Abstract: To enable a bunch of sheets to be reliably discharged to a stack tray, also in the case where weight of the bunch of sheets formed on a processing tray is large, a post-processing control section receives information on an ink discharge amount, the number of sheets, sheet type, and printing mode (two-side/one-side) in printing on sheets from a main body control section of an image forming unit A, in forming a bunch of sheets on the processing tray. The control section thereby recognizes weight of a bunch of sheets formed on the processing tray, and when the section determines that the weight is heavier than predetermined weight, decreases a rotation velocity of a drive motor of a sheet bunch transport means, or increases a current amount applied to the drive motor. By this means, torque of the motor is increased, and the bunch of sheets is reliably discharged to the first stack tray.

Abstract: The capacitive proximity sensor includes an oscillation means, an LCR resonance circuit including a sensor electrode, a sensor circuit that outputs a determination voltage signal corresponding to the capacitance of the sensor electrode, and a control unit that detects the proximity of a human body to the sensor electrode based on the determination voltage signal. The control unit performs control that alternatingly and repeatedly executes calibration steps for updating a detection frequency f1 and a first threshold value Vth1 and a detection step for detecting the proximity of the human body to the sensor electrode.

Abstract: In order to properly suppress a discharge defect corresponding to an image ratio of a sheet, in the case where a coefficient of friction is different according to the image ratio of an image on the sheet, an air blowing section is arranged to blow air toward a downstream side in a transport direction from between a downstream-side end portion of a first stacking section and an upstream-side end portion of a second stacking section. When an image ratio of an image on a sheet by an image forming apparatus is a first value, the air blowing section sets an air quantity blown to the sheet at a first air quantity F1, while when the image ratio is a second value higher than the first value, setting the air quantity blown to the sheet at a second air quantity F2 larger than the first air quantity F1.

Abstract: A three-dimensional model creating device creates an individual model indicating an individual shape of an object from an integrated model created based on data obtained by capturing images of or measuring at least two or more objects together. The three-dimensional model creating device includes: a three-dimensional model division processing unit configured to create a plurality of divided models obtained by dividing the integrated model by an extension plane extended from each plane configured to form the integrated model; a user interface unit configured to receive tagging of each of the divided models; and an individual model creating unit configured to create the individual model of the object based on the tagging of each of the divided models.

Abstract: A three-dimensional model creator creates individual models indicative of individual shapes of at least two objects from an integrated model created based on data obtained by imaging or measuring the objects together. The three-dimensional model creator creates a plurality of division models by dividing the integrated model with extension planes obtained by extending surfaces that define the integrated model, identifies two-dimensional regions in which the objects exist individually, based on the obtained data, tags the division models based on projections of the division models and the two-dimensional regions, and creates the individual models of the objects from the tagged division models.

Abstract: A capacitive proximity sensor 1 comprises an oscillation means 33; a sensor circuit 10, which includes a sensor electrode 11; a detection circuit 20, which outputs a determination voltage signal corresponding to the capacitance of the sensor electrode 11, based on the electrical signal output from the sensor circuit 10; and a control unit 32. The sensor electrode 11 is connected in parallel to a connection point P1 between a coil L and a capacitor C in an LCR series resonance circuit. The detection circuit 20 outputs a determination voltage signal S1 based on the electrical signal at the detection point P3 between the capacitor C and the resistor R. The control unit 32 detects the proximity of a human body to the sensor electrode 11, based on the determination voltage signal S1.

Abstract: A machine learning device included in a life predicting device observes, as a state variable, life related data related to a life of a consumable component, creates a probability model of a service life for replacement of the consumable component on the basis of the life related data, and predicts, using the created probability model, the service life for replacement of the consumable component based on the life related data.

Abstract: A numerical controller includes a drawing processing unit that draws a screen on a display unit, an image display cycle measurement processing unit that measures a display cycle of the screen, and a drawing quality change processing unit that determines drawing quality of the screen based on the display cycle or a CPU processing amount estimated from the display cycle. The drawing processing unit draws the screen according to the drawing quality determined by the drawing quality change processing unit.

Abstract: A numerical controller operates a machine tool based on a plurality of parameters and a machining program. A user is allowed to refer to a parameter that has not been set, in other words, a parameter not falling within the range of recommended setting values, among parameters that may influence the shortening of a cycle time of the operation of the machining program on a display screen. For this reason, the user can use the parameter as a reference for reviewing the parameter setting for the purpose of shortening the cycle time or the like.

Abstract: A numerical controller includes: a screen display section that displays a screen to which a screen identifier identifying a screen is added; an image storage section that stores, as image data, the screen displayed on the screen display section; a memo input section that adds memo data to the image data; and a memo management section that records the memo data and the screen identifier so as to be associated with each other.

Abstract: To enable a bunch of sheets to be reliably discharged to a stack tray, also in the case where weight of the bunch of sheets formed on a processing tray is large, a post-processing control section receives information on an ink discharge amount, the number of sheets, sheet type, and printing mode (two-side/one-side) in printing on sheets from a main body control section of an image forming unit A, in forming a bunch of sheets on the processing tray. The control section thereby recognizes weight of a bunch of sheets formed on the processing tray, and when the section determines that the weight is heavier than predetermined weight, decreases a rotation velocity of a drive motor of a sheet bunch transport means, or increases a current amount applied to the drive motor. By this means, torque of the motor is increased, and the bunch of sheets is reliably discharged to the first stack tray.

Abstract: To enable a bunch of sheets to be reliably discharged to a stack tray, also in the case where weight of the bunch of sheets formed on a processing tray is large, upon receiving a printing command, a main body control section checks information on an ink discharge amount in printing on a sheet, the number of sheets, sheet type and printing mode (two-side/one-side). By this means, the section recognizes weight of the bunch of sheets formed on the processing tray, and when determining that the weight is heavier than predetermined weight, deceases an upper limit value of the number of sheets of a bunch of sheets formed at a time to report to a user.

Abstract: Disclosed herein is an image forming system enabling size reduction of apparatus. In the system, a sheet drying unit and a sheet post-processing unit are arranged, respectively above and below a sheet holding section to which sheets are ejected from an image forming apparatus A. Further, a relay transporting unit is provided, which is configured to transport a sheet from the sheet drying unit to a sheet post-processing unit. The relay transporting unit is formed, surrounding the sheet holding section.

Abstract: The resonance frequency of an LCR resonance circuit is f1 and the determination voltage signal is V1, when an object is not in the proximity of a sensor electrode. The resonance frequency of the LCR resonance circuit is f2 and the determination voltage signal is V2, when a human body is in proximity of the sensor electrode 22. The resonance frequency of the LCR resonance circuit is f3 and the determination voltage signal is V3, when water is in the proximity of the sensor electrode. The LCR resonance circuit has the relationship f1>f2>f3. A control unit controls a high-frequency signal S0 so as to satisfy the relationship V2>V1>V3, and a human body or water being in the proximity of the sensor electrode is distinguished.

Abstract: In a state in which a high-frequency signal at a first detection frequency f1 is input to an LCR resonance circuit 20, upon detecting that a voltage signal S1 is greater than or equal to an upper-limit threshold value Vth11 or less than or equal to a first lower-limit threshold value Vth12, a high-frequency signal at a second detection frequency f2 is input to the LCR resonance circuit 20. Then, in a state in which the high-frequency signal at the second detection frequency f2 is input, the proximity of a human body or water to a sensor electrode 22 is detected by detecting that the voltage signal has reached less than or equal to a second lower-limit threshold value Vth21.

Abstract: A three-dimensional model creating device creates an individual model indicating an individual shape of an object from an integrated model created based on data obtained by capturing images of or measuring at least two or more objects together. The three-dimensional model creating device includes: a three-dimensional model division processing unit configured to create a plurality of divided models obtained by dividing the integrated model by an extension plane extended from each plane configured to form the integrated model; a user interface unit configured to receive tagging of each of the divided models; and an individual model creating unit configured to create the individual model of the object based on the tagging of each of the divided models.

Abstract: To provide a numerical controller and a machine learning device that predict an abnormality, based on machine learning with perception of temporal change in data. The numerical controller includes the machine learning device provided with a learning unit that conducts machine learning of trends in operation of a machine on occasions of occurrence of abnormalities in the machine, based on time-series data acquired by a data logger device and relating to the operation of the machine and abnormality information relating to the abnormalities which have occurred in the machine and a prediction unit that predicts an abnormality which will occur in the machine, based on results of the machine learning in the learning unit and time-series data acquired by the data logger device and relating to current operation of the machine.

Abstract: In a state in which a high-frequency signal at a first detection frequency f1 is input to an LCR resonance circuit 20, upon detecting that a voltage signal S1 is greater than or equal to an upper-limit threshold value Vth11 or less than or equal to a first lower-limit threshold value Vth12, a high-frequency signal at a second detection frequency f2 is input to the LCR resonance circuit 20. Then, in a state in which the high-frequency signal at the second detection frequency f2 is input, the proximity of a human body or water to a sensor electrode 22 is detected by detecting that the voltage signal has reached less than or equal to a second lower-limit threshold value Vth21.

Abstract: A numerical controller includes a storage area for storing startable start-up settings and a database for storing start-up setting values that inhibit the completion of a start-up. If a start-up has been completed at the time of start-up, current start-up settings are stored in the storage area as startable settings. If the start-up has not been completed, start-up setting values that inhibit the completion are registered in the database, the current settings are reconstructed to startable settings, and the numerical controller is restarted. After start-up settings are changed, the database is searched. If the same start-up settings as the changed start-up setting are found, the found start-up settings are outputted.

Abstract: Where: the resonance frequency of an LCR resonance circuit 20 is f1 and the determination voltage signal is V1, when an object is not in the proximity of a sensor electrode 22; the resonance frequency of the LCR resonance circuit 20 is f2 and the determination voltage signal is V2, when a human body is in proximity of the sensor electrode 22; and the resonance frequency of the LCR resonance circuit 20 is f3 and the determination voltage signal is V3, when water is in the proximity of the sensor electrode 22, having the relationship f1>f2>f3, a control unit 42 controls a high-frequency signal S0 so as to satisfy the relationship V2>V1>V3, and a human body or water being in the proximity of the sensor electrode 22 is distinguished.