Abstract: Systems and methods are described for virtual and augmented reality. A position of a first user and a position of a second user in a physical space are received, wherein the positions are derived from detected infrared light from a plurality of cameras. An image corresponding to the first user is rendered at a first virtual position in a display device associated with the second user, wherein the first virtual position is determined based at least in part on a position of the first user in the physical space and on a determined viewpoint of the second user. An image corresponding to the second user is rendered at a second virtual position in a display device associated with the first user, wherein the second virtual position is determined based at least in part on a position of the second user in the physical space and on a determined viewpoint of the first user.

Abstract: Systems and methods are described for virtual and augmented reality. A position of a first user and a position of a second user in a physical space are received, wherein the positions are derived from detected infrared light from a plurality of cameras. An image corresponding to the first user is rendered at a first virtual position in a display device associated with the second user, wherein the first virtual position is determined based at least in part on a position of the first user in the physical space and on a determined viewpoint of the second user. An image corresponding to the second user is rendered at a second virtual position in a display device associated with the first user, wherein the second virtual position is determined based at least in part on a position of the second user in the physical space and on a determined viewpoint of the first user.

Abstract: A portable virtual reality and/or augmented reality system enabling the projection and tracking of a user in a simulated environment is described. A system of motion capture cameras/sensors, computing, and tracking devices is provided in a portable package. Each tracking device is configured with one or more emitters which may generate a distinctive, repetitive pattern. The virtual reality and/or augmented reality system once assembled, provides for motion tracking and display of a one or more users in a simulated environment.

Abstract: A marker tracking system configured to detect light patterns (e.g., infrared light patterns) generated by one or more markers is described. A given marker is configured with a code which identifies the marker in a motion tracking camera field of view. Motion tracking camera(s) record the emitted infrared light and are configured to directly, or in conjunction with an associated computing device, computationally distinguish a given marker with high accuracy and efficiently.

Abstract: An aspect of the disclosure relates to an example marker identification and position tracking system configured to interface and work in conjunction with a marker device and camera system and to provide high fidelity tracking of user and object motion in a virtual and/or augmented reality experience. The example computing system enables use case scenarios in which certain computer aided design capabilities enable rapid creation/configuration of a multi-user, interactive, virtual reality, and/or augmented reality slide presentation experience.

Abstract: A multi-user virtual reality and/or augmented reality cluster system enabling the projection and tracking of users in a simulated environment is described. The disclosed cluster system enables both timely user action display in the first person and a timely view of a user's action by other participants of the simulation. The cluster system integrates motion capture cameras, distributed computing, and tracking devices to provide a simulation which seems lifelike to all participants and observers.

Abstract: Systems and methods are described for virtual and augmented reality. A position of a first user and a position of a second user in a physical space are received, wherein the positions are derived from detected infrared light from a plurality of cameras. An image corresponding to the first user is rendered at a first virtual position in a display device associated with the second user, wherein the first virtual position is determined based at least in part on a position of the first user in the physical space and on a determined viewpoint of the second user. An image corresponding to the second user is rendered at a second virtual position in a display device associated with the first user, wherein the second virtual position is determined based at least in part on a position of the second user in the physical space and on a determined viewpoint of the first user.

Abstract: A marker tracking system configured to detect light patterns (e.g., infrared light patterns) generated by one or more markers is described. A given marker is configured with a code which identifies the marker in a motion tracking camera field of view. Motion tracking camera(s) record the emitted infrared light and are configured to directly, or in conjunction with an associated computing device, computationally distinguish a given marker with high accuracy and efficiently.

Abstract: A portable virtual reality and/or augmented reality system enabling the projection and tracking of a user in a simulated environment is described. A system of motion capture cameras/sensors, computing, and tracking devices is provided in a portable package. Each tracking device is configured with one or more emitters which may generate a distinctive, repetitive pattern. The virtual reality and/or augmented reality system once assembled, provides for motion tracking and display of a one or more users in a simulated environment.

Abstract: A marker tracking system configured to detect light patterns (e.g., infrared light patterns) generated by one or more markers is described. A given marker is configured with a code which identifies the marker in a motion tracking camera field of view. Motion tracking camera(s) record the emitted infrared light and are configured to directly, or in conjunction with an associated computing device, computationally distinguish a given marker with high accuracy and efficiently.

Abstract: A multi-user virtual reality and/or augmented reality cluster system enabling the projection and tracking of users in a simulated environment is described. The disclosed cluster system enables both timely user action display in the first person and a timely view of a user's action by other participants of the simulation. The cluster system integrates motion capture cameras, distributed computing, and tracking devices to provide a simulation which seems lifelike to all participants and observers.

Abstract: A multi-user virtual reality and/or augmented reality cluster system enabling the projection and tracking of users in a simulated environment is described. The disclosed cluster system enables both timely user action display in the first person and a timely view of a user's action by other participants of the simulation. The cluster system integrates motion capture cameras, distributed computing, and tracking devices to provide a simulation which seems lifelike to all participants and observers.

Abstract: A portable virtual reality and/or augmented reality system enabling the projection and tracking of a user in a simulated environment is described. A system of motion capture cameras, computing, and tracking devices is provided in a portable package. Each tracking device is configured with one or more emitters which may generate a distinctive, repetitive pattern. The virtual reality and/or augmented reality system once assembled, provides for motion tracking and display of a one or more users in a simulated environment.

Abstract: Embodiment of a lightweight and compact wireless precision position tracking device and a precision position tracking motion capture system are described. Optionally, the wireless precision position tracking device is configured to be worn by a user. The wireless precision position tracking device may be configured to emit optical light from two or more respective markers, where the light from one of the markers is distinguishable from light from another of the markers.

Abstract: A marker tracking system configured to detect light patterns (e.g., infrared light patterns) generated by one or more markers is described. A given marker is configured with a code which identifies the marker in a motion tracking camera field of view. Motion tracking camera(s) record the emitted infrared light and are configured to directly, or in conjunction with an associated computing device, computationally distinguish a given marker with high accuracy and efficiently.

Abstract: A multi-user virtual reality and/or augmented reality cluster system enabling the projection and tracking of users in a simulated environment is described. The disclosed cluster system enables both timely user action display in the first person and a timely view of a user's action by other participants of the simulation. The cluster system integrates motion capture cameras, distributed computing, and tracking devices to provide a simulation which seems lifelike to all participants and observers.

Abstract: Embodiment of a lightweight and compact wireless precision position tracking device and a precision position tracking motion capture system are described. Optionally, the wireless precision position tracking device is configured to be worn by a user. The wireless precision position tracking device may be configured to emit optical light from two or more respective markers, where the light from one of the markers is distinguishable from light from another of the markers.

Abstract: Embodiment of a lightweight and compact wireless precision position tracking device and a precision position tracking motion capture system are described. Optionally, the wireless precision position tracking device is configured to be worn by a user. The wireless precision position tracking device may be configured to emit optical light from two or more respective markers, where the light from one of the markers is distinguishable from light from another of the markers.

Abstract: A portable virtual reality and/or augmented reality system enabling the projection and tracking of a user in a simulated environment is described. A system of motion capture cameras, computing, and tracking devices is provided in a portable package. Each tracking device is configured with one or more emitters which may generate a distinctive, repetitive pattern. The virtual reality and/or augmented reality system once assembled, provides for motion tracking and display of a one or more users in a simulated environment.

Abstract: Embodiment of a lightweight and compact wireless precision position tracking device and a precision position tracking motion capture system are described. Optionally, the wireless precision position tracking device is configured to be worn by a user. The wireless precision position tracking device may be configured to emit optical light from two or more respective markers, where the light from one of the markers is distinguishable from light from another of the markers.