Abstract: In a particular implementation, a user environment space for haptic feedback and interactivity (HapSpace) is proposed. In one embodiment, the HapSpace is a virtual space attached to the user and is defined by the maximum distance that the user's body can reach. The HapSpace may move as the user moves. Haptic objects and haptic devices, and the associated haptic properties, may also be defined within the HapSpace. New descriptors, such as those enable precise locations and link between the user and haptic objects/devices are defined for describing the HapSpace.

Abstract: A method and system are provided for processing image content. The method comprises receiving information about a content image captured at least by one camera. The content includes multi-view representation of an image including both distorted and undistorted areas. The camera parameters and image parameters are then obtained and used to determine to which areas are undistorted and which areas are distorted in said image. This is used to calculate depth map of the image using the determined undistorted and distorted information. A final stereoscopic image is then rendered that uses the distorted and undistorted areas and calculation of depth map.

Abstract: At least one embodiment relates to provides a method of encoding/decoding attribute of orthogonally projected 3D samples and in-between 3D samples in which an information indicates whether at least one first attribute patch of 2D samples obtained by encoding the attribute of said at least one orthogonally projected 3D samples according to a first attribute coding mode, and at least one second attribute patch of 2D samples of an image obtained by encoding the attribute of at least one in-between 3D sample, are stored in separate images.

Abstract: Video processing can involve encoding and/or decoding a picture based on determining an activation of a processing mode involving a motion vector refinement process and a second process other than the motion vector refinement process; modifying the motion vector refinement process based on the activation and the second process; and encoding and/or decoding the picture based on the modified motion vector refinement process and the second process.

Abstract: The present disclosure relates to an image sensor (21) comprising an array of pixels, wherein a set of pixels of the array comprises pixels with different height levels arranged according to their height level and relative position to an optical axis (22) of the image sensor, wherein each pixel of the set can take one height level i among N different height levels, N?2, where i=1 is the smallest height level and i=N is the highest height level. According to the disclosure, for a pixel of the set having a first height level equal to n, 2?n?N, and an adjacent pixel of the set having a second height level equal to m, lower than the first height level, in at least one of horizontal, vertical, or diagonal scanning direction, from a point at which the optical axis (22) intersects the image sensor (21) to at least one rim of the image sensor, the second height level m is equal to n?1.

Abstract: Methods and systems are provided for designing, implementing, and/or using communication cables comprising a leaky feeder structure, which may be configurable for homogeneous distribution of data signals. An example communication cable may comprise a core conductor, an insulation shield surrounding the core conductor, an outer conductor around the insulation shield and having one or more apertures arranged along its length, and a jacket at least partly covering the outer conductor. The communication cable may also comprise an illumination arrangement which may be arranged at least along sections of the length of the cable. The illumination arrangement may comprise a plurality of light emitting units.

Abstract: Methods and systems are provided for use in selectable data transmission. In a portable mobile computing device, a request to initiate an instant video communication with a remote portable multi-function computing device may be received, and in response to receiving the request to initiate the instant video communication, it may be determined, based on a stored authorization list, that the instant video communication connection to the remote portable multi-function computing device is authorized, and In response to such determining, stored connection information for the remote portable multi-function computing device may be accessed, and captured video communication data for the requested instant video communication may be transmitted according to the stored instant connection information such that the captured video communication data may be displayed at the remote portable multi-function computing device as it is received.

Abstract: At least one embodiment relates to provides a method of encoding/decoding attribute of orthogonally projected 3D samples and in-between 3D samples in which an information indicates whether at least one first attribute patch of 2D samples obtained by encoding the attribute of said at least one orthogonally projected 3D samples according to a first attribute coding mode, and at least one second attribute patch of 2D samples of an image obtained by encoding the attribute of at least one in-between 3D sample, are stored in separate images.

Abstract: Methods are systems are provided for onboarding network equipment to managed networks. An onboarding controller of a managed network may generate a challenge for network equipment to be onboarded into the managed network, and may send the challenge to a communication device different from the equipment network. The challenge may include information relating to a configuration change to be made to the network equipment. Further, the challenge is sent over a connection that is different than a connection used in communicating with the network equipment. The onboarding controller may verify, based on handling of the configuration change, an identity and/or a network location of the network equipment. Handling the configuration change may include applying the configuration change.

Abstract: System and methods are provided for managing use of media feeds in a media player. A media feed may be selected from a plurality of media feeds based on a feedback signal corresponding to an audio output signal of a media player, and a corresponding transmit signal may be configured for transmittal to the media player. The transmit signal may include a plurality of channels, and configuring the transmit signal may include selecting one channel from the plurality of channels based on the feedback signal, and conveying the media feed over the selected channel. The selected channel may be processed to carry the media feed, such as by frequency-modulating the media feed into the selected channel. The feedback signal may be processed, and control information may be determined based on the processing for controlling one or both of the selecting of the media feed and configuring of the transmit signal.

Abstract: A display device (100) obtains (S210) an image, obtains (S220) a current measure of inclination of a screen (110) of the display device (100), rotates (S230) the image to compensate for the inclination to render the image parallel with the horizon, scales (S240) and displays (S250) the image entire and horizontally on the screen. The image can be part of a video for which other images are processed to be displayed horizontally. The image can be scaled to maximise the size of the image when displayed on the screen (110); this can be performed after a period of unchanged inclination.

Abstract: Methods are systems are provided for onboarding network equipment to managed networks. An onboarding controller may be used in authenticating the to-be-onboarded network equipment. The onboarding controller may issue a challenge, which may include instructions for making configuration changes to the network equipment. The configuration changes may include adding, removing, and/or changing connections within and/or to the network equipment within a local network including the network equipment. The onboarding controller may determine whether or not the configuration changes have been made to the network equipment. The determination of configuration changes may be used in verifying the identity and/or location of the network equipment, and/or in determining determine to which managed network the network equipment should be onboarded.

Abstract: Methods and systems are provided for recording data in a network. A recording device may receive a recording instruction identifying a media content transmitted by an upstream media content server, and may offload recording one or more of a plurality of portions of the media content to one or more intermediate recording devices positioned between the recording device and the upstream media content server. Each portion of the media content may correspond to different portion of a transmission period associated with transmission of the media content, and may be assigned a corresponding recording control information configured based, at least in part, on one or more parameters associated with a network node recording or storing a corresponding one of the portions. Storage and retrieval of each of the portions of the media content may be managed based, at least in part, on the corresponding recording control information.

Abstract: A method and device are provided for rendering an image. The method comprises receiving an image from at least two different camera positions and determining a camera orientation and at least one image attribute associated with each of the positions. A model is then generated of the image based on the attribute and camera orientation associated with the received camera positions of the image. The model is enabled to provide a virtual rendering of the image at a plurality viewing orientations and selectively providing appropriate attributes associated with the viewing orientation.

Abstract: Processing image information associated with a 3D scene can involve obtaining image data associated with at least one layer of the 3D scene; determining at least one phase increment distribution associated with the at least one layer for modifying at the at least one layer an image size associated with the scene; and determining a propagation of an image wave front, corresponding to the at least one layer, to a result layer at a distance from the scene to form a propagated image wave front at the result layer representing a hologram of the scene, wherein determining the propagation includes applying the at least one phase increment distribution associated with the at least one layer to the image wave front at the at least one layer.

Abstract: A method of obtaining contact information for a person or an entity is disclosed. The method comprises detecting a name of the person or the entity in a frame from a screen of a device; determining a presence status for the detected name based on one or more connectivity status for the detected name in one or more communication applications and/or one or more databases, where the one or more communication applications operate on the device from which the frame originates and where the one or more databases are accessible on the device; displaying the presence status on the screen of the device.

Abstract: An apparatus, system or method for processing a sequence of data can involve determining an availability of a computational resource; adapting, based on the availability, a neural network to set a limit on use of the computational resource by the neural network during processing of a sequence of data, wherein the one or more processors being configured to adapt the neural network to set the limit comprises the one or more processors being configured to modify an update control included in the neural network based on a windowing function; and processing at least a portion of the sequence of data by the adapted neural network using the computational resource in accordance with the limit.

Abstract: Quantization matrix can be used to adjust quantization of transform coefficients at different frequencies. In one embodiment, a single fixed parametric model, such as a polynomial is used to represent a quantization matrix. Modulation of bit cost and complexity is achieved by specifying only the n first polynomial coefficients, the remaining ones being implicitly set to zero or other default values. One form of the single fixed polynomial is a fully developed polynomial in (x,y), where x,y indicate the coordinates of a given coefficient in a quantization matrix, with terms ordered by increasing exponent. Since higher exponents are the last ones, reducing the number of polynomial coefficients reduces the degree of the polynomial, hence its complexity. The polynomial coefficients can be symmetrical in x and y, and thus reducing the number of polynomial coefficients that need to be signaled in the bitstream.

Abstract: In order to perform location-specific services of a broadcasting unit, virtual cells for the location-specific services are set up so that cell data, which define a local cell area, are transmitted to a mobile receiving device via the broadcasting unit. The cell data are stored in the mobile receiving device. The mobile receiving device establishes its current position and determines whether it is located in the cell area. In the event the mobile receiving device is located in the cell area, the receiving device performs a service assigned to the cell data. The setting up of cells for local-specific services by the broadcasting unit in a multitude of mobile receiving devices in the service area of the broadcasting unit enables geographical areas inside and outside the service area to be slit up into smaller, interactive and virtual service cells and cell clusters in a dynamic and optimal manner according to need and geographical and/or service-specific parameter.

Abstract: A method for a placement of a virtual object of an augmented or mixed reality application in a real-world 3D environment, comprises: selecting (14), at a runtime of the augmented or mixed reality application, one of a finite set of at least two candidate insertion areas predetermined in the real-world 3D environment for the placement of the virtual object in the real-world 3D environment, based on criteria combining, for each of the candidate insertion areas, relationships between each of: the real-world 3D environment, the virtual object considered with respect to a placement of that virtual object in that candidate insertion area, and a user position; and inserting (14) the virtual object in the selected candidate insertion area.