Abstract: An exemplary flat panel display (2) includes a housing (251 and 255) with a pair of joint members (256 and 257), a display panel (253) accommodating in the housing, a base (21) with a supporting member (210), and a pivot mechanism (23) connecting the supporting member and the joint members. The joint members are integrally formed with the housing, whereby the display panel is pivotable relative to the base. With this configuration, the integrated joint members provide the flat panel display with a simple structure, relatively easy assembly, and reduced cost.

Abstract: A liquid crystal display device 10 includes a liquid crystal display module 11 and a pair of exterior members 13, 14. The liquid crystal display module 11 includes a liquid crystal panel 15 and LEDs 21b. The liquid crystal panel 15 is configured to display images and the LEDs 21b are arranged on a surface that is substantially perpendicular to a display surface 15a of the liquid crystal panel 15. The exterior members 13, 14 house the liquid crystal display module 11 therein and one of the exterior members 13, 14 is provided close to the display surface 15a and another one of the exterior members 13, 14 is provided far from the display surface 15a, and the exterior members 13, 14 are connected to each other. The exterior members 13, 14 include side walls 13b, 13c, 14b, 14c that form a connecting part of the exterior members 13, 14. A hole 26 is formed in long-side side walls 13b, 14b so as to penetrate therethrough. An opening edge 27 of the hole 26 is shared by the exterior members 13, 14.

Abstract: The time taken to write a signal to a pixel is shortened in a display device. Further, a signal is written at high speed even when high voltage is applied. The display device includes a pixel including a transistor and a liquid crystal element electrically connected to a source or a drain of the transistor. The transistor includes an intrinsic or substantially intrinsic oxide semiconductor as a semiconductor material and has an off-state current of 1×10?17 A/?m or less. The pixel does not include a capacitor. Since it is not necessary to provide a capacitor, the time taken to write a signal can be shortened.

Abstract: An electro-optical device includes: a plurality of data lines blocked for every “m” (m is an integer of 2 or greater) columns; a sampling signal output circuit which outputs sampling signals; and a sampling circuit which has sampling switches provided in the data lines, respectively, and which turns on the sampling switches to sample data signals supplied to “n” (n is an integer of 2 or greater) image signal lines, to the data lines. The sampling circuit groups the blocks for every “n” blocks, makes individual blocks in the same group correspond to different image signal lines, respectively, to connect the sampling switches in the individual blocks to corresponding image signal lines, supplies one sampling signal to two adjacent groups, and when any one sampling signal is supplied, simultaneously turns on sampling switches in the same columns in “n” blocks belonging to one group of two groups.

Abstract: An active matrix substrate includes a data signal line (15x), a storage capacity wiring (18x), scan signal lines (16a, 16b), a transistor (12a) connected to the data signal line (15x) and the scan signal line (16a), a transistor (12b) connected to the storage capacity wiring (18x) and the scan signal line (16b), and pixel electrodes (17 a, 17b) formed in a pixel (101) area. The pixel electrode (17a) is connected to the data signal line (15x) through the transistor (12a), and the pixel electrode (17b) is connected to the pixel electrode (17a) through a capacitor (C101) and connected to the storage capacity wiring (18x) through the transistor (12b).

Abstract: Systems and methods are provided for use in correcting flicker of a display (e.g., an LCD display). For example, correction may employ the insertion of at least one transition data frame between display data frames for use in displaying a transition image by pixel elements of the display such that a user perceives display of a constant average luminance by the pixel elements.

Abstract: According to an aspect of the present invention, there is provided an electronic apparatus including: a detection unit configured to detect a start of a reproducing of a motion picture to be displayed on a display unit; a change unit configured to change a refresh rate of the display unit when the start of the reproducing of the motion picture is detected, the refresh rate being changed not by changing an operating frequency of the display unit, the refresh rate being changed by changing a blanking period, the blanking period being a period during which a drawing operation of a screen on the display unit is not performed; and a control unit configured to control the display unit to display the motion picture based on the changed refresh rate.

Abstract: A scanning line interpolating apparatus has a scanning line interpolating unit for converting an inputted interlaced scanning picture to a progressive scanning picture by using motion compensation, a motion vector search device that searches for a motion vector for use in the motion compensation, and a control unit for controlling the precision with which the motion vector is searched for. The control unit is adapted to determine the search precision on the basis of a pixel structure of a display device for displaying the progressive scanning picture.

Abstract: A lighting device comprising: a light emitting module including a plurality of electrically connected light emitting bars each having a plurality of semiconductor light emitting devices; a chassis for containing the light emitting module and having a discharge opening; a reflection sheet arranged in the chassis; and a brightness nonuniformity reduction unit, wherein the light emitting bar includes: a band plate-shaped substrate; a wiring formed on one surface of the substrate; the plurality of semiconductor light emitting devices; and first and second connectors formed in proximity to opposing shorter sides on the one surface of the substrate, wherein the reflection sheet has at least a plurality of corresponding holes through which the plurality of semiconductor light emitting devices are inserted, and wherein the brightness nonuniformity reduction unit is arranged in proximity to a position of the first and second connectors of each light emitting bar.

Abstract: An LCM for a display panel includes a pixel array, a plurality of source driver ICs, and a plurality of gate driver ICs. The plurality of source driver ICs are disposed in a horizontal direction at an upper side or lower side of the pixel array. The plurality of gate driver ICs are disposed in a vertical direction at a left side or right side of the pixel array. The plurality of gate driver ICs are disposed at an opposite position to a position where a source driver IC, among the plurality of source driver ICs, first supplied with video data and a clock signal is disposed.

Abstract: This specification discloses a multimedia display device with dual wireless modules. It includes a body, a first wireless module, and a second wireless module. The first wireless module and the second wireless module are built in the body or connected to the body via an input/output interface. The body is connected via the first wireless module and the ISP service to the Internet. The user is enabled to access multimedia data via network hot spots or remote devices. The data are processed by a data processing control unit and presented on a display. The second wireless module is simulated by simulation software as an access point for any device with a Wi-Fi module to connect to the Internet through the first wireless module.

Abstract: A projection display device comprises: a light source; liquid crystal panels disposed corresponding to R light, G light and B light; a light guiding optical system for guiding R light, G light and B light among light from the light source to respective corresponding liquid crystal panels; a dichroic prism for synthesizing the R light, G light and B light modulated by the liquid crystal panels; a projection optical system having a curved mirror for enlarging and projecting the light synthesized by the dichroic prism; and a bending mirror. A placement plane for optical members is orthogonal to a projection plane (screen surface), and shorter sides of optical members forming the liquid crystal panels and the light guiding optical system are placed on the placement plane.

Abstract: An optical system (light guiding optical system) for guiding G-light and R-light to liquid crystal panels is protruded in an opposite direction from projection optical system with regard to an optical axis of a light source. A space is created between an optical engine and a wall surface, and air stream for suction fan is thus secured. A distance (H1) between the optical engine and the wall surface can be reduced to, for example, a thickness of an external housing of the projector. Since a unit comprising the light source and a suction fan is retracted in a direction of the projection optical system than a protruded portion of the light guiding optical system, a distance (H2) from an end edge of the optical engine to a projection light emitting position can be reduced.

Abstract: A backlight assembly including: a power unit which outputs a current whose polarity is changed on a regular basis; a plurality of balancing units which is connected in parallel to the power unit; a plurality of light emitting diode (LED) modules each of which individually receives each current output by a corresponding balancing unit of the plurality of balancing units; and a driver which is connected between the plurality of balancing units and the plurality of LED modules, and forms a current route for each balancing unit included in the plurality of balancing units to balance a current supplied to two different LED modules during a single period where a polarity of a current output by the power unit is changed.

Abstract: A control section divides a display screen into small regions, evaluates the relative brightness of each of the small regions in accordance with color data to be inputted as color data by which each pixel is displayed, and determines whether or not the display screen has a first small region that is brighter than the other small regions by a predetermined degree. Furthermore, the control section causes a first generating means to generate gradation data for use in the first small region, and causes a second generating means to generate gradation data for use in the other small regions. Even if the second generating section receives the same color data as the first generating section does, the second generating section limits the luminance of a W sub-pixel as compared to the first generating section. With this, the first small region can be displayed more strikingly brightly, so that a clearer, more realistic, and more appealing image can be displayed.

Abstract: A display device 10 of the present invention includes a plurality of gate signal lines 45, a plurality of data signal lines 43, pixel electrodes 41, hold capacitor lines 46 and a common electrode 36. The data signal lines 43 extend in a direction that crosses the gate signal lines 45. Each pixel electrode 41 is surrounded by the gate signal lines 45 and the gate signal lines 43. The hold capacitor lines 46 are configured such that hold capacitances appear between the pixel electrodes 41 and the hold capacitor lines 46. The common electrode 36 is arranged so as to face the pixel electrodes 41. Conductive parts 48 are provided on the gate signal lines 45 or the hold capacitor lines 46 between the adjacent pixel electrodes 41, 41. The conductive parts 48 are electrically isolated from the pixel electrodes 41 and electrically connected to at least one of the gate lines 45, the hold capacitor lines 46 and the common electrode 36.

Abstract: An LCD television includes an LCD panel including a plurality of LCD units with concave structure, three sides of the LCD unit also include liquid crystal molecule (LCM), all of the first side of the LCD unit constitutes a first LCM array and forms a first display interface, all of the second side of the LCD unit constitutes a second LCM array and forms a second display interface, all of the third side of the LCD unit constitutes a third LCM array and forms a third display interface. The LCD television also includes three signal conversion modules configured to convert three TV program signals into three control signals respectively, three driving modules are configured to drive the three LCM arrays according to the control signals and cause the first display interface, the second display interface, and the third display interface to display corresponding TV programs.

Abstract: A source driver of the present invention is for driving a source signal line provided in a liquid crystal display device and varies, based on distribution of an optimum common-electrode electric potential calculated by a flicker minimum value determining method over a line perpendicular to video signal lines, an electric potential of an output signal in accordance with to which video signal line the output signal is to be outputted. A center electric potential of the output signal is greater as the video signal line is farther from an approximate center of a display surface of the liquid crystal display device toward at least one end of the display surface.

Abstract: A method for generating a video clock and an associated target image frame is disclosed. The method generates an output clock signal for outputting a target image frame to a panel according to a frame pixel number and a vertical synchronization signal (Vsync). The target image frame corresponds to a source image frame. The frame pixel number is the number of total pixels included in a predetermined frame format, and the Vsync signal is an input Vsync signal or an output Vsync signal. The period of the output clock signal is the result of the period of the Vsync divided by the frame pixel number. In this manner, the format of the target image frame can remain substantially fixed, and is substantially equal to the predetermined frame format.

Abstract: A stereo projection optical system includes a first polarizing beam splitter, a transmission-type light modulator positioned to receive the first polarized light component from the first polarizing light splitter and an image assimilator positioned to receive an emergent light of the transmission-type light modulator. The image assimilator includes a second polarized light splitter and first, second reflective spatial light modulators. The stereo projection optical systems provide viewers three-dimensional images formed by two alternative polarization light beams whose polarizations are perpendicular to each other utilizing the transmission-type light modulators to form “3-D” images.

Abstract: A display apparatus and a television are provided. The display apparatus includes a display panel which is divided into display areas; a plurality of light guide plates which output light to the display areas of the display panel; and a plurality of light sources, each of which generates light to be inputted into a lateral side of a respective one of the light guide plates, and is arranged corresponding to the lateral side of the respective light guide plate. The plurality of light sources may be arranged such that among the light sources arranged corresponding to the lateral side of one of the light guide plates, a first illumination direction of some of the light sources is different from a second illumination direction of others of the light sources.

Abstract: A white light emitting device capable of expanding the wavelength range of a blue LED used for realizing white light. The white light emitting device according to the present invention includes a blue LED and a mixture of orange phosphor and green phosphor disposed above the blue LED.

Abstract: A lighting device of the present invention includes a light source 17, a power source 170 configured to supply driving power to the light source, and a relay terminal 152 configured to electrically connect the light source 17 and the power source 170. The light source 17 includes an electrical terminal 136 configured to receive the supplied driving power. The relay terminal 152 includes a placing surface 153a on which the electrical terminal 136 is placed, and the driving power can be supplied to the light source 17 via the placing surface 153a on which the electrical terminal 136 is placed. The urging member 19 is provided independently from the relay terminal 152 so as to urge the light source 17 toward the placing surface 153a of the relay terminal 152.

Abstract: A backlight device 12 includes a chassis 14, a cold-cathode tube 17 that is disposed in the chassis 14, a main body 27 that is mounted on the chassis 14, a lamp clip 18 that is provided in the main body 27 so as to grip the cold-cathode tube 17, and a reflecting sheet 23 that is disposed in the chassis 14. The reflecting sheet has an opening 41 through which the lamp gripping portion 28 is passed, and an inner edge portion of the opening 41 covers an outer edge portion of the main body 27.

Abstract: An illumination device 12 according to the present invention includes a light source 17, a chassis 14 that houses the light source 17, and a stand 40 that holds the chassis 14 in an upright position. The stand 40 includes support portions 44 and 45 that directly support the chassis 14. Vertical rails 51 and 52 are mounted on a surface of the chassis 14 on an opposite side from the light source 17 with longitudinal directions thereof aligned with a vertical direction of the chassis 14 and connected to the support portions 44 and 45. Diagonal rails 61 and 62 are mounted on the surface of the chassis 14 with longitudinal directions thereof aligned with directions that intersect with the vertical direction of the chassis and connected to the support portions 44 and 45 to which the vertical rails 51 and 52 are connected.

Abstract: A lighting device 12 of the present invention includes a plurality of linear light sources 17 arranged parallel to one another, and a diffuser plate 31 arranged on the light emitting side of the linear light sources 17. The linear light sources 17 are arranged so that a narrow-interval area 17a where the arrangement interval thereof is relatively narrow and a wide-interval area 17b where the arrangement interval is relatively wide are provided. A dot pattern as an array of a plurality of dots 40 is provided on the diffuser plate 31. The dots 40 have a light reflectivity that differs from the light reflectivity of the diffuser plate 31. The light reflectivity provided by a combination of the diffuser plate 31 and the dot pattern is set to decrease continuously and gradually from the area corresponding to the narrow-interval area 17a toward the area corresponding to the wide-interval area 17b.

Abstract: A lighting device 12 of the present invention includes a light output portion 15z from which light is output, a light source 17, and an optical member 15b provided on the light output portion 15z side with respect to the light source 17. The optical member 15b is held by a pair of holding members. The holding members include a first holding member 15a that holds the optical member 15b from the light source 17 side and a second holding member 16 that holds the optical member 15b from an opposite side from the light source 17 side. A buffer 70 is provided in at least one of a space between the optical member 15b and the first holding member 15a and a space between the optical member 15b and the second holding member 16. The buffer 70 has at least one rough surface on a side that abuts the optical member 15b.

Abstract: An illumination device 12 according to the present invention includes a light source 17 a chassis 14 that houses the light source 17 and a power supply board 32 for supplying drive power to the light source 17. The power supply board 32 is mounted on a surface of the chassis 14 on an opposite side from the light source 17. The chassis 14 has a raised portion 50 that is a part of the surface of the chassis 14 on the opposite side from the light source 17 and raised toward the side on which the power supply board 32 is mounted. The power supply board 32 is arranged so as to overlap the raised portion 50.

Abstract: A method of displaying an image. The method includes acts of receiving pixel data and pixel timing and control signals corresponding to the image, and formatting the pixel data based on a selected communication standard and a transmitter bit rate that corresponds to a number of pixel data bits to be transmitted each transmitter clock cycle.

Abstract: An illuminating device (3) provided with a plurality of hot cathode fluorescent tubes (discharge tubes) (20a to 20f) includes: sockets (21a to 21f) to be connected electrically to respective electrode portions (20A) of the plurality of the hot cathode fluorescent tubes (20a to 20f); and a wiring member (22) that is connected electrically to a plurality of the sockets (21a to 21f) so as to integrate wirings (22b1 to 22b12) of the plurality of the hot cathode fluorescent tubes (20a to 20f).

Abstract: A liquid crystal television (100) includes a display module (10) generating heat, a substrate (21) having a mounting surface (22) and being placed at an interval from the display module (10), a component group (26) mounted on the mounting surface (22), and a housing (11) storing the display module (10), the substrate (21), and the component group (26). The mounting surface (22) includes a first surface (22a) extending opposite to the display module (10) and a second surface (22b) placed at a rear side of the first surface (22a). A component (26A) in the component group (26) having the greatest height with respect to the mounting surface (22) is mounted on the first surface (22a) of the first surface (22a) and the second surface (22b). The housing (11) is provided with a first air vent hole (18) positioned below the substrate (21) and a second air vent hole (19) positioned above the substrate (21).

Abstract: A display apparatus having a display driving unit on a lower part is provided. The LCD display apparatus includes a signal processing unit which performs video decoding, video scaling, and conversion into high-quality video on an input video; and a driving unit which is disposed closer to a lower end of the LCD display apparatus than to an upper end of the LCD display apparatus, and drives a liquid crystal display (LCD) panel to display a video output from the signal processing unit on the LCD panel.

Abstract: A liquid crystal display is disclosed. The liquid crystal display includes a liquid crystal display panel on which a plurality of data lines and a plurality of gate lines are positioned to cross one another and a plurality of liquid crystal cells driven according to a voltage difference between a data voltage and a common voltage are positioned in a matrix format, a side printed circuit board (PCB) connected to the side of the liquid crystal display panel, and a DC to DC converter that is mounted on the side PCB to produce a driving voltage of the liquid crystal display panel.

Abstract: A lighting device 12 of the present invention includes a light source 17, an external power source 21 arranged to supply drive power to the light source 17, and a relay connector 19 arranged to provide an electrical connection between the light source 17 and the external power source 21. The relay connector 19 includes a conductive resin layer 40 and an insulating resin layer 50 arranged on the periphery of the conductive resin layer 40. According to the construction, the conductive portion and the insulating portion of the relay connector 19 are both made of resin, and therefore can be formed by the same process, e.g., by two-shot molding. Further, the number of components can be reduced.

Abstract: A display apparatus having a display and a backlight unit (BLU) which provides backlight to the display are provided. The BLU includes a first light source module in which a plurality of light sources are arranged, a second light source module in which a plurality of light sources are arranged, and a light source driving unit which drives the first light source module and second light source module. The first light source module and second light source module are connected to each other by a first connector.

Abstract: A discharge tube 17 of the present invention includes a glass tube 60 and ferrules 70 disposed around ends of the glass tube 60. Outer leads 61 for receiving power from an external power source project from ends of the glass tube 60. Each ferrule 70 includes a body 71 that is fitted onto the glass tube 60 and an insertion portion 73 that is disposed near the end of the body 71 and into which the outer lead 61 is inserted. The outer lead 61 includes a loop portion 62 at the end thereof. The outer lead 61 is electrically connected with the ferrule 70 when the loop portion 62 is inserted in the insertion portion 73.

Abstract: A vending machine product storage tray system and vending machine system having the advantages of an addressable information display proximate to the vended product stored for sale therein is exposed.

Abstract: A video signal processing apparatus generates a plurality of subframes from each frame of an input video signal to generate an output video signal having a frame frequency higher than the frame frequency of the input video signal. The output video signal also has a smaller number of tones than the number of tones of the input video signal. The pixel values of pixels corresponding to the plurality of subframes are set in accordance with the input video signal to represent halftones that are difficult to display with the number of the tones of the output video signal. The pixel values of the pixels corresponding to the plurality of subframes are set to yield a maximum distribution of the pixel values in a time axis direction.

Abstract: This cold cathode tube lamp comprises a glass tube (11) into which at least a rare gas is filled, a pair of first electrodes (21, 22) disposed to face each other at both inner end portions of the glass tube (11) and composed of cylinder-shaped first cylindrical portions (21a, 22a) with openings at one ends and first bottom portions (21b, 22b) closing the other ends of the first cylindrical portions (21a, 22a), and second electrodes (41, 42) provided in the respective first electrodes (21, 22). The second electrodes (41, 42) include at least cylinder-shaped second cylindrical portions (41a, 42a) with openings at each one end thereof. The second electrodes (41, 42) are disposed such that the second cylindrical portions (41a, 42a) are a predetermined distance away from the respective first cylindrical portions (21a, 22a) of the first electrodes (21, 22).

Abstract: In a display control apparatus which is supplied with an input synchronizing signal and an input video signal, and which generates display data from the input video signal on the basis of the input synchronizing signal, and supplies the display data to display means, when a change is detected in a cycle of the input synchronizing signal, the display means is supplied with display data of a frame prior to the occurrence of the change in the cycle, throughout a subsequent predetermined number of frame periods.

Abstract: Embodiments of the present invention comprise systems and methods for selecting a display source light illumination level based on distortion parameters.

Abstract: This cold cathode tube lamp comprises: a discharge tube composed of a glass tube (11) having at least a rare gas sealed therein and a pair of electrodes (21, 22) arranged opposite each other inside the glass tube (11) at opposite ends thereof. The electrodes (21, 22) have cylindrical portions (21a, 22a) having a cylindrical shape with an opening at one end and bottom portions (21b, 22b) closing the other end of the cylindrical portions (21a, 22a). Projecting portions (41, 42) are formed on interior surfaces of the cylindrical portions (21a, 22a).

Abstract: A display device uses a field sequential color scheme. Assume that a panel video writing period defines a period from the start of writing image data into a display panel to the completion of displaying the image on the basis of the image data in a sub-frame. A light source driving circuit generates a driving signal for gradually increasing the luminance of a light source of a color corresponding to a displayed image in the present sub-frame from zero to a predetermined value within the panel video writing period of the present sub-frame and for gradually decreasing the luminance of the light source from the predetermined value to zero within the panel video writing period of the next sub-frame. A light source driver drives the light source to emit light in accordance with the driving signal.

Abstract: The present invention is a television receiver, including a counter which measures a time period for which the television receiver continuously operates, an evaluator which determines whether the time period is more than a predetermined time period and a controller which adjusts a brightness value of a picture to more than a predetermined value when the time period is more than the predetermined time period.

Abstract: According to one embodiment, a video display apparatus includes a display module, a light source device, a video signal input module, a virtual illumination value calculator, a light source illumination value calculator, and a light source controller. The light source device is divided into light source areas in a honeycomb shape and provided with light sources to light up the light source areas. The virtual illumination value calculator calculates an area illumination value indicating the brightness of light source areas to light up based on a video signal received by the video signal input module. The light source illumination value calculator calculates a light source illumination value to light up the light sources based on the area illumination value. The light source controller lights up the light sources synchronously with the video signal being displayed on the display module based on the light source illumination value.

Abstract: A display system has a device for projecting a light beam and a display. The light beam includes encoded data. The display includes light sources selectively activated according to the encoded data received from the device.

Abstract: A driving circuit for display elements, comprises a modulation circuit that outputs a modulating signal to be applied to wiring to which display elements are connected; and an output circuit that serializes modulation data including height value data for determining a height value of at least part of waveform of the modulating signal and pulse width data for determining a pulse width of at least part of waveform of the modulating signal so that the modulation data can be transmitted to the modulation circuit by transmission paths, the number of which is smaller than the number of bits of the modulation data, and outputs the serialized modulation data.

Abstract: In a case where each of pixels of a liquid-crystal display panel is divided into two subpixels, the drive levels of the subpixels with respect to the gradation of an input video signal can be selected from among a plurality of drive levels while an increase in the circuit scale is suppressed. Thus, in the present invention, a first subpixel driving level converter for, on the basis of the gradation value of each pixel of the input video signal, obtaining a first gradation value for driving a first subpixel is provided, and the first subpixel is driven and controlled on the basis of the first gradation value. Then, the first gradation value obtained by the first subpixel driving level converter is converted into a luminance value, and a difference with the luminance value such that the gradation values of the whole pixels are converted is obtained. The obtained difference is converted into a gradation value, and a second gradation value for driving a second subpixel is obtained.

Abstract: The invention relates to a device for delivering audio and video data. In such a device, the audio/video data travel together and are compressed along with the signaling data for the delivery of these audio/video data. Under current compression standards, these data are being increasingly compressed. This maximum compression proportionally complexifies the encoding and decoding of audio/video data. The appearance of network cables comprising six twisted pairs of wires makes it possible to produce networks having higher speed capacities. The object of the invention is not to increase speeds by using additional twisted pairs but to simplify the data traveling through the network.

Abstract: The present invention relates to a hold type display device. One frame period that is a period when an image of one screen is displayed is divided into a dark display period when a relatively dark image is displayed and a bright display period when a relatively bright image is displayed. In the dark display period, each of scanning signal lines (GL1, GL2, GL3, etc.) is driven consecutively two times each during a period corresponding to one third of a conventional one horizontal scanning period. Also, in the dark display period, each two lines of the scanning signal lines (GL1, GL2, GL3, etc.) is driven at the same time. A gradation is calculated for generating a video signal such that, at two pixel formation portions arranged at intersections of these two scanning signal lines driven at the same time and a video signal line, a luminance averaged from luminances originally to be appeared at the two pixel formation portions appears.