Abstract: Method for determining a disparity value of a disparity of each of a plurality of points on an object, the method including the procedures of detecting by a single image detector, a first image of the object through a first aperture, and a second image of the object through a second aperture, correcting the distortion of the first image, and the distortion of the second image, by applying an image distortion correction model to the first image and to the second image, respectively, thereby producing a first distortion-corrected image and a second distortion-corrected image, respectively, for each of a plurality of pixels in at least a portion of the first distortion-corrected image representing a selected one of the points, identifying a matching pixel in the second distortion-corrected image, and determining the disparity value according to the coordinates of each of the pixels and of the respective matching pixel.

Abstract: A method that includes capturing depth information associated with a first field of view of a depth camera. The depth information is represented by a first plurality of depth pixels. The method also includes capturing color information associated with a second field of view of a video camera that substantially overlaps with the first field of view of the depth camera. The color information is represented by a second plurality of color pixels. The method further includes enhancing color information represented by at least one color pixel of the second plurality of color pixels to generate an enhanced image. The enhanced image adjusts an exposure characteristic of the color information captured by the video camera. The at least one color pixel is enhanced based on depth information represented by at least one corresponding depth pixel of the first plurality of depth pixels.

Abstract: A 3D camera comprises first and second laterally displaced optical imaging systems each comprising one or more lenses. The optical imaging systems also each comprise one or more actuators arranged to move one or more lenses of the respective optical imaging system, and a digital image analyser configured to evaluate the respective field of view of first and second images of a stereoscopic image pair obtained respectively from the first and second optical imaging systems and to generate a disparity value based on a disparity between the respective fields of view. The 3D camera is arranged in operation to adjust the field of view of one or more images generated by the first and second optical imaging systems responsive to the disparity value so as to reduce the disparity between the respective fields of view of stereoscopic image pairs obtained from the first and second optical imaging systems.

Abstract: According to one embodiment, an information processing apparatus executes a browser and player software plugged in the browser. The player software is configured to play back video content received from a server. A capture module captures two-dimensional video data from the player software, the two-dimensional video data being obtained by playback of the video content. A converter converts the captured two-dimensional video data to three-dimensional video data, the three-dimensional video data includes left-eye video data and right-eye video data. A three-dimensional display control module displays a three-dimensional video on a display based on the left-eye video data and right-eye video data.

Abstract: The present invention relates to a surface scanning system, which enables obtaining three dimensional models of the geometries of the objects particularly having shiny or specular surfaces, and which comprises at least one light source, a moving mechanism that enables the light source to move relative to the object to be scanned, at least one camera, a moving mechanism that enables the camera to move relative to the object to be scanned, a moving mechanism that enables the object to be scanned to move in order for it to be viewed from different angles, at least one controller that controls the light source, camera and the moving mechanisms.

Abstract: A method and apparatus for performing auto-convergence on a frame of a stereoscopic image or video based on at least one auto-focus point. The method includes retrieving a location of focus points from the image, estimating the disparity of focus points in the image, determining the disparity of the frame for the stereoscopic image or video, and shifting the frame to automatically adjust the convergence of the fame for the stereoscopic image or video.

Abstract: Distortion correction with different correction accuracy is performed on images acquired in accordance with an image pick-up mode for a 3D moving image, a 3D still image, and the like, and an image cut-out process corresponding to an optical axis deviation amount of each of right and left photographing optical systems is also performed thereon, whereby optical axis deviation is corrected. In this case, an optical axis deviation amount corresponding to a current image pick-up mode is read out from among optical axis deviation amounts after distortion correction, the optical axis deviation amounts being stored in advance into an EEPROM at the time of adjustment before shipment and corresponding to respective image pick-up modes. Distortion correction corresponding to the current image pick-up mode is performed on right and left images acquired in accordance with the current image pick-up mode.

Abstract: This invention provides an apparatus for stereoscopic imaging. The stereoscopic imaging apparatus includes: a first optical imaging lens group, a second optical imaging lens group, a first flat reflector, a second flat reflector, a third reflector, a single image sensor, and an image processing circuit. The first and the second optical imaging lens groups receive light from outside respectively. The first and the second flat reflectors are used to perform the first reflection of the light from their corresponding first and second optical imaging lens groups respectively. The third reflector is located between the first flat reflector and the second flat reflector, which is used to perform the second reflection of the light from the first reflection. The single image sensor receives the light of the second reflection on its imaging plane to form two parallel images. The image processing circuit processes image signals of the image sensor to form stereoscopic image signals.

Abstract: A camera body includes a body mount, an imaging element, and a controller. If the interchangeable lens unit has a first optical system configured to form a left-eye optical image in a first region and a second optical system configured to form a right-eye optical image in a second region, the controller produces left-eye image data from an image signal corresponding to the first region, and produces right-eye image data from an image signal corresponding to the second region. If the interchangeable lens unit has a third optical system configured to form a left-eye optical image in a second region and a fourth optical system configured to form a right-eye optical image in a first region, the controller produces left-eye image data from an image signal corresponding to the second region, and produces right-eye image data from an image signal corresponding to the first region.

Abstract: An arrangement for determining a body condition score of an animal comprises a three-dimensional camera system directed towards the animal and provided for recording at least one three-dimensional image of the animal; and an image processing device connected to the three-dimensional camera system and provided for forming a three-dimensional surface representation of a portion of the animal from the three-dimensional image recorded by the three-dimensional camera system; for statistically analyzing the surface of the three-dimensional surface representation; and for determining the body condition score of the animal based on the statistically analyzed surface of the three-dimensional surface representation.

Abstract: An apparatus, computer readable medium, and a method of controlling a digital photographing apparatus comprising a plurality of optical systems, the method including deriving shake information from the plurality of optical systems; and determining a base optical system from among the plurality of optical systems according to the shake information.

Abstract: A method for constructing a 3D representation of a subject comprises capturing, with a camera, a 2D image of the subject. The method further comprises scanning a modulated illumination beam over the subject to illuminate, one at a time, a plurality of target regions of the subject, and measuring a modulation aspect of light from the illumination beam reflected from each of the target regions. A moving-mirror beam scanner is used to scan the illumination beam, and a photodetector is used to measure the modulation aspect. The method further comprises computing a depth aspect based on the modulation aspect measured for each of the target regions, and associating the depth aspect with a corresponding pixel of the 2D image.

Abstract: A stereoscopic 3-D imaging apparatus has a camera and a wedged optical component attachable to the front of the camera. The wedged optical component is rotatable around the front of the camera using a rotating device, and the rotating device controls the rotation speed of the wedged optical component. The camera is capable of capturing stereoscopic 3-D images, resulting in lower costs and a simple capture process.

Abstract: A mole monitoring system comprising an imaging station adapted to record at least two temporally-distinct images of a mole, wherein said imaging station comprises an interface module adapted to transmit said images to a remote storage device; and control logic adapted to retrieve said images from said remote storage device and to compare a parameter across said at least two images of said mole, wherein a difference in the parameter is indicative of the mole being potentially associated with melanoma.

Abstract: An object of the present invention is to provide a detection device of a planar area, which suppresses matching of luminance values in areas other than a planar area, and non-detection and erroneous detection of the planar area arising from an error in projection transform. The detection device of a planar area includes an image obtaining section for obtaining a left image 100 and a right image 110; a planar area aligning section 30 for setting given regions of interest to the obtained left image 100 and the right image 110, and through use of a geometric transform function that matches the region of interest of the right image with the region of interest of the left image, performing geometric transform to generate a geometric transform image 130; and a planar area detecting section 55 for detecting a planar area 140 based on the geometric transform image 130 and the region of interest of the right image 110.

Abstract: The present invention provides method for creating point to point metallic contact and bridges between two structures at the nanoscale. Embodiment methods permit for the formation of individual and arrays of silver-gallium nanostructures bridges by mobilizing a gallium microdroplet and bringing in contact with silver coated surface. The invention also describes an example instrument for formation of individual and multiple nanostructure bridges at selective location and orientation. Example structures including multiple nanostructure bridges on the top of each other, suspended nanostructure sensors and actuators, nanowire bonded that provides electrical contacts between nanostructures (e.g. carbon nanotube, Graphene, nanowires) and microelectronic circuits are enabled by this invention.

Abstract: The invention provides an electronic equipment having a laser component and capability of inspecting leak of laser and an inspecting method for inspecting leak of laser thereof. The electronic equipment according to the invention includes a three-dimensional image-capturing device. According to the invention, the three-dimensional image-capturing device is controlled to capture a two-dimensional image, and to measure an actual depth map. The captured two-dimensional image is processed to obtain an estimated depth map. The invention selectively determines that the laser component occurs leak of laser or malfunctions in accordance with the estimated depth map and the actual depth map.

Abstract: The disclosure is disclosed an apparatus of processing an image and a method thereof. According to the present invention, the method of transmitting a broadcast signal for 3-dimensional, 3D, service, may include encoding video data for a 3D service into a stream, generating first service information including a first descriptor including first information for specifying that a type of the stream is a video stream and second information for specifying a type of a component included in the video stream is a 3D video component and transmitting a broadcast signal including the encoded stream and the generated service information.

Abstract: A conveyer method and system comprising at least one conveyer unit conveying an object; a lighting unit; a vision unit; wherein the lighting unit illuminates the object in the line of sight of the vision unit as the vision unit takes at least a first image at a first angle and a second image at a second angle of each surface of the object on the conveyer unit.

Abstract: The method included herein is an alternative energy wireless solar panel wind turbine communication server appliance node mechanism with built in communications server array, wireless energy and communications mechanism with protection, sharing, storage, accessing, authentication, battery management, certification, processing attachment and tracking mechanisms. The method and mechanism is utilized via networked servers, solar panels, and wireless electronic devices (online and offline) as well as mobile (wireless) communications devices built into one waterproof, temperature, controlled self sensing hardware package. The method and mechanism also works as part of a kilowatt hour banking system, and thermal passive solar control mechanism for living spaces.

Abstract: A camera system includes a first camera, a second camera, a detachable mechanism capable of attaching and detaching the first and second cameras to and from each other. The first camera has a first lens barrel having a first optical axis, and configured to form a first optical image, and a first imaging device configured to receive the first optical image to generate an electrical image signal. The second camera has a second lens barrel having a second optical axis different from the first optical axis and configured to form a second optical image, and a second imaging device configured to receive the second optical image to generate an electrical image signal. When the first and second cameras simultaneously or successively perform shooting, an angle of view of the first lens barrel is wider than that of the second lens barrel.

Abstract: An image capturing system for capturing a stereo pair of images comprising a first image and a second image. The system comprises a first camera operable to capture the first image of the stereo pair of images, and a second camera operable to capture the second image of the stereo pair of images. The system further comprises a communication link operable to connect the first camera with the second camera so that the first camera can communicate with the second camera. The first camera is operable to transmit second camera control data to the second camera via the communication link so as to control functions of the second camera which relate to the capture of the second image.

Abstract: In a method of determining the 3D coordinates of the surface (1) of an object (2), the surface (1) of the object (2) is scanned by a scanner (3) for acquiring object data. The position and orientation of the scanner (3) for acquiring positional data are determined, in particular by a tracking system (4). The object data and the positional data are transferred to a controller (5) which determines the 3D coordinates of the surface (1) of the object (2) from them. To improve such a method, the object data are wirelessly transmitted from the scanner (3) to the controller (5).

Abstract: In one embodiment, a system includes a turbine comprising multiple components in fluid communication with a working fluid. The system also includes an imaging system in optical communication with at least one component. The imaging system is configured to receive a two-dimensional image of the at least one component during operation of the turbine, and to map the two-dimensional image onto a three-dimensional model of the at least one component to establish a composite model.

Abstract: There is described a camera device for capturing the image of an object, the camera device comprising: a lens arrangement for focusing the image of the object onto an image capture device for capturing the image of the object; and a movable element operable to move the focussed light relative to the image capture device in one direction, wherein the amount by which the element is movable is determined by the amount of adjustment required to the position of the image on the image capture device in said direction, wherein the lens arrangement comprises at least one lens having an image circle whose size is dependent upon the maximum displacement of the movable element in said one direction.

Abstract: The present invention consists of a 3D video recording system, able to record two camera signals at one time in one unit, that emulates the natural human vision, that keeps the human scale of perception. The video signal is displayed in a Goggle system unit with two screens, one for each lens of the camera (right and left) on its respective side, and stereophonic audio. This system is able to record and play the 3D view and experience of being wherever the camera system is and/or goes, giving the operator or user the possibility of recording in many ways and environments, giving the user many options for recording and giving him/her the experience of being present, space and time, in the middle of a recorded event.

Abstract: A method for automatically generating a three-dimensional reference model as terrain information for a seeker head of an unmanned missile. A three-dimensional terrain model formed from model elements obtained with the aid of satellite and/or aerial reconnaissance is provided. Position data of the imaging device at least at one planned position and a direction vector from the planned position of the imaging device to a predetermined target point in the three-dimensional terrain model are provided. A three-dimensional reference model of the three dimensional terrain model is generated that incorporates only those model elements and sections of model elements from the terrain model, which in the viewing direction of the direction vector from the planned position of the imaging device, are not covered by other model elements and/or are not located outside the field of view of the imaging device.

Abstract: The present invention relates to an image information processing apparatus, an image capture apparatus, an image information processing method, and a program that allow a depth value to smoothly transition in a scene change of stereoscopic content. In a case where a rapid change occurs between a depth value 711 in an end portion of a chapter #i and a depth value 714 in a start portion of a chapter #(i+1), entire depth values are temporarily corrected to zero (infinity) on the occasion of the change between the chapters #i and #(i+1). On this occasion, a depth value is allowed to transition for a period of time of, for example, 0.5 seconds or longer. An original depth value 721 in the end portion of the chapter #i is allowed to sequentially transition so that a depth value 722 of the end frame becomes zero. Similarly, a depth value 723 of the start frame in the chapter #(i+1) is set to zero, and is allowed to sequentially transition to an original depth value 724 in the start portion.

Abstract: A subject (1) is illuminated by a light source (2) and observed by a pair of cameras (3). The outputs of the cameras (3) are input to an image processor (4), operated under the control of a controller (5), which also controls operation of the light source (2). The light source (2) transmits radiation in a frequency range that is limited substantially to a region of increased opacity in the atmospheric transmission spectrum. This may enable the illumination to be quite clearly discriminated, even at relatively great distances and in bright daylight.

Abstract: Provided is a camera device which is capable of estimating a road shape ahead of a target vehicle or capable of determining whether or not the target vehicle needs to be decelerated by controlling a brake before a curve, even in the situation where a white line of a traveling road or a roadside three-dimensional object is difficult to detect. A camera device 105 including a plurality of image capturing units 107 and 108 which each take an image of a traveling road ahead of a target vehicle 106, includes: a three-dimensional object ahead detection unit 114 which detects three-dimensional objects ahead 101 existing in a vicinity of a vanishing point of the traveling road 102 on the basis of the images picked up by the plurality of image capturing units 107 and 108; and a road shape estimation unit 113 which estimates a road shape of a distant portion on the traveling road 102 on the basis of a detection result detected by the three-dimensional object ahead detection unit 114.

Abstract: A three-dimensional (3D) camera apparatus is provided which includes a first camera module and a second camera module, which are folded or unfolded through rotation and horizontally move in the unfolded state to adjust a distance therebetween. The 3D camera apparatus includes a camera housing, the first camera module and the second camera module which are rotatably or movably coupled to the camera housing, are folded to or unfolded from the camera housing through rotation, and horizontally move in the unfolded state to adjust a distance there between. A driving unit is provided in the camera housing to allow rotation or horizontal movement of the first camera module and the second camera module, and a guide movement portion provided in the camera housing to guide horizontal movement of the first camera module and the second camera module.

Abstract: The present invention provides a model forming apparatus that can simply and efficiently form a three-dimensional model of an object using previously obtained three-dimensional model data of the object as a starting point. The apparatus comprises a photographing section 110 for photographing an object 10, an image data storage section 130 for storing three-dimensional model data of the object, a display section 140 for displaying a three-dimensional model based on the three-dimensional model data of the object 10, a recognition section 150 for recognizing an unmodeled part of the object 10 based on the three-dimensional model data stored in the image data storage section 130, and a photographing instruction information section 160 for obtaining photographing instruction information related to photographing the unmodeled part. The photographing section 110 photographs the object 10 in accordance with the photographing instruction information obtained by the photographing instruction information section 160.

Abstract: An image processing apparatus includes: an acquisition mechanism acquiring image data of a 3D image including a left-eye image and a right-eye image, and superimposed-area information being information on a superimposed area included in the left-eye image and the right-eye image; and a disparity detection mechanism detecting an amount of disparity in an area excluding the superimposed area identified by the superimposed-area information of the left-eye image and the right-eye image.

Abstract: A reproduction apparatus reproduces image data of a left eye image and a right eye image of a 3D content recorded in a recording medium. The recording medium stores information about black border widths according to each parallax amount in periphery of right and left image frames between the left eye image and the right eye image. A post processing unit generates and outputs a border-attached left eye image and a border-attached right eye image by inserting an image having the obtained black border width according to the parallax amount in the periphery of the right image frame and an image having the obtained black border width according to the parallax amount in the periphery of the left image frame into the left eye image and the right eye image. The present invention can be applied to an image processing apparatus for processing image data of 3D images.

Abstract: A system for detecting a position of an object such as a surgical tool in an image guidance system includes a camera system with a detection array for detecting visible light a processor arranged to analyze the output from the array. Each object to be detected carries a single marker with a pattern of contrasted areas of light and dark intersecting at a specific single feature point thereon. The pattern includes components arranged in an array around the specific location arranged such that the processor is able to detect an angle of rotation of the pattern around the location and which are different from other markers of the system such that the processor is able to distinguish each marker from the other markers.

Abstract: An image processing apparatus includes a first acquiring unit, a second acquiring unit, and a correction processor. The first acquiring unit acquires an intended viewing environment parameter, which is a parameter of an intended viewing environment, together with image data of a three-dimensional picture. The second acquiring unit acquires an actual viewing environment parameter, which is a parameter of an actual viewing environment for a user viewing the three-dimensional picture. The correction processor corrects the three-dimensional picture in accordance with a difference between the acquired intended viewing environment parameter and the acquired actual viewing environment parameter.

Abstract: An image processing apparatus executes a distortion correction on coordinates of a target pixel in a virtual viewpoint image based on distortion characteristics of a virtual camera and calculates coordinates in the virtual viewpoint image after the distortion correction. The image process apparatus calculates ideal coordinates in a captured image from the coordinates in the virtual viewpoint image after the distortion correction and calculates real coordinates in the captured image from the ideal coordinates in the captured image based on distortion characteristics of an imaging unit. The image process apparatus calculates a pixel value corresponding to the real coordinates from image data of the virtual viewpoint image and corrects the pixel value corresponding to the real coordinates based on ambient light amount decrease characteristics of the imaging unit and ambient light amount decrease characteristics of the virtual camera.

Abstract: The invention relates to an optronic system for identifying an object including a photosensitive sensor, communication means and a computerized processing means making it possible to reconstruct the object in three dimensions on the basis of the images captured by the sensor and to identify the object on the basis of the reconstruction. The photosensitive sensor is able to record images of the object representing the intensity levels of an electromagnetic radiation reflected by the surface of the object captured from several observation angles around the object and the communication means are able to transmit the said images to the computerized processing means to reconstruct the object in three dimensions by means of a tomography function configured to process the images of the object representing the intensity levels of an electromagnetic radiation reflected by the surface of the object.

Abstract: A time of flight, TOF, camera unit for an optical surveillance system and an optical surveillance system comprising such a TOF camera is disclosed. The TOF camera unit comprises a radiation emitting unit for illuminating a surveillance area defined by a first plane, a radiation detecting unit for receiving radiation reflected from said surveillance area and for generating a three-dimensional image from said detected radiation, and at least one mirror for at least partly deflecting said emitted radiation into at least one second plane extending across to said first plane and for deflecting the radiation reflected from said second plane to the radiation detecting unit. The TOF camera and the at least one mirror may be ar-ranged on a common carrier element.

Abstract: Provided is an image processing apparatus, method and computer-readable medium. The image processing apparatus may perform modeling of a function that enables correction of a systematic error of a depth camera, using a single depth camera and a single calibration reference image. Additionally, the image processing apparatus may calculate a depth error or a distance error of an input image, and may correct a measured depth of the input image using a modeled function.

Abstract: An image composition apparatus includes a synchronization unit for synchronizing a motion capture equipment and a camera; a three-dimensional (3D) restoration unit for restoring 3D motion capture data of markers attached for motion capture; a 2D detection unit for detecting 2D position data of the markers from a video image captured by the camera; and a tracking unit for tracking external and internal factors of the camera for all frames of the video image based on the restored 3D motion capture data and the detected 2D position data. Further, the image composition apparatus includes a calibration unit for calibrating the tracked external and internal factors upon completion of tracking in all the frames; and a combination unit for combining a preset computer-generated (CG) image with the video image by using the calibrated external and internal factors.

Abstract: A board inspection device includes an irradiation device for irradiating light on a printed circuit board, a CCD camera for imaging the irradiated part of the circuit board. First image processing is performed for a first exposure time such that an inspection target region is free of brightness saturation, and second image processing is performed using a second exposure time corresponding to the insufficiency of the first exposure time relative to a certain exposure time appropriate for measurement of a measurement standard region. Thereafter, image data for three-dimensional measurement is prepared for the inspection target region using the value of image data obtained by the first image processing, and image data for three-dimensional measurement is prepared for the measurement standard region using a value obtained by summing the image data value acquired by the second image processing and the image data value acquired by the first image processing.

Abstract: The invention relates to an image recording device, an image reproduction device and a system with such a recording and reproduction device. The recording device comprises an optical axis (1) and a concave mirror (10), whereas through the use of said concave mirror (10) an image of an object (12) can be generated through reflection, the object being located at or projected onto the optical axis (1) near the focal point (11) of the concave mirror (10).

Abstract: An apparatus is provided for capturing images including a base, and image capture adjustment mechanism, a first camera, and a second camera. The base is constructed and arranged to support an alignable array of cameras. The image capture adjustment mechanism is disposed relative to the base for adjusting an image capture line of sight for a camera relative to the base. The first camera is carried by the base, operably coupled with the image capture adjustment mechanism, and has an image capture device. The first camera has a line of sight defining a first field of view adjustable with the image capture adjustment mechanism relative to the base. The second camera is carried by the base and has an image capture device. The second camera has a line of sight defining a second field of view extending beyond a range of the field of view for the first camera in order to produce a field of view that is greater than the field of view provided by the first camera. A method is also provided.

Abstract: A signal processing apparatus includes: a phase matching unit which matches phases of a left image signal and a right image signal input from two cameras which are disposed so as to be matched with an interval between both eyes of a human to image the same object; and a phase adjusting unit which moves in a horizontal direction by a predetermined distance both or any one of a left image and a right image displayed on a display unit by the left image signal and the right image signal by changing the phases of the left image signal and/or the right image signal in the horizontal direction based on displacement amounts of phases designated by an operating unit, and outputs the left image signal and the right image signal obtained by changing disparity between the left image and the right image.

Abstract: A three-dimensional (3D) video imaging device includes a liquid crystal layer, a color filter plate, a lens array, light shielding elements and an optical sheet, and the lens array includes lens elements installed onto a surface of the color filter plate, and the light shielding elements are installed onto a surface of the color filter plate or lens element or formed directly in the color filter plate, and the light shielding elements are arranged with an interval apart from each other and corresponding to the intervals among the lens elements, and a combination of the liquid crystal layer, color filter plate and optical sheet constitutes an LCD panel structure for installing the lens array and the light shielding elements into the LCD panel directly to reduce the thickness and simplify the manufacturing process, while preventing stray lights, improving the clarity of 3D images, and maintaining a high-brightness display effect.

Abstract: A method of generating a plurality of depth maps for a plurality of images comprises receiving a first image, obtaining information relating to the shot defined by the first image, generating a depth map for the first image according to a first schema, receiving a second image, obtaining information relating to the shot defined by the second image, detecting a change in the obtained information between the first and second image, and generating a depth map for the second image according to a second schema, the second schema having a complexity different from that of the first schema. The method can comprise accessing first and second depth models. In one embodiment, the first schema comprises the first depth model, and the second schema comprises the second model, and in a second embodiment the first schema comprises the first depth model, and the second schema comprises a combination of the first and the second depth models.

Abstract: The present invention provides a method for providing 3D stereo image. The method comprises: accepting a request submitted from a client system by an intermediate server system; selecting an image server based on the request and responding to the client system from the image server through a processor in the intermediate server system; requesting at least one 3D stereo image by the client system from the image server according to the response; and providing the at least one 3D stereo image to the client system by the image server system. The present invention also provides a system for providing 3D stereo image.

Abstract: A method for monitoring a target area using a video monitor device that controls a video camera located at the target area to capture left images and right images of the target area. The video monitor device analyzes each of the left and right images to form a combined image, compresses all of the combined images to generate compressed images, and stores the compressed images into a storage system. When an event happened in the target area, a compressed image corresponding to the event time is obtained from the storage system. The video monitor device decompresses the compressed image to generate a 3D image of the target area, and displays the 3D image on a display device.

Abstract: Embodiments are disclosed that relate to private video presentation. For example, one disclosed embodiment provides a system including a display surface, a directional backlight system configured to emit a beam of light from the display surface and to vary a direction in which the beam of light is directed, and a spatial light modulator configured to form an image for display via the directional backlight system. The system further includes a controller configured to control the optical system and the light modulator to display a first video content item at a first viewing angle and a second video content item at a second viewing angle.