Abstract: This self-interference determination device is provided with a link shape correction unit that corrects link shapes on the basis of a specified distance between link shapes at which links of a robot comprising a plurality of links are regarded as having undergone self-interference, and a shape interference determination unit that determines the presence or absence of self-interference on the basis of the link shapes.

Abstract: An automatic program-correction device includes: a clearance detecting unit that detects an amount of clearance between a robot and a peripheral device in an operation program; a near-miss detecting unit that detects a near-miss section; a closest-point detecting unit that detects a pair of closest points, in the near-miss section; and a program updating unit that generates a new operation program having an intermediate teaching point to which the closest points have been moved, along a straight line passing through the detected pair of closest points, until the amount of clearance becomes greater than a minimum amount of clearance and equal to or less than the threshold. While gradually reducing, from the threshold, the amount of clearance at the intermediate teaching point, the program updating unit obtains an intermediate teaching point that provides a maximum amount of clearance at which a new near-miss section is not detected.

Abstract: A lifetime estimation device for a robot including a linear-motion mechanism including a guide member and at least one slider moving along the guide member includes: a load calculation unit that calculates, at predetermined time intervals, a load acting on each slider on a basis of a program for operating the robot and geometric parameters of the robot and a load mounted on the robot; a travel-distance calculation unit that calculates travel distances of the slider at the time intervals; a lifetime calculation unit that calculates a lifetime of the linear-motion mechanism on a basis of the loads calculated by the load calculation unit and the travel distances calculated by the travel-distance calculation unit; and a display unit that displays the calculated lifetime.

Abstract: An automatic path generation device includes a preprocessing unit creating teacher data based on a temporary motion path which is a motion path between a plurality of motion points where a robot moves and which is automatically generated with a motion planning algorithm and an actual motion path which is a motion path between the motion points and which is created by a skilled worker and a motion path learning unit generating a learned model which has learned a difference between the temporary motion path and the actual motion path with teacher data created by the preprocessing unit.

Abstract: A lifetime estimation device for a robot including a linear-motion mechanism including a guide member and at least one slider moving along the guide member includes: a load calculation unit that calculates, at predetermined time intervals, a load acting on each slider on a basis of a program for operating the robot and geometric parameters of the robot and a load mounted on the robot; a travel-distance calculation unit that calculates travel distances of the slider at the time intervals; a lifetime calculation unit that calculates a lifetime of the linear-motion mechanism on a basis of the loads calculated by the load calculation unit and the travel distances calculated by the travel-distance calculation unit; and a display unit that displays the calculated lifetime.

Abstract: A calculation device for calculating an appropriate stowage pattern of articles, and a robot controller including the calculation device. The calculation device has: a model generating section configured to generate first physical models of the articles based on dimensions of respective types of the articles, and generate a second physical model of a containing region in which the articles are stacked, based on a dimension of the containing region; a locating section configured to locate the first models in the second model, in descending order of priority predetermined with respect to the types of the articles; and a physical calculating section configured to add vibration or a shock to the second model each time when the first models is located in the second model, and calculate a change in a position and/or orientation of the first model in the second model due to the vibration or the shock.

Abstract: An automatic program-correction device includes: a clearance detecting unit that detects an amount of clearance between a robot and a peripheral device in an operation program; a near-miss detecting unit that detects a near-miss section; a closest-point detecting unit that detects a pair of closest points, in the near-miss section; and a program updating unit that generates a new operation program having an intermediate teaching point to which the closest points have been moved, along a straight line passing through the detected pair of closest points, until the amount of clearance becomes greater than a minimum amount of clearance and equal to or less than the threshold. While gradually reducing, from the threshold, the amount of clearance at the intermediate teaching point, the program updating unit obtains an intermediate teaching point that provides a maximum amount of clearance at which a new near-miss section is not detected.

Abstract: An automatic path generation device includes a preprocessing unit creating teacher data based on a temporary motion path which is a motion path between a plurality of motion points where a robot moves and which is automatically generated with a motion planning algorithm and an actual motion path which is a motion path between the motion points and which is created by a skilled worker and a motion path learning unit generating a learned model which has learned a difference between the temporary motion path and the actual motion path with teacher data created by the preprocessing unit.

Abstract: An operation training system includes, a first display device for a first user, a second display device for a second user who learns robot operation from a first user, and a control system configured to move, based on an input made by a second user using a second user input device, a robot displayed on the second display device. The control system is configured to move, based on an input made by the first user using a first user input device, a robot displayed on the first display device. The control system is also configured to display, on the second display device, a motion of the robot based on the input made by the first user using the first user input device.

Abstract: A calculation device for calculating an appropriate stowage pattern of articles, and a robot controller including the calculation device. The calculation device has: a model generating section configured to generate first physical models of the articles based on dimensions of respective types of the articles, and generate a second physical model of a containing region in which the articles are stacked, based on a dimension of the containing region; a locating section configured to locate the first models in the second model, in descending order of priority predetermined with respect to the types of the articles; and a physical calculating section configured to add vibration or a shock to the second model each time when the first models is located in the second model, and calculate a change in a position and/or orientation of the first model in the second model due to the vibration or the shock.

Abstract: A stacking-pattern calculating device including a storage portion that stores dimensions, weights, load limits, and numbers of the respective types of boxes and dimensions of the accommodating region; a smallest-combination calculating portion that calculates a combination of the boxes that forms a smallest unit, that have a constant height, and in which a bottom area becomes the smallest; a layer-combination calculating portion that calculates a combination that forms a layer in which the smallest units having the same height among the combinations of the smallest units are placed next to each other in a horizontal direction so as to have a rectangular shape in a plan view.

Abstract: A robot simulation device, by which a calculation of a cycle time and a simulation of a human intervention-type robot system can be easily carried out with less effort by an operator. The simulation device has: an operation distributing part which distributes a plurality of operations to the robot and the human, based on a weight of an article to be worked in each operation, a conveying distance of the article, and a required time in each operation; a program generating part which generates a motion program for the robot and the human based on a result of distribution of operations obtained by the operation distributing part; and a cycle time calculating part which executes a simulation of the motion program and calculates a cycle time of the motion program.

Abstract: A stowage pattern calculation device calculates positions of articles irregularly conveyed. The plurality of articles have a box shape and include articles having dimensions different from each other. The stowage pattern calculation device includes a combination calculation part which calculates a combination of the articles constituting a layer formed in a storage area and selects a layer of the articles based on types of the articles, a height of the layer, and an area of the layer. The stowage pattern calculation device includes a position determination part which calculates a first probability of completion of the layer and determines positions at which the articles are stacked based on a positional relationship between a robot and the storage area and the first probability.

Abstract: A stowage device is equipped with a transport device that transports a plurality of types of objects in a random sequence, and a control device that sets a position of an object inside a containment area. The control device includes a complete pattern selection unit that selects a complete pattern in which an object transported by the transport device can be stowed on the basis of the type of the object and information on an object currently placed in the containment area. The control device includes a position determination unit that determines a position of an object inside the containment area on the basis of the complete pattern.

Abstract: A stacking-pattern calculating device including a storage portion that stores dimensions, weights, load limits, and numbers of the respective types of boxes and dimensions of the accommodating region; a smallest-combination calculating portion that calculates a combination of the boxes that forms a smallest unit, that have a constant height, and in which a bottom area becomes the smallest; a layer-combination calculating portion that calculates a combination that forms a layer in which the smallest units having the same height among the combinations of the smallest units are placed next to each other in a horizontal direction so as to have a rectangular shape in a plan view.

Abstract: A stowage device is equipped with a transport device that transports a plurality of types of objects in a random sequence, and a control device that sets a position of an object inside a containment area. The control device includes a complete pattern selection unit that selects a complete pattern in which an object transported by the transport device can be stowed on the basis of the type of the object and information on an object currently placed in the containment area. The control device includes a position determination unit that determines a position of an object inside the containment area on the basis of the complete pattern.

Abstract: A stowage pattern calculation device calculates positions of articles irregularly conveyed. The plurality of articles have a box shape and include articles having dimensions different from each other. The stowage pattern calculation device includes a combination calculation part which calculates a combination of the articles constituting a layer formed in a storage area and selects a layer of the articles based on types of the articles, a height of the layer, and an area of the layer. The stowage pattern calculation device includes a position determination part which calculates a first probability of completion of the layer and determines positions at which the articles are stacked based on a positional relationship between a robot and the storage area and the first probability.

Abstract: A robot simulation system includes a model placement part which places a three-dimensional container model in a virtual space and places three-dimensional workpiece models which have any postures at initial positions above the container model and a drop operation simulation part which simulates a drop operation in which the workpieces drop from the initial positions to the inside of the container by action of gravity. The robot simulation system is configured to create a bulk stacked state of workpiece models, based on the positions and postures of the workpiece models which are obtained as a result of simulation of the drop operation.

Abstract: A robot simulation device, by which a calculation of a cycle time and a simulation of a human intervention-type robot system can be easily carried out with less effort by an operator. The simulation device has: an operation distributing part which distributes a plurality of operations to the robot and the human, based on a weight of an article to be worked in each operation, a conveying distance of the article, and a required time in each operation; a program generating part which generates a motion program for the robot and the human based on a result of distribution of operations obtained by the operation distributing part; and a cycle time calculating part which executes a simulation of the motion program and calculates a cycle time of the motion program.

Abstract: A robot simulation system includes a model placement part which places a three-dimensional container model in a virtual space and places three-dimensional workpiece models which have any postures at initial positions above the container model and a drop operation simulation part which simulates a drop operation in which the workpieces drop from the initial positions to the inside of the container by action of gravity. The robot simulation system is configured to create a bulk stacked state of workpiece models, based on the positions and postures of the workpiece models which are obtained as a result of simulation of the drop operation.