Abstract: Mobile objects and resources are managed by a system including a mobile object server operable to receive information from a plurality of mobile objects in a geographic space, and an event server in communication with the mobile object server. The event server is operable to receive, from the mobile object server, resource utilization information indicating a resource in the geographic space that each mobile object is scheduled to use, calculate a state of use of the resource based on a predicted arrival time of each mobile object at the resource, and send a recommendation for relaxing congestion of the resource.

Abstract: Mobile objects and resources are managed by a system including a mobile object server operable to receive information from a plurality of mobile objects in a geographic space, and an event server in communication with the mobile object server. The event server is operable to receive, from the mobile object server, resource utilization information indicating a resource in the geographic space that each mobile object is scheduled to use, calculate a state of use of the resource based on a predicted arrival time of each mobile object at the resource, and send a recommendation for relaxing congestion of the resource.

Abstract: To avoid congestion and ease traffic jams of mobile objects while managing movement of a plurality of mobile objects in a geographic space, provided is a system including a mobile object server operable to assist with movement of a plurality of mobile objects in a geographic space; and a priority control module operable to perform priority movement control that causes a mobile object having high priority to be prioritized over and progress ahead of a mobile object having low priority, based on priorities assigned to each of a plurality of mobile objects. Also provided are a method and program.

Abstract: In an image pickup device and method using a lens unit in which a plurality of lens arrays, are arranged and a lens holding unit is provided between the lens arrays, light emitted from the area corresponding to the lens holding unit can be detected. A moving mechanism that moves a lens unit or the observation target holding unit and the detection unit, and a moving mechanism control unit are provided. The moving mechanism control unit controls the moving mechanism such that the lens unit or the observation target holding unit and the detection unit are moved to a second position from a first position. The second position is set to a position when the lens array after the movement is disposed at a position facing the detection surface of the detection unit shielded by a lens holding unit when the lens unit is disposed at the first position.

Abstract: Evacuation of mobile objects is managed by a system including a processor; and one or more computer readable mediums collectively including instructions that, when executed by the processor, cause the processor to receive information of occurrence of a disaster, obtain information of a plurality of evacuation areas, obtain a plurality of locations, each location corresponding to a mobile object among a plurality of mobile objects in a geographic space, distribute the plurality of mobile objects into the plurality of evacuation areas according to a distribution based on the information of the plurality of evacuation areas and the plurality of locations.

Abstract: A radiographic image reading device includes a reading unit configured to photoelectrically read photostimulated luminescence light produced from a storage phosphor sheet illuminated with excitation light, the storage phosphor sheet, at which a radiographic image is stored, being scanned by a scanning unit using the excitation light; and a control unit configured to control the reading unit so as to cause the reading unit, in a case of reading at a first resolution, to read with excitation light at a first scanning speed and a first intensity and, in a case of reading at a second resolution that is a higher resolution than the first resolution, to read with excitation light at a second scanning speed that is slower than the first scanning speed and a second intensity that is smaller than the first intensity.

Abstract: A scanning optical system includes: a galvanometer mirror that reflects and deflects a light beam emitted from a light source, and an f? lens that focuses the deflected light beam on a scanning target surface. The f? lens is constituted by a first lens, which is a spherical lens having a positive refractive power, a second lens, which is a spherical lens having a negative refractive power, a third lens, which is a spherical lens having a negative refractive power, and a fourth lens, which is a spherical lens having a positive refractive power, provided in this order from the side of the galvanometer mirror. The scanning optical system satisfies Conditional Formula (1) below: 2.529?f/f1?8.437??(1) wherein f is the focal length of the entire f? lens, and f1 is the focal length of the first lens.

Abstract: There is provided a cassette having: a flexible accommodating body that accommodates an accumulative fluorescent sheet in a light shielded state; an entrance/exit portion that is provided at one end portion of the flexible accommodating body, and through which the accumulative fluorescent sheet can be inserted and removed into and from the flexible accommodating body due to mounting to a radiographic image reading device; and opening/closing means for opening the flexible accommodating body such that a push-out member, that pushes the accumulative fluorescent sheet out toward the entrance/exit portion, can be inserted, or closing the flexible accommodating body in a light shielded state.

Abstract: A radiographic image reading device includes a reading unit configured to photoelectrically read photostimulated luminescence light produced from a storage phosphor sheet illuminated with excitation light, the storage phosphor sheet, at which a radiographic image is stored, being scanned by a scanning unit using the excitation light; and a control unit configured to control the reading unit so as to cause the reading unit, in a case of reading at a first resolution, to read with excitation light at a first scanning speed and a first intensity and, in a case of reading at a second resolution that is a higher resolution than the first resolution, to read with excitation light at a second scanning speed that is slower than the first scanning speed and a second intensity that is smaller than the first intensity.

Abstract: A scanning optical system includes: a galvanometer mirror that reflects and deflects a light beam emitted from a light source, and an f? lens that focuses the deflected light beam on a scanning target surface. The f? lens is constituted by a first lens, which is a spherical lens having a positive power, a second lens, which is a spherical lens having a negative power, a third lens, which is a spherical lens having a negative power, a fourth lens, which is a spherical lens having a positive power or a negative power, and a fifth lens, which is a spherical lens having a positive power, provided in this order from the side of the galvanometer mirror. The scanning optical system satisfies Conditional Formula (1) below: ?4.654?f/f4?0.255??(1) wherein f is the focal length of the entire f? lens, and f4 is the focal length of the fourth lens.

Abstract: A scanning optical system that can be made compact and can provide a sufficiently small beam diameter on a surface to be scanned is provided. In a scanning optical system including a galvanometer mirror that reflects and deflects a light beam emitted from a light source and a f? lens that focuses the deflected light beam on a surface to be scanned, the f? lens includes, in order from the galvanometer mirror side, a first lens which is a spherical lens having a positive refractive power, a second lens which is a spherical lens having a negative refractive power, and a third lens which is a spherical lens having a positive refractive power. The f? lens satisfies conditional expression (1) below: 1.542?f/f1?7.828??(1), where f is a focal length of the entire f? lens system, and f1 is a focal length of the first lens.

Abstract: A scanning optical system includes: a galvanometer mirror that reflects and deflects a light beam emitted from a light source, and an f? lens that focuses the deflected light beam on a scanning target surface. The f? lens is constituted by a first lens, which is a spherical lens having a positive power, a second lens, which is a spherical lens having a negative power, a third lens, which is a spherical lens, and a fourth lens, which is a spherical lens having a positive power, provided in this order from the side of the galvanometer mirror. The scanning optical system satisfies Conditional Formula (1) below: ?7.300?f/f3?0.509??(1) wherein f is the focal length of the entire f? lens, and f3 is the focal length of the third lens. Thereby, a compact scanning optical system capable of achieving a sufficiently small beam diameter on a scanning target surface is obtained.

Abstract: A radiographic image erasing device includes: a first light source that applies first erase light including a wavelength in the ultraviolet region to a storage phosphor sheet in which a radiographic image has been stored and recorded; a second light source that is placed at a height identical to that of the first light source and applies second erase light including a wavelength of a longer wavelength than that of the first erase light to the storage phosphor sheet to which the first erase light has been applied; drive mechanisms that switch the orientations or positions of the first light source and the second light source; and a controller that controls the drive mechanisms in accordance with a conveyance direction of the storage phosphor sheet such that the first erase light and the second erase light are applied in this order to the storage phosphor sheet.

Abstract: A radiographic image reading device includes: a casing that has a conveyance inlet/outlet for conveying in and conveying out a storage phosphor sheet on which a radiographic image is recorded, and a discharge outlet for discharging the storage phosphor sheet; an image reading unit that reads the radiographic image recorded on a storage phosphor sheet that has been conveyed in from the conveyance inlet/outlet; and a conveyance unit that conveys the storage phosphor sheet that has been conveyed in from the conveyance inlet/outlet to a read position at which reading is performed by the image reading unit and that conveys the storage phosphor sheet, from which the radiographic image has been read, to the conveyance inlet/outlet or the discharge outlet.

Abstract: There is provided a cassette having: a flexible accommodating body that accommodates an accumulative fluorescent sheet in a light shielded state; an entrance/exit portion that is provided at one end portion of the flexible accommodating body, and through which the accumulative fluorescent sheet can be inserted and removed into and from the flexible accommodating body due to mounting to a radiographic image reading device; and opening/closing means for opening the flexible accommodating body such that a push-out member, that pushes the accumulative fluorescent sheet out toward the entrance/exit portion, can be inserted, or closing the flexible accommodating body in a light shielded state.

Abstract: A piston ring includes a piston ring body and a surface coating film formed on at least one of upper and lower surfaces of the piston ring body. The surface coating film comprises a heat-resistant resin and a metal powder contained in the heat-resistant resin, and a phosphate coating film is formed, as base coating film of the surface coating film, on a surface on which the surface coating film of the piston ring body is formed.

Abstract: A piston ring includes a piston ring body and a surface coating film formed on at least one of upper and lower surfaces of the piston ring body. The surface coating film has a most outside surface layer including a heat-resistant resin and a metal powder contained in the heat-resistant resin and a base bottom layer formed nearest the piston ring body and including a heat-resistant resin. The base bottom layer may also include a metal powder.

Abstract: An image exposing apparatus capable of avoiding degradation in the resolution of an exposed image due to fluctuations in the traveling direction of light that focuses pixel images of the pixel sections of a spatial optical modulation device. The apparatus includes the spatial optical modulation device, such as a DMD having multitudes of pixel sections disposed two-dimensionally; a light source; and image focusing optical systems. It further includes an aperture array disposed at the image location focused by the image focusing optical systems such that each of the pixel images of the pixel sections is positioned at the plane of each of the apertures. The pixel images positioned at the aperture planes of the aperture array are focused into an image by a microlens array, which is then projected onto a photosensitive material by optical systems.

Abstract: An exposure image is accurately projected. An exposure apparatus includes a light source for emitting exposure light, a DMD, which includes a plurality of two-dimensionally-arranged pixel portions, and a telecentric optical system for collimating principal rays of the exposure light. The telecentric optical system is positioned in an optical path of the exposure light that enters the DMD. The DMD performs, based on an image signal, spatial light modulation on exposure light, which has been emitted from the light source, and that has entered the plurality of pixel portions, for each of the plurality of pixel portions.

Abstract: A piston ring includes a piston ring body and a surface coating film formed on at least one of upper and lower surfaces of the piston ring body. The surface coating film comprises a heat-resistant resin and a metal powder contained in the heat-resistant resin, and a phosphate coating film is formed, as base coating film of the surface coating film, on a surface on which the surface coating film of the piston ring body is formed.