Abstract: An electrode structure includes: a plurality of pixel electrodes arranged separately from each other; and a plurality of dielectric layers laminated in a first direction with respect to the plurality of pixel electrodes, in which the plurality of dielectric layers includes: a first dielectric layer that spreads over the plurality of pixel electrodes in a direction intersecting with the first direction; and a second dielectric layer that includes dielectric material having a refractive index higher than that of the first dielectric layer, sandwiches the first dielectric layer together with the plurality of pixel electrodes, and has a slit at a position overlapping space between pixel electrodes adjacent when viewed from the first direction.

Abstract: A radiation imaging system includes an imaging unit, a detection unit, a change determination unit and a control unit. The imaging unit emits radiation and images a dynamic state of a subject, thereby taking a plurality of frame images of the dynamic state of the subject. The detection unit detects the dynamic state of the subject being imaged and generates detection information on the dynamic state. The change determination unit determines whether change of the dynamic state being imaged is within a predetermined range based on the generated detection information. The control unit controls capturing of the taken frame images according to a result of the determination of the change determination unit.

Abstract: An imaging console including: a display section which is capable of displaying a moving image; and a control section which performs control on the basis of imaging order information regarding imaging to be performed, the imaging order information specifying at least patient information regarding a patient and imaging site information regarding an imaging site; wherein in a case where the imaging order information specifies imaging of a moving image, at the time when the imaging order information is obtained or input, the control section obtains a past moving image of the patient or a past moving image of the imaging site on the basis of at least one of the patient information and the imaging site information, and displays the obtained past moving image on the display section.

Abstract: A console includes: a display unit which plays back a dynamic image formed of a plurality of frame images to display according to operation of an operator; and a learning unit which, when detecting that operation of possibly expressing interest is performed by the operator during playback of the dynamic image, performs statistical processing on a value of an index regarding a dynamic state of a site to be examined and/or change in time of the value of the index in a frame image displayed on the display unit at that time to learn appearance frequency of the value of the index and/or the pattern of the change in time of the value of the index.

Abstract: A radiation imaging system includes an imaging unit, a detection unit, a change determination unit and a control unit. The imaging unit emits radiation and images a dynamic state of a subject, thereby taking a plurality of frame images of the dynamic state of the subject. The detection unit detects the dynamic state of the subject being imaged and generates detection information on the dynamic state. The change determination unit determines whether change of the dynamic state being imaged is within a predetermined range based on the generated detection information. The control unit controls capturing of the taken frame images according to a result of the determination of the change determination unit.

Abstract: A tower-internal-equipment bracket structure with a welded structure that can ensure a fatigue strength classification equal to or greater than that of butt welding (BW) or that requires no welding and a wind turbine generator provided with this tower-internal-equipment bracket structure are provided. In a tower-internal-equipment bracket structure provided inside a pole-type steel tower, employing a cylindrical shell (11), to support tower internal equipment, a ring-shaped member (20) having a protruding portion (21) toward the tower interior is interposed, by means of butt welding (BW), between divided portions formed by dividing the cylindrical shell (11) at a desired position in an axial direction, and the protruding portion (21) serves as a bracket-member support portion for the tower internal equipment.

Abstract: A tower-internal-equipment bracket structure with a welded structure that can ensure a fatigue strength classification equal to or greater than that of butt welding (BW) or that requires no welding and a wind turbine generator provided with this tower-internal-equipment bracket structure are provided. In a tower-internal-equipment bracket structure provided inside a pole-type steel tower, employing a cylindrical shell (11), to support tower internal equipment, a ring-shaped member (20) having a protruding portion (21) toward the tower interior is interposed, by means of butt welding (BW), between divided portions formed by dividing the cylindrical shell (11) at a desired position in an axial direction, and the protruding portion (21) serves as a bracket-member support portion for the tower internal equipment.

Abstract: There is described a method of managing information on the release of restriction on use that permits license management even where linkage of a hardware key is limited, without sacrificing the user work efficiency. The method for controlling a release information set for releasing a function from an application disabled status thereof, includes the steps of: instructing an operation for transferring the release information set from a first storage section, in which release information sets corresponding to the plurality of functions are stored, to a second storage section by selecting one of the plurality of functions provided in the apparatus; specifying the release information set to be transferred as instructed in the instructing step; reading out the release information set, specified in the specifying step, from the first storage section; storing the release information set, read in the reading step, in the second storage section.

Abstract: An image of the information of a plurality of images is obtained from each kind of image information source, and the plurality of images are arranged and displayed on the preview screen, the image quality adjustment is conducted for each image.

Abstract: There is described a method for forming an image by employing a print head in which a plurality of recording elements are arranged in an array line. The method includes the steps of: recording a correction image onto a photosensitive material by means of the print head; acquiring readout information read from the correction image by means of an image-reading device; finding correction amounts of recording characteristics, each of which corresponds to each of the plurality of recording elements, from the readout information acquired in the acquiring step; and forming the image by employing the print head in which the recording characteristics of the plurality of recording elements are compensated for, according to the correction amounts found in the finding step. The correction image includes such an image area in which at least two different color dyes are mixed with each other.

Abstract: In an image forming apparatus provided with an exposing section and a conveyor for conveying a plurality of light sensitive materials relative to the exposing section, the plurality of light sensitive materials are arranged in parallel in the conveying direction so that the exposing section is divided into plural exposing blocks corresponding to the plurality of light sensitive materials. There are provided a memory to memorize plural correction amounts each set based on a characteristic of one of the plurality of light sensitive materials, wherein the plural correction amounts are correlated with the plural exposing blocks in accordance with the corresponding light sensitive material; and a correcting section to correct the amount of light for each exposing block on the basis of the corresponding correction amount.

Abstract: There is described a system for producing prints, which includes inputting device to input image data and information corresponding to the image data, a selector to select either a first mode or a second mode and a printer to print images on a recording medium. In the first mode, the system performs inputting operation of the image data and information corresponding to the image data in addition to a print producing operation. While in the second mode, the system performs the print producing operation on the basis of the image data and information corresponding to the image data, which are stored in a memory during the first mode.

Abstract: There is described a system for producing prints, which includes inputting device to input image data and information corresponding to the image data, a selector to select either a first mode or a second mode and a printer to print images on a recording medium. In the first mode, the system performs inputting operation of the image data and information corresponding to the image data in addition to a print producing operation. While in the second mode, the system performs the print producing operation on the basis of the image data and information corresponding to the image data, which are stored in a memory during the first mode.

Abstract: A method and apparatus for processing image information coming from various types of image inputting media yields an image processor for processing image information that consolidates image size irrespective of the type of image inputting medium. The apparatus is provided with a plurality of image inputting media, each of which inputs image information as a first image information having a fixed image size. An image size converter converts the fixed image size to a predetermined image size which is a constant image size independent of both the fixed image size and the type of image inputting medium that inputs the first image information. The conversion generates a second image information and a data generator generates conditional data for processing the second image information. An image processor processes the second image information using predetermined image processing procedures, based on the conditional data, to generate a third image information.

Abstract: An image forming apparatus includes: a first reading device for reading an image recorded on a recording medium; a storing device for storing a signal of a reference image representing a reference to correct the image recorded on the recording medium; a second reading device for reading a chart image obtained by recording the reference image; a calculating device for calculating image correction data by comparing the signal of the reference image with a signal of the chart image; an image processing device for correcting the image signal read by the first reading device on the basis of the image correction data; and an outputting device for outputting an image on the basis of the image signal corrected by the image processing device.

Abstract: In a color image recording apparatus provided with plural print heads and a conveyor, each print head includes a plurality of recording elements aligned along at least a single line in a primary scanning direction and the plural print heads are arranged in parallel to each other in the primary scanning direction so that plural component images of the color image are formed parallel respectively by the plural print heads. A reference component image forming device controls the plural pieces of print heads so as to form and superimpose plural reference component images based on the reference component image data and timing setting values. A timing correcting unit analyzes positional deviations in the secondary scanning direction among the plural superimposed reference component images and corrects the timing setting values on the basis of the positional deviations in the secondary scanning direction.

Abstract: An image reproducing method includes a step of obtaining a print reproducing an object based on image information obtained by photographing the object, wherein logarithm E of object brightness satisfies formula (1) and formula (2) is effected with the logarithm E,D(E1).ltoreq.D(E).ltoreq.D(E2) (1)0.7.ltoreq.(D(E+0.1)-D(E))/0.1.ltoreq.1.3 (2)wherein D(E) represents density on the print reproduced by the logarithm E of object brightness, Dmin represents minimum density reproduced on the print, and D(E1) and D(E2) satisfy the following formulas.D(E1)=Dmin+0.15D(E2)=Dmin+0.

Abstract: When a digital image recording means records digital image on an image recording medium based on order information or on digital image data, a computing means calculates digital image layout information, and calculates, based on the digital image layout information, X-cut size information used for cutting the image recording medium in the direction perpendicular to the conveyance direction of the conveyance means and Y-cut size information used for cutting the image recording medium in the direction perpendicular to the cutting direction for the X-cut. A cutting means which cuts the image recording medium into a prescribed size has an X-cut means to cut the image recording medium in the direction perpendicular to the conveyance direction of the conveyance means in accordance with the X-cut size information and a Y-cut means to cut the image recording medium in the direction perpendicular to the cutting direction of the X-cut in accordance with the Y-cut size information.

Abstract: A apparatus for forming an image on a silver halide photosensitive material with a plurality of recording elements aligned in the form of at least a single line, each recording element is driven so as to conduct an On-Off exposure independently to obtain a light amount datum in accordance with a density of a image signal, a correction value is calculated from the light amount datum and a light amount of each recording element is corrected with the correction value.

Abstract: Y image, M image, C image and a mixed-dye image wherein Y, M and C are mixed are prepared by an image forming apparatus, analytical density for each of Y, M and C components in their complementary color wavelength regions is measured by a densitometer for each of Y image, M image and C image, then Y image, M image, C image and a mixed-dye image are read by the aforesaid image reading apparatus and spectral densities for in B, G and R wavelength regions are obtained. A conversion function for obtaining analytical density from spectral density is obtained from the spectral densities obtained by the image reading apparatus and the analytical density obtained through measurement by a densitometer.