Abstract: The present disclosure provides a capacitive touch control sensor, comprising a plurality of first electrodes, a plurality of first electrode wires, a plurality of second electrodes and a plurality of second electrode wires. The first and second electrodes are aligned at predetermined gaps. Each of the first electrode wires connects to one of the first electrode. Each of the second electrode wires connects to more than one of the second electrodes in a same column. Each of the plurality of second electrodes encloses one of the first electrodes by preset separation.

Abstract: A complex sensing electrode structure applied to a touch panel includes a first conductive unit and a second conductive unit. The first conductive unit includes a plurality of first stripped conductive layers disposed on the transparent substrate and separated from each other by a predetermined distance. The second conductive unit includes a plurality of second stripped conductive layers disposed on the transparent substrate to respectively cover the first stripped conductive layers, and the conductive material used by the first stripped conductive layer and the conductive material used by the second stripped conductive layer are different. Hence, the manufacturing cost and the conductibility of the complex sensing electrode structure can be decreased effectively.

Abstract: A display panel is provided. The present display panel includes a substrate, a plurality of first electrode wires, a plurality of second electrode wires and a plurality of light-emitting layers, wherein the first electrode wires are disposed on the substrate; the second electrode lines are cross with the first electrode wires and on the first electrode wires; the light-emitting layers are sandwiched between the first electrode wires and the second electrode wires, and are electrically connected to the first electrode wires and the second electrode wires. Thus, the present invention provides a display panel utilizing ultra-fine metal wires as the electrodes, and achieves fine transmittance, high conductivity and facilitating the implementation of the various flexible displays.

Abstract: Present disclosure is related to a touch sensing electrode structure. The structure includes multiple first electrode lines formed along a first direction spaced from each other. Each first electrode line has several first electrode blocks which are electrically connected with a space there-between. The structure also includes multiple second electrode lines along a second direction spaced from each other. The second electrode lines and the first electrode lines are overlapped and insulated. The second electrode line also includes several second electrode blocks which are electrically connected with a space. The every first or second electrode block has a plurality of second wires formed along the second direction and at least one first wire which is electrically connected with the second wires and formed along the first direction.

Abstract: Disclosure herein is related to a touch-sensitive display apparatus that is constituted of a display panel and a touch-sensitive panel. A plurality of pixels are employed to render a frame generated by the display panel. The single pixel is composed of a red subpixel, a green subpixel, and a blue subpixel. In one embodiment of the present invention, the touch-sensitive panel adopts the transparent substrate, on which a plurality of electrode lines are formed. In particular, the each electrode line is approximately paved along a diagonal line of at least one pixel.

Abstract: An electric motor powers a fluidic pump fluidly connected to a hydraulic circuit. Operating the electric motor includes determining a heat transfer coefficient for the electric motor based upon a temperature of hydraulic fluid in the hydraulic circuit. A temperature of the electric motor is determined based upon the heat transfer coefficient. Operation of the electric motor is controlled based upon the temperature of the electric motor.

Abstract: A 3D image generating device is provided and includes: a lenticular plate storage chamber for storing a plurality of lenticular plates; a picture-taking device for taking a picture of an object to generate an object image; an image processing unit for capturing and processing the object image of the object to generate a front-view object image and combining the front-view object image with a rear-view image to generate a synthetic 3D image; a lenticular plate conveying unit for moving the lenticular plates inside the lenticular plate storage chamber to a printing device; a memory unit for storing at least one rear-view image; the printing device for printing the synthetic 3D image on a flat surface of the lenticular plate; and a controlling unit for controlling operation of the picture-taking device, the image processing unit, the memory unit, the printing device, and the lenticular plate conveying unit.

Abstract: Methods and systems are provided for determining a temperature of a motor of a vehicle having an ignition when the ignition is turned on following a period of time in which the ignition had been turned off. An amount of time for which the vehicle had been turned off is determined. A motor temperature model is run using a time step to simulate the amount of time for which the vehicle had been turned off to determine an initial value of the temperature of the motor.

Abstract: The present disclosure provides a conductive ink composition, including: 100-70 parts by weight of solvent; 0.05-10 parts by weight of nano-metal wires; and 0.01-20 parts by weight of dispersant, wherein the dispersant includes alkyl benzene sulfonate, alkylphenyl sulfonate, alkyl naphthalene sulfonate, sulfate of higher fatty acid ester, sulfonate of higher fatty acid ester, sulfate of higher alcohol ester, sulfonate of higher alcohol ester, or a combination thereof.

Abstract: A capacitive touch control sensor includes a plurality of first electrodes, a plurality of first electrode wires, a plurality of second electrodes, a plurality of second electrode wires. The first and second electrodes are disposed at predetermined interval. The first electrodes have two opposite sensor units and a connecting unit which bridges there-between. Each of the first electrode wires connects one of the first electrodes. Each of the second electrode wires connects more than one of the second electrodes in a same column. The first and second electrodes are arranged alternatively and the neighboring second electrodes are disposed respectively at either side of the connecting unit of the first electrodes.

Abstract: A 2D/3D image switching display device includes an image display unit and an image switching unit coupled to the image display unit. The image switching unit includes first and second transparent substrates and first and second transparent conducting elements installed on the first and second transparent substrates respectively. An electrochromic layer and an electrolytic layer are formed on the first and second transparent substrates sequentially. The electrochromic layer produce a color change according to the switching status of the image display unit After a stereo image divided into left and right eye images is received by naked eyes, no moire pattern will be produced, so that no additional light shielding device using a parallax barrier is required for displaying stereo images, and the 2D/3D image switching display device can change a light-shielding angle for adjusting a stereo image display according to the viewing angle.

Abstract: A complex sensing electrode structure applied to a touch panel includes a first conducive unit and a second conductive unit. The first conducive unit includes a plurality of first stripped conductive layers disposed on the transparent substrate and separated from each other by a predetermined distance. The second conductive unit includes a plurality of second stripped conductive layers disposed on the transparent substrate to respectively cover the first stripped conductive layers, and the conductive material used by the first stripped conductive layer and the conductive material used by the second stripped conductive layer are different. Hence, the manufacturing cost and the conductibility of the complex sensing electrode structure can be decreased effectively.

Abstract: A capacitive touch control sensor includes a plurality of first electrodes, a plurality of first electrode wires, a plurality of second electrodes, a plurality of second electrode wires. The first and second electrodes are disposed at predetermined interval. The first electrodes have two opposite sensor units and a connecting unit which bridges there-between. Each of the first electrode wires connects one of the first electrodes. Each of the second electrode wires connects more than one of the second electrodes in a same column. The first and second electrodes are arranged alternatively and the neighboring second electrodes are disposed respectively at either side of the connecting unit of the first electrodes.

Abstract: The present disclosure provides a capacitive touch control sensor, comprising a plurality of first electrodes, a plurality of first electrode wires, a plurality of second electrodes and a plurality of second electrode wires. The first and second electrodes are aligned at predetermined gaps. Each of the first electrode wires connects to one of the first electrode. Each of the second electrode wires connects to more than one of the second electrodes in a same column. Each of the plurality of second electrodes encloses one of the first electrodes by preset separation.

Abstract: The present disclosure provides a capacitive touch control sensor, including a plurality of first and second electrodes, a plurality of first and second electrode wires. The first and second electrodes are aligned at predetermined interval. Each of the first electrode wires connects to one of the first electrodes while each of the second electrode wires connects to more than one of the second electrodes. The first and second electrodes are alternatively disposed so as to reduce manufacturing cost and achieve lower structural profile.

Abstract: The disclosure is related to a method for manufacturing touch-sensitive element on a polarizer, and a polarization device made by the method. In one of the embodiments of the invention, a polarizing substrate is firstly prepared. The method then coats first transparent conductive material onto the substrate, and uses a patterning process to form multiple sensing areas and wiring areas. There are continuous paths and adjacent non-continuous paths are existed in between the sensing areas. A bridged insulating layer is formed as processing the step for spray-coating or inject-printing insulating material upon the areas of the non-continuous pads. A bridged conductive layer is formed upon the insulation layer as spray-coating or inject-printing a second transparent conductive material there-on. The bridged conductive layer is to electrically connect the non-continuous pads. The method is therefore forming the polarization device with the touch-screen elements.

Abstract: Disclosure is related to an apparatus for producing a three-dimensional product. Apparatus is configured to print a 3D image onto a flat surface of grating film. The grating film has the flat surface and a grating textural surface. In an exemplary example, the apparatus includes an image capturing unit for generating an object image by photographing an object. A control unit is also included for extracting the object from the object image and regarding it as a foreground object image. Afterward, the foreground object image is combined with a background image, and a 3D picture is formed. The background image is stored in a background image storing unit. A printing unit is included for printing the combined three-dimensional image onto a flat surface of grating film. A bottom-layer forming unit is used to form an opaque layer onto the grating film printed with the three-dimensional image.

Abstract: This invention discloses a touch panel used in an electronic device having a contour line, and the touch panel includes a covered area disposed on a surface of the electronic device and a transparent touch area disposed adjacent to the covered area, and most of the transparent touch area are surrounded by the contour line of the electronic device.

Abstract: Methods, systems, and vehicles are provided pertaining to the determination of a temperature of a vehicle motor having an ignition when the ignition is turned on following a period of time in which the ignition had been turned off. A memory stores a function having a boundary condition that comprises a prior temperature from when the ignition was turned off. A processor is coupled to the memory. The processor is configured to determine an amount of time for which the ignition has been turned on and determine the temperature of the motor using the function if the amount of time for which the ignition has been turned on is less than a predetermined threshold.

Abstract: A touch panel, adapted for a touch control apparatus with a display unit, is disclosed, which comprises: a protection plate, having a covering area and a transparent area formed on a surface thereof; a touch sensitive layer, arranged between the protection plate and the display unit at a position corresponding to the transparent area; a conductive circuit, arranged between the protection plate and the display unit at a position corresponding to the transparent area while being electrically connected to the touch sensitive layer. In addition to the expected touch control functions, the touch panel of the invention can enable more icons to be displayed on the display unit.