Apple Inc.

Zte Corporation

Tencent Technology (Shenzhen) Company Limited

Xi'an Zhongxing New Software Co., Ltd.

Zte (USA) Inc.

Tencent Technology Company Limited

Yuqin Chen

Fangli Xu

Dawei Zhang

Haijing Hu

Sethuraman Gurumoorthy

Srirang Ashok Lovlekar

Zhibin Wu

Murtaza A Shikari

Srinivasan Nimmala

Wei Zeng

Longda Xing

Sree Ram Kodali

Haitong Sun

Sarma V Vangala

Yushu Zhang

Chunhai Yao

Yuchul Kim

Hong He

Chunxuan Ye

Jie Cui

Weidong Yang

Yang Tang

Oghenekome Oteri

Vijay Venkataraman

Wei Zhang

Lin Chen

Yakun Sun

Alexander Sasha Sirotkin

Qiming Li

Krisztian Kiss

Johnson O Sebeni

Huaning Niu

Sigen Ye

Manasa Raghavan

Beibei Wang

Li Li

Li Su

Seyed Ali Akbar Fakoorian

Tarik Tabet

Yu Ngok Li

Peng Hao

Sharad Deepak Sambhwani

Xing Liu

Murali Narasimha

Yin Gao

Wei Gou

Zhu Ji

Huiying Fang

Wei Luo

Feng Bi

Naveen Kumar R Palle Venkata

Ralf Rossbach

Xu Ou

Huarui Liang

Shu Guo

Sudeep Manithara Vamanan

Muthukumaran Dhanapal

Xiangying Yang

Zhiwei Wang

Sami M Almalfouh

Pengkai Zhao

Wanping Zhang

Shengyu Zhang

Ping Wang

Ying Huang

Yeong-Sun Hwang

Hongyun Qu

Jia Tang

Yang Liu

Feng Xie

Tianyan Pu

Anatoliy Sergey Ioffe

Xiang Chen

Rafael L Rivera-Barreto

Yannick L Sierra

Sreevalsan Vallath

Leilei Song

Nan Li

Dapeng Li

Sanjeevi Balasubramanian

Sriram Subramanian

Shiva Krishna Narra

Sachin J Sane

Alexander Sayenko

Samuel David Post

Zijiang Ma

Farouk Belghoul

Kaiying Lv

Hui Xu

Ke Yao

Yu Wei Chen

Yada Huang

Thanigaivelu Elangovan

Xiaojuan Shi

Zhongda Du

Mengzhen Wang

Juergen H Kreuchauf

This application is directed to predicting an adiabatic evolution path and relates to the field of artificial intelligence (AI). In one aspect, a computer device obtains a target Hamiltonian H1 of a quantum computing problem. The computer device also determines an initial Hamiltonian H0 and a target ground state energy E1 according to the target Hamiltonian H1. The device converts a search for an adiabatic evolution path from the initial Hamiltonian H0 to the target ground state energy E1 into a chessboard game. The device also solves an optimal chessboard path of the chessboard game using a Monte Carlo tree search (MCTS) in combination with a neural network. The device also outputs the adiabatic evolution path according to the optimal chessboard path.

Method and apparatus for predicting adiabatic evolution path, device, and storage medium

Peer devices may wirelessly communicate with each other over a bidirectional sidelink logical channel (LCH) through an established bidirectional sidelink radio bearer. An initiating device of the peer devices may dynamically select a logical channel ID for establishing a fully bidirectional or semi-bidirectional SLRB. At least two alternative sidelink radio resource control (PC5-RRC) procedures may ensure the SLRB parameters are configured correctly in the established logical channel. The procedures also allow the network to configure a limited SLRB which is used to couple the SLRB configuration in the direction in which limited traffic (e.g. feedback information such as robust header compression feedback and/or status reports) is transmitted.

Bidirectional sidelink radio link control bearers

A user equipment (UE) is configured to operate as a relay UE between a remote UE and a base station. The relay UE receives, from an originating device, a data packet for relay to a recipient device, determines that the relay of the data packet to the recipient device has failed and sends, to the originating device, a transmission including the data packet, wherein the transmission comprises an indication that the data packet is being returned to the originating device.

Data transfer during mobility in layer 2 relay

A quantum computing method includes determining an initial quantum state of a quantum system, and inputting the initial quantum state to a quantum circuit corresponding to the quantum system and obtaining a quantum state outputted by the quantum circuit, wherein the outputted quantum state is a quantum circuit generation state corresponding to the quantum system. The method further includes updating a quantum system parameter based on the outputted quantum circuit generation state. The quantum system parameter includes a quantum imaginary-time parameter. The method further includes updating a quantum circuit parameter of the quantum circuit according to the updated quantum system parameter to obtain an updated quantum system, and determining a final quantum state of the quantum system as a minimum eigenstate of the quantum system.

Controlling a quantum computing system using imaginary-time evolution

Embodiments described herein include methods, systems, and apparatuses for allowing a user equipment (UE) that supports dynamic spectrum sharing (DSS) with uplink (UL)-shift to access a cell and barring UEs that do not support DSS with UL-shift. Embodiments may use a cell barring field in a master information block and additional filters to indicate a barring state for a network node.

Methods, systems, and apparatuses for handling dynamic spectrum sharing with uplink subcarrier shift

A wireless user equipment (UE) device may transmit a random access preamble to a base station, using a physical resource on an uplink signal. After failing to receive an initial transmission of a response message from the base station (BS), the UE device may monitor for one or more retransmissions of the response message. Each of the retransmission may include a corresponding transmission number. As an alternative, each of the retransmissions may be at least partially scrambled using a corresponding Radio Network Temporary Identifier (RNTI). As another alternative, a window for monitoring and RNTI calculation may be extended to include the one or more retransmissions. The successive retransmissions may include the same set of UE-specific payloads, or, a decreasing set of payloads over time as UE devices acknowledge successful receipt of their respective payloads.

Retransmission of MsgB in two-step random access procedure

A user equipment (UE), baseband processor or other network device (e.g., base station, next generation NodeB, etc.) can operate to process or generate measurement gap configurations associated with multiple universal subscriber identity modules (MUSIM) with dual subscriber identify modules (SIMs). A UE can perform a system information request or an SI reading with or without the SI request based on a UE configured interruption or a preconfigured measurement gap configuration to read a system information block (SIB) 1 and at least one other SIB of SI associated with the target network.

Measurement gap (MG) and interruption design for system information (Si) reading in multiple universal subscriber identity module (MUSIM)

The present application relates to devices and components including apparatus, systems, and methods for partial sensing for resource selection, reevaluation, and preemption. In some embodiments: a UE receives configuration information for a resource pool; determines a type of traffic to be transmitted by the UE, the type to include aperiodic traffic or periodic traffic; determines, based on the configuration information and traffic type, first and second values to define a window for contiguous partial sensing; and performs contiguous partial sensing within the window.

Partial sensing for resource selection, reevaluation, and preemption

A multi-universal subscriber identity module (MUSIM) user equipment (UE) is configured to stay synchronized with a network. The UE registers to a first network for the first SIM, registering to a second network for the second SIM, prior to the UE conducting a high priority activity related to the second SIM, sends, to the first network via a connection associated with the first SIM, a first message comprising an estimated time duration during which the UE conducts the high priority activity related to the second SIM, receives, from the first network, a second message indicating a time period during which the first network will retain a connection context for the connection associated with the first SIM in an RRC Inactive state and when the UE completes the high priority activity, determines the connection context of the first network for the connection associated with the first SIM.

Synchronization of RRC status of a multi-SIM user equipment with a base station

A user equipment (UE) is connected to a wireless network and operates in a carrier aggregation (CA) state that includes a first connection to a primary cell and a second connection to a secondary cell. The UE determines a beam failure has occurred for one of the first connection or the second connection and initiates a beam failure recovery (BFR) operation. The BFR operation includes transmitting, to the primary cell, a BFR Medium Access Control (MAC) Control Element (CE).

Failure handling for secondary cell

The exemplary embodiments relate to a computer readable storage medium, a user equipment, a method and an integrated circuit that perform operations. A user equipment (UE) enters into a first state including one of a non-dormant state or a dormant state with a secondary serving cell (SCell) of a network, the SCell being configured to provide either one of a non-dormant bandwidth part (BWP) as a secondary component carrier (SCC) in the non-dormant state or a dormant BWP as an SCC in the dormant state. The UE switches from the first state to a second state including the other one of the non-dormant state or the dormant state, the switch being based on network configuration, a dormancy timer, or a radio condition.

SCell dormancy reliability improvement

This disclosure relates to techniques for determining a quasi-co-located assumption for aperiodic channel state information reference signals for multi-transmission-reception-point operation in a wireless communication system. A wireless device may establish wireless links with multiple transmission-reception-points of a cellular network. The wireless device may receive downlink control information. The wireless device may determine a quasi-co-located assumption for aperiodic channel state information reference signals for the downlink control information. Signals received according to the quasi-co-located assumption for aperiodic channel state information reference signals may be buffered by the wireless device if a scheduling offset for the downlink control information is below a scheduling offset threshold.

Quasi-co-located assumption for aperiodic CSI-RS for multi-TRP operation

Embodiments of the present disclosure relate to discontinuous reception (DRX) transmission. Embodiments of the present disclosure propose a solution for DRX configurations for point-to-point (PTP) and/or point-to-multipoint (PTM) transmissions. In this solution, a user equipment (UE) maintains separate DRX configurations for PTP transmissions and PTM transmissions. During active time for the PTP transmissions, the UE monitors physical downlink control channel (PDCCH) with a UE specific identifier. The UE monitors PDCCH with a PTM transmission specific identifier during active time for the PTM transmissions. In this way, it can match the MBS service quality mechanism. Moreover, it also saves power at the UE.

Discontinuous reception transmission

Apparatuses, systems, and methods for a wireless device and a cellular base station to support common analog beam steering for band groups. The wireless device may provide an indication of analog beam steering capability of the wireless device to the cellular base station. For example, the wireless device may support a limited number of analog beams for each of one or more band groups. The cellular base station may select beam configuration information for the wireless device based at least in part on the indication of analog beam steering capability of the wireless device. This may include selecting a common beam for multiple component carriers for the wireless device based on the wireless device's analog beam steering capability. The cellular base station may provide the beam configuration information to the wireless device.

Common analog beam steering for band groups

To accommodate a mix of high frequency carriers and lower frequency carriers, a protocol stack may include a radio link control (RLC) entity that allows configuration of status reporting control parameters on per carrier, or per subcarrier spacing. Alternatively, a protocol stack may include two RLC entities, one for handling high frequency carriers, and another for handling lower frequency carriers. (High frequency carriers and lower frequency carriers may be distinguished based on a frequency threshold.) Furthermore, a user equipment may transmit (to the network) an indication of its L2 buffer size. The network may configure the UE and/or control scheduling, to ensure the UE's L2 buffer does not overrun. Alternatively, the UE may indicate that it can support a percentage of a maximum buffer size. The network may configure the UE and/or control scheduling so that the UE's buffer occupancy does not exceed the percentage.

Handling high data rates in protocol stack when using high frequency spectrum

Growing community of inventors

Shenzhen, China

Yuqin Chen