Abstract: Systems and methods to facilitate game profile development based on virtual and real activities of users are described herein. A user may perform virtual and/or real activities in order to develop a game profile so that the user can play one or more games where the game profile may be implemented. Users may be motivated to perform the virtual and/or real activities to develop the game profiles and show off and/or test their developed game profiles. The one or more games where the game profile may be implemented may be specific to one or more geo-graphic locations.

Abstract: Various embodiments of the invention disclosed herein provide techniques for extending on-screen gameplay via an augmented reality (AR) system. An extended AR application executing on an AR headset system receives, via a game controller, first data associated with a first object associated with a computer-generated game. The extended AR application renders an augmented reality object based on the first data associated with the first object. The extended AR application displays at least a first portion of the augmented reality object via an augmented reality headset system. Further, an image associated with the computer-generated game is simultaneously rendered on a display monitor.

Abstract: Systems and methods to facilitate game profile development based on virtual and real activities of users are described herein. A user may perform virtual and/or real activities in order to develop a game profile so that the user can play one or more games where the game profile may be implemented. Users may be motivated to perform the virtual and/or real activities to develop the game profiles and show off and/or test their developed game profiles. The one or more games where the game profile may be implemented may be specific to one or more geo-graphic locations.

Abstract: According to one implementation, an image generation system includes a base having a rotor and a motor for spinning the rotor about an axis of rotation, and a display secured to the rotor, wherein a center of mass of the display is situated off of the axis of rotation. Such an image generation system also includes a first counterweight coupled to the rotor and having a first location relative to the rotor, and a second counterweight coupled the to the rotor and having a second location relative to the rotor different than the first location. The first counterweight and the second counterweight are configured to stabilize the display while the display is spun by the motor and the rotor.

Abstract: Systems and methods to facilitate game profile development based on virtual and real activities of users are described herein. A user may perform virtual and/or real activities in order to develop a game profile so that the user can play one or more games where the game profile may be implemented. Users may be motivated to perform the virtual and/or real activities to develop the game profiles and show off and/or test their developed game profiles. The one or more games where the game profile may be implemented may be specific to one or more geo-graphic locations.

Abstract: This disclosure presents systems and methods to provide a shared augmented reality experience across multiple presentation devices based on detection of one or more extraterrestrial bodies. A presentation device may be configured to detect presence of an extraterrestrial body. The presentation device may obtain resource information corresponding to the extraterrestrial body. The resource information may specify information specific to the extraterrestrial body including a location of the extraterrestrial body. The presentation device may generate an image of a virtual object. The image may be presented so that the virtual object may be perceived as being present at the location of the extraterrestrial body. The virtual object may augment the appearance of the extraterrestrial body. Gameplay may be carried out utilizing the virtual object.

Abstract: Systems and methods to facilitate game profile development based on virtual and real activities of users are described herein. A user may perform virtual and/or real activities in order to develop a game profile so that the user can play one or more games where the game profile may be implemented. Users may be motivated to perform the virtual and/or real activities to develop the game profiles and show off and/or test their developed game profiles. The one or more games where the game profile may be implemented may be specific to one or more geo-graphic locations.

Abstract: According to one implementation, a stereoscopic image display system includes a computing platform having one or more hardware processor(s), a system memory storing a software code, an autostereoscopic display, and a user tracking unit controlled by the hardware processor(s). The hardware processor(s) execute the software code to utilize the user tracking unit to detect a left eye location and a right eye location of a user of the stereoscopic image display system, and to determine a left eye image and a right eye image corresponding to an output image of a content being played out by the stereoscopic image display system based on the respective left eye location and right eye location of the user. The hardware processor(s) further execute the software code to render the left eye image and the right eye image using the autostereoscopic display to generate a three-dimensional (3D) image of the output image.

Abstract: In one implementation, a multi-mode haptic effects delivery system includes an impact surface, a mass adjacent to the impact surface, and a driving mechanism configured to reciprocate the mass. The multi-mode haptic effects delivery system also includes a motor configured to generate a vibrational mode haptic effect. The driving mechanism configured to reciprocate the mass causes the mass to strike the impact surface so as to generate a recoil mode haptic effect. In one implementation, the driving mechanism is a gear assembly powered by the same motor used to generate the vibrational mode haptic effect.

Abstract: According to one implementation, a floating image display system includes a computing platform including a central processing unit (CPU), a graphics processing unit (GPU), and a system memory storing a software code. The system also includes one or more display screens controlled by the GPU, and a rotor coupled to the one or more display screens and controlled by the CPU. The CPU executes the software code to render a two-dimensional (2D) graphic on the one or more display screens using the GPU, and to spin the rotor and the one or more display screens about a vertical axis parallel to a display surface of the one or more display screens at a predetermined spin rate to generate a floating image of the 2D graphic. The floating image appears to be a three-dimensional (3D) floating image of the 2D graphic to a user viewing the floating image.

Abstract: According to one implementation, a floating image display system includes a computing platform including a central processing unit (CPU), a graphics processing unit (GPU), and a system memory storing a software code. The system also includes one or more display screens controlled by the GPU, and a rotor coupled to the one or more display screens and controlled by the CPU. The CPU executes the software code to render a two-dimensional (2D) graphic on the one or more display screens using the GPU, and to spin the rotor and the one or more display screens about a vertical axis parallel to a display surface of the one or more display screens at a predetermined spin rate to generate a floating image of the 2D graphic. The floating image appears to be a three-dimensional (3D) floating image of the 2D graphic to a user viewing the floating image.

Abstract: Various embodiments of the invention disclosed herein provide techniques for extending on-screen gameplay via an augmented reality (AR) system. An extended AR application executing on an AR headset system receives, via a game controller, first data associated with a first object associated with a computer-generated game. The extended AR application renders an augmented reality object based on the first data associated with the first object. The extended AR application displays at least a first portion of the augmented reality object via an augmented reality headset system.

Abstract: According to one implementation, a stereoscopic image display system includes a computing platform having one or more hardware processor(s), a system memory storing a software code, an autostereoscopic display, and a user tracking unit controlled by the hardware processor(s). The hardware processor(s) execute the software code to utilize the user tracking unit to detect a left eye location and a right eye location of a user of the stereoscopic image display system, and to determine a left eye image and a right eye image corresponding to an output image of a content being played out by the stereoscopic image display system based on the respective left eye location and right eye location of the user. The hardware processor(s) further execute the software code to render the left eye image and the right eye image using the autostereoscopic display to generate a three-dimensional (3D) image of the output image.

Abstract: This disclosure presents systems and methods to provide a shared augmented reality experience across multiple presentation devices based on detection of one or more extraterrestrial bodies. A presentation device may be configured to detect presence of an extraterrestrial body. The presentation device may obtain resource information corresponding to the extraterrestrial body. The resource information may specify information specific to the extraterrestrial body including a location of the extraterrestrial body. The presentation device may generate an image of a virtual object. The image may be presented so that the virtual object may be perceived as being present at the location of the extraterrestrial body. The virtual object may augment the appearance of the extraterrestrial body. Gameplay may be carried out utilizing the virtual object.

Abstract: In one implementation, a multi-mode haptic effects delivery system includes an impact surface, a mass adjacent to the impact surface, and a driving mechanism configured to reciprocate the mass. The multi-mode haptic effects delivery system also includes a motor configured to generate a vibrational mode haptic effect. The driving mechanism configured to reciprocate the mass causes the mass to strike the impact surface so as to generate a recoil mode haptic effect. In one implementation, the driving mechanism is a gear assembly powered by the same motor used to generate the vibrational mode haptic effect.

Abstract: This disclosure relates to augmenting a physical object with overlay images. An overlay image may be selected to augment the appearance of the physical object. The overlay image may be selected from a repository based on the movement of the physical object. The overlay image may be selected based on whether the physical object is projected. Responsive to determining that the physical object is projected, a first overlay image is selected. The selected first overlay image may be presented over views of the physical object. Responsive to determining the physical object is being held by a user, a second overlay image is selected. The selected second overlay image may be presented over views of the physical object. The appearance of the physical object in a client computing device may be augmented by the selected overlay image.

Abstract: According to one implementation, an image generation system includes a base having a rotor and a motor for spinning the rotor about an axis of rotation, and a display secured to the rotor, wherein a center of mass of the display is situated off of the axis of rotation. Such an image generation system also includes a first counterweight coupled to the rotor and having a first location relative to the rotor, and a second counterweight coupled the to the rotor and having a second location relative to the rotor different than the first location. The first counterweight and the second counterweight are configured to stabilize the display while the display is spun by the motor and the rotor.

Abstract: According to one implementation, a floating image display system includes a computing platform including a central processing unit (CPU), a graphics processing unit (GPU), and a system memory storing a software code. The system also includes one or more display screens controlled by the GPU, and a rotor coupled to the one or more display screens and controlled by the CPU. The CPU executes the software code to render a two-dimensional (2D) graphic on the one or more display screens using the GPU, and to spin the rotor and the one or more display screens about a vertical axis parallel to a display surface of the one or more display screens at a predetermined spin rate to generate a floating image of the 2D graphic. The floating image appears to be a three-dimensional (3D) floating image of the 2D graphic to a user viewing the floating image.

Abstract: This disclosure relates to augmenting a physical object with overlay images. An overlay image may be selected to augment the appearance of the physical object. The overlay image may be selected from a repository based on the movement of the physical object. The overlay image may be selected based on whether the physical object is projected. Responsive to determining that the physical object is projected, a first overlay image is selected. The selected first overlay image may be presented over views of the physical object. Responsive to determining the physical object is being held by a user, a second overlay image is selected. The selected second overlay image may be presented over views of the physical object. The appearance of the physical object in a client computing device may be augmented by the selected overlay image.

Abstract: According to one implementation, a floating image display system includes a computing platform including a central processing unit (CPU), a graphics processing unit (GPU), and a system memory storing a software code. The system also includes one or more display screens controlled by the GPU, and a rotor coupled to the one or more display screens and controlled by the CPU. The CPU executes the software code to render a two-dimensional (2D) graphic on the one or more display screens using the GPU, and to spin the rotor and the one or more display screens about a vertical axis parallel to a display surface of the one or more display screens at a predetermined spin rate to generate a floating image of the 2D graphic. The floating image appears to be a three-dimensional (3D) floating image of the 2D graphic to a user viewing the floating image.