Abstract: An imaging apparatus includes first and second polarizers that polarize light from a subject in perpendicular polarization directions. Third and fourth polarizers are alternately disposed in a photodetection plane of an imaging device along a second direction perpendicular to a first direction, along which the first polarizer and the second polarizer are connected to each other, in such a way that the third and fourth polarizers extend in the second direction, and have polarization directions that are parallel to that of the first and second polarizers. An image processor processes image data produced by the imaging device such that image data from light passing through the first and third polarizers are handled as first image data for displaying stereoscopic images and image data from light passing through the second and fourth polarizers are handled as second image data for displaying the stereoscopic images.

Abstract: An imagery axle turning method for stereo vision and an apparatus thereof. The method turns an imagery axle of a stereo vision apparatus to capture images, and constructs a 3D image from the captured 2D images. The imagery axle turning method is realized by rotating the imagery axles of the first lens unit and second lens unit to an angle ?, so as to have different aspect ratios for the first image and second image. Thereby, the 3D image formed from the stereo vision reconstruction steps can achieve a user's expectation of capturing images with an appropriate aspect ratio. This invention also provides specific stereo vision apparatus corresponding to various applications by the imagery axle turning method.

Abstract: Disclosed is a charged particle radiation apparatus capable of capturing a change in a sample due to gaseous atmosphere, light irradiation, heating or the like without exposing the sample to atmosphere. The present invention relates to a sample holder provided with a sample stage that is rotatable around a rotation axis perpendicular to an electron beam irradiation direction, the sample holder being capable of forming an airtight chamber around the sample stage. A sample is allowed to chemically react in any atmosphere, and three-dimensional analysis on the reaction is enabled. A sample liable to change in atmosphere can be three-dimensionally analyzed without exposing the sample to the atmosphere.

Abstract: Systems and methods are described to allow arbitrary 3D data to be rendered to a 2D viewport on a device with limited processing capabilities. 3D vertex data is received comprising vertices and connections conforming to coordinate processing constraints. A position and orientation of a camera in world co-ordinates is received to render the 3D vertex data from. A processing zone of the plurality of processing zones the position of the camera is in is determined. The vertices of the 3D vertex data assigned to the determined processing zone are transformed based on the position and orientation of the camera for rendering to the viewport.

Abstract: A method for calibrating a three dimensional time-of-flight camera system mounted on a device, includes determining at a first instant a direction vector relating to an object; determining an expected direction vector and expected angle for the object to be measured at a second instant with reference to the device's assumed trajectory and optical axis of the camera; determining a current direction vector and current angle at the second instant; determining an error represented by a difference between the current direction vector and the expected direction vector; and using the error to correct the assumed direction of the main optical axis of the camera system such that said error is substantially eliminated.

Abstract: A method and system to determine the disparity associated with one or more textured regions of a plurality of images is presented. The method comprises the steps of breaking up the texture into its color primitives, further segmenting the textured object into any number of objects comprising such primitives, and then calculating a disparity of these objects. The textured objects emerge in the disparity domain, after having their disparity calculated. Accordingly, the method is further comprised of defining one or more textured regions in a first of a plurality of images, determining a corresponding one or more textured regions in a second of the plurality of images, segmenting the textured regions into their color primitives, and calculating a disparity between the first and second of the plurality of images in accordance with the segmented color primitives.

Abstract: A computer-readable storage medium can be configured to store code to trigger, when a computing device is in a stereoscopic mode, generation of a stereoscopic image based on a first image captured using a first image capture device in a first portion of a computing device and based on a second image captured using a second image capture device in a second portion of the computing device. The code including code to trigger, when in a multi-image mode, concurrent display of at least a portion of a third image captured using the first image capture device in a first region of a display and at least a portion of a fourth image captured using the second image capture device in a second region of the display mutually exclusive from the first region of the display. The code including code to receive an indicator configured to trigger the computing device to change between the stereoscopic mode and the multi-image mode.

Abstract: A system for visually superimposing a first image that may be in motion over and/or under a second image that may be in motion, the system including at least one generating device to provide a first image and a second image, a display device to display the first image and second image superimposed with each other, and an adjustment device for reconfiguring the first image and/or the second image to a size in agreement with a non-adjusted first image and/or second image, to a size in agreement with the display device, and/or to a size acceptable by a user. The first image or the second image is displayed in a different media than the other image to allow for a distinction to be made between movements occurring in both images. A method for visually superimposing a first image that may be in motion over and/or under a second image that may be in motion is further disclosed.

Abstract: In one embodiment, an element 106 transform, with a voltage, non-polarized light into plane polarized light with an arbitrary plane of polarization. A synchronizer 112 gives the plane of polarization control element 106 an instruction to rotate the plane of polarization, thereby getting the plane of polarization of the illumination rotated and casting that polarized light toward the object. At the same time, the synchronizer 112 sends a shooting start signal to an image sensor 110, thereby getting video. The synchronizer 112 performs these processing steps multiple times. A captured video signal is sent to an image processing processor 108, where LL, RR and CC images are separately generated as images of light rays that have passed through left and right polarizing areas and the central non-polarizing area and left and right parallax signals are generated and sent to a 3D display section 122.

Abstract: Provided is an apparatus and method for an eye contact using composition of a front view image, the apparatus including: an image acquiring unit to acquire a multi-camera image; a preprocessing unit to preprocess the acquired multi-camera image; a depth information search unit to search for depth information of the preprocessed multi-camera image; and an image composition unit to compose the front view image using the found depth information.

Abstract: A virtual object placed in a three-dimensional virtual space and a user interface are stereoscopically displayed on an upper LCD of a game apparatus. An image used for adjusting a display position of the user interface in the depth direction is displayed on a lower LCD. A user adjusts a UI adjustment slider by using a touch pen to adjust the parallax of the user interface. This allows the adjustment of the parallax of the user interface separately from the parallax of the three-dimensional virtual space, and thereby the depth perception of the user interface can be adjusted.

Abstract: A stereoscopic imaging method where a pixel matrix is divided into groups such that parallax information is received by one pixel group and original information is received by another pixel group. The parallax information may, specifically, be based on polarized information received by subgroups of the one pixel, group and by processing all of the information received multiple images are rendered by the method.

Abstract: In certain embodiments, a system includes a controller operable to access an image signal generated by a camera. The accessed image signal corresponds to one or more features of the rear of a dairy livestock. The controller is further operable to determine positions of each of the hind legs of the dairy livestock based on the accessed image signal. The controller is further operable to determine a position of an udder of the dairy livestock based on the accessed image signal and the determined positions of the hind legs of the dairy livestock. The controller is further operable to determine, based on the image signal and the determined position of the udder of the dairy livestock, a spray position from which a spray tool may apply disinfectant to the teats of the dairy livestock.

Abstract: A 3D imaging device includes: a first imaging unit having a first variable power lens and a first driving unit that drives the first variable power lens along an optical axis; a second imaging unit having a second variable power lens and a second driving unit that drives the second variable power lens along an optical axis; a storage unit that temporarily stores the first photographic image and the second photographic image; a parallax determining unit that determines a parallax in a horizontal direction between the first photographic image and the second photographic image; a parallax adjusting unit that generates a third photographic image excluding a first parallax adjusting image from the first photographic image and a fourth photographic image excluding a second parallax adjusting image from the second photographic image; and a photographic information recording unit that records information about a magnification of the first variable power lens.

Abstract: In accordance with an example embodiment of the present invention, an apparatus is disclosed. The apparatus includes a stereoscopic camera system, a user interface, and a disparity range system. The user interface includes a display screen. The user interface is configured to display on the display screen an image formed by the stereoscopic camera system. The image corresponds to a scene viewable by the stereoscopic camera system. The disparity range system is configured to detect a disparity for the scene. The disparity range system is configured to provide an indication on the display screen in response to the detected disparity.

Abstract: An optical system for capturing three-dimensional images of a three-dimensional object is provided. The optical system includes a projector for structured illumination of the object. The projector includes a light source, a grid mask positioned between the light source and the object for structured illumination of the object, and a first Wavefront Coding (WFC) element having a phase modulating mask positioned between the grid mask and the object to receive patterned light from the light source through the grid mask. The first WFC element is constructed and arranged such that a point spread function of the projector is substantially invariant over a wider range of depth of field of the grid mask than a point spread function of the projector without the first WFC element.

Abstract: A method of generating image data having disparity (or parallax) using a digital image-capturing device, as well as a digital image-capturing device are disclosed. The feature is to rotate a focus lens of the digital image-capturing device at two opposite directions or to place a refractive sheet having two opposite refractive directions in front of an image sensor of the digital image-capturing device. Also disclosed are a method and a device of generating stereoscopic image using the generated image data having disparity.

Abstract: The present invention provides an imaging apparatus which generates, based on a captured image, a depth map of an object with a high degree of precision.

Abstract: A method of enhancing 3D image information density, comprising providing a confocal fluorescent microscope and a rotational stage. 3D image samples at different angles are collected. A deconvolution process of the 3D image samples by a processing unit is performed. A registration process of the deconvoluted 3D image samples by the processing unit is performed. An interpolation process of the registered 3D image samples by the processing unit is performed to output a 3D image in high resolution.

Abstract: An apparatus for controlling video and/or audio material, the apparatus comprising: at least one sensor that generates a signal responsive to a physiological parameter in a user's body; a processor, that receives the signal and determines an emotional state of the user responsive to the signal; and a controller that controls the V/A material in accordance with the emotion state of the user.

Abstract: Claimed is an imaging and diagnostic system and method for focal scanning of a specimen using optical projection tomographic microscopy and computer generation of three-dimensional images. One embodiment comprises a light source and an imaging system having an adjustable focal position which acquires a plurality of digital 2D projection images of biological tissue placed within a specimen tube that translates and rotates past an optical lens in a helical pattern. A computer captures the images and generates a 3D composite image. Also claimed is a system and method for preparing a specimen for optical microscopy. One embodiment comprises fixing, staining, and/or optically clearing biological tissue within a microfluidic specimen chamber prior to placement in a specimen tube.

Abstract: Systems and methods for reducing interference between multiple infra-red depth cameras are described. In an embodiment, the system comprises multiple infra-red sources, each of which projects a structured light pattern into the environment. A controller is used to control the sources in order to reduce the interference caused by overlapping light patterns. Various methods are described including: cycling between the different sources, where the cycle used may be fixed or may change dynamically based on the scene detected using the cameras; setting the wavelength of each source so that overlapping patterns are at different wavelengths; moving source-camera pairs in independent motion patterns; and adjusting the shape of the projected light patterns to minimize overlap. These methods may also be combined in any way. In another embodiment, the system comprises a single source and a mirror system is used to cast the projected structured light pattern around the environment.

Abstract: A system for three-dimensional visualization of object in a scattering medium includes a sensor for receiving light from the object in the scattering medium and a computing device coupled to the sensor and receiving a plurality of elemental images of the object from the sensor. The computing device causes the elemental images to be magnified through a virtual pin-hole array to create an overlapping pattern of magnified elemental images. The computing device also averages overlapping portions of the element images to form an integrated image.

Abstract: [PROBLEMS] To provide a shape measuring apparatus having a configuration which enables the operation for aligning a measuring probe and a candidate object to be simplified when the shape of the candidate object is measured. [MEANS TO SOLVE THE PROBLEMS] A shape measuring apparatus is configured so that an optical probe 20 moves relative to a candidate object, and the three-dimensional shape of the candidate object is measured without contact from information obtained by the optical probe 20. The shape measuring apparatus includes a gantry structure 10 allowing the optical probe 20 to be moved to a predetermined position relative to the candidate object, and a support device 30 allowing the candidate object to be rotated around at least two rotational axes.

Abstract: A method for generating stereoscopic images with retinal rivalry effects. The method includes retrieving primary eye images and alternate eye images from memory. These images are filmed from horizontally offset cameras but include the same content. The method continues with processing the alternate eye images to introduce retinal rivalry such as by including a set of frames that have differing content from a corresponding set of frames from the primary eye images. The differing content, for example, may include an object rendered for the alternate eye that was not rendered in the primary eye images. The method may further include editing the primary eye images by inserting a transition and then editing the alternate eye images to perform the transition (e.g., a dissolve or cut) at a temporally offset transition point such as several frames later to introduce frames that differ in content from one eye stream to the other.

Abstract: An image processing apparatus includes an image obtaining unit configured to obtain a plurality of images, which are images of the same subject captured from different viewpoints; an image offset correction unit configured to modify the plurality of images obtained by the image obtaining unit on the basis of parameters for correcting image offset and generate a correction image for each of the obtained images; an evaluation value calculation unit configured to calculate, as an evaluation value, an integration value, for an entire screen, of an error amount indicating a degree at which association in a parallax direction among the plurality of correction images generated by the image offset correction unit is not possible; and an update unit configured to change a parameter that is necessary for association in the parallax direction among the parameters so as to update the parameter so that the evaluation value becomes a minimum.

Abstract: A system and method are disclosed living room movie creation. Movies can be directed, captured, and edited using a system that includes a depth camera. A virtual movie set can be created by using ordinary objects in the living room as virtual props. The system is able to capture motions of actors using the depth camera and to generate a movie based thereon. Therefore, there is no need for the actors to wear any special markers to detect their motion. A director may view scenes from the perspective of a “virtual camera” and record those scenes for later editing.

Abstract: Systems and methods for collaborative imaging include a device for collaborative image capturing device comprising a computational image sensor including a imaging sensor configured to detect light signals from a field of view, and one or more processors configured to control at least one parameter of the imaging sensor and to adjust the at least one imaging sensor parameter based on a respective light signal detected by one or more other computational image sensors, and a network interface configured to exchange data with the one or more other computational image sensors, wherein the exchanged data indicates the respective light signals detected by the one or more other computational image sensors.

Abstract: An imaging apparatus includes a display unit, an imaging unit adapted to successively capture an image of a subject and successively generate image data, and a controller adapted to control a display of a display object displayed on the display unit to change the display object in a specific direction at a predetermined timing in a predetermined recording mode.

Abstract: A method and apparatus for generating three dimensional image information using a single imaging path having an associated field of view is disclosed. The method involves selectively receiving first and second images through respective first and second portions of the single imaging path, the first portion having a first perspective viewpoint within the field of view and the second portion having a second perspective viewpoint within the field of view. The first and second images together are operable to represent three dimensional spatial attributes of objects within the field of view. The method also involves varying an extent of the first and second portions of the imaging path to cause the first and second perspective viewpoints to change location while receiving the first and second images, the change in perspective viewpoint location providing a corresponding change in the representation of the three dimensional spatial attributes.

Abstract: A plurality of video input units generate video frames and provide shooting characteristics. A 3D video frame generator creates a 3D video frame by combining a plurality of video frames, which are provided from the plurality of video input units, respectively, and provides 3D video frame composition information indicating a composition type of the plurality of video frames included in the 3D video frame, and resolution control information indicating adjustment/non-adjustment of resolutions of the video frames. A 3D video frame encoder outputs an encoded 3D video stream by encoding the 3D video frame provided from the 3D video frame generator. A composition information checker checks 3D video composition information including the shooting information, the 3D video frame composition information, and the resolution control information. A 3D video data generator generates 3D video data by combining the 3D video composition information and the encoded 3D video stream.

Abstract: A method for streaming and viewing a user's video and audio experiences includes removably mounting an image recording device in close proximity to a user's eyes such that the image recording device is operable to record the user's visual and audio experiences. A real time signal is created by the image recording device, including at least one of video footage, still images, or audio captured by the image recording device. The real time signal is streamed from the image recording device to a server using at least one communications network. The real time signal is transmitted from the server to a remote communication device for producing an output that is perceptible to a viewer so that said viewer can experience the user's environment and the user's relationship to the environment.

Abstract: According to one embodiment, a camera module has a first image sensor, a second image sensor and an image processing apparatus. The image processing apparatus outputs an image signal for a stereoscopic display. A second sub-camera module including the second image sensor has a signal processing unit. The second image is acquired by the second sub-camera module. The signal processing unit executes signal processing for adjusting a second image corresponding to a difference between the numbers of pixels of the first image sensor and the second image sensor.

Abstract: A monitoring device for monitoring an entry or exit area of an access opening of a vehicle to a building component having an optical camera system including a first camera for providing a first image and a second camera for providing a second image, so that a stereo image can be generated from the first and the second image. The monitoring device also includes an analysis unit, such that at least one object in the entry or exit area can be detected from the stereo image and/or a position of the building component relative to at least one part of the vehicle can be determined from the stereo image for monitoring an entry or exit area.

Abstract: A mobile platform detects and tracks a three-dimensional (3D) object using occlusions of a two-dimensional (2D) surface. To detect and track the 3D object, an image of the 2D surface with the 3D object is captured and displayed and the 2D surface is detected and tracked. Occlusion of a region assigned as an area of interest on the 2D surface is detected. The shape of the 3D object is determined based on a predefined shape or by using the shape of the area of the 2D surface that is occluded along with the position of the camera with respect to the 2D to calculate the shape. Any desired action with respect to the position of the 3D object on the 2D surface may be performed, such as rendering and displaying a graphical object on or near the displayed 3D object.

Abstract: An imaging apparatus includes an imaging unit configured to capture a subject to generate an image, a detector configured to detect tilt of the imaging apparatus; a storage unit configured to store the images generated by the imaging unit with the images being related to the detection results of the detector, and a controller configured to select at least two images as images for generating a three-dimensional image from the plurality of images stored in the storage section based on the detection results related to the images.

Abstract: A three-dimensional (3D) image signal processing method increases signal-to-noise ratio by performing pixel binning on depth information obtained by a 3D image sensor, without changing a filter array detecting the depth information. The processing method may be used in a 3D image signal processor, and a 3D image processing system including the 3D image signal processor.

Abstract: There is provided a system and method for counting riders arbitrarily positioned in a vehicle. There is provided a method comprising receiving, from at least one camera filtered to capture non-visible light, video data corresponding to the vehicle passing through a light source filtered for non-visible light, converting the video data into a 3D height map, and analyzing the 3D height map to determine a number of riders in the vehicle. The camera and light source may be mounted in a permanent position using a gantry or another suitable system where the vehicle travels across the camera and light system in a determined manner, for example through a vehicle track. Multiple cameras may be used to increase detection accuracy. To detect persons in the 3D height map, the analysis may search for height patterns indicating heads and shoulders of persons, compare against height map templates, or use machine-learning methods.

Abstract: Provided are an apparatus for obtaining status information of a crystalline lens and equipment including the same. The apparatus generates a reference light and directs the reference light to be perpendicularly incident to the crystalline lens. At least one light receiving unit that is disposed beyond a visual field of the eyeball is configured to directly receive scattered lights generated when the reference light incident from the light source unit to the crystalline lens is scattered against the crystalline lens. The apparatus calculates thickness information of the crystalline lens using information about the scattered lights received by the at least one light receiving unit.

Abstract: The data processing unit generates image data such that the camera unit is caused to acquire a plurality of data captured with a focal length changed in response to instructions for imaging operation by an operation unit and three-dimensional display data are generated from the plurality of captured data based on the correlation of focused images which are different according to the focal lengths of the acquired plurality of captured data with the focal length thereof. Since each of the plurality of data captured with a focal length changed is different in a focused image according to the focal length, the plurality of captured data is subjected to the processing for generating three-dimensional display data based on the correlation of a focused image different according to the focal length with the focal length to allow the three-dimensional display data to be generated.

Abstract: A method of producing a stereo image from a digital video includes receiving a digital video including a plurality of digital images captured by an image capture device; and using a processor to produce stereo suitability scores for at least two digital images from the plurality of digital images. The method further includes selecting a stereo candidate image based on the stereo suitability scores; producing a stereo image from the selected stereo candidate image wherein the stereo image includes the stereo candidate image and an associated stereo companion image based on the plurality of digital images from the digital video; and storing the stereo image whereby the stereo image can be presented for viewing by a user.

Abstract: An electronic interaction apparatus for providing a 3D MMI is provided with a processing unit. The processing unit determines a first length between an object positioned at a first time and a surface formed by two digital camera modules, and a second length between the object positioned at a second time and the surface. Also, the processing unit determines a third length between the object positioned at a third time and the surface, and determines a depth in a virtual 3D space corresponding to the object positioned at the third time according to the first length, the second length, and the third length. Particularly, the virtual 3D space is displayed in a display screen, the third time is later than the first time and the second time, and the third length is longer than the first length and shorter than the second length.

Abstract: A method and arrangement for estimating 3D-models in a street environment using a stereo sensor technique. At least one pair of sensors are arranged in pairs and are mounted on a bracket. Each pair of sensors is positioned in a common plane. The sensors of each pair are positioned based upon contrast information such that low levels of contrasts in an image plane are avoided. The pairs of sensors are mutually positioned relative to an essentially horizontal plane of the bracket such that the sensors of a sensor pair are positioned horizontally at a distance from each other and one of the sensors above the horizontal plane of the bracket and the other under the horizontal plane.

Abstract: A closed-loop control system for stereoscopic video capture is provided. At least two motorized lenses are positioned in accordance with specified parameters to capture spatially-disparate images of a scene. The motorized lenses focus light on a corresponding one of the at least two sensors, which generate image streams. One or more processors execute instructions to provide a stream analyzer and a control module. The stream analyzer receives the image streams from the sensors and analyzes the image streams and the specified parameters in real time; the stream analyzer then modifies the image streams and generates metadata. The control module then receives and analyzes the image streams and metadata and transmits updated parameters to a control mechanism that is coupled to the at least two motorized lenses. The control mechanism then modifies operation of the at least two motorized lenses in real time in accordance with the updated parameters.

Abstract: The present invention relates to an image processing apparatus and method, and a program capable of displaying a stereoscopic image having a more appropriate parallax. An image capture apparatus 11 captures a plurality of photographic images P(1) to P(N) in a state of being turned around a center of turn C11. In response to an instruction for displaying an image in which a specific region in an area to be captured is displayed, the image capture apparatus 11 selects two photographic images between which parallax having a predetermined magnitude occurs in a subject in the specific region from among photographic images in which the specific region is displayed, and crops regions in which the subject in the specific region is displayed from these photographic images to produce right-eye and left-eye sub-images. These sub-images have an appropriate parallax and therefore are displayed simultaneously using a lenticular method or the like. Thus, a stereoscopic image with depth can be displayed.

Abstract: A method for determining a range map for a scene comprising: projecting a sequence of binary illumination patterns onto a scene from a projection direction; capturing a sequence of binary pattern images of the scene; projecting a sequence of periodic grayscale illumination patterns onto the scene, each periodic grayscale pattern having the same frequency and a different phase, the phase of the grayscale illumination patterns each having a known relationship to the binary illumination patterns; capturing a sequence of grayscale pattern images of the scene; analyzing the sequence of captured binary pattern images to determine coarse projected x coordinate estimates for a set of image locations; analyzing the sequence of captured grayscale pattern images to determine refined projected x coordinate estimates for the set of image locations; and forming a range map according to the refined projected x coordinate estimates.

Abstract: 3D time-of-flight camera and a corresponding method for acquiring information about a scene. To increase the frame rate, the proposed camera comprises a radiation source, a radiation detector comprising one or more pixels, wherein a pixel comprises two or more detection units each detecting samples of a sample set of two or more samples and an evaluation unit that evaluates said sample sets of said two or more detection units and generates scene-related information from said sample sets. Said evaluation unit comprises a rectification unit that rectifies a subset of samples of said sample sets by use of a predetermined rectification operator defining a correlation between samples detected by two different detection units of a particular pixel, and an information value calculator that determines an information value of said scene-related information from said subset of rectified samples and the remaining samples of the sample sets.

Abstract: A portable communication device having self image generating module for displaying self-image, comprises a control unit, a first communication module coupled to the control unit; a display coupled to the control unit and formed on a front side of the portable communication device. An image capture module is coupled to the control unit and being set on a rear side of the portable communication device to facilitate to capture stereo image. A self-image generating module is coupled to the control unit and being formed on the front side of the portable communication device to capture user self image. A display segmentation unit is coupled to the control unit to divide the display into at least area to display a receiving image of communication party and self image captured by the self-image generating module.

Abstract: A universal serial bus device includes at least two input interfaces, an input interface control unit, and an image input interface. Each input interface of the at least two input interfaces is coupled to an image sensor for receiving images generated by the image sensor and an identification bit corresponding to the image sensor. The input interface control unit is coupled to the at least two input interfaces for controlling the at least two input interfaces to receive images generated by the at least two image sensors and identification bits corresponding to the at least two image sensors in turn when the images generated by the at least two image sensors are used for synthesizing three-dimensional images. The image input interface is used for receiving and transmitting the images generated by the at least two image sensors and the identification bits corresponding to the at least two image sensors.

Abstract: Predetermined three-dimensional video parameter settings may be dynamically adjusted based on scene content. One or more three-dimensional characteristics associated with a given scene may be determined. One or more scale factors may be determined from the three-dimensional characteristics. The predetermined three-dimensional video parameter settings can be adjusted by applying the scale factors to the predetermined three-dimensional video parameter settings. The scene may be displayed on a three-dimensional display using the resulting adjusted set of predetermined three-dimensional video parameters.