Abstract: The present invention relates to an operation device which can be easily installed on a vehicle door, and a vehicle door comprising the operation device. An operation device of the present invention comprises: a gripper provided on an inner surface of a door of a vehicle; an operation interface provided on an inner side surface of the gripper for receiving an operation input entered by an occupant to operate at least one in-vehicle device; a first sensor provided on an outer side surface of the gripper for detecting a finger of the occupant; a second sensor provided on at least one of the inner side surface and an upper surface of the gripper for detecting a finger of the occupant; and a controller connected to the operation interface, the first sensor, the second sensor, and the at least one in-vehicle device.

Abstract: An Sm—Fe—N-based magnetic material according to the present disclosure includes a main phase having a predetermined crystal structure. The main phase has a composition represented by a molar ratio formula (Sm(1-x-y-z)LaxCeyR1z)2(Fe(1-p-q-s)CopNiqMs)17Nh (where, R1 is a predetermined rare earth element, M is a predetermined element, and 0?x+y<0.04, 0?z?0.10, 0<p+q?0.10, 0?s?0.10, and 2.9?h?3.1 are satisfied). A lattice volume of the main phase is 0.830 nm3 to 0.840 nm3, and a density of the main phase is 7.70 g/cm3 to 8.00 g/cm3.

Abstract: An inspection device includes a processor configured to calculate an identification index indicating likelihood of each possible state of an object to be inspected regarding a predetermined inspection item by inputting a color image representing the object and a depth image representing the object into a classifier, and determine the state of the object regarding the inspection item, based on the identification index. The classifier calculates a first feature characterizing the object, based on the inputted color image; calculates a second feature characterizing the object, based on the inputted depth image; integrates the first feature and the second feature to calculate an integrated feature; and calculates the identification index, based on the integrated feature.

Abstract: An inspection device includes a processor configured to calculate a first identification index indicating likelihood of each possible state of an object to be inspected regarding a predetermined inspection item by inputting a color image representing the object into a first classifier, the color image being generated by a camera, calculate a second identification index indicating likelihood of each possible state of the object regarding the predetermined inspection item by inputting a depth image representing, for each pixel, the distance to a part of the object represented in the pixel into a second classifier, the depth image being generated by a 3-D camera, and determine the state of the object regarding the inspection item, based on the result of integration of the first identification index and the second identification index.

Abstract: A device for predicting power consumption in a predetermined target area includes: an attribute specifying unit for specifying an attribute of a person within the predetermined target area; and a prediction unit for calculating a predicted power consumption in the target area based on the specified attribute such that the predicted power consumption in the target area differs when the attribute of the person differs.

Abstract: A data collection device collects data from a data acquisition device for acquiring data relating to a person located within a predetermined target area. The data collection device includes a processor for: determining whether data acquired by the data acquisition device is data relating to a resident within the target area; and controlling transmission of data from the data acquisition device to the data collection device. The processor causes the data acquisition device to transmit data of parameters that are at least partially different between a case where data acquired by the data acquisition device relates to a resident and a case where data acquired by the data acquisition device does not relate to a resident.

Abstract: A data collection system has a data acquisition device located in a predetermined target area and a data collection device communicable with the data acquisition device, and collects data necessary for use or training of a machine learning model from the data acquisition device to the data collection device. The data collection system includes a processor configured to: determine whether a collection promotion condition is satisfied; and control data transmission. The processor controls data transmission from the data acquisition device to the data collection device so that an amount of data transmission per unit time is larger when it is determined that the collection promotion condition is satisfied, compared to when it is determined that the collection promotion condition is not satisfied.

Abstract: A data collection system collects data, for training of a machine learning model for classifying into a plurality of classes, from a data acquisition device to a data collection device. The system includes a processor configured to specify an occurrence probability of occurrence of a low occurrence class for each condition; set a target transmission amount per unit time; specify a current condition; and transmit data from the data acquisition device to the data collection device, in accordance with a target transmission amount corresponding to the specified current condition. The amount of data transmission is larger in a condition having a relatively higher occurrence probability of the low occurrence class, compared to a condition having a relatively lower occurrence probability of occurrence of the low occurrence class.

Abstract: A data collection apparatus collects data used for a process, based on image data representing a group of consecutive images received from an imaging device. A processor of the data collection apparatus is configured to: control transmission of image data to the data collection apparatus; detect an object included in each image of an image group represented by the image data; track a detected object between consecutive images; store object image data relating to each object tracked; and calculate a number of objects included in an image represented by the image data. The control of transmission of the image data or the detection of the objects is performed such that an amount of data per unit number of objects is smaller when the calculated number of objects is relatively larger, as compared to when the number is relatively smaller.

Abstract: A processor of a control device of a server for machine learning a plurality of models with different output parameters, comprising a receiving part for receiving information from a plurality of equipment connected to be able to communicate, a learning use data set preparing part for using information which the receiving part receives to prepare a learning use data set for each model, and a learning part for machine learning with priority a model with a high priority order in models for which the number of data sets required for learning have been prepared based on the priority orders of learning among models if the number of data sets required for learning have been prepared for a plurality of models.

Abstract: A thermal transfer printer according to the present invention includes a printing section that thermally transfers an ink of an ink sheet to printing paper for performing printing and a slitter section that cuts, in a paper transport direction, the printing paper after the printing by the printing section. The printing section includes a thermal head and a platen roller pressed against the thermal head. The slitter section is capable of adjusting a cutting position for cutting the printing paper.

Abstract: A thermal printer of the present invention includes: a thermal head; a platen roller disposed to face the thermal head; a first path that guides a recording paper drawn from a recording paper roll to one entrance of a gap between the thermal head and the platen roller such that a first main surface of the recording paper is on the thermal head side; a second path that guides the recording paper drawn from the recording paper roll to the other entrance of the gap between the thermal head and the platen roller such that a second main surface of the recording paper is on the thermal head side; and a switch guide that switches between the first path and the second path.

Abstract: A thermal printer of the present invention includes: a thermal head; a platen roller disposed to face the thermal head; a first path that guides a recording paper drawn from a recording paper roll to one entrance of a gap between the thermal head and the platen roller such that a first main surface of the recording paper is on the thermal head side; a second path that guides the recording paper drawn from the recording paper roll to the other entrance of the gap between the thermal head and the platen roller such that a second main surface of the recording paper is on the thermal head side; and a switch guide that switches between the first path and the second path.

Abstract: A thermal transfer printer according to the present invention includes a printing section that thermally transfers an ink of an ink sheet to printing paper for performing printing and a slitter section that cuts, in a paper transport direction, the printing paper after the printing by the printing section. The printing section includes a thermal head and a platen roller pressed against the thermal head. The slitter section is capable of adjusting a cutting position for cutting the printing paper.

Abstract: A solar cell module is disclosed. The solar cell module includes a solar cell panel, first and second holding members, a reinforcing member. The panel includes a light-receiving surface, a non-light receiving surface, a first side part and a second side part. The first and second holding members hold the first and second side parts respectively. The reinforcing member is laid across the first and second holding member on a non-light receiving surface side. The adhesive is disposed between the non-light receiving surface and the reinforcing member. The reinforcing member includes a supporting part that is disposed with a gap with the non-light receiving surface and that supports the non-light receiving surface via the adhesive. The supporting part includes a first main surface, a second main surface and a through hole. At least one part of the adhesive is located within the through hole.

Abstract: An external power source is connected to an adapter input terminal (first terminal). A battery is connected to a path input terminal (second terminal). A selection circuit (a first switch, a second switch, logic circuit compares the input voltage input from the external power supply with the battery voltage, and selects one of the two. The voltage thus selected by the selection circuit is output to an external load circuit via a system power supply terminal. A charging circuit charges the battery using the input voltage supplied from the external power supply.

Abstract: A solar cell module is disclosed. The solar cell module includes a solar cell panel, first and second holding members, a reinforcing member. The panel includes a light-receiving surface, a non-light receiving surface, a first side part and a second side part. The first and second holding members hold the first and second side parts respectively. The reinforcing member is laid across the first and second holding member on a non-light receiving surface side. The adhesive is disposed between the non-light receiving surface and the reinforcing member. The reinforcing member includes a supporting part that is disposed with a gap with the non-light receiving surface and that supports the non-light receiving surface via the adhesive. The supporting part includes a first main surface, a second main surface and a through hole. At least one part of the adhesive is located within the through hole.

Abstract: A printing device provided with a conveyer roller pair for holding sheet paper drawn out from a recording paper roll to feed the sheet paper forward or backward. The device includes a feeding roller pair disposed between the recording paper roll and the conveyer roller pair for drawing out the recording paper and feeding it to the conveyer roller pair and a color recording unit disposed downstream of the conveyer roller pair in the direction of conveyance of the recording paper for recording a color image on the recording paper that is being moved backward. A guide unit with pivotable guide member is disposed between the feeding roller pair and the conveyer roller pair for bending and guides the recording paper in an arc-shape at an acute angle. A reservation space is provided outside of the arc-shaped recording paper guiding path for accommodating the sagged recording paper therein.

Abstract: A start-up circuit receives a start-up signal instructing start-up of an equipment mounted with the circuit, and executes a predetermined sequence when start-up is instructed by the start-up signal. An oscillator generates a clock signal. A sequence circuit receives the start-up signal and a clock signal output from the oscillator, measures time by counting the clock signal when the start-up signal transits to a predetermined level, and executes a predetermined event at a predetermined timing. The oscillator operates for a period where the start-up signal is at the predetermined level if the start-up signal is at the predetermined level during the period the power key of the equipment mounted with the circuit is being pushed.

Abstract: A start-up circuit receives a start-up signal instructing start-up of an equipment mounted with the circuit, and executes a predetermined sequence when start-up is instructed by the start-up signal. An oscillator generates a clock signal. A sequence circuit receives the start-up signal and a clock signal output from the oscillator, measures time by counting the clock signal when the start-up signal transits to a predetermined level, and executes a predetermined event at a predetermined timing. The oscillator operates for a period where the start-up signal is at the predetermined level if the start-up signal is at the predetermined level during the period the power key of the equipment mounted with the circuit is being pushed.