Abstract: A gas safety device includes: flow path through which a gas flows; ultrasonic sensor for measuring a flow rate of the gas flowing through flow path; flow rate calculator that calculates a flow rate measurement data pieces from a measurement value of the flow rate measured by ultrasonic sensor; and leakage detector that detects a minor leakage of the gas. The gas safety device further includes: pulsation recognizer that recognizes that pulsation is occurring when a fluctuation in the flow rate measuring data pieces calculated by flow rate calculator is greater than or equal to a predetermined value; and pulsating flow rate corrector that corrects, when pulsation recognizer determines that the pulsation is occurring, the flow rate measurement data piece by a predetermined value. Furthermore, when pulsation recognizer determines that the pulsation is occurring, leakage detector determines whether a leakage is present using the flow rate measurement data piece corrected by pulsating flow rate corrector.

Abstract: Provided is a novel sample separating instrument and a novel sample analyzing device each of which can be suitably used for emission transfer. A sample separating instrument (100) for use in emission transfer includes: a separation medium (10); and a holding section (21), the holding section (21) having an opening (21b) on an end part side, the separation medium (10) having an exposed part (10b), the exposed part (10b) having extending parts (10a) which extend on respective edge parts (21a) of the holding section (21) which edge parts are located on respective both sides of the opening (21b).

Abstract: A gas safety device includes: flow path through which a gas flows; ultrasonic sensor for measuring a flow rate of the gas flowing through flow path; flow rate calculator that calculates a flow rate measurement data pieces from a measurement value of the flow rate measured by ultrasonic sensor; and leakage detector that detects a minor leakage of the gas. The gas safety device further includes: pulsation recognizer that recognizes that pulsation is occurring when a fluctuation in the flow rate measuring data pieces calculated by flow rate calculator is greater than or equal to a predetermined value; and pulsating flow rate corrector that corrects, when pulsation recognizer determines that the pulsation is occurring, the flow rate measurement data piece by a predetermined value. Furthermore, when pulsation recognizer determines that the pulsation is occurring, leakage detector determines whether a leakage is present using the flow rate measurement data piece corrected by pulsating flow rate corrector.

Abstract: A gas meter includes a meter entrance that allows a fluid to flow in, a meter exit that allows the fluid to flow out, and a flow rate measurer that measures a flow rate of the fluid. In addition, the flow rate measurer includes a plurality of flow rate measuring units having the same shape and composed of a flow passage portion with a rectangular cross section shape on the outer side and a sensor portion disposed on one face of the flow passage portion. The plurality of flow rate measuring units are integrally configured by bonding faces having no sensor portion so as to serve as bonding faces of the flow rate measuring units.

Abstract: A separation unit is a configuration that is arranged vertically, and thus bubbles generating from the electrode will not negatively influence the contact location between the transfer membrane and separation unit. An anode (32) is arranged at a position separated by a certain distance in the conveying direction (X) of the transfer membrane (1) from the dispensing part (50a) of an electrophoresis gel chip (50). An insulating electrode cover (35) for setting free bubbles generating from the anode (32) is arranged at an upper part of the anode (32).

Abstract: A gas meter includes a meter entrance that allows a fluid to flow in, a meter exit that allows the fluid to flow out, and a flow rate measurer that measures a flow rate of the fluid. In addition, the flow rate measurer includes a plurality of flow rate measuring units of a same shape composed of a flow passage portion having a rectangular cross section shape on the outer side and a sensor portion disposed on one face of the flow passage portion. The plurality of flow rate measuring units are integrally configured by bonding faces having no sensor portion as bonding faces of the flow rate measuring units.

Abstract: A transfer-membrane retaining jig (2) that retains a transfer membrane (1) in a separation-transfer device (100) includes: a fixing part (20, 21) that fixes at least one end in a movement direction of the transfer membrane (1), in which the fixing part (20, 21) includes an elastic body (20a, 21a) that abuts the transfer membrane (1) from an opposite side to a dispensing part (50a), and a pressing member (20b, 21b) that presses the transfer membrane (1) against the elastic body (20a, 21a).

Abstract: Provided is a novel sample separating instrument and a novel sample analyzing device each of which can be suitably used for emission transfer. A sample separating instrument (100) for use in emission transfer includes: a separation medium (10); and a holding section (21), the holding section (21) having an opening (21b) on an end part side, the separation medium (10) having an exposed part (10b), the exposed part (10b) having extending parts (10a) which extend on respective edge parts (21a) of the holding section (21) which edge parts are located on respective both sides of the opening (21b).

Abstract: A measurement unit includes a fluid inlet to let a fluid flow in, a fluid outlet to let the fluid flow out, and a single flow path connecting the fluid inlet with the fluid outlet. The measurement unit further includes a plurality of partition boards and a measuring instrument. The plurality of partition boards are disposed along a current of the fluid and between facing side surfaces of the flow path. The plurality of partition boards define M flow path segments (where M is an integer of 2 or greater) between the facing side surfaces. The measuring instrument measures a flow rate of the fluid flowing through N successively adjacent flow path segments (where N is an integer of 1 or greater and less than M).

Abstract: The present invention is a scintillator panel including: a substrate, a barrier rib formed on the substrate, and a scintillator layer containing a phosphor filling cells divided by the barrier rib, wherein the scintillator layer is formed of a plurality of layers having different phosphor concentrations. The present invention provides a scintillator panel in which formation of the barrier rib makes it possible to improve image clarity and obtain a sufficient amount of emitted light.

Abstract: A biomolecule analyzer (100) includes an arm part (20-23, 66) retaining a transfer membrane (1) that is arranged at a position opposing a first opening (50a), and a drive unit (62-65) that is provided below an anode buffer tank (30), and drives the arm part in a substantially horizontal direction, in which the arm part passes along outer sides of side walls of the anode buffer tank (30), wraps around upper ends of the side walls and links at inner walls of the side wall.

Abstract: A measurement unit includes a fluid inlet to let a fluid flow in, a fluid outlet to let the fluid flow out, and a single flow path connecting the fluid inlet with the fluid outlet. The measurement unit further includes a plurality of partition boards and a measuring instrument. The plurality of partition boards are disposed along a current of the fluid and between facing side surfaces of the flow path. The plurality of partition boards define M flow path segments (where M is an integer of 2 or greater) between the facing side surfaces. The measuring instrument measures a flow rate of the fluid flowing through N successively adjacent flow path segments (where N is an integer of 1 or greater and less than M).

Abstract: Disclosed herein is an interior/exterior automotive trim component made of a thermoplastic resin composition including components (A)-(F), wherein relative to 100 parts by mass of the component (A), the component (B) such as a particular hindered phenol based antioxidant is 0.09-0.11 parts by mass, the component (C) such as dibutyl hydroxy toluene is 0.001-0.015 parts by mass, the component (D) such as tris(2,4-di-t-butylphenyl) phosphite is 0.04-0.06 parts by mass, the component (E) such as a particular benzotriazole based light stabilizer is 0.09-0.11 parts by mass, and the component (F) such as a particular hindered amine based light stabilizer is 0.09-0.11 parts by mass. The component (A) is a polycarbonate resin composition comprised of a molten mixture of a plurality of predetermined carbonate copolymers having respectively different copolymerization ratios.

Abstract: A transfer-membrane retaining jig (2) that retains a transfer membrane (1) in a separation-transfer device (100) includes: a fixing part (20, 21) that fixes at least one end in a movement direction of the transfer membrane (1), in which the fixing part (20, 21) includes an elastic body (20a, 21a) that abuts the transfer membrane (1) from an opposite side to a dispensing part (50a), and a pressing member (20b, 21b) that presses the transfer membrane (1) against the elastic body (20a, 21a).

Abstract: A separation unit is a configuration that is arranged vertically, and thus bubbles generating from the electrode will not negatively influence the contact location between the transfer membrane and separation unit. An anode (32) is arranged at a position separated by a certain distance in the conveying direction (X) of the transfer membrane (1) from the dispensing part (50a) of an electrophoresis gel chip (50). An insulating electrode cover (35) for setting free bubbles generating from the anode (32) is arranged at an upper part of the anode (32).

Abstract: The present invention provides a scintillator panel including: a plate-like substrate; a barrier rib provided on the substrate; and a scintillator layer including a phosphor filled in cells divided by the barrier rib, wherein the barrier rib is formed of a material which is mainly composed of a low-melting-point glass containing 2 to 20% by mass of an alkali metal oxide, a value obtained by dividing a top width Lt of the barrier rib or a 90%-height width L90 of the barrier rib by a half-value width Lh of the barrier rib is 0.45 to 1, and a value obtained by dividing a bottom width Lb of the barrier rib or a 10%-height width L10 of the barrier rib by the half-value width Lh is 1 to 3.

Abstract: The present invention provides a scintillator panel which is provided with a narrow-width barrier rib with high accuracy in a large area, and also has high luminous efficiency and realizes clear image quality. The present invention provides a scintillator panel including a sheet-like substrate, a barrier rib provided on the substrate, and a scintillator layer filled in cells divided by the barrier rib, wherein the barrier rib is made of a material containing a low melting point glass as a main component, and the scintillator layer is made of a phosphor and a binder resin.

Abstract: A frame member-equipped transfer film (10) is provided with a transfer film (1) to which a sample separated by electrophoresis is transferred, and a pair of frames (2) that individually support two sides of the transfer film (1), namely a first side of the transfer film (1) and a second side opposite the first side.

Abstract: A novel technique is provided for automatically performing the separation and transfer of analyte, and subsequent processing. A sample separation/transfer device (100) is a device for separating analyte by way of electrophoresis, dispensing the separated analyte from a dispensing part (50a) inside a buffer tank (30), and transferring the separated analyte to a transfer membrane (1) by way of causing the transfer membrane (1) to abut the dispensing part (50a) and move, in which the device includes a liquid delivery pump (11a, 11b) that replaces the liquid filling the buffer tank (30).

Abstract: A biomolecule analyzer (100) includes an arm part (20-23, 66) retaining a transfer membrane (1) that is arranged at a position opposing a first opening (50a), and a drive unit (62-65) that is provided below an anode buffer tank (30), and drives the arm part in a substantially horizontal direction, in which the arm part passes along outer sides of side walls of the anode buffer tank (30), wraps around upper ends of the side walls and links at inner walls of the side wall.