A remote control system includes: an imaging unit that shoots an environment in which a device to be operated including an end effector is located; a recognition unit that recognizes objects that can be grasped by the end effector based on a shot image of the environment shot by the imaging unit; an operation terminal that displays the shot image and receive handwritten input information input to the displayed shot image; and an estimation unit that, based on the objects that can be grasped and the handwritten input information input to the shot image, estimates an object to be grasped which has been requested to be grasped by the end effector from among the objects that can be grasped and estimates a way of performing a grasping motion by the end effector, the grasping motion having been requested to be performed with regard to the object to be grasped.

A simulation device includes an image sensor which captures an image of a real space including an actual robot and a peripheral device arranged at the periphery of the actual robot, an augmented reality display section which displays a virtual robot overlaid on the actual robot shown in the captured image, a workpiece management section which manages a position of a moving workpiece, and a motion control section which controls a motion of the virtual robot on the basis of the position of the workpiece.

Systems and methods for human-robot communication are proved. More particularly, some embodiments use augmented reality to facilitate communication of robot intention and teleoperation in human-robot cooperative environments. Various embodiments of the present technology provide a middleware that integrates augmented reality (AR) with novel teleoperation interfaces to increase operation effectiveness, support the user in conducting concurrent work, and decrease stress. Various embodiments provide predictive graphical interfaces such that a teleoperator controls a virtual robot surrogate, rather than directly operating the robot itself, providing the user with foresight regarding where the physical robot will end up and how it will get there. In accordance with various embodiments a user may select between two AR interfaces using such a surrogate: one focused on real-time control and one inspired by waypoint delegation.

An operator telerobotically controls tools to perform a procedure on an object at a work site while viewing real-time images of the work site on a display. Tool information is provided in the operator's current gaze area on the display by rendering the tool information over the tool so as not to obscure objects being worked on at the time by the tool nor to require eyes of the user to refocus when looking at the tool information and the image of the tool on a stereo viewer.

A transmissive display device includes an image display unit configured to transmit an outside scenery and display an image viewable with the outside scenery, an interference risk region calculation unit configured to calculate an interference risk region where there is a risk of interference between a user of the transmissive display device and a mobile body, a risk level determination unit configured to determine a risk level of the interference, based on a relative positional relationship between the user and the mobile body, and a display control unit configured to display, on the image display unit, an image indicating the interference risk region in a display mode according to the determined risk level.

The present disclosure is intended to accurately simulate a flow of articles in an environment similar to an actual worksite. A conveyance simulation device includes: a virtual conveyance unit that operates virtually; a first virtual article feeding unit that feeds virtual articles to the virtual conveyance unit under a predetermined condition; and a virtual article management unit that sequentially updates positions of the virtual articles in accordance with a virtual movement of the virtual conveyance unit.

A sensing system with a detecting device that is used to detect a position of a target and a controller, where, for display on a display device or projection by a projection apparatus, the controller creates an augmented-reality image that shows: at least one of a setting related to detection of the target using the detecting device, a setting of a moving apparatus, and a setting of a robot that performs work on the target, a position of the target being recognized by the controller, a result of the detection of the target, a work plan of the moving apparatus, a work plan of the robot, a determination result of the controller and a parameter related to the target.

A sensing system with a detecting device that is used to detect a position of a target and a controller, where, for display on a display device or projection by a projection apparatus, the controller creates an augmented-reality image that shows: at least one of a setting related to detection of the target using the detecting device, a setting of a moving apparatus, and a setting of a robot that performs work on the target, a position of the target being recognized by the controller, a result of the detection of the target, a work plan of the moving apparatus, a work plan of the robot, a determination result of the controller and a parameter related to the target.

An augmented reality device includes a processing unit adapted to process data, and a display unit with a field of view, which is adapted to display a control, control components and first connections between the control components as an extended real image, The control receives sensor data from at least one sensor and transmits actuator signals to at least one actuator of an industrial plant. The processing unit processes from the data a model of the industrial plant with the control, the sensor, the actuator and second connections as plant components, and processes position data of the plant components into the model. The position data of the display unit can be transmitted to the processing unit as GPS data by means of satellites or local position data by means of local sensors, and the processing unit processes the position data of the display unit into the model.

An off-line programming apparatus includes a model creation unit that creates three-dimensional models of a robot and a load, a storage unit that stores a dynamic parameter of the load, a graphic creation unit that creates a three-dimensional graphic representing the dynamic parameter based on the dynamic parameter, and a display unit that displays the three-dimensional models of the robot and the load and the three-dimensional graphic. The dynamic parameter includes inertia around three axes that are orthogonal to one another at a centroid of the load. The three-dimensional graphic is a solid defined by dimensions in three directions orthogonal to one another. The graphic creation unit sets a ratio of the dimensions in the three directions of the three-dimensional graphic to a ratio corresponding to a ratio of the inertia around the three axes.