Abstract: A wireless access node serves a wireless User Equipment (UE) over a Primary Component Carrier (PCC) and Secondary Component Carriers (SCCs). The wireless access node receives a report from the wireless UE indicating radio frequency bands and their received signal strengths. The wireless access node identifies the radio frequency bands that have adequate received signal strength. The wireless access node determines amounts of Multiple Input Multiple Output (MIMO) layers for the identified radio frequency bands. The wireless access node selects one of the identified radio frequency bands that has a larger amount of the MIMO layers. The wireless access node exchanges user data and network signaling with the wireless UE over the selected frequency band to serve the PCC to the UE. The wireless access node transfers additional user data to the UE to serve the SCCs to the UE.

Abstract: A Central Unit (CU) receives Fifth Generation Core (5GC) N2 signaling and generates Fifth Generation New Radio (5GNR) RRC signaling. The CU receives 5GC N1 signaling. The CU converts a first portion of the 5GNR RRC signaling into LTE RRC signaling and converts a first portion of the 5GC N1 signaling into LTE Non-Access Signaling (NAS). The CU transfers LTE Physical Layer High (PHY-H) signaling to an LTE Physical Layer Low (PHY-L) in an LTE Distributed Unit (DU). The CU transfers 5GNR PHY-H signaling to an 5GNR PHY-L in a 5GNR DU. The LTE DU receives the LTE PHY-H signaling and transfers the LTE RRC signaling and the LTE NAS signaling to LTE User Equipment (UE). The 5GNR DU receives the 5GNR PHY-H signaling and transfers the second portion of the 5GNR RRC signaling and the second portion of the 5GC N1 signaling to a 5GNR UE.

Abstract: A method of dynamically adapting a blockchain consensus criteria. The method comprises evaluating a first computing context by a consensus criteria adaptation application executing on a computer, wherein the first context comprises a first current vulnerability to cyber threats and an operational importance of a blockchain, based on evaluating the first computing context, adapting a first blockchain validity consensus criteria by the adaptation application, where the first consensus criteria identifies a first minimum number of consensus voting server computers, a first minimum percentage of approvals among voting server computers, and a first nonce calculation difficulty, applying the first consensus criteria to a first block requested to be added to the first blockchain, and determining, based on applying the first consensus criteria, that the first block is approved to be added to the first blockchain.

Abstract: A wireless access node simultaneously serves wireless User Equipment (UE) over Fifth Generation New Radio (5GNR) and Long Term Evolution (LTE). A baseband unit splits user data into a 5GNR portion and an LTE portion per a dynamic 5GNR/LTE split. A 5GNR radio wirelessly transfers the 5GNR portion to the wireless UE. An LTE radio wirelessly transfers the LTE portion to the wireless UE. The baseband unit corrects LTE and 5GNR transmission errors and determines a 5GNR Block Error Rate (BLER) and an LTE BLER. The baseband unit modifies the dynamic 5GNR/LTE split based on the difference between the 5GNR BLER and the LTE BLER. The baseband unit splits additional user data into 5GNR and LTE portions per the modified 5GNR/LTE split.

Abstract: A method of a wireless private gateway securely obtaining a communication link to another wireless private gateway is provided. The method comprises transmitting a request for a first partial identifier of a relay wireless private gateway by an application executing on a first wireless private gateway to a second wireless private gateway, receiving the first partial identifier, transmitting a request for a second partial identifier of the relay wireless private gateway to a third wireless private gateway, receiving the second partial identifier, concatenating the first partial identifier and the second partial identifier to form a complete identifier of the relay wireless private gateway by the application, and transmitting a request to establish a communication link with the relay wireless private gateway by the application to the relay wireless private gateway, wherein the request to establish the communication link comprises the complete identifier of the relay wireless private gateway.

Abstract: A method of communicating information from an ambient electromagnetic power harvesting (AEPH) chip. The method comprises receiving energy from a first ambient electromagnetic field by an AEPH chip, wherein the first ambient electromagnetic field provides a first level of power; based on energy received from the first ambient electromagnetic field, performing a first tier of processing by a processor of the AEPH chip; receiving energy from a second ambient electromagnetic field by the AEPH chip, wherein the second ambient electromagnetic field provides a second level of power that is greater than the first level of power; determining by the processor that the second level of power is above a predefined threshold; and based on the second ambient electromagnetic field being above the predefined threshold, performing a second tier of processing by the processor, wherein the second tier of processing comprises writing information by the processor into a non-transitory memory.

Abstract: A computer system for provisioning voicemail. The system comprises a processor, a non-transitory memory, and a voicemail provisioning application. Upon execution by the processor, the provisioning application receives a request to create a voicemail account associated with a first phone number, creates a voicemail account comprising a first voicemail box, assigns a voicemail account identifier associated with an identity of the subscriber, and transmits the voicemail account and first voicemail box to a voicemail system, wherein the voicemail account identifier is used to reference the voicemail account. The application further receives a request to create a voicemail account associated with a second phone number of the mobile communication device, determines that a voicemail account associated with the mobile communication device already exists, creates a second voicemail box, and transmits the second voicemail box to the voicemail account identified by the voicemail account identifier.

Abstract: A wireless relay exchanges user data with User Equipment (UE) over a wireless user link. The wireless relay exchanges a first portion of the user data with an internet over a wireless communication network. The wireless relay exchanges a second portion of the user data with the internet over a Local Internet Protocol Access (LIPA) network. The wireless relay tracks the exchanged user data by media type and network type. The wireless relay transfers network usage data to a network server. The network usage data indicates first amounts of the user data by the media type that were exchanged with the internet over the wireless communication network. The network usage data indicates second amounts of the user data by the media type that were exchanged with the internet over the LIPA network.

Abstract: A wireless communication network serves a wireless User Equipment (UE) with a wireless data service over wireless repeaters. A serving access node wirelessly receives UE signaling that indicates signal strengths for the wireless repeaters. The serving access node determines amounts of the wireless repeaters between the wireless UE and individual target access nodes. The serving access node selects a primary access node from the target access nodes based on the signal strengths and the wireless repeater amounts. The serving access node responsively transfers network signaling to the primary access node. The primary access node receives the network signaling and responsively serves the wireless UE with the wireless data service. The primary access node transfers additional network signaling to a secondary access node. The secondary access node receives the additional network signaling and responsively serves the wireless UE with the wireless data service.

Abstract: Disclosed is a method of gathering data from a hybrid RFID chip to determine usage of an item or article of clothing using a mobile device like a phone, laptop, or tablet. The hybrid RFID chip consists of a processor, a memory, a radio transceiver, a power harvesting antenna, and an impedance circuit that converts ambient radio frequency (RF) energy to electrical energy. The RFID chip receives a first power level from ambient RF energy and periodically broadcasts an identity. The mobile device can receive the broadcast identity, store the identity, transmit the identity and location to a remote server, and receive a notification message from the remote server. The remote serve can determine usage of the item or article of clothing by comparing current records to previous records of RFID chip identity, location, and mobile device application identity.

Abstract: A method of managing use of a digital billboard. The method comprises determining, by an analysis application executing on a computer system, a plurality of mobile viewsheds for each of a plurality of mobile communication devices, where a mobile viewshed comprises a location, a speed, a direction of travel of the mobile communication device, accessing demographic and profile information of a subscriber associated with the device, determining an arcscore for each of the mobile viewsheds that intersect a static viewshed of the digital billboard based in part on the speed of the mobile viewshed and the angular alignment of the direction of travel of the mobile viewshed with an orientation of the static viewshed of the digital billboard, and rotating content presentation on the digital billboard at a rate determined in part based on the arcscores and based on the average traffic speed.

Abstract: A wireless communication system beamforms an uplink from an airborne transceiver to a terrestrial transceiver. The airborne transceiver comprises antennas that have an antenna type an aperture beamwidth. The airborne transceiver transfers a transceiver ID to the terrestrial transceiver. The terrestrial transceiver initiates aerial uplink beamforming for the antenna type and the aperture beamwidth based on the airborne transceiver ID. The terrestrial transceiver determines uplink beamforming metrics and altitude for the airborne transmitter. The terrestrial transceiver generates an uplink beamforming instruction and an uplink power instruction for the antenna type and the aperture beamwidth of the airborne transceiver based on the uplink beamforming metrics and altitude. The terrestrial transceiver transfers the uplink beamforming instruction and the uplink power instruction to the airborne transceiver.

Abstract: A wireless communication device generates content-delivery data indicating stored media content, content-delivery interface capability, tethered media devices, and Internet Protocol (IP) address data for the wireless communication device and for the tethered media devices. The wireless communication device wirelessly transfers the content-delivery data to a wireless communication network for delivery to a content distribution network. The wireless communication device transfers at least a portion of the stored media content to the wireless communication network for subsequent content delivery.

Abstract: A wireless communication network delivers multi-frequency service to User Equipment (UE). A primary node receives signaling from the UE that indicates secondary nodes along with their frequencies and signal strengths. The primary node selects candidate nodes based on the signal strengths for the secondary nodes. The primary node determines potential intermodulation interference between the primary frequency and the frequencies for the candidate set. The primary node selects a qualifying set from the candidate set based on the potential intermodulation interference. The primary node determines communication performance for the qualifying set and selects a serving set from the qualifying set based on the communication performance. The primary node wirelessly transfers signaling to the UE identifying the serving set and transfers signaling to the serving set identifying the UE. The serving set of secondary access nodes wirelessly transfer user data to the UE over their frequencies responsive to the signaling.

Abstract: A method of merging commits of code in a parallel code base environment. The method comprises receiving a plurality of tickets from a ticket data store by a commit merge application executing on a computer system, wherein each ticket comprises at least one commit comprising a commit identifier and a timestamp, extracting the at least one commit identifier from each of the plurality of tickets, and ordering the extracted commit identifiers from earliest to most recently committed based on the timestamp. Based on the ordering, the method further comprises merging the commits of the test code branch with a master code branch, identifying conflicts between the commits of the test code branch with the master code branch, and resolving any identified conflicts to a later commit.

Abstract: A method of data communication service to a wireless communication device, comprising receiving a first communication session initiation message by a communication gateway from a wireless communication device, wherein the first communication session initiation message provides no access point name (APN) or provides a default APN, based on the first communication session initiation message providing no APN or providing a default APN, sending the first communication session initiation message by the communication gateway to an APN allocation server, parsing the first communication session initiation message by the APN allocation server to determine a destination identity of the first communication session initiation message and to determine an identity of the wireless communication device, looking up a communication policy by the APN allocation server, looking up by the APN allocation server an APN associated with the communication policy, sending the APN by the APN allocation server to the wireless communicati

Abstract: Baseband circuitry receives and processes measurement reports from multiple User Equipment (UEs) at multiple locations and responsively determines radio metric variances at the multiple locations. The baseband circuitry receives attachment signaling from a new UE, determines the location for the new UE, and determines a measurement time period for the new UE based on the radio metric variance at the location of the new UE. The baseband circuitry transfers the measurement time period to the new UE. The baseband circuitry receives and processes a measurement report from the new UE and determines to add a secondary access node based on a radio metric for the secondary access node in the new measurement report. The baseband circuitry transfers network signaling to the secondary access node to serve the new UE and transfers additional user signaling to new UE to attach to the secondary access node.

Abstract: A wireless User Equipment (UE) associates video session capabilities with relay identifiers. The UE wirelessly establishes a video session using a network address. The UE receives a handover command and wirelessly attaches to a wireless relay. The UE receives a new network address and a relay identifier that identifies the wireless relay from the wireless relay. The UE determines if the wireless relay supports the video session mobility based on the received relay identifier and the association of the video session capabilities with the relay identifiers. The UE continues the video session using the initial network address when the wireless relay supports the video session mobility. The UE re-establishes the video session using the new network address when the wireless relay does not support the video session mobility.

Abstract: A method of analyzing location data of mobile communication devices. The method comprises determining a dwell time of each of a plurality of mobile communication devices in location clusters associated with each device by an application that executes on a computer, determining a centroid of the location clusters by the application, for each of the plurality of mobile communication devices, determining by the application centroids of the location clusters associated with the mobile communication device that are located within a predefined geometry, analyzing by the application the dwell times of mobile communication devices in the predefined geometry based on the determination of centroids that are located within the predefined geometry, and building a building traffic flow survey by the application based on the analysis of dwell times of mobile communication devices in the predefined geometry.

Abstract: A wireless communication network serves a wireless User Equipment (UE) and comprises a wireless access node and a support access node. The wireless access node determines a sector power ratio for the support access node. The wireless access node determines an add threshold for the support access node based on the sector power ratio for the support access node. The wireless access node determines an add value for the support access node and determines when the add value is greater than the add threshold. When the add value is greater than the add threshold, the wireless access node signals the support access node to serve the wireless UE and signals the wireless UE to attach to the support access node. In response, the support access node wirelessly transfers user data for a wireless communication service to the wireless UE.