Microsoft Technology Licensing, LLC

Scott Michael Bragg

Ling Tony Chen

Scott Randall Shell

Shai Herzog

Triptpal Singh Lamba

Saumaya Sharma

Darya Mazandarany

Jorge I Raastroem

Rashid Qureshi

Xuemei Bao

Qian Zhang

Rajeev Bansal

Mihai Irinel Susan

Bogdan Andreiu

Thomas W Kuehnel

James Christopher Gray

Javier Nisim Flores Assad

Piyush Goyal

Sidharth Nabar

Karan Khanna

Scott A Inglis

Fatima Taher Calcuttawala

A stream of continuous data processing commands or workloads may be tracked for completeness. A stream of signals is received that includes a plurality of commands to be executed. At least one timeslice is generated in the received stream which corresponds to a period of time and includes the plurality of commands received in the period of time. The plurality of commands is categorized into at least one page and a unique identifier is assigned to the at least one page. The at least one page, including the unique identifier, is transmitted to a command executing agent and in response to receiving an indication that the at least one page is completed, each of the plurality of commands included in the at least one page is marked as completed.

Tracking of continuous data processing workloads

Various technologies described herein pertain to delivering shared WiFi credentials. According to various embodiments, at least one server computing device is configured to transmit shared WiFi credentials to a mobile device. The at least one server computing device receives a request, where the request includes data that identifies the mobile device. Moreover, the request indicates that the mobile device desirably receives credentials for a shared WiFi network. Responsive to receiving the request, the at least one server computing device determines that the mobile device is authorized to receive the credentials for the shared WiFi network based at least in part upon the data that identifies the mobile device. Moreover, the at least one server computing device transmits the credentials for the shared WiFi network to the mobile device responsive to determining that the mobile device is authorized to receive the credentials for the shared WiFi network.

Delivery of shared WiFi credentials

Embodiments personalize a set of network access points (NAPs) acting as captive portals for each user and/or user device. A cloud service, or the user device, accesses context describing the user device. The context identifies at least one NAP, and may include accounting data. One of the NAP is selected for connection based on the context, and an instruction set associated with the selected NAP is provided for replay by the user device to connect through the NAP. In some embodiments, instructions within the instruction set are also personalized to the user and/or user device based on the context.

Context-based selection of instruction sets for connecting through captive portals

When theft protection of a computing device is initiated, credentials of the user are provided to one or more services that verify the credentials and generate a recovery key. A data value is generated based on the recovery key and an identifier of the computing device (e.g., by applying a cryptographic hash function to the recovery key and the computing device identifier), and the data value is provided to the computing device, which stores the data value at the computing device. When a user is prompted to prove his or her ownership of the device, the owner can prove his or her ownership of the device in different manners by accessing the one or more services via a network (e.g., the Internet), or by providing the recovery key (e.g., obtained using another computing device) to the computing device.

Device theft protection associating a device identifier and a user identifier

Systems and methods for use in communication between a client and a server, via a networking device, are provided. The method may include sending a request to establish a data connection from the client to the server via the networking device, setting a data connection keep-alive interval for the data connection to a predetermined safe value, and sending a request to establish a test connection between the client and the server. The method may further include determining an efficient keep-alive interval for communication between the client and server via the networking device, using the test connection, setting the data connection keep-alive interval to the efficient keep-alive interval determined using the test connection, and uploading the efficient keep-alive interval from the client to the server in an efficient keep-alive interval notification message, for communication to other clients connected to the server.

Determining an efficient keep-alive interval for a network connection

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Snoqualmie, WA, United States of America

Scott Michael Bragg