Huddly As

Cisco Technology, Inc.

Tomra Systems Asa

Huddly Inc.

Anders Eikenes

Eamonn Shaw

Stein Ove Eriksen

Jan Tore Korneliussen

Håvard Pedersen Alstad

Karl Henrik Haugholt

Kristian Magnus Østensen

Einar Andreas Hustadnes Hagen

Svein Idsøe

Eivind Danielsen

Eva Min Viktoria Edlund

Systems and methods are provided for capturing time-stamped data from whiteboard video signals and producing high-resolution whiteboard images. Local patches around a multitude of pixels in the whiteboard are used in classifying background white pixels and foreground color pixels for each foreground marker color. Clustering is performed in alternative color spaces globally and locally in defining background white and each foreground marker color. Color normalization is performed for each foreground pixel classified as a foreground marker color and for each image sensor color plane separately utilizing the maximum local background white and the darkest pixel intensities in local patches. Strokes are reconstructed based on spline interpolation of inflection points of cross sections along the length of each stroke for a foreground marker color with a predetermined width. Also provided is an intelligent whiteboard collaboration system including a messaging utility whereby participants based on relevant biometrics information are enabled to access time-lapse whiteboard data and communicate with the system and other participants.

Intelligent whiteboard collaboration systems and methods

Systems and methods are provided for alleviating bandwidth limitations of video transmission and enhancing the quality of videos at a receiver. In particular, an improved video transmission system is provided for generating high-resolution videos. The systems have therein a transmitter and a receiver; the transmitter includes an outer encoder and a core encoder, while the receiver includes a core decoder and an outer decoder. The outer encoder is adapted to receive the video from a source and separately output a salient video and an encoded background, and the outer decoder is adapted to merge the background with the salient video thereby producing an enhanced video. Also provided is a system that simulates pan-tilt-zoom (PTZ) operations without PTZ hardware. Further provided are methods for video transmission whereby a background model is initialized, a background independently encoded, updated incrementally, and the background and the updates transmitted independently from the video.

Video transmission based on independently encoded background updates

Intelligent whiteboard collaboratio systems and methods

Systems and methods are provided for alleviating bandwidth limitations of video transmission, enhancing the quality of videos at a receiver, and improving the VR/AR experience. In particular, an improved video transmission and rendering system is provided for generating high-resolution videos. The systems have therein a transmitter and a VR/AR receiver; the transmitter includes an outer encoder and a core encoder, while the receiver includes a core decoder and an outer decoder. The outer encoder is adapted to receive the video from a source and separately output a salient video and an encoded three-dimensional background, and the outer decoder is adapted to merge the background with the salient video thereby producing an augmented video. Also provided is a system that simulates pan-tilt-zoom (PTZ) operations without PTZ hardware. Further provided are methods for video transmission whereby a three-dimensional background model is generated, a background independently encoded, updated incrementally, and the background and the updates transmitted independently from the video.

In one embodiment, a method includes receiving, by a processor, a first annotation corresponding to one or more markings made by a first user within a first collaboration region of a first surface. The first surface is remote from a second surface. The method also includes identifying, by the processor, a second collaboration region on the second surface. The second surface is proximate a camera. The method also includes displaying, by the processor, the first annotation in the second collaboration region. The method also includes creating, by the processor, a second annotation corresponding to one or more markings made by a second user within the second collaboration region on the second surface. The method also includes transmitting, by the processor, the second annotation.

System and method for utilizing a surface for remote collaboration

A device and a method for detection of characteristic features of a medium that is wholly or partly transparent, wherein said medium is placeable in an observation area in a light path extending between a light source and a light detector, wherein said medium is illuminated by the light source in the observation area, wherein at least one light-directing optical element is arranged in connection with the observation area. Light transmitted through said medium, which is deflected by said medium when it is in said area and thus causes a change of light direction in said area, is detected. Characteristics of said medium are determined by spectrometry of the received light-deflected light, and a wavelength-sensitive element is used at a position in the light path, either at or as a part of the light source or the light detector.

Device and a method for detection of characteristic features of a medium

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Bekkestua, Norway

Anders Eikenes