Abstract: A metalens of greatly reduced depth includes a lens body and many columnar microstructures. The lens body includes first and second surfaces. The columnar microstructures are formed on the first surface and spaced apart from each other. Each columnar microstructure has a particular shape and extends in a direction away from the first surface to a height of 500 nm to 1500 nm. The present disclosure also provides a method for making the above metalens and an optical element using the metalens.

Abstract: An exemplary backlight module is disclosed in the present invention. The backlight module includes a light source module, a main circuit board, a flexible printed circuit board and a bracket. The bracket is made of a conductive material and used for fixing the light source module. The light source module includes at least a light source circuit substrate and a plurality of light sources disposed on the at least a light source circuit substrate. The light source circuit substrate includes a plurality of grounding pads. A part of the grounding pads are electrically contacted to the bracket. The main circuit board includes a grounding terminal. The grounding terminal is electrically connected to another part of the grounding pads through the flexible printed circuit board. The backlight module facilitate the static electricity on the light source module to be grounded, and avoids the light source module being damaged by electro-static discharge.

Abstract: A display includes a display panel and a backlight module. The backlight module is configured below the display panel and includes a light guide plate (LGP), a light source, an optical film, and a pad. The light source is located near the LGP. The optical film is configured on the LGP. The pad is located between the optical film and the display panel. A first surface of the pad is fixed to the optical film, and a second surface of the pad is slidable relative to the display panel.

Abstract: A display includes a display panel and a backlight module. The backlight module is configured below the display panel and includes a light guide plate (LGP), a light source, an optical film, and a pad. The light source is located near the LGP. The optical film is configured on the LGP. The pad is located between the optical film and the display panel. A first surface of the pad is fixed to the optical film, and a second surface of the pad is slidable relative to the display panel.

Abstract: A touch panel of a display disposed on a display panel includes a transparent substrate, a transparent electroconductive layer and an electrode pattern layer vertically stacked together. The electrode pattern layer includes two opposite parallel X-side electrodes and two opposite parallel Y-side electrodes, all of which surround a rectangular area and are disposed on a periphery of the transparent electroconductive layer. Also, a plastic film is disposed on a side surface of the electrode pattern layer opposite the transparent electroconductive layer. Thus, the touch panel needs not the processing of the surface hard layer, so that the manufacturing processes are simplified, the production yield is increased and the manufacturing cost is reduced when the large-scale touch panel is manufactured. Meanwhile, the interference of electromagnetic waves on the transparent electroconductive layer and the electrode pattern layer can be reduced, and the touch certainty and precision can be enhanced.

Abstract: The invention relates to a surface capacitive touch panel capable of simultaneously determining different touch points, and a method thereof. The touch panel includes a transparent substrate, a transparent electroconductive layer and an electrode pattern layer. The electrode pattern layer includes at least one first X-side electrode, at least one second X-side electrode, at least one first Y-side electrode and at least one second Y-side electrode, which surround a rectangular area and are formed on a surface periphery of the transparent electroconductive layer. The impedances of the X-side and Y-side electrodes are configured in an ascending manner or a descending manner with a common difference or a common ratio toward the same side, so that impedances of two touch points on the same horizontal or vertical line of the touch panel have a gradient phenomenon to prevent currents from offsetting each other when the two touch points are moved.

Abstract: A display includes a display panel and a touch panel with a multilayer structure disposed on the display panel. The touch panel includes an ITO film, a transparent electroconductive layer and an electrode pattern layer stacked vertically. The electrode pattern layer includes two parallel X-side electrodes and two parallel Y-side electrodes, all of which surround a rectangular area and are disposed on a peripheral portion of the transparent electroconductive layer. A mother glass layer is stacked above a side surface of the electrode pattern layer opposite to the transparent electroconductive layer. Thus, the touch panel needs not the processing of the surface hard layer, so that the manufacturing processes are simplified, the production yield is increased and the manufacturing cost is reduced. Meanwhile, the interference of electromagnetic waves on the transparent electroconductive layer and the electrode pattern layer can be reduced, and the touch certainty and precision can be enhanced.

Abstract: A touch panel of a display has an impedance adjusting structure for enhancing the detection precision of touch points and includes a transparent substrate, a transparent electroconductive layer and an electrode pattern layer. The electrode pattern layer includes two parallel X-side electrodes and two parallel Y-side electrodes, which surround a rectangular area and are formed on a periphery portion of the electroconductive layer. Each of the X-side and Y-side electrodes is composed of carbon paste sections and silver paste sections arranged in a neighboring manner. Output currents of the X-side and Y-side electrodes are adjusted according to ratios of the carbon paste sections to the silver paste sections, wherein the carbon/silver paste sections are spaced apart by gaps, which are the same, ascend or descend. According to the design, the specific impedance adjustment of the electrode pattern layer can be performed according to the special requirement in the used environment.

Abstract: A display includes a display panel and a touch panel with a multilayer structure. The touch panel includes a transparent substrate, a transparent electroconductive layer and an electrode pattern layer stacked vertically. The electrode pattern layer includes two parallel X-side electrodes and two parallel Y-side electrodes, all of which surround a rectangular area and are disposed on a peripheral portion of the transparent electroconductive layer. A mother glass layer is stacked above a side surface of the electrode pattern layer opposite to the transparent electroconductive layer. Thus, the touch panel needs not the processing of the surface hard layer, so that the manufacturing processes are simplified, the production yield is increased and the manufacturing cost is reduced. Meanwhile, the interference of electromagnetic waves on the transparent electroconductive layer and the electrode pattern layer can be reduced, and the touch certainty and precision can be enhanced.

Abstract: An exemplary backlight module is disclosed in the present invention. The backlight module includes a light source module, a main circuit board, a flexible printed circuit board and a bracket. The bracket is made of a conductive material and used for fixing the light source module. The light source module includes at least a light source circuit substrate and a plurality of light sources disposed on the at least a light source circuit substrate. The light source circuit substrate includes a plurality of grounding pads. A part of the grounding pads are electrically contacted to the bracket. The main circuit board includes a grounding terminal. The grounding terminal is electrically connected to another part of the grounding pads through the flexible printed circuit board. The backlight module facilitate the static electricity on the light source module to be grounded, and avoids the light source module being damaged by electro-static discharge.