Abstract: Apparatuses, methods, and systems are disclosed for configuration, measurement, and reporting for multiple wave-form-based reference signals. An apparatus (400) includes a transceiver (425) and a processor (405) that is coupled to the transceiver (425). The processor (405) is configured to cause the apparatus (400) to receive a first signaling information from a network, the first signaling information indicating a RS resource and a corresponding association to at least one waveform; receive a second signaling information from the network, the second signaling information indicating a reporting configuration for performing measurements on the RS resource and the corresponding at least one waveform; generate a measurement report according to the reporting configuration; and transmit the measurement report to the network.

Abstract: Apparatuses, methods, and systems are disclosed for multiple waveforms based QCL/TCI framework. An apparatus (300) includes a transceiver (325) and a processor (305) that is configured to receive signaling information from a network, the signaling information indicating quasi-co-location (“QCL”) information comprising at least one source reference signal (“RS”) and at least one target RS for transmission to the network, reception from the network, or a combination thereof, and apply the QCL information at the apparatus (300) based on the one or more waveforms associated with the at least one source RS and the at least one target RS.

Abstract: Apparatuses, methods, and systems for positioning reporting enhancements over unlicensed bands. A method in a user equipment (UE) includes determining a channel occupancy time (COT) value; determining a time to a next positioning measurement report, determining a maximum COT associated with the determined COT, and generating and transmitting a positioning measurement report at the determined COT responsive to the maximum COT being at least greater than a combination of a window size of a previously determined positioning reference signal (PRS), the determined time to the next positioning measurement report, and a predetermined reporting window size. The method also includes transmitting the generated positioning measurement report at a next available COT responsive to a time instance in which the positioning measurement report is ready and the determined COT meeting a predefined position latency requirement responsive to the maximum COT not being at least greater than the combination.

Abstract: Apparatuses, methods, and systems are disclosed for positioning triggering and capability enhancements over unlicensed bands. A method performed in a user equipment (UE) includes detecting an available transmission opportunity or a set of triggering criteria and transmitting a request for assistance data at least partially over an unlicensed carrier based on the available transmission opportunity or the set of triggering criteria.

Abstract: Apparatuses, methods, and systems are disclosed for positioning configuration and assistance data enhancements over unlicensed bands. An apparatus (700) includes a transceiver (725) and a processor (705) coupled to the transceiver (725). The processor (705) is configured to cause the apparatus (700) to perform positioning procedures over an unlicensed band based on a configured channel access priority class (“CAPC”) for positioning, the CAPC corresponding to different positioning service levels: receive a predetermined window size of a measurement window for positioning reference signal reception, a burst configuration, and a listen-before-talk (“LBT”) occasion within the window from the location server based on an available reception opportunity to be measured and processed over the unlicensed band; and perform positioning reference signal (“PRS”) measurement based on the measurement window, the burst configuration, and the LBT occasion.

Abstract: Apparatuses, methods, and systems are disclosed for synchronization signal block (SSB) groups associated with multiple waveforms for a wireless communication network associated with a high frequency range. An apparatus includes: a transceiver that receives from a radio access network (RAN) supporting a high frequency range: a first configuration comprising a first indication that a first group of SSBs is associated with a first waveform; a second configuration comprising a second indication that a second group of SSBs is associated with a second, different waveform. The apparatus includes a processor that determines a respective waveform associated with a received SSB based at least in part on an SSB index, the SSB index indicating the respective waveform associated with the received SSB. In some examples, random access channel (RACH) occasions are associated with the received SSB and with different RACH occasion waveform.

Abstract: A motor control unit (MCU) and methods of operating the same are provided. The MCU includes a housing enclosing a retractable stab assembly (RSA) having stabs attached thereto. The MCU further includes a bracket assembly having a mount for securing the bracket assembly to the RSA, guiderails for slideably engaging the RSA to facilitate the extending and retracting motion, and a lead screw accessible via an opening in the front of the housing. Rotating the lead screw causes the RSA to extend and retract which engages and disengages the stabs. The MCU also includes a motor assembly having a drive motor coupled to a drive shaft. The motor rotates the shaft in response to control signals from a remote-device. The motor assembly attaches to the housing such that the rotation of the shaft in response to the signals rotates the lead screw to engage and disengage the stabs.

Abstract: A motor control unit (MCU) and methods of operating the same are provided. The MCU includes a housing enclosing a retractable stab assembly (RSA) having stabs attached thereto. The MCU further includes a bracket assembly having a mount for securing the bracket assembly to the RSA, guiderails for slideably engaging the RSA to facilitate the extending and retracting motion, and a lead screw accessible via an opening in the front of the housing. Rotating the lead screw causes the RSA to extend and retract which engages and disengages the stabs. The MCU also includes a motor assembly having a drive motor coupled to a drive shaft. The motor rotates the shaft in response to control signals from a remote-device. The motor assembly attaches to the housing such that the rotation of the shaft in response to the signals rotates the lead screw to engage and disengage the stabs.