Abstract: An electric machine system includes an electric machine, an electric power converter, and a control unit. The electric machine includes a stator that includes coils, and a rotator that includes a magnet and is rotatable with respect to the stator. The electric power converter inputs electric power with respect to the coils of the electric machine. The control unit controls the electric power converter. The control unit includes an output unit and a correction unit. The output unit outputs a control signal for operating the electric power converter to the electric power converter. The correction unit corrects a phase of the control signal that determines input timing of the electric power with respect to the coils of the electric machine. The correction unit corrects the phase so that the magnitude of the electric power approaches an extreme value.

Abstract: The supported portions of the substrate are positioned offset from the center of the substrate in the vertical direction; adjacent intermediate bodies are provided in orientations vertically inverted relative to each other and every two supported portions are positioned so as to differ by a predetermined dimension P in the vertical direction; the lower lateral walls of the housing have formed therein, in an alternating manner, first lower supporting portions and second lower supporting portions positioned so as to differ by the predetermined dimension P in the vertical direction; the first lower supporting portions protrude upwardly of the second lower supporting portions and support from below the supported portions of the intermediate bodies in which the supported portions are positioned with an upward offset; and the second lower supporting portions support from below the supported portions of the intermediate bodies in which the supported portions are positioned with a downward offset.

Abstract: The intermediate circuit board has a plate-shaped substrate and a plurality of signal transmission line pairs for differential signal transmission extending on a major face of the substrate from one end to the other end of the substrate in the direction of connection to the counterpart connect bodies; the substrate has a fiber cloth formed by braiding a plurality of fibers used to reinforce the substrate in a mesh pattern and a plate-like member made of plastic having the fiber cloth embedded therein; the plurality of signal transmission line pairs have straight pairs and cross pairs disposed in an alternating manner in the width direction of the substrate; and the straight pairs and cross pairs, when viewed in the through-thickness direction of the substrate, are formed extending inclined at an angle relative to the fibers of the fiber cloth.

Abstract: The first board connector 2, at the opposite ends in the connector width direction, has fittings 80 that extend in the connector length direction perpendicular to both the connector width direction and the vertical direction; the fittings 80 have resilient pieces 83 that extend upwardly and are resiliently deformable in the connector width direction; the resilient pieces 83, in the top end portions thereof, have locking portions 83B that protrude outwardly in the connector width direction; the intermediate connector 1 has a housing 20 capable of receiving the first board connector 2 from below; the housing 20 has lateral walls 22 that extend in the connector length direction at the opposite ends in the connector width direction; and the lateral walls 22 have lockable portions 22C-1 lockingly engageable with the locking portions 83B from below at locations corresponding to the resilient pieces 83 in the connector length direction.

Abstract: A video processing device includes a foreground region estimation unit that determines whether a pixel of an input image is a foreground or a background, and a blinking correction unit that determines, for a target pixel on which a foreground and a background have been switched, whether switching between the foreground and the background is a color change in the foreground or in the background by using a lookup table capable of determining whether switching is in the foreground or in the background from a temporal change of a pixel value, and corrects a result of determination as to whether it is the foreground or the background that has been performed for the target pixel in a case where the switching between the foreground and the background is the color change in the foreground or in the background.

Abstract: A control device for a power machine includes a target circuit pressure specifying unit configured to specify a target circuit pressure of the hydrostatic continuously variable transmission, a measurement value acquisition unit configured to acquire an actual circuit pressure of the hydrostatic continuously variable transmission, a brake torque determination unit configured to determine a brake torque based on the target circuit pressure and the actual circuit pressure, and a pump control unit configured to control the hydraulic pump based on the brake torque. The brake torque is a torque consumed by the hydraulic pump.

Abstract: An information processing device includes an extraction unit, an inverse sampling unit, a mapping unit, a generation unit, and a correction unit. The extraction unit is to extract a first feature value of a first image. The inverse sampling unit is to generate a second image having a resolution lower than that of the first image based on the first image and first information indicating a lighting environment different from that of the first image. The mapping unit generates a vector representing a latent space based on the second image. The generation unit is configured to generate a second feature value of a third image having a resolution higher than that of the second image based on the vector. The correction unit is configured to generate a fourth image obtained by correcting the third image based on the first feature value and the second feature value.

Abstract: A thermally conductive silicone composition including: (A) an organopolysiloxane represented by the following general formula (1) having a kinematic viscosity at 25° C. of 10 to 10,000 mm2/s, (B) an organopolysiloxane other than the component (A), represented by the following general formula (2) and having a kinematic viscosity at 25° C. of 1,000 to 100,000 mm2/s, (C) an organosilane represented by the following general formula (3), and (D) a thermally conductive filler having a thermal conductivity of 10 W/m·° C. or more. A thermally conductive silicone composition which does not cause a thickening phenomenon during preservation and has excellent shift resistance is provided.

Abstract: Provided is a wireless LAN system in which an interference control signal transmitter that is provided in the surroundings of the wireless LAN base station and the wireless LAN terminal, and is configured to collect wireless environment information regarding the interfering AP/STA, and transmit, to the interfering AP/STA, an interference control signal that is to be used to set a transmission waiting period; and an interference control signal management device configured to collect the wireless environment information from the interference control signal transmitter, determine the interference control signal transmitter whose communication area includes the interfering AP/STA based on the wireless environment information, and control the determined interference control signal transmitter to transmit the interference control signal to be used to set the transmission waiting period that corresponds to a length of time of the communication between the wireless LAN base station and the wireless LAN terminal, wher

Abstract: A distance measuring device includes: a light source configured to project pulsed light; a light receiver configured to receive reflected light; a distance measurement controller configured to select, for distance measurement, one of distance measurement sections set in accordance with distances, and control operation times of the light source and the light receiver in accordance with the selected one of the distance measurement sections; and a distance image generator configured to generate a section image from a signal output from the light receiver, and combine section images corresponding to the distance measurement sections to generate a distance image. The distance measurement controller includes a random number generator configured to generate random number data for selecting one of the distance measurement sections randomly.

Abstract: A voltage control system has a light receiving array part receiving incident light and a light shielding array part shielding light receiving elements from incident light by a light shielding mechanism. The voltage control system also includes: a voltage application unit applying a bias voltage to an anode terminal; a multiplication state determination unit determining the multiplication state of the light shielding array part based on output signals from cathodes of the light receiving elements in the light shielding array part; and a voltage setting unit performing voltage setting for the bias voltage to be output from the voltage application unit based on the determination results from the multiplication state determination unit.

Abstract: In an object information generation system, an imaging unit is configured to capture a plurality of segment images respectively corresponding to a plurality of distance segments dividing a target space. In a signal processor, the object region extraction unit extracts, from a plurality of segment images, an object region that is a pixel region including an image of the object. An object information generation unit determines, for the object region, a window in which calculation-target pixels are cut out, and generates distance information of the object by calculation using information of a plurality of pixels in the window for two or more segment images.

Abstract: A dehumidifying element includes: a layered body in which a plurality of sheets supporting an adsorbent that dehumidifies air are stacked on one another, with gaps provided between adjacent ones of the plurality of sheets, the gaps allowing air to pass therethrough; a casing that holds the layered body; and a cushioning member provided between the casing and the layered body in a stacking direction in which the plurality of sheets are stacked on one another, the cushioning member being configured to expand and contract.

Abstract: [Problem] To provide an electrical connector capable of adequately ensuring a stable state of electrical communication between ground members.

Abstract: An imaging device including a semiconductor substrate that includes a first impurity region; a photoelectric converter that is coupled to the first impurity region and that converts light into charges; a capacitor that includes a first terminal and a second terminal, the first terminal coupled to the first impurity region; voltage supply circuitry coupled to the second terminal; a first transistor including the first impurity region as a source or a drain; and control circuitry. The control circuitry is programmed to cause the voltage supply circuitry to supply a first voltage in a first period, and to cause the voltage supply circuitry to supply a second voltage different from the first voltage in a second period continuous to the first period, the first transistor being in on-state in the first period, the first transistor being in off-state in the second period.

Abstract: An imaging device including: a semiconductor substrate having a first surface and a second surface opposite to the first surface; a microlens located closer to the first surface than to the second surface; and a first photoelectric converter located between the first surface and the microlens. The first photoelectric converter includes a first electrode, a second electrode, and a photoelectric conversion layer that is located between the first electrode and the second electrode and that converts light into electric charges. The first photoelectric converter is the closest of any photoelectric converter existing between the first surface and the microlens to the first surface. The imaging device includes no photodiode as a photoelectric converter, and a focal point of the microlens is located below a lowermost surface of the photoelectric conversion layer.

Abstract: An imaging device includes a first electrode, a second electrode, a photoelectric conversion layer, and a charge storage region. The photoelectric conversion layer is located between the first electrode and the second electrode. The charge storage region is electrically connected to the first electrode. An area of the charge storage region in plan view is smaller than or equal to 0.01 µm2.

Abstract: A dehumidifying element includes: a layered body in which a plurality of sheets supporting an adsorbent that dehumidifies air are stacked on one another, with gaps provided between adjacent ones of the plurality of sheets, the gaps allowing air to pass therethrough; a casing that holds the layered body; and a cushioning member provided between the casing and the layered body in a stacking direction in which the plurality of sheets are stacked on one another, the cushioning member being configured to expand and contract.

Abstract: A dehumidifying element includes a plurality of sheets that have moisture adsorption and desorption properties and that are stacked on top of each another. At least some of the sheets each have an irregular shape. The sheets each contain a hygroscopic agent having properties of a re-moistening-type glue that exhibits adherence when adsorbing moisture and that solidifies when being dried. The sheets are bonded to each other by the hygroscopic agent.

Abstract: An imaging device including: a semiconductor substrate having a first and second surface opposite to the first surface; a microlens located closer to the first surface than the second surface; a first photoelectric converter located between the first surface and the microlens, where the first photoelectric converter includes a first electrode, a second electrode, and a photoelectric conversion layer that is located between the first electrode and the second electrode and that converts light into electric charges; and a signal detecting section located in the semiconductor substrate, the signal detecting section being configured to output a signal corresponding to the electric charges. The first photoelectric converter is the closest of any photoelectric converter existing between the first surface and the microlens to the first surface, and a focal point of the microlens is located below a lowermost surface of the photoelectric conversion layer and above the signal detecting section.