Abstract: The present invention provides technology for decreasing a reduction in yield due to malfunctions of a touch panel. A display device with a touch panel according to the present invention includes a display panel that includes pixels arranged in a matrix and a plurality of first electrodes and second electrodes for detecting a touched position in a display region provided with the plurality of pixels by capacitive sensing. The first electrodes extend in a first direction in the display region, and the second electrodes extend in a second direction that crosses the first direction in the display region. The display panel includes repairing conductive sections that are formed of conductive members. The repairing conductive sections are provided in such a manner that at least one repairing conductive section is provided for each of the plurality of first electrodes and is arranged along at least part of the first electrode.

Abstract: The present invention simultaneously detects a location of an electric conductor and pressure that is applied by the electric conductor. A touch panel (1) includes a plurality of sensing electrodes (2) that extend in a first direction for detecting a touch location based on an electrostatic capacitance; and pressure detecting electrodes (4) each of which extends in the first direction and is provided between adjacent two of the plurality of sensing electrodes (2). Each of the pressure detecting electrodes (4) has a width smaller than that of each of the sensing electrodes (2) and has resistance that changes in response to applied pressure.

Abstract: A display device is provided in which a configuration of first electrodes (4) in a first area (R1) that overlaps a display area (AA) of a touch panel (2), and a configuration of first electrodes (6) in a second area (R2) outside the first area, are different from each other. In the second area (R2), at least one electrode pad (6-1a, 6-2a) of the first electrodes (6) is arranged so as to be opposed to one second electrode (7a).

Abstract: A crystal display device 10 includes TFTs, pixel electrodes, common electrodes, an array board, a CF board, detection electrodes, drive electrodes , a driver, a row control circuit, and a touch controller. The detection electrodes are included in the CF board. The drive electrodes are included in the CF board. The driver and the row control circuit are included in a display driver portion for supplying scan signals and data signals to the TFTs for display driving. The touch controller supplies drive signals to the drive electrodes and detects position detection signals output by the detection electrodes to perform position detection control. The touch controller supplies the drive signals to the drive electrodes to drive the drive electrodes in a scan writing period in which the scan signals are supplied to the TFTs by at least the row control circuit in the display driver portion to drive the TFTs.

Abstract: A pressure sensor includes a first electrode, a second electrode, a first ferroelectric layer connected to the first electrode and disposed between the first electrode and the second electrode, a second ferroelectric layer connected to the second electrode and disposed between the first ferroelectric layer and the second electrode, and a dielectric layer disposed between the first ferroelectric layer and the second ferroelectric layer.

Abstract: Each transistor, which is provided for a corresponding sensor electrode, has a gate electrode, a source electrode connected to a power supply line, and a drain electrode connected to the sensor electrode.

Abstract: A touch panel includes electrode sections in an electrode layer and mainly includes electric wire sections in a bridge layer. The electrode sections are arranged in unit lattices alternately provided in the touch panel, and the electric wire sections are alternately arranged in unit lattices in which the electrode sections are not arranged. The electrode sections and the electric wire sections are electrically connected by connection sections penetrating through an insulating layer.

Abstract: A touch panel-equipped display device includes at least: a display control unit to supply a scan signal and a data signal to a display control element; and a touch position detection control unit to supply a drive signal to a drive electrode, and to detect a position detection signal from a detection electrode to detect a touch position. The display control unit supplies the data signal sequentially to a plurality of display control elements connected respectively to a plurality of pixel electrodes constituting one display pixel. The touch position detection control unit starts supplying the drive signal, in a period that is within a scan write period during which the scan signal is supplied to the display control element and is other than a period during which the data signal is supplied to the display control element corresponding to a color highest in luminosity of a plurality of colors.

Abstract: A touch panel pattern TPP includes detection electrodes 38, driving electrodes 39, floating electrodes 45, and reference width floating electrode 48, a smallest width floating electrode 49, and an intermediate width floating electrode 50 that are included in the floating electrodes 45. The smallest width floating electrode 49 is disposed at an end-side one of the floating electrodes 45 with respect to a second direction and has a smallest width. The intermediate width floating electrode 50 is disposed closer to the end-side one than the reference width floating electrode 48 is and closer to a middle than the smallest width floating electrode 49 is and has a width FW2 smaller than that of the reference width floating electrode 48 and larger than that of the smallest width floating electrode 49.

Abstract: A touchscreen pattern includes detection electrodes, drive electrodes, floating electrodes, and wide detection electrodes. The detection electrodes extend along a first direction and are arranged along a second direction perpendicular to the first direction. The drive electrodes extend along the second direction and are arranged along the first direction to overlap the detection electrodes in a plan view. The drive electrodes and the detection electrodes form capacitors. The floating electrodes are arranged adjacent to the detection electrodes 38, respectively, in the plan view and to overlap the drive electrodes in the plan view. The floating electrodes and the adjacent detection electrodes form capacitors. The floating electrodes and the overlapping drive electrodes form capacitors. The wide detection electrodes are arranged at the outermost with respect to the second direction. The wide detection electrodes have a width larger than a width of the detection electrodes closer to the middle.

Abstract: A touch panel board includes an electrode board, a cover panel, a flexible wiring board, a guard portion, and a ground connection wire. The electrode board includes a support board, sensor electrodes supported on the support board, and connection terminals electrically connected to the sensor electrodes and supported on the support board and collectively arranged on an outer side with respect to the sensor electrodes. The flexible wiring board includes conductive wires, one end thereof being connected to the connection terminals, respectively, and a ground wire. The conductive guard portion is arranged on a side of the opposing surface of the projected end portion to be arranged on an outer side with respect to the connection terminals. The ground connection wire electrically connects the guard portion and the ground wire.

Abstract: A liquid crystal display device includes an array board, a CF board, detection electrodes, drive electrodes, and position detection lines. The array board includes TFTs in a display area and a display circuit that includes at least monolithic circuits in a non-display area. The CF board is opposed to the array board with a gap. The detection electrodes are arranged on an outer surface of the CF board in the display area to extend along the first direction. The drive electrodes are arranged on an inner surface of the CF board in the display area to extend along the second direction. The position detection lines are arranged on the inner surface of the CF board in the non-display area for transmitting signals to the drive electrodes. The position detection lines are arranged to overlap the monolithic circuits.

Abstract: Provided are (i) a touch panel substrate improved in uniformity of in-plane light transmittance and (ii) an electronic device employing the touch panel substrate. First sensor electrodes (11) are arranged in a first electrode layer (10), and second electrodes are arranged in a second electrode layer. In part of an outer edge of a first sensor electrode (11) which part is arranged side by side with an outer edge of a second electrode when viewed from above, ends of conductor lines (13) of the first sensor electrode (11) have respective wide width parts (40) each of which is wider than the other part of the conductor lines (13) when viewed from above.

Abstract: A touch panel-equipped display device includes at least: a display control unit to supply a scan signal and a data signal to a display control element; and a touch position detection control unit to supply a drive signal to a drive electrode, and to detect a position detection signal from a detection electrode to detect a touch position. The display control unit supplies the data signal sequentially to a plurality of display control elements connected respectively to a plurality of pixel electrodes constituting one display pixel. The touch position detection control unit starts supplying the drive signal, in a period that is within a scan write period during which the scan signal is supplied to the display control element and is other than a period during which the data signal is supplied to the display control element corresponding to a color highest in luminosity of a plurality of colors.

Abstract: A touch panel pattern TPP includes detection electrodes 38, driving electrodes 39, floating electrodes 45, and reference width floating electrode 48, a smallest width floating electrode 49, and an intermediate width floating electrode 50 that are included in the floating electrodes 45. The smallest width floating electrode 49 is disposed at an end-side one of the floating electrodes 45 with respect to a second direction and has a smallest width. The intermediate width floating electrode 50 is disposed closer to the end-side one than the reference width floating electrode 48 is and closer to a middle than the smallest width floating electrode 49 is and has a width FW2 smaller than that of the reference width floating electrode 48 and larger than that of the smallest width floating electrode 49.

Abstract: Provided is a touch-sensor-equipped liquid crystal display device in which touch sensors have an improved response speed, with the degradation of image quality being suppressed.

Abstract: Provided are (i) a touch panel substrate improved in uniformity of in-plane light transmittance and (ii) an electronic device employing the touch panel substrate. A plurality of first sensor electrodes (11) are formed by dividing first conductor lines (13). At least one of a pair of ends of the first conductor lines (13), which pair of ends face each other via a dividing line along which the first conductor lines (13) are divided, has a wide width part (40) which is wider than the other part of the first conductor lines (13), when viewed from above.

Abstract: Provided is a method for inspecting a touch panel with which method it is possible to perform an inspection with high accuracy and to allow an improvement in yield. A drive signal is supplied to either one of sensor electrodes (12) and an inspection electrode (142), a plurality of sense signals related to the respective sensor electrodes (12) are obtained from the other of the sensor electrodes and the inspection electrode, and conditions of the sensor electrodes (12) are determined according to the sense signals.

Abstract: An input device having a row electrode and a column electrode made by patterning a meshed metallic layer by forming a dividing section on a metallic line constituting the meshed metallic layer can suppress variability in areas of individual dividing sections formed on the metallic lines, whereby uneven shading due to the patterned, meshed conductive layer is suppressed from appearing on a touch operation surface. In the input device having the row electrode and the column electrode made by patterning the meshed metallic layer by forming the dividing section on the metallic line constituting the meshed metallic layer, a mesh side section intersecting with an ideal contour Sp2 of the column electrode (meshed electrode) corresponding to one side of a mesh in the metallic line Mw2 is divided by a dividing section Rs that does not overlap with an intersection Mcp of the metallic lines to form an actual contour of the column electrode.

Abstract: A display device is provided in which a configuration of first electrodes (4) in a first area (R1) that overlaps a display area (AA) of a touch panel (2), and a configuration of first electrodes (6) in a second area (R2) outside the first area, are different from each other. In the second area (R2), at least one electrode pad (6-1a, 6-2a) of the first electrodes (6) is arranged so as to be opposed to one second electrode (7a).