Abstract: An imaging device includes a hardware processor coupled to a memory. The processor generates a video signal by imaging an observation target in an exposure state according with outside brightness of a vehicle measured by a sensor. The processor sets an imaging mode corresponding to an exposure state to be applied when performing imaging. The imaging mode is set on the basis of the outside brightness and a signal level of the video signal. The processor outputs a video signal obtained by performing imaging in the imaging mode.

Abstract: A first electrode sheet includes respective active material layers on a first face of a positive electrode metal foil and an opposing second face. The first face active material layer includes a parallel section along the first face, a tapered section between a positive electrode first lateral side of the first face and a first face parallel section and inclined inward towards a current collector inner region relative to a thickness direction of the first face active material layer, and a curved section forming a curved surface between and across the first face parallel and the first face tapered sections. A separator includes a first separator covering the side of the positive electrode metal foil first face, and a second separator covering the side of the second face. A first separator part lying flush against and contacting the first face tapered section arranged along the first face tapered section.

Abstract: In a camera, a circuit board converts light having passed through a lens into an electric signal. A connector connects the circuit board to an outside cable. A shielding conductor surrounds the circuit board. An insulating housing houses the circuit board and the shielding conductor. A connector includes inner, intermediate, and outer connectors. The inner connector includes a first outer skin conductor, and is mounted to the circuit board. The intermediate connector includes a second outer skin conductor supporting a shielding conductor, and is connected to the inner connector and the shielding conductor. The outer connector includes a third outer skin conductor, and connects an outside cable to the intermediate connector. The shielding conductor wraps the circuit board from a boundary, as a starting point, between the second outer skin conductor and the shielding conductor. The insulating housing is connected to and supported by the intermediate connector.

Abstract: A first electrode sheet includes respective active material layers on a first face of a positive electrode metal foil and an opposing second face. The first face active material layer includes a parallel section along the first face, a tapered section between a positive electrode first lateral side of the first face and a first face parallel section and inclined inward towards a current collector inner region relative to a thickness direction of the first face active material layer, and a curved section forming a curved surface between and across the first face parallel and the first face tapered sections. A separator includes a first separator covering the side of the positive electrode metal foil first face, and a second separator covering the side of the second face. A first separator part lying flush against and contacting the first face tapered section arranged along the first face tapered section.

Abstract: In a camera, a circuit board converts light having passed through a lens into an electric signal. A connector connects the circuit board to an outside cable. A shielding conductor surrounds the circuit board. An insulating housing houses the circuit board and the shielding conductor. A connector includes inner, intermediate, and outer connectors. The inner connector includes a first outer skin conductor, and is mounted to the circuit board. The intermediate connector includes a second outer skin conductor supporting a shielding conductor, and is connected to the inner connector and the shielding conductor. The outer connector includes a third outer skin conductor, and connects an outside cable to the intermediate connector. The shielding conductor wraps the circuit board from a boundary, as a starting point, between the second outer skin conductor and the shielding conductor. The insulating housing is connected to and supported by the intermediate connector.

Abstract: A positive electrode plate includes a front positive electrode active material layer on a front surface of a positive electrode metal foil, and having a positive electrode large tapered portion that extends at an incline from one edge of the front surface of the positive electrode metal foil at a positive electrode large inclination angle. A negative electrode plate includes a front negative electrode active material layer on a front surface of a negative electrode metal foil, and having a negative electrode large tapered portion that extends at an incline from one edge of the front surface of the negative electrode metal foil at a negative electrode large inclination angle. The positive and negative electrode plates are alternately laminated with a separator interposed therebetween such that each of their front surfaces is oriented in the same direction in the rear-to-front directional axis along the thickness of the plates.

Abstract: An electrode stacking device includes a stacking unit that is disposed between a positive electrode conveying unit conveying a separator-equipped positive electrode and a negative electrode conveying unit conveying a negative electrode, and includes a plurality of stages of stacking sections on which the separator-equipped positive electrode and the negative electrode are stacked, a conveying control unit that controls a drive section to hold a plurality of the separator-equipped positive electrodes at height positions corresponding to the plurality of stages of stacking section and controls a drive section to hold a plurality of the negative electrodes at height positions corresponding to the plurality of stages of stacking sections, a push-out unit that simultaneously pushes out the plurality of separator-equipped positive electrodes toward the plurality of stages of stacking sections, and a push-out unit that simultaneously pushes out the plurality of negative electrodes toward the plurality of stages of s

Abstract: An electrode stacking device includes a stacking unit that is disposed between a positive electrode conveying unit conveying a separator-equipped positive electrode and a negative electrode conveying unit conveying a negative electrode, and includes a plurality of stages of stacking sections on which the separator-equipped positive electrode and the negative electrode are stacked, a conveying control unit that controls a drive section to hold a plurality of the separator-equipped positive electrodes at height positions corresponding to the plurality of stages of stacking section and controls a drive section to hold a plurality of the negative electrodes at height positions corresponding to the plurality of stages of stacking sections, a push-out unit that simultaneously pushes out the plurality of separator-equipped positive electrodes toward the plurality of stages of stacking sections, and a push-out unit that simultaneously pushes out the plurality of negative electrodes toward the plurality of stages of s

Abstract: A positive electrode plate includes a front positive electrode active material layer on a front surface of a positive electrode metal foil, and having a positive electrode large tapered portion that extends at an incline from one edge of the front surface of the positive electrode metal foil at a positive electrode large inclination angle. A negative electrode plate includes a front negative electrode active material layer on a front surface of a negative electrode metal foil, and having a negative electrode large tapered portion that extends at an incline from one edge of the front surface of the negative electrode metal foil at a negative electrode large inclination angle. The positive and negative electrode plates are alternately laminated with a separator interposed therebetween such that each of their front surfaces is oriented in the same direction in the rear-to-front directional axis along the thickness of the plates.

Abstract: An electrode assembly is an electrode assembly of a lithium ion secondary battery in which sheet-like positive electrodes and sheet-like negative electrodes are alternately stacked, with bag-like separators interposed therebetween. The area of the first main surface of each of the positive electrodes is smaller than the area of the first main surface of each of the negative electrodes, and the area of the second main surface of each of the positive electrodes is smaller than the area of the second main surface of each of the negative electrodes. The first main surfaces of the positive electrodes and the negative electrodes are opposed to each other, with the respective bag-like separators interposed therebetween, and the second main surfaces of the positive electrodes and the negative electrodes are opposed to each other, with the respective bag-like separators interposed therebetween.

Abstract: The oscillation actuator of the invention uses ultrasonic vibrations generated in a stator to rotate a rotor, and a pre-load member causes a 30 MPa contact pressure between the rotor and the stator. Furthermore, a supply body impregnated with oil is provided inside a recess section in the stator, such that the contact section between the rotor and the stator is lubricated by oil supplied from the supply body. As the oil with which the supply body is impregnated, a fluorine-based oil having a kinetic viscosity at 40° C. of VG 400 according to the ISO viscosity classification is selected.