Abstract: A method for manufacturing a touch panel includes the following steps. A touch-sensing unit is provided. A decoration layer is formed on the touch-sensing unit. And, a cover lens is disposed on the decoration layer. A touch panel is also provided. A touch panel includes a cover lens, a touch-sensing unit, and a first decoration layer separating the cover lens from the touch-sensing unit, wherein the first decoration layer and the touch-sensing unit have a first adhesive force per unit area therebetween, the first decoration layer and the cover lens have a second adhesive force per unit area therebetween, and the first adhesive force per unit area is greater than the second adhesive force per unit area.

Abstract: A touch panel includes a transparent substrate, a touch sensor layer disposed under the transparent substrate and a ground ring disposed on, above or under a black matrix. The ground ring is also disposed around the sidewall of the touch sensor layer.

Abstract: The present invention is directed to a touch panel. The touch panel includes an optical layer disposed on a bottom surface of at least one peripheral edge of a transparent substrate. A light shielding layer is disposed on at least a portion of a bottom surface of the optical layer. A touch sensing layer is disposed below the transparent substrate and the light shielding layer.

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: A touch panel includes a transparent substrate; an electrode layer formed above a touch area of the transparent substrate; a protective layer formed above a trace area of the transparent substrate; and plural traces formed above the protective layer.

Abstract: A touch display includes a display module and a touch module. The touch module includes a first three-layer electrode structure and a transparent cover substrate, wherein the first three-layer electrode structure is disposed above a polarizer, and the transparent cover substrate is disposed above the first three-layer electrode structure. The first three-layer electrode structure includes a bottom index matching layer, a mesh electrode layer and a top index matching layer, wherein the mesh electrode layer is sandwiched between the bottom index matching layer and the top index matching layer.

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: 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: A touch panel includes dummy electrodes, disposed in a transmit electrode layer or a receive electrode layer whichever is below an isolation layer. In one embodiment, an anti-reflective layer includes at least one composite refractive-index three-layer structure. In another embodiment, the receive electrode layer is disposed below the isolation layer, and the receive electrode layer and the dummy electrodes are electrically coupled to a same electric potential.

Abstract: A touch panel includes first electrodes, second electrodes, first conductive lines, second conductive lines and a conductive particle layer. The first and second electrodes are respectively formed on an upper surface of a first transparent substrate and a bottom surface of a second transparent substrate. The upper surface is adhered to the bottom surface. The first and second conductive lines are formed on a periphery area of the upper surface, and the first conductive lines are electrically connected to the first electrodes. The conducting particle layer, disposed between the first and the second transparent substrate, includes conducting particles, which are electrically connected to the second conductive lines and the second electrodes.

Abstract: A touch panel and a touch display panel using the same are provided. The touch panel includes a cover glass and a touch substrate. The cover glass includes a first base and a signal line layer. The signal line layer is formed on a peripheral portion of the first base. The touch substrate is connected to the cover glass and comprises a second base and a sensing structure layer. The sensing structure layer is formed on the second base.

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 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 bonding structure includes a first substrate, a second substrate, a printed circuit board (PCB) disposed between the first substrate and the second substrate, anisotropic conductive adhesive (ACA) and conductive wires. The ACA is disposed between second connecting bonding pads of the first substrate and second bonding pads of the second substrate. First bonding pads of the first substrate are bonded with corresponding first matching bonding pads of the PCB, and second duplicated bonding pads of the first substrate are bonded with second matching bonding pads of the PCB, wherein the first and the second matching bonding pads are disposed on the same surface of the PCB. The second connecting bonding pads and the corresponding second duplicated bonding pads are electrically coupled via the conductive wires.

Abstract: A touch panel includes a transparent substrate, electrodes, traces and at least two ground rings on the transparent substrate. The traces connect the electrodes to transmit signals. At least two ground rings connect to each other through a plurality of bridges and surround the electrodes and the traces. Each bridge has at least one ESD tip or peak to enhance local electric field strength and electrostatic discharge.

Abstract: A test method of pressing a touch panel includes driving at least one pressing element such that a bottom surface of the at least one pressing element presses on a top surface of the touch panel. Pressing forces and corresponding pressing strokes are recorded while the touch panel is continuously pressed. The recorded pressing forces and the pressing strokes are converted into a test curve diagram, according to which a first turning point is determined at which the corresponding pressing force represents a force when the pressed touch panel contacts a test platform.

Abstract: A touch panel with mesh alloy electrodes including first and second electrodes each having an alloy layer sandwiched between two transparent conductive layers. The second electrode is disposed in parallel with or stacked on the first electrode. Either one or both of the first and the second electrodes may include meshes.

Abstract: A method of forming a touch panel includes bonding a transparent conductive transfer film (TCTF) with a cover layer, followed by patterning the TCTF into a first electrode layer. A second electrode layer is formed on a top surface of a transparent substrate, followed by forming an adhesive layer above the second electrode layer. Finally, a bottom surface of the first electrode layer is bonded with a top surface of the adhesive layer, thereby resulting in the touch panel.

Abstract: A touch apparatus includes at least one optically-clear adhesive (OCA) layer, a first electrode layer and a second electrode layer. The second electrode layer bonds with one of the at least one OCA layer, which acts both as a substrate and an adhesive.

Abstract: A method of increasing strength of a panel edge includes providing a panel having a lateral surface treated by plasma. An elastic material is provided, photoinitiator is added therein, and the elastic material is then liquefied by heating. Subsequently, the liquefied elastic material is sprayed on the lateral surface, and is then cured to result in a protective layer bonded on the lateral surface.