Abstract: A touch module for preventing separation of silver paste between laser etching traces, comprises a substrate, a plurality of touch electrodes, and a silver paste. A side of the touch electrode has a pin area. The pin area contains a plurality of perforations. The silver paste is coated on the substrate and the pin area for connecting electrical circuitry between the pin area and the connection line area. Wherein the silver paste on the pin area flows into the perforations and connects to the substrate. Therefore separation of the silver paste on the pin area and touch electrodes will less likely occur due to minor coating errors. The present invention also provides a manufacturing method of a touch module that prevents separation of the silver paste between laser etching traces.

Abstract: A touch module includes a plurality of sensing electrodes partly crossing with each other and a plurality of signal lines electronically connected to a corresponding sensing electrode from amongst the plurality of sensing electrodes. Each sensing electrode includes a main sensing portion, a first sub-sensing portion, and a second sub-sensing portion. The first sub-sensing portion and the second sub-sensing are symmetrically located on opposite surfaces of the main sensing portion. The first sub-sensing portion includes a first solid portion. The second sub-sensing portion includes a second solid portion. The first sub-sensing portion defines a first receiving portion in a middle of first sub-sensing portion for receiving the second receiving portion of the adjacent and crossed sensing electrode. The second sub-sensing portion defines a second receiving portion from edges of the second sub-sensing portion for receiving the first receiving portion of the adjacent and crossed sensing electrode.

Abstract: A method for forming a metal mesh pattern is provided. The method includes the operations below. First, at least one pitch of each of mesh base units of a mesh base is determined, and thereby the mesh base is formed. Then, a seed region is set in each of the mesh base units of the mesh base, in which a ratio of an area of each of the seed regions to an area of each of the mesh base units is a constant. Then, a plurality of seeds are generated by randomly selecting a point in each of the seed regions. Finally, the metal mesh pattern is formed, in which the metal mesh pattern is a set of perpendicular bisectors of lines connecting the seeds and their adjacent neighboring seeds.

Abstract: A display apparatus with a three dimensional curvature cover lens includes a curved protect layer, a shaping layer, a first adhesive layer, a liquid crystal display module and an interlayer. The first adhesive layer is disposed between the curved protect layer and the shaping layer, and used to adhere the curved protect layer and the shaping layer. The interlayer is bonded in-between the shaping layer and the liquid crystal display module.

Abstract: A touch device includes a display panel with a plurality of pixel regions in a matrix, and a touch panel disposed on the display panel. The touch panel detects touch operations. The touch panel includes a substrate, a first conduction layer disposed on a surface of the substrate, and a second conduction layer disposed on a surface of the substrate. The first conduction layer includes a plurality of first conduction units arranged along a first direction. The second conduction layer includes a plurality of second conduction units arranged along a second direction perpendicular to the first direction. The first conduction units and the second conduction units are respectively formed by a plurality of randomized metal meshes connected with each other. The randomized metal mesh is formed based on a virtual randomized mesh shifted by a virtual regular mesh shift.

Abstract: The present disclosure provides a fingerprint identification device including a substrate, a contact layer, a processing unit, and a plurality of sensor electrodes. The substrate includes a first sub-substrate, a second sub-substrate, and an adhesive layer. The adhesive layer is between the first sub-substrate and the second sub-substrate. A plurality of first sub-holes is defined in the first sub-substrate. A plurality of second sub-holes is defined in the second sub-substrate. A plurality of third sub-holes is defined in the adhesive layer. One of the first sub-holes communicates a corresponding one of the third sub-holes and a corresponding one of the second sub-holes to define a corresponding hole. An end of each of the sensor electrodes is coupled to the processing unit. The other end of each of the sensor electrodes passes through one of the holes, extends to the contact layer, and is covered by the contact layer.

Abstract: A fingerprint identification device includes a fingerprint identification controller and a fingerprint identification sensor. The fingerprint identification sensor includes a substrate having a top surface, a bottom surface opposite to the top surface, and a side surface coupled between the top surface and the bottom surface. Sensor electrodes are arranged on the top surface, electrical leads couple the sensor electrodes and the fingerprint identification controller. The coupling leads extend from the top surface along the side surface to the bottom surface.

Abstract: A waste recycling mechanism is disposed on a film cutting machine and includes a fixing plate fixed to a cutting template of the film cutting machine, a pressing-head device disposed on the fixing plate, a tape, a tape reel and a collection device disposed on a platform of the film cutting machine. The tape is wound on the tape reel and is connected to the collection device after being wound on the pressing-head device. When the fixing plate moves downward with a cutting motion of the cutting template, the pressing-head device presses a film waste to make the tape attached to the film waste. When the fixing plate moves upward, the collection device reels in the tape to make a portion of the tape having the film waste separate from the pressing-head device and make a portion of the tape without any film waste wound on the pressing-head device.

Abstract: A capacitive touch panel is provided in the present invention, which includes a transparent substrate, a plurality of emitter mesh electrode strips, a plurality of receiver mesh electrode strips, and a plurality of subsidiary receiver mesh electrode blocks, where the emitter mesh electrode strips, the receiver mesh electrode strips and the subsidiary receiver mesh electrode strips are disposed in different layers on the transparent substrate, and the receiver mesh electrode strips and the subsidiary receiver mesh electrode blocks are partially overlapped.

Abstract: A panel assembly includes a frame, a cell module, a retaining structure, and a flexible circuit board. The frame has a first surface and a second surface respectively located at opposite sides of the frame. The cell module and the retaining structure are respectively disposed on the first and second surfaces. The flexible circuit board is connected to the cell module and bended to extend over the second surface. The flexible circuit board has a through hole having a passing zone and an inwardly reduced zone communicated with each other. A part of the retaining structure extends from the second surface to a side of the flexible circuit board distal to the second surface via the inwardly reduced zone for preventing the flexible circuit board from moving away from the second surface. The passing zone is configured for the retaining structure to pass through.

Abstract: The present disclosure provides an electronic device. The electronic device includes a fixing structure, a display module, a cover glass, a first adhesive, and a second adhesive. The fixing structure includes a receiving portion and a fixing portion around the receiving portion. The display module is received in the receiving portion. The cover glass is located above the fixing portion and the display module. The first adhesive is located between the fixing portion and the cover glass to adhere the fixing portion with the cover glass. A groove is defined in the first adhesive. A hole is defined in the fixing portion corresponding to the groove. The second adhesive is injected in the groove via the hole to adhere the fixing portion with the cover glass.

Abstract: The present disclosure provides an acoustic wave fingerprint recognition unit including a sensor circuit substrate, a film adhesive layer positioned on the sensor circuit substrate, a piezoelectric material layer positioned on the film adhesive layer and a protection layer positioned on the piezoelectric material layer. The film adhesive layer is formed of a film adhesive material, and the film adhesive material is composed of a film adhesive agent and an organic solvent. The film adhesive agent is an epoxy resin, and the organic solvent is a C3-C8 and carbonyl-containing organic solvent. The solid content of the film adhesive agent in the film adhesive material is in a range of 1%-90%. A method for manufacturing the acoustic wave fingerprint recognition unit is also provided herein.

Abstract: A cover for an electronic device includes a transparent portion and a non-transparent portion beside the transparent portion. The transparent portion defines a display area of the electronic device. The non-transparent portion defines a non-display area of the electronic device beside the display area. The non-transparent portion includes a transparent substrate integrated with the transparent portion. A plurality of through holes are defined on the transparent substrate.

Abstract: A cover for an electronic device includes a main portion and a border portion beside the main portion. The border portion includes a transparent substrate and a adhesive layer. The transparent substrate defines at least one through hole. The adhesive layer is adhered to an inner wall of the at least one through hole.

Abstract: A touch panel includes a first substrate, a first electrode formed on the first substrate, a second substrate, and a second electrode formed on the second substrate. The first electrode includes a number of first conductive patterns extending in a first direction. The second electrode includes a number of second conductive patterns extending in a second direction. Both the first conductive patterns and the second conductive patterns include a number of parallel first metal wires and a number of parallel second metal wires perpendicularly crossing with the first metal wires. A first angle is defined between the first metal wires of the first conductive pattern and the first direction. A second angle is defined between the first metal wires of the second conductive pattern and the second direction. The first angle is different from the second angle.

Abstract: A curved touch device is provided in the present invention including a back cover and a touch panel corresponding to the back cover, where at least one edge portion of the touch panel is a curve surface jointing with the one edge of the back cover.

Abstract: An electronic device includes a speaker, and a cover covering the speaker. The cover includes a transparent main portion, and a non-transparent border portion. The non-transparent border portion includes a substrate integrated with the transparent main portion. The substrate of the border portion defines a plurality of through holes corresponding to the speaker to transmit sound output from the speaker.

Abstract: A touch panel includes a substrate, plural conducting wires, an insulating layer, and a ground layer. The substrate includes an active region and a peripheral region surrounding the active region. The conducting wires are disposed in the peripheral region and extend along a first direction. The insulating layer is disposed on the conductive wires. The ground layer is disposed at an edge of the peripheral region and at least partially on the insulating layer, and the ground layer is at least partially in contact with the substrate.

Abstract: A portable electronic apparatus includes a first touch-sensing substrate, a camera module, transmission routes, a flexible printed circuit, and a main board. The first touch-sensing substrate has an active area and a peripheral area surrounding the active area. The camera module is connected to a second connecting area of the peripheral area. At least one of the transmission routes connects between a first connecting area and the second connecting area of the peripheral area, and rest of the transmission routes respectively connect between the active area and the first connecting area. The flexible printed circuit connects to the first connecting area. The flexible printed circuit includes a touch-sensor driver. The touch-sensor driver is electrically connected to at least part of the transmission routes. The main board includes a connector. The connector is connected with an end of the flexible printed circuit.

Abstract: A substrate structure includes a substrate, a buffer layer, and a protecting layer. The substrate includes a side surface. The buffer layer is disposed between the side surface of the substrate and the protecting layer, and the hardness of the protecting layer is greater than the hardness of the buffer layer.