Abstract: A network management system may determine a first change in a first signal strength associated with first signals received by a fixed wireless access device located a first location. The first signals are received by the fixed wireless access device from a first base station. The network management system may determine a second change in a second signal strength associated with second signals received by the fixed wireless access device. The second signals are received by the fixed wireless access device from a second base station. The network management system may determine that the fixed wireless access device has been relocated to a second location based on the first signal strength increasing by at least a first attenuation value and the second signal strength decreasing by at least a second attenuation value.

Abstract: A management system may analyze signal strengths of signals received, from a plurality of devices, by a first device located in a first location of an enclosed structure. The management system may determine, based on analyzing the signal strengths, that a first subset of devices are located outside of the enclosed structure and that a second subset of devices are located inside of the structure. The second subset of devices include a second device and a third device that are stationary. The management system may determine that the first signal strength, of the second device, has increased by an attenuation value and that the second signal strength, of the third device, has decreased by the attenuation value. The management system may determine that the first device has been relocated based on the first signal strength increasing by the attenuation value and the second signal strength decreasing by the attenuation value.

Abstract: A device may include a processor configured to receive a report from a fixed wireless access device indicating that no anchoring relationship exists between a Fourth Generation (4G) base station and a Fifth Generation (5G) base station to which the fixed wireless access device is attempting to connect. The device may be further configured to instruct a network management system to create the anchoring relationship between the 4G base station and the 5G base station; and update an anchoring relationships database with information relating to the created anchoring relationship, wherein the anchoring relationships database stores information relating to anchoring relationships between base stations in a radio access network.

Abstract: A mobile gateway may provide access to one or more networks based on a variety of configurable parameters, constraints, etc. A Mobile Gateway Management System (“MGMS”) may maintain different sets of rules, parameters, etc. associated with multiple different mobile gateways, such that a network may be able to determine whether to provide access to a particular mobile gateway based on location parameters, temporal parameters, account parameters, or other parameters. When access is granted to the network based on the parameters, the mobile gateway may serve as an interface between one or more User Equipment (“UEs”) and the network.

Abstract: A device may receive a list of 4G base stations and 5G base stations associated with outages and identifiers of FWA CPEs associated with the 4G base stations and the 5G base stations, and may filter identifiers of the FWA CPEs from the list, that fail to satisfy an age out time period, to generate a filtered list. The device may determine whether all 4G base stations are out of service for a particular identifier of remaining identifiers included in the filtered list, and may identify a particular FWA CPE associated with the particular identifier as out of service. The device may determine whether all 5G base stations, associated with operational 4G base stations, are out of service for the particular identifier, and may identify the particular FWA CPE associated with the particular identifier as having only 4G service.

Abstract: One or more computing devices, systems, and/or methods for adaptive API call sequence detection are provided. A series of API calls and gap times between API calls of the series of API calls are recorded. The API calls are received and processed by a production system. The API calls are assigned into API call sequences. An end of an API call sequence is detected based upon a minimum response time and the gap times between the API calls. The API call sequences are utilized to simulate execution of the production system. A configuration is generated and applied to the production system based upon a result of the simulation.

Abstract: A method, a network device, and a non-transitory computer-readable storage medium are described in relation to an device detection and network slice assignment service. The device detection and network slice assignment service may include providing a subnetwork slice connection between a fixed wireless access device and a fifth generation (5G) radio access network device to an end device that is not 5G compatible. The fixed wireless access device may detect the end device based on an identifier included in a network assignment request. The fixed wireless access device may assign a network address, which may be associated with the network slice assignment service, to the end device. The fixed wireless access device may route traffic to and from the end device via the subnetwork slice connection.

Abstract: A device may receive a list of 4G base stations and 5G base stations associated with outages and identifiers of FWA CPEs associated with the 4G base stations and the 5G base stations, and may filter identifiers of the FWA CPEs from the list, that fail to satisfy an age out time period, to generate a filtered list. The device may determine whether all 4G base stations are out of service for a particular identifier of remaining identifiers included in the filtered list, and may identify a particular FWA CPE associated with the particular identifier as out of service. The device may determine whether all 5G base stations, associated with operational 4G base stations, are out of service for the particular identifier, and may identify the particular FWA CPE associated with the particular identifier as having only 4G service.

Abstract: A management system may receive base station information regarding 5G base stations identified by a fixed wireless access (FWA) device. The base station information may identify the 5G base stations and sectors of the 5G base stations. The management system may provide a request for a quantity of devices connected to each of the sectors. The management system may receive device information indicating the quantity of devices connected to each sector of the sectors of the 5G base stations. The management system may determine loads of the 5G base stations based on the device information. The management system may provide load information regarding the loads of the 5G base stations. The load information may be provided to cause a 4G base station to determine the loads of the 5G base stations prior to causing a 5G base station to establish a connection with the FWA device.

Abstract: A network management system may provide, to a base station, a request for base station device information regarding devices connected to the base station. The base station may be identified by a fixed wireless access (FWA) device. The network management system may receive, based on the request, the base station device information from the base station. The base station device information may indicate a quantity of the devices connected to the base station and signal strengths of the devices connected to the base station. The network management system may determine a load of the base station based on the quantity of the devices and the signal strengths of the devices and determine a signal strength threshold associated with the base station based on the load. The network management system may cause a connection to be established between the FWA device and the base station based on the signal strength threshold.

Abstract: A mobile gateway may provide access to one or more networks based on a variety of configurable parameters, constraints, etc. A Mobile Gateway Management System (“MGMS”) may maintain different sets of rules, parameters, etc. associated with multiple different mobile gateways, such that a network may be able to determine whether to provide access to a particular mobile gateway based on location parameters, temporal parameters, account parameters, or other parameters. When access is granted to the network based on the parameters, the mobile gateway may serve as an interface between one or more User Equipment (“UEs”) and the network.

Abstract: A system described herein may provide a technique for the assignment of Centralized Units (“CUs”) to Distributed Units (“DUs”) in a radio access network (“RAN”) that includes a distributed or hierarchical arrangement of network infrastructure equipment. Different groups of DUs may be modeled based on usage or traffic patterns, and complementary groups of DUs may be identified based on measures of usage that may vary with time. For example, one model associated with one group of DUs may experience relatively heavy usage during morning hours and light usage during evening hours, and another model associated with a complementary group of DUs may experience relatively light usage during morning hours and heavy usage during evening hours.

Abstract: A mobile gateway may provide access to one or more networks based on a variety of configurable parameters, constraints, etc. A Mobile Gateway Management System (“MGMS”) may maintain different sets of rules, parameters, etc. associated with multiple different mobile gateways, such that a network may be able to determine whether to provide access to a particular mobile gateway based on location parameters, temporal parameters, account parameters, or other parameters. When access is granted to the network based on the parameters, the mobile gateway may serve as an interface between one or more User Equipment (“UEs”) and the network.

Abstract: A device may include a processor configured to receive a report from a fixed wireless access device indicating that no anchoring relationship exists between a Fourth Generation (4G) base station and a Fifth Generation (5G) base station to which the fixed wireless access device is attempting to connect. The device may be further configured to instruct a network management system to create the anchoring relationship between the 4G base station and the 5G base station; and update an anchoring relationships database with information relating to the created anchoring relationship, wherein the anchoring relationships database stores information relating to anchoring relationships between base stations in a radio access network.

Abstract: A system described herein may provide a technique for the assignment of Centralized Units (“CUs”) to Distributed Units (“DUs”) in a radio access network (“RAN”) that includes a distributed or hierarchical arrangement of network infrastructure equipment. Different groups of DUs may be modeled based on usage or traffic patterns, and complementary groups of DUs may be identified based on measures of usage that may vary with time. For example, one model associated with one group of DUs may experience relatively heavy usage during morning hours and light usage during evening hours, and another model associated with a complementary group of DUs may experience relatively light usage during morning hours and heavy usage during evening hours.

Abstract: A mobile gateway may provide access to one or more networks based on a variety of configurable parameters, constraints, etc. A Mobile Gateway Management System (“MGMS”) may maintain different sets of rules, parameters, etc. associated with multiple different mobile gateways, such that a network may be able to determine whether to provide access to a particular mobile gateway based on location parameters, temporal parameters, account parameters, or other parameters. When access is granted to the network based on the parameters, the mobile gateway may serve as an interface between one or more User Equipment (“UEs”) and the network.

Abstract: A device may identify network interfaces of the device and may create a list of the network interfaces of the device. The device may receive a cell site name associated with the device and may generate dynamic host configuration protocol (DHCP) requests with a DHCP option that includes data identifying the cell site name and the network interfaces of the list. The device may broadcast the DHCP requests to one or more components that are connected, via connections, to the network interfaces, and may cause, based on broadcasting the DHCP requests to the one or more components, a user equipment to receive an indication of whether the connections to the network interfaces are valid.

Abstract: Systems and methods for detecting packet loss in a communication network are provided. A first network element can determine that a first group of packets meets an observation threshold. The observation threshold can comprise a predetermined number of packets in a sequence. A first timer can be initiated when the first group of packets meets the observation threshold. A first packet can be detected at the first network element after the first timer is initiated. The first timer can be re-initiated when the first packet is detected at the first network element before the first timer expires and the first packet comprises a packet in the sequence greater than a last detected packet. A first packet loss can be determined when the first packet is not a next packet in the sequence.

Abstract: Systems and methods are described for determining latency in a communication network. A non-IP protocol physical interface may be implemented at an access node. The physical interface may be configured to receive a simulated wireless device that mimics a radio-frequency interface. Delay data associated with segmented portions of a backhaul of the communication network may be measured at a base band unit (BBU) of the access node using the simulated wireless device. At least one segment of the backhaul may be isolated based on the measured delay data associated with the segmented portions.

Abstract: A wireless mesh network is configured. Each node is configured to function as either a gateway node or a relay node. To configure itself as a gateway node, an access node selects an SSID for each of its wireless interfaces that indicates it is an access node. When a relay access node is configuring itself, it scans for the SSIDs of available networks. The SSIDs of the mesh network are selected to indicate the number of other access points between a given access node and a direct wired connection (which is zero in the case of a gateway node.) The relay access node connects to the network having an SSID that indicates the fewest number of hops between itself and a direct wired connection. The SSID that is broadcast by the relay access node indicates the number of other access points between itself and a direct wired connection.