Abstract:
A movable object controlling apparatus includes an obstacle detecting device including circuitry detects an obstacle, and a controlling device including circuitry which sets a monitor region with respect to a movable object, controls a speed of the movable object based on detection of the obstacle by the obstacle detecting device in the monitor region, and changes a size of the monitor region based on the speed of the movable object.
Abstract:
A mobile unit according to an embodiment includes a main body, a moving mechanism, a sensor, a recognizer, a first movement adjuster, a second landmark recognizer, and a second movement adjuster. The moving mechanism moves the main body. The sensor detects a distance and a direction to an object around the main body. The recognizer recognizes a landmark based on a detection result of the sensor. The first movement adjuster controls the moving mechanism such that the main body is moved to a target position based on the landmark. If the distance to the landmark has become smaller than a first threshold, the second landmark recognizer recognizes a second landmark. The second movement adjuster controls the moving mechanism such that the main body is moved to the target position based on the second landmark.
Abstract:
A robot system of the present disclosure includes: a robot including an operable working arm driven by an actuator; an operation load detection unit configured to detect an operation load of the actuator; a region setting unit that sets a region with a predetermined range around the robot; a moving body detection unit configured to detect a position of a moving body other than the robot; and an abnormality determination unit that determines abnormality when detecting of the position of the moving body within the region, wherein the region setting unit changes the range of the region in accordance with the operation load of the actuator.
Abstract:
A manipulation unit includes a body, a tool holder, and a manipulated portion. The body has a first end, a second end opposite to the first end, and a peripheral surface connecting the first end and the second end. The first end is attachable to a robot arm. The tool holder is connected to the second end and configured to hold a tool. The manipulated portion is provided on the peripheral surface. The manipulated portion includes a manipulation surface and a surrounding portion. The robot arm is to be operated via the manipulation surface. The surrounding portion surrounds the manipulation surface such that the manipulation surface is recessed from the surrounding portion.
Abstract:
A robot system according to embodiments includes a robot including an arm, and a work table. On the work table, an object used for work performed by the robot by using the arm is placed. The arm of the robot includes a first arm portion, a second arm portion, and a third arm portion. The first arm portion supports an end effector to be rotatable about a first rotation axis at a distal end thereof. The second arm portion supports a base end of the first arm portion to be swingable about a second rotation axis substantially perpendicular to the first rotation axis. The third arm portion supports a base end of the second arm portion to be swingable about a third rotation axis substantially perpendicular to the second rotation axis.
Abstract:
A mobile robot has a seating part, a moving apparatus to move the seating part, and a robot part with a base part to be attached to the seating part, a body capable of rotating around a vertical axis normal to an attaching surface which the seating part to be attached to the base part, and an arm connected to the body having a plurality of joints. The seating part has a first surface facing a work that is subject to the operation by the robot part and a second surface that is different from the first surface, and the arms are formed such that the positional relationship between the arms and the first surface is substantially identical to the positional relationship between the arms and the second surface according to the rotation of the body around the vertical axis.
Abstract:
A robot system of the present disclosure includes a robot and a controller configured to control motion of the robot, and the controller includes: a motion mode storage unit storing a plurality of motion modes for controlling the robot to switch a motion state of the robot from a normal motion state to a special motion state when a predetermined first condition is satisfied; and a motion mode switching unit configured to switch the motion mode of the robot to another motion mode when, while a particular motion mode stored in the motion mode storage unit is in execution, a predetermined second condition for the particular motion mode is satisfied with a first condition for the particular motion mode satisfied.
Abstract:
A robot system includes: a first robot; a second robot; and circuitry configured to: control the first and second robots to execute a collaborative operation on a work piece; and control, in response to a detection of an irregular state of the first robot during the collaborative operation, the first and second robots to execute a collaborative counteractive operation to eliminate the irregular state.
Abstract:
A manipulation unit includes a body, a tool holder, and a plurality of manipulated switches. The body has a first end, a second end opposite to the first end, and a cylindrical circumferential outer surface that extends from the first end to the second end and which is configured to be held to perform direct teaching to a robot. The first end is attachable to a leading end of a robot arm of the robot. The tool holder is connected to the second end and configured to hold a tool. The plurality of manipulated switches are configured to send signal to a robot controller to perform the direct teaching. The plurality of manipulated switches are provided on the body to be aligned along a circumferential direction of the cylindrical circumferential outer surface so that the direct teaching is performed with a hand which holds the cylindrical circumferential outer surface.
Abstract:
A robot system of the present disclosure includes: a robot including an operable working arm; a motion speed detection unit configured to detect a motion speed of the working arm; a region setting unit that sets a region with a predetermined range around the robot; a moving body detection unit configured to detect a position of the moving body other than the robot; and an abnormality determination unit configured to determine abnormality when detecting of the position of the moving body within the region, wherein the region setting unit changes the range of the region according to the motion speed of the working arm.