A wireless communication method includes: transmitting, by a base station, a signal subjected to reduction of transmission power that is reduced compared with specific transmission power of the base station; and giving notice of, by a wireless terminal, when the wireless terminal detects a signal of the base station, a reduction cancellation request to the base station based on information relating to the reduction of the transmission power of the base station and a reception level of the signal of the base station, the reduction cancellation request being used for cancelling the reduction of the transmission power in the base station.

A method in a fixed point-to-point radio link transceiver. The method comprising the steps of receiving a first signal from a far end transceiver, and detecting receiver overload due to excess power in the received first signal, and also transmitting a second signal to the far end transceiver. The step of transmitting comprising including, in the second signal, a request to reduce transmission power in the far end transceiver when receiver overload is detected.

A load balancing process includes determining when the cell is overloaded, determining whether the cell is in a hold state, maintaining a current mitigation state for the cell when the cell is determined to be in a hold state, determining whether traffic has decreased for the cell since a previous time and whether mitigation was applied to the cell at the previous time, applying a hold state to the cell when the traffic is determined to have decreased and the mitigation is determined to have been applied, determining whether performance has decreased by a predetermined level for the cell when the cell is not in the hold state, and applying mitigation to the cell when performance has decreased by at least the predetermined level. Such a process may be implemented as a state machine in a system.

A method and network node (130; 110; 111) for managing transmit power of a wireless device (120) in a wireless communication network (100). Cells (115, 116) for serving the wireless device (120) form at least one imbalance region (117) in which the wireless device (120) has the best quality in the downlink to a first cell (115) of a first type and in the uplink to a second cell (116) of a different, second type. The network node (130; 110; 111) identifies (301; 602) a situation associated with a risk for undesired increase of transmit power used by the wireless device (120) when the wireless device (120) moves in the imbalance region (117). The network node (130; 110; 111) provides (302; 602), in response to the identification, power control that makes the wireless device (120) increase transmit power slower than else would be the case.

A method of localized congestion exposure within a local loop in a cellular network that is performed by a localized congestion exposure sender node of the local loop. The method includes receiving downlink packets that are destined for a downstream user device. The method also includes receiving packets that have feedback indicating a congestion level from a downstream node of the cellular network. The method further includes inserting a declaration of an expected downstream congestion level into headers of the received downlink packets; and forwarding the downlink packets that have the declaration of the expected downstream congestion level inserted into the headers toward the downstream user device.

Power headroom reporting and report handling are discussed in the context of a Physical Uplink Shared Channel (PUSCH), on which a user equipment (UE) has no valid uplink grant, and a Physical Uplink Control Channel (PUCCH) on which a UE has no transmission. Under these circumstances, it is not possible to directly calculate one or more parameters which are used to calculate power headroom. Accordingly, exemplary embodiments provide for predetermined, known values to be used by the UE to calculate the power headroom, and by the eNodeB to understand the meaning of a received power headroom report.

In one example, a system comprises a central unit and a radiating point located remotely from the central unit and communicatively coupled to the central unit. The radiating point is configured to provide radio frequency signals to a coverage zone via one or more antennas. The system further comprises a radar sensor communicatively coupled to the radiating point and configured to capture image data in the coverage zone of the radiating point, wherein the radar sensor includes a plurality of transmitters and receivers coupled to an antenna array. One or more components of the system are configured to determine user detection data for users in the coverage zone based on the image data captured by the radar sensor and adjust the power consumption of the radiating point based on the user detection data.

A load control system may include control devices capable of being associated with each other at one or more locations for performing load control. Control devices may include control-source devices and/or control-target devices. A location beacon may be discovered and a unique identifier in the location beacon may be associated with a unique identifier of one or more control devices. Upon subsequent discovery of the location beacon, the associated load control devices may be controlled. The beacons may be communicated via radio frequency signals, visible light communication, and/or audio signals. The visible light communication may be used to communicate other types of information to devices in the load control system. The visible light communication may be used to identify link addresses for communicating with load control devices, load control instructions, load control configuration instructions, network communication information, and/or the like. The information in the beacons may be used to commission and/or control the load control system.

This disclosure provides a method of operating a cellular telecommunications network, wherein the cellular telecommunications network includes a first transceiver providing a first access connection, a second transceiver providing a second access connection, and a third transceiver providing a third access connection, wherein the first and second transceivers are co-located, the method including determining that the third transceiver should enter energy saving mode; in response to the determination: causing reconfiguration of the first transceiver to reduce its transmission power, causing reconfiguration of the second transceiver so as to increase its transmit power of the second access connection and to compensate for the third transceiver.

Facilitating a transmission power dependent resource reservation protocol in advanced networks (e.g., 5G, 6G, and beyond) is provided herein. Operations of a method can comprise defining, by a system comprising a memory and a processor, a resource reservation procedure that associates respective amounts of reserved resources available for the mobile device based on a transmission power level of the mobile device. The method also can comprise selecting, by the system, an amount of reserved resources from the respective amounts of reserved resources available based on the transmission power level of the mobile device.