Abstract: A three-dimensional measurement apparatus selects points corresponding to geometric features of a three-dimensional shape model of a target object, projects a plurality of selected points corresponding to the geometric features onto a range image based on approximate values indicating the position and orientation of the target object and imaging parameters at the time of imaging of the range image, searches regions of predetermined ranges respectively from the plurality of projected points for geometric features on the range image which correspond to the geometric features of the three-dimensional shape model, and associates these geometric features with each other. The apparatus then calculates the position and orientation of the target object using differences of distances on a three-dimensional space between the geometric features of the three-dimensional shape model and those on the range image, which are associated with each other.

Abstract: According to one embodiment, a histogram generator configured to generate a histogram based on luminance levels of pixels represented by video signals; and a determination module configured to determine whether the video signals represent a stereoscopic video based on the histogram

Abstract: The instant application describes a stereoscopic video processing system that includes a vector detector configured to detect a motion vector associated with frames of an input video signal; an output image generator configured to generate an output video signal by generating interpolation frames, and arranging the frames of the input video signal and the interpolation frames along a time axis; an output controller configured to control interpolation phases associated with the interpolation frames; and a feature amount calculator configured to calculate a feature amount in image regions of the frames of the input video signal used for generating the interpolation frames. The output image generator is configured to generate the interpolation frames by generating an interpolation image in an image region having the feature amount larger than a threshold and by using the input video signals without change in other image regions.

Abstract: A method for compensating for cross-talk in a 3-D projector-camera system having a controller including a processor and system memory and at least two channels, includes the steps of calibrating the projector-camera system, computing cross-talk factors applicable to the projector-camera system, and correcting new image data for cross-talk based upon the computed cross-talk factors. The system is calibrated by sequentially projecting and capturing, with a camera, a calibration image for each channel, to capture cross-talk between the channels. The controller can compute the cross-talk factors based upon the captured calibration images.

Abstract: The present invention utilizes determining the similarity between two adjacent frames to accelerate the computation of disparity maps of a stereo video. In a first stage, color similarity of pixels between the two adjacent frames is estimated. In a second stage, a plurality of feature points is selected from a previous frame, then the corresponding positions is located in a next frame for the feature points, and an average displacement of the feature points between the previous and the next frames is estimated. If the two adjacent frames are determined to be similar, the disparity map of the next frame can be obtained according to the disparity map of the previous frame. In such a manner, the computation of disparity maps of the stereo video can be accelerated.

Abstract: An image analysis apparatus for processing a 3D video signal comprising successive pairs of images representing different respective views of a scene to generate an image depth indicator comprises a correlator configured to correlate image areas in one of the pair of images with image areas in the other of the pair of images so as to detect displacements of corresponding image areas between the two images; a graphics generator configured to generate a graphical representation of the distribution of the displacements, with respect to a range of possible displacement values, across the pair of images; and a display generator for generating for display the graphical representation in respect of a current pair of images and in respect of a plurality of preceding pairs of images, so as to provide a time-based representation of variations in the distribution of the displacements.

Abstract: A 3D image processing device capable of processing a 3D image signal, the 3D image signal including a left eye image signal and a right eye image signal and realizing a 3D The 3D image processing device includes: a parallax detecting unit operable to receive the left eye image signal and the right eye image signal, detect a parallax of an object within the 3D image, and output the detected parallax as parallax information; and an image processing unit operable to perform, based on the parallax information, a predetermined image processing to an image region of an object of at least one of the left eye image signal and the right eye image signal, the object having a parallax within a predetermined range.

Abstract: According to one embodiment, a video output apparatus includes an input module, an output module, and a transmitter. The input module is configured to input a 2D content and a 3D content. The output module is configured to alternately output a first image and a second image required to display images having a parallax at image output timings based on the 3D content, and to repetitively output 2D content images at the image output timings based on the 2D content. The transmitter is configured to transmit, to 3D image glasses which open and close a right-eye shutter and a left-eye shutter, timing control signals, which indicate open/close timings of the right-eye shutter and the left-eye shutter in synchronism with the image output timings of the output module, for both the 2D content and the 3D content.

Abstract: A two-dimensional filter operates in accordance with a three-dimensional television signal having a basic layer, a reference processing unit layer and an enhancement layer. The two-dimensional filter generates a processed base layer reference picture from a base layer reference picture via a one-dimensional horizontal filter that horizontally filters the base layer reference picture to generate a first filtered base layer reference picture and a one-dimensional vertical filter, coupled to, but separable from, the one-dimensional horizontal filter, that vertically filters the first filtered base layer reference picture to generate a pre-processed base layer reference picture.

Abstract: A gateway includes a communications interface and processing circuitry and establishes communications with at least one service provider device and with a serviced client device. The gateway receives video on demand instructions from the serviced client device and transmits the video on demand instructions to the cloud server. The gateway then receives streamed video content from the cloud server, the streamed video content video processed based upon the video on demand instructions and, during some operations the streamed video content having video on demand icons formed therein. The gateway then transmits the streamed video content to the serviced client device. The advanced video processing instructions may be three-dimensional processing instruction, texturing, or another type of advanced video processing. The cloud server may also service a Video on Demand session for the serviced client device.

Abstract: The invention relates to a method for processing a stereoscopic image, said stereoscopic image comprising a first image and a second image comprising at least one first black band. In order to reduce the display errors linked to black bands, the method comprises steps for: estimation of at least one first parameter representative of said at least one first black band, generation of a third image from said stereoscopic image by disparity compensated interpolation, said third image comprising at least one second black band, at least one second parameter representative of said at least one black band being a function of at least one first parameter. The invention also relates to a corresponding stereoscopic image processing module and a display device comprising the processing module.

Abstract: An automated method for producing 3D stereoscopic image pairs (left and right) from a single image source, such as a 2D video frame. The resulting 3D stereoscopic video content is then displayable as 3D content, e.g., on a compatible 3D display, or available for further processing. According to the method, and for each frame in a sequence, first and second luminosity maps are generated. The first luminosity map is applied to the frame to generate a first image of a stereoscopic pair, and the second luminosity map is applied to the frame to generate the second (corresponding) image of the stereoscopic pair. Each pixel in each frame is processed independently to generate the respective luminosity maps.

Abstract: A video signal processing apparatus includes: an input unit which receives a 3D input signal including a left-eye input signal and a right-eye input signal; an image processing unit which performs image processing on the 3D input signal inputted to the input unit, to generate a 3D output signal including a left-eye output signal and a right-eye output signal; an image converting unit which extracts one of the left-eye output signal and the right-eye output signal from the 3D output signal generated by the image processing unit, to generate a 2D output signal; a 3D output terminal which outputs the 3D output signal generated by the image processing unit; and a 2D output terminal which outputs the 2D output signal generated by the image converting unit, in parallel with the output of the 3D output signal from the 3D output terminal.

Abstract: A 3D video processor that outputs a left-eye image and a right-eye image to be superimposed on main video includes: a left-eye object processing unit that outputs the left-eye image; a right-eye object processing unit that outputs the right-eye image; and an image output control unit that controls the left-eye object processing unit and the right-eye object processing unit so that the images are synchronously outputted. The left-eye object processing unit determines if image output preparation of the left-eye image is completed. The right-eye object processing unit determines if image output preparation of the right-eye image is completed. The image output control unit instructs to skip the output of both the images, when the image output preparation of one of the left-eye image and the right-eye image is not completed.

Abstract: A method implemented in a computing system for converting two-dimensional (2D) video to three-dimensional (3D) format comprises sampling the 2D video, wherein the sampling is performed non-linearly in one or more directions. The method further comprises determining depth information of one or more objects within the 2D video based on sampling information and transforming the 2D video to a 3D-compatible format according to the sampling and the depth information.

Abstract: According to one embodiment, according to one embodiment, a transmitter includes a first scaling module and a multiplexer. The first scaling module is configured to scale an image signal to a first resolution. The multiplexer is configured to assign a signal value of the scaled image signal, a signal value of an OSD (On Screen Display) to be superimposed on the image signal, blend information of the OSD and depth information of the OSD at predetermined positions in a transmission signal having a second resolution larger than the first resolution.

Abstract: Disclosed is a 3D video display device providing a first video inputted into a left eye and a second video inputted into a right eye, the 3D video display device including: a control information acquiring device receiving control information; and a 3D broadcasting receiving device controlling a binocular disparity between the first video and the second video by using the control information transferred from the control information acquiring device as a key. According to the present invention, since a 3D video is reconfigured considering a distance between the user and the 3D video display device acquired by a control information acquiring device, a user's preference, or the like, it is possible to provide the 3D video in which a user can perceive optimal depth perception.

Abstract: A cable broadcast receiver and a 3D video data processing method thereof are disclosed. The processing method includes receiving a cable broadcast signal including video data and SI, determining whether a 3D video service is provided through a channel by obtaining a 3D service ID from SI, obtaining 3D image format information indicating an image format of 3D video data from SI, and extracting 3D video data from the broadcast signal and decoding the extracted result. The broadcast receiver includes a receiving unit receiving a cable broadcast signal including video data and SI, a control unit determining whether a 3D video service is provided through a channel by obtaining a 3D service ID from the SI, and obtaining 3D image format information indicating an image format of 3D video data from the SI, and a video decoder extracting 3D video data from the broadcast signal, and decoding the extracted result.

Abstract: A pair of main-view and sub-view video streams and a graphics stream are recorded on a BD-ROM disc. Metadata is provided in each GOP in the sub-view video stream. The metadata includes offset information. The offset information specifies offset control for a plurality of pictures constituting a GOP. Offset control is to provide a left offset and right offset for the horizontal coordinates in a graphics plane to generate a pair of graphics planes, and to combine them separately with main-view and sub-view video planes. The sub-view video stream is packetized and multiplexed in a transport stream. A header of each TS packet includes a TS priority flag. TS packets containing the metadata have a different value of TS priority flag from TS packets containing sub-view pictures.

Abstract: A stereoscopic image aligning apparatus (200) automatically aligns image pairs for stereoscopic viewing in a shorter amount of time than conventional apparatuses, which is applicable to image pairs captured by a single sensor camera or a variable baseline camera, without relying on camera parameters.

Abstract: Displaying three-dimensional (3D) video content to low frame-rate display devices can involve sending 3D video content to a display device. One implementation includes sending a first image for viewing by a user's first eye to the display device via first video frame(s) and sending a second image for viewing by the user's second eye via second video frame(s). Additionally, the implementation includes transmitting an inter-frame blanking signal to a blanking device. The inter-frame blanking signal instructs the blanking device to blank concurrently both of the user's eyes during a transition period of the display device. During the transition period, the display device concurrently displays both a portion of the first video frame(s) and a portion of the second video frame(s).

Abstract: The present invention relates to an image output method for a display device which outputs three-dimensional contents, and to a display device employing the method, and more specifically, relates to: an image output method for a display device, wherein a judgment is made as to whether an image signal contains three-dimensional image data, the image signal is then subjected to image processing in accordance with whether or not it contains three-dimensional image data, and any three-dimensional image data contained in the image signal is output in 3D format; and to a display device employing the method.

Abstract: This disclosure describes techniques for estimating a depth of image objects for a two-dimensional (2D) view of a video presentation. For example, a plurality of feature points may be determined for a 2D view. The plurality of feature points may be used to estimate global motion, e.g., motion of an observer (e.g., camera), of the 2D view. For example, the plurality of feature points may be used to generate a global motion frame difference. The global motion frame difference may be used to create a depth map for the 2D view, which may be used to generate an alternative view of the video presentation that may be used to display a three-dimensional (3D) video presentation.

Abstract: The disclosure is regarding methods and apparatus for stereoscopic effect adjustment on video. The method for stereoscopic effect adjustment on video comprises receiving a 3D video, analyzing the 3D video for generating an analyzing result, and adjusting the 3D video according to a user preference input for stereoscopic effect and the analyzing result to generate a new 3D video. The apparatus for stereoscopic effect adjustment on video comprises a video analysis module, for receiving a 3D video and analyzing the 3D video to generate an analyzing result, and a 3D parameter adjustment module, for adjusting the 3D video according to a user preference input for stereoscopic effect and the analyzing result to generate a new 3D video.

Abstract: Methods for hierarchical hole-filling and depth adaptive hierarchical hole-filling and error correcting in 2D images, 3D images, and 3D wrapped images are provided. Hierarchical hole-filling can comprise reducing an image that contains holes, expanding the reduced image, and filling the holes in the image with data obtained from the expanded image. Depth adaptive hierarchical hole-filling can comprise preprocessing the depth map of a 3D wrapped image that contains holes, reducing the preprocessed image, expanding the reduced image, and filling the holes in the 3D wrapped image with data obtained from the expanded image. These methods are can efficiently reduce errors in images and produce 3D images from a 2D images and/or depth map information.

Abstract: A three dimensional [3D] video signal is processed in a video device (50). The device has generating means (52) for generating an output signal for transferring the video data via a high-speed digital interface like HDMI to a 3D display, which selectively generate a 3D display signal for displaying the 3D video data on a 3D display operative in a 3D mode, a 2D display signal for displaying 2D video data on the 3D display operative in a 2D mode, or a pseudo 2D display signal by including 2D video data in the output signal for displaying the 2D video data on the 3D display operative in the 3D mode. Processing means (53) detect a request to display 2D video data on the 3D display, while the 3D display is operative in the 3D mode, and, in response to the detection, the generating means are set to generate the pseudo 2D display signal for maintaining the 3D mode of the 3D display.

Abstract: A video signal processing apparatus includes a correction pixel determining unit configured to detect an edge and a background region of a left-eye image and a right-eye image so as to determine a pixel that is to be corrected, a correction amount map forming unit configured to calculate a correction amount for each pixel based on whether the pixel is determined as a correction pixel, so as to form a correction amount map of a screen, and an image correcting unit configured to add the correction amount map to each of the left-eye image and the right-eye image that are inputted, so as to obtain a correction image.

Abstract: Provided are an apparatus and method for generating a fully focused image. A depth map generation unit generates a depth map of an input image obtained by a multiple color filter aperture (MCA) camera. A channel shifting & alignment unit extractes subimages which include objects with same focal distance based on the depth map, and performing color channel alignment and removing out-of-focus blurs for each subimages obtained from the depth map. An image fusing unit fuses the subimages to generate a fully focused image.

Abstract: A video communication method includes: acquiring a plurality of 2D images corresponding to a talker using a 3D camera; adjusting a point of convergence of the plurality of 2D images using a feature point of the talker; detecting an object located between the talker and the 3D camera using the acquired plurality of 2D images; scaling an original sense of depth of the detected object to a new sense of depth; and generating a 3D talker image including the object with the new sense of depth and transmitting the 3D talker image to a 3D video communication apparatus of a listener.

Abstract: A broadcast transmitter, a broadcast receiver, and a 3D video data processing method are disclosed. The 3D video data processing method includes formatting 3D video data (S 9010) encoding the formatted 3D video data (S 9020), generating system information having 3D format information (S 9030) that includes information about 3D video data formatting and information about the encoding, and transmitting a broadcast signal including the 3D video data and the system information (S 9040). The 3D video data processing method includes receiving a broadcast signal including 3D video data and system information, obtaining 3D image format information by parsing the system information, decoding the 3D video data, scanning the decoded 3D video data according to the 3D image format information, and formatting the scanned video data.

Abstract: Provided are a device and method for providing a three-dimensional PIP image, for combining and outputting a main image with a PIP image. A device for providing a three-dimensional PIP image according to one embodiment of the present invention comprises: an image acquisition unit for acquiring a main three-dimensional image and a two-dimensional or three-dimensional PIP image from a broadcast signal, external device, or recording medium; a PIP-combining unit for combining the main image and the PIP image; and a three-dimensional formatter for formatting the combined image of the main image and the PIP image into a format that can be stereoscopically displayed. Accordingly, an image may be provided with a main three-dimensional image and a two-dimensional PIP image or a main three-dimensional image and a three-dimensional PIP image which are overlaid.

Abstract: The present invention relates to an information processing device, an information processing method, and a program, which allow an author to handle regarding a video plane to store a video image, which is a storage region where two images worth of storage regions of an L region to store an image for the left eye, and an R region to store an image for the right eye are collaterally disposed, only one of the L region and the R region. Of an API for L to set the size and position of an image to be stored in the L region, and an API for R to set the size and position of an image to be stored in the R region, one API sets the same size and same position as the size and position of said image set by the other API. Also, a graphics plane offset value and a PG offset value are subjected to scaling with a scaling ratio of an image to be stored in the video plane. The present invention may be applied to a BD player for playing a BD, or the like.

Abstract: A method for adapting 3D video content to a display under different viewing conditions is disclosed. The method has the steps of: retrieving a stereoscopic image pair; obtaining a maximum disparity value for the stereoscopic image pair; determining a largest allowable shift for the stereoscopic image pair using the obtained maximum disparity value; calculating an actual shift for a left image and a right image of the stereoscopic image pair using the determined largest allowable shift; and shifting the left image and the right image in accordance with the calculated actual shift.

Abstract: A method for performing display management regarding a three-dimensional (3-D) video stream is provided, where the 3-D video stream includes a plurality of sub-streams respectively corresponding to two eyes of a user. The method includes: dynamically detecting whether video information corresponding to all of the sub-streams is displayable; and when it is detected that video information corresponding to a first sub-stream of the sub-streams is not displayable, temporarily utilizing video information corresponding to a second sub-stream of the sub-streams to emulate the video information corresponding to the first sub-stream. An associated video display system is also provided.

Abstract: To provide a video processing device capable of seamlessly displaying 3D videos and 2D videos contained in a broadcasted 3D program. A video processing device for outputting a 2D video and a 3D video includes a reception unit receiving a video stream containing video frames, the video frames including 2D video frames for a 2D video and/or 3D video frames for a 3D video; a program judgment unit judging whether the video stream received by the reception unit contains a 2D program or a 3D program; and an output unit, when the program judgment unit judges that the video stream contains the 3D program, outputting the 2D video frames contained therein in a 3D video output format, and when the program judgment unit judges that the video stream contains the 2D program, outputting the 2D video frames contained therein in a 2D video output format.

Abstract: A method for adjusting 3D video images is provided. The method includes the steps of: receiving a 3D video, wherein the 3D video includes a plurality of frames, and each frame includes a plurality of image blocks; obtaining a binocular parallax value between a left eye image and a right eye image which related to each other in the 3D video; calculating displacement of each image block based on the locations of the same image block in the different frames and calculating the image complexity of the 3D video based on the displacements of the image blocks of the frames; converting the 3D video into a 2D video and displaying the 2D video when the image complexity is greater than a predetermined value, and adjusting the definition of depth of each image block in each frame of the 2D video, and displaying the 3D video when the image complexity is lower than the predetermined value, and adjusting the binocular parallax of each image block of each frame of the 3D video according the image complexity of the 3D video.

Abstract: In one example, an apparatus includes a processor configured to receive video data for two or more views of a scene, determine horizontal locations of camera perspectives for each of the two or more views, assign view identifiers to the two or more views such that the view identifiers correspond to the relative horizontal locations of the camera perspectives, form a representation comprising a subset of the two or more views, and, in response to a request from a client device, send information indicative of a maximum view identifier and a minimum view identifier for the representation to the client device.

Abstract: A transmitter according to the present invention includes a decoder that decodes a video signal received from outside and acquires identification information including a format concerning 2D or 3D of video from a layer corresponding to each frame of the video signal and a backend processor that performs spatial or temporal scaling of video data by the video data based on the identification information and, when the format of the video is switched, switches parameters for the scaling adjusting to switching timing.

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: In a video signal processing circuit, when a 2D video signal is transferred in a 3D transfer format from a video signal source, a one side mute control section provided in an input video control section determines whether the 2D video signal is on the L side or on the R side of the 3D transfer format. During a period of the one side (e.g., the L side) that is not used by the 2D video signal, the one side mute control section replaces data loaded on the one side in the video signal source with fixed data, and sends it through an input video control section, a color space changing section and a packet loading section in this order. This stops these three circuit sections from operating unnecessarily, thereby reducing the power consumption.

Abstract: In general, techniques are described for determining a vision-based quality metric for three-dimensional (3D) video. A device (12, 14) comprising a 3D analysis unit (24, 48) may implement these techniques to compute a 3D objective metric (36, 60). The 3D analysis unit (24, 48) estimates an ideal depth map (62, 70) that would generate a distortion limited image view using DIBR-based 3D video data (34) and then derives one or more distortion metrics (64, 72) based on quantitative comparison of the ideal depth map (62, 70) and a depth map (28, 58) used in the generation of the DIBR-based 3D video data (34). Based on the derived one or more distortion metrics (64, 72), the 3D analysis unit (24, 48) computes the objective metric (36, 60) to quantify visual quality of DIBR-based video data (34). The 3D objective metric (36, 60) may be used to alter or otherwise adjust depth estimation and encoding/decoding parameters to correct for expected visual discomfort.

Abstract: According to one embodiment, an image generator converts an input video signal to first and second divided signals to be displayed in first and second areas on one screen. First and second divided signal controllers receive the first and second divided signals, adjust the signals, and output the adjusted signals. The preparation-complete detector includes first and second frame memory groups to sequentially store a divided signal for a plurality of frames. First divided signal controller determines whether preparation to output video signals for the left and right eyes is complete or not. And First divided signal controller changes a memory selection state for reading the video signals for the left and right eyes from the first and second memory groups based on the determination indicating whether the preparation for output is complete or not complete.

Abstract: Disclosed herein are an image processing apparatus and a control method thereof. The image processing apparatus includes a receiver which receives a three-dimensional (3D) video signal; a video signal processor which scales the received 3D video signal; and a controller which controls the video signal processor to scale the 3D video signal to have adjusted depth if the 3D video signal is received through the receiver. Thus, there are provided an image processing apparatus and a control method of the same, which can adjust a cubic effect of depth of a 3D video signal through the existing scaler without a separate image reconstructing device for adjusting the cubic effect or depth of the 3D video signal.

Abstract: Active Space separates the Left Frame from the Right Frame in a frame packing format. A source device is expected to transmit a constant pixel value. A sink device is expected to ignore all data received during the Active space regardless of the value. Embodiments of the present invention involve the Source device to embed intelligent information in the Active Space in lieu of the recommended fixed pixel value. Then the Sink device may read the embedded information from the Active Space, and infer the transition between the left frame and the right frame which is useful, for example, to synchronize eyewear.

Abstract: A video signal processing apparatus includes a histogram detecting unit detecting a histogram of a luminance distribution of either one of a left-eye video signal and a right-eye video signal among input stereoscopic video signals, a gamma-curve calculating unit calculating a gamma curve based on the histogram detected by the histogram detecting unit, and a gamma-curve output unit correcting the left-eye video signal and the right-eye video signal based on the gamma curve calculated by the gamma-curve calculating unit.

Abstract: The invention relates to a method for video processing of at least one image of a video sequence, said video sequence comprising a plurality of image pairs, each image pair comprising a first image and a second image said first and second images being intended to form a stereoscopic image. In order to reduce display defects, the method comprises a step of generation of at least a third image by motion compensated temporal interpolation from at least two of said second images.

Abstract: A broadcast receiver and a method for processing 3D video data are disclosed. A method for processing video data of a broadcast receiver includes receiving a broadcast signal including a video stream, wherein the video stream includes a plurality of video stream sections having different viewpoints, acquiring viewpoint information indicating corresponding viewpoints of the video stream sections, and outputting an interface indicating a viewpoint of the video stream that is currently displayed according to the viewpoint information.

Abstract: A 3D video processor that outputs a left-eye image and a right-eye image to be superimposed on main video includes: a left-eye object processing unit that outputs the left-eye image; a right-eye object processing unit that outputs the right-eye image; and an image output control unit that controls the left-eye object processing unit and the right-eye object processing unit so that the left-eye image and the right-eye image are synchronously outputted. The left-eye object processing unit determines whether or not image output preparation of the left-eye image is completed. The right-eye object processing unit determines whether or not image output preparation of the right-eye image is completed. The image output control unit instructs to skip the output of both the left-eye image and the right-eye image, when the image output preparation of one of the left-eye image and the right-eye image is not completed.

Abstract: A stereoscopic system includes: a storage device; an image transforming module coupled to the storage device to receive therefrom image frame data of correlated first and second image sequences that are acquired from a source video stream, and configured to apply at least one of geometric distortion and geometric tilt processes to the image frame data of at least one of the first and second image sequences for outputting image frame data of corresponding first and second intermediate image sequences; a stereoscopic image sequence generating module coupled to the image transforming module for receiving the image frame data of the first and second intermediate image sequences therefrom, and configured to process the image frame data for obtaining image frame data of a stereoscopic image sequence; and a stereoscopic viewing device coupled to the stereoscopic image sequence generating module for enabling viewing of the stereoscopic image sequence by a user.

Abstract: A virtual three-dimensional presentation in accordance with the present invention includes three stereoscopic layers, a stereoscopic background layer, a stereoscopic video insert layer, and a stereoscopic three-dimensional foreground layer. A surface, the Z-sphere, is defined in the virtual three-dimensional space of the three-dimensional scene with reference to the aim point, the distance between the cameras, and the distance from the camera of the video scene, of a virtual stereoscopic camera looking at the three-dimensional scene being created. The separation of the virtual stereoscopic camera lens and distance to the aim point are set based on the stereoscopic cameras that are creating the video insert layer. The stereoscopic three-dimensional foreground layer scene may include a key which defines the transparency of objects in the foreground layer.