Abstract: There is provided a terminal which has wireless communication unit to perform wireless communication and which operates using power supplied from an external power supply or power of a battery. The terminal includes a detection unit configured to detect whether power is supplied from the external power supply, and a control unit configured to cause the terminal to start standby operation of waiting for a signal though the wireless communication unit when the detection unit detects that power is supplied from the external power supply.

Abstract: There is provided a terminal which has wireless communication unit to perform wireless communication and which operates using power supplied from an external power supply or power of a battery. The terminal includes a detection unit configured to detect whether power is supplied from the external power supply, and a control unit configured to cause the terminal to start standby operation of waiting for a signal though the wireless communication unit when the detection unit detects that power is supplied from the external power supply.

Abstract: The stacked scintillator panel according to the present invention is comprised of stacking a plurality of panels 1, 2, 3, 4, having scintillator 1b, 2b, 3b, and 4b deposited by vapor deposition on substrates 1a, 2a, 3a, and 4a for crystal deposition. Each of the substrates 1a, 2a, 3a, and 4a is a light transmitting substrate that transmits at least a portion of the wavelength range of the light emitted from the corresponding scintillator 1b, 2b, 3b, or 4b upon radiation incidence.

Abstract: An Ag film as a light-reflecting film is formed on one surface of an a-C substrate of a scintillator panel. The entire surface of the Ag film is covered with an SiN film for protecting the Ag film. A scintillator having a columnar structure, which converts an incident radiation into visible light, is formed on the surface of the SiN film. The scintillator is covered with a polyparaxylylene film together with the substrate.

Abstract: An auxiliary substrate 20 is overlapped onto a thin substrate 11, and substrate 11 and auxiliary substrate 20 are covered with an organic film 12. Thereafter, a scintillator 13 is formed on a scintillator forming portion 12A of organic film 12 that corresponds to substrate 11. Here, since thickness is added to substrate 11 by auxiliary substrate 20, the warping of substrate 11 is prevented and scintillator 13 is formed uniformly.

Abstract: In a scintillator panel comprising a deliquescent scintillator formed on an FOP and a polyparaxylylene film covering over the scintillator, the FOP comprises a protective film peeling prevention rough at a side wall portion thereon coming into contact with the polyparaxylylene film.

Abstract: The surfaces of an amorphous carbon substrate of a scintillator panel have undergone sandblasting, and an Al film 1 serving as a reflecting film is formed on one surface, and a columnar scintillator for converting incident radiation into visible light is formed on the surface of the Al film.

Abstract: An organic film vapor deposition method includes a first step of supporting a substrate formed with a scintillator on at least three protrusions of a target-support element disposed on a vapor deposition table so as to keep a distance from the vapor deposition table; a second step of introducing the vapor deposition table having the substrate supported by the target-support element into a vapor deposition chamber of a CVD apparatus; and a third step of depositing an organic film by CVD method onto all surfaces of the substrate, provided with the scintillator, introduced into the vapor deposition chamber.

Abstract: A transparent electroconductive film characterized in comprising a laminate having a three-layered structure in which a transparent electroconductive layer is formed via a transparent gas barrier layer on one face of a transparent, fluorine-containing resin film.

Abstract: An organic film vapor deposition method includes a first step of supporting a substrate formed with a scintillator on at least three protrusions of a target-support element disposed on a vapor deposition table so as to keep a distance from the vapor deposition table; a second step of introducing the vapor deposition table having the substrate supported by the target-support element into a vapor deposition chamber of a CVD apparatus; and a third step of depositing an organic film by CVD method onto all surfaces of the substrate, provided with the scintillator, introduced into the vapor deposition chamber.

Abstract: An Ag film as a light-reflecting film is formed on one surface of an a-C substrate of a scintillator panel. The entire surface of the Ag film is covered with an SiN film for protecting the Ag film. A scintillator having a columnar structure, which converts an incident radiation into visible light, is formed on the surface of the SiN film. The scintillator is covered with a polyparaxylylene film together with the substrate.

Abstract: A light-receiving device array in which a plurality of light-receiving devices are one- or two-dimensionally arranged on a substrate, a scintillator layer is deposited on the light-receiving devices and provided with columnar crystals, and an organic film is formed over the scintillator layer and there outside region of the substrate and it intrudes into gaps among the top part of the columnar crystals to cover the scintillator layer.

Abstract: An Ag film as a light-reflecting film is formed on one surface of an a-C substrate of a scintillator panel. The entire surface of the Ag film is covered with an SiN film for protecting the Ag film. A scintillator having a columnar structure, which converts an incident radiation into visible light, is formed on the surface of the SiN film. The scintillator is covered with a polyparaxylylene film together with the substrate.

Abstract: There is provided a terminal which has wireless communication unit to perform wireless communication and which operates using power supplied from an external power supply or power of a battery. The terminal includes a detection unit configured to detect whether power is supplied from the external power supply, and a control unit configured to cause the terminal to start standby operation of waiting for a signal though the wireless communication unit when the detection unit detects that power is supplied from the external power supply.

Abstract: To both increase the efficiency of conversion into EUV radiation energy and also increase the amount of emerging EUV radiation in an EUV source a discharge tube is connected to a gas supply space for supply of the discharge gas which in located radially with respect to an optical axis. The discharge gas is supplied to the discharge space through the gas supply space, passes through the center opening of the anode, emerges from the discharge part and is afterwards evacuated from an evacuation opening. The anode and the cathode are connected to a pulse current source. Discharge plasma is produced and EUV radiation is formed by a heavy current pulse from the pulse current source within the discharge space of the discharge tube. The EUV radiation which has formed passes through a through-opening of the anode and is emitted to the outside.

Abstract: A radiation detection device includes a light-receiving device array with a plurality of light-receiving devices arranged on a substrate to form a light-receiving portion and a plurality of bonding pads electrically coupled to the light-receiving devices of the light-receiving portion to form a bonding pad portion. A scintillator layer is deposited over at least a portion of the light-receiving devices for converting radiaton into detectable light. A radiation-transmitable, moisture-resistant protective film covers at least the scintillator. A coating resin is located in proximity to a periphery of the moisture-resistant prptective film, with the periphery of the moisture-resistant protective film being fixed to the light-receiving device array with the coating resin.

Abstract: To both increase the efficiency of conversion into EUV radiation energy and also increase the amount of emerging EUV radiation in an EUV source a discharge tube is connected to a gas supply space for supply of the discharge gas which in located radially with respect to an optical axis. The discharge gas is supplied to the discharge space through the gas supply space, passes through the center opening of the anode, emerges from the discharge part and is afterwards evacuated from an evacuation opening. The anode and the cathode are connected to a pulse current source. Discharge plasma is produced and EUV radiation is formed by a heavy current pulse from the pulse current source within the discharge space of the discharge tube. The EUV radiation which has formed passes through a through-opening of the anode and is emitted to the outside.

Abstract: The surfaces of an amorphous carbon substrate of a scintillator panel have undergone sandblasting, and an Al film 1 serving as a reflecting film is formed on one surface, and a columnar scintillator for converting incident radiation into visible light is formed on the surface of the Al film.

Abstract: The surfaces of an amorphous carbon substrate 10 of a scintillator panel 1 have undergone sandblasting, and an Al film 12 serving as a reflecting film is formed on one surface. A columnar scintillator 14 for converting incident radiation into visible light is formed on the surface of the Al film 12.

Abstract: A scintillator panel (2) comprises a radiation-transparent substrate(10), aflat resin film (12) formed on the substrate (10), a reflecting film (14) formed on the flat resin film (12), a deliquescent scintillator (16) formed on the reflecting film (14), and a transparent organic film (18) covering the scintillator (16).