Abstract: A liquid crystal display (LCD) panel and a LCD device using the same are provided. The LCD panel includes a first substrate, a second substrate, a liquid crystal layer, an optical filter layer and a color conversion layer. The first substrate and the second substrate correspond to each other and seal the liquid crystal layer. Several pixels are constituted by the first substrate and the second substrate. The optical filter layer is disposed on the first substrate for a first color light to pass through. The color conversion layer is disposed at the second substrate. The color conversion layer has a first color conversion area, a second color conversion area and a passing area in each pixel, such that a second color light and a third color light are produced after the first color light passes through the first color conversion area and the second color conversion area, respectively.

Abstract: A backlight controller, a display device using the same and a method for controlling a backlight module are provided. The backlight controller includes a temporal weighting module and a dimming controlling module. The temporal weighting module calculates a weight sum of a first backlight luminance provided in a current frame and a target backlight luminance to serve as an adjusted backlight luminance. The target backlight luminance is obtained according to an image content of the current frame. The dimming controlling module increases or decreases the adjusted backlight luminance by a step value according to the target backlight luminance and generates a second backlight luminance provided in a next frame. Therefore, a backlight luminance of the backlight module not only can be smoothly adjusted to the target backlight luminance at high speed for avoiding backlight flicker, but also can be adaptive to image content for saving electric power consumption.

Abstract: A novel solvent system for dissolving rigid-rod like polymers, such as polybenzoxazole (PBO), is disclosed, wherein said solvent system includes: a methanesulfonic acid (MSA) and a trifluoroacetic acid (TFA). Therefore, the rigid-rod like polybenzoxazole (PBO) can be easily dissolved in said solvent system without extra heat treatment. Besides, the polybenzoxazole (PBO) solution of said solvent system is firstly able to apply into electrospinning at room temperature to produce PBO nano-fiber, which has metallic luster and high thermal stability. Evident supported by the WAXD suggested these fibers have their molecular chains well aligned along the fiber spinning direction and has the advantages of heat resistance, flame retardance, and chemical environmental resistance, thus can be applied to a wide usage.

Abstract: A low voltage differential signaling (LVDS) transmitter receives a data signal, a data invert signal and a plurality of logic signals. The LVDS transmitter includes a first-stage differential signaling transmitting circuit and a second-stage differential signaling transmitting circuit. The first-stage differential signaling transmitting circuit receives the data signal and the data invert signal and has a first output terminal and a second output terminal. The second-stage differential signaling transmitting circuit is controlled by the logic signals, and has a third output terminal and a fourth output terminal respectively connected to the first output terminal and the second output terminal, so as to generate a needed pre-emphasis signal. When no pre-emphasis signal needs to be generated, the second-stage differential signaling transmitting circuit is controlled to be in disabled state.

Abstract: For an electroluminescent display having an electro-luminescent element connected between a column scan line and a row scan line, a row driver cell switches the row scan line to connect to a high voltage input or a low voltage input, or to be floating, and prevents the current consumed by panel charging and discharging from flowing to the high voltage input from the row scan line.

Abstract: A LCD panel includes a plurality of pixel elements. Each pixel element includes a first substrate, a second substrate and an optical filter portion. The first substrate and the second substrate are parallel to each other, and a liquid crystal layer is sealed between the first substrate and the second substrate. The first substrate includes a reflective portion, and the second substrate includes a color filter layer. The color filter layer disposed between the first substrate and the second substrate has an opening opposite to the reflective portion. The optical filter portion is disposed in the opening of the color filter layer for providing color compensation in a reflection mode.

Abstract: A dual damascene process. A first photoresist layer with a first opening corresponding to a trench pattern is formed on a dielectric layer. A second photoresist layer with a second opening corresponding to a via pattern smaller then the trench pattern is formed on the first photoresist layer and extends to a portion of the dielectric layer. The second photoresist layer has a material character different from the first photoresist layer. A via etching process using the second photoresist as a mask is performed to form a via hole passing through the dielectric layer. A photoresist ashing process is performed to remove the second photoresist layer. A trench etching process using the first photoresist layer as a mask is performed to form a trench in the upper portion of the dielectric layer. The via etching process, the photoresist ashing process and the trench etching process are performed as a continuous process in one chamber.

Abstract: Disclosed is a KVM switch system capable of controlling computer power of a computer coupled therewith. The KVM switch system includes a KVM switch and at least one power control line. The KVM switch generates at least one control signal. The power control line is coupled with a system panel connector of a mainboard of the computer to transmit the control signal of the KVM switch thereto for controlling the computer power. The power control line is coupled with power switch pins or reset switch pins of the system panel connector. The control signal can be generated by a processor of the KVM switch. Alternatively, the control signal can be generated by pushing a power switch button or reset switch button at the KVM switch.

Abstract: An analyzing method of a zi wei dou shu system is disclosed. The method includes the steps of: generating a birth chart according to personal information of a user; quantifying the information in the birth chart; drawing a period of fortune trend curve based on transits of time, whereby the user can refer to numerical information to interpret his/her own fortune.

Abstract: A low power differential signaling transmitter includes a switchable current source apparatus and a differential signaling generator coupled to the switchable current source apparatus. The switchable current source apparatus receives a first input voltage and a second input voltage, and generates a plurality of reference currents according to the first input voltage and the second input voltage. The differential signaling generator includes a plurality of first transistors, a plurality of second transistors, a first output voltage terminal and a second output voltage terminal. The on or off states of the first transistors and the second transistors are controlled by the reference currents. The first output voltage terminal outputs a first output voltage, and the second output voltage terminal outputs a second output voltage. The first output voltage and the second output voltage are determined according to the on or off states of the first and second transistors.

Abstract: A transflective pixel structure suitable for being disposed on a substrate is provided. The transflective pixel structure includes a gate, a gate insulator, a channel layer, a transflective conductive layer, a passivation layer, and a second transflective film. The gate is disposed on the substrate and the gate insulator is disposed on the substrate to cover the gate. The channel layer is disposed on the gate insulator and located above the gate. The transflective conductive layer is disposed on part of the channel layer and part of the gate insulator. The passivation layer is disposed on the transflective conductive layer and part of the channel layer, and the second transflective film is disposed on part of the passivation layer. The transflective conductive layer includes a source, a drain, and a first transflective film connected to the drain. Besides, the second transflective film is located above the first transflective film.

Abstract: A method for displaying images is provided. First, an image viewing function is activated. Then, an image information file which stores image information corresponding to a plurality of images is read. Properties and effects of the images are adjusted based on the obtained image information. Finally, the adjusted image is displayed. Accordingly, the images can be adjusted, displayed, and sorted quickly without modifying original files of the images.

Abstract: A low voltage differential signaling (LVDS) transmitter receives a data signal, a data invert signal and a plurality of logic signals. The LVDS transmitter includes a first-stage differential signaling transmitting circuit and a second-stage differential signaling transmitting circuit. The first-stage differential signaling transmitting circuit receives the data signal and the data invert signal and has a first output terminal and a second output terminal. The second-stage differential signaling transmitting circuit is controlled by the logic signals, and has a third output terminal and a fourth output terminal respectively connected to the first output terminal and the second output terminal, so as to generate a needed pre-emphasis signal. When no pre-emphasis signal needs to be generated, the second-stage differential signaling transmitting circuit is controlled to be in disabled state.

Abstract: An image processing method is provided. The image processing method is applicable to a display having a stream of drawing as an input for selecting at least a portion of an image thereon as a selected image region. The method includes steps of identifying the input as a closed region input and then performing an image operation.

Abstract: A light emitting module includes a metal substrate, a bearing base, at least one LED, a printed circuit board, and at least one conductive wire. A first perforation is formed on the metal substrate and the bearing base is embedded into the first perforation of the metal substrate. According to an eutectic soldering method, the LED(s) is/are adhered on the bearing base by a compound metal. A second perforation is formed on the printed circuit board to expose the LED(s) which is/are adhered on the bearing base and further allows the printed circuit board to stick on the metal substrate. The conductive wires are used to connect electrically the LED(s) with the printed circuit board.

Abstract: A transflective pixel structure suitable for being disposed on a substrate is provided. The transflective pixel structure includes a gate, a gate insulator, a channel layer, a transflective conductive layer, a passivation layer, and a second transflective film. The gate is disposed on the substrate and the gate insulator is disposed on the substrate to cover the gate. The channel layer is disposed on the gate insulator and located above the gate. The transflective conductive layer is disposed on part of the channel layer and part of the gate insulator. The passivation layer is disposed on the transflective conductive layer and part of the channel layer, and the second transflective film is disposed on part of the passivation layer. The transflective conductive layer includes a source, a drain, and a first transflective film connected to the drain. Besides, the second transflective film is located above the first transflective film.

Abstract: An optical assembly includes a light path and at least one optic to be positioned in the path. A support arrangement supports the optic having a foot arrangement including at least one foot that receives a direct manipulation with the foot slidingly engaged against a support surface to move the optic relative to the light path. Movement of the foot may move the optic along a predetermined path. The foot defines a footprint for engaging the support surface and receives the direct manipulation in a way which changes the footprint on the support surface to move the optic responsive to changes in the footprint. A movement arrangement may selectively bias the foot against the support surface during a movement mode, intended to permit movement of the foot against the support surface, and in a locked mode, intended to lock the foot against the support surface.

Abstract: A transflective pixel including a gate, a first transflective conductive layer, a gate insulating layer, a channel layer and a conductive layer is provided on a substrate. The gate and the first transflective conductive layer are disposed on the substrate, wherein the first transflective conductive layer is electrically isolated from the gate. The gate insulating layer covers the gate and the first transflective conductive layer. The channel layer is disposed on the gate insulator and located above the gate. The conductive layer including a source, a drain, a data line connected to the source and a second transflective conductive layer connected to the drain is disposed above the gate insulating layer and on part of the channel layer, wherein the second transflective conductive layer is disposed on the gate insulating layer above the first transflective conductive layer.

Abstract: A liquid crystal display (LCD) panel and a LCD device using the same are provided. The LCD panel includes a first substrate, a second substrate, a liquid crystal layer, an optical filter layer and a color conversion layer. The first substrate and the second substrate correspond to each other and seal the liquid crystal layer. Several pixels are constituted by the first substrate and the second substrate. The optical filter layer is disposed on the first substrate for a first color light to pass through. The color conversion layer is disposed at the second substrate. The color conversion layer has a first color conversion area, a second color conversion area and a passing area in each pixel, such that a second color light and a third color light are produced after the first color light passes through the first color conversion area and the second color conversion area, respectively.

Abstract: Power management methods for integrated circuits are disclosed. A system core block is disposed in a chip and comprises a central processing unit. A power control block is disposed in the chip and comprises a power management mechanism coupled to a power supply to control the supply of power to the system core block. The power management mechanism outputs a power down signal and stops supply of power to the system core block according to a power saving mode setting signal from the central processor unit and starts the supply of power to the system core block according to a power saving mode release signal.