Abstract: An adaptive non-contact testing method is provided for testing a touch panel, wherein an air nozzle generates an air jet toward a selected position on a touch panel under testing to cause the touch panel to generate a touch signal. A testing system receives the touch signal generated by the touch panel and compares the received touch signal with a preset touch-signal reference level. When the received touch signal is smaller than the preset touch-signal reference level, the height distance between the air nozzle and the touch panel is reduced or the pressure of the air jet from the air nozzle is varied to realize adaptive testing of the touch panel.

Abstract: A liquid crystal display integrated with a capacitive touch device is provided. A first electrode layer is formed immediately on an upper surface of a polarizing plate of a liquid crystal display panel, and a second electrode layer is formed on the bottom surface of the polarizing plate of the liquid crystal display panel. When an object touches the capacitive touch device, it becomes capacitively coupled to the first electrode layer and the second electrode layer to generate a signal corresponding to the touched position.

Abstract: An adaptive non-contact testing method is provided for testing a touch panel, wherein an air nozzle generates an air jet toward a selected position on a touch panel under testing to cause the touch panel to generate a touch signal. A testing system receives the touch signal generated by the touch panel and compares the received touch signal with a preset touch-signal reference level. When the received touch signal is smaller than the preset touch-signal reference level, the height distance between the air nozzle and the touch panel is reduced or the pressure of the air jet from the air nozzle is varied to realize adaptive testing of the touch panel.

Abstract: Disclosed is a touch screen display with an electric field shielding layer arranged between a liquid crystal layer of an LCD device and a glass substrate, having a touch sensing layer arranged on a top surface thereof, so that the electric field shielding layer isolates signal interference between the touch sensing layer and the liquid crystal layer.

Abstract: Disclosed are a system and a method for carrying out non-contact testing of a touch panel. An air nozzle is arranged above the touch panel with a predetermined distance set between an air jet orifice of the air nozzle and a surface of the touch pane. Air is supplied to the air nozzle to cause the air jet orifice to generate an air jet toward the touch panel. Under the control of a test device, the air nozzle is driven to move along a predetermined testing route on the surface of the touch panel and the touch panel generates touch signals corresponding to the movement of the air nozzle along the route. The test device receives the touch signals and determines if the touch panel satisfies the linearity test.

Abstract: Disclosed is a conductor pattern structure of a capacitive touch panel. First-axis conductor assemblies and second-axis conductor assemblies are formed on a surface of a substrate. Each first-axis conductor assembly includes a plurality of first-axis conductor cells that are interconnected by first-axis conduction lines. An insulation layer is formed on a surface of each first-axis conduction line. Each second-axis conductor assembly includes a plurality of second-axis conductor cells that are interconnected by second-axis conduction lines. Each second-axis conduction line extends across the insulation layer of the associated first-axis conduction line.

Abstract: A circuit layout is provided on a touch panel having a transparent glass substrate and a transparent conducting layer coated on a transparent conducting layer coating zone of the glass substrate. A peripheral wiring zone is defined on an area on the glass substrate that is not coated by the transparent conducting layer. The circuit layout includes a first and second circuit. The first circuit is formed of a first plated metal layer through metal sputtering on the transparent conducting layer at positions proximate to the peripheral wiring zone and is electrically connected to the transparent conducting layer to thereby develop a voltage gradient on the transparent conducting layer. The second circuit is formed of a second plated metal layer through metal sputtering or screen printing on the peripheral wiring zone and is electrically connected to the first circuit so as to apply a working voltage across the first circuit.

Abstract: The present invention is to provide a display panel comprising an upper polarizer; a lower polarizer; a lower glass substrate provided on the lower polarizer; an upper glass substrate provided below the upper polarizer; an upper transparent ITO layer provided under the upper glass substrate; a lower transparent ITO layer provided on the lower glass substrate; an intermediate liquid crystal layer sandwiched by the transparent ITO layers; and a touching circuit layer sandwiched by the upper polarizer and the upper glass substrate and disposed above the liquid crystal layer, enabling the touching circuit to be directly mounted in the display panel rather than assembling together after manufacturing.

Abstract: The present invention is to provide a wiring of a touch panel comprising a glass substrate including a transparent and conductive layer on a top surface; a plurality of wires disposed along a border of the glass substrate; a plurality of conductive ends formed at the top side of the glass substrate, each of the wires being electrically connected to one of the conductive ends; and a flexible circuit board provided at the wires, the flexible circuit board including a plurality of connections each electrically connected to one of the conductive ends. By utilizing this wiring, prior used conductors are replaced by the flexible circuit board in order to decrease wiring area and make wiring of the touch panel become narrower.

Abstract: The present invention is to provide a method of manufacturing a circuit layout on a touch panel by utilizing metal plating technology, comprising uniformly coating a conductive metal or conductive oxidized metal on predetermined areas proximate edges of a transparent conductive layer on a transparent glass substrate for forming a circuit by utilizing metal plating technology, which has the advantages of uniform thickness of circuit, higher hardness, better adhesion of the plated material to the underlying substrate, whether it is a resistive film or bare glass, improved weathering and chemical properties, and solderability.