Abstract: An encoder for encoding a video signal, comprising a video modelling module configured for determining a plurality of video modelling parameters for a plurality of video locations on a spatiotemporal grid of said video signal, said spatiotemporal grid comprising at least two spatial dimensions and a time dimension, each video modelling parameter being adapted for allowing a pre-determined video model to at least approximately reconstruct its video location, a video segmentation module configured for segmenting said video signal into a plurality of spatiotemporal video regions, based on said video modelling parameters and a vectorisation module configured for vectorising spatiotemporal surfaces of said spatiotemporal video regions; and wherein said encoder is configured for encoding said video signal based on at least a subset of said determined plurality of video modelling parameters and based on said vectorised spatiotemporal surfaces, wherein said subset is determined taking into account said spatiotemporal

Abstract: Aspects and techniques of the present disclosure relate to an IP 55 rated enclosure that does not use a rubber O-ring or comparable elastomeric sealing member disposed between pieces of the enclosure to provide sealing. Another aspect of the present disclosure relates to an IP 55 compliant sealing interface that includes mating sealing profiles made of the identical materials. A further aspect of the present disclosure relates to an enclosure having jet stream redirecting structures that prevent spray from a water jet from being sprayed directly into an ingress path defined by a sealing interface. A further aspect of the present disclosure relates to a sealing interface provided by an interference-fit between two plastic profiles which create pressure on the interface keeping it closed while concurrently including angled surfaces so that greater tolerances are allowed.

Abstract: A transmitter for generating a set of encoded prioritized video streams from an incoming video stream (Vin) comprises: —a video decomposition module (VD) for decomposing said incoming video stream in at least two independent video components in spectral or time-spatial/spectral domain (Vd1, . . . , Vdn), —a compression module for compressing said at least two independent video components, thereby obtaining at least two compressed independent video components (Vde1, . . . , Vden), —a multi-stream packetization and prioritization module (MPP) for generating for each of said at least two compressed independent video components a respective set of packet streams in respective different qualities Vde1q1, . . . , Vde1q1, . . . , Vdenq1, . . .

Abstract: The present invention relates to a method, system and related devices for navigating between navigation points of a 3-Dimensional space where said 3-dimensional space comprises a plurality of navigation points. The method according to the present invention comprises the steps of detecting a current viewpoint rotation angle, further determining a degree of agreement of said current viewpoint rotation angle with a navigation point of said plurality of navigation points and subsequently activating a timing mechanism of the viewpoint activation, said timing mechanism comprising a delay for activating said timing mechanism of the view-point activation and a duration of an activation period of said timing mechanism at determining a certain degree of agreement of said current viewpoint rotation angle with a navigation point of said plurality of navigation points.

Abstract: Method for capturing an environment with objects, using a 3D camera, wherein the images of the cameras captured at different moments in time are used to generate 3D models, and wherein accuracy values are assigned to segments of the models allowing efficient refining of the models using the accuracy values.

Abstract: An encoder for encoding a video signal, comprising a spatiotemporal edge detector configured for detecting a number of spatiotemporal surfaces of said video signal, a vectorising module configured for said spatiotemporal surfaces and an attribute tracer configured for determining for said vectorised spatiotemporal surfaces a number of texture paint attributes, said number of texture paint attributes characterising at least one of a colour and a texture on at least one side of a respective vectorised spatiotemporal surface of said vectorised spatiotemporal surfaces; and wherein said encoder is configured for encoding said video signal based on said vectorised spatiotemporal surfaces and said number of texture paint attributes.

Abstract: A method for displaying a transition, from a first photographic image viewed from a first camera position, to a second photographic image viewed from a second camera position different from the first camera position; the method comprising: displaying the first photographic image; displaying at least one virtual image of a transformation operation from a first virtual image corresponding to the first photographic image, to a second virtual image corresponding to the second photographic image; and displaying the second photographic image.

Abstract: A method and device for determining at least one set of matching attributes between a plurality of images is disclosed. Two dimensional images are projected to a three dimensional space then searched for matching attributes. Searching for corresponding attributes is much easier and computationally less intensive in the 3D space compared to a search in the 2D space. The method includes steps of projecting at least part of the images of said plurality to a 3-dimensional space resulting in a plurality of 3-D projected images (image1_3D, image2_3D), searching for at least one corresponding set of elements within the 3D projected images of the plurality of 3-D projected images, and calculating back said corresponding elements within the original images of the plurality and providing said corresponding elements within said original images as said at least one set of matched attributes.

Abstract: Method for capturing an environment with objects, using a 3D camera, wherein the images of the cameras captured at different moments in time are used to generate 3D models, and wherein accuracy values are assigned to segments of the models allowing efficient refining of the models using the accuracy values.

Abstract: An encoder for encoding a video signal, comprising a video modelling module configured for determining a plurality of video modelling parameters for a plurality of video locations on a spatiotemporal grid of said video signal, said spatiotemporal grid comprising at least two spatial dimensions and a time dimension, each video modelling parameter being adapted for allowing a pre-determined video model to at least approximately reconstruct its video location, a video segmentation module configured for segmenting said video signal into a plurality of spatiotemporal video regions, based on said video modelling parameters and a vectorisation module configured for vectorising spatiotemporal surfaces of said spatiotemporal video regions; and wherein said encoder is configured for encoding said video signal based on at least a subset of said determined plurality of video modelling parameters and based on said vectorised spatiotemporal surfaces, wherein said subset is determined taking into account said spatiotemporal

Abstract: A system for making available at an end-user a media file, from a media provider comprising a media file patch related to at least one object, the system comprising: an encoding module at the media provider configured for determining at least one representation which resembles the media file patch, by comparing the media file patch with representations of said at least one object, and for including at least one identification corresponding with said representation in a skeleton file; a storage medium storing a dictionary including the representations of the at least one object at of the end-user and an intermediate node between the media provider and/or the end-user; a decoding module configured for decoding the skeleton file using the identification for looking up the corresponding representation in the dictionary of the storage medium and for rendering the media file patch based on the looked-up corresponding representation.

Abstract: The present invention relates to a media content ordering system and to a method for ordering media content. According to the invention, media content items are ordered in two different spaces, i.e. metadata space and feature space. This allows a user to select and retrieve desired content more easily. Media content that is clustered in either space represents similar media content. Suggestions can be made to the user taking into account the preferences of the user with respect to features and metadata particulars. By minimizing the difference in order in both spaces, it is ensured that suggestions to a user are close both in feature space and metadata space.

Abstract: The invention relates to a system and method for tag based access to auxiliary information during a video- and/or audio-conference. The system comprises a mapping between tags and associated portions of auxiliary information. The method may comprise transmitting video data and/or or audio data from the video- and/or audio-conferencing system to participants of the video-conference. During the transmission tags may be extracted from the video data and/or audio data. As soon as a request for auxiliary information is received from a participant, the method may comprise selecting at least one of the tags extracted from the transmitted video data and/or audio data, retrieving at least one auxiliary information portion associated with the selected at least one tag, and transmitting the at least one retrieved auxiliary information portion to the participant that has requested the auxiliary information.

Abstract: Embodiments relates to a method for rotating a multidimensional space and a device for rotating a multidimensional space. The method may comprise:—obtaining (S1) 2D coordinates of a first point (p1) and a second point (p2) of a 2D visualization space input by a user,—determining (S2) a first D-dimensional vector (p1) and a second D-dimensional vector (p2) by projecting said first point (p1) and said second point (p2) into a D-dimensional space, wherein D is equal to or greater than 4,—determining (S3) a rotation matrix (R) in function of said first D-dimensional vector (p1) and said second D-dimensional vector (p2). The D-dimensional space has a first dimension, a second dimension and D-2 other dimensions, and the 2D visualization space has D-2 predefined regions associated with respective dimensions among said D-2 other dimensions.

Abstract: A method for constructing an image model (M1; M) from at least one image data input (IV1; IV1-IVn), comprises the steps of, in an iterative way, determining at least one state (PS1; PS1-PSn) of said at least one image data input (IV1; IV1-IVn), and a state (PSMF) of an intermediate learning model (MF; MIF) determining a target state (TSP) from said at least one state (PS1; PS1-PSn) of said at least one image data input, and from the state (PSMF) of said intermediate learning model (MF; MIF), performing at least one transformation in accordance with the determined target state (TSP) on said at least one image data input (IV1; IV1-IVn), thereby generating at least one transformed image (IV1T; IV1T-IVnT), aggregating said at least one transformed image (IV1T; IV1T-IVnt) with intermediate learning model (MF; MIF; MIT; MFT) information, thereby generating an updated estimate of said image model (M1; M), providing said updated estimate of said image model (M1; M) as said image model (M1; M) while also providing

Abstract: A method for determining calibration data for at least two cameras (camera1, camera2) in a multi view position, includes a step of determining respective parameters ((h100, . . . , h122), (h200, . . . , h222)) for identifying at least one respective homographic transformation on respective images (image1,image2) taken by said cameras of a same scene, by performing respective geometry analyses on said respective images (image1, image2), a step of performing at least one respective combined homographic transformation/feature detection step on said respective images thereby obtaining respective sets (feature set1, feature set2) of features on respective transformed images, such that said calibration data are obtained from matches (ml, . . . , mk) determined between said respective sets of features.

Abstract: Method for adapting a 3D model (m) of an object, said method comprising the steps of performing at least one projection of said 3D model to obtain at least one 2D image model projection (p1) with associated depth information (d1), performing at least one state extraction operation on said at least one 2D image model projection (p1), thereby obtaining at least one state (s1) adapting said at least one 2D image model projection (p1) and said associated depth information (d1) in accordance with said at least one state (s1) and with a target state (s), thereby obtaining at least one adapted 2D image model (p1?) and an associated adapted depth (d1?) back-projecting said at least one adapted 2D image model (p1?) to 3D, based on said associated adapted depth (d1?) for thereby obtaining an adapted 3D model (m?).

Abstract: An exemplary method of providing a virtual representation includes determining a plurality of position constraints that correspond to physical positions of individuals relative to each other. A plurality of determined viewing constraints each correspond to a position of one of the individuals relative to a display used by that individual for viewing the virtual representation. Relative positions of virtual representations of the individuals in the virtual representation are determined to correspond to the determined position and viewing constraints.

Abstract: A feedback-system for managing the position of a frontal camera provided on a portable multimedia device during video communication. The feedback-system comprises a camera image analyzer coupled to the frontal camera and adapted to detect and analyze the pose of a user facing the frontal camera, an optimal video estimator coupled to the camera image analyzer and adapted to calculate a 6-dimensional error-vector of the current position of the frontal camera with respect to an optimal position of the frontal camera, an intuitive feedback manager coupled to the optimal video estimator and adapted to generate a transformation matrix translating the error-vector into an error message for the image displayed on a screen of the portable multimedia device, the intuitive feedback manager being further coupled to the portable multimedia device which is adapted to use the error message for modifying the image displayed on the screen.

Abstract: A method for adapting video data (video room1) recorded by a camera on a location (room1) during a video conference such as to hide the presence of a participant at said location of said video conference, comprises a step of registering a predefined gesture possibly to be performed by any participant of said video conference at said location (room1), a step of detecting said gesture, and upon detection thereof, identifying the at least one participant having performed said gesture at said location (room1), adapting said video data such as to eliminate data relating to said at least one participant having performed said gesture from said video data, thereby generating adapted video data (videoa room1), for being transmitted to other participants of said video conference on other locations (room2, . . . , roomn).