Microsoft Technology Licensing, LLC

Alex Bendetov

Arun Upadhyaya Kishan

Hari R Pulapaka

Alain Franck Gefflaut

Pedro Miguel Sequeira De Justo Teixeira

Innokentiy Basmov

Emily Nicole Wilson

Scott Daniel Anderson

David John Linsley

Alex Mark Semenko

Richard Allen Pletcher

James Anthony Schwartz, Jr

Matthew Robert Ayers

Michael H Krause

Malcolm James Smith

Kinshuman Kinshumann

Michael J Grass

Andrey Shedel

James Aaron Holmes

Haseeb Ahmed

Zoran Dimov

Aaron M Farmer

Troy E Shaw

Among other things, one or more techniques and/or systems are provided for controlling resource access for background tasks. For example, a background task created by an application may utilize a resource (e.g., CPU cycles, bandwidth usage, etc.) by consuming resource allotment units from an application resource pool. Once the application resource pool is exhausted, the background task is generally restricted from utilizing the resource. However, the background task may also utilize global resource allotment units from a global resource pool shared by a plurality of applications to access the resource. Once the global resource pool is exhausted, unless the background task is a guaranteed background task which can consume resources regardless of resource allotment states of resource pools, the background task may be restricted from utilizing the resource until global resource allotment units within the global resource pool and/or resource allotment units within the application resource pool are replenished.

Background task resource control

Embodiments of the disclosure provide access to data in a compressed container through dynamic redirection, without storing decompressed data in persistent memory. The compressed container is stored in a first portion of memory. User data and reference files, with redirect pointers, for accessing corresponding files in the compressed container are stored in a second portion of memory. A command to access data is detected by a computing device. The redirect pointer in the reference file associated with the command redirects access to the corresponding compressed version of data stored in the compressed container. The corresponding accessed compressed version of data is decompressed on the fly and provided in response to the command without storing the decompressed data in persistent memory. Some embodiments provide integrity protection to validate the data coming from the compressed container.

Accessing data in a compressed container through dynamic redirection

Among other things, one or more techniques and/or systems are provided for application prioritization. For example, an operating system of a computing device may contemporaneously host one or more applications, which may compete for computing resources, such as CPU cycles, I/O operations, memory access, and/or network bandwidth. Accordingly, an application (e.g., a background task or service) may be placed within a de-prioritized operating mode during launch and/or during execution, which may result in the application receiving a relatively lower priority when competing with applications placed within a standard operating mode for access to computing resources. In this way, an application placed within a standard operating mode (e.g., a foreground application currently interacted with by a user) may have priority to computing resources over the de-prioritized application, such that the application within the standard operating mode may provide enhanced performance based upon having priority to computing resources.

Application prioritization

Modern application tracing techniques are described herein that enable dynamic logging of events declared in a static manifest. Various events for logging can be declared in a static manifest. The static manifest may then be compiled to translate the declared events into a library of corresponding functions that can be called by 'modern' applications written using dynamic code. Calls made to these functions from dynamic code are converted to corresponding static events and forwarded to existing tracing application programming interfaces (APIs) designed to handle logging of static events for 'legacy' applications that use compiled code. In this manner, static functions that are compatible with tracing APIs can be created and called dynamically from dynamic code. This can occur without requiring administrative rights to install the code and while preserving existing features for legacy applications, such that a tracing log can include events from both modern applications and legacy applications.

Modern application tracing

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Redmond, WA, United States of America

Alex Bendetov