Abstract:
A method of geography information recording method for a portable device includes providing the portable device having a processing unit embedded in the portable device, a transmission module coupled to the processing unit for wireless communication, a navigator module coupled to the processing unit for measure geography information, an electronic map module stored in the portable device or a remote server to provide geography map, a display and an image capture module coupled to the processing unit; and a recording module coupled to the processing unit. The initial step is to activate the recording module, followed by taking picture by the image capture module and fetching picture related geography information by the navigator module; the next step is to indicate and display the taken picture on the electronic map based on the picture related geography information to indicate a location of the taken picture on the electronic map.
Abstract:
The image sensor comprises a substrate; and a MOS having gate dielectric layer, a source, a drain and a gate. The MOS is formed over the substrate; a photo-diode doped region is formed adjacent to the MOS, at least one isolation layer is laminated over the photo-diode doped region and at least one conductive pattern is formed within the at least one isolation layer; and a carbon nano-tube layer is formed over the at least one isolation layer to act as an infrared ray filter. The conductive pattern is formed with carbon nano-tube to increase fill factor. The at least one conductive pattern further includes conductive polymer. Lens is formed over the at least one isolation layer to guide incident light into the photo-diode doped region.
Abstract:
A filter-free projector includes a light source unit to generate light beams with different colors and a color control module coupled to the light source unit for switching the light source unit to emit one color light at a time. A digital mirror device panel having a plurality of mirror elements is provided so as to reflect light fed from the light source unit. A projection lens is positioned in the reflected light path from the digital mirror device panel to project the image.
Abstract:
A light signal transfer device comprises a substrate having a gate dielectric layer; a source and drain doped regions formed in the substrate; a gate formed on the gate dielectric layer; a carbon nano-tube material formed under the gate dielectric layer to act a channel; and a photo-diode doped region formed adjacent to one of the source and drain doped regions, wherein the areas of the channel and the photo-diode doped region are fixed, the carbon nano-tube material reducing area of the channel and increase photo reception area for the photo-diode doped region to improve performance of the light signal transfer device.
Abstract:
A TV with multi-display windows includes a control unit, a display is coupled to the control unit; a display dividing module is coupled to the control unit to divide the display into multiple display windows. A local area network module is coupled to the control unit; a communication module is coupled to the control unit, wherein the communication module includes an instant chat module or network phone module; a TV program, and an interface of the communication module are assigned into the multiple display windows to allow a user conduct a call or chat with a remote terminal while watching TV program.
Abstract:
A display unit comprises a first polarizer; a first transparent substrate is formed over the first polarizer; a first transparent electrode is successively formed over the first transparent substrate, the first transparent electrode is selected from a group consisting of conductive carbon, conductive polymer and the combination thereof. A TFT (thin film transistor) is next formed over the first transparent electrode; liquid crystals are formed over the TFT and a second transparent electrode is formed over the liquid crystals, the second transparent electrode is selected from a group consisting of the conductive carbon, conductive polymer and the combination thereof. A second transparent substrate formed over the second transparent electrode and a color filter is formed over the second transparent substrate. A second polarizer is successively formed over the color filter.
Abstract:
The present disclosure provides a video display comprising a substrate having electrodes. A mask layer covers a portion of the electrodes, stacked gates is over the mask layer. Emitters are formed on a portion of the electrodes to emit electrons, wherein the stacked gates are used for extracting electron beam from the emitters, wherein the emitters is formed with carbon nanotube emitter to improve video images and local brightening for display; and a panel disposed above the stacked gates; a fluorescent film attached to a surface of said panel and the fluorescent film being hit by electron emitted from the emitter to emit color for display.
Abstract:
The present invention provides a method of controlling a virtual object or instruction for a computing device comprising: detecting a user eye motion by a detecting device; generating a control signal in responsive to the user eye motion detection; controlling an object displayed on a display in responsive to the control signal to execute the instruction. The user eye motion is detected by CMOS or CCD.
Abstract:
A portable communication device having self image generating module for displaying self-image, comprises a control unit, a first communication module coupled to the control unit; a display coupled to the control unit and formed on a front side of the portable communication device. An image capture module is coupled to the control unit and being set on a rear side of the portable communication device to facilitate to capture stereo image. A self-image generating module is coupled to the control unit and being formed on the front side of the portable communication device to capture user self image. A display segmentation unit is coupled to the control unit to divide the display into at least area to display a receiving image of communication party and self image captured by the self-image generating module.
Abstract:
The present invention provides a method of controlling a virtual object or instruction for a computing device comprising: detecting a user activity by a detecting device; generating a control signal in responsive to the user activity detection; controlling an object displayed on a display in responsive to the control signal to execute the instruction. The user activity is detected by CMOS or CCD. The user activity includes facial motion, eye motion, or finger motion.