Abstract: A touch panel including a substrate, first electrodes and second electrodes is provided. The first electrodes and the second electrodes are electrically insulated from each other and are disposed on the substrate. Each first electrode includes first electrode pads and first connecting lines, and the first connecting lines connect adjacent two of the first electrode pads in series. Each second electrode includes second electrode pads and second connecting lines, and the second connecting lines connect adjacent two of the second electrode pads in series. An outer contour of each first electrode pad is defined by a first zigzag line, an outer contour of each second electrode pad is defined by a second zigzag line, and the first zigzag line and the second zigzag line located at a boundary between the first electrode and the second electrode are parallel or partially parallel to each other.

Abstract: A touch panel includes a sensing electrode. The sensing electrode includes a plurality of mesh units pieced together with others. Each of the mesh units is different from at least one of adjacent mesh units in shape. Each of the mesh units has a plurality of side edges connected with one another. At least two side edges of each of the mesh units are different in length.

Abstract: A touch panel structure and the manufacturing method thereof are disclosed, in which the manufacturing method includes the steps of: providing a bonding layer; and forming a conductive pattern layer on the bonding layer; wherein the conductive pattern layer is composed of at least one first and at least one second major conductors with an insulation layer interposed between the first and the second major conductors. Comparing with the prior art for manufacturing touch panels, the disclosure is advantageous in material cost, production cost, and production yield; moreover, the panel lamination process can be simplified and the touch panel structure can be joined to a planar or curvy panel and facilitate the design of a thinner product.

Abstract: A capacitive touch panel including a substrate and a plurality of approach sensing units disposed on the substrate is provided. Each approach sensing unit comprises a first driving electrode, a second driving electrode, a first sensing electrode unit and a second sensing electrode unit. The first and second driving electrodes are arranged in parallel along an axis. The first and second sensing electrode units are arranged along an axis and sense the approach of an object to generate a first approach sensing signal and a second approach sensing signal, respectively. The first and second sensing electrode units are adjacent to each other and disposed between the first and second driving electrodes or the first and second driving electrodes are adjacent to each other and disposed between the first and second sensing electrode units.

Abstract: A touch-sensing electrode structure includes multiple first electrodes and multiple second electrodes. Each first electrode includes a longitudinal part extending in a first direction and multiple branch parts connected to the longitudinal part. The second electrodes are disposed on at least one side of each longitudinal part, and each of the second electrodes at least spreads over a region between two adjacent branch parts of each of the first electrodes.

Abstract: A display panel includes a first substrate, a conductive light-shielding pattern, color filter patterns, a second substrate, scan lines, data lines, pixel structures, third pads and fourth pads. The conductive light-shielding pattern disposed on the first substrate defines conductive matrix pattern, first pads, and second pads. Each first pad is electrically connected to one corresponding second pad through the conductive matrix pattern and insulated with other second pads. The color filter patterns are disposed on the first substrate and a portion of each color filter pattern overlaps the conductive light-shielding pattern. The third pads are one-to-one electrically to the first pads while the fourth pads are one-to-one electrically connected to the second pads. Each fourth pad is electrically connected to one of the scan lines and one of the data lines.

Abstract: A touch panel structure and the manufacturing method thereof are disclosed, in which the manufacturing method includes the steps of: providing a bonding layer; and forming a conductive pattern layer on the bonding layer; wherein the conductive pattern layer is composed of at least one first and at least one second major conductors with an insulation layer interposed between the first and the second major conductors. Comparing with the prior art for manufacturing touch panels, the disclosure is advantageous in material cost, production cost, and production yield; moreover, the panel lamination process can be simplified and the touch panel structure can be joined to a planar or curvy panel and facilitate the design of a thinner product.

Abstract: A display panel having a display area and a non-display area outside the display area is provided. The display panel includes a first substrate, a conductive light-shielding pattern, color filter patterns, first spacers, transparent pads, a second substrate, scan lines, data lines, pixel structures, third pads and fourth pads. The conductive light-shielding pattern defines a conductive matrix pattern, a plurality of first pads and second pads. Each first pad is electrically connected with one of the corresponding second pads through the conductive matrix pattern. The color filter patterns include a plurality of first filter patterns and second filter patterns. The second filter patterns are located within the non-display area and disposed on the second pads. The first spacers are disposed on the second filter patterns, and the transparent pads cover the first spacers and contact the second pads.

Abstract: A touch-sensitive device includes a first and a second substrate and a first and a second touch-sensing electrode structure. The first touch-sensing electrode structure is disposed on the first substrate, and at least one touch position of a conductor is detected by sensing the capacitance variation of the first touch-sensing electrode structure. The second touch-sensing electrode structure is disposed on one side of the second substrate back to the first touch-sensing electrode structure. At least one touch position of an insulator is detected by sensing a variation of the interval between the first touch-sensing electrode structure and the second touch-sensing electrode structure.

Abstract: A touch-sensitive device includes a transparent substrate, a touch-sensing structure, a metal trace layer, a transparent conductive layer and a first insulation layer. The touch-sensing structure is disposed on the transparent substrate and located in a touch-sensitive region of the touch-sensitive device. The metal trace layer is disposed on a non-touch-sensitive region of the touch-sensitive device. The transparent conductive layer is connected to the metal trace layer. The first insulation layer covers at least the touch-sensing structure, the metal trace layer and the transparent conductive layer. At least one opening is formed on the first insulation layer to expose a part of the transparent conductive layer.

Abstract: A touch-sensitive device includes a transparent substrate, a touch-sensing structure, a decorative layer, a metal trace layer, a first insulation layer and a second insulation layer. The touch-sensing structure is disposed on the transparent substrate and located in a touch-sensitive region of the touch-sensitive device. The decorative layer is disposed on a non-touch-sensitive region of the touch-sensitive device, and the metal trace layer is disposed on the non-touch-sensitive region. The first insulation layer is disposed on the transparent substrate and covers the touch-sensing structure and the metal trace layer. The second insulation layer is disposed on the transparent substrate and distributed only in the non-touch-sensitive region to provide a distribution area substantially overlapping the metal trace layer.

Abstract: A display panel having a display area and a non-display area outside the display area is provided. The display panel includes a first substrate, a conductive light-shielding pattern, color filter patterns, first spacers, transparent pads, a second substrate, scan lines, data lines, pixel structures, third pads and fourth pads. The conductive light-shielding pattern defines a conductive matrix pattern, a plurality of first pads and second pads. Each first pad is electrically connected with one of the corresponding second pads through the conductive matrix pattern. The color filter patterns include a plurality of first filter patterns and second filter patterns. The second filter patterns are located within the non-display area and disposed on the second pads. The first spacers are disposed on the second filter patterns, and the transparent pads cover the first spacers and contact the second pads.

Abstract: A field sequential driving method includes the following steps. First, a liquid crystal display (LCD) including a display unit and a backlight unit is provided. The display unit includes several pixel units. Next, a white light source of the backlight unit is enabled during a first sub-frame period of a frame period of the LCD. Then, red and blue sub-pixel data are provided to drive a first sub-pixel and a second sub-pixel in the pixel unit during the first sub-frame period. Next, a green light source of the backlight unit is enabled during a second sub-frame period of the frame period. Thereafter, green sub-pixel data is provided to drive a third sub-pixel of the pixel unit during the second sub-frame period.

Abstract: A surface capacitive touch panel includes a transparent substrate, a decorative layer, a metal trace pattern layer, and a passivation layer. The decorative layer and the capacitive sensing electrode layer are formed on the transparent substrate. The metal trace pattern layer is formed on the capacitive sensing electrode layer. The decorative layer is disposed at a position substantially overlapping the metal trace pattern layer.

Abstract: A display panel includes a first substrate, a conductive light-shielding pattern, color filter patterns, a second substrate, scan lines, data lines, pixel structures, third pads and fourth pads. The conductive light-shielding pattern disposed on the first substrate defines conductive matrix pattern, first pads, and second pads. Each first pad is electrically connected to one corresponding second pad through the conductive matrix pattern and insulated with other second pads. The color filter patterns are disposed on the first substrate and a portion of each color filter pattern overlaps the conductive light-shielding pattern. The third pads are one-to-one electrically to the first pads while the fourth pads are one-to-one electrically connected to the second pads. Each fourth pad is electrically connected to one of the scan lines and one of the data lines.

Abstract: An active matrix substrate is provided. The active matrix substrate includes a substrate, scan lines, data lines, pixel units, and connecting lines. The scan lines, data lines, pixel units, and connecting lines are all disposed over the substrate. The pixel unit includes an active component, a first pixel electrode, a second pixel electrode, and a third pixel electrode. The active components are electrically connected with the scan lines and data lines. The first pixel electrode and the second pixel electrode are disposed at the two opposite sides of the scan line, and electrically connected with the active component. The third pixel electrode is electrically insulated from the active component. In the pixel units arranged in a same column, each of the third pixel electrodes is electrically connected with the second pixel electrode controlled by a previous scan line through the corresponding connecting line.

Abstract: A thin film transistor liquid array substrate includes forming a plurality of amorphous silicon thin film transistors and storage capacities on a transparent substrate, wherein the amorphous silicon thin film transistors and the storage capacities are arranged in an array pattern. The storage capacitor has a top electrode and a bottom electrode, which are made of transparent conductive material to increase aperture ratio. A method of making the amorphous silicon thin film transistors and the storage capacities includes four photomask processes and a back exposure technique. Because the present invention only uses four photomask processes, the number of photomasks used in the process of the present invention is less than the conventional method, and the cost of fabrication is lower also.

Abstract: An active matrix substrate is provided. The active matrix substrate includes a substrate, scan lines, data lines, pixel units, and connecting lines. The scan lines, data lines, pixel units, and connecting lines are all disposed over the substrate. The pixel unit includes an active component, a first pixel electrode, a second pixel electrode, and a third pixel electrode. The active components are electrically connected with the scan lines and data lines. The first pixel electrode and the second pixel electrode are disposed at the two opposite sides of the scan line, and electrically connected with the active component. The third pixel electrode is electrically insulated from the active component. In the pixel units arranged in a same column, each of the third pixel electrodes is electrically connected with the second pixel electrode controlled by a previous scan line through the corresponding connecting line.

Abstract: A field sequential driving method includes the following steps. First, a liquid crystal display (LCD) including a display unit and a backlight unit is provided. The display unit includes several pixel units. Next, a white light source of the backlight unit is enabled during a first sub-frame period of a frame period of the LCD. Then, red and blue sub-pixel data are provided to drive a first sub-pixel and a second sub-pixel in the pixel unit during the first sub-frame period. Next, a green light source of the backlight unit is enabled during a second sub-frame period of the frame period. Thereafter, green sub-pixel data is provided to drive a third sub-pixel of the pixel unit during the second sub-frame period.

Abstract: An image processing method is provided for generating multi-color data comprised of three primary-color sub-pixels and a brightness-enhancing sub-pixel, where a combination selected three at a time from these sub-pixels constituting a target pixel for the image processing method. First, a three-color pixel is converted into a four-color pixel, where the sub-pixels of the four-color pixel identical with those of the target pixel are represented by first numerical values, and the sub-pixel of the four-color pixel different to that of the target pixel is represented by a second numerical value. Then, the first numerical values are correlated with third numerical values discarded by neighboring pixels of the target pixel to determine the actual output of the target pixel.