Abstract:
The invention relates to a system for projecting immersive content, comprising an audiovisual content reproducing-projecting device (11) with a compact container, where it includes: at least one control module (1) comprising: at least one wireless communication interface (91) for communicating with a mobile terminal (9) of a user, connection means (71) for connecting to the Internet (100), communication interfaces (1A, 1B, 1C) for transmitting audiovisual content obtained over the Internet (100) from at least one content server (10); and connected to the control module (1): at least one immersive content projector (2) and, optionally, at least one non-immersive content projector (3) with communication interfaces (1A, 1B, 1C); at least one audio module (8) for reproducing sound of the audiovisual content transmitted by the control module (1) to the projectors (2, 3); a master module (4), emitting radio signals (51) for at least one domotics actuator module (5).
Abstract:
A real-time video and audio editing and sharing command system is provided. The system comprises a display, one or more processors communicatively coupled to the display, and a memory, communicatively coupled to the one or more processors, including instructions executable by the one or more processors to receive and display one or more video streams, simultaneously or selectively, according to real-time user input, and during display, receive and transmit real-time user input, including editing commands or sharing commands directed to the one or more video streams. The one or more video streams can be received from an external processing system, and the real-time user input can be transmitted to the same external processing system for editing or sharing according to real-time user input.
Abstract:
Systems and methods are described for capturing spherical content. The systems and methods can include determining a region within a plurality of images captured with a plurality of cameras in which to transform two-dimensional data into three-dimensional data, calculating a depth value for a portion of pixels in the region, generating a spherical image, the spherical image including image data for the portion of pixels in the region, constructing, using the image data, a three-dimensional surface in three-dimensional space of a computer graphics object generated by an image processing system, generating, using the image data, a texture mapping to a surface of the computer graphics object, and transmitting the spherical image and the texture mapping for display in a head-mounted display device.
Abstract:
A 360-degree camera support structure that houses in one embodiment at least two cameras, and another embodiment houses three cameras oriented to view a direction centered 120 degrees from one another, with each camera producing an image that covers an angle greater than 120 degrees such that when all three images are combined a panoramic view is generated with no gaps along the plane formed by the central optical axis of all three cameras.
Abstract:
Systems and methods are related to a camera rig and generating stereoscopic panoramas from captured images for display in a virtual reality (VR) environment.
Abstract:
A spherical camera includes two oppositely-oriented lenses rigidly secured by a unibody dual-lens mount. The unibody dual-lens mount includes two lens barrel that are laterally offset from each other. Each lens barrel secures a lens and has a top, a midsection and a bottom along its axial length, where the midsection is located between the top and the bottom. A first base portion extends radially outward from the bottom of a first lens barrel to join the midsection of a second lens barrel. A second base portion extends radially outward from a bottom of the second lens barrel to join a midsection of the first lens barrel. The base portions may be approximately perpendicular to central axes of the lens barrels. Additionally, the first lens barrel can be approximately parallel to the second lens barrel, and the first base portion can be approximately parallel to the second base portion.
Abstract:
An immersive display system is disclosed that includes screens configured to mitigate reduction in conrast ratio due at least in part to peripheral light incident on the screens. The immersive display system includes at least two screens and at least two projector systems. The screens have a multi-layered structure configured to selectively reflect light in a tailored polarization state. Adjacent screens can be configured to selectively reflect light in orthogonal polarization states. The projector systems can be configured to project video onto their respective screens with light in a suitable polarization state. The screens can be further configured to selectively reflect light within a plurality of tailored spectral bands, the spectral bands being different for respective screens.