Dish Wireless L.l.c.

Brian Mengwasser

Robert Kierzyk

Said Berrahil

Christopher Ergen

Madhuri Muttreja

Henry Yu

Ignacio Brarda

Julian Bishop

Systems, machine-readable media, and methods may facilitate controlling use of a radio frequency band. A communication device of a set of communication devices may be communicated with, and device specifications may be collected. Device parameters corresponding to the communication device may be detected. The device parameters may include a specification of a location. A coexistence composite may be determined based on the device parameters. Specifications corresponding to the coexistence composite may be developed. At least part of the specifications of the coexistence composite may be communicated with a radio frequency allocation system. Consequent to the communicating with the radio frequency allocation system, a radio frequency assignment and operating parameters for the coexistence composite may be identified. The communication device may be controlled to access the radio frequency band in accordance with the radio frequency assignment and the operating parameters for the coexistence composite.

Systems and methods for virtualized domain proxy control

Various arrangements for providing real-time simulated cellular network feedback are detailed herein. A network performance simulator can analyze a production hybrid cellular network. Based on the analysis, a cloud-based cellular network test environment can be constructed. Cellular network simulations can then be performed using the constructed cloud-based cellular network test environment. At some time in the future, a service request from a client may be received. The service request is analyzed using the results of the cellular network simulations to determine feedback of how the production cellular network is expected to perform. The performance feedback can be provided to the cellular network client.

Cellular network chaos simulation

Various arrangements for cellular network chaos testing are presented herein. A cloud-based environment can be created in which multiple cellular network components are executed on a cloud-based computing platform. Defined chaos can be injected into the cloud-based environment. At least one of the cellular network components is monitored to determine how the injected chaos affects the cellular network component. Performance data of the monitored cellular network component is captured from in the cloud-based environment. In response, a hybrid cloud-based production cellular network may be modified.

Cellular network chaos testing

Various arrangements for performing cellular network testing are presented herein. A test environment can be created for a production cellular network. A test can be defined for the cellular network within the testing environment then performed. An issue can be logged that indicates that a performance metric of the cellular network within the test environment was not met. The issue and the test environment are analyzed to identify a component responsible for the performance metric not being met. The cellular network as implemented in the test environment, the production network, or both can then be modified.

Virtualized cellular network multi-stage test and ticketing environment

An application marketplace system is able to provide applications to a device which cause the device's interaction with a network to change. The application marketplace system identifies a plurality of aspects of a network, each of which provide a type of network functionality for a device connected to the network. The application marketplace system receives user input indicating one or more aspects of the plurality of aspects of the network and user input indicating a device connected to the network. The application marketplace system generates an application for the device based on the user input and causes the application to be provided to the device. The generated application is able to change the device's interaction with the network.

Systems and methods for providing applications with access to network functionality

Systems and methods are provided to monitor drift in branches of code associated with virtualized containers of cellular services developed in a virtual platform that include a set of core network components associated with a network slice to provide network functions and microservices wherein the virtual plane includes a development test environment for developing at least instructional sets of branch code; a development application to configure an instructional set including branch code for associating with one or more containers that clone a plurality of network functions and microservices of the cellular services deployed in physical infrastructure; and a drift monitoring tool that based on simulations from tests of a developed branch code executed with containers of cloned network functions and microservices provide data to developers of drift caused by the branch code to operations of the network functions and microservices contained in the physical infrastructure.

Method and system to monitor drift in a virtual developmental environment of abstracted containerized applications

A digital twin system is able to provide a virtual representation of physical device and network infrastructure components in real-time. The digital twin system receives an indication of a user account associated with one or more devices associated with a network. The digital twin system identifies one or more network infrastructure components for the network which interact with the one or more devices associated with the user account. The digital twin system receives data describing the interaction of the devices with the network infrastructure components. The digital twin system causes the data describing the interaction of the devices to be displayed to a user.

Systems and methods for implementing digital twin with a live streaming map

A distributed data platform is able to predict whether data stored on a first network infrastructure component will be needed by a second network infrastructure component and prepares the data to be transmitted to the second network infrastructure component. The distributed data platform identifies a plurality of network infrastructure components connected to a network, and identifies data present on each component. The distributed data platform receives an indication that an event has occurred on the network and predicts whether the second network infrastructure component will require data stored by the first network infrastructure component. The distributed data platform prepares the data to be transmitted to the second network infrastructure component, and transmits the data after receiving an indication that the second network infrastructure component requires the data.

Systems and methods for a distributed data platform

Various arrangements for performing cellular network testing are presented herein. A test environment can be created for a production cellular network. A test can be defined for the cellular network within the testing environment then performed. An issue can be logged using a ticket logging system that indicates that a performance metric of the cellular network within the test environment was not met. The issue and the test environment are analyzed to identify a component responsible for the performance metric not being met. Access to a record defining the issue is provided to an external entity that is mapped to the component. The cellular network as implemented in the test environment can then be modified.

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Denver, CO, United States of America

Brian Mengwasser