Abstract: A sensing amplifier circuit includes first and second P-type transistors and first and second N-type transistors. The first P-type transistor includes a gate coupled to an input node, a source and a bulk coupled to a first node, and a drain coupled to an output node. The second P-type transistor includes a gate coupled to an inverted reading-triggered signal, a source coupled to a voltage source, and a drain coupled to the first node. The first N-type transistor includes a gate coupled to the input node, a drain coupled to the output node, and a source coupled to ground. The second N-type transistor includes a gate receiving the inverted reading-triggered signal, a drain coupled to the output node, and a source coupled to the ground. The first P-type transistor includes an N-type well region that is electrically connected to the source and bulk of the first P-type transistor.

Abstract: A touch sensing display device includes a first substrate; a second substrate parallel to the first substrate, a plurality of scanning lines and sensing lines being disposed on the second substrate, and the scanning lines being interlaced with the sensing lines; a plurality of touch switches disposed on the second substrate, each touch switch being connected between one scanning line and one sensing line in series; and a plurality of spacers disposed on the first substrate corresponding to the touch switches, respectively, each spacer having a conductive layer disposed on a bottom side facing to the corresponding touch switch, and having isolating surfaces on the other sides, wherein each touch switch has a turned-on state and a turned-off state, and the conductive layer of the spacer corresponding thereto causes said touch switch to be changed from the turned-off state to the turned-on state when a touch event is received.

Abstract: A resistive/capacitive integrated touch device includes a resistive touch module, a capacitive touch module and a spacer layer. The resistive touch module includes a first substrate and a first sensing layer. The capacitive touch module includes a second substrate and a second sensing layer. The second sending layer includes a plurality of first sensing pads and a plurality of second sensing pads. The spacer layer is disposed between the first and the second sensing layers. The resistive/capacitive integrated touch device utilizes the plurality of first sensing pads and the plurality of second sensing pads to detect the voltage variation of the first sensing layer for resistive sensing, and detecting the capacitance variation of the plurality of first sensing pads and the plurality of second sensing pads for capacitive sensing.

Abstract: A resistive/capacitive integrated touch device includes a resistive touch module, a capacitive touch module and a spacer layer. The resistive touch module includes a first substrate and a first sensing layer. The capacitive touch module includes a second substrate and a second sensing layer. The second sending layer includes a plurality of first sensing pads and a plurality of second sensing pads. The spacer layer is disposed between the first and the second sensing layers. The resistive/capacitive integrated touch device utilizes the plurality of first sensing pads and the plurality of second sensing pads to detect the voltage variation of the first sensing layer for resistive sensing, and detecting the capacitance variation of the plurality of first sensing pads and the plurality of second sensing pads for capacitive sensing.

Abstract: A photo-sensing LCD touch device with a light guide plate is provided. The light guide plate is disposed in an LCD touch panel, and a light source is disposed on one side of the light guide plate to provide lights into the light guide plate, yielding an occurrence of total reflection of the lights in the light guide plate. When a touch object touches the light guide plate, the total reflection of the lights would be decomposed so that the lights are emitted out of the light guide plate. Therefore, a photo-sensor can detect a variance of a photo-current of the scattered lights to accurately determine a touched position. Accordingly, the LCD touch device would not rely on ambient light and can avoid a drawback of an undesirable shadow.

Abstract: A touched position identification method for identifying a position touched by an object on an optical touch panel is provided. The optical touch panel includes optical sensors, a light guide plate and a controllable light source. The controllable light source is disposed at a light incident side of the light guide plate. In the method, a turn-on action and a turn-off action are alternatively performed on the controllable light source with a predetermined interval. At least an nth and a (n+2)th image data corresponding to the turn-on action and a (n+1)th and a (n+3)th image data corresponding to the turn-off action is obtained through the optical sensors, wherein n is a natural number. An operation is performed on the image data to obtain a first comparative data and a second comparative data, and the position touched by the object is identified according to the first and the second comparative data.

Abstract: A touch sensing display device includes a first substrate; a second substrate parallel to the first substrate, a plurality of scanning lines and sensing lines being disposed on the second substrate, and the scanning lines being interlaced with the sensing lines; a plurality of touch switches disposed on the second substrate, each touch switch being connected between one scanning line and one sensing line in series; and a plurality of spacers disposed on the first substrate corresponding to the touch switches, respectively, each spacer having a conductive layer disposed on a bottom side facing to the corresponding touch switch, and having isolating surfaces on the other sides, wherein each touch switch has a turned-on state and a turned-off state, and the conductive layer of the spacer corresponding thereto causes said touch switch to be changed from the turned-off state to the turned-on state when a touch event is received.

Abstract: A fabrication method of a thin film transistor includes providing a substrate at first. Thereafter, a first gate is formed on the substrate. An insulator is then formed to cover the first gate and a portion of the substrate. After that, a channel structure is formed on the insulator above the first gate. In addition, a metal layer is formed to cover the channel structure and a portion of the insulator. Next, the metal layer is patterned, and at least the metal layer on two sidewalls of the channel structure is retained to form a source and a drain, respectively. Moreover, a passivation layer is formed to at least cover the source, the drain and a portion of the insulator.