Abstract: Provided is a semiconductor device according to an embodiment including a first electrode terminal containing copper, a second electrode terminal containing copper, a semiconductor chip provide the first electrode terminal and provided inside the first electrode terminal, a metal member provided on the semiconductor chip, protruding to an outside of the semiconductor chip in at least two directions, electrically connected to the second electrode terminal, and containing copper, and a mold resin surrounding the semiconductor chip.

Abstract: The purpose of the present invention is to provide a heat-retaining article exhibiting excellent heat retention. This heat-retaining article (1) is configured so as to be provided with a first sheet (12), a second sheet (13), and a filler material (15) positioned between the first sheet (12) and the second sheet (13), and is characterized by being equipped with a plurality of joining sections (11) for joining the first sheet (12) and the second sheet (13) to one another, and in that the plurality of joining sections (11) are separated from one another and form a dot pattern.

Abstract: A communication device includes a ground unit, a dielectric plate, a communication circuit, a conductor, and a capacitance element. The ground unit has a reference potential applied to the ground unit. The dielectric plate is provided on the ground unit. The communication circuit is provided on the dielectric plate and performs a transmission and a reception of a signal. The conductor is connected to the communication circuit. An end of the capacitance element is connected to the conductor. An another end of the capacitance element is connected to the ground unit. A capacitance of the capacitance element is smaller than a capacitance formed between the conductor and the ground unit. The capacitance of the capacitance element is bigger than a capacitance formed between the conductor and the ground unit being caused by a human body touching or approximating to the conductor.

Abstract: A substrate on which exposure processing has not been performed is carried into a placement cooling unit and cooled. The cooled substrate is held and carried out from the placement cooling unit by a transport device. In the case where an exposure device is able to receive the substrate, the substrate that has been carried out from the placement cooling unit is transported to the exposure device by the transport device. In the case where the exposure device is unable to receive the substrate, the substrate that has been carried out from the platform cooling unit is carried into a cooling buffer unit by the transport device. In the cooling buffer unit, a temperature of the substrate is maintained. After the exposure device becomes able to receive the substrate, the substrate is carried out from the cooling buffer unit and transported to the exposure device by the transport device.

Abstract: A light-emitting device includes a semiconductor light-emitting element, for example, a light emitting diode. A first metal member includes a first metal plate and a first metal layer between the semiconductor light-emitting element and a first surface of the first metal plate. An insulating layer contacts a second surface of the first metal plate. The second surface is in a second plane that intersects a first plane of the first surface.

Abstract: A wireless communication system includes a first tag installed on a ground outside a track for a running train, the first tag being driven by wirelessly received power, a second tag installed outside a side face of the train and above the first tag, the side face extending in a running direction, the second tag being driven by wirelessly received power, a wireless communicator which is installed in the train and performs wireless communication with the first tag and the second tag, and an antenna which is installed in the train and has a gain in directions of the first tag and the second tag.

Abstract: An antenna device includes a substrate, and a linear conductive element disposed on the substrate, the linear conductive element having a loop shape in line symmetry with respect to a first straight line and a second straight line perpendicular to the first straight line, respectively, an electrical length between intersection points of the linear conductive element and the first straight line is an integer multiple of a wavelength in a resonance frequency.

Abstract: A communication device includes a ground unit, a dielectric plate, a communication circuit, a conductor, and a capacitance element. The ground unit has a reference potential applied to the ground unit. The dielectric plate is provided on the ground unit. The communication circuit is provided on the dielectric plate and performs a transmission and a reception of a signal. The conductor is connected to the communication circuit. An end of the capacitance element is connected to the conductor. An another end of the capacitance element is connected to the ground unit. A capacitance of the capacitance element is smaller than a capacitance formed between the conductor and the ground unit. The capacitance of the capacitance element is bigger than a capacitance formed between the conductor and the ground unit being caused by a human body touching or approximating to the conductor.

Abstract: An antenna device includes a finite ground plane that includes a linear side, a first conductor plate that faces the finite ground plane and includes a side corresponding to the side of the finite ground plane and having a length of substantially a ? wavelength or less, and a conductor line that includes one end connected to the side of the first conductor plate and the other end short-circuited to one end portion of the side of the finite ground plane. The antenna device further includes a second conductor plate that faces the finite ground plane, includes a side corresponding to the side of the finite ground plane and having a length of substantially a ? wavelength or less, and is arranged to be adjacent to the first conductor plate to perform capacitive coupling with the first conductor plate and a feed line that includes one end connected to the side of the second conductor plate and the other end connected to the other end portion of the side of the finite ground plane.

Abstract: According to an embodiment, a communication apparatus includes a substrate, a first communication unit, a first signal line, a first terminal, a second signal line, a variable capacitance portion, and an inductor portion. The substrate is provided with a reference potential electrode. The first communication unit transmits and receives. One end of the first signal line is connected to the first communication unit. The first terminal is connected to the other end of the first signal line. The second signal line is connected to the first signal line through the first terminal. One end of the variable capacitance portion is connected to the other end of the second signal line. One end of the inductor portion is connected to the other end of the variable capacitance portion. The communication apparatus executes communication through a living body.

Abstract: A light-emitting device includes a semiconductor light-emitting element, for example, a light emitting diode. A first metal member includes a first metal plate and a first metal layer between the semiconductor light-emitting element and a first surface of the first metal plate. An insulating layer contacts a second surface of the first metal plate. The second surface is in a second plane that intersects a first plane of the first surface.

Abstract: According to one embodiment, a communication apparatus includes a substrate, a communication circuit, a first signal line, an insulator, and a first conductor. The substrate includes a ground. The communication circuit is provided on the substrate. The first signal line is connected to the communication circuit and is electrically connected to the outer surface of the first conductor. The insulator surrounds the substrate. The first conductor surrounds the insulator.

Abstract: There is provided a dry powder pharmaceutical composition for inhalation useful for preventing and/or treating influenza virus infections contains as a medicinal component a compound represented by formula (I): and optionally a compound represented by formula (II): a pharmacologically acceptable salt thereof, or a hydrate thereof.

Abstract: A method for preventing an influenza virus infection by administering by inhalation to a patient a pharmaceutically effective amount of a dry powder composition containing a first lactose hydrate and a second lactose hydrate.

Abstract: According to one embodiment, a semiconductor light emitting device includes a lead frame; a chip mounted on the lead frame, the chip including a substrate and a light emitting element provided on the substrate; a wall section including an inner wall facing to a side portion of the chip, and an outer wall on an opposite side to the inner wall; and a phosphor layer provided on at least the chip. A distance between the side portion of the chip and the inner wall of the wall section is smaller than a thickness of the chip. An angle between an upper surface of the lead frame and the inner wall is smaller than an angle between the upper surface of the lead frame and the outer wall.

Abstract: According to an embodiment, a communication apparatus includes a substrate, a first communication unit, a first signal line, a first terminal, a second signal line, a variable capacitance portion, and an inductor portion. The substrate is provided with a reference potential electrode. The first communication unit transmits and receives. One end of the first signal line is connected to the first communication unit. The first terminal is connected to the other end of the first signal line. The second signal line is connected to the first signal line through the first terminal. One end of the variable capacitance portion is connected to the other end of the second signal line. One end of the inductor portion is connected to the other end of the variable capacitance portion. The communication apparatus executes communication through a living body.

Abstract: A light emitting device includes a first light emitting element on a substrate and a second light emitting element spaced from the first light emitting. A resin body is disposed between the first and second light emitting elements so as to surround the first and second light emitting elements in a plane parallel to the substrate. The resin body has a thickness in a direction orthogonal to the substrate that is greater than a thickness of each of the first and second light emitting elements. A translucent resin element is disposed on the resin body and the first and second light emitting elements. The resin body and the first and second light emitting elements are between the translucent resin element and the substrate in the first direction.

Abstract: According to an embodiment, a communication apparatus communicates through a living body. One end of a first signal line is connected to the communication unit. A terminal is connected to the other end of the first signal line. One end of a second signal line is connected to the terminal. The second signal line is connected to the first signal line through the terminal. A first signal electrode is connected to the other end of the second signal line. One end of a third signal line is connected to the terminal. The third signal line is connected to the first signal line through the terminal. One end of a magnetic field sensor is connected to the other end of the third signal line. The other end of the magnetic field sensor is connected to a reference potential electrode.

Abstract: According to an embodiment, a first communication equipment includes a first communication unit configured to transmit and receive a signal, and a first conductor electrically connected to the first communication unit. A second communication equipment includes a second conductor, a third conductor located in parallel with the second conductor and set to first reference potential, a fourth conductor separated from the second conductor and located substantially orthogonal to the second conductor, a fifth conductor located in parallel with the fourth conductor and set to the first reference potential, a first detection unit configured to detect a first differential output between signal outputs respectively observed by the second conductor and the fourth conductor, and a second communication unit configured to receive the first differential output and transmit and receives a signal.

Abstract: A suitable control in a system provided with a solid oxide fuel cell at the time of paralleling-off from a grid power source and switching to an autonomous operation, is provided. The generated electric power of the solid oxide fuel cell during the autonomous operation is set to a constant electric power (500 W or the like), and when the total load electric power of the system exceeds the constant electric power (500 W or the like), the electric power supply to the external load connected to an autonomous dedicated outlet is stopped for a predetermined period of time. The external load electric power is adjusted during the stop to reduce the total electric power load to be equal to or less than the constant electric power, and the electric power supply is resumed after the predetermined period of time has elapsed.