Abstract: A touch sensor includes a first sensing layer, a second sensing layer and an insulative layer therebetween. Each of the first sensing layer and the second sensing layer has capacitive sensing strings and electromagnetic antenna strings. Each capacitive sensing string is composed of capacitive sensing units. The electromagnetic antenna strings are arranged. Each of the capacitive sensing strings and the electromagnetic antenna strings is connected with a tiny wire. The capacitive sensing strings on the first sensing layer are crossed with the second capacitive sensing strings on the second sensing layer to form complementary patterns. The capacitive sensing units on the first sensing layer and the second capacitive sensing units on the second sensing layer form a grid-shaped capacitive sensing unit matrix. The electromagnetic antenna strings on the first sensing layer are crossed with the electromagnetic antenna strings on the second sensing layer to form a grid-shaped electromagnetic antenna matrix.

Abstract: A touch sensor includes an insulative substrate; a first sensing layer, having first sensing strings arranged along a first axis, and a first interval being disposed between every two adjacent first sensing strings; and a second sensing layer, having line paths arranged along a second axis, and a second interval being disposed between every two adjacent line paths. A plurality of the line paths composes a second sensing string. Each second sensing string has an active unit and an inactive unit. The active unit is formed by one or more line paths connected by a crossing line. The line paths of the inactive units are connected to a ground line. The first sensing strings and the second sensing strings are separately orthogonally arranged on two opposite sides of the substrate. The second interval is less than the first interval in width.

Abstract: The invention includes a substrate, a touch sensor layer, an insulative film and a signal transmission layer. The touch sensor layer has sensing columns. Each sensing column has a first sensing electrode and second sensing electrodes. The first sensing electrode is connected to a first contact through a first transparent path. Each second sensing electrode is connected to a second contact through a second transparent path. The second contacts are arranged in the same order of the second sensing electrodes connected thereto. The insulative film covers the second contacts. The signal transmission layer has first signal wires, second signal wires and signal output terminals. Two end of each first signal wire are separately connected to the first contact and one of the signal output terminals. Each second signal wire connects the second contacts in a line and is connected to one of the signal output terminals.

Abstract: A capacitive touch sensor includes two sensing layers. Each sensing layer has sensing strings, each of which is composed of sensing units connected in series. An end of each sensing string is provided with a contact. Each sensing string has a wire. Each wire electrically connects to one of the contacts and a string of the sensing units. A transparent insulative layer is arranged between the two sensing layers. The two groups of sensing strings on two the sensing layers interlace with each other to form a sensing matrix.

Abstract: A method for improving electric characteristic of a touch panel is disclosed. The method includes the steps of: a) providing a transparent conductive layer; b) defining a local area on the transparent conductive layer; and c) laying down a conductive unit. The transparent conductive layer is made of metal oxide. The conductive unit is metal wires. A width of each of the metal wires is less than 5 ?m.

Abstract: A capacitive touch sensor includes two sensing layers. Each sensing layer has capacitive sensing strings and electromagnetic antenna strings. Each of the capacitive sensing strings and electromagnetic antenna strings is connected to a highly conductive element. A transparent insulative layer is arranged between the two sensing layers. The two groups of sensing strings on two the capacitive sensing layers orthogonally interlace with each other to form a capacitive sensing matrix.

Abstract: The invention includes a substrate, a touch sensor layer, an insulative film and a signal transmission layer. The touch sensor layer has sensing columns. Each sensing column has a first sensing electrode and second sensing electrodes. The first sensing electrode is connected to a first contact through a first transparent path. Each second sensing electrode is connected to a second contact through a second transparent path. The second contacts are arranged in the same order of the second sensing electrodes connected thereto. The insulative film covers the second contacts. The signal transmission layer has first signal wires, second signal wires and signal output terminals. Two end of each first signal wire are separately connected to the first contact and one of the signal output terminals. Each second signal wire connects the second contacts in a line and is connected to one of the signal output terminals.

Abstract: The invention includes a glass plate, a bezel layer, a touch sensor layer and a signal wire layer. The bezel layer attached on a periphery of the glass plate defines a shaded area and a visible area. The touch sensor layer has sensing columns arranged in the visible area. Each of the sensing columns includes a common sensing electrode and a plurality of driving electrodes. The driving electrodes are divided into two electrode columns. Each driving electrode of the electrode columns is connected to a bridging point in one of two opposite side of the shaded area through a connecting wire. All the bridging points in a line are electrically connected by a bridging film connected to a part of the contacts of the connecting port through the signal wire layer. The common sensing electrodes are electrically connected to another part of the contacts through the signal wire layer.

Abstract: The touch panel includes a transparent substrate, a transparent touch sensor and auxiliary wires. The transparent substrate has a visible area and a shaded area which is around the visible area and formed by an opaque bezel. The transparent touch sensor has touch sensing units arranged into a plurality of sensor columns and located within the visible area. Each of the sensing columns includes a first sensing electrode and a plurality of second sensing electrodes. Each of the first sensing electrodes and the second sensing electrodes is separately connected to a contact disposed in the shaded area through a signal path. Each auxiliary wire is electrically attached to one of the signal paths. An impedance of each auxiliary wire is less than that of each signal path.

Abstract: The assembling structure includes a transparent substrate, a transparent touch sensor and a flexible flat cable (FFC). The transparent substrate has a visible area and a shaded area which is around the visible area. The transparent touch sensor has touch sensing units arranged in a matrix and located within the visible area. Each of the touch sensing units is connected to a contact of a connecting port in the shaded area. The FFC is connected to the connecting port. The FFC includes a flexible insulative film and flat copper foil wires parallelly arranged on the flexible insulative film at regular intervals. All contacts of the connecting port are arranged at regular intervals. A distance between adjacent two of the contacts is the same as that of the copper foil wires. Each of the copper foil wires is electrically conducted to one of the contacts with adding an ACF.

Abstract: The capacitive touch panel includes a transparent substrate, a first transparent conductive layer, a first transparent insulative layer, a second transparent conductive layer, and a second transparent insulative layer. Each transparent conductive layer has a plurality of capacitive sensor rows. Every adjacent two of the capacitive sensor rows are formed with a gap to be insulated. The transparent insulative layers have a refractive index equal to or greater than that of the transparent conductive layers and fill the gaps. Each of the insulative layers is composed of a plurality of insulative coatings, and each coating is less than 100 nm in thickness.

Abstract: The invention includes a substrate with a visible area and a shielded area, a touch panel overlapped on the substrate and having touch sensor units overlapping with the visible area and a bridging layer with an insulating film. The touch sensor units are connected with signal wires to electric contacts corresponding to the shielded area. The insulating film cloaks the signal wires and electric contacts. The insulating film is formed with through holes corresponding to the electric contacts and is provided with bridging wires between every two adjacent through holes for connecting all of the electric contacts.

Abstract: The invention includes a substrate with a visible area and a shielded area, a touch panel overlapped on the substrate and having touch sensor units overlapping with the visible area and a bridging layer with an insulating film. The touch sensor units are connected with signal wires to electric contacts corresponding to the shielded area. The insulating film cloaks the signal wires and electric contacts. The insulating film is formed with through holes corresponding to the electric contacts and is provided with bridging wires between every two adjacent through holes for connecting all of the electric contacts.

Abstract: A substrate is formed with a plurality of identical positioning indications which cause the coordinate on the upper or lower surfaces of the substrate are identical; the identical positioning indications is selected from one of a plurality of holes formed on an area out of the touch sensing area of the touch panel; a plurality of gaps at edges of the substrate and vertical to the upper or lower main surface of the substrate; positioning indications formed by engraving of laser; and a pair of positioning indications on the upper and lower main surface of the substrate and positioned along a same line vertical to the upper or lower main surface of the substrate; and a combination of above mentioned ways; after manufacturing process, the positioning indications can be removed or not removed. A method for forming the same is also included.

Abstract: A capacitive touch panel has precise etching lines formed on a transparent conductive film so as to form with a desired pattern. As a result, the hollowed portion on the conductive film will be reduced greatly and thus the flatness of the capacitance sensing structure will be improved and the transmittances in different areas will tend to be uniform. Thus the image distortion in the screen below the touch panel will be improved. Besides, the etching lines will divide the waste etching areas on the conductive lines into a plurality of small units which can reduce the capacitances of the noises.

Abstract: A method for manufacturing a touch panel includes following steps. A substrate is used and an upper surface thereof is formed with a plurality of lower electrode units. A periphery of each lower electrode unit is formed with a gluing frame, and a periphery of the substrate is formed with a sealing frame. A panel layer is used and a lower surface thereof is formed with a plurality of upper electrode units. By the gluing frame and the sealing frame, the substrate and the panel layer are combined together as a combined plate. The combined plate is etched by solution of hydrofluoric acid. One or more than one function film is attached to a surface above each electrode unit. A cutter is used for cutting the panel layer from an upper side thereof and to form a trench, and the substrate is pressed along the trench of the substrate for separating the substrate into a plurality of independent touch panels along the predetermined cutting line.

Abstract: A capacitive touch panel, comprises a surface layer, an X axis sensing layer, a Y axis sensing layer, an insulation layer, a base substrate and a first signal output wire bank; wherein the surface layer and the bottom layer are high light transmission insulating films; the material of X axis sensing layer and Y axis sensing layer are selected from a transparent film with good conductivity and low impedance; the material of the insulation layer connected the X axis sensing layer and Y axis sensing layer being selected from transparent insulating film material; a plurality of conductive wires are arranged on the first signal output wire bank; and the X axis sensing layer has a plurality of X line traces and the Y axis sensing layer has a plurality of Y line traces.

Abstract: A capacitive touch sensing assembly is a plate body assembled by a first and second substrate glued by a gluing layer. The first and second substrates are insulated transparent thin plates, and the gluing layer is an insulated transparent adhesive. On an upper surface of the first substrate, a capacitive sensing layer including a plurality of transparent first and second axis traces intersecting to each other. Induction-spots formed on each first axis trace are connected one by one, and induction-spots formed on each second axis trace are formed separately with gaps. An inducting layer has a plurality of conducting wires formed along the direction of the second axis traces. Electrical joints formed on two ends of the conducting wires contact the two adjacent induction-spots of the second axis traces respectively so as to electrically connect all induction-spots on each second axis trace.