Abstract: Methods, systems, and media for synchronized media content playback on multiple devices are provided.

Abstract: Methods, systems, and media for adjusting quality level during synchronized media content presentation are provided.

Abstract: Methods, systems, and media for synchronized media content playback on multiple devices are provided.

Abstract: Methods, systems, and media for adjusting quality level during synchronized media content presentation are provided.

Abstract: Methods, systems, and media for adjusting quality level during synchronized media content presentation are provided.

Abstract: Methods, systems, and media for adjusting quality level during synchronized media content presentation are provided.

Abstract: Methods, systems, and media for synchronized media content playback on multiple devices are provided.

Abstract: Methods, systems, and media for adjusting quality level during synchronized media content presentation are provided.

Abstract: One or more techniques and/or systems are provided for displaying a first portion of a markup language document on a first device and displaying a second portion of the markup language document on a second device for interaction with the first portion (e.g., allowing a smart phone to control a video playing on a separate monitor). A markup language document can be created by a developer, where first and second portions of the document are delineated by a remote device tag. The remote device tag can be used to instruct a first device parsing the document to send the second portion to a second (e.g., remote) device. The first portion of the document can be rendered by the first device, and displayed on a display coupled with the first device; and a rendered version of the second portion can be displayed by a display coupled with second device.

Abstract: An image such as a depth image of a scene may be received, observed, or captured by a device. The image may then be processed. For example, the image may be downsampled, a shadow, noise, and/or a missing potion in the image may be determined, pixels in the image that may be outside a range defined by a capture device associated with the image may be determined, a portion of the image associated with a floor may be detected. Additionally, a target in the image may be determined and scanned. A refined image may then be rendered based on the processed image. The refined image may then be processed to, for example, track a user.

Abstract: One or more techniques and/or systems are provided for displaying a first portion of a markup language document on a first device and displaying a second portion of the markup language document on a second device for interaction with the first portion (e.g., allowing a smart phone to control a video playing on a separate monitor). A markup language document can be created by a developer, where first and second portions of the document are delineated by a remote device tag. The remote device tag can be used to instruct a first device parsing the document to send the second portion to a second (e.g., remote) device. The first portion of the document can be rendered by the first device, and displayed on a display coupled with the first device; and a rendered version of the second portion can be displayed by a display coupled with second device.

Abstract: An image such as a depth image of a scene may be received, observed, or captured by a device. The image may then be processed. For example, the image may be downsampled, a shadow, noise, and/or a missing potion in the image may be determined, pixels in the image that may be outside a range defined by a capture device associated with the image may be determined, a portion of the image associated with a floor may be detected. Additionally, a target in the image may be determined and scanned. A refined image may then be rendered based on the processed image. The refined image may then be processed to, for example, track a user.

Abstract: Game data is rendered in three dimensions in the GPU of a game console. A left camera view and a right camera view are generated from a single camera view. The left and right camera positions are derived as an offset from a default camera. The focal distance of the left and right cameras is infinity. A game developer does not have to encode dual images into a specific hardware format. When a viewer sees the two slightly offset images, the user's brain combines the two offset images into a single 3D image to give the illusion that objects either pop out from or recede into the display screen. In another embodiment, individual, private video is rendered, on a single display screen, for different viewers. Rather than rendering two similar offset images, two completely different images are rendered allowing each player to view only one of the images.

Abstract: Game data is rendered in three dimensions in the GPU of a game console. A left camera view and a right camera view are generated from a single camera view. The left and right camera positions are derived as an offset from a default camera. The focal distance of the left and right cameras is infinity. A game developer does not have to encode dual images into a specific hardware format. When a viewer sees the two slightly offset images, the user's brain combines the two offset images into a single 3D image to give the illusion that objects either pop out from or recede into the display screen. In another embodiment, individual, private video is rendered, on a single display screen, for different viewers. Rather than rendering two similar offset images, two completely different images are rendered allowing each player to view only one of the images.