CN109152022B

CN109152022B - Timing relation indicating and receiving method, network side equipment and terminal

Info

Publication number: CN109152022B
Application number: CN201710459467.6A
Authority: CN
Inventors: 董静; 侯雪颖; 夏亮; 柯颋
Original assignee: China Mobile Communications Group Co Ltd; China Mobile Communications Ltd Research Institute
Current assignee: China Mobile Communications Group Co Ltd; China Mobile Communications Ltd Research Institute
Priority date: 2017-06-16
Filing date: 2017-06-16
Publication date: 2023-05-09
Anticipated expiration: 2037-06-16
Also published as: CN109152022A

Abstract

The embodiment of the invention provides a timing relation indicating and receiving method, network side equipment and a terminal, which are used for sending indicating information of a timing relation set configured for each downlink transmission unit to the terminal through high-level signaling, wherein the timing relation set comprises at least one timing relation. The scheme of the invention provides an uplink scheduling time sequence and a hybrid automatic repeat request (HARQ) time sequence indication mode in a 5G semi-static configuration uplink and downlink subframe scene, so that the UE can clearly determine the time sequence from a downlink transmission unit to a corresponding uplink transmission unit.

Description

Timing relation indicating and receiving method, network side equipment and terminal

Technical Field

The present invention relates to the field of communications technologies, and in particular, to a timing relationship indicating and receiving method, a network side device, and a terminal.

Background

In a radio frame of the TD-LTE system, 7 different configurations are arranged for an uplink subframe, a downlink subframe and a special subframe, the direction of the uplink subframe and the downlink subframe of each configuration is fixed, and the TD-LTE system can meet the requirements of different uplink and downlink traffic ratios by adjusting the ratio of the uplink subframe to the downlink subframe. In addition, the minimum time length between PDSCH (physical downlink shared channel) to ACK/NACK feedback in LTE is fixed to 4ms, so feedback timing of PDSCH to PUCCH (physical uplink control channel) can be determined according to different TDD uplink and downlink subframe configurations.

In the design of 5G NR, because of the variety of service types, the fixed configuration in the LTE system cannot meet the requirements of various services, and the fully dynamic configuration flexibility is high, but huge signaling overhead is caused. Therefore, a semi-static configuration of a part of uplink and downlink transmission directions for a period of time (such as an initial access phase) is required, so as to ensure the reliability of data transmission. In addition, in the design of NR, different UEs have different minimum HARQ (hybrid automatic repeat request) processing capabilities, and the time interval from the downlink transmission unit to the uplink transmission unit is variable, so that the HARQ timing in NR needs to be indicated to the terminal, and a specific indication needs to be designed.

In the LTE system, a feedback subframe is defined when the uplink and downlink subframes transmit the traffic channel, and if PDSCH transmission is detected on the downlink subframe n-k, the UE replies ACK/NACK on the uplink subframe n, where the timing is defined based on the determined uplink and downlink subframe ratio and the determined UE processing capability. For the case of semi-static TDD configuration, the terminal cannot determine the timing of the downlink transmission unit to the corresponding uplink transmission unit.

Disclosure of Invention

The invention provides an indication and receiving method of a timing relationship, network side equipment and a terminal. And a time sequence indication mode under a 5G semi-static configuration TDD uplink and downlink subframe scene is provided, so that the UE can clearly determine the time sequence from a downlink transmission unit to a corresponding uplink transmission unit.

In order to solve the technical problems, the embodiment of the invention provides the following scheme:

a method of indicating a timing relationship, comprising:

and sending indication information of a timing relation set configured for each downlink transmission unit to the terminal through high-level signaling, wherein the timing relation set comprises at least one timing relation.

When the timing relation set comprises a timing relation, the indication information is used for indicating the terminal to determine the corresponding uplink transmission unit according to the timing relation and the transmission time of the downlink transmission unit.

When the timing relation set comprises Y timing relations, the indication information is used for indicating, the terminal selects the timing relation of the terminal from the Y timing relations according to the indication signaling in the received downlink control information, and determines a corresponding uplink transmission unit according to the selected timing relation and the transmission time of the downlink transmission unit; or alternatively

When the timing relation set comprises Y timing relations, the Y timing relations comprise a default timing relation, the indication information is used for indicating, and when the terminal does not detect the indication signaling of the timing relation indicated by the terminal according to the downlink control information which is dynamically received, the terminal determines a corresponding uplink transmission unit according to the default timing relation and the transmission time of the downlink transmission unit; or alternatively

When the timing relation set comprises Y timing relations, the Y timing relations comprise a default timing relation, the indication information is used for indicating, and when the terminal detects that the default timing relation is adopted for self indication according to the downlink control information received dynamically, the terminal determines a corresponding uplink transmission unit according to the default timing relation and the transmission time of the downlink transmission unit;

wherein Y is a positive integer greater than 1.

Wherein the timing relationship represents: and the time sequence from the downlink transmission unit to the uplink transmission unit corresponding to the downlink transmission unit.

The time sequence from the downlink transmission unit to the uplink transmission unit corresponding to the downlink transmission unit comprises:

the scheduling time sequence from a downlink transmission unit where uplink authorization information is located to an uplink transmission unit for transmitting uplink data, wherein the uplink data is uplink data corresponding to the uplink authorization information; or alternatively

And a feedback time sequence from the downlink transmission unit for transmitting the downlink data to the uplink transmission unit where the ACK/NACK corresponding to the downlink data is located.

Wherein the timing sequence comprises:

the uplink transmission unit includes position information of a primary transmission granularity, and the primary transmission granularity includes: minislots, slots, or subframes; or alternatively

The uplink transmission unit includes position information of two-stage transmission granularity, where the two-stage transmission granularity includes: a subframe in which the uplink transmission unit is located, and an uplink time slot in the subframe; or alternatively

The uplink transmission unit includes position information of three-level transmission granularity, the three-level transmission granularity includes: the radio frame, subframe and uplink time slot where the uplink transmission unit is located.

Wherein, the location information of the primary transmission granularity includes:

first location information, the first location information comprising: the number of time slots is a first fixed value with a size between M and N configured for each downlink time slot, and the first fixed value is the number of time slots from the downlink time slot to the interval between the uplink time slots corresponding to the downlink time slot; or alternatively

Second location information, the second location information comprising: a slot number, for each downlink slot, the number of slots of the uplink slot spaced from its corresponding downlink slot being configured to be a second fixed value between M and N; or alternatively

Third location information, the third location information comprising: bit values, one bit value corresponding to one uplink time slot; for each downlink time slot, configuring an available uplink resource set, wherein the uplink resource set comprises X uplink time slots for use

The bit indicates the uplink time slot corresponding to each downlink time slot, and the position information of the uplink time slot corresponding to each bit value is represented by the sequence number of the uplink time slot;

and M is the minimum number of time slots from the downlink time slot to the uplink time slot corresponding to the downlink time slot, and N is the maximum number of time slots from the downlink time slot to the uplink time slot corresponding to the downlink time slot.

The location information of the two-stage transmission granularity comprises:

fourth location information, the fourth location information comprising: for each downlink time slot, the position information represented by K1 and K2 is in units of subframes, where K1 represents a subframe offset value of a subframe in which an uplink time slot corresponding to the downlink time slot is located relative to a subframe in which the downlink time slot is located, and K2 represents a time slot number of the uplink time slot in the subframe in which the uplink time slot is located; or alternatively

Fifth location information, the fifth location information including: for each downlink time slot, the position information represented by K3 and K4 takes a subframe as a unit, wherein K3 represents a subframe number of a subframe where an uplink time slot corresponding to the downlink time slot is located, and K4 represents a time slot sequence number of the uplink time slot in the subframe where the uplink time slot is located; or alternatively

Sixth location information, the sixth location information comprising: bit values, one bit value corresponding to one uplink time slot; for each downlink time slot, configuring an available uplink resource set, wherein the uplink resource set comprises X uplink time slots for use

The number of bits indicates the uplink time slot corresponding to each downlink time slot, the position information of the uplink time slot corresponding to each bit value is represented by K5 and K6, K5 represents the subframe number of the subframe where the uplink time slot is located, and K6 represents the time slot number of the uplink time slot in the subframe where the uplink time slot is located.

Wherein, the position information of the three-level transmission granularity comprises:

seventh location information, the seventh location information including: for each downlink time slot, taking a radio frame as a unit, wherein K7 represents an offset value of a radio frame where an uplink time slot corresponding to the downlink time slot is located relative to the radio frame where the downlink time slot is located, K8 represents a subframe number where the uplink time slot is located, and K9 represents a time slot number of the uplink time slot in the subframe where the uplink time slot is located; or alternatively

Eighth location information, the eighth location information comprising: for each downlink time slot, taking a wireless frame as a unit, wherein K10 represents a frame number of a wireless frame where an uplink time slot corresponding to the downlink time slot is located, K11 represents a frame number of a subframe where the uplink time slot is located, and K12 represents a time slot number of the uplink time slot in the subframe where the uplink time slot is located; or alternatively

Ninth location information, the ninth location information including: a bit value, one bit value corresponding to one uplink time slot; for each downlink time slot, configuring an available uplink resource set, wherein the uplink resource set comprises X uplink time slots for use

The number of bits indicates the uplink time slot corresponding to each downlink time slot, the position information of the uplink time slot corresponding to each bit value is represented by K13, K14 and K15, K13 represents the frame number of the radio frame where the uplink time slot corresponding to the downlink time slot is located, K14 represents the subframe number of the subframe where the uplink time slot is located, and K15 represents the time slot number of the uplink time slot in the subframe where the uplink time slot is located.

The embodiment of the invention also provides a receiving method of the timing relationship, which comprises the following steps:

the receiving network side equipment sends indication information of a timing relation set configured for each downlink transmission unit, wherein the timing relation set comprises at least one timing relation.

The step of receiving the indication information of the timing relation set configured for each downlink transmission unit by the network side equipment includes:

and sending the indication information of the timing relation set configured for each downlink transmission unit by the network side equipment through the high-layer signaling.

The method for receiving the timing relationship further comprises the following steps:

and determining a corresponding uplink transmission unit according to the timing relation and the transmission time of the downlink transmission unit.

Wherein the set of timing relationships comprises: one timing relationship or Y timing relationships;

When the timing relation set includes Y timing relations, the step of determining the corresponding uplink transmission unit according to the timing relation and the transmission time of the downlink transmission unit includes:

selecting a timing relationship of the user from Y timing relationships according to the indication signaling in the dynamically received downlink control information, and determining a corresponding uplink transmission unit according to the selected timing relationship and the transmission time of the downlink transmission unit; or alternatively

When the timing relation set includes Y timing relations, the Y timing relations include a default timing relation, and the step of determining the corresponding uplink transmission unit according to the timing relation and the transmission time of the downlink transmission unit includes:

determining a corresponding uplink transmission unit according to the default timing relation and the transmission time of the downlink transmission unit when the indication signaling of the timing relation indicated by the user is not detected according to the dynamically received downlink control information; or alternatively

According to the dynamically received downlink control information, when the default timing relation is detected to be adopted for self indication, determining a corresponding uplink transmission unit according to the default timing relation and the transmission time of the downlink transmission unit; wherein Y is a positive integer greater than 1.

The embodiment of the invention also provides network side equipment, which comprises:

and a transceiver for transmitting to the terminal indication information of a set of timing relationships configured for each downlink transmission unit, the set of timing relationships including at least one timing relationship.

The embodiment of the invention also provides network side equipment, which comprises: a processor, a memory storing a computer program which, when executed by the processor, performs the method as described above.

Embodiments of the present invention also provide a computer-readable storage medium comprising instructions which, when executed on a computer, cause the computer to perform a method as described above.

The embodiment of the invention also provides a terminal, which comprises:

and the transceiver is used for receiving the indication information of the timing relation set configured for each downlink transmission unit sent by the network side equipment, wherein the timing relation set comprises at least one timing relation.

The embodiment of the invention also provides a terminal, which comprises: a processor, a memory storing a computer program which, when executed by the processor, performs the method as described above.

The scheme of the invention at least comprises the following beneficial effects:

according to the scheme, the indication information of the timing relation set configured for each downlink transmission unit is sent to the terminal, and the timing relation set comprises at least one timing relation. So that the UE can determine the timing sequence from the downlink transmission unit to the corresponding uplink transmission unit.

Drawings

FIG. 1 is a first timing diagram of a timing relationship characterized on a time slot basis;

FIG. 2 is a second timing diagram of a timing relationship characterized on a time slot basis;

FIG. 3 is a third timing diagram of a timing relationship characterized on a time slot basis;

FIG. 4 is a first timing diagram of a timing relationship characterized based on the position of a subframe and a slot in the subframe;

FIG. 5 is a second timing diagram of a timing relationship characterized based on the position of a subframe and a slot in the subframe;

FIG. 6 is a third timing diagram of a timing relationship characterized based on the position of a subframe and a slot in the subframe;

FIG. 7 is a first timing diagram of a timing relationship characterized based on the location of radio frames, subframes, and slots in a subframe;

FIG. 8 is a second timing diagram of a timing relationship characterized based on the position of a radio frame, a subframe, and a slot in a subframe;

FIG. 9 is a third timing diagram of a timing relationship characterized based on the position of a radio frame, a subframe, and a slot in a subframe;

fig. 10 is a flowchart of a method for receiving indication information of a terminal receiving timing relationship.

Detailed Description

Exemplary embodiments of the present disclosure will be described in more detail below with reference to the accompanying drawings. While exemplary embodiments of the present disclosure are shown in the drawings, it should be understood that the present disclosure may be embodied in various forms and should not be limited to the embodiments set forth herein. Rather, these embodiments are provided so that this disclosure will be thorough and complete, and will fully convey the scope of the disclosure to those skilled in the art.

In the embodiment of the invention, under the condition of determining the semi-static TDD configuration, the HARQ time sequence indication mode from the downlink transmission unit to the corresponding uplink transmission unit is determined. The indication mode may be a higher layer signaling configuration, and specifically may be radio resource control RRC signaling.

The embodiment of the invention provides a method for indicating a timing relationship, which comprises the following steps:

and step 11, sending indication information of a timing relation set configured for each downlink transmission unit to the terminal through high-level signaling, wherein the timing relation set comprises at least one timing relation.

In this embodiment of the present invention, the indication information of the set of timing relationships configured for each downlink transmission unit may be transmitted to the terminal through RRC signaling.

In a specific implementation example of the embodiment of the present invention, when the timing relation set includes a timing relation, the indication information is used to instruct the terminal to determine a corresponding uplink transmission unit according to the timing relation and the transmission time of the downlink transmission unit. The unique timing may be configured by the RRC based on load balancing principles.

The configuration of the timing relationship may be related to terminal capabilities and terminals of different terminal capabilities may configure different timing relationships.

In a specific implementation example of the embodiment of the present invention, the set of timing relationships may further include Y timing relationships, where Y is a positive integer greater than 1; the indication information is used for indicating: the terminal selects a timing relationship of the terminal from Y timing relationships according to the indication signaling in the dynamically received downlink control information, and determines a corresponding uplink transmission unit according to the selected timing relationship and the transmission time of the downlink transmission unit; the configuration of the timing relationship may be related to terminal capabilities and terminals of different terminal capabilities may configure different timing relationships.

In a specific implementation example of the embodiment of the present invention, when the timing relationship set further includes Y timing relationships, the Y timing relationships include a default timing relationship, where Y is a positive integer greater than 1; the indication information is used for indicating: and the terminal determines a corresponding uplink transmission unit according to the default timing relation and the transmission time of the downlink transmission unit when the terminal does not detect the indication signaling of the timing relation indicated by the terminal according to the downlink control information received dynamically.

In a specific implementation example of the embodiment of the present invention, when the set of timing relationships includes Y timing relationships, the Y timing relationships include a default timing relationship, where Y is a positive integer greater than 1; the indication information is used for indicating, when the terminal detects that a default timing relation is adopted for self indication according to the dynamically received downlink control information, the corresponding uplink transmission unit is determined according to the default timing relation and the transmission time of the downlink transmission unit.

In the above embodiment of the present invention, the timing relationship indicates the timing from the downlink transmission unit to the uplink transmission unit corresponding to the downlink transmission unit.

Specifically, the time sequence from the downlink transmission unit to the uplink transmission unit corresponding to the downlink transmission unit includes:

1) The scheduling time sequence from a downlink transmission unit where uplink authorization information is located to an uplink transmission unit for transmitting uplink data, wherein the uplink data is uplink data corresponding to the uplink authorization information; or alternatively

2) And a feedback time sequence from the downlink transmission unit for transmitting the downlink data to the uplink transmission unit where the ACK/NACK corresponding to the downlink data is located.

In this embodiment of the invention, the timing may include:

First case: the uplink transmission unit includes position information of a primary transmission granularity, and the primary transmission granularity includes: minislots, slots, or subframes; that is, the timing relationship is characterized on a time slot, minislot, or subframe basis.

Second case: the uplink transmission unit includes position information of two-stage transmission granularity, where the two-stage transmission granularity includes: a subframe in which the uplink transmission unit is located, and an uplink time slot in the subframe; that is, the timing relationship is characterized based on the subframe and the position of the slot in the subframe.

Third case: the uplink transmission unit includes position information of three-level transmission granularity, the three-level transmission granularity includes: the wireless frame, sub-frame and uplink time slot where the uplink transmission unit is located; that is, the timing relationship is characterized based on the radio frame, the subframe, and the position of the slot in the subframe, which is applicable to scheduling or feedback timing across radio frames.

In the first case, the transmission unit includes a first level of transmission granularity, and, taking a slot as an example, the location information may include:

a) First location information, the first location information comprising: the number of time slots is a first fixed value with a size between M and N configured for each downlink time slot, and the first fixed value is the number of time slots from the downlink time slot to the interval between the uplink time slots corresponding to the downlink time slot;

Wherein, M is the minimum number of time slots from a downlink time slot to an uplink time slot corresponding to the downlink time slot, and N is the maximum number of time slots from a downlink time slot to an uplink time slot corresponding to the downlink time slot.

When m=4 and n=8, using the time slot as a transmission unit and using the feedback time sequence of downlink data transmitted to ACK/NACK as the HARQ timing relationship, configuring a unique ACK feedback time sequence value for each downlink time slot by RRC; for non-downlink timeslots, such as guard intervals (GP), blank timeslots or reserved timeslots, etc., the RRC default state may be set, i.e. no signaling is configured.

Assuming that the time interval from PDSCH (physical downlink shared channel) to ACK/NACK of the UE is M slots at minimum, (the value of M is related to terminal capability) and N slots at maximum, for each downlink slot, the number of slots from the downlink slot to the corresponding uplink slot is a fixed value with a size between M and N configured by RRC signaling.

As shown in fig. 1:

for #0 downlink time slot, the position of the corresponding uplink time slot is the position of 7 time slots offset relative to the #0 downlink time slot, namely #7 uplink time slot; downlink data is transmitted in a #0 downlink time slot, and ACK/NACK corresponding to the downlink data is transmitted in a #7 uplink time slot;

For the #1 downlink time slot, the position of the corresponding uplink time slot is the position where 6 time slots are offset relative to the #7 downlink time slot, namely the #7 uplink time slot; downlink data is transmitted in a #1 downlink time slot, and ACK/NACK corresponding to the downlink data is transmitted in a #7 uplink time slot;

for the #2 downlink time slot, the position of the corresponding uplink time slot is the position where 6 time slots are offset relative to the #2 downlink time slot, namely the #8 uplink time slot; downlink data is transmitted in a #2 downlink time slot, and ACK/NACK corresponding to the downlink data is transmitted in a #8 uplink time slot;

for the #3 downlink time slot, the position of the corresponding uplink time slot is the position where the 5 time slots are located, namely the #8 uplink time slot, offset relative to the #3 downlink time slot; and transmitting downlink data in a #3 downlink time slot, and transmitting the ACK/NACK corresponding to the downlink data in a #8 uplink time slot.

For the #4 downlink time slot, the position of the corresponding uplink time slot is the position where the 5 time slots are located, namely the #9 uplink time slot, offset relative to the #4 downlink time slot; and transmitting downlink data in a #4 downlink time slot, and transmitting the ACK/NACK corresponding to the downlink data in a #9 uplink time slot.

For the #5 downlink time slot, the position of the corresponding uplink time slot is the position where the #5 downlink time slot is offset by 4 time slots, namely the #9 uplink time slot; and transmitting downlink data in a #5 downlink time slot, and transmitting the ACK/NACK corresponding to the downlink data in a #9 uplink time slot.

Wherein #1-9 are slot numbers of slots, respectively, which can be used to indicate the positions of slots.

In the first case, the location information of the primary transmission granularity may include:

b) Second location information, the second location information comprising: a slot number, for each downlink slot, the number of slots of the uplink slot spaced from its corresponding downlink slot being configured to be a second fixed value between M and N; and M is the minimum number of time slots from the downlink time slot to the uplink time slot corresponding to the downlink time slot, and N is the maximum number of time slots from the downlink time slot to the uplink time slot corresponding to the downlink time slot.

When m=4 and n=8, the time slot is used as a transmission unit, and the feedback time sequence from downlink data to ACK/NACK is used as the HARQ timing relation, then the RRC configures a unique uplink ACK feedback time slot for each downlink time slot; for non-downlink timeslots, such as guard intervals (GP), blank timeslots or reserved timeslots, etc., the RRC default state may be set, i.e. no signaling is configured.

Assuming that the PDSCH to ACK/NACK time interval of the UE is a minimum of M slots, (the value of M is related to the terminal capability) and a maximum of N slots, for each downlink slot, the distance between its corresponding uplink slot and the downlink slot is configured to be a fixed value between M and N.

As shown in fig. 2:

for #0 downlink time slot, the position of the corresponding uplink time slot is configured #7 uplink time slot; downlink data is transmitted in a #0 downlink time slot, and ACK/NACK corresponding to the downlink data is transmitted in a #7 uplink time slot;

for the #1 downlink time slot, the position of the corresponding uplink time slot is configured #7 uplink time slot; downlink data is transmitted in a #1 downlink time slot, and ACK/NACK corresponding to the downlink data is transmitted in a #7 uplink time slot;

for the #2 downlink time slot, the position of the corresponding uplink time slot is the configured #8 uplink time slot; downlink data is transmitted in a #2 downlink time slot, and ACK/NACK corresponding to the downlink data is transmitted in a #8 uplink time slot;

for the #3 downlink time slot, the position of the corresponding uplink time slot is configured #8 uplink time slot; and transmitting downlink data in a #3 downlink time slot, and transmitting the ACK/NACK corresponding to the downlink data in a #8 uplink time slot.

For the #4 downlink time slot, the position of the corresponding uplink time slot is the configured #9 uplink time slot; and transmitting downlink data in a #4 downlink time slot, and transmitting the ACK/NACK corresponding to the downlink data in a #9 uplink time slot.

For the #5 downlink time slot, the position of the corresponding uplink time slot is the configured #9 uplink time slot; and transmitting downlink data in a #5 downlink time slot, and transmitting the ACK/NACK corresponding to the downlink data in a #9 uplink time slot.

c) Third location information, the third location information comprising: bit values, one bit value corresponding to one uplink time slot; for each downlink time slot, configuring an available uplink resource set, wherein the uplink resource set comprises X uplink time slots for use

The bit indicates the uplink time slot corresponding to each downlink time slot, and the position information of the uplink time slot corresponding to each bit value is represented by the sequence number of the uplink time slot; and M is the minimum number of time slots from the downlink time slot to the uplink time slot corresponding to the downlink time slot, and N is the maximum number of time slots from the downlink time slot to the uplink time slot corresponding to the downlink time slot.

When m=4 and n=8, the timeslot is used as a transmission unit, and the feedback time sequence from downlink data to ACK/NACK is used as the HARQ timing relationship, then the RRC configures an available uplink resource set for each downlink timeslot, where the content in the uplink resource set is an available uplink timeslot meeting the terminal capability; assuming that the number of uplink resources in the set is X, then

The bit RRC signaling configures a unique uplink ACK feedback time slot for each downlink time slot; for non-downlink timeslots, such as guard intervals (GP), blank timeslots or reserved timeslots, etc., the RRC default state may be set, i.e. no signaling is configured.

In this embodiment, x=3, then

The position of the upstream slot is represented by 2 bits, which may be 00,0, for example1 or 10;

as shown in fig. 3:

for #0 downlink time slot, the position of the corresponding uplink time slot is represented by bit 00, and the bit 00 corresponds to #7 uplink time slot; downlink data is transmitted in a #0 downlink time slot, and ACK/NACK corresponding to the downlink data is transmitted in a #7 uplink time slot;

For the #1 downlink time slot, the position of the corresponding uplink time slot is represented by a bit 00, and the bit 00 corresponds to the #7 uplink time slot; downlink data is transmitted in a #1 downlink time slot, and ACK/NACK corresponding to the downlink data is transmitted in a #7 uplink time slot;

for the #2 downlink time slot, the position of the corresponding uplink time slot is represented by a bit 01, and the bit 01 corresponds to the #8 uplink time slot; downlink data is transmitted in a #2 downlink time slot, and ACK/NACK corresponding to the downlink data is transmitted in a #8 uplink time slot;

for the #3 downlink time slot, the position of the corresponding uplink time slot is represented by a bit 01, and the bit 01 corresponds to the #8 uplink time slot; and transmitting downlink data in a #3 downlink time slot, and transmitting the ACK/NACK corresponding to the downlink data in a #8 uplink time slot.

For the #4 downlink timeslot, the position of the corresponding uplink timeslot is represented by bit 10, where the bit 10 corresponds to the #9 uplink timeslot; and transmitting downlink data in a #4 downlink time slot, and transmitting the ACK/NACK corresponding to the downlink data in a #9 uplink time slot.

For the #5 downlink time slot, the position of the corresponding uplink time slot is represented by a bit 10, and the bit 10 corresponds to the #9 uplink time slot; and transmitting downlink data in a #5 downlink time slot, and transmitting the ACK/NACK corresponding to the downlink data in a #9 uplink time slot.

In the second case described above, the location information of the secondary transmission granularity may include:

a) Fourth location information, the fourth location information comprising: for each downlink time slot, the position information represented by K1 and K2 is in units of subframes, where K1 represents a subframe offset value of a subframe in which an uplink time slot corresponding to the downlink time slot is located relative to a subframe in which the downlink time slot is located, and K2 represents a time slot number of the uplink time slot in the subframe in which the uplink time slot is located;

and taking the time slot as a transmission unit and taking the feedback time sequence of downlink data transmitted to the ACK/NACK as the HARQ timing relation, configuring a unique ACK feedback time sequence value for each downlink time slot by RRC, wherein the feedback time sequence value comprises: the offset value K1 of the ACK/NACK feedback time slot relative to the subframe where the downlink time slot is located and the offset value K2 of the ACK/NACK feedback time slot in the subframe are taken as a subframe unit. For non-downlink timeslots, such as guard intervals, blank timeslots or reserved timeslots, the RRC may be set to a default state, i.e. without any signalling being configured.

Specifically, when m=4, n=8, as shown in fig. 4:

for the #0 downlink timeslot of Subframe n1, the corresponding uplink timeslot is the Subframe offset of Subframe n2 where the uplink timeslot is located and Subframe offset of Subframe n1 where the #0 downlink timeslot is located, i.e. offset 3, k1=3; and the offset value of the ACK/NACK feedback time slot (i.e., uplink time slot) in Subframe n2, that is, the time slot sequence number of the uplink time slot in Subframe 2, and for #0 downlink time slot configuration Subframe n2 #1 uplink time slot of Subframe n1 corresponds to the uplink time slot, k2=1; downlink data is transmitted in a #0 downlink timeslot of Subframe n1 (as shown in the figure, n1=0), and ACK/NACK corresponding to the downlink data is transmitted in a #1 uplink timeslot of Subframe n 2;

for the #1 downlink timeslot of the Subframe n1, the corresponding uplink timeslot is the Subframe offset of the Subframe n2 where the uplink timeslot is located and the Subframe offset of the Subframe n1 where the #1 downlink timeslot is located, namely offset 3, k1=3; and the offset value of the ACK/NACK feedback time slot (i.e., uplink time slot) in Subframe n2, that is, the time slot sequence number of the uplink time slot in Subframe n+1, corresponds to the #1 uplink time slot of Subframe n2 configured for Subframe n1#1 downlink time slot, k2=1; downlink data is transmitted in a #1 downlink timeslot of Subframe n1 (as shown in the figure, n1=0), and ACK/NACK corresponding to the downlink data is transmitted in a #1 uplink timeslot of Subframe n 2;

For #0 downlink timeslot of Subframe n1+1, the corresponding uplink timeslot is located in a Subframe offset, i.e. offset 3, k1=3, between Subframe n2+1 where uplink timeslot is located and Subframe n1+1 where #0 downlink timeslot of Subframe n1+1 is located; and the offset value of the ACK/NACK feedback time slot (i.e., uplink time slot) in Subframe n2+1, that is, the time slot sequence number of the uplink time slot in Subframe n2+1, and for #0 downlink time slot of Subframe n1+1, #0 uplink time slot of Subframe n2+1 is configured to correspond to the offset value, k2=0; downlink data is transmitted in a #0 downlink time slot of Subframe n1+1, and ACK/NACK corresponding to the downlink data is transmitted in a #0 uplink time slot of Subframe n2 +1;

for the #1 downlink timeslot of Subframe n1+1, the corresponding uplink timeslot is located in the position of the Subframe offset, namely offset 3, k1=3, between Subframe n2+1 where the uplink timeslot is located and Subframe n1+1 where Subframe n1 of Subframe n1+1 is located; and the offset value of the ACK/NACK feedback time slot (i.e. uplink time slot) in Subframe n2+1, that is, the time slot sequence number of the uplink time slot in Subframe n2+1, and for #1 downlink time slot configuration Subframe n2+1 #0 uplink time slot of Subframe n1+1 corresponds to the offset value, k2=0; downlink data is transmitted in a #1 downlink time slot of Subframe n1+1, and ACK/NACK corresponding to the downlink data is transmitted in a #0 uplink time slot of Subframe n2 +1;

For #0 downlink timeslot of Subframe n1+2, the corresponding uplink timeslot is located in a Subframe offset, i.e. offset 2, k1=2, between Subframe n2+1 where uplink timeslot is located and Subframe n1+1 where #0 downlink timeslot of Subframe n1+1 is located; and the offset value of the ACK/NACK feedback time slot (i.e. uplink time slot) in Subframe n2+1, that is, the time slot sequence number of the uplink time slot in Subframe n2+1, and for #0 downlink time slot of Subframe n1+2, #1 uplink time slot of Subframe n2+1 is configured to correspond to the offset value, k2=1; downlink data is transmitted in a #0 downlink time slot of Subframe n1+2, and ACK/NACK corresponding to the downlink data is transmitted in a #1 uplink time slot of Subframe n2 +1;

for the #1 downlink slot of Subframe n1+2, the position of the corresponding uplink slot is, subframe offset, i.e., offset 2, k1=2, of Subframe n2+1 where the uplink time slot is located and Subframe n1+2 where Subframe #1 of Subframe n1+2 is located; and the offset value of the ACK/NACK feedback time slot (i.e. uplink time slot) in Subframe n2+1, that is, the time slot sequence number of the uplink time slot in Subframe n2+1, and for #1 downlink time slot configuration Subframe n2+1 #1 uplink time slot of Subframe n1+2 corresponds to the offset value, k2=1; downlink data is transmitted in a #0 downlink slot of Subframe n1+2, and ACK/NACK corresponding to the downlink data is transmitted in a #1 uplink slot of Subframe n2+ 1.

b) Fifth location information, the fifth location information including: for each downlink time slot, the position information represented by K3 and K4 takes a subframe as a unit, wherein K3 represents a subframe number of a subframe where an uplink time slot corresponding to the downlink time slot is located, and K4 represents a time slot sequence number of the uplink time slot in the subframe where the uplink time slot is located;

for example, with a time slot as a transmission unit and a feedback timing sequence of downlink data transmitted to ACK/NACK as the HARQ timing relationship, a unique uplink ACK feedback time slot is configured by RRC for each downlink time slot, where the feedback time slot includes: a subframe K3 where the ACK/NACK feedback time slot is located, and an offset value K4 in the subframe; for non-downlink timeslots, such as guard intervals, blank timeslots or reserved timeslots, etc., the RRC default state may be set.

Specifically, when m=4, n=8, as shown in fig. 5:

for Subframe n1, subframe number #0 of downlink timeslot (n1=0), where the corresponding uplink timeslot is located, subframe number of Subframe n2 where the uplink timeslot is located is n2, k3=n2 (for example, n2=3); and the offset value of the ACK/NACK feedback time slot (i.e., uplink time slot) in the Subframe, that is, the time slot sequence number of the uplink time slot in Subframe n2, and for #0 downlink time slot of Subframe n1, #1 uplink time slot of Subframe n2 is configured to correspond to the offset value, k4=1; downlink data is transmitted in a #0 downlink time slot of Subframe n1, and ACK/NACK corresponding to the downlink data is transmitted in a #1 uplink time slot of Subframe n 2;

for the #1 downlink timeslot of Subframe n1, the corresponding uplink timeslot is located in a Subframe number n2, k3=n2 (for example, n2=3) of Subframe n2 where the uplink timeslot is located; and the offset value of the ACK/NACK feedback time slot (i.e., uplink time slot) in Subframe n2, that is, the time slot sequence number of the uplink time slot in Subframe n2, and for Subframe n1 #1 downlink time slot configuration Subframe n2 #1 uplink time slot corresponds to the uplink time slot, k4=1; downlink data is transmitted in a #1 downlink time slot of Subframe n1, and ACK/NACK corresponding to the downlink data is transmitted in a #1 uplink time slot of Subframe n 2;

For the #0 downlink timeslot of Subframe n1+1, the corresponding uplink timeslot is located in a Subframe number n2+1 of Subframe n2+1 where the uplink timeslot is located, (for example, n2+1=4), k3=4; and the offset value of the ACK/NACK feedback time slot (i.e., uplink time slot) in Subframe n2+1, that is, the time slot number of the uplink time slot in Subframe n2+1, and for #0 downlink time slot configuration Subframe n2+1 of Subframe n1+1, #0 uplink time slot corresponds thereto, k4=0; downlink data is transmitted in a #0 downlink time slot of Subframe n1+1, and ACK/NACK corresponding to the downlink data is transmitted in a #0 uplink time slot of Subframe n2 +1;

for the #1 downlink timeslot of Subframe n1+1, the corresponding uplink timeslot is located in a Subframe number n2+1 of Subframe n2+1 where the uplink timeslot is located, (for example, n2+1=4), k3=4; and the offset value of the ACK/NACK feedback time slot (i.e., uplink time slot) in Subframe n2+1, that is, the time slot number of the uplink time slot in Subframe n2+1, and for #1 downlink time slot configuration Subframe n2+1 #0 uplink time slot of Subframe n1+1 corresponds to the offset value, k4=0; downlink data is transmitted in a #1 downlink time slot of Subframe n1+1, and ACK/NACK corresponding to the downlink data is transmitted in a #0 uplink time slot of Subframe n2 +1;

For the #0 downlink timeslot of Subframe n1+2, the corresponding uplink timeslot is located in a Subframe number n2+1, (for example, n2+1=4) of Subframe n2+1 where the uplink timeslot is located, k3=4; and the offset value of the ACK/NACK feedback time slot (i.e. uplink time slot) in Subframe n2+1, that is, the time slot sequence number of the uplink time slot in Subframe n2+1, and for #0 downlink time slot of Subframe n1+2, #1 uplink time slot of Subframe n2+1 is configured to correspond to the offset value, k4=1; downlink data is transmitted in a #0 downlink time slot of Subframe n1+1, and ACK/NACK corresponding to the downlink data is transmitted in a #1 uplink time slot of Subframe n2 +1;

for the #1 downlink timeslot of Subframe n1+2, the corresponding uplink timeslot is located in a Subframe number n2+1, (for example, n2+1=4) of Subframe n2+1 where the uplink timeslot is located, k3=4; and the offset value of the ACK/NACK feedback time slot (i.e. uplink time slot) in Subframe n2+1, that is, the time slot sequence number of the uplink time slot in Subframe n2+1, and for #1 downlink time slot configuration Subframe n2+1 #1 uplink time slot of Subframe n1+2 corresponds to the offset value, k4=1; downlink data is transmitted in a #1 downlink slot of Subframe n1+1, and ACK/NACK corresponding to the downlink data is transmitted in a #1 uplink slot of Subframe n2+ 1.

c) Sixth location information, the sixth location information comprising: bit values, one bit value corresponding to one uplink time slot; for each downlink time slot, configuring an available uplink resource set, wherein the uplink resource set comprises X uplink time slots for use

Ratio of number ofThe position information of the uplink time slot corresponding to each bit value is represented by K5 and K6, K5 represents the subframe number of the subframe where the uplink time slot is located, and K6 represents the time slot serial number of the uplink time slot in the subframe where the uplink time slot is located.

For example, with a time slot as a transmission unit and a feedback timing sequence of downlink data transmitted to ACK/NACK as the HARQ timing relationship, the RRC configures an available uplink resource set for each downlink time slot, where the contents in the set are: a subframe K5 where the ACK/NACK feedback time slot is located, and an offset value K6 in the subframe; assuming that the number of uplink resources in the set is X, then

The bit RRC signaling configures a unique uplink ACK feedback time slot for each downlink time slot; for non-downlink timeslots, such as guard intervals, blank timeslots or reserved timeslots, etc., the RRC default state may be set.

In this embodiment, x=3, then

The position of the upstream time slot is represented by 2 bits, which may be 00,01 or 10, for example;

specifically, when m=4, n=8, as shown in fig. 6:

for #0 downlink timeslot (n1=0) of Subframe n1, the position of the corresponding uplink timeslot is represented by bit 00, the uplink timeslot corresponding to bit 00 is represented by frame number K5 of Subframe n2 and timeslot number K6 of the uplink timeslot in Subframe n2, k5=3, k6=1, and represents #1 uplink timeslot of Subframe 3, downlink data is transmitted in #0 downlink timeslot of Subframe n1, and ACK/NACK corresponding to downlink data is transmitted in #1 uplink timeslot of Subframe n 2;

for #1 downlink timeslot of Subframe n1, the position of the corresponding uplink timeslot is indicated by bit 00, the uplink timeslot corresponding to the bit 00 is indicated by frame number K5 of Subframe n2 and timeslot number K6 of the uplink timeslot in Subframe n2, k5=3, k6=1, indicating #1 uplink timeslot of Subframe 3, downlink data is transmitted in #1 downlink timeslot of Subframe n1, and ACK/NACK corresponding to the downlink data is transmitted in #1 uplink timeslot of Subframe 3;

For #0 downlink timeslot of Subframe n1+1, the position of the corresponding uplink timeslot is represented by bit 01, the uplink timeslot corresponding to bit 01 is represented by frame number K5 of Subframe n2+1 and timeslot number K6 of the uplink timeslot in Subframe n2+1, k5=4, k6=0, and represents #0 uplink timeslot of Subframe 4, downlink data is transmitted in #2 downlink timeslot of Subframe n1+1, and ACK/NACK corresponding to downlink data is transmitted in #0 uplink timeslot of Subframe n 2+1;

for #1 downlink timeslot of Subframe n1+1, the position of the corresponding uplink timeslot is represented by bit 01, the frame number K5 of the uplink timeslot Subframe n2+1 corresponding to the bit 01 and the timeslot number K6 of the uplink timeslot in Subframe n2+1 are represented by k5=4, k6=0, and represent #0 uplink timeslot of Subframe 4, downlink data is transmitted in #1 downlink timeslot of Subframe n1+1, and ACK/NACK corresponding to the downlink data is transmitted in #0 uplink timeslot of Subframe 4;

for #0 downlink timeslot of Subframe n1+2, the position of the corresponding uplink timeslot is indicated by bit 10, the uplink timeslot corresponding to bit 10 is indicated by frame number K5 of Subframe n2+1 and timeslot number K6 of uplink timeslot in Subframe n2+1, k5=4, k6=1, indicating #1 uplink timeslot of Subframe 4, downlink data is transmitted in #0 downlink timeslot of Subframe n1+2, and ACK/NACK corresponding to downlink data is transmitted in #1 uplink timeslot of Subframe n 2+1;

For #1 downlink timeslot of Subframe n1+2, the position of the corresponding uplink timeslot is indicated by bit 10, the frame number K5 of the uplink timeslot Subframe n2+1 corresponding to the bit 10 and the timeslot number K6 of the uplink timeslot in Subframe n2+1 are indicated, k5=4, k6=1, and represent #1 uplink timeslot of Subframe 4, downlink data is transmitted in #1 downlink timeslot of Subframe n1+1, and ACK/NACK corresponding to the downlink data is transmitted in #1 uplink timeslot of Subframe 4.

In the third case, the location information of the three-level transmission granularity includes:

a) Seventh location information, the seventh location information including: for each downlink time slot, taking a radio frame as a unit, wherein K7 represents an offset value of a radio frame where an uplink time slot corresponding to the downlink time slot is located relative to the radio frame where the downlink time slot is located, K8 represents a subframe number where the uplink time slot is located, and K9 represents a time slot number of the uplink time slot in the subframe where the uplink time slot is located;

and using time slots as the downlink transmission units and using feedback time sequences of downlink data transmitted to ACK/NACK as the HARQ timing relationship, configuring a unique ACK feedback time sequence value for each downlink time slot by RRC, wherein the feedback time sequence value comprises: the offset value K7 of the ACK/NACK feedback time slot relative to the radio frame of the downlink time slot is taken as a unit of the radio frame, the sub-frame offset value K8 of the ACK/NACK feedback time slot in the radio frame, and the offset value K9 of the ACK/NACK feedback time slot in the sub-frame. For non-downlink timeslots, such as guard intervals, blank timeslots or reserved timeslots, etc., the RRC default state may be set.

Specifically, when m=4, n=8, as shown in fig. 7:

for #0 downlink timeslot of Subframe n1 of radio frame m, the position of the corresponding uplink timeslot is that radio frame m+1 where the uplink timeslot is located, the Subframe where the uplink timeslot is located is Subframe n2, and the offset between the radio frame m+1 where the uplink timeslot is located and the radio frame m where #0 downlink timeslot of Subframe n1 of radio frame m is located is 1, that is, k7=1; subframe number of Subframe n2 is 0, k8=0; offset of uplink time slot in Subframe n 2; configuring #1 uplink slot of Subframe n2 of Subframe m+1 for #0 downlink slot of Subframe n1 of radio frame m, where k9=1; downlink data is transmitted in a #0 downlink time slot of Subframe n1 of the radio frame m, and ACK/NACK corresponding to the downlink data is transmitted in a #0 uplink time slot of Subframe n2 of the radio frame m+1;

for #1 downlink timeslot of Subframe n1 of radio frame m, the position of the corresponding uplink timeslot is that radio frame m+1 where the uplink timeslot is located, the Subframe where the uplink timeslot is located is Subframe n2, and the offset between the radio frame m+1 where the uplink timeslot is located and the radio frame m where #0 downlink timeslot of Subframe n1 of radio frame m is located is 1, that is, k7=1; subframe number of Subframe n2 is 0, k8=0; offset of uplink time slot in Subframe n 2; configuring #1 uplink slot of Subframe n2 of Subframe m+1 for #1 downlink slot of Subframe n1 of radio frame m, where k9=1; downlink data is transmitted in a #1 downlink time slot of Subframe n1 of the radio frame m, and ACK/NACK corresponding to the downlink data is transmitted in a #0 uplink time slot of Subframe n2 of the radio frame m+1;

For #0 downlink timeslot of Subframe n1+1 of radio frame m, the corresponding uplink timeslot is located in the Subframe where Subframe n2+1 is located, where offset between the Subframe where Subframe n1+1 of radio frame m is located and the Subframe where #0 downlink timeslot of Subframe n1+1 of radio frame m is located is 1, that is, k7=1; the method comprises the steps of carrying out a first treatment on the surface of the Subframe number of Subframe n2+1 is 1, k8=1; offset of uplink time slot in Subframe n2+1; configuring a #0 uplink slot of Subframe n2+1 of the radio frame m+1 for a #0 downlink slot of Subframe n1+1 of the radio frame m, and k9=0; downlink data is transmitted in a #0 downlink time slot of a Subframe n1+1 of the radio frame m, and ACK/NACK corresponding to the downlink data is transmitted in a #0 uplink time slot of a Subframe n2+1 of the radio frame m+1;

for #1 downlink timeslot of Subframe n1+1 of radio frame m, the corresponding uplink timeslot is located in the Subframe where Subframe m+1 is located where Subframe n2+1 is located, and the offset between the Subframe where Subframe n+1 of radio frame m is located and the Subframe where #1 downlink timeslot of Subframe n1+1 of radio frame m is located is 1, i.e. k7=1; the method comprises the steps of carrying out a first treatment on the surface of the Subframe number of Subframe n2+1 is 1, k8=1; offset of uplink time slot in Subframe n2+1; configuring a #0 uplink slot of Subframe n2+1 of the radio frame m+1 for a #0 downlink slot of Subframe n1+1 of the radio frame m, and k9=0; downlink data is transmitted in a #1 downlink time slot of a Subframe n1+1 of the radio frame m, and ACK/NACK corresponding to the downlink data is transmitted in a #0 uplink time slot of a Subframe n2+1 of the radio frame m+1; .

For #0 downlink timeslot of Subframe n1+2 of radio frame m, the corresponding uplink timeslot is in the position of Subframe m+1 where the uplink timeslot is located, subframe where Subframe n2+1 is located, and offset between the radio frame m+1 where the uplink timeslot is located and the radio frame m where #0 downlink timeslot of Subframe n1+2 of radio frame m is located is 1, that is, k7=1; subframe number of Subframe n2+1 is 1, k8=1; offset of uplink time slot in Subframe n2+1; configuring a #1 uplink slot of Subframe n2+1 of the radio frame m+1 for a #1 downlink slot of Subframe n1+1 of the radio frame m, with k9=1; downlink data is transmitted in a #1 downlink time slot of a Subframe n1+2 of the radio frame m, and ACK/NACK corresponding to the downlink data is transmitted in a #1 uplink time slot of a Subframe n2+1 of the radio frame m+1;

for #1 downlink timeslot of Subframe n1+2 of radio frame m, the corresponding uplink timeslot is in the position of Subframe m+1 where the uplink timeslot is located, subframe where Subframe n2+1 is located, and offset between the radio frame m+1 where the uplink timeslot is located and the radio frame m where #1 downlink timeslot of Subframe n1+2 of radio frame m is located is 1, that is, k7=1; the method comprises the steps of carrying out a first treatment on the surface of the Subframe number of Subframe n2+1 is 1, k8=1; offset of uplink time slot in Subframe n2+1; configuring a #1 uplink slot of Subframe n2+2 of radio frame m+1 for a #0 downlink slot of Subframe n1+2 of radio frame m, k9=1; downlink data is transmitted in the #1 downlink time slot of Subframe n1+2 of the radio frame m, and ACK/NACK corresponding to the downlink data is transmitted in the #1 uplink time slot of Subframe n2+1 of the radio frame m+1.

b) Eighth location information, the eighth location information comprising: for each downlink time slot, taking a wireless frame as a unit, wherein K10 represents a frame number of a wireless frame where an uplink time slot corresponding to the downlink time slot is located, K11 represents a frame number of a subframe where the uplink time slot is located, and K12 represents a time slot number of the uplink time slot in the subframe where the uplink time slot is located;

and taking the time slot as a transmission unit and taking the feedback time sequence of downlink data transmitted to the ACK/NACK as the HARQ timing relation, configuring a unique uplink ACK feedback time slot for each downlink time slot by RRC (radio resource control), wherein the feedback time slot comprises: a radio frame K10 where the ACK/NACK feedback time slot is located, a subframe offset value K11 of the ACK/NACK feedback time slot in the radio frame, and an offset value K12 of the ACK/NACK feedback time slot in the subframe; for non-downlink timeslots, such as guard intervals, blank timeslots or reserved timeslots, etc., the RRC default state may be set.

Specifically, when m=4, n=8, as shown in fig. 8:

for #0 downlink timeslot of Subframe n1 of radio frame m, the position of the corresponding uplink timeslot is radio frame m+1 where the uplink timeslot is located, where the frame number of the radio frame where the uplink timeslot is located is 9, that is k10=9; the Subframe number of Subframe n2 where the uplink time slot is located is 0, k11=0; offset of uplink time slot in Subframe n2, i.e. instant sequence number is 1; for a #0 downlink slot of Subframe n1 of radio frame m, a #1 uplink slot of Subframe n2 of radio frame m+1 is configured to correspond to the #0 downlink slot, k12=1; downlink data is transmitted in a #0 downlink time slot of a Subframe n1 of the radio frame m, and ACK/NACK corresponding to the downlink data is transmitted in a #1 uplink time slot of a Subframe n2 of the radio frame m+1;

for the #1 downlink timeslot of Subframe n1 of the radio frame m, the position of the corresponding uplink timeslot is the radio frame m+1 where the uplink timeslot is located, where the frame number of the radio frame where the uplink timeslot is located is 9, that is k10=9; the Subframe number of Subframe n2 where the uplink time slot is located is 0, k11=0; offset of uplink time slot in Subframe n2, i.e. instant sequence number is 1; for the #1 downlink slot of Subframe n1 of radio frame m, the #1 uplink slot of Subframe n2 of radio frame m+1 is configured to correspond to the #1 downlink slot, k12=1; downlink data is transmitted in a #1 downlink time slot of a Subframe n1 of the radio frame m, and ACK/NACK corresponding to the downlink data is transmitted in a #1 uplink time slot of a Subframe n2 of the radio frame m+1;

For #0 downlink timeslot of Subframe n1+1 of radio frame m, the position of its corresponding uplink timeslot is that of the radio frame m+1 where the uplink timeslot is located, where the frame number of the radio frame where the uplink timeslot is located is 9, that is k10=9; the Subframe number of Subframe n2+1 where the uplink time slot is located is 1, k11=1; offset of uplink time slot in Subframe n2+1, i.e. instant sequence number is 0; configuring a #0 uplink time slot of Subframe n2+1 of the radio frame m+1 for a #0 downlink time slot of Subframe n1+1 of the radio frame m, wherein k12=0; downlink data is transmitted in #0 downlink time slot of Subframe n1+1 of the radio frame m, and ACK/NACK corresponding to the downlink data is transmitted in #0 uplink time slot of Subframe n2+1 of the radio frame m +1;

for #1 downlink timeslot of Subframe n1+1 of radio frame m, the position of its corresponding uplink timeslot is that of the radio frame m+1 where the uplink timeslot is located, where the frame number of the radio frame where the uplink timeslot is located is 9, that is k10=9; the Subframe number of Subframe n2+1 where the uplink time slot is located is 1, k11=1; offset of uplink time slot in Subframe n2+1, i.e. instant sequence number is 0; configuring a #1 downlink time slot of a Subframe n1+1 of the radio frame m, and a #0 uplink time slot of a Subframe n2+1 of the radio frame m+1 corresponding to the #1 downlink time slot, k12=0; downlink data is transmitted in a #1 downlink time slot of a Subframe n1+1 of the radio frame m, and ACK/NACK corresponding to the downlink data is transmitted in a #0 uplink time slot of a Subframe n2+1 of the radio frame m+1;

For #0 downlink timeslot of Subframe n1+2 of radio frame m, the position of the corresponding uplink timeslot is that of the radio frame m+1 where the uplink timeslot is located, and the frame number of the radio frame where the uplink timeslot is located is 9, that is k10=9; the subframe number of subframe n2+1 where the uplink time slot is located is 1, k11=1; offset of uplink time slot in Subframe n2+1, i.e. instant sequence number is 1; configuring a #1 uplink time slot of Subframe n2+1 of a radio frame m+1 for a #0 downlink time slot of Subframe n1+2 of the radio frame m, wherein k12=1; downlink data is transmitted in #0 downlink time slot of Subframe n1+2 of the radio frame m, and ACK/NACK corresponding to the downlink data is transmitted in #1 uplink time slot of Subframe n2+1 of the radio frame m+1;

for #1 downlink timeslot of Subframe n1+2 of radio frame m, the position of its corresponding uplink timeslot is that of the radio frame m+1 where the uplink timeslot is located, where the frame number of the radio frame where the uplink timeslot is located is 9, that is k10=9; the Subframe number of Subframe n2+1 where the uplink time slot is located is 1, k11=1; offset of uplink time slot in Subframe n2+1, i.e. instant sequence number is 1; configuring a #1 downlink time slot of a Subframe n1+2 of the radio frame m, and a #2 uplink time slot of a Subframe n2+1 of the radio frame m+1, corresponding to the #1 downlink time slot, k12=2; downlink data is transmitted in a #1 downlink time slot of a Subframe n1+2 of the radio frame m, and ACK/NACK corresponding to the downlink data is transmitted in a #1 uplink time slot of a Subframe n2+1 of the radio frame m+1.

c) Ninth location information, the ninth location information including: a bit value, one bit value corresponding to one uplink time slot; for each downlink time slot, configuring an available uplink resource set, wherein the uplink resource set comprises X uplink time slots for use

The number of bits indicates the uplink time slot corresponding to each downlink time slot, the position information of the uplink time slot corresponding to each bit value is represented by K13, K14 and K15, K13 represents the frame number of the radio frame where the uplink time slot corresponding to the downlink time slot is located, and K14 represents the uplink time slotThe subframe number of the subframe, K15, represents the slot number of the uplink slot in the subframe where it is located.

And taking a time slot as the downlink transmission unit and taking a feedback time sequence of downlink data transmitted to ACK/NACK as the HARQ timing relation, configuring an available uplink resource set for each downlink time slot by RRC, wherein the content in the set is as follows: a radio frame K13 where the ACK/NACK feedback time slot is located, a subframe offset value K14 of the ACK/NACK feedback time slot in the radio frame, and an offset value K15 of the ACK/NACK feedback time slot in the subframe; assuming that the number of uplink resources in the set is X, then

In this embodiment, x=3, then

specifically, when m=4, n=8, as shown in fig. 9:

for the #0 downlink timeslot of Subframe n1 of radio frame m, the position of the corresponding uplink timeslot is indicated by bit 00, the uplink timeslots corresponding to bit 00 are indicated by K13, K14 and K15, and k13=9, k14=0, k15=1, the #1 uplink timeslot of Subframe 0 of Subframe m+1 (9) is indicated, downlink data is transmitted in the #0 downlink timeslot of Subframe n1 of radio frame m, and ACK/NACK corresponding to downlink data is transmitted in the #0 uplink timeslot of Subframe n2 (n2=0) of radio frame m+1;

For the #1 downlink timeslot of Subframe n1 of radio frame m, the position of the corresponding uplink timeslot is represented by bit 00, the uplink timeslot corresponding to bit 00 is represented by K13, K14 and K15, and k13=9, k14=0, k15=1, the #1 uplink timeslot of Subframe 0 of Subframe m+1 (9) is represented, downlink data is transmitted in the #1 downlink timeslot of Subframe n1 of radio frame m, and ACK/NACK corresponding to downlink data is transmitted in the #0 uplink timeslot of Subframe n2 (n2=0) of radio frame m+1;

for the #0 downlink timeslot of Subframe n1+1 of radio frame m, the position of the corresponding uplink timeslot is represented by bit 01, the uplink timeslot corresponding to bit 01 is represented by K13, K14 and K15, and k13=9, k14=1, k15=0, the #0 uplink timeslot of Subframe n2 of Subframe m+1 (9) is represented, downlink data is transmitted in the #0 downlink timeslot of Subframe n1+1 of radio frame m, and ACK/NACK corresponding to downlink data is transmitted in the #0 uplink timeslot of Subframe n2+1 (1) of radio frame m+1; the method comprises the steps of carrying out a first treatment on the surface of the

For the #1 downlink timeslot of Subframe n1+1 of radio frame m, the position of the corresponding uplink timeslot is represented by bit 01, the uplink timeslot corresponding to bit 01 is represented by K13, K14 and K15, and k13=9, k14=1, k15=0, and represents the #0 uplink timeslot of Subframe n2 of Subframe m+1 (9), downlink data is transmitted in the #1 downlink timeslot of Subframe n1+1 of radio frame m, and ACK/NACK corresponding to downlink data is transmitted in the #0 uplink timeslot of Subframe n2+1 (1) of radio frame m+1;

For #0 downlink timeslot of Subframe n1+2 of radio frame m, the position of the corresponding uplink timeslot is represented by bit 10, the uplink timeslot corresponding to bit 10 is represented by K13, K14 and K15, and k13=9, k14=1, k15=1, and represents #1 uplink timeslot of Subframe n2+1 of radio frame m+1 (9), downlink data is transmitted in #0 downlink timeslot of Subframe n1+2 of radio frame m, and ACK/NACK corresponding to downlink data is transmitted in #1 uplink timeslot of Subframe n2+1 (1) of radio frame m+1;

for #1 downlink timeslot of Subframe n1+2 of radio frame m, the position of the corresponding uplink timeslot is indicated by bit 10, the uplink timeslot corresponding to bit 10 is indicated by K13, K14 and K15, and k13=9, k14=1, k15=1, and represents #1 uplink timeslot of Subframe n2+1 of radio frame m+1 (9), downlink data is transmitted in #1 downlink timeslot of Subframe n1+2 of radio frame m, and ACK/NACK corresponding to downlink data is transmitted in #1 uplink timeslot of Subframe n2+1 (1) of radio frame m+1.

In the above-described embodiments of the present invention, the RRC signaling may be set to a default state for a guard interval (GP slot), a blank (slot), or a reserved transmission unit (slot).

The above embodiment of the present invention indicates the time sequence to the terminal by determining the time sequence indication mode from the downlink transmission unit to the corresponding uplink transmission unit under the condition of semi-static TDD configuration. The indication mode can be configured by a high-layer RRC signaling. Therefore, an indication mode of time sequence under the semi-static TDD configuration condition is realized, and a basis is provided for 5G NR scheduling design.

As shown in fig. 10, an embodiment of the present invention further provides a method for receiving a timing relationship, including:

step 101, sending, by a network side device through higher layer signaling, indication information of a timing relation set configured for each downlink transmission unit, where the timing relation set includes at least one timing relation. The higher layer signaling may be RRC signaling, but is not limited to RRC signaling; further, the method for receiving the timing relationship may further include:

step 102, determining the corresponding uplink transmission unit according to the timing relationship and the transmission time of the downlink transmission unit.

Wherein the set of timing relationships comprises: a timing relation, the terminal determines the corresponding uplink transmission unit according to the unique timing relation and the transmission time of the downlink transmission unit;

the set of timing relationships includes: when Y timing relationships, step 102 may include:

Step 1021, selecting a timing relationship from the Y timing relationships according to the indication signaling in the dynamically received downlink control information, and determining a corresponding uplink transmission unit according to the selected timing relationship and the transmission time of the downlink transmission unit.

The set of timing relationships includes: when the Y timing relationships include a default timing relationship, step 102 may include:

step 1022, determining a corresponding uplink transmission unit according to the default timing relationship and the transmission time of the downlink transmission unit when the indication signaling of the timing relationship indicated by the user is not detected according to the dynamically received downlink control information.

step 1023, according to the dynamically received downlink control information, when detecting that a default timing relationship is adopted for self indication, determining a corresponding uplink transmission unit according to the default timing relationship and the transmission time of the downlink transmission unit; wherein Y is a positive integer greater than 1.

In a specific embodiment of the present invention, the method for receiving a timing relationship may further include:

transmitting uplink data corresponding to the uplink authorization information in an uplink transmission unit; or alternatively

And transmitting the ACK/NACK corresponding to the downlink data in the uplink transmission unit.

In this embodiment of the invention, the timing may include:

In this embodiment of the present invention, the location information of the primary transmission granularity may include:

first location information, the first location information comprising: a number of time slots, wherein the number of time slots is a first fixed value between M and N configured for each downlink time slot, and the first fixed value is the number of time slots from the downlink time slot to the interval between the uplink time slots corresponding to the downlink time slot (as shown in fig. 1); or alternatively

Second location information, the second location information comprising: a slot number, for each downlink slot, the number of slots of the uplink slot spaced from its corresponding downlink slot being configured to be a second fixed value between M and N (as shown in fig. 2); or alternatively

Third location information, the third location information comprising: a bit value, one bit value corresponding to one uplink time slot; for each downlink time slot, configuring an available uplink resource set, wherein the uplink resource set comprises X uplink time slots for use

The bits indicate the uplink time slot corresponding to each downlink time slot, and the position information of the uplink time slot corresponding to each bit value is represented by the sequence number of the uplink time slot (as shown in fig. 3);

In this embodiment of the present invention, the location information of the secondary transmission granularity includes:

fourth location information, the fourth location information comprising: for each downlink time slot, the position information denoted by K1 and K2 is in units of subframes, where K1 denotes a subframe offset value of a subframe in which an uplink time slot corresponding to the downlink time slot is located relative to a subframe in which the downlink time slot is located, and K2 denotes a time slot number of the uplink time slot in the subframe in which the uplink time slot is located (as shown in fig. 4); or alternatively

Fifth location information, the fifth location information including: for each downlink time slot, the position information represented by K3 and K4 is in units of subframes, where K3 represents a subframe number of a subframe in which an uplink time slot corresponding to the downlink time slot is located, and K4 represents a time slot sequence number of the uplink time slot in the subframe in which the uplink time slot is located (as shown in fig. 5); or alternatively

Sixth location information, the sixth location information comprising: a bit value, one bit value corresponding to one uplink time slot; for each downlink time slot, configuring an available uplink resource set, wherein the uplink resource set comprises X uplink time slots for use

The bits indicate the uplink time slot corresponding to each downlink time slot, the position information of the uplink time slot corresponding to each bit value is represented by K5 and K6, K5 represents the subframe number of the subframe where the uplink time slot is located, and K6 represents the time slot number of the uplink time slot in the subframe where the uplink time slot is located (as shown in fig. 6).

In this embodiment of the present invention, the location information of the three-level transmission granularity includes:

seventh location information, the seventh location information including: for each downlink time slot, taking a radio frame as a unit, wherein K7 represents an offset value of a radio frame where an uplink time slot corresponding to the downlink time slot is located relative to the radio frame where the downlink time slot is located, K8 represents a subframe number where the uplink time slot is located, and K9 represents a time slot number of the uplink time slot in the subframe where the uplink time slot is located (as shown in fig. 7); or alternatively

Eighth location information, the eighth location information comprising: for each downlink time slot, the position information represented by K10, K11 and K12 is in units of radio frames, where K10 represents the frame number of the radio frame where the uplink time slot corresponding to the downlink time slot is located, K11 represents the frame number of the subframe where the uplink time slot is located, and K12 represents the time slot number of the uplink time slot in the subframe where the uplink time slot is located (as shown in fig. 8); or alternatively

The number of bits indicates an uplink time slot corresponding to each downlink time slot, the position information of the uplink time slot corresponding to each bit value is represented by K13, K14 and K15, K13 represents the frame number of the radio frame where the uplink time slot corresponding to the downlink time slot is located, K14 represents the subframe number of the subframe where the uplink time slot is located, and K15 represents the time slot number of the uplink time slot in the subframe where the uplink time slot is located (as shown in fig. 9).

Wherein the higher layer signaling comprises: radio resource control, RRC, signaling.

And a transceiver for transmitting, to the terminal, indication information of a set of timing relationships configured for each downlink transmission unit through higher layer signaling, the set of timing relationships including at least one timing relationship.

The embodiment of the invention also provides network side equipment, which comprises: a processor, a memory storing a computer program which, when executed by the processor, performs the method as described in fig. 1-9, wherein the processor and the memory may be connected by a bus or interface.

Embodiments of the present invention also provide a computer-readable storage medium comprising instructions which, when executed on a computer, cause the computer to perform a method as described in fig. 1-9.

The embodiment of the invention also provides a terminal, which comprises: and the transceiver is used for receiving the indication information of the timing relation set configured for each downlink transmission unit through the higher-layer signaling, wherein the timing relation set comprises at least one timing relation. The terminal is also adapted to perform the method as shown in fig. 10

The embodiment of the invention also provides a terminal, which comprises: a processor, a memory storing a computer program which, when executed by the processor, performs the method as described in fig. 10. Wherein the processor and the memory may be connected by a bus or interface.

Embodiments of the present invention also provide a computer-readable storage medium comprising instructions that, when executed on a computer, cause the computer to perform a method as described in fig. 10.

While the foregoing is directed to the preferred embodiments of the present invention, it will be appreciated by those skilled in the art that various modifications and adaptations can be made without departing from the principles of the present invention, and such modifications and adaptations are intended to be comprehended within the scope of the present invention.

Claims

1. A method of indicating a timing relationship, comprising:

transmitting indication information of a timing relation set configured for each downlink transmission unit to a terminal through a high-level signaling, wherein the timing relation set comprises at least one timing relation;

2. The method of indicating a timing relationship according to claim 1,

Wherein Y is a positive integer greater than 1.

3. The method of indicating a timing relationship according to claim 1, wherein the timing relationship represents: and the time sequence from the downlink transmission unit to the uplink transmission unit corresponding to the downlink transmission unit.

4. The method of indicating a timing relationship according to claim 3, wherein the timing of the downlink transmission unit to the uplink transmission unit corresponding to the downlink transmission unit includes:

5. The method of indicating a timing relationship according to claim 4, wherein the timing sequence comprises:

6. The method of claim 5, wherein the location information of the primary transmission granularity comprises:

Second location information, the second location information comprising: the time slot sequence number of the uplink time slot, for each downlink time slot, the number of time slots of the interval between the uplink time slot and the corresponding downlink time slot is configured to be a second fixed value between M and N; or alternatively

7. The method of indicating a timing relationship according to claim 5, wherein the location information of the two-stage transmission granularity includes:

8. The method of indicating a timing relationship according to claim 5, wherein the position information of the three-level transmission granularity includes:

9. A method of receiving a timing relationship, comprising:

receiving indication information of a timing relation set configured for each downlink transmission unit through high-layer signaling receiving network side equipment, wherein the timing relation set comprises at least one timing relation;

10. The method of receiving a timing relationship according to claim 9, further comprising:

11. The method of claim 10, wherein the set of timing relationships comprises: one timing relationship or Y timing relationships;

12. The method of receiving a timing relationship according to claim 10, wherein the timing relationship represents: and the time sequence from the downlink transmission unit to the uplink transmission unit corresponding to the downlink transmission unit.

13. The method of claim 12, wherein the timing of the downlink transmission unit to the uplink transmission unit corresponding to the downlink transmission unit comprises:

14. A network side device, comprising:

a transceiver configured to send, to a terminal, indication information of a set of timing relationships configured for each downlink transmission unit, the set of timing relationships including at least one timing relationship;

15. A network side device, comprising: a processor, a memory storing a computer program which, when executed by the processor, performs the method of any of claims 1-8.

16. A computer readable storage medium comprising instructions which, when executed on a computer, cause the computer to perform the method of any of claims 1-8.

17. A terminal, comprising:

a transceiver, configured to receive indication information of a timing relation set configured for each downlink transmission unit sent by a network side device, where the timing relation set includes at least one timing relation;

18. A terminal, comprising: a processor, a memory storing a computer program which, when executed by the processor, performs the method of any of claims 9-13.

19. A computer readable storage medium comprising instructions which, when executed on a computer, cause the computer to perform the method of any of claims 9-13.