Abstract: A method and device for registering an embedded Universal Integrated Circuit Card (eUICC) for a device and a method and device for controlling authorization of operation of a device being equipped with an eUICC. In an aspect, a method of a service node of registering an eUICC for a device is provided. The method comprises receiving information specifying ownership of the device and an identifier of the device, receiving an identifier of the eUICC and an identifier of the device, and storing the received information, wherein ownership of the device and the identifier of the eUICC being arranged in the device is registered with the service node.

Abstract: A flexible approach to segmenting a resource (e.g., a media resource, such as a media segment, or other resource, such as a resource normally fetched or pushed using general file transfer protocols like HTTP) into a plurality of fragments. By employing such an approach, the delay until the resource can be utilized at the client side is reduced. Certain embodiments are provided which apply the flexible segmentation approach to ISOBMFF media segments for video streaming, such as would be used with Live DASH streaming.

Abstract: A flexible approach to segmenting a resource (e.g., a media resource, such as a media segment, or other resource, such as a resource normally fetched or pushed using general file transfer protocols like HTTP) into a plurality of fragments. By employing such an approach, the delay until the resource can be utilized at the client side is reduced. Certain embodiments are provided which apply the flexible segmentation approach to ISOBMFF media segments for video streaming, such as would be used with Live DASH streaming.

Abstract: According to embodiments described herein there is provided methods and apparatus for providing communications to a wireless device using device-to-device communication with an unmanned vehicle. A method in a wireless device comprises establishing a device-to-device, D2D, wireless connection to the unmanned vehicle; and responsive to receiving an operation command over the D2D wireless connection, performing an operation. A method in an unmanned vehicle comprises determining a current location of a wireless device; travelling to within a wireless range of the current location of the wireless device; establishing a device-to-device, D2D, wireless connection with the wireless device; and transmitting an operation command to the wireless device over the D2D wireless connection to instruct the wireless device to perform an operation.

Abstract: A method and device for registering an embedded Universal Integrated Circuit Card (eUICC) for a device and a method and device for controlling authorization of operation of a device being equipped with an eUICC. In an aspect, a method of a service node of registering an eUICC for a device is provided. The method comprises receiving information specifying ownership of the device and an identifier of the device, receiving an identifier of the eUICC and an identifier of the device, and storing the received information, wherein ownership of the device and the identifier of the eUICC being arranged in the device is registered with the service node.

Abstract: An embedded Universal Integrated Circuit Card (eUICC) for a device and an entity configured to perform the method. The method further relates to eUICC profile provisioning of a device and an entity configured to perform the method. The method further provides for a device manufacturer of registering an eUICC for a device. The method comprises registering an eUICC identifier and a device identifier with a registering authority being responsible for registering ownership of the device, wherein an owner of the device subsequently registers ownership of the device by providing the device identifier to the registering authority along with an owner identifier.

Abstract: According to embodiments described herein there is provided methods and apparatus for providing communications to a wireless device using device-to-device communication with an unmanned vehicle. A method in a wireless device comprises establishing a device-to-device, D2D, wireless connection to the unmanned vehicle; and responsive to receiving an operation command over the D2D wireless connection, performing an operation. A method in an unmanned vehicle comprises determining a current location of a wireless device; travelling to within a wireless range of the current location of the wireless device; establishing a device-to-device, D2D, wireless connection with the wireless device; and transmitting an operation command to the wireless device over the D2D wireless connection to instruct the wireless device to perform an operation.

Abstract: A flexible approach to segmenting a resource (e.g., a media resource, such as a media segment, or other resource, such as a resource normally fetched or pushed using general file transfer protocols like HTTP) into a plurality of fragments. By employing such an approach, the delay until the resource can be utilized at the client side is reduced. Certain embodiments are provided which apply the flexible segmentation approach to ISOBMFF media segments for video streaming, such as would be used with Live DASH streaming.

Abstract: A flexible approach to segmenting a resource (e.g., a media resource, such as a media segment, or other resource, such as a resource normally fetched or pushed using general file transfer protocols like HTTP) into a plurality of fragments. By employing such an approach, the delay until the resource can be utilized at the client side is reduced. Certain embodiments are provided which apply the flexible segmentation approach to ISOBMFF media segments for video streaming, such as would be used with Live DASH streaming.

Abstract: Chunks (12, 14) of encoded video data of a streamed video bitstream (1) are stored and encoded video data is decoded to form decoded video data to be output for display. A selected portion (12) of the stored chunks (12, 14) or selected sub-chunks (25, 27) of the stored chunks (20, 22) for a previous, already played out part (3) of the streamed video bitstream (1) is or are discarded while keeping selected stored chunks (14) or selected sub-chunks (21, 23) stored as navigation tune-in points. The usage of selected stored chunks (14) or sub-chunks (21, 23) that are not discarded from the already played out part (3) of the streamed video bitstream (1) enables a low delay solution during video navigation when a user wants to jump to a previously played out position (5) within the streamed video bitstream (1).

Abstract: A system and method for pushing live media to a client device in an adaptive streaming environment. In one aspect, a media server configured to transmit live media includes a storage unit for storing media segments of a live media programming stream, wherein the media segments are encoded at multiple bitrates identified in respective media presentation data structures associated therewith. A websocket interface is provided that is operative to facilitate a websocket session with the client device. One or more processors of the system are operative to execute service logic for pushing the media segments to the client device substantially in real time during the websocket session.

Abstract: Chunks (12, 14) of encoded video data of a streamed video bitstream (1) are stored and encoded video data is decoded to form decoded video data to be output for display. A selected portion (12) of the stored chunks (12, 14) or selected sub-chunks (25, 27) of the stored chunks (20, 22) for a previous, already played out part (3) of the streamed video bitstream (1) is or are discarded while keeping selected stored chunks (14) or selected sub-chunks (21, 23) stored as navigation tune-in points. The usage of selected stored chunks (14) or sub-chunks (21, 23) that are not discarded from the already played out part (3) of the streamed video bitstream (1) enables a low delay solution during video navigation when a user wants to jump to a previously played out position (5) within the streamed video bitstream (1).

Abstract: The disclosed embodiments relate to determining transmit formats and receive formats for a 3D video communication service. Sets of available 3D video communication transmit formats are received. Each set is associated with a client device. Sets of available 3D video communication receive formats are received. Each set is associated with one of the client devices. One format for transmission of 3D video communication from the at least one client device to the other client devices is determined for at least one of the client devices. The one format is a member of both the set of available 3D video communication transmit formats associated with the at least one client device and the received available 3D video communication receive formats associated with other client devices.

Abstract: A 3D video sequence is acquired. The 3D video sequence comprises left and right views of image pairs. A capturing parameter (depth range) of the 3D video sequence is acquired. A rendering capability parameter (screen size or allowable depth range) of a rendering device is acquired. A positional displacement between the left and right views of the image pairs in the 3D video sequence is determined based on the acquired rendering capability parameter and the acquired capturing parameter so as to enable adaptation of the 3D video sequence to the rendering device. The 3D video sequence and the positional displacement are provided to at least one of the rendering unit and a controller.

Abstract: A system and method for pushing live media to a client device in an adaptive streaming environment. In one aspect, a media server configured to transmit live media includes a storage unit for storing media segments of a live media programming stream, wherein the media segments are encoded at multiple bitrates identified in respective media presentation data structures associated therewith. A websocket interface is provided that is operative to facilitate a websocket session with the client device. One or more processors of the system are operative to execute service logic for pushing the media segments to the client device substantially in real time during the websocket session.

Abstract: There is provided a 3D camera calibration wherein the user's hand is used as a calibration object: a touch surface detects the real measurements of a user's hand; the 3D camera captures at least one image of the user's hand; and an image processor estimates the intrinsic and extrinsic parameters for calibrating the 3D camera based on said image and said real measurements.

Abstract: The disclosed embodiments relate to determining transmit formats and receive formats for a 3D video communication service. Sets of available 3D video communication transmit formats are received. Each set is associated with a client device. Sets of available 3D video communication receive formats are received. Each set is associated with one of the client devices. One format for transmission of 3D video communication from the at least one client device to the other client devices is determined for at least one of the client devices. The one format is a member of both the set of available 3D video communication transmit formats associated with the at least one client device and the received available 3D video communication receive formats associated with other client devices.

Abstract: In a multi-view autostereoscopic display system (100) a plurality of views (120,122,124,126) is displayed repeatedly within a plurality of adjacent viewing cones (107,111,113), where pairs of views among the plurality of views form stereoscopic view pairs. A first set of depth adaptation settings, e.g. baseline and disparity, and at least one further set of depth adaptation settings, e.g. baseline and disparity, are obtained, the at least one further set of depth adaptation settings is different from the first set of depth adaptation settings. The first set of depth adaptation settings is then set for a first subset of views among the plurality of views in all viewing cones. The at least one further set of depth adaptation settings is set for at least one further respective subset of views among said plurality of views in all viewing cones.

Abstract: Viewer interaction herein triggers switching from a first view point to a second view point and thereby controls presentation of video sequences. Each video sequence comprises a sequence of images of one and the same subject and is associated with a respective view point. Images are obtained from a first video sequence associated with a first view point and are provided for presentation. Viewer input information is received that indicates a desire to present a second view point. In response, a start position within a second video sequence associated with the second view point is determined, and the obtaining of images from the first video sequence is discontinued as of the determined start position. Images are then obtained from the second video sequence associated with the second view point, starting from the determined start position, and are then provided for presentation.

Abstract: Processing of a digital image that has been recorded through an optical system is described, the image being in a raw format matrix of picture elements and comprising a plurality of subsets of picture elements, each subset corresponding to a color component. The method comprises analyzing values of picture elements of the color components in terms of spatial features, resulting in at least one calculated parameter that is representative of aberration caused by the optical system, and performing demosaicing of the digital image by, for each picture element under consideration, defining a kernel comprising picture elements that are to be considered during the demosaicing, the definition of the kernel being dependent on the at least one parameter that is representative of the aberration.