Abstract: An imaging device performs imaging using an imaging element. The imaging device is provided with an imaging unit, a control unit and a synthesis unit. The imaging unit performs exposure with a predetermined exposure time, thereby performing image capture. The control unit successively performs an imaging process N-times. In each imaging process, a plurality of images are captured with different exposure times. The synthesis unit generates, using HDR rendering, a plurality of images acquired by the plurality of image captures. The control unit performs one of the plurality of image captures such that the exposure is completed at a corresponding synchronous timing, and performs a subsequent other image capture such that exposure is started at the synchronous timing.

Abstract: In order to reduce costs and increase safety with respect to the submergence of water in a power supply system, in this power supply system (1) a plurality of power storage modules (11)-(14) are connected in series. A fuse (F1) is inserted into the path in which the plurality of power storage modules (11)-(14) are serially connected, the fuse being inserted at a position dividing the plurality of power storage modules (11)-(14) into a first group and a second group. A positive-pole-side contactor (RY1) is inserted at a position dividing the plurality of power storage modules belonging to the first group into a first sub-group and a second sub-group. A negative-pole-side contactor (RY2) is inserted at a position dividing the plurality of power storage modules belonging to the second group into a first sub-group and a second sub-group.

Abstract: A battery system having: a series unit in which battery units are connected in series; heat exchangers thermally coupled with the battery units and internally circulating the coolant; and an outer case in which the series units and the heat exchangers are accommodated. The battery unit has battery cells stacked together, a plus output terminal and a minus output terminal at both ends thereof. The battery unit disposed at an end of the plus output terminal side of the series unit is disposed at an inclined posture where the end of the plus output terminal side is away from the base plate of the outer case. The battery unit disposed at an end of the minus output terminal side of the series unit, is disposed at an inclined posture where the end of the minus output terminal side is away from the base plate of the outer case.

Abstract: In an image generating apparatus, an image combining unit combines, for each of first and second processes in sequence, first and second images to generate a composite image having a digital pixel value representing a luminance level of the corresponding pixel by a first bit width. A range setter sets, for each of the first and second processes, a target luminance-level distribution range of at least one target with respect to the composite image; the distribution range represents a range within which luminance levels of the at least one target are distributed. A dynamic range adjuster adjusts a dynamic range of the composite image generated for one of the first and second processes such that the dynamic range of the composite image generated for the corresponding one of the first and second processes matches with the target luminance-level distribution range set for the first process.

Abstract: In an image generating apparatus, an image combining unit combines, for each of first and second processes in sequence, first and second images to generate a composite image having a digital pixel value representing a luminance level of the corresponding pixel by a first bit width. A range setter sets, for each of the first and second processes, a target luminance-level distribution range of at least one target with respect to the composite image; the distribution range represents a range within which luminance levels of the at least one target are distributed. A dynamic range adjuster adjusts a dynamic range of the composite image generated for one of the first and second processes such that the dynamic range of the composite image generated for the corresponding one of the first and second processes matches with the target luminance-level distribution range set for the first process.

Abstract: In an image generating apparatus, a setter is configured to variably set, for an image capturing task at a next capturing cycle, first and second shutter times and a total gain. The total gain is based on combination of an analog gain and a digital gain. An allocating unit is configured to obtain a threshold gain based on the first and second shutter times and a compression characteristic. The allocating unit is configured to variably allocate the total gain to at least one of the analog gain and the digital gain in accordance with a comparison among the total gain, the threshold gain, and an upper limit for the analog gain.

Abstract: An imaging device performs imaging using an imaging element. The imaging device is provided with an imaging unit, a control unit and a synthesis unit. The imaging unit performs exposure with a predetermined exposure time, thereby performing image capture. The control unit successively performs an imaging process N-times. In each imaging process, a plurality of images are captured with different exposure times. The synthesis unit generates, using HDR rendering, a plurality of images acquired by the plurality of image captures. The control unit performs one of the plurality of image captures such that the exposure is completed at a corresponding synchronous timing, and performs a subsequent other image capture such that exposure is started at the synchronous timing.

Abstract: In order to provide a calibration device and the like suitable for image stabilization, a calibration device (1) is provided with a correction lens (11), an actuator coil (13), and a control section (20) for calibrating a center (p) of a movable range (R) of the correction lens (11) to a center position (pa) between a left rated output position (?) and a right end position (b), the left rated output position (?) being a position closest to a left end position (a) in a range where the correction lens (11) is movable when a current within a rated current is caused to flow in the actuator coil (13).

Abstract: In order to provide a calibration device and the like suitable for image stabilization, a calibration device (1) is provided with a correction lens (11), an actuator coil (13), and a control section (20) for calibrating a center (p) of a movable range (R) of the correction lens (11) to a center position (pa) between a left rated output position (?) and a right end position (b), the left rated output position (?) being a position closest to a left end position (a) in a range where the correction lens (11) is movable when a current within a rated current is caused to flow in the actuator coil (13).

Abstract: A laser welding device for manufacturing a prismatic battery 10 of the invention has a pair of jigs 12A, 12B for securing a prismatic battery outer can B1, a gas supply section for supplying inert gas to welding points of a sealing cover B2 fitted to the prismatic battery outer can B1, and a laser unit 11 for irradiating laser beam. Each of the jigs 12A, 12B is provided with a slit-shaped blower outlet and the blower outlet is positioned below the welding points. The inert gas is supplied to the blower outlet from the gas supply section and is blown from the blower outlet to the welding points from below. The laser welding device for manufacturing a prismatic battery 10 can obtain a laser welding device that welds the sealing cover B2 fitted to the prismatic battery outer can B1 fast, preventing weld droops and allowing uniform welding.

Abstract: Generated water is quickly and surely removed from a generated water discharge face of equipment which discharges generated water. There are provided equipment 12 having a discharge face 11 for discharging generated water, and a diaphragm 14 disposed so as to be face the discharge face 11 of the equipment 12 through a predetermined gap 13. The diaphragm 14 has plural projections 15 projecting into the gap 13, and by vibrating the diaphragm 14, generated water is atomized or vaporized and removed to the outside of the gap 13.