Abstract: An air intake structure includes a blower, a flow path that includes an inlet port that draws air and a flow path space connected to the inlet port to allow air drawn in through the inlet port to flow to the blower, and a recessed portion that protrudes to an outer side of the flow path space at a portion of the flow path adjacent to the inlet port, the recessed portion having a recessed space opening to the flow path space.

Abstract: A dose monitor measures a dose of a beam. The position monitor measures the beam size of the beam. The irradiation control apparatus calculates the measurement characteristic of the dose monitor based on the dose and the beam size of the beam, and controls the irradiation of the patient with the beam based on the measurement characteristic and the dose.

Abstract: A method for manufacturing an optical fiber includes: melting an optical fiber preform and drawing a glass fiber; applying a resin composition to an outer periphery of the glass fiber; and curing the resin composition applied, wherein an amount of eccentricity of a central axis of the glass fiber, in a cross section perpendicular to the central axis of the glass fiber, from a central axis relative to an outer periphery of the resin composition or an outer periphery of a coating resin layer formed by curing the resin composition is measured at 50 points or more over a length range of 50 m or more of the glass fiber, and wherein the resin composition is applied such that a mean value a and a standard deviation a of the amount of eccentricity satisfy a+3??10 ?m.

Abstract: A method for manufacturing an optical fiber includes applying a first resin composition, forming a primary resin layer, applying a second resin composition, and forming a secondary resin layer. An ultraviolet LED used a light source in the forming the primary resin layer and the forming the secondary resin layer. In the forming the primary resin layer, an effective power consumption represented by formula (1) is 0.056 kWs or more and 0.230 kWs or less, ? n = 1 N Bn · ? ? n · tn ( 1 ) where N is a number of light sources, Bn [kW] is a rated power of an n-th light source, ?n is a predetermined rate of power of the n-th light source, and tn [s] is an irradiation time of the n-th light source.

Abstract: An eccentric state determining method which is performed by a controller and for determining a state of eccentricity of a coating of a glass fiber with respect to the glass fiber. The coating is formed around the glass fiber. The method includes acquiring measurement values for an outer diameter of the optical fiber at positions along a longitudinal direction of the optical fiber, calculating a standard deviation of the measurement values, and determining the state of the eccentricity based on the standard deviation.

Abstract: A method for producing an optical fiber coated with a UV-curable resin material around a glass fiber includes: a step of applying the UV-curable resin material to the periphery of the glass fiber; a step of passing the glass fiber coated with the UV-curable resin material through an interior of a cylindrical body (illustrated with a quartz tube) capable of transmitting UV light; a step of irradiating UV light from outside the cylindrical body by using a light source (illustrated with a UV bulb) to cure the glass fiber and form a coating; and a step of controlling (illustrated with a power controller) a power input to the light source so that a cure extent of the coating is constant based on the illuminance of the UV light from the light source and the illuminance of the UV light transmitted through the cylindrical body.

Abstract: An optical fiber includes a glass fiber and a coating resin layer surrounding the outer periphery of the glass fiber. The coating resin layer has a primary resin layer that surrounds the outer periphery of the glass fiber, and a secondary resin layer that surrounds the outer periphery of the primary resin layer. The primary resin layer has a thickness of 7.5 ?m or more and 17.5 ?m or less. The primary resin layer has a Young's modulus of 0.10 MPa or greater and 0.50 MPa or less at 23° C. The secondary resin layer has a thickness of 5.0 ?m or more and 17.5 ?m or less. The secondary resin layer has an outer diameter of 165 ?m or more and 175 ?m or less. The secondary resin layer has a Young's modulus of 1200 MPa or greater and 2800 MPa or less at 23° C.

Abstract: An optical fiber includes a glass fiber including: a core and a cladding; and a coating resin layer coating the glass fiber in contact with the glass fiber; wherein the coating resin layer has a primary resin layer coating the glass fiber in contact with the glass fiber and a secondary resin layer coating the primary resin layer, the primary resin layer contains a cured product of a first resin composition containing a photopolymerizable compound and a phosphine oxide-based photopolymerization initiator, the secondary resin layer contains a cured product of a second resin composition containing a photopolymerizable compound and a phosphine oxide-based photopolymerization initiator, and an amount of the phosphine oxide-based photopolymerization initiator remaining unreacted in the coating resin layer is 0.5 mass % or less.

Abstract: An optical fiber includes a glass fiber, and a resin coating layer covering an outer circumference of the glass fiber. In a spectrum acquired by measuring an amount of eccentricity of the glass fiber from a central axis based on an outer circumference of the resin coating layer at a plurality of measurement points set at a predetermined interval in an axial direction of the glass fiber and applying Fourier transform of a waveform representing the amount of eccentricity at each of the plurality of measurement points, a largest value of amplitude of the amount of eccentricity is 6 ?m or less.

Abstract: A method of manufacturing an optical fiber includes applying a curable resin composition containing a photopolymerization initiator so that an outer circumference of a glass fiber including a core and a cladding is coated, and forming a coating layer by radiating an ultraviolet ray to the curable resin composition and curing the curable resin composition. Forming the coating layer includes providing two or more non-radiation periods and intermittently radiating the ultraviolet ray three or more times so that a total time of the non-radiation periods is 0.010 seconds or more.

Abstract: A latent heat storage body microcapsule includes a core including gallium or gallium alloy; and a shell covering the core and including gallium oxide. A method for producing the same includes a particle-forming step of forming gallium or an alloy of gallium in a liquid state into particles; a water treatment step of heating the particles in distilled water to form a gallium hydrate on a surface of each of the particles; and an oxidation treatment step of oxidizing the gallium hydrate to form a shell including gallium oxide. The method includes a particle-forming step of forming gallium or an alloy of gallium in a liquid state into particles; a cooling step of cooling the particles to a solid state; and a pH treatment step of immersing the particles in an aqueous solution having a predetermined pH to form a shell including gallium hydrate.

Abstract: An object of the present invention is to provide a latent heat storage body which has a melting point of about 300 to 550° C. and is difficult to cause leakage of a phase changing material, and a product obtained by applying the body. Provided is a microcapsule for latent heat storage materials including a metal core containing Zn and Al and a shell covering the metal core. The shell of the microcapsule includes an oxide film containing Zn and O, and an oxide film containing Al and O adjacent to an inner side of the oxide film. In the microcapsule, a mass ratio of ZnAl2O4 is 4% or less. The mass ratio is determined by analyzing the microcapsule by an XRD (X-ray diffractometer) device and subjecting results to quantitative analysis using a RIR (Reference Integrity Ratio) method.

Abstract: In the present invention, after a primary coating film is formed by boehmite treatment of the surface of a core particle in a solution comprising Al ions, a secondary coating film is formed by cooling the solution to the supersaturation temperature of the Al ions to cause deposition of a hydroxide of aluminum on the surface of the primary coating film, and an Al oxide film is formed on the surface of the core particle by heat treating the secondary coating film in an oxidizing atmosphere. Consequently, the shell is thickened by the amount of secondary coating film formed, so that the cyclic strength of the capsule can be secured and the composition change of the PCM in the production process is remarkably suppressed.

Abstract: In the latent heat storage body (100) according to the present invention, the surface of a core particle (10) composed of a latent heat storage material of a metal or an alloy is coated with an oxidized film of a compositional element of the core particle (10). Hence, the step of separately fabricating the core particle and the oxidized film (20) corresponding to a shell accommodating the core particle and accommodating the core particle inside the shell becomes unnecessary. Further since the core particle exhibits no expansion when transforming from a solid phase to a liquid phase, the component of the melted latent heat storage material stays inside the space covered with the oxidized film and the oxidized film is never damaged. Further, the oxidized film (20) can be made chemically stable.

Abstract: In the present invention, after a primary coating film is formed by boehmite treatment of the surface of a core particle in a solution comprising Al ions, a secondary coating film is formed by cooling the solution to the supersaturation temperature of the Al ions to cause deposition of a hydroxide of aluminum on the surface of the primary coating film, and an Al oxide film is formed on the surface of the core particle by heat treating the secondary coating film in an oxidizing atmosphere. Consequently, the shell is thickened by the amount of secondary coating film formed, so that the cyclic strength of the capsule can be secured and the composition change of the PCM in the production process is remarkably suppressed.

Abstract: In the latent heat storage body (100) according to the present invention, the surface of a core particle (10) composed of a latent heat storage material of a metal or an alloy is coated with an oxidized film of a compositional element of the core particle (10). Hence, the step of separately fabricating the core particle and the oxidized film (20) corresponding to a shell accommodating the core particle and accommodating the core particle inside the shell becomes unnecessary. Further since the core particle exhibits no expansion when transforming from a solid phase to a liquid phase, the component of the melted latent heat storage material stays inside the space covered with the oxidized film and the oxidized film is never damaged. Further, the oxidized film (20) can be made chemically stable.

Abstract: The present invention provides a sealing material for a solar cell that seals a solar cell element of a solar cell in a short time in the production of a solar cell module, thereby enabling efficient production of solar cell modules. The sealing material for a solar cell of the present invention has a feature of containing 100 parts by weight of a modified butene-based resin that is produced by graft-modifying a butene-ethylene copolymer having a butene content of 1 to 25% by weight with maleic anhydride and has a total content of the maleic anhydride of 0.1 to 3% by weight, and 0.1 to 15 parts by weight of a silane compound having an epoxy group.

Abstract: The present invention provides a sealing material for a solar cell that seals a solar cell element of a solar cell in a short time in the production of a solar cell module, thereby enabling efficient production of solar cell modules. The sealing material for a solar cell of the present invention has a feature of containing 100 parts by weight of a modified butene-based resin that is produced by graft-modifying a butene-ethylene copolymer having a butene content of 1 to 25% by weight with maleic anhydride and has a total content of the maleic anhydride of 0.1 to 3% by weight, and 0.1 to 15 parts by weight of a silane compound having an epoxy group.

Abstract: An object of the present invention is to provide a method for producing a flexible solar cell module which makes it possible to suitably produce flexible solar cell modules in which a solar cell element and a solar cell encapsulant sheet are well adhered to each other by encapsulating a solar cell by roll-to-roll processing in a continuous manner without the need to perform a crosslinking process and without causing wrinkles and curls.

Abstract: An object of the present invention is to provide a method for producing a flexible solar cell module which makes it possible to encapsulate a solar cell in a continuous manner without the need to perform a crosslinking process and highly efficiently produce flexible solar cell modules in which a solar cell and a solar cell encapsulant sheet are well adhered to each other without causing wrinkles and curls.