Abstract: An apparatus is disclosed which includes a first substrate having an outer touch surface and an inner surface; a touch sensor substrate having a first surface and an opposing second surface; wherein the first substrate and the touch sensor substrate are configured to form a part of a laminated structure; and wherein a first region of the first surface of the touch sensor substrate is configured to have a shape different to an adjacent region of the inner surface of the first substrate.

Abstract: An apparatus is disclosed which includes a first substrate having an outer touch surface and an inner surface; a touch sensor substrate having a first surface and an opposing second surface; wherein the first substrate and the touch sensor substrate are configured to form a part of a laminated structure; and wherein a first region of the first surface of the touch sensor substrate is configured to have a shape different to an adjacent region of the inner surface of the first substrate.

Abstract: An apparatus and a method of manufacturing the apparatus is provided. The apparatus includes a sensing layer including an array of touch sensors for sensing touch input; and a trace layer including a plurality of traces that electrically connect the touch sensors to sensing circuitry, wherein the array of touch sensors in the sensing layer is positioned to electromagnetically shield the plurality of traces, in the trace layer, from conductive user input objects.

Abstract: An apparatus including a sensing arrangement including a plurality of distinct capacitive sensor electrodes distributed over a sensing area; conductive traces connected to the plurality of distinct capacitive sensor electrodes; a first shield electrode overlying at least the conductive traces; a second shield electrode underlying the conductive traces and the capacitive sensor electrodes; a display arrangement including a transparent cover; a polarizer, underlying the transparent cover; an intermediary layer, underlying the polarizer; an optical control layer, underlying the intermediary layer; wherein the sensing arrangement and the display arrangement are integrated, the first shield electrode being positioned beneath the transparent cover and above the polarizer; the capacitive sensor electrodes being positioned beneath the transparent cover and beneath the first shield electrode and above the optical control layer; and the second shield electrode being positioned beneath the transparent cover and beneath

Abstract: A method and a device for filtered sync signals detection wherein a timing circuit is used to select the steep slope portion in one or both of the leading edge and the trailing edge of the sync signals; a voltage divider or feedback path to set a triggering point at the steep slope portion of the selected edge regardless the slope being positive or negative; and a triggerable device is used to generate new sync signals with the leading edge of each sync pulse starts at one triggering point and the trailing edge starts at another triggering point. Alternatively, a micro-controller is used to detect the polarity of the sync signals and accordingly provide a reference voltage in order to set the triggering point at the leading edge of the sync signals.

Abstract: The invention relates to a method and arrangement for managing the power control of a monitor. In the solution according to the invention the monitor synchronizing signals are not monitored continuously in the OFF state but the monitoring is periodic. The solution according to the invention can be applied to all different kinds of display terminals and monitors.

Abstract: The object of the disclosure is a method and a coupling for decreasing the alternating current field produced by a cathode-ray tube in the environment. The said field or radiation is at least partly due to the capacitances (C1, C2) of the anode (A) with respect, on one hand, to the deflection coil (DY) and, on the other hand, to the ground. These capacitances produce, mainly because of the return pulse of the deflection coupling, a line rate noise voltage to the anode. According to the invention, a back-off voltage (U.sub.2) opposite to the noise voltage is fed to the anode (A) of the tube either directly or via a graphitizing (G). In cases where the same high-voltage transformer (TR) functions for both the high voltage of the anode and the horizontal deflection, the winding (L) of this transformer can also be used in generating the back-off voltage (U.sub.2). The back-off voltage can thus be coupled to the anode (A) via the high-voltage capacitor (C3) of the transformer.