CN108924920B

CN108924920B - Method for determining and configuring transmission power, terminal and base station

Info

Publication number: CN108924920B
Application number: CN201710184865.1A
Authority: CN
Inventors: 王瑜新; 鲁照华; 陈艺戬; 李儒岳; 蒋创新
Original assignee: ZTE Corp
Current assignee: ZTE Corp
Priority date: 2017-03-24
Filing date: 2017-03-24
Publication date: 2021-09-03
Anticipated expiration: 2037-03-24
Also published as: CN108924920A

Abstract

The invention provides a method for determining and configuring transmission power, a terminal and a base station, wherein the method comprises the following steps: a second communication node receives a configuration signaling sent by a first communication node, wherein the configuration signaling is used for configuring a transmission power parameter set for the second communication node in a transmission mode and/or a receiving mode; or, the second communication node and the first communication node predefine the transmission power parameter set of the second communication node on the transmission mode and/or the receiving mode; the second communication node determines the transmission power of the second communication node on the transmission mode or the transmission mode corresponding to the receiving mode according to the transmission power parameter set. By adopting the technical scheme, the uplink transmission power special for the beam is flexibly and accurately configured, and the problem of how to flexibly and effectively configure the uplink power control mechanism special for the beam in the related technology is solved.

Description

Method for determining and configuring transmission power, terminal and base station

Technical Field

The present invention relates to the field of communications, and in particular, to a method for determining and configuring transmit power, a terminal, and a base station.

Background

In Long Term Evolution (LTE), a Physical Downlink Control Channel (PDCCH) is used to carry uplink and Downlink scheduling information and uplink power Control information. Downlink Control Information (DCI) format (format) is divided into DCI formats 0, 1A, 1B, 1C, 1D, 2A, 3A, etc., and then, DCI formats 2B, 2C, 2D are added to LTE-a Release 12(LTE-a Release 12) to support various applications and transmission modes. A first communication Node (e-Node-B, abbreviated as eNB) may configure a second communication Node (UE) through downlink control information, or the second communication Node receives configuration of a higher layer (also called as configuring the UE through higher layer signaling).

Uplink power control in a wireless system is very important, and through uplink power control, the UE in a cell can ensure the quality of uplink transmitted data, reduce interference to other users in the system as much as possible, and prolong the service time of a UE battery.

In the LTE/LTE-a system, uplink data between different users in the same cell are orthogonal, so the LTE system adopts slow uplink power control, and mainly considers that uplink transmission adapts to different wireless transmission environments including path loss, shadow fading, and the like through power control. The objects of LTE power control include PUCCH, PUSCH, SRS, and the like. Although the data rate and the importance of these uplink signals are different from each other, the specific power control methods and parameters are different. However, the principle is basically the same, and can be summarized as follows:

the power spectral density (i.e., power per Resource Block (RB)) of the UE transmission is the open loop power control point + dynamic power offset. Here, the open-loop control point is the target power P0+ open-loop path loss compensation α × (PL). The target power P0 is divided into a cell target power and a UE-specific target power.

The open-loop path loss PL is based on the UE path loss estimate for the downlink. The UE measures the Received Power (Reference Signal Received Power, RSRP) of the downlink Reference Signal RSRP Reference Signal, and subtracts the measured Power from the known RS Signal Power, thereby performing path loss estimation.

For PUSCH and SRS, the eNodeB determines the weight of the path loss in the uplink power control of the UE by a parameter path loss compensation factor alpha. For example, for a UE located at a cell edge, if its transmission power is too high, it will cause interference to other cells, thereby reducing the capacity of the whole system. For the PUCCH, since different PUCCH users are code division multiplexed, α is 1, which can better control interference between different PUCCH users.

The dynamic power offset includes two parts, i.e., power adjustment Δ TF based on a Modulation Coding Scheme (MCS) and closed-loop power control. MCS-based power adjustment may cause the UE to dynamically adjust the corresponding transmit power spectral density according to the selected MCS. The closed-loop Power control refers to that the UE adjusts the transmission Power of the UE through a Transmission Power Command (TPC) in the PDCCH. Two ways of adjusting the accumulation and the absolute value can be divided. The accumulative adjustment mode is suitable for PUSCH, PUCCH and SRS, and the absolute value adjustment mode is only suitable for PUSCH. The switching between these two different adjustment modes is semi-static, and the eNB indicates the UE to use an accumulation mode or an absolute value mode through dedicated RRC Radio Resource Control (RRC) signaling.

The accumulation mode is that the current power adjustment value is the adjustment step size indicated in the TPC increased/decreased by the value of the last power adjustment, and the accumulation mode is the adjustment mode used by the UE by default. The TPC in an accumulation mode in LTE can have two sets of different adjustment step sizes, wherein the first set of step size is (-1, 0, 1, 3) dB, and for PUSCH, the first set of step size is indicated by DCI format 0/3; for PUCCH, it is indicated by DCI format 1/1A/1B/1D/2/2A/3. The second set of step sizes is (-1, 1), indicated by DCI format 3a (applicable to PUCCH and PUSCH).

The absolute value scheme is to use the power adjustment value indicated in the TPC directly and apply only to the PUSCH. At this time, the eNodeB needs to explicitly turn off the power adjustment method in the accumulation mode through RRC signaling. When the absolute value mode is adopted, the TPC value is (-4, -1, 1, 4) dB, the DCI format 0/3 indicates that the power adjustment range can reach 8dB, the method is suitable for discontinuous uplink transmission of the UE, and the eNodeB can adjust the transmission power of the UE to a desired value in one step.

With the development of communication technology, the demand of data services is increasing, and available low-frequency carriers are also very scarce, so that communication based on high-frequency (30-300 GHz) carriers which are not fully utilized becomes one of important communication means for solving future high-speed data communication. The available bandwidth for high frequency carrier communication is large, providing efficient high speed data communication. However, one of the great technical challenges facing high frequency carrier communication is: compared with low-frequency signals, high-frequency signals have very large fading in space, and although the problem of spatial fading loss occurs in outdoor communication of the high-frequency signals, more antennas can be generally used due to the reduction of the wavelength of the high-frequency signals, so that the communication can be performed based on beams to compensate the fading loss in space.

However, when the number of antennas increases, the problem of increased cost and power consumption is also caused by the digital beam forming because each antenna needs to have one radio frequency link. Therefore, studies in the related art tend to be more complex beamforming, i.e., the rf beam and the digital beam together form the final beam.

In a research of a New Radio Access Technology (NRAT), a high frequency communication system may configure a large number of antennas to form downlink transmission beams to compensate for spatial fading of high frequency communication in addition to a first communication node, a second communication node may also configure a large number of antennas to form uplink transmission beams, and a side of the first communication node may also select a proper receiving beam to match and receive an uplink signal. In the research of the related art, it has been determined that a beam-specific uplink power control mechanism is adopted, but how to implement flexible and effective configuration to adapt to multiple application scenarios of NRAT is a problem to be solved in uplink power control standardization at present.

In view of the above technical problems in the related art, no effective solution has been proposed at present.

Disclosure of Invention

The embodiment of the invention provides a method for determining and configuring transmission power, a terminal and a base station, which are used for at least solving the problem of how to flexibly and effectively configure a beam-specific uplink power control mechanism in the related art.

According to an embodiment of the present invention, there is provided a method for determining transmission power

A second communication node receives a configuration signaling sent by a first communication node, wherein the configuration signaling is used for indicating the second communication node to configure a transmission power parameter set for the second communication node in a transmission mode and/or a receiving mode according to the configuration signaling; or, the second communication node and the first communication node predefine the transmission power parameter set of the second communication node on a transmission mode and/or a receiving mode; the second communication node sends information to the first communication node through the sending mode, and the first communication node receives the information sent by the second communication node through the receiving mode; and the second communication node determines the transmission power of the second communication node on the transmission mode or the transmission mode corresponding to the receiving mode according to the transmission power parameter set.

Optionally, the transmission mode at least includes one of a transmission beam; a transmitting antenna; a transmitting sector; precoding of a sending end; an antenna port; an antenna weight vector; an antenna weight matrix; a transmission mode corresponding to the space division multiplexing mode; transmitting modes corresponding to frequency domain/time domain diversity transmission; transmitting the sequence; the number of transmitted layers; a transmission mode; modulation coding scheme.

Optionally, the receiving mode includes at least one of receiving a beam; a receiving antenna; a receiving antenna panel; receiving a sector; a manner corresponding to a first beam resource, wherein the first beam resource is a beam resource of the first communication node indicated in quasi co-location of both a reference signal and an antenna port; a second beam resource corresponds to, wherein the second beam resource is a beam resource of the first communication node indicated in a quasi co-located QCL for both reference signals and antenna ports.

Optionally, the parameters in the transmit power parameter set include at least one of: a transmission power adjustment value, a path loss compensation factor, and a target power.

Optionally, the configuring signaling is configured to configure the transmission power parameter set for the transmission mode of the second communication node, and includes: and configuring a transmission power parameter set for the transmission mode of the second communication node through at least one of the first signaling, the second signaling and the third signaling.

Optionally, configuring a transmission power parameter set for a transmission mode of the second communication node through at least one of the first signaling, the second signaling, and the third signaling, including: configuring M sets of parameter sets for one or more sending modes of the second communication node through a first signaling, wherein M is a positive integer; and instructing the second communication node to select N sets of parameter sets from the M sets of parameter sets through a second signaling, and configuring a transmission power parameter set for a transmission mode of the second communication node according to the N sets of parameter sets, wherein N is a positive integer less than or equal to M.

Optionally, configuring one or more sets of transmission power parameter sets for the transmission mode of the second communication node through at least one of the first signaling, the second signaling, and the third signaling, including: and selecting K sets of parameter sets from the N sets of parameter sets through a third signaling, and configuring one or more sets of transmission power parameter sets for one or more transmission modes of the second communication node according to the K sets of parameter sets, wherein K is a positive integer less than or equal to N.

Optionally, the first signaling, the second signaling, and the third signaling each include at least one of: radio Resource Control (RRC) signaling, Medium Access Control (MAC) control unit (CE) signaling and physical downlink control signaling.

Optionally, the downlink control information received by the second communication node includes the second signaling or the third signaling of the plurality of second communication nodes, and the first communication node indicates, through an RRC signaling, a position of the second signaling or the third signaling in the downlink control information.

Optionally, the second communication node and the first communication node predefine the second communication node to use different sets of transmit power parameters on different time domain resources or frequency domain resources or spatial domain resources, wherein the time domain resources comprise at least one of: subframe, slot, symbol; the frequency domain resources include at least one of: frequency domain resource blocks, resource block groups, frequency domain sub-bands and frequency domain scheduling bandwidths; the spatial domain resources include at least one of: transmit beam, antenna port.

Optionally, configuring the same transmission power parameter set for a plurality of transmission modes or a group of transmission modes of the second communication node according to the configuration signaling; or respectively configuring a transmission power parameter set for multiple groups of transmission modes of the second communication node according to the configuration signaling, wherein the second communication node divides the one or more transmission modes into one or more groups.

Optionally, some parameter values in the transmission power parameter sets of different transmission modes are the same, or some parameter values in the transmission power parameter sets of different groups of transmission modes are the same, wherein the second communication node divides the one or more transmission modes into one or more groups.

Optionally, a set of specified transmission power parameter sets is configured for one transmission mode or a group of transmission modes of the second communication node, and the first communication node configures offset values of all or part of the specified set of transmission power parameter sets for the remaining transmission modes or other groups of transmission modes of the second communication node, where the second communication node divides the one or more transmission modes into one or more groups.

Optionally, the offset value is one level of offset value or a plurality of levels of offset values; when the offset value is offset values of a plurality of levels, the variation range of the offset values of different levels is different.

Optionally, the first communication node indicates the level of the offset value for the second communication node through RRC signaling, MAC CE, or physical downlink control signaling.

Optionally, the second communication node determines, based on the offset value and the reference transmission power parameter set, transmission power parameter sets of the remaining transmission modes or other groups of transmission modes according to the specified set of transmission power parameter sets configured by the configuration signaling as a reference transmission power parameter set.

Optionally, the value of the path loss parameter in the transmission power parameter set is determined by at least one of the following manners:

determining through a cell-specific channel state information reference signal;

determining through a user-specific channel state information reference signal;

determined by the synchronization signal;

determined by moving the reference signal;

a reference signal received power, RSRP, determination configured by the first communication node;

the path loss reference value configured by the first communication node is determined.

Optionally, the second communication node determines a determination manner of a value of a path loss parameter in the transmit power parameter set according to a reference signal and a signaling indication of a quasi co-located QCL of an antenna port.

Optionally, the second communication node determines the following information by receiving signaling of the first communication node: the first communication node is a determination mode of a path loss parameter of a sending mode or a group of sending modes configured by the second communication node.

Optionally, the second communication node predefines with the first communication node a set of transmission power parameters of the second communication node on one or more transmission modes, including at least one of: predefining the second communication node to send an uplink signal by using maximum power when random access is carried out; predefining the second communication node to transmit an uplink signal by using maximum power when beam recovery is carried out; predefining the second communication node to send an uplink signal by using maximum power when the received Reference Signal Received Power (RSRP) is less than a threshold value L.

Optionally, the second communication node and the first communication node predefine the second communication node to use different sets of transmission power parameters or the same set of transmission power parameters on the transmission mode and/or the reception mode if one of: for a long format physical uplink control channel and a short format physical uplink control channel; for different uplink control information formats; for physical uplink shared channels of different service types; for precoded and non-precoded measurement reference signals; measurement reference signals for different resources; phase tracking reference signals for different port numbers or different density configurations; demodulation reference signals for different port numbers or different patterns; reference signals for different transmit comb configurations; when the transmitted signal has time domain binding and/or aggregation and has no time domain binding and/or aggregation; reference signals for different numerology parameters.

According to another embodiment of the present invention, there is also provided a method for configuring transmission power, including: a first communication node sends a configuration signaling to a second communication node, wherein the configuration signaling is used for configuring a sending power parameter set for the second communication node in a sending mode and/or a receiving mode and instructing the second communication node to determine the sending power of the second communication node in the sending mode and/or the receiving mode according to the sending power parameter set; or the first communication node and the second communication node predefine the set of transmission power parameters of the second communication node on a transmission mode and/or a reception mode.

Optionally, the configuring signaling is configured to configure the transmission power parameter set for the transmission mode of the second communication node, and includes:

and configuring a transmission power parameter set for the transmission mode of the second communication node through at least one of the first signaling, the second signaling and the third signaling.

Optionally, configuring the transmission power parameter set for the transmission mode of the second communication node through at least one of the first signaling, the second signaling, and the third signaling includes:

configuring M sets of parameter sets for one or more sending modes of the second communication node through a first signaling, wherein M is a positive integer;

and instructing the second communication node to select N sets of parameter sets from the M sets of parameter sets through a second signaling, and configuring a transmission power parameter set for a transmission mode of the second communication node according to the N sets of parameter sets, wherein N is a positive integer less than or equal to M.

Optionally, configuring a transmission power parameter set for a transmission mode of the second communication node through at least one of the first signaling, the second signaling, and the third signaling, including:

and selecting K sets of parameter sets from the N sets of parameter sets through a third signaling, and configuring one or more sets of transmission power parameter sets for one or more transmission modes of the second communication node according to the K sets of parameter sets, wherein K is a positive integer less than or equal to N.

Optionally, three of the first signaling, the second signaling, and the third signaling each include at least one of:

radio Resource Control (RRC) signaling, Medium Access Control (MAC) control unit (CE) signaling and physical downlink control signaling.

Optionally, the downlink control information received by the second communication node includes the second signaling or the third signaling of the plurality of second communication nodes, and the first communication node indicates, through an RRC signaling, a position of the second signaling or the third signaling in a downlink control information format.

Optionally, the method further comprises:

and the parameter values of part of the transmission power parameter sets of different transmission modes are the same, or the parameter values of part of the transmission power parameter sets of different groups of transmission modes are the same, wherein the second communication node divides the one or more transmission modes into one or more groups.

Optionally, the value of the path loss parameter in the transmission power parameter set is determined by at least one of the following manners: determining through a cell-specific channel state information reference signal; determining through a user-specific channel state information reference signal; determined by the synchronization signal; determined by moving the reference signal; a reference signal received power, RSRP, determination configured by the first communication node; the path loss reference value configured by the first communication node is determined.

According to another embodiment of the present invention, there is also provided a terminal including: a first communication device, a first processor;

the first communication device is configured to receive a configuration signaling sent by a base station, where the configuration signaling is used to instruct the first processor to configure a transmission power parameter set for the first processor in a transmission mode and/or a reception mode according to the configuration signaling; or, the first processor and the base station predefine a transmission power parameter set of the first processor on a transmission mode and/or a receiving mode; the first communication device is further configured to send information to the base station through the sending manner, and the base station receives the information sent by the first communication device through the receiving manner; and the first processor determines the transmission power of the first processor on the transmission mode or the transmission mode corresponding to the receiving mode according to the transmission power parameter set.

Optionally, the first processor and the base station predefine the first processor to use different sets of transmit power parameters on different time domain resources or frequency domain resources or spatial domain resources, wherein the time domain resources include at least one of: subframe, slot, symbol; the frequency domain resources include at least one of: frequency domain resource blocks, resource block groups, frequency domain sub-bands and frequency domain scheduling bandwidths; the spatial domain resources include at least one of: transmit beam, antenna port.

Optionally, configuring the same transmission power parameter set for multiple transmission modes or a group of transmission modes of the first processor according to the configuration signaling; or respectively configuring a transmission power parameter set for multiple groups of transmission modes of the first processor according to the configuration signaling, wherein the first processor divides the one or more transmission modes into one or more groups.

Optionally, some parameter values in the transmission power parameter sets of different transmission modes are the same, or some parameter values in the transmission power parameter sets of different groups are the same, wherein the first processor divides the one or more transmission modes into one or more groups.

According to another embodiment of the present invention, there is also provided a base station including: a second processor, a second communication device; the second communication device is configured to send a configuration signaling to a terminal, where the configuration signaling is configured to configure a transmission power parameter set for the terminal in a transmission mode and/or a reception mode, and instruct the terminal to determine a transmission power of the terminal in the transmission mode and/or the reception mode according to the transmission power parameter set; or the second processor and the terminal predefine the transmission power parameter set of the terminal in a transmission mode and/or a receiving mode.

According to another embodiment of the present invention, there is also provided a terminal including: a designated set of transmission power parameter sets is configured for one transmission mode or a group of transmission modes of the terminal, and the base station configures offset values of all or part of the designated set of transmission power parameter sets for the rest of the transmission modes or other groups of transmission modes of the terminal, wherein the terminal divides one or more transmission modes into one or more groups.

According to another embodiment of the present invention, there is also provided a storage medium including a stored program, wherein the program executes the method for determining the transmission power according to any one of claims 1 to 21 or the method for configuring the transmission power according to any one of claims 22 to 42.

According to another embodiment of the present invention, there is also provided a processor for executing a program, wherein the program executes the method for determining the transmission power according to any one of claims 1 to 21 or the method for configuring the transmission power according to any one of claims 22 to 42.

According to the invention, a second communication node receives a configuration signaling sent by a first communication node, wherein the configuration signaling is used for indicating the second communication node to configure a sending power parameter set for the second communication node on a sending mode and/or a receiving mode according to the configuration signaling; or, the second communication node and the first communication node predefine the transmission power parameter set of the second communication node on the transmission mode and/or the receiving mode; the second communication node determines the transmission power of the second communication node on the transmission mode or the transmission mode corresponding to the receiving mode according to the transmission power parameter set. By adopting the technical scheme, the uplink transmission power special for the beam is flexibly and accurately configured, and the problem of how to flexibly and effectively configure the uplink power control mechanism special for the beam in the related technology is solved.

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 flowchart of a method of determining transmission power according to an embodiment of the present invention;

fig. 2 is a hardware configuration diagram of a terminal 20 according to an embodiment of the present invention;

fig. 3 is a hardware configuration diagram of a base station 30 according to an embodiment of the present invention.

Detailed Description

Example one

The embodiment of the application provides a mobile communication network (including but not limited to a 5G mobile communication network), and the network architecture of the network can comprise a network side device (such as a base station) and a terminal. In this embodiment, an information transmission method capable of operating on the network architecture is provided, and it should be noted that an operating environment of the information transmission method provided in this embodiment is not limited to the network architecture.

It should be noted that, in this document, the first communication node may be a base station in the network architecture, and the second communication node may be a terminal in the network architecture.

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

step S102, a second communication node receives a configuration signaling sent by a first communication node, wherein the configuration signaling is used for indicating the second communication node to configure a sending power parameter set for the second communication node on a sending mode and/or a receiving mode according to the configuration signaling; alternatively, the second communication node and the first communication node predefine the set of transmit power parameters of the second communication node in a transmit mode and/or a receive mode.

In step S102, the second communication node sends information to the first communication node through the sending method, and the first communication node receives information sent by the second communication node through the receiving method.

Step S104, the second communication node determines the transmission power of the second communication node in the transmission mode or the transmission mode corresponding to the receiving mode according to the transmission power parameter set.

Through the above steps, according to the present invention, the second communication node receives the configuration signaling sent by the first communication node, where the configuration signaling is used to instruct the second communication node to configure the transmission power parameter set for the second communication node in the transmission mode and/or the reception mode according to the configuration signaling; or, the second communication node and the first communication node predefine the transmission power parameter set of the second communication node on the transmission mode and/or the receiving mode; the second communication node determines the transmission power of the second communication node on the transmission mode or the transmission mode corresponding to the receiving mode according to the transmission power parameter set. By adopting the technical scheme, the uplink transmission power special for the beam is flexibly and accurately configured, and the problem of how to flexibly and effectively configure the uplink power control mechanism special for the beam in the related technology is solved.

Optionally, the transmission mode includes at least one of transmitting a beam; a transmitting antenna; a transmitting sector; precoding of a sending end; an antenna port; an antenna weight vector; an antenna weight matrix; a transmission mode corresponding to the space division multiplexing mode; transmitting modes corresponding to frequency domain/time domain diversity transmission; transmitting the sequence; the number of transmitted layers; a transmission mode; modulation coding scheme.

Optionally, the receiving mode includes at least one of receiving a beam; a receiving antenna; a receiving antenna panel; receiving a sector; a first beam resource corresponding to a beam resource of the first communication node indicated in quasi co-location of both a reference signal and an antenna port; a second beam resource corresponds to the first communication node, wherein the second beam resource is a beam resource of the first communication node indicated in a quasi co-located QCL for both reference signals and antenna ports.

Optionally, configuring a transmission power parameter set for a transmission mode of the second communication node through at least one of the first signaling, the second signaling, and the third signaling, including: configuring M sets of parameter sets for one or more sending modes of the second communication node through a first signaling, wherein M is a positive integer; and instructing the second communication node to select N sets of parameter sets from the M sets of parameter sets through a second signaling, and configuring a transmission power parameter set for the transmission mode of the second communication node according to the N sets of parameter sets, wherein N is a positive integer less than or equal to M.

Optionally, the first signaling, the second signaling, and the third signaling each include at least one of the following: radio Resource Control (RRC) signaling, Medium Access Control (MAC) control unit (CE) signaling and physical downlink control signaling.

Optionally, the downlink control information received by the second communication node includes the second signaling or the third signaling of the plurality of second communication nodes, and the first communication node indicates the position of the second signaling or the third signaling in the downlink control information through an RRC signaling.

Optionally, the second communication node and the first communication node predefine the second communication node to use different sets of transmit power parameters on different time domain resources or frequency domain resources or spatial domain resources, wherein the time domain resources include at least one of: subframe, slot, symbol; the frequency domain resources include at least one of: frequency domain resource blocks, resource block groups, frequency domain sub-bands and frequency domain scheduling bandwidths; the spatial domain resources include at least one of: transmit beam, antenna port.

Optionally, configuring the same transmission power parameter set for a plurality of transmission modes or a group of transmission modes of the second communication node according to the configuration signaling; or, respectively configuring a transmission power parameter set for multiple groups of transmission modes of the second communication node according to the configuration signaling, wherein the second communication node divides the one or more transmission modes into one or more groups.

Optionally, the offset value is one level of offset value or a plurality of levels of offset values; when the offset value is an offset value of a plurality of levels, the variation range of the offset value of different levels is different.

Optionally, the second communication node determines, based on the offset value and the reference transmission power parameter set, the transmission power parameter sets of the remaining transmission modes or the other group of transmission modes according to the specified set of transmission power parameter sets configured by the configuration signaling as the reference transmission power parameter set.

Optionally, the value of the path loss parameter in the transmit power parameter set is determined by at least one of the following methods: determining through a cell-specific channel state information reference signal; determining through a user-specific channel state information reference signal; determined by the synchronization signal; determined by moving the reference signal; determining, by the first communication node, a reference signal received power, RSRP, configured; the path loss reference value configured by the first communication node.

Optionally, the second communication node determines the following information by receiving signaling of the first communication node: the first communication node is a determination mode of the path loss parameter of a sending mode or a group of sending modes configured for the second communication node.

Optionally, the second communication node predefines with the first communication node a set of transmission power parameters of the second communication node on one or more transmission modes, including at least one of: predefining the second communication node to send an uplink signal by using maximum power when random access is carried out; predefining the second communication node to transmit an uplink signal by using maximum power when beam recovery is carried out; predefining the second communication node to send the uplink signal by using the maximum power when the received Reference Signal Received Power (RSRP) is less than a threshold value L.

Optionally, the second communication node and the first communication node predefine the second communication node to use different sets of transmission power parameters or the same set of transmission power parameters on the transmission mode and/or the reception mode in case of one of the following: for a long format physical uplink control channel and a short format physical uplink control channel; for different uplink control information formats; for physical uplink shared channels of different service types; for precoded and non-precoded measurement reference signals; measurement reference signals for different resources; phase tracking reference signals for different port numbers or different density configurations; demodulation reference signals for different port numbers or different patterns; reference signals for different transmit comb configurations; when the transmitted signal has time domain binding and/or aggregation and has no time domain binding and/or aggregation; reference signals for different numerology parameters.

According to another embodiment of the present invention, there is also provided a method for configuring transmit power, which can be applied to a base station, and includes: a first communication node sends a configuration signaling to a second communication node, wherein the configuration signaling is used for configuring a sending power parameter set for the second communication node in a sending mode and/or a receiving mode and instructing the second communication node to determine the sending power of the second communication node in the sending mode and/or the receiving mode according to the sending power parameter set; or the first communication node and the second communication node predefine the set of transmission power parameters of the second communication node in a transmission mode and/or a reception mode.

and instructing the second communication node to select N sets of parameter sets from the M sets of parameter sets through a second signaling, and configuring a transmission power parameter set for the transmission mode of the second communication node according to the N sets of parameter sets, wherein N is a positive integer less than or equal to M.

Optionally, the downlink control information received by the second communication node includes the second signaling or the third signaling of the plurality of second communication nodes, and the first communication node indicates the position of the second signaling or the third signaling in the downlink control information format through an RRC signaling.

Optionally, the method further comprises: and the parameter values of part of the transmission power parameter sets of different transmission modes are the same, or the parameter values of part of the transmission power parameter sets of different groups of transmission modes are the same, wherein the second communication node divides the one or more transmission modes into one or more groups.

The following detailed description is given in conjunction with several specific embodiments of the present invention.

Detailed description of the preferred embodiment 1

A second communication node receives configuration signaling of a first communication node, wherein the configuration signaling is used for configuring one or more sets of transmission power parameter sets for one or more transmission modes of the second communication node; or the second communication node predefines with the first communication node a set of transmit power parameters for the second communication node on one or more transmit modes;

the transmission mode at least comprises one of a transmission beam, a transmission antenna, a transmission sector, precoding of a transmitting end, an antenna port, an antenna weight vector, an antenna weight matrix, a transmission mode corresponding to a space division multiplexing mode and a transmission mode corresponding to frequency domain/time domain transmission diversity.

Wherein the transmission power parameter set includes at least one of: uplink transmission power adjustment value, path loss compensation factor and target power.

Further, the first communication node configures M sets of parameter sets for one or more transmission modes of the second communication node through RRC signaling, where M is a positive integer;

further, the first communication node instructs the second communication node to select N sets of parameter sets from the M sets of parameter sets or resources through MAC CE signaling, where N is a positive integer less than or equal to M;

and further, the first communication node instructs, through a physical downlink control signaling, the second communication node to select K sets of parameter sets from the N sets of parameter sets, so as to configure the uplink transmission power parameter for the second communication node, where K is a positive integer less than or equal to N.

The second communication node thereby determines the transmission power of the second communication node on one or more transmission modes in accordance with the set of transmission power parameters.

Specific example 2

A first communication node configures M sets of transmission power parameter sets for one or more transmission modes of a second communication node through RRC signaling or MAC CE signaling;

and the first communication node instructs the second communication node to select K sets of parameter sets from the N sets of parameter sets through a physical downlink control signaling, and the K sets of parameter sets are used for configuring uplink transmission power parameters for the second communication node, wherein K is a positive integer less than or equal to N.

The downlink control information format comprises physical downlink control signaling of a plurality of second communication nodes, and the first communication node indicates the position of the physical downlink control signaling of the second communication nodes in the downlink control information format through RRC signaling.

Or, the second communication node uses different sets of transmit power parameters on different time domain resources or frequency domain resources or spatial domain resources, wherein the time domain resources include at least one of: subframe, slot, symbol; the frequency domain resources include at least one of: frequency domain resource blocks, resource block groups, frequency domain sub-bands and frequency domain scheduling bandwidths; the code domain resources include at least one of: transmit beam, antenna port.

For example, the first communication node configures 2 sets of transmission power parameter sets (parameter set 1 and parameter set 2) for one transmission mode of the second communication node, and except for the difference in the values of the path loss, the parameters in the 2 sets of transmission power parameter sets have the same values. These 2 different path loss values (PL 1 and PL 2 are assumed) correspond to the same transmit beam, 2 different receive beams. The subframe may be time-domain divided into subframe set 1 and subframe set 2, or the slot may be divided into slot set 1 and slot set 2, and the first communication node and the second communication node may predefine using parameter set 1 (the path loss value is PL 1) on subframe set 1 or slot set 1, and using parameter set 2 (the path loss value is PL 2) on subframe set 2 or slot set 2.

Specific example 3

The first communication node configures a set of transmission power parameter sets for one transmission mode or a group of transmission modes of the second communication node, and the first communication node configures offset values of all or part of the transmission power parameter sets for the rest of the transmission modes or other groups of transmission modes of the second communication node. And the second communication node determines the transmission power parameter sets of the rest transmission modes or other groups of transmission modes based on the offset value and the reference transmission power parameter set according to the set of transmission power parameter sets configured by the first communication node as the reference transmission power parameter set.

Specific example 4

And sending the path loss parameters in the power parameter set, wherein the determination mode of the values comprises at least one of the following modes: the reference signal received power RSRP may be a reference signal received power RSRP associated with the first communication node, or a path loss reference value associated with the first communication node.

The first communication node configures the determining mode of the path loss for the second communication node through signaling.

Specific example 5

The second communication node predefines with the first communication node a set of transmit power parameters for the second communication node on one or more transmit modes, including at least one of: predefining a second communication node to transmit an uplink signal by using maximum power when carrying out random access; predefining a second communication node to transmit an uplink signal by using maximum power when beam recovery is carried out; and when the received Reference Signal Received Power (RSRP) of the predefined second communication node is smaller than a certain threshold value L, the predefined second communication node uses the maximum power to send the uplink signal.

Specific example 6

The second communication node predefining with the first communication node that the second communication node uses a different set of transmit power parameters or the same set of transmit power parameters if one of: a long-format physical uplink control channel and a short-format physical uplink control channel; or, different uplink control information formats; or, physical uplink shared channels of different service types; or, a precoded measurement reference signal and a non-precoded measurement reference signal; or, measurement reference signals of different resources; or, phase tracking reference signals configured in different port numbers or densities; or, demodulation reference signals of different port numbers or patterns; or, reference signals of different transmit comb configurations; or, when the transmitted signal has time domain binding/aggregation and no time domain binding/aggregation; or, a reference signal of a different numerology parameter.

Specific example 7

The second communication node transmits signals to the first communication node by using two transmission beams or two groups of transmission beams as diversity SFBC, and the two transmission beams or the two groups of transmission beams can use different transmission power parameter sets or use the same transmission power parameter set; when the same transmission power parameter set is used, the transmission power parameter set corresponding to the beam having the larger or smaller transmission power is used as the transmission power parameter set to be finally used.

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 (e.g., ROM/RAM, magnetic disk, optical disk) and includes instructions for enabling a terminal device (e.g., a mobile phone, a computer, a server, or a network device) to execute the method according to the embodiments of the present invention.

Example two

According to another embodiment of the present invention, there is also provided a terminal 20, and fig. 2 is a hardware configuration diagram of the terminal 20 according to the embodiment of the present invention, as shown in fig. 2, the terminal 20 includes: a first communication device 202, a first processor 204;

the first communication device 202 is configured to receive a configuration signaling sent by a base station, where the configuration signaling is used to instruct the first processor 204 to configure a transmission power parameter set for the first processor 204 in a transmission mode and/or a reception mode according to the configuration signaling; alternatively, the first processor 204 and the base station predefine the transmission power parameter set of the first processor 204 in the transmission mode and/or the reception mode; the first communication device 202 is further configured to send information to the base station through the sending method, and the base station receives the information sent by the first communication device 202 through the receiving method; the first processor 204 determines the transmission power of the first processor 204 in the transmission mode or the transmission mode corresponding to the reception mode according to the transmission power parameter set.

Optionally, the first processor 204 and the base station predefine the first processor 204 to use different sets of transmit power parameters on different time domain resources or frequency domain resources or spatial domain resources, wherein the time domain resources include at least one of: subframe, slot, symbol; the frequency domain resources include at least one of: frequency domain resource blocks, resource block groups, frequency domain sub-bands and frequency domain scheduling bandwidths; the spatial domain resources include at least one of: transmit beam, antenna port.

Optionally, configuring the same transmission power parameter set for multiple transmission modes or a group of transmission modes of the first processor 204 according to the configuration signaling; or, configuring a transmission power parameter set for each of a plurality of groups of transmission modes of the first processor 204 according to the configuration signaling, wherein the first processor 204 divides the one or more transmission modes into one or more groups.

Optionally, some parameter values in the transmission power parameter sets of different transmission modes are the same, or some parameter values in the transmission power parameter sets of different groups are the same, wherein the first processor 204 divides the one or more transmission modes into one or more groups.

According to another embodiment of the present invention, there is also provided a base station, and fig. 3 is a hardware structure diagram of a base station 30 according to an embodiment of the present invention, as shown in fig. 3, the base station 30 includes: a second communication device 302, a second processor 304; the second communication device 302 is configured to send a configuration signaling to the terminal, where the configuration signaling is configured to configure a transmission power parameter set for the terminal in a transmission mode and/or a reception mode, and instruct the terminal to determine a transmission power of the terminal in the transmission mode and/or the reception mode according to the transmission power parameter set; or the second processor 304 and the terminal predefine the terminal's set of transmit power parameters in a transmit mode and/or a receive mode.

Optionally, a set of specified transmission power parameter sets is configured for one transmission mode or a group of transmission modes of the terminal, and the base station configures offset values of all or part of the specified set of transmission power parameter sets for the remaining transmission modes or other groups of transmission modes of the terminal, where the terminal divides the one or more transmission modes into one or more groups.

EXAMPLE III

According to another embodiment of the present invention, there is also provided a storage medium including a stored program, wherein the program executes the method for determining the transmission power described in any one of the above embodiments or the method for configuring the transmission power described in any one of the above embodiments when running.

Example four

According to another embodiment of the present invention, there is also provided a processor for executing a program, wherein the program executes the method for determining the transmission power in any of the above embodiments or the method for configuring the transmission power in any of the above embodiments.

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

Claims

1. A method for determining transmit power, comprising:

a second communication node receives a configuration signaling sent by a first communication node, wherein the configuration signaling is used for indicating the second communication node to configure a transmission power parameter set for the second communication node in a transmission mode and/or a receiving mode according to the configuration signaling; or, the second communication node and the first communication node predefine the transmission power parameter set of the second communication node on a transmission mode and/or a receiving mode;

the second communication node sends information to the first communication node through the sending mode, and the first communication node receives the information sent by the second communication node through the receiving mode;

the second communication node determines the transmission power of the second communication node on the transmission mode or the transmission mode corresponding to the receiving mode according to the transmission power parameter set;

wherein the configuration signaling is configured to configure a transmission power parameter set for a transmission mode of the second communication node, and includes: configuring a transmission power parameter set for a transmission mode of the second communication node through a first signaling, a second signaling and a third signaling; configuring a transmission power parameter set for a transmission mode of the second communication node through a first signaling, a second signaling and a third signaling, including: configuring M sets of parameter sets for one or more sending modes of the second communication node through a first signaling, wherein M is a positive integer; instructing the second communication node to select N sets of parameter sets from the M sets of parameter sets through a second signaling, and configuring a transmission power parameter set for a transmission mode of the second communication node according to the N sets of parameter sets, wherein N is a positive integer less than or equal to M; and selecting K sets of parameter sets from the N sets of parameter sets through a third signaling, and configuring one or more sets of transmission power parameter sets for one or more transmission modes of the second communication node according to the K sets of parameter sets, wherein K is a positive integer less than or equal to N.

2. The method of claim 1, wherein the transmission mode comprises at least one of transmitting a beam; a transmitting antenna; a transmitting sector; precoding of a sending end; an antenna port; an antenna weight vector; an antenna weight matrix; a transmission mode corresponding to the space division multiplexing mode; transmitting modes corresponding to frequency domain/time domain diversity transmission; transmitting the sequence; the number of transmitted layers; a transmission mode; modulation coding scheme.

3. The method of claim 1, wherein the reception mode comprises at least one of receiving a beam; a receiving antenna; a receiving antenna panel; receiving a sector; a manner corresponding to a first beam resource, wherein the first beam resource is a beam resource of the first communication node indicated in quasi co-location of both a reference signal and an antenna port; a second beam resource corresponds to, wherein the second beam resource is a beam resource of the first communication node indicated in a quasi co-located QCL for both reference signals and antenna ports.

4. The method of claim 1, wherein the parameters in the transmit power parameter set comprise at least one of: a transmission power adjustment value, a path loss compensation factor, and a target power.

5. The method of claim 1, wherein the first signaling, the second signaling, and the third signaling each comprise at least one of:

6. The method of claim 1, wherein the downlink control information received by the second communication node includes the second signaling or the third signaling of a plurality of the second communication nodes, and the first communication node indicates a location of the second signaling or the third signaling in the downlink control information through RRC signaling.

7. The method of claim 1, wherein the second communication node and the first communication node predefine the second communication node to use different sets of transmit power parameters on different time domain resources or frequency domain resources or spatial domain resources, wherein the time domain resources comprise at least one of: subframe, slot, symbol; the frequency domain resources include at least one of: frequency domain resource blocks, resource block groups, frequency domain sub-bands and frequency domain scheduling bandwidths; the spatial domain resources include at least one of: transmit beam, antenna port.

8. The method according to claim 1, wherein the same set of transmission power parameters is configured for a plurality of transmission modes or a group of transmission modes of the second communication node according to the configuration signaling; or respectively configuring a transmission power parameter set for multiple groups of transmission modes of the second communication node according to the configuration signaling, wherein the second communication node divides one or more transmission modes into one or more groups.

9. The method of claim 1, further comprising:

and the parameter values of part of the transmission power parameter sets of different transmission modes are the same, or the parameter values of part of the transmission power parameter sets of different groups of transmission modes are the same, wherein the second communication node divides one or more transmission modes into one or more groups.

10. The method of claim 1, wherein a transmission mode or a group of transmission modes of the second communication node is configured with a specified set of transmission power parameter sets, wherein the first communication node configures bias values for all or some of the specified set of transmission power parameter sets for remaining transmission modes or other groups of transmission modes of the second communication node, and wherein the second communication node groups one or more of the transmission modes into one or more groups.

11. The method of claim 10, wherein the offset value is one level of offset value or a plurality of levels of offset value; when the offset value is offset values of a plurality of levels, the variation range of the offset values of different levels is different.

12. The method of claim 11, wherein the first communication node indicates the level of the offset value for the second communication node through RRC signaling or MAC CE or physical downlink control signaling.

13. The method of claim 10,

and the second communication node takes the appointed set of transmission power parameter set configured according to the configuration signaling as a reference transmission power parameter set, and determines the transmission power parameter sets of the other transmission modes or other groups of transmission modes based on the offset value and the reference transmission power parameter set.

14. The method according to claim 1 or 4, wherein the value of the path loss parameter in the transmit power parameter set is determined by at least one of:

determining through a cell-specific channel state information reference signal;

determining through a user-specific channel state information reference signal;

determined by the synchronization signal;

determined by moving the reference signal;

15. The method of claim 1, wherein the second communication node determines the determination manner of the value of the path loss parameter in the transmit power parameter set according to a signaling indication of a quasi co-located QCL for a reference signal and an antenna port.

16. The method of claim 14, wherein the second communication node determines the determination manner of the value of the path loss parameter in the transmit power parameter set according to a signaling indication of a quasi co-located QCL for both a reference signal and an antenna port.

17. The method of claim 14, wherein the second communication node determines the following information by receiving signaling from the first communication node:

the first communication node is a determination mode of a path loss parameter of a sending mode or a group of sending modes configured by the second communication node.

18. The method of claim 1, wherein the second communication node predefines with the first communication node a set of transmit power parameters for the second communication node over one or more transmit modes, comprising at least one of:

predefining the second communication node to send an uplink signal by using maximum power when random access is carried out;

predefining the second communication node to transmit an uplink signal by using maximum power when beam recovery is carried out;

predefining the second communication node to send an uplink signal by using maximum power when the received Reference Signal Received Power (RSRP) is less than a threshold value L.

19. The method according to claim 1, wherein the second communication node and the first communication node predefine the second communication node to use different sets of transmission power parameters or the same set of transmission power parameters on the transmission and/or reception mode if one of:

for a long format physical uplink control channel and a short format physical uplink control channel;

for different uplink control information formats;

for physical uplink shared channels of different service types;

for precoded and non-precoded measurement reference signals;

measurement reference signals for different resources;

phase tracking reference signals for different port numbers or different density configurations;

demodulation reference signals for different port numbers or different patterns;

reference signals for different transmit comb configurations;

when the transmitted signal has time domain binding and/or aggregation and has no time domain binding and/or aggregation;

reference signals for different numerology parameters.

20. A method for configuring transmit power, comprising:

a first communication node sends a configuration signaling to a second communication node, wherein the configuration signaling is used for configuring a sending power parameter set for the second communication node in a sending mode and/or a receiving mode and instructing the second communication node to determine the sending power of the second communication node in the sending mode and/or the receiving mode according to the sending power parameter set; or

The first communication node and the second communication node predefine a transmission power parameter set of the second communication node on a transmission mode and/or a receiving mode;

wherein the configuring signaling is configured to configure the transmission power parameter set for the transmission mode of the second communication node, and includes: configuring a transmission power parameter set for a transmission mode of the second communication node through a first signaling, a second signaling and a third signaling; configuring a transmission power parameter set for a transmission mode of the second communication node through a first signaling, a second signaling and a third signaling includes: configuring M sets of parameter sets for one or more sending modes of the second communication node through a first signaling, wherein M is a positive integer; instructing the second communication node to select N sets of parameter sets from the M sets of parameter sets through a second signaling, and configuring a transmission power parameter set for a transmission mode of the second communication node according to the N sets of parameter sets, wherein N is a positive integer less than or equal to M; and selecting K sets of parameter sets from the N sets of parameter sets through a third signaling, and configuring one or more sets of transmission power parameter sets for one or more transmission modes of the second communication node according to the K sets of parameter sets, wherein K is a positive integer less than or equal to N.

21. The method of claim 20, wherein the transmission mode comprises at least one of transmitting a beam; a transmitting antenna; a transmitting sector; precoding of a sending end; an antenna port; an antenna weight vector; an antenna weight matrix; a transmission mode corresponding to the space division multiplexing mode; transmitting modes corresponding to frequency domain/time domain diversity transmission; transmitting the sequence; the number of transmitted layers; a transmission mode; modulation coding scheme.

22. The method of claim 20, wherein the receiving mode comprises at least one of receiving a beam; a receiving antenna; a receiving antenna panel; receiving a sector; a manner corresponding to a first beam resource, wherein the first beam resource is a beam resource of the first communication node indicated in quasi co-location of both a reference signal and an antenna port; a second beam resource corresponds to, wherein the second beam resource is a beam resource of the first communication node indicated in a quasi co-located QCL for both reference signals and antenna ports.

23. The method of claim 20, wherein the parameters in the transmit power parameter set comprise at least one of: a transmission power adjustment value, a path loss compensation factor, and a target power.

24. The method of claim 20, wherein the first signaling, the second signaling, and the third signaling each comprise at least one of:

25. The method of claim 20, wherein the downlink control information received by the second communication node comprises the second signaling or the third signaling of a plurality of the second communication nodes, and the first communication node indicates a location of the second signaling or the third signaling in a downlink control information format through RRC signaling.

26. The method of claim 20, wherein the second communication node and the first communication node predefine the second communication node to use different sets of transmit power parameters on different time domain resources or frequency domain resources or spatial domain resources, wherein the time domain resources comprise at least one of: subframe, slot, symbol; the frequency domain resources include at least one of: frequency domain resource blocks, resource block groups, frequency domain sub-bands and frequency domain scheduling bandwidths; the spatial domain resources include at least one of: transmit beam, antenna port.

27. The method according to claim 20, wherein the same set of transmission power parameters is configured for a plurality of transmission modes or a group of transmission modes of the second communication node according to the configuration signaling; or respectively configuring a transmission power parameter set for multiple groups of transmission modes of the second communication node according to the configuration signaling, wherein the second communication node divides one or more transmission modes into one or more groups.

28. The method of claim 20, further comprising:

29. The method of claim 20, wherein a transmission mode or a group of transmission modes of the second communication node is configured with a specified set of transmission power parameter sets, wherein the first communication node configures bias values for all or some of the specified set of transmission power parameter sets for remaining transmission modes or other groups of transmission modes of the second communication node, and wherein the second communication node groups one or more of the transmission modes into one or more groups.

30. The method of claim 29, wherein the offset value is one level of offset value or a plurality of levels of offset value; when the offset value is offset values of a plurality of levels, the variation range of the offset values of different levels is different.

31. The method of claim 30, wherein the first communication node indicates the level of the offset value for the second communication node through RRC signaling or MAC CE or physical downlink control signaling.

32. The method of claim 29, wherein the second communication node determines the transmission power parameter sets for the remaining transmission modes or other groups of transmission modes based on the offset value and the reference transmission power parameter set according to the specified set of transmission power parameter sets configured by the configuration signaling as a reference transmission power parameter set.

33. The method according to claim 20 or claim 23, wherein the value of the path loss parameter in the set of transmit power parameters is determined by at least one of:

determining through a cell-specific channel state information reference signal;

determining through a user-specific channel state information reference signal;

determined by the synchronization signal;

determined by moving the reference signal;

34. The method of claim 20, wherein the second communications node determines the manner of determining the value of the path loss parameter in the transmit power parameter set according to a signaling indication of a quasi co-located QCL for both a reference signal and an antenna port.

35. The method of claim 33, wherein the second communications node determines the manner of determining the value of the path loss parameter in the transmit power parameter set according to a signaling indication of a quasi co-located QCL for both a reference signal and an antenna port.

36. The method of claim 20, wherein the second communication node predefines with the first communication node a set of transmit power parameters for the second communication node over one or more transmit modes, comprising at least one of:

37. The method according to claim 20, wherein the second communication node and the first communication node predefine the second communication node to use different sets of transmission power parameters or the same set of transmission power parameters on the transmission and/or reception mode if one of:

for different uplink control information formats;

for physical uplink shared channels of different service types;

for precoded and non-precoded measurement reference signals;

measurement reference signals for different resources;

reference signals for different transmit comb configurations;

reference signals for different numerology parameters.

38. A terminal, comprising: a first communication device, a first processor;

the first communication device is configured to receive a configuration signaling sent by a base station, where the configuration signaling is used to instruct the first processor to configure a transmission power parameter set for the first processor in a transmission mode and/or a reception mode according to the configuration signaling; or, the first processor and the base station predefine a transmission power parameter set of the first processor on a transmission mode and/or a receiving mode;

the first communication device is further configured to send information to the base station through the sending manner, and the base station receives the information sent by the first communication device through the receiving manner;

the first processor determines the transmission power of the first processor on the transmission mode or the transmission mode corresponding to the receiving mode according to the transmission power parameter set;

wherein the configuration signaling is used for instructing the first processor to configure the transmission power parameter set on the transmission mode according to the configuration signaling, and the configuration signaling comprises: configuring a transmission power parameter set for the first processor on a transmission mode through a first signaling, a second signaling and a third signaling; configuring a transmission power parameter set for the first processor in a transmission mode through a first signaling, a second signaling and a third signaling comprises: configuring M sets of parameter sets for one or more transmission modes of the first processor through first signaling, wherein M is a positive integer; instructing the first processor to select N sets of parameter sets from the M sets of parameter sets through second signaling, and configuring a transmission power parameter set for a transmission mode of the first processor according to the N sets of parameter sets, wherein N is a positive integer less than or equal to M; and selecting K sets of parameter sets from the N sets of parameter sets through third signaling, and configuring one or more sets of transmission power parameter sets for one or more transmission modes of the first processor according to the K sets of parameter sets, wherein K is a positive integer less than or equal to N.

39. The terminal of claim 38, wherein the first processor and base station predefine the first processor to use different sets of transmit power parameters on different time domain resources or frequency domain resources or spatial domain resources, wherein the time domain resources comprise at least one of: subframe, slot, symbol; the frequency domain resources include at least one of: frequency domain resource blocks, resource block groups, frequency domain sub-bands and frequency domain scheduling bandwidths; the spatial domain resources include at least one of: transmit beam, antenna port.

40. The terminal of claim 38, wherein the same set of transmit power parameters is configured for multiple transmission modes or a group of transmission modes of the first processor according to the configuration signaling; or respectively configuring a transmission power parameter set for multiple groups of transmission modes of the first processor according to the configuration signaling, wherein the first processor divides one or more transmission modes into one or more groups.

41. The terminal of claim 38,

the first processor divides one or more transmission modes into one or more groups, wherein the partial parameter values in the transmission power parameter sets of different transmission modes are the same, or the partial parameter values in the transmission power parameter sets of different groups are the same.

42. A base station, comprising: a second processor, a second communication device;

the second communication device is configured to send a configuration signaling to a terminal, where the configuration signaling is configured to configure a transmission power parameter set for the terminal in a transmission mode and/or a reception mode, and instruct the terminal to determine a transmission power of the terminal in the transmission mode and/or the reception mode according to the transmission power parameter set; or

The second processor and the terminal predefine a transmission power parameter set of the terminal on a transmission mode and/or a receiving mode;

wherein the configuring signaling is used for configuring the transmission power parameter set for the terminal in the transmission mode, and includes: configuring a transmission power parameter set for the terminal in a transmission mode through a first signaling, a second signaling and a third signaling; configuring a transmission power parameter set for the terminal in a transmission mode through a first signaling, a second signaling and a third signaling comprises the following steps: configuring M sets of parameter sets for one or more sending modes of the terminal through a first signaling, wherein M is a positive integer; the terminal is instructed to select N sets of parameter sets from the M sets of parameter sets through a second signaling, and a transmission power parameter set is configured for the transmission mode of the terminal according to the N sets of parameter sets, wherein N is a positive integer less than or equal to M; and selecting K sets of parameter sets from the N sets of parameter sets through a third signaling, and configuring one or more sets of transmission power parameter sets for one or more transmission modes of the terminal according to the K sets of parameter sets, wherein K is a positive integer less than or equal to N.

43. The base station of claim 42, wherein one transmission mode or a group of transmission modes of the terminal is configured with a specified set of transmission power parameter sets, wherein the base station configures bias values for all or some of the specified set of transmission power parameter sets for the remaining transmission modes or other groups of transmission modes of the terminal, and wherein the terminal divides one or more of the transmission modes into one or more sub-groups.

44. A storage medium comprising a stored program, wherein the program is operable to perform the method for determining a transmission power of any one of claims 1 to 19 or the method for configuring a transmission power of any one of claims 20 to 37.

45. A processor, characterized in that the processor is configured to run a program, wherein the program is configured to perform the method for determining the transmission power according to any one of claims 1 to 19 or the method for configuring the transmission power according to any one of claims 20 to 37.