Abstract:
A capacitive touch device includes a first transparent substrate, a second transparent substrate and an adhesive layer connecting the first and second transparent substrates with each other. The first transparent substrate has a first side and a second side. A first conductive layer is disposed on the second side. The second transparent substrate has a third side and a fourth side. A second conductive layer is selectively disposed on the third side or the fourth side. The adhesive layer is disposed between the first transparent substrate and the second transparent substrate. By means of the design of the capacitive touch device, the thickness of the touch device is greatly reduced and the manufacturing cost is lowered.
Abstract:
A capacitive touch unit includes a transparent substrate, a polymeric transparent substrate, a second conductive layer and an adhesive layer. The transparent substrate is coated with at least one first conductive layer and is correspondingly attached to the polymeric transparent substrate. The second conductive layer is selectively disposed on one of two sides of the polymeric transparent substrate. The adhesive layer is disposed between the transparent substrate and the polymeric transparent substrate. By means of the capacitive touch unit, the thickness can be greatly reduced and the manufacturing cost can be greatly lowered.
Abstract:
The invention discloses an anesthetic sensing optical microfluidic chip system. The anesthetic sensing optical microfluidic chip system includes a biochip, a light source, and a detector. The biochip includes a substrate, a micro-channel, and a molecularly imprinted biosensor. The micro-channel is bonded beyond the substrate. The molecularly imprinted biosensor is disposed in the micro-channel, and a surface of the molecularly imprinted biosensor has a plurality of imprinted sites. When a sample including a plurality of anesthetic molecules is injected into the micro-channel and flowing through the surface of the molecularly imprinted biosensor, some of the anesthetic molecules are captured by the imprinted sites. The light source emits a sensing light to the plastic biochip, and the detector receives the sensing light passing through the imprinted sites on the surface of the molecularly imprinted biosensor and generates a detecting result based on the received sensing light.
Abstract:
A touch panel with fingerprint identification function includes a glass substrate, a fingerprint identification device, a packaging layer, an optical adhesive layer and a sealing layer. The glass substrate has a visible section, a non-visible section and a first plane face. The non-visible section is formed with a recess having a bottom side. The fingerprint identification device is disposed in the recess, having a substrate having a first side. A silicon substrate is disposed on the first side and electrically connected to the substrate via a wire. Multiple fingerprint identification chips are disposed on one side of the silicon substrate. The packaging layer encloses the wire, the substrate and an exposed section of the silicon substrate. The optical adhesive layer is disposed between the fingerprint identification device and the bottom side of the recess. The sealing layer seals the fingerprint identification device in the recess of the glass substrate.
Abstract:
A touch device with fingerprint identification function includes a glass substrate having a first and a second face, a first electrode layer having multiple first electrodes, an insulation layer, a second electrode layer having multiple second electrodes, a wiring layer, a film layer covering the second electrode layer and the wiring layer, and a fingerprint identification sensation layer having multiple fingerprint identification chips and multiple transmission leads. The first face is defined with a touch section and a non-touch section. The first electrode layer is disposed on the second face. One face of the insulation layer covers the first electrode layer. The second electrode layer is disposed on the other face of the insulation layer. The wiring layer is disposed at the non-touch section and selectively electrically connected to the first and second electrode layers. The touch device is able to lower manufacturing cost and enhance fingerprint identification precision.
Abstract:
A touch panel with fingerprint recognition comprises a glass substrate, an electrode layer, a first insulated layer, and a fingerprint recognition sensing layer. The glass substrate has a first plane and a second plane. The electrode layer is disposed on the second plane and has plural first electrodes, plural second electrodes, and plural metal traces. The first electrodes and the second electrodes are selectively electrically connected to the metal traces. The first insulated layer covers an overlapping of the first electrodes and the second electrodes. The fingerprint recognition sensing layer is disposed on the first plane and has plural fingerprint recognition chips and plural transmission lines. The fingerprint recognition chips are electrically connected to the transmission lines. By means of the integration of the fingerprint recognition chips and the touch panel, the whole manufacturing cost is greatly decreased and the accuracy of fingerprint recognition is improved.
Abstract:
A touch module includes a transparent substrate, a shield layer, a touch electrode layer, a transparent insulation layer and a lead layer. The shield layer is coated on the transparent substrate. The touch electrode layer is coated on both the transparent substrate and the shield layer. The transparent insulation layer is disposed on the touch electrode layer and formed with at least one through hole. The lead layer is disposed on the transparent insulation layer and formed with a conduction section positioned in the through hole in electrical connection with the touch electrode layer. Therefore, the lead layer can directly electrically connect with the touch electrode layer through the through hole of the transparent insulation layer. Accordingly, the cost for the optical mask design and the lithographic and etching processes can be saved and the problem that the transparent substrates often fail to fully attach is eliminated.
Abstract:
A touch module with photoelectric conversion layer includes a transparent substrate, an anti-reflection layer, a shield layer, a first electrode layer, a first insulation layer, a second electrode layer, a second insulation layer, a wiring layer, a protection layer and a photoelectric conversion layer. The transparent substrate is defined with a touch section and a non-touch section. The photoelectric conversion layer is disposed in the touch section so that the total thickness of the touch module is reduced. Moreover, the photoelectric conversion layer is combined with the touch module to convert optical energy into electrical energy and provide the electrical energy for the touch module. Accordingly, the standby and use time of the touch module is prolonged.
Abstract:
A wearable electronic device includes a body and a wearing element. The body includes a conductive frame. The conductive frame includes a feeding point and at least one grounding point to form a first current path and a second current path. Furthermore, the conductive frame forms a loop antenna via the first current path and the second current path, respectively, so as to operate in a first band and a second band. The wearing element is connected to the body.