Stripe, Inc.

Microsoft Technology Licensing, LLC

Stefan Krzysztof Gawrys

Ji Huang

Alexander Thiemann

Tushar Dhoot

Patrick James Gorman

Hubert Van Hoof

David John Brennan

Daniel Escapa

Grégory Christopher John Vandenbrouck

Adam Eagle

Andres Carlo Petralli

Tanin Na Nakorn

Alina Mihaela Stanciu

Arne Roomann-Kurrik

Aspects of the subject technology include receiving from a user device a request for obtaining data associated with the user device. The request is addressed to a destination device. Aspects also include determining with a first controller whether to transmit the request to the destination device via a first path. The determination is based on a first success rate of the first path. Aspects also include transmitting the request to the destination device via the first path in response to a determination to transmit the request to the destination device via the first path. Aspects also include determining, with a second controller, whether to transmit the request to the destination device via a second path, in response to a determination not to transmit the request via the first path. The determination is based on a second success rate of the second path.

Adaptive control loop routing via cascading controllers

A method and apparatus for a first service processing system receiving and responding to a service request using a time context of a service time protocol is described. The method may include receiving a network based message associated with a service. The method may also include determining whether a service time context has been passed to the first service processing system from a second service processing system in the request. Furthermore, the method can include when no service time context is determined to have been passed to the first service processing system in the request, generating a current service time from a combination of a current physical time of the first service processing system and an initial counter time, performing a task associated with the service, and transmitting a second network based message that comprises the current service time as time context metadata associated with the performance of the task to a second service processing system.

Systems and methods for context-aware event ordering protocol for distributed service systems

Described herein is a system and method of processing data of a digital twins object model. Data associated with a node of the digital twins object model is parsed to identify metadata associated with the node. The data can comprise telemetry data received from an IoT device associated with the node. User-defined function(s) are determined that match the identified metadata. The data and metadata can be provided to the user-defined function(s). The determined user-defined function(s) are executed. Also described herein is a method of creating a user-defined function for processing data of a digital twins object model. Information regarding business logic is received from a user defining a user-defined function. Information regarding telemetry condition(s) to which the user-defined function applies is received defining a matcher. The user-defined function and matcher are stored as objects within a spatial intelligence graph associated with the digital twins object model.

Individualized telemetry processing leveraging digital twins property(ies) and topological metadata

A clock data structure is introduced. An instance of the clock data structure can be attached to a billing data structure, such as a billing data structure that corresponds to a recurring payment. The instance of the clock data structure has a value that represents a frozen time&#x2014;i.e., a specific time that does not change unless instructed to. The billing data structures to which the clock data structure is attached operate as if the real time is the frozen time on the clock. Since the time is frozen, users wishing to test the billing data structure can update their system configurations at specific times, and subsequently advance the time in the clock data structure instance to see the effects on those configurations, as well as on other parts of the system, including asynchronous messaging and processing, and processes that involve other entities.

Deterministic validation of billing integrations through simulated time

Embodiments relate to supplementing a mixed reality system with information from a space model. The space model is a hierarchical or tree model of a physical space, where nodes represent physical places in the physical space and a parent-child relationship between nodes in the tree indicates a physical containment relationship for physical places represented by the nodes. The space model models containment relationships (e.g., building-floor-room) and does not necessarily include a two or three dimensional map of the physical place. Some of the nodes of the space model include representations of sensors and store measures therefrom. The mixed reality system includes a three-dimensional model possibly modeling part of the physical space. The mixed reality system renders views of the three-dimensional model according to the sensor measures stored in the representations.

Space models for mixed reality

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Seattle, WA, United States of America

Stefan Krzysztof Gawrys