to the input unit, the control unit provides predetermined notification information when a relative position between the robot and the workpiece when the start request is received is different from the relative position at the time when the operation program for the workpiece was created.

Abstract: A teaching device includes a motion image generating unit that generates a motion image in which a workpiece is moved, a position detecting unit that detects the grip position in which a hand grips, and a teaching-point setting unit that sets a teaching point. The position detecting unit detects the grip position on the workpiece when the motion image generating unit moves the workpiece in the motion image. The teaching-point setting unit sets the teaching point based on the grip position on the workpiece.

Abstract: A teaching device is provided with a trajectory generating unit which generates a robot trajectory based on a start point and an end point, a determination unit which determines the advance direction of an operation tool with respect to a workpiece, and a correction unit which corrects the robot trajectory. The determination unit determines whether or not the advance direction of the operation tool is a predetermined direction with respect to the rotational direction of a tool. The correction unit corrects the robot trajectory by replacing the start point and the end point with each other when the advance direction of the operation tool is different from the predetermined direction.

Abstract: Provided is an offline programming device that generates, while being offline, a program for operating a robot, wherein, when a coordinate system that serves as a reference for the robot is changed, a position parameter generated on the basis of a coordinate system before the change is automatically corrected on the basis of the coordinate system before the change and a coordinate system after the change so that absolute positions of the position parameter become equal to each other before and after the change.

Abstract: Provided is an offline programming device that generates, while being offline, a program for operating a robot, wherein, when a coordinate system that serves as a reference for the robot is changed, a position parameter generated on the basis of a coordinate system before the change is automatically corrected on the basis of the coordinate system before the change and a coordinate system after the change so that absolute positions of the position parameter become equal to each other before and after the change.

Abstract: A robot teaching device includes a processing unit for performing processing to warn or correct positional deviation of teaching points or teaching lines. The processing unit includes a teaching position acquisition unit for acquiring four or more teaching positions from a set of target teaching points or a set of target teaching lines, a normal vector calculation section which calculates a normal vector satisfying the set of teaching positions, a distance calculation section which calculates a distance between two teaching positions most distant in the normal vector direction from among the set of teaching positions, and a first warning command section which issues a command, based on a distance between the two teaching positions which are most distant, to warn that the teaching points or teaching lines corresponding to the teaching positions have deviated from an actual plane of a workpiece.

Abstract: A teaching device is provided with a trajectory generating unit which generates a robot trajectory based on a start point and an end point, a determination unit which determines the advance direction of an operation tool with respect to a workpiece, and a correction unit which corrects the robot trajectory. The determination unit determines whether or not the advance direction of the operation tool is a predetermined direction with respect to the rotational direction of a tool. The correction unit corrects the robot trajectory by replacing the start point and the end point with each other when the advance direction of the operation tool is different from the predetermined direction.

Abstract: A teaching device includes a motion image generating unit that generates a motion image in which a workpiece is moved, a position detecting unit that detects the grip position in which a hand grips, and a teaching-point setting unit that sets a teaching point. The position detecting unit detects the grip position on the workpiece when the motion image generating unit moves the workpiece in the motion image. The teaching-point setting unit sets the teaching point based on the grip position on the workpiece.

Abstract: A manual feed apparatus of a robot comprises an interference calculation apparatus configured to calculate an operable range in which the robot can operate without causing interference. The interference calculation apparatus includes an operation range setting part configured to judge a position at which the robot can operate without interfering with a peripheral object and set the operable range. The operation range setting part calculates the operable range during a period when the robot is stopped. The interference calculation apparatus calculates an operation allowable range in a direction in which the robot operates based on the operable range. The robot control apparatus executes control for reducing a speed of the robot when the operation allowable range is smaller than a predetermined judgement value.

Abstract: Provided is an offline programming device that generates, while being offline, a program for operating a robot, wherein, when a coordinate system that serves as a reference for the robot is changed, a position parameter generated on the basis of a coordinate system before the change is automatically corrected on the basis of the coordinate system before the change and a coordinate system after the change so that absolute positions of the position parameter become equal to each other before and after the change.

Abstract: An off-line-programming jog assist device includes a teaching-point setting unit that sets a teaching point specified by a user on a surface of an object that is disposed in a virtual space and that has a ridgeline; a ridgeline searching unit that searches for a point on the ridgeline in the vicinity of the teaching point; a direction calculating unit that calculates a tangential direction, a principal-normal direction, and a binormal direction at the point on the ridgeline; and a target-coordinate-system calculating unit that calculates a target coordinate system on the basis of the position of the point on the ridgeline, the tangential direction, the principal-normal direction, the binormal direction, and predetermined parameters; and a move-command generating unit that generates a move command so as to cause a tool coordinate system that is set for a robot in the virtual space to coincide with the target coordinate system.

Abstract: A robot control device includes: a graphic primitive selection unit that selects graphic primitives having a tag indicating machining details from CAD data in a CAD device; a tool data extraction unit that extracts, from the database unit, information on a machining tool associated with the machining details indicated by the tag attached to the selected graphic primitives; and an operation planning unit that allows a robot to perform a machining operation according to the extracted information on the machining tool based on the selected graphic primitives.

Abstract: A manual feed apparatus of a robot comprises an interference calculation apparatus configured to calculate an operable range in which the robot can operate without causing interference. The interference calculation apparatus includes an operation range setting part configured to judge a position at which the robot can operate without interfering with a peripheral object and set the operable range. The operation range setting part calculates the operable range during a period when the robot is stopped. The interference calculation apparatus calculates an operation allowable range in a direction in which the robot operates based on the operable range. The robot control apparatus executes control for reducing a speed of the robot when the operation allowable range is smaller than a predetermined judgement value.

Abstract: An arrangement evaluation apparatus of a range sensor comprises an article arrangement unit which arranges an article model, a sensor arrangement unit which arranges a sensor model, a first plane group generation unit which generates a plurality of first planes including division lines obtained by dividing a virtual plane, a second plane group generation unit which generates a plurality of second planes by boundary surfaces of stripe pattern light projected from the projector model, an intersection line calculation unit which calculates intersection lines between the first planes and the second planes, and an intersection number calculation unit which counts the number of intersection points between the intersection lines and the surface of the article model.

Abstract: An arrangement evaluation apparatus of a range sensor comprises an article arrangement unit which arranges an article model, a sensor arrangement unit which arranges a sensor model, a first plane group generation unit which generates a plurality of first planes including division lines obtained by dividing a virtual plane, a second plane group generation unit which generates a plurality of second planes by boundary surfaces of stripe pattern light projected from the projector model, an intersection line calculation unit which calculates intersection lines between the first planes and the second planes, and an intersection number calculation unit which counts the number of intersection points between the intersection lines and the surface of the article model.

Abstract: A robot simulation apparatus including: a display section which displays models of at least a conveyance apparatus, an object, and a robot respectively laid out at predetermined positions; a movement condition designating section which designates a direction and a speed of movement of the object; a imaging condition designating section which designates a relative position of the camera with respect to the object and imaging condition in order to obtain a still image of the object located within an imaging area; a teaching model storage section which stores a teaching model of the object to be compared with the still image obtained with the camera; a grasping position calculating section which calculates a grasping position of the object to be grasped by the robot based on a position and an attitude of the object obtained by comparing the still image with the teaching model, and on the direction and the speed of movement of the object; and a teaching position setting section which sets a teaching position for