Abstract: Appropriate communication is performed even before a CQI report is acquired. A base station device 1b that performs radio communication with a terminal device 2 includes: a report acquisition section that acquires the CQI report from the terminal device; and a selection section that selects a transmission state. The transmission state includes a first transmission state in which transmission is performed using a first radio resource subset A configured to include a radio resource that does not suffer interference from another base station device 1a, and a second transmission state in which transmission is performed using at least a second radio resource subset B configured to include a radio resource that is likely to suffer interference from another base station device 1b. The report acquisition section 14 acquires the CQI report of the second radio resource subset from the terminal device 2.

Abstract: A fuel cell includes a membrane electrode assembly, a first separator, and a second separator. The second separator has a fuel gas flow field connected to a fuel gas supply passage and a fuel gas discharge passage. The fuel gas flow field includes a plurality of corrugated flow grooves and a flat flow field. The corrugated flow grooves extend in the horizontal direction, respectively, and are arranged in the direction of the gravity. The flat flow field is provided within a power generation area, at the lowermost position in the direction of the gravity, and extends in the horizontal direction.

Abstract: The spatial information detection device emits, to a space including an intended area, signal light defined as light modulated with a modulation signal defined as a square wave signal having high and low level periods appearing alternately, each of the periods having its length randomly selected from integral multiples of a unit time period. The device generates signal electric charges by accumulating electric charges generated in response to light from the space in a collection time period determined by a demodulation signal defined as a signal having the same waveform as that of the modulation signal or that of the inverted modulation signal. The device corrects, using correction information regarding an effect caused by light from an unintended area, the amount of signal electric charges as an amount of intended electric charges produced in response to light from the intended area, thereby generating spatial information.

Abstract: A neighboring cell processing device includes: a measurement information acquisition unit 11 for acquiring measurement information which indicates a result of measurement of radio signals transmitted from a plurality of wireless base station devices other than a target wireless base station device, based on information provided from at least either of wireless terminal devices or wireless base station devices; and a neighboring cell information generation unit 12 for generating, based on the measurement information acquired by the measurement information acquisition unit 11, neighboring cell information which indicates one or a plurality of wireless base station devices located in the neighborhood of the target wireless base station device, among the plurality of wireless base station devices other than the target wireless base station device.

Abstract: New technical means for setting a position of a blank radio resource is provided. A base station device includes: a setting unit 24 that sets a blank radio resource in a usable radio resource; and an acquisition unit 26 that acquires information indicating a position of a blank radio resource in another base station device. The setting unit 24 adjusts the position of the blank radio resource, based on the information indicating the position of the blank radio resource in the another base station device.

Abstract: A resource used by a wireless terminal device to communicate with a terminal device in an internal network is appropriately managed. In a communication system 201, an internal network connection device 102 allocates, to a wireless terminal device 150, 151, its own resource for communicating with a terminal device 161 in an internal network 51, transmits data received from the wireless terminal device 150, 151 via the wireless base station device 101, to the terminal device 161, and transmits data received from the terminal device 161, to the wireless terminal device 150, 151 via the wireless base station device 101. The internal network connection device 102 or the wireless base station device 101 determines whether or not the allocation of the resource to the wireless terminal device 150, 151 should be maintained. Upon receiving a determination that the allocation of the resource should not be maintained, the internal network connection device 102 cancels the allocation of the resource.

Abstract: An adhesive composition includes a phenoxy resin having a bisphenol S skeleton in a structure and 10 to 100 parts by weight of a maleimide compound based on 100 parts by weight of the phenoxy resin. The maleimide compound has a plurality of maleimide groups in a structure and is at least one of a first maleimide compound having a melting temperature of 160° C. or lower and a gelling time at 200° C. of 180 to 350 seconds and a second maleimide compound having a melting temperature of 160° C. or lower and a gelling time at 250° C. of 110 to 150 seconds. A heat resistant adhesive film may be formed by coating the adhesive composition on a substrate film, and a wiring film may have a conductor wiring layer put between such heat resistant adhesive films.

Abstract: An electrode lead connection body includes a first member that includes a same material as the positive electrode lead and is configured to be connected the positive electrode lead, a second member that includes a same material as the negative electrode lead and is configured to be connected the negative electrode lead, the first and second members being joined to each other at a portion excluding a positive electrode joint as a portion to be joined to the positive electrode lead and a negative electrode joint as a portion to be joined to the negative electrode lead, and an insulating material at a position between the first and second members and near a joint portion to join the first and second members so as to prevent a contact between the first and second members.

Abstract: There is provided a charged particle migration-type display panel (1) which has a plurality of cells (40) partitioned by partitions (31) between a transparent substrate (10) and a back substrate (20) placed opposite to each other, and charged particles (41, 42) sealed in the respective cells (40), and in which the partitions (31) provided upright on the back substrate (20) are formed of a translucent material, and the tips and the side faces of the partitions (31) are covered with a resin (32) containing an opaque or semi-transparent dark-colored coloring material, thereby forming a black matrix structure.

Abstract: In a method of manufacturing a grain-oriented electrical steel sheet including a nitriding treatment (step S7) and adopting so-called “low-temperature slab heating”, the finish temperature of finish rolling in hot rolling (step S2) is set to 950° C. or below, the cooling is started within 2 seconds after completion of the finish rolling, and a steel strip is coiled at 700° C. or below. The cooling rate over the duration from the end of finish rolling to the start of coiling is set to 10° C./sec or above. In annealing (step S3) of the hot-rolled steel strip, the heating rate in the temperature range from 800° C. to 1000° C. is set to 5° C./sec or above.

Abstract: A method according to the present invention has: isolating, by extraction, particles contained in a metal material to be analyzed in a solution using a particle isolator; dispersing the particles isolated by extraction into a solvent to prepare a dispersion, and fractionating the dispersion into a plurality of particle dispersions based on particle sizes, using a field flow fractionator; and irradiating laser light on each of the particle dispersions separated based on predetermined particle sizes, to thereby measure absolute values of the particle size based on angular dependence of reflection intensity, and also to thereby measure the number density based on magnitude of reflection intensity.

Abstract: A combined optical and electrical interconnection module includes a flat cable comprising an optical transmission line and an electrical wire, and a printed circuit board including a light receiving module for receiving optical signals and/or a light sending module for sending optical signals and an optical waveguide for the optical signals to be transmitted therethrough or an optical block for bending the optical paths of the optical signals. The printed circuit board is electrically and optically connected to both ends or one end of the flat cable.

Abstract: A neighboring cell processing device includes: a measurement information acquisition unit 11 for acquiring measurement information which indicates a result of measurement of radio signals transmitted from a plurality of wireless base station devices other than a target wireless base station device, based on information provided from at least either of wireless terminal devices or wireless base station devices; and a neighboring cell information generation unit 12 for generating, based on the measurement information acquired by the measurement information acquisition unit 11, neighboring cell information which indicates one or a plurality of wireless base station devices located in the neighborhood of the target wireless base station device, among the plurality of wireless base station devices other than the target wireless base station device.

Abstract: A predetermined steel containing Te: 0.0005 mass % to 0.0050 mass % is heated to 1320° C. or lower to be subjected to hot rolling, and is subjected to annealing, cold rolling, decarburization annealing, and nitridation annealing, and thereby a decarburized nitrided steel sheet is obtained. Further, an annealing separating agent is applied on the surface of the decarburized nitrided steel sheet and finish annealing is performed, and thereby a glass coating film is formed. The N content of the decarburized nitrided steel sheet is set to 0.0150 mass % to 0.0250 mass % and the relationship of 2×[Te]+[N]?0.0300 mass % is set to be established. Note that [Te] represents the Te content and [N] represents the N content.

Abstract: Hot rolling is performed on a steel with a predetermined composition containing Ti: 0.0020 mass % to 0.010 mass % and/or Cu: 0.010 mass % to 0.50 mass % to obtain a hot-rolled steel sheet. Annealing is performed on the hot-rolled steel sheet to obtain an annealed steel sheet. Cold rolling is performed on the annealed steel sheet to obtain a cold-rolled steel sheet. Decarburization annealing is performed on the cold-rolled steel sheet at a temperature of 800° C. to 950° C. to obtain a decarburization annealed steel sheet. Then, nitridation treatment is performed on the decarburization annealed steel sheet at 700° C. to 850° C. to obtain a nitrided steel sheet. Finish annealing is performed on the nitrided steel sheet.

Abstract: When installing a femto base station device 1b, failure that may occur in wireless communication is suppressed. The femto base station device 1b includes an RF unit 4 which transmits broadcast information or paging information to a femto terminal device 2b communicating with the femto base station device 1b, and an information storage unit 31 which adds and stores, in the broadcast information or the paging information, location information that relates to the location of the femto base station device 1b and is used by another wireless communication device to suppress interference.

Abstract: Hot rolling is performed on a steel with a predetermined composition containing Ti: 0.0020 mass % to 0.010 mass % and/or Cu: 0.010 mass % to 0.50 mass % to obtain a hot-rolled steel sheet. Annealing is performed on the hot-rolled steel sheet to obtain an annealed steel sheet. Cold rolling is performed on the annealed steel sheet to obtain a cold-rolled steel sheet. Decarburization annealing and nitridation annealing are performed on the cold-rolled steel sheet to obtain a decarburized nitrided steel sheet. Then, finish annealing is performed on the decarburized nitrided steel sheet. When obtaining the decarburized nitrided steel sheet, heating on the cold-rolled steel sheet is started in a decarburizing and nitriding atmosphere, then first annealing is performed at a first temperature within a predetermined range, and then second annealing is performed at a second temperature within a predetermined range.

Abstract: A flat cable includes a plurality of conductors arranged in parallel and exposed at both end portions in a longitudinal direction thereof, an insulation film covering the plurality of conductors except the exposed both end portions, and a reinforcing member that covers the plurality of conductors along a width direction of the plurality of conductors, is provided on a surface of the insulation film in a part of a region including an edge of the insulation film, and includes a metal plate and an insulative covering layer for covering the metal plate.

Abstract: A flat cable includes a plurality of conductors arranged in parallel, an insulating member covering the plurality of conductors, a first reinforcing member on a surface of an end portion of the insulating member, and a second reinforcing member on an opposite side of the first reinforcing member across the conductor and the insulating member. The first reinforcing member includes a reinforcing metal plate including an end portion bent toward the second reinforcing member, a covering member covering at least a portion of a periphery of the reinforcing metal plate, and an adhesive interposed between the reinforcing metal plate and the covering member and between the covering member and the insulating member to bond the reinforcing metal plate to the covering member and the covering member to the insulating member. The second reinforcing member has a rigidity greater than that of the covering member of the first reinforcing member.

Abstract: A flat cable includes a plurality of conductors arranged in parallel, an insulating member covering the plurality of conductors, a first reinforcing member on a surface of an end portion of the insulating member, and a second reinforcing member on an opposite side of the first reinforcing member across the conductor and the insulating member. The first reinforcing member includes a reinforcing metal plate including an end portion bent toward the second reinforcing member, a covering member covering at least a portion of a periphery of the reinforcing metal plate, and an adhesive interposed between the reinforcing metal plate and the covering member and between the covering member and the insulating member to bond the reinforcing metal plate to the covering member and the covering member to the insulating member. The second reinforcing member has a rigidity greater than that of the covering member of the first reinforcing member.