Abstract: A semiconductor device according to an embodiment includes a semiconductor chip, a semiconductor element, a stacked body, and a structure body. The semiconductor chip includes a first surface, a second surface, and a side surface between the first surface and the second surface. The semiconductor element is provided in the center of the semiconductor chip when viewed from the normal direction of the first surface. The stacked body is provided at the outer peripheral end portion of the semiconductor chip when viewed from the normal direction and includes a plurality of first layers and a plurality of second layers alternately stacked in the normal direction. The structure body is provided in at least a part between the semiconductor element and the side surface when viewed from the normal direction and extending from a position higher than the stacked body to a position lower than the stacked body.

Abstract: Provided is a method for producing a negative electrode for an electric storage device, the method comprising the steps of preparing a negative electrode composition comprising a negative electrode active material that reversibly carries a sodium ion, metal sodium, and a liquid dispersion medium for dispersing them; allowing a negative electrode current collector to hold the negative electrode composition; evaporating at least part of the liquid dispersion medium from the negative electrode composition held by the negative electrode current collector, thereby giving a negative electrode precursor comprising the negative electrode active material, the metal sodium, and the negative electrode current collector; and bringing the negative electrode precursor into contact with an electrolyte having sodium ion conductivity, thereby doping the negative electrode active material with sodium eluted from the metal sodium.

Abstract: Provided is a method for producing a negative electrode for an electric storage device, the method comprising the steps of: preparing a negative electrode composition comprising a negative electrode active material that reversibly carries a sodium ion, metal sodium, and a liquid dispersion medium for dispersing them; allowing a negative electrode current collector to hold the negative electrode composition; evaporating at least part of the liquid dispersion medium from the negative electrode composition held by the negative electrode current collector, thereby giving a negative electrode precursor comprising the negative electrode active material, the metal sodium, and the negative electrode current collector; and bringing the negative electrode precursor into contact with an electrolyte having sodium ion conductivity, thereby doping the negative electrode active material with sodium eluted from the metal sodium.

Abstract: Provided is a method for producing a negative electrode for an electric storage device, the method comprising the steps of: preparing a negative electrode composition comprising a negative electrode active material that reversibly carries a sodium ion, metal sodium, and a liquid dispersion medium for dispersing them; allowing a negative electrode current collector to hold the negative electrode composition; evaporating at least part of the liquid dispersion medium from the negative electrode composition held by the negative electrode current collector, thereby giving a negative electrode precursor comprising the negative electrode active material, the metal sodium, and the negative electrode current collector; and bringing the negative electrode precursor into contact with an electrolyte having sodium ion conductivity, thereby doping the negative electrode active material with sodium eluted from the metal sodium.

Abstract: A current collector is covered with sodium metal through: (1) applying a sodium dispersion containing sodium metal and at least one substance selected from the group consisting of an imide salt and a binder, on a current collector in an inert gas environment (with an oxygen concentration of not more than 0.01% and a dew point of not more than ?10° C.), followed by heating and drying; (2) pressure bonding a piece of solid sodium metal having a surface which exhibits a metallic luster onto a current collector in the aforementioned inert gas environment; (3) vapor-depositing sodium metal on a current collector in a reduced pressure environment; or (4) immersing a current collector having a surface fired at a temperature ranging from 150 to 300° C. in molten sodium metal after removing a coating film which is generated on a surface and formed from impurities, in the aforementioned inert gas environment.

Abstract: A current collector is covered with sodium metal through: (1) applying a sodium dispersion containing sodium metal and at least one substance selected from the group consisting of an imide salt and a binder, on a current collector in an inert gas environment (with an oxygen concentration of not more than 0.01% and a dew point of not more than ?10° C.), followed by heating and drying; (2) pressure bonding a piece of solid sodium metal having a surface which exhibits a metallic luster onto a current collector in the aforementioned inert gas environment; (3) vapor-depositing sodium metal on a current collector in a reduced pressure environment; or (4) immersing a current collector having a surface fired at a temperature ranging from 150 to 300° C. in molten sodium metal after removing a coating film which is generated on a surface and formed from impurities, in the aforementioned inert gas environment.

Abstract: When a user sets water power using a water power adjustment switch in a remote control device, a controller controls the period of pressure fluctuations, the width of pressure fluctuations, and the central pressure of the discharge pressure of a pump on the basis of a signal transmitted by radio from the remote control device. When the user sets the divergent angle of washing water using a washing area adjustment switch in the remote control device, the controller controls the divergent angle of the washing water sprayed from a posterior nozzle on the basis of the signal transmitted by radio from the remote control device. Consequently, the washing water supplied to a side surface of a cylindrical swirl chamber from a first flow path in the posterior nozzle is sprayed from a spray hole as dispersed spiral flow, and the washing water supplied to a lower part of the cylindrical swirl chamber from a second flow path in the posterior nozzle is sprayed from the spray hole as linear flow.

Abstract: A washing nozzle of a toilet device has a flat part in its tip, and a jet hole for jetting washing water is provided in the flat part. The flat part and a tubular main body are monolithically joined together by a continuous face. This washing nozzle is manufactured by deep-drawing a thin sheet metal material and providing the flat part in its tip. Besides, a flow adjusting member for adjusting a flow of the washing water is internally inserted. These nozzles are stable in their jet directions, further crud is difficult to adhere thereto, and they are easy to be cleaned.

Abstract: A UV treatment comprises an upper case 2 of a size allowing right and left feet to be placed thereupon, a bottom case 2 that supports the upper case 2, and a cover 3 attached to the upper case 2. Two front position UV radiation ports 10L and 10R that open in the up-down direction are provided on both the right and left sides at the front of the upper case 2. Central UV radiation ports 15L and 15R that open in the left and right direction are provided in the left-right direction center toward the back of the upper case 2. UV lamps 20L and 20R are disposed on the bottom case 3 in positions corresponding to the front position UV radiation ports 10L and 10R, and a UV lamp 20 is disposed at a position corresponding to the central UV radiation ports 15L and 15R. When left and right feet are placed above the front radiation ports 10L and 10R of the upper case 2, both the front of a foot and the inner sole can be irradiated simultaneously.

Abstract: When a user sets water power using a water power adjustment switch in a remote control device, a controller controls the period of pressure fluctuations, the width of pressure fluctuations, and the central pressure of the discharge pressure of a pump on the basis of a signal transmitted by radio from the remote control device. When the user sets the divergent angle of washing water using a washing area adjustment switch in the remote control device, the controller controls the divergent angle of the washing water sprayed from a posterior nozzle on the basis of the signal transmitted by radio from the remote control device. Consequently, the washing water supplied to a side surface of a cylindrical swirl chamber from a first flow path in the posterior nozzle is sprayed from a spray hole as dispersed spiral flow, and the washing water supplied to a lower part of the cylindrical swirl chamber from a second flow path in the posterior nozzle is sprayed from the spray hole as linear flow.

Abstract: An apparatus for washing human privates including a water heater (12), which is connected with a water supply pipe (8) and a hot water pipe (15) such that wash water supplied from the water supply pipe (8) is heated to a proper temperature by the water heater (12) while proceeding to the hot water pipe (15) through the water heater (12). A water supply controlling device (9, 10) controls the supply of wash water to the water heater (12). A discharge device (17) is provided for discharging to the human privates the wash water heated to the proper temperature by the water heater (12), which is connected with the hot water pipe (15). An air mixing device (21) is employed for mixing air into the wash water, and a controller (32) selectively controls the amount of air mixed into the wash water by the air mixing device (21).

Abstract: A structure of a window shelf portion to partition a vehicular passenger compartment, comprising: a) a shelf panel mounted at the window shelf portion so as to partition the passenger compartment and a trunk, said trunk serving as a Helmholtz resonator chamber; b) a shelf trim mounted on the shelf panel with a space provided against the shelf panel; c) a plurality of openings formed on both of the shelf panel and the shelf trim so as to partially provide air passages between the trunk and passenger compartment and as to provide a throat portion of the Helmholtz resonator for the space; and d) at least one partition wall provided in the space between the shelf panel and shelf trim and arranged for reducing an equivalent cross sectional area of the throat portion of the Helmholtz resonator.

Abstract: In a solid electrolyte fuel cell, reactant gases are directed by the reactant gas distributing means to flow radially between its central and peripheral portions and this obviates the need to provide an overall gas seal between the individual components of the fuel cell. A gas seal, if necessary at all, may be provided in selected areas. This permits the individual members of the fuel cell to freely slide with respect to one another during thermal expansion or contraction. The radial flow of reactant gas streams effectively reduces the travel path, and hence the concentration gradient, of the reactant gases. This contributes to the accomplishment of a solid electrolyte fuel cell having improved reliability and characteristics. As a further advantage, the discharged reactant gases may be burnt in a combustion chamber and a solid electrolyte fuel cell having a higher thermal efficiency can be realized by making use of the resulting heat of combustion.

Abstract: A drying apparatus with a deodorizing member for a printing machine including a hot blast nozzle for directing a hot blast against a web of printed material for drying the printed material. The deodorizing member includes a preheating chamber provided with a burner for preheating a collective process gas including a portion of a used process gas already used during the drying operation. A catalytic layer is provided for oxidizing the used process gas and is operatively connected to a fan for supplying the used process gas through the catalytic layer.