Abstract:
A robot teaching system according to an embodiment includes a robot, a sensor, a screen generator, an adjuster, and a job generator. The sensor measures measured values relating to operations of the robot. The screen generator generates a teaching operation screen that includes guidance information intended for the teacher. The adjuster adjusts parameters for generating a job based on specified values relating to the operations of the robot and input in the teaching operation screen, and the measured values of the sensor associated with the specified values, the parameters defining an operation command including corrections of the operations of the robot. The job generator generates the job in which the parameters adjusted by the adjuster are incorporated.
Abstract:
A robot system includes a robot, a sensor, and a processor. The sensor is configured to detect an external force acting on the robot. The processor is configured to move the robot in a forward direction such that a representative point of the robot moves along a motion track in the forward direction; move the robot in a reverse direction such that the representative point moves along the motion track in the reverse direction opposite to the forward direction when the external force satisfies a first condition which includes a condition that the external force is larger than a first threshold force; and move the robot to reduce the external force when the external force satisfies a second condition which includes a condition that the external force is larger than a second threshold force even after the robot has been moved in the reverse direction.
Abstract:
Provided is an operation command generation device, which is configured to generate an operation command, which is a collection of jobs to fee performed by a process system of at least a robot, based on a protocol chart of at least a plurality of process symbols, the operation command generation device circuitry includes: a job generation unit configured to generate, based on the protocol chart, a job; apriority instruction unit configured to instruct a priority condition for determining a job execution order; and an execution order determination unit configured to determine an execution order of the jobs based on the priority instructed by the priority instruction unit by using a first condition about repeatedly execution of the jobs according to the number of the containers and a second condition about execution order of the jobs according to the arrangement of the process symbols in the protocol chart.
Abstract:
A robot system includes a robot, an operation control device, an impulse calculation device, and a first detection device. The robot includes an end effector and a force sensor. The force sensor is configured to measure a force applied to the end effector. The operation control device is configured to control the robot to perform predetermined work. The impulse calculation device is configured to calculate an impulse applied to the end effector based on a measurement value measured by the force sensor while the robot is performing the predetermined work. The first detection device is configured to generate detection information when the impulse exceeds a threshold.
Abstract:
A robot system includes a robot. A fitting member holder is mounted to a distal end of the robot to hold a fitting member. A receiver member receives the fitting member. A position determination member is disposed at a fixed position relative to the receiver member. A robot controller controls the robot. A position identifying device brings the robot, the fitting member, or the fitting member holder into contact with the position determination member with the fitting member holder holding the fitting member. A position identifying device identifies a fitting position based on a position of the contact. A fitting control device controls the robot to fit the fitting member into the receiver member at the fitting position.
Abstract:
A robot system includes a first cell and a second cell. The first cell includes a first robot, a first controller, and a first casing. The first robot performs work on a to-be-worked material. The first controller controls the first robot. The first casing accommodates the first robot and the first controller. The second cell includes a second robot, a second controller, and a second casing. The second robot performs work on a to-be-worked material. The second controller controls the second robot. The second casing accommodates the second robot and the second controller. When the first casing and the second casing are connected to each other, the first controller and the second controller respectively control the first robot and the second robot to work in a common operation area, where a first movable area and a second movable area overlap.
Abstract:
A mobile robot includes a truck capable of traveling by servo control, a robot arm mounted on the truck, and a control portion servo-controlling the traveling of the truck. The control portion is configured to set a servo gain of the servo control for the truck to a robot arm operation gain during the operation of the robot arm.
Abstract:
In this robot system, a control portion includes a workpiece supporting operation command portion, a workpiece positioning operation command portion causing a second robot arm to move a workpiece toward a workpiece fitted portion while causing an end effector of the second robot arm to support the workpiece, and a fitting operation command portion causing a first robot arm to fit the workpiece into the workpiece fitted portion.