Abstract:
Embodiments of the present disclosure describe methods, apparatuses, storage media, and systems for cell identification (ID) and beam ID detections in new radio (NR). The detections comprise NR primary synchronization signal (PSS)/secondary synchronization signal (SSS) detection, PBCH DMRS detection, SS reference signal received power (RSRP) measurement, and slot/SS burst boundary timing acquiring. Various embodiments describe how to detect a cell ID and a beam ID in millimeter wave (mmWave) operation. Other embodiments describe further details regarding how to detect NR cell and beam ID during intra-frequency measurements.
Abstract:
Techniques for enhancing the inter-frequency measurement gap to reduce measurement delay between an user equipment (UE) and an evolved NodeB (eNB). These embodiments may include identifying, by a UE, a measurement gap configuration that includes a measurement gap repetition period (MGRP), that is less than 40 milliseconds, ms; and performing inter-frequency or inter-radio access technology, RAT, measurement based on the measurement gap configuration. The embodiments may also include receiving, by an eNB, a request from a UE, for a measurement gap configuration that includes a measurement gap repetition period (MGRP) less than 40 ms; and transmitting an indication of a gap pattern that includes a MGRP that is less than 40 ms. Other embodiments may be described and/or claimed.
Abstract:
A network device (e.g., an evolved Node B (eNB) or user equipment (UE)) can process or generate a measurement gap pattern to enable network measurements of carriers or bands during measurement gaps on a per component carrier (CC) basis. The transmitting or receiving of the measurement objects (e.g., carriers or band) communicatively coupled on the network and the measurement gap pattern can be communicated via one or more radio resource control (RRC) signals, and re-configured according to a supporting CC data set identifying one or more criteria related to each CC such as UE capabilities, associations of the UE capabilities to measurement gap configurations, types of measurement gap period/gap offsets, different measurement gap patterns, an absence of a measurement gap, or other criteria related to CCs, respectively. In response to the supporting CC data set, measurement gap patterns can be dynamically re-configured per CC.
Abstract:
A radio resource management requirement is described for a device-to-device inter-carrier discovery gap. A device to device (D2D) user equipment (UE) interruption requirement can be specified in which the interruption is not allowed. In one example, operations include receiving device-to-device (D2D) discovery data on a D2D discovery data frequency in a receive chain of a user equipment (UE) during a set of subframes, tuning the receive chain of the UE to a wireless access network (WAN) data frequency, and receiving WAN data in the receive chain of the UE on the WAN data frequency from a primary cell (PCell) during the set of subframes, wherein the D2D discovery data is received during a gap in receiving the WAN data without an interruption in the WAN data.
Abstract:
A device, method and system of measuring a position of a user equipment in a wireless network may be disclosed. In some embodiments, a target user device may comprise a communication module to receive a first message from a device in the wireless network, wherein the first message includes position information related to one or more anchor UEs; transmit a second message to the anchor UEs in the wireless network, wherein the second message includes an inquiry about whether a position of at least one of the anchor UEs is knowable to the target UE; and receive a third message from the at least one anchor UE, wherein the third message includes a response to the inquiry indicating that the position of the at least one anchor UE is knowable to the target UE.
Abstract:
In embodiments, a UE may measure system frame number (SFN)/subframe timing differences between a master eNB (MeNB) and secondary eNB (SeNB) for dual connectivity (DC). When network-based reporting on the SFN/subframe timing offset is used, no new radio access network (RAN) signaling may be needed. However, in the case of multi-vendor deployments, no network coordination via different Operations, Administration, and Maintenance (OAM) for DC may occur. In this case, the network may not be able to obtain SFN/subframe timing offset information. To address this issue, various embodiments disclosed herein include UE-based reporting on SFN/subframe offset between an MeNB and an SeNB.
Abstract:
User Equipment (UE), computer readable media, and methods to modify communication channel measurement timing based on a mobility of the UE are disclosed. The UE may include circuitry configured to determine a plurality of signals from one or more cells, determine a first value for a first performance metric associated with a first cell of the one or more cells, wherein the first value is determined from a first measurement, select the first cell for a first communication based on the first value, determine first location information associated with the UE, determine, following the first measurement and using the first location information, that the UE is stationary, and delay, in response to the determination that the UE is stationary, a second measurement of the first performance metric. In various alternate embodiments, different measurement types may be used for mobility and channel quality determinations. In further embodiments, only measurements for unused channels may be delayed.
Abstract:
Logic may receive an initial communication from a user device, the initial communication comprising capabilities. Logic may determine when the capabilities indicate a requirement for measurement gaps. Logic may determine, when the capabilities for the user device indicate a requirement to implement measurement gaps, a gap pattern to assign to the user device to re-tune one or more radio frequency chains to a wide bandwidth carrier frequency during communications. Logic may transmit information about the gap pattern to the user device. Logic may transmit an initial communication to a base station, the initial communication comprising capabilities. Logic may receive a communication from the base station comprising information about a gap pattern. Logic may receive a synchronization signal to synchronize a wide bandwidth, radio frequency chain. And logic may retune the radio frequency chain during one or more measurement gaps defined by the gap pattern.
Abstract:
Machine-readable media, methods, apparatus and system for discovery reference signal measurement in a license assisted access scenario are disclosed. In some embodiments, an apparatus for a user equipment (UE), comprising a control circuitry to: perform, in response to a discovery reference signal (DRS) based measurement request, a single DRS based measurement or multiple DRS based measurements, based at least in part on a measurement related information element (1E), wherein the measurement related IE comprises an indication of whether the single DRS based measurement or the multiple DRS based measurements associated with a license assisted access (LAA) scenario are to be performed; and, generate a DRS based measurement report, wherein if the measurement related IE indicates the multiple DRS based measurements, the DRS based measurement report further comprises an average DRS based measurement result of the multiple DRS based measurements.
Abstract:
A measurement gap enhancement method is disclosed for use in both synchronous and asynchronous networks. The measurement gap enhancement method employs a first measurement gap pattern, suitable for synchronous networks, including measurement gaps that are of shorter duration and available for more frequency measurements than in legacy implementations. The measurement gap enhancement method also employs a second measurement gap pattern, which also includes short duration measurement gaps, but is also characterized by flexible measurement gap repetition periods suited to asynchronous networks. The first and second measurement gap patterns are made known to an user equipment by way of novel information elements used during RRC connection reconfiguration by the enhanced NodeB base station. The measurement gap enhancement method enables the user equipment to maintain its radio frequency setting between measurements, particularly automatic gain control.