Abstract: A plurality of light-emitting devices (10) include a plurality of light-emitting devices (10a), a plurality of light-emitting devices (10b), and a plurality of light-emitting devices (10c). The plurality of light-emitting devices (10) are aligned on a reflecting member (20). Six light-emitting devices (10c) are aligned in a straight line along one direction. Four light-emitting devices (10b) are aligned surrounding a region facing one ends of the six light-emitting devices (10c). Each of four light-emitting devices (10a) are aligned with each of the four light-emitting devices (10b) outside the four light-emitting devices (10b).

Abstract: In an MRI apparatus, a dynamic range of an MR signal is extended without increasing the time for imaging nor manufacturing cost. The MRI apparatus is provided with a receiver 200 configured to perform the A/D conversion on two-system nuclear magnetic resonance signals according to a direct sampling method. The receiver 200 comprises a distributor 201 configured to divide each of the nuclear magnetic resonance signals into two-system signals, an attenuator 202 configured to attenuate an overflowed signal outputted from the distributor, and a switch 203 configured to switch between the signals having the same gain to output the switched signal. Also provided is a digital processing means having ADCs of the same number as that of the nuclear magnetic resonance signals to perform the AD conversion respectively for the two types of signals, restore the attenuated signals, and recombine the signals.

Abstract: A light-emitting device (20) includes a first light-emitting member (10a) and a second light-emitting member (10b). Each of the first light-emitting member (10a) and the second light-emitting member (10b) includes a first surface (12) and a second surface (14), and light is emitted from the first surface (12). The first light-emitting member (10a) includes a first region (16a) and a second region (16b), the first region (16a) of the first light-emitting member (10a) being located on the second surface (14) side of the second light-emitting member (10b) and the second region (16b) of the first light-emitting member (10a) being located on the first surface (12) side of the second light-emitting member (10b).

Abstract: A plurality of light-emitting devices (10) include a plurality of light-emitting devices (10a), a plurality of light-emitting devices (10b), and a plurality of light-emitting devices (10c). The plurality of light-emitting devices (10) are aligned on a reflecting member (20). Six light-emitting devices (10c) are aligned in a straight line along one direction. Four light-emitting devices (10b) are aligned surrounding a region facing one ends of the six light-emitting devices (10c). Each of four light-emitting devices (10a) are aligned with each of the four light-emitting devices (10b) outside the four light-emitting devices (10b).

Abstract: A plurality of light-emitting devices (10) include a plurality of light-emitting devices (10a), a plurality of light-emitting devices (10b), and a plurality of light-emitting devices (10c). The plurality of light-emitting devices (10) are aligned on a reflecting member (20). Six light-emitting devices (10c) are aligned in a straight line along one direction. Four light-emitting devices (10b) are aligned surrounding a region facing one ends of the six light-emitting devices (10c). Each of four light-emitting devices (10a) are aligned with each of the four light-emitting devices (10b) outside the four light-emitting devices (10b).

Abstract: A light-emitting device (20) includes a first light-emitting member (10a) and a second light-emitting member (10b). Each of the first light-emitting member (10a) and the second light-emitting member (10b) includes a first surface (12) and a second surface (14), and light is emitted from the first surface (12). The first light-emitting member (10a) includes a first region (16a) and a second region (16b), the first region (16a) of the first light-emitting member (10a) being located on the second surface (14) side of the second light-emitting member (10b) and the second region (16b) of the first light-emitting member (10a) being located on the first surface (12) side of the second light-emitting member (10b).

Abstract: A plurality of light-emitting devices (10) include a plurality of light-emitting devices (10a), a plurality of light-emitting devices (10b), and a plurality of light-emitting devices (10c). The plurality of light-emitting devices (10) are aligned on a reflecting member (20). Six light-emitting devices (10c) are aligned in a straight line along one direction. Four light-emitting devices (10b) are aligned surrounding a region facing one ends of the six light-emitting devices (10c). Each of four light-emitting devices (10a) are aligned with each of the four light-emitting devices (10b) outside the four light-emitting devices (10b).

Abstract: A light-emitting device (20) includes a first light-emitting member (10a) and a second light-emitting member (10b). Each of the first light-emitting member (10a) and the second light-emitting member (10b) includes a first surface (12) and a second surface (14), and light is emitted from the first surface (12). The first light-emitting member (10a) includes a first region (16a) and a second region (16b), the first region (16a) of the first light-emitting member (10a) being located on the second surface (14) side of the second light-emitting member (10b) and the second region (16b) of the first light-emitting member (10a) being located on the first surface (12) side of the second light-emitting member (10b).

Abstract: A light emitting device (10) includes a light emitting portion (140), a first terminal (203), a second terminal (204), a first interconnect (191), and a second interconnect (192). The light emitting portion (140) is disposed on a first surface (101) side of a substrate (100), and has a laminated structure including a first electrode (110), an organic layer (120), and a second electrode (130). The first terminal (203) is disposed over a first end portion (103) of the substrate (100), and is electrically connected to the first electrode (110) or the second electrode (130). The second terminal (204) is disposed over a second end portion (104) of the substrate (100) facing the first end portion (103), and is connected to the first electrode (110) or the second electrode (130). The first interconnect (191) is connected to the first terminal (203) so as to extend in a direction different from a direction toward the second end portion (104).

Abstract: The optical device (100) is, for example, a light emitting device or a photoelectric conversion device (for example, a solar battery), and includes a substrate (110), a conductive section (124), a first electrode (120), a functional layer (130), and a second electrode (140). The conductive section (124) is formed on a first surface (112) of the substrate (110). The first electrode (120) covers the first surface (112) of the substrate (110) and the conductive section (124). The second electrode (140) overlaps the first electrode (120). The functional layer (130) is located between the first electrode (120) and the second electrode (140). The conductive section (124) has a configuration in which a first layer (210) and a second layer (220) are laminated in this order. An upper surface of an end part (222) of the second layer (220) is inclined in a direction approaching the first surface (112).

Abstract: An active matrix drive organic EL display panel comprising an organic TFT with a configuration that prevents the occurrence of current leak, and a manufacturing method thereof are proposed. The organic EL display panel comprises: a substrate; an organic EL element comprising in order from the substrate, a first display electrode, an organic functional layer and a second display electrode; and an organic TFT for driving and controlling the organic EL element comprising in order from the substrate a gate electrode, a gate insulation film, source/drain electrodes, and an organic semiconductor layer.

Abstract: A production process for making an electronic circuit substrate comprising: a patterning step of forming a respectively anodically oxidizable conductor pattern and distribution pattern connected to the conductor pattern on a substrate; and an anodic oxidation step of generating an oxide film from the conductor pattern and the distribution pattern by contacting an electrolyte solution with the conductor pattern and the distribution pattern and carrying out anodic oxidation while applying current thereto, the patterns serving as anodes, wherein the width or film thickness of the distribution pattern is at least partially set so that an insulator portion is formed in the anodic oxidation step in which an oxide film formed on one of the side walls of the distribution pattern is integrated with an oxide film formed on the other side wall.

Abstract: An active matrix drive organic EL display panel comprising an organic TFT with a configuration that prevents the occurrence of current leak, and a manufacturing method thereof are proposed. The organic EL display panel comprises: a substrate; an organic EL element comprising in order from the substrate, a first display electrode, an organic functional layer and a second display electrode; and an organic TFT for driving and controlling the organic EL element comprising in order from the substrate a gate electrode, a gate insulation film, source/drain electrodes, and an organic semiconductor layer.

Abstract: [PROBLEMS] To provide an organic transistor in which high-resolution patterning can be performed, favorable contact can be achieved, and a leakage current can be prevented. [SOLVING MEANS] An organic transistor includes a substrate 1, a gate electrode 2 formed on the substrate 1, a gate insulating layer formed on the gate electrode 2, a source electrode 4 and a drain electrode 5 formed on the gate insulating layer 3, an organic semiconductor layer 6 provided between the source electrode 2 and the drain electrode 3 and opposite to the gate electrode 2 with the gate insulating layer 3 interposed between them, and an insulating layer 7 having an opening portion 7a which defines the area where the organic semiconductor layer 6 is formed. The organic semiconductor layer 6 is formed through evaporation by using a low-molecular organic semiconductor material such as pentacen.

Abstract: [Problems] To form an organic semiconductor layer more uniformly in a channel region by allowing formation of a pattern with a higher resolution in an organic semiconductor element. [Solving Means] An organic semiconductor element includes a gate electrode 2 formed on a substrate 1, a gate insulating layer 3 formed on the gate electrode 2, a source electrode 4 and a drain electrode 5 formed on the gate insulating layer 3, and an organic semiconductor layer 6 placed between the source and drain electrodes 4 and 5 and opposite to the gate electrode 2 with the gate insulating layer 3 interposed therebetween. A barrier 7 is formed on the surfaces of the source and drain electrodes 4 and 5 at least except for a channel region formed between the source and drain electrode 4 and 5. The barrier 7 has a surface energy level lower than that of the channel region.

Abstract: An organic TFT device in which a plurality of organic TFTs can be formed in a narrow region and a manufacturing method therefor are proposed. The organic TFT device comprises a substrate, and a plurality of organic TFTs disposed in a transistor region on the substrate. The organic TFT device further comprises: a bank enclosing the transistor region and having a single opening; and a single organic semiconductor layer demarcated by the bank and forming a channel for the organic TFTs.

Abstract: It is an object to provide an organic EL display device having the organic transistor of less performance deterioration, a method of manufacturing the organic EL display device, an organic transistor, and a method of manufacturing the organic transistor. The organic EL display device P1 covers the organic transistor 50 and has a protection film 20 protecting the organic transistor. Between the protection film 20 and the surface of the organic transistor 50, a conductive layer (an negative electrode of the organic EL element 100) 18 having conductivity is formed and an insulation film 72 insulating the surface of the organic transistor 50 and the conductive layer 18 is formed on the side of the surface of the organic transistor 50 but the conductive layer 18.

Abstract: A production process for making an electronic circuit substrate comprising: a patterning step of forming a respectively anodically oxidizable conductor pattern and distribution pattern connected to the conductor pattern on a substrate; and an anodic oxidation step of generating an oxide film from the conductor pattern and the distribution pattern by contacting an electrolyte solution with the conductor pattern and the distribution pattern and carrying out anodic oxidation while applying current thereto, the patterns serving as anodes, wherein the width or film thickness of the distribution pattern is at least partially set so that an insulator portion is formed in the anodic oxidation step in which an oxide film formed on one of the side walls of the distribution pattern is integrated with an oxide film formed on the other side wall.

Abstract: A display apparatus (1) for generating a stereoscopic image by superimposing a plurality of images at a predetermined interval from each other on the view line of the viewer, the apparatus comprising: a first display unit (11) having a plurality of emission areas (11-1) for emitting a light, disposed in a discrete manner in a plane of a display screen and a plurality of transmission areas (11-2) for transmitting a light, disposed in a discrete manner in the plane of the display screen except for areas occupied by said plurality of emission areas; and a second display unit (12) disposed behind the first display unit as seen from the viewer.

Abstract: A three-dimensional image display device including at least one transmissive light-emitting display panel and a second light-emitting display panel located behind the transmissive panel. The transmissive panel has a plurality of light-emitting portions arranged in two dimensions and classified into plural linear groups. The transmissive panel has a plurality of bus lines each of which is connected to and overlapping with the light-emitting portions in per group. Each light-emitting portion includes a light-emitting layer made of an organic compound exhibiting electroluminescence. Each overlapped portion of the bus line has an area equal to or smaller than 5% of an area of each of the light-emitting portions.