Abstract: A radiation detection apparatus includes a plurality of sensor units each including a semiconductor layer that converts radiation into a charge, a first surface located on a radiation incident side, and a second surface located on an opposite side to the first surface, a support member, an elastic member located between the second surface of each of the plurality of sensor units and the support member, and a substrate that covers the first surface of each of the plurality of sensor units. The elastic member presses each of the plurality of sensor units toward the substrate.

Abstract: An electrochromic element including: a first electrode; a second electrode disposed to face the first electrode with a gap between the first electrode and the second electrode; a first electrochromic layer disposed on or above the first electrode, including conductor or semiconductor nano-structures and an electrochromic compound; and an electrolyte layer including an electrolyte, disposed between the first electrochromic layer and the second electrode, wherein the electrochromic compound is a compound represented by General Formula 1, and an anion of the electrolyte is a monovalent anion having oxidation potential higher than reduction potential of a dication of General Formula 1 by 3.1 V or greater, where X? is a monovalent anion having oxidation potential higher than reduction potential of the dication of General Formula 1 by 3.

Abstract: A predetermined STA includes a station information collection unit collecting from the STA itself and other STAs station information used for selection of STAs performing simultaneous transmission and for control of the simultaneous transmission, and a simultaneous-transmission request unit knowing occurrence of a QoS data frame based on the station information and transmitting a request frame requesting the simultaneous transmission to an AP. The AP includes a station information collection unit; a simultaneous-transmission determination unit selecting a combination of the STAs performing the simultaneous transmission based on the station information by reception of the request frame; and a trigger transmission unit transmitting to each of the STAs performing the simultaneous transmission a trigger frame instructing to performs the simultaneous transmission and including information necessary for controlling the simultaneous transmission.

Abstract: A vehicle body structure provided on a vehicle includes a floor pan and a bracket. On an upper surface of the floor pan, a cushion of a seat on which an occupant of the vehicle is to be seated is to be disposed. A bracket is disposed on an outer end side of a seating position for the occupant in a vehicle width direction of the vehicle on the upper surface of the floor pan, and includes at least one protruding portion protruding upward and extending in a front-rear direction.

Abstract: A format that includes a BSSID of a transmitting station within a preamble of the frame is an HE format, and a format that does not include a BSSID within the preamble but includes a BSSID in a MAC header is a Non-HE format; and a wireless station in the BSS includes a control part which checks a format of a frame received at a predetermined receiver sensitivity or above, and continues demodulation of the received frame if the format is HE format and the BSSID in the received frame is consistent with its own BSS, and stops the demodulation of the received frame if the HE format and the BSSID in the received frame is not consistent with its own BSS.

Abstract: A radiation detector manufacturing method is provided. The method includes: preparing a structure including a support base, a flexible base member arranged on the support base and having a principal surface including a pixel region in which a plurality of pixels are arranged, a scintillator arranged so as to cover the pixel region, and a protective layer arranged so as to cover the scintillator; and removing the support base from the flexible base member. The principal surface includes a peripheral region not covered with the protective layer. The method further includes, before the removing, arranging a reinforcing member in contact with the peripheral region, in a position overlapping the peripheral region and not overlapping the scintillator, in orthogonal projection to the principal surface.

Abstract: A cover member includes: a sheath that is formed in a cylindrical shape for receiving a shaft; and a tubular portion that is attached to a distal end of the sheath. The tubular portion being formed such that an outer dimension of a distal end portion of the tubular portion in a first direction is smaller than an outer dimension of a proximal end portion of the tubular portion in the first direction and/or an outer dimension of the distal end portion in a second direction is smaller than an outer dimension of the proximal end portion in the second direction.

Abstract: A radiological imaging apparatus includes a first panel where a plurality of radiation detecting elements are arrayed on a first substrate, a second panel where a plurality of radiation detecting elements are arrayed on a second substrate, and a sheet-shaped adhesion part configured to adhere a second-panel side face of the first panel and a first-panel side face of the second panel to each other, so that the first panel and the second panel are overlaid on each other in planar view as to an upper face of the first substrate. The adhesion part is configured to maintain adhesion of the first panel and the second panel, while tolerating change in relative positions thereof in a planar direction parallel to the upper face of the first substrate.

Abstract: A vehicle display control device is configured to perform operations including: performing processing for hindering visual recognition of an occupant of a vehicle on a captured image captured by an image-capturing device; generating a display image; acquiring information indicating a state of the vehicle and information regarding a surrounding environment of the vehicle; and determining whether the vehicle is in a first condition. In a case where it is determined that the vehicle is in the first condition, a display image obtained by prohibiting application of the processing to the captured image or by reducing an application degree of the processing is generated, and is displayed by the display device.

Abstract: A method of manufacturing a radiation imaging apparatus includes electrically connecting a first surface of a flexible insulating layer to a conductive portion of a circuit substrate, covering an exposed portion of the conductive portion with a protection layer, and separating the flexible insulating layer from a substrate in contact with a second surface of the flexible insulating layer. The circuit substrate includes an integrated circuit mounted on the circuit substrate. The flexible insulating layer includes, on the first surface, a plurality of pixels arranged in a two-dimensional matrix to convert radiation into an electrical signal. The second surface of the flexible insulating layer is opposite to the first surface of the flexible insulating layer. The flexible insulating layer is separated from the substrate by irradiating the second surface with light transmitting through the substrate.

Abstract: A vehicle display control device is configured to perform operations including: performing processing for hindering visual recognition of an occupant of a vehicle on a captured image captured by an image-capturing device; generating a display image; acquiring information indicating a state of the vehicle and information regarding a surrounding environment of the vehicle; and determining whether the vehicle is in a first condition. In a case where it is determined that the vehicle is in the first condition, a display image obtained by prohibiting application of the processing to the captured image or by reducing an application degree of the processing is generated, and is displayed by the display device.

Abstract: A display control device generates a display image including an image obtained by reducing a predetermined range in a captured image based on an image captured by an image capturing device, and causes the display device to display the display image. In an adjustment mode, the display control device generates a computer graphics (CG) for allowing a user to set a range included in the display image and causes the display device to display the computer graphics. The CG indicates a range displayed in a reduced state and a range displayed without being reduced in a range included in the display image in different aspects.

Abstract: A radiation detector (1a), which is configured to suitably separate information of a low energy component and information of a high energy component of radiation, includes: a sensor panel (2), which includes a plurality of first photoelectric conversion element portions (23) and second photoelectric conversion element portions (24), which are arranged two-dimensionally; a first scintillator (31) arranged to overlap one surface of the sensor panel (2); a second scintillator (32) arranged to overlap a surface on a side opposite to the one surface of the sensor panel (2); and a light shielding portion (26) arranged outside an effective pixel region (22), in which the plurality of the plurality of first photoelectric conversion element portions (23) and second photoelectric conversion element portions (24) are arranged, and between the first scintillator (31) and the second scintillator (32).

Abstract: A radiation detector (1a), which is configured to suitably separate information of a low energy component and information of a high energy component of radiation, includes: a sensor panel (2), which includes a plurality of first photoelectric conversion element portions (23) and second photoelectric conversion element portions (24), which are arranged two-dimensionally; a first scintillator (31) arranged to overlap one surface of the sensor panel (2); a second scintillator (32) arranged to overlap a surface on a side opposite to the one surface of the sensor panel (2); and a light shielding portion (26) arranged outside an effective pixel region (22), in which the plurality of the plurality of first photoelectric conversion element portions (23) and second photoelectric conversion element portions (24) are arranged, and between the first scintillator (31) and the second scintillator (32).

Abstract: With a method of cutting a tube glass (G1) according to the present invention, the tube glass (G1) is irradiated with laser light (L) having a focal point (F) adjusted to an inside of the tube glass (G1), to thereby form an inner crack region (C1) including one or more cracks in a portion of the tube glass (G1) in a circumferential direction of the tube glass (G1) through multiphoton absorption that occurs in an irradiation region of the laser light (L). Then, in the tube glass (G1), there is generated a stress that urges the one or more cracks in the inner crack region (C1) to propagate in the circumferential direction of the tube glass (G1) to cause the one or more cracks to propagate throughout an entire circumference of the tube glass (G1), to thereby cut the tube glass (G1).

Abstract: A parking control device includes a controller and a notification unit. The controller executes a parking assistance control for making a vehicle travel from a drop-off position of an occupant of the vehicle to a parking space that is preliminarily determined and making the vehicle be parked in the parking space by automated driving. The controller ceases the parking assistance control in a case where an obstacle is present on a traveling route of the vehicle including the parking space. The notification unit provides a notification that the parking assistance control is stopped. The notification unit transmits information indicating that the parking assistance control is ceased to a device having identification information preliminarily associated with identification information of the vehicle.

Abstract: A radiological imaging apparatus includes a first panel where a plurality of radiation detecting elements are arrayed on a first substrate, a second panel where a plurality of radiation detecting elements are arrayed on a second substrate, and a sheet-shaped adhesion part configured to adhere a second-panel side face of the first panel and a first-panel side face of the second panel to each other, so that the first panel and the second panel are overlaid on each other in planar view as to an upper face of the first substrate. The adhesion part is configured to maintain adhesion of the first panel and the second panel, while tolerating change in relative positions thereof in a planar direction parallel to the upper face of the first substrate.

Abstract: A display control device generates a display image including an image obtained by reducing a predetermined range in a captured image based on an image captured by an image capturing device, and causes the display device to display the display image. In an adjustment mode, the display control device generates a computer graphics (CG) for allowing a user to set a range included in the display image and causes the display device to display the computer graphics. The CG indicates a range displayed in a reduced state and a range displayed without being reduced in a range included in the display image in different aspects.

Abstract: This intermediate grasping tool of a charging cable is mounted on a charging cable that extends from a charging stand, is provided with a cylindrical part which is hung on a hook provided on the charging stand and which is formed such that the charging cable passes through said cylindrical part, and is also provided with a gripping part which extends from the cylindrical part and is grasped. By means of such a configuration, charging operations can be performed while grasping the intermediate grasping tool of the charging cable with the hand that is not grasping the charging connector. In this way, the operability during charging can be improved.

Abstract: With a method of cutting a tube glass (G1) according to the present invention, the tube glass (G1) is irradiated with laser light (L) having a focal point (F) adjusted to an inside of the tube glass (G1), to thereby form an inner crack region (C1) including one or more cracks in a portion of the tube glass (G1) in a circumferential direction of the tube glass (G1) through multiphoton absorption that occurs in an irradiation region of the laser light (L). Then, in the tube glass (G1), there is generated a stress that urges the one or more cracks in the inner crack region (C1) to propagate in the circumferential direction of the tube glass (G1) to cause the one or more cracks to propagate throughout an entire circumference of the tube glass (G1), to thereby cut the tube glass (G1).