CN110831142A

CN110831142A - Method and device for determining power control parameter, storage medium and electronic equipment

Info

Publication number: CN110831142A
Application number: CN201810904645.6A
Authority: CN
Inventors: 姚珂; 高波; 李儒岳; 鲁照华
Original assignee: ZTE Corp
Current assignee: ZTE Corp
Priority date: 2018-08-09
Filing date: 2018-08-09
Publication date: 2020-02-21
Also published as: WO2020030117A1

Abstract

The invention provides a method and a device for determining a power control parameter, a storage medium and electronic equipment, wherein the method comprises the following steps: acquiring first transmitted airspace resource information and second transmitted airspace resource information; adjusting at least a portion of spatial resource information of the first transmission according to: the second transmitted spatial domain resource information, or the first transmitted spatial domain resource information and the second transmitted spatial domain resource information, or the set of spatial domain information resources associated with the first transmission and the second transmitted spatial domain resource information; and determining at least part of power control parameters of the first transmission according to the adjusted spatial domain resource information of the first transmission. The invention solves the problem that the uplink transmission after the beam change can not obtain the corresponding power parameter when a plurality of uplink transmissions need to be sent simultaneously in the related technology, thereby achieving the effect of obtaining the power control parameter of the uplink transmission after the beam change.

Description

Method and device for determining power control parameter, storage medium and electronic equipment

Technical Field

The present invention relates to the field of communications, and in particular, to a method and an apparatus for determining a power control parameter, a storage medium, and an electronic device.

Background

Currently, a new generation radio communication (NR) technology is being defined, and as a fifth generation mobile communication system, the technology needs to support different types of application scenarios, and also needs to support a conventional frequency band, a new high frequency band, and a beam mode at the same time, which brings a great challenge to design of power control.

The power control of uplink transmission is related to many factors, such as path loss, target received power, maximum transmit power, closed loop power adjustment, transmission bandwidth, transmission rate, etc. In the NR, the uplink transmission at least includes a physical uplink shared channel PUSCH, a physical uplink control channel PUCCH, a sounding reference signal SRS, and a physical random access channel PRACH. Uplink transmission can be scheduled periodically by the base station or dynamically, and the UE can also decide to send PRACH itself. NR supports frequency division multiplexing for multiple uplink transmissions, so multiple transmissions can be sent in parallel.

When the base station schedules more than one uplink transmission for the user terminal UE, the corresponding beams between the multiple uplink transmissions are not completely consistent. Limited by the capability of the UE, the UE cannot simultaneously transmit using the corresponding beam according to the scheduling information of each uplink transmission, and then the UE may change the beam of part of the uplink transmissions. Since there is a corresponding relationship between the beam and the power, the corresponding transmission power will also change after the beam is changed.

In the related art, no solution has been proposed in the related art for the problem that the uplink transmission after the beam change cannot obtain the corresponding power control parameter when multiple uplink transmissions need to be simultaneously transmitted.

Disclosure of Invention

Embodiments of the present invention provide a method and an apparatus for determining a power control parameter, a storage medium, and an electronic device, so as to at least solve a problem in the related art that when multiple uplink transmissions need to be sent simultaneously, a corresponding power control parameter cannot be obtained for uplink transmissions after a beam change.

According to an embodiment of the present invention, there is provided a method for determining a power control parameter, including:

acquiring first transmitted airspace resource information and second transmitted airspace resource information;

adjusting at least a portion of spatial resource information of the first transmission according to:

spatial domain resource information of the second transmission, or,

spatial domain resource information of the first transmission and spatial domain resource information of the second transmission, or,

a set of spatial information resources associated with the first transmission and spatial resource information for the second transmission;

and determining at least part of power control parameters of the first transmission according to the adjusted spatial domain resource information of the first transmission.

Optionally, there is at least partial time domain overlap of the first transmission and the second transmission.

Optionally, the spatial resource information of the first transmission and the spatial resource information of the second transmission satisfy at least one of the following characteristics:

the first transmitted airspace resource information and the second transmitted airspace resource information are related to the same A-type group;

the first transmitted airspace resource information and the second transmitted airspace resource information are related to the same B-type group;

the spatial domain resource information of the first transmission and the spatial domain resource information of the second transmission are associated with different C-type groups;

the spatial domain resource information of the first transmission is associated with the same closed loop power control as the spatial domain resource information of the second transmission.

Optionally, the adjusted spatial resource information of the first transmission and the adjusted spatial resource information of the second transmission satisfy at least one of the following characteristics:

the spatial domain resource information of the first transmission and the spatial domain resource information of the second transmission are associated with different A-type groups;

the spatial domain resource information of the first transmission and the spatial domain resource information of the second transmission are associated with different B-type groups;

the first transmitted spatial domain resource information is associated with the same class C packet as the second transmitted spatial domain resource information.

Optionally, the first transmission comprises at least one of: physical Uplink Shared Channel (PUSCH) transmission, Physical Uplink Control Channel (PUCCH) transmission, Sounding Reference Signal (SRS) transmission, demodulation reference signal (PMRS) transmission and phase tracking signal (PTRS) transmission;

the second transmission comprises at least one of: the method comprises the steps of physical uplink shared channel PUSCH transmission, physical uplink control channel PUCCH transmission, sounding reference signal SRS transmission, demodulation reference signal PMRS transmission and phase tracking signal PTRS transmission.

Optionally, the adjusting at least part of the spatial domain resource information of the first transmission according to the spatial domain resource information of the second transmission includes:

adjusting at least a portion of the spatial resource information of the first transmission to at least a portion of the spatial resource information of the second transmission.

Optionally, the adjusting at least a portion of the spatial domain resource information of the first transmission according to the spatial domain resource information of the first transmission and the spatial domain resource information of the second transmission includes:

determining third airspace resource information according to the first transmitted airspace resource information and the second transmitted airspace resource information;

adjusting at least a portion of the spatial domain resource information of the first transmission to the third spatial domain resource information;

wherein at least one of the following characteristics is satisfied between the third spatial resource information and at least part of the spatial resource information of the first transmission:

the third spatial domain resource information is associated with the same reference signal resources as at least part of the spatial domain resource information of the first transmission;

the third spatial resource information is associated with a same spatial filter as at least a portion of the spatial resource information of the first transmission;

the third spatial domain resource information of the first transmission and at least part of the spatial domain resource information of the first transmission meet the spatial relationship quasi co-location condition;

the third spatial resource information is associated with a different class A packet and/or a different class B packet than at least a portion of the spatial resource information of the first transmission;

the third spatial domain resource information is associated with the same type C packet as at least part of the spatial domain resource information of the first transmission;

the third spatial domain resource information is associated with the same cell group with at least part of the spatial domain resource information of the first transmission;

the third spatial resource information is associated with the same PUCCH groups as at least part of the spatial resource information of the first transmission;

and/or at least one of the following characteristics is satisfied between the third spatial resource information and at least part of the spatial resource information of the second transmission:

the third spatial domain resource information is associated with the same reference signal resources as at least part of the spatial domain resource information of the second transmission;

the third spatial resource information is associated with a same spatial filter as at least a portion of the spatial resource information of the second transmission;

the third airspace resource information and at least part of the second transmitted airspace resource information meet the spatial relationship quasi co-location condition;

the third spatial resource information is associated with a different class A packet and/or a different class B packet than at least a portion of the spatial resource information of the second transmission;

the third spatial domain resource information is associated with the same type C packet as at least part of the spatial domain resource information of the second transmission;

the third spatial domain resource information is associated with the same cell group with at least part of the spatial domain resource information of the second transmission;

the third spatial resource information is associated with the same PUCCH group as at least a portion of the spatial resource information of the second transmission.

Optionally, the adjusting at least a portion of spatial domain resource information of the first transmission according to the set of spatial domain resource information associated with the first transmission and spatial domain resource information of the second transmission includes:

adjusting at least a portion of the spatial resource information of the first transmission to be spatial resource information in a set of spatial resource information associated with the first transmission that can be transmitted concurrently with spatial resource information of the second transmission.

Optionally, the determining at least a part of power control parameters of the first transmission according to the adjusted spatial domain resource information of the first transmission includes:

and associating the power control parameter corresponding to the adjusted spatial domain resource information of the first transmission in a mapping relation between the spatial domain resource information associated with the first transmission and the power control parameter according to the adjusted spatial domain resource information of the first transmission so as to determine at least part of the power control parameter of the first transmission.

and associating the power control parameter corresponding to the adjusted spatial domain resource information of the first transmission in the mapping relation between the spatial domain resource information associated with the second transmission and the power control parameter according to the adjusted spatial domain resource information of the first transmission so as to determine at least part of the power control parameter of the first transmission.

associating at least part of power control parameters of corresponding second transmission according to the adjusted spatial domain resource information of the first transmission; determining a power control parameter for the first transmission based on at least a portion of the power control parameter for the second transmission.

determining fourth spatial domain resource information in the set of spatial domain resource information associated with the first transmission according to the adjusted spatial domain resource information of the first transmission;

associating the power control parameter corresponding to the fourth spatial domain resource information in a mapping relation between spatial domain resource information associated with the first transmission and the power control parameter according to the fourth spatial domain resource information to determine at least part of the power control parameter of the first transmission;

wherein at least one of the following characteristics is satisfied between the fourth spatial resource information and the adjusted spatial resource information of the first transmission:

the fourth spatial domain resource information is associated with the same reference signal resource as the adjusted spatial domain resource information of the first transmission;

the fourth spatial domain resource information is associated with a spatial filter which is the same as the spatial domain resource information of the adjusted first transmission;

the fourth airspace resource information and the adjusted first transmitted airspace resource information meet the spatial relationship quasi co-location condition;

the fourth airspace resource information is related to the A-type group and/or the B-type group with different relations with the adjusted first transmitted airspace resource information;

the fourth airspace resource information is related to the same C-type group as the adjusted first transmitted airspace resource information;

the fourth airspace resource information is associated with the cell group with the same relationship with the adjusted first transmitted airspace resource information;

and associating the fourth spatial domain resource information with the same PUCCH group as the adjusted spatial domain resource information of the first transmission.

and associating the power parameter corresponding to the adjusted spatial domain resource information of the first transmission in a mapping relation between a set of the spatial domain resource information containing the adjusted spatial domain resource information of the first transmission and the power control parameter according to the adjusted spatial domain resource information of the first transmission so as to determine at least part of the power control parameter of the first transmission.

Optionally, the adjusting at least part of the spatial resource information of the first transmission according to the following object comprises:

adjusting at least a portion of spatial domain resource information corresponding to a transmission channel quality in the first transmission that is below a predetermined threshold.

Optionally, the spatial resource information includes at least one of the following objects: reference signal information, reference signal resource index, reference signal resource set index, spatial relationship, spatial filter.

Optionally, the method further comprises:

determining a power control parameter in the first transmission other than at least a portion of the power control parameter determined from the second spatial resource information for the first transmission based on one of:

a predefined power control parameter for the first transmission;

a power control parameter of the first transmission configured by default;

the spatial domain resource information associated with the first transmission and a power control parameter corresponding to the spatial domain resource information of the first transmission in a power control parameter mapping relationship

A power control parameter of the first transmission is assigned a number in a set of power control parameters configured for the first transmission;

power control parameters of a first transmission of the set of power control parameters configured for the first transmission associated with the spatial domain resource information are specified.

Optionally, the power control parameter comprises at least one of: open loop power control parameters, closed loop power control parameters, path loss measurement parameters, wherein,

the open loop power control parameter comprises at least one of: target received power, path loss factor;

the set of path loss measurement parameters includes at least one of: a reference signal resource type indication for path loss measurement, a reference signal resource indication for path loss measurement;

the closed loop power control parameter comprises at least one of: the identification of the closed-loop power control process and the number of the closed-loop power control processes.

Optionally, the method further comprises:

determining the power control parameter associated with the first transmission based on the spatial resource information of the first transmission when the spatial resource information of the first transmission and the spatial resource information of the second transmission satisfy at least one of the following characteristics:

the spatial domain resource information of the first transmission and the spatial domain resource information of the second transmission are associated with the same reference signal resource;

the spatial filter with the same association between the spatial resource information of the first transmission and the spatial resource information of the second transmission;

the first transmitted airspace resource information and the second transmitted airspace resource information meet a spatial relationship quasi co-location condition;

the spatial domain resource information of the first transmission and the spatial domain resource information of the second transmission are associated with different A-type groups and/or B-type groups;

the first transmitted airspace resource information and the second transmitted airspace resource information are related to the same C-type group;

the spatial domain resource information of the first transmission and the spatial domain resource information of the second transmission are related to the same cell group;

and associating the same PUCCH group with the spatial resource information of the first transmission and the spatial resource information of the second transmission.

Optionally, the class a packet includes at least one of: antenna panel grouping, antenna array grouping;

the class B packet includes at least one of: antenna panel grouping, antenna array grouping;

the class C packet includes at least one of: the beams are grouped.

According to another embodiment of the present invention, there is provided an apparatus for determining a power control parameter, including:

the acquisition module is used for acquiring the airspace resource information of the first transmission and the airspace resource information of the second transmission;

an adjustment module configured to adjust at least a portion of spatial domain resource information for the first transmission according to:

spatial domain resource information of the second transmission, or,

a determining module, configured to determine at least a part of power control parameters of the first transmission according to the adjusted spatial domain resource information of the first transmission.

According to a further embodiment of the present invention, there is also provided a storage medium having a computer program stored therein, wherein the computer program is arranged to perform the steps of any of the above method embodiments when executed.

According to yet another embodiment of the present invention, there is also provided an electronic device, including a memory in which a computer program is stored and a processor configured to execute the computer program to perform the steps in any of the above method embodiments.

According to the invention, in the process of sending the first transmission space domain resource information and the second transmission space domain resource information, the first transmission space domain resource information can be adjusted according to the second transmission space domain resource information and the first transmission space domain resource information or the set of space domain information resources related to the first transmission, and at least part of power control parameters of the first transmission can be obtained according to the adjusted first transmission space domain resource information.

Drawings

The accompanying drawings, which are included to provide a further understanding of the invention and are incorporated in and constitute a part of this application, illustrate embodiment(s) of the invention and together with the description serve to explain the invention without limiting the invention. In the drawings:

fig. 1 is a flow chart of a method of determining a power control parameter according to an embodiment of the invention;

FIG. 2 is a schematic diagram of a beam relationship between a first transmission and a second transmission in accordance with an embodiment of the present invention;

FIG. 3 is a schematic diagram of a beam relationship between a first transmission and a second transmission after adjustment according to an embodiment of the present invention;

fig. 4 is a block diagram of a configuration of a power control parameter determination apparatus according to an embodiment of the present invention.

Detailed Description

The invention will be described in detail hereinafter with reference to the accompanying drawings in conjunction with embodiments. It should be noted that the embodiments and features of the embodiments in the present application may be combined with each other without conflict.

It should be noted that the terms "first," "second," and the like in the description and claims of the present invention and in the drawings described above are used for distinguishing between similar elements and not necessarily for describing a particular sequential or chronological order.

In order to more clearly explain the technical solutions involved in the present embodiment, some technical terms are further explained below:

in a wireless communication system, transmission power control of transmissions is required in order to reduce power consumption of a transmitting device and to reduce interference caused by unnecessary high-power transmissions to other transmissions. Factors such as the size of the communication range, the maximum transmission power and reception sensitivity of the transceiver devices of both communication parties, the modulation and coding scheme and rate of data, the operating frequency band, and the bandwidth occupied by transmission all affect the transmission power. Generally, it is necessary to use a lower transmission power as much as possible under the condition that the received signal quality requirement of the receiving end is satisfied.

In a general communication technique, a communication node 1 transmits a reference signal, and a communication node 2 measures a Path Loss (PL) from the node 1 to the node 2 based on the reference signal. PL is calculated using the difference between the transmission power of the reference signal at node 1 and the reception power of the reference signal received at node 2. Assuming that the PL of the node 2 to node 1 transmission channel is the same as the PL of the node 1 to node 2 channel, the node 2 can calculate the transmission power of the node 2 as the transmitting node to node 1 with the above-mentioned PL. Since PL is the result of a unilateral measurement, this factor belongs to the open loop part in the transmission power. The node 1 receives the transmission and analyzes the transmission, and provides power adjustment information for the node 2 according to the received quality, and the process belongs to closed-loop power control.

In LTE, the base station to terminal link is the downlink and the terminal to base station link is the uplink. The downlink power is determined by the base station based on the channel measurements of each scheduled UE and the scheduling algorithm. The power control of the uplink is an open loop combined with a closed loop approach. In addition, certain quantities related to the transmission, such as the transmission rate, MCS level, transmission bandwidth, etc., also affect the power.

The following is a transmission power calculation formula of PUSCH in LTE, and each parameter affecting power will be described by taking this as an example.

In a carrier aggregation (carrier aggregation) scenario, each UE supports a plurality of Component Carriers (CCs), and each CC is also called a serving cell. The subscript c in the above equation refers to the serving cell c. As can be seen from the above equation, the transmission power in the power calculation equation is calculated for the serving cell.

The open loop part of the power of uplink transmission PUSCH is determined by target receiving power, path loss PL and path loss factor α, wherein the target receiving power is divided into cell level and UE level parameters, which are determined by the base station and configured to the UE, and the closed loop part is that the base station determines the closed loop power Control adjustment quantity according to the difference between the measurement result and the target to transmit power Control Command (TransmitPower Control Command, TPC Command, that is, delta aiming at PUSCH in DCI_PUSCH) The UE is informed. UE maintains a local power adjustment quantity f (i), updates according to a transmission power control command, and achieves the purpose of closed-loop power control by adopting the formula; where i is the subframe number, Δ TF is the MCS-dependent power offset, and is the maximum power limit of the UE.

The cell-level target received power P0_ nominal of LTE is obtained by distinguishing PUSCH (semi-static, dynamic, message 3MSG3) and PUCCH, and corresponds to different Block Error rate (BLER) requirements. The UE level target received power parameter P0_ UE _ specific is also set to distinguish the above items in order to compensate systematic deviations, such as PL estimation errors, errors in absolute output power setting.

Updating f (i) according to the transmission power control command is divided into two modes: the method comprises an accumulative method and an absolute value method, wherein the absolute value method is to directly update the local closed-loop power adjustment amount f (i) of the UE by using a transmission power control command sent by the base station, and the accumulative method determines the local closed-loop power adjustment amount f (i) of the UE by the transmission power control command sent by the base station and a historical value of the local closed-loop power adjustment amount of the UE. Note that f (i) here represents the amount of closed loop power adjustment local to the UE. For PUCCH transmission, the subscript is ignored, and the UE-local closed-loop power control adjustment amount in the power control formula is denoted by g (i), and is a UE-local closed-loop power adjustment amount for PUCCH, similar to the f (i) meaning of PUSCH.

The local closed loop power adjustment amount f (i) of the UE is also called power control adjustment state (power control adjustment state).

In the 5G technology, the power control of the uplink transmission is at the BWP level, that is, the transmit power is determined for each BWP level uplink transmission.

The 5G technology introduces a beam transmission mode, and both the base station and the UE support multiple beams. When operating in beam mode, the power calculation needs to take into account the characteristics of the beam. The resources used for the path loss measurement in 5G are related to the beam of the transmission path, and need to be configured by the base station, so the path loss measurement parameter exists independently of the open-loop power control parameter and the closed-loop power control parameter.

If the UE supports multiple beams (or beam groups), the base station configures an association between each possible beam (or beam group) and the power control parameters. A beam (or group of beams) may be indicated by a reference signal resource. The reference signal resource may be indicated by the base station for uplink transmission of the UE, so that the UE obtains a power control parameter associated with the reference signal resource.

The reference signal resource includes at least one of: uplink Sounding Signal (SRS), Channel State Information Reference Signal (CSI-RS), Secondary Synchronization Block (SSB), Phase Tracking Reference Signal (PTRS), Tracking Reference Signal (TRS), and Demodulation Reference Signal (DMRS).

Example 1

In this embodiment, a method for determining a power control parameter is provided, and fig. 1 is a flowchart of a method for determining a power control parameter according to an embodiment of the present invention, as shown in fig. 1, the flowchart includes the following steps:

step S102, acquiring first transmitted airspace resource information and second transmitted airspace resource information;

step S104, adjusting at least part of spatial domain resource information of the first transmission according to the following objects:

spatial domain resource information of the second transmission, or,

spatial resource information of the first transmission and spatial resource information of the second transmission, or,

a set of spatial domain information resources associated with a first transmission and spatial domain resource information of a second transmission;

and step S106, determining at least part of power control parameters of the first transmission according to the adjusted spatial domain resource information of the first transmission.

Through the above steps, in the process of sending the first transmitted spatial domain resource information and the second transmitted spatial domain resource information, the first transmitted spatial domain resource information may be adjusted according to the second transmitted spatial domain resource information and the first transmitted spatial domain resource information or the set of spatial domain information resources associated with the first transmission, and at least part of the power control parameters of the first transmission may be obtained according to the adjusted first transmitted spatial domain resource information.

Meanwhile, the optimal power control solution of different beam collision scenes can be flexibly realized through the steps.

Specifically, the first transmitted spatial domain resource information includes at least one spatial domain resource information, and the adjusted first transmitted spatial domain resource information includes only the adjusted spatial domain resource information part, and the unadjusted part is still the original first transmitted spatial domain resource information. For example, the first transmission is a PUSCH, and the spatial resource information of the original first transmission includes 2 spatial resource information, where each spatial resource information is represented by an SRS resource, and the identifiers of the 2 spatial resource information are SRS-1 and SRS-2, respectively. The second transmission is a PUCCH, and the spatial resource information of the second transmission comprises 1 spatial resource information which is represented by a spatial relationship and is marked as a spatial relationship-1.

Assuming that spatial relationship-1 can be transmitted simultaneously with SRS-1 but cannot be transmitted simultaneously with SRS-2, spatial relationship-1 forms second spatial resource information of the first transmission in place of SRS-2. That is, the spatial domain resource information of the first transmission PUSCH includes two spatial domain resource information SRS-1 and SRS-2, one of which is adjusted to have a spatial relationship of-1, and the adjusted spatial domain resource information is adjusted to be the adjusted spatial domain resource information of the first transmission. Assuming that SRS-1 and SRS-2 determine a set of power control parameters, respectively, the adjusted first transmission still supports two sets of power control parameters, which are determined by SRS-1 and spatial relationship-1, respectively.

The main body of the above steps may be a base station, a UE, etc., but is not limited thereto. In a specific implementation process, the base station and the UE may be replaced by names of various communication nodes, such as nb (nodeb), gNB (gbb), TRP (transmitter receiver point), ap (access point), station, user, STA, relay (relay), and terminal. The base station may also refer to a network side (network), UTRA, EUTRA, and the like.

Uplink transmissions may be configured for the UE by the base station, and such transmissions are typically scheduled periodically, or semi-persistently. The uplink transmission may also be dynamically scheduled by the base station for the UE. In addition, the UE feeds back HARQ ACK/NACK information to the received downlink transmission by using uplink transmission, which may be dynamically scheduled, or may be periodically scheduled or semi-persistently scheduled resources.

Each uplink transmission has determined scheduling information for indicating the time domain, frequency domain and space domain resource information occupied by the uplink transmission. The spatial domain resource information specifically indicates a beam resource for uplink transmission.

To support the beam mode, optionally, the power control parameter of the first transmission includes at least one of: open loop power control parameters, closed loop power control parameters, and path loss measurement parameters.

It should be further noted that the above-mentioned path loss measurement parameters are also referred to as RS parameters of path loss measurement. Each part of the power control parameters supports configuration of a plurality of power control parameters, namely the number of the open-loop power control parameters can be up to J, and the number of each open-loop power control parameter is J; k path loss measurement parameters can be configured at most, and the serial number of each path loss measurement parameter is K; at most, L closed-loop power control parameters can be configured, and the serial number of each closed-loop power control parameter is L; wherein J is an integer greater than 0 and equal to or less than J, K is an integer greater than 0 and equal to or less than K, L is an integer greater than 0 and equal to or less than L, and J, K, L are integers greater than 0.

Specifically, the set of open-loop power control parameters includes at least one of: target received power, path loss factor; the set of path loss measurement parameters includes at least one of: a reference signal resource type indication for path loss measurement, a reference signal resource indication for path loss measurement, and a processing rule of path loss values of reference signals for two or more path loss measurements; the closed loop power control process parameter comprises at least one of the following parameters: the closed loop power control process identification set and the number of the closed loop power control processes.

To further illustrate the method for controlling power control of uplink transmission of a UE according to a power control parameter in this embodiment, the following example is used to describe (the power control parameter here is defaulted to be the power control parameter of the first transmission):

the base station configures J1 open-loop power control parameters (or a set thereof), K1 path loss measurement parameters (or a set thereof), and L1 closed-loop power control parameters (or a set thereof) for PUSCH transmission for the UE.

The base station configures a transmission mode of the PUSCH for the UE, such as codebook-based transmission (codebook based transmission) or non-codebook based transmission (non-codebook based transmission).

The base station configures an uplink sounding signal resource set (SRS resource) based on a PUSCH transmission scheme for the UE, where the uplink sounding signal resource set includes at least one uplink sounding signal resource (SRS resource).

The base station sends Downlink Control Information (DCI) to the UE, where the DCI includes SRS Resource Indicator (SRI), and the SRI may be used to determine precoding for PUSCH transmission. The set of SRIs indicated in DCI for different PUSCH transmission schemes may be different. For example, a set of SRIs for codebook-based transmission may have 2 SRIs, each SRI representing an SRS Resource (Resource); there may be 15 SRIs in the SRI set for non-codebook based transmission, each SRI representing one SRS resource or multiple SRS resources.

The base station configures each member SRI in the SRI set indicated in the DCI for the UE to be associated with at least one of the following: open loop power control parameter (or set thereof) number, path loss measurement parameter (or set thereof) number, closed loop power control parameter (or set thereof) number.

And the base station informs the UE of the power control parameter of PUSCH transmission through the SRI in the DCI.

For PUCCH transmission, there is also a similar method of determining the power control parameter. The differences from the PUSCH are: the beam of the PUCCH is identified by spatial relation information, the base station configures the correlation between the spatial relation information set of the PUCCH and the power control parameter, the spatial relation information transmitted by the PUCCH is indicated by the MAC CE, and the UE determines the power control parameter of the PUCCH according to the correlation between the spatial relation information indicated by the MAC CE and the spatial relation information set of the PUCCH configured by the base station and the power control parameter.

The spatial relationship between the reference signal resource of the PUSCH and the PUCCH is space domain resource information in this embodiment. The spatial domain resource information represents a transmission mode by reference signal resource information, such as SRS or SRI, or a spatial relationship, and the transmission mode may include a beam

the first transmitted spatial resource information and the second transmitted spatial resource information belong to the same class A packet, wherein the class A packet comprises at least one of the following: antenna panel grouping, antenna array grouping;

the first transmitted spatial resource information and the second transmitted spatial resource information belong to the same class B packet, wherein the class B packet comprises at least one of the following: sub-antenna panel grouping, sub-panel grouping and sub-antenna array grouping;

the first transmitted spatial resource information and the second transmitted spatial resource information belong to different class C groups, wherein the class C groups comprise: the arrays are grouped.

It should be further noted that, in accordance with the grouping feature between the spatial domain resources of the first transmission and the spatial domain resources of the second transmission, the spatial domain resources of the first transmission and the spatial domain resources of the second transmission cannot be simultaneously transmitted; the above grouping feature between the first transmitted spatial domain resources and the second transmitted spatial domain resources is only one way to describe that the first transmitted spatial domain resources and the second transmitted spatial domain resources cannot be transmitted simultaneously, and in the field, both the features or conditions of the first transmitted spatial domain resources and the second transmitted spatial domain resources in the state that the spatial domain resources cannot be transmitted simultaneously belong to the protection scope of the present invention.

the adjusted spatial resource information of the first transmission and the adjusted spatial resource information of the second transmission belong to different A-type groups, wherein the A-type group comprises at least one of the following groups: antenna panel grouping, antenna array grouping;

the adjusted spatial resource information of the first transmission and the adjusted spatial resource information of the second transmission belong to different B-type groups, wherein the B-type groups comprise at least one of the following groups: sub-antenna panel grouping, sub-panel grouping and sub-antenna array grouping;

the adjusted spatial domain resource information of the first transmission and the spatial domain resource information of the second transmission belong to the same C-type group, wherein the C-type group comprises: the arrays are grouped.

It should be further noted that, in accordance with the above-mentioned grouping characteristics between the adjusted spatial domain resources of the first transmission and the second transmission, the adjusted spatial domain resources of the first transmission and the second transmission can be simultaneously transmitted; the above-mentioned grouping feature between the adjusted spatial domain resources of the first transmission and the second transmission is only a way to describe that the adjusted spatial domain resources of the first transmission and the adjusted spatial domain resources of the second transmission can be simultaneously transmitted, and in the field, both the feature or the condition of the adjusted spatial domain resources of the first transmission and the adjusted spatial domain resources of the second transmission in a state of being simultaneously transmitted belong to the protection scope of the present invention.

In addition, not limited to the first transmission and the second transmission in this embodiment, assuming that the spatial domain resource information a and the spatial domain resource information b are provided, whether the spatial domain resource information a and the spatial domain resource information b can be transmitted or received simultaneously may be determined by whether the spatial domain resource information a and the spatial domain resource information b belong to the same group. The specific grouping comprises at least one of the A-type grouping, the B-type grouping and the C-type grouping; the A-type group is called an antenna panel group, a panel group or an antenna array group; the group B is called a sub-antenna panel group, or a sub-antenna array group; the class C packet is called a beam packet.

Further, the grouping criteria of the above-mentioned a-th group further includes at least one of the following:

1. the reference signals or channels associated with different packets may be transmitted simultaneously;

2. the reference signals or channels associated with different packets may be received simultaneously;

3. reference signals or channels associated with the same group cannot be transmitted simultaneously, or reference signals or channels associated with the same group and having different spatial relationships or different spatial filters cannot be transmitted simultaneously;

4. reference signals or channels associated with the same group cannot be received simultaneously, or reference signals or channels associated with the same group and having different spatial relationships or different spatial filters cannot be received simultaneously;

or, the grouping criterion of the above-mentioned a-th group further includes at least one of the following:

1. no more than E reference signals or channels associated with the same group can be transmitted simultaneously, or no more than E reference signals or channels associated with different spatial relationships or different spatial filters can be transmitted simultaneously;

2. more than E reference signals or channels associated with the same group cannot be transmitted simultaneously, or more than E reference signals or channels associated with the same group, which have different spatial relationships or different spatial filters, cannot be transmitted simultaneously;

3. no more than E reference signals or channels associated with the same group can be received simultaneously, or no more than E reference signals or channels associated with different spatial relationships or different spatial filters can be received simultaneously;

4. more than E reference signals or channels associated with the same group cannot be received simultaneously, or more than E reference signals or channels associated with the same group having different spatial relationships or different spatial filters cannot be received simultaneously;

5. the packet internally comprises E class B packets;

wherein E is an integer of 1 or more.

Further, the grouping criteria of the above-mentioned class B grouping includes at least one of:

4. reference signals or channels associated with the same group cannot be received simultaneously, or reference signals or channels associated with the same group that have different spatial relationships or different spatial filters cannot be received simultaneously.

Further, the grouping criteria of the above-mentioned C-th group includes at least one of:

1. reference signals or channels associated with different packets cannot be transmitted simultaneously;

2. reference signals or channels associated with different packets cannot be received simultaneously;

3. reference signals or channels associated with the same group may be transmitted simultaneously, or reference signals or channels associated with the same group and having different spatial relationships or different spatial filters may be transmitted simultaneously;

4. reference signals or channels associated with the same group may be received simultaneously, or reference signals or channels associated with the same group having different spatial relationships or different spatial filters may be received simultaneously.

The fact that the spatial resource information a and the spatial resource information B cannot be transmitted simultaneously means that the spatial resource information a and the spatial resource information B belong to the same A-type group, or the spatial resource information a and the spatial resource information B belong to the same B-type group, or the spatial resource information a and the spatial resource information B belong to different C-type groups.

The spatial resource information a and the spatial resource information B can be sent simultaneously, which means that the spatial resource information a and the spatial resource information B belong to different A-type groups, or the spatial resource information a and the spatial resource information B belong to different B-type groups, or the spatial resource information a and the spatial resource information B belong to the same C-type group.

the second transmission includes at least one of: the method comprises the steps of physical uplink shared channel PUSCH transmission, physical uplink control channel PUCCH transmission, sounding reference signal SRS transmission, demodulation reference signal PMRS transmission and phase tracking signal PTRS transmission.

Optionally, in S104, adjusting at least part of the spatial domain resource information of the first transmission according to the spatial domain resource information of the second transmission includes:

at least a portion of the spatial resource information for the first transmission is adjusted to at least a portion of the spatial resource information for the second transmission.

Specifically, adjusting at least a portion of the spatial resource information of the first transmission to at least a portion of the spatial resource information of the second transmission specifically includes at least one of: the spatial domain resource information of the second transmission is used as the spatial domain resource information of the first transmission; the spatial domain resource information of the second transmission is used as part of the spatial domain resource information of the first transmission; the partial spatial resource information of the second transmission is used as the spatial resource information of the first transmission; the partial spatial resource information of the second transmission is used as the partial spatial resource information of the first transmission.

The adjustment of at least a portion of the spatial resource information of the first transmission to at least a portion of the spatial resource information of the second transmission can be specifically described by the following example:

the first transmission is PUSCH and the second transmission is PUCCH. When the spatial resource information of the second transmission PUCCH transmission, such as spatial relationship 1, and the spatial resource information of the first transmission PUSCH transmission, such as the specified SRI1, cannot satisfy the requirement of simultaneous transmission, the spatial resource information of the first transmission is adjusted to the spatial resource information of the second transmission, such as spatial relationship 1, where spatial relationship 1 is a relationship that the first transmission can perform beam transmission simultaneously with the second transmission after being adjusted.

The adjusting of at least a portion of the spatial domain resource information of the first transmission to at least a portion of the spare spatial domain resource information configured for the first transmission can be specifically described by the following example:

the first transmission is PUSCH and the second transmission is PUCCH. When the spatial resource information transmitted by the second transmission PUCCH, such as spatial relationship 1, and the spatial resource information transmitted by the first transmission PUSCH, such as SRI1, cannot satisfy the requirement of simultaneous transmission, the spatial resource information of the first transmission is adjusted to be one of the spatial resource information, such as SRI2, that satisfies the requirement of simultaneous transmission with the spatial resource information of the second transmission in the alternative spatial resource information set configured for the first transmission, i.e., the PUSCH channel. Where SRI2 satisfies the requirement of simultaneous transmission with spatial relationship 1.

Furthermore, the first transmission and the second transmission may belong to the same frequency domain range or may belong to different frequency domain ranges, respectively. The frequency domain range may be one of: BWP, carrier, cell, component carrier or component cell of carrier aggregation system, Cell Group (CG) of dual link system. The following description takes the frequency domain range as CC as an example:

the CCs of the first and second transmissions refer to a beam management result of the same CC. The first transmission of the adjusted new spatial domain resource information may have the same spatial relationship reference signal as the members of the candidate spatial domain resource information set of the first transmitted channel.

Or, the CCs of the first and second transmissions respectively refer to beam management results of different CCs. The UE may know the spatial relationship between the adjusted new spatial resource information for the first transmission and the members of the candidate spatial resource information set of the first transmitted channel.

Optionally, in S104, adjusting at least part of the spatial domain resource information of the first transmission according to the spatial domain resource information of the first transmission and the spatial domain resource information of the second transmission includes:

adjusting at least part of the spatial domain resource information of the first transmission to third spatial domain resource information;

the third spatial domain resource information is associated with the same reference signal resource as at least part of the spatial domain resource information of the first transmission;

the third spatial resource information is associated with a spatial filter that is the same as at least a portion of the spatial resource information of the first transmission;

the third spatial resource information is associated with at least a portion of the first transmitted spatial resource information differently for a group A packet and/or a group B packet;

the third spatial domain resource information is associated with the same C-type group with at least part of the spatial domain resource information of the first transmission;

the third space domain resource information is associated with the cell group with the same relation with at least part of the space domain resource information of the first transmission;

the third spatial resource information is associated with the same PUCCH group with at least part of the spatial resource information of the first transmission;

the third spatial domain resource information is associated with the same reference signal resource with at least part of the spatial domain resource information of the second transmission;

the third spatial resource information is associated with a spatial filter that is the same as at least a portion of the spatial resource information of the second transmission;

the third space domain resource information and at least part of space domain resource information of the second transmission meet the spatial relation quasi co-location condition;

the third spatial resource information is associated with at least part of the spatial resource information of the second transmission in a different A-type grouping and/or B-type grouping;

the third spatial domain resource information is associated with the same C-type group with at least part of spatial domain resource information of the second transmission;

the third space domain resource information is associated with the cell group with the same relation with at least part of the space domain resource information of the second transmission;

It should be further noted that the third spatial domain resource information includes, but is not limited to, spatial domain resource information in the first transmission or the second transmission, that is, the third spatial domain resource information may be any spatial domain resource information satisfying the above relationship characteristics; meanwhile, in the above relationship feature, the association relationship may indicate that a direct or indirect association relationship is adopted between two objects.

Specifically, the characteristics required to be satisfied by the spatial domain resource information can be further illustrated by the following examples: the spatial resource information is configured as a reference signal resource 1 and the spatial resource information is configured as a reference signal resource 1, or the spatial resource information is configured as a reference signal resource 1 and the second spatial resource information is configured as a reference signal resource 2. And reference signal 1 and reference signal 2 are configured to refer to the same reference signal resource.

In the above characteristic condition, the class a packet includes at least one of: antenna panel grouping, antenna array grouping; the class B packet includes at least one of: sub-antenna panel grouping, sub-panel grouping and sub-antenna array grouping; the class C packet includes: the arrays are grouped.

Optionally, in S104, adjusting at least part of spatial domain resource information of the first transmission according to the set of spatial domain resource information associated with the first transmission and spatial domain resource information of the second transmission includes:

at least a portion of the spatial resource information of the first transmission is adjusted to spatial resource information in the set of spatial resource information associated with the first transmission that is simultaneously transmittable with the spatial resource information of the second transmission.

Optionally, in S106, determining at least a part of power control parameters of the first transmission according to the adjusted spatial domain resource information of the first transmission, including:

and associating the power control parameter corresponding to the adjusted spatial domain resource information of the first transmission in the mapping relation between the spatial domain resource information associated with the first transmission and the power control parameter according to the adjusted spatial domain resource information of the first transmission to determine at least part of the power control parameter of the first transmission.

associating at least part of power control parameters of corresponding second transmission according to the adjusted spatial domain resource information of the first transmission; the power control parameter for the first transmission is determined based on at least a portion of the power control parameter for the second transmission.

associating a power control parameter corresponding to the fourth spatial domain resource information in a mapping relation between the spatial domain resource information associated with the first transmission and the power control parameter according to the fourth spatial domain resource information to determine at least part of the power control parameter of the first transmission;

the fourth spatial domain resource information is associated with the same reference signal resource with the adjusted spatial domain resource information of the first transmission;

the fourth spatial domain resource information is associated with the spatial filter with the same spatial domain resource information of the adjusted first transmission;

the fourth airspace resource information is associated with the A-type group and/or the B-type group with different relevance with the adjusted first transmitted airspace resource information;

the fourth airspace resource information is associated with the same C-type group with the adjusted first transmitted airspace resource information;

the fourth airspace resource information is associated with the same cell group with the adjusted first transmitted airspace resource information;

and associating the fourth spatial resource information with the same PUCCH group with the adjusted spatial resource information of the first transmission.

It should be further noted that the fourth spatial resource information includes, but is not limited to, spatial resource information in the first transmission or the second transmission, that is, the fourth spatial resource information may be any spatial resource information satisfying the above relationship characteristics; meanwhile, in the above relationship feature, the association relationship may indicate that a direct or indirect association relationship is adopted between two objects.

and associating the power parameter corresponding to the adjusted spatial domain resource information of the first transmission in the mapping relation between the set of the spatial domain resource information containing the adjusted spatial domain resource information of the first transmission and the power control parameter according to the adjusted spatial domain resource information of the first transmission to determine at least part of the power control parameter of the first transmission.

It should be further noted that the set of spatial domain resource information including the spatial domain resource information of the adjusted first transmission may not be spatial domain resource information corresponding to the first transmission or the second transmission, that is, any set of spatial domain resource information including the spatial domain resource information of the adjusted first transmission, regardless of whether the set of spatial domain resource information relates to the first transmission or the second transmission, may be one of the targets for at least partial power control parameter confirmation of the first transmission.

Optionally, in S104, adjusting at least part of the spatial domain resource information of the first transmission according to the following object includes:

at least a portion of spatial domain resource information corresponding to a transmission channel quality in the first transmission that is below a predetermined threshold is adjusted.

Specifically, the above steps are to preferentially reserve the transmission channel with better channel quality according to the transmission channel quality of the corresponding transmission channel in the first transmission, and adjust the channel with poor transmission channel quality according to the second transmission.

Optionally, the spatial resource information comprises at least one of the following objects: reference signal information, reference signal resource index, reference signal resource set index, spatial relationship, spatial filter. The spatial domain resource information may include first transmitted spatial domain resource information, second transmitted spatial domain resource information, third spatial domain resource information, and fourth spatial domain resource information.

It should be further noted that, when spatial resource information of the first transmission and the second transmission refers to spatial filters, spatial filters of the first transmission and the second transmission are the same, that is, the first transmission uses the same spatial filter as the second transmission, or the spatial filter of the first transmission is determined according to the second transmission.

Optionally, the method in this embodiment further includes:

determining a power control parameter in the first transmission other than at least a portion of the power control parameter determined based on the second spatial resource information for the first transmission based on one of:

a predefined power control parameter for the first transmission;

a power control parameter for a first transmission of a default configuration;

power control parameters corresponding to the spatial domain resource information of the first transmission in the mapping relationship between the spatial domain resource information associated with the first transmission and the power control parameters

A power control parameter of a first transmission of a specified number in a set of power control parameters configured for the first transmission;

the power control parameter of the first transmission associated with the designated spatial domain resource information in the set of power control parameters configured for the first transmission.

It should be further noted that the above steps are supplementary to the confirmation of at least part of the power control parameters of the first transmission in this embodiment, that is, the confirmation of part of the power control parameters that have failed or cannot be confirmed by the steps described in the above embodiments in the first transmission is performed. Specifically, the predefined power control parameter of the first transmission may be a value of each power control parameter, the power control parameter of the first transmission with a specified number in the power control parameter set of the first transmission configuration may be confirmed by using a specified condition such as 0 or the configured 1 st parameter, and the power control parameter of the first transmission associated with the specified spatial domain resource information in the power control parameter set of the first transmission configuration may be confirmed by using a specified condition such as a PC parameter associated with SRI0 or a PC parameter associated with a specific SRI. The steps can adopt the following specific implementation modes:

determining a partial power control parameter of the first transmission, for example, a path loss measurement parameter, according to the adjusted spatial domain resource information of the first transmission; determining a remaining portion power control parameter, such as an open-loop power control parameter, of the first transmission based on the spatial domain resource information of the first transmission; according to the predefined power control parameter of the first transmission, for example, the closed-loop power control parameter is a closed-loop power control number 0.

Or, determining a part of power control parameters of the first transmission according to the adjusted spatial domain resource information of the first transmission, for example, a path loss measurement parameter and an open-loop power control parameter; and determining the rest power control parameters according to the predefined first power control parameter, wherein the closed-loop power control parameter is, for example, the closed-loop power control number is 0.

Or, determining a partial power control parameter of the first transmission, for example, a path loss measurement parameter, according to the adjusted spatial domain resource information of the first transmission; determining a remaining portion power control parameter, e.g., an open loop power control parameter, of the first transmission based on a predefined first power control parameter, taking a predefined value; and the closed-loop power control number is predefined as 0 according to the closed-loop power control parameter.

Or, determining a partial power control parameter of the first transmission, for example, a path loss measurement parameter, according to the adjusted spatial domain resource information of the first transmission; determining remaining power control parameters of the first transmission according to a first power control parameter with a specified number in a power control parameter set configured for the first transmission, for example, open-loop power control parameters in an open-loop power control parameter set with a specified number of 0; and the closed-loop power control number is predefined as 0 according to the closed-loop power control parameter.

Optionally, the power control parameter comprises at least one of: open loop power control parameters, closed loop power control parameters, and path loss measurement parameters.

Optionally, the method in this embodiment further includes:

determining a power control parameter associated with the first transmission based on the spatial domain resource information of the first transmission when the spatial domain resource information of the first transmission and the spatial domain resource information of the second transmission satisfy at least one of the following characteristics:

the spatial filter with the same relevance between the spatial resource information of the first transmission and the spatial resource information of the second transmission;

the first transmitted airspace resource information and the second transmitted airspace resource information meet the spatial relationship quasi co-location condition;

the first transmitted airspace resource information and the second transmitted airspace resource information are related to the same cell group;

the spatial resource information of the first transmission is associated with the same PUCCH group as the spatial resource information of the second transmission.

It should be further noted that, in the above relationship feature, the association relationship may indicate that a direct or indirect association relationship is adopted between two objects. Meanwhile, the power control parameter information obtained according to the power control parameter of the first transmission may be determined in at least one of the following manners:

the path loss measurement parameter in the power control parameter of the first transmission is the corresponding path loss measurement parameter in the mapping relation between the spatial domain resource information configured for the channel of the second transmission and the power control parameter by using the spatial domain resource information of the second transmission;

the path loss measurement parameter of the power control parameter of the first transmission is the path loss measurement parameter of the second transmission;

the open loop power control parameter of the power control parameters for the first transmission uses default values for the first transmission, such as default P0 and alpha configuration values;

the closed-loop power control parameter in the power control parameters of the first transmission uses a default value of the closed-loop power control ID of the first transmission; for example, the closed loop power control number is 0.

And the closed-loop power control parameter in the power control parameter of the first transmission may also use the closed-loop power control parameter corresponding to the spatial resource information of the first transmission in the mapping relationship between the spatial resource information configured for the channel of the first transmission and the power control parameter, and at this time, the local closed-loop power control value of the first transmission is cleared.

Meanwhile, through the above steps, in the case that the difference between the first transmission and the second transmission before and after the beam change is not large in the present embodiment, the original power parameter may be used and the original closed-loop value is inherited; and under the condition that the beam is changed greatly, the PL uses the PL corresponding to the changed beam, and the rest parameters use default values to carry out closed-loop power control reset.

Further, for the cumulative closed loop power adjustment, the first transmission may also use the cumulative value of the local closed loop power adjustment.

For example, when the spatial domain resource information of the second transmission is SRI1, the spatial domain resource information of the first transmission is SRI2, the beam difference between SRI1 and SRI2 is small, or the difference between the respective channel measurement parameters is smaller than a predetermined threshold, the spatial domain resource information of the first transmission is adjusted to be SRI1, but the power control parameter of the first transmission may also use the corresponding power control parameter of the spatial domain resource information configured for the channel of the first transmission and the mapping relationship between the spatial domain resource information configured for the channel of the first transmission and the power control parameter, of the spatial domain resource information before adjustment 2.

To further describe the method for determining the power control parameter in this embodiment, the following description is further provided by specific embodiments:

detailed description of the preferred embodiment 1

FIG. 2 is a schematic diagram of a beam relationship between a first transmission and a second transmission in accordance with an embodiment of the present invention; as shown in fig. 2, the second transmission uses beam 1 as shown by SRS 1. The UE does not support simultaneous transmission of beam 2 and beam 1 and the UE does not support simultaneous transmission of beam 1 and beam 2.

When a plurality of uplink transmissions have at least partial time domain overlapping, and the spatial domain resource information thereof is not completely consistent and is limited by the capability of the UE, the UE cannot simultaneously transmit some combined beams, that is, the UE cannot transmit according to the spatial domain resource information of each uplink transmission, the UE may perform processing of one of the following schemes:

the first scheme is as follows: not all conflicting uplink transmissions are sent.

That is, according to the processing method of scheme one, neither the first transmission nor the second transmission with overlapping time domains in fig. 2 is transmitted.

And in the second scheme, the uplink transmission with high priority is sent, and the uplink transmission with low priority is discarded.

The maximum transmission power of the uplink transmission with high priority can reach the maximum transmission power of the UE.

Assuming that the priority of the second transmission in fig. 2 is higher, the second transmission is sent and the first transmission is discarded according to the processing method of scheme two.

And thirdly, sending the uplink transmission with high priority according to the scheduling information, adjusting the airspace resource information of the uplink transmission with low priority according to the airspace resource information of the uplink transmission with high priority, and sending the uplink transmission with low priority.

Assuming that the priority of the second transmission in fig. 2 is higher, the second transmission is sent according to the scheduling information according to scheme three, the spatial domain resource information of the first transmission is adjusted according to the spatial domain resource information of the second transmission, and then the first transmission is sent according to the adjusted spatial domain resource information.

For the third scheme, the airspace resource information of the uplink transmission with low priority is adjusted according to the airspace resource information of the uplink transmission with high priority, and the power parameter of the uplink transmission with low priority is determined according to the following mode.

The embodiment of the present invention preferably performs the adjustment of the spatial domain resource information of the first transmission according to the third scheme.

Fig. 3 is a schematic diagram of a beam relationship between a first transmission and a second transmission after adjustment according to an embodiment of the present invention; as shown in fig. 3, the UE can only transmit one beam, and since the priority of the second transmission is high, the first transmission transmits using the beam of the second transmission.

The spatial resource information of the second transmission is used as part of the spatial resource information of the first transmission. For example, the spatial resource information of the second transmission indicates SRS1, the spatial resource information of the first transmission indicates SRS2 and SRS3, and the UE can simultaneously transmit beams represented by SRS2 and SRS3, but cannot support beams simultaneously transmitting SRS1, SRS2, and SRS 3. And adjusting the airspace resource information of the first transmission according to the airspace resource information of the second transmission because the priority of the second transmission is high. The spatial resource information of the first transmission is modified to the SRS1 and the SRS2, or to the SRS1 and the SRS 3. Preferably, the channels represented by SRS2 and SRS3 are used for better transmission quality, e.g., lower PL or lower transmission power.

The partial spatial resource information of the second transmission is used as spatial resource information of the first transmission. For example, the spatial resource information of the second transmission indicates SRS1 and SRS2, the spatial resource information of the first transmission indicates SRS3, and the UE can simultaneously transmit beams represented by SRS1 and SRS2, but cannot support beams simultaneously transmitting SRS1, SRS2, and SRS 3. And adjusting the airspace resource information of the first transmission according to the airspace resource information of the second transmission because the priority of the second transmission is high. The spatial resource information of the first transmission is modified to SRS1 or SRS 2. Preferably, the channels represented by SRS1 and SRS2 are used for better transmission quality, e.g., lower PL or lower transmission power.

The partial spatial resource information of the second transmission is used as the partial spatial resource information of the first transmission. For example, the spatial resource information of the second transmission indicates SRS1 and SRS2, the spatial resource information of the first transmission indicates SRS1 and SRS3, and the UE can simultaneously transmit beams represented by SRS1 and SRS3, but cannot support simultaneous transmission of beams represented by SRS1, SRS2, and SRS 3. And adjusting the airspace resource information of the first transmission according to the airspace resource information of the second transmission because the priority of the second transmission is high. The spatial resource information of the first transmission is modified to SRS1 and SRS 2.

Through the above description of the embodiments, those skilled in the art can clearly understand that the method according to the above embodiments can be implemented by software plus a necessary general hardware platform, and certainly can also be implemented by hardware, but the former is a better implementation mode in many cases. Based on such understanding, the technical solutions of the present invention may be embodied in the form of a software product, which is stored in a storage medium (such as ROM/RAM, magnetic disk, optical disk) and includes instructions for enabling a terminal device (such as a mobile phone, a computer, a server, or a network device) to execute the method according to the embodiments of the present invention.

Example 2

In this embodiment, a device for determining a power control parameter is further provided, where the device is used to implement the foregoing embodiments and preferred embodiments, and details are not repeated for what has been described. As used below, the term "module" may be a combination of software and/or hardware that implements a predetermined function. Although the means described in the embodiments below are preferably implemented in software, an implementation in hardware, or a combination of software and hardware is also possible and contemplated.

Fig. 4 is a block diagram of a configuration of an apparatus for determining a power control parameter according to an embodiment of the present invention, as shown in fig. 4, the apparatus including:

an obtaining module 202, configured to obtain first transmitted airspace resource information and second transmitted airspace resource information;

an adjusting module 204 configured to adjust at least a portion of spatial resource information for the first transmission according to:

spatial domain resource information of the second transmission, or,

a determining module 206, configured to determine at least a part of power control parameters of the first transmission according to the adjusted spatial domain resource information of the first transmission.

By the above apparatus, in the process of sending the first transmitted spatial domain resource information and the second transmitted spatial domain resource information, the first transmitted spatial domain resource information may be adjusted according to the second transmitted spatial domain resource information and the first transmitted spatial domain resource information or the set of spatial domain information resources associated with the first transmission, and at least part of the power control parameters of the first transmission may be obtained according to the adjusted first transmitted spatial domain resource information.

Optionally, in the obtaining module 202, there is at least partial time domain overlap between the first transmission and the second transmission.

Optionally, in the obtaining module 202, the first transmitted spatial domain resource information and the second transmitted spatial domain resource information satisfy at least one of the following characteristics:

Optionally, in the obtaining module 202, the adjusted spatial domain resource information of the first transmission and the adjusted spatial domain resource information of the second transmission satisfy at least one of the following characteristics:

Optionally, in the adjusting module 204, adjusting at least part of the spatial domain resource information of the first transmission according to the spatial domain resource information of the second transmission includes:

Optionally, in the adjusting module 204, adjusting at least part of the spatial domain resource information of the first transmission according to the spatial domain resource information of the first transmission and the spatial domain resource information of the second transmission includes:

Optionally, in the adjusting module 204, adjusting at least part of the spatial domain resource information of the first transmission according to the set of spatial domain information resources associated with the first transmission and the spatial domain resource information of the second transmission includes:

Optionally, in the determining module 206, determining at least a part of power control parameters of the first transmission according to the adjusted spatial domain resource information of the first transmission includes:

Optionally, the adjusting module 204 adjusts at least a part of spatial domain resource information of the first transmission according to the following objects, including:

Optionally, the spatial resource information comprises at least one of the following objects: reference signal information, reference signal resource index, reference signal resource set index, spatial relationship, spatial filter.

Optionally, the method further comprises:

a predefined power control parameter for the first transmission;

a power control parameter for a first transmission of a default configuration;

Optionally, the method further comprises:

the class C packet includes at least one of: the beams are grouped.

It should be noted that, the above modules may be implemented by software or hardware, and for the latter, the following may be implemented, but not limited to: the modules are all positioned in the same processor; alternatively, the modules are respectively located in different processors in any combination.

Example 3

Embodiments of the present invention also provide a storage medium having a computer program stored therein, wherein the computer program is arranged to perform the steps of any of the above method embodiments when executed.

Alternatively, in the present embodiment, the storage medium may be configured to store a computer program for executing the steps of:

s1, acquiring the airspace resource information of the first transmission and the airspace resource information of the second transmission;

s2, adjusting at least part of spatial resource information of the first transmission according to the following objects:

spatial domain resource information of the second transmission, or,

and S3, determining at least part of power control parameters of the first transmission according to the adjusted spatial domain resource information of the first transmission.

Optionally, in this embodiment, the storage medium may include, but is not limited to: various media capable of storing computer programs, such as a usb disk, a Read-Only Memory (ROM), a Random Access Memory (RAM), a removable hard disk, a magnetic disk, or an optical disk.

Example 4

Embodiments of the present invention also provide an electronic device comprising a memory having a computer program stored therein and a processor arranged to run the computer program to perform the steps of any of the above method embodiments.

Optionally, the electronic apparatus may further include a transmission device and an input/output device, wherein the transmission device is connected to the processor, and the input/output device is connected to the processor.

Optionally, in this embodiment, the processor may be configured to execute the following steps by a computer program:

spatial domain resource information of the second transmission, or,

Optionally, the specific examples in this embodiment may refer to the examples described in the above embodiments and optional implementation manners, and this embodiment is not described herein again.

It will be apparent to those skilled in the art that the modules or steps of the present invention described above may be implemented by a general purpose computing device, they may be centralized on a single computing device or distributed across a network of multiple computing devices, and alternatively, they may be implemented by program code executable by a computing device, such that they may be stored in a storage device and executed by a computing device, and in some cases, the steps shown or described may be performed in an order different than that described herein, or they may be separately fabricated into individual integrated circuit modules, or multiple ones of them may be fabricated into a single integrated circuit module. Thus, the present invention is not limited to any specific combination of hardware and software.

The above is only a preferred embodiment of the present invention, and is not intended to limit the present invention, and various modifications and changes will occur to those skilled in the art. Any modification, equivalent replacement, or improvement made within the principle of the present invention should be included in the protection scope of the present invention.

Claims

1. A method for determining a power control parameter, comprising:

spatial domain resource information of the second transmission, or,

2. The method of claim 1, wherein there is at least partial time domain overlap of the first transmission and the second transmission.

3. The method of claim 1, wherein the spatial resource information of the first transmission and the spatial resource information of the second transmission satisfy at least one of the following characteristics:

4. The method of claim 1, wherein the adjusted spatial resource information of the first transmission and the spatial resource information of the second transmission satisfy at least one of the following characteristics:

the adjusted airspace resource information of the first transmission and the adjusted airspace resource information of the second transmission are associated with different class A groups;

the adjusted airspace resource information of the first transmission and the adjusted airspace resource information of the second transmission are associated with different B-type groups;

and associating the adjusted spatial domain resource information of the first transmission with the same type C group of the spatial domain resource information of the second transmission.

5. The method of claim 1, wherein the first transmission comprises at least one of: physical Uplink Shared Channel (PUSCH) transmission, Physical Uplink Control Channel (PUCCH) transmission, Sounding Reference Signal (SRS) transmission, demodulation reference signal (PMRS) transmission and phase tracking signal (PTRS) transmission;

6. The method of claim 1, wherein the adjusting at least a portion of the spatial resource information of the first transmission based on the spatial resource information of the second transmission comprises:

7. The method of claim 1, wherein the adjusting at least a portion of the spatial resource information of the first transmission based on the spatial resource information of the first transmission and the spatial resource information of the second transmission comprises:

8. The method of claim 1, wherein the adjusting at least a portion of spatial resource information of the first transmission based on the set of spatial information resources associated with the first transmission and spatial resource information of the second transmission comprises:

9. The method according to any of claims 1 to 8, wherein determining at least a portion of a power control parameter of the first transmission according to the adjusted spatial domain resource information of the first transmission comprises:

10. The method according to any of claims 1 to 8, wherein determining at least a portion of a power control parameter of the first transmission according to the adjusted spatial domain resource information of the first transmission comprises:

11. The method according to any of claims 1 to 8, wherein determining at least a portion of a power control parameter of the first transmission according to the adjusted spatial domain resource information of the first transmission comprises:

12. The method according to any of claims 1 to 8, wherein determining at least a portion of a power control parameter of the first transmission according to the adjusted spatial domain resource information of the first transmission comprises:

13. The method according to any of claims 1 to 8, wherein determining at least a portion of a power control parameter of the first transmission according to the adjusted spatial domain resource information of the first transmission comprises:

14. The method of claim 1, wherein the adjusting at least a portion of spatial resource information for the first transmission according to:

15. The method of claim 1, wherein the spatial resource information comprises at least one of: reference signal information, reference signal resource index, reference signal resource set index, spatial relationship, spatial filter.

16. The method of claim 1, further comprising:

a predefined power control parameter for the first transmission;

a power control parameter of the first transmission configured by default;

17. The method of claim 1, wherein the power control parameter comprises at least one of: open loop power control parameters, closed loop power control parameters, and path loss measurement parameters; wherein,

18. The method of claim 1, further comprising:

19. The method according to any of claims 3, 4, 7, 12, 18, wherein the class a packet comprises at least one of: antenna panel grouping, antenna array grouping;

the class C packet includes at least one of: the beams are grouped.

20. An apparatus for determining a power control parameter, comprising:

spatial domain resource information of the second transmission, or,

21. A storage medium, in which a computer program is stored, wherein the computer program is arranged to perform the method of any of claims 1 to 19 when executed.

22. An electronic device comprising a memory and a processor, wherein the memory has stored therein a computer program, and wherein the processor is arranged to execute the computer program to perform the method of any of claims 1 to 19.