Abstract: The present invention discloses methods and systems for establishing data communication at a network device. The method includes identifying a cellular network by the network device. After that, the network device sends a request to an MSA for an embedded subscriber identification module (eSIM) profile of the cellular network. The MSA may or may not have an eSIM profile of the cellular network available. When an eSIM profile of the cellular network is available, the network device receives the eSIM profile information from the MSA. The network device then sends a request for data communication access to the cellular network using the eSIM profile information to obtain data communication access through the cellular network. The network device may comprise at least one universal integrated circuit card (UICC) and/or embedded universal integrated circuit card (eUICC).

Abstract: A system and method providing Proof of Location or Proof of Location and Velocity consensus in a blockchain network using radio frequency (RF) signals. Nodes validate the location of other nodes in the network using PING-PONG round trip signal propagation time to determine maximum distances to other nodes. These maximum distances are then shared between nodes, whereupon the nodes use computational techniques to resolve validated, geospatial location of the other nodes. The sharing of measured maximum distances to local nodes is a form of Proof of Location consensus. The validated geospatial locations (and velocities) of local nodes are then written to the blockchain, creating a time history for each node. This information may be used by the blockchain operating rules to implement any number of security and other operational functions. The ability of the invention to operate without need for time synchronization between nodes is an advantage of the system.

Abstract: The present invention discloses methods and systems for establishing data communication at a network device. The method includes identifying a cellular network by the network device. After that, the network device sends a request to an MSA for an embedded subscriber identification module (eSIM) profile of the cellular network. The MSA may or may not have an eSIM profile of the cellular network available. When an eSIM profile of the cellular network is available, the network device receives the eSIM profile information from the MSA. The network device then sends a request for data communication access to the cellular network using the eSIM profile information to obtain data communication access through the cellular network. The network device may comprise at least one universal integrated circuit card (UICC) and/or embedded universal integrated circuit card (eUICC).

Abstract: The present invention discloses methods and systems for establishing data communication at a network device. The method includes identifying a cellular network by the network device. After that, the network device sends a request to an MSA for an embedded subscriber identification module (eSIM) profile of the cellular network. The MSA may or may not have an eSIM profile of the cellular network available. When an eSIM profile of the cellular network is available, the network device receives the eSIM profile information from the MSA. The network device then sends a request for data communication access to the cellular network using the eSIM profile information to obtain data communication access through the cellular network. The network device may comprise at least one universal integrated circuit card (UICC) and/or embedded universal integrated circuit card (eUICC).

Abstract: A system described herein may dynamically determine whether a User Equipment (“UE”) is authorized to access a given Local Area Data Network (“LADN”) based on dynamically determined factors, such as temporal factors, network load factors, registration or de-registration of the UE for the LADN, etc. Updates to such polices may be further used to determine whether the UE is authorized to access the LADN. Thus, the providing of services associated with a LADN may be more dynamic and based on additional factors than a determination of whether UE subscription information (e.g., as provided by a UE information repository) indicates that a given UE has subscribed to the LADN.

Abstract: Embodiments described herein provide for automatically authenticating telephone calls to an enterprise call center. The system disclosed herein builds on the trust of a data channel for the telephony channel. Certain types of authentication information can be received through the telephony channel, as well. But the mobile application associated with the call center system may provide additional or alternative forms of data through the data channel. The system may send requests to a mobile application of a device to provide information that can reliably be assumed to be coming from that particular device, such as a state of the device and/or a user's response to push notifications. In some cases, the authentication processes may be based on quantity and quality of matches between certain metadata or attributes expected to be received from a given device as compared to the metadata or attributes received.

Abstract: A method comprising receiving message content at a sending device. A location input is also received at the sending device, the location input identifying a geographic location. Using at least one processor, a location-based message is generated using the message content and the location input. A message marker is displayed, on a receiving map interface displayed on a display of a receiving device, at the geographic location identified by the location input.

Abstract: A method for reducing inter-PLMN forwarding of messages relating to Nnrf service operations includes receiving, at a first NRF, a first request for an Nnrf service operation, determining that the first request identifies a PLMN different from a PLMN of the first NRF, determining that the first request cannot be processed locally at the first NRF, and, in response, forwarding the first request to a second NRF in the PLMN identified in the first request. The method further includes receiving, from the second NRF, a response to the first request, caching information from the response, receiving a second request for an Nnrf service operation, determining that the second request identifies a PLMN different from the PLMN of the first NRF, determining that the second request can be processed locally at the first NRF, and processing the second request locally at the first NRF using the cached information from the first response.

Abstract: Systems and methods discussed herein are directed to monitoring and/or adjusting levels of ambient radio frequency (RF) signals within a wireless communication network. A geographic region is monitored for ambient radio frequency signal levels. The monitoring may be performed by a device configured for operation in the wireless communication network. For example, one or more of a UE, a base station, an IoT device, etc., may be configured with a sensor for sensing ambient RF signal levels. When it is determined that a measured amount of ambient radio frequency signal level exceeds a predetermined threshold, an operator of the wireless communication network may then provide an alert to at least one user of the wireless communication network.

Abstract: A user equipment operating in a connected mode includes a first layer, a second layer, and a third layer. The first layer generates a request to send a non-initial non-access stratum (NAS) message over a first connection that operates according to a first radio access technology (RAT). The second layer determines whether access to the first connection is barred for the non-initial NAS message. The first layer selects a connection to deliver the non-initial NAS message between the first connection and a second connection that operates according to a second RAT in response to access to the first connection being barred. In some cases, the non-initial NAS message is a mobile originated short message service (SMS) message or an uplink NAS transport message. In some cases, the first layer is an NAS layer and the second layer is a radio resource control layer.

Abstract: Techniques are provided to inform a mobile packet core of the access network/radio access technology (AN/RAT) change with the use of in-band signaling along the user plane and hence reduce signaling between radio access network and mobile packet core network. A new extension header content is defined to signal the AN/RAT change information, Cell Group changes and acknowledging the same. Further still, a method is provided to handle AN change notification for split bearer scenarios by introducing a split bearer flag for the mobile packet core to be notified of the predominant access type serving the subscriber data session in 5G Non-Stand Alone (NSA) Option-3, Option-3A and Option-3X, so that static or dynamic configurations can be applied by the mobile core network accordingly.

Abstract: A high data rate distribution network for low-earth orbit (LEO) satellite constellations is described. The high data rate distribution network includes multiple LEO constellations, each constellation including a number of LEO spacecraft orbiting in a LEO plane that are all connected together by by-directional free space optical links. The distribution network further includes geostationary earth orbit (GEO) spacecraft in communication with a number of ground gateways. The GEO spacecraft can receive forward communication traffic including radio-frequency (RF) and/or optical data streams uplinked from the ground gateways and can convert the received forward communication traffic into a forward aggregated traffic. The GEO spacecraft can further optically downlink the forward aggregated traffic to LEO spacecraft in a LEO constellation that is in line of sight of the GEO spacecraft. The forward aggregated traffic is then disaggregated among and received by the LEO spacecraft in the LEO constellation.

Abstract: A method comprising receiving, from a sending device, a location-based message. A location input is received, from the sending device, the location input being associated with the location-based message and defining a delivery area. A map interface is presented on a receiving device, together with an icon representative of the location-based message, the icon being presented responsive to the receiving device being located in the delivery area.

Abstract: An adjustment apparatus provided in this application includes an obtaining unit, a storage unit, and a processing unit, where the processing unit is electrically connected to the obtaining unit and the storage unit; the obtaining unit is configured to obtain antenna position information; the processing unit is configured to obtain latitude and longitude of an antenna or an azimuth of the antenna based on the antenna position information; the storage unit is configured to store the latitude and longitude of the antenna or the azimuth of the antenna; and the processing unit is further configured to read and write the latitude and longitude of the antenna or the azimuth of the antenna in the storage unit according to an instruction of a remote control unit, and the processing unit is further configured to adjust an electrical downtilt of the antenna according to the instruction of the remote control unit.

Abstract: As described herein, a system, method, and computer program are provided for a unified messaging platform deployed on an ephemeral mesh network. A first mobile device identifies an environment category to which the first mobile device is registered is identified. The first mobile device detects a second mobile device that is within a connectivity range of the first mobile device and that is registered to the environment category. The first mobile device establishes a connection with a decentralized ad-hoc mesh network via the second mobile device. The first mobile device uses a unified messaging protocol associated with the decentralized ad-hoc mesh network to communicate with at least the second mobile device.

Abstract: In general, the subject matter described in this disclosure can be embodied in methods, devices, and program products for modifying interactions between a mobile device and a peripheral device based on proximity. The mobile device monitors a wireless communication channel and receives a transmission from the peripheral device over the channel indicating that the mobile device is located within a first zone of proximity to the peripheral device. The mobile device determines distance values between the devices. When the mobile device determines that a distance value satisfies a threshold value, the mobile device visually indicates that it is within a second zone of proximity to the peripheral device. As a result of the mobile device receiving data from the peripheral device using a second communication protocol, the mobile device determines that it is located within a third zone of proximity to the peripheral device, and performs an action.

Abstract: Systems and methods are described for location based messaging. In one embodiment a mobile device is configured to receive a first recipient selection input identifying a second mobile device, a first content message associated with the first recipient selection input, and a first geofence input associated with the first content message, wherein the first geofence input identifies a first delivery area. The mobile device then initiates communication of the first content message from the mobile device to the second mobile device via a network, wherein the first content message is configured for presentation on the second mobile device when the second mobile device is within the first delivery area.

Abstract: A method is disclosed. The method includes establishing, by a first device, a wireless connection to a second device; transmitting a request, by the first device and to the second device, for location data indicative of a location of the second device; receiving, by the first device and from the second device, the location data indicative of the location of the second device; determining, by the first device, a distance between the first device and the second device based at least in part on the received location data; generating, by the first device, an altered value based on the received location data and the determined distance; and transmitting, by the first device and to the second device, the altered value and an account identifier associated with a user of the first device.

Abstract: Systems, devices, software, and methods of the present invention enable frequency-based signal power analyses in software suitable for signal with either stationary and non-stationary spectrums. The methods that may be used throughout various systems including transmitters receivers, repeater, controllers, monitors, etc. and in software simulators to enable various signal power calculations and analyses, such as frequency spectrum analysis, throughout operating systems and that may be consistently applied in system design and operation simulations in a wide range of applications, such as interference and spectrum monitoring or clearance, object tracking, transmission channel and noise analyses, radiated power analysis, signal boundary interference, satellite downlink signal identification, pulsed radar monitoring, audio detection and identification, lidar systems, sonar systems, etc.

Abstract: Certain embodiments are directed to techniques (e.g., a device, a method, a memory or non-transitory computer readable medium storing code or instructions executable by one or more processors) for communication techniques between an electronic device (e.g., a smart speaker, a smart TV, a smart appliance, etc.) and one or more mobile devices (e.g., a smartphone, a tablet, a wearable device etc.). Techniques can vary the rate the mobile device responds to ranging messages from the smart speaker based on one or more factors. These factors can include a state of the mobile device (e.g., awake or asleep), mobile device orientation (e.g., face down), application state (e.g., music App active), motion of the mobile device (e.g., at rest for period of time), and a range (distance/angle) between the mobile device and the speaker to conserve battery life. The range to the electronic device can activate one or more smart speaker features on the mobile device.