The subject matter described herein includes methods, systems, and computer readable media for proactive network testing. One method for proactive network testing includes receiving, by a test controller and via a network tap, at least one metric associated with live network traffic; determining, by the test controller and using the at least one metric and a threshold value associated with the at least one metric, that a network test is to be performed; configuring, by the test controller, a first test agent to execute the network test; and executing, by the first test agent, the network test.

To appropriately control UL transmission such as a CSI reporting when performing communication by applying a different configuration from those of legacy LTE systems, a user terminal according to one aspect of the present disclosure includes: a transmission section that transmits one or more UL signals by using an uplink shared channel based on an instruction from a base station; and a control section that controls the transmission assuming that transmission durations of a plurality of UL signals do not overlap in a same symbol, or, when at least part of the transmission durations of the plurality of UL signals overlap in the same symbol, performs control to select and transmit the part of the UL signals.

The present disclosure provides a measurement method, user equipment, and a network side device. The method includes receiving first measurement configuration information sent by a network side device, and performing measurement in an inactive mode based on the first measurement configuration information, to obtain a measurement result, where the first measurement configuration information is used at least in the inactive mode.

The present disclosure provides a measurement method, user equipment, and a network side device. The method includes receiving first measurement configuration information sent by a network side device, and performing measurement in an inactive mode based on the first measurement configuration information, to obtain a measurement result, where the first measurement configuration information is used at least in the inactive mode.

Aspects of the present disclosure relate to wireless communications, and more particularly, to cell recovery techniques. One example method generally includes receiving, at a user-equipment (UE), at least one pilot signal via a secondary cell, receive, via a primary cell, a first message triggering reporting of at least one preferred beam for communication via the secondary cell, determining the preferred beam based on the at least one pilot signal, transmitting, via the primary cell, a report indicating the at least one preferred beam, and communicating data via the secondary cell and via the preferred beam.

Aspects of the present disclosure relate to wireless communications, and more particularly, to cell recovery techniques. One example method generally includes receiving, at a user-equipment (UE), at least one pilot signal via a secondary cell, receive, via a primary cell, a first message triggering reporting of at least one preferred beam for communication via the secondary cell, determining the preferred beam based on the at least one pilot signal, transmitting, via the primary cell, a report indicating the at least one preferred beam, and communicating data via the secondary cell and via the preferred beam.

A method of quality of experience (QoE) configuration in a radio resource control (RRC) inactive state includes receiving, by a user equipment (UE), an RRC release message indicating transitioning from an RRC connected state to an RRC inactive state; wherein the RRC release message comprises an information element (IE) indicating configuration or reconfiguration of a QoE configuration parameter; and wherein while in the RRC inactive state, the UE performing a QoE measurement or creating a QoE measurement report based on a value of the information element.

A second base station may transmit, to a UE, an indication of a PCI associated with the second base station. The UE may transmit, to a first base station, a measurement report corresponding to the second base station. The UE may receive, from the first base station, a request for the CGI associated with the second base station based on the PCI associated with the second base station. The UE may receive, from a second base station, a first indication of a CGI associated with the second base station via a PDCCH or a PDSCH. The UE may transmit, to a first base station, a second indication of the CGI associated with the second base station based on the received first indication of the CGI. The CGI may be an NCGI. The UE may refrain from monitoring for a SIB 1 associated with the second base station.

A second base station may transmit, to a UE, an indication of a PCI associated with the second base station. The UE may transmit, to a first base station, a measurement report corresponding to the second base station. The UE may receive, from the first base station, a request for the CGI associated with the second base station based on the PCI associated with the second base station. The UE may receive, from a second base station, a first indication of a CGI associated with the second base station via a PDCCH or a PDSCH. The UE may transmit, to a first base station, a second indication of the CGI associated with the second base station based on the received first indication of the CGI. The CGI may be an NCGI. The UE may refrain from monitoring for a SIB 1 associated with the second base station.

Certain aspects of the present disclosure provide techniques for wireless communications by a user equipment (UE). The UE detects at least one of a first type of reference signal (RS) or a second type of RS within an active bandwidth part (BWP). The UE then derives uplink (UL) transmission timing and corresponding accuracy requirement, based on which type of RS was detected. The UE then transmits UL signals based on the derived UL transmission timing and the corresponding accuracy requirement.