Abstract: Provided are a display device and method for altering images, the apparatus including: an input unit operable to receive a left image and a right image; and an image altering unit which is operable to alter the received left image and the received right image and to output an output image signal including the altered left image and the altered right image, wherein the left image is altered by changing a first portion, which is near a boundary area in the left image, and wherein the right image is altered by changing a second portion, which is near a boundary area in the right image.

Abstract: According to one embodiment, a stereoscopic video output device includes a video display module, a backlight, a first backlight controller, a second backlight controller, a signal converter, and a light controller. The video display module displays stereoscopic video based on a left-eye video frame and a right-eye video frame having disparity output in a time-division manner. The backlight illuminates the video display module. The first backlight controller controls the amount of light emitted by the backlight based on the left-eye video frame, while the second backlight controller controls the amount of light based on the right-eye video frame. The signal converter merges left-eye and right-eye video backlight control signals arranged in order to generate a new backlight control signal. The light controller turns on the backlight synchronously with the left-eye video frame and the right-eye video frame sequentially output from the video display module based on the backlight control signal.

Abstract: A method and apparatus for displaying an alternative object while reproducing three-dimensional (3D) content. The method includes reproducing the 3D content; during the reproducing of the 3D content, detecting an interrupt signal; determining a maximum depth value of the 3D content in response to detecting of the interrupt signal; adjusting a depth value of the 3D content according to the maximum depth value; and controlling a 3D content reproducing apparatus to display the alternative object corresponding to the interrupt signal, wherein the alternative object overlaps the 3D content of which the depth value is adjusted.

Abstract: According to one embodiment, an image output apparatus includes a counter and an output module. The counter is configured to count a 3D image output time. The output module is configured to output a 3D image and 3D image output time information used to provide notification of the 3D image output time.

Abstract: A display system using a shutter device which is capable of reducing power consumed by a transmission section transmitting a shutter control signal, and achieving increased degree of freedom in setting of open/close timings of shutters is obtained. The display system includes a display section 12 alternately displaying a left-eye image and a right-eye image in a time-divisional manner, a shutter control code generation section (a shutter control section 15) generating a shutter control code (a control code C) which allows a left-eye shutter 6L and a right-eye shutter 6R to switch between opened state and closed state, in synchronization with switching between the left-eye image and the right-eye image.

Abstract: A method is provided for a three-dimensional (3D) display system. The method includes obtaining a plurality of original images of a plurality of viewpoints in a 3D image, detecting a type of a display device for displaying the 3D image, and determining a total number of required images based on the detected type of the display device. The method also includes determining whether the total number of required images is equal to a total number of the plurality of original images, and adjusting the plurality of original images such that the total number of required images are provided, when the total number of required images is not equal to the total number of the plurality of original images.

Abstract: A method of providing a stereoscopic 3D image or video on a non-stereoscopic 3D screen. This includes receiving an alternating frame sequence of left and right images where a marker is embedded into the left or the right image. The alternating sequential frame with the embedded marker is output to the non-stereoscopic 3D screen. The markers outputted from the non-stereoscopic 3D screen are detected by an optical sensor. A synchronization signal is sent via a communication channel to an eye control device to synchronize the eye control device with the non-stereoscopic 3D screen, based on the detected markers displayed on the screen.

Abstract: An image receiver according to the present invention includes a receiving unit that receives an integrated image in which a first image and a second image are arranged in one frame and an reception unit that receives region information indicating a region of the first image transmitted along with the integrated image is provided, wherein a non-stereoscopic video display mode in which only the first image is displayed based on the region information and/or a stereoscopic video display mode in which the first image and the second image are displayed as stereoscopic video are included.

Abstract: Described herein are techniques which facilitate the automatic synchronization of audio and video signals between an entertainment device and a presentation device. A sensing device detects and records timing information from a video test pattern generated by an entertainment device and output by a presentation device. Using the timing information from the sensing device, the entertainment device synchronizes the audio and video signals it outputs to one or more presentation devices. The presentation device exhibits synchronized audio and video to a user.

Abstract: An apparatus and a method process a stereoscopic image. More particularly, an apparatus and a method improve compression performance of stereoscopic image data in a portable terminal. The apparatus includes a camera unit including at least two camera modules spaced about a certain distance apart. The camera unit is configured to obtain a first image and a second image to be used to constitute stereoscopic image data. The apparatus further includes a three-dimensional (3D) data generation unit configured to change a compression ratio of the first image and the second image obtained by the camera unit.

Abstract: A method of operating three dimensional (3D) shutter glasses including defining a default operational protocol, determining if a signal has been received from a display device, determining if the received signal uses the default operational protocol, and if the received signal uses the default operational protocol, then operating the 3D shutter glasses using the default operational protocol.

Abstract: A system that incorporates teachings of the present disclosure may include, for example, identifying a stereoscopic preference from a user profile associated with a user of a viewing apparatus, receiving a stereoscopic media program, generating an adapted media program by adapting one or more presentation aspects of the stereoscopic media program according to the stereoscopic preference, and presenting at a presentation device the adapted media program according to a time-division multiplexing or space-division multiplexing scheme for viewing by way of the viewing apparatus. Other embodiments are disclosed and contemplated.

Abstract: A moving picture decoding method of an embodiment according to the present invention is a moving picture decoding method for decoding encoded data of an interlaced scanned picture including Top field and Bottom field, and the method includes a stereo information acquisition step for acquiring stereo information indicating whether Top field and Bottom field are two pictures forming a stereo picture from the encoded data, a decoding step for decoding two fields corresponding to each other from the encoded data and generating two decoded fields, and an output step for outputting the two decoded fields. In the output step, the stereo information is referred to and the two decoded fields are outputted simultaneously.

Abstract: According to one embodiment, an electronic apparatus configured to reproduce video data and additional data for displaying a sub-image, includes a first generator, an arrangement control module, a second generator, and a display control module. The first generator estimates depths of pixels in an image frame of the video data, and generates first left-eye image data and first right-eye image data which correspond to the image frame and have a parallax based on the depths. The arrangement control module sets a depth at which the sub-image is to be displayed, based on a foremost depth of the depths. The second generator generates second left-eye image data and second right-eye image data which correspond to the additional data and have a parallax based on the set depth of the sub-image. The display control module displays an image frame generated by using the generated image data.

Abstract: The primary objective of the present invention is to provide a personal 3D video device, composed of a mount with two lens windows in the front side, a display board having a dual screen to simultaneously display visions which can be seen respectively from each lens, two lens holders contained convex lens and each attached to a lens window; and the distance between convex lens and display screen is the focal distance of the lens. This invention provides the user a spatial vision through the parallax between two focus visions from the lenses towards to the screen. Other advantages and novel features of the invention are easy-to-make, low cost for material and manufacture, and less bulky.

Abstract: Herein described are at least a method and a system for generating three dimensional stereoscopic video. The system and method may be used to drive pixels in a liquid crystal display (LCD) to generate such 3-D video. The method comprises processing received video by way of inserting black data into the video wherein the black data is displayed by main pixels and/or sub-pixels of a liquid crystal display (LCD). The method further comprises sequentially transmitting the processed frames to a display for viewing the video in three dimensions. An exemplary system comprises one or more circuits for performing the aforementioned method.

Abstract: An illumination controller including: an acquisition portion for acquiring timing information on a timing of a non-display period during which a display device switches a frame image of a stereoscopic video without displaying the frame image; and a control portion for brightening a light source configured to illuminate a space where the display device is situated in synchronism with the non-display period and for darkening the light source in synchronism with a display period during which the frame image is displayed, based on the timing information.

Abstract: A method for controlling a pair of shutter glasses utilized for viewing stereo images. A video output apparatus respectively outputs a first image and a second image during a plurality of image output periods, alternately. Each image output period includes an image driving period and an image stabilization period. The method includes controlling each of a first shutter lens and a second shutter lens to be switched between an on-state and an off-state. The first shutter lens and the second shutter lens stay in the on-state within image stabilization periods respectively corresponding to a specific first image and a specific second image, and the first shutter lens and the second shutter lens simultaneously stay in the on-state only within a single continuous time period of an image driving period corresponding to the specific second image.

Abstract: A liquid crystal display (LCD) system for displaying three-dimensional video includes a backlight module for providing light, a liquid crystal panel for modifying brightness of the light, a backlight driver for controlling the backlight module according to a backlight module control signal, a temperature sensor for detecting temperature to generate a temperature signal, a television processor for increasing duty cycle of the backlight module control signal from a predetermined duty cycle to an increased duty cycle equaling sum of the predetermined duty cycle and an additional duty, and a shutter glasses control module coupled to the television processor for outputting a shutter glasses control signal according to the additional duty. The additional duty is based on the temperature signal.

Abstract: A controller for controlling an eyeglass device which performs an assistance operation for assisting in stereoscopically viewing a video includes: a first acquisition portion for acquiring first frequency information relating to a display frequency of frame images of the video; a second acquisition portion for acquiring second frequency information relating to an environmental factor which periodically varies in an environment where the video is viewed; and a generator for generating a reference signal to adapt the assistance operation of the eyeglass device to display of the frame image and periodic variation of the environmental factor on the basis of the first frequency information and the second frequency information.

Abstract: According to one embodiment, a 3D image output apparatus includes: an oblique display judging module configured to judge whether a thumbnail relating to an image content that can be displayed in 3D is displayed obliquely; and an image signal output module configured to: output an image signal relating to a thumbnail so that the thumbnail is displayed in 2D when the oblique display judging module judges that the thumbnail is displayed obliquely; and output an image signal relating to the thumbnail so that the thumbnail is displayed in 3D when the oblique display judging module judges that the thumbnail is not displayed obliquely.

Abstract: A video processing method for a three-dimensional (3D) display is based on a multi-cue process. The method may include acquiring a cut boundary of a shot by performing a shot boundary detection with respect to each frame of an input video, computing a texture saliency with respect to each pixel of the input video, computing a motion saliency with respect to each pixel of the input video, computing an object saliency with respect to each pixel of the input video based on the acquired cut boundary of the shot, acquiring a universal saliency with respect to each pixel of the input video by combining the texture saliency, the motion saliency, and the object saliency, and smoothening the universal saliency of each pixel using a space-time technology.

Abstract: Stereoscopic glasses and a display apparatus including the same, which can reduce a user's eyestrain, are provided. The display apparatus includes: a signal processor which processes a three-dimensional (3D) video signal to have a predetermined depth effect; a display unit which displays a 3D image based on the video signal processed by the signal processor; and a controller which controls the signal processor to process a first area determined viewed by a user and a second area that is not determined to be viewed by the user, of the 3D image displayed by the display unit, such that the first area is different in level of a depth effect than the second area. Accordingly, a user's eyestrain is remarkably reduced to thereby increase convenience.

Abstract: A method, consistent with certain implementations involves at a television remote controller housing that provides a user interface that provides access to controls for television functions and encloses a television remote controller circuit: receiving a 3D shutter glasses synchronization signal; and re-transmitting the shutter glasses synchronization signal. This abstract is not to be considered limiting, since other embodiments may deviate from the features described in this abstract.

Abstract: A system that incorporates teachings of the present disclosure may include, for example, a method for detecting a viewing apparatus, and causing a presentation device to present a media program in a time division multiplexed (TDM) scheme or a space division multiplexing (SDM) scheme responsive to said detection, wherein the viewing apparatus is configured to the TDM or SDM schemes to enable viewing of the media program. Other embodiments are disclosed and contemplated.

Abstract: Provided is a spatial image display device capable of forming more natural spatial images even with a simple configuration. In the spatial image display device 10, a two-dimensional display image corresponding to a video signal is generated by a display section 2. Display image light corresponding to one group of pixels 22 in the display section 2 is collectively subjected to wavefront transformation and collectively deflected by one liquid optical element 41 corresponding to that one group of pixels 22. Therefore, compared with a case where one liquid optical element 41 is provided for one pixel 22, a larger number of various different two-dimensional display image light are to be emitted all at once toward different directions in the horizontal plane, without increasing the frame rate in the display section 2.

Abstract: An image display apparatus and a method for operating the same are disclosed. The method for operating an image display apparatus includes receiving a 3-dimensional (3D) image, detecting the depth of the 3D image, performing 3D processing on an audio signal received in synchronization with the 3D image in correspondence with the detected depth, and outputting the audio signal subjected to 3D processing. Thus, it is possible to output the audio signal in correspondence with the depth of the 3D image during 3D image display.

Abstract: According to one embodiment, a video display apparatus is provided. The video display apparatus includes: a margin generating module which adds a peripheral margin to an input first 3D image signal for generating a 3D image in a case where the first 3D image signal has no peripheral margin; and a 3D image generating module which compensates for a second 3D image signal in the margin, generates the 3D image based on the first and second 3D image signals, and outputs the 3D image to a video display unit.

Abstract: Described is a stereoscopic display (telepresence) system that includes a depth cue adjustment mechanism for changing screen disparity to move a fixation distance of a viewer (subject) closer to a focus distance, thereby providing more desirable viewing conditions. In one aspect, the depth cue adjustment mechanism adjusts a depth cue by moving the fixation distance forward, and/or by moving the focus distance backward. Also described is detecting encroachment, where the object is perceived as being too close to the subject viewer for comfort, and adjusting one or more depth cues (e.g., object scale) to counteract the sensation of the encroachment.

Abstract: There is provided a display device including a display unit which periodically arranges and displays a plurality of images and a parallax barrier which is disposed in front of a pixel plane of the display unit and separates light from the display unit. The display device includes a disparity extraction unit which extracts information on a distribution of disparities between the view images, a parameter calculation unit which calculates a shift amount based on the disparity distribution information, a shift processing unit which performs shift processing on at least one of the view images based on the calculated shift amount, and a mapping processing unit which rearranges the at least one shift-processed view image on the display unit.

Abstract: Provided is a video transmission device that includes: a transmission signal output portion that outputs a video signal that causes two-dimensional video or three-dimensional video to be displayed, an audio signal that causes audio to be output, and a control signal including information relating to the video signal and the audio signal; and a control portion that controls content of the control signal output from the transmission signal output portion. When the video signal switches from three-dimensional video to two-dimensional video, the control portion does not stop output of the video signal from the transmission signal output portion, and controls the transmission signal output portion such that information indicating that the video signal output from the transmission signal output portion has switched to two-dimensional video is included in information indicating that the video signal is three-dimensional video that is output from the transmission signal output portion.

Abstract: Described herein is a multi-view display (based on spatial and/or temporal multiplexing) having an optimization mechanism that dynamically adjust views based upon detected state changes with respect to one or more views. The optimization mechanism determines viewing parameters (e.g., brightness and/or colors) for a view based upon a current position of the view, and/or on the multi-view display's capabilities. The state change may correspond to the view (a viewer's eye) moving towards another viewing zone, in which event new viewing parameters are determined, which may be in anticipation of entering the zone. Another state change corresponds to more views being needed than the display is capable of outputting, whereby one or more existing views are degraded, e.g., from 3D to 2D and/or from a personal video to a non-personal view. Conversely, a state change corresponding to excess capacity becoming available can result in enhancing a view to 3D and/or personal.

Abstract: According to one embodiment, a video display apparatus includes a cabinet; and a glasses housing box. The glasses housing box is provided in the cabinet and configured to house at least one pair of shutter glasses.

Abstract: A game apparatus displays a virtual space on a stereoscopic LCD (hereinafter referred to as 3D display) allowing for an autostereoscopic display, and images a stereoscopic image for displaying an object in a three-dimensional manner and a planar image for displaying the object in a two-dimensional manner (hereinafter referred to as 2D display) in the virtual space with virtual cameras. A computer performs a 3D display on the stereoscopic LCD by utilizing the imaged stereoscopic image and a 2D display on the stereoscopic LCD by utilizing the imaged planar image. Furthermore, the computer accepts an input from a button, a microphone, etc. to control the object. Then, in a case that a non-input state continues past a predetermined time period during the 3D display, the 3D display is switched to the 2D display.

Abstract: A display system utilizes a tilting sensor in a viewing device to transmit a wireless signal containing tilting information to a display device when a person who puts on the viewing device has tilting movements about an axis that connects between the viewing device and the display device. The display device adjusts a multimedia content displayed on a panel according to the tilting information by physically rotating the panel about the same axis or rotating the multimedia content about the same axis before the content is displayed on the panel to synchronize with the tilting angle of the viewing device.

Abstract: A storage medium encoded with a display control program and executable by a computer of a display control device capable of interacting with an input device, for controlling a display capable of providing stereoscopic display, is provided. The present display control program stored in the storage medium includes zoom control instructions for performing zoom processing of a stereoscopic image based on an operation input accepted by operation input acceptance instructions, parallax control instructions for adjusting parallax of the stereoscopic image based on the operation input accepted by the operation input acceptance instructions, and display control instructions for causing the display to display the stereoscopic image subjected to zoom processing in accordance with the zoom control instructions, with parallax adjusted in accordance with the parallax control instructions.

Abstract: A device for displaying stereoscopic video images on a screen includes a receiving unit, signal processing unit, and display unit. The receiving unit receives stream data including left-view frames and right-view frames of stereoscopic images. The signal processing unit alternately extracts left-view frames and right-view frames from the stream data. Over one frame period of the stereoscopic video images, the signal processing transmits a pair of a left-view frame and a right-view frame when the control information indicates a 3D playback mode, and transmits only a left-view frame when the control information indicates a 2D playback mode. The display unit displays each frame transmitted from the signal processing unit for a predetermined time on the screen.

Abstract: A liquid crystal drive unit performs overdrive processing such that when driving a liquid crystal panel so as to increase a brightness toward a target brightness determined by a left-eye video signal or a right-eye video signal, the liquid crystal drive unit drives the liquid crystal panel in accordance with a drive amount corresponding to a brightness of not less than the target brightness and, when driving the liquid crystal panel so as to reduce the brightness toward the target brightness, the liquid crystal drive unit drives the liquid crystal panel in accordance with a drive amount corresponding to a brightness of not more than the target brightness. In the overdrive processing, the drive amount corresponding to the same target brightness differs depending on a scanning position on a display screen of the liquid crystal panel.

Abstract: Provided are a stereoscopic display device and stereoscopic display system, and a stereoscopic display device and glasses for stereoscopic video image observation, which are capable of reducing flicker attributable to the influence of a fluorescent lamp while preventing increase in crosstalk. Specifically, provided is a stereoscopic display system provided with: a stereoscopic display device which displays left-eye video images and right-eye video images alternatively in terms of time, the left-eye video images and right-eye video images being based on inputted left-eye video signals and right-eye video signals; and glasses for stereoscopic observation which comprise left-eye shutter and right-eye shutter configured to adjust quantities of light passing through the glasses toward the respective left and right eyes, and with which the left-eye video images and right-eye video images are observed.

Abstract: A game device 10 displays an image on an upper LCD 22 capable of producing stereoscopic display using two images. Based on two captured images of a predetermined image-capture object captured respectively by two image-capturing devices, the game device 10 calculates a positional relationship between the predetermined image-capture object and each of the image-capturing devices. Then, the game device 10 determines a zero-parallax distance using at least one of the positional relationships so that it is a distance in accordance with a distance from the image-capturing device to the image-capture object, and determines display positions of the two captured images to be displayed on the upper LCD 22 in accordance with the zero-parallax distance.

Abstract: Independently processing planes of display data is provided by a method of outputting a video stream. The method includes retrieving from memory a first plane of display data having a first set of display parameters and post-processing the first plane of display data to adjust the first set of display parameters. The method further includes retrieving from memory a second plane of display data having a second set of display parameters and post-processing the second plane of display data independently of the first plane of display data. The method further includes blending the first plane of display data with the second plane of display data to form blended display data and outputting the blended display data.

Abstract: A game device 10 sets a reference distance for a distance from a real camera in an image-capturing direction, and displays a right captured image and a left captured image in a display area so that a reference point, which is a point that is away from the real camera by the reference distance, is displayed at a center in the display area. Thus, where an image produced by using an augmented reality technique is stereoscopically displayed, it is possible to display a virtual image in a manner easy to view.

Abstract: The frame-parallax-adjustment-amount generating unit outputs, as first parallax data, parallax data of an image portion protruded most among image portions protruded more than a first reference value from a pair of frame images forming a three-dimensional image. The pixel-parallax-adjustment-amount generating unit outputs, as second parallax data, parallax data of an image portion retracted more than a second reference value from the pair of frame images. The adjusted-image generating unit generates a pair of image output data by moving the entire pair of image input data to the inner side based on the first parallax data and moving an image portion retracted more than the second reference value of the pair of image input data based on the second parallax data to adjust a parallax amount and outputs the pair of image output data.

Abstract: In a stereoscopic video imaging display system, stereoscopic video can be reproduced without adjustment on a display side even with different models of stereoscopic video displaying apparatus. The present invention is suggested to attain the object described above. A stereoscopic video imaging display system reproducing the state of stereoscopy with high fidelity is provided. A virtual field-of-view frame (defined as a reference window) is set in a field of view of a stereo camera configured of paired imaging units each configured of a shooting lens and an imaging pickup device placed on left and right in parallel to each other, and the reference window is projected in a reduced manner by the left and right shooting lenses to form an image on each of the left and right image pickup devices. Image data of an image of the reference window (in the window) formed on the left and right image pickup devices is read, and stereoscopic video data (defined as standard stereoscopic video data) is sent.

Abstract: Provided are a shutter glasses for a 3D image display, a 3D image display system including the same, and a manufacturing method thereof. Shutter glasses for a 3D image display system according to an exemplary embodiment of the present invention include a left eye shutter and a right eye shutter. At least one of the left eye shutter and the right eye shutter includes a MEMS element controlling an opening and a closing of the at least one of the left eye shutter and the right eye shutter.

Abstract: According to one embodiment, an image output apparatus is provided. The image output apparatus includes: an image data order-change module configured to input images from a plurality of systems, to change the order of the images, and to output the images continuously; a glasses shutter controller configured to generate a signal synchronized to an output of the images; and a corrected image generation block configured to correct the images such that coloring of successive images approaches each other.

Abstract: A non-transitory three-dimensional image signal includes a first image component, a second component for creating a three-dimensional image in combination with the first image component, and a text component that includes text-based subtitles and/or presentation graphics-based bitmap images for including in the three-dimensional image. A shared Z-location component includes Z-location information describing the depth location of the text component within the three-dimensional image. The signal is rendered by rendering the three-dimensional image from the first image component and the second component. The rendering includes rendering the text-based subtitles and/or presentation graphics-based bitmap images in the three-dimensional image. Further, the rendering of the text component includes adjusting the depth location of the text-based subtitles and/or presentation graphics-based bitmap images based on the shared Z-location component.

Abstract: A display method includes: time-divisionally displaying a plurality of stereoscopic vision images corresponding to a plurality of perspectives, through time-divisionally displaying a left-eye image and a right-eye image configuring each of the plurality of stereoscopic vision images corresponding to the respective perspectives; detecting an azimuth or respective azimuths in which one or more shutter eyeglasses are located, in which the shutter eyeglasses including a left-eye shutter and a right-eye shutter; and allowing the left-eye shutter and the right-eye shutter in one or more shutter eyeglasses located in the azimuth corresponding to the perspective of the stereoscopic vision image currently displayed to be open and closed, based on a detection result thereof, and in synchronization with a left-eye-image display timing and a left-eye-image display timing for each of the stereoscopic vision images corresponding to the respective perspectives.

Abstract: An image processing apparatus includes components explained below. A parallax calculating unit receives input of image input data Da1 and Db1, calculates a parallax amount in each of a plurality of divided regions, and outputs a plurality of parallax data T1. A frame-parallax calculating unit outputs, based on the parallax data T1 in a projecting direction, frame parallax data T2. A frame-parallax correcting unit outputs frame parallax data after correction T3 using the frame parallax data T2 of a plurality of frames. A parallax-adjustment-amount calculating unit outputs, based on parallax adjustment information S1 and the frame parallax data after correction T3, parallax adjustment data T4. An adjusted-image generating unit outputs, based on the parallax adjustment data T4, image output data Da2 and Db2.

Abstract: A method of operating a stereo display device comprises addressing a display such that a stereo image is addressed in one field period by presenting left and right eye images in sequence with line-by-line addressing. A backlight is controlled in line-by-line manner with a different addressing rate to the addressing rate of the images. A shutter arrangement for a viewer is controlled by opening a shutter associated with one eye of the viewer when the respective image is displayed.