Abstract: Systems, methods, and processing nodes for managing network topology perform and/or comprise: receiving user metrics associated with a community of interest; obtaining network-associated requirements for each of a plurality of services deployed on a network, at least a portion of the plurality of services being metaverse services; obtaining computing-system-associated requirements for each of the plurality of services; and based on the user metrics, the network-associated requirements, and the computing-system-associated requirements, generating a network-site implementation plan recommendation that minimizes one or more cost functions.

Abstract: The system monitors multiple communication channels between a first communicator and a second communicator. At least a portion of the multiple channels spatially overlap. The overlapping channels carry different communications. The system determines whether a first set of two or more channels among the multiple channels are interfering with each other. Upon detecting interference, the system obtains a first multiplicity of physical resource blocks associated with a first channel and a second multiplicity of physical resource blocks associated with a second channel, where a physical resource block comprises a frequency band of predetermined size. The system allocates a first subset of the first multiplicity of physical resource blocks to the first channel, and a second subset of the second multiplicity of physical resource blocks to the second channel, where the first subset and the second subset do not overlap.

Abstract: A method is performed by a wireless mobile network to mitigate interference between communication links. A request is received for resources needed to support an application by a vehicle relative to another vehicle. The resources are configured based on the application and are used to establish a direct communication link between the vehicles. The resources are to be shared between the direct communication link and another communication link. The mobile network defines certain blanked resources that are disallowed for use to perform the application. Any remaining resources (or non-blanked resources) are allowed for use to perform the application. The blanked resources can be used by the other communication link to avoid interference with the direct communication link. The allocation of resources is communicated to the vehicle to establish the direct communication link with the other vehicle.

Abstract: A system pairs a 5G-connected drone to a 5G-enabled user-controlled device. The system sets a predicted route for the 5G-connected drone to navigate. A portion of this route is indoors and matches an actual route of the user-controlled device. The system then causes the 5G-connected drone to commence navigating the predicted route. The system receives environmental data from the area surrounding the 5G-connected drone on the predicted route measured by a set of onboard sensors of the 5G-connected drone. Using the received environmental data and a deviation of the predicted route from the actual route traversed by the user-controlled device, the system determines that an alternate route for the 5G-connected drone exists and sets the alternate route. The system generates a notification based on the environmental data indicating hazards on the alternate route and transmits the notification over a 5G network to the user-controlled device.

Abstract: Systems, methods, and processing nodes for managing a wireless communication session perform and/or comprise: setting a signal loss threshold; comparing a signal characteristic with the signal loss threshold, wherein the signal characteristic corresponds to a duplex communication between a wireless communication device and an access node in a first frame configuration format; and in response to a determination that the signal characteristic exceeds the signal loss threshold, causing the wireless communication device and the access node to switch from the first frame configuration format to a second frame configuration format.

Abstract: Described is intelligent security based on the detection of the presence of mobile devices within a defined region, determined via accurate mobile device location sensing, e.g., within on the order of one meter. Upon detection of the presence of a mobile device within a defined region via mobile device millimeter wave-based position sensing, an identity associated with the mobile device is obtained. If the identity associated with the mobile device is not a trusted identity, action can be taken based on the presence of the identity within the defined region. The intelligent security can be implemented within an application program of a registered user's mobile device and/or a security system, such as a commercially available security system with alarm monitoring services. Various criteria can determine the action(s) to take, including by which region (if more than one), time of day, identity trust level, duration of presence, and the like.

Abstract: Aspects of the subject disclosure may include, for example, identifying network elements of a wavelength division multiplexing (WDM) domain of an optical waveguide communication system that includes a group of optical-add-drop multiplexor (OADM) devices. Operations are observed for the WDM domain configured to deliver communication services configured for simultaneously transporting independent signals across a network of single optical waveguides. A demand for optical waveguide communication services is determined and the WDM network is configured according to the optical fiber communication link requirement and according to the observations. The configured WDM network includes at least one OADM device of the group of OADM devices configured to provide a WDM cross-frequency network path of the configured WDM network. Other embodiments are disclosed.

Abstract: Techniques for calibrating a barometer sensor of a user equipment over time are discussed herein. In some cases, the accuracy of the barometer sensor may degrade over time. Techniques can include determining that the UE is at a consistent location over time. When the UE is at the location, the sensor data can be captured over time and stored. Data can be grouped by time periods (e.g., weekly, monthly, etc.) and a metric, such as an average value, can be determined. Over time, metrics can be compared to determine a drift in sensor accuracy. Differences in metrics can be used to determine calibration data, such as an offset, to calibrate subsequent sensor data. The offset can be applied to later-captured sensor data to provide more accurate data, which can ultimately result in more a more accurate determination of an elevation of the UE.

Abstract: Aspects of the subject disclosure may include, for example, a non-transitory machine-readable medium comprising executable instructions that, when executed by a processing system including a processor, facilitate performance of operations, the operations comprising: receiving by a selected one of a plurality of containers incoming traffic from a legacy application, the legacy application having been associated with a migrated application prior to the migrated application having been installed on a Software as a Service (SaaS) cloud infrastructure, the incoming traffic comprising a first instruction to perform a first legacy operation; mapping the first legacy operation of the legacy application to a replacement instruction for the migrated application by receiving data from the selected container and assigning the replacement instruction to replace the first instruction; and communicating with the migrated application on the SaaS cloud infrastructure, the communicating comprising sending to the migrated appli

Abstract: Aspects of the subject disclosure may include, for example, receiving, from a computing device, a user request to perform a subscriber identity module (SIM) swap for a subscriber, wherein the computing device and a user device are accessible to a user, based on the receiving the user request, generating a code for the SIM swap, resulting in a generated code, providing the generated code to the computing device for presentation, obtaining, from the user device, data associated with the user, the user device, or a combination thereof, facilitating user authentication responsive to the obtaining the data, detecting a transmission of a particular code from the user device, resulting in a detected code, and, based on the detecting the transmission and based on the facilitating the user authentication, performing an action relating to the SIM swap. Other embodiments are disclosed.

Abstract: Systems and methods for using a user simulation model to facilitate detection of usage anomalies is disclosed. Usage data is received for a session between a user device and an application or service. The usage data is monitored to detect a usage anomaly, such as unusual or suspicious transactions, unexpected user or device attributes, or abnormal usage patterns. In response to detecting a request to terminate the session, the session is instead handed off to a user simulation model that simulates interactions of a user in the session. The user simulation model can be a machine learning model that is trained, using a training dataset, to simulate user interactions. When the user logs into the application or service, the session can be handed off from the user simulation model to the user, such that the session is perpetual or substantially perpetual.

Abstract: Estimation of network latency based on aggregated performance data is disclosed. End-to-end latency between endpoints can comprise protocol-induced latency, access network-induced, core-network latency, and network-distance-based latency. Network latency, e.g., network-distance-based latency, also referred to as topological latency, can correspond to communication path length between endpoints. Crowdsourcing of communication path performance information can enable estimation of topological latency, and derivatives thereof, such as topological distance. Crowdsourcing can be the practice of obtaining information or input into a task or project by enlisting the services of a large number of people, either paid or unpaid, e.g., collection of performance information.

Abstract: A quality of service system comprising at least one quality of service controller, the quality of service controller receiving a request for a change in service priority from a default priority to an altered priority; analyzing the request to determine if the requested change in service priority can be granted, when the request for a change in service priority can be granted, preparing an altered flow rule including a tag identifying the altered priority; and pushing the altered flow rule to at least one access hardware.

Abstract: Systems and methods for ambient noise mitigation as a network service are provided. In some embodiments, an ambient noise mitigation server establishes at least one low latency network slice for at least one UE coupled to a radio access network. The ambient noise mitigation server generates a cancelation signal based on ambient sound mitigation data received by the radio access network, the ambient sound mitigation data including acoustic sensor data representing an ambient sound signal. The cancelation signal is generated to comprise a phase shift with respect to the ambient sound signal computed at least in part as a function of a location of the at least one UE, and causes at least one acoustic emitter to emit an acoustic cancelation signal based on the cancelation signal. In some embodiments, the phase shift may be adjusted by controlling a latency characteristic of the low latency network slice.

Abstract: In a wireless communication system, a source access node receives a security policy for a User Equipment (UE) from a wireless network core. The wireless network core and the UE establish security context over the source access node. The wireless network core and the UE exchange user data over the source access node based on the security context. The source access node handsover the wireless UE to a target access node and transfers the security policy for the wireless UE to the target access node. The target access node signals the wireless network core to establish new security context for the wireless UE responsive to the security policy. The wireless network core and the wireless UE establish new security context over the target access node. The wireless network core and the UE exchange additional user data over the target access node based on the new security context.

Abstract: An articulating working channel system for use with a plurality of flexible tools which are adapted to be interleaved in a single surgical procedure, comprising: a working channel subassembly including a hollow flexible shaft; and a surgical tool subassembly including the flexible tool, wherein the flexible tool includes a flexible tube which is adapted to be inserted into the flexible shaft and wherein the flexible shaft is adapted to be articulated and the flexible tube is adapted to be passively articulated therewith.

Abstract: Concepts and technologies disclosed herein are directed to autonomous vehicle pairing management. According to one aspect disclosed herein, a fleet pairing management application executed by a processor of an autonomous vehicle can initiate a fleet pairing process with a plurality of other autonomous vehicles, each of which can execute one of a plurality of other fleet pairing management applications. The fleet pairing management application can send, over a network, an initiate network pairing request to the plurality of other autonomous vehicles. The fleet pairing management application can receive a confirm network pairing response from at least one other autonomous vehicle of the plurality of other autonomous vehicles. A fleet can then be established. The fleet can include the autonomous vehicle and the at least one other autonomous vehicle of the plurality of other autonomous vehicles. The autonomous vehicles in the fleet can then share data among the fleet.

Abstract: A system receives an electronic message over the internet at a WebRTC gateway (WRG) of a telecommunications network. The system forwards the electronic message to a call session control function (CSCF) using session initiation protocol (SIP). The system detects a failed delivery of the electronic message at a rich communication service configured to deliver and monitor delivery of the electronic message and report failed deliveries. The system generates a failed delivery notification indicating that the electronic message was not delivered. The system receives the failed delivery notification at the WRG and at the WRG converts the electronic message to either a short messaging service (SMS) or multimedia messaging service (MMS) message. The system sends the SMS or MMS message from the WRG to the CSCF using SIP. The system forwards the SMS or MMS message to a short message service center (SMSC), which delivers the SMS or MMS message.

Abstract: An Internet Protocol Multimedia Subsystem (IMS) uses IMS slices in association with wireless network slices. The IMS receives an IMS registration from an IMS user device. In response, a wireless communication network identifies the wireless network slice that currently serves the IMS user device. The wireless communication network and/or the IMS selects an IMS slice for the IMS user device based on the wireless network slice that currently serves the IMS user device. The IMS serves an IMS service to the IMS user device from the selected IMS slice over the identified wireless network slice.