Abstract: A method of processing an image receives a first video including a plurality of frames, obtains importance information indicating importance of at least one region included in the plurality of frames, determines axes of a grid for at least one region of the first video based on the importance information, generates a second video by encoding the first video based on the axes of the grid, and outputs the second video and information about the axes of the grid.

Abstract: Provided is a method of acquiring an optimized closed curved surface image using multiple cameras, and more particularly, an image providing method that produces a single image using a plurality of cameras fixed to a rig and having different capturing viewpoints, the method including projection operation of acquiring a single image by projecting images acquired from the plurality of cameras on a projection surface of a closed curved surface based on parameter information, rendering operation of fitting the acquired single image in a quadrangular frame for each region through a non-uniform sampling process, and viewing operation of mapping the sampled image to a viewing sphere.

Abstract: Provided is a method of acquiring an optimized closed curved surface image using multiple cameras, and more particularly, an image providing method that produces a single image using a plurality of cameras fixed to a rig and having different capturing viewpoints, the method including projection operation of acquiring a single image by projecting images acquired from the plurality of cameras on a projection surface of a closed curved surface based on parameter information, rendering operation of fitting the acquired single image in a quadrangular frame for each region through a non-uniform sampling process, and viewing operation of mapping the sampled image to a viewing sphere.

Abstract: Provided is a method for generating a single representative image from multi-view images, in which multi-view images captured from two or more viewpoints are combined into a single image using depth information, including identifying visible information from different viewpoints for pixels in each view image using depth information, identifying context of the pixels in all viewpoints using the acquired visible information and the depth information, and combining into a single image, compressing the combined image based on color information, and compressing viewpoint information of pixels in the compressed image.

Abstract: Various methods and systems for securing communications with enhanced media platforms, are provided. In particular, an enhanced media platform is authenticated using a trusted location. The authenticated enhanced media platform establishes a bidirectional trust with an enhanced remote location, the enhanced media platform being stored in the enhanced remote location. Upon authentication and establishing the bidirectional trust, the enhanced media platform may securely communicate media content in a media content distribution service infrastructure while supporting custom functionality. The method for securing communications with enhanced media platforms includes communicating authentication credentials to an internal security component at the trusted location. The method further includes receiving validation credentials from the internal security component. The method also includes authenticating the enhanced remote location based on at least a portion of the validation credentials received.

Abstract: Various methods and systems for securing communications with enhanced media platforms, are provided. In particular, an enhanced media platform is authenticated using a trusted location. The authenticated enhanced media platform establishes a bidirectional trust with an enhanced remote location, the enhanced media platform being stored in the enhanced remote location. Upon authentication and establishing the bidirectional trust, the enhanced media platform may securely communicate media content in a media content distribution service infrastructure while supporting custom functionality. The method for securing communications with enhanced media platforms includes communicating authentication credentials to an internal security component at the trusted location. The method further includes receiving validation credentials from the internal security component. The method also includes authenticating the enhanced remote location based on at least a portion of the validation credentials received.

Abstract: Cooperative interaction of a message processor and an intermediation processor. The message processor processes messages received from a network and to be sent over a network. The intermediation processor intermediates between the message processor and the network using a shared memory that includes a memory portion that is within the address space of the message processor. The message processor writes messages into the memory portion over a physical channel and reads message from the memory portion over the physical channel. The intermediation processor provides messages received from a network into the memory portion so that the received messages can be read by the message processor over the physical channel. The intermediation processor dispatches messages written to the memory portion by the message processor over the network.

Abstract: Provided are an apparatus and a method for manipulating depth of a stereoscopic image that enable a user to manipulate depth of a stereoscopic image easily and intuitively. The apparatus may include: a histogram analyzing unit acquiring a depth distribution chart by performing histogram analysis of a disparity map corresponding to an input image; a Gaussian mixture model (GMM) fitting unit acquiring multiple depth layers by performing GMM fitting of the depth distribution chart; a disparity adjusting unit adjusting at least one of a position and a volume of at least one of the multiple depth layers and calculating a disparity mapping function on which a result of the adjustment is reflected in response to a user request; and a disparity map recalculating unit calculating a new disparity map by optimizing the disparity mapping function.

Abstract: Various methods and systems for securing communications with enhanced media platforms, are provided. In particular, an enhanced media platform is authenticated using a trusted location. The authenticated enhanced media platform establishes a bidirectional trust with an enhanced remote location, the enhanced media platform being stored in the enhanced remote location. Upon authentication and establishing the bidirectional trust, the enhanced media platform may securely communicate media content in a media content distribution service infrastructure while supporting custom functionality. The method for securing communications with enhanced media platforms includes communicating authentication credentials to an internal security component at the trusted location. The method further includes receiving validation credentials from the internal security component. The method also includes authenticating the enhanced remote location based on at least a portion of the validation credentials received.

Abstract: Various methods and systems for securing communications with enhanced media platforms, are provided. In particular, an enhanced media platform is authenticated using a trusted location. The authenticated enhanced media platform establishes a bidirectional trust with an enhanced remote location, the enhanced media platform being stored in the enhanced remote location. Upon authentication and establishing the bidirectional trust, the enhanced media platform may securely communicate media content in a media content distribution service infrastructure while supporting custom functionality. The method for securing communications with enhanced media platforms includes communicating authentication credentials to an internal security component at the trusted location. The method further includes receiving validation credentials from the internal security component. The method also includes authenticating the enhanced remote location based on at least a portion of the validation credentials received.

Abstract: A data center controller that maintains operation of at least one of its constituent headless hardware devices. An example of a headless hardware device may be server, or a server blade. The data center controller identifies that a particular headless hardware device has an unmanaged state, which means the headless hardware device is non-bootable without further code. In response, the data center controller decides which of one or more operational supplements are to be installed on the headless hardware device. The one or more operational supplements are sufficient at least to transition the headless hardware device from an unmanaged state to a managed state, thus allowing the headless hardware device to complete the boot process. The operational supplement(s) might include a management interface through which the data center controller might provide further management instructions to the headless hardware device.

Abstract: Cooperative interaction of a message processor and an intermediation processor. The message processor processes messages received from a network and to be sent over a network. The intermediation processor intermediates between the message processor and the network using a shared memory that includes a memory portion that is within the address space of the message processor. The message processor writes messages into the memory portion over a physical channel and reads message from the memory portion over the physical channel. The intermediation processor provides messages received from a network into the memory portion so that the received messages can be read by the message processor over the physical channel. The intermediation processor dispatches messages written to the memory portion by the message processor over the network.

Abstract: There are provided a method and an apparatus for generating a depth map of a stereoscopic image that are capable of representing the depth perception of an image more finely by considering not only vanishing points but also fine lines formed within an image. The method includes: generating multiple line segments by grouping multiple edge pixels within an input image based on an intensity gradient direction; merging the multiple line segments based on similarity and thereafter detecting at least one vanishing point in consideration of a result of the merging; and generating an energy depth function on which correlation between the line segments and the vanishing point is reflected and generating a depth map by decoding the energy depth function.

Abstract: Provided are an apparatus and a method for manipulating depth of a stereoscopic image that enable a user to manipulate depth of a stereoscopic image easily and intuitively. The apparatus may include: a histogram analyzing unit acquiring a depth distribution chart by performing histogram analysis of a disparity map corresponding to an input image; a Gaussian mixture model (GMM) fitting unit acquiring multiple depth layers by performing GMM fitting of the depth distribution chart; a disparity adjusting unit adjusting at least one of a position and a volume of at least one of the multiple depth layers and calculating a disparity mapping function on which a result of the adjustment is reflected in response to a user request; and a disparity map recalculating unit calculating a new disparity map by optimizing the disparity mapping function.

Abstract: Disclosed herein are a stereoscopic image generation method of background terrain scenes, a system using the same, and a recording medium for the same. The stereoscopic image generation method of background terrain scenes includes an initial mesh creation step of creating an initial mesh using terrain geometry based on image sequences, a geometry error correction step of generating a projection map, detecting error regions of the initial mesh using the generated projection map, generating a vector map of the detected error regions, and generating a corrected mesh, error of which is corrected, and a stereo conversion step of generating a stereoscopic image using the corrected mesh. Since the stereoscopic image is generated based on the mesh, the mesh fits the terrain shape even though the geometry is complex. Further, time coherence can be enforced, the mesh can be edited easily, and new elements can be unseamingly composed into the terrain.

Abstract: Disclosed herein is a system and method for drawing a stream and road centerline for GIS-based linear map production, which performs a series of processes of automatically detecting accurate positions of points of a centerline using contour line data of a stream map or a road map having a digital map form, which is extracted from a digital map produced through remote sensing or construction of national geographic information systems, and connecting the detected points of the centerline so as to update stream and road centerline data generated by an inaccurate method and algorithm and to enable an accurate centerline to be used in various application fields.

Abstract: Disclosed herein are a stereoscopic image generation method of background terrain scenes, a system using the same, and a recording medium for the same. The stereoscopic image generation method of background terrain scenes includes an initial mesh creation step of creating an initial mesh using terrain geometry based on image sequences, a geometry error correction step of generating a projection map, detecting error regions of the initial mesh using the generated projection map, generating a vector map of the detected error regions, and generating a corrected mesh, error of which is corrected, and a stereo conversion step of generating a stereoscopic image using the corrected mesh. Since the stereoscopic image is generated based on the mesh, the mesh fits the terrain shape even though the geometry is complex. Further, time coherence can be enforced, the mesh can be edited easily, and new elements can be unseamingly composed into the terrain.

Abstract: Polymer compositions having thermoplastic and elastomeric features are provided. These polymer compositions, which are also characterized by superior compatibility with water-based and solvent-based adhesives, comprise at least one thermoplastic elastomer and at least one maleated ethylene copolymer. The compositions of the invention are useful in articles of manufacture that require flexibility and are fabricated with adhesives, including sporting goods, and particularly athletic shoes.

Abstract: A method of improving the adhesion of primers and adhesives to the surface of a polymeric material is provided. In this method, the adhesion is improved by modifying the polymeric material with a filler. Preferably, the filler comprises hollow microspheres or nanoparticles. Silica is a preferred filler.

Abstract: Disclosed is a composition comprising, consisting essentially of, or consisting of an ethylene polymer, a thermoplastic elastomer, a crosslinking agent, and optionally a foaming agent wherein the ethylene polymer includes ethylene vinyl acetate copolymer, polyethylene, ethylene acid copolymer, ionomer of the acid copolymer, ethylene alkyl(meth)acrylate copolymer, or combinations of two or more thereof; the thermoplastic elastomer can include copolyetherester, copolyetheramide, elastomeric polyolefin, styrene diene block copolymers, thermoplastic polyurethane, or combinations of two or more thereof; and the crosslinking agent includes one or more organic peroxides, irradiation, or combinations thereof. Also disclosed is a product made from the composition such as foam for shoe applications.