Abstract: A conductive buffer material (11) is one surface of a display panel (29) sandwiched between a first member (BZ1) and a second member (CS), and is interposed between a first panel surface facing the metallic first member (BZ1) and the first member (BZ1). The conductive buffer material (11) includes an inclusion material (15) and a conductive envelope material (14) that wraps the inclusion material (15), and the conductive buffer material (11) includes a main portion in which part of the envelope material (14) is brought closer to the first panel surface and the first member (BZ1) by the inclusion material (15) having a given thickness or more.

Abstract: An optical sheet that diffuses light is disposed on the front side of a backlight chassis supporting a fluorescent tube, a frame supporting a display panel that displays images is provided on the front side of the optical sheet, a bezel is provided on the front side of the frame, the bezel, the display panel, the frame and the optical sheet are coupled, and the bezel, the display panel, the frame and the optical sheet constitute a unit. A first reinforcing member is provided along one side of the optical sheet, a second reinforcing member opposed to the first reinforcing member is provided along one side of the backlight chassis, and a pivotal member is provided between the first reinforcing member and the second reinforcing member.

Abstract: An information display 100 according to the present invention, comprising a housing 60 having an opening 65, a display member 10 accommodated within the housing 60, a translucent protective member 70 covering the opening 65 of the housing 60 and allowing a display provided by the display member 10 to be visible, and a magnet 80 disposed within the housing 60.

Abstract: A conductive buffer material (11) is one surface of a display panel (29) sandwiched between a first member (BZ1) and a second member (CS), and is interposed between a first panel surface facing the metallic first member (BZ1) and the first member (BZ1). The conductive buffer material (11) includes an inclusion material (15) and a conductive envelope material (14) that wraps the inclusion material (15), and the conductive buffer material (11) includes a main portion in which part of the envelope material (14) is brought closer to the first panel surface and the first member (BZ1) by the inclusion material (15) having a given thickness or more.

Abstract: Provided is a display apparatus including a display panel (11), control substrates (20) disposed along the periphery of the display panel (11) to control the display of the display panel (11), flexible substrates (21) that electrically and mechanically connect the display panel (11) and the control substrates (20) together, and reinforcing members (25) that mechanically connect the display panel (11) and the control substrates (20) together. The thickness of connecting portions (25A) of the reinforcing member (25) for connection to the display panel (11) and to the control substrate (20) is equal to or smaller than the thickness of connecting portions (21A) of the flexible substrate (21) for connection to the display panel (11) and to the control substrate (20). The connecting portions (21A) of the flexible substrate (21) and the connecting portions (25A) of the reinforcing member (25) are bonded to the display panel (11) and to the control substrate (20) by anisotropic conductive films (24).

Abstract: Provided is a backlight device having improved heat dissipating performance. The backlight device (20) is provided with a fluorescent lamp (90), a reflection sheet (80), a backlight chassis (50), a power supply substrate (60) to be attached to a main body section (51) of the backlight chassis, a tuner substrate (61) and an inverter substrate (62). The power supply substrate, the tuner substrate and the inverter substrate are arranged between the reflection sheet and the main body section of the backlight chassis.

Abstract: An optical sheet that diffuses light is disposed on the front side of a backlight chassis supporting a fluorescent tube, a frame supporting a display panel that displays images is provided on the front side of the optical sheet, a bezel is provided on the front side of the frame, the bezel, the display panel, the frame and the optical sheet are coupled, and the bezel, the display panel, the frame and the optical sheet constitute a unit. A first reinforcing member is provided along one side of the optical sheet, a second reinforcing member opposed to the first reinforcing member is provided along one side of the backlight chassis, and a pivotal member is provided between the first reinforcing member and the second reinforcing member.

Abstract: An information display 100 according to the present invention, comprising a housing 60 having an opening 65, a display member 10 accommodated within the housing 60, a translucent protective member 70 covering the opening 65 of the housing 60 and allowing a display provided by the display member 10 to be visible, and a magnet 80 disposed within the housing 60.

Abstract: A lighting device 12 for a display device comprising: a plurality of LED light sources 20, an LED substrate 21 having the plurality of LED light sources 20 mounted thereon, an optical member 15 arranged on a light emission side of the LED sources 20, and a chassis 14 for supporting the plurality of LED light sources 20. The chassis 14 has a cutout 17. The LED substrate 21 is attached to an opposite surface of the chassis 14 from a surface that faces the optical member 15 such that the LED light sources 20 are exposed toward the optical member 15 side through the cutout 17.

Abstract: One embodiment of a remote control system according to the invention includes: a remote control transmitter including a light-emitting element control unit that emits light-emitting element that emit position detection light signals; a remote control receiver including a light-reception signal processing unit that detects position detection reception signals from the position detection light signals, an output detection unit that performs waveform conversion on the position detection reception signals to obtain output signals as position detection output signals, and an arithmetic processing unit that calculates a displacement of the remote control transmitter in a first axis direction and a second axis direction based on an amplitude correlation of output signals; and a cursor control unit that controls the position of the cursor based on the displacement of the remote control transmitter in the first axis direction and the displacement of the remote control transmitter in the second axis direction.

Abstract: A remote control device provided with a means for receiving light from a light-emitting element 21 at a light-receiving element 3 and detecting from a signal thereof a movement amount of a mark 16 on a screen 2a of a display device 2 so as to cause movement of the mark such as a pointer on the screen of the display device in response to a movement amount of a light emission point H of the light-emitting element, wherein the light-receiving element is provided with a semiconductor position detection element, and moreover, is configured to be capable of detecting movement of the light emission point in a horizontal direction and a vertical direction, and causes the mark on the screen of the display device to move due to the signal from the light-receiving element.

Abstract: In an embodiment of the present invention, a remote control device is provided with an optical indicator device and a light-receiving device. A display device is provided with a display portion that displays a pointer and a frame portion that accommodates the light-receiving device. By displacing a light-emitting element sequencially to a plurality of displacement positions, supplying a light emission signal to the light-emitting element at each displacement position and to cause the light-emitting element to emit as output a position detection light signal, then sequencially detecting light-reception signals that are received as input by a position detection light-receiving element of the light-receiving device, and performing arithmetic processing as appropriate on the detected light-reception signals, a displacement state of a reference axis displacement angle is detected.

Abstract: In an embodiment of the present invention, a remote control device is provided with an optical indicator device and a light-receiving device, and a display device accommodates the light-receiving device of the remote control device, wherein the optical indicator device emits as output a position detection light signal and a function control light signal, these being transmitted to the light-receiving device. The light-receiving device is provided with a position detection light-receiving element, which is for receiving as input the position detection light signal, and a function control light-receiving element, which is for receiving as input the function control light signal. When the optical indicator device moves, the position detection light signal (light-reception signal), which is received as input by the position detection light-receiving element, tracks the movement thereof and changes accordingly.

Abstract: In the regulated power supply circuit, an overcurrent detection circuit detects the flow of an overcurrent through a transistor acting as an output control element and supplies a result of the detection to a cut-off operation prohibition circuit. During non-startup time of the regulated power supply circuit, the cut-off operation prohibition circuit simply relays a result of the overcurrent detection circuit detecting an overcurrent to a cut-off circuit without introducing any changes to the result. The cut-off circuit increases a base potential of the transistor according to the result of the detection of an overcurrent to cut off the output of the transistor. It is ensured that the output voltage rises even if the overcurrent detection circuit has activated the cut-off circuit upon detection of the overcurrent temporarily passing through the transistor during a startup.

Abstract: In the regulated power supply circuit, an overcurrent detection circuit detects the flow of an overcurrent through a transistor acting as an output control element and supplies a result of the detection to a cut-off operation prohibition circuit. During non-startup time of the regulated power supply circuit, the cut-off operation prohibition circuit simply relays a result of the overcurrent detection circuit detecting an overcurrent to a cut-off circuit without introducing any changes to the result. The cut-off circuit increases a base potential of the transistor according to the result of the detection of an overcurrent to cut off the output of the transistor. It is ensured that the output voltage rises even if the overcurrent detection circuit has activated the cut-off circuit upon detection of the overcurrent temporarily passing through the transistor during a startup.