Abstract: Gaming devices and methods are set forth which provide for determination of the movement of a player's face or body and to use the determination for providing a motion parallax effect to content provided from a remote source at a portion of a video display.

Abstract: Devices and methods are set forth which provide for determination of relative movement between a user and an auto-stereo electronic display and for using the relative movement for applying a motion parallax effect to the display of auto-stereo content and for applying or removing the motion parallax effect.

Abstract: Gaming devices and methods are set forth which provide for face or body tracking to provide a three-dimensional effect to at least a portion of the content displayed. A first display overlays at least a portion of a second display for an auto-stereo electronic display. The first display is adapted to be controlled to be transparent or display vertical barrier lines. The second display displays auto-stereo images of content in coordination with presentation of the vertical barrier lines, to provide a three dimensional effect based on the face or body tracking.

Abstract: Gaming devices and methods are set forth which provide for face or body tracking to provide a three-dimensional effect to at least apportion of the content displayed. A first video display overlays at least a portion of a second video display. The first display is adapted to be controlled to be transparent or display vertical lenticular lines. The second display displays video content. In response to a command the first display assumes a lenticular configuration to cooperate with the display of video content on the second display to provide a three dimensional effect.

Abstract: Gaming devices and methods are set forth which provide for face or body tracking to provide a three-dimensional effect to at least apportion of the content displayed. A first video display overlays at least a portion of a second video display. The first display is adapted to be controlled to be transparent or display vertical lenticular lines. The second display displays video content. In response to a command the first display assumes a lenticular configuration to cooperate with the display of video content on the second display to provide a three dimensional effect.

Abstract: Gaming devices and methods are set forth which provide for face or body tracking to generate content concurrently displayed with several degrees of the motion parallax effect.

Abstract: Devices and methods are set forth to perform operations that perform head tracking of a player of a wagering game machine. The operations can further include presenting different auto-stereo content in response to determining the movement of the head of the player.

Abstract: Gaming devices and methods are set forth which provide for face or body tracking to provide gesture input and also to generate content displayed based upon several degrees of the motion parallax effect.

Abstract: Gaming devices and methods are set forth which provide for face or body tracking to provide a three-dimensional effect to at least apportion of the content displayed. A first video display overlays at least a portion of a second video display. The first display is adapted to be controlled to be transparent or display vertical lenticular lines. The second display displays video content. In response to a command the first display assumes a lenticular configuration to cooperate with the display of video content on the second display to provide a three dimensional effect.

Abstract: Devices and methods are set forth which provide for face or body tracking to provide gesture input and also to generate content displayed based upon the motion parallax of the player to create a 3D effect. Issuance of a command may cause the display to go from the 2D display of content to content presented according to motion parallax. Further the intensity of the motion parallax effect may be presented and switched between a first and a lesser, second application.

Abstract: Gaming devices and methods are set forth which provide for face or body tracking to provide a three-dimensional effect to at least apportion of the content displayed. A first video display overlays at least a portion of a second video display. The first display is adapted to be controlled to be transparent or display vertical lenticular lines. The second display displays video content. In response to a command the first display assumes a lenticular configuration to cooperate with the display of video content on the second display to provide a three dimensional effect.

Abstract: Gaming devices and methods are set forth which provide for face or body tracking to provide gesture input and also to generate content displayed based upon several degrees of the motion parallax effect.

Abstract: Devices and methods are set forth which provide for determination of relative movement between a user and a video display and for using that detected relative movement for applying a motion parallax effect to the display of video content and for applying or removing the motion parallax effect based upon a command such as an event occurring to the play of a video game.

Abstract: Gaming devices and methods are set forth which provide for face or body tracking to provide gesture input and also to generate content displayed based upon the motion parallax of the player to create a 3D effect. In a community gaming environment gaming content may be superimposed over real time or recorded scenes to create a 3D effect between players of the community game.

Abstract: Gaming devices and methods are set forth which provide for face, body and/or tracking to enable 3D rendering of images at a virtual button panel. Lenticular barrier or motion parallax technology may be used. A player's interface with the button panel may be through touch a touch screen or sensing of non-touch gestures.

Abstract: Gaming devices and methods are set forth which provide for face or body tracking to provide gesture input and also to generate content displayed based upon the motion parallax of the player to create a 3D effect. In a community gaming environment gaming content may be superimposed over real time or recorded scenes to create a 3D effect between players of the community game.

Abstract: A power management system for a personal computer comprises a power management processor, a switchable power supply and a keep alive power supply. The processor is powered by the keep alive power supply that continuously provides power. The computer is powered by a power supply that is switchable in response to a control signal. The processor preferably controls the switchable power supply. The processor is coupled to receive external device interrupts from a plurality of external devices that instruct the processor when to turn the switchable power supply on and off. The processor is also coupled to the computer through an interface. The power management system also includes a method for turning the computer on and off. A preferred method uses the processor to control the power provided to the computer.

Abstract: A power management system for a personal computer comprises a power management processor, a switchable power supply and a keep alive power supply. The processor is powered by the keep alive power supply that continuously provides power. The computer is powered by a power supply that is switchable in response to a control signal. The processor preferably controls the switchable power supply. The processor is coupled to receive external device interrupts from a plurality of external devices that instruct the processor when to turn the switchable power supply on and off. The processor is also coupled to the computer through an interface. The power management system also includes a method for turning the computer on and off. A preferred method uses the processor to control the power provided to the computer.

Abstract: A power management system for a personal computer comprises a power management processor, a switchable power supply and a keep alive power supply. The processor is powered by the keep alive power supply that continuously provides power. The computer is powered by a power supply that is switchable in response to a control signal. The processor preferably controls the switchable power supply. The processor is coupled to receive external device interrupts from a plurality of external devices that instruct the processor when to turn the switchable power supply on and off. The processor is also coupled to the computer through an interface. The power management system also includes a method for turning the computer on and off. A preferred method uses the processor to control the power provided to the computer.

Abstract: A power management system for a personal computer comprises a power management processor, a switchable power supply and a keep alive power supply. The processor is powered by the keep alive power supply that continuously provides power. The computer is powered by a power supply that is switchable in response to a control signal. The processor preferably controls the switchable power supply. The processor is coupled to receive external device interrupts from a plurality of external devices that instruct the processor when to turn the switchable power supply on and off. The processor is also coupled to the computer through an interface. The power management system also includes a method for turning the computer on and off. A preferred method uses the processor to control the power provided to the computer.