Abstract: A console of a mobile radiography apparatus includes a CPU that acquires a fluoroscopic image captured by a radiation detector and a visible light image captured by a visible light camera as a moving image related to the capture of the fluoroscopic image of a subject by the mobile radiography apparatus. The CPU extracts a frame to be subjected to a support process, which is a diagnosis support process or an imaging support process, from the moving image. A GPU executes the support process for the extracted frame.

Abstract: The radiography apparatus is driven by power supplied from the battery. In the radiography apparatus, a radiation source that emits radiation to a subject, a radiation detector that receives the radiation transmitted through the subject and outputs a radiographic image, and an image processing device that performs image processing on the radiographic image are integrated. A CPU of the image processing device acquires a remaining level of the battery. The CPU performs control to operate both a first processing block that performs a noise suppression process and a visibility improvement process as first image processing and a second processing block that performs a density correction process as second image processing in a case in which the remaining level of the battery is equal to or greater than a threshold value.

Abstract: A CPU and an FPGA of the imaging control device receive first identification information and a preparation completion signal indicating that preparation for receiving radiation has been completed from a radiation detector and transmit the first identification information and irradiation conditions of the radiation associated with the first identification information to a radiation generation unit. Then, the CPU and the FPGA receive, from the radiation generation unit, second identification information copied from the first identification information by the radiation generation unit in a case in which irradiation with radiation has succeeded. Then, the CPU and the FPGA collate the first identification information and the second identification information, and determine whether or not to perform automatic brightness control, which sets a brightness level of the radiographic image to a prescribed level and updates the irradiation conditions on the basis of the radiographic image, according to a collation result.

Abstract: A CPU and an FPGA of the imaging control device receive first identification information and a preparation completion signal indicating that preparation for receiving radiation has been completed from a radiation detector and transmit the first identification information and irradiation conditions of the radiation associated with the first identification information to a radiation generation unit. Then, the CPU and the FPGA receive, from the radiation generation unit, second identification information copied from the first identification information by the radiation generation unit in a case in which irradiation with radiation has succeeded. Then, the CPU and the FPGA collate the first identification information and the second identification information, and determine whether or not to perform automatic brightness control, which sets a brightness level of the radiographic image to a prescribed level and updates the irradiation conditions on the basis of the radiographic image, according to a collation result.

Abstract: The radiography apparatus is driven by power supplied from the battery. In the radiography apparatus, a radiation source that emits radiation to a subject, a radiation detector that receives the radiation transmitted through the subject and outputs a radiographic image, and an image processing device that performs image processing on the radiographic image are integrated. A CPU of the image processing device acquires a remaining level of the battery. The CPU performs control to operate both a first processing block that performs a noise suppression process and a visibility improvement process as first image processing and a second processing block that performs a density correction process as second image processing in a case in which the remaining level of the battery is equal to or greater than a threshold value.

Abstract: A vehicle lower portion structure has an internal combustion engine that is disposed on one side in a vehicle width direction in a power unit compartment, an inverter that is disposed on another side in the vehicle width direction in the power unit compartment, an exhaust pipe that extends in a vehicle front-rear direction through a dash panel separating the power unit compartment from a vehicle cabin, and is disposed within a floor tunnel that is provided in a central portion in the vehicle width direction at least at a position of the dash panel, and whose one end portion is connected to the internal combustion engine, a battery that is provided on a vehicle rear side of the dash panel, high-voltage power cables that extend in the vehicle front-rear direction on another side in the vehicle width direction and connect the inverter and the battery together.

Abstract: A vehicle lower portion structure has an internal combustion engine that is disposed on one side in a vehicle width direction in a power unit compartment, an inverter that is disposed on another side in the vehicle width direction in the power unit compartment, an exhaust pipe that extends in a vehicle front-rear direction through a dash panel separating the power unit compartment from a vehicle cabin, and is disposed within a floor tunnel that is provided in a central portion in the vehicle width direction at least at a position of the dash panel, and whose one end portion is connected to the internal combustion engine, a battery that is provided on a vehicle rear side of the dash panel, high-voltage power cables that extend in the vehicle front-rear direction on another side in the vehicle width direction and connect the inverter and the battery together.

Abstract: A vehicle body structure includes a floor fabricated of resin, a pillar fabricated of resin, and a connecting member. The floor is disposed at a vehicle body lower side. The pillar is disposed so as to extend in a vehicle body up-and-down direction at a vehicle width direction outer side of the floor. The connecting member connects the pillar with the floor, and is constituted of a material with higher ductility than the pillar and the floor. Thus, a withstand load strength of a joining portion between the pillar and the floor is assured.

Abstract: A vehicle body structure includes a floor fabricated of resin, a pillar fabricated of resin, and a connecting member. The floor is disposed at a vehicle body lower side. The pillar is disposed so as to extend in a vehicle body up-and-down direction at a vehicle width direction outer side of the floor. The connecting member connects the pillar with the floor, and is constituted of a material with higher ductility than the pillar and the floor. Thus, a withstand load strength of a joining portion between the pillar and the floor is assured.

Abstract: A side impact load transmitting structure includes: a vehicular seat disposed in a cabin; a tunnel portion that is disposed such that it protrudes upward into the cabin and extends in a front-rear direction of a vehicle body; a load transmitting member including a load receiving portion that is disposed at the underside of the vehicular seat and receives a side impact load acting on a vehicle body side portion at the time of a side impact collision, with the load transmitting member being configured to transmit the side impact load received by the load receiving portion to the tunnel portion; and a downward movement suppressing member that suppresses the downward movement of the load transmitting member resulting from a downward load component of the side impact load.

Abstract: A side impact load transmitting structure includes: a vehicular seat disposed in a cabin; a tunnel portion that is disposed such that it protrudes upward into the cabin and extends in a front-rear direction of a vehicle body; a load transmitting member including a load receiving portion that is disposed at the underside of the vehicular seat and receives a side impact load acting on a vehicle body side portion at the time of a side impact collision, with the load transmitting member being configured to transmit the side impact load received by the load receiving portion to the tunnel portion; and a downward movement suppressing member that suppresses the downward movement of the load transmitting member resulting from a downward load component of the side impact load.