51 results about "Radio networks" patented technology

Aspects of the subject disclosure may include, for example, attaching, by a radio circuit, to a terrestrial radio network for radio communications with the terrestrial radio network, monitoring an altitude of the radio circuit relative to a surface of earth, and attaching, by the radio circuit, to a non-terrestrial radio network for subsequent radio communication with the non-terrestrial radio network to limit radio interference on the terrestrial radio network, wherein the attaching to the non-terrestrial radio network is responsive to the altitude of the radio circuit exceeding a first elevation threshold value. Other embodiments are disclosed.

A radar-enabled wireless communication device is configured to communicate with a wireless communication network and performs radar transmissions determine whether there are any neighboring wireless communication devices that are vulnerable to interference from the radar transmissions and, if so, adapt radar transmissions in the affected radar beam directions or transmit assistance information enabling the vulnerable devices to mitigate or avoid the interference.

A relay node may receive a pattern index indicating a beam pattern. Further, the relay node may receive resource information indicating a beam type. Also, the relay node may receive one or more first beam indexes associated with the indicated beam pattern. On a condition that the indicated beam type is narrow and a beam index of the one or more first beam indexes corresponds to a wide beam type, the relay node may determine second beam indexes for a set of narrow beams associated with the beam index of the one or more first beam indexes corresponding to the wide beam type. Moreover, the relay node may determine a beam and time-domain resources for each of the determined second beam indexes based on the pattern index and resource information. Accordingly, the relay node may transmit data using the determined beam and at least one of the determined time-domain resources.

The invention relates to a computer-implemented method for the design of a radio network (10), in particular a ZigBee network, with several devices (12), in particular at least one coordinator (14), from which at least one radio signal, in particular a ZigBee radio signal, is generated, with at least two amplifiers (16), from which the radio signal, in particular a ZigBee radio signal, is amplified and / or forwarded, and with at least one terminal device (18), which is controlled and / or regulated via the radio signal, in particular a ZigBee radio signal. It is proposed that in a process step (48) the radio network (10), in particular ZigBee network, is automatically analyzed by determining at least one position (20) of the devices (12) of the radio network (10), in particular ZigBee network.

Embodiments herein relate to, for example, a method performed by UE (10) for handling communication in the wireless communications network 1. The UE initiates a random access procedure for small data transmissions; and monitors for a message using a Type4-PDCCH CSS, or a USS, wherein the Type4-PDCCH CSS and / or the USS uses a radio resource set separated or partly overlapping a legacy radio resource set for a legacy CSS.

A method performed by radio network node for handling non-communication data in a wireless communication network is provided. The radio network node determines (501) a data source prioritization for transmission of non-communication data from a User Equipment, UE. The radio network node sends (502) an indication to the UE. The indication indicates the data source prioritization.

A method of a transaction verification service is implemented by an electronic device. The method includes receiving a transaction identifier from a user device or a merchant device, requesting at least one transmitter near the user device or the merchant device to send a location code to the user device or the merchant device, receiving the location code from the user device or the merchant device, verifying the location code, and forwarding the transaction identifier to a payment processing service, in response to verification of the location code.

A method for location verification service is implemented by a computing system. The method includes receiving a first request from a user device to access or modify a shared resource associated with a location area, sending a second request to transmitters near the location area to transmit a location code for the location area to the user device, receive the location code from the user device, verifying based on the location code that the user device is authorized to access or modify the shared resource, and processing the first request from the user device to access or modify the shared resource, in response to verification that the user device is authorized.

A radio network node may configure a user equipment with reduced-capability connection information usable to facilitate establishing a connection with the node during a discontinuous receive off period. From the reduced-capability connection information, the user equipment may determine a beam group. During discontinuous receive off operation at the node, the user equipment may transmit an emergency preamble according to the beam group, which may be associated with group random access resources, including a composite beam direction, monitored by the node. During discontinuous receive off operation, the node may avoid monitoring resources associated with individual beams corresponding to a beam group. The node may determine a number of user equipment transitioning to a connected mode with respect to a beam and determine the beam to be an important beam if a number of transitioning user equipment satisfies a transitioning criterion. A beam group may solely comprise an important beam.

This invention specifically relates to a dynamic multi-objective optimization method, apparatus, device, and medium based on population co-evolution, comprising: acquiring the objective function and constraints of a target radio network; generating three populations based on the objective function and constraints, including a primary population, a first auxiliary population, and a second auxiliary population; detecting the environment of the target radio network and obtaining the detection results; when the detection results indicate that the environment is static, optimizing the three populations using multi-population co-evolution (MPCE); when the detection results indicate that the environment is changing, updating the three populations using an adaptive combined response mechanism (AIRS), and then optimizing the three populations using MPCE; and obtaining the optimization result after optimizing the three populations for a preset number of rounds. This invention improves the communication efficiency of radio networks and reduces communication overhead.

The application discloses a random access method based on non-orthogonal multiple access, a base station and a terminal. The method comprises the following steps: a base station receives a message Msg3 sent by a plurality of terminals, the Msg3 is sent and received in a non-orthogonal multiple access mode; wherein the plurality of terminals collide when sending Msg1; the base station identifies terminal identities of at least part of the plurality of terminals based on the Msg3 sent by the plurality of terminals; and the base station determines respective cell-radio network temporary identities C-RNTIs of the at least part of the terminals through Msg4.

Embodiments herein relate to, for example, a method performed by a UE for communicating in a wireless communication network, wherein the UE is configured to be connected to a first cell of an MSG and a second cell of an SCG. The UE receives an indication to perform transition to a first operation state from a second operation state; and upon transitioning to the first operation state, monitors for one or more temporary reference signals of the SCG.

This invention relates to the field of communication technology, and provides a method, apparatus, device, medium, and product for predicting user-perceived degraded cells. The method includes: acquiring a user's core network domain document; based on the user's identity identifier, associating the core network domain document with the corresponding radio network domain data to obtain a user wide table, and extracting user-perceived features and radio network domain features from the user wide table; inputting the user-perceived features and radio network domain features into a trained dual-domain model to predict degraded users, obtaining the degraded users output by the dual-domain model, and determining the degraded features from the user-perceived features and radio network domain features; and determining the degraded cells from each cell based on the degraded features of the cells traversed by the degraded users. The method, apparatus, device, medium, and product for predicting user-perceived degraded cells provided by this invention can achieve more accurate prediction of user-perceived degraded cells.

A method and system for sharing radio network resources in a distributed ledger (DL) network that is operated between a plurality of participants including a first participant and a second participant. A DL node of the second participant determines from a distributed ledger of the DL network a smart contract that allows sharing of radio network resources owned by the first participant; executes the smart contract to generate one or more transactions between the first participant and the second participant, where a first transaction of the transactions indicates that a first portion of the radio network resources of the first participant is shared with the second participant; and records, through a consensus mechanism, the transactions in the distributed ledger.

Computer-implemented method and apparatus for Machine Learning (ML) assisted radio network performance management. A method comprises receiving at a ML agent hosting a ML model a dataset comprising experience data relating to a radio network. The method further comprises encoding the experience data to generate vectors representing the data in an embedding space. The method also comprises clustering, classifying and decoding the data, then selecting a subset of experience data based on the classification. The method also comprises using the selected subset of experience data to generate one or more suggested network actions, and modifying the radio network based on the suggested network actions.

A user equipment comprising means for:enabling user-equipment controlled allocation of antennas to multiple radio networks for simultaneous transmissions via the antennas to the multiple radio networks, wherein the allocation is based on at least measurements of signals received at at least some of the antennas for at least one of the multiple radio networks, wherein the allocation of antennas to multiple radio networks is determined autonomously by the user equipment not by a radio network.

A user equipment (UE) is configured to perform a cell search for an anchor cell of a fifth generation (5G) new radio (NR) network, acquire a first system information block (SIB) from the anchor cell comprising first configuration information for the anchor cell and acquire a second SIB from the anchor cell comprising second configuration information for one or more network energy saving (NES) cells, wherein the NES cells do not transmit SIBs.

The present invention discloses integrated sensing and communications (ISAC). A mechanism for calibrating sensing nodes in a mobile radio network is provided. A sensing transmitter transmits one or more reference signal sets, each set comprising at least two reference signals transmitted using a common spatial filter within a configured time period. A sensing receiver receives the one or more reference signal sets and performs sensing calibration, such as estimating path parameters based on the one or more reference signal sets to compensate for timing and / or frequency offsets. The present invention achieves bias-free delay and Doppler measurements, improved sensing accuracy, and scalable deployment in multi-node ISAC systems, addressing challenges in synchronization for multi-node sensing in next-generation wireless networks.

Apparatuses, systems, and techniques including APIs, subscription services, and controllers to enable one or more fifth generation new radio (5G-NR) networks to share information. For example, a processor comprising one or more circuits can perform an API or subscription service to cause a device in a radio access network (RAN) to share its analytic data with a device in a transport network, and said device in said transport network can use said analytic data to adjust its network settings to improve performance.

The present disclosure provides a system (108) and a method for generating a customer health card (CHC). The system (108) receives radio frequency (RF) trace data to determine one or more radio network everts associated with a session request. The system (108) receives one or more RF counters associated with the one or more radio network events to determine utilization of one or more radio resources during the one or more radio network events. The system (108) receives fault data associated with the one or more radio network events to determine interference in the network. The system (108) receives configuration data associated with the one or more computing devices (104) and one or more radio resources. Further, the system (108) generates the CHC based on the RF trace data, the one or more RF counters, the fault data, and the configuration data via a machine learning (ML) engine (214).

Method for operating a WirelessHART radio network (FN) in an industrial process environment, wherein the WirelessHART radio network (FN) comprises multiple participants (A, B, C, D, E, G), wherein the participants (A, B, C, D, E) of the WirelessHART radio network (FN) are field devices, wherein the participants (A, B, C, D, E, G) are controlled and / or monitored via the WirelessHART radio network (FN), wherein at least one first participant (A) of the WirelessHART radio network (FN) operates in a first operating mode or in a second operating mode, in which first operating mode measured values ​​and / or process-relevant data are sent from the first participant (A) at a first update rate, and in which second operating mode data is sent from the first participant (A) at a second update rate, wherein the second update rate is higher than the first update rate.and wherein at least some of the data transmitted during the second operating mode is received by at least one second participant (B) of the WirelessHART radio network (FN), wherein the data received by the second participant (B) is evaluated and a first indicator of the quality of the data transmission is determined and made available to a user.

Methods, systems, and devices for wireless communications are described. The techniques described herein relate to control signaling for multiple radio access technology (RAT) carrier aggregation. A user equipment (UE) receives downlink control information (DCI) for a first RAT (e.g., 5G) and / or a second RAT (e.g., 6G), in a downlink control channel of the first RAT. The UE determines whether the DCI is associated with the first RAT or the second RAT by monitoring different search spaces, different control resource sets (CORESETs), different radio network temporary identifiers (RNTIs), different DCI lengths, different indication fields of the DCI, different capability parameters, and / or wake-up signals, that are associated with the downlink control channel communicated via the first RAT. The UE 115 communicates via the second RAT based on receiving the DCI.

A radio network node configures an extended reality processing unit with a packet skipping reporting criterion and a resource pattern indicative of resources, shareable among extended reality appliances, to facilitate delivery to the node of traffic associated with the appliances. The processing unit determines that one or more of the appliances has failed to transmit, according to the resource pattern, a number of traffic packets that satisfies the reporting criterion. Satisfaction of the reporting criterion triggers transmission of a packet skipping report to the node. Based on a number of appliances, indicated in the report, corresponding to satisfaction of the reporting criterion, the node updates a report count indicative of appliances with respect to which reporting corresponding to the pattern has been transmitted and indicates to the processing unit a different resources pattern, corresponding to a lower report count, to facilitate delivery of traffic with respect to the appliances.

According to embodiments herein a method performed by a radio network node (12) may be provided for handling communication of a UE (10) in a wireless communications network (1). The radio network node obtains a capability indication indicating a capability of the UE (10) for simultaneous beam scanning and data reception. The radio network node configures the UE to evaluate one or more reception beams based on one or more data transmissions to one or more UEs served by the radio network node (12); and schedules a data transmission wherein data is transmitted to the one or more UEs.

Embodiments of the present application relate to a compact SS burst design for network energy saving. A user equipment includes a memory storing computer executable instructions and at least one processor. The at least one processor is configured to execute the computer executable instructions to cause the user equipment to obtain a SSB configuration parameter, the SSB configuration parameter being associated with a SS burst comprising a plurality of SSBs, the SSB configuration parameter defining different configurations for at least a first SSB and a second SSB of the plurality of SSBs, receive the first SSB based on the SSB configuration parameter, the first SSB comprising at least a synchronization signal, receive the second SSB based on the SSB configuration parameter, the second SSB comprising a synchronization signal and a physical broadcast channel, and access a radio network based on at least one of the first SSB or the second SSB.

The method is for operating a radio network (100), preferably a TS (packet splitting) narrowband series radio network, comprising at least one radio node (FK1, FK1+n) and at least one receiver (20), wherein in the packet splitting method a message in the form of a data packet (DP) is split by a transmitter (10) of the radio node (FK1-FK1+n) into individual sub-packets (C1-C1+M) in the uplink and the sub-packets (C1-C1+M) are each transmitted as a radio burst (FB) in a hopping pattern (SM) to the radio receiver (20) in the uplink, the sub-packets (C1-C1+M) of the hopping pattern (SM) are sub-packets of a frame, in particular of a core frame (CF), each sub-packet (C1-C1+M) comprises a pilot sequence (PS), and the hopping pattern (SM) is a time hopping pattern and / or a frequency hopping pattern. In order to be able to use an energy buffer more easily, the hopping pattern (SM) is designed such that the total number of frames or radio bursts (FB) of a frame is greater than the coherence time, and the frequency and / or time of the radio bursts (FB) of a frame is adjusted in the receiver (20) based on frequency and / or time assumptions.

This disclosure relates to a two-step RACH radio network temporary identifier (RNTI). Apparatus, methods, and computer programs for determining and using radio network temporary identifiers are disclosed. One method includes determining an offset; determining a first radio network temporary identifier based at least in part on the offset; and using the first radio network temporary identifier for subsequent message transmission to the device.