Abstract: A method for driving a liquid crystal display (LCD) apparatus, wherein the LCD apparatus comprises a plurality of scan rows, a plurality of data columns, and a data driving circuit, includes: driving a plurality of specific scan rows of the plurality of scan rows at a same time; extracting a plurality of pixel data, arranged into a first order, corresponding to the plurality of specific scan rows; arranging the plurality of pixel data into a second order different from the first order according to a connecting relationship between the data driving circuit and a plurality of pixels of the plurality of specific scan rows; and utilizing the data driving circuit to drive a plurality of pixels according to the plurality of pixel data corresponding to the second order.

Abstract: A capacitive touch panel sequentially has a first glass substrate, a lower touch sensitive layer, a lower insulation ink layer, a lower conductor layer, a lower insulation layer, a lower conductive adhesive layer, a flexible circuit board, a transparent insulation adhesive layer, an upper insulation layer, an upper conductive adhesive layer, an upper conductor layer, an upper insulation ink layer, an upper touch sensitive layer and a second glass substrate. The aforementioned structure allows fabrication of the capacitive touch panel to be separated into a lower panel fabrication process and an upper panel fabrication process. The two independent fabrication processes prevent the capacitive touch panel from being damaged in one of the processes when the process is completed so as to increase the yield in production and further facilitate producing large-size touch panel.

Abstract: A data signal loading circuit (i) which includes: a comparator CMP1 receiving clock signal CKP and reverse-phase signal CKN of clock signal CKP, and outputting clock signal CLP1 which is in phase with clock signal CKP, and clock signal CLN 1 having a reverse phase of clock signal CKP; a comparator CMP 2 having a non-inverting input terminal receiving clock signal CLP1, and an inverting input terminal receiving clock signal CLN1; and a comparator CMP3 having an inverting input terminal receiving clock signal CLP 1, and a non-inverting input terminal receiving clock signal CLN 1, and (ii) which, by using output signals CL1 and CL2 of the comparator CMP2 and the comparator CMP3 as clock signals for latch circuits L1 and L2, equalizes delay times for the rise or fall of clock signals CL1 and CL2 inputted to the latch circuits L1 and L2, and (iii) has low power consumption.

Abstract: An image display device comprises an image display panel that displays a 2D or 3D image; a driving circuit that applies a data voltage of a 2D data format for the 2D image or a data voltage of a 3D data format for the 3D image to the image display panel; and a controller that controls the driving circuit according to a 2D mode for displaying the 2D image or a 3D mode for displaying the 3D image, wherein R, G, and B subpixels of the image display panel each comprises first and second fine subpixels divided by one data line and two adjacent gate lines. In the 2D mode, the same data voltage of the 2D data format is applied to the first and second fine subpixels. In the 3D mode, the data voltage of the 3D data format is applied to the first fine subpixel and a black gray voltage is applied to the second fine subpixel.

Abstract: Disclosed is a liquid crystal display device having a lamp driving apparatus for preventing lamps from being damaged due to electric current variation among the lamps. A DC/DC converter converts an externally provided DC voltage input into a converted DC voltage signal having a predetermined voltage level. A DC/AC inverter inverts the converted DC voltage signal into an AC voltage signal to supply the inverted AC voltage signal to an input terminal of a lamp. A power controller detects electric current flowing the lamp at an output terminal of the lamp to control the level of the inverted AC voltage signal output from the DC/AC inverter and bypasses a part of electric current applied to the input terminal of the lamp when a level of the detected electric current is higher than a predetermined threshold value.

Abstract: A driving apparatus resets driving circuits provided therein after an internal supply voltage reaches a sufficient voltage level. The driving apparatus includes a reset signal generator that resets the driving circuits when the internal supply voltage exceeds the external supply voltage in a rising period of the internal supply voltage. Accordingly, the driving circuits may be prevented from being reset before the internal supply voltage reaches the sufficient voltage level, thereby preventing an abnormal operation of the driving circuits.

Abstract: A biaxial rotary display module is disclosed, which includes a first casing, a rail disposed on the first casing, a rotary piece arranged in the rail, a second casing having s display panel, and two hinges. The rotary piece has a pivoting portion pivoted to the first casing, and the rotary piece is rotated in the rail. The hinges are disposed on opposite sides of the pivoting portion for connecting the second casing and the rotary piece, thereby causing the second casing able to be pivoted relative to the first casing via the two hinges and swiveled relative to the first casing via the rotary piece.

Abstract: A method of driving a light source includes; driving a plurality of light source strings in response to a plurality of driving signals, when a light source module having the plurality of light source strings connected in parallel with each other receives a driving voltage, detecting a detection voltage from channel input terminals of a multichannel current control part, wherein the multichannel current control part controls a resistance difference of the plurality of light source strings based on the plurality of driving signals, and controlling a level of the driving voltage via adjusting a current applied to a feedback terminal of a driving voltage generating part, wherein the driving voltage generating part generates the driving voltage.

Abstract: A driving device for a display device includes a gray voltage generator generating a plurality of gray voltages, a voltage selector selecting an output voltage from the plurality of gray voltages, a voltage level converter converting a level of the output voltage selected by the voltage selector and applying the output voltage with a converted level to data lines, a first switching unit connecting the voltage level converter to the voltage selector and the data lines, and a second switching unit directly connecting the voltage selector and the data lines. Operating times of the first and second switching units are different. Accordingly, when a data voltage is charged in or discharged from a data line, since a separate discharging transistor or a separate discharging amplifier is not used, power consumption and an area of a data driver are reduced.

Abstract: Various embodiments related to an adaptive keyboard cut from a single flexible substrate are provided. One disclosed embodiment of an adaptive input device comprises a flexible substrate, and a plurality of key screens defined in the flexible substrate via cuts in the flexible substrate. The key screens are cut such that each key screen remains electrically connected to the flexible substrate, and each key screen comprises an image producing element configured to display an image on the key screen. The adaptive input device further comprises a keyboard comprising a plurality of keys disposed over the flexible substrate, where each key screen is turned upwardly from the flexible substrate to cover a corresponding key on the keyboard.

Abstract: A display apparatus includes a plurality of pixel circuits arranged in a matrix form, each including a light emitting device, a plurality of information lines, an information line drive circuit, and a plurality of scanning lines. In addition, a scanning line drive circuit sequentially supplies scanning signals to the plurality of scanning lines in one vertical period, a plurality of on-and-off control lines control turning-on and turning-off of the light emitting devices in a row of the matrix form, and an on-and-off control line drive circuit supplies on-and-off control signals to the plurality of on-and-off control lines.

Abstract: A portable mouse includes a base, a casing, an attractable element and a control module. The control module includes a keycap, a triggering element, a positioning element and a retractable mechanism. The keycap is exposed outside a surface of the casing. By depressing the keycap, the attractable element is protruded out of the base, so that the attractable element could be attached on a surface of the object.

Abstract: A driving device for a display device includes a gray voltage generator generating a plurality of gray voltages, a voltage selector selecting an output voltage from the plurality of gray voltages, a voltage level converter converting a level of the output voltage selected by the voltage selector and applying the output voltage with a converted level to data lines, a first switching unit connecting the voltage level converter to the voltage selector and the data lines, and a second switching unit directly connecting the voltage selector and the data lines. Operating times of the first and second switching units are different. Accordingly, when a data voltage is charged in or discharged from a data line, since a separate discharging transistor or a separate discharging amplifier is not used, power consumption and an area of a data driver are reduced.

Abstract: A wheel mouse includes a first scroll wheel, a second scroll wheel, a first encoder, a second encoder and a control unit. The first encoder generates a first rotation signal according to the rotating condition of the first scroll wheel. The second encoder generates a second rotation signal according to the rotating condition of the second scroll wheel. The control unit is electrically connected to the first encoder and the second encoder for executing a corresponding function in response to the first rotation signal and the second rotation signal. The control unit executes a first function when only the first rotation signal is generated. The control unit executes a second function when only the second rotation signal is generated. The control unit executes a third function when the first rotation signal and the second rotation signal are simultaneously generated.

Abstract: A display coupling apparatus includes a first circuit board having a display connector end. A first cable coupling pad is located on the first circuit board. At least one trace on the first circuit board extends from the display connector end to the first cable coupling pad. The display coupling apparatus is used to electrically couple a display to an information handling system.

Abstract: An OLED pixel, an organic light emitting display comprising the same, and a driving method thereof in which a uniform image is displayed regardless of differences among transistor characteristics are disclosed. The organic light emitting display comprises a plurality of pixels connected to a plurality of scan lines, a plurality of data lines, and a plurality of power source lines. Each pixel comprises a frequency supplying line to supply a frequency signal having a frequency corresponding to a sub-frame, a pixel circuit to supply current from the power source line on the basis of a data signal and the frequency signal, and an organic light emitting diode configured to emit light depending on the output current from the pixel circuit.

Abstract: A driving method of a plasma display device including a plurality of first electrodes divided into a plurality of groups including first and second groups, a plurality of second electrodes, and a plurality of third electrodes that intersect the plurality of first and second electrodes, may include dividing one frame into a plurality of subfields, each subfield including a reset period, an address period and a sustain period so as to be driven by a time division method, supplying a scan pulse and a scan reference voltage to the first group during a first address period in the address period, supplying a compensation pulse to at least one of the first and second groups during an address compensation period in the address period, and supplying the scan pulse and the scan reference voltage to the second group during a second address period in the address period.

Abstract: A plasma display device includes a first electrode from which sustain discharge occurs; a second electrode from which sustain discharge occur to the first electrode, a distance from the second electrode to the first electrode continuously varying in one discharge space; and a driving circuit which generates a sustain discharge pulse that rises in two stages, with an application time of a second-stage voltage being longer than an application time of a first-stage voltage, to apply the sustain discharge pulse between the first and second electrodes, thereby causing the sustain discharge.

Abstract: Any of first and second sub-field configurations is selected. In the first sub-field configuration, a width of a write pulse of a sub-field with a lowest display luminance is not more than widths of write pulses of the other sub-fields. In the second sub-field configuration, the width of the write pulse of the sub-field with the lowest display luminance is larger than the widths of the write pulses of the other sub-fields. When the first sub-field configuration is selected, a voltage applied to a sustain electrode in a write period of the sub-field with the lowest display luminance is set higher than a voltage applied to the sustain electrode in write periods of the other sub-fields. When the second sub-field configuration is selected, the voltage applied to the sustain electrode in the write period of the sub-field with the lowest display luminance is set to be the same as the voltage applied to the sustain electrode in the write period of any of the other sub-fields.

Abstract: An LCD and a display panel thereof are provided. A common voltage generation circuit of the display panel is electrically connected to at least one pixel in a non-active pixels region. According to the display voltage at a drain of a TFT in the pixel, an average of display voltages of positive and negative polarities is obtained in two frame times. The average value is regarded as a common voltage supplied to every pixel in an active pixel region in the display panel. Thereby, the problem of a drift of a feed-through voltage (?VD) of a scan voltage due to an RC delay of a parasitic-capacitance and a parasitic-resistance on the scan line can be avoided. Further, the gray-level accuracy of every pixel in the active pixel region can be improved, and the flicker-noise of the display-panel can be reduced, thus significantly promoting the display quality of the LCD.