Abstract: A user interface can have one or more spaces presented therein. A space is a grouping of one or more program windows in relation to windows of other application programs, such that the program(s) of only a single space is visible when the space is active. A view can be generated of all spaces and their contents.

Abstract: An electronic device: displays a first window and a second window within a display area, the first window having a first edge parallel to a second edge of the second window; and detects an input moving the first edge toward the second edge. In response to detecting the input, the device: pairs the first edge to the second edge such that the first window stops moving before it overlaps the second window when the user input satisfies pairing criteria, the pairing criteria include a first pairing criterion that is met when the input corresponds to movement of the first edge toward the second edge that deviates from a predefined axis by less than an angular threshold value; and continues the movement of the first window based on the input so that the first window overlaps the second window when the user input does not satisfy the pairing criteria.

Abstract: An electronic device may have a main display and an ancillary display. The device may also have a backlit keyboard with glyphs. An ambient light sensor may measure ambient light levels. Control circuitry in the laptop computer may adjust the color cast of content on the ancillary display depending on whether the content contains glyphs or other input display content or whether the content contains images, color gradients, or other output display content. Input display content may be matched in color cast to the color cast of the glyphs, which may be determined based on backlight status and/or measured ambient light information. Output content may be color matched to the main display.

Abstract: In some implementations, a method for managing virtual workspaces is described. In some implementations, workspace images corresponding to different virtual workspaces can be displayed on a user interface of a computing device. When an application window is moved onto one of the workspace images, the window can be scaled down to fit within the workspace image. In some implementations, a window grouping or cluster can be moved onto one of the workspace images and scaled down accordingly. In some implementations, a method for generating a new virtual workspace is described. In some implementations, a placeholder workspace image that has no corresponding virtual workspace can be displayed on a user interface of a computing device. In response to an application window being moved onto the placeholder workspace image, a new virtual workspace (and new workspace image) can be generated that includes the windows that were moved onto the placeholder workspace image.

Abstract: A set of user interfaces for a data processing system that operates with two or more display devices coupled to the system. In one embodiment, in response to moving a first window between two displays, the first window is displayed, as it straddles the two displays, differently on the two displays. For example, while a reference point (e.g. a cursor) on the window remains on a first display, a first portion of the window on the first display is displayed normally while a second portion on the second display is displayed with more translucence (more transparency) than the first portion; when the references point crosses to the second display, the first portion becomes more translucent than the second portion.

Abstract: A device may include a dynamic function row (DFR) comprising a touchscreen. A device processor may operate a DFR agent controlling the DFR. The DFR agent may generate and/or select images to display on the DFR based on rules and/or contexts, and the DFR may display the images.

Abstract: A set of applications on a mobile device can be specified, presented and automatically populated with transitional data sets. The transitional data sets can be stored on a network to facilitate computations of differences between transitional data sets and other data sets, and the differences can be presented on the mobile device by one or more location-aware applications.

Abstract: An electronic device may have a main display and an ancillary display. The device may also have a backlit keyboard with glyphs. An ambient light sensor may measure ambient light levels. Control circuitry in the laptop computer may adjust the color cast of content on the ancillary display depending on whether the content contains glyphs or other input display content or whether the content contains images, color gradients, or other output display content. Input display content may be matched in color cast to the color cast of the glyphs, which may be determined based on backlight status and/or measured ambient light information. Output content may be color matched to the main display.

Abstract: As a user's needs change over time, the widgets displayed in a widget display area are altered by the user to better suit the desires of the user. Further, the widgets selected for display can be configured as desired by the user to display information in different ways. In order to reduce clutter within the widget display area itself, electronic devices can include a user interface that facilitates ease of accessing, adding, removing, and configuring the widget display area and the widgets therein as desired by the user.

Abstract: A set of user interfaces for a data processing system that operates with two or more display devices coupled to the system. In one embodiment, in response to moving a first window between two displays, the first window is displayed, as it straddles the two displays, differently on the two displays. For example, while a reference point (e.g. a cursor) on the window remains on a first display, a first portion of the window on the first display is displayed normally while a second portion on the second display is displayed with more translucence (more transparency) than the first portion; when the references point crosses to the second display, the first portion becomes more translucent than the second portion.

Abstract: User-centric widgets and dashboards are automatically modified to reflect a user's goals and needs.

Abstract: A speakerphone system integrated in a mobile device is automatically controlled based on the current state of the mobile device. In one implementation, the mobile device is controlled based on an orientation or position of the mobile device. In another implementation, the control of the speakerphone includes automatically controlling one or more graphical user interfaces associated with the speakerphone system.

Abstract: An electronic device: displays a first window and a second window within a display area, the first window having a first edge parallel to a second edge of the second window; and detects an input moving the first edge toward the second edge. In response to detecting the input, the device: pairs the first edge to the second edge such that the first window stops moving before it overlaps the second window when the user input satisfies pairing criteria, the pairing criteria include a first pairing criterion that is met when the input corresponds to movement of the first edge toward the second edge that deviates from a predefined axis by less than an angular threshold value; and continues the movement of the first window based on the input so that the first window overlaps the second window when the user input does not satisfy the pairing criteria.

Abstract: A user-activatable dashboard (also referred to as a unified interest layer) contains any number of user interface elements, referred to herein as “widgets,” for quick access by a user. In response to a command from a user, the dashboard is invoked and the widgets are shown on the screen. The user can activate the dashboard at any time, causing the dashboard to temporarily replace the existing user interface display on the user's screen. Once the dashboard has been activated, the user can interact with any or all of the widgets, and can configure the dashboard by adding, deleting, moving, or configuring individual widgets as desired. When the user wishes to return to the normal user interface he or she was working with, the user issues a command causing the dashboard to be dismissed. Once the dashboard has been dismissed, the previous user interface state is restored, allowing the user to resume normal interactions with the operating system.

Abstract: As a user's needs change over time, the widgets displayed in a widget display area are altered by the user to better suit the desires of the user. Further, the widgets selected for display can be configured as desired by the user to display information in different ways. In order to reduce clutter within the widget display area itself, electronic devices can include a user interface that facilitates ease of accessing, adding, removing, and configuring the widget display area and the widgets therein as desired by the user.

Abstract: User interfaces for multiple display regions are described. One embodiment provides an array of non-overlapping windows that are created from a set of overlapping windows, and a user can select one of the non-overlapping windows to obtain an enlarged view of that selected window while keeping the other windows in their non-overlapping state. In one embodiment, the array of non-overlapping windows can include minimized windows or windows in other virtual desktops (e.g. windows in other “Spaces”) or both. In one embodiment, only windows of a selected application are shown in non-overlapping mode while opened windows of other applications are not shown.

Abstract: Selection of visualization objects, such as applications windows, is performed by determining a position of a system object. A graphical representation of a system object can be positioned over a display area of an application interface. The application interface is preeminently displayed in response to a graphical representation of system object being positioned over a corresponding display area of the application interface.

Abstract: A user-activatable dashboard (also referred to as a unified interest layer) contains any number of user interface elements, referred to herein as “widgets,” for quick access by a user. In response to a command from a user, the dashboard is invoked and the widgets are shown on the screen. The user can activate the dashboard at any time, causing the dashboard to temporarily replace the existing user interface display on the user's screen. Once the dashboard has been activated, the user can interact with any or all of the widgets, and can configure the dashboard by adding, deleting, moving, or configuring individual widgets as desired. When the user wishes to return to the normal user interface he or she was working with, the user issues a command causing the dashboard to be dismissed. Once the dashboard has been dismissed, the previous user interface state is restored, allowing the user to resume normal interactions with the operating system.

Abstract: Methods, systems, devices, and apparatus, including computer program products, for adjusting a graphical user interface. A motion of a device is detected. A graphical user interface of the device is adjusted in response to the detected motion.

Abstract: User interfaces for multiple display regions are described. One embodiment provides an array of non-overlapping windows that are created from a set of overlapping windows, and a user can select one of the non-overlapping windows to obtain an enlarged view of that selected window while keeping the other windows in their non-overlapping state. In one embodiment, the array of non-overlapping windows can include minimized windows or windows in other virtual desktops (e.g. windows in other “Spaces”) or both. In one embodiment, only windows of a selected application are shown in non-overlapping mode while opened windows of other applications are not shown.