Methods and devices for performing an offline beam search. The methods include receiving a radio frequency signal comprising a reference signal, wherein the radio frequency signal corresponds to a transmitter beam, projecting the radio frequency signal on orthogonal signal subspaces and storing the projected signals and performing a beam search to identify a receiver beam for the transmitter beam using the projected signals, wherein the beam search is performed offline.

A method for localization of a vulnerable road user (VRU) includes receiving a received signal strength indication (RSSI) level of a wireless signal of a mobile device carried by the VRU detected by a wireless sensor in an area of interest. The detected RSSI level is compared to RSSI fingerprints stored in a fingerprinting database (DB) so as to identify an RSSI fingerprint having a closest match to the detected RSSI level. The VRU is localized at a position stored in the fingerprinting DB for the identified RSSI fingerprint.

A method for localization of a vulnerable road user (VRU) includes receiving a received signal strength indication (RSSI) level of a wireless signal of a mobile device carried by the VRU detected by a wireless sensor in an area of interest. The detected RSSI level is compared to RSSI fingerprints stored in a fingerprinting database (DB) so as to identify an RSSI fingerprint having a closest match to the detected RSSI level. The VRU is localized at a position stored in the fingerprinting DB for the identified RSSI fingerprint.

One exemplary aspect describes systems and methods for determining normal SLE behavior, determining when a SLE exhibits abnormal deterioration, and determining whether to take an action to mitigate what appears to be an indication of an abnormal SLE.

One exemplary aspect describes systems and methods for determining normal SLE behavior, determining when a SLE exhibits abnormal deterioration, and determining whether to take an action to mitigate what appears to be an indication of an abnormal SLE.

Systems and methods manage split bearer selection in a multi-RAT dual connectivity environment. A first wireless station receives, from a first device, a first signal measurement for the first wireless station and a second signal measurement for a second wireless station. The first wireless station determines that the second signal measurement indicates that a split bearer for the first device can be supported by the second wireless station and identifies, based on the first signal measurement, a distance category for the first device relative to the first wireless station. The first wireless station determines, based on the second signal measurement, whether the second wireless station supports a sustainable split bearer and initiates a split bearer for the first device using the second wireless station, in response to determining that the second wireless station supports the sustainable split bearer.

Systems and methods manage split bearer selection in a multi-RAT dual connectivity environment. A first wireless station receives, from a first device, a first signal measurement for the first wireless station and a second signal measurement for a second wireless station. The first wireless station determines that the second signal measurement indicates that a split bearer for the first device can be supported by the second wireless station and identifies, based on the first signal measurement, a distance category for the first device relative to the first wireless station. The first wireless station determines, based on the second signal measurement, whether the second wireless station supports a sustainable split bearer and initiates a split bearer for the first device using the second wireless station, in response to determining that the second wireless station supports the sustainable split bearer.

In an aspect, the present disclosure includes a method, apparatus, and computer readable medium for wireless communications for receiving, by a user equipment (UE) from a base station, a plurality of synchronization reference signals; measuring, by the UE, a respective Reference Signal Received Power (RSRP) value of each of the plurality synchronization reference signals; determining, by the UE, a highest RSRP value from each of the respective RSRP values; and calculating, by the UE, a downlink pathloss associated with a sidelink open loop power control based on the highest RSRP value.

An apparatus, system, and method for establishing a communications network include a remote-control vehicle configured for wireless communication and a plurality of wireless communication devices carried by a part of the remote-control vehicle. The remote-control vehicle is configured to selectively eject or dispense the plurality of communication devices as deployed devices within a signal deprived environment. Each deployed device is capable of wireless communication with the remote-control vehicle and with one or more other of the deployed devices. Each deployed device and the remote-control vehicle are configured to define a part of the communicate network with a control unit disposed at a distance from the remote-control vehicle

An apparatus, system, and method for establishing a communications network include a remote-control vehicle configured for wireless communication and a plurality of wireless communication devices carried by a part of the remote-control vehicle. The remote-control vehicle is configured to selectively eject or dispense the plurality of communication devices as deployed devices within a signal deprived environment. Each deployed device is capable of wireless communication with the remote-control vehicle and with one or more other of the deployed devices. Each deployed device and the remote-control vehicle are configured to define a part of the communicate network with a control unit disposed at a distance from the remote-control vehicle