Abstract:
A robot controller configured to be able to mitigate the effect that an emergency stop may have on a robot is disclosed. The robot controller includes: a load detection unit which detects the load of a motor for driving each individual articulated axis of the robot; a speed detection unit which detects an axial speed at each individual articulated axis of the robot; a cause-of-stop identifying unit which, when an emergency stop of the robot occurs, identifies a cause of the occurrence of the emergency stop; and a recording unit which records the cause of the occurrence of the emergency stop by associating the cause with the axial speed or the load of the motor. The robot controller may further include a display unit which displays information representing the state of occurrence of the emergency stop of the robot.
Abstract:
There is provided a robot control device enabling a robot to carry various types of objects without exceeding an allowable weight thereof. The robot control device for controlling the robot for carrying an object in cooperation with a person includes a force acquisition part configured to acquire force applied from the object to the robot when the object is lifted, a comparison part configured to compare a force component in a gravity direction of the force acquired by the force acquisition part with a first threshold value predetermined with respect to the force component, and a stop command part configured to stop the robot when the force component is greater than the first threshold value.
Abstract:
A human cooperation robot system includes: an external force detecting unit that detects an external force acting on a robot; a retreat operation commanding unit that commands a retreat operation for causing the robot to be moved in a direction such that the external force is decreased when the external force detected by the external force detecting unit is larger than a first threshold value; a position acquiring unit that a current position of the robot; and a retreat operation stopping unit that stops the retreat operation when the current position of the robot acquired by the position acquiring unit departs from a retreat area.
Abstract:
A robot control device includes a correction amount calculation unit that calculates a correction amount for collecting a deviation of a tip position of a tool attached to a tip of a robot due to an external force applied to the tool and a correction profile generation unit that generates a correction profile indicating a relationship between the correction amount calculated by the correction amount calculation unit and time.
Abstract:
Provided is an off-line simulation system that enables performance of efficient vision correction training. This vision correction training system for vision correction training is provided with a head mount display capable of displaying an image in a virtual space, and a teaching device communicably connected to the head mount display. The teaching device has: a vision correction unit that, on the basis of a captured image captured by a camera after the position of a workpiece has been moved, performs vision correction on a predetermined movement; and a correction confirmation unit that confirms that the vision correction is appropriately performed on the predetermined movement.
Abstract:
A machine learning device that acquires state information from a robot control inspection system. The system has a robot hand to hold a workpiece or camera. The state information includes a flaw detection position of the workpiece, a movement route of the robot hand, an imaging point of the workpiece, and the number of imaging by the camera. A reward calculator calculates a reward value in reinforcement learning based on flaw detection information including the flaw detection position. A value function updater updates an action value function by performing the reinforcement learning based on the reward value, the state information, and the action.
Abstract:
A production system in which a position of a robot relative to a machine tool can be measured and an operation position of the robot can be corrected based on the measurement result, by using a simple configuration. The robot has a vision device attached to a movable part such as a robot arm. The machine tool has a visual target arranged on an outer surface of the machine tool.An image of the visual target captured by a camera is processed by a robot controller or an image processor. Due to such image processing, the position of the robot relative to the machine tool can be measured. Further, the production system has a correcting part which corrects a position of a motion of the robot regarding supplying and ejecting a workpiece, based on the positional relationship between the robot and the machine tool.
Abstract:
A control system includes an imaging device and a controller. The controller includes a position conversion unit that detects an object from an image imaged by the imaging device and converts a detection position of the detected object on an image coordinate system or a sensor coordinate system into a detection position of the object on a machine coordinate system, an operation control unit that controls the operation of a machine based on the detection position of the object on the machine coordinate system, a detection range calculation unit that calculates a detection range on the machine coordinate system based on a predetermined detection range in the image on the image coordinate system or the sensor coordinate system, and a position determination unit that determines whether the detection position of the object on the machine coordinate system is within the detection range on the machine coordinate system.
Abstract:
A laser processing head emits a laser beam to a workpiece that moves during laser processing and includes: optical path changing members that reflect, toward the workpiece, the laser beam emitted from a laser beam output section; a driver that changes posture of each of the optical path changing members; a control unit that controls the driver; and a memory device that stores target path information indicating a target path of the laser processing, in which the control unit receives information relating to a relative position of the workpiece with respect to the laser processing head, and controls the driver on the basis of the received information relating to the relative position and the target path information to perform the laser processing along the target path.
Abstract:
A robot control apparatus controls a robot having six drive axes and a drive axis as an additional axis. The control apparatus includes a display control part which controls a display of a display part. The display control part displays, on the display part, a first picture which displays an operation program including an operation statement and a second picture which displays a state of the drive axes included in the operation statement. The display control part displays the operation statement including a state of the additional axis without including a state of the six drive axes in the first picture.