Abstract:
PROBLEM TO BE SOLVED: To provide a spintronics device high in charge current to spin current conversion efficiency, and capable of providing a high-intensity spin current. SOLUTION: This spintronics device includes: a spin current generation region 30 having a first end face and a second end face facing each other, and formed of a nonmagnetic bipolar conductive metal wherein a hole and an electron have carrier densities and mobilities at comparable levels, and a hole coefficient is zero; a first main electrode 20 arranged on the first end face and formed of a ferromagnetic material for injecting spin-polarized holes into the spin current generation region 30; and a second main electrode 40 arranged on the second end face for injecting electrons into the spin current generation region 30. Holes and electrons are made to be transported in the same direction by Lorentz force, and charge of the holes and that of the electrons are neutralized with each other to provide the spin current. COPYRIGHT: (C)2011,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a light-emitting device and a method of manufacturing the same, compact with a structure of high heat dissipation efficiency, capable of restraining degradation of element life and emission characteristics of light-emitting elements, as well as an electronic equipment having a light-emitting panel with fluctuation of luminance restrained. SOLUTION: A display panel 100 is provided with a panel structure in which an array substrate 10 with pixel arrays 21 fitted and a sealing substrate 30 with recessed parts 36 fitted are jointed in opposition to each other. The array substrate 10 is provided with high-radiation thin film 22 so as to cover the pixel arrays 21, and the sealing substrate 30 is provided with high-radiation thin film 32 so as to be opposed to the pixel arrays 21. Further, a high thermal-conductivity gas is sealed in a sealing space 35 formed by jointing the array substrate 10 and the sealing substrate 30. COPYRIGHT: (C)2011,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a device and method for manufacturing a thin film electrode, in which the thin film electrode having uniform film quality of high quality is formed with satisfactory reproducibility while stably controlling film-deposition speed. SOLUTION: As for an electron beam vacuum deposition device 100, a raw material housing part comprising a water cooled hearth 111, an insertion crucible 112A and an adhesion tool 113A is provided in a vacuum chamber 110. The adhesion tool 113A is interposed between the water cooled hearth 111 and the insertion crucible 112A and has a shape uniformly adhering to a part between an inner surface (a side surface and a bottom surface) of a recessed part 111a of the water cooled hearth 111 and an outer peripheral surface (a side surface and a bottom surface) of the insertion crucible 112A. COPYRIGHT: (C)2011,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a fuel cell device suppressing heat conducted from a power generation cell to the outside in starting while suppressing power loss in stationary operation. SOLUTION: The fuel cell device includes the power generation cell generating electric power by reaction between a fuel and oxygen, an output electrode electrically connected to an electrode of the power generation cell and a conductive member provided to be connected to/disconnected from the output electrode at one end and electrically connected to the electrode of the power generation cell at the other end. COPYRIGHT: (C)2010,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a method of manufacturing a reactor, which can be suitably used for suppressing the breakage and deterioration of the reactor based on thermal expansion, while assuring the range of material choice. SOLUTION: The method of manufacturing a reactor includes a reactor body preparation process of preparing a reactor body equipped with a reacting zone, a heating section preparation process of preparing a heating zone for at least heating the reacting zone, and a first arrangement process of adjusting the positions of the body of the reactor and the heating section. The heating section preparation process includes a heat insulating material provision process of preparing a heat insulating material, a flattered film formation process of forming a flattered film with a flat surface on the heat insulating material, and a heating section forming process of forming a heating section for generating heat by turning on electricity on the flattered film. The first arrangement process matches the location of the body of the reactor with the location of the heating section so that the heating section and the body of the reactor are directed to each other in a non-contact state. COPYRIGHT: (C)2010,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a heat insulating container which secures a temperature difference between reacting parts of a reactor including two or more reacting parts. SOLUTION: The heat insulating container 30 houses the reactor 10 including the two or more reacting parts 11, 12 having different temperatures. The inner wall surface of the heat insulating container is composed of two or more regions having different infrared reflectances, and the reacting part having a lower temperature is arranged on the region side having a lower infrared reflectance. Heat dissipation from the reacting part having the lower temperature is promoted, and the temperature difference between the reacting parts of the reactor including two or more reacting parts can be secured. COPYRIGHT: (C)2011,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a discharge device in which the discharge of liquid is stabilized. SOLUTION: The discharge device has an injection nozzle which discharges liquid continuously from an injection port, a drive part which operates the injection nozzle, a first storage part which is connected so as to operate integrally with the injection nozzle and stores the liquid, and a first liquid supply part which is formed in the first storage part and supplies the liquid from the first storage part to the injection nozzle. Furthermore, the first storage part may have a liquid quantity detection part which detects a storage amount of the liquid in the first storage part. Furthermore, the injection nozzle may have a flow rate detection part to detect a flow rate of the liquid flowing in the injection nozzle. COPYRIGHT: (C)2011,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide an ejection nozzle capable of preventing bubbles from staying therein or of reducing bubbles staying therein, and an ejection device. SOLUTION: The ejection nozzle includes a body that constitutes the outer face of the ejection nozzle 10 and comprises an ink flow path of a reversed U shape formed therein, which body includes an ink inflow port 12 communicating with one end of the ink flow path of a reversed U shape formed therein, an ink ejection port 13 communicating with the other end thereof, and a bubble discharge port 14 formed on the upper part of the body to discharge bubbles mixed in the ink. A gas/liquid separator 50 that is made from a porous material and separates the bubbles mixed in the ink, is disposed in the upper section of the ink flow path of a reversed U shape. COPYRIGHT: (C)2011,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a coating apparatus capable of surely detecting a bubble. SOLUTION: A capacity sensor 91 is stuck onto an inner wall of a head cylinder 81. The capacity sensor 91 includes a flexible substrate 92 whereon electrode patterns 93 are disposed to form a narrow gap area present therebetween functioning as a capacity measurer C1. A bubble detector judges the condition of bubbles based on the frequency of a pulse signal whose cycle varies according to the time constant determined by the capacity and the resistance of the capacity measurer C1. Since the frequency increases if bubbles are contained in ink in a greater number, the bubble detector determines that the bubbles present therein exceeds an allowable limit when the frequency exceeds a predetermined frequency threshold. COPYRIGHT: (C)2011,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To properly keep the temperature of a reactor body while suppressing the amount of heat transfer to a heat insulating container from the reactor. SOLUTION: The reactor 10 includes a reactor body 11 and the heat insulating container 20 housing the reactor body 11. The heat insulating container 20 has radiation permeating areas 23, 25 permeating radiation in infrared region. COPYRIGHT: (C)2011,JPO&INPIT