Abstract: A touch apparatus includes a driving unit, a first touch panel, a second touch panel and a connecting circuit board coupling between the first and second touch panels. The driving unit has a driving element which has at least one driving port for outputting a plurality of driving signals and at least one sensing port for receiving a plurality of sensing signals. The first touch panel is coupled with the driving element. The second touch panel is disposed adjacent to the first touch panel, and is coupled with the driving element via the first touch panel. The first touch panel and the second touch panel are coupled jointly with at least one of the driving port and the sensing port. A driving method of the touch apparatus is also disclosed.

Abstract: A touch screen panel includes a substrate, a plurality of first electrodes formed on the substrate and extending along a first direction, a plurality of second electrodes formed on the substrate and extending along a second direction substantially perpendicular to the first direction; and a plurality of conducting connectors. The conducting connectors are made of a metallic material. A surface of each conducting connector is processed by oxidation treatment for forming oxides, or treated by sulfidizing.

Abstract: A touch screen panel includes a substrate, a plurality of driving electrodes formed over the substrate, a plurality of sensing electrodes arranged between the plurality of driving electrodes, a plurality of insulating layers, and a plurality of conducting connectors. Each of the plurality of insulating layers can be formed on each two neighboring sensing electrodes among the plurality of sensing electrodes and define two through holes. Each of the two through holes is positioned on corresponding one of the two neighboring sensing electrodes among the plurality of sensing electrodes. Each of the plurality of conducting connector formed on each of the plurality of insulating layers and filled the two through holes for electrically coupling with the two neighboring sensing electrodes among the plurality of sensing electrodes.

Abstract: A touch apparatus includes a driving unit, a first touch panel, a second touch panel and a connecting circuit board coupling between the first and second touch panels. The driving unit has a driving element which has at least one driving port for outputting a plurality of driving signals and at least one sensing port for receiving a plurality of sensing signals. The first touch panel is coupled with the driving element. The second touch panel is disposed adjacent to the first touch panel, and is coupled with the driving element via the first touch panel. The first touch panel and the second touch panel are coupled jointly with at least one of the driving port and the sensing port. A driving method of the touch apparatus is also disclosed.

Abstract: An exemplary backlight module (1) includes a light source (11), a control circuit (15) and an ambient light detector (17). The ambient light detector is configured for detecting an intensity of ambient light beams and generating a corresponding current output to the control circuit. The control circuit is configured for modulating an intensity of light beams emitted by the light source according to predetermined staged modulating modes, the staged modulating modes corresponding to various amounts of the current.

Abstract: A method for driving a liquid crystal display device (20) is provided. The liquid crystal display device comprising a plurality of scanning lines (201), a plurality of data lines (202), a scanning driving circuit (210) for providing scanning signals to the scanning lines, a data driving circuit (220) for providing data signals to the data lines, and a light emitting diode matrix (240) for emitting red, green and blue light beams. The method comprising: dividing a frame time into three sub-frame times (t1, t3, and t5) and three blanking periods (t2, t4, and t6), each of the blanking periods following a respective one of the three sub-frame times; during the three sub-frame times, the light emitting diode matrix emitting red, green, and blue light beams, respectively; during at least one of the three blanking periods, the light emitting diode matrix emitting red, green, and blue light beams simultaneously.

Abstract: An exemplary dual-display device (2), includes a main liquid crystal display (LCD) panel (21), a subsidiary LCD panel (22), and a rigid-flex printed board (24) interconnecting the main LCD panel and the subsidiary LCD panel. The rigid-flex printed board includes a printed circuit board (PCB) (241) on which the subsidiary LCD panel is mounted, a first flexible printed circuit board (FPC) (243) electrically connected to the main LCD panel, and connection means (25) interconnecting the first FPC and the subsidiary LCD panel, wherein an end of the connection means is bonded to the subsidiary LCD panel. The rigid-flex printed board is relatively simple, and the cost of the dual-display device can be reduced.