T-mobile Usa, Inc.

T-mobile Innovations LLC

T-moblle Usa, Inc.

Egil Gronstad

Alan Denis MacDonald

Kun Lu

Jun Liu

Salvador Mendoza

Ming Shan Kwok

John J Humbert

Karunakalage Viraj Rakitha Silva

Scott Francis Migaldi

Christopher Harvey Joul

Brian Allan Olsen

Neng-Tsann Ueng

Paul Bongaarts

Jeff Ahmet

Timur Kochiev

Jun Liu, Sr

Hongliang Zhang

Boris Antsev

Suresh Thanneeru

Mark McDiarmid

Terri L Brooks

Gary C Jones

Karri Mikael Kuoppamaki

Andrew Gapin

Mallika Deshpande

Otto Fonseca Escudero

Grant Morgan Castle

Stephan Lagerholm

Dinesh Kumar

Kirti Krishnan

Dinesh Arcot Kumar

Benjamin Sellers

Sylvester Nowak

Elisabeth Mansfield

Ryan Colter

Hsin-Fu Henry Chiang

William Shvodian

Brett Lee Christian

Rahul Pal

Hsin Fu Henry Chiang

Chad Au

Lin Zhang

A Karl Corona

Kunal Prakash Barawkar

John Joseph Humbert, Iv

Waqas Gull

Raymond Wong

Jonathan Xayasy

Systems and methods are provided for synchronization signal block (SSB) periodicity optimization in a wireless network. A method includes measuring a network load and comparing the measured network load to a first predetermined threshold. The method further includes automatically adjusting an SSB periodicity when the network load meets the first predetermined threshold.

Optimization of synchronization signal block periodicity

Systems and methods for adapting one or more network resources of a telecommunication network based on mobility data include a cell site communicatively coupled to a network management system and a fixed device. The network management system is structured to receive mobility data corresponding to a fixed location served by a telecommunication network, the telecommunication network including a fixed wireless network, determine a mobility profile in real-time or near real-time based on the mobility data, and generate a command to adapt one or more network resources based on the mobility profile.

Network resource management and link adaptation based on user mobility profile

The system determines that an application running user equipment (UE) is requesting a throughput intensive communication over a network. The throughput intensive communication can require a predetermined downlink and uplink throughput. The system sends a first indication to the network, specifying to a base station of the network that the UE is requesting the throughput intensive communication. The base station determines whether it can provide the downlink throughput and the uplink throughput to the UE. Upon determining that the base station cannot provide the downlink or the uplink throughput to the UE, the base station sends a first message to the UE, indicating that the throughput intensive communication is of low quality. Upon receiving the first message, the UE waits for a predetermined criterion to be satisfied before attempting to engage in the throughput intensive communication, thereby reducing network traffic by eschewing sending repeated requests for the throughput intensive communication.

Reducing network traffic associated with a throughput intensive communication over a wireless telecommunication network

The system receives orbital information for at least one satellite of a non-terrestrial network. The orbital information includes the location and velocity of the at least one satellite. The system determines a location of a wireless device and the wireless device's location relative to the at least one satellite. The system calculates a connectivity window based on the relative location. The connectivity window is a time period at the location of the wireless device during which the wireless device receives a signal from the at least one satellite to perform a network connection with the non-terrestrial network. The system connects the wireless device to the non-terrestrial network when the connectivity window of the at least one satellite is open. The system prevents the wireless device from searching for a network connection to the non-terrestrial network when the wireless device is outside the connectivity window of the at least one satellite.

System for controlling connection of a device to a non-terrestrial network

Systems and methods for controlling the air to ground network coverage in an underserved area include an aerial vehicle and control circuitry communicatively coupled to relay circuitry, antenna circuitry, and a ground site. The control circuitry is structured to receive signal data corresponding to a radio signal, the relay circuitry structured to convert the radio signal into a subsequent signal, determine one or more airline schedules and one or more flight statuses associated with an underserved area, based on the one or more airline schedules and the one or more flight statuses determined, determine an aerial vehicle location as the aerial vehicle navigates to the underserved area, and generate a command to activate, via the antenna circuitry, transmission of air to ground network coverage based on the subsequent signal to the underserved area when the aerial vehicle location is in the underserved area.

Air to ground wireless repeater/relay system

Examples provide a network testing solution using a remote-controlled testing device. A test device includes a computing device for executing network performance testing logic and a cellular device. The test device controls the cellular device via a series of commands issued to the cellular device by the computing device. The test device is placed onto or inside a vehicle. As the vehicle moves through a geographical area, the test device automatically and autonomously performs network testing operations. The test data generated during the test is periodically uploaded to a central controller. The central controller aggregates test data received from a plurality of test devices assigned to a plurality of vehicles for a given campaign. The aggregated test data is analyzed and filtered to generate performance test results. A user can dynamically set up each campaign and assign test devices and vehicles to each campaign using a graphical user interface.

Performance testing using a remotely controlled device

A mobile network base station equipped with a dynamic domain scheduler configured to dynamically allocate resources to various domains associated with the base station based on real-time usage. Individual domains of the network base station may be configured to prioritize different types of network traffic. In some case, a domain specific scheduler may be associated with each domain in order to balance individual loads within each domain.

System and method for dynamic allocation of resources

Techniques for asymmetric dynamic spectrum sharing are discussed herein. A first portion of spectrum can share spectrum between Long Term Evolution (LTE) and New Radio (NR) radio access technologies (RATs). A second portion of spectrum can be allocated to a particular RAT without sharing. Thus, control signals associated with both RATs can be associated with the shared portion. However, for the portion not shared, control signals for the particular RAT (e.g., NR) can be used without the control signals from the other RAT (e.g., LTE), thereby increasing capacity in the portion not shared.

Asymmetric dynamic spectrum sharing

An access network can allocate a bearer for a network service associated with a quality-of-service (QoS) value (QV) and a retention-priority value (RPV), and determine a bearer ID for the service based on the QV, the RPV, and a supplemental priority value (SPV) different from the QV and from the RPV. Upon handover of a terminal, session(s) carried by a bearer allocated by the terminal can be terminated. That bearer can be selected using IDs of the bearers and a comparison function that, given two bearer IDs, determines which respective bearer should be terminated before the other. Upon handover of a terminal to an access network supporting fewer bearers per terminal than the terminal has allocated, a network node can select a bearer based on respective QVs and RPVs of a set of allocated bearers. The network node can deallocate the selected bearer.

Telecommunications network bearer allocation and deallocation

System and methods for smart cell selection and reselection are described. A mobile device may attempt to camp on a cell in a tracking area that has advertised a particular frequency band. If the mobile device is unable to recognize an information element identifying a different subset of the advertised frequency band than that supported by the mobile device, the mobile device will store a record of the tracking area and the advertised frequency band and compare future cell information broadcasts to the entry, avoiding attempts to operate within cells in the same tracking area advertising the same frequency. In this way the mobile device conserves resources by avoiding actions in incompatible cells and avoids storing information about many cells by only storing the tracking area information.

Smart UE cell selection and reselection

A cellular communication network may be configured to use a Long-Term Evolution (LTE) base station and a New Radio (NR) base station to implement a Non-Standalone Architecture (NSA) configuration, in an environment in which the NR base station uses multiple frequency bands that provide respective bandwidths. During an NSA connection with a mobile device, LTE signal strength is used as an indicator of whether the device is within the coverage area of a given NR frequency band. When the LTE signal strength indicates that the device has moved into the coverage area of a frequency band having a higher bandwidth than the currently active NR connection, the device is instructed to release and reestablish its NR connection in order to reconnect using the best available NR frequency band. LTE A1 and/or A5 event measurements may be used to evaluate signal strengths and as triggers for NR release/reestablish operations.

Frequency band handover in dual-connectivity systems

When initiating a Voice-over-IP (VoIP) communication session between an originating device (MO) and a terminating device (MT) on a packet-switched network, network components associated with the MO may encounter a failure when preparing resources for the session, such as a failure to establish a dedicated bearer with the MO. This might typically cause the system to abort the session. Instead, the network components are configured to detect the failure and to initiate a handover to a circuit-switched communication network so that the session may be conducted through the circuit-switched communication network. The failure may be detected by a component of a Long-Term Evolution (LTE) Radio Access Network (RAN) of the network, by a Mobility Management Entity (MME) of the network, or by some other network component. Single Radio Voice Call Continuity (SRVCC) procedures may be used to implement the handover.

Packet-switched to circuit-switched handover during VOIP call initiation

A telecommunication system can include routing devices, a bearer-management device, and a policy-management device. The bearer-management device can receive a request from a terminal to create a specialized bearer (SB) for a non-audio, non-video media type. The bearer-management device can determine that the request is associated with an authorized user, and then send a setup message comprising a Quality of Service (QoS) indicator to the policy-management device. The policy-management device can create the SB permitting data exchange between the terminal and a routing device. The SB can have QoS characteristics associated with the QoS indicator. In some examples, the terminal can receive a network address, determine an associated network port, and send a SIP INVITE message indicating the non-audio, non-video media type. The terminal can then exchange data on the network port with a peer network terminal.

Latency-sensitive network-traffic quality of service

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Encinitas, CA, United States of America

Egil Gronstad