Abstract:
PROBLEM TO BE SOLVED: To suppress deterioration of system efficiency in a reaction apparatus equipped with a low-temperature reaction part and a high-temperature reaction part that reacts at a temperature higher than that in the low-temperature reaction part. SOLUTION: The reaction apparatus is equipped with: the low-temperature reaction part; the high-temperature reaction part in which reaction is carried out at a temperature higher than that in the low-temperature reaction part; a coupling part that couples the low-temperature reaction part to the high-temperature reaction part; and a heat conducting member wherein one end can be decoupled from a first position capable of conducting heat to the low-temperature reaction part and the other end is fixed at a second position capable of conducting heat to the high-temperature reaction part. When the temperature in the high-temperature reaction part falls below a prescribed temperature lower than the reaction temperature in the high-temperature reaction part, the one end of the heat conducting member is uncoupled from the first position. When the temperature in the high-temperature reaction part becomes equal to or higher than the prescribed temperature, the one end establishes contact with the first position. COPYRIGHT: (C)2010,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To relatively easily form a protective film covering a light emitting element.SOLUTION: In an EL panel 1, an EL element 8 (a light emitting region R) provided on a substrate 10 is covered with a passivation film 14, and is entirely solid-sealed with a sealing material 15 between a sealing substrate 22 and the substrate 10 together with the passivation film 14. In the EL panel, An AlBaOthin film capable of being formed with less sputtering power is applied to the passivation film 14 to form the passivation film 14, and the EL element 8 is favorably covered with the passivation film 14 to be protected.
Abstract:
PROBLEM TO BE SOLVED: To provide a fuel cell in which an electrolyte membrane is thinly formed, and to provide a manufacturing method thereof. SOLUTION: The fuel cell has the electrolyte membrane for passing ions, a fuel electrode formed on one surface of the electrolyte membrane, and an air electrode formed on the other surface of the electrolyte membrane. The fuel electrode includes porous nickel as a principal component, and does not include an oxide included in the electrolyte membrane. COPYRIGHT: (C)2010,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a reaction device maintaining temperature of a reaction device body appropriately while suppressing the amount of heat transmission from the reaction device to a heat insulating container. SOLUTION: The reaction device 10 includes a reaction device body 11 and a heat insulating container 20 housing the reaction device body 11. The heat insulating container 20 includes radiation transmitting regions 23 and 25 where radiation of an infrared region from the reaction device body 11 transmits. COPYRIGHT: (C)2010,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a method of manufacturing an insulation film having enhanced dielectric strength, a reactor, a power generation equipment and an electronic equipment. SOLUTION: A micro reactor 1 for causing reaction of a reactant is constituted by a top plate 2, a bottom plate 3 and the like being metal substrates, wherein an R 2 O 3 film (e.g.Y 2 O 3 film) having crystal structure of a rare-earth element R is formed as an insulation film 31 between the bottom plate 3 and a thin film heater 32 provided on the surface of the bottom plate 3. The R 2 O 3 film is formed by, after forming the R film on the surface of the bottom plate 3, forming an RH 2 film by hydrogenating the R film and further oxidizing it. COPYRIGHT: (C)2009,JPO&INPIT
Abstract translation:要解决的问题:提供一种制造具有增强的绝缘强度的绝缘膜,反应器,发电设备和电子设备的方法。 解决方案:用于引起反应物反应的微反应器1由顶板2,底板3等作为金属基材构成,其中R SB 2 O 3 具有稀土元素R的晶体结构的 SB>膜(例如,SiO 2膜)形成为底板3和底板3之间的绝缘膜31 设置在底板3的表面上的薄膜加热器32.通过在底板的表面上形成R膜之后,形成R SB 2 O 3 SB 3,通过对R膜进行氢化并进一步氧化来形成RH 2 SB>膜。 版权所有(C)2009,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a reaction apparatus and an electronic device having an insulation membrane which can be easily crystallized, prevent cracking and ablation of the insulation membrane easy to generate when a metal substrate is deformed under a high-temperature environment and increase the reliability of the electric insulation between the metal substrate and a thin-film heater. SOLUTION: A microreactor 1 for carrying out a reaction of a reaction material consists of the upper plate 2, the bottom plate 3, etc. of the metal substrate, wherein a Gd 2 O 3 film is formed as the insulation membrane 31 between the bottom plate 3 and the thin-film heater 32 arranged on its surface. COPYRIGHT: (C)2009,JPO&INPIT
Abstract translation:要解决的问题:提供一种具有绝缘膜的反应装置和电子装置,其可以容易地结晶,防止金属基板在高温环境下变形时容易产生的绝缘膜的开裂和烧蚀 并提高金属基板和薄膜加热器之间的电绝缘的可靠性。 解决方案:用于进行反应材料反应的微反应器1由金属基板的上板2,底板3等构成,其中,Gd 2 O
Abstract:
PROBLEM TO BE SOLVED: To provide an insulation film manufacturing method which can attain an increase in withstand voltage of an insulation film, a reaction device, a power generation device and an electronic apparatus. SOLUTION: A microreactor 1 for causing a reactant to react comprises a top plate 2 and a bottom plate 3 or the like which are metallic substrates. An R 2 O 3 film (Y 2 O 3 film) having the crystalline structure of a rare earth element R is deposited, as an insulation film 31, between the bottom plate 3 and a thin film heater 32 provided on its surface. The R 2 O 3 film is formed by depositing an R film on the surface of the bottom plate 3, hydrogenating it to form an RH 2 film, and further oxidizing it. COPYRIGHT: (C)2008,JPO&INPIT
Abstract translation:要解决的问题:提供一种可以实现绝缘膜,反应装置,发电装置和电子设备的耐电压提高的绝缘膜制造方法。 解决方案:用于使反应物反应的微反应器1包括作为金属基底的顶板2和底板3等。 具有稀土元素的晶体结构的R SB 2 O 3 SB 3薄膜(Y 2 SB 3 O 3 / SB 3膜) R作为绝缘膜31沉积在底板3和设置在其表面上的薄膜加热器32之间。 通过在底板3的表面上沉积R膜来形成R SB 2 O 3 SB 3膜,将其氢化以形成RH < 膜,并进一步氧化它。 版权所有(C)2008,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a fuel reformer for a fuel cell having low energy loss. SOLUTION: The fuel reformer 1 for the fuel cell is equipped with a reformer body 10 having a thin membrane heater on the inside, an outside container 20 for housing the reformer body 10 and keeping the inside in a vacuum state, an electric wire for supplying electric power to the thin membrane heater, and a plurality of fuel introducing/exhausting pipes 12. The electric wire and the plurality of fuel introducing/exhausting pipes 12 are passed through the outside container 20 in order to keep in vacuum. By forming the reformer body 10, the fuel introducing/exhausting pipes 12, and the outside container 20 with glass, heat conduction caused by direct contact of a member is remarkably reduced, and the fuel reformer 1 for the fuel cell having low energy loss can be obtained. COPYRIGHT: (C)2007,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a heat treatment apparatus in which the simplification of a configuration and the reduction of heat loss in the furnace of a reformer can be realized, and the enhanced accuracy of a temperature measurement has been achieved. SOLUTION: A heat treatment apparatus includes a heating resistor 47 that applies a heat to a raw material to be heat-treated within a flow passage in a chemical reactor, a diffusion preventing layer 47b for preventing a diffusion associated with the heat build-up of the heating layer underneath an heating layer 47a of the heating resistor, and an adhesion layer 47c for increasing an adhesion strength between the diffusion preventing layer and the surface of a substrate 41. It is preferable that substance comprising the heating layer contains Au, and substance comprising the diffusion preventing layer contains W. COPYRIGHT: (C)2005,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To provide a method for forming a rare earth hydride film where unrequired oxide films are hard to be formed, e.g., on the surface of a rare earth hydride film. SOLUTION: A first substrate 2 with an original rare earth metal film 4 deposited thereon is arranged on the left side in a heating furnace 1, and a second substrate 3 with a rare earth metal film 5 deposited thereon for an impurity getter is arranged on the right side in the heating furnace 1. Then, heating is performed with heaters 6 to 9 while feeding gaseous Ar including hydrogen into the heating furnace 1. Then, at first, the rare earth metal film 5 on the second substrate 3 is hydrogenated, so that a rare earth hydride film 5A is formed, and further, an oxide film is formed, e.g., on the surface of the rare earth hydride film 5A. Thus, in the gaseous Ar including hydrogen passed through the arranging region of the second substrate 3, the concentration of impurity gas is reduced. Next, the rare earth metal film 4 on the first substrate 2 is hydrogenated to form a rare earth hydride film 4A. In this case, unrequired oxide films can be made hard to be formed, e.g., on the surface of the rare earth hydride film 4A. COPYRIGHT: (C)2005,JPO&NCIPI