CN109600154B

CN109600154B - Parameter acquisition method and device

Info

Publication number: CN109600154B
Application number: CN201710923288.3A
Authority: CN
Inventors: 姚珂; 高波; 鲁照华; 苟伟; 郭胜祥
Original assignee: ZTE Corp
Current assignee: ZTE Corp
Priority date: 2017-09-30
Filing date: 2017-09-30
Publication date: 2021-09-03
Anticipated expiration: 2037-09-30
Also published as: CN109600154A; WO2019062387A1

Abstract

The invention provides a parameter acquisition method and a parameter acquisition device, wherein the method comprises the following steps: receiving uplink transmission parameters sent by a base station; determining a power control process according to the uplink transmission parameters; and acquiring the sending power parameter of uplink transmission according to the power control process. The invention solves the problems that the acquisition method of the power control parameters of the multi-beam in the related technology is not perfect, the overhead of air interface signaling is large and the stability of closed loop power control is poor.

Description

Parameter acquisition method and device

Technical Field

The present invention relates to the field of communications, and in particular, to a parameter obtaining method and apparatus.

Background

Currently, a New Radio (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 conventional high frequency band, and a conventional beam mode, which brings a great challenge to design of power control.

Power control in Long Term Evolution (LTE) is related to many factors, such as path loss, target received power, maximum transmit power, closed-loop power adjustment amount, transmission bandwidth, transmission rate, and the like. In the NR mid-multi-beam scenario, the parameters of partial power control should be beam or transmitted Beam Pair Link (BPL) related. In order to pursue accurate power control, all power control parameters related to beams are preferably configured and maintained according to the BPL, but the parameters related to the BPL are sensitive to channel changes, and any change of the beams used for transmission or reception causes the parameter configuration related to the BPL to be updated, which leads to an increase of air interface signaling overhead. In addition, the parameters are frequently changed, and the stability of closed-loop power control is not facilitated.

Therefore, the method for acquiring the power control parameters of the multi-beam in the related art is not complete, and the problems of high overhead of air interface signaling and poor stability of closed-loop power control occur.

Disclosure of Invention

The embodiment of the invention provides a parameter acquisition method and a parameter acquisition device, which are used for at least solving the problems of large air interface signaling overhead and poor stability of closed-loop power control caused by the incomplete acquisition method of power control parameters of multi-beam in related technologies.

According to an embodiment of the present invention, there is provided a parameter obtaining method, including: receiving uplink transmission parameters sent by a base station; determining a power control process according to the uplink transmission parameters; and acquiring the sending power parameter of uplink transmission according to the power control process.

Optionally, the uplink transmission parameter comprises a transmission beam resource indication and at least one of the following predetermined identities: the method comprises the steps of power control parameter set identification, path loss PL configuration parameter identification, and association identification between the power control parameter set and the PL configuration parameters.

Optionally, the receiving the uplink transmission parameter comprises: receiving the uplink transmission parameters through physical layer signaling.

Optionally, before receiving the uplink transmission parameter, the method further includes: receiving at least one power control parameter set and at least one PL configuration parameter, wherein the power control parameter set is identified by a power control parameter set identifier, and the PL configuration parameter is identified by a PL configuration parameter identifier.

Optionally, before receiving the uplink transmission parameter, the method further includes: receiving an association between a set of power control parameters and PL configuration parameters, wherein the association comprises at least one of: including a PL configuration parameter identification in the set of power control parameters; including a power control parameter set identification in the PL configuration parameters; and determining the association between the power control parameter set and the PL configuration parameters by using a preset association set, wherein the preset association set comprises at least one association, and the association between each power control parameter set and the PL configuration parameters is identified by adopting an association identifier.

Optionally, the at least one set of power control parameters and the at least one PL configuration parameter, the association between the set of power control parameters and the PL configuration parameter, are received by higher layer signaling.

Optionally, the uplink transmission parameter comprises one of: a power control process identifier, a power control parameter set identifier, and a transmit beam resource, wherein determining the power control process according to the uplink transmission parameter includes: determining a first predetermined association of the associations indicated by the power control process identification or power control parameter set identification, and determining the power control process according to the first predetermined association; or, determining a second predetermined association according to a relation between the transmission beam resource and the power control process, and determining the power control process according to the second predetermined association.

Optionally, the receiving the uplink transmission parameter comprises: and receiving the power control process identification or the power control parameter set identification through physical layer signaling.

Optionally, before receiving the uplink transmission parameter, the method further includes: receiving at least one power control parameter set and at least one PL configuration parameter, wherein the power control parameter set is identified by adopting a power control parameter set identifier, and the PL configuration parameter is identified by adopting a PL configuration parameter identifier; receiving a set of transmission beams, wherein the set of transmission beams comprises at least one transmission beam resource indication.

Optionally, before receiving the uplink transmission parameter, the method further includes: receiving an association between the set of power control parameters, the PL configuration parameters, and the set of transmit beams, wherein the association includes at least one of: the power control parameter set comprises a PL configuration parameter identifier and a transmission beam resource indication in the transmission beam set; configuring at least one power control process, wherein each power control process is identified by a power control process identifier, and each power control process comprises at least one of the following: a power control parameter set identifier, a PL configuration parameter identifier, and a transmission beam resource indication in the transmission beam set.

Optionally, the receiving, by higher layer signaling, the at least one set of power control parameters, the at least one PL configuration parameter, the set of transmit beams, and the association between the set of power control parameters, the PL configuration parameter, and the set of transmit beams.

Optionally, the set of power control parameters includes at least one of: a target received power, a PL coefficient, an indicator indicating whether the local closed loop power adjustment is reset.

Optionally, after receiving at least one power control parameter set, further comprising: and receiving the closed loop power adjustment amount, and updating the local closed loop power adjustment amount.

Optionally, after receiving the closed loop power adjustment amount, the method further includes: receiving at least one of the following configuration values: the device comprises a first set of configuration values and a second set of configuration values, wherein the configuration range of the first set of configuration values is larger than the configuration range of the second set of configuration values.

Optionally, a value of the closed-loop power adjustment amount is determined by: and under the condition of meeting at least one of the following conditions, adopting a first set of configuration values as values of closed-loop power adjustment quantity: setting the local closed-loop power adjustment amount f (i), changing the transmitted transmitting beam or receiving beam, changing the spatial characteristics of the transmitted resource, changing the transmitted waveform, changing the parameter numerology related to the transmitted physical frame structure, and changing the transmitted service type.

Optionally, a value of the closed-loop power adjustment amount is determined by: and under the condition of meeting at least one of the following conditions, adopting a second set of configuration values as values of the closed-loop power adjustment quantity: the amplitude of N continuous power control adjustment quantities is smaller than or equal to a first threshold, N is a preset integer larger than or equal to 1, the power adjustment quantity exceeding a preset proportion in M continuous power adjustment quantities is smaller than or equal to a second threshold, and M is a preset integer larger than or equal to 1.

Optionally, a value of the closed-loop power adjustment amount is determined by: and determining the value of the closed-loop power adjustment quantity from the first set of configuration values and the second set of configuration values according to the indication of the base station.

Optionally, the method is applied to at least one of the following channels: a Physical Uplink Shared Channel (PUSCH), a short PUCCH and a long PUCCH; alternatively, the method is applied to at least one of the following signals: the information sounding reference signal SRS.

Optionally, the method is applied to at least one of the following channels: the PUCCH, short PUCCH, long PUCCH, further includes: determining that the closed-loop power adjustment amount is shared by PUCCHs which meet at least one of the following conditions: short PUCCH and/or long PUCCH which use the same transmission beam resource indication in the same slot; short PUCCH and long PUCCH on different slot slots.

Optionally, in a case where the method is applied to the SRS, the transmission power for the SRS is determined by one of: determining that all transmission beams of a user terminal UE adopt the same power, wherein the power adopts Pcmax to subtract a power back-off quantity, and the power back-off quantity is broadcasted by a base station or configured to the UE by the base station; determining that all transmission beams of a user terminal UE adopt the same power of a group, wherein each group of power adopts Pcmax to subtract the power back-off of the group, and the power back-off of the group is configured to the UE by a base station according to the beam group of SRS used for beam management; determining that all beams of a user terminal (UE) use the same power, wherein the power is determined by adopting target received power P0 and a PL value, the PL value is determined by the UE or according to a measurement result of a measurement pilot frequency configured by a base station, and P0 is the base station configured to the UE; and determining that all beams of the user terminal UE adopt the same power of the group, wherein each group of power is determined by adopting P0 of the group configured by the base station and the PL value of the group, the base station sets P0 for each group, and the PL of each group is determined by the UE according to the measurement result of the measurement pilot frequency configured by the base station.

Optionally, the method further includes: the method comprises the following steps of acquiring power headroom PH of a plurality of transmission beams simultaneously transmitted by a user terminal by the following method: obtaining the PH of each wave beam by subtracting the transmission power of the EIRP of each wave beam from the equivalent omnidirectional radiation power EIRP maximum transmission power Pcmax of each wave beam in the plurality of wave beams; and obtaining the PHs of the plurality of beams which are transmitted simultaneously by subtracting the Pcmax sum of TRPs of Y UEs from the PH sum of each beam in the plurality of beams, wherein Y is the number of the plurality of beams which are transmitted simultaneously minus 1.

According to another embodiment of the present invention, there is provided a power control procedure acquisition method, including: determining an uplink transmission parameter; and sending the uplink transmission parameters to a User Equipment (UE), wherein the uplink transmission parameters are used for determining a power control process.

Optionally, the uplink transmission parameters include at least one transmission beam resource indication and at least one predetermined identity of: the method comprises the steps of power control parameter set identification, path loss PL configuration parameter identification, and association identification between the power control parameter set and the PL configuration parameters.

Optionally, the sending the uplink transmission parameter to the user equipment UE includes: and sending the uplink transmission parameters to the User Equipment (UE) through physical layer signaling.

Optionally, before determining the uplink transmission parameter, the method further includes: determining at least one power control parameter set and at least one PL configuration parameter, and sending the power control parameter set and the PL configuration parameter to the UE, wherein the power control parameter set is identified by adopting a power control parameter set identifier, and the PL configuration parameter is identified by adopting a PL configuration parameter identifier.

Optionally, before determining the uplink transmission parameter, the method further includes: determining and sending an association between a set of power control parameters and the PL configuration parameters to the UE in at least one of: including a PL configuration parameter identification in the set of power control parameters; including a power control parameter set identification in the PL configuration parameters; and determining the association between the power control parameter set and the PL configuration parameters by using a preset association set, wherein the preset association set comprises at least one association, and the association between each power control parameter set and the PL configuration parameters is identified by adopting an association identifier.

Optionally, the at least one power control parameter set and the at least one PL configuration parameter, and the association between the power control parameter set and the PL configuration parameter are sent to the UE through higher layer signaling.

Optionally, the uplink transmission parameter comprises one of: power control process identification, power control parameter set identification and sending beam resource.

Optionally, the sending the uplink transmission parameter to the user equipment UE includes: and sending the power control process identifier or the power control parameter set identifier to the user equipment UE through physical layer signaling.

Optionally, before determining the uplink transmission parameter, the method further includes: determining at least one power control parameter set and at least one PL configuration parameter, and sending the power control parameter set and the PL configuration parameter to the UE, wherein the power control parameter set is identified by adopting a power control parameter set identifier, and the PL configuration parameter is identified by adopting a PL configuration parameter identifier; determining a set of transmission beams and transmitting the set of transmission beams to the UE, wherein the set of transmission beams comprises at least one transmission beam resource indication.

Optionally, before determining the uplink transmission parameter, the method further includes: determining an association among the set of power control parameters, the PL configuration parameters and the set of transmit beams and transmitting the association to the UE, wherein the association comprises at least one of: the power control parameter set comprises a PL configuration parameter identifier and a transmission beam resource indication in the transmission beam set; configuring at least one power control process, wherein each power control process is identified by a power control process identifier, and each power control process comprises at least one of the following: a power control parameter set identifier, a PL configuration parameter identifier, and a transmission beam resource indication in the transmission beam set.

Optionally, the at least one power control parameter set, the at least one PL configuration parameter, the transmission beam set, the association between the power control parameter set, the PL configuration parameter and the transmission beam set are transmitted to a user equipment UE through higher layer signaling.

Optionally, after the sending the set of power control parameters to the UE, the method further includes: and determining a closed loop power adjustment amount sent to the UE and sending the closed loop power adjustment amount to the UE.

Optionally, after the sending the closed-loop power adjustment amount to the UE, the method further includes: determining at least one of the following configuration values: the device comprises a first set of configuration values and a second set of configuration values, wherein the configuration range of the first set of configuration values is larger than the configuration range of the second set of configuration values.

Optionally, a value of the closed-loop power adjustment amount is determined by: and determining a step value of the closed-loop power adjustment quantity from the first set of configuration values or the second set of configuration values according to the indication of the base station.

Optionally, the method is applied to at least one of the following channels: and under the condition of PUCCH, short PUCCH and long PUCCH, the PUCCH meeting at least one of the following conditions shares the closed-loop power adjustment amount: short PUCCH and/or long PUCCH which use the same transmission beam resource indication in the same slot; short PUCCH and long PUCCH on different slot slots.

According to still another embodiment of the present invention, there is provided a parameter acquiring apparatus including: a receiving module, configured to receive an uplink transmission parameter sent by a base station; a determining module configured to determine a power control procedure according to the uplink transmission parameter; and the acquisition module is used for acquiring the sending power parameter of the uplink transmission according to the power control process.

Optionally, the receiving module is further configured to receive an association between a set of power control parameters and PL configuration parameters before receiving the uplink transmission parameters, wherein the association includes at least one of: including a PL configuration parameter identification in the set of power control parameters; including a power control parameter set identification in the PL configuration parameters; and determining the association between the power control parameter set and the PL configuration parameters by using a preset association set, wherein the preset association set comprises at least one association, and the association between each power control parameter set and the PL configuration parameters is identified by adopting an association identifier.

Optionally, the uplink transmission parameter comprises one of: the determining module is further configured to determine a first predetermined association of the associations indicated by the power control process identifier or the power control parameter set identifier, and determine the power control process according to the first predetermined association; or, determining a second predetermined association according to a relation between the transmission beam resource and the power control process, and determining the power control process according to the second predetermined association.

Optionally, the receiving module is further configured to receive an association among the set of power control parameters, the PL configuration parameter, and the set of transmit beams, where the association includes at least one of: the power control parameter set comprises a PL configuration parameter identifier and a transmission beam resource indication in the transmission beam set; configuring at least one power control process, wherein each power control process is identified by a power control process identifier, and each power control process comprises at least one of the following: a power control parameter set identifier, a PL configuration parameter identifier, and a transmission beam resource indication in the transmission beam set.

Optionally, the receiving module is further configured to receive the closed-loop power adjustment amount, and update the local closed-loop power adjustment amount.

Optionally, the receiving module is further configured to receive, after receiving the closed-loop power adjustment amount, at least one set of configuration values of: the device comprises a first set of configuration values and a second set of configuration values, wherein the configuration range of the first set of configuration values is larger than the configuration range of the second set of configuration values.

According to still another embodiment of the present invention, there is provided a parameter acquiring apparatus including: a determining module for determining an uplink transmission parameter; a sending module, configured to send the uplink transmission parameter to a user equipment UE, where the uplink transmission parameter is used to determine a power control process.

Optionally, the determining module is further configured to, before determining the uplink transmission parameter, determine an association between a set of power control parameters and the PL configuration parameter and send the association to the UE in at least one of the following manners: including a PL configuration parameter identification in the set of power control parameters; including a power control parameter set identification in the PL configuration parameters; and determining the association between the power control parameter set and the PL configuration parameters by using a preset association set, wherein the preset association set comprises at least one association, and the association between each power control parameter set and the PL configuration parameters is identified by adopting an association identifier.

Optionally, the determining module is further configured to determine an association among the set of power control parameters, the PL configuration parameters, and the set of transmit beams and transmit the association to the UE before determining the uplink transmission parameter, wherein the association includes at least one of: the power control parameter set comprises a PL configuration parameter identifier and a transmission beam resource indication in the transmission beam set; configuring at least one power control process, wherein each power control process is identified by a power control process identifier, and each power control process comprises at least one of the following: a power control parameter set identifier, a PL configuration parameter identifier, and a transmission beam resource indication in the transmission beam set.

Optionally, the sending module is further configured to determine a closed-loop power adjustment amount sent to the UE and send the closed-loop power adjustment amount to the UE.

Optionally, the sending module is further configured to, after sending the closed-loop power adjustment amount to the UE, determine at least one set of configuration values of: the device comprises a first set of configuration values and a second set of configuration values, wherein the configuration range of the first set of configuration values is larger than the configuration range of the second set of configuration values.

According to yet another embodiment of the present invention, there is also provided a storage medium including a stored program, wherein the program performs any one of the above methods when executed.

According to yet another embodiment of the present invention, there is also provided a processor for executing a program, wherein the program executes to perform the method of any one of the above.

By the invention, the uplink transmission parameters sent by the base station are received; determining a power control process according to the uplink transmission parameters; and acquiring the sending power parameter of uplink transmission according to the power control process. Due to the introduction of the uplink transmission parameters and the determination of the power control process for acquiring the transmission power parameters of the uplink transmission by combining the introduced uplink transmission parameters, the method for acquiring the power control parameters of the multi-beam is improved, and therefore, the problems that the method for acquiring the power control parameters of the multi-beam in the related art is not complete enough, the overhead of air interface signaling is high, and the stability of closed-loop power control is poor can be 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 block diagram of a hardware structure of a mobile terminal of a parameter obtaining method according to an embodiment of the present invention;

FIG. 2 is a first flowchart of a parameter obtaining method according to an embodiment of the present invention;

fig. 3 is a first schematic diagram illustrating a base station configuring power control related parameters for a UE according to an embodiment of the present invention;

fig. 4 is a second schematic diagram illustrating a base station configuring power control related parameters for a UE according to an embodiment of the present invention;

FIG. 5 is a second flowchart of a parameter acquisition method according to an embodiment of the present invention;

FIG. 6 is a block diagram of a parameter obtaining apparatus according to an embodiment of the present invention;

fig. 7 is a block diagram of a second configuration of the parameter acquisition apparatus according to the 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 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 channel measurements for each scheduled User terminal (UE) and a scheduling algorithm. The power control of the uplink is an open loop combined with a closed loop approach. In addition, certain quantities related to transmission, such as transmission rate, Modulation and Coding Scheme (MCS) level, transmission bandwidth, etc., also affect power.

The following is a formula for calculating the transmission power of a Physical Uplink Shared Channel (PUSCH) of LTE, and each parameter affecting the power is described by taking this as an example, and the PUCCH also has similar parameters and mechanisms.

In the above formula, the subscript c refers to a cell, and each Component Carrier (CC) supporting a Carrier Aggregation (Carrier Aggregation) function corresponds to 1 cell. From the above equation, it can be seen that each parameter in the power calculation equation is configured/calculated by differentiating the cell. All descriptions herein are described for 1 CC and thus no specific reference is made to a cell. It should be noted that all parameters of the present application can be extended to multiple CCs, and the power-related configuration and the calculated parameters only need to be configured for each CC independently.

The open loop part of the power PPUSCH of the uplink transmission PUSCH is controlled by the target receiving power P_{0_PUSCH}The path loss PL and the path loss factor alpha, 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; the closed-loop part is that the base station determines the adjustment amount of closed-loop Power Control according to the difference between the measurement result and the target to Transmit a Transmit Power Control Command (TPC Command for short), that is, a delta for PUSCH in Downlink Control Information (DCI for short)_PUSCHAnd δ for a Physical Uplink Control Channel (PUCCH for short)_PUSCH) The UE is informed. UE maintains a local power adjustment quantity f (i), updates according to the 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, P_CMAXIs the maximum power limit, i.e., maximum power, of the UE.

The cell level target received power P0_ nominal of LTE is to distinguish PUSCH (semi-static, dynamic, MSG3) and PUCCH, which correspond to different BLER requirements respectively. The UE level target received power parameter P0_ UE _ specific is also set by distinguishing the above items, and functions 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 accumulative method is to directly update the local power adjustment amount f (i) of the UE by using the transmission power control command sent by the base station, and the accumulative method is to determine the local power adjustment amount f (i) of the UE by using the transmission power control command sent by the base station and the historical value of the local power adjustment amount of the UE.

Note that f (i) here represents a UE-local closed-loop power adjustment amount, and the UE-local closed-loop power adjustment amount of the PUCCH in LTE is denoted by g (i). Herein, f (i) can also be applied to PUCCH, and the role in the power control process is similar to that applied to PUSCH.

When the base station schedules the uplink transmission of the UE, many factors, including time-frequency resources, transmission rate, modulation and coding scheme, MIMO scheme, etc., need to be determined, and according to the reception quality, the base station needs to determine which factors need to be adjusted for subsequent scheduling, such as improving the modulation and coding scheme, improving the transmission power, etc. But the base station does not know the current transmit power of the UE and whether it can increase it. Therefore, in LTE, there is a mechanism that a UE sends a Power Headroom (PH) to a base station to explicitly inform the distance between the current transmission Power and the maximum transmission Power.

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 invention provides a power control method in a multi-beam mode. The parameters mentioned in the invention are applicable to different channels, such as PUSCH, long PUSCH, short PUSCH, PUCCH, long PUCCH, short PUCCH and signal SRS. The same type of parameters may be configured independently or in combination when applied to each of the above channels or signals. The meaning of the combined configuration means that different channels and signals can share the same value, and the predefined manner or the base station configuration manner determines which different channels and signals can share the same value.

For convenience of description in the embodiment of the present invention, a base station and a UE (user equipment) are used for description, but not limiting the present invention, in an 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), site, user, STA, relay (relay), and terminal.

The term beam herein means beam or beam group.

Various beam-related concepts are used in the description of the preferred embodiments of the present invention, which are explained below for ease of understanding:

the transmission mode at least comprises one of the following modes: transmit beam, transmit port, transmit resource, reference signal sequence, transmit precoding matrix (analog, digital, hybrid).

The receiving mode at least comprises one of the following modes: receiving beam, receiving port, receiving resource, reference signal sequence, receiving precoding matrix (analog, digital, mixed mode), and receiver algorithm.

The beam may be a resource (e.g., transmit-side precoding, receive-side precoding, antenna port, antenna weight vector, antenna weight matrix, etc.), and the beam sequence number may be replaced with a resource index, because the beam may be bound to some time-frequency code resources for transmission. A beam may also be a transmission (transmit/receive) mode; the transmission mode may include spatial multiplexing, frequency domain/time domain diversity, etc.

The beam indication means that the transmitting end may indicate that the reference signal (or the reference signal) and the antenna port scanned by the base station or reported by the UE in feedback satisfy a quasi co-location (QCL) assumption through the current reference signal and the antenna port.

The receiving beam refers to a beam of a receiving end which does not need to be indicated, or a beam resource of the receiving end which can be indicated by a quasi co-location (QCL) of a reference signal (or a reference signal) and an antenna port which are scanned by a base station or reported by feedback of the UE through a current reference signal and the antenna port;

the channel characteristics include physical propagation channel characteristics, such as a horizontal transmitting azimuth, a vertical transmitting azimuth, a horizontal receiving azimuth, a vertical receiving azimuth, and the like, and also include characteristics of radio frequency and baseband circuits, such as antenna array characteristics (element pattern), an antenna group, a balance panel, an antenna sub-array (antenna sub-array), a transceiver unit (TXRU), a receiving beam set, an antenna arrangement, and baseband time offset, frequency offset, phase noise, and the like;

the parameters related to the quasi co-location (QCL) at least comprise Doppler expansion, Doppler translation, time delay expansion, average time delay and average gain; and may also include spatial parameter information such as angle of arrival, spatial correlation of received beams, average delay, correlation of time-frequency channel response (including phase information).

The following problems exist in the related art: when the transmission Power of the equivalent omnidirectional radiation Power (EIRP) is used, the calculation of the Power Headroom (PH) of the multi-beam is different from the calculation of the PH in the conventional TRP mode, and a method for solving the problem is not yet available in the current technology; the change of transmission conditions such as beam change, waveform change and the like can cause large change of closed loop power adjustment amplitude, and the existing fixed power adjustment quantity step cannot meet the requirement.

The following describes the embodiments in further detail with reference to the accompanying drawings.

Example 1

The method provided by the first embodiment of the present application may be executed in a mobile terminal, a computer terminal, or a similar computing device. Taking the operation on the mobile terminal as an example, fig. 1 is a hardware structure block diagram of the mobile terminal of a parameter obtaining method according to an embodiment of the present invention. As shown in fig. 1, the mobile terminal 10 may include one or more (only one shown) processors 102 (the processor 102 may include, but is not limited to, a processing device such as a microprocessor MCU or a programmable logic device FPGA), a memory 104 for storing data, and a transmitting device 106 for communication functions. It will be understood by those skilled in the art that the structure shown in fig. 1 is only an illustration and is not intended to limit the structure of the electronic device. For example, the mobile terminal 10 may also include more or fewer components than shown in FIG. 1, or have a different configuration than shown in FIG. 1.

The memory 104 may be used to store software programs and modules of application software, such as program instructions/modules corresponding to the parameter obtaining method in the embodiment of the present invention, and the processor 102 executes various functional applications and data processing by running the software programs and modules stored in the memory 104, so as to implement the method described above. The memory 104 may include high speed random access memory, and may also include non-volatile memory, such as one or more magnetic storage devices, flash memory, or other non-volatile solid-state memory. In some instances, the memory 104 may further include memory located remotely from the processor 102, which may be connected to the mobile terminal 10 via a network. Examples of such networks include, but are not limited to, the internet, intranets, local area networks, mobile communication networks, and combinations thereof.

The transmission device 106 is used for receiving or transmitting data via a network. Specific examples of the network described above may include a wireless network provided by a communication provider of the mobile terminal 10. In one example, the transmission device 106 includes a Network adapter (NIC) that can be connected to other Network devices through a base station to communicate with the internet. In one example, the transmission device 106 can be a Radio Frequency (RF) module, which is used to communicate with the internet in a wireless manner.

In this embodiment, a parameter obtaining method operating in the mobile terminal is provided, and fig. 2 is a first flowchart of the parameter obtaining method according to the embodiment of the present invention, as shown in fig. 2, the flowchart includes the following steps:

step S202, receiving uplink transmission parameters sent by a base station;

step S204, determining a power control process according to the uplink transmission parameters;

step S206, obtaining the sending power parameter of the uplink transmission according to the power control process.

Through the steps, the uplink transmission parameters are introduced, and the power control process for acquiring the transmission power parameters of the uplink transmission is determined by combining the introduced uplink transmission parameters, so that the method for acquiring the power control parameters of the multi-beam is complete, the problems that the method for acquiring the power control parameters of the multi-beam in the related art is not complete, the overhead of air interface signaling is high, and the stability of closed-loop power control is poor can be solved, and the configuration of the power control parameters of the multi-beam is realized.

Optionally, the uplink transmission parameter includes a transmission beam resource indication and at least one of the following predetermined identifiers: the method comprises the steps of power control parameter set identification, path loss PL configuration parameter identification, and association identification between the power control parameter set and the PL configuration parameters. The transmission beam resource indication may be a resource indication of one beam or a resource indication of a group of beams.

Optionally, the receiving the uplink transmission parameter comprises: the uplink transmission parameters are received through physical layer signaling (e.g., downlink control information, DCI).

Optionally, before receiving the uplink transmission parameter, the method further includes: and receiving at least one power control parameter set and at least one PL configuration parameter, wherein the power control parameter set is identified by adopting a power control parameter set identifier, and the PL configuration parameter is identified by adopting a PL configuration parameter identifier.

For convenience of understanding the above embodiments, the following description is made by taking an example in which the base station configures a power control related parameter for the UE.

The base station configures at least one power control parameter set PC set for the UE, and the set is identified by a PC set ID, and each PC set at least comprises one of the following items: target received power P0, PL factor alpha, information of whether the locally maintained closed loop power adjustment is reset.

The base station configures at least one PL configuration parameter (PL configuration) for the UE, identified by a PL configuration ID, each PL configuration containing PL calculation related configuration.

The base station configures the relationship between the PC set and the PL configuration for the UE, and can adopt the following modes: the PC set further contains a PL configuration ID, or the PL configuration further contains a PC set ID, or the relationship between the PC set and the PL configuration is configured by a parameter relationship set, wherein the parameter relationship set contains at least one relationship, each relationship at least comprises the PC set ID and the PL configuration ID, and each relationship is identified by a relationship ID.

The above information is configured for the UE by the base station through a high-level signaling, where the high-level signaling includes a Radio Resource Control (RRC) signaling and/or a MAC CE (Control Element).

The base station carries a transmission beam resource indication (e.g. an indication of an uplink transmission beam UL TX beam) in downlink control information DCI information, and at least one of: PC set ID or PL configuration ID or relationship ID.

The base station and the UE use the UL TX beam and the PC set ID or the PL configuration ID or the relationship ID as a power control process (process), or called a power control loop (loop), and perform closed-loop power control independently for each power control process.

To describe in more detail with reference to the drawings, as shown in fig. 3, the higher layer signaling first configures 1 (using J index) PC sets J > and 1 (using K index) PL configurations K >, and then configures the correspondence relationship between the two so that each PC set has a corresponding PL configuration. The UL TX beam and PC set ID are then dynamically indicated in the DCI.

Similarly, the higher layer signaling first configures 1 (with J index) PC sets J > and 1 (with K index) PL configurations, and then configures the correspondence between them so that each PL configuration has a corresponding PC set. The UL TX beam and PL configuration ID are then dynamically indicated in the DCI.

Similarly, the higher layer signaling configures 1 (using J index) PC sets J > and 1 (using K index) PL configurations first, and then configures the corresponding relationship between the two, and may configure the relationship between the PC sets and the PL configurations using a parameter relationship set, where each relationship at least includes a PC set ID and a PL configuration ID, and each relationship is identified by a relationship ID, and then dynamically indicates the UL TX beam and the relationship ID in the DCI.

Optionally, the uplink transmission parameter includes one of: power control process identification, power control parameter set identification, sending beam resource, and determining the power control process according to the uplink transmission parameter includes: determining a first predetermined association in the associations indicated by the power control process identification or the power control parameter set identification, and determining a power control process according to the first predetermined association; or, determining a second predetermined association according to a relation between the transmission beam resource and the power control process, and determining the power control process according to the second predetermined association.

Optionally, the receiving the uplink transmission parameter comprises: the power control process identification or the power control parameter set identification is received through physical layer signaling (for example, downlink control information, DCI).

Optionally, before receiving the uplink transmission parameter, the method further includes: receiving an association among a set of power control parameters, a PL configuration parameter, and a set of transmit beams, wherein the association includes at least one of: the power control parameter set comprises a PL configuration parameter identifier and a transmission beam resource indication in a transmission beam set; configuring at least one power control process, wherein each power control process is identified by a power control process identifier, and each power control process comprises at least one of the following: a power control parameter set identifier, a PL configuration parameter identifier, and a transmission beam resource indication in a transmission beam set. The transmission beam resource indication may be a resource indication of one beam or a resource indication of a group of beams.

Optionally, at least one power control parameter set, at least one PL configuration parameter, a transmission beam set, and an association between the power control parameter set, the PL configuration parameter, and the transmission beam set are received through higher layer signaling.

The base station configures at least one PC set for the UE, and the PC set is identified by a PC set ID, and each PC set at least comprises the information of whether the locally maintained closed-loop power adjustment amount is reset or not, namely P0, alpha.

The base station configures at least one plurality of PL configurations for the UE, and the PL configurations are identified by the PL configuration ID, and each PL configuration comprises configuration related to PL calculation.

The base station configures at least one UL TX beam set for the UE as a transmission beam set, and the beam set may also multiplex an uplink transmission candidate beam set (UL TX candidate beam set).

The base station configures the relationship among the PC set, the PL configuration, and the transmission beam set, and may adopt the following method: the PC set further includes a PL configuration ID and an UL TX beam indication, or the base station configures at least one power control process (process) for the UE, or referred to as a power control loop (loop), and is identified by the PC process ID, where each power control process includes: PC set ID, PL configuration, UL TX beam.

The above information is configured for the UE by the UE through a high layer signaling, and the high layer signaling includes RRC signaling and/or MAC CE (Control Element).

The base station indicates the PC set ID or the PC process ID by the DCI, and the UE determines the uplink transmission resource by the UL TX beam indication information in the relationship indicated by the PC set ID or the PC process ID. And the base station and the UE carry out independent closed-loop power control on each power control process.

To describe in more detail with reference to the drawings, as shown in fig. 4, the higher layer signaling first configures 1 (J index) PC sets, 1 (K index) PL configurations, and at least one UL TX beam set. Then, the correspondence relationship between the three is configured and indexed by the process ID. The process ID is then dynamically indicated in the DCI.

The UL TX beam set may multiplex the UL TX candidate beam set.

The PL configuration of the path loss configuration includes at least one of: indication information of downlink reference signal resources, processing rules for a plurality of path loss values, and uplink path loss values.

The indication information of the downlink reference signal resource includes at least one of: channel state information reference signal resource indication, synchronization signal block resource indication, tracking reference signal resource indication.

The above-mentioned combining rule for multiple DL RSs is a combining rule of PL values of multiple DL RSs measured on one downlink reception beam, and includes equal-value averaging, non-equal-value weighted averaging, taking a maximum value of multiple PLs, and taking a minimum value of multiple PLs.

The path loss configuration PL configuration may be a path loss measurement or a path loss measurement configuration.

The above-mentioned path loss configuration may be a predefined value, e.g. the resource for PL measurements decided by the UE.

The uplink RSRP/PL value: the base station feeds back the RSRP/PL value of the corresponding uplink transmission link to the UE so as to correct the error of the PL of the uplink transmission link used by the downlink RS measured value of the UE

The parameter configuration method of the first scheme of fig. 3 and the second scheme of fig. 4 can be applied to the following signals and channels: PUSCH, SRS for acquiring CSI, SRS for Beam Management (BM), PUCCH, short PUCCH, long PUCCH.

The above-mentioned signals, channels, may be channels, signals for the NR system, or corresponding functions of future systems.

The parameter configuration methods of the first scheme in fig. 3 and the second scheme in fig. 4 may be applied to the above signals and/or channels, respectively, for example, the base station configures the parameters and relationships involved in the above schemes for the PUSCH and the PUCCH of the UE, respectively.

The parameter configuration method of the first and second schemes may also configure the parameters and relationships designed in the above schemes for the combination of the above signals and/or channels, for example, the base station configures the parameters and relationships designed in the above schemes together for the PUSCH of the UE and the SRS for acquiring CSI. The combination mode of the signals and the channels is predefined or configured by the base station. Examples of predefined combinations include, but are not limited to, the following combinations:

PUSCH and SRS

PUSCH and SRS for obtaining CSI

SRS for CSI acquisition and SRS for beam management

PUSCH and PUCCH

PUSCH and short PUCCH

PUSCH and long PUCCH

When the above scheme one and scheme two are used for the combination of signals and/or channels,

the number of P0 per PC set is 1, for all signals and/or channels in the combination

The number of P0 per PC set is M, each P0 is used for one or more signals or channels in the combination, and the correspondence of the position of P0 to the signal or channel is predefined. For example, M-2, the combination of signals and/or channels is PUSCH and SRS, with the predefined relationship that the 1 st P0 is for PUSCH and the 2 nd P0 is for SRS.

The number of P0 per PC set is 1, and N offset values are included, wherein the sum of P0 and N P0 offsets represents N P0 values. Wherein N is an integer of 1 or more. The correspondence of the positions of the N + 1P 0 values in the PC set to the signal or channel is predefined.

The number of P0 per PC set is 1, and N offset values are included, where the N offset values represent the power deviation of the corresponding channel or signal from the reference channel or signal. The reference channel or signal is predefined and the N offset values represent that the corresponding channel or signal is predefined. Wherein N is an integer of 1 or more. For example, N ═ 1, the combination of signals and/or channels is PUSCH and SRS, the reference channel or signal is PUSCH, and 1 offset value represents the power offset of SRS relative to PUSCH.

The content indicated in the DCI in the above description may be a semi-static indication, i.e. one time, which may be used for multiple transmissions.

The content in the DCI in the above description may also be an RRC or MAC signaling indication.

Optionally, the set of power control parameters comprises at least one of: a target received power, a PL coefficient, an indicator indicating whether the local closed loop power adjustment is reset.

Optionally, after receiving the closed loop power adjustment amount, the method further includes: receiving at least one of the following configuration values: the device comprises a first set of configuration values and a second set of configuration values, wherein the configuration range of the first set of configuration values is larger than that of the second set of configuration values.

Optionally, the value of the closed-loop power adjustment amount is determined by:

and under the condition of meeting at least one of the following conditions, adopting a first set of configuration values as values of closed-loop power adjustment quantity: setting the local closed-loop power adjustment amount f (i), changing the transmitted transmitting beam or receiving beam, changing the spatial characteristics of the transmitted resource, changing the transmitted waveform, changing the parameter numerology related to the transmitted physical frame structure, and changing the transmitted service type.

And under the condition of meeting at least one of the following conditions, adopting a second set of configuration values as values of the closed-loop power adjustment quantity: the amplitude of N continuous power control adjustment quantities is smaller than or equal to a first threshold, N is a preset integer larger than or equal to 1, the power adjustment quantity exceeding a preset proportion in M continuous power adjustment quantities is smaller than or equal to a second threshold, and M is a preset integer larger than or equal to 1.

And determining the value of the closed-loop power adjustment quantity from the first set of configuration values and the second set of configuration values according to the indication of the base station.

Through the embodiment, the step amount determining method of the closed-loop power control is improved, and the effect of fast convergence of the closed-loop power control is quickly achieved by using a more flexible step amount determining method.

For convenience of understanding the above embodiments, the following description is made by taking a process of configuring a power control related parameter for a UE by a base station as an example.

The base station sends the closed loop power adjustment amount to the UE, and sends bits with a predetermined number of bits, and the power adjustment magnitude represented by the bits needs to be predetermined, for example, 2 bits "00" represents 3dB power boost. The NR introduces a beam transmission mode, and the power adjustment value represented by the bit number of the closed-loop power adjustment quantity needs to be dynamically adjusted. That is, when the condition of the transmission beam changes, for example, the requirement for the closed-loop power adjustment amplitude is large, after several adjustments, the power tends to be stable, and the requirement for the closed-loop power control adjustment amplitude is reduced.

Therefore, more than one set of different value mapping methods of the closed-loop power control adjustment quantity is defined, and at least the functions of large-amplitude fast adjustment (equivalent to the first set of configuration values) and small-amplitude precise adjustment (equivalent to the second set of configuration values) are supported.

The base station and the UE determine the value mapping method of the used closed loop power control adjustment quantity according to the following method:

one of the following first conditions or a predefined combination is satisfied, and a value mapping method of the first set of closed-loop power control adjustment quantity is started, for example, a large-amplitude fast adjustment mapping method is supported.

The closed-loop power control quantity f (i) is set

The transmission or reception beam of the transmission being varied

The spatial characteristics of the transmitted resources vary

The transmitted waveform (waveform) changes

The numerology of the transmission changes

The type of traffic transmitted changes

One of the following second conditions or a predefined combination is satisfied, and a second set of value mapping method of the closed-loop power control adjustment amount is enabled, for example, a small-amplitude precise adjustment mapping method is supported.

The magnitude of N consecutive power adjustment amounts is less than or equal to a predefined threshold 1, where N is a predetermined integer greater than or equal to 1.

And the power adjustment quantity exceeding the predefined proportion in the M continuous power adjustment quantities is less than or equal to a predefined threshold 2, and M is a predefined integer greater than or equal to 1.

The value mapping method of the used closed loop power control adjustment quantity can be determined according to the following method:

and the base station indicates the UE to adopt a mapping value taking method of the first set or the second set of closed-loop power control adjustment quantity.

The base station indicates the UE to temporarily adopt a mapping value taking method of the first set or the second set of closed-loop power control adjustment quantity, and indicates an action range, or the action range is predefined, and the action range comprises at least one of the following: valid only for a transmissions, a being a predefined or indicated integer greater than or equal to 1; valid only for B slots, B being a predefined or indicated integer greater than or equal to 1.

The mapping value-taking method of the first set or the second set of closed-loop power control adjustment quantity can be further expanded to support more levels, for example, the mapping methods of the first set, the second set and the third set of closed-loop power control adjustment quantity respectively support functions such as large-amplitude fast adjustment, medium-amplitude adjustment and small-amplitude accurate adjustment.

The above step values can be further extended to different transmission channels/signals, such as for the following signals, channels: and different sets of mapping value-taking methods are respectively defined by the PUSCH, the SRS used for acquiring the CSI, the SRS used for BM, the PUCCH, the short PUCCH and the long PUCCH.

The mapping value-taking method of the closed-loop power control adjustment quantity can be further expanded to different application scenes, such as a fast-moving scene, a slow-moving scene and the like, the base station explicitly configures or the UE judges the current scene according to predefined conditions to determine the mapping value-taking method of the closed-loop power control adjustment quantity.

The large amplitude and the small amplitude in the above description are relative, that is, the closed-loop adjustment amount corresponding to the mapping value method of the first set or the second set of closed-loop power control adjustment amount may use the same overhead, as shown in table 1, or may use different overheads, as shown in tables 2 and 3. Wherein, the closed-loop adjustment quantity of the mapping method of the first set of closed-loop power control adjustment quantity in table 1 is 2 bits, the closed-loop adjustment quantity of the mapping method of the second set of closed-loop power control adjustment quantity is 2 bits, the closed-loop adjustment quantity of the mapping method of the first set of closed-loop power control adjustment quantity in table 2 is 3 bits, the closed-loop adjustment quantity of the mapping method of the first set of closed-loop power control adjustment quantity in table 3 is 1bit, and tables 1, 2 and 3 are as follows:

TABLE 1 mapping relationship of closed-loop power control adjustment 1

TABLE 2 mapping relationship of closed-loop power control adjustment 2

TABLE 3 mapping relationship of closed-loop power control adjustment 3

Optionally, the method is applied to at least one of the following channels: the PUCCH, short PUCCH, long PUCCH, further includes: determining a PUCCH shared closed-loop power adjustment quantity meeting at least one of the following conditions: short PUCCH and/or long PUCCH which use the same transmission beam resource indication in the same slot; short PUCCH and long PUCCH on different slot slots. Note that, the base station instructs the UE to transmit the SRS using one of the following methods: same transmit power spectral density, same transmit power. For example, the base station transmits the above information in a broadcast manner; a base station transmits UE specific information by using a high-level signaling to indicate an SRS transmission mode of the UE; the base station indicates this information in the PC set.

For the convenience of understanding the above embodiments, the following detailed description is made.

NR supports short PUCCH and long PUCCH. For the same UE, the short PUCCH and the long PUCCH may exist in the same slot, or may exist in different slots. For the same UE, in the same slot, there may be multiple short PUCCHs and multiple long PUCCHs. The Short PUCCH and the long PUCCH may be further classified into different categories according to the length of Uplink Control Information (UCI) to be transmitted, and each category corresponds to a different signal coding scheme. The transmission power needs to be determined for each short PUCCH or long PUCCH, and the complexity of performing open-loop power parameter configuration and closed-loop power control on each category is too high. The invention provides the following scheme, so that a plurality of PUCCHs using the same transmission beam or the transmission beam with similar space channel characteristics share part of parameters of the closed-loop power control process, and the complexity of NR PUCCH closed-loop power control is reduced.

For the power control process of the NR PUCCH, the base station transmits a closed-loop power adjustment amount for the UE, and multiple (i.e., more than 1) PUCCHs that satisfy one or more of the following conditions may share the closed-loop power adjustment amount.

And the UE maintains a local closed loop power adjustment amount g (i) for each power control process (process) or power control loop (loop), wherein i is a slot number. The closed loop power control adjustment amount g (i) may be shared by multiple PUCCHs satisfying one or more conditions, wherein the determination of the conditions may be a predefined manner or a manner in which the base station is configured to the UE. The conditions include:

multiple short PUCCHs within the same slot using the same transmit beam resource indication.

Multiple long PUCCHs in the same slot using the same transmission beam resource indication.

And multiple short PUCCHs with the same UCI length interval in the multiple short PUCCHs indicated by the same transmission beam resource in the same slot. The UCI length interval refers to a length interval divided according to a predefined rule, for example, the UCI length in the short PUCCH is 1-2 bits and is a first type of the short PUCCH, and the UCI length is more than 2 bits and is a second type of the short PUCCH.

And a plurality of long PUCCHs with the same UCI length interval in the plurality of long PUCCHs using the same transmission beam resource indication in the same slot. The UCI length interval refers to a length interval divided according to a predefined rule, for example, a UCI length in a long PUCCH is 1-2 bits and is a first class of the long PUCCH, a UCI length is a second class of the long PUCCH which is greater than 2 bits and less than X bits, a UCI length is a third class of the long PUCCH which is greater than X bits, and the X value is a predefined integer greater than 2. The first, second and third long PUCCHs may share the closed-loop power adjustment amount, or a plurality of long PUCCHs belonging to the first and second classes may share the closed-loop power adjustment amount, or a plurality of long PUCCHs belonging to the second and third classes may share the closed-loop power adjustment amount.

And multiple long PUCCHs with the same time domain repetition time interval in the multiple long PUCCHs indicated by the same transmission beam resource in the same slot. The UCI length interval refers to a length interval divided according to a predefined rule. The time domain repetition time interval refers to the condition that the repetition times meet certain requirements, for example, the repetition times are 1-2 times and belong to the same interval.

And short PUCCH and long PUCCH which are indicated by the same transmission beam resource in the same slot are used.

Short PUCCH of predefined UCI length interval 1 of short PUCCH and long PUCCH of predefined UCI length interval 2 of long PUCCH which are indicated by the same transmission beam resource in the same slot. For example, the UCI length interval 1 is 1-2 bits of UCI length, and the UCI length interval 2 bits is 1-2 bits of UCI length. Or the UCI length interval 2 is a UCI length of 1 to X bits, and X is an integer greater than 1.

Short PUCCH and long PUCCH on different slots.

Short PUCCH of predefined UCI length interval 1 of Short PUCCH and long PUCCH of predefined UCI length interval 2 of long PUCCH on different slots. For example, the UCI length interval 1 is 1-2 bits of UCI length, and the UCI length interval 2 bits is 1-2 bits of UCI length. Or the UCI length interval 2 is a UCI length of 1 to X bits, and X is an integer greater than 1.

In the above description, the indication of resource using the same transmission beam may also be the use of the same power control procedure or power control loop.

In the above description, the indication of using the same transmission beam resource may be an indication of using a transmission beam resource having a partial or full QCL characteristic.

In the above description, the closed-loop power control adjustment amount may be shared by multiple PUCCHs, which means that a base station issues a closed-loop power control adjustment amount for the multiple PUCCHs, and the PUCCHs meeting the above conditions all use the closed-loop power control adjustment amount when calculating their respective transmission powers.

In the above description, the multiple long PUCCHs in the same slot may be time division multiplexing TDM, frequency division multiplexing FDM, or code division multiplexing CDM.

In the above description, the short PUCCHs in the same slot may be time division multiplexing TDM, frequency division multiplexing FDM, or code division multiplexing CDM.

Alternatively, in case the method is applied to SRS, the transmission power for SRS is determined by one of the following: determining that all transmission beams of User Equipment (UE) adopt the same power, wherein the power adopts Pcmax to subtract power back-off quantity, and the power back-off quantity is broadcasted by a base station or configured to the UE by the base station; determining that all transmission beams of User Equipment (UE) adopt the same power of a group, wherein each group of power adopts Pcmax to subtract the power back-off of the group, and the power back-off of the group is configured to the UE by a base station according to the beam group of SRS used for beam management; determining that all beams of a user terminal UE adopt the same power, wherein the power is determined by adopting target received power P0 and a PL value, the PL value is determined by the UE or according to the measurement result of a measurement pilot frequency configured by a base station, and P0 is that the base station is configured to the UE; and determining that all beams of the user terminal UE adopt the same power of the group, wherein each group of power is determined by adopting the P0 of the group configured by the base station and the PL value of the group, the base station sets P0 for each group, and the PL of each group is determined by the UE according to the measurement result of the measurement pilot frequency configured by the base station.

The transmission power of SRS for BM (SRS for beam management) can be determined by one of the following methods (packet setup and validation time of SRS for beam management):

all beams use the same power Pcmax

All beams use the same power, which uses Pcmax minus a power back-off that is broadcast by the base station or configured by the base station to the UE

All wave beams adopt the same power of the grouping, each group of power adopts Pcmax to subtract the power back-off quantity of the grouping, and the power back-off quantity of the grouping is configured to the UE by the base station according to the wave beam group of SRS for BM

All beams use the same power, which is determined by the P0 and PL values. The PL value is determined by the UE itself or according to the measurement result of the measurement pilot frequency configured by the base station. P0 is the base station configured to the UE.

All beams use the same power for the packet, and each set of power is determined using the packet's P0 and the packet's PL value as configured by the base station. The base station sets P0 for each packet. The PL of each packet is determined by the UE from measurements of measurement pilots configured by the base station.

Calculation timing of PL: the sending time of the trigger information of SRS for BM + X time units. X is a predefined fixed value, or a value related to the configuration of the transmission. For example, different configurations correspond to different values of X. X is an integer of 0 or more.

Optionally, the method further includes: the method comprises the following steps of acquiring power headroom PH of a plurality of transmission beams simultaneously transmitted by a user terminal by the following method: obtaining the PH of each wave beam by subtracting the transmission power Pcmax of the EIRP of each wave beam from the maximum transmission power Pcmax of the equivalent omnidirectional radiation power EIRP of each wave beam in a plurality of wave beams; and obtaining the PH values of the plurality of beams transmitted simultaneously by subtracting the Pcmax value of TRP of Y UEs from the PH value of each beam in the plurality of beams, wherein Y is the number of the plurality of beams transmitted simultaneously minus 1. Through the steps, the calculation method of the PHR is improved, so that the PHR can reasonably reflect the influence of the gains of different beams when the multi-beam is transmitted when the power of the EIRP is adopted.

For the convenience of understanding the above embodiments, the following detailed description is given.

In the NR beam mode, reporting of PHR needs to reflect beam changes. Multiple closed-loop power control loops may exist between the base station and the UE, only one TX beam (group) of the UE may be scheduled at the same time, which corresponds to 1 loop, or multiple TX beams (groups) corresponding to multiple loops may be scheduled, and in addition, the loops at different times may be different. When a plurality of TX beams are simultaneously transmitted, the transmit power of each TX beam can be calculated separately, and the sum of the actual transmit powers is limited by the maximum transmit power of the UE. When the maximum transmit power is not sufficient to meet the transmit power requirements of all TX beams, power reduction may be performed or a portion of the TX beam transmission may be dropped. Therefore, the reported PHR should reflect the distance between the sum power of multiple TX beams (groups) and the maximum power.

In the conventional LTE technology, the transmission Power refers to TRP (Total Radiated Power). In a new generation technology, the transmission Power may be EIRP (equivalent Isotropic Radiated Power). EIRP is a value with a transmission beam directivity gain, and TRP has no transmission beam directivity gain.

The base station transmits downlink signals, such as SSBs (synchronization signal blocks), CSI-RSs (resource indications of CSI-RSs), TRSs (tracking reference signals), etc., in different beams and explicitly or implicitly indicates transmission power of the downlink signals. The UE receives and measures the signals using different beams, and estimates PLs of different BPLs (beam pair links) between the base station and the UE.

The base station may transmit the same type of signals on different beams with equal TRP power and indicate the TRP power of these transmitted signals either explicitly or implicitly. Or the like, or, alternatively,

the base station may transmit the same type of signals in different beams with equal EIRP power and indicate the EIRP power of these transmitted signals either explicitly or implicitly. Or the like, or, alternatively,

the base station may transmit the same type of signals on different beams with equal TRP power and indicate either explicitly or implicitly the EIRP power of these transmitted signals.

The different beams transmit the same type of downlink transmission signals by using the same transmission power according to groups, and indicate the transmission power of each beam group.

In the beam scanning process, a plurality of transmission beams use the same TRP transmission power.

In a scenario supporting multi-beam simultaneous transmission, the UE calculates the transmit power of each beam. In the millimeter wave frequency band, the transmission power of the EIRP is relatively easy to obtain, and when the power value of the transmission beam is the EIRP, the transmission power of each beam calculated by the UE includes the gain of the corresponding beam. Depending on the information available to the UE, the PH of the multi-beam is obtained as follows:

the first method is as follows:

in a scenario supporting multi-beam simultaneous transmission, the UE calculates the EIRP transmit power of each beam and knows the exact beam gain of each transmit beam and Pcmax of the TRP of the UE. The UE obtains the PHs of the multiple beams as follows:

subtracting the beam gain of each wave beam by using the EIRP sending power of each wave beam to obtain the TRP power of the wave beam;

and subtracting the sum of the power of the TRPs of the plurality of beams transmitted simultaneously from the maximum TRP transmission power of the UE to obtain the PH of the plurality of beams transmitted simultaneously.

Examples are as follows: the UE supports 2 beams to transmit simultaneously, and corresponds to two power control processes, or two power loops, respectively.

The EIRP values of the two beams beam1 and beam2 calculated by the UE are respectively as follows: p _ EIRP _ beam1 and P _ EIRP _ beam2, the gains (beam gain) of the two beams are respectively noted as: gain1 and gain 2. Then the TRP powers of the two beams are: p _ TRP _ beam 1P _ EIRP _ beam1-gain1 and P _ TRP _ beam 1P _ EIRP _ beam1-gain 2.

The PH of the two beams is: p_CMAX_TRP-(P_TRP_beam1+P_TRP_beam2)＝P_CMAX_TRP-(P_EIRP_beam1-gain1+P_EIRP_beam2-gain2)

Mode two (corresponding to the above example):

in a scenario supporting multi-beam simultaneous transmission, the UE may calculate EIRP transmit power and know Pcmax of EIRP and Pcmax of TRP of each beam, but may not know an accurate beam gain of each beam. The UE obtains the PHs of the multiple beams as follows:

the EIRP maximum transmit power Pcmax of each beam is subtracted from the EIRP transmit power of that beam to obtain the PH of that beam.

The difference between the sum of PHs of the simultaneously transmitted multiple beams and the sum of Pcmax of TRPs of Y UEs yields the PHs of the simultaneously transmitted multiple beams. Y is the number of simultaneously transmitted beams minus 1.

Subtracting the sum of the TRP powers of the simultaneously transmitted multiple beams by the maximum TRP transmission power of the UE

The EIRP values of the two beams beam1 and beam2 calculated by the UE are respectively as follows: p _ EIRP _ beam1 and P _ EIRP _ beam 2. The EIRP maximum transmit powers of the two beams are: pcmax _ EIRP _ beam1 and Pcmax _ EIRP _ beam 2.

Calculate PH for each beam: PH _ beam1 ═ Pcmax _ EIRP _ beam1-P _ EIRP _ beam 1; PH _ beam2 ═ Pcmax _ EIRP _ beam2-P _ EIRP _ beam 2;

Y＝2-1＝1；

the PH of the two beams is: (PH _ beam1+ PH _ beam2) -Y × Pcmax _ TRP (PH _ beam1+ PH _ beam2) -Pcmax _ TRP

The third method comprises the following steps:

in a scenario supporting multi-beam simultaneous transmission, the UE may calculate EIRP transmission power and know Pcmax of the TRP of the UE, but may not know the accurate beam gain of each beam, and the beam gain in the above method is replaced with an average beam gain without distinguishing the gains of specific beams. The UE obtains the PHs of the multiple beams as follows:

subtracting the average gain of the type of wave beam from the EIRP sending power of each wave beam to obtain the TRP power of the wave beam;

The following describes the case where QCL is unchanged in the switching of the width beam.

In the uplink transmission process, the receiving beam switching at the base station side occurs, and if the beams before and after switching are beams with different levels and the same QCL configuration, for example, beams belonging to the same direction and different widths. This situation is likely to be used to calculate PL with the downlink pilot configuration unchanged, e.g., a wide beam of downlink pilots is configured for measurement. The base station needs to indicate the gain difference of the wide and narrow beams to the UE. May be at least one of: updating a P0 value, wherein the P0 value comprises the gain difference of the receiving beams before and after switching; indicating the gain difference of the receiving wave beams before and after switching to the UE through a closed-loop power control adjustment instruction; and indicating the UE to use a temporary large-amplitude step amount, and indicating the gain difference of the receiving beams before and after switching to the UE through a closed-loop power control adjustment instruction, wherein the large-amplitude step amount is only effective at the current moment.

In this embodiment, a parameter obtaining method operating in the mobile terminal is provided, and fig. 5 is a second flowchart of the parameter obtaining method according to the embodiment of the present invention, as shown in fig. 5, the flowchart includes the following steps:

step S502, determining uplink transmission parameters;

step S504, sending the uplink transmission parameter to the user equipment UE, where the uplink transmission parameter is used to determine the power control process.

Optionally, the sending the uplink transmission parameter to the user equipment UE includes: the uplink transmission parameters are sent to the user terminal UE by physical layer signaling (e.g. downlink control information, DCI).

Optionally, before determining the uplink transmission parameter, the method further includes: determining and transmitting an association between the set of power control parameters and the PL configuration parameters to the UE in at least one of: including a PL configuration parameter identification in the set of power control parameters; including a power control parameter set identification in the PL configuration parameters; and determining the association between the power control parameter set and the PL configuration parameters by using a preset association set, wherein the preset association set comprises at least one association, and the association between each power control parameter set and the PL configuration parameters is identified by adopting an association identifier.

Optionally, the association between the at least one set of power control parameters and the at least one PL configuration parameter, the set of power control parameters and the PL configuration parameter, is sent to the UE by higher layer signaling.

Optionally, the sending the uplink transmission parameter to the user equipment UE includes: and sending a power control process identification or a power control parameter set identification to the user terminal UE through physical layer signaling (for example, downlink control information DCI).

Optionally, before determining the uplink transmission parameter, the method further includes: determining at least one power control parameter set and at least one PL configuration parameter, and sending the power control parameter set and the PL configuration parameter to UE, wherein the power control parameter set is identified by adopting a power control parameter set identifier, and the PL configuration parameter is identified by adopting a PL configuration parameter identifier; determining a set of transmission beams and transmitting the set of transmission beams to the UE, wherein the set of transmission beams comprises at least one transmission beam resource indication.

Optionally, before determining the uplink transmission parameter, the method further includes: determining an association among a set of power control parameters, a PL configuration parameter, and a set of transmit beams and transmitting the association to the UE, wherein the association comprises at least one of: the power control parameter set comprises a PL configuration parameter identifier and a transmission beam resource indication in a transmission beam set; configuring at least one power control process, wherein each power control process is identified by a power control process identifier, and each power control process comprises at least one of the following: a power control parameter set identifier, a PL configuration parameter identifier, and a transmission beam resource indication in a transmission beam set.

Optionally, at least one power control parameter set, at least one PL configuration parameter, a transmission beam set, an association between the power control parameter set, the PL configuration parameter, and the transmission beam set are transmitted to the user equipment UE through higher layer signaling.

Optionally, after the sending the set of power control parameters to the UE, the method further includes: and determining a closed-loop power adjustment amount sent to the UE and sending the closed-loop power adjustment amount to the UE.

Optionally, after the sending the closed-loop power adjustment amount to the UE, the method further includes: determining at least one of the following configuration values: the device comprises a first set of configuration values and a second set of configuration values, wherein the configuration range of the first set of configuration values is larger than that of the second set of configuration values.

Optionally, the value of the closed-loop power adjustment amount is determined by: and under the condition of meeting at least one of the following conditions, adopting a first set of configuration values as values of closed-loop power adjustment quantity: setting the local closed-loop power adjustment amount f (i), changing the transmitted transmitting beam or receiving beam, changing the spatial characteristics of the transmitted resource, changing the transmitted waveform, changing the parameter numerology related to the transmitted physical frame structure, and changing the transmitted service type.

Optionally, the value of the closed-loop power adjustment amount is determined by: and under the condition of meeting at least one of the following conditions, adopting a second set of configuration values as values of the closed-loop power adjustment quantity: the amplitude of N continuous power control adjustment quantities is smaller than or equal to a first threshold, N is a preset integer larger than or equal to 1, the power adjustment quantity exceeding a preset proportion in M continuous power adjustment quantities is smaller than or equal to a second threshold, and M is a preset integer larger than or equal to 1.

Optionally, the value of the closed-loop power adjustment amount is determined by: and determining a step value of the closed-loop power adjustment amount from the first set of configuration values or the second set of configuration values according to the indication of the base station.

Optionally, the method is applied to at least one of the following channels: and under the condition of PUCCH, short PUCCH and long PUCCH, the PUCCH which meets at least one of the following conditions shares the closed-loop power adjustment amount: short PUCCH and/or long PUCCH which use the same transmission beam resource indication in the same slot; short PUCCH and long PUCCH on different slot slots.

Alternatively, in case the method is applied for SRS, the transmission power for SRS is determined by one of the following: determining that all transmission beams of User Equipment (UE) adopt the same power, wherein the power adopts Pcmax to subtract power back-off quantity, and the power back-off quantity is broadcasted by a base station or configured to the UE by the base station; determining that all transmission beams of User Equipment (UE) adopt the same power of a group, wherein each group of power adopts Pcmax to subtract the power back-off of the group, and the power back-off of the group is configured to the UE by a base station according to the beam group of SRS used for beam management; determining that all beams of a user terminal UE adopt the same power, wherein the power is determined by adopting target received power P0 and a PL value, the PL value is determined by the UE or according to the measurement result of a measurement pilot frequency configured by a base station, and P0 is that the base station is configured to the UE; and determining that all beams of the user terminal UE adopt the same power of the group, wherein each group of power is determined by adopting the P0 of the group configured by the base station and the PL value of the group, the base station sets P0 for each group, and the PL of each group is determined by the UE according to the measurement result of the measurement pilot frequency configured by the base station.

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 2

In this embodiment, a parameter obtaining apparatus is further provided, and the apparatus is used to implement the foregoing embodiments and preferred embodiments, and the description already made is omitted. 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. 6 is a first block diagram of a parameter obtaining apparatus according to an embodiment of the present invention, as shown in fig. 6, the apparatus includes:

a receiving module 62, configured to receive an uplink transmission parameter sent by a base station;

a determining module 64, connected to the receiving module 62, for determining a power control procedure according to the uplink transmission parameter;

an obtaining module 66, connected to the determining module 64, configured to obtain the transmit power parameter of the uplink transmission according to the power control procedure.

Optionally, the receiving module 62 is further configured to receive an association between the set of power control parameters and the PL configuration parameters before receiving the uplink transmission parameters, wherein the association includes at least one of: including a PL configuration parameter identification in the set of power control parameters; including a power control parameter set identification in the PL configuration parameters; and determining the association between the power control parameter set and the PL configuration parameters by using a preset association set, wherein the preset association set comprises at least one association, and the association between each power control parameter set and the PL configuration parameters is identified by adopting an association identifier.

Optionally, the uplink transmission parameter comprises one of: the determining module 64 is further configured to determine a first predetermined association of the associations indicated by the power control process identifier or the power control parameter set identifier, and determine the power control process according to the first predetermined association; or, determining a second predetermined association according to a relation between the transmission beam resource and the power control process, and determining the power control process according to the second predetermined association.

Optionally, the receiving module 62 is further configured to receive an association among a set of power control parameters, a PL configuration parameter, and a set of transmit beams, where the association includes at least one of: the power control parameter set comprises a PL configuration parameter identifier and a transmission beam resource indication in a transmission beam set; configuring at least one power control process, wherein each power control process is identified by a power control process identifier, and each power control process comprises at least one of the following: a power control parameter set identifier, a PL configuration parameter identifier, and a transmission beam resource indication in a transmission beam set.

Optionally, the receiving module 62 is further configured to receive the closed-loop power adjustment amount, and update the local closed-loop power adjustment amount.

Optionally, the receiving module 62 is further configured to receive at least one of the following set of configuration values after receiving the closed loop power adjustment amount: the device comprises a first set of configuration values and a second set of configuration values, wherein the configuration range of the first set of configuration values is larger than that of the second set of configuration values.

Optionally, the value of the closed-loop power adjustment amount is determined by: and determining the value of the closed-loop power adjustment quantity from the first set of configuration values and the second set of configuration values according to the indication of the base station.

Fig. 7 is a block diagram of a second configuration of a parameter obtaining apparatus according to an embodiment of the present invention, and as shown in fig. 7, the apparatus includes:

a determining module 72 for determining uplink transmission parameters;

a sending module 74, connected to the determining module 72, is configured to send uplink transmission parameters to the user equipment UE, where the uplink transmission parameters are used for determining the power control procedure.

Optionally, the determining module 72 is further configured to, before determining the uplink transmission parameter, determine and send an association between the set of power control parameters and the PL configuration parameter to the UE in at least one of the following manners: including a PL configuration parameter identification in the set of power control parameters; including a power control parameter set identification in the PL configuration parameters; and determining the association between the power control parameter set and the PL configuration parameters by using a preset association set, wherein the preset association set comprises at least one association, and the association between each power control parameter set and the PL configuration parameters is identified by adopting an association identifier.

Optionally, the determining module 72 is further configured to determine an association among a set of power control parameters, a PL configuration parameter, and a set of transmit beams and transmit the association to the UE before determining the uplink transmission parameter, where the association includes at least one of: the power control parameter set comprises a PL configuration parameter identifier and a transmission beam resource indication in a transmission beam set; configuring at least one power control process, wherein each power control process is identified by a power control process identifier, and each power control process comprises at least one of the following: a power control parameter set identifier, a PL configuration parameter identifier, and a transmission beam resource indication in a transmission beam set.

Optionally, the sending module 74 is further configured to determine a closed-loop power adjustment amount sent to the UE and send the closed-loop power adjustment amount to the UE.

Optionally, the sending module 74 is further configured to, after sending the closed-loop power adjustment amount to the UE, determine at least one of the following set of configuration values: the device comprises a first set of configuration values and a second set of configuration values, wherein the configuration range of the first set of configuration values is larger than that of the second set of configuration values.

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

An embodiment of the present invention further provides a storage medium including a stored program, where the program executes any one of the methods described above.

Alternatively, in the present embodiment, the storage medium may be configured to store program codes for performing the following steps:

s1, receiving uplink transmission parameters;

s2, determining a power control process according to the uplink transmission parameters;

and S3, obtaining the sending power parameter of the uplink transmission according to the power control process.

Optionally, the storage medium is further arranged to store program code for performing the steps of:

s1, the uplink transmission parameter includes a transmission beam resource indication and at least one of the following predetermined identifications: the method comprises the steps of power control parameter set identification, path loss PL configuration parameter identification, and association identification between the power control parameter set and the PL configuration parameters.

Optionally, the storage medium is further arranged to store program code for performing the steps of: receiving the uplink transmission parameters includes:

s1, receiving uplink transmission parameters through physical layer signaling.

Optionally, the storage medium is further arranged to store program code for performing the steps of: before receiving the uplink transmission parameters, further comprising:

s1, receiving at least one power control parameter set and at least one PL configuration parameter, wherein the power control parameter set is identified by a power control parameter set identifier, and the PL configuration parameter is identified by a PL configuration parameter identifier.

s1, receiving an association between the set of power control parameters and the PL configuration parameters, wherein the association comprises at least one of: including a PL configuration parameter identification in the set of power control parameters; including a power control parameter set identification in the PL configuration parameters; and determining the association between the power control parameter set and the PL configuration parameters by using a preset association set, wherein the preset association set comprises at least one association, and the association between each power control parameter set and the PL configuration parameters is identified by adopting an association identifier.

s1, receiving at least one power control parameter set and at least one PL configuration parameter through higher layer signaling, and associating the power control parameter set and the PL configuration parameter.

Optionally, the storage medium is further arranged to store program code for performing the steps of: the uplink transmission parameter includes one of: power control process identification, power control parameter set identification, sending beam resource, and determining the power control process according to the uplink transmission parameter includes:

s1, determining a predetermined association in the associations indicated by the power control process identifier or the power control parameter set identifier, and determining the power control process according to the predetermined association;

s2, determining a second predetermined association according to the relation between the transmission beam resource and the power control process, and determining the power control process according to the predetermined association.

s1, receiving the power control process identification or the power control parameter set identification through physical layer signaling.

s1, receiving at least one power control parameter set and at least one PL configuration parameter, wherein the power control parameter set is identified by a power control parameter set identifier, and the PL configuration parameter is identified by a PL configuration parameter identifier;

s2, receiving a set of transmission beams, wherein the set of transmission beams includes at least one transmission beam resource indication.

s1, receiving an association among the power control parameter set, the PL configuration parameter, and the transmit beam set, wherein the association includes at least one of: the power control parameter set comprises a PL configuration parameter identifier and a transmission beam resource indication in a transmission beam set; configuring at least one power control process, wherein each power control process is identified by a power control process identifier, and each power control process comprises at least one of the following: a power control parameter set identifier, a PL configuration parameter identifier, and a transmission beam resource indication in a transmission beam set.

s1, receiving at least one power control parameter set, at least one PL configuration parameter, a transmission beam set, and an association among the power control parameter set, the PL configuration parameter, and the transmission beam set through a higher layer signaling.

s1, the set of power control parameters includes at least one of: a target received power, a PL coefficient, an indicator indicating whether the local closed loop power adjustment is reset.

Optionally, the storage medium is further arranged to store program code for performing the steps of: after receiving at least one set of power control parameters, further comprising:

s1, receiving the closed loop power adjustment, and updating the local closed loop power adjustment.

Optionally, the storage medium is further arranged to store program code for performing the steps of: after receiving the closed loop power adjustment, the method further comprises:

s1, receiving at least one set of configuration values: the device comprises a first set of configuration values and a second set of configuration values, wherein the configuration range of the first set of configuration values is larger than that of the second set of configuration values.

s1, the value of the closed loop power adjustment is determined by the following method: and under the condition of meeting at least one of the following conditions, adopting a first set of configuration values as values of closed-loop power adjustment quantity: setting the local closed-loop power adjustment amount f (i), changing the transmitted transmitting beam or receiving beam, changing the spatial characteristics of the transmitted resource, changing the transmitted waveform, changing the parameter numerology related to the transmitted physical frame structure, and changing the transmitted service type.

s1, the value of the closed loop power adjustment is determined by the following method: and under the condition of meeting at least one of the following conditions, adopting a second set of configuration values as values of the closed-loop power adjustment quantity: the amplitude of N continuous power control adjustment quantities is smaller than or equal to a first threshold, N is a preset integer larger than or equal to 1, the power adjustment quantity exceeding a preset proportion in M continuous power adjustment quantities is smaller than or equal to a second threshold, and M is a preset integer larger than or equal to 1.

s1, the value of the closed loop power adjustment is determined by the following method: and determining the value of the closed-loop power adjustment quantity from the first set of configuration values and the second set of configuration values according to the indication of the base station.

s1, the method is applied to at least one of the following channels: a Physical Uplink Shared Channel (PUSCH), a short PUCCH and a long PUCCH; alternatively, the first and second electrodes may be,

s1, the method is applied to at least one of the following signals: the information sounding reference signal SRS.

Optionally, the storage medium is further arranged to store program code for performing the steps of: the method is applied to at least one of the following channels: the PUCCH, short PUCCH, long PUCCH, further includes:

s1, determining the PUCCH shared closed-loop power adjustment quantity meeting at least one of the following conditions:

s2, short PUCCH and/or long PUCCH which are indicated by the same transmission beam resource are used in the same slot;

s3, short PUCCH and long PUCCH in different slot slots.

Optionally, the storage medium is further arranged to store program code for performing the steps of: in case that the method is applied to the SRS, the transmission power for the SRS is determined by one of the following ways:

s1, determining that all transmission beams of the UE use the same power, wherein the power uses Pcmax to subtract the power back-off quantity, and the power back-off quantity is broadcasted by the base station or configured to the UE by the base station;

s2, determining that all transmission beams of the UE adopt the same power of the grouping, wherein each group of power adopts Pcmax to subtract the power back-off of the grouping, and the grouping power back-off is configured to the UE by the base station according to the beam group of the SRS used for beam management;

s3, determining that all beams of the UE use the same power, wherein, the power is determined by target received power P0 and PL value, the PL value is determined by the UE or according to the measurement result of the measurement pilot frequency configured by the base station, P0 is that the base station is configured to the UE;

s4, determining that all beams of the UE use the same power of the group, wherein each group of power is determined by the P0 of the group configured by the base station and the PL value of the group, the base station sets P0 for each group, and the PL of each group is determined by the UE according to the measurement result of the measurement pilot frequency configured by the base station.

s1, obtaining power headroom PH of multiple transmission beams simultaneously transmitted by the user terminal, as follows:

s2, obtaining the PH of each wave beam by subtracting the transmission power Pcmax of the EIRP of each wave beam from the maximum transmission power Pcmax of the equivalent omnidirectional radiation power EIRP of each wave beam in a plurality of wave beams;

s3, subtracting Pcmax of TRPs of Y UEs from the PH of each of the plurality of beams to obtain PHs of the plurality of beams simultaneously transmitted, where Y is the number of the plurality of beams simultaneously transmitted minus 1.

s1, determining uplink transmission parameters;

s2, sending uplink transmission parameters to the user equipment UE, wherein the uplink transmission parameters are used for determining the power control procedure.

s1, the uplink transmission parameters include at least one transmission beam resource indication and at least one of the following predetermined identities: the method comprises the steps of power control parameter set identification, path loss PL configuration parameter identification, and association identification between the power control parameter set and the PL configuration parameters.

s1, sending the uplink transmission parameters to the UE includes: the uplink transmission parameters are sent to the user terminal UE by physical layer signaling.

Alternatively, in the present embodiment, the storage medium may be configured to store program codes for performing the following steps: before determining the uplink transmission parameters, further comprising:

s1, determining at least one power control parameter set and at least one PL configuration parameter, and sending the power control parameter set and the PL configuration parameter to the UE, wherein the power control parameter set is identified by a power control parameter set identifier, and the PL configuration parameter is identified by a PL configuration parameter identifier.

s1, determining and sending to the UE an association between the set of power control parameters and the PL configuration parameters in at least one of the following ways: including a PL configuration parameter identification in the set of power control parameters; including a power control parameter set identification in the PL configuration parameters; and determining the association between the power control parameter set and the PL configuration parameters by using a preset association set, wherein the preset association set comprises at least one association, and the association between each power control parameter set and the PL configuration parameters is identified by adopting an association identifier.

s1, sending at least one power control parameter set and at least one PL configuration parameter, and the association between the power control parameter set and the PL configuration parameter to the UE through higher layer signaling.

s1, the uplink transmission parameter includes one of: power control process identification, power control parameter set identification and sending beam resource.

s1, sending the uplink transmission parameters to the UE includes: and sending a power control process identifier or a power control parameter set identifier to the user equipment UE through physical layer signaling.

s1, determining at least one power control parameter set and at least one PL configuration parameter, and sending the power control parameter set and the PL configuration parameter to UE, wherein the power control parameter set is identified by a power control parameter set identifier, and the PL configuration parameter is identified by a PL configuration parameter identifier;

s2, determining a transmission beam set and transmitting the transmission beam set to the UE, wherein the transmission beam set comprises at least one transmission beam resource indication.

s1, determining the association among the power control parameter set, the PL configuration parameters and the transmission beam set and transmitting the association to the UE, wherein the association comprises at least one of the following: the power control parameter set comprises a PL configuration parameter identifier and a transmission beam resource indication in a transmission beam set; configuring at least one power control process, wherein each power control process is identified by a power control process identifier, and each power control process comprises at least one of the following: a power control parameter set identifier, a PL configuration parameter identifier, and a transmission beam resource indication in a transmission beam set.

s1, sending at least one power control parameter set, at least one PL configuration parameter, and the association among the sending beam set, the power control parameter set, the PL configuration parameter and the sending beam set to the user terminal UE through the high layer signaling.

s1, after the sending the set of power control parameters to the UE, further includes: and determining a closed-loop power adjustment amount sent to the UE and sending the closed-loop power adjustment amount to the UE.

Alternatively, in the present embodiment, the storage medium may be configured to store program codes for performing the following steps: after the closed-loop power adjustment is sent to the UE, the method further includes:

s1, determining at least one set of configuration values: the device comprises a first set of configuration values and a second set of configuration values, wherein the configuration range of the first set of configuration values is larger than that of the second set of configuration values.

Alternatively, in the present embodiment, the storage medium may be configured to store program codes for performing the following steps: the value of the closed loop power adjustment quantity is determined by the following method:

s1, under the condition of satisfying at least one of the following conditions, adopting the first set of configuration values as the values of the closed loop power adjustment quantity: setting the local closed-loop power adjustment amount f (i), changing the transmitted transmitting beam or receiving beam, changing the spatial characteristics of the transmitted resource, changing the transmitted waveform, changing the parameter numerology related to the transmitted physical frame structure, and changing the transmitted service type.

s1, under the condition of satisfying at least one of the following conditions, adopting the second set of configuration values as the values of the closed loop power adjustment quantity: the amplitude of N continuous power control adjustment quantities is smaller than or equal to a first threshold, N is a preset integer larger than or equal to 1, the power adjustment quantity exceeding a preset proportion in M continuous power adjustment quantities is smaller than or equal to a second threshold, and M is a preset integer larger than or equal to 1.

and S1, determining the step value of the closed loop power adjustment amount from the first set of configuration values or the second set of configuration values according to the indication of the base station.

s2, the method is applied to at least one of the following signals: the information sounding reference signal SRS.

Alternatively, in the present embodiment, the storage medium may be configured to store program codes for performing the following steps: the method is applied to at least one of the following channels: and under the condition of PUCCH, short PUCCH and long PUCCH, the PUCCH which meets at least one of the following conditions shares the closed-loop power adjustment amount:

s1, short PUCCH and/or long PUCCH which are indicated by the same transmission beam resource are used in the same slot;

s2, short PUCCH and long PUCCH in different slot slots.

Alternatively, in the present embodiment, the storage medium may be configured to store program codes for performing the following steps: in case that the method is applied to the SRS, the transmission power for the SRS is determined by one of the following ways:

Optionally, in this embodiment, the storage medium may include, but is not limited to: various media capable of storing program codes, 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.

Embodiments of the present invention also provide a processor configured to execute a program, where the program executes to perform any of the steps in the method.

Optionally, in this embodiment, the program is configured to perform the following steps:

s1, receiving uplink transmission parameters;

Optionally, in this embodiment, the program is configured to perform the following steps: receiving the uplink transmission parameters includes:

s1, receiving uplink transmission parameters through physical layer signaling.

Optionally, in this embodiment, the program is configured to perform the following steps: before receiving the uplink transmission parameters, further comprising:

Optionally, in this embodiment, the program is configured to perform the following steps: the uplink transmission parameter includes one of: power control process identification, power control parameter set identification, sending beam resource, and determining the power control process according to the uplink transmission parameter includes:

Optionally, in this embodiment, the program is configured to perform the following steps: after receiving at least one set of power control parameters, further comprising:

Optionally, in this embodiment, the program is configured to perform the following steps: after receiving the closed loop power adjustment, the method further comprises:

Optionally, in this embodiment, the program is configured to perform the following steps: the method is applied to at least one of the following channels: the PUCCH, short PUCCH, long PUCCH, further includes:

s3, short PUCCH and long PUCCH in different slot slots.

Optionally, in this embodiment, the program is configured to perform the following steps: in case that the method is applied to the SRS, the transmission power for the SRS is determined by one of the following ways:

s1, determining uplink transmission parameters;

Optionally, in this embodiment, the program is configured to perform the following steps: before determining the uplink transmission parameters, further comprising:

Optionally, in this embodiment, the program is configured to perform the following steps: after the closed-loop power adjustment is sent to the UE, the method further includes:

Optionally, in this embodiment, the program is configured to perform the following steps: the value of the closed loop power adjustment quantity is determined by the following method:

Optionally, in this embodiment, the program is configured to perform the following steps: the method is applied to at least one of the following channels: and under the condition of PUCCH, short PUCCH and long PUCCH, the PUCCH which meets at least one of the following conditions shares the closed-loop power adjustment amount:

s2, short PUCCH and long PUCCH in different slot slots.

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 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 principle of the present invention should be included in the protection scope of the present invention.

Claims

1. A method for parameter acquisition, comprising:

receiving an uplink transmission parameter;

determining a power control process according to the uplink transmission parameters;

acquiring a sending power parameter of uplink transmission according to the power control process;

wherein the uplink transmission parameter comprises one of: a power control process identifier, a power control parameter set identifier, and a transmit beam resource, wherein determining the power control process according to the uplink transmission parameter includes:

determining a first predetermined association in the associations indicated by the power control process identification or power control parameter set identification, and determining the power control process according to the first predetermined association; alternatively, the first and second electrodes may be,

determining a second predetermined association according to a relationship between the transmit beam resource and the power control process, and determining the power control process according to the second predetermined association.

2. The method of claim 1, wherein the uplink transmission parameters include a transmit beam resource indication and at least one of the following predetermined identities: the method comprises the steps of power control parameter set identification, path loss PL configuration parameter identification, and association identification between the power control parameter set and the PL configuration parameters.

3. The method of claim 2, wherein receiving uplink transmission parameters comprises: receiving the uplink transmission parameters through physical layer signaling.

4. The method of claim 2, further comprising, prior to receiving the uplink transmission parameters:

receiving at least one power control parameter set and at least one PL configuration parameter, wherein the power control parameter set is identified by a power control parameter set identifier, and the PL configuration parameter is identified by a PL configuration parameter identifier.

5. The method of claim 2, further comprising, prior to receiving the uplink transmission parameters:

receiving an association between a set of power control parameters and PL configuration parameters, wherein the association comprises at least one of: including a PL configuration parameter identification in the set of power control parameters; including a power control parameter set identification in the PL configuration parameters; and determining the association between the power control parameter set and the PL configuration parameters by using a preset association set, wherein the preset association set comprises at least one association, and the association between each power control parameter set and the PL configuration parameters is identified by adopting an association identifier.

6. The method according to claim 4 or 5, wherein the at least one set of power control parameters and the at least one PL configuration parameters are received by higher layer signaling, and wherein the association between the set of power control parameters and the PL configuration parameters is performed.

7. The method of claim 1, wherein receiving uplink transmission parameters comprises: and receiving the power control process identification or the power control parameter set identification through physical layer signaling.

8. The method of claim 1, further comprising, prior to receiving the uplink transmission parameters:

receiving at least one power control parameter set and at least one Path Loss (PL) configuration parameter, wherein the power control parameter set is identified by adopting a power control parameter set identifier, and the PL configuration parameter is identified by adopting a PL configuration parameter identifier;

receiving a set of transmission beams, wherein the set of transmission beams comprises at least one transmission beam resource indication.

9. The method of claim 1, further comprising, prior to receiving the uplink transmission parameters:

receiving an association between the set of power control parameters, a Path Loss (PL) configuration parameter, and the set of transmit beams, wherein the association comprises at least one of: the power control parameter set comprises a PL configuration parameter identifier and a transmission beam resource indication in the transmission beam set; configuring at least one power control process, wherein each power control process is identified by a power control process identifier, and each power control process comprises at least one of the following: a power control parameter set identifier, a PL configuration parameter identifier, and a transmission beam resource indication in the transmission beam set.

10. The method according to claim 8 or 9, wherein the at least one set of power control parameters, the at least one PL configuration parameter, the set of transmit beams, and the association between the set of power control parameters, the PL configuration parameters and the set of transmit beams are received via higher layer signaling.

11. The method according to claim 4 or 8, wherein the set of power control parameters comprises at least one of: a target received power, a PL coefficient, an indicator indicating whether the local closed loop power adjustment is reset.

12. The method of claim 11, further comprising, after receiving at least one set of power control parameters: and receiving the closed loop power adjustment amount, and updating the local closed loop power adjustment amount.

13. The method of claim 12, further comprising, after receiving the closed loop power adjustment amount:

receiving at least one of the following configuration values: the device comprises a first set of configuration values and a second set of configuration values, wherein the configuration range of the first set of configuration values is larger than the configuration range of the second set of configuration values.

14. The method of claim 12, wherein the value of the closed-loop power adjustment is determined by:

15. The method of claim 12, wherein the value of the closed-loop power adjustment is determined by:

16. The method of claim 12, wherein the value of the closed-loop power adjustment is determined by:

17. The method of any one of claims 1-5, 7-9, 12-16,

the method is applied to at least one of the following channels: a Physical Uplink Shared Channel (PUSCH), a short PUCCH and a long PUCCH; alternatively, the first and second electrodes may be,

the method is applied to at least one of the following signals: the information sounding reference signal SRS.

18. The method according to claim 12, wherein the method is applied to at least one of the following channels: the PUCCH, short PUCCH, long PUCCH, further includes:

determining that the closed-loop power adjustment amount is shared by PUCCHs which meet at least one of the following conditions:

short PUCCH and/or long PUCCH which use the same transmission beam resource indication in the same slot;

short PUCCH and long PUCCH on different slot slots.

19. The method of claim 17, wherein the transmission power for the SRS is determined by one of the following methods if the method is applied to the SRS:

determining that all transmission beams of a user terminal UE adopt the same power, wherein the power adopts Pcmax to subtract a power back-off quantity, and the power back-off quantity is broadcasted by a base station or configured to the UE by the base station;

determining that all transmission beams of a user terminal UE adopt the same power of a group, wherein each group of power adopts Pcmax to subtract the power back-off of the group, and the power back-off of the group is configured to the UE by a base station according to the beam group of SRS used for beam management;

determining that all beams of a user terminal (UE) use the same power, wherein the power is determined by adopting target received power P0 and a PL value, the PL value is determined by the UE or according to a measurement result of a measurement pilot frequency configured by a base station, and P0 is the base station configured to the UE;

and determining that all beams of the user terminal UE adopt the same power of the group, wherein each group of power is determined by adopting P0 of the group configured by the base station and the PL value of the group, the base station sets P0 for each group, and the PL of each group is determined by the UE according to the measurement result of the measurement pilot frequency configured by the base station.

20. The method of claim 1, further comprising:

the method comprises the following steps of acquiring power headroom PH of a plurality of transmission beams simultaneously transmitted by a user terminal by the following method:

obtaining the PH of each wave beam by subtracting the transmission power of the EIRP of each wave beam from the equivalent omnidirectional radiation power EIRP maximum transmission power Pcmax of each wave beam in the plurality of wave beams;

and obtaining the PHs of the plurality of beams which are transmitted simultaneously by subtracting the Pcmax sum of TRPs of Y UEs from the PH sum of each beam in the plurality of beams, wherein Y is the number of the plurality of beams which are transmitted simultaneously minus 1.

21. A method for acquiring a power control procedure, comprising:

determining an uplink transmission parameter;

sending the uplink transmission parameters to a User Equipment (UE), wherein the uplink transmission parameters are used for determining a power control process;

wherein the uplink transmission parameter comprises one of: power control process identification, power control parameter set identification and sending beam resource;

the UE determines a first preset association in the associations indicated by the power control process identification or the power control parameter set identification, and determines the power control process according to the first preset association; alternatively, the first and second electrodes may be,

and the UE determines a second preset association according to the relation between the transmission beam resource and the power control process and determines the power control process according to the second preset association.

22. The method of claim 21, wherein the uplink transmission parameters include at least one transmission beam resource indication and at least one predetermined indicator of: the method comprises the steps of power control parameter set identification, path loss PL configuration parameter identification, and association identification between the power control parameter set and the PL configuration parameters.

23. The method of claim 21, wherein sending the uplink transmission parameters to a User Equipment (UE) comprises: and sending the uplink transmission parameters to the User Equipment (UE) through physical layer signaling.

24. The method of claim 22, wherein prior to determining the uplink transmission parameter, further comprising:

determining at least one power control parameter set and at least one PL configuration parameter, and sending the power control parameter set and the PL configuration parameter to the UE, wherein the power control parameter set is identified by adopting a power control parameter set identifier, and the PL configuration parameter is identified by adopting a PL configuration parameter identifier.

25. The method of claim 22, wherein prior to determining the uplink transmission parameter, further comprising:

determining and sending an association between a set of power control parameters and the PL configuration parameters to the UE in at least one of: including a PL configuration parameter identification in the set of power control parameters; including a power control parameter set identification in the PL configuration parameters; and determining the association between the power control parameter set and the PL configuration parameters by using a preset association set, wherein the preset association set comprises at least one association, and the association between each power control parameter set and the PL configuration parameters is identified by adopting an association identifier.

26. The method according to claim 24 or 25, wherein the at least one set of power control parameters and the at least one PL configuration parameter are sent to the UE by higher layer signaling, and wherein the association between the set of power control parameters and the PL configuration parameter is sent to the UE.

27. The method of claim 21, wherein sending the uplink transmission parameters to a User Equipment (UE) comprises: and sending the power control process identifier or the power control parameter set identifier to the user equipment UE through physical layer signaling.

28. The method of claim 21, wherein prior to determining the uplink transmission parameter, further comprising:

determining at least one power control parameter set and at least one Path Loss (PL) configuration parameter, and sending the power control parameter set and the PL configuration parameter to the UE, wherein the power control parameter set is identified by adopting a power control parameter set identifier, and the PL configuration parameter is identified by adopting a PL configuration parameter identifier;

determining a set of transmission beams and transmitting the set of transmission beams to the UE, wherein the set of transmission beams comprises at least one transmission beam resource indication.

29. The method of claim 21, wherein prior to determining the uplink transmission parameter, further comprising:

determining an association among the set of power control parameters, a Path Loss (PL) configuration parameter, and the set of transmit beams, and transmitting the association to the UE, wherein the association comprises at least one of: the power control parameter set comprises a PL configuration parameter identifier and a transmission beam resource indication in the transmission beam set; configuring at least one power control process, wherein each power control process is identified by a power control process identifier, and each power control process comprises at least one of the following: a power control parameter set identifier, a PL configuration parameter identifier, and a transmission beam resource indication in the transmission beam set.

30. The method according to claim 28 or 29, wherein said at least one power control parameter set, said at least one PL configuration parameter, said transmit beam set, an association between said power control parameter set, said PL configuration parameter and said transmit beam set are transmitted to a user equipment UE by higher layer signaling.

31. The method according to claim 24 or 28, wherein the set of power control parameters comprises at least one of: a target received power, a PL coefficient, an indicator indicating whether the local closed loop power adjustment is reset.

32. The method of claim 31, wherein after transmitting the set of power control parameters to the UE, further comprising: and determining a closed loop power adjustment amount sent to the UE and sending the closed loop power adjustment amount to the UE.

33. The method of claim 32, wherein after transmitting the closed loop power adjustment to the UE, further comprising:

determining at least one of the following configuration values: the device comprises a first set of configuration values and a second set of configuration values, wherein the configuration range of the first set of configuration values is larger than the configuration range of the second set of configuration values.

34. The method of claim 33, wherein the value of the closed-loop power adjustment is determined by:

35. The method of claim 33, wherein the value of the closed-loop power adjustment is determined by:

36. The method of claim 33, wherein the value of the closed-loop power adjustment is determined by:

and determining a step value of the closed-loop power adjustment quantity from the first set of configuration values or the second set of configuration values according to the indication of the base station.

37. The method of any one of claims 20-25, 27-29, 32-36,

38. The method according to claim 32, wherein the method is applied to at least one of the following channels: and under the condition of PUCCH, short PUCCH and long PUCCH, the PUCCH meeting at least one of the following conditions shares the closed-loop power adjustment amount:

short PUCCH and long PUCCH on different slot slots.

39. The method of claim 37, wherein if the method is applied to the SRS, the transmission power for the SRS is determined by one of:

40. A parameter acquisition apparatus, comprising:

a receiving module, configured to receive an uplink transmission parameter sent by a base station;

a determining module configured to determine a power control procedure according to the uplink transmission parameter;

an obtaining module, configured to obtain a transmission power parameter of uplink transmission according to the power control process;

wherein the uplink transmission parameter comprises one of: the determining module is further configured to determine a first predetermined association of the associations indicated by the power control process identifier or the power control parameter set identifier, and determine the power control process according to the first predetermined association, or determine a second predetermined association according to a relationship between the transmission beam resource and the power control process, and determine the power control process according to the second predetermined association.

41. The apparatus of claim 40, wherein the uplink transmission parameters comprise a transmit beam resource indication and at least one of the following predetermined identities: the method comprises the steps of power control parameter set identification, path loss PL configuration parameter identification, and association identification between the power control parameter set and the PL configuration parameters.

42. The apparatus of claim 41, wherein the receiving means is further configured to receive an association between a set of power control parameters and PL configuration parameters prior to receiving the uplink transmission parameters, wherein the association comprises at least one of: including a PL configuration parameter identification in the set of power control parameters; including a power control parameter set identification in the PL configuration parameters; and determining the association between the power control parameter set and the PL configuration parameters by using a preset association set, wherein the preset association set comprises at least one association, and the association between each power control parameter set and the PL configuration parameters is identified by adopting an association identifier.

43. The apparatus of claim 42, wherein the receiving module is further configured to receive an association among the set of power control parameters, a PL configuration parameter for pathloss, and the set of transmit beams, wherein the association comprises at least one of: the power control parameter set comprises a PL configuration parameter identifier and a transmission beam resource indication in the transmission beam set; configuring at least one power control process, wherein each power control process is identified by a power control process identifier, and each power control process comprises at least one of the following: a power control parameter set identifier, a PL configuration parameter identifier, and a transmission beam resource indication in the transmission beam set.

44. The apparatus of claim 42 or 43, wherein the receiving module is further configured to receive a closed loop power adjustment amount, and update the local closed loop power adjustment amount.

45. The apparatus of claim 44, wherein the receiving module is further configured to receive at least one of the following configuration values after receiving the closed loop power adjustment amount: the device comprises a first set of configuration values and a second set of configuration values, wherein the configuration range of the first set of configuration values is larger than the configuration range of the second set of configuration values.

46. The apparatus of claim 44, wherein the closed-loop power adjustment value is determined by:

47. The apparatus of claim 44, wherein the closed-loop power adjustment value is determined by:

48. The apparatus of claim 44, wherein the closed-loop power adjustment value is determined by:

and determining the value of the closed-loop power adjustment quantity from a first set of configuration values and a second set of configuration values according to the indication of the base station.

49. An apparatus for acquiring a power control procedure, comprising:

a determining module configured to determine an uplink transmission parameter, wherein the uplink transmission parameter comprises one of: power control process identification, power control parameter set identification and sending beam resource;

a sending module, configured to send the uplink transmission parameter to a user equipment UE, where the uplink transmission parameter is used for the UE to determine a first predetermined association of the associations indicated by the power control process identifier or the power control parameter set identifier, and determine the power control process according to the first predetermined association; or, the UE determines a second predetermined association according to a relationship between the transmission beam resource and the power control process, and determines the power control process according to the second predetermined association.

50. The apparatus according to claim 49, wherein the uplink transmission parameters comprise at least one transmission beam resource indication and at least one predetermined identity of: the method comprises the steps of power control parameter set identification, path loss PL configuration parameter identification, and association identification between the power control parameter set and the PL configuration parameters.

51. The apparatus of claim 50, wherein the determining module is further configured to determine and send to the UE an association between a set of power control parameters and the PL configuration parameters prior to determining the uplink transmission parameters by at least one of: including a PL configuration parameter identification in the set of power control parameters; including a power control parameter set identification in the PL configuration parameters; and determining the association between the power control parameter set and the PL configuration parameters by using a preset association set, wherein the preset association set comprises at least one association, and the association between each power control parameter set and the PL configuration parameters is identified by adopting an association identifier.

52. The apparatus of claim 49, wherein the means for determining is further configured to determine an association among the set of power control parameters, a Pathloss (PL) configuration parameter, and the set of transmit beams and send the association to the UE prior to determining the uplink transmission parameter, wherein the association comprises at least one of: the power control parameter set comprises a PL configuration parameter identifier and a transmission beam resource indication in the transmission beam set; configuring at least one power control process, wherein each power control process is identified by a power control process identifier, and each power control process comprises at least one of the following: a power control parameter set identifier, a PL configuration parameter identifier, and a transmission beam resource indication in the transmission beam set.

53. The apparatus of claim 51 or 52, wherein the transmitting module is further configured to determine a closed loop power adjustment amount to be transmitted to the UE and transmit the closed loop power adjustment amount to the UE.

54. The apparatus of claim 53, wherein the transmitting module is further configured to determine at least one of the following set of configuration values after transmitting the closed loop power adjustment to the UE: the device comprises a first set of configuration values and a second set of configuration values, wherein the configuration range of the first set of configuration values is larger than the configuration range of the second set of configuration values.

55. The apparatus of claim 54, wherein the value of the closed-loop power adjustment is determined by:

56. The apparatus of claim 54, wherein the value of the closed-loop power adjustment is determined by:

57. The apparatus of claim 54, wherein the value of the closed-loop power adjustment is determined by: