Abstract: Methods, systems, and apparatuses in a computing device enable magnification of selectable display objects. A first interaction event associated with a first selectable display object displayed in a display screen, the display screen having a boundary and a current magnification level is detected. A first display location and a first unmagnified size of the first selectable display object in the display screen is determined and a magnified display size for the first selectable display object based at least on the first unmagnified size is determined. A second display location for the first selectable display object based at least on the first display location is determined and the first selectable display object is displayed at the magnified display size and at the second display location on the display screen. The display screen is otherwise displayed entirely at the current magnification level.

Abstract: A touch screen computing device with an easy to use user interface. The computing device provides on the touch screen a control area associated with a content viewing area. Touch inputs that initiate in the control area, even if they extend into the viewing area, are interpreted as commands that manipulate the display of content. Other touch inputs are interpreted as interactions with displayed content. The control area may be formatted to allow easy access by a user holding the computing device. Through such an interface the user may input commands specifying direct manipulation of the content, without frustration that can occur from the computing device incorrectly interpreting those commands as interaction with the content.

Abstract: A magnifier movement system is described herein that provides a more user-friendly experience for users of natural input devices when moving the magnifier and interacting with magnified user interface elements. The system receives an indication that a user has touched the screen with a natural input device at a particular location. The system displays a drag control for moving the magnifier, but does not move the magnifier unless the user selects the drag control and moves the natural input device. If the drag control is unselected and the system receives additional natural input, then the system passes the input on to the magnified application. Thus, the magnifier movement system provides a more satisfying user experience for users of natural input-based computer systems and screen magnifiers.

Abstract: A magnifier movement system is described herein that provides a more user-friendly experience for users of natural input devices when moving the magnifier and interacting with magnified user interface elements. The system receives an indication that a user has touched the screen with a natural input device at a particular location. The system displays a drag control for moving the magnifier, but does not move the magnifier unless the user selects the drag control and moves the natural input device. If the drag control is unselected and the system receives additional natural input, then the system passes the input on to the magnified application. Thus, the magnifier movement system provides a more satisfying user experience for users of natural input-based computer systems and screen magnifiers.

Abstract: Assistive buffer usage techniques are described. In one or more implementations, audio generated through text-to-speech conversion is output, the audio corresponding to text portioned in one of a plurality of buffers from an item of content. An input is received to rewind or fast forward the output of the audio. Responsive to the input, additional audio is output that was generated through text-to-speech conversion from text portioned in another one of the plurality of buffers.

Abstract: User interface elements are identified and cataloged into a user interface inventory database keyed on a global user interface element identifier. Information is collected for user interface elements activated in an executing application or applications. Scenario information is collected and is used to update the user interface inventory database. Scenario information includes information concerning user interface element usage, state changes, etc. in time. The described information can be collected over a period of time and from a number of different computer systems. The information can be analyzed to determine and quantify usage and testing of user interface elements. The analyzed information can be used to determine how thoroughly a user interface element has been tested, how often the user interface element works as expected, most commonly used user interface elements and other information. The collected information can be used to track, quantify and identify ownership of user interface elements.

Abstract: A touch screen computing device with an easy to use user interface. The computing device provides on the touch screen a control area associated with a content viewing area. Touch inputs that initiate in the control area, even if they extend into the viewing area, are interpreted as commands that manipulate the display of content. Other touch inputs are interpreted as interactions with displayed content. The control area may be formatted to allow easy access by a user holding the computing device. Through such an interface the user may input commands specifying direct manipulation of the content, to without frustration that can occur from the computing device incorrectly interpreting those commands as interaction with the content.

Abstract: Assistive buffer usage techniques are described. In one or more implementations, audio generated through text-to-speech conversion is output, the audio corresponding to text portioned in one of a plurality of buffers from an item of content. An input is received to rewind or fast forward the output of the audio. Responsive to the input, additional audio is output that was generated through text-to-speech conversion from text portioned in another one of the plurality of buffers.

Abstract: A multi-model magnification system is described that can be used with multiple forms of input, including natural input such as touch-based devices. Users can zoom in/out and pan with their preferred mode of interaction, including mouse, keyboard, pen, and touch interactions. The system provides dedicated features for some modes, such as pinch/scroll gestures for touch input, that allow users to easily zoom in/out and pan the magnified area (e.g., on a touch laptop). The system provides an interactive panning mode in which the user the user can interact with the desktop or applications (e.g., clicking on icons) and pan using special gestures. When the system is in the panning mode, the system consumes received gestures or other input, otherwise the system passes received input to a magnified application.

Abstract: User interface elements are identified and cataloged into a user interface inventory database keyed on a global user interface element identifier. Information is collected for user interface elements activated in an executing application or applications. Scenario information is collected and is used to update the user interface inventory database. Scenario information includes information concerning user interface element usage, state changes, etc. in time. The described information can be collected over a period of time and from a number of different computer systems. The information can be analyzed to determine and quantify usage and testing of user interface elements. The analyzed information can be used to determine how thoroughly a user interface element has been tested, how often the user interface element works as expected, most commonly used user interface elements and other information. The collected information can be used to track, quantify and identify ownership of user interface elements.

Abstract: A magnifier panning system is described that creates a panning region at the edges of a magnified view. When a user moves the cursor into the panning region, the system pans the magnified view. When the user is not in the panning region, the user can interact with objects in the magnified view without the view shifting around. The objects appear magnified, but they do not behave or move any differently than they would if they were not magnified, providing the user with a familiar and comfortable user experience. Thus, the magnifier panning system provides the user with a much more natural view for interacting with the displayed objects while still allowing an efficient way to pan the view to move the magnified view to a different area of the screen.

Abstract: A magnifier movement system is described herein that provides a more user-friendly experience for users of natural input devices when moving the magnifier and interacting with magnified user interface elements. The system receives an indication that a user has touched the screen with a natural input device at a particular location. The system displays a drag control for moving the magnifier, but does not move the magnifier unless the user selects the drag control and moves the natural input device. If the drag control is unselected and the system receives additional natural input, then the system passes the input on to the magnified application. Thus, the magnifier movement system provides a more satisfying user experience for users of natural input-based computer systems and screen magnifiers.

Abstract: A multi-model magnification system is described that can be used with multiple forms of input, including natural input such as touch-based devices. Users can zoom in/out and pan with their preferred mode of interaction, including mouse, keyboard, pen, and touch interactions. The system provides dedicated features for some modes, such as pinch/scroll gestures for touch input, that allow users to easily zoom in/out and pan the magnified area (e.g., on a touch laptop). The system provides an interactive panning mode in which the user the user can interact with the desktop or applications (e.g., clicking on icons) and pan using special gestures. When the system is in the panning mode, the system consumes received gestures or other input, otherwise the system passes received input to a magnified application.

Abstract: A magnification system is described that provides a better user experience to users of desktop magnification, such as in conjunction with touch-based interface devices. The system includes an interactive panning mode that allows users to pan a magnified area of the desktop or application while still interacting with magnified elements, such as icons, files, and so forth. In the interactive panning mode, the user can pan the magnified desktop in a manner similar to traditional panning by selecting an area of the magnified desktop that does not contain user interface elements. The user can also click/touch buttons, UI elements, and interact with the magnified desktop in a normal fashion.

Abstract: A magnifier panning system is described that creates a panning region at the edges of a magnified view. When a user moves the cursor into the panning region, the system pans the magnified view. When the user is not in the panning region, the user can interact with objects in the magnified view without the view shifting around. The objects appear magnified, but they do not behave or move any differently than they would if they were not magnified, providing the user with a familiar and comfortable user experience. Thus, the magnifier panning system provides the user with a much more natural view for interacting with the displayed objects while still allowing an efficient way to pan the view to move the magnified view to a different area of the screen.

Abstract: A method and system providing a client with user interface information are described. The method and system implement a set of application program interfaces for providing user interface information to a client through an accessibility system. The accessibility system includes a mechanism for transferring user interface information from a provider side to the client side and a logical tree for selectively revealing user interface information. The application program interface system includes client side application program interfaces for assisting the client in obtaining user interface information. The client side application program interfaces include an automation class, a logical element class, a raw element class, control pattern classes, and an input class. The provider side application program interfaces include a provider automation class, a provider automation interface, a raw element interface, and control pattern provider interfaces.

Abstract: Control patterns are used to describe functionality that may be exposed by one or more types of elements or controls. Functionality that is common among two or more types of elements is described by the same control pattern. Certain predefined methods, structures, properties, and/or events may be associated with a particular control pattern. Elements that support the control pattern, when queried, return an interface that describes those methods, structures, properties, and/or events. Control patterns are mutually exclusive in the functionality they represent, so they may be combined in arbitrary ways to expose the complete set of functionality offered by a particular control.

Abstract: A method and system providing a client with user interface information are described. The method and system implement a set of application program interfaces for providing user interface information to a client through an accessibility system. The accessibility system includes a mechanism for transferring user interface information from a provider side to the client side and a logical tree for selectively revealing user interface information. The application program interface system includes client side application program interfaces for assisting the client in obtaining user interface information. The client side application program interfaces include an automation class, a logical element class, a raw element class, control pattern classes, and an input class. The provider side application program interfaces include a provider automation class, a provider automation interface, a raw element interface, and control pattern provider interfaces.

Abstract: Control patterns are used to describe functionality that may be exposed by one or more types of elements or controls. Functionality that is common among two or more types of elements is described by the same control pattern. Certain predefined methods, structures, properties, and/or events may be associated with a particular control pattern. Elements that support the control pattern, when queried, return an interface that describes those methods, structures, properties, and/or events. Control patterns are mutually exclusive in the functionality they represent, so they may be combined in arbitrary ways to expose the complete set of functionality offered by a particular control.

Abstract: A digital video effects apparatus has a graphical user interface having a display upon which is produced a video image within a predetermined shape, the video Image being rotated in time and space to represent a 3-dimensional effect. Control points are set by a user together with rotation angles and x-y scaling parameters of the video image. The apparatus interpolates between the control points to provide a smooth transition from control point to control point. The video image is zoomed in and out as the video image changes orientation and/or size so that the video image substantially fills an image area of the graphical user interface display. In the invention the video image is tracked on the GUI display even when it is outside the normally visible screen area.