Abstract: A display device which exhibits functional effects in which color separation between sub-pixels constituting a pixel is hardly recognized and white line display is easily recognized as one line, in enlargement of the color reproduction range in image display using multi-primary colors, and thereby improves display quality, and provides a liquid crystal display device including such a display device. The display device displays an image constituted by pixels each including sub-pixels of four or more colors, wherein the pixels constituting the display device mainly include a pixel arranging a sub-pixel of a color having the highest brightness value in a central region of the pixel.

Abstract: An active matrix substrate includes a plurality of transistors. A source electrode is connected with a data signal line, and a drain electrode is connected with a pixel electrode in each transistor. The source electrode is located on a semiconductor layer, and at least a portion of the drain electrode is overlapped with the gate electrode. A gate insulating film covering the gate electrode of each transistor has a thin section having a reduced film thickness, at a portion where the gate insulating film is overlapped with each gate electrode. An overlapping area of the thin section with the source electrode is smaller than an overlapping area of the thin section with the drain electrode. Thus, the active matrix substrate can prevent the generation of short-circuits between the signal lines (between the data signal line and a scanning signal line) in a TFT forming region, while guaranteeing TFT characteristics.

Abstract: An active matrix substrate includes base substrate, gate lines, data lines, thin-film transistors and pixel electrodes. The gate lines are formed on the base substrate. The data lines are formed over the gate lines. Each of the data lines crosses all of the gate lines with an insulating film interposed therebetween. The thin-film transistors are formed over the base substrate. Each of the thin-film transistors is associated with one of the gate lines and operates responsive to a signal on the associated gate line. Each of the pixel electrodes is associated with one of the data lines and one of the thin-film transistors and is electrically connectable to the associated data line by way of the associated thin-film transistor. Each of the pixel electrodes and the associated thin-film transistor are connected together by way of a conductive member.

Abstract: An active matrix substrate includes a substrate; scanning lines formed on the substrate; an insulating film covering the scanning lines; signal lines intersecting the scanning lines via the insulating film; switching elements formed on the substrate, each operating in response to a signal which is applied to the corresponding scanning line; and pixel electrodes each capable of being electrically connected to the corresponding signal line via the switching elements. The insulating film is a multilayer insulating film including a first insulating layer and a second insulating layer. The first insulating layer is formed of an insulating material containing an organic component, and the multilayer insulating film has a low-stack region in at least a portion of a region overlapping each switching element, the first insulating layer not being formed in the low-stack region.

Abstract: An image detection apparatus includes a substrate, a middle layer formed on the substrate, the middle layer having a quadrilateral hole, and a photoelectric conversion layer deposited on the middle layer. The curvature radius of each of the corner portions of the quadrilateral hole is greater than or equal to 2 ?m. Further, the photoelectric conversion layer is made of an amorphous material.

Abstract: In an information recording device (10), a content control unit (14a) divides an input content into a plurality of sections and further subdivides each section into recording units with predetermined data amounts. An attached information generating unit (14b) generates attached information necessary for making use of the input information and license. An encrypting unit (15) generates encrypting information by using a number that is included in the attached information and that is allocated to the input information, and encrypts information included in the recording unit by the encrypted information. Further, the information encrypted by the encrypting unit, the attached information corresponding to the input information and the license are associated with every section divided by the content control unit through an outside input and output I/F(11) and the associated information and the license are recorded on a recording medium.

Abstract: An active matrix substrate includes base substrate, gate lines, data lines, thin-film transistors and pixel electrodes. The gate lines are formed on the base substrate. The data lines are formed over the gate lines. Each of the data lines crosses all of the gate lines with an insulating film interposed therebetween. The thin-film transistors are formed over the base substrate. Each of the thin-film transistors is associated with one of the gate lines and operates responsive to a signal on the associated gate line. Each of the pixel electrodes is associated with one of the data lines and one of the thin-film transistors and is electrically connectable to the associated data line by way of the associated thin-film transistor. Each of the pixel electrodes and the associated thin-film transistor are connected together by way of a conductive member.

Abstract: Static electricity generated in each data line 3 at the time of manufacturing a TFT active matrix substrate 10 is discharged to a common line 110 through a bidirectional diode 30A. Since the bidirectional diode 30A is configured to have a first allowable level higher than a second allowable level of a protection circuit 112, a leak current that are generated in each data line 3 when being driven is discharged to common lines 111A, 111B through the protection circuit 112.

Abstract: A software development support apparatus includes: a class memory unit which stores a class for generating a unit object which carries out predetermined processing; an object generating unit which reads the class and generates the unit object; an annotation analysis unit which determine whether the class includes annotation information; and an extended-function execution unit which carries out an extended-function object corresponding to the class. When the annotation analysis unit determines that the class includes the annotation information, the object generating unit generates the extended-function object based on the annotation information, and when the unit object to the class is called from a predetermined application and carried out, the extended-function execution unit carries out the extended-function object to the class.

Abstract: The present invention provides a radiation detector with improved workability in manufacturing processes and maintenance processes. Namely, a first housing and a second housing can be opened, to allow accessing of a TFT substrate and a radiation converting layer disposed in the first housing, and to allow accessing of a circuit substrate disposed in the second housing. Accordingly, higher workability can be achieved in manufacturing processes such as connecting of switching elements of the TFT substrate and the circuit substrate, and in maintenance processes of the TFT substrate and the circuit substrate.

Abstract: An image detection device includes a sensor panel and a light. The sensor panel includes a semiconductor layer, which is formed on a substrate formed of a member having a light transmitting property and generates charges in response to X-rays radiated thereto, two pairs of electrodes each pair disposed in confrontation with each other, and a plurality of accumulating portions formed between the semiconductor layer and the substrate to accumulate the charges generated to the semiconductor layer as the information of the pixels constituting an image. The light radiates light to the surface of the sensor panel on the substrate side thereof. The respective electrodes of the accumulating portions are formed so that light having at least a predetermined intensity is radiated from the light to the regions of the semiconductor layer where the accumulating portions are formed.

Abstract: An active matrix substrate includes a transistor, a pixel electrode, a drain lead electrode connected with the drain electrode of the transistor, and a contact hole connecting the drain lead electrode and the pixel electrode. A non-electrode through-bore portion is created on the drain lead electrode, and an opening of the contact hole crosses the through-bore portion. As a result, any changes or decreases in the contact area between the drain lead electrode and the pixel electrode may be prevented or reduced significantly, while the open area ratio can be improved.

Abstract: An exhaust gas recirculation device (50) of an internal combustion engine (1) includes an EGR passage (51) linking an exhaust passage (6) and an intake passage (3) of the internal combustion engine, an EGR valve (54) that blocks the EGR passage when closed, an EGR catalyst (52) that is provided between a connection portion with the exhaust passage (6) in the EGR passage and an installation position of the EGR valve and that purifies an exhaust gas flowing in the EGR passage. The exhaust gas recirculation device performs exhaust gas recirculation control by which the EGR valve is opened and the exhaust gas flowing in the exhaust passage is recirculated to the intake passage via the EGR passage. The EGR catalyst is arranged in the vicinity of the connection portion (55) in the EGR passage.

Abstract: Intended is to suppress the separation by a thermal stress between an upper substrate and a lower substrate jointed through a joint member, and to suppress a creeping discharge from an upper electrode to a lower electrode. An active matrix substrate and a glass substrate are jointed at their outer peripheral portions so that the joint area, in which the active matrix substrate and the glass substrate are jointed, can be reduced. This makes it possible to reduce the thermal stress to be caused between the active matrix substrate and the glass substrate, and to suppress the separation between the active matrix substrate and the glass substrate jointed with an adhesive resin.

Abstract: An active matrix substrate includes base substrate, gate lines, data lines, thin-film transistors and pixel electrodes. The gate lines are formed on the base substrate. The data lines are formed over the gate lines. Each of the data lines crosses all of the gate lines with an insulating film interposed therebetween. The thin-film transistors are formed over the base substrate. Each of the thin-film transistors is associated with one of the gate lines and operates responsive to a signal on the associated gate line. Each of the pixel electrodes is associated with one of the data lines and one of the thin-film transistors and is electrically connectable to the associated data line by way of the associated thin-film transistor. Each of the pixel electrodes and the associated thin-film transistor are connected together by way of a conductive member.

Abstract: A phase contrast radiation imaging apparatus is includes a radiation source, a diffraction grating, and a radiation image detector. The radiation image detector is equipped with a charge generating layer that generates electric charges when irradiated with radiation, and charge collecting electrodes that collect the electric charges. The charge collecting electrodes are linear electrode groups, constituted by linear electrodes which are arranged at a constant period and are electrically connected to each other, provided to have different phases from each other. Thereby, use of a conventional amplitude diffraction grating is obviated.

Abstract: The present invention provides radiographic imaging elements that can obtain a radiographic image by irradiation with radiation of different energies at a single time, while suppressing positional misalignment. Namely, radiographic imaging elements are disposed layered on one face-side of a support substrate. A signal detection circuit and a scan signal control circuit are disposed on the opposite face-side of the support substrate, these circuits performing at least one of control of detection and/or signal processing of image signals in the respective radiographic imaging elements. The signal detection circuit and the scan signal control circuit are connected to the respective radiographic imaging elements by connection lines, enabling communication.

Abstract: An image detecting device includes a substrate including plural accumulating portions, plural data lines, plural first protection lines, plural first diodes, and plural second diodes. The plural accumulating portions, due to the irradiation of incident electromagnetic waves expressing an image which is an object of detection, charges expressing the image are accumulated. In the plural data lines, the plural accumulating portions are respectively connected individually via switching elements. The plural first protection lines are for protecting a circuit from excess voltage. In the plural first diodes, anodes are connected to a portion of the plural first protection lines respectively, and cathodes are connected to the plural data lines respectively. In the plural of second diodes, cathodes are connected to another portion of the plural first protection lines respectively, and anodes are connected to the plural data lines respectively.

Abstract: An active matrix substrate includes base substrate, gate lines, data lines, thin-film transistors and pixel electrodes. The gate lines are formed on the base substrate. The data lines are formed over the gate lines. Each of the data lines crosses all of the gate lines with an insulating film interposed therebetween. The thin-film transistors are formed over the base substrate. Each of the thin-film transistors is associated with one of the gate lines and operates responsive to a signal on the associated gate line. Each of the pixel electrodes is associated with one of the data lines and one of the thin-film transistors and is electrically connectable to the associated data line by way of the associated thin-film transistor. Each of the pixel electrodes and the associated thin-film transistor are connected together by way of a conductive member.

Abstract: The present invention provides a radiation detecting element that can obtain radiation images by X-rays of different energies by irradiation of X-rays at a single time, without positional offset arising. X-ray detecting sections, that generate charges corresponding to irradiated X-rays, are provided at an obverse side and a reverse side of a substrate. At each pixel, the X-ray detecting sections are disposed so as to be layered with respect to a direction of irradiation of X-rays.