Microsoft Technology Licensing, LLC

Microsoft Corporation

Wolfgang Manousek

Ivo William Salmre

Friedrich Van Megen

Chen Zhao

Alain Franck Gefflaut

Frank Siegemund

Zhou Wang

Holger Christoph Kenn

William Dunlap

Mark A Hillebrand

Andreas Juergen Lachenmann

Robert Sugar

Alain Franck Pierre Gefflaut

Matthias Günter Neugebauer

Goetz P Brasche

Robert Fesl

A system described herein includes a receiver component that receives a first graphical user interface of a first computer-executable application and a second graphical user interface of a second computer-executable application. The system also includes an integration component that automatically causes a portion of the first graphical user interface and a portion of the second graphical user interface to be simultaneously displayed on a display screen in an integrated graphical user interface that appears to an end user as being a single application.

Integrated graphical user interface

Embodiments related to automatically adjusting wireless network settings based upon utilization of a wireless network link by applications are disclosed. For example, one disclosed embodiment provides a method of adjusting a wireless networking setting for a wireless network link. The method includes monitoring data flow through a network interface controller to collect, for each of one or more applications running on the computing device and communicating over the wireless network link, flow performance data comprising information regarding an amount of data flow arising from the application. The method also includes monitoring link data comprising information regarding data being sent and received over the wireless network link, and based upon the flow performance data and the link data, controlling a network interface controller to adjust the wireless networking parameter to change a configuration of the network link.

Application-driven control of wireless networking settings

A virtual execution system that is configured to be used in a resource-constrained device. The resource-constrained device includes an operating system and an application program that includes instructions. The virtual execution system includes an execution engine that is configured to execute the application program, and to facilitate the compatibility of the application program with the operating system. Non-functional aspects characterize the instructions and the operating system. The execution engine has access to the non-functional aspects, and implements improvements during the execution of the application program based on the non-functional aspects.

Virtual execution system for resource-constrained devices

Flexible attributes are attached to network requests that may be executed asynchronously. Any number of criteria may be attached to network requests. The requests are queued until the associated criteria are satisfied. Once the criteria are satisfied, the request is executed. Applications that make the requests are provided with simple success and failure notifications that they can respond to with various logic. Any type of criteria may be attached to a request. The criteria may be associated with the requests at design time of the application using a graphical user interface.

System and method for applying flexible attributes to execute asynchronous network requests

Knowledge of the computational context of a computer operating environment, for example, awareness of process threads, is used to route IP traffic in the presence of multiple active network connections. An additional protocol may be added to the network layer of an operating system in order to map certain computational contexts to particular network interfaces. Any process with identification parameters associated with a mapped computational context requesting data transfer via a communication network is bound to the network interface previously associated with the computational context rather than an alternate network interface that otherwise might be the default. Further, process threads created by a parent process thread may be caused to inherit the computational context of the parent thread in order to assign traffic to the same network interface. This routing framework may have particular application with respect to multihomed host devices, for example, mobile computing devices.

Network interface routing using computational context

A location-based caching system provides the ability for a mobile communication device to dynamically provide content related to a user's location. Content may comprise a series of map segments that anticipate the route traveled by a user of the mobile device. Other related content may also be provided, for example, point of interest information related to the route traveled. The system tracks a present location of the mobile device and predicts a future location of the mobile device. Based upon the prediction of future location, the caching module determines whether content related to the future location is presently stored on the mobile device. If appropriate content is not on the mobile device, the caching module retrieves the content from a content server via a network connection. The content information nay be contextually selected based upon, for example, user preferences, movement information, and device state information.

Location-based caching for mobile devices

Growing community of inventors

Dormagen, Germany

Wolfgang Manousek