Abstract: A volumetric three-dimensional display panel and a volumetric three-dimensional display system employing the volumetric three-dimensional display panel are provided, wherein the volumetric three-dimensional display panel is formed by stacking a plurality of transparent flat display panels, such as, organic light-emitting devices. In the volumetric three-dimensional display panel, two-dimensional images are displayed on the transparent three-dimensional display panels, respectively, to form a single three-dimensional image.

Abstract: In a structure in which six active matrix regions 103 to 108 are integrated on one glass substrate, horizontal scanning control circuits 101 and 102 are commonly disposed for the respective active matrix regions 103 to 105 and 106 to 108. Then the horizontal scanning control circuits 101 and 102 are operated at different timings, and images formed by the active matrix regions 103 to 105 and 106 to 108 are synthesized and projected. With this operation, the horizontal scanning frequency required for one horizontal scanning control circuit can be made half of the horizontal scanning frequency of the display screen.

Abstract: An image display apparatus includes an image display device having pixels to display right- and left-eye images for a three-dimensional image, a first and second optical shutter devices located on rear and front sides of the image display device. The pixels include pixel pairs that have pixels arranged across first light-shielding portions and that are arrayed across second light-shielding portions. The first shutter device includes first light-transmitting portions that cause image light beams passing through the pixels to strike the right and left eyes of a viewer located in a first direction, and first shutter portions to control transmission/shielding of light. The second shutter device includes second light-transmitting portions that cause image light beams passing through the pixels to strike right eyes and left eyes of viewers located in second and third directions, and second shutter portions to control transmission/shielding of light.

Abstract: An electrofluidic display device including a first structure layer and a second structure layer is provided. The first structure layer includes a first substrate. A trench structure layer is disposed on the first substrate and has a trench surrounding an indent groove of a second substrate. A first electrode layer is disposed on the first substrate. A first hydrophobic layer is disposed on the first electrode layer. The second structure layer having the second substrate is located aside the first substrate with a gap. A groove structure layer is disposed on the second substrate. The groove structure has the indent groove surrounded by the trench. A second electrode layer is disposed on the groove structure layer. A second hydrophobic layer is disposed on the second electrode layer. Polar fluid is disposed in the indent groove. Non-polar fluid is disposed in the gap between the first and second substrates.

Abstract: A display device improves brightness while minimizing an increase in the number of source drivers. When a value obtained by dividing the length of a display screen in a row direction by the number of pixels in the row direction is a length corresponding to one pixel in the row direction, one period of color arrangement in the row direction is a length corresponding to two pixels. One such period of color arrangement includes two groups of subpixels that include first subpixels of the light's three primary colors of red (R), green (G) and blue (B), that are arranged in a row and that have the same subpixel configuration; and at least one additional subpixel. Scanning lines extending in the row direction and signal lines extending in the column direction are connected to the first subpixels and the at least one additional subpixel.

Abstract: A volumetric three dimension panel, which is formed by stacking at least one transparent light emitting element up against each other in a three dimensional shape, and a display apparatus are provided. The volumetric three dimension panel is formed by stacking at least one transparent light emitting element up against each other in a three dimensional shape. The display apparatus includes a volumetric three dimension panel which is formed by stacking at least one transparent light emitting element up against each other in a three dimensional shape, a matching unit configured to match a value of coordinates of an object to the transparent light emitting element, and a display control unit configured to operate the transparent light emitting element based on a result of the matching and a pixel value which is matched to the value of coordinates of the object.

Abstract: A three-dimensional image displaying apparatus includes a display panel formed of a plurality of pixels having a plurality of light emitting points arranged with a specific interval; a lens panel formed of a plurality of lenses arranged corresponding to the pixels for forming a virtual image of the light emitting points of each of the pixels; a drive unit for driving the light emitting points to emit light according to first drive data specifying the pixels and the light emitting points; and a transportation unit for transporting one of the display panel and the lens panel according to second drive data specifying a distance between the display panel and the lens panel. In the three-dimensional image displaying apparatus, specific ones of the lenses form the virtual images at a same position, thereby displaying one three-dimensional pixel.

Abstract: A method and system for use in conjunction with a push-pull liquid crystal modulator system for creating circularly polarized light of alternating handedness is provided. The method and system comprise a pair of surface mode liquid crystal cells and a driver electrically coupled to the cells. The driver is configured to move an electrical charge using a quenching pulse comprising a relatively brief voltage spike at a beginning of a waveform period. Multiple additional improvements are provided, including reducing the thickness of the LC gap (the distance between cell electrode plates), creating a charge connection or wiring connection to the cell electrodes, employing anti-reflection coating technology, thinner ITO and ITO index matched to the LC material, bonding all possible air to material surfaces, using superior glass, employing more efficient polarizers, and reducing projector blanking time.

Abstract: A multi-layer display device having a first display screen having a first resolution and adapted to present a first visual image thereon, a second display screen having a second resolution and adapted to present a second visual image thereon, and a logic device configured to communicate with the first display screen and the second display screen and configured to receive a combined single plane visual image for display on the first and second display screen, the combined visual image having a first portion corresponding to the first visual image to be displayed on the first display screen and a second portion corresponding to the second visual image to be displayed on the second display screen, wherein the logic device is configured to transmit the first visual image to the first display screen and the second visual image to the second display screen.

Abstract: An augmented reality system provides improved focus of real and virtual objects. A see-through display device includes a variable focus lens a user looks through. A focal region adjustment unit automatically focuses the variable focus lens in a current user focal region. A microdisplay assembly attached to the see-through display device generates a virtual object for display in the user's current focal region by adjusting its focal region. The variable focus lens may also be adjusted to provide one or more zoom features. Visual enhancement of an object may also be provided to improve a user's perception of an object.

Abstract: A display and a method of displaying information are disclosed. The display includes a first display screen including a first plurality of pixels controllable to display a visual indicator. A second display screen includes a second plurality of pixels, wherein the first and second display screens overlap, and wherein each of the first and second display screens is partially transparent. The first and second display screens are controllable to move the visual indicator from a first plane to a second plane responsive to a first user interaction with a user interface component.

Abstract: It is made possible to prevent luminance falling and moire occurrence and change over between a two-dimensional image and a three-dimensional image partially. When displaying one of a three-dimensional image and a two-dimensional image on a background and displaying the other image in a window, a flag bit indicating whether the first and second electrodes overlap the window is set. Waveforms differing according to the flag bit are applied to the first and second electrodes as pulses applied to the opposed first and second electrodes of a variable polarization cell. As a result, three-dimensional image display is partially conducted in the window and two-dimensional image display is conducted in areas other than the window. Or two-dimensional image display is partially conducted in the window and three-dimensional image display is conducted in areas other than the window.

Abstract: A display device, adapted to display a two-dimensional image or a three-dimensional image, includes an image panel for displaying an image and a barrier panel located in front of the image panel. The barrier panel includes a first substrate including In-Plane-Switching type electrodes arranged on a surface of the substrate, a second substrate having a transparent electrode on the inner side surface, and a liquid crystal layer located between the first and second substrates. The barrier panel displays the image as a two-dimensional image or a three-dimensional image depending on electric fields established between first and second substrates of the barrier panel and between the In-Plane-Switching type electrodes formed on the first substrate. The two-dimensional image may be displayed with wide viewing angle and narrow viewing angle options.

Abstract: A system, method, and computer program product are provided for enhancing a viewing experience when display content is viewed utilizing stereo glasses. In use, display content is received for being outputted utilizing a display. Further, a duration of a vertical blanking interval associated with the display content is increased for enhancing a viewing experience when the display content is viewed utilizing the stereo glasses.

Abstract: The invention relates to arrangements for spatial display, and in particular to such arrangements that, by means of wavelength or gray level filter arrays, present an image visible in three dimensions to one or several observers without the use of auxiliary aids such as glasses. In such arrangements, an increased brightness of the 3D display is achieved by means of the arrangement of transparent filters on the filter array according to the invention.

Abstract: A display control system for a multi-layer display system including at least one multi-layer display unit (6). A multi-layer display unit includes multiple stacked or overlapped display layers (1a, 1b, 1c, 14, 15) each adapted to render display elements (2, 16B, 17B, 18B) thereon for viewing through the uppermost display layer. The level of difficulty for a user to view an overlapped image differs depending on the colour, brightness or type of images (for example text-on-text) being displayed and also the layer in which the image is being displayed and whether the image is currently active. At least any overlapping portion of display elements from different display layers are adjusted (automatically or by a user) in order to improve the viewing experience for a viewer. Types of adjustment possible include moving the images within their display layer or to an alternative display layer or altering their visual properties (such as colour, brightness, contrast etc).

Abstract: An autostereoscopic display device comprises: a display panel having an array of display pixels for producing a display, the pixels being arranged in rows and columns; and at least two arrays of light output directing elements, the arrays being arranged in series over the display panel at different depths, each array being controllable to direct the light output from respective groups of pixels in different directions to enable a stereoscopic image to be perceived. The device is operable to selectively control any one of the arrays to provide the light output directing function, thereby providing respective first and second three dimensional display modes having different amounts of perceived depth.

Abstract: The present invention relates to an autostereoscopic display device, comprising an imaging layer (9) and a lens layer (10). The lens layer (10) serves to project different content from the imaging layer (9) to the left and right eyes, respectively, of a user. The lens layer (10) comprises lens cells (12), enclosing two fluids (13, 14) with different refractive indices. The shape of the interface between the fluids may be changed using electrowetting, by means of two individually controllable electrodes (21, 22) at the sides of each lens cell (12). The display device further comprises a user head tracking device and means for controlling the lens cell electrodes depending on a detected user head position. This allows the display device to display a correct 3D-image, even if the user moves his head.

Abstract: A system to automatically blank a screen from a multi-layer display is disclosed. The system includes a multi-layer display, an associated logic device and a display controller in communication therewith and configured to receive signals from the logic device. The multi-layer display includes at least a first display screen and a second display screen positioned behind the first display screen, with both display screens in communication with the display controller. The display controller has a signal analyzer configured to analyze received signals, which are sent to one or both of the first and second display screens depending upon the results from the signal analyzer. Analysis results can involve whether signal resolution is greater than a predetermined amount. Signals sent to both display screens results in a multi-layer display presentation, while signals sent to only one screen results in the auto-blanking of the other screen for a single screen display presentation.

Abstract: The invention relates to arrangements and methods for spatially displaying images of a scene or object, in which several viewers can get a spatial impression without the use of aids. Arrangements according to the invention comprise an image display device and at least one filter array with a great number of filter elements; characteristically, it is not in all rows (j) and columns (i) that partial image information from different views is alternatingly displayed by the pixels of the image display device in such a way that, from at least two monocular viewing positions, exclusively or almost exclusively partial image information from a single view is visible to one of the viewer's eyes, and that, from a great number of viewing positions, essentially bits of partial image information from different views are visible monocularly to both eyes of the viewer, and that the viewer has a spatial view of the scene or object displayed.

Abstract: Modeling a complete tooth of a patient to facilitate dental and/or orthodontic treatment includes generating a first set of digital data representing a clinical crown; generating a second set of digital data representing a plurality of digital tooth models of a particular tooth type each having a first parameterization; processing the second set of digital data to obtain a third set of digital data representing an average tooth model of the particular tooth type having a second parameterization which is less than the first parameterization; fitting the third set of digital data to the first set of digital data to create a set of digital data representing an interim tooth model; and morphing the set of digital data representing the interim tooth model to substantially mimic the anatomical shape of the clinical crown of the first set of digital data.

Abstract: Provided is an information processing device which includes: a transparent display element display unit (21) that displays a transparent window in association with display position information for specifying a display position on a display (2), the transparent window being displayed as transparent at least in part such that display information covered with the transparent window is visually recognized through the transparent window; an information acquisition unit (22) that acquires the display information covered with the transparent window based on the display position information; a superimposition detection unit (27) that detects that a plurality of the transparent windows are in a positional relation in which the plurality of the transparent windows overlap one another to be displayed, based on the display position information; and a processing execution unit (28) that executes, in a case where the superimposition of the plurality of the transparent windows is detected, predetermined processing based on

Abstract: A display system for presenting one or more planes of display information. The display system may include two or more display modules positioned in a spaced relationship in a stacked formation substantially along a Z-axis perpendicular to a display face of a display module. Each display module may be selectively activated to display a visual image or deactivated to a quiescent state. Further, when a display module is activated to display the viewed image, the viewed image can be viewed through a prior display module which is deactivated to a quiescent state.

Abstract: A method, system and devices for optimizing and/or maximizing the perceived autostereoscopic effect for any chosen combination of photographic or electronic recording materials, recording methods and parameters, and imaging methods and parameters. The method first determines the parameters characterizing the optimum autostereoscopic effect of the combination materials etc. (the front pixel spread and the back pixel spread), then specifies how to apply these parameters to the arrangement of image acquisition devices, or the production of images by computational means, to produce a final image with optimal autostereoscopic properties. Features of the present invention provide for image acquisition either occurring in the real world (via digital or analog means) or within a computer graphic environment (or a blend of both), by way of specific methods necessary for successfully traveling through a variety of different mathematical spaces to arrive at a common space.

Abstract: A stereoscopic display device is provided for displaying a 3-dimentional image including a first slice, a second slice and a third slice arranged in the order written. The stereoscopic display device includes a first LCD, a second LCD, and a number of distance adjusting members between the first and second LCDs. Each distance adjusting member includes two magnetic elements. The two magnetic elements are aligned with each other and fixed to the first and second LCDs, respectively. One of the two magnetic elements is an electromagnet. The two magnetic elements are configured for cooperatively creating repulsion forces and attractive forces applied between the two LCDs such that the first LCD is reciprocally moved relative to the second LCD between a first position where the first LCD displays a contour of the second slice and a second position where the first LCD displays a contour of the third slice.

Abstract: An active matrix type display panel, used as a display-use panel, has pixel patterns each having aperture sections. The aperture sections are set to have a width satisfying the following inequality, 0<(minimum width of the aperture sections in the pixel)/(maximum width of the aperture sections in the pixel)?0.037, or 0.130?(minimum width of the aperture sections in the pixel)/(maximum width of the aperture sections in the pixel)<1.

Abstract: A 3D image display device includes a display panel, a barrier, a controller, and a barrier driver. The barrier includes: a first substrate; a plurality of first electrodes disposed on the first substrate and extended in a first direction; a plurality of second electrodes respectively disposed between adjacent first electrodes; a second substrate opposing the first substrate; a plurality of third electrodes disposed on the second substrate and extended in a second direction crossing the first direction; a plurality of fourth electrodes respectively disposed between adjacent third electrodes; and a liquid crystal layer disposed between the first and second substrates. The barrier driver receives a barrier control signal from the controller, and applies a reference voltage to the first electrodes, the second electrodes, the third electrodes, and/or the fourth electrodes, and applies a liquid crystal driving voltage to one or more other ones of the first to fourth electrodes.

Abstract: A multi-view autostereoscopic display apparatus with improved resolution, includes: a display panel alternately displaying a plurality of images of different view points; an image separating device for separating the plurality of images such that the separated images can be alternately observed in different viewing zones; and a directional backlight unit switched between a plurality of different angular distributions of illumination to selectively provide light to the display panel, wherein the directional backlight unit is switched between the plurality of different angular distributions of illumination in synchronization with an image display period of the display panel.

Abstract: A 2D/3D image display device including a display unit with a plurality of gate lines, a plurality of data lines, and a plurality of pixels, the plurality of gate lines crossing the plurality of data lines, and the plurality of pixels being coupled to the plurality of gate lines and the plurality of data lines; and a controller for receiving an input signal and setting a first driving frequency or a second driving frequency according to the input signal. An image of one frame operating according to the second driving frequency receives and displays the same image data for each of a first period and a second period, a video signal transmitted to one of the plurality of pixels for the first period has first polarity, and a video signal transmitted to one of the plurality of pixels for the second period has second polarity.

Abstract: The volumetric 3D display system of this invention applies a moving display panel that sweeps a display space. The full volume swept by the active screen is used as display space. A 3D image to be displayed is first processed into slices of image data based on an orthogonal 3D grid structure. The slice data are then converted into image frames to be displayed on the active screen by mapping the location indices in the orthogonal 3D grid to the location indices on the moving screen. The preferred method of displaying an image frame is to convert each image frame into a number of “image shots” and then display those image shots in sequence. An image shot comprises a number of simple orthogonal patterns aligned in vertical or horizontal directions. Combination of a number of image shots approximates the corresponding image frame.

Abstract: A three-dimensional display device includes an image display unit and a light control unit facing the image display unit. The light control unit includes first and second substrates facing each other, a 2-viewpoint electrode layer and a multi-viewpoint electrode layer located between the first and second substrates, and a liquid crystal layer located between the first and second substrates.

Abstract: This invention is a device for displaying images that appear to be three-dimensional, with binocular disparity and motion parallax, for multiple viewers in different viewing locations. This device includes an array of display elements wherein at least one of these display elements includes: one or more light-emitting members; and two or more rotating concentric light guides whose rotation guides the directions of the light rays from the one or more light-emitting members. This invention has several advantages over methods for displaying three-dimensional images in the prior art. It offers a wide range of motion parallax in different directions for multiple viewers, does not require glasses or head tracking, creates images with full potential for opacity and occlusion, and does not require coherent light.

Abstract: Example embodiments relate to a multi-dimensional image selectable display device having an image panel adapted to output an image, and a barrier panel at an upper-side portion of the display device so as to display the image as a two dimensional image or a three dimensional image. The barrier panel may include a first substrate having a first electrode and a second electrode arranged so as to apply a horizontal between the first and second electrodes, a second substrate, and a liquid crystal layer between the first and second substrates. A phase delay value ?n*d may range from approximately 700 to 800 nm, wherein the phase delay value ?n*d may be a product of a double refraction value ?n of a liquid crystal constituting the liquid crystal layer, and a cell gap d between the first and second substrates.

Abstract: The present invention is a system that manages a volumetric display using volume windows. The volume windows have the typical functions, such as minimize, resize, etc., which operate in a volume. When initiated by an application a volume window is assigned to the application in a volume window data structure. Application data produced by the application is assigned to the windows responsive to which applications are assigned to which windows in the volume window data structure. Input events are assigned to the windows responsive to whether they are spatial or non-spatial. Spatial events are assigned to the window surrounding the event or cursor where a policy resolves situations where more than one window surrounds the cursor. Non-spatial events are assigned to the active or working window.

Abstract: An image display device 1 includes a display unit 10 having an image screen 11; an image transfer panel 20 located on a path of light left from the image screen 11; and a floating image display unit 110 that displays, as a floating image P2, the light left from the image screen 11 in a space, the space being located on one side of the image transfer panel 20 opposite to the other side thereof facing the display unit 10; a position detector 120 that detects a position of a mobile terminal; an information transceiver 130 that transmits/receives information to/from the mobile terminal 2; and an image controller 140 that controls the floating image P2 and a terminal image P3 displayed on a screen of the mobile terminal 2.

Abstract: A three-dimensional image display apparatus includes an image display configured to output image light which arrays a plurality of pixels and has polarization, a lens array arranged in front of the image display, configured to function as lens at light which has a 1st polarization direction, and not to function as lens at light which has a 2nd polarization direction differed from the 1st polarization direction, and a birefringent phase modulator placed between the image display and the lens array and configured to rotate a polarization plane of the image light.

Abstract: An apparatus generates, by introducing a concept called “virtual viewpoint model”, a CG image for use with a 3-D display through single rendering operation from a single viewpoint without adoption of a process for performing CG rendering operation from a plurality of viewpoints as in the case of a related-art technique and iterating CG rendering while the viewpoint is being changed.

Abstract: A stereoscopic image display method capable of stereoscopic display of a photographed image. One two-dimensional image is selected, and one pixel capable of being viewed from a corresponding viewpoint position is selected from a plurality of pixels. A virtual surface with the selected two-dimensional image pasted thereon is assumed, and the virtual surface is arranged so that an image center point of the two-dimensional image corresponding to a center of an object coincides with a center of a display surface. Next, a virtual extension that extends from the viewpoint position to the virtual surface through the selected pixel is assumed. A color on the two-dimensional image assumed to have been pasted on the virtual surface, corresponding to a point of intersection between the virtual extension and the virtual surface is determined as a display color of the pixel positioned in a direction extending from the pixel to the viewpoint position.

Abstract: An image display device and an image display system which can establish visible light communication without interfering with an image displayed at a predetermined frame rate are provided. A controller controls a spatial light modulator in accordance with an image signal to display the image, and also modulates an intensity of a visible light output from a backlight with a frequency higher than the frame rate of the image signal to have the visible light output from the backlight carry additional information. A light receiver receives the visible light and demodulates to extract the additional information. An additional information generator outputs the additional information.

Abstract: The present invention aims at the lowering of an image quality of an outer peripheral portion of an image display region. For this end, in a display device in which a plurality of display panels are arranged from a front side to a depth side in an overlapped manner and an image is displayed on the respective display panels, the respective display panels have regions which allow the image to be displayed thereon (image display regions) broadened toward the depth-side display panel from the front-side display panel.

Abstract: A mobile terminal is presented. The mobile terminal includes a main display unit comprising a first display unit, a transparent display unit comprising a second display unit, the transparent display unit being attached to the main display unit such that the transparent display unit may be viewed at an angle in comparison to the main display unit, and a controller controlling a three-dimensional (3D) and a two-dimensional (2D) image to be output by selectively displaying an image on at least the first display unit or the second display unit while the main display unit and the transparent display unit are positioned at an angle.

Abstract: Variation of the wavelength of the light emitted from a light source is reduced by a wavelength variation reduction mechanism. Hence, wavelength deviation of the intensity peak of the light emitted from the light source from the diffraction-efficiency peak of a hologram optical element is reduced. Thus, even when a high-brightness light source is used, the light emitted therefrom can be diffracted with the hologram optical element efficiently. Moreover, the heat generated by the light source is efficiently rejected through the surface of a land portion of a flexible printed circuit, is then, via an insulating layer of the flexible printed circuit, efficiently absorbed through the surface of a heat absorbing member, and is then, via a shield conductor, led out of a casing, so as to be thereby expelled.

Abstract: A parallax barrier liquid crystal panel for a stereoscopic display device, including a first substrate including an active region and a non-active region, a second substrate facing the first substrate, first, second, and third lines in the non-active region, at least one barrier electrode in the active region and connected to the first line, at least one pair of first and second transmission electrodes disposed adjacent to the barrier electrode and connected to the second and third lines, respectively, a common electrode on the second substrate, and a liquid crystal layer between the first and second substrates.

Abstract: A method of navigation in three-dimensional, electronic image data sets is disclosed, whereby the image data sets contain three-dimensional image data subsets. The method includes optically representing at least one two-dimensional projection of an image data set that includes a two-dimensional subprojection of at least one image data subset, optically highlighting the at least one two-dimensional subprojection, receiving a user input directed to the selection of a certain subprojection, and optically representing, in accordance with said user input, at least one additional two-dimensional projection of the image data set that includes a two-dimensional projection of the selected image data subset. The method can be used for an image data set that is formed by fusion of at least two source image data sets. The source image data sets can especially comprise computer tomography and a positron-emission tomography image data set.

Abstract: A three-dimensional display apparatus is provided that is suitable for displaying information or instruction relating to the work that the viewer is doing. The three-dimensional display apparatus has a display data generation unit for generating a plurality of display data each expressing a screen at a depth from a viewpoint of a viewer in a three-dimensional space and a lens driving unit for varying the focal length of the variable focal length lenses according to the depth of the display data generated by the display data generation unit. The display data generation unit generates the display data each expressing a different depth and causing a plurality of virtual images of the light emitting points appropriate to the depth to be perceived as being overlapped.

Abstract: A volumetric display apparatus, includes: a volumetric shape model having a side surface and an upper surface; a reflection mirror disposed at the side surface; a control device which stores image information of surface textures of the upper surface and the side surface; and a projector that projects an image of the surface texture of the upper surface onto the upper surface and which projects an image of the surface texture of the side surface onto the side surface via the reflection mirror, based on the image information from the control device.

Abstract: In a technology for displaying two-dimensional images on a plurality of display planes placed at different depth positions as seen from an observer to display a three-dimensional stereoscopic image, when a display object having brightness darker than that of a background is displayed, the disclosed method including: generating first two-dimensional images that are obtained by projecting the background plane onto the plurality of display planes along a line of sight of the observer, and displaying the first two-dimensional images on the display planes respectively wherein brightness of each of the first two-dimensional images is changed independently for each display plane; and generating second two-dimensional images that are obtained by projecting the display object onto the plurality of display planes along the line of sight of the observer, and displaying the second two-dimensional images on the display planes respectively in which brightness of each of the two-dimensional images is set to be the same amon

Abstract: A three-dimensional display apparatus, including a backlight module, two panels, and a synchronization device, is provided. The backlight module has a light emitting side and sequentially emits a plurality of color light. Both panels are disposed at the light emitting side, and the first panel is disposed between the backlight module and the second panel. The first panel includes a first polarizer and a first liquid crystal substrate, and the first polarizer is disposed between the backlight module and the first liquid crystal substrate. The second panel includes a second liquid crystal substrate and a second polarizer, and the second liquid crystal substrate is disposed between the second polarizer and the first panel. The synchronization device is electrically connected to the backlight module and the two liquid crystal substrates. During a frame time, the backlight module and the two liquid crystal substrates are synchronously driven by the synchronization device.

Abstract: Methods and apparatus for rendering plural channels on a common display are provided. In a method embodiment, a method for allowing sharing of a display by a plurality of users wishing to view a plurality of respective images includes displaying the plurality of respective images sequentially on the display. The method further includes selectively allowing the respective image to be viewed by the respective user, but not by any other of the plurality of users.

Abstract: The present invention discloses a method to display a depth fused display. The method includes the following steps. First, a depth fused display that includes a first panel and a second panel is provided. The first panel can display a first image, the second panel can display a second image, and the two panels are disposed in parallel and opposite to each other. Then, the view angle signal of an observer is detected, and the relative position of the first image and the second image is adjusted according to the view angle signal of the observer such that the observer may perceive a stereoscopic image.