Microsoft Technology Licensing, LLC

Facebook, Inc.

Eric Bluestein

Mehmet Iyigun

Yevgeniy Bak

Robin Andrew Alexander

Andrew M Herron

Xiaozhong Xing

Hari R Pulapaka

Graham Wong

A computer-implemented method for debugging mixed-language applications may include (i) determining that an application includes code written in least two programming languages, (ii) identifying, in response to determining that the application includes the code written in the at least two programming languages, a language-agnostic debugger that integrates dynamically specified language-specific debuggers via a common debugger protocol, (iii) configuring the language-agnostic debugger to, for each of the at least two programming languages in which the application is written, integrate a language-specific debugger for the programming language, and (iv) debugging the application using the language-agnostic debugger that integrates the language-specific debuggers for the at least two programming languages. Various other methods, systems, and computer-readable media are also disclosed.

Systems and methods for debugging mixed-language applications

A hybrid drive includes multiple parts: a performance part (e.g., a flash memory device) and a base part (e.g., a hard disk drive). A drive access system, which is typically part of an operating system of a computing device, issues input/output (I/O) commands to the hybrid drive to store data to and retrieve data from the hybrid drive. Some data can be stored in one part but not the other, and this data can be synchronized with (e.g., copied to) the other part at various times. The drive access system provides indications to the hybrid drive of when to synchronize data in one part with the other part. These indications are made so that potential interference with use of the device by the user and/or power saving modes of the device due to the synchronization is reduced.

Dirty data management for hybrid drives

Achieving a consistent battery drain rate at a computing device includes identifying an amount of available battery energy, and identifying a target device runtime using the available energy. A plurality of time periods over which to budget energy use to achieve the target device runtime are identified, and an allotment of the available energy for each of the plurality of time periods is determined. A determination of how to allocate the allotted energy for a current time period is made. The determination includes identifying a priority of each application based user-facing attributes of each application, identifying an energy budget for each application, and allocating a portion of the allotted energy for the current time period to each application based on their identified priority and their energy budget. The energy budget for at least one application is adjusted based on that applications' energy usage during the current time period.

Achieving a consistent computing device battery drain rate

Coalescing triggers from external events. Embodiments include receiving a plurality of triggers, each associated with occurrence of an external event. A first trigger identified as time critical is scheduled for firing. A second trigger identified as opportunistic is coalesced with others of the plurality of triggers. Coalescing includes determining an importance of an application-based workload associated with the second trigger, determining a system state relevant to firing the second trigger, and determining a condition for firing the second trigger based on the importance of the workload and the system state. Coalescing also includes identifying that the condition for firing the second trigger aligns with a condition for firing the others of the plurality of triggers, and scheduling the second trigger for firing along with the others of the plurality of triggers. Embodiments also include subsequently firing the second trigger along with the others of the plurality of triggers.

Reducing system energy consumption through event trigger coalescing

A hybrid drive includes multiple parts: a performance part (e.g., a flash memory device) and a base part (e.g., a magnetic or other rotational disk drive). A drive access system, which is typically part of an operating system of a computing device, issues input/output (I/O) commands to the hybrid drive to store data to and retrieve data from the hybrid drive. The drive access system supports multiple priority levels and obtains priority levels for groups of data identified by logical block addresses (LBAs). The LBAs read while the device is operating in a power saving mode are assigned a priority level that is at least the lowest of the multiple priority levels supported by the device, increasing the likelihood that LBAs read while the device is operating in the power saving mode are stored in the performance part of the hybrid drive.

Power saving mode hybrid drive access management

A hybrid drive includes multiple parts: a performance part (e.g., a flash memory device) and a base part (e.g., a magnetic or other rotational disk drive). A drive access system, which is typically part of an operating system of a computing device, issues input/output (I/O) commands to the hybrid drive to store data to and retrieve data from the hybrid drive. The drive access system assigns, based on various available information, a priority level to groups of data identified by logical block addresses (LBAs). With each I/O command, the drive access system includes an indication of the priority level of the LBA(s) associated with the I/O command. The hybrid drive determines, based on the priority level indications received from the drive access system, which LBAs are stored on which part or parts of the hybrid drive.

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Seattle, WA, United States of America

Eric Bluestein