Abstract: A touch panel includes a first electrode layer and a second electrode layer disposed above a transparent substrate. At least one transparent insulating layer is disposed between the first electrode layer and the second electrode layer. The electrode pattern of the first electrode layer has more than four sides, and the electrode pattern of the second electrode layer substantially complements the electrode pattern of the first electrode layer. A gap between the first electrodes and the second electrodes is between 30 and 300 micrometers. A cover layer is formed above the second electrode layer, and magnetic force lines, generated from the first electrode and the second electrode, exist in the cover layer or pass through the cover layer.

Abstract: A light-energy sensing apparatus includes a photovoltaic element that converts light emitted from a touch screen into electrical energy as power for a processor. Data is transferred, via an interface, between the processor and an electronic device. A signal transceiver is coupled to receive and amplify signals outputted from the processor, the amplified signals being then transmitted to the touch screen; or, alternatively, the signal transceiver is coupled to receive signals from the touch screen, the received signals being transmitted to the electronic device via the interface.

Abstract: A display device includes a decoration layer, which is at least formed in at least a portion of a view area. When a display module operates to emit light through the decoration layer, the decoration layer appears to be transparent; when the display module does not operate, the decoration layer is irradiated by ambient light to reveal a decorative pattern of the decoration layer.

Abstract: A touch sensor, a method for manufacturing same and a touch panel having the touch sensor are disclosed. The sensor may include a touch sensing layer and an auto-stereoscopic image generating structure. In particular, the touch sensing layer may act as a substrate for the auto-stereoscopic image generating structure to be directly formed on, such that the thickness of the touch sensor can be further reduced.

Abstract: A touch panel, conductive film and the method for manufacturing the same are disclosed. The conductive film may be disposed at a substrate to act as a touch sensing area. In particular, the conductive film may be formed by a method including the following steps: providing a substrate; uniformly mixing nano conductive metal with positive or negative sensitive material to form a mixture; coating the mixture over the substrate to form a wet film on the substrate; and patterning the wet film by an exposure process and a development process to form the conductive film.

Abstract: Configurations of a stylus and controlling methods thereof are disclosed. The proposed stylus causes a touch panel to generate a signal by an electrical field generated by a magnetic field via one of a conductor and an electric plate, wherein the stylus includes a set of windings and a magnet, which can move towards each other and generate a current on the set of windings through interaction. The current flows through the conductor/electric plate on a tip of the stylus to generate one of an electric flux line and a magnetic flux line such that the touch panel can sense the movement of the stylus.

Abstract: Configurations of patterns on a touch panel and methods thereof are proposed. The proposed pattern uses a design unparallel to either one of the X axis and the Y axis of a black matrix of a pixel layout of an LCD panel to resolve the Moiré Phenomenon resulting from the interference between the touch panel and the pixel layout.

Abstract: A touch electrode device includes first electrode lines and second electrode lines formed on a transparent substrate. An insulating block is disposed at a junction between a first conductive connecting portion of the first electrode line and a second conductive connecting portion of the second electrode line. At least one insulating line is extended from the insulating block and disposed along the first electrode line.

Abstract: A double-layer electrode device includes an electrode bottom layer formed on a transparent substrate, and an electrode top layer formed on the electrode bottom layer. First electrodes of the electrode bottom layer are separated from each other, and second electrodes of the electrode bottom layer are connected via second conductive connecting portions. An insulating block is formed on the second conductive connecting portion. Second electrodes of the electrode top layer are separated from each other, and first electrodes of the electrode top layer are connected via first conductive connecting portions, which are disposed cross the insulating blocks, respectively.

Abstract: A printing method for a touch panel device is disclosed. The method includes the following steps: firstly, providing a substrate; then, printing a first shielding layer on a surface of the substrate; and afterwards, printing a second shielding layer on the first shielding layer, wherein the second shielding layer covers the first shielding layer, and a side surface of the second shielding layer is connected to the surface of the substrate.

Abstract: A touch electrode device includes a first photosensitive insulating layer, a second photosensitive insulating layer, a first electrode layer and a second electrode layer. The first electrode layer is disposed on a surface of the first photosensitive insulating layer, and the second electrode layer is disposed on a surface of the second photosensitive insulating layer. Another surface of the photosensitive insulating layer is adhered to another surface of the second photosensitive insulating layer. Furthermore, each of the first electrode layer and the second electrode layer includes a non-transparent conductive material.

Abstract: A touch panel includes first electrode lines disposed along a first axis on a transparent substrate, adjacent first electrodes being connected via a first conductive connecting element. The touch panel also includes second electrode lines disposed along a second axis on the transparent substrate, adjacent second electrodes being connected via a conductive bridge. The conductive bridge includes low-temperature conductive material.

Abstract: A touch electrode device includes first electrode lines and second electrode lines formed on a transparent substrate. An insulating block is disposed at a junction between a first conductive connecting portion of the first electrode line and a second conductive connecting portion of the second electrode line. Insulating lines are respectively extended from the insulating blocks along the first electrode line, and are disposed in gaps between the first electrodes and the adjacent second electrodes.

Abstract: A touch panel includes a touch electrode layer disposed on a touch area of a transparent substrate, and a light shielding layer disposed on a boundary area of the transparent substrate. At least one inner edge of the light shielding layer has plural trenches filled with conductive material. A trace layer is disposed on the light shielding layer and is electrically coupled with the touch electrode layer via the filled conductive material.

Abstract: A touch panel includes a first electrode layer and a second electrode layer disposed above a transparent substrate. At least one transparent insulating layer is disposed between the first electrode layer and the second electrode layer. The electrode pattern of the first electrode layer has more than four sides, and the electrode pattern of the second electrode layer substantially complements the electrode pattern of the first electrode layer.

Abstract: A double-layer electrode device includes an electrode bottom layer formed on a transparent substrate, and an electrode top layer formed on the electrode bottom layer. First electrodes of the electrode bottom layer are separated from each other, and second electrodes of the electrode bottom layer are connected via second conductive connecting portions. An insulating block is formed on the second conductive connecting portion. Second electrodes of the electrode top layer are separated from each other, and first electrodes of the electrode top layer are connected via first conductive connecting portions, which are disposed cross the insulating blocks, respectively.

Abstract: A touch electrode device includes first electrode lines and second electrode lines formed on a transparent substrate. An insulating block is disposed at a junction between a first conductive connecting portion of the first electrode line and a second conductive connecting portion of the second electrode line. At least one insulating line is extended from the insulating block and disposed along the first electrode line.

Abstract: A touch electrode device includes a substrate, at least one electrode layer and a conductive ink pattern. The electrode layer is disposed above a surface of the substrate, and the electrode layer includes non-transparent conductive material. The conductive ink pattern is printed on two sides of a surface of the electrode layer.

Abstract: A touch panel includes a first sensing electrode layer formed on a first surface of a transparent substrate, the first sensing electrode layer having plural first electrodes. Plural first dummy electrodes are disposed among the first electrodes of the first sensing electrode layer respectively, and are electrically insulated from the first electrodes. A second sensing electrode layer is formed on a second surface being opposite to the first surface. The second sensing electrode layer includes plural second electrodes, which are disposed complementally in relation to the first electrodes.

Abstract: A touch electrode device includes a substrate and at least one electrode layer. The electrode layer is disposed above a surface of the substrate. The electrode layer includes non-transparent conductive material.