Abstract: A conductive layer structure includes a first conductive layer and a second conductive layer that is electrically coupled to the first conductive layer with an adhesion layer interposed. The adhesion layer has conductivity and has a higher adhesiveness to each of the first conductive layer and the second conductive layer than adhesiveness between the first conductive layer and the second conductive layer. The second conductive layer is less likely to deteriorate than the adhesion layer, and covers an end surface and an upper surface of the adhesion layer while covering a portion of the first conductive layer.

Abstract: Provided is a semiconductor device capable of reducing switching loss at turn-off while suppressing conduction loss. An emitter p? layer 11, a collector p layer 23, a drift layer 10, an emitter electrode 18, a collector electrode 28, an emitter-side gate electrode 17, an emitter n layer 12, a collector p? layer 23a, a collector-side gate electrode 27, and a collector n layer 22 configure a semiconductor device 1, and a total length of a first facing region of the emitter-side gate electrode 17 in a gate width direction facing an emitter layer p? 11 via a gate insulating film 15 is longer than the total length in the gate width direction of a second facing region of a collector-side gate electrode 27 facing an impurity layer 23a via a collector-side gate insulating film 25.

Abstract: A sliding spline shaft device of the present invention includes a male spline and a female spline that is fitted to the male spline in an axially slidable manner, and at least one of the splines has a surface processed layer. The surface processed layer includes an undercoat layer, an intermediate layer containing phosphate, and a topcoat layer containing solid lubricant, in this order. The undercoat layer contains iron nitride and/or iron carbide. Thus, the surface of a base material has high hardness. As a result, microscopic deformation of the sliding surface is reduced, and increase in a real contact area is suppressed, whereby stick-slip is prevented.

Abstract: In one embodiment, the present invention provides a method for a plurality of cells comprising screening of a part of the cells without subculturing all of the cells and selecting a part of the cells based on the results. In one embodiment, the present invention relates to a method of producing a culture cell, comprising the steps of: a) culturing a plurality of animal cells or plant cells in a culture vessel by adherent culture or on a semisolid medium to form a plurality of colonies each of which is derived from a single cell; b) detecting a sequence of one or more base(s) in a nucleic acid for a part of said plurality of colonies by a nucleic acid or protein detection method, during which said plurality of colonies are cultured in a culture vessel; and c) selecting and collecting said part of the colonies based on the results of said detection method.

Abstract: A sliding spline shaft device of the present invention includes a male spline and a female spline that is fitted to the male spline in an axially slidable manner, and at least one of the splines has a surface processed layer. The surface processed layer includes an undercoat layer, an intermediate layer containing phosphate, and a topcoat layer containing solid lubricant, in this order. The undercoat layer contains iron nitride and/or iron carbide. Thus, the surface of a base material has high hardness. As a result, microscopic deformation of the sliding surface is reduced, and increase in a real contact area is suppressed, whereby stick-slip is prevented.

Abstract: An information processing method includes, by an information processing device, acquiring a snapshot of data stored in a main storage device of the information processing device in a state where an external device is not authenticated yet, after the information processing device is powered ON; performing first authentication in which the information processing device authenticates the external device after the snapshot is stored in an auxiliary storage device of the information processing device; and performing second authentication in which the information processing device is started up using the snapshot and authenticates the external device after the information processing device is powered ON again.

Abstract: A test method for a first module that is performed by an information processing device includes integrating a second module or a test module that performs the same response as the second module to the first module, performing an integration test on a module group including at least the first module, and outputting any one of a result of an integration test for the first module and the second module and a result of an integration test for the first module based on determination data indicating which one of the second module and the test module is integrated to the first module.

Abstract: A microcomputer is provided for each of industrial apparatuses to synchronously control them and includes a CPU, a peripheral module, and a communication interface. The peripheral module controls an external apparatus based on a specified control parameter. The communication interface includes a time register that is synchronized with the other apparatuses in time series. The communication interface issues a CPU interrupt and a peripheral module interrupt to the CPU and the peripheral module, respectively, if a successively settled correction time matches the time register. In response to the peripheral module interrupt, the peripheral module changes the control parameter from a current value to an update value. In response to the CPU interrupt, the CPU starts an update program to calculate the next update value for the control parameter and writes the calculated value to the peripheral module.

Abstract: A blind nut including an internal threaded portion, a hollow tubular portion adjacent to the internal threaded portion, and a flange with hole, formed at the end on the opposite side to the internally threaded portion. The internal threaded portion is inserted into an attaching hole of the attached-to member, a part of the tubular portion is plastically deformed to expand in diameter, and the attached-to member is held between the deformed expanded diameter portion and the flange. The internal threaded portion includes a first straight portion adjacent to the tubular portion, a first tapered portion with an outside diameter gradually decreasing from the first straight portion, a second straight portion with an outside diameter smaller than the first straight portion, a second tapered portion with an outside diameter decreasing from the first straight portion, and a third straight portion with an outside diameter smaller than the second straight portion.

Abstract: A semiconductor device includes a bitwise operation unit and a storage control unit. The bitwise operation unit performs a bitwise operation on first n-bit (n is an integer) data that is storage object data and second data of an n-bit bit pattern and generates third data of a bit pattern that the number of “1s” and the number of “0s” are almost the same as each other. The storage control unit stores the third data into a first storage destination of a storage unit and stores fourth data that is the third data or data that is converted into the third data by performing a bitwise operation that has been predetermined in advance on the data into a second storage destination of the storage unit.

Abstract: A semiconductor device includes a first timer that includes a first counter, a second timer that includes a second counter and a controller that includes a CPU in provision of a technology for efficiently diagnosing a fault of a timer that is built in the semiconductor device such as a microcontroller and so forth. The first timer performs time synchronization with the time of external equipment arranged outside the semiconductor device. The controller compares a count value of the first counter with a count value of the second counter and detects a malfunction of the second timer on the basis of a result of comparison.

Abstract: In a configuration of a method for preventing progression of corrosion in a steel pipe structure according to the present invention, two or more types of liquids 150 are injected, while being mixed, into a steel pipe that constitutes the steel pipe structure, from an opening at one of both ends of the steel pipe, and the inside of the steel pipe is filled with resin foam product (foam product 152) by foam expansion and hardening of the two or more types of liquids.

Abstract: A sensor information collecting apparatus includes: a sensor module including a sensor; a sensor amplifier; an acceleration sensor; a control unit; a power supply unit; an illumination unit; an illumination driver; and a battery, which supplies a battery voltage to the acceleration sensor, the control unit, and the power supply unit, wherein, when an acceleration level is equal to or more than a threshold value for data-storing, the control unit activates the sensor amplifier and controls the memory to store the detection data, and wherein, when the acceleration sensor detects an acceleration level which is less than the threshold value for data-storing and is equal to or more than a threshold value for data-transmitting, the control unit outputs an optical communication signal and the illumination driver controls the illumination unit to emit light, on which the optical communication signal is superimposed.

Abstract: An information processing method includes, by an information processing device, acquiring a snapshot of data stored in a main storage device of the information processing device in a state where an external device is not authenticated yet, after the information processing device is powered ON; performing first authentication in which the information processing device authenticates the external device after the snapshot is stored in an auxiliary storage device of the information processing device; and performing second authentication in which the information processing device is started up using the snapshot and authenticates the external device after the information processing device is powered ON again.

Abstract: A test method for a first module that is performed by an information processing device includes integrating a second module or a test module that performs the same response as the second module to the first module, performing an integration test on a module group including at least the first module, and outputting any one of a result of an integration test for the first module and the second module and a result of an integration test for the first module based on determination data indicating which one of the second module and the test module is integrated to the first module.

Abstract: On part of a surface of a metal sheet that is to be heated by radiant heat transfer with a near-infrared ray, a region where reflectance for a radiant ray is made lower than that of the original surface of the metal sheet is formed. As reflectance reducing treatment, painting or thermal spraying in a blackish color, plating in a blackish color, treatment for increasing roughness of the surface of the metal sheet, blasting, etching, blackening, surface layer quality changing treatment of the metal sheet, or the like can be adopted. The metal sheet is turned into a heated metal sheet partially having a different temperature by being heated by radiant heat transfer, and thereafter, the heated metal sheet is subjected to thermal processing accompanied by cooling, for example, by hot stamping.

Abstract: A microcomputer is provided for each of industrial apparatuses to synchronously control them and includes a CPU, a peripheral module, and a communication interface. The peripheral module controls an external apparatus based on a specified control parameter. The communication interface includes a time register that is synchronized with the other apparatuses in time series. The communication interface issues a CPU interrupt and a peripheral module interrupt to the CPU and the peripheral module, respectively, if a successively settled correction time matches the time register. In response to the peripheral module interrupt, the peripheral module changes the control parameter from a current value to an update value. In response to the CPU interrupt, the CPU starts an update program to calculate the next update value for the control parameter and writes the calculated value to the peripheral module.

Abstract: An engine generator includes a generator body connected to an engine, a converter including rectifiers that convert an output from the generator body to DC current, an inverter that converts an output from the converter to AC current, an input voltage detector that detects an input voltage from the generator body to the converter, and an AC current detector that detects an AC current output from the inverter. An abnormality in the engine generator is determined if a state that a current detected by the AC current detector is not higher than a first threshold value and a duty ratio of a voltage detected by the input voltage detector is not higher than the second threshold value continues for a first predetermined time; or if the current detected by the AC current detector is not higher than a third threshold value and the duty ratio change rate is not higher than a fourth threshold value.

Abstract: A microcomputer is provided for each of industrial apparatuses to synchronously control them and includes a CPU, a peripheral module, and a communication interface. The peripheral module controls an external apparatus based on a specified control parameter. The communication interface includes a time register that is synchronized with the other apparatuses in time series. The communication interface issues a CPU interrupt and a peripheral module interrupt to the CPU and the peripheral module, respectively, if a successively settled correction time matches the time register. In response to the peripheral module interrupt, the peripheral module changes the control parameter from a current value to an update value. In response to the CPU interrupt, the CPU starts an update program to calculate the next update value for the control parameter and writes the calculated value to the peripheral module.

Abstract: A wireless power supply device includes: a power supply coil for wirelessly transmitting electric power to a power receiving device; a driving circuit for outputting pulse electric power to the power supply coil; a first radio module for receiving rectified voltage information regarding rectified voltage generated in the power receiving device via a radio communication path; and a control circuit for generating a driving control signal on the basis of the rectified voltage information received by the first radio module, thereby to control the driving circuit, said control circuit controlling a driving frequency of the driving circuit at a fixed frequency between a series resonant frequency and a parallel resonant frequency of a resonant circuit of the power receiving device.