Abstract: Disclosed are embodiments of battery stacker machines, including z-fold stacker machines, configured to provide a rolling transfer of a battery layer so as to reduce scrubbing. In some embodiments, the layer is flexed onto an arcuate surface using a vacuum or other force. The arcuate surface is then rotated to release the layer at a desired transfer location. For instance, the desired transfer location may be on top of a stack or onto another arcuate gripper surface.

Abstract: A computer-implemented technique is described herein for efficiently and reliably interacting with a nonconforming application component in a windowing environment. The nonconforming application component corresponds to a type of application (such as, but not limited to, an immersive-type full-screen application) that was not originally designed for presentation of application content in a windowing environment, or was not originally designed for presentation of application content in a windowing environment of a certain type. In some implementations, the computer-implemented technique generates a composite window by: creating a system-owned frame; receiving an application-owned window; and creating the composite window by combining the frame and the application-owned window. The technique can thereafter control the composite window by performing operations on the composite window via its system-owned frame.

Abstract: A computer-implemented technique is described herein for efficiently and reliably interacting with a nonconforming application component in a windowing environment. The nonconforming application component corresponds to a type of application (such as, but not limited to, an immersive-type full-screen application) that was not originally designed for presentation of application content in a windowing environment, or was not originally designed for presentation of application content in a windowing environment of a certain type. In some implementations, the computer-implemented technique generates a composite window by: creating a system-owned frame; receiving an application-owned window; and creating the composite window by combining the frame and the application-owned window. The technique can thereafter control the composite window by performing operations on the composite window via its system-owned frame.

Abstract: A computer-implemented technique is described herein for efficiently and reliably interacting with a nonconforming application component in a windowing environment. The nonconforming application component corresponds to a type of application (such as, but not limited to, an immersive-type full-screen application) that was not originally designed for presentation of application content in a windowing environment, or was not originally designed for presentation of application content in a windowing environment of a certain type. In some implementations, the computer-implemented technique generates a composite window by: creating a system-owned frame; receiving an application-owned window; and creating the composite window by combining the frame and the application-owned window. The technique can thereafter control the composite window by performing operations on the composite window via its system-owned frame.

Abstract: Techniques are described herein that are capable of providing universal back navigation for multiple windows. Universal back navigation allows universal back functionality to transition between operating in an in-application context and a cross-application context. In the in-application context, operation of the universal back functionality is restricted to functionality of an application (e.g., a single application) to which user instructions are to be currently directed by default. In the cross-application context, operation of the universal back functionality is not restricted to functionality of the application to which user instructions are to be currently directed by default.

Abstract: A computer-implemented technique is described herein for efficiently and reliably interacting with a nonconforming application component in a windowing environment. The nonconforming application component corresponds to a type of application (such as, but not limited to, an immersive-type full-screen application) that was not originally designed for presentation of application content in a windowing environment, or was not originally designed for presentation of application content in a windowing environment of a certain type. In some implementations, the computer-implemented technique generates a composite window by: creating a system-owned frame; receiving an application-owned window; and creating the composite window by combining the frame and the application-owned window. The technique can thereafter control the composite window by performing operations on the composite window via its system-owned frame.

Abstract: A computer-implemented technique is described herein for efficiently and reliably interacting with a nonconforming application component in a windowing environment. The nonconforming application component corresponds to a type of application (such as, but not limited to, an immersive-type full-screen application) that was not originally designed for presentation of application content in a windowing environment, or was not originally designed for presentation of application content in a windowing environment of a certain type. In some implementations, the computer-implemented technique generates a composite window by: creating a system-owned frame; receiving an application-owned window; and creating the composite window by combining the frame and the application-owned window. The technique can thereafter control the composite window by performing operations on the composite window via its system-owned frame.

Abstract: Techniques are described herein that are capable of providing universal back navigation for multiple windows. Universal back navigation allows universal back functionality to transition between operating in an in-application context and a cross-application context. In the in-application context, operation of the universal back functionality is restricted to functionality of an application (e.g., a single application) to which user instructions are to be currently directed by default. In the cross-application context, operation of the universal back functionality is not restricted to functionality of the application to which user instructions are to be currently directed by default.

Abstract: A computer-implemented technique is described herein for efficiently and reliably interacting with a nonconforming application component in a windowing environment. The nonconforming application component corresponds to a type of application (such as, but not limited to, an immersive-type full-screen application) that was not originally designed for presentation of application content in a windowing environment, or was not originally designed for presentation of application content in a windowing environment of a certain type. In some implementations, the computer-implemented technique generates a composite window by: creating a system-owned frame; receiving an application-owned window; and creating the composite window by combining the frame and the application-owned window. The technique can thereafter control the composite window by performing operations on the composite window via its system-owned frame.

Abstract: Window-invoking functionality is described herein for leveraging context information to present a graphical control element (e.g., a window) of an application in a manner that most likely corresponds to the underlying intent of a user. By doing so, the window-invoking functionality improves the efficiency of the user in interacting with the application, and also reduces consumption of computing resources. In one implementation, the window-invoking functionality includes an information gathering component for collecting the context information, and an invocation component for selecting a particular virtual desktop on which to present the graphical control element, based on the context information.

Abstract: A display environment for a plurality of display devices is described. In one or more implementations, a display environment of an operating system of a computing device is configured to display a plurality of shells that support user interaction with the operating system by launching a first shell for display on a first display device of the computing device and launching a second shell for display on a second display device of the computing device such that the first and second shells are displayable simultaneously by the computing device.

Abstract: Display instance management techniques are described. In one or more implementations, an application manager module of a computing device is executed that is configured to manage which display instances of the plurality of applications are made available via a user interface at a particular time. One or more application programming interfaces (APIs) are exposed by the application manager module that are configured to support switching by the application manager module between a plurality of the display instances for a respective single one of the plurality of applications in the user interface.

Abstract: A display environment for a plurality of display devices is described. In one or more implementations, a display environment of an operating system of a computing device is configured to display a plurality of shells that support user interaction with the operating system by launching a first shell for display on a first display device of the computing device and launching a second shell for display on a second display device of the computing device such that the first and second shells are displayable simultaneously by the computing device.