Abstract: An image-capturing device and associated method for selective exposure adjustment of an image, wherein, image data of a scene is acquired, the scene is displayed on d display unit, the scene is divided into a plurality of regions, and a level of exposure is chosen for at least one region from the plurality of regions.

Abstract: There is provided a user interface on a display unit of an image-capturing device for selective color balance adjustment of an image. The user interface allows for an image to be divided into a plurality of regions. A user may select one or more regions on the user interface. The user interface also includes a control unit for adjusting a color balance value for each of the selected regions on the user interface based on user input. The user interface allows for adjustment of the color balance value for different regions of an image prior to the image being written onto a recording medium by the image-capturing device.

Abstract: An image is displayed by determining a relative position and orientation of a display in relation to a viewer's head, and rendering an image based on the relative position and orientation. The viewer's eye movement relative to the rendered image is tracked, with at least one area of interest in the image to the viewer being determined based on the viewer's eye movement, and an imaging property of the at least one area of interest is adjusted. Computer-generated data is obtained for display based on the at least one area of interest. At least one imaging property of the computer-generated data is adjusted according to the at least one imaging property that was adjusted for the at least one area of interest and the computer-generated data is displayed in the at least one area of interest along with a section of the image displayed in the at least one area of interest.

Abstract: An image is displayed by determining a relative position and orientation of a display in relation to a viewer's head, and rendering an image based on the relative position and orientation. The viewer's eye movement relative to the rendered image is tracked, with at least one area of interest in the image to the viewer being determined based on the viewer's eye movement, and an imaging property of the at least one area of interest is adjusted.

Abstract: An image selected to be printed is rendered for display, prior to printing, based on the relative position and orientation of a display in relation to a user's head, where the displayed rendered image is a representation of what the rendered image will look like when printed. The user's eye movement relative to the rendered image is tracked, with at least one area of interest in the image to the viewer being determined based on the viewer's eye movement, an imaging property of the at least one area of interest is adjusted, the image to be printed is rendered based on adjusting the imaging property, and the image is printed.

Abstract: An image capturing apparatus and method for selective real-time focus/parameter adjustment. The image capturing apparatus includes a display unit, an adjustment unit, and a generation unit. The display unit is configured to display an image. The interface unit is configured to enable a user to select a plurality of regions of the image displayed on the display unit. The adjustment unit is configured to enable the user to adjust at least one focus/parameter of at least one selected region of the image displayed on the display unit. The generation unit is configured to convert the image including at least one adjusted selected region into image data, where at least one focus/parameter of the at least one adjusted selected region has been adjusted by the adjustment unit prior to conversion.

Abstract: A hybrid image of a scene is formed by obtaining a visible light image and a quantum entanglement image of the scene. Light intensity channel information is extracted from the visible light image of the scene, and a ghost image of the scene is constructed by cross-correlating the extracted light intensity channel information with the quantum entanglement image. The visible light image is thereafter fused with the ghost image so as to form a hybrid image of the scene.

Abstract: An apparatus, method, and medium for generating an image is provided. The apparatus includes an optical module, a filter module which includes a wide-band filter area that allows transmission of optical signals within a wavelength band corresponding to a color of a predetermined color, a narrow-band filter area that allows transmission of optical signals within a wavelength band corresponding to the predetermined color, and an all-pass filter area that allows transmission of optical signals in all wavelength bands, and an image generation module which generates an image by processing optical signals that transmit through the filter module, wherein the image generation module applies different weights to optical signals according to which of the wide-band filter area, the narrow-band filter area, and the all-pass filter area the optical signals respectively transmit through.

Abstract: A mobile content delivery and display system enables a user to use a communication device, such as a cell phone or smart handset device, to view data, images, and video, make phone calls, and perform other functions, in an immersive environment while being mobile. The system, also referred to as a platform, includes a display component which may have one of numerous configurations, each providing extended field-of-views (FOVs). Display component shapes may include hemispherical, ellipsoidal, tubular, conical, pyramidal, or square/rectangular. The display component may have one or more vertical and/or horizontal cuts, each having various degrees of inclination, thereby providing the user with partial physical enclosure creating extended horizontal and/or vertical FOVs. The platform may also have one or more projectors for displaying data (e.g., text, images, or video) on the display component.

Abstract: Linear and rotational speeds of a mobile device are calculated using distance estimates between imaging sensors in the device and objects or scenes in front of the sensors. The distance estimates are used to modify optical flow vectors from the sensors. Shifting and rotational speeds of the mobile device may then be calculated using the modified optical flow vector values. For example, given a configuration where the first imaging sensor and the second imaging sensor face opposite directions on a single axis, a shifting speed is calculated in the following way: multiplying a first optical flow vector and a first distance estimate, thereby deriving a first modified optical flow vector value; multiplying a second optical flow vector and a second distance estimate, thereby deriving a second modified optical flow vector value; the second modified optical flow vector value may then be subtracted from the first modified optical flow vector value, resulting in a measurement of the shifting speed.

Abstract: A system for displaying three-dimensional (3-D) content and enabling a user to interact with the content in an immersive, realistic environment is described. The system has a display component that is non-planar and provides the user with an extended field-of-view (FOV), one factor in the creating the immersive user environment. The system also has a tracking sensor component for tracking a user face. The tracking sensor may include one or more 3-D and 2-D cameras. In addition to tracking the face or head, it may also track other body parts, such as hands and arms. An image perspective adjustment module processes data from the face tracking and enables the user to perceive the 3-D content with motion parallax. The hand and other body part output data is used by gesture detection modules to detect collisions between the user's hand and 3-D content. When a collision is detected, there may be tactile feedback to the user to indicate that there has been contact with a 3-D object.

Abstract: Linear and rotational speeds of a mobile device are calculated using distance estimates between imaging sensors in the device and objects or scenes in front of the sensors. The distance estimates are used to modify optical flow vectors from the sensors. Shifting and rotational speeds of the mobile device may then be calculated using the modified optical flow vector values. For example, given a configuration where the first imaging sensor and the second imaging sensor face opposite directions on a single axis, a shifting speed is calculated in the following way: multiplying a first optical flow vector and a first distance estimate, thereby deriving a first modified optical flow vector value; multiplying a second optical flow vector and a second distance estimate, thereby deriving a second modified optical flow vector value; the second modified optical flow vector value may then be subtracted from the first modified optical flow vector value, resulting in a measurement of the shifting speed.

Abstract: Two or more display components are used to provide spatially correlated displays of 3D content. Three-dimensional content is rendered on multiple displays where the 3D content refers to the same virtual 3D coordinates, in which the relative position of the displays to each other determines the 3D virtual camera position for each display. Although not required, one of the displays may be mobile, such as a cell phone, and the other stationary or nomadic, such as a laptop. Each display shows a view based on a virtual camera into 3D content, such as an online virtual world. By continuously sensing and updating the relative physical distances and orientations of each device to one another, the devices show the user a view into the 3D content that is spatially correlated. Each device has a virtual camera that uses a common pool of 3D geometrical data and renders this data to display images.

Abstract: A user holds the mobile device upright or sits in front of a nomadic or stationary device, views the monitor from a suitable distance, and physically reaches behind the device with her hand to manipulate a 3D object displayed on the monitor. The device functions as a 3D in-line mediator that provides visual coherency to the user when she reaches behind the device to use hand gestures and movements to manipulate a perceived object behind the device and sees that the 3D object on the display is being manipulated. The perceived object that the user manipulates behind the device with bare hands corresponds to the 3D object displayed on the device. The visual coherency arises from the alignment of the user's head or eyes, the device, and the 3D object. The user's hand may be represented as an image of the actual hand or as a virtualized representation of the hand, such as part of an avatar.

Abstract: An apparatus, method, and medium for generating an image is provided. The apparatus includes an optical module, a filter module which includes a wide-band filter area that allows transmission of optical signals within a wavelength band corresponding to a color of a predetermined color, a narrow-band filter area that allows transmission of optical signals within a wavelength band corresponding to the predetermined color, and an all-pass filter area that allows transmission of optical signals in all wavelength bands, and an image generation module which generates an image by processing optical signals that transmit through the filter module, wherein the image generation module applies different weights to optical signals according to which of the wide-band filter area, the narrow-band filter area, and the all-pass filter area the optical signals respectively transmit through.

Abstract: A method and apparatus for generating an image is provided. The method includes acquiring a plurality of images using different exposure amounts, white-balancing each of the raw images, and synthesizing the white-balanced images producing as a result an absolute HDR image.