Abstract: A method and system are described where graphics, for example, fiducials, are placed within the context of panoramic video footage such that those graphics convey meaningful and relevant information, such as first down lines, sidelines, end zone plane, three-point line, goal line, blue line, positional environmental, or biometric information. Graphics may also signify the status of event, such as whether a first down was made or whether a play was overturned. The system includes one or more cameras connected to a computer that also receives synchronized sensory data from one or more environmental or positional sensors. The fiducials may be based upon the content and context of the video, or augmented via the use of external sensors which may be aggregated by the computer, with graphics being generated and displayed on a frame-by-frame basis for the purposes of disseminating information and enhancing the live production.

Abstract: One embodiment provides a method, including: capturing, from each of at least two cameras, video from a vantage point of an event; generating an immersive video stream from the video captured by the at least two cameras; producing a transport video stream by combining the immersive video stream with a production camera video stream, wherein the transport stream is available for user consumption and providing, to a display device, a streamed production to a user, wherein the streamed production comprises the immersive video stream and the production camera video stream, the streamed production comprising an overlay window comprising at least one of the immersive video stream and the production camera video stream and a primary view comprising at least one of the immersive video stream and the production camera video stream.

Abstract: Described is a system and method for ephemeral betting within a panoramic video environment. A panoramic video environment is defined as a virtual experience, viewed on an information handling device (e.g., personal computers, mobile devices, virtual reality headsets, smart televisions, etc.) where the user views a panorama from a first person perspective relative to the camera capturing the video. The “view” may be a two-dimensional “portal” into the panoramic environment, or a stereoscopic view. The user will typically have directional control in the view portal, including the ability to pan, tilt, and zoom from the perspective of the camera. The described system and method creates wagering opportunities by combining the experience of viewing an event, simultaneously with other spectators, with real-time analytics and statistics derived from an object tracking system, thereby providing ephemeral wagering opportunities.

Abstract: One embodiment provides a method, including: obtaining, from each of two more panoramic cameras, panoramic video, wherein each of the two or more panoramic cameras are located at different physical locations within an event environment; compositing the panoramic video obtained from the two or more panoramic cameras into a single video; and streaming the composited panoramic video to one or more end users, wherein each of the one or more end users provide commands to manipulate the streamed composited panoramic video resulting in viewing of a different view of the streamed composited panoramic video for the corresponding end user based on the provided commands.

Abstract: An inspection system for acquiring images of an aircraft in a space is provided. The system comprises a plurality of imaging apparatuses positionable on an overhead structure in a ceiling space of an aircraft hangar, each imaging apparatus being positioned within the aircraft hangar such that each of the plurality of imaging apparatuses are configured to acquire images of sections of an aircraft positioned within the hangar, a computer system including an application viewer program configured to receive the transmitted images from each imaging apparatus, wherein the application viewer program is configured to generate a display of the acquired images of different sections of the aircraft.

Abstract: An inspection system for acquiring images of an aircraft in a space is provided. The system comprises a plurality of imaging apparatuses positionable on an overhead structure in a ceiling space of an aircraft hangar, each imaging apparatus being positioned within the aircraft hangar such that each of the plurality of imaging apparatuses are configured to acquire images of sections of an aircraft positioned within the hangar, a computer system including an application viewer program configured to receive the transmitted images from each imaging apparatus, wherein the application viewer program is configured to generate a display of the acquired images of different sections of the aircraft.

Abstract: One embodiment provides a method, including: obtaining, from each of two more panoramic cameras, panoramic video, wherein each of the two or more panoramic cameras are located at different physical locations within an event environment; compositing the panoramic video obtained from the two or more panoramic cameras into a single video; and streaming the composited panoramic video to one or more end users, wherein each of the one or more end users provide commands to manipulate the streamed composited panoramic video resulting in viewing of a different view of the streamed composited panoramic video for the corresponding end user based on the provided commands.

Abstract: One embodiment provides a method, including: capturing, from each of at least two cameras, video from a vantage point of an event; generating an immersive video stream from the video captured by the at least two cameras; producing a transport video stream by combining the immersive video stream with a production camera video stream, wherein the transport stream is available for user consumption and providing, to a display device, a streamed production to a user, wherein the streamed production comprises the immersive video stream and the production camera video stream, the streamed production comprising an overlay window comprising at least one of the immersive video stream and the production camera video stream and a primary view comprising at least one of the immersive video stream and the production camera video stream.

Abstract: One embodiment provides a method, including: receiving, using a camera, at least one panoramic video; determining, using an electronic device, a spatial location in the panoramic video associated with a selection by at least one viewer; obtaining, at the electronic device, a request by the at least one viewer to share the spatial location with at least one other viewer; and sending, using the electronic device, information associated with the spatial location to the at least one other viewer. Other aspects are described and claimed.

Abstract: Disclosed is a method, including, but not limited to, receiving at least one panoramic video including a panoramic space having at least one object; receiving an environmental map, wherein the environmental map comprises an association of the at least one real object to at least one virtual object; augmenting, using the environmental map, the panoramic video, wherein the augmenting includes: rendering a plurality of real objects contained within the panoramic space; and embedding metadata associated with the virtual object into the panoramic video. Other aspects are described and claimed.

Abstract: One embodiment provides a method, including: receiving, using a camera, at least one panoramic video; determining, using an electronic device, a spatial location in the panoramic video associated with a selection by at least one viewer; obtaining, at the electronic device, a request by the at least one viewer to share the spatial location with at least one other viewer; and sending, using the electronic device, information associated with the spatial location to the at least one other viewer. Other aspects are described and claimed.

Abstract: Methods and systems for real-time object tracking and data aggregation in panoramic video are disclosed. An example system provides a panoramic video camera that produces panoramic video data of an area; a plurality of radio frequency tags producing tracking data; and at least one of the radio frequency tags being co-located with the panoramic video camera, producing tracking data for the panoramic video camera; at least another of the radio frequency tags being co-located with at least one object within the area, producing tracking data for the at least one object; a computing device, wherein the computing device receives the panoramic video data and further receives the tracking data from the plurality of radio frequency tags; the computing device generating a video stream by augmenting the panoramic video data with the tracking data; the computing device sending the video stream to at least one remote system. Other methods and systems are disclosed.

Abstract: Disclosed is a method, including, but not limited to, receiving at least one panoramic video including a panoramic space having at least one object; receiving an environmental map, wherein the environmental map comprises an association of the at least one real object to at least one virtual object; augmenting, using the environmental map, the panoramic video, wherein the augmenting includes: rendering a plurality of real objects contained within the panoramic space; and embedding metadata associated with the virtual object into the panoramic video. Other aspects are described and claimed.

Abstract: Methods and systems for real-time object tracking and data aggregation in panoramic video are disclosed. An example method provides receiving, at a first device, panoramic video data of at least one asset derived from at least one panoramic video camera; receiving tracking data related to the at least one asset from a tracking system; augmenting the panoramic video data by embedding it with the tracking data; and streaming the augmented panoramic video data over a network connection to at least one other device. Other methods and systems are disclosed.

Abstract: Methods and systems for real-time object tracking and data aggregation in panoramic video are disclosed. An example system provides a panoramic video camera that produces panoramic video data of an area; a plurality of radio frequency tags producing tracking data; and at least one of the radio frequency tags being co-located with the panoramic video camera, producing tracking data for the panoramic video camera; at least another of the radio frequency tags being co-located with at least one object within the area, producing tracking data for the at least one object; a computing device, wherein the computing device receives the panoramic video data and further receives the tracking data from the plurality of radio frequency tags; the computing device generating a video stream by augmenting the panoramic video data with the tracking data; the computing device sending the video stream to at least one remote system. Other methods and systems are disclosed.

Abstract: The invention comprises a small form-factor solid-state light engine that provides uniform lighting with high efficiency. The invention provides uniform lighting by practically eliminating any “dead spot” produced by conventional light engines. The invention produces light more effectively and thus fewer light engines need to be employed in a given lighting arrangement. The invention is modular, easily accommodating fiber optics of various sizes and shapes with minimal modification to the components of the light engine.

Abstract: A channel letter or light box illumination apparatus wherein the channel letter or light box is illuminated from a luminaire located at some distance from the channel letter or light box, ideally in a location expeditious to servicing replaceable components such as lamps and driver electronics. A light engine includes one or more light ports, with each port capable of conveying light via optical light guides for the purpose of illuminating a portion or entirety of the light box or channel letter. A singular light guide or plurality of light guides enters the side or rear of the channel letter or light box and are coupled to side-lit light guides. The side-lit light guides, which may be bent and formed, convey light and distribute it through out the channel letter or light box.

Abstract: An electro-optic video display apparatus consists of a plurality of optical fibers or light guides which convey a projected image from one or more projection surfaces to a larger display surface. The second surface is fashioned with additional optical circuits that transfer light and/or information incident upon the second surface to one or more third surfaces, for the purpose of detecting the proximity and/or motion of persons or objects near to the second surface.

Abstract: A fiber optic display apparatus consists of a plurality of optical fibers which convey a projected image from an input, or first surface, to a display, or second surface, whose area is greater than or equal to that of the first surface, such that any image projected on to the first surface appears enlarged on the second surface. The second surface is comprised of tiles which attach to adjoining tiles by means of flexible tabs and pliable locator rods in such a fashion as to allow the second surface to follow general contours (e.g. concave or convex), while the optical fiber bundles from each tile are collected into a fixture to form the first planar surface. Because of the modular design of the display it can be assembled or disassembled rapidly.

Abstract: A multiple optical fiber display module may be used in a Large Screen Display system. The multiple optical fiber display module includes at least two modular optical fiber display elements. Each modular display element further includes an optical fiber display tile, an optical fiber array, and an input matrix. The modular display module also includes a mounting frame for demountably attaching the input matrix of each modular optical fiber display tile to a single micro-display.