Abstract: A method for wireless communication includes that: a terminal device receives downlink control information (DCI) sent by a network device; and based on a format of the DCI, the terminal device determines, among a plurality of channel access types, a target channel access type for physical uplink channel transmission in a high frequency band, where the plurality of channel access types include at least one of: uplink channel access without listen before talk (LBT); uplink channel access with a short LBT; or uplink channel access with a conventional LBT. A terminal device and a network device are also provided.

Abstract: A method for interference avoiding based on a time division duplex (TDD) multi-pattern frame structure includes: sending a first common signaling based on a first TDD frame structure and sending a second common signaling based on a second TDD frame structure; and receiving a first uplink (UL) signal sent by a terminal using the first TDD frame structure and receiving a second UL signal sent by the terminal using the second TDD frame structure. The first common signaling and the second UL signal are communicated via different frequency domain resources, and the second common signaling and the first UL signal are communicated via different frequency domain resources; and the second TDD frame structure and the first TDD frame structure have a same frame period and a same UL-downlink (DL) slot configuration, and the second TDD frame structure has a fixed frame header offset relative to the first TDD frame structure.

Abstract: Related to the technical field of communication, validity period determinations are provided. For example, a terminal determines a validity period of ephemeris information, the validity period meeting a synchronization requirement of the terminal. By determining the validity period of the ephemeris information that meets the synchronization requirement, the terminal can ensure the real-time accuracy of the ephemeris information at the terminal, thereby ensuring that a time delay and a Doppler frequency shift calculated by the terminal based on the ephemeris information have only small errors. Since the errors do not exceed a range tolerated by the synchronization requirement, the synchronization performance of the terminal can be guaranteed.

Abstract: Provided in the embodiments of the present application are a wireless communication method, a terminal device, and a network device. A terminal device sends first information for determining a timing offset value to a network device, where the first information is a first parameter with a first time-domain granularity, and/or the first information is a second parameter with the first time-domain granularity, the first time-domain granularity being a time-domain granularity associated with a subcarrier, the first parameter being used for representing a delay of a service link estimated by the terminal device, and the second parameter being used for representing a Timing Advance (TA).

Abstract: The present application relates to the technical field of non-terrestrial network communications, and provides a timing advance reporting method and apparatus. The terminal device generates an information unit according to an estimated timing advance amount and transmits the information unit to a non-terrestrial network device, wherein the information unit includes a first feature field including data of a first dimension and a second feature field including data of a second dimension. The present application improves the reporting accuracy of the timing advance amount by determining data of different dimensions according to the timing advance amount, thereby satisfying the optimization design requirements of the non-terrestrial network device.

Abstract: Provided are a method for extending a synchronization signal block (SSB) and device, a medium and a program product, which are used for extending the number of SSBs and realizing coverage of more beam footprints. The method includes: when the number of beam footprints that the satellite base station needs to serve is greater than the number of SSB beams sent in each SSB period, sending SSB beams to a current cell using K SSB sets. The sum of the SSB beams contained in the K SSB sets is greater than the number of the beam footprints, and K is a natural number greater than 1; and transmitting the K SSB sets to the current cell. Beams with a same index in different SSB sets point to different beam footprints.

Abstract: The present disclosure provides methods and apparatuses for broadcasting and receiving broadcast information, and an electronic device, which relate to the technical field of satellite communication. The present disclosure firstly determines an edge area and a non-edge area of a coverage area of a current serving cell; then sends first broadcast information to the edge area and sends second broadcast information to the non-edge area, and the first broadcast information includes a set of system information related to a neighbor cell of the serving cell and a set of other information unrelated to the neighbor cell of the serving cell; and the second broadcast information includes the set of other information and excludes the set of system information.

Abstract: A methods for broadcasting and receiving system information, an apparatus, a device and a storage medium are provided. The method includes: determining, by a base station on a satellite, an edge beam footprint corresponding to a first cell; broadcasting system information associated with one or more neighbor cells of the first cell and system information associated with the first cell to the edge beam footprint in a process of broadcasting system information to the ground coverage region through a satellite beam; and after moving from a non-edge beam footprint to the edge beam footprint, receiving, by a user equipment, the system information associated with the one or more neighbor cells at the edge beam footprint.

Abstract: Provided is a method for wireless communication.

Abstract: Provided is a method for wireless communication. The method includes: transmitting, by a terminal device, configured grant-uplink control information (CG-UCI) to a network device, wherein the CG-UCI indicates whether the network device is instructed to share a third COT using target COT sharing information, the third COT being a COT initiated by the terminal device, and the target COT sharing information comprising a duration and a time offset.

Abstract: Provided in the embodiments of the present application are a wireless communication method, a terminal device, and a network device. A terminal device sends first information for determining a timing offset value to a network device, where the first information is a first parameter with a first time-domain granularity, and/or the first information is a second parameter with the first time-domain granularity, the first time-domain granularity being a time-domain granularity associated with a subcarrier, the first parameter being used for representing a delay of a service link estimated by the terminal device, and the second parameter being used for representing a Timing Advance (TA).

Abstract: A method for wireless communication includes that: a terminal device receives downlink control information (DCI) sent by a network device; and based on a format of the DCI, the terminal device determines, among a plurality of channel access types, a target channel access type for physical uplink channel transmission in a high frequency band, where the plurality of channel access types include at least one of: uplink channel access without listen before talk (LBT); uplink channel access with a short LBT; or uplink channel access with a conventional LBT. A terminal device and a network device are also provided.

Abstract: A wireless communication method, a first device, and a second device are provided. In the method, under the condition that a gap between two adjacent transmissions within a channel occupancy time (COT) is greater than or equal to a first gap, before the second one of the two adjacent transmissions is performed, category 2 Listen Before Talk (Cat 2 LBT) is performed. Here, the first gap includes a first maximum gap and/or a second maximum gap, the first maximum gap is a maximum gap without data transmission on all beams within the COT, and the second maximum gap is a maximum gap without data transmission on one beam within the COT. The second transmission is resumed based on the execution result of the Cat 2 LBT.

Abstract: Related to the technical field of communication, validity period determinations are provided. For example, a terminal determines a validity period of ephemeris information, the validity period meeting a synchronization requirement of the terminal. By determining the validity period of the ephemeris information that meets the synchronization requirement, the terminal can ensure the real-time accuracy of the ephemeris information at the terminal, thereby ensuring that a time delay and a Doppler frequency shift calculated by the terminal based on the ephemeris information have only small errors. Since the errors do not exceed a range tolerated by the synchronization requirement, the synchronization performance of the terminal can be guaranteed.

Abstract: Provided in the present disclosure is a random access channel (PRACH) signal transmission method and device, the method comprising: on the basis of a system agreement or according to acquiring an instruction from a network side device, determining delay information for sending a PRACH signal; and according to a calculated initial timing advance (TA) and the delay information, sending the PRACH signal at a PRACH signal sending opportunity. Thus, the problem in existing PRACH signal transmission methods in which interference exists between PRACH signals when TA estimation is not accurate is solved.