Abstract: A method for manufacturing a porous film includes: a first step of preparing droplets (D) which are formed from a first liquid into spheres with a predetermined diameter of 10 ?m or more and 2000 ?m or less and a second liquid (L2) which includes a curing agent which cures by imparting energy or a curing agent which cures due to change in pH and includes droplets dispersed therein; a second step of injecting the droplets and the second liquid into a gap between a pair of substrates (31 and 32); a third step of curing the second liquid to form an external phase; and the fourth step of removing the droplets in the external phase to form hole sections.

Abstract: A coating apparatus includes a dispenser that includes a discharge port and a displacement sensor, the discharge port being configured to be capable of discharging liquid from a vertical direction the displacement sensor being configured to detect a distance in the vertical direction between the discharge port and the coating region, a drive device that drives the dispenser, a dispenser movement control unit that controls the drive device to move the dispenser along a predetermined coating path, a tilt detection unit that detects a tilt of the coating surface with respect to a reference plane based on the distance detected by the displacement sensor, and a coating path correction unit that corrects the coating path based on the tilt of the coating surface detected by the tilt detection unit.

Abstract: The disclosure is provided to shorten a total allowed cycle time of insertion or a press-fitting operation. A control device of a robot performing insertion or a press-fitting operation includes: a measuring part, measuring an elapsed time from a time point of starting a correcting operation in a case where the insertion or the press-fitting operation does not end normally; a calculating part, calculating a total remaining time of the correcting operation by subtracting a time from a start to an end of the correcting operation from a preset total allowed time of the correcting operation; a comparing part, comparing the remaining time with a required operation time which is an elapsed time from the start to the end of the correcting operation; and a control part, interrupting the correcting operation before the allowed time elapses in a case where the remaining time is less than the required operation time.

Abstract: A coating apparatus includes a dispenser that includes a discharge port and a displacement sensor, the discharge port being configured to be capable of discharging liquid from a vertical direction the displacement sensor being configured to detect a distance in the vertical direction between the discharge port and the coating region, a drive device that drives the dispenser, a dispenser movement control unit that controls the drive device to move the dispenser along a predetermined coating path, a tilt detection unit that detects a tilt of the coating surface with respect to a reference plane based on the distance detected by the displacement sensor, and a coating path correction unit that corrects the coating path based on the tilt of the coating surface detected by the tilt detection unit.

Abstract: A component insertion device including a robot and a control portion is provided. The control portion is configured to control the operation of the robot. The robot includes a gripper, a dummy component and a force sensor. The gripper is configured for gripping a workpiece component. The dummy component is mounted protruding outward on a location in the gripper and away from the gripped workpiece component. The dummy component has a corresponding part with the same shape as that of a specific part of the workpiece component and exhibits rigidity. The force sensor is configured for detecting, through the gripper, a contact reaction force received by the dummy component from the surrounding of a slot or hole of a receiving portion by which the specific part of the workpiece comment is to be inserted via using the device. Component insertion method and program of using the device are also provided.

Abstract: A method for allowing even a user with little experience in robot operation to be able to perform correct calibration is provided. A mobile device displays one or more patterns at predetermined positions and transmits information indicating a touch position to a control device according to touching applied to the touch position in a state that the patterns are displayed. The control device calculates a parameter set based on an image measurement result obtained by a visual sensor when the mobile device is disposed in an image visual field in a state that the patterns are displayed, a touch position when the mobile device is touched by a robot, and a distance between a position of the mobile device when disposed in the imaging visual field and a position when the mobile device is touched by the robot.

Abstract: A pair of claws and included in a gripper of a robot have specific shapes and for bending or flexing a specific part of a workpiece in a thickness direction when approaching each other to clamp the workpiece. The pair of claws and are made to approach each other and clamp the workpiece in a state where the specific part is protruded to the outside while making the workpiece and also the specific part undergo an elastic deformation so as to bend or flex in the thickness direction within a range of a transverse-direction dimension of the slot. The specific part of the workpiece is inserted into the slot along an insertion direction perpendicular to a tip end surface by a compliance control based on an output of a force sensor.

Abstract: The disclosure is provided to shorten a total allowed cycle time of insertion or a press-fitting operation. A control device of a robot performing insertion or a press-fitting operation includes: a measuring part, measuring an elapsed time from a time point of starting a correcting operation in a case where the insertion or the press-fitting operation does not end normally; a calculating part, calculating a total remaining time of the correcting operation by subtracting a time from a start to an end of the correcting operation from a preset total allowed time of the correcting operation; a comparing part, comparing the remaining time with a required operation time which is an elapsed time from the start to the end of the correcting operation; and a control part, interrupting the correcting operation before the allowed time elapses in a case where the remaining time is less than the required operation time.

Abstract: A pair of claws and included in a gripper of a robot have specific shapes and for bending or flexing a specific part of a workpiece in a thickness direction when approaching each other to clamp the workpiece. The pair of claws and are made to approach each other and clamp the workpiece in a state where the specific part is protruded to the outside while making the workpiece and also the specific part undergo an elastic deformation so as to bend or flex in the thickness direction within a range of a transverse-direction dimension of the slot. The specific part of the workpiece is inserted into the slot along an insertion direction perpendicular to a tip end surface by a compliance control based on an output of a force sensor.

Abstract: A workpiece component is gripped by a gripper of a robot in a state that a specific part protrudes outward, and a dummy component, which has a corresponding part with the same shape as the shape of the specific part of the workpiece component and exhibits rigidity, is mounted on a location in the gripper and away from the gripped workpiece component and protrudes outward. The corresponding part of the dummy component is inserted into the slot or the hole through compliance control which is based on the output of a force sensor. The position and the posture of the slot or the hole is recognized. The specific part of the workpiece component is inserted into the slot or the hole through position control based on the position and the posture of the slot or the hole.

Abstract: An imaging unit has its imaging field of view containing the conveyor, and images a subject in the imaging field. The imaging unit generates a luminance image representing the subject and a range image including height information indicating a height of at least one point on the subject from the conveyor by imaging the subject. A measurement unit measures a position of each workpiece in the luminance image. An obtaining unit obtains an overlap order of the workpieces based on the height information in the range image corresponding to the position of each workpiece in the luminance image. A determination unit determines the workpiece pickup order to allow a workpiece having a highest place in the overlap order to be picked up with a higher priority than other workpieces.

Abstract: A method for allowing even a user with little experience in robot operation to be able to perform correct calibration is provided. A mobile device displays one or more patterns at predetermined positions and transmits information indicating a touch position to a control device according to touching applied to the touch position in a state that the patterns are displayed. The control device calculates a parameter set based on an image measurement result obtained by a visual sensor when the mobile device is disposed in an image visual field in a state that the patterns are displayed, a touch position when the mobile device is touched by a robot, and a distance between a position of the mobile device when disposed in the imaging visual field and a position when the mobile device is touched by the robot.

Abstract: A desired position instruction of a user is generated even if a plurality of position instructions satisfying a vibration control condition exist. An instruction generator includes a conditional expression selector configured to select a conditional expression that should generate the position instruction from a plurality of conditional expressions based on a control performance condition, a parameter calculator configured to calculate a parameter based on a machine performance index and the selected vibration control conditional expression, and a position instruction generator configured to calculate the position instruction based on the parameter.

Abstract: A control device is configured to synchronize a second axis with a (real or virtual) first axis. The control device includes a processor configured to use position information for the first axis to compute a position command for the second axis, and to correct the position command when outputting a position command to the second axis to compensate for a delay caused by the transmission of the position command from the control device to the second axis, and a delay on the second axis.

Abstract: A method for manufacturing a porous film includes: a first step of preparing droplets (D) which are formed from a first liquid into spheres with a predetermined diameter of 10 ?m or more and 2000 ?m or less and a second liquid (L2) which includes a curing agent which cures by imparting energy or a curing agent which cures due to change in pH and includes droplets dispersed therein; a second step of injecting the droplets and the second liquid into a gap between a pair of substrates (31 and 32); a third step of curing the second liquid to form an external phase, and the fourth step of removing the droplets in the external phase to form hole sections.

Abstract: An imaging unit has its imaging field of view containing the conveyor, and images a subject in the imaging field. The imaging unit generates a luminance image representing the subject and a range image including height information indicating a height of at least one point on the subject from the conveyor by imaging the subject. A measurement unit measures a position of each workpiece in the luminance image. An obtaining unit obtains an overlap order of the workpieces based on the height information in the range image corresponding to the position of each workpiece in the luminance image. A determination unit determines the workpiece pickup order to allow a workpiece having a highest place in the overlap order to be picked up with a higher priority than other workpieces.

Abstract: A desired position instruction of a user is generated even if a plurality of position instructions satisfying a vibration control condition exist. An instruction generator includes a conditional expression selector configured to select a conditional expression that should generate the position instruction from a plurality of conditional expressions based on a control performance condition, a parameter calculator configured to calculate a parameter based on a machine performance index and the selected vibration control conditional expression, and a position instruction generator configured to calculate the position instruction based on the parameter.

Abstract: A control device is configured to synchronize a second axis with a (real or virtual) first axis. The control device includes a processor configured to use position information for the first axis to compute a position command for the second axis, and to correct the position command when outputting a position command to the second axis to compensate for a delay caused by the transmission of the position command from the control device to the second axis, and a delay on the second axis.

Abstract: When a work is set on a hot plate and a heat treatment is started and the like, an addition waveform of a target temperature is formed based on a previously formed data of an adjustment value, and a temperature is controlled by adding the addition waveform to the target temperature SP, and with the data of the adjustment value, the variation in temperature of the work is prevented using an interference matrix showing a relation between the target temperature SP and the temperature of the work.

Abstract: In a method of controlling the temperature of a target object by measuring to obtain detected temperatures at a plurality of measurement positions and controlling a processing device such as a heater such that each detected temperature will match the corresponding one of target temperatures set for the processing device, a preliminary step is taken to determine the degrees of interference at the measurement positions by varying the target temperatures and the degrees of interference thus determined are used to correct the set target temperatures or the detected temperatures.