CN109803319A - A kind of portions of bandwidth transform method and user equipment - Google Patents

A kind of portions of bandwidth transform method and user equipment Download PDF

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Publication number
CN109803319A
CN109803319A CN201711140695.3A CN201711140695A CN109803319A CN 109803319 A CN109803319 A CN 109803319A CN 201711140695 A CN201711140695 A CN 201711140695A CN 109803319 A CN109803319 A CN 109803319A
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CN
China
Prior art keywords
bwp
dci
pdsch
activation
time quantum
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CN201711140695.3A
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Chinese (zh)
Inventor
付景兴
喻斌
钱辰
熊琦
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Beijing Samsung Telecom R&D Center
Beijing Samsung Telecommunications Technology Research Co Ltd
Samsung Electronics Co Ltd
Original Assignee
Beijing Samsung Telecommunications Technology Research Co Ltd
Samsung Electronics Co Ltd
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Application filed by Beijing Samsung Telecommunications Technology Research Co Ltd, Samsung Electronics Co Ltd filed Critical Beijing Samsung Telecommunications Technology Research Co Ltd
Priority to CN201711140695.3A priority Critical patent/CN109803319A/en
Priority to EP22185734.5A priority patent/EP4096141A1/en
Priority to KR1020217002805A priority patent/KR102383385B1/en
Priority to PCT/KR2018/004461 priority patent/WO2018194352A1/en
Priority to KR1020197030309A priority patent/KR102210990B1/en
Priority to US16/605,707 priority patent/US10887842B2/en
Priority to EP22209784.2A priority patent/EP4181450A1/en
Priority to EP18787590.1A priority patent/EP3596984B1/en
Publication of CN109803319A publication Critical patent/CN109803319A/en
Priority to US17/140,591 priority patent/US11864122B2/en
Priority to US17/988,348 priority patent/US12010629B2/en
Pending legal-status Critical Current

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Abstract

This application discloses a kind of portions of bandwidth transform methods, comprising: Downlink Control Information DCI is received on time quantum n, the BWP transformation of the activation portions of bandwidth instruction information instruction activation in the DCI;The time quantum n+k of the BWP of transformation activation is determined according to the activation portions of bandwidth instruction information received;PDCCH and/or PDSCH is received on lower line activating BWP since time quantum n+k, and/or sends PUCCH and/or PUSCH on uplink activation BWP.Disclosed herein as well is a kind of user equipmenies of portions of bandwidth transformation.Using technical solution disclosed in the present application, BWP can be activated to convert quickly, and make thus bring resource collision it is less, and make the adjustment time interval of UE switch active BWP to UE normally receive data and send data influence it is less.

Description

A kind of portions of bandwidth transform method and user equipment
Technical field
The present invention relates to wireless communication technology fields, set more particularly, to a kind of portions of bandwidth transform method and user It is standby.
Background technique
In NR (New Radio, new wireless) air-interface system, UE (User Equipment, user equipment) may The inscribed receipts descending control signaling of a part of bandwidth and data in a big frequency domain bandwidth, this is because the frequency domain of UE is handled Caused by ability is limited, and system bandwidth is bigger.And in order to improve the frequency diversity performance of user, user in different time, May work in different limited frequency bands, as shown in Figure 1, our limited frequency band be referred to as BWP (Bandwidth Part, Portions of bandwidth).The transformation that UE can determine the BWP of activation by receiving dynamic signaling, for example, receiving downlink Downlink Control Information (DL DCI, Downlink Downlink Control Information) or uplink DCI (UL DCI, Uplink Downlink Control Information) instruction activation BWP variation.For pairs of frequency spectrum (Paired Spectrum, for example, frequency division multiplexing (FDD, Frequency Division Multiplexing)), DL DCI can be indicated down The variation of the BWP of line activating, UL DCI can indicate the variation of the BWP of uplink activation;For non-paired frequency spectrum (Unpaired Spectrum, for example, time division multiplexing (TDD, Time Division Multiplexing)), DL DCI or UL DCI can be with BWP pairs of variation for indicating a lower line activating BWP and uplink activation, for example, downlink BWP-1 and uplink BWP-1 are configured to To 1, downlink BWP-2 and uplink BWP-2 are configured to BWP and can indicate this activation BWP to 2, DL DCI or UL DCI BWP Pair variation, for example, the BWP of DL DCI instruction activation is to being BWP to 2 to 1 variation from BWP, then the activation BWP of downlink is from downlink BWP-1 variation is downlink BWP-2, and it is uplink BWP-2 that the activation BWP of uplink changes from uplink BWP-1.
UE can only receive PDCCH (Physical Downlink Control Channel, physics in lower line activating BWP Down control channel) and PDSCH (Physical Downlink Shared Channel, Physical Downlink Shared Channel);UE is only PUCCH (Physical Uplink Control Channel, Physical Uplink Control Channel) can be sent in uplink activation BWP With PUSCH (Physical Uplink Shared Channel, Physical Uplink Shared Channel).There is presently no determining UE to connect After the DCI for receiving instruction activation BWP variation, the specific moment of the transformation of BWP is activated, this is a problem to be solved.
In view of this, it is necessary to provide a kind of methods and user equipment for being able to solve above-mentioned portions of bandwidth transformation problem.
Summary of the invention
It is an object of the invention to: overcome the deficiencies of the prior art and provide a kind of faster activation BWP transformation method and User equipment, and keep thus bring resource collision less and the adjustment time interval of UE switch active BWP normally meets UE The influence for receiving data and transmission data is less.
To achieve the goals above, the present invention provides a kind of BWP transform methods, comprising:
A, Downlink Control Information DCI is received on time quantum n, the activation portions of bandwidth instruction information in the DCI refers to Show the portions of bandwidth BWP transformation of activation;
B, the time quantum n+k of the BWP of transformation activation is determined according to the activation portions of bandwidth instruction information received;
C, physical downlink control channel PDCCH is received on the lower line activating BWP since time quantum n+k after the conversion And/or Physical Uplink Control Channel is sent on Physical Downlink Shared Channel PDSCH, and/or uplink activation BWP after the conversion PUCCH and/or Physical Downlink Shared Channel PUSCH.
Preferably, receiving DCI on time quantum n for paired spectrum, in the A includes: under time quantum n reception Row DL DCI, the DL DCI indicating downlink activation BWP transformation;
The C include: received on lower line activating BWP since time quantum n+k after the conversion PDCCH and/or PDSCH。
Preferably, the B includes: at least one determining time quantum for converting lower line activating BWP in the following way:
If the DL DCI scheduled PDSCH, and under the activation portions of bandwidth instruction information instruction in the DL DCI Line activating BWP is converted, and the PDSCH and the DL DCI be in same time quantum, then UE is from the time quantum Start to receive PDSCH on lower line activating BWP after the conversion, when from first downlink after the time quantum for receiving PDSCH Between unit start to receive PDCCH on lower line activating BWP after the conversion;
If the DL DCI scheduled PDSCH, and under the activation portions of bandwidth instruction information instruction in the DL DCI Line activating BWP is converted, and DL DCI described in the PDSCH is in different time unit, then where UE from the PDSCH when Between unit start to receive PDSCH on lower line activating BWP after the conversion, first after time quantum where from the PDSCH A downgoing time unit starts to receive PDCCH on lower line activating BWP after the conversion;
If the DL DCI scheduled PDSCH, and under the activation portions of bandwidth instruction information instruction in the DL DCI Line activating BWP is converted, and the PDSCH and the DL DCI be in different time unit, then where UE from the PDSCH Time quantum starts to receive PDSCH on lower line activating BWP after the conversion, and the time quantum where the PDSCH PDCCH is received on transformed lower line activating BWP;
If the DL DCI scheduled PDSCH, and the activation portions of bandwidth in the DL DCI shows information indicating downlink Activation BWP is converted, and the PDSCH and the DL DCI be in different time unit or same time unit, then UE It is connect on lower line activating BWP k-th of downgoing time unit after the time quantum where the DL DCI after the conversion PDCCH is received, and receives PDSCH on the lower line activating BWP the time quantum where the PDSCH after the conversion;Wherein, k For nonnegative integer, is preset by agreement or configured by high-level signaling;
If the DL DCI scheduled PDSCH, and under the activation portions of bandwidth instruction information instruction in the DL DCI Line activating BWP is converted, then UE receives PDSCH on the lower line activating BWP not converted, and when where the DL DCI Between k downgoing time unit after unit start to receive PDCCH on lower line activating BWP after the conversion;Wherein, k is non-negative Integer is preset by agreement or is configured by high-level signaling.
Preferably, the case where dispatching the transmission of the PDSCH of at least two time quantums for a PDCCH, the DL The PDSCH of DCI scheduling are as follows: first PDSCH in the PDSCH of at least two time quantums of PDCCH scheduling.
Preferably, receiving DCI on time quantum n for paired spectrum, in the A includes: in time quantum n reception Row UL DCI, the UL DCI instruction uplink activation BWP transformation;
The C includes: to send PUSCH and/or PUCCH on uplink activation BWP since time quantum n+k.
Preferably, the B includes: the time quantum for determining transformation uplink activation BWP in the following way:
If the UL DCI scheduled PUSCH, and in the activation portions of bandwidth instruction information instruction in the UL DCI Line activating BWP is converted, then the uplink activation BWP UE time quantum where scheduled PUSCH after the conversion Upper transmission PUSCH and PUCCH.
Preferably, receiving DCI on time quantum n for non-paired frequency spectrum, in the A includes: to receive in time quantum n DL DCI, the DL DCI indicating downlink activation BWP and uplink activation BWP is to transformation;
The C include: since the lower line activating BWP time quantum n+k1 after the conversion receive PDCCH and/or PDSCH sends PUCCH and/or PUSCH since the uplink activation BWP time quantum n+k2 after the conversion;The k1 and k2 It is identical or different.
Preferably, the B includes: at least one determining time quantum for converting lower line activating BWP in the following way:
If the DL DCI scheduled PDSCH, and under the activation portions of bandwidth instruction information instruction in the DL DCI Line activating BWP and uplink activation BWP is to converting, and the PDSCH and DL DCI is in same time quantum, then UE PDSCH is received on lower line activating BWP since the same time quantum after the conversion, from the time quantum for receiving PDSCH First downgoing time unit later starts to receive PDCCH on lower line activating BWP after the conversion;
If the DL DCI scheduled PDSCH, and under the activation portions of bandwidth instruction information instruction in the DL DCI Line activating BWP and uplink activation BWP is to converting, and DL DCI described in the PDSCH is in different time unit, then UE from Time quantum where the PDSCH starts to receive PDSCH on lower line activating BWP after the conversion, from the time where the PDSCH First downgoing time unit after unit starts to receive PDCCH on lower line activating BWP after the conversion;
If the DL DCI scheduled PDSCH, and under the activation portions of bandwidth instruction information instruction in the DL DCI Line activating BWP and uplink activation BWP is to converting, and the PDSCH and DL DCI is in different time unit, then UE PDSCH is received on lower line activating BWP the time quantum where the PDSCH after the conversion;
If the PDSCH that the DL DCI scheduled, and the activation portions of bandwidth in the DL DCI would be shown under information instruction Line activating BWP and uplink activation BWP to converting, and the PDSCH and DL DCI in different time unit or Same time unit, the then lower line activating BWP k-th of downgoing time unit of the UE after the DL DCI after the conversion Upper reception PDCCH, and PDSCH is received on the lower line activating BWP the time quantum where the PDSCH after the conversion;Its In, k is nonnegative integer, is preset by agreement or is configured by high-level signaling;
If the DL DCI scheduled PDSCH, and under the activation portions of bandwidth instruction information instruction in the DL DCI Line activating BWP and uplink activation BWP are to converting, then UE receives PDSCH on the lower line activating BWP not converted, and K downgoing time unit after time quantum where the DL DCI starts to receive on lower line activating BWP after the conversion PDCCH;Wherein, k is nonnegative integer, is preset by agreement or is configured by high-level signaling;
Preferably, when k1 and k2 is identical, the B further include: received since the lower line activating BWP UE after the conversion The time quantum that first time uplink after the time quantum of PDCCH or PDSCH is sent starts, the uplink activation of UE after the conversion PUCCH and/or PUSCH is sent in BWP;Wherein, it is that PUCCH is sent or PUSCH is sent that the first time uplink, which is sent,.
Preferably, the B further include: when the HARQ-ACK of k2 and the DL DCI in the time quantum n+k2 are transmitted Between unit or the DL DCI scheduling PDSCH HARQ-ACK transmission time unit it is identical;Alternatively, the k2 passes through agreement It is default, it is configured by high-level signaling, or individually indicated by physical layer signaling;Or the value of the k2 is according to uplink PUSCH Scheduling timing relationship determine.
Preferably, receiving DCI on time quantum n for non-paired frequency spectrum, in the A includes: to receive in time quantum n UL DCI, the UL DCI indicating downlink activation BWP and uplink activation BWP is to transformation;
The C include: since the lower line activating BWP time quantum n+k1 after the conversion receive PDCCH and/or PDSCH sends PUCCH and/or PUSCH since the uplink activation BWP time quantum n+k2 after the conversion;The k1 and k2 It is identical or different.
Preferably, as the k1 and k2 equal, if the B includes: that the UL DCI scheduled PUSCH, and PUSCH It is transmitted in time quantum m, then the value of k1 and k2 is equal to m, alternatively, k value is default by agreement, high-level signaling configuration or physical layer Signaling instruction.
Preferably, the B includes: that the k1 is determined by the way that agreement is default, or is configured by high-level signaling;The k2 is pressed Determine according to following manner: if the UL DCI scheduled PUSCH, and PUSCH is transmitted in time quantum m, then the value of k2 is equal to M, alternatively, high-level signaling configuration or physical layer signaling instruction default by agreement.
Preferably, when in the case where time slot polymerization, for non-paired frequency spectrum, at least one of in the following ways really The time quantum of fixed transformation activation BWP:
Lower line activating BWP is since first time slot of the PDSCH of the PDCCH that time slot polymerize at least two time slots dispatched Transformation;
Lower line activating BWP is converted since first time slot at least two time slots using identical precoding;
Uplink activation BWP is since first time slot of the PUSCH of the PDCCH that time slot polymerize at least two time slots dispatched Transformation;
Uplink activation BWP is converted since first time slot at least two time slots using identical precoding.
Preferably, this method further include:
BWP-2 is transformed to by BWP-1 since time quantum n+L in the BWP of time quantum n, the first DCI instruction activation, And the PDSCH or PUSCH of scheduling be in time quantum n+L, and in time quantum n+k, the BWP of the 2nd DCI instruction activation from when Between unit n+M start to be transformed to BWP-3 by BWP-1, and the PDSCH or PUSCH that dispatch be in time quantum n+M, k < L, M < L, Line activating BWP is then descended to be transformed to BWP-3 by BWP-1 since time quantum n+M, UE connects from BWP-3 since time quantum n+M PDSCH and/or PDCCH is received, or sends PUSCH and/or PUCCH from BWP-3 since time quantum n+M.
Present invention also provides a kind of user equipmenies, comprising:
For receiving the receiving module of DCI on time quantum n, the activation portions of bandwidth instruction information in the DCI refers to Show the BWP transformation of activation;
The time quantum n+k's of BWP for being activated according to the determining transformation of activation portions of bandwidth instruction information received Determining module;
For since time quantum n+k on lower line activating BWP receive PDCCH and/or PDSCH receiving module, and/or The sending module of PUCCH and/or PUSCH is sent on uplink activation BWP.
Present invention also provides a kind of user equipmenies, comprising: transceiver and processor;
For receiving DCI on time quantum n, the activation portions of bandwidth instruction information in the DCI refers to the transceiver Show the BWP transformation of activation;
The processor is used to determine the time of the BWP of transformation activation according to the activation portions of bandwidth instruction information received Unit n+k;
The transceiver be used for since time quantum n+k on lower line activating BWP receive PDCCH and/or PDSCH, and/ Or PUCCH and/or PUSCH is sent on uplink activation BWP.
As seen from the above technical solution, the instruction that the application is converted by receiving instruction activation BWP, carves transformation in due course The BWP of activation provides a kind of transform method and user equipment with faster activation BWP, and less resource is brought to touch It hits and the adjustment time interval of UE switch active BWP normally receives data to UE and sends the influence of data.
Detailed description of the invention
To describe the technical solutions in the embodiments of the present invention more clearly, make required in being described below to embodiment Attached drawing is briefly described, it should be apparent that, drawings in the following description are only some embodiments of the invention, for Those skilled in the art are also possible to obtain other drawings based on these drawings without creative efforts.
Fig. 1 is the schematic diagram of the limited frequency band of UE work in background of invention;
Fig. 2 is the flow chart of BWP transform method of the present invention;
Fig. 3 is the schematic diagram for the BWP that UE receives PDCCH in one method one of the embodiment of the present invention;
Fig. 4 is the schematic diagram for the BWP that UE receives PDCCH in one method two of the embodiment of the present invention;
Fig. 5 is the schematic diagram for the BWP that UE receives PDCCH in one method three of the embodiment of the present invention;
Fig. 6 receives the schematic diagram of the BWP of PDCCH for UE in situation a kind of in one method four of the embodiment of the present invention;
Fig. 7 is that UE receives the schematic diagram of the BWP of PDCCH in another case in one method four of the embodiment of the present invention;
Fig. 8 is the schematic diagram for the BWP that UE receives PDCCH in one method five of the embodiment of the present invention;
Fig. 9 is in the embodiment of the present invention one in the case where the PDSCH of PDCCH at least two time slots of scheduling, and UE is received The schematic diagram of the BWP of PDCCH;
Figure 10 is the schematic diagram for the BWP that UE sends PUSCH and PUCCH in the embodiment of the present invention two;
Figure 11 is the schematic diagram for the BWP that UE sends PUSCH and PUCCH in three method one of the embodiment of the present invention;
Figure 12 is the schematic diagram for the BWP that UE sends PUSCH and PUCCH in three method two of the embodiment of the present invention;
Figure 13 is the schematic diagram that three method two of the embodiment of the present invention avoids PUCCH and PUSCH resource collision;
Figure 14 is that UE receives PDCCH and PDSCH in four method one of the embodiment of the present invention, sends the BWP of PUSCH and PUCCH Schematic diagram;
Figure 15 is that UE receives PDCCH and PDSCH in four method two of the embodiment of the present invention, sends the BWP of PUSCH and PUCCH Schematic diagram;
Figure 16 is that UE receives PDCCH and PDSCH in the embodiment of the present invention six, sends the signal of the BWP of PUSCH and PUCCH Figure;
Figure 17 is the composed structure schematic diagram of a preferable user equipment of the invention;
Figure 18 is the composed structure schematic diagram of a preferable user equipment of the invention.
Specific embodiment
It is right hereinafter, referring to the drawings and the embodiments, for the objects, technical solutions and advantages of the application are more clearly understood The application is described in further detail.
Following will be combined with the drawings in the embodiments of the present invention, and technical solution in the embodiment of the present invention carries out clear, complete Site preparation description, it is clear that described embodiments are only a part of the embodiments of the present invention, instead of all the embodiments.It is based on Embodiment in the present invention, those skilled in the art's every other implementation obtained without creative efforts Example, shall fall within the protection scope of the present invention.
Referring to Fig. 2, portions of bandwidth transform method of the invention the following steps are included:
Step 201, DCI is received on time quantum n, the band of the activation portions of bandwidth instruction information instruction activation in DCI Wide portion transformation.
Activation portions of bandwidth instruction information can indicate that activation portions of bandwidth is current activation portions of bandwidth (i.e. activating belt Wide portion does not convert), it can also indicate that activation portions of bandwidth is that (i.e. activation portions of bandwidth is become new portions of bandwidth It changes).
Step 202, according to the activation portions of bandwidth instruction information (if activation portions of bandwidth is converted) received Determine the time quantum n+k of the portions of bandwidth of transformation activation.
Here k value is a nonnegative integer, is the parameter of the invention to be determined, the value of parameter k swashs according to instruction The type of DCI and the type of frequency spectrum of portions of bandwidth transformation living determine.For example, passing through the portions of bandwidth of DL DCI instruction activation The possible difference of k value of the k value of transformation and the portions of bandwidth transformation by UL DCI instruction activation, needs to be independently determined, in addition, at The k value of the portions of bandwidth transformation activated in k value and non-paired frequency spectrum to the portions of bandwidth transformation activated on frequency spectrum may be different, It needs to be independently determined, the method that will be described in determining k value in embodiments of the present invention.Alternatively, whether DL DCI instruction swashs The k value of the k value of portions of bandwidth transformation living and the portions of bandwidth transformation by UL DCI instruction activation, and it is directed to paired spectrum The k value of the portions of bandwidth transformation activated in the k value of the portions of bandwidth transformation of upper activation and non-paired frequency spectrum is all the same, for example, k etc. In 1.
The value of k can (such as k value is equal to 1) default by agreement, or it is (such as distinctive by UE by high-level signaling configuration High-level signaling configuration), or by physical layer signaling instruction (for example, using the bit indication in DCI, can be with the PDSCH of scheduling Or PUSCH uses identical k value).
Lower line activating BWP, the activation BWP for receiving PDCCH and PDSCH can be started to convert in same time slot, it can also To start to convert in different time-gap, for uplink activation BWP, the activation BWP for sending PUCCH and PUSCH can be in same time slot Start to convert, can also start to convert in different time-gap.
When for one DCI instruction transformation of pairs of uplink activation BWP and lower line activating BWP, uplink activation BWP is under Line activating BWP can start to convert in same time slot, can also start to convert in different time-gap.
Step 203, it is activated since time quantum n+k in downlink and receives PDCCH and/or PDSCH in portions of bandwidth, and/ Or PUCCH and/or PUSCH is sent in uplink activation portions of bandwidth.
The method of portions of bandwidth transformation of the invention can be applied to the channel radio that UE is configured at least two portions of bandwidth Letter system, and an at most uplink activation BWP and at most a lower line activating BWP simultaneously.Time quantum of the present invention can To be the chronomere as unit of time slot, OFDM symbol or OFDM symbol group etc..It is main to use in the specific embodiment of the invention Be to be illustrated in case where unit is scheduled by time slot (slot), the method for the present invention can simply expand to not with The case where time slot is scheduled for unit (for example, thread is as unit of OFDM symbol or OFDM symbol group).Lead to below The method for crossing several embodiments to illustrate activation portions of bandwidth transformation of the invention.
Embodiment one
In paired spectrum, (i.e. uplink and downlink transfer use different frequency ranges, such as frequency division pair for the present embodiment description Work (FDD, Frequency Division Multiplexing)) in the case of, UE is by receiving the activation of DL DCI indicating downlink The method of BWP transformation, that is, the DCI that UE receives indicating downlink activation BWP transformation in time slot n, are becoming since time slot n+k PDCCH or PDSCH is received in lower line activating BWP after changing.Under thering is following several method to determine that UE starts after the conversion below The time quantum of PDCCH or PDSCH is received in line activating BWP.
Method one:
If the DL DCI of indicating downlink activation BWP transformation scheduled the PDSCH of a time slot, and indicating downlink activates Instruction information indicating downlink activation BWP in the DCI of BWP transformation has occurred transformation and (namely descends line activating BWP from current transmission BWP where DCI has been transformed into an other downlink BWP), and PDSCH and dispatch its DCI in same time slot, then UE from The time slot starts to receive PDSCH on lower line activating BWP after the conversion, first after the time slot for receiving PDSCH Descending time slot starts to receive PDCCH on lower line activating BWP after the conversion.
As shown in Figure 3, it is assumed that UE is configured with two downlink BWP, respectively BWP-1 and BWP-2, and in time slot n, UE is in BWP- The DCI (DCI is transmitted by PDCCH) of indicating downlink activation BWP transformation is detected on 1, which scheduled on BWP-2 The PDSCH (indicate activation BWP from BWP-1 be transformed to BWP-2) of transmission, and PDSCH is also transmitted in time slot n, then UE is from time slot n Start to receive PDSCH on BWP-2, receives PDCCH on BWP-2 since time slot n+1.It can make to activate using this method The instruction of BWP transformation comes into force as early as possible.
Method two:
If the DL DCI of indicating downlink activation BWP transformation scheduled the PDSCH of a time slot, and indicating downlink activates Instruction information indicating downlink activation BWP in the DCI of BWP transformation has occurred transformation and (namely descends line activating BWP from current transmission BWP where DCI has been transformed into an other downlink BWP), and PDSCH and dispatch its DCI in different time-gap, then UE from Time slot where PDSCH starts to receive PDSCH on lower line activating BWP after the conversion, first after time slot where from PDSCH Descending time slot starts to receive PDCCH on lower line activating BWP after the conversion.
It is assumed that UE is configured with two downlink BWP, respectively BWP-1 and BWP-2, in time slot n, UE is in BWP- The DCI (DCI is transmitted by PDCCH) of indicating downlink activation BWP transformation is detected on 1, which scheduled in time slot n+L (L is a positive integer, for example, being configured by high-level signaling by the physical layer signaling instruction in DCI or being preset by agreement) The PDSCH transmitted on BWP-2, then UE receives PDSCH since time slot n+L on BWP-2, since time slot n+L+1 PDCCH is received on BWP-2, and PDCCH is received on BWP-1 in time slot n+1 to time slot n+L, UE.It can be avoided using this method more Secondary BWP converts bring resource consumption.
Method three:
If the DL DCI of indicating downlink activation BWP transformation scheduled the PDSCH of a time slot, and indicating downlink activates Instruction information indicating downlink activation BWP in the DCI of BWP transformation has occurred transformation and (namely descends line activating BWP from current transmission BWP where DCI has been transformed into an other downlink BWP), and PDSCH and dispatch its DCI in different time-gap, then UE from Time slot where PDSCH starts to receive PDSCH on lower line activating BWP after the conversion, and is converting the time slot where PDSCH PDCCH is received on lower line activating BWP afterwards.
As shown in fig. 5, it is assumed that UE is configured with two downlink BWP, respectively BWP-1 and BWP-2, in time slot n, UE is in BWP- The DCI (DCI is transmitted by PDCCH) of indicating downlink activation BWP transformation is detected on 1, which scheduled in time slot n+L (L is a positive integer, for example, being configured by high-level signaling by the physical layer signaling instruction in DCI or being preset by agreement) The PDSCH transmitted on BWP-2, then UE receives PDSCH since time slot n+L on BWP-2, and since time slot n+L PDCCH is received on BWP-2, and PDCCH is received on BWP-1 in time slot n+1 to time slot n+L-1, UE.
Method four:
If the DL DCI of indicating downlink activation BWP transformation scheduled the PDSCH of a time slot, and indicating downlink activates Instruction information indicating downlink activation BWP in the DCI of BWP transformation has occurred transformation and (namely descends line activating BWP from current transmission BWP where DCI has been transformed into an other downlink BWP), and PDSCH with dispatch its DCI in different time-gap or identical Time slot, UE from indicating downlink activation BWP convert DCI after m (m is a nonnegative integer, can be preset by agreement, or Person is configured by high-level signaling, starts to receive PDCCH on lower line activating BWP after the conversion for example, m is equal to 1) a descending time slot, PDSCH is received on lower line activating BWP the time slot where PDSCH after the conversion.
As shown in Figure 6, it is assumed that UE is configured with two downlink BWP, respectively BWP-1 and BWP-2, and in time slot n, UE is in BWP- The DCI (DCI is transmitted by PDCCH) of indicating downlink activation BWP transformation is detected on 1, which scheduled in time slot n+L (L is a positive integer, for example, being configured by high-level signaling by the physical layer signaling instruction in DCI or being preset by agreement) The PDSCH transmitted on BWP-2, then UE receives PDSCH since time slot n+L on BWP-2, from time slot n+1 (assuming that such as preceding institute 1) m stated, which is equal to, to be started to receive PDCCH on BWP-2.It can be connect on lower line activating BWP as early as possible after the conversion using this method PDCCH and PDSCH is received, it is likely that bringing resource consumption because of multiple BWP transformation.For example, it is assumed that UE is configured under two Row BWP, respectively BWP-1 and BWP-2, in time slot n, UE detects the DCI of indicating downlink activation BWP transformation on BWP-1 (DCI is transmitted by PDCCH), which scheduled the PDSCH transmitted on BWP-2 in time slot n+3, then UE exists in time slot n+3 PDSCH is received on BWP-2, UE detects PDCCH in time slot n+1 and time slot n+2 on BWP-2, it is assumed that UE is detected in time slot n-2 The PDSCH of DCI scheduling is transmitted on BWP-1 in time slot n+1, and UE detects the PDSCH of DCI scheduling in time slot n+2 in time slot n-1 It is transmitted on BWP-1, such UE receives PDCCH in time slot n on BWP-1, first transforms to BWP-2 in time slot n+1 and receives Then PDCCH transforms to BWP-1 in time slot n+1 again and receives PDSCH, first transform to BWP-2 in time slot n+2 and receive PDCCH, so BWP-1 is transformed to again in time slot n+2 afterwards and receives PDSCH, is transformed to BWP-2 in time slot n+3 and is received PDCCH, then in time slot n+3 PDSCH is received in BWP-2, as shown in Figure 7.The transformation occurred between multiple BWP-1 and BWP-2 is done so, using this method PDCCH and PDSCH can be received on lower line activating BWP as early as possible after the conversion, it is likely that multiple BWP is brought to convert, from And lead to additional resource consumption.
Method five
If the DL DCI of indicating downlink activation BWP transformation scheduled the PDSCH of a time slot, and indicating downlink activates Instruction information indicating downlink activation BWP in the DCI of BWP transformation has occurred transformation and (namely descends line activating BWP from current transmission BWP where DCI has been transformed into an other downlink BWP), then UE receives PDSCH on the activation BWP not converted, and (m is a nonnegative integer to m after the DCI that indicating downlink activates BWP to convert, can be default by agreement, or passes through high level Signal deployment, such as m are equal to 1) a descending time slot and start to receive PDCCH on lower line activating BWP after the conversion.
As shown in Figure 8, it is assumed that UE is configured with two downlink BWP, respectively BWP-1 and BWP-2, and in time slot n, UE is in BWP- The DCI (DCI is transmitted by PDCCH) of indicating downlink activation BWP transformation is detected on 1, which scheduled on time slot n The PDSCH of transmission, then UE receives PDSCH in time slot n on BWP-1, and from time slot n+p, (p is determined by agreement, or believed by high level Configuration is enabled, 1) starts to receive PDCCH on BWP-2 for example, p is equal to.The unit that this method is also applied for scheduling is not with time slot The case where for unit, if the unit of scheduling be not as unit of time slot, such as with 2 OFDM symbols for a unit, PDCCH With the PDCCH scheduling PDSCH same 2 OFDM symbols unit transmit, then without grace time as BWP convert when Between be spaced, therefore transmit PDSCH BWP with dispatch the BWP of PDCCH of the PDSCH it is identical, in another time quantum later PDCCH lower line activating BWP after the conversion on receive.
The case where dispatching the transmission of the PDSCH of at least two time slots for a PDCCH, five kinds of methods above still may be used To be applicable in, only the PDSCH of the scheduling becomes first in the PDSCH of at least two time slots of PDCCH scheduling A PDSCH.For example, corresponding to above method one, the feelings of the transmission of the PDSCH of at least two time slots are dispatched in a PDCCH It can become under condition as follows: if the DCI of indicating downlink activation BWP transformation scheduled the PDSCH of at least two time slots, and indicate Instruction information indicating downlink activation BWP in the DCI of lower line activating BWP transformation have occurred transformation (namely descend line activating BWP from BWP where current transmission DCI has been transformed into an other downlink BWP), and first time slot in described two time slots PDSCH and the DCI for dispatching it are then received on lower line activating BWP of the UE since the time slot after the conversion in same time slot PDSCH is connect on lower line activating BWP after the conversion first descending time slot after the time slot for receiving PDSCH Receive PDCCH.As shown in Figure 9, it is assumed that UE is configured with two downlink BWP, respectively BWP-1 and BWP-2, and in time slot n, UE is in BWP- The DCI (DCI is transmitted by PDCCH) of indicating downlink activation BWP transformation is detected on 1, which scheduled on BWP-2 The PDSCH of transmission, and PDSCH is transmitted in time slot n and time slot n+1, then UE is received on BWP-2 since time slot n and time slot n+1 PDSCH, UE receive PDCCH since time slot n+1 on BWP-2.This replacement is equally applicable to method two to method five.
Embodiment two
The present embodiment is described in paired spectrum, and UE indicates the side of uplink activation BWP transformation by receiving UL DCI Method, that is, UE receive the DCI of instruction uplink activation BWP transformation, the uplink since time slot n+k after the conversion in time slot n It activates and sends PUSCH or PUCCH in BWP.
If indicating that the UL DCI of uplink activation BWP transformation scheduled the PUSCH of a time slot, and the ULDCI refers to simultaneously Show that uplink activation BWP is converted, is then sent out on uplink activation BWP of the UE since scheduled PUSCH time slot after the conversion Send PUSCH and PUCCH.As shown in Figure 10, it is assumed that UE is configured with two uplink BWP, respectively BWP-1 and BWP-2, and UE is in time slot N has received the UL DCI (DCI is transmitted by PDCCH) of instruction uplink activation BWP transformation, the uplink activation before time slot n BWP is BWP-1, which scheduled the PUSCH sent on BWP-2, while indicating that uplink activation BWP becomes BWP- from BWP-1 2, and PUSCH time slot n+k send, then UE sends PUSCH since time slot n+k on BWP-2, since time slot n+k PUCCH is sent on BWP-2.Uplink activation BWP becomes BWP-2 in time slot n+k, the uplink of UE after the conversion since time slot n+k It activates and sends PUSCH and PUCCH on BWP-2.
Embodiment three
The present embodiment description non-paired frequency spectrum (i.e. identical frequency band not only carries out uplink, but also carries out downlink transfer, such as Time division duplex (TDD, Time Division Multiplexing)) in the case of, UE is by receiving the activation of DL DCI indicating downlink Method of the BWP and uplink activation BWP to transformation.Namely UE receives indicating downlink activation BWP and uplink activation in time slot n BWP receives PDCCH or PDSCH, from time slot n+ to the DCI of transformation since the lower line activating BWP time slot n+k1 after the conversion K2 starts to send PUCCH or PUSCH in uplink activation BWP after the conversion.The k1 and k2 can be identical, that is, from same Time quantum starts the transformation of lower the line activating BWP and uplink activation BWP of lower line activating BWP and uplink activation BWP centering;It is described K1 and k2 can be independently determined, and k1 and k2 can be identical at this time, can not also be identical, that is, since different time unit under The transformation of line activating BWP and lower the line activating BWP and uplink activation BWP of uplink activation BWP centering.The present embodiment provides following several Kind of method determines that UE starts to receive the time quantum of PDCCH or PDSCH in lower line activating BWP after the conversion and UE starts becoming The time quantum of PUCCH or PUSCH is sent in uplink activation BWP after changing.
Method one
UE activates BWP and uplink activation BWP to the method for transformation by receiving DL DCI indicating downlink, that is, UE when Gap n receives downlink of the indicating downlink activation BWP and uplink activation BWP to the DCI of transformation, since time slot n+k1 after the conversion Activate BWP in receive PDCCH or PDSCH, since the uplink activation BWP time slot n+k2 after the conversion send PUCCH or PUSCH.In this method, the k1 and k2 is identical, that is, lower line activating BWP and uplink activation since same time quantum The transformation of lower the line activating BWP and uplink activation BWP of BWP centering.Namely UE receives indicating downlink activation BWP in time slot n With uplink activation BWP to the DCI of transformation, received since the lower line activating BWP time slot n+k after the conversion PDCCH or PDSCH sends PUCCH or PUSCH since the uplink activation BWP time slot n+k after the conversion.
Wherein, the time quantum that UE starts to receive PDCCH or PDSCH in lower line activating BWP after the conversion can use Method one in embodiment one is to this five kinds of methods of method five.
And the time quantum that UE starts to send PUCCH or PUSCH in the uplink activation BWP to after uplink conversion is above-mentioned reality After applying the time quantum that UE in each method of example one starts to receive PDCCH or PDSCH in lower line activating BWP after the conversion The time quantum that first time uplink is sent, the first time uplink transmission can be PUCCH transmission, be also possible to PUSCH transmission.
For example, UE receives indicating downlink activation BWP and uplink activation BWP to the DCI of transformation in time slot n, the DCI is under Row BWP-1 is transmitted, and the indicating downlink activation BWP and uplink activation BWP in the DCI activates the instruction information indicating downlink of transformation BWP and uplink activation BWP scheduled the PDSCH, the PDSCH of time slot n transmission to converting, while in time slot n, the DCI Lower line activating BWP-2 transmission after the conversion, does not have uplink part in time slot n, and time slot n+1 is ascending time slot, then UE from Time slot n+1 starts to send PUCCH and/or PUSCH on uplink activation BWP-2 after the conversion (if the time slot needs to transmit PUCCH and/or PUSCH), as shown in figure 11.
Method two
UE activates BWP and uplink activation BWP to the method for transformation by receiving DL DCI indicating downlink, that is, UE when Gap n receives downlink of the indicating downlink activation BWP and uplink activation BWP to the DCI of transformation, since time slot n+k1 after the conversion Activate BWP in receive PDCCH or PDSCH, since the uplink activation BWP time slot n+k2 after the conversion send PUCCH or PUSCH.In this method, the k1 and k2 are independently determined, can be identical or not identical, for example, k1 is less than or equal to k2, also It is lower line activating BWP and the uplink activation BWP started in lower line activating BWP and BWP couples of uplink activation in different time unit Transformation.Namely UE receives indicating downlink activation BWP and uplink activation BWP to the DCI of transformation, from time slot n+k1 in time slot n Start to receive PDCCH or PDSCH, the uplink activation since time slot n+k2 after the conversion in lower line activating BWP after the conversion PUCCH or PUSCH is sent in BWP.The collision of uplink PUCCH and PUSCH resource can be reduced using this method.
Wherein, UE starts to receive in lower line activating BWP after the conversion in the time quantum n+k1 of PDCCH or PDSCH K1 can to method five, this five kinds of methods be obtained using the method one in embodiment one.
And UE starts to send in the uplink activation BWP to after uplink conversion in the time quantum n+k2 of PUCCH or PUSCH K2 can activate BWP and uplink activation BWP to dispatch the HARQ-ACK transmission of the DCI of transformation or the DCI according to indicating downlink PDSCH HARQ-ACK transmission time quantum (for example, indicating downlink activates BWP and uplink activation BWP to the DCI of transformation Transmitted in time slot n, the HARQ-ACK that the PDSCH of DCI scheduling is generated in n+m slot transmission, then the uplink activation BWP of UE when Gap n+m is converted, i.e. k2, which is equal to, m) to be determined, transformation takes place from the time quantum in the uplink activation BWP of UE, and UE is being converted Uplink activation BWP afterwards sends PUCCH and/or sends PUSCH.Alternatively, k2 can be default by agreement, matched by high-level signaling It sets, or is individually indicated by physical layer signaling, for example, k2 is equal to 4.Or it is true according to the scheduling timing relationship of uplink PUSCH It is fixed, for example, indicating downlink activates BWP and uplink activation BWP to transmit the DL DCI of transformation in time slot n, the scheduling timing of PUSCH Relationship is: whether, if the DCI of scheduling PUSCH is transmitted in time slot n, UE transmits PUSCH in time slot n+p, then no matter have in time slot n PUSCH scheduling, as long as UE receives indicating downlink activation BWP and uplink activation BWP to the DL DCI of transformation in time slot in time slot n N transmission, then uplink activation BWP is converted in time slot n+p, i.e. k2 is equal to p, since time slot n+p, the uplink of UE after the conversion It activates BWP to send PUCCH and/or sends PUSCH.
For example, UE receives indicating downlink activation BWP and uplink activation BWP to the DCI of transformation in time slot n, the DCI is under Row BWP-1 is transmitted, and the indicating downlink activation BWP and uplink activation BWP in the DCI activates the instruction information indicating downlink of transformation BWP and uplink activation BWP scheduled the PDSCH, the PDSCH of time slot n transmission to converting, while in time slot n, the DCI Lower line activating BWP-2 transmission after the conversion, according to HARQ timing relationship, the HARQ-ACK of the PDSCH is transmitted in time slot n+2, Time slot n+1 and time slot n+2 is ascending time slot, then UE time slot n+1 sent on the uplink activation BWP-1 not converted PUCCH and/ Or PUSCH (if the time slot needs to transmit PUCCH and/or PUSCH), uplink of the UE since time slot n+2 after the conversion It activates and sends PUCCH and/or PUSCH (if the time slot needs to transmit PUCCH and/or PUSCH) on BWP-2, such as Figure 12 It is shown.
It can avoid the collision of PUCCH and PUSCH resource as far as possible using the method.For example, UE is in lower line activating BWP-1, DCI is received in time slot n-1, which scheduled PDSCH, and PDSCH is transmitted in time slot n-1, and PDSCH is in lower line activating BWP-1 Transmission, the HARQ-ACK of the PDSCH of time slot n-1 time slot n+1 uplink activation BWP-1 transmission (because in time slot n-1, base It stands and does not know that uplink activation BWP will change, base station is provided according to the PUCCH that HARQ-ACK is distributed is transmitted on uplink activation BWP-1 Source, if according to the uplink activation BWP-2 of the variation for the DCI instruction transmitted in time slot n, time slot n+1 transmission time slot n-1's The HARQ-ACK that PDSCH is generated, then may (PUSCH passes through the uplink DCI of n-1 time slot with the PUSCH that dispatch in time slot n+1 Scheduling) generate collision), UE receives indicating downlink activation BWP and uplink activation BWP in time slot n and exists to the DCI of transformation, the DCI Downlink BWP-1 is transmitted, and the indicating downlink activation BWP and uplink activation BWP in the DCI swashs the instruction information indicating downlink of transformation BWP and uplink activation BWP living scheduled the PDSCH of time slot n transmission in time slot n, the DCI to converting, should The lower line activating BWP-2 transmission of PDSCH after the conversion, according to HARQ timing relationship, the HARQ-ACK of the PDSCH is in time slot n+2 Transmission, n+2 are ascending time slots, and UE sends PUCCH transmission time slot n's on time slot n+2 uplink activation BWP-2 after the conversion The HARQ-ACK that PDSCH is generated, as shown in figure 13.If not using this method, PUCCH and PUSCH will be as shown in figure 13 upper Row time slot n+1 collides in BWP-2.
Example IV
The present embodiment describes under non-paired spread spectrum scenarios, and UE activates BWP and uplink by receiving UL DCI indicating downlink Activate BWP to the method for transformation.Namely UE receives indicating downlink activation BWP and uplink activation BWP to transformation in time slot n DCI receives PDCCH or PDSCH since the lower line activating BWP time slot n+k1 after the conversion, is becoming since time slot n+k2 PUCCH or PUSCH is sent in uplink activation BWP after changing.The k1 and k2 can be identical, that is, opens from same time quantum The transformation of line activating BWP and lower the line activating BWP and uplink activation BWP of uplink activation BWP centering under beginning;The k1 and k2 is independent It determines, at this point, k1 and k2 can be identical or not identical, that is, the lower line activating BWP and upper since different time unit The transformation of lower the line activating BWP and uplink activation BWP of line activating BWP centering.The present embodiment provides several methods to determine that UE starts The time quantum of PDCCH or PDSCH is received in lower line activating BWP after the conversion and UE starts uplink activation after the conversion The time quantum of PUCCH or PUSCH is sent in BWP.
Method one
UE activates BWP and uplink activation BWP to the method for transformation by receiving UL DCI indicating downlink, that is, UE when Gap n receives downlink of the indicating downlink activation BWP and uplink activation BWP to the DCI of transformation, since time slot n+k1 after the conversion Activate BWP in receive PDCCH or PDSCH, since the uplink activation BWP time slot n+k2 after the conversion send PUCCH or PUSCH.In this method, the k1 and k2 is identical, that is, lower line activating BWP and uplink activation since same time quantum The transformation of lower the line activating BWP and uplink activation BWP of BWP centering.Namely UE receives indicating downlink activation BWP in time slot n With uplink activation BWP to the UL DCI of transformation, received since the lower line activating BWP time slot n+k after the conversion PDCCH or PDSCH sends PUCCH or PUSCH since the uplink activation BWP time slot n+k after the conversion.If indicating downlink activates BWP and uplink activation BWP scheduled PUSCH to the UL DCI of transformation, and PUSCH is transmitted in time slot m, and k value can be obtained according to m Out, such as k is equal to m.Alternatively, k value can be default by agreement, high-level signaling configuration or physical layer signaling instruction.
For example, UE activates BWP and uplink activation BWP to the method for transformation by receiving UL DCI indicating downlink, that is, UE receives indicating downlink activation BWP and uplink activation BWP to the UL DCI of transformation in time slot n-1, indicating downlink activate BWP and Uplink activation BWP from BWP-1 is transformed to BWP-2 to transformation, which scheduled the PUSCH sent in time slot n+1, UE from when Gap n+1 starts to receive PDCCH or PDSCH in lower line activating BWP after the conversion, UE after the conversion upper since time slot n+1 PUCCH or PUSCH is sent in line activating BWP, as shown in figure 14.
Method two
UE activates BWP and uplink activation BWP to the method for transformation by receiving UL DCI indicating downlink, that is, UE when Gap n receives downlink of the indicating downlink activation BWP and uplink activation BWP to the DCI of transformation, since time slot n+k1 after the conversion Activate BWP in receive PDCCH or PDSCH, since the uplink activation BWP time slot n+k2 after the conversion send PUCCH or PUSCH.In this method, the k1 and k2 are independently determined, can be identical or not identical, for example, k1 is less than or equal to k2.
K1 therein can determine that (for example, k1 is equal to 1, that is, UE is received under instruction in time slot n by the way that agreement is default Line activating BWP and uplink activation BWP is to the instruction information indicating downlink activation BWP and uplink activation BWP in the DCI of transformation to hair Transformation is given birth to, then UE receives PDCCH or PDSCH since the lower line activating BWP time slot n+1 after the conversion), or pass through height Layer signal deployment, and k2 therein can be determined using the method one in the present embodiment.
For example, UE activates BWP and uplink activation BWP to the method for transformation by receiving UL DCI indicating downlink, that is, UE receives indicating downlink activation BWP and uplink activation BWP to the ULDCI of transformation in time slot n, and indicating downlink activates BWP and upper Line activating BWP from BWP-1 is transformed to BWP-2 to transformation, which scheduled the PUSCH sent in time slot n+2, and UE is from time slot N+2 starts to send PUCCH or PUSCH, downlink of the UE since time slot n+1 after the conversion in uplink activation BWP after the conversion It activates and receives PDCCH or PDSCH in BWP, as shown in figure 15.
Embodiment five
In the case where polymerizeing (slot aggregation i.e. multi-slot scheduling) in time slot, for non-paired frequency The transformation of spectrum, lower line activating BWP becomes since first time slot of the PDSCH of the PDCCH that time slot the polymerize multiple time slots dispatched It changes.For example, a DL DCI of time slot n transmission scheduled time slot n+1, n+2, n+3, the PDSCH of n+4, and time slot n+1 transmission It is downlink BWP-2 from downlink BWP-1 variation since time slot n+2 that UL DCI indicating downlink, which activates the transformation of BWP, at this moment same The PDSCH transmission of PDCCH scheduling is not over, and lower line activating BWP is downlink from downlink BWP-1 variation since time slot n+5 BWP-2。
Alternatively, when in the case where time slot polymerization, for non-paired frequency spectrum, from multiple time slots using identical precoding In first time slot start to convert.For example, a DL DCI of time slot n transmission scheduled time slot n+1, n+2, n+3, n+4's PDSCH, time slot n+1 and n+2 use identical precoding, and time slot n+3 and n+4 use identical precoding, time slot n+1 transmission It is downlink BWP-2, at this moment, time slot n from downlink BWP-1 variation since time slot n+2 that UL DCI indicating downlink, which activates the transformation of BWP, Be not on+1 and n+2 using the PDSCH transmission of identical precoding, therefore, lower line activating BWP since time slot n+3 from Downlink BWP-1 variation is downlink BWP-2.
For the non-paired frequency spectrum in the case of time slot polymerization, the PDCCH that the transformation of uplink activation BWP polymerize from time slot is dispatched First time slot of PUSCH of multiple time slots start to convert.For example, a UL DCI of time slot n transmission scheduled time slot n+ The PUSCH of 1, n+2, n+3, n+4, and time slot n+1 transmission DLDCI instruction uplink activation BWP transformation since time slot n+2 from Uplink BWP-1 variation is uplink BWP-2, and at this moment the PUSCH transmission of the same PDCCH scheduling is not over, uplink activation BWP Changing since time slot n+5 from uplink BWP-1 is uplink BWP-2.
Alternatively, for the non-paired frequency spectrum in the case of time slot polymerization, from multiple time slots using identical precoding First time slot starts to convert.For example, a UL DCI of time slot n transmission scheduled time slot n+1, n+2, n+3, n+4's PUSCH, time slot n+1 and n+2 use identical precoding, and time slot n+3 and n+4 use identical precoding, time slot n+1 transmission DL DCI indicates that the transformation of uplink activation BWP is uplink BWP-2, at this moment, time slot n from uplink BWP-1 variation since time slot n+2 It is not on+1 and n+2 using the PUSCH transmission of identical precoding, uplink activation BWP is since time slot n+3 from uplink BWP-1 variation is uplink BWP-2.
Embodiment six
BWP-2 is transformed to by BWP-1 since time slot n+L in the BWP of time slot n, a DCI instruction activation, and dispatch PDSCH or PUSCH is in time slot n+L, and in time slot n+k, and the BWP of another DCI instruction activation is since time slot n+M by BWP- 1 is transformed to BWP-3, and the PDSCH or PUSCH that dispatch be in time slot n+M, k < L, M < L, at this point, a kind of mode are as follows: lower line activating BWP is transformed to BWP-3 by BWP-1 since time slot n+M, and UE receives PDSCH and/or PDCCH from BWP-3 since time slot n+M, Or PUSCH and/or PUCCH is sent from BWP-3, as shown in figure 16.
Corresponding to the above method, disclosed herein as well is a kind of user equipment, composed structure is as shown in figure 17, comprising: Receiving module, determining module and sending module, in which:
For receiving the receiving module of DCI on time quantum n, the activation portions of bandwidth instruction information in the DCI refers to Show the BWP transformation of activation;
The time quantum n+k's of BWP for being activated according to the determining transformation of activation portions of bandwidth instruction information received Determining module;The k is nonnegative integer, and the value of k is related with the type of the DCI;
For since time quantum n+k on lower line activating BWP receive PDCCH and/or PDSCH receiving module, and/ Or the sending module of PUCCH and/or PUSCH is sent on uplink activation BWP.
Preferably, the receiving module receives downlink DL DCI in time quantum n for paired spectrum, the DLDCI refers to Show lower line activating BWP transformation;Also, the receiving unit connects on the lower line activating BWP since time quantum n+k after the conversion Receive PDCCH and/or PDSCH.In this case, at least one of determining module in the following way, which determines, converts lower line activating The time quantum of BWP:
If the DL DCI scheduled PDSCH, and under the activation portions of bandwidth instruction information instruction in the DL DCI Line activating BWP is converted, and the PDSCH and the DL DCI be in same time quantum, then UE is from the time quantum Start to receive PDSCH on lower line activating BWP after the conversion, when from first downlink after the time quantum for receiving PDSCH Between unit start to receive PDCCH on lower line activating BWP after the conversion;
If the DL DCI scheduled PDSCH, and under the activation portions of bandwidth instruction information instruction in the DL DCI Line activating BWP is converted, and DL DCI described in the PDSCH is in different time unit, then where UE from the PDSCH when Between unit start to receive PDSCH on lower line activating BWP after the conversion, first after time quantum where from the PDSCH A downgoing time unit starts to receive PDCCH on lower line activating BWP after the conversion;
If the DL DCI scheduled PDSCH, and under the activation portions of bandwidth instruction information instruction in the DL DCI Line activating BWP is converted, and the PDSCH and the DL DCI be in different time unit, then where UE from the PDSCH Time quantum starts to receive PDSCH on lower line activating BWP after the conversion, and the time quantum where the PDSCH PDCCH is received on transformed lower line activating BWP;
If the DL DCI scheduled PDSCH, and the activation portions of bandwidth in the DL DCI shows information indicating downlink Activation BWP is converted, and the PDSCH and the DL DCI be in different time unit or same time unit, then UE It is connect on lower line activating BWP k-th of downgoing time unit after the time quantum where the DL DCI after the conversion PDCCH is received, and receives PDSCH on the lower line activating BWP the time quantum where the PDSCH after the conversion;Wherein, k For nonnegative integer, is preset by agreement or configured by high-level signaling;
If the DL DCI scheduled PDSCH, and under the activation portions of bandwidth instruction information instruction in the DL DCI Line activating BWP is converted, then UE receives PDSCH on the lower line activating BWP not converted, and when where the DL DCI Between k downgoing time unit after unit start to receive PDCCH on lower line activating BWP after the conversion;Wherein, k is non-negative Integer is preset by agreement or is configured by high-level signaling.
The case where transmission of the PDSCH of at least two time quantums is dispatched for a PDCCH, the DL DCI scheduling PDSCH are as follows: first PDSCH in the PDSCH of at least two time quantums of PDCCH scheduling.
Preferably, the receiving module receives uplink UL DCI in time quantum n for paired spectrum, the ULDCI refers to Show that uplink activation BWP is converted, and sends PUSCH and/or PUCCH on uplink activation BWP since time quantum n+k.It is this In the case of, the determining module determines the time quantum of transformation uplink activation BWP in the following way: if the UL DCI tune PUSCH is spent, and the activation portions of bandwidth instruction information instruction uplink activation BWP in the UL DCI is converted, then UE PUSCH and PUCCH is sent on uplink activation BWP the time quantum where scheduled PUSCH after the conversion.
Preferably, the receiving module receives DL DCI in time quantum n for non-paired frequency spectrum, the DL DCI refers to Show lower line activating BWP and uplink activation BWP to transformation, and since the lower line activating BWP time quantum n+k1 after the conversion PDCCH and/or PDSCH is received, the sending module is sent since the uplink activation BWP time quantum n+k2 after the conversion PUCCH and/or PUSCH;The k1 and k2 are identical or different.
At least one determining time quantum for converting lower line activating BWP of the determining module in the following way:
If the DL DCI scheduled PDSCH, and under the activation portions of bandwidth instruction information instruction in the DL DCI Line activating BWP and uplink activation BWP is to converting, and the PDSCH and DL DCI is in same time quantum, then UE PDSCH is received on lower line activating BWP since the same time quantum after the conversion, from the time quantum for receiving PDSCH First downgoing time unit later starts to receive PDCCH on lower line activating BWP after the conversion;
If the DL DCI scheduled PDSCH, and under the activation portions of bandwidth instruction information instruction in the DL DCI Line activating BWP and uplink activation BWP is to converting, and DL DCI described in the PDSCH is in different time unit, then UE from Time quantum where the PDSCH starts to receive PDSCH on lower line activating BWP after the conversion, from the time where the PDSCH First downgoing time unit after unit starts to receive PDCCH on lower line activating BWP after the conversion;
If the DL DCI scheduled PDSCH, and under the activation portions of bandwidth instruction information instruction in the DL DCI Line activating BWP and uplink activation BWP is to converting, and the PDSCH and DL DCI is in different time unit, then UE PDSCH is received on lower line activating BWP the time quantum where the PDSCH after the conversion;
If the PDSCH that the DL DCI scheduled, and the activation portions of bandwidth in the DL DCI would be shown under information instruction Line activating BWP and uplink activation BWP to converting, and the PDSCH and DL DCI in different time unit or Same time unit, the then lower line activating BWP k-th of downgoing time unit of the UE after the DL DCI after the conversion Upper reception PDCCH, and PDSCH is received on the lower line activating BWP the time quantum where the PDSCH after the conversion;Its In, k is nonnegative integer, is preset by agreement or is configured by high-level signaling;
If the DL DCI scheduled PDSCH, and under the activation portions of bandwidth instruction information instruction in the DL DCI Line activating BWP and uplink activation BWP are to converting, then UE receives PDSCH on the lower line activating BWP not converted, and K downgoing time unit after time quantum where the DL DCI starts to receive on lower line activating BWP after the conversion PDCCH;Wherein, k is nonnegative integer, is preset by agreement or is configured by high-level signaling;
When k1 and k2 is identical, the determining module is also used to receive since the lower line activating BWP UE after the conversion The time quantum that first time uplink after the time quantum of PDCCH or PDSCH is sent starts, uplink activation after the conversion PUCCH and/or PUSCH is sent in BWP;Wherein, it is that PUCCH is sent or PUSCH is sent that the first time uplink, which is sent,.
When k1 and k2 are independently determined, the determining module is also used to the HARQ-ACK transmission time list of the DL DCI The HARQ-ACK transmission time unit of the PDSCH of the first or described DL DCI scheduling is as the k2;Alternatively, pre- by agreement If the mode that high-level signaling configuration or physical layer signaling individually indicate determines k2;Or it is fixed according to the scheduling of uplink PUSCH When relationship determine the value of k2.
Preferably, the receiving module receives UL DCI in time quantum n for non-paired frequency spectrum, the UL DCI refers to Show lower line activating BWP and uplink activation BWP to transformation, and since the lower line activating BWP time quantum n+k1 after the conversion PDCCH and/or PDSCH is received, the sending module is sent since the uplink activation BWP time quantum n+k2 after the conversion PUCCH and/or PUSCH;The k1 and k2 are identical or different.
As the k1 and k2 equal, if the UL DCI scheduled PUSCH, and PUSCH is transmitted in time quantum m, Then the determining module is using the value of m as the value of k1 and k2, alternatively, high-level signaling configuration or physical layer letter default by agreement The mode of instruction is enabled to determine the value of k1 and k2.
When k1 and k2 are independently determined, the mode that the determining module is preset by agreement or high-level signaling configures is true Determine the value of k1;If the UL DCI scheduled PUSCH, and PUSCH is transmitted in time quantum m, then the determining module is by m's It is worth the value as k2, alternatively, default by agreement, the mode of high-level signaling configuration or physical layer signaling instruction determines the value of k2.
In the case where time slot polymerize, for non-paired frequency spectrum, the determining module in the following ways at least A kind of time quantum of determining transformation activation BWP:
Lower line activating BWP is since first time slot of the PDSCH of the PDCCH that time slot polymerize at least two time slots dispatched Transformation;
Lower line activating BWP is converted since first time slot at least two time slots using identical precoding;
Uplink activation BWP is since first time slot of the PUSCH of the PDCCH that time slot polymerize at least two time slots dispatched Transformation;
Uplink activation BWP is converted since first time slot at least two time slots using identical precoding.
Assuming that receiving module receives the first DCI in time quantum n, the first DCI indicates the BWP activated from the time Unit n+L starts to be transformed to BWP-2 by BWP-1, and dispatch PDSCH or PUSCH in time quantum n+L, and the time list First n+k, receiving module receive the 2nd DCI, and the BWP of the 2nd DCI instruction activation is since time quantum n+M by BWP-1 It is transformed to BWP-3, and the PDSCH or PUSCH that dispatch in time quantum n+M, k < L, M < L, then the determining module determines: under Line activating BWP is transformed to BWP-3 by BWP-1 since time quantum n+M, receiving module since time quantum n+M UE from BWP-3 receive PDSCH and/or PDCCH or sending module since time quantum n+M from BWP-3 send PUSCH and/or PUCCH。
Corresponding to the above method, disclosed herein as well is a kind of user equipment, composed structure is as shown in figure 18, comprising: Transceiver and processor;Wherein:
For receiving DCI on time quantum n, the activation portions of bandwidth instruction information in the DCI refers to the transceiver Show the BWP transformation of activation;
The processor is used to determine the time of the BWP of transformation activation according to the activation portions of bandwidth instruction information received Unit n+k;
The transceiver be used for since time quantum n+k on lower line activating BWP receive PDCCH and/or PDSCH, and/ Or PUCCH and/or PUSCH is sent on uplink activation BWP.
The foregoing is merely the preferred embodiments of the application, not to limit the application, all essences in the application Within mind and principle, any modification, equivalent substitution, improvement and etc. done be should be included within the scope of the application protection.

Claims (17)

1. a kind of portions of bandwidth transform method characterized by comprising
A, Downlink Control Information DCI is received on time quantum n, the activation portions of bandwidth instruction information instruction in the DCI swashs Portions of bandwidth BWP transformation living;
B, the time quantum n+k of the BWP of transformation activation is determined according to the activation portions of bandwidth instruction information received;
C, on the lower line activating BWP since time quantum n+k after the conversion receive physical downlink control channel PDCCH and/or Physical Uplink Control Channel PUCCH is sent on Physical Downlink Shared Channel PDSCH, and/or uplink activation BWP after the conversion And/or Physical Downlink Shared Channel PUSCH.
2. according to the method described in claim 1, it is characterized by:
It includes: to receive downlink DL DCI, institute in time quantum n that DCI is received on time quantum n for paired spectrum, in the A State the activation BWP transformation of DL DCI indicating downlink;
The C includes: that PDCCH and/or PDSCH is received on lower line activating BWP since time quantum n+k after the conversion.
3. according to the method described in claim 2, it is characterized in that, the B includes: at least one determination in the following way Convert the time quantum of lower line activating BWP:
If the DL DCI scheduled PDSCH, and the activation portions of bandwidth instruction information indicating downlink in the DL DCI swashs BWP living is converted, and the PDSCH and the DL DCI in same time quantum, then UE is since the time quantum PDSCH is received on lower line activating BWP after the conversion, first downgoing time list after the time quantum for receiving PDSCH Member starts to receive PDCCH on lower line activating BWP after the conversion;
If the DL DCI scheduled PDSCH, and the activation portions of bandwidth instruction information indicating downlink in the DL DCI swashs BWP living is converted, and DL DCI described in the PDSCH in different time unit, then the time is single where UE from the PDSCH Member starts to receive PDSCH on lower line activating BWP after the conversion, under first after time quantum where the PDSCH Row time quantum starts to receive PDCCH on lower line activating BWP after the conversion;
If the DL DCI scheduled PDSCH, and the activation portions of bandwidth instruction information indicating downlink in the DL DCI swashs BWP living is converted, and the PDSCH and DL DCI is in different time unit, then the time where UE from the PDSCH Unit starts to receive PDSCH on lower line activating BWP after the conversion, and is converting the time quantum where the PDSCH PDCCH is received on lower line activating BWP afterwards;
If the DL DCI scheduled PDSCH, and the activation portions of bandwidth in the DL DCI shows that information indicating downlink activates BWP is converted, and the PDSCH and the DL DCI be in different time unit or same time unit, then UE is from institute K-th of downgoing time unit after time quantum where stating DL DCI starts to receive on lower line activating BWP after the conversion PDCCH, and PDSCH is received on the lower line activating BWP the time quantum where the PDSCH after the conversion;Wherein, k is Nonnegative integer is preset by agreement or is configured by high-level signaling;
If the DL DCI scheduled PDSCH, and the activation portions of bandwidth instruction information indicating downlink in the DL DCI swashs BWP living is converted, then UE receives PDSCH on the lower line activating BWP not converted, and single in the time where the DL DCI K downgoing time unit after member starts to receive PDCCH on lower line activating BWP after the conversion;Wherein, k is nonnegative integer, It is preset by agreement or is configured by high-level signaling.
4. according to the method described in claim 3, it is characterized by:
The case where transmission of the PDSCH of at least two time quantums is dispatched for a PDCCH, the DL DCI scheduling PDSCH are as follows: first PDSCH in the PDSCH of at least two time quantums of PDCCH scheduling.
5. according to the method described in claim 1, it is characterized by:
It includes: to receive uplink UL DCI, institute in time quantum n that DCI is received on time quantum n for paired spectrum, in the A State UL DCI instruction uplink activation BWP transformation;
The C includes: to send PUSCH and/or PUCCH on uplink activation BWP since time quantum n+k.
6. according to the method described in claim 5, it is characterized in that, the B includes: to determine that transformation uplink swashs in the following way The time quantum of BWP living:
If the UL DCI scheduled PUSCH, and the activation portions of bandwidth instruction information instruction uplink in the UL DCI swashs BWP living is converted, then is sent out on the uplink activation BWP UE time quantum where scheduled PUSCH after the conversion Send PUSCH and PUCCH.
7. according to the method described in claim 1, it is characterized by:
Receiving DCI on time quantum n for non-paired frequency spectrum, in the A includes: to receive DL DCI in time quantum n, described DL DCI indicating downlink activates BWP and uplink activation BWP to transformation;
The C includes: the reception PDCCH and/or PDSCH since the lower line activating BWP time quantum n+k1 after the conversion, from Time quantum n+k2 starts to send PUCCH and/or PUSCH in uplink activation BWP after the conversion;The k1 and k2 is identical or not Together.
8. according to the method described in claim 7, it is characterized by:
The B includes: at least one determining time quantum for converting lower line activating BWP in the following way:
If the DL DCI scheduled PDSCH, and the activation portions of bandwidth instruction information indicating downlink in the DL DCI swashs BWP and uplink activation BWP living is to converting, and the PDSCH and DL DCI is in same time quantum, then UE is from institute It states same time quantum to start to receive PDSCH on lower line activating BWP after the conversion, after the time quantum for receiving PDSCH First downgoing time unit start to receive PDCCH on lower line activating BWP after the conversion;
If the DL DCI scheduled PDSCH, and the activation portions of bandwidth instruction information indicating downlink in the DL DCI swashs BWP and uplink activation BWP living is to converting, and DL DCI described in the PDSCH is in different time unit, then UE is from described Time quantum where PDSCH starts to receive PDSCH on lower line activating BWP after the conversion, from time quantum where the PDSCH First downgoing time unit later starts to receive PDCCH on lower line activating BWP after the conversion;
If the DL DCI scheduled PDSCH, and the activation portions of bandwidth instruction information indicating downlink in the DL DCI swashs BWP and uplink activation BWP living is to converting, and the PDSCH and DL DCI is in different time unit, then UE is from institute Time quantum where stating PDSCH starts to receive PDSCH on lower line activating BWP after the conversion;
If the PDSCH that the DL DCI scheduled, and the activation portions of bandwidth in the DL DCI would show that information indicating downlink swashs BWP and uplink activation BWP living is to converting, and the PDSCH and the DL DCI are in different time unit or identical Time quantum then connects on the lower line activating BWP k-th of downgoing time unit of the UE after the DL DCI after the conversion PDCCH is received, and receives PDSCH on the lower line activating BWP the time quantum where the PDSCH after the conversion;Wherein, k For nonnegative integer, is preset by agreement or configured by high-level signaling;
If the DL DCI scheduled PDSCH, and the activation portions of bandwidth instruction information indicating downlink in the DL DCI swashs BWP and uplink activation BWP living is to converting, then UE receives PDSCH on the lower line activating BWP not converted, and described K downgoing time unit after time quantum where DL DCI starts to receive PDCCH on lower line activating BWP after the conversion; Wherein, k is nonnegative integer, is preset by agreement or is configured by high-level signaling.
9. according to the method described in claim 8, it is characterized by:
When k1 and k2 is identical, the B further include: since the lower line activating BWP UE after the conversion receive PDCCH or The time quantum that first time uplink after the time quantum of PDSCH is sent starts, and sends out in the uplink activation BWP of UE after the conversion Send PUCCH and/or PUSCH;Wherein, it is that PUCCH is sent or PUSCH is sent that the first time uplink, which is sent,.
10. according to the method described in claim 8, it is characterized by:
The B further include: the HARQ-ACK transmission time unit of k2 in the time quantum n+k2 and DL DCI or The HARQ-ACK transmission time unit of the PDSCH of the DL DCI scheduling is identical;Alternatively, the k2 is default by agreement, pass through High-level signaling configuration, or individually indicated by physical layer signaling;Or the value of the k2 is according to the scheduling timing of uplink PUSCH Relationship determines.
11. according to the method described in claim 1, it is characterized by:
Receiving DCI on time quantum n for non-paired frequency spectrum, in the A includes: to receive UL DCI in time quantum n, described UL DCI indicating downlink activates BWP and uplink activation BWP to transformation;
The C includes: the reception PDCCH and/or PDSCH since the lower line activating BWP time quantum n+k1 after the conversion, from Time quantum n+k2 starts to send PUCCH and/or PUSCH in uplink activation BWP after the conversion;The k1 and k2 is identical or not Together.
12. according to the method for claim 11, it is characterised in that:
As the k1 and k2 equal, if the B includes: that the UL DCI scheduled PUSCH, and PUSCH is in time quantum m Transmission, then the value of k1 and k2 is equal to m, alternatively, k value is default by agreement, high-level signaling configuration or physical layer signaling instruction.
13. according to the method for claim 11, it is characterised in that:
The B includes: that the k1 is determined by the way that agreement is default, or is configured by high-level signaling;The k2 is in the following way Determine: if the UL DCI scheduled PUSCH, and PUSCH is transmitted in time quantum m, then the value of k2 is equal to m, alternatively, passing through Agreement is default, high-level signaling configuration or physical layer signaling instruction.
14. according to the described in any item methods of claim 7 to 13, which is characterized in that in the case where time slot polymerize, for Non-paired frequency spectrum determines the time quantum of transformation activation BWP at least one of in the following ways:
Lower line activating BWP becomes since first time slot of the PDSCH of the PDCCH that time slot polymerize at least two time slots dispatched It changes;
Lower line activating BWP is converted since first time slot at least two time slots using identical precoding;
Uplink activation BWP becomes since first time slot of the PUSCH of the PDCCH that time slot polymerize at least two time slots dispatched It changes;
Uplink activation BWP is converted since first time slot at least two time slots using identical precoding.
15. according to claim 1 to 14 described in any item methods, which is characterized in that this method further include:
BWP-2 is transformed to by BWP-1 since time quantum n+L in the BWP of time quantum n, the first DCI instruction activation, and is adjusted For the PDSCH or PUSCH of degree in time quantum n+L, and in time quantum n+k, the BWP of the 2nd DCI instruction activation is single from the time First n+M starts to be transformed to BWP-3 by BWP-1, and dispatch PDSCH or PUSCH in time quantum n+M, k < L, M < L, then under Line activating BWP is transformed to BWP-3 by BWP-1 since time quantum n+M, and UE is received from BWP-3 since time quantum n+M PDSCH and/or PDCCH, or PUSCH and/or PUCCH is sent from BWP-3 since time quantum n+M.
16. a kind of user equipment characterized by comprising
For receiving the receiving module of DCI on time quantum n, the activation portions of bandwidth instruction information instruction in the DCI swashs BWP transformation living;
For determining the determination of the time quantum n+k of the BWP of transformation activation according to the activation portions of bandwidth instruction information received Module;
For receiving PDCCH and/or PDSCH receiving module on lower line activating BWP since time quantum n+k, and/or upper The sending module of PUCCH and/or PUSCH is sent on line activating BWP.
17. a kind of user equipment characterized by comprising transceiver and processor;
For receiving DCI on time quantum n, the activation portions of bandwidth instruction information instruction in the DCI swashs the transceiver BWP transformation living;
The processor is used to determine the time quantum of the BWP of transformation activation according to the activation portions of bandwidth instruction information received n+k;
The transceiver be used for since time quantum n+k on lower line activating BWP receive PDCCH and/or PDSCH, and/or PUCCH and/or PUSCH is sent on uplink activation BWP.
CN201711140695.3A 2017-04-17 2017-11-16 A kind of portions of bandwidth transform method and user equipment Pending CN109803319A (en)

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Application Number Priority Date Filing Date Title
CN201711140695.3A CN109803319A (en) 2017-11-16 2017-11-16 A kind of portions of bandwidth transform method and user equipment
US16/605,707 US10887842B2 (en) 2017-04-17 2018-04-17 Method and device for uplink power control
KR1020217002805A KR102383385B1 (en) 2017-04-17 2018-04-17 Method and device for uplink power control
PCT/KR2018/004461 WO2018194352A1 (en) 2017-04-17 2018-04-17 Method and device for uplink power control
KR1020197030309A KR102210990B1 (en) 2017-04-17 2018-04-17 Method and apparatus for uplink power control
EP22185734.5A EP4096141A1 (en) 2017-04-17 2018-04-17 Method and device for uplink power control
EP22209784.2A EP4181450A1 (en) 2017-04-17 2018-04-17 Method and device for dynamic resource allocation
EP18787590.1A EP3596984B1 (en) 2017-04-17 2018-04-17 Method and device for uplink power control
US17/140,591 US11864122B2 (en) 2017-04-17 2021-01-04 Method and device for uplink power control
US17/988,348 US12010629B2 (en) 2017-04-17 2022-11-16 Method and device for uplink power control

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