Vladimir D Fedorov, 451020 Florence Ln APT 14, Menlo Park, CA 94025

7346634, Mar 18, 2008

Jun 23, 2003

10/602498

Vladimir D. Fedorov - Bellevue WA, US

Microsoft Corporation - Redmond WA

G06F 12/00
G06F 17/00

707203, 707204, 700 83

Systems and methods are provided for undoing, redoing or rolling back a configuration setting change for an application. Application configuration information related to the setting change can be received and stored by a log, wherein a history of the configuration setting changes for the application can be maintained. The system can also display the history of changes made for viewing and selecting. When a user wishes to revert a configuration setting back to a previous one, the user can select the desired setting for reversion and a call to a reversion routine can be made. At least a portion of the application information may then be passed to the reversion routine for reverting to the application's previous configuration setting.

8239479, Aug 7, 2012

Jun 22, 2007

11/766985

Akash J. Sagar - Redmond WA, US
George P. Moromisato - Seattle WA, US
Richard Yiu-Sai Chung - Bothell WA, US
Raymond E. Ozzie - Seattle WA, US
Jack E. Ozzie - North Bend WA, US
David Richard Reed - Seattle WA, US
Michael Steven Vernal - Seattle WA, US
Vladimir Dmitri Fedorov - Bellevue WA, US
Muthukaruppan Annamalai - Bellevue WA, US

Microsoft Corporation - Redmond WA

G06F 15/16

709217, 707710, 370503

Systems and methods for synchronizing data between endpoints using elements of centralized and decentralized synchronization systems and communication topologies are disclosed. Such systems and methods may in some cases synchronize some subset of data with a centralized endpoint while another subset of data is synchronized in a decentralized fashion directly with other endpoints. Such systems and methods may include a variety of cooperative functionality to assist in the synchronization of data between endpoints.

8386587, Feb 26, 2013

Apr 26, 2012

13/457321

Akash J. Sagar - Redmond WA, US
George P. Moromisato - Seattle WA, US
Richard Yiu-Sai Chung - Bothell WA, US
Raymond E. Ozzie - Seattle WA, US
Jack E. Ozzie - North Bend WA, US
David Richard Reed - Seattle WA, US
Michael Steven Vernal - Seattle WA, US
Vladimir Dmitri Fedorov - Bellevue WA, US
Muthukaruppan Annamalai - Bellevue WA, US

Microsoft Corporation - Redmond WA

G06F 15/16

709217, 707710, 370503

Systems and methods for synchronizing data between endpoints using elements of centralized and decentralized synchronization systems and communication topologies are disclosed. Such systems and methods may in some cases synchronize some subset of data with a centralized endpoint while another subset of data is synchronized in a decentralized fashion directly with other endpoints. Such systems and methods may include a variety of cooperative functionality to assist in the synchronization of data between endpoints.

8620889, Dec 31, 2013

Mar 27, 2008

12/057364

Akash Jeevan Sagar - Redmond WA, US
Muthukaruppan Annamalai - Bellevue WA, US
Vladimir D. Fedorov - Bellevue WA, US
Richard Y. Chung - Bothell WA, US

Microsoft Corporation - Redmond WA

G06F 7/00

707705, 707770, 707822, 709201, 709217

A file fetcher manager provides commonly-utilized management and resource allocation for multiple file fetchers that each implement a different type of mechanism or protocol for transferring data files between peer endpoints in meshes associated with a cloud-computing service. Each file fetcher is configured with both client-side and server-side components to retrieve and serve out data files. The file fetcher manager encapsulates the file fetchers to provide an abstract interface to callers while hiding the underlying details of the file fetchers. The file fetcher manager is arranged for managing simultaneous operations of the multiple file fetchers to route requests from the callers to the appropriate file fetchers, and for scheduling work items for the file fetchers so that data transfers efficiently utilize available resources while keeping the entire transfer process coherent and organized.

2004000, Jan 1, 2004

Jun 26, 2002

10/180733

Vladimir Fedorov - Bellevue WA, US

Microsoft Corporation - Redmond WA

G06F009/45
G06F009/44

717/148000, 717/146000, 717/116000, 717/118000

An intermediate language (IL) program is verified by processing the IL program in a single pass. Processed IL instructions may be provided to a just-in-time (JIT) compiler so that the IL program can be converted into a native language program of a targeted device. A verification apparatus may comprise a memory, a sequencing module, a memory updating module, and a rule logic module. The memory comprises an IL offset stack and a data structure that stores information of an IL stack corresponding to a processed IL instruction. The verification apparatus processes the IL program in a straight-line manner except when encountering IL instructions that correspond to designated op code types. In such cases, the verification apparatus may alter a sequencing of processing the IL program by utilizing the IL offset stack.

2009024, Sep 24, 2009

Mar 24, 2008

12/054355

Stephen T. Garrity - Kirkland WA, US
Michael Steven Vernal - San Francisco CA, US
Aakash D. Kambuj - Kirkland WA, US
Vladimir Dmitri Fedorov - Bellevue WA, US
Ryan C. Bergauer - Redmond WA, US

MICROSOFT CORPORATION - Redmond WA

G06F 3/00

719328

Techniques are disclosed to provide an application programming interface to access data stored in a remote storage service. The data may be of any type, and is stored in core objects.

2009030, Dec 3, 2009

Jun 3, 2008

12/131942

Akash Jeevan Sagar - Redmond WA, US
Vladimir D. Fedorov - Bellevue WA, US
Muthukaruppan Annamalai - Bellevue WA, US
Richard Y. Chung - Bothell WA, US

MICROSOFT CORPORATION - Redmond WA

G06F 15/173

709224

Synchronization of data across multiple endpoints in a mesh network that supports a data sharing service is throttled responsively to user activity in the network by monitoring the activity using a component in a mesh operating environment (“MOE”) runtime that is instantiated on each endpoint. The monitoring may include the collection of data that can be used to infer user activity, as well as data that explicitly indicates activity. State information is maintained so that data can be synchronized across the endpoints even when a user goes offline from the service. When the user logs on to the service, makes changes to a shared file, or the endpoint device starts up upon connection to a mesh network, throttling is performed by prioritizing work items associated with synchronization operations so that resources on the endpoint are not excessively consumed which could reduce the quality of the user experience.

2013007, Mar 21, 2013

Sep 21, 2011

13/239342

Edward Kenneth O'Neil - Seattle WA, US
Vladimir Fedorov - Menlo Park CA, US
Paul Tarjan - Palo Alto CA, US
Brynn Shepherd - San Francisco CA, US
Lars Elistrup Rasmussen - San Francisco CA, US
Michael Steven Vermal - San Francisco CA, US
Carl Philip Sjogreen - San Francisco CA, US

G06F 17/27

704 9, 704E11001

A social networking system includes a mechanism for integrating user actions on objects outside of the social networking system in the social graph. External system operators include widgets that, when executed by user devices, record user interactions that correspond to a defined structure of actions and objects. Third party operators utilize a tool provided by the social networking system to define the structure of actions and objects, verb tenses of action types, and noun forms object types. External actions are recorded by the social networking system for publishing to the social graph in dynamically generated sentences formed using the structure of the actions and objects.