Microsoft Technology Licensing, LLC

Microsoft Corporation

Srinivas Raghu Gatta

David G Thaler

Dmitry A Anipko

Kamalavasan Srinivasan

David T Jones

Andrew J Ritz

Poornananda R Gaddehosur

Osman Nuri Ertugay

Savas Guven

Michael Burt Goulding

Amer A Hassan

Thomas W Kuehnel

Yi Lu

Kenneth S Reneris

Marieke Iwema Watson

Jeroen Vanturennout

Alexander Malysh

Paul W Accisano

Mohammad Saifur Rahman

Hui Shen

Abhishek Abhishek

Sean O Lyndersay

Jiandong Ruan

Aaron Wesley Cunningham

Vishesh Parikh

Jean-Pierre Duplessis

Daniel Vasquez Lopez

Francis Duong

Matus Lipka

Jamie Randall Kuesel

Rahul Chandran

Jason Michael Lee

David Jones

Christian F Huitema

Scott Manchester

Richard Fang

Shannon J Chan

Lucas Scotta

Yi c/o Microsoft Corporation International Patents Lu

Yi Microsoft Corporation Lu

Aaron W Cunningham

Marieke I Watson

Vishesh M Parikh

A system and method for the automatic placement of superconducting devices determines an arrangement of a series of Josephson junctions between a start point and an end point of an inductive wiring run on a superconducting circuit layout having a plurality of discrete Josephson junction placement sites by determining costs of placing each Josephson junction of the series of Josephson junctions at the plurality of discrete Josephson junction placement sites between the start point and the end point of the inductive wiring run based at least on a comparison of a target inductance value to inductances of wires connecting to the Josephson junction and selecting sites from the plurality of discrete Josephson junction placement sites to place each Josephson junction corresponding to the arrangement of the series of Josephson junctions with the least determined cost for the inductive wiring run.

Autoplacement of superconducting devices

Systems and methods related to scheduling of tasks for execution in parallel based on geometric reach are described. An example method includes using a processor, processing information pertaining to a type of task to generate a plurality of areas of reach, where each of the plurality of areas of reach corresponds to a portion of a shared space. The method further includes using the processor, generating a plurality of inflated areas of reach by inflating each of the plurality of areas of reach based on a task-specific factor pertinent to the type of task. The method further includes automatically scheduling parallel execution of tasks associated with any of the plurality of inflated areas of reach satisfying a spatial constraint.

Scheduling of tasks for execution in parallel based on geometric reach

Systems and methods related to scheduling of tasks for execution in parallel based on geometric reach are described. An example method includes processing information pertaining to connectivity among superconducting components and nodes included in a shared floor plan to generate a plurality of areas of reach, where each of the plurality of areas of reach corresponds to a portion of the shared floor plan. The method further includes generating a plurality of inflated areas of reach by inflating each of the plurality of areas of reach based on a target inductance of wires for routing signals among the superconducting components and the nodes included in the shared floor plan. The method further includes scheduling parallel execution of tasks for routing wires among a subset of the superconducting components and the nodes within any of the plurality of inflated areas of reach satisfying a geometric constraint.

A head-mounted display device may display a notification artifact for another display device. Using image data of a physical environment, a three dimensional model of the environment may be generated. Locations of the head-mounted display device and the other display device within the model may be determined. Notification data for the other display device may be received. Based on the location of the other display device relative to the head-mounted display device, the notification artifact for the other display device may be displayed within the physical environment.

Notification artifact display

Operating system management of network interface devices is described. In one or more implementations, a determination is made by an operating system that network traffic associated with one or more applications of the computing device has completed. Responsive to the determination, a network interface device is caused to transition to a mode to reduce power consumption of the network interface device by the operating system.

Operating system management of network interface devices

Allowing a user to interact with external computing logic through a standardized user interface visualization. For instance, a user might be able to initiate an action of the external computing logic by one click, by interfacing with a slider control, and so forth. As a result of such interaction, a notification generated by the corresponding logic may be presented to a user. The notification could be presented in the same user interface visualization that was interacted with to trigger the external computing logic, or may be presented in a separate visualization, or in both. The notification could also be sent to one or more external computing entities, for instance, an email system, a mobile device, and so forth.

Visualizations for interactions with external computing logic

Described is a technology by which network connections are unified into a single user interface for user interaction with those networks. Upon receiving information identifying available networks that correspond to different types of media, a user interface component aggregates the available network connections and displays representations of the available network connections on the user interface. The result is a single user interface page on which the available networks are represented as available network connections that may correspond to destinations, for example by displaying a network name and/or a user-friendly name maintained in a network profile. Also displayable is connectivity status, security-related information, signal strength information for wireless network connections, and other information. The user may choose to show all available network connections, or only subset of the available network connections (e.g., only wireless, or only dial-up and VPN).

Connecting to different network types through a common user interface

Keep alive management techniques are described. In one or more implementations, a keep alive interval is calculated by an operating system of the computing device. The keep alive interval is used to maintain one or more notification channels between one or more applications of the computing device and a network.

Keep alive management

Wake pattern management techniques are described. In one or more implementations, network traffic received by a network interface device of a computing device is monitored and a traffic pattern is recognized in the monitored network traffic. An application of the computing device is identified that corresponds to the recognized traffic pattern and responsive to this identification, at least a portion of the identified application is woken.

Wake pattern management

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Redmond, WA, United States of America

Srinivas Raghu Gatta