Abstract: A control program is automatically created using an action chart that is easy to create for an automated manufacturing machine with a complex operation. A subchart is pre-created for a set of consecutive subperiods of multiple subperiods included in an action chart. The action chart includes a subchart representation in a subperiod for identifying the subchart to represent the set of consecutive subperiods corresponding to the subchart. The action chart and the subchart are read together. Program elements for element actions in the subperiods on the action chart are combined together. For the subperiod with the subchart representation on the action chart, program elements for element actions assigned to the consecutive subperiods on the subchart are combined together in an order of the consecutive subperiods on the subchart. The control program is thus generated.

Abstract: A stored control program includes subperiods into which an operation period from a start to an end of an operation of an automated manufacturing machine is divided. Each subperiod is assigned with an actuator to act and action information about the actuator. The subperiods are sequentially selected one by one as a control target, and feedback control is performed on an action of the actuator assigned to the selected subperiod. This reduces the number of actuators controlled at the same time for controlling the operation of an automated manufacturing machine including many actuators. The control program can thus be executed promptly with an operation control apparatus having ordinary processing capability.

Abstract: An action chart describing an operation of an automated manufacturing machine includes subperiods into which an operation period from a start to an end of the operation of the automated manufacturing machine is divided. The action chart includes element actions included in the operation of the automated manufacturing machine. The element actions on the action chart are assigned to the subperiods and each include an action identifier including qualitative information about the element action, and a numerical table or numerical parameters. The action chart is read. The action identifiers on the action chart are converted into program elements stored in a manner associated with the action identifiers. A numerical value in the numerical table or the numerical parameters is set for each program element. The program elements are combined together in an order of the subperiods on the action chart.

Abstract: Element actions of actuators incorporated in an automated manufacturing machine are stored in a manner associated with program elements to perform the element actions. An action chart is used to describe an operation of the automated manufacturing machine. The action chart includes subperiods into which an operation period from a start to an end of the operation of the automated manufacturing machine is divided. The action chart includes the element actions included in the operation of the automated manufacturing machine. The element actions are assigned to the subperiods. The action chart describing the operation of the automated manufacturing machine is read. The element actions on the action chart are converted into the program elements. The program elements are combined together in an order of the subperiods on the action chart. This allows automatic generation of a control program for controlling the operation of the automated manufacturing machine.

Abstract: Element actions of actuators incorporated in an automated manufacturing machine are stored in a manner associated with program elements to perform the element actions. An action chart is used to describe an operation of the automated manufacturing machine, with one element action having an end linked to a start of another element action using a logical operation. The action chart describing the operation of the automated manufacturing machine is read. The element actions on the action chart are converted into the program elements. The program elements are combined together in accordance with the action chart. This allows automatic generation of a control program for controlling the operation of the automated manufacturing machine.

Abstract: A controller measures a three-dimensional surface shape of a workpiece from an image of the workpiece, the image being taken by an imaging unit and the image including a specific optical pattern projected by the imaging unit. The controller collates the measured three-dimensional surface shape of the workpiece and a nominal contour data representing a three-dimensional surface shape of a non-defective product corresponding to the workpiece, and the controller detects, as a possible molding fault, a portion recognized to show a shape different from the three-dimensional surface shape of the non-defective product in the workpiece. The controller specifies, as a molding fault, among the detected possible molding faults, only a possible molding fault in which a dimension of the shape is equal to or more than a criterion value representing a criterion for the molding fault.

Abstract: A bending machine includes a first track device and a second track device. A first base and a first robot are movable on the first track device. A second base and a second robot are movable on the second track device. A first bending mechanism is arranged at one end of the first robot. A second bending mechanism is arranged at one end of the second robot. A workpiece feeding device is provided at a position that is on one end side in an extending direction of the first track device and the second track device and is reachable by at least one of the first bending mechanism and the second bending mechanism. The workpiece feeding device feeds the workpiece in a manner that a longitudinal direction of the workpiece is orthogonal to the extending direction of the first track device and the second track device.

Abstract: A bending device according to one aspect of the present invention includes a track device which linearly extends in a predetermined direction, first and second bases placed on the track device and movable on the track device, a first robot mounted on the first base, a second robot mounted on the second base, and a bending mechanism which is disposed at each end of the first and second robots and grips and bends the workpiece. The first robot is a multi-articulated robot including a joint rotatable around an axis vertical to the first base and a joint rotatable around an axis parallel to the axial direction of the workpiece. The second robot is a multi-articulated robot including a joint rotatable around an axis vertical to the second base and a joint rotatable around an axis parallel to the axial direction of the workpiece.

Abstract: A bending apparatus in one aspect of the present disclosure comprises a robot, a chuck mechanism, and a plurality of bending mechanisms. The plurality of bending mechanisms are each provided as a separate component from the robot and the chuck mechanism, and are arranged in a space reachable by a workpiece held by the chuck mechanism.

Abstract: A bending device according to one aspect of the present invention includes a track device which linearly extends in a predetermined direction, first and second bases placed on the track device and movable on the track device, a first robot mounted on the first base, a second robot mounted on the second base, and a bending mechanism which is disposed at each end of the first and second robots and grips and bends the workpiece. The first robot is a multi-articulated robot including a joint rotatable around an axis vertical to the first base and a joint rotatable around an axis parallel to the axial direction of the workpiece. The second robot is a multi-articulated robot including a joint rotatable around an axis vertical to the second base and a joint rotatable around an axis parallel to the axial direction of the workpiece.

Abstract: A bending apparatus in one aspect of the present disclosure comprises a robot, a chuck mechanism, and a plurality of bending mechanisms. The plurality of bending mechanisms are each provided as a separate component from the robot and the chuck mechanism, and are arranged in a space reachable by a workpiece held by the chuck mechanism.

Abstract: A measurement apparatus includes at least two or more radiation devices, at least two or more image capturing devices, and a measurement device. Each of the radiation devices radiates light such that a part of a radiation pattern overlaps a part of a radiation pattern from another one of the radiation devices on a measurement target. Each of the image capturing devices captures an image of a radiation region of the measurement target on which the radiation pattern of a specific wavelength light radiated by one of the radiation devices that is paired with the image capturing device is projected, through a specific wavelength pass filter that allows passage of light of a specific wavelength of the paired radiation device and blocks light of a wavelength except the specific wavelength.

Abstract: A bending system includes first bending device, a second bending device and a control unit. The control unit performs bending of a workpiece by repeating, a specified number of times, a first bending step, a first moving step, a second bending step, and a second moving step.

Abstract: A bending device is provided with a bending mechanism, a fixing table, an articulated robot, and a control unit. Control performed by the control unit includes a bending/movement control in which a workpiece is moved by clamping the workpiece by the bending mechanism and moving the bending mechanism by the articulated robot, and the workpiece is bent by the bending mechanism while the workpiece is being moved.

Abstract: A bending device includes a bending mechanism for holding an elongated workpiece between a bending die and a clamping die revolvable around the bending die, and revolving the clamping die, to thereby bend the workpiece. The bending device includes a fixing base on which the bending mechanism is mounted, and an articulated robot on which a chuck mechanism for holding the workpiece is mounted and which moves the chuck mechanism.

Abstract: A bending device that bends a workpiece is provided with a bending mechanism that bends the workpiece, a fixing table on which a chuck mechanism that grips the workpiece is mounted, an articulated robot to which the bending mechanism is attached, and a control unit that controls operations of the bending mechanism, the chuck mechanism, and the articulated robot. The control unit includes a first control unit that twists the bending mechanism around a longitudinal axis of the workpiece, and a second control unit that controls the articulated robot to twist the bending mechanism holding the workpiece around the longitudinal axis of the workpiece within a twisting angle range and then causes the first control unit to perform the twisting.

Abstract: A chuck mechanism that grips a workpiece is configured to be able to twist and rotate the gripped workpiece around a longitudinal axis of the workpiece. A control unit is provided with a first control unit and a second control unit. The first control unit drives an articulated robot to which a bending mechanism for bending the workpiece is attached, and twists the workpiece clamped by the bending mechanism around the longitudinal axis of the workpiece within a preset twisting angle range. When the angle of twisting by the first control unit exceeds the twisting angle range, the second control unit controls the chuck mechanism to twist the workpiece around the longitudinal axis of the workpiece.

Abstract: A bending device includes a bending mechanism for holding an elongated workpiece between a bending die and a clamping die revolvable around the bending die, and revolving the clamping die, to thereby bend the workpiece. The bending device includes a fixing base on which the bending mechanism is mounted, and an articulated robot on which a chuck mechanism for holding the workpiece is mounted and which moves the chuck mechanism.

Abstract: The present invention provides a pressing device for bending, in which a pipe is held between a bending die having a shape corresponding to a shape of bending and a clamping die revolvable around the bending die, and, when the pipe is bent by revolving the clamping die around the bending die, an axial compression force is applied to the pipe. The pressing device for bending includes a movable table arranged movable in an axial direction of the pipe, a first cylinder provided to the movable table and able to press a rear end of the pipe, and a second cylinder provided to the movable table and able to press a fixed side in a direction opposite to a direction in which the first cylinder presses the pipe.

Abstract: A bending device includes a bending mechanism for holding an elongated workpiece between a bending die and a clamping die revolvable around the bending die, and revolving the clamping die, to thereby bend the workpiece. The bending device includes a fixing base on which the bending mechanism is mounted, and an articulated robot on which a chuck mechanism for holding the workpiece is mounted and which moves the chuck mechanism.