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: A program correcting device comprises an executing part which executes a simulation of operation of the robot based on an operating program, a calculating part which calculates a variation with time of a TCP speed from the simulation results, an evaluating part which evaluates a pattern of the calculated variation with time if a minimum value of the TCP speed during the calculated variation with time is a predetermined lower limit value or less, a selecting part which selects a correction scheme of the operating program for increasing the minimum value of the TCP speed from a plurality of correction schemes, in accordance with the evaluation results of the pattern of the variation with time, and a correcting part which corrects the operating program in accordance with the selected correction scheme.

Abstract: A robot program modification system comprises a robot control apparatus and a program modification apparatus. The robot control apparatus has an information acquisition unit which executes an operation program and acquires robot detection information from a robot, and a communication unit which transmits the robot detection information to the program modification apparatus. The program modification apparatus has a simulation unit which performs simulation on the basis of the operation program, and a program modification unit which modifies the operation program on the basis of the robot detection information so that a result of the simulation satisfies an evaluation basis decided in advance.

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: A robot program generation apparatus includes an allowable jerk value setting unit for setting allowable jerk values to joints of a robot, a joint information calculation unit for simulating execution of a robot program in a virtual space and calculating positions and jerks of the joints in association with time, a jerks determination unit for determining whether or not the calculated jerk is an excess jerk exceeding the allowable jerk values, a joint information identification unit for identifying the joints and positions of the joints in which the excess jerks are generated, and a robot program adjustment unit for adjusting the robot program by modifying a teaching position within the neighborhood of the positions of the joints in which the excess jerks are generated so that the jerks of the identified joints become equal to or smaller than the allowable jerk values.

Abstract: A robot remote monitoring system (6) which monitors at least one robot (10) at a distant location including at least one robot control device (11), a data server (20), and a mobile terminal (30), wherein a robot control device includes a memory part (14) which stores monitoring information which includes an operating state of the robot and alarm information and attribute information which is linked with the monitoring information and a transmitting part (15) which transmits the monitoring information and the attribute information to the data server together, the data server includes a transmitting part (21) which transmits the monitoring information and the attribute information to the mobile terminal together, and the mobile terminal includes a memory part (33) which stores the monitoring information and the attribute information and a display part (34) which uses the attribute information as the basis to display the monitoring information all together.

Abstract: A simulation device includes a simulation unit which executes, by simulation, a motion program containing a command velocity and a command acceleration of the drive shaft, and a motion waiting instruction, a storage unit which stores in time series a line number of the motion program and the command velocity and the command acceleration at the line number associated with one another; an execution time calculation unit which calculates the execution time of the motion program for each of the line numbers stored in the storage unit based on a simulation result; and a waiting time calculation unit which calculates the motion waiting time in accordance with the motion waiting instruction based on the execution time calculated by the execution time calculation unit.

Abstract: A program correcting device comprises an executing part which executes a simulation of operation of the robot based on an operating program, a calculating part which calculates a variation with time of a TCP speed from the simulation results, an evaluating part which evaluates a pattern of the calculated variation with time if a minimum value of the TCP speed during the calculated variation with time is a predetermined lower limit value or less, a selecting part which selects a correction scheme of the operating program for increasing the minimum value of the TCP speed from a plurality of correction schemes, in accordance with the evaluation results of the pattern of the variation with time, and a correcting part which corrects the operating program in accordance with the selected correction scheme.

Abstract: A robot program generation apparatus includes an allowable jerk value setting unit for setting allowable jerk values to joints of a robot, a joint information calculation unit for simulating execution of a robot program in a virtual space and calculating positions and jerks of the joints in association with time, a jerks determination unit for determining whether or not the calculated jerk is an excess jerk exceeding the allowable jerk values, a joint information identification unit for identifying the joints and positions of the joints in which the excess jerks are generated, and a robot program adjustment unit for adjusting the robot program by modifying a teaching position within the neighborhood of the positions of the joints in which the excess jerks are generated so that the jerks of the identified joints become equal to or smaller than the allowable jerk values.

Abstract: A robot program modification system comprises a robot control apparatus and a program modification apparatus. The robot control apparatus has an information acquisition unit which executes an operation program and acquires robot detection information from a robot, and a communication unit which transmits the robot detection information to the program modification apparatus. The program modification apparatus has a simulation unit which performs simulation on the basis of the operation program, and a program modification unit which modifies the operation program on the basis of the robot detection information so that a result of the simulation satisfies an evaluation basis decided in advance.

Abstract: A simulation device includes a simulation unit which executes, by simulation, a motion program containing a command velocity and a command acceleration of the drive shaft, and a motion waiting instruction, a storage unit which stores in time series a line number of the motion program and the command velocity and the command acceleration at the line number associated with one another; an execution time calculation unit which calculates the execution time of the motion program for each of the line numbers stored in the storage unit based on a simulation result; and a waiting time calculation unit which calculates the motion waiting time in accordance with the motion waiting instruction based on the execution time calculated by the execution time calculation unit.

Abstract: A robot remote monitoring system (6) which monitors at least one robot (10) at a distant location including at least one robot control device (11), a data server (20), and a mobile terminal (30), wherein a robot control device includes a memory part (14) which stores monitoring information which includes an operating state of the robot and alarm information and attribute information which is linked with the monitoring information and a transmitting part (15) which transmits the monitoring information and the attribute information to the data server together, the data server includes a transmitting part (21) which transmits the monitoring information and the attribute information to the mobile terminal together, and the mobile terminal includes a memory part (33) which stores the monitoring information and the attribute information and a display part (34) which uses the attribute information as the basis to display the monitoring information all together.