Abstract: A power transmission device includes a torque converter device, a first hydraulic pump, a first oil channel, a second oil channel, a third oil channel, a second pressure control valve, and a controller. The torque converter device has a torque converter and a lock-up clutch. The first oil channel supplies hydraulic fluid from the first hydraulic pump to the torque converter. The second oil channel drains hydraulic fluid from the torque converter. The third oil channel communicates with the first oil channel and the second oil channel. The second pressure control valve is disposed in the third oil channel. The controller sets the second pressure control valve to an open state when the lock-up clutch is in an engaged state.

Abstract: A pair of first measurement coils is disposed so as to sandwich magnetic particles. A pair of second measurement coils is disposed so as to sandwich magnetic particles and the pair of first measurement coils. A pair of alternate-current magnetic field application coils is disposed so as to sandwich magnetic particles, the pair of first measurement coils, and the pair of second measurement coils. A measurement device outputs a signal representing a difference between a signal measured by the pair of first measurement coils and a signal measured by the pair of second measurement coils.

Abstract: A money handling apparatus includes an upper module including an upper transport section for transporting money and a lower module including a lower transport section for transporting the money. In the apparatus, a middle transport module including a middle transport section for transporting the money between a first end to be connected to an end of the upper transport section and a second end to be connected to an end of the lower transport section is selectively attached to the lower module to place the end of the upper transport section and the end of the lower transport section in one of a plurality of different positional relationships between the ends to enable the transporting of the money between the upper transport section and the lower transport section.

Abstract: A power transmission device includes a torque converter device, a first hydraulic pump, a first oil channel, a second oil channel, a third oil channel, a second pressure control valve, and a controller. The torque converter device has a torque converter and a lock-up clutch. The first oil channel supplies hydraulic fluid from the first hydraulic pump to the torque converter. The second oil channel drains hydraulic fluid from the torque converter. The third oil channel communicates with the first oil channel and the second oil channel. The second pressure control valve is disposed in the third oil channel. The controller sets the second pressure control valve to an open state when the lock-up clutch is in an engaged state.

Abstract: A vehicle drive apparatus includes: a sleeve including a first peripheral surface provided side by side with a spline; a connecting member including a groove provided side by side with a spline in spline engagement with the spline, recessed radially relative to the first peripheral surface, and including a bottom surface that serves as a second peripheral surface facing the first peripheral surface; and a tolerance ring disposed in the groove so as to exert a radial elastic force between the sleeve and the connecting member.

Abstract: A vehicle drive apparatus includes: a sleeve including a first peripheral surface provided side by side with a spline; a connecting member including a groove provided side by side with a spline in spline engagement with the spline, recessed radially relative to the first peripheral surface, and including a bottom surface that serves as a second peripheral surface facing the first peripheral surface; and a tolerance ring disposed in the groove so as to exert a radial elastic force between the sleeve and the connecting member.

Abstract: A method for manufacturing a display device provided with gate wiring lines (112) disposed on a substrate to supply signals to TFTs, and a plurality of source wiring lines (111) disposed above the gate wiring lines, the method for manufacturing a display device including: a step of forming a first conductive pattern (31) that includes the gate wiring lines (112) by etching a gate metal layer with a first resist pattern as a mask; and a step of forming a second resist pattern (12) at a portion located between the source wirings (111) so as to expose a portion of an edge of an upper surface of the first conductive pattern (31) and so as to cover other parts thereof, at the aforementioned portion of the edge of the upper surface, the first conductive pattern (31) is etched off from the upper surface through an intermediate point along the direction of thickness.

Abstract: A method for manufacturing a display device provided with gate wiring lines (112) disposed on a substrate to supply signals to TFTs, and a plurality of source wiring lines (111) disposed above the gate wiring lines, the method for manufacturing a display device including: a step of forming a first conductive pattern (31) that includes the gate wiring lines (112) by etching a gate metal layer with a first resist pattern as a mask; and a step of forming a second resist pattern (12) at a portion located between the source wirings (111) so as to expose a portion of an edge of an upper surface of the first conductive pattern (31) and so as to cover other parts thereof, at the aforementioned portion of the edge of the upper surface, the first conductive pattern (31) is etched off from the upper surface through an intermediate point along the direction of thickness.

Abstract: Each pixel 105 includes a display part 111 for displaying an image and a sensor 112 for detecting light. The sensors 112 of the pixels 105 that are systematically pre-selected from a plurality of pixels 105 are provided with a photodiode 115 and a light-shielding film 116 in a manner such that the light-shielding film 116 is positioned below the photodiode 115 so as to overlap the photodiode 115 when viewed from the direction perpendicular to the active matrix substrate, and wiring lines 117 and bus lines 118 that electrically connect all light-shielding films 116 to each other are provided so as to avoid the display parts 111. This makes it possible to provide an active matrix substrate, a glass substrate, a liquid crystal panel, and a liquid crystal display device that can reduce the occurrence of damage due to electrostatic discharge when they are equipped with a light-receiving element and a light-shielding film to achieve optical sensor function.

Abstract: An agent for fixing (a) substance(s), which can fix various substances to be fixed on a substrate via covalent bonds and which has an excellent effect for the prevention of non-specific adsorption is disclosed. A polymer containing a plurality of phosphorylcholine groups and photoreactive groups in one molecule is used. The polymer binds to the substrate and to the substance to be fixed via the photoreactive groups, thereby the substance to be fixed is bound to the substrate via covalent bonds through the polymer, and non-specific adsorption is effectively prevented by the phosphorylcholine groups. Further, an agent for fixing (a) substance(s) for fixing the substance on a substrate, comprising a nonionic water-soluble macromolecule having at least 2 photoreactive groups in one molecule was also provided.

Abstract: With the object of suppressing dispersion in the dose of ion implantation within a narrow range in a direction orthogonal to the scan direction of a substrate, an ion doping apparatus irradiates the substrate to-be-scanned with ion beams which are drawn out from multi-apertured electrodes (200 in FIG. 2) each being provided with a large number of electrode apertures (210). In electrode aperture groups ?, . . . of the multi-apertured electrode (200), each including a plurality of electrode apertures (210), the individual electrode apertures (210) are arranged having positional shifts in the direction Y orthogonal to the scan direction X of the substrate so as to homogenize the doses of ion beam implantations into the substrate by the electrode aperture groups ?, . . . .

Abstract: With the object of suppressing dispersion in the dose of ion implantation within a narrow range in a direction orthogonal to the scan direction of a substrate, an ion doping apparatus irradiates the substrate to-be-scanned with ion beams which are drawn out from multi-apertured electrodes (200 in FIG. 2) each being provided with a large number of electrode apertures (210). In electrode aperture groups &agr;, . . . of the multi-apertured electrode (200), each including a plurality of electrode apertures (210), the individual electrode apertures (210) are arranged having positional shifts in the direction Y orthogonal to the scan direction X of the substrate so as to homogenize the doses of ion beam implantations into the substrate by the electrode aperture groups &agr;, . . . .