Abstract: Disclosed are systems and methods for augmented reality multi-view telepresence. An exemplary embodiment is provided for a first-location participant and a second-location participant, each location having respective pluralities of cameras and display segments. A session geometry of a multi-location telepresence session is obtained for the participants. According to the session geometry, a selection is made of a first-to-second-viewpoint second-location camera from among the second-location cameras and a first-to-second-viewpoint first-location display segment from among the plurality of first-location display segments. A first-to-second-viewpoint video stream captured by the selected first-to-second-viewpoint second-location camera is received, and a line-of-sight augmented-reality session is generated by rendering the received first-to-second-viewpoint video stream via the selected first-to-second-view-point first-location display segment.

Abstract: Systems and methods are described that enable a 3D telepresence. In an exemplary method, a 3D image stream is generated of a first participant in a virtual meeting. A virtual meeting room is generated. The virtual meeting room includes a virtual window, and the 3D image stream is reconstructed in the virtual window. The first participant thus appears as a 3D presence within the virtual window. The virtual meeting room may also include virtual windows providing 3D views of other participants in the virtual meeting and may further include avatars of other meeting participants and/or of the first meeting participant.

Abstract: Systems and methods described herein are provided for managing user positions in a shared virtual geometry, capturing 360° views of a local user environment in a spatially faithful system, and computing a perspective view of a first user from the eye-point of a second user. Users may move around the shared virtual geometry, and perspective views of users may be updated. Some embodiments use a co-centric geometry for group conferencing with other users. Some embodiments may use a grid-based geometry for exploration with other users. Some embodiments may reduce transferred bitrates to enable systems and methods to be implemented in data-limited environments. Some embodiments support users moving and navigating a shared virtual geometry.

Abstract: Disclosed are systems and methods for augmented reality multi-view telepresence. An exemplary embodiment is provided for a first-location participant and a second-location participant, each location having respective pluralities of cameras and display segments. A session geometry of a multi-location telepresence session is obtained for the participants. According to the session geometry, a selection is made of a first-to-second-viewpoint second-location camera from among the second-location cameras and a first-to-second-viewpoint first-location display segment from among the plurality of first-location display segments. A first-to-second-viewpoint video stream captured by the selected first-to-second-viewpoint second-location camera is received, and a line-of-sight augmented-reality session is generated by rendering the received first-to-second-viewpoint video stream via the selected first-to-second-view-point first-location display segment.

Abstract: Systems and methods are described that enable a 3D telepresence. In an exemplary method, a 3D image stream is generated of a first participant in a virtual meeting. A virtual meeting room is generated. The virtual meeting room includes a virtual window, and the 3D image stream is reconstructed in the virtual window. The first participant thus appears as a 3D presence within the virtual window. The virtual meeting room may also include virtual windows providing 3D views of other participants in the virtual meeting and may further include avatars of other meeting participants and/or of the first meeting participant.

Abstract: Augmented reality (AR) telepresence systems and methods are disclosed for obtaining a 3D model of a physical location from a 3D-capture system comprising one or more 3D depth sensors disposed throughout the physical location, generating a truncated 3D model of the physical location, the truncated 3D model corresponding to the intersection of the generated 3D model and a field of view of a user terminal camera at the physical location, and transmitting the truncated 3D model to a remote location.

Abstract: Systems and methods are described that enable a 3D telepresence. In an exemplary method, a 3D image stream is generated of a first participant in a virtual meeting. A virtual meeting room is generated. The virtual meeting room includes a virtual window, and the 3D image stream is reconstructed in the virtual window. The first participant thus appears as a 3D presence within the virtual window. The virtual meeting room may also include virtual windows providing 3D views of other participants in the virtual meeting and may further include avatars of other meeting participants and/or of the first meeting participant.

Abstract: Systems and methods are described that enable a 3D telepresence. In an exemplary method, a 3D image stream is generated of a first participant in a virtual meeting. A virtual meeting room is generated. The virtual meeting room includes a virtual window, and the 3D image stream is reconstructed in the virtual window. The first participant thus appears as a 3D presence within the virtual window. The virtual meeting room may also include virtual windows providing 3D views of other participants in the virtual meeting and may further include avatars of other meeting participants and/or of the first meeting participant.