11 results about "Radio coverage" patented technology

An apparatus configured to: receive a configuration for monitoring behavior; determine whether the apparatus is in a first radio coverage area based, at least partially, on the received configuration; determine a monitoring behavior based on whether the apparatus is in the first radio coverage area, wherein the monitoring behavior comprises a first monitoring behavior based on a determination that the apparatus is in the first radio coverage area, wherein the monitoring behavior comprises a second monitoring behavior based on a determination that the apparatus is outside the first radio coverage area, wherein the first monitoring behavior is at least partially different from the second monitoring behavior; and perform the determined monitoring behavior.

Channel autocorrelation in a radio coverage map is described. An apparatus is configured to provide a network node with at least one channel autocorrelation measurement pilot, indicating channel information of a communication channel and location information associated with a UE, based on a configuration associated with the periodic transmission of at least one channel autocorrelation measurement pilot. The apparatus is configured to communicate with the network node based on a channel autocorrelation map associated with the at least one channel autocorrelation measurement pilot indicating the communication channel and the location information associated with the UE.

A communications device configures its transceiver circuitry to transmit uplink signals to and / or to receive downlink signals from one or more non-terrestrial network infrastructure equipment forming part of a non-terrestrial network (NTN) and to transmit uplink signal to and / or to receive uplink signals from one or more terrestrial network infrastructure equipment forming part of a terrestrial network (TN). The configuring includes establishing a dual connectivity mode in which the one or more TN infrastructure equipment is a master network and the one or more NTN infrastructure equipment is a secondary network. The communications device transmits data to or receives data from the TN infrastructure equipment via a first wireless access interface provided by the TN as a master network using the configured transceiver circuitry and de-activates the transceiver circuitry configured for transmitting and receiving data via a second wireless access interface provided by the NTN as a secondary network. The communications device detects a likely loss or reduction of a radio coverage of the first wireless access interface provided by the TN, determines a timing required for synchronisation with the NTN, and activates the transceiver circuitry to transmit and to receive data via the second wireless access interface provided by the NTN using the indication of the timing received from the TN for synchronisation with the NTN. By detecting that there is likely to be a loss or reduction of a radio coverage of a wireless access interface provided by the TN, and determining the timing required for synchronisation with the NTN, the communications device can transmit or receive user data with a reduced likelihood of an interruption of communication of the user data when the UE required to transmit and to receive via a wireless access interface provided by the NTN rather than the TN.

Various aspects of methods, systems, and use cases include region identification of a malicious device based on crowdsourced locations. A method may include generating a grid of bins of a local radio coverage region, receiving location data from a plurality of devices in the local radio coverage region, and classifying locations of the plurality of devices with respect to the bins. The method may include associating the classified locations of the plurality of devices to the received location data for corresponding devices of the plurality of devices, and generating a model, from the associated classified locations and the received location data.

A kind of unmanned aerial vehicle path optimization method based on deep reinforcement learning, storage medium and equipment, comprising S1: establishing the communication model of unmanned aerial vehicle and radio network, including scene model, base station antenna radiation model and signal model, S2: according to the communication model of step S1, the signal interruption probability of unmanned aerial vehicle in different positions is calculated, to build radio coverage probability graph E, S3: considering comprehensively the flight time of unmanned aerial vehicle and the communication coverage probability of different positions, set the optimization target of unmanned aerial vehicle flight path;Based on optimization target, the flight path of unmanned aerial vehicle is optimized using deep reinforcement learning algorithm.The flight path optimization of unmanned aerial vehicle is completed by the above scheme, avoid weak coverage area, to ensure the connectivity between unmanned aerial vehicle and base station;Deep reinforcement learning algorithm is used to improve the utilization rate of important sample, obtain more accurate return value, more effectively optimize the path of unmanned aerial vehicle.

By reducing electricity consumption and carbon dioxide emissions, we aim to mitigate the negative environmental impact of our operations while simultaneously improving our end-user revenue. [Solution] A method for resolving neighboring cell ambiguity includes the steps of receiving a user equipment (UE) measurement report and identifying which combination of neighboring cells would have resulted in the set of physical cell IDs (PCIs) in the UE measurement report by identifying the cells in each combination that have a common area of ​​geometrical radio coverage overlap with the UE's serving cell.

A technique for coverage-aware joint configuration of multi-network wireless communications is disclosed. This technique may include: identifying a travel route of a user equipment (UE) from a starting location to a destination location; obtaining multi-network radio coverage information for the travel route, wherein the multi-network radio coverage information includes terrestrial network (TN) radio coverage information and non-terrestrial network (NTN) radio coverage information; determining a joint TN / NTN wireless communication configuration for the UE for the travel route based on the multi-network radio coverage information; and transmitting the joint TN / NTN wireless communication configuration to the UE.

Methods and apparatuses for detecting radio coverage overlap of two or more cells. In some embodiments, the method includes: receiving an MR that had been wirelessly transmitted by a UE; obtaining a set of PCIs from the MR; and determining which combination of neighbor cells would have produced the set of PCIs in the UE MR by determining cells in each combination that have a common region of geometric radio-coverage overlap with a serving cell of the UE.

A method performed by a network node is provided. The method is for handling a sensing request for an application associated with a User Equipment, UE, in a communications network. The UE is served by a first radio network node. The network node receives (501) a sensing request from a sensing control node. The sensing request comprises data related to sensing requirements to be fulfilled for the application associated with the UE. The network node evaluates (502) radio network nodes within radio coverage of the UE regarding sensing capability according to the sensing requirements. Based on the result of the evaluated radio network nodes, the network node identifies (503) a radio network node that fulfils the sensing requirements. In the case when the identified radio network node is represented by the first radio network node, the network node keeps (504) the first radio network node as a serving radio network node for the UE to perform the requested sensing. In the case when the identified radio network node is a second radio network node, the network node decides (505) to hand over the UE to the second radio network node as a serving radio network node for the UE to perform the requested sensing.

Multi-antenna transmission method for providing downlink radio coverage from a radio base station to a mobile terminal in a mobile communications network by means of a transmission system, comprising: - at least one multi-radiator transmitting antenna directed towards at least one mobile device, in particular a smart antenna or an array antenna, - at least one database that is associated with at least one coverage cell of the mobile communications network and contains information about the position of the mobile device; - Method means that interact with the at least one multi-radiator transmission antenna and the at least one database, wherein the method means are configured to connect a transmission direction with the position of the mobile device, wherein the transmission direction is suitable for reaching the mobile device, comprise the steps: a) Detecting the position of the mobile device; b) Storing the position in at least one database; c) Determining at least one transmission direction of at least one transmission beam from the at least one multiple-radiator transmission antenna to the mobile device, depending on the position stored in the at least one database, wherein at least one of the transmission parameters, which must be determined in order to transmit in the transmission direction in the at least one multiple-radiator transmission antenna, is linked to the stored position of the mobile device, and d) Comparing reception quality information signaled by the mobile device with the reception quality expected for the position achieved by the mobile device and stored in the database.

The invention relates to a method for providing a communication service to a user equipment using an access network of a mobile communication network or an access network associated with a mobile communication network, wherein the user equipment is able or has a high likelihood of being able to be connected to or served by at least one base station entity of the access network when the user equipment is located in or in the vicinity of a first geographical area, and wherein the user equipment is not able or has a low likelihood of being able to be connected to or served by any base station entity of the access network and / or by any base station entity of another access network when the user equipment is located in or in the vicinity of a second geographical area, wherein the first geographical area and / or the second geographical area can be indicated or referred to by a coverage information which is at least partly able to be transmitted to the user equipment and received by the user equipment, such that the coverage information indicates - or can be derived from - that different sets of location dependent connection parameters are to be used at different locations of the first and / or second geographical area (250, 260) in order for the user equipment to obtain or be provided with radio coverage when located at such different locations, wherein the user equipment comprises location detection means or capabilities for determining at least an indication of a current location of the user equipment or an approximation thereof, wherein, in order to provide the communication service for the user equipment, the method comprises the following steps: - in a first step, the user equipment receives a coverage information piece at a first point in time or during a first time interval, the coverage information piece being at least a part of or corresponding to the coverage information, - in a second step, the user equipment determines an indication of a current location of the user equipment or an approximation thereof at a second point in time and using the location detection means or capabilities of the user equipment, and the user equipment further determines, based on the indication of the current location of the user equipment or the approximation thereof and based on the coverage information piece or its content, a set of location dependent connection parameters corresponding to the determined current location and to be used in order to obtain or be provided with radio coverage.