Abstract: A User Equipment (UE) includes transmission and reception circuitry, and a controller, wherein while one or more Tsor-cm timers are running, and upon receiving a new Steering of roaming connected mode control information (SOR-CMCI), the controller sets a Tsor-cm timer value for an associated PDU session or service to a timer value in the new SOR-CMCI.

Abstract: A display system includes a step-image display unit, a delivery-date-image display unit, and a resource-information display unit. The step-image display unit displays, for each print order, a step image in which multiple steps that each execute a process using a resource assigned in advance are arranged on a time axis, the step image illustrating a printed material generating step. The delivery-date-image display unit displays an image illustrating a delivery date of each print order at a corresponding position on the time axis. The resource-information display unit displays information on another resource that is different from the resource assigned in advance to each of the steps and that is usable in each of the steps.

Abstract: A display system includes a step-image display unit, a delivery-date-image display unit, and a resource-information display unit. The step-image display unit displays, for each print order, a step image in which multiple steps that each execute a process using a resource assigned in advance are arranged on a time axis, the step image illustrating a printed material generating step. The delivery-date-image display unit displays an image illustrating a delivery date of each print order at a corresponding position on the time axis. The resource-information display unit displays information on another resource that is different from the resource assigned in advance to each of the steps and that is usable in each of the steps.

Abstract: A display system includes a step-image display unit, a delivery-date-image display unit, and a resource-information display unit. The step-image display unit displays, for each print order, a step image in which multiple steps that each execute a process using a resource assigned in advance are arranged on a time axis, the step image illustrating a printed material generating step. The delivery-date-image display unit displays an image illustrating a delivery date of each print order at a corresponding position on the time axis. The resource-information display unit displays information on another resource that is different from the resource assigned in advance to each of the steps and that is usable in each of the steps.

Abstract: A display system includes a step-image display unit, a delivery-date-image display unit, and a resource-information display unit. The step-image display unit displays, for each print order, a step image in which multiple steps that each execute a process using a resource assigned in advance are arranged on a time axis, the step image illustrating a printed material generating step. The delivery-date-image display unit displays an image illustrating a delivery date of each print order at a corresponding position on the time axis. The resource-information display unit displays information on another resource that is different from the resource assigned in advance to each of the steps and that is usable in each of the steps.

Abstract: The magnetic resistance of a magnetic path that passes through a coil (6) is increased by magnetically dividing a stator core into a plurality of divided cores (4, 5) in such a manner that the magnetic flux of a permanent magnet (7) flows through the magnetic path when a projection (82) of a plunger (8) magnetically connects the divided cores (4, 5), hence the magnetic resistance of the magnetic path that passes through the coil (6) rapidly changes due to a positional relationship between a gap between the divided cores (4, 5) and the plunger (8), and the magnetic flux that flows through the magnetic path rapidly changes, and moreover a large back electromotive force is produced.

Abstract: An electromagnetic actuator (1) includes sensor magnets (21a, 21b) disposed correspondingly to plungers (11a, 11b), respectively. The electromagnetic actuator (1) further includes a sensor core (22) made of a magnetic material and disposed in a position through which magnetic fluxes from the plurality of sensor magnets (21a, 21b) can flow, and a magnetic sensor (23) that is disposed in a part of the sensor core (22) through which the magnetic fluxes of the plurality of sensor magnets (21a, 21b) can flow in common, and that detects the magnetic flux, which varies in accordance with respective positions of the plurality of plungers (11a, 11b).

Abstract: An electromagnetic actuator (1) includes sensor magnets (21a, 21b) disposed correspondingly to plungers (11a, 11b), respectively. The electromagnetic actuator (1) further includes a sensor core (22) made of a magnetic material and disposed in a position through which magnetic fluxes from the plurality of sensor magnets (21a, 21b) can flow, and a magnetic sensor (23) that is disposed in a part of the sensor core (22) through which the magnetic fluxes of the plurality of sensor magnets (21a, 21b) can flow in common, and that detects the magnetic flux, which varies in accordance with respective positions of the plurality of plungers (11a, 11b).

Abstract: The magnetic resistance of a magnetic path that passes through a coil (6) is increased by magnetically dividing a stator core into a plurality of divided cores (4, 5) in such a manner that the magnetic flux of a permanent magnet (7) flows through the magnetic path when a projection (82) of a plunger (8) magnetically connects the divided cores (4, 5), hence the magnetic resistance of the magnetic path that passes through the coil (6) rapidly changes due to a positional relationship between a gap between the divided cores (4, 5) and the plunger (8), and the magnetic flux that flows through the magnetic path rapidly changes, and moreover a large back electromotive force is produced.

Abstract: An electric power semiconductor device includes a heat transfer plate. A printed wire board is spaced a predetermined gap apart from the heat transfer plate. An opening portion is provided in the vicinity of an electrode strip formed on the outer side of the printed wire board. An electric power semiconductor element is disposed between the heat transfer plate and the printed wire board, and adhered to the heat transfer plate. A wiring member has one end bonded to a first bonding portion of a main power electrode of the electric power semiconductor element, and the other end is bonded to a second bonding portion. At least part of the second bonding portion is included in a space that extends from the main power electrode to the printed wire board, and the first bonding portion is included in a space that extends from the opening portion.

Abstract: An image processing apparatus includes a creation unit and a presentation unit. The creation unit adds up processing loads required to draw objects at each drawing position to calculate a value of the drawing position in order to generate a processing load image. The presentation unit visualizes the processing load image for presentation to a user.

Abstract: An electric power semiconductor device includes a heat transfer plate. A printed wire board is spaced a predetermined gap apart from the heat transfer plate. An opening portion is provided in the vicinity of an electrode strip formed on the outer side of the printed wire board. An electric power semiconductor element is disposed between the heat transfer plate and the printed wire board, and adhered to the heat transfer plate. A wiring member has one end bonded to a first bonding portion of a main power electrode of the electric power semiconductor element, and the other end is bonded to a second bonding portion. At least part of the second bonding portion is included in a space that extends from the main power electrode to the printed wire board, and the first bonding portion is included in a space that extends from the opening portion.

Abstract: An image forming apparatus performs a trapping process. The image forming apparatus includes an image processing unit that includes a determination unit, a color correction unit, a processing unit, an adding unit, and a generating unit. The processing unit performs the trapping process on the pieces of image data, on which the color correction has been performed by the color correction unit. The generating unit generates intermediate data in accordance with the print data including the pieces of image data, on which the trapping process has been performed. The image forming apparatus also includes a rendering unit that performs a rendering process on one or more of the pieces of image data on which the color correction has been performed by the rendering unit and on the pieces of image data for which tag information indicates that the color correction has been performed.

Abstract: An image forming apparatus performs a trapping process. The image forming apparatus includes an image processing unit that includes a determination unit, a color correction unit, a processing unit, an adding unit, and a generating unit. The processing unit performs the trapping process on the pieces of image data, on which the color correction has been performed by the color correction unit. The generating unit generates intermediate data in accordance with the print data including the pieces of image data, on which the trapping process has been performed. The image forming apparatus also includes a rendering unit that performs a rendering process on one or more of the pieces of image data on which the color correction has been performed by the rendering unit and on the pieces of image data for which tag information indicates that the color correction has been performed.

Abstract: A print control apparatus includes the following components. Drawing processing units each perform a drawing process. A sending unit sends the entire print instruction including multiple pages and written in a page description language, to the drawing processing units. The delivering unit delivers each processing request which specifies one of the multiple pages, to a corresponding one of the drawing processing units. When performing, to perform a drawing process in which a print instruction for a page specified by a processing request is converted into print data, an analysis process on the print instruction from the first page to the specified page, each drawing processing unit refers to an identifier in the page description language of the print instruction for pages other than the specified page, and does not perform the analysis process for a range not containing a command that influences a drawing process of other pages.

Abstract: An image processing apparatus includes an input section that inputs image information and additional information; and a generating section that, in case that printing of a mirror image of an image according to the image information and a normal image of an image according to the additional information is instructed, generates printing image information for printing the mirror image of the image according to the image information input from the input section, and the normal image of the image according to the additional information input from the input section.

Abstract: A print control apparatus includes the following components. Drawing processing units each perform a drawing process. A sending unit sends the entire print instruction including multiple pages and written in a page description language, to the drawing processing units. The delivering unit delivers each processing request which specifies one of the multiple pages, to a corresponding one of the drawing processing units. When performing, to perform a drawing process in which a print instruction for a page specified by a processing request is converted into print data, an analysis process on the print instruction from the first page to the specified page, each drawing processing unit refers to an identifier in the page description language of the print instruction for pages other than the specified page, and does not perform the analysis process for a range not containing a command that influences a drawing process of other pages.

Abstract: An image processing apparatus includes an information obtainment unit that obtains image information including data regarding a binary image, a plate-information generating unit that generates plate information, an instruction obtainment unit that obtains a first or second generating instruction, a job-file generating unit, and an output unit that outputs a job file to an image forming apparatus. The job-file generating unit generates, for the first generating instruction, a job file for causing the image forming apparatus to form images using data representing blank for a plate for which the plate information indicates that no image information exists, and data included in image information corresponding to a plate for which the plate information indicates that image information exists, and generates, for the second generating instruction, a job file for causing the image forming apparatus to form an image for each plate using data included in image information.

Abstract: An image formation control device is provided with a control unit. The control unit controls generation of information for forming a transparent image on the basis of settings that include at least a superimposition region and a superimposition sequence, when plurality of images which include the transparent image and a colored image are superimposed and synthesized.

Abstract: A brushless motor includes an external stator where a magnetic circuit is electrically formed by winding electric wires around an iron core; a bus bar bundling the electric wires and forming an external input terminal; and an internal rotor formed by integrating a permanent magnet and rotatably supported through a bearing with respect to the external stator, wherein an insulation plate is held on one end of the external stator and attached thereto a magnetic pole sensor detecting a magnetic pole of the permanent magnet.