Abstract: A manufacturing method of a touch panel is provided. The method comprises the following procedures: forming a sensing electrode layer on a cover plate, wherein the sensing electrode layer comprises a plurality of first axis electrodes, a plurality of second axis electrodes, a plurality of bonding pads and a plurality of first periphery traces; forming a insulating layer on the sensing electrode layer, wherein a plurality of first via holes and a plurality of second via holes are formed on the insulating layer; forming a jumper layer on the insulating layer, wherein the jumper layer comprises a plurality of jumper traces and a plurality of second periphery traces. Moreover, the sensing electrode layer, the insulating layer and the jumper layer are formed through a printing process, a photo etching process, a spraying process, a slit coating process, a laser scribing process, a laminating process or any combination thereof.

Abstract: What-if simulation methods and systems are provided. A design coding in HDL (Hardware Description Language) and a simulation result corresponding to the design are provided. A what-if design scope and a what-if time window are received. A portion of the design is extracted from the design according to the what-if design scope, and primary input signals are determined during the extraction of the sub-design. Then, what-if simulation data is extracted from the simulation result according to the primary input signals and the what-if time window. A what-if test bench is generated according to the what-if simulation data, wherein the what-if simulation data is read, and the signal values are fed to a simulator according to the what-if test bench.

Abstract: An electronic device includes a case, a display unit and a flexible input unit. The case has a front side and a first lateral side. The case has an opening located on the first lateral side. The display unit is disposed on the front side. The flexible input unit has a first end and a second end opposite to each other. The flexible input unit is disposed through the opening to cause the first end to be disposed inside the case while the second end outside the case. The flexible input unit is capable of moving in the case, so as to cause the second end to be close to or away from the opening.

Abstract: A high-frequency chip antenna measurement system includes a platform; two piers; an arching; a stepper motor; an indication and fastening assembly having a source antenna holder and an illuminant indicator; a carrier stage; a chip antenna carrier having a support member and two sloping posts extending upward and outward from a top end of the support member, two chip antenna carrier benches being mounted to top ends of the two sloping posts respectively; a probe carrier having a support plate directionally variably fixed to the carrier substrate, two props fixed to the support member and parallel to each other and extending outward and upward slantingways, and a probe carrier bench mounted to top ends of the two props for bearing a probe; and a bridging member having two ends mounted to the chip antenna carrier benches.

Abstract: The present invention relates to a method for scanning a projective capacitive touch panel.

Abstract: Image capture lens modules and wafer level packaged image capture devices are presented. The image capture lens module includes a compound lens with a first lens element and a second lens element molded on both sides of a substrate, and a field stop disposed at an interface between the first lens element and the substrate or at an interface between the second lens element and the substrate, wherein the field stop is a coating layer with a polygonal transparent area.

Abstract: A display module includes a front frame, a rear housing, and a trimming board. The front frame includes a first positioning hole and a clamping hole. The rear housing includes a second positioning hole. The front frame is engaged with the rear housing. The second positioning hole communicates with the first positioning hole. The trimming board includes a bolt structure and a clamping structure. The bolt structure is adapted to pass through the first positioning hole and the second positioning hole for preventing the front frame from separated from the rear housing. The clamping hole is used for the clamping structure to pass through and prevent the clamping structure from separating from the clamping hole.

Abstract: A touch panel having a cover plate, a sensor electrode layer, an insulating layer and a jumper layer is provided. The sensor electrode layer has first axis electrodes, second axis electrodes, bonding pads and first periphery traces. Each first axis electrode has first electrode blocks that are electrically connected to each other. Each second axis electrode has second electrode blocks that are electrically isolated from each other. The bonding pads are disposed on the periphery region of the cover plate. The first periphery traces are electrically connected to the bonding pads and the first axis electrodes or the second axis electrodes respectively. The insulating layer has first via holes and second via holes. The jumper layer has jumper traces and second periphery traces, wherein the second periphery traces are electrically connected to the first axis electrodes or the second axis electrodes through the first via holes.

Abstract: An embodiment of the present disclosure provides a sensing electrode structure comprising a plurality of first axial electrodes and a plurality of second axial electrodes. The second axial electrodes and the first axial electrodes are formed on same side of a substrate and are electrically insulated from each other. Each of the first axial electrodes has a plurality of first conductive patterns with grid structures, and the first conductive patterns with grid structures are electrically connected with each other. Each of the second axial electrodes has a plurality of second conductive patterns with grid structures, and the second conductive patterns with grid structures are electrically connected with each other.

Abstract: A high-frequency chip antenna measurement system includes a platform; two piers; an arching; a stepper motor; an indication and fastening assembly having a source antenna holder and an illuminant indicator; a carrier stage; a chip antenna carrier having a support member and two sloping posts extending upward and outward from a top end of the support member, two chip antenna carrier benches being mounted to top ends of the two sloping posts respectively; a probe carrier having a support plate directionally variably fixed to the carrier substrate, two props fixed to the support member and parallel to each other and extending outward and upward slantingways, and a probe carrier bench mounted to top ends of the two props for bearing a probe; and a bridging member having two ends mounted to the chip antenna carrier benches.

Abstract: An electronic device includes a base, a frame and a display module. The base includes an input module. The frame is pivotally disposed on the base. The display module is disposed on the frame. The display module is unfolded or folded relative to the base through the frame. The display module includes a first display and a second display. The second display is pivotally disposed on the first display and the second display has an unfolded position or a folded position relative to the first display.

Abstract: An electronic device includes a first body, a second body and a pivotal connecting element. An input module is disposed on the first body. A display monitor is disposed on the second body. The pivotal connecting element includes a first connecting element, a second connecting element and a pivot. The pivot is connected to the first connecting element and the second connecting element. The first connecting element is detachably coupled to the first body. The second connecting element is detachably coupled to the second body, and thereby causes the second body to turn pivotally relative to the first body through the pivotal connecting element.

Abstract: An electronic device is provided. The electronic device includes a body, a light source, a light shutter, and a light transmissive net structure. The body has a cavity therein. The light source is disposed in the cavity. The light shutter is disposed over the light source, wherein the light shutter includes a light transmissive pattern therein. The light transmissive net structure is disposed over the cavity and covers the light shutter. In use, light emitted from the light source would pass through the light transmissive pattern to the light transmissive net structure, thereby displaying an image corresponding to the light transmissive pattern onto the light transmissive net structure.

Abstract: There is provided a method of rapid identification of a mammalian species origin or mammalian species origins of a sample. The method includes but not limited to the steps of 1) gathering a sample to be tested, 2) processing the sample for use for identification purpose, 3) dividing the sample into a number of portions for situation in a multi-well container or containers, 4) providing a plurality of DNA probes, at least some of the DNA probes having DNA sequences with SEQ ID NOs. 1-241, wherein the number of the sample portions is greater than the number of mammalian species types from which the DNA probes derives.

Abstract: A display module includes a front frame, a resilient member, a rear housing, and a first fastening member. The front frame includes a circular groove, and a first disassembly hole. The first disassembly hole is located in the circular groove. A part of the resilient member is detachably engaged in the circular groove and covers the first disassembly hole. The rear housing includes a first assembly hole, a second disassembly hole, and a trimming board. The first disassembly hole communicates with the second disassembly hole. The trimming board is used for covering the first assembly hole and the second disassembly hole. The first fastening member is used for fastening the rear housing to the front frame through the first assembly hole.

Abstract: A portable electronic device includes a main body, a door and a latch. The main body includes a positioning concave area on a bottom surface thereof. The positioning concave area has a cutout at a first edge, and an inclined surface and a guide edge at an opposite edge. The door is detachably connected with the bottom surface of the main body. The latch is slidably connected with a through hole of the door. The latch has an engaging portion and a guiding portion at two opposite ends. When the door is assembled to the bottom surface of the main body, the engaging portion inserts into the cutout. When the door is taken apart from the bottom surface, the engaging portion is removed from the cutout, and the guiding portion slides along the guide edge to move the door along a direction perpendicular to a long axis of the latch.

Abstract: The present invention relates to a retaining structure for securing at least one expansion card (such as a Peripheral Component Interconnect, PCI card) on a motherboard. The retaining structure includes a frame member and a handle. The frame member has a main body, and the main body has at least one outer fixing portion and an inner fixing portion. The main body has a top piece and a connecting piece. The connecting piece is arranged away from the outer fixing portion and connected to the inner fixing portion. The handle is connected to the connecting piece. Upon mounting of the retaining structure, the distance between the handle and a base plate of a housing is less than the distance between the top piece and the base plate of the housing. This retaining structure may be easily dismounted in restricted space internal of the housing.

Abstract: An electronic assembly for an image sensing device is disclosed, comprising an image sensing element, a lens set comprising a feet enclosing a cavity to receive the image sensing element and an opaque conductive layer disposed on at least a portion of a top side, a sidewall and a bottom side of the lens set, wherein the opaque conductive layer is electrically connected to a grounding layer to reduce electromagnetic interference (EMI) to the image sensing element.