Microsoft Technology Licensing, LLC

Harneet Singh Sidhana

Mohamed Sadek

Sushanth Rajasankar

Jonah Anthony Chin

Robert Wilhelm Schmieder

Steve Pronovost

Jeffrey E Stall

Christopher N Raubacher

Oreste Dorin Ungureanu

Puneet Narula

Sandeep Prabhakar

Geoffrey Tyler Trousdale

Anthony Tunjen Hsieh

Danielle Renee Neuberger

Risham Mankotia

Dorin Ungureanu

Disclosed herein is an application that intelligently places a user interface (UI) element on content of another application such that the UI element appears to be integrated and coordinated with the content of the other application and not merely overlaid on the webpage. The intelligent placement ensures that the UI element neither obstructs the view of pertinent content displayed via the other application nor interferes with the functionality of the other application. Moreover, the intelligent placement ensures that the UI element is completely visible to a user.

Intelligent placement of a user interface element on content of an application

Disclosed herein a browser that intelligently places a user interface (UI) element on a webpage such that the UI element appears to be integrated and coordinated with the webpage and not merely overlaid on the webpage. The intelligent placement ensures that the UI element neither obstructs the view of pertinent content displayed via the webpage nor interferes with the functionality of the webpage. Moreover, the intelligent placement ensures that the UI element is completely visible to a user. The placement of the UI element is done by the browser after the webpage has been retrieved from a web server. Consequently, the browser lacks the ability to control or alter the layout and appearance of the webpage. The UI element can be a selectable UI element that the browser associates with a function. In one example, the function can be an image-based search.

Intelligent placement of a browser-added user interface element on a webpage

Object sets are often organized and traversed in a hierarchical manner according to ownership, wherein a subset of contained objects are processed before or after a containing object that contains the contained objects. Such object sets may also be presented as a scene, which may involve traversing the object set in a drawing order, such as a descending distance order that renders objects in a back-to-front manner. It may be difficult to reconcile these distinct traversal techniques, particularly if different portions of the object set utilize a different traversal order. Presented herein are hybrid traversal techniques in which a selected subset of related objects is identified and traversed in a drawing order, and the remainder of the object set is traversed in an ownership order, in furtherance of various tasks that involve hybrid traversal orders and/or to facilitate the traversal of different types of object subsets within the object set.

Hybrid traversal of object sets

A desktop display over a remote connection is updated by detecting, at their origin, changes in the desktop that reflect movement of an image, such as window scrolls, window moves and other movements of regions. For every frame of the desktop that is composed, moves can be detected. The offsets and regions of these moves are transformed into desktop space. A list of moves and other information about changed regions in the desktop display provide both an indication of moved image regions and move parameters, and image data that has otherwise changed. The moved image regions are moved at the destination by applying the move parameters, without transferring image data for the moved region to the remote device, while the remaining changed portion of the desktop is copied over the connection to the remote device.

Remoting desktop displays using move regions

Embodiments described herein relate to improving throughput of a CPU and a GPU working in conjunction to render graphics. Time frames for executing CPU and GPU work units are synchronized with a refresh rate of a display. Pending CPU work is performed when a time frame starts (a vsync occurs). When a prior GPU work unit is still executing on the GPU, then a parallel mode is entered. In the parallel mode, some GPU work and some CPU work is performed concurrently. When the parallel mode is exited, for example when there is no CPU work to perform, the parallel mode may be exited.

CPU-GPU parallelization

An execute request is sent to a search component. The execute request specifies a search query. Subsequently, an execute response is received from the search component. The execute response comprising latency data and one or more properties of query results. The latency data specifies an amount of time consumed by the search component to process the execute request. The query results are content items that satisfy the search query. A record object model latency request is sent to the search component. The record object model latency request specifies search performance information based on the latency data. A record interface latency request is sent to the search component. The record interface latency request specifies interface performance information based on an amount of time consumed by the first component to process the search request.

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Seattle, WA, United States of America

Harneet Singh Sidhana