Transmission parameter determination method and apparatus

Abstract

The application provides a transmission parameter determination method and device. A plurality of transmission parameter sets are obtained, wherein the plurality of transmission parameter sets at least include a first transmission parameter set and a second transmission parameter set, and each of the plurality of transmission parameter sets includes at least one same type of transmission parameter; a plurality of resource areas are determined, wherein the plurality of resource areas at least include a first resource area and a second resource area; the resource area includes at least one of a time domain resource area and a frequency domain resource area; information is transmitted or received according to the transmission parameter set on the resource area; and at least the following is included: information is transmitted or received according to the first transmission parameter set on the first resource area; and information is transmitted or received according to the second transmission parameter set on the second resource area. Through the application, the problem that the receiving end demodulates data slowly in the related art is solved, and signaling overhead is saved while adapting to dynamic scheduling.

Description

[0001] This application is a divisional application of patent application number 201710185413.5 (the original application was filed on March 25, 2017, and the invention was entitled "Transmission Parameter Determination Method and Apparatus"). Technical Field

[0002] This invention relates to the field of communications, and more specifically, to a method and apparatus for determining transmission parameters. Background Technology

[0003] In current discussions on NR-5G, a self-contained structure has been proposed, in which the base station sends downlink data to the terminal within a time unit (e.g., within a slot), and the terminal feeds back ACK / NACK of the downlink data in the uplink transmission domain of the same slot, thereby accelerating the data transmission cycle, especially for services with high latency requirements.

[0004] For services with high latency requirements, further research is needed on how to accelerate the demodulation speed of the receiving end.

[0005] No effective solution has yet been proposed to address the issue of slow data demodulation speed at the receiving end in related technologies.

[0006] On the other hand, many transmission parameters included in LTE do not change much dynamically. Dynamically notifying them every time would be wasteful of dynamic control signaling overhead. There is no effective solution yet for a transmission parameter notification method that can adapt to dynamic resource scheduling while saving signaling overhead. Summary of the Invention

[0007] This invention provides a method and apparatus for determining transmission parameters, which at least solves the problem of slow data demodulation speed at the receiving end in related technologies.

[0008] According to an embodiment of the present invention, a method for determining transmission parameters is provided, comprising: acquiring a plurality of transmission parameter sets, wherein the plurality of transmission parameter sets include at least a first transmission parameter set and a second transmission parameter set, and each of the plurality of transmission parameter sets includes at least one transmission parameter of the same type; determining a plurality of resource regions, wherein the plurality of resource regions include at least a first resource region and a second resource region; the resource regions include at least one of the following: a time-domain resource region and a frequency-domain resource region; transmitting or receiving information in the resource regions according to the transmission parameter sets; wherein at least the following is included: transmitting or receiving information in the first resource region according to the first transmission parameter set; and transmitting or receiving information in the second resource region according to the second transmission parameter set.

[0009] Optionally, sending or receiving information on the resource area set according to the transmission parameter set includes: sending or receiving information in a separate functional portion of a resource area according to the transmission parameter set corresponding to the resource area; or sending or receiving information in the intersection portion of N resource areas among multiple resource areas according to the N transmission parameter sets corresponding to the N resource areas; or sending or receiving information in the intersection portion of N resource areas among multiple resource areas according to one of the N transmission parameter sets corresponding to the N resource areas; wherein N is a natural number greater than 1.

[0010] Optionally, based on the transmission parameter type or the indication information, the intersection of the N resource areas in the plurality of resource areas is determined to process information in at least one of the following ways: Method 1: determining whether to send or receive information in the intersection based on multiple transmission parameter sets in the N transmission parameter sets; Method 2: sending or receiving information in the intersection based on one of the N transmission parameter sets; where N is a natural number greater than 1.

[0011] Optionally, the control information includes at least one of the following: physical layer dynamic control information, media access control unit (MAC-CE), and radio resource control (RRC).

[0012] Optionally, the time for acquiring control information includes the end position of the control information and the minimum time length for acquiring the control information and using the information indicated in the control information for receiving or transmitting the channel and / or signal corresponding to the control information.

[0013] Optionally, the division based on the time of acquiring control information includes at least one of the following: the interval between the start position of the first resource region and the end position of the control information is less than a predetermined time threshold; the interval between the start position of the second resource region and the end position of the control information is greater than or equal to the predetermined time threshold; wherein, the predetermined time threshold includes the minimum time length between the end position of the control information and acquiring the control information and using the information indicated in the control information for receiving or transmitting the channel and / or signal corresponding to the control information. Optionally, the resource region division method includes at least one of the following: division based on the time of acquiring control information; determining resource region division by receiving control information, wherein the control information includes resource region division information; determining the resource region division based on the region where the control information is effective, where the transmission parameter set is located; determining the resource region division based on rules agreed upon by the receiving end and the transmitting end.

[0014] Optionally, the resource area is divided according to at least one of the following parameters: the type of transmission parameters, the type of channel, the type of signal, the type of service, the configuration of transceiver antennas, the structure type of the time-domain resource unit to which the resource area belongs, the configuration of the numerology of the resource area, the transmission mode / technology / method used when transmitting in the resource area, the type of information transmitted in the resource area, and the transmission direction.

[0015] Optionally, the same type of transmission parameters includes one or more of the following: quasi-co-address QCL relationship indication parameters, resource configuration parameters, rate matching parameters, reference signal configuration related parameters, receive mode configuration parameters, transmission technology / mode, transmission mode, transmit beam configuration parameters, modulation order configuration parameters, coding rate configuration parameters, modulation and coding scheme (MCS) configuration parameters, number of codewords, number of transmission layers, multiple access mode, resource multiplexing mode, waveform configuration parameters, transmit power configuration parameters, numberology parameters, hybrid automatic repeat request (HARQ) related parameters, measurement parameters, feedback parameters, and transmission mode.

[0016] Optionally, the second resource region is a subset of the first resource region; the intersection between the second resource region and the first resource region is empty; the intersection between the second resource region and the first resource region is non-empty, and the second resource region and the first resource region do not overlap; the first resource region and the second resource region are the same; the first resource region changes according to the second resource region.

[0017] Optionally, the determination of the values ​​of some or all of the parameters included in the first transmission parameter set may be based on at least one of the following: determined according to the previously configured transmission parameter set, determined according to the Radio Resource Control (RRC) configuration signaling, determined according to the Media Access Control (MAC) configuration signaling, determined according to the System Information Block (SIB) message, determined according to the Physical Broadcast Communication (PBCH) message, determined according to the Common Control Information (CCI) information, or determined according to a prior agreement between the sender and receiver.

[0018] Optionally, some or all of the parameters included in the second set of transmission parameters are determined based on the information transmitted in the first resource area.

[0019] Optionally, in the second transmission parameter set, there exists at least one type of parameter corresponding to a candidate configuration set A, and for parameters of the same type, there exists a candidate configuration set corresponding to the first transmission parameter set a; wherein, A is a set consisting of configurable states, and a is a proper subset of A or A is a proper subset of a.

[0020] Optionally, its features satisfy at least one of the following features: Based on the configuration of the first transmission parameter set, the configurable range of parameters of the same type as the first transmission parameter set in the second transmission parameter set is determined; the configurable range of the transmission parameter set with a later transmission time is determined based on the configurable range of the transmission parameter set with an earlier transmission time, and the number of bits occupied by the second transmission parameter set in the control information notification field is determined according to the configuration of the first transmission parameter set. The control information notification field notifies the second transmission parameter set of information.

[0021] Optionally, the first transmission parameter set includes multiple subsets, the first resource region includes multiple sub-regions, and the subsets are associated with the sub-regions; and / or, the second transmission parameter set includes multiple subsets, the second resource region set includes multiple sub-regions, wherein the subsets are associated with the sub-regions.

[0022] Optionally, at a certain point in time, some or all parameters in the first transmission parameter set that are of the same type as the second transmission parameter set are updated to the second transmission parameter set; and / or,

[0023] At a certain point in time, the starting position of the first resource region is updated to the ending position of the second resource region.

[0024] Optionally, the method further includes: obtaining the configuration of a third transmission parameter set in the first resource area based on the configuration information of the second transmission parameter set; or, obtaining the configuration of a third transmission parameter set in the first resource area based on the configuration information of the second transmission parameter set and the configuration information of the second transmission parameter set; wherein the third transmission parameter set is a set consisting of some parameter types of the same type or all parameter types of the same type included in the first transmission parameter set and the second transmission parameter set.

[0025] Optionally, the configuration of the same type of parameter in the second transmission parameter set is an offset value relative to the configuration of the parameter type in the first transmission parameter set; and / or, in the resource area corresponding to the intersection of the second resource area and the first resource area before obtaining the second transmission parameter set, the signal is first received with the first transmission parameters.

[0026] Optionally, the plurality of transmission parameter sets satisfy at least one of the following characteristics: each transmission parameter set includes a configuration of the same type of transmission parameter; the resource region where the signal or channel associated with the transmission parameter set is located is a subset of the resource region corresponding to the transmission parameter set; there is partial overlap between the resource region where the signal or channel associated with the transmission parameter set is located and the resource region corresponding to the transmission parameter set; the plurality of transmission parameter sets correspond to the configuration information of a signal / channel; and the acquisition methods of the plurality of transmission parameter sets are different.

[0027] Optionally, the acquisition method includes: acquiring via RRC control information; acquiring via MAC-CE control information; acquiring via physical layer dynamic control information; acquiring via first control information; acquiring via second control information; acquiring via system messages; configuring via broadcast messages; the transmission parameters are agreed values; acquiring according to agreed rules; acquiring via proprietary control information; acquiring via public control information; wherein the first control information and the second control information are control information of the same type, and the first control information and the second control information are sent at different times, or the first control information and the second control information have their own independent CRC checksums.

[0028] Optionally, the resource region where the channel and / or signal associated with the first set of transmission parameters is located is a subset of the first resource region; or, the resource region where the channel and / or signal associated with the first set of transmission parameters is located is different from the first resource region, and there is partial overlap.

[0029] Optionally, the second set of transmission parameters is obtained based on the information notified in the physical layer dynamic control information.

[0030] Optionally, the method further includes at least one of the following: the plurality of transmission parameter sets correspond to a demodulation reference signal port number, wherein different transmission parameter sets correspond to different frequency domain resources of the demodulation reference signal port number; the boundary between the PRB Bundling region obtained based on the transmitting end system bandwidth and the PRB Bundling region obtained based on the receiving end system bandwidth is consistent, wherein the receiving end system bandwidth is a subset of the transmitting end system bandwidth.

[0031] Optionally, when the same type of transmission parameters includes reference signal configuration-related parameters, the first transmission parameter set includes the resources occupied by the periodic or half-cycle measurement reference signal; the second transmission parameter set includes parameters indicating whether the resources occupied by the periodic or half-cycle measurement reference signal included in the first transmission parameter set are available or unavailable. The first transmission parameter set is obtained based on higher-layer control information, and the second transmission parameter set is obtained based on physical layer dynamic control information.

[0032] Optionally, the second transmission parameter set includes parameters indicating whether the resources occupied by the periodic or half-cycle measurement reference signal included in the first transmission parameter set are available or unavailable, including at least one of the following: transmitting or receiving the periodic or half-cycle measurement reference signal when the resources occupied by the periodic or half-cycle measurement reference signal included in the first transmission parameter set are available; not transmitting or receiving the periodic or half-cycle measurement reference signal when the resources occupied by the periodic or half-cycle measurement reference signal included in the first transmission parameter set are unavailable; not transmitting or receiving the periodic or half-cycle measurement reference signal in the time unit where the unavailable resource is located when the resources occupied by the periodic or half-cycle measurement reference signal included in the first transmission parameter set are unavailable; and not transmitting or receiving the periodic or half-cycle measurement reference signal in the time domain symbol where the unavailable resource is located when the resources occupied by the periodic or half-cycle measurement reference signal included in the first transmission parameter set are unavailable. According to another embodiment of the present invention, a method for determining transmission parameters is provided, comprising: determining the number X of parameter configurations corresponding to a parameter type, wherein X is a natural number, at least a first parameter configuration exists, and a first time-domain resource region in which the first parameter configuration acts; obtaining the configuration of the parameter type according to the determination result; when it is determined that X is greater than 1, at least a second parameter configuration exists, and a second time-domain resource region in which the second parameter configuration acts.

[0033] Optionally, the value of X is determined according to the parameter type; and / or, the value of X is determined by receiving control information, wherein the control information includes the value of X.

[0034] Optionally, when the value of X is determined to be 1, the configuration of the parameter type is determined according to the first parameter configuration; when the value of X is determined to be greater than 1, the time domain resource region corresponding to each transmission parameter in the X parameter configurations is determined; in the individual active portion of a time domain resource region, the configuration of the parameter type is determined according to the parameter configuration corresponding to the time domain resource region; in the intersection portion of Y time domain resource regions among the X time domain resource regions, the configuration of the parameter type is determined according to the Y transmission configurations corresponding to the Y time domain resource regions, or, the configuration of the parameter type is determined according to one of the Y transmission configurations corresponding to the Y time domain resource regions; where Y is a natural number greater than 1 and less than X.

[0035] Optionally, the method further includes: determining the configuration of the parameter type of the intersection portion based on the parameter type or based on control information. The method includes at least one of the following: Method 1: determining the configuration of the parameter type based on Y transmission configurations corresponding to Y time-domain resource regions; Method 2: determining the configuration of the parameter type based on one of the Y transmission configurations corresponding to Y time-domain resource regions.

[0036] Optionally, in the intersection portion, the configuration of the parameter type is determined based on the parameter configuration with the highest priority among the Y parameter configurations.

[0037] Optionally, the control information may further include at least the first parameter configuration information.

[0038] Optionally, the first parameter configuration is configured by higher-layer control information, and the second parameter configuration is configured by physical layer control information; or, the first parameter configuration is configured by RRC control information, and the second parameter configuration is configured by MAC CE control information.

[0039] Optionally, the first time domain resource region corresponding to the first parameter configuration satisfies one of the following characteristics: all time units from the time the first configuration control information is received until the first configuration control information expires; a portion of time units within the range from the time the first configuration control information is received until the first configuration control information expires; all time units from the time the first configuration control information is received until the first configuration control information is updated; a portion of time units within the range from the time the first configuration control information is received until the first configuration control information is updated.

[0040] Optionally, the second time-domain resource area corresponding to the second parameter configuration includes: all time from the time the first event occurs to the configured or agreed deadline; or, a time unit group consisting of a portion of time-domain units from the time the first event occurs to the configured or agreed deadline; or, all time from the time the first event occurs to the time the second event occurs; or, a resource group consisting of a portion of time-domain unit resources from the time the first event occurs to the time the second event occurs.

[0041] Optionally, the first event is receiving control information regarding the second parameter configuration; the second event is receiving control information regarding the failure or update of the second parameter configuration.

[0042] Optionally, the parameter types include at least one of the following parameter types: quasi-co-address QCL relationship indication parameters, resource configuration parameters, rate matching parameters, reference signal configuration related parameters, receive mode configuration parameters, transmission technology / mode, transmission mode, transmit beam configuration parameters, modulation order configuration parameters, coding rate configuration parameters, modulation and coding measurement (MCS) configuration parameters, number of codewords, number of transmission layers, multiple access mode, resource multiplexing mode, waveform configuration parameters, transmit power configuration parameters, numberology parameters, hybrid automatic repeat request (HARQ) related parameters, measurement parameters, feedback parameters, and transmission mode.

[0043] Optionally, it includes at least one of the following features: determining the configurable range of parameters of the same type as the first parameter configuration in the second parameter configuration based on the configuration of the first parameter configuration; the configurable range of parameter configurations with later transmission times is determined based on the configurable range of parameter configurations with earlier transmission times. The number of bits occupied by the second transmission parameter set in the control information notification field is determined according to the configuration of the first transmission parameter set. The control information notification field notifies the second transmission parameter set information.

[0044] Optionally, the first parameter configuration includes multiple subsets, the first time-domain resource region includes multiple sub-regions, and the subsets are associated with the sub-regions; and / or, the second parameter configuration includes multiple subsets, the second time-domain region set includes multiple sub-regions, wherein the subsets are associated with the sub-regions.

[0045] Optionally, at a certain point in time, some or all parameters in the first parameter configuration that are of the same type as the second parameter configuration are updated to the second parameter configuration; and / or, at a certain point in time, the start position of the first time domain region is updated to the end position of the second time domain region.

[0046] Optionally, the method further includes: obtaining the configuration of the third parameter configuration in the first time domain resource region based on the configuration information of the second parameter configuration; or, obtaining the configuration of the third parameter configuration in the first time domain resource region based on the configuration information of the second parameter configuration and the configuration information of the second parameter configuration; wherein the third parameter configuration is a set of some parameter types of the same type included in the first parameter configuration and the second parameter configuration, or all parameter types of the same type.

[0047] Optionally, the configuration of the same type of parameter in the second parameter configuration is an offset value relative to the configuration of the parameter type in the first parameter configuration; and / or, in the time domain region corresponding to the intersection of the second time domain region and the first time domain region before obtaining the second parameter configuration, the signal is first received with the first transmission parameters.

[0048] Optionally, when X is greater than 1, the X parameter configurations satisfy at least one of the following characteristics: each parameter configuration includes a configuration of the same type of transmission parameters; the time domain region where the signal or channel associated with the parameter configuration is located is a subset of the time domain resource region corresponding to the parameter configuration; there is partial overlap between the time domain resource region where the signal or channel associated with the parameter configuration is located and the time domain resource region corresponding to the parameter configuration; the multiple parameter configurations are notified by multiple control information, the multiple control information including at least first control information and second control information; the multiple parameter configurations correspond to the configuration information of one signal / channel; the multiple parameter configurations are obtained in different ways; wherein, the first control information is used to notify the first parameter configuration, the second control information is used to notify the second parameter configuration, and the parameter configuration is a transmission parameter related to the signal.

[0049] Optionally, the acquisition method includes: acquiring via RRC control information; acquiring via MAC-CE control information; acquiring via physical layer dynamic control information; acquiring via first control information; acquiring via second control information; acquiring via system messages; configuring via broadcast messages; the transmission parameters are agreed values; acquiring according to agreed rules; acquiring via proprietary control information; acquiring via public control information; wherein the first control information and the second control information are control information of the same type, and the first control information and the second control information are sent at different times, or the first control information and the second control information have their own independent CRC checksums.

[0050] Optionally, the time domain region where the channel and / or signal associated with the first parameter configuration is located is a subset of the first time domain region; or, the time domain region where the channel and / or signal associated with the first parameter configuration is located is different from the first time domain region, and there is partial overlap.

[0051] Optionally, where the parameter type includes transmission parameters of periodic or half-period measurement reference signals, if X is determined to be equal to 1, the first parameter configuration is obtained based on higher-layer control information; or, if X is determined to be greater than 1, the first parameter configuration is obtained based on higher-layer control information, and the second parameter configuration is obtained based on physical layer dynamic control information.

[0052] Optionally, when it is determined that X is greater than 1, the physical layer dynamic control information includes information on whether the resources occupied by the periodic or half-cycle measurement reference signal are available or unavailable, as notified by the higher layer control information, wherein the transmission parameters of the periodic or half-cycle measurement reference signal include the resources occupied by the periodic or half-cycle measurement reference signal.

[0053] Optionally, the method further includes at least one of the following: transmitting or receiving the periodic or half-cycle measurement reference signal when the resources occupied by the periodic or half-cycle measurement reference signal, as notified by the higher-layer control information, are available; not transmitting or receiving the periodic or half-cycle measurement reference signal when the resources occupied by the periodic or half-cycle measurement reference signal, as notified by the higher-layer control information, are unavailable; not transmitting or receiving the periodic or half-cycle measurement reference signal in the time unit where the unavailable resources are located when the resources occupied by the periodic or half-cycle measurement reference signal, as notified by the higher-layer control information, are unavailable; and not transmitting or receiving the periodic or half-cycle measurement reference signal in the time domain symbol where the unavailable resources are located when the resources occupied by the periodic or half-cycle measurement reference signal, as notified by the higher-layer control information, are unavailable.

[0054] According to another embodiment of the present invention, a transmission parameter determination apparatus is provided, comprising: a first acquisition module, configured to acquire a plurality of transmission parameter sets, wherein the plurality of transmission parameter sets include at least a first transmission parameter set and a second transmission parameter set, and each of the plurality of transmission parameter sets includes at least one transmission parameter of the same type; a first determination module, configured to determine a plurality of resource regions, wherein the plurality of resource regions include at least a first resource region and a second resource region; the resource regions include at least one of the following: a time-domain resource region, a frequency-domain resource region; and a processing module, configured to send or receive information in the resource regions according to the transmission parameter sets; wherein at least the following are included: sending or receiving information in the first resource region according to the first transmission parameter set; and sending or receiving information in the second resource region according to the second transmission parameter set.

[0055] Optionally, the determination of the values ​​of some or all of the parameters included in the first transmission parameter set may be based on at least one of the following: determined according to the previously configured transmission parameter set, determined according to the Radio Resource Control (RRC) configuration signaling, determined according to the Media Access Control (MAC) configuration signaling, determined according to the System Information Block (SIB) message, determined according to the Physical Broadcast Communication (PBCH) message, determined according to the Common Control Information (CCI) information, or determined according to a prior agreement between the sender and receiver.

[0056] Optionally, the second set of transmission parameters is obtained based on information notified in the physical layer dynamic control channel.

[0057] Optionally, the processing module includes: a first processing unit, configured to send or receive information in a separate functioning portion of a resource region according to a set of transmission parameters corresponding to the resource region; or a second processing unit, configured to send or receive information in the intersection portion of N resource regions among multiple resource regions according to a set of N transmission parameters corresponding to the N resource regions; or a third processing unit, configured to send or receive information in the intersection portion of N resource regions among multiple resource regions according to one of the sets of N transmission parameters corresponding to the N resource regions; wherein N is a natural number greater than 1.

[0058] According to another embodiment of the present invention, a transmission parameter determination device is provided, comprising: a judgment module, configured to judge the number X of parameter configurations corresponding to a parameter type, wherein X is a natural number, at least a first parameter configuration exists, and a first time-domain resource region in which the first parameter acts; a second acquisition module, configured to acquire the configuration of the parameter type according to the judgment result; and a second determination module, configured to determine, when the judgment is greater than 1, at least a second parameter configuration exists, and a second time-domain resource region in which the second parameter acts.

[0059] According to yet another embodiment of the present invention, a storage medium is also provided. The storage medium is configured to store program code for performing the following steps:

[0060] Obtain multiple sets of transmission parameters, wherein the multiple sets of transmission parameters include at least: a first set of transmission parameters, a second set of transmission parameters, and a transmission parameter of the same type;

[0061] Multiple resource regions are defined, wherein the multiple resource regions include at least: a first resource region and a second resource region; the resource regions include at least one of the following: a time-domain resource region, a code-domain resource region, a frequency-domain resource region, a spatial-domain resource region, and a reference signal resource region;

[0062] Sending or receiving information in the resource area according to the set of transmission parameters; wherein at least: sending or receiving information in the first resource area according to the first set of transmission parameters; and sending or receiving information in the second resource area according to the second set of transmission parameters.

[0063] Optionally, the storage medium is also configured to store program code for performing the following steps:

[0064] Determine the number X of parameter configurations corresponding to the parameter type, where X is a natural number, and there exists at least a first parameter configuration and a first time-domain resource region where the first parameter acts; obtain the configuration of the parameter type based on the determination result; when it is determined that X is greater than 1, there exists at least a second parameter configuration and a second time-domain resource region where the second parameter acts.

[0065] This invention provides a method for obtaining multiple sets of transmission parameters, each set including at least a first set of transmission parameters, a second set of transmission parameters, and a transmission parameter of the same type. It also involves determining multiple resource regions, each including at least a first resource region and a second resource region. Each resource region includes at least one of the following: a time-domain resource region, a code-domain resource region, a frequency-domain resource region, a spatial-domain resource region, and a reference signal resource region. Information is transmitted or received in these resource regions according to the transmission parameter sets. This includes at least: transmitting or receiving information in the first resource region according to the first transmission parameter set; and transmitting or receiving information in the second resource region according to the second transmission parameter set. In other words, by pre-configuring or agreeing (through higher-layer control information or previous physical layer dynamic control information) the transmission parameter information for data / control / parameter signals, the terminal can process data / control / parameter signals based on the pre-configured transmission parameters before acquiring more dynamic control information. This solves the problem of slow data demodulation at the receiving end in related technologies, thereby accelerating the terminal's processing capabilities while reducing control information overhead. Attached Figure Description

[0066] The accompanying drawings, which are included to provide a further understanding of the invention and form part of this application, illustrate exemplary embodiments of the invention and, together with their description, serve to explain the invention and do not constitute an undue limitation thereof. In the drawings:

[0067] Figure 1 This is a flowchart of a method for determining transmission parameters according to an embodiment of the present invention;

[0068] Figure 2 This is a flowchart of another method for determining transmission parameters according to an embodiment of the present invention;

[0069] Figure 3 This is a structural block diagram of a transmission parameter determination device according to an embodiment of the present invention;

[0070] Figure 4 This is a structural block diagram of a transmission parameter determination device according to an embodiment of the present invention;

[0071] Figures 5a-5e This is a schematic diagram illustrating the relationship between the first and second time windows;

[0072] Figures 6a-6b This is a schematic diagram illustrating the relationship between the first and second time windows;

[0073] Figure 7a It is a schematic diagram of the time domain region corresponding to the high-level control signaling and the frequency domain resources occupied by the demodulation reference signal in each time unit;

[0074] Figures 7b-7d This is a schematic diagram of the frequency domain resources occupied by the demodulation reference signal;

[0075] Figure 7e This is another schematic diagram of the time domain area corresponding to high-level control signaling;

[0076] Figure 7f This is a schematic diagram of the frequency domain resources corresponding to the demodulation reference signal port set;

[0077] Figure 8 This is a schematic diagram illustrating the relevant information of the first control information indicating the second control information;

[0078] Figure 9 These are diagrams illustrating different Bundling sizes;

[0079] Figure 10 This is a diagram showing that the bundle sizes are the same, but the budding regions are divided differently;

[0080] Figure 11 This is a schematic diagram of the frequency domain resources corresponding to another set of demodulation reference signal ports;

[0081] Figure 12 When dividing the bundling area, it is necessary to consider both the system bandwidth on the base station side and the system bandwidth allocated to the terminal.

[0082] Figure 13 This is a diagram showing that the bundle sizes are the same, but the budding regions are divided differently;

[0083] Figure 14 This is a schematic diagram illustrating the Budling region division based on the set of frequency domain resources allocated to the terminal. Detailed Implementation

[0084] The present invention will be described in detail below with reference to the accompanying drawings and embodiments. It should be noted that, unless otherwise specified, the embodiments and features described in the present application can be combined with each other.

[0085] It should be noted that the terms "first," "second," etc., in the specification, claims, and drawings of this invention are used to distinguish similar objects and are not necessarily used to describe a specific order or sequence.

[0086] Example 1

[0087] This embodiment provides a method for determining transmission parameters. Figure 1 This is a flowchart of a method for determining transmission parameters according to an embodiment of the present invention, as follows: Figure 1 As shown, the process includes the following steps:

[0088] Step S102: Obtain multiple sets of transmission parameters, wherein the multiple sets of transmission parameters include at least: a first set of transmission parameters, a second set of transmission parameters, and a transmission parameter of the same type;

[0089] Step S104: Determine multiple resource regions, wherein the multiple resource regions include at least: a first resource region and a second resource region; the resource region includes at least one of the following: a time domain resource region, a code domain resource region, a frequency domain resource region, a spatial domain resource region, and a reference signal resource region;

[0090] Step S106: Sending or receiving information in the resource area according to the transmission parameter set; wherein at least: sending or receiving information in the first resource area according to the first transmission parameter set; and sending or receiving information in the second resource area according to the second transmission parameter set.

[0091] Optionally, in this embodiment, by pre-configuring or agreeing (through higher-level control information or previous physical layer dynamic control information) the transmission parameter information of data / control / parameter signals, the terminal can process data / control / parameter signals based on the pre-configured transmission parameters before obtaining more dynamic control information. This solves the problem of slow data demodulation at the receiving end in related technologies, thereby achieving the technical effect of accelerating the processing capability of the terminal and reducing the overhead of control information.

[0092] In an optional implementation, sending or receiving information on the resource region set according to the transmission parameter set includes: sending or receiving information in a separate functional portion of a resource region according to the transmission parameter set corresponding to the resource region; or sending or receiving information in the intersection portion of N resource regions among multiple resource regions according to the N transmission parameter sets corresponding to the N resource regions; or sending or receiving information in the intersection portion of N resource regions among multiple resource regions according to one of the N transmission parameter sets corresponding to the N resource regions; wherein N is a natural number greater than 1.

[0093] It should be noted that a single part of the aforementioned resource area refers to the portion of the aforementioned resource area that does not intersect with any of the aforementioned M resource areas.

[0094] Optionally, based on the transmission parameter type or the indication information, the intersection of N resource areas among the multiple resource areas is determined to be processed using at least one of the following methods:

[0095] Method 1: Determine whether to send or receive information in the intersection region based on multiple transmission parameter sets from N transmission parameter sets;

[0096] Method 2: Send or receive information in the intersection of N sets of transmission parameters;

[0097] It should be noted that N above is a natural number greater than 1.

[0098] In an optional implementation, the resource area division method includes, but is not limited to, at least one of the following: division based on the time of acquiring control information; determining the resource area division by receiving control information, wherein the control information includes the resource area division information; determining the resource area division based on the area where the control information of the transmission parameter set is effective; and determining the resource area division based on the rules agreed upon by the receiving end and the sending end.

[0099] Optionally, the above-mentioned resource area is divided according to at least one of the following parameters: type of transmission parameters, type of channel, type of signal, type of service, configuration of transceiver antenna, structure type of time-domain resource unit to which the resource area belongs, configuration of the numerology of the resource area, transmission mode / technology / method used when transmitting in the resource area, type of information transmitted in the resource area, and transmission direction.

[0100] The same type of transmission parameters mentioned above include one or more of the following: precoding binding parameters, quasi-co-address QCL relationship indication parameters, resource configuration parameters, rate matching parameters, reference signal configuration related parameters, receiver configuration parameters, transmission technology / mode, transmission mode, mapping / interleaving parameters, transmit beam configuration parameters, modulation order configuration parameters, coding rate configuration parameters, modulation and coding scheme (MCS) configuration parameters, number of codewords, number of transmission layers, multiple access method, resource multiplexing method, waveform configuration parameters, transmit power configuration parameters, numberology parameters, hybrid automatic repeat request (HARQ) related parameters, measurement parameters, feedback parameters, and transmission mode.

[0101] Optionally, in this embodiment, the second resource region is a subset of the first resource region; the intersection between the second resource region and the first resource region is empty; the intersection between the second resource region and the first resource region is non-empty, and the second resource region and the first resource region do not overlap; the first resource region and the second resource region are the same; the first resource region changes according to the second resource region.

[0102] The determination of the values ​​of some or all of the parameters included in the first transmission parameter set includes at least one of the following methods: determination based on a previously configured transmission parameter set, determination based on Radio Resource Control (RRC) configuration signaling, determination based on Media Access Control (MAC) configuration signaling, determination based on System Information Block (SIB) messages, determination based on Physical Broadcast (PBCH) messages, determination based on common control information, and determination based on a pre-agreed agreement between the sender and receiver. Some or all of the parameters included in the second transmission parameter set are determined based on information transmitted in the first resource area. In the second transmission parameter set, there exists at least one type of parameter corresponding to a candidate configuration set A, and for parameters of the same type, there is a candidate configuration set a corresponding to the first transmission parameter set; wherein A is a set of configurable states, and a is a proper subset of A or A is a proper subset of a.

[0103] In an optional implementation, this embodiment satisfies at least one of the following features: the configurable range of parameters of the same type as the first transmission parameter set in the second transmission parameter set is determined based on the configuration of the first transmission parameter set; the configurable range of the transmission parameter set with a later transmission time is determined based on the configurable range of the transmission parameter set with an earlier transmission time. The number of bits occupied by the second transmission parameter set in the control information notification field is determined based on the configuration of the first transmission parameter set. The control information notification field notifies the second transmission parameter set of information.

[0104] Optionally, the first transmission parameter set includes multiple subsets, the first resource region includes multiple sub-regions, and the subset is associated with the sub-region; and / or, the second transmission parameter set includes multiple subsets, the second resource region set includes multiple sub-regions, wherein the subset is associated with the sub-region.

[0105] In this embodiment, at a certain point in time, some or all parameters in the first transmission parameter set that are of the same type as the second transmission parameter set are updated to the second transmission parameter set; and / or, at a certain point in time, the start position of the first resource region is updated to the end position of the second resource region.

[0106] In this embodiment, the configuration of the third transmission parameter set in the first resource area can also be obtained based on the configuration information of the second transmission parameter set; or, the configuration of the third transmission parameter set in the first resource area can be obtained based on the configuration information of the second transmission parameter set and the configuration information of the second transmission parameter set; wherein, the third transmission parameter set is a set consisting of some parameter types of the same type or all parameter types of the same type included in the first transmission parameter set and the second transmission parameter set.

[0107] The configuration of the same type of parameter in the second set of transmission parameters is an offset value relative to the configuration of that parameter type in the first set of transmission parameters; and / or, in the resource area corresponding to the intersection of the second resource area and the first resource area before obtaining the second set of transmission parameters, the signal is first received with the first transmission parameters.

[0108] Optionally, the multiple transmission parameter sets satisfy at least one of the following characteristics: each transmission parameter set includes a configuration of the same type of transmission parameter; the resource area where the signal or channel associated with the transmission parameter set is located is a subset of the resource area corresponding to the transmission parameter set; there is partial overlap between the resource area where the signal or channel associated with the transmission parameter set is located and the resource area corresponding to the transmission parameter set; the multiple transmission parameter sets are notified by multiple control information, the multiple control information including at least first control information and second control information; the multiple transmission parameter sets correspond to the configuration information of a signal / channel; the multiple transmission parameter sets are obtained in different ways; wherein, the first control information is used to notify the first transmission parameter set, the second control information is used to notify the second transmission parameter set, and the transmission parameter set is the transmission parameter related to the signal or channel.

[0109] It should be noted that the above-mentioned different control information meets at least one of the following characteristics: the different control information corresponds to the same type; the different control information corresponds to the same type, but the transmission time is different, or the time unit is the same; the different control information corresponds to their own independent CRC check information.

[0110] The aforementioned channel or signal is a signal or channel allocated to a communication node within a time unit. Alternatively, it can refer to a set of time-frequency resource allocation control information corresponding to a single channel or signal.

[0111] In an optional implementation, the different acquisition methods mentioned above include: acquisition via RRC control information; acquisition via MAC-CE control information; acquisition via physical layer dynamic control information; acquisition via first control information; acquisition via second control information; acquisition via system messages; configuration via broadcast messages; the transmission parameter is a predefined value; acquisition according to predefined rules; acquisition via proprietary control information; acquisition via common control information; wherein the first control information and the second control information are of the same type of control information, and the first control information and the second control information are sent at different times, or the first control information and the second control information have their own independent CRC checksums.

[0112] It should be noted that the above-mentioned control information types include: higher-level control information (such as RRC control information, MAC-CE control information), and physical layer dynamic control information (such as PDCCH).

[0113] In one alternative implementation, the resource area where the channel and / or signal associated with the first set of transmission parameters is located is a subset of the first resource area; or, the resource area where the channel and / or signal associated with the first set of transmission parameters is located is different from the first resource area, and there is partial overlap.

[0114] This embodiment also provides a method for determining transmission parameters. Figure 2 This is a flowchart of another method for determining transmission parameters according to an embodiment of the present invention, such as... Figure 2 As shown, the process includes the following steps:

[0115] Step S202: Determine the number X of parameter configurations corresponding to the parameter type, where X is a natural number, and there is at least a first parameter configuration and a first time domain resource region where the first parameter acts.

[0116] Step S204: Obtain the configuration of this parameter type based on the judgment result;

[0117] Step S206: When it is determined that X is greater than 1, there is at least a second parameter configuration and a second time-domain resource region in which the second parameter acts.

[0118] In this embodiment, considering the need for more dynamic resource scheduling or other channels / signals, the transmission parameter configuration information included in the more dynamic control information is combined to obtain the configuration of the above transmission parameters. This solves the problem of slow data demodulation at the receiving end in related technologies, thereby achieving the technical effect of accelerating the processing capability of the terminal and reducing the overhead of control information.

[0119] In one alternative implementation, the value of X is determined based on the parameter type; and / or, the value of X is determined by receiving control information, wherein the control information includes the value of X.

[0120] When the value of X is determined to be 1, the configuration of the parameter type is determined according to the first parameter configuration; when the value of X is determined to be greater than 1, the time domain resource region corresponding to each transmission parameter in the X parameter configurations is determined; in the individual functioning part of a time domain resource region, the configuration of the parameter type is determined according to the parameter configuration corresponding to the time domain resource region; in the intersection of Y time domain resource regions among the X time domain resource regions, the configuration of the parameter type is determined according to the Y transmission configurations corresponding to the Y time domain resource regions, or, the configuration of the parameter type is determined according to one of the Y transmission configurations corresponding to the Y time domain resource regions; where Y is a natural number greater than 1 and less than X.

[0121] It should be noted that the individual function of the aforementioned time-domain resource region refers to the portion of the aforementioned resource region that does not intersect with any of the aforementioned M resource regions.

[0122] Optionally, in this embodiment, the configuration method for determining the parameter type of the intersection portion based on the parameter type or based on control information may include at least one of the following:

[0123] Method 1: Determine the configuration of this parameter type based on the Y transmission configurations corresponding to the Y time-domain resource regions;

[0124] Method 2: Determine the configuration of this parameter type based on one of the Y transmission configurations corresponding to the Y time-domain resource regions.

[0125] In the intersection portion, the configuration of the parameter type is determined based on the parameter configuration with the highest priority among the Y parameter configurations.

[0126] Optionally, the control information may further include at least first parameter configuration information. The first parameter configuration is configured by higher-layer control information, and the second parameter configuration is configured by physical layer control information; or, the first parameter configuration is configured by RRC control information, and the second parameter configuration is configured by MAC CE control information.

[0127] It should be noted that, in this embodiment, the aforementioned high-level configuration information includes: RRC control information or MAC CE control information.

[0128] In an optional implementation, the first time-domain resource region corresponding to the first parameter configuration satisfies one of the following characteristics: all time units from the time the first configuration control information is received until the first configuration control information expires; a portion of time units within the range from the time the first configuration control information is received until the first configuration control information expires; all time units from the time the first configuration control information is received until the first configuration control information is updated; or a portion of time units within the range from the time the first configuration control information is received until the first configuration control information is updated.

[0129] For example, a time unit within this range that satisfies a certain periodicity, or a time unit that includes one of the transmission directions. Or, a set of time units within this range that receive physical layer dynamic control information.

[0130] Optionally, the second time-domain resource area corresponding to the above-mentioned second parameter configuration includes: all time from the time the first event occurs to the configured or agreed deadline; or, a time unit group consisting of a portion of time-domain units from the time the first event occurs to the configured or agreed deadline; or, all time from the time the first event occurs to the time the second event occurs; or, a resource group consisting of a portion of time-domain unit resources from the time the first event occurs to the time the second event occurs.

[0131] The first event is receiving control information regarding the second parameter configuration; the second event is receiving control information indicating that the second parameter configuration has failed or has been updated.

[0132] Optionally, the above parameter types include at least one of the following parameter types: precoding binding parameters, quasi-co-address QCL relationship indication parameters, resource configuration parameters, rate matching parameters, reference signal configuration related parameters, receiver configuration parameters, transmission technology / mode, transmission mode, mapping / interleaving parameters, transmit beam configuration parameters, modulation order configuration parameters, coding rate configuration parameters, modulation and coding measurement (MCS) configuration parameters, number of codewords, number of transmission layers, multiple access method, resource multiplexing method, waveform configuration parameters, transmit power configuration parameters, numberology parameters, hybrid automatic repeat request (HARQ) related parameters, measurement parameters, and feedback parameters.

[0133] In this embodiment, the configurable range of parameters of the same type as the first parameter configuration in the second parameter configuration can be determined based on the configuration of the first parameter configuration; the configurable range of parameters with later transmission times is determined based on the configurable range of parameters with earlier transmission times. The number of bits occupied by the second transmission parameter set in the control information notification field is determined according to the configuration of the first transmission parameter set. The control information notification field notifies the second transmission parameter set information.

[0134] The first parameter configuration mentioned above includes multiple subsets, the first time domain resource region includes multiple sub-regions, and the subset is associated with the sub-region; and / or, the second parameter configuration includes multiple subsets, the second time domain region set includes multiple sub-regions, wherein the subset is associated with the sub-region.

[0135] At a certain point in time, some or all parameters in the first parameter configuration that are of the same type as the second parameter configuration are updated to the second parameter configuration; and / or, at a certain point in time, the start position of the first time domain region is updated to the end position of the second time domain region.

[0136] In an optional implementation, the configuration of the third parameter configuration in the first time domain resource region is obtained based on the configuration information of the second parameter configuration; or, the configuration of the third parameter configuration in the first time domain resource region is obtained based on the configuration information of the second parameter configuration and the configuration information of the second parameter configuration; wherein, the third parameter configuration is a set consisting of some parameter types of the same type or all parameter types of the same type included in the first parameter configuration and the second parameter configuration.

[0137] The configuration of the same type of parameter in the second parameter configuration is an offset value relative to the configuration of the same type of parameter in the first parameter configuration; and / or, in the time domain region corresponding to the intersection of the second time domain region and the first time domain region before obtaining the second parameter configuration, the signal is first received with the first transmission parameter.

[0138] The aforementioned parameter configurations satisfy at least one of the following characteristics: each parameter configuration includes a configuration of transmission parameters of the same type; the time domain region where the signal or channel associated with the parameter configuration is located is a subset of the time domain resource region corresponding to the parameter configuration; there is partial overlap between the time domain resource region where the signal or channel associated with the parameter configuration is located and the time domain resource region corresponding to the parameter configuration; the multiple parameter configurations are notified by multiple control information, which includes at least first control information and second control information; the multiple parameter configurations correspond to the configuration information of a signal / channel; the multiple parameter configurations are obtained in different ways; wherein the first control information is used to notify the first parameter configuration, the second control information is used to notify the second parameter configuration, and the parameter configuration is the transmission parameters related to the signal.

[0139] It should be noted that the above-mentioned different control information meets at least one of the following characteristics: the different control information corresponds to the same type; the different control information corresponds to the same type, but the transmission time is different, or the time unit is the same; the different control information corresponds to their own independent CRC check information.

[0140] The aforementioned channel or signal is a signal or channel allocated to a communication node within a time unit. Alternatively, it can refer to a set of time-frequency resource allocation control information corresponding to a single channel or signal.

[0141] Optionally, the different acquisition methods mentioned above include: acquisition via RRC control information; acquisition via MAC-CE control information; acquisition via physical layer dynamic control information; acquisition via first control information; acquisition via second control information; acquisition via system messages; configuration via broadcast messages; the transmission parameter is a pre-defined value; acquisition according to pre-defined rules; acquisition via proprietary control information; acquisition via common control information; wherein the first control information and the second control information are of the same type of control information, and the first control information and the second control information are sent at different times, or the first control information and the second control information have their own independent CRC checksums.

[0142] The time domain region where the channel and / or signal associated with the first parameter configuration is located is a subset of the first time domain region; or, the time domain region where the channel and / or signal associated with the first parameter configuration is located is different from the first time domain region, and there is partial overlap.

[0143] Through the above description of the embodiments, those skilled in the art can clearly understand that the methods according to the above embodiments can be implemented by means of software plus necessary general-purpose hardware platforms. Of course, they can also be implemented by hardware, but in many cases the former is a better implementation method. Based on this understanding, the technical solution of the present invention, in essence, or the part that contributes to the prior art, can be embodied in the form of a software product. This computer software product is stored in a storage medium (such as ROM / RAM, magnetic disk, optical disk) and includes several instructions to cause a terminal device (which may be a mobile phone, computer, server, or network device, etc.) to execute the methods described above in the various embodiments of the present invention.

[0144] Example 2

[0145] This embodiment provides a transmission parameter determination device for implementing the above embodiments and preferred embodiments; details already described will not be repeated. As used below, the term "module" can refer to a combination of software and / or hardware that performs a predetermined function. Although the device described in the following embodiments is preferably implemented in software, hardware implementation, or a combination of software and hardware, is also possible and contemplated.

[0146] Figure 3 This is a structural block diagram of a transmission parameter determination device according to an embodiment of the present invention, such as... Figure 3 As shown, the device includes:

[0147] 1) The first acquisition module 32 is used to acquire multiple sets of transmission parameters, wherein the multiple sets of transmission parameters include at least: a first set of transmission parameters, a second set of transmission parameters, and a transmission parameter of the same type;

[0148] 2) The first determining module 34 is used to determine multiple resource regions, wherein the multiple resource regions include at least: a first resource region and a second resource region; the resource region includes at least one of the following: a time domain resource region, a code domain resource region, a frequency domain resource region, a spatial domain resource region, and a reference signal resource region;

[0149] 3) Processing module 36, configured to send or receive information in the resource area according to the set of transmission parameters; wherein at least: sending or receiving information in the first resource area according to the first set of transmission parameters; and sending or receiving information in the second resource area according to the second set of transmission parameters.

[0150] In an optional implementation, the processing module 36 includes: a first processing unit, configured to send or receive information in a separate functioning portion of a resource region according to a set of transmission parameters corresponding to the resource region; or a second processing unit, configured to send or receive information in the intersection portion of N resource regions among multiple resource regions according to a set of N transmission parameters corresponding to the N resource regions; or a third processing unit, configured to send or receive information in the intersection portion of N resource regions among multiple resource regions according to one of the sets of N transmission parameters corresponding to the N resource regions; wherein N is a natural number greater than 1.

[0151] Optionally, the resource area can be divided in at least one of the following ways: dividing according to the time of acquiring control information; determining the resource area division by receiving control information, wherein the control information includes the resource area division information; determining the resource area division according to the area where the control information of the transmission parameter set is effective; or determining the resource area division according to the rules agreed upon by the receiving end and the sending end.

[0152] Optionally, the resource area is divided according to at least one of the following parameters: type of transmission parameters, type of channel, type of signal, type of service, configuration of transceiver antennas, structure type of time-domain resource unit to which the resource area belongs, configuration of the numerology of the resource area, transmission mode / technology / method used when transmitting in the resource area, type of information transmitted in the resource area, and transmission direction.

[0153] Optionally, the same type of transmission parameters includes one or more of the following: precoding binding parameters, quasi-co-address QCL relationship indication parameters, resource configuration parameters, rate matching parameters, reference signal configuration related parameters, receive mode configuration parameters, transmission technology / mode, transmission mode, mapping / interleaving parameters, transmit beam configuration parameters, modulation order configuration parameters, coding rate configuration parameters, modulation and coding scheme (MCS) configuration parameters, number of codewords, number of transmission layers, multiple access method, resource multiplexing method, waveform configuration parameters, transmit power configuration parameters, numberology parameters, hybrid automatic repeat request (HARQ) related parameters, measurement parameters, feedback parameters, and transmission mode.

[0154] Optionally, the second resource region is a subset of the first resource region; the intersection between the second resource region and the first resource region is empty; the intersection between the second resource region and the first resource region is non-empty, and the second resource region and the first resource region do not overlap; the first resource region and the second resource region are the same; the first resource region changes according to the second resource region.

[0155] Optionally, the values ​​of some or all of the parameters included in the first transmission parameter set may be determined by at least one of the following methods: based on a previously configured transmission parameter set, based on Radio Resource Control (RRC) configuration signaling, based on Media Access Control (MAC) configuration signaling, based on System Information Block (SIB) messages, based on Physical Broadcast (PBCH) messages, based on common control information, or based on a prior agreement between the sender and receiver.

[0156] Optionally, some or all of the parameters included in the second set of transmission parameters are determined based on the information transmitted in the first resource area.

[0157] Optionally, in the second transmission parameter set, there exists at least one type of parameter corresponding to a candidate configuration set A, and for parameters of the same type, there exists a candidate configuration set corresponding to the first transmission parameter set a; wherein, A is a set consisting of configurable states, and a is a proper subset of A or A is a proper subset of a.

[0158] Optionally, its features satisfy at least one of the following features: Based on the configuration of the first transmission parameter set, the configurable range of parameters of the same type as the first transmission parameter set in the second transmission parameter set is determined; the configurable range of the transmission parameter set with a later transmission time is determined based on the configurable range of the transmission parameter set with an earlier transmission time, and the number of bits occupied by the second transmission parameter set in the control information notification field is determined according to the configuration of the first transmission parameter set. The control information notification field notifies the second transmission parameter set of information.

[0159] Optionally, the first transmission parameter set includes multiple subsets, the first resource region includes multiple sub-regions, and the subset is associated with the sub-region; and / or, the second transmission parameter set includes multiple subsets, the second resource region set includes multiple sub-regions, wherein the subset is associated with the sub-region.

[0160] Optionally, at a certain point in time, some or all parameters in the first set of transmission parameters that are of the same type as the second set of transmission parameters are updated to the second set of transmission parameters; and / or,

[0161] At a certain point in time, the starting position of the first resource region is updated to the ending position of the second resource region.

[0162] Optionally, the method further includes: obtaining the configuration of a third transmission parameter set in the first resource region based on the configuration information of the second transmission parameter set; or, obtaining the configuration of a third transmission parameter set in the first resource region based on the configuration information of the second transmission parameter set and the configuration information of the second transmission parameter set; wherein the third transmission parameter set is a set consisting of some parameter types of the same type or all parameter types of the same type included in the first transmission parameter set and the second transmission parameter set.

[0163] Optionally, the configuration of the same type of parameter in the second transmission parameter set is an offset value relative to the configuration of that parameter type in the first transmission parameter set; and / or, in the resource area corresponding to the intersection of the second resource area and the first resource area before obtaining the second transmission parameter set, the signal is first received with the first transmission parameter.

[0164] Optionally, the plurality of transmission parameter sets satisfy at least one of the following characteristics: each transmission parameter set includes a configuration of the same type of transmission parameter; the resource area where the signal or channel associated with the transmission parameter set is located is a subset of the resource area corresponding to the transmission parameter set; there is partial overlap between the resource area where the signal or channel associated with the transmission parameter set is located and the resource area corresponding to the transmission parameter set; the plurality of transmission parameter sets are notified by a plurality of control information, the plurality of control information including at least first control information and second control information; the plurality of transmission parameter sets correspond to configuration information of a signal / channel; the plurality of transmission parameter sets are obtained in different ways; wherein, the first control information is used to notify the first transmission parameter set, the second control information is used to notify the second transmission parameter set, and the transmission parameter set is a transmission parameter related to the signal or channel.

[0165] Optionally, the acquisition method includes: acquiring via RRC control information; acquiring via MAC-CE control information; acquiring via physical layer dynamic control information; acquiring via first control information; acquiring via second control information; acquiring via system messages; configuring via broadcast messages; the transmission parameter is a predefined value; acquiring according to predefined rules; acquiring via proprietary control information; acquiring via common control information; wherein the first control information and the second control information are control information of the same type, and the first control information and the second control information are sent at different times, or the first control information and the second control information have their own independent CRC checksums.

[0166] Optionally, the resource area where the channel and / or signal associated with the first set of transmission parameters is located is a subset of the first resource area; or, the resource area where the channel and / or signal associated with the first set of transmission parameters is located is different from the first resource area, and there is partial overlap.

[0167] This embodiment also provides a transmission parameter determination device. Figure 4 This is a structural block diagram of a transmission parameter determination device according to an embodiment of the present invention, such as... Figure 4 As shown, the device includes

[0168] 1) Judgment module 42 is used to determine the number X of parameter configurations corresponding to the parameter type, where X is a natural number, there is at least a first parameter configuration, and a first time domain resource region where the first parameter acts;

[0169] 2) The second acquisition module 44 acquires the configuration of this parameter type based on the judgment result;

[0170] 3) The second determining module 46 is used to determine that when X is greater than 1, at least a second parameter configuration exists, and the second time domain resource region in which the second parameter acts.

[0171] Optionally, the value of X is determined according to the parameter type mentioned above; and / or, the value of X is determined by receiving control information, wherein the control information includes the value of X.

[0172] Optionally, when the value of X is determined to be 1, the configuration of the parameter type is determined according to the first parameter configuration; when the value of X is determined to be greater than 1, the time domain resource region corresponding to each transmission parameter in the X parameter configurations is determined; in the individual functioning part of a time domain resource region, the configuration of the parameter type is determined according to the parameter configuration corresponding to the time domain resource region; in the intersection of Y time domain resource regions among the X time domain resource regions, the configuration of the parameter type is determined according to the Y transmission configurations corresponding to the Y time domain resource regions, or, the configuration of the parameter type is determined according to one of the Y transmission configurations corresponding to the Y time domain resource regions; where Y is a natural number greater than 1 and less than X.

[0173] Optionally, the above method further includes: determining the configuration of the above-mentioned parameter type based on the above-mentioned parameter type or based on control information. The configuration method of the above-mentioned parameter type includes at least one of the following: Method 1: determining the configuration of the above-mentioned parameter type based on Y transmission configurations corresponding to Y time-domain resource regions; Method 2: determining the configuration of the above-mentioned parameter type based on one of the Y transmission configurations corresponding to Y time-domain resource regions.

[0174] Optionally, in the intersection portion described above, the configuration of the parameter type is determined based on the parameter configuration with the highest priority among the Y parameter configurations.

[0175] Optionally, the control information may also include at least the first parameter configuration information.

[0176] Optionally, the first parameter configuration is configured by higher-layer control information, and the second parameter configuration is configured by physical layer control information; or, the first parameter configuration is configured by RRC control information, and the second parameter configuration is configured by MAC CE control information.

[0177] Optionally, the first time domain resource region corresponding to the first parameter configuration above satisfies one of the following characteristics: all time units from the time the first configuration control information is received until the first configuration control information expires; a portion of time units within the range from the time the first configuration control information is received until the first configuration control information expires; all time units from the time the first configuration control information is received until the first configuration control information is updated; a portion of time units within the range from the time the first configuration control information is received until the first configuration control information is updated.

[0178] Optionally, the second time-domain resource area corresponding to the above-mentioned second parameter configuration includes: all time from the time the first event occurs to the configured or agreed deadline; or, a time unit group consisting of a portion of time-domain units from the time the first event occurs to the configured or agreed deadline; or, all time from the time the first event occurs to the time the second event occurs; or, a resource group consisting of a portion of time-domain unit resources from the time the first event occurs to the time the second event occurs.

[0179] Optionally, the first event mentioned above is receiving control information regarding the second parameter configuration; the second event mentioned above is receiving control information regarding the failure or update of the second parameter configuration.

[0180] Optionally, the above parameter types include at least one of the following parameter types: precoding binding parameters, quasi-co-address QCL relationship indication parameters, resource configuration parameters, rate matching parameters, reference signal configuration related parameters, receiver configuration parameters, transmission technology / mode, transmission mode, mapping / interleaving parameters, transmit beam configuration parameters, modulation order configuration parameters, coding rate configuration parameters, modulation and coding measurement (MCS) configuration parameters, number of codewords, number of transmission layers, multiple access method, resource multiplexing method, waveform configuration parameters, transmit power configuration parameters, numberology parameters, hybrid automatic repeat request (HARQ) related parameters, measurement parameters, feedback parameters, and transmission mode.

[0181] Optionally, it includes at least one of the following features: determining the configurable range of parameters of the same type as the first parameter configuration in the second parameter configuration based on the configuration of the first parameter configuration; the configurable range of parameter configurations with later transmission times is determined based on the configurable range of parameter configurations with earlier transmission times. The number of bits occupied by the second transmission parameter set in the control information notification field is determined according to the configuration of the first transmission parameter set. The control information notification field notifies the second transmission parameter set information.

[0182] Optionally, the first parameter configuration includes multiple subsets, the first time-domain resource region includes multiple sub-regions, and the subsets are associated with the sub-regions; and / or, the second parameter configuration includes multiple subsets, the second time-domain region set includes multiple sub-regions, wherein the subsets are associated with the sub-regions.

[0183] Optionally, at a certain point in time, some or all parameters in the first parameter configuration that are of the same type as the second parameter configuration are updated to the second parameter configuration; and / or, at a certain point in time, the start position of the first time domain region is updated to the end position of the second time domain region.

[0184] Optionally, the above method further includes: obtaining the configuration of the third parameter configuration in the first time domain resource region based on the configuration information of the second parameter configuration; or, obtaining the configuration of the third parameter configuration in the first time domain resource region based on the configuration information of the second parameter configuration and the configuration information of the second parameter configuration; wherein the third parameter configuration is a set consisting of some parameter types of the same type or all parameter types of the same type included in the first parameter configuration and the second parameter configuration.

[0185] Optionally, the configuration of the same type of parameter in the second parameter configuration is an offset value relative to the configuration of the parameter type in the first parameter configuration; and / or, in the time domain region corresponding to the intersection of the second time domain region and the first time domain region before obtaining the second parameter configuration, the signal is first received with the first transmission parameters.

[0186] Optionally, the multiple parameter configurations satisfy at least one of the following characteristics: each parameter configuration includes a configuration of transmission parameters of the same type; the time domain region where the signal or channel related to the parameter configuration is located is a subset of the time domain resource region corresponding to the parameter configuration; there is partial overlap between the time domain resource region where the signal or channel related to the parameter configuration is located and the time domain resource region corresponding to the parameter configuration; the multiple parameter configurations are notified by multiple control information, the multiple control information including at least first control information and second control information; the multiple parameter configurations correspond to the configuration information of a signal / channel; the multiple parameter configurations are obtained in different ways; wherein, the first control information is used to notify the first parameter configuration, the second control information is used to notify the second parameter configuration, and the parameter configuration is a transmission parameter related to the signal.

[0187] Optionally, the above acquisition methods include: acquiring via RRC control information; acquiring via MAC-CE control information; acquiring via physical layer dynamic control information; acquiring via first control information; acquiring via second control information; acquiring via system messages; configuring via broadcast messages; the above transmission parameters are agreed values; acquiring according to agreed rules; acquiring via proprietary control information; acquiring via common control information; wherein the above first control information and the above second control information are control information of the same type, and the above first control information and the above second control information are sent at different times, or the above first control information and the above second control information have their own independent CRC check codes.

[0188] Optionally, the time domain region where the channel and / or signal associated with the first parameter configuration is located is a subset of the first time domain region; or, the time domain region where the channel and / or signal associated with the first parameter configuration is located is different from the first time domain region, and there is partial overlap.

[0189] It should be noted that the above modules can be implemented by software or hardware. For the latter, they can be implemented in the following ways, but are not limited to: all the above modules are located in the same processor; or, the above modules are located in different processors in any combination.

[0190] Example 3

[0191] In this embodiment, both the first transmission parameter set and the second transmission parameter set include the same type of information, but the time regions (i.e., the aforementioned resource regions) corresponding to the first transmission parameter set and the second transmission parameter set are different. Specifically, the time regions corresponding to the first transmission parameter set are different; for example, the first transmission parameter set corresponds to a first time region, and the second transmission parameter set corresponds to a second time region.

[0192] It should be noted that in this embodiment, the time window corresponds to the time region.

[0193] like Figures 5a-5b As shown, the second time region is a subset of the first time region, where the first time region includes {slotn5, slotn2, slotn3, slotn4}, and the second time region includes {slotn2}. Slotn5 to slotn2 can be time slots that are continuous in the time domain or discontinuous in the time domain. Figure 5a The second time region includes only one slot, but this embodiment does not exclude the possibility that the second time region may include more than one slot. Figures 5a-5b In this embodiment, the time unit is a time slot. However, this embodiment does not exclude the possibility that the time unit is a time domain symbol or other time unit. Figures 5a-5b The number of locations in the first and second time zones is just an example and does not exclude other possibilities.

[0194] The intersection between the first and second time zones can also be empty, such as... Figures 5c-5d As shown, in Figures 5c-5d The time unit is a time-domain OFDM symbol, but other time unit types are also possible.

[0195] The first and second time regions can be a non-empty intersection, and do not satisfy the subset relation, meaning the two time regions partially overlap, or they can be empty. Figure 5e As shown, Figure 5e The time unit is a slot, but other time unit types are also possible.

[0196] The first time zone and the second time zone can also be the exact same time zone.

[0197] Figures 5a-5e The relationship between the first and second time zones is just an example, and this embodiment does not exclude other time zone relationships.

[0198] Figures 5a-5b and Figure 5e As shown, in the intersection of two time regions (i.e., the part that interacts), one approach is to determine the transmission parameter values ​​of the intersection based on the second transmission parameter set; another approach is to determine the transmission parameter values ​​of the intersection based on both the second and second transmission parameter sets, for example, the transmission parameter values ​​are the union of the first and second transmission parameter sets. In the non-interactive part, the transmission parameter values ​​are based on the transmission parameters corresponding to the respective transmission region. Specifically, for example, in time units within the first time region excluding the second time region, the transmission parameter values ​​are determined solely based on the first transmission resource set; and in time units within the second time region excluding the first time region, the transmission parameters are determined solely based on the second transmission resource set.

[0199] In this embodiment, the above-mentioned resource region is a time region. Similarly, in this embodiment, the above-mentioned resource region can be at least one of the following resource regions: time domain resource region, code domain resource region, frequency domain resource region, and spatial domain resource (antenna / beam) region.

[0200] Example 4

[0201] This embodiment describes the principles for dividing the first and second resource areas.

[0202] The first division principle is based on the time of acquiring and transmitting physical layer / MAC layer / RRC layer control information. For example, the boundary between two regions is defined by the time the terminal acquires physical layer control information (such as PDCCH) within a time unit. Figure 6a As shown, in Figure 6a The first time window (the aforementioned first resource area) is the time window before the PDCCH is decoded within a time slot, and the second time window (the aforementioned second resource area) is the time window after the PDCCH is decoded within a time slot. Figure 6a The downlink control domain can also be removed from the first time window.

[0203] In one embodiment, after a certain time point, the first transmission parameter set is updated to the previous second transmission parameter set, the start position of the first time window is updated to the start position of the previous second time window (or the end position of the previous second time window, or any position within the previous second time window), and the end position of the first time window is the second decoded control information, wherein the control information includes the aforementioned transmission parameter set or a subset thereof. Figure 6b As shown, the second resource region in slotn is the region after the PDCCH is decoded in slotn. After slotn, the starting position of the first time window is the ending position of slotn.

[0204] The second resource region division principle in this embodiment is that the MAC CE control information obtained by the terminal serves as the boundary between the first resource region and the second resource region. Preferably, the area before the aforementioned boundary is the first resource region, and the area after the aforementioned boundary is the second resource region.

[0205] The third resource area division principle in this embodiment is that the RRC control information obtained by the terminal serves as the boundary between the first resource area and the second resource area. Preferably, the area before the aforementioned boundary is the first resource area, and the area after the aforementioned boundary is the second resource area.

[0206] The fourth resource area division method in this embodiment is to determine the division of the first resource area and the second resource area based on the control information sent by the base station. The control information includes the division information of the first resource area and the second resource area. The control information is notified through at least one of the following control information: higher layer control information (such as RRC control information, MAC CE control information), and physical layer dynamic control information (such as PDCCH).

[0207] The fifth resource area partitioning method in this embodiment is based on agreed-upon rules. For example, the boundary between the first and second resource areas is defined as the Kth time-domain symbol of a slot. Alternatively, the boundary can be defined as the end position of the downlink control domain. For instance, the blind detection range of the PDCCH is the first 6 time-domain symbols of a time slot, and if the terminal detects that all DCIs in its current time unit are on the first time-domain symbol, then the second time-domain symbol serves as the boundary.

[0208] The sixth implementation in this embodiment obtains the resource region based on the time range during which the control information notifying the aforementioned transmission parameter set configuration information takes effect. Specifically, for example, the first resource region satisfies one of the following characteristics: all time units from the time the terminal receives the first configuration control information until the first configuration control information expires; a portion of time units within the range from the time the terminal receives the first configuration control information until the first configuration control information expires; all time units from the time the terminal receives the first configuration control information until the first configuration control information is updated; a portion of time units within the range from the time the terminal receives the first configuration control information until the first configuration control information is updated, such as time units within the aforementioned range that satisfy predetermined rules, such as time units within the aforementioned range that have a predetermined period, or the aforementioned time units include one of the transmission directions. The second resource region satisfies at least one of the following characteristics: all time from the time the first event occurs to the configured or agreed deadline; a group of time units consisting of a portion of time domain units within the range from the time the first event occurs to the configured or agreed deadline; all time from the time the first event occurs to the time the second event occurs; a resource group consisting of a portion of time domain unit resources within the range from the time the first event occurs to the time the second event occurs. The first event mentioned above refers to receiving control information regarding the second parameter configuration; the second event mentioned above refers to receiving control information regarding the failure or update of the second parameter configuration. Specifically, for example, the first configuration control information is higher-level configuration information, and the second parameter configuration control information is physical layer dynamic control information.

[0209] In the seventh embodiment of this example, the division of resource areas is determined according to parameter types. Different parameter types result in different divisions of resource areas.

[0210] Example 5

[0211] In this embodiment, the base station sends higher-layer control information to the terminal, wherein the higher-layer control information (i.e., the first parameter configuration control information) includes the demodulation reference signal information (i.e., the first parameter configuration) of the terminal, wherein the demodulation reference signal information includes at least one of the following: demodulation reference signal port set information, demodulation reference signal port number information, frequency domain resources corresponding to the demodulation reference signal port set, and frequency domain first precoding granularity unit corresponding to the demodulation reference signal port set.

[0212] like Figure 7a As shown, the higher-level control information corresponds to slotn~slotn+K (i.e., the first time domain range mentioned above). In the above slotn~slotn+K, the terminal can perform channel estimation based on the demodulation reference information provided in the notification.

[0213] In this way, the terminal can perform channel estimation in any slot from slot n to slot n+K before decoding its downlink control information (such as PDCCH), thereby accelerating data demodulation. For example... Figure 7b As shown, if the terminal needs to decode the downlink physical layer dynamic control information (DCI) after symbol 4, while the demodulation reference signal is sent on time domain symbol 2, the terminal can only perform channel estimation after symbol 4 if there is no higher-layer control information notification. However, if there is higher-layer control information notification, the terminal can perform channel estimation before decoding symbol 4. After decoding the DCI at symbol 4, the terminal obtains the scheduling data of this slot and can continue data demodulation using the prepared channel estimation result. When the terminal decodes the DCI and finds that there is no scheduling data of this slot, the terminal terminates the data demodulation of this slot and waits for the next slot.

[0214] As can be seen from the above description, because the high-level control information pre-configures the demodulation reference signal port information, the terminal can perform channel estimation in advance before obtaining dynamic scheduling information, thus accelerating the data processing process.

[0215] In the above scheme, when the higher layer notifies the demodulation reference signal port information, it also needs to inform the terminal of the frequency domain resources occupied by the demodulation reference signal. One method is to pre-determine the frequency domain resources occupied by the demodulation reference signal with the terminal, such as... Figure 7b As shown, the frequency domain resources occupied by the demodulation reference signal are agreed to be the system bandwidth allocated to the terminal. Of course, it is not impossible that the frequency domain resources occupied by the aforementioned demodulation reference signal are agreed to be in other cases, such as... Figure 7c As shown, the frequency domain resources occupied by the aforementioned demodulation reference signal are defined as the frequency domain resources occupied by the data most recently allocated to the terminal (i.e., the scheduling in the most recent time unit before the current time unit). The second method is to notify the aforementioned higher-layer control information of the frequency domain resources occupied by the demodulation reference signal.

[0216] exist Figures 7b-7c In this embodiment, the demodulation reference signal continuously occupies its assigned frequency domain resources. However, this embodiment does not exclude the possibility that the frequency domain resources occupied by the demodulation reference signal are physical resource blocks, and within each physical resource block, the demodulation reference signal occupies a portion of the subcarriers. For example... Figure 7d As shown, assuming the system bandwidth allocated to the terminal is 4 PRBs, and the subcarrier pattern occupied by demodulation reference signal port 1 in each PRB is as follows: Figure 7d As shown, the frequency domain resources corresponding to the demodulation reference signal are one or more of the four PRBs mentioned above. For example, the frequency domain resources corresponding to the demodulation reference signal are PRB2 to PRB3.

[0217] Before the terminal obtains dynamic DCI control information, channel estimation is first performed on demodulation reference signal port 1 on PRB2-PRB3. When the DCI control information indicates that the terminal's data is on PRB2, the terminal uses the channel estimation value obtained on PRB2 to continue data demodulation. When the DCI control information indicates that the terminal's data is on PRB1-PRB3, the terminal can use the channel estimation values ​​already obtained on PRB2-PRB3 to demodulate the data on PRB2-PRB3, and also continue to obtain the channel estimation of demodulation reference signal port 1 on PRB1, and then perform data demodulation on PRB1. Of course, this embodiment does not exclude the possibility that the terminal's scheduling data is not on PRB2-PRB3. In this case, the terminal abandons the channel estimation values ​​obtained on PRB2-PRB3 and performs channel estimation on the PRB where the terminal's scheduling data is located. That is, at this time, one demodulation reference signal port corresponds to two frequency domain resources: one is the frequency domain resource corresponding to the channel estimation based on the information notified by the higher-layer control information, and the other is the frequency domain resource obtained according to the dynamic control information, that is, the frequency domain resource where the demodulation reference signal is actually transmitted.

[0218] In summary, one demodulation reference signal port corresponds to two frequency domain resources. However, this embodiment does not preclude the convention that one demodulation reference signal corresponds to only one frequency domain resource, meaning that the frequency domain resource corresponding to channel estimation based on higher-layer control information notification is the same as the frequency domain resource actually transmitted by the demodulation reference signal. It is important to note that when the terminal performs channel estimation based on the information notified by the higher-layer control information, it needs to know the PRB bundling parameters because there may be some frequency domains where the terminal's data is not actually scheduled. Preferably, the frequency domain bundling of the demodulation reference signal notified by the higher-layer control information (hereinafter referred to as the first frequency domain precoding granularity unit) should be a subset of the demodulation reference signal bundling in the terminal's current time unit (hereinafter referred to as the second frequency domain precoding granularity unit), or the first precoding granularity unit is smaller than the second frequency domain precoding granularity unit. Preferably, the first frequency domain precoding granularity unit is defined as one PRB, and the bundling of the actual demodulation reference signal of the terminal in the current time unit, i.e., the second frequency domain precoding granularity unit, can be determined based on the system bandwidth allocated to the terminal, or by the size of the second frequency domain precoding granularity unit notified by control information. For example... Figure 7dAs shown, when performing channel estimation based on higher-layer control information, the terminal assumes that the size of the first frequency domain precoding granularity unit of its demodulation reference signal is one PRB. The channel estimates obtained by the terminal on PRB2 and PRB3 cannot be used for joint channel estimation. When it is known from the dynamic control information that the scheduling data of the current slot terminal occupies PRB2 to PRB3, and the second frequency domain precoding granularity unit includes two PRBs, and at this time according to the agreed rules (for example, a method similar to that in LTE can be used to divide the PRB bundling unit according to the system bandwidth), PRB2 to PRB3 fall into one PRB bundling unit. At this time, the terminal can perform joint channel estimation on the channel estimates obtained on PRB2 to PRB3.

[0219] In summary, one demodulation reference signal port corresponds to two frequency domain bundling sizes (or two frequency domain precoding granularity units). Of course, this embodiment does not exclude the possibility that the second precoding granularity unit is the same as the first precoding granularity unit, that is, one demodulation reference signal port corresponds to one frequency domain bundling size.

[0220] exist Figure 7a In this embodiment, the demodulation reference signal information of the high-level control information notification is valid from slot n to slot n+K. However, this embodiment does not exclude the possibility that the valid time units of the demodulation reference signal are discontinuous, such as... Figure 7e As shown, the demodulation reference signal is valid every K1 time units. The validity of the demodulation reference signal in these time units indicates that the terminal can perform channel estimation based on the demodulation reference signal before obtaining DCI dynamic scheduling information. During scheduling, the base station also assumes that the terminal will perform channel estimation based on the information notified by higher-layer control information in these time units before obtaining DCI scheduling information, thus providing a reference for scheduling. For example, in scheduling scenarios that do not affect MU-MIMO, data is preferentially sent to the terminal on the demodulation reference signal port notified by higher-layer control information. Figure 7a In slotn~slotn+K, or Figure 7e Slotn, slotn+K1, ..., slotn+M*K1 constitute the time region (i.e., the resource region) corresponding to the demodulation reference signal information of the aforementioned higher-level control information notification. Of course, this embodiment does not exclude the possibility that the time region corresponding to the aforementioned demodulation reference signal may be other cases.

[0221] The time region corresponding to the demodulation reference signal in the aforementioned higher-layer notification can be determined in two ways: either by agreeing on rules with the terminal, or by notifying the time region corresponding to the demodulation reference signal in the aforementioned higher-layer control information. Outside of the time region corresponding to the demodulation reference signal in the aforementioned higher-layer notification, the terminal will not attempt channel estimation based on the demodulation reference signal notified by the aforementioned higher-layer control information before acquiring dynamic control information, thereby reducing the terminal's power consumption.

[0222] In the above embodiments, the demodulation reference signal information (i.e., the first parameter configuration information or the first transmission parameter set information) is notified in the higher-layer control information. The notified demodulation reference information can be valid for more than one time unit. Of course, this embodiment also does not exclude the notification of the demodulation reference signal information (i.e., the first parameter configuration information or the first transmission parameter set information is notified in the dynamic physical layer control information) in the dynamic physical layer control information. The notified demodulation reference information is valid for more than one time unit. Alternatively, the demodulation reference information (i.e., the first parameter configuration information or the first transmission parameter set information is notified in the higher-layer control information + dynamic physical layer control information) can be notified through the higher-layer control information and the dynamic physical layer control information. The notified demodulation reference information is valid for more than one time unit.

[0223] In one implementation scenario of this embodiment, the terminal assumes that if the base station sends the demodulation reference signal port notification, it will at least send data on the frequency domain resources corresponding to the demodulation reference signal port, even if there is no terminal data on some of the corresponding frequency domain resources. For example... Figure 7d As shown, if the frequency domain resources corresponding to the demodulation reference signal port {1} notified by the terminal's higher-layer control information and / or dynamic control information are PRB0 to PRB3, then the terminal first performs the channel estimation corresponding to the demodulation reference signal port {1} on slot n on PRB0 to PRB3. If the dynamic control information indicates that the frequency domain resources occupied by the data are PRB0, the terminal assumes that although there is no terminal data on the frequency domain PRB1 to PRB3, the base station at least sends the demodulation reference signal port {1} on PRB1 to PRB3. At least the terminal can obtain some large-scale information or other information of the demodulation reference signal port {1} based on the information on PRB0 to PRB3.

[0224] In one implementation scenario of this embodiment, control information is sent to the base station, wherein the first information and the second information in the control information are jointly encoded.

[0225] The first information indicates whether the aforementioned higher-layer control information (including demodulation reference signal information) is sent to the terminal, and the second information indicates whether the terminal's downlink data acknowledgment and the downlink data occur within the same time unit.

[0226] Alternatively, the second information indicates the time offset range between the terminal's downlink data ACK / NACK response and the aforementioned downlink data, and indicates whether to send the aforementioned higher-layer control information to the terminal based on whether the time offset range is less than a predetermined value.

[0227] Alternatively, the decision to send the aforementioned higher-level control information to the terminal can be made based on the terminal's reported capability level, where the terminal's capability level characterizes the terminal's data processing capability rate level.

[0228] Similar to the demodulation reference signal information mentioned above, the transmission parameters, measurement parameters, and feedback parameters can also be notified in the aforementioned higher-level control information.

[0229] Example 6

[0230] In this embodiment, a demodulation reference signal port set is configured for the terminal using higher-layer control information and dynamic physical layer control information. The demodulation reference signal port set configured by the higher-layer control information is referred to as the first demodulation reference signal port set (i.e., the aforementioned first transmission parameter set, or first parameter configuration), and the demodulation reference signal port set configured for the terminal by the dynamic physical layer control information is referred to as the second demodulation reference signal port set (i.e., the aforementioned second transmission parameter set, or second parameter configuration).

[0231] In the first implementation of this embodiment, the demodulation reference signal port set is the union of the first demodulation reference signal port set and the second demodulation reference signal port set. For example, the demodulation reference signal port set of the terminal is configured as port {1} by the higher layer control information, and the port set configured for the terminal by the dynamic physical layer control information is {2, 3}. Then the data demodulation reference signal port set of the terminal is the union of {1} and {2, 3}, which is the set composed of demodulation reference signal ports {1, 2, 3}.

[0232] Preferably, the first demodulation reference signal port set {1} corresponds to two frequency domain resources. The first frequency domain resource is the frequency domain resource assumed to be occupied by the demodulation reference signal when the terminal performs channel estimation based on port 1 before obtaining DCI. The second frequency domain resource is the frequency domain resource of the demodulation reference signal port set {1} sent to the terminal by the base station after the terminal obtains DCI control information. The second demodulation reference signal port set corresponds to only one frequency domain resource, which is the frequency domain resource occupied by the terminal's data. In this case, one approach is to specify that the second frequency domain resource of the first demodulation reference signal port set is the corresponding frequency domain resource of the second reference signal port set. Of course, this embodiment does not exclude the possibility that the second frequency domain resource of the first demodulation reference signal port set and the corresponding frequency domain resource of the second reference signal port set are different. That is, it is allowed that the frequency domain resources corresponding to different demodulation reference signals of the terminal are different. Figure 7f As shown, the frequency domain resources corresponding to the first demodulation reference signal port set and the second demodulation reference signal port set are different. In particular, the second frequency domain resources of demodulation reference signal ports in the first demodulation reference signal port set that do not belong to the second demodulation reference port set are different from the frequency domain resources corresponding to the second reference signal port set. For example, the second frequency domain resources of demodulation reference signal ports in the first demodulation reference signal port set that do not belong to the second demodulation reference port set are conventionally defined as the aforementioned first frequency domain resources, while the frequency domain resources corresponding to the second reference signal port set are the frequency domain resources where the data of the dynamic control information scheduling resides. For example, if the first demodulation reference signal port set is {1, 5}, the second demodulation reference signal port set is {1, 2, 3}, and the demodulation reference signal for the terminal data is composed of ports {1, 2, 3, 5}, then the frequency domain resources corresponding to port {5} and the frequency domain resources corresponding to ports {1, 2, 3} can be different. This allows the terminal to correspond to different layers on different frequency domain resources.

[0233] Similarly, the relationship between the time-domain resources of the first demodulation reference signal port set and the time-domain resources of the second demodulation reference signal can also be determined using a relationship similar to that of the frequency-domain resources described above, which will not be elaborated here.

[0234] In a second implementation of this embodiment, the priority of the second demodulation reference signal port set is higher than that of the first demodulation reference signal port. The demodulation reference signal for the terminal's data and / or control is composed of the second demodulation reference signal port set. For example, if the first demodulation reference signal port set is {1} and the second demodulation reference signal port set is {2}, then the terminal's demodulation reference signal is composed of the second demodulation reference signal port set {2}. Similarly, if the first demodulation reference signal port set is {1, 2} and the second demodulation reference signal port set is {2}, then the terminal's demodulation reference signal is composed of the second demodulation reference signal port set {2}. Again, if the first demodulation reference signal port set is {1} and the second demodulation reference signal port set is {1, 2}, then the terminal's demodulation reference signal is composed of the second demodulation reference signal port set {1, 2}.

[0235] Optionally, the configurable range of the configuration information of the second demodulation reference signal is determined based on the configuration of the first demodulation reference signal. Specifically, for example, the configurable range of the configuration information of the second demodulation reference signal may be a subset of the configuration of the first demodulation reference signal, or the configurable range of the configuration information of the second demodulation reference signal may not include the configuration of the first demodulation reference signal. Of course, other methods for determining the configurable range of the second demodulation reference signal based on the configuration of the first demodulation reference signal are also possible.

[0236] Similar to the demodulation reference signal information mentioned above, the transmission parameters, measurement parameters, and feedback parameters can also be notified in the aforementioned higher-level control information and dynamic physical layer control information.

[0237] Example 7

[0238] In this embodiment, the higher-layer configuration information configures the demodulation reference information of the control channel (i.e., the first transmission parameter set or the first parameter mentioned above), wherein the information of the demodulation reference signal includes at least one of the following: demodulation reference signal port set information, pattern selection information corresponding to the demodulation reference signal port, number of demodulation reference signal ports, frequency domain resources corresponding to the demodulation reference signal port set, time domain precoding granularity unit of the demodulation reference signal, time domain symbol index information occupied by the demodulation reference signal, first frequency domain precoding granularity unit corresponding to the demodulation reference signal, third reference signal port set corresponding to the control channel demodulation reference signal, and time domain region division corresponding to the demodulation reference signal port set.

[0239] To support MU-MIMO transmission, the time-domain and / or frequency-domain regions corresponding to the aforementioned demodulation reference signal port set are designed for MU interference detection. Since control channel MU-MIMO transmission also needs to be supported, the control channel demodulation reference signal port information allocated to different terminals on the same time-frequency resources can differ. Terminals need to perform MU interference cancellation, which increases their complexity. Therefore, time-domain and / or frequency-domain restrictions can be applied to this demodulation reference signal region. Specifically, the terminal performs control channel MU interference cancellation only in the notified frequency-domain region and / or the notified time-domain region. The aforementioned third reference signal port set assists the terminal in performing MU interference cancellation. For example, if the terminal cannot assume that ports in the aforementioned third reference signal port set are not occupied by other communication nodes, then the terminal needs to perform interference estimation on the ports in the aforementioned third reference signal port set. Alternatively, the terminal can also perform MU interference cancellation on the set formed by the difference between the aforementioned third reference signal port set and the aforementioned control channel demodulation reference signal.

[0240] For a time-domain resource partitioning region corresponding to a control channel demodulation reference signal port, different regions correspond to different transmit beams, and / or different regions correspond to different receive beams. For example, if the time-domain region corresponding to a control channel demodulation reference signal port is slotn to slotn+5, it can be divided into region 1 (slotn to slotn+4) and region 2 (slot5). In this case, a region can also be called a correlation region.

[0241] The demodulation reference signal information notified by the aforementioned higher-level control information can also be sent through more than one control message. These control messages include the following information types: RRC control information, MAC CE control information, and physical layer dynamic control information.

[0242] Similar to the demodulation reference signal information mentioned above, the transmission parameters, measurement parameters, and feedback parameters can also be notified in the aforementioned higher-level control information.

[0243] Example 8

[0244] In this embodiment, the transmission parameters include one or more of the following parameters: precoding binding parameters, quasi-co-location (QCL) relationship indication parameters, resource configuration parameters, rate matching parameters, reference signal configuration parameters, receiver configuration parameters, transmission technology / mode, transmission method, mapping / interleaving parameters, transmit beam configuration parameters, modulation order configuration parameters, coding rate configuration parameters, MCS (Modulation and Coding Scheme) configuration parameters, number of codewords, number of transmission layers, multiple access method, resource multiplexing method, waveform configuration parameters, transmit power configuration parameters, numberology parameters, hybrid automatic repeat request (HARQ) related parameters, measurement parameters, and feedback parameters.

[0245] The precoding binding parameters mentioned above include at least one of the following parameters: the precoding time-domain granularity parameter (i.e., time-domain bundling granularity), the precoding frequency-domain granularity parameter (e.g., frequency-domain bundling size), the precoding region division method (e.g., whether the precoding region division is based on system bandwidth, time unit, or time-domain resources allocated to the terminal, or frequency-domain resources, as shown in Example 13 below, where the transmit beams are the same and / or the receive beams are the same in one precoding region, or the precoding region is called a related region), and whether time-domain bundling parameters are supported.

[0246] The QCL relationship indication parameters mentioned above include at least one of the following parameters: associated quasi-common reference signal information, quasi-common relationship-related grouping information, quasi-common relationship type, and channel characteristic parameters corresponding to the quasi-common relationship.

[0247] The above resource configuration parameters include at least one of the following parameters: definition of resource granularity, size of allocated resources, type of resources, time-domain resource configuration parameters, and frequency-domain resource configuration parameters; for example, the time-domain / frequency-domain resources occupied by the data allocated to the terminal, or the time-domain / frequency-domain resources corresponding to the reference signal allocated to the terminal.

[0248] The above rate matching parameters include at least one of the following parameters: time domain resources occupied by the reference signal, frequency domain resources occupied by the reference signal, start position of the data channel, end position of the data channel, area occupied by the uplink control channel, area occupied by the downlink control channel, time domain position where the data channel needs to be punched, and frequency domain position where the data channel needs to be punched.

[0249] The above-mentioned reference configuration parameters include at least one of the following parameters: density information, sequence information, number of ports, reference signal pattern information, time domain resources corresponding to the reference signal, frequency domain resources corresponding to the reference, power information, multiplexing method, OCC length, enable parameters, precoding information, port numbering rules, and reference signal type.

[0250] Specifically, if the above reference signal is a demodulation reference signal DMRS, the configuration information of the demodulation reference signal includes: density, sequence, number of ports, pattern, power, multiplexing method, OCC length, time domain symbol of the demodulation reference signal, and bundling region of the demodulation reference signal.

[0251] When the above reference signal is the phase compensation reference signal PTRS, the following information can be notified: number of ports, sequence, time-frequency density, enable parameters, position, power, and precoding.

[0252] When the aforementioned reference signal is a measurement reference signal (CSI-RS reference signal or SRS), at least one of the following information can be provided: pattern, density, OCC, sequence, power, multiplexing method, numbering rule, and type (CSI-RS type can be distinguished by at least one of the following characteristics: full-bandwidth transmission or partial-bandwidth transmission; whether the aforementioned measurement reference signal is used for beam management or for channel quality acquisition; whether the number of time-domain repetitions of the aforementioned measurement reference signal in one period is greater than a predetermined threshold or equal to or less than a predetermined threshold; whether the time-domain symbol containing the aforementioned measurement reference signal contains only the measurement reference signal or whether the time-domain symbol containing the aforementioned measurement reference signal contains signals other than the measurement reference signal; whether the time-domain signal of the aforementioned measurement reference signal has a repeating pattern or not; whether the aforementioned measurement reference signal is transmitted using IFDMA or by increasing the subcarrier spacing; whether the aforementioned measurement reference signal resource has a corresponding quasi-co-location reference signal or not.

[0253] The above-mentioned reception configuration parameters include at least one of the following parameters: reception beam, reception precoding weights, reception antenna, and quasi-common reference signal information corresponding to the above-mentioned reception method.

[0254] The above transmission configuration parameters include at least one of the following parameters: transmission beam, transmission precoding weights, transmission antenna, and quasi-common reference signal information corresponding to the above transmission method.

[0255] The aforementioned transmission technology parameters include at least one of the following: diversity, open loop, semi-open loop, closed loop, and precoded polling.

[0256] The transmission method parameters mentioned above include at least one of the following: single-beam transmission, multi-beam transmission, single TP / Cell, multiple TP / Cell, SU / MU, single-layer / multi-layer, or other transmission technologies.

[0257] The above-mentioned transmit power configuration parameters include at least one of the following parameters: absolute power, relative power offset, and relative power reference object;

[0258] The above Numerology parameters include at least one of the following parameters: subcarrier spacing, time-domain symbol length, and CP length.

[0259] HARQ-related parameters include at least one of the following: process ID, NDI (New data indication), redundancy version RV, and number of processes.

[0260] The above measurement parameters include measurement period, measurement constraints, interference measurement reference signal, time domain resources where the measurement reference signal is located, frequency domain resources where the measurement reference signal is located, and type of measurement reference signal.

[0261] The reporting parameters include: reporting type, time domain resources occupied by the reported information, frequency domain resources where the reported information is located, the transmitting beam used for the reporting information, and the receiving beam information corresponding to the reporting resources.

[0262] For the configuration method of the aforementioned transmission parameter type, the first configuration method is that the transmission parameter type information is included in the aforementioned M transmission parameter sets. Each transmission parameter set includes one configuration of the aforementioned transmission parameter type, and each transmission parameter set corresponds to a resource region (e.g., a time region), where M is a natural number greater than 1. In the intersection of the M resource regions, the configuration value of the aforementioned transmission parameter type is jointly determined by multiple transmission parameter sets from the aforementioned M transmission parameter sets (e.g., by the union of the multiple transmission parameter sets), or the configuration value of the aforementioned transmission parameter is determined by one of the aforementioned M transmission parameter sets (e.g., by the transmission parameter set with higher priority). In the part where a resource region acts independently (the independent part of a resource region, i.e., the part of the resource region that does not intersect with any other resource region among the aforementioned M resource regions), the configuration value of the aforementioned transmission parameter is determined by the transmission parameter set corresponding to the aforementioned resource region. For example, if M=2, the first transmission parameter set is notified by higher-layer control information, and the second transmission parameter set is notified by physical layer dynamic control information. The aforementioned first transmission parameter set can also be notified or agreed upon through one of the following methods: notification by system message, notification by previous physical layer dynamic control information, or reservation of the aforementioned first transmission parameter set by the base station and the transmitting end.

[0263] Optionally, in the resource region corresponding to the intersection of the second resource region and the first resource region before obtaining the second transmission parameter set, signals are first transmitted or received using the first transmission parameters. After obtaining the second transmission parameter set, the processing method for the intersection region described above is used to determine the configuration value of the transmission parameters from the union of the M transmission parameter sets, or from one of the M transmission parameter sets. Signal transmission and reception are then performed according to the configuration value of the transmission parameters. Figure 7b As shown, the first set of transmission parameters is notified by higher-layer control information, and its corresponding resource area includes slot n. The second set of transmission parameters is notified by dynamic physical layer control information, and its area of ​​application also includes slot n. However, before the dynamic physical layer control information is decoded, the dynamic physical layer control information has not yet been obtained in the time domain symbols (corresponding to the time domain symbols before time domain symbol 4 in slot n, or the time domain symbols before the time domain symbols in slot n excluding the downlink control area). At this time, the received signal is first estimated and / or demodulated using the transmission parameter information notified by the higher-layer control information. After the dynamic physical layer control information is obtained, the configuration values ​​of the transmission parameters in the area before time domain symbol 4 are determined according to the configuration values ​​of the transmission parameters notified in the dynamic physical layer control information, or according to the configuration values ​​of the transmission parameters notified by the dynamic physical layer control information and the configuration values ​​of the transmission parameters in the higher-layer control information.

[0264] In one embodiment of this example, M=3, the first set of transmission parameters is notified by RRC control information, the second set of transmission parameters is notified by MAC-CE control information, and the third set of transmission parameters is notified by physical layer dynamic control information.

[0265] The second method for configuring the aforementioned transmission parameters involves determining the number of parameter configurations corresponding to the parameter type based on the parameter type or indication information. For example, if the parameter configuration is determined to be one, the configuration value of the parameter is determined based on the first parameter configuration, which is then notified in a control message. When the parameter configuration is determined to be greater than one, there are X parameter configurations for the aforementioned parameter type, each containing a configuration value for that parameter type. Each parameter configuration corresponds to a time region, similar to the method described above for determining parameter configurations based on M sets of transmission parameters. In the intersection of the multiple time regions, the configuration value of the aforementioned parameter type is determined jointly based on multiple parameter configurations among the X parameter configurations, or based on one of the X parameter configurations (e.g., based on the parameter configuration with higher priority). In the separate action portion of a time region (separate action means there is no intersection between the aforementioned time region and any of the other X time regions), the transmission parameter configuration value is determined based on the parameter configuration corresponding to the aforementioned time region. For example, the configuration of X parameters can be controlled by RRC control information and dynamic physical layer control information, or the configuration of X parameters can be notified by the first RRC control information and the second control information.

[0266] The priority of the above-mentioned set of transmission parameters (or the above-mentioned parameter configuration) can be determined in the following way:

[0267] The later the control information for the aforementioned set of transmission parameters is notified, the higher the priority of the aforementioned set of transmission parameters.

[0268] The priority of the aforementioned transmission parameter set is determined based on the indication information, wherein the indication information includes the priority information of the aforementioned transmission parameter set.

[0269] Example 9

[0270] In this embodiment, the control channel demodulation reference information (i.e., the aforementioned transmission parameter set or the aforementioned parameter configuration information) is configured through multi-level control information, wherein the set of control channel demodulation reference ports notified by the lower-level control information is a subset of the set of control information ports notified by the higher-level control information.

[0271] In this embodiment, the levels of the aforementioned RRC control information, MAC CE control information, and physical layer dynamic control information decrease sequentially.

[0272] For example, a first set of demodulation reference signal ports can be configured for the terminal's control channel demodulation reference signal via RRC control information, and a second set of ports can be configured for the terminal's control channel demodulation reference signal via MAC CE. The second set of ports is a subset of the first set of ports, or the MAC CE control information may contain a selection from the first set of ports. This example also does not exclude the possibility that physical layer dynamic control information selects from the demodulation reference signal port set configured by the MAC CE, and that the selected demodulation reference signal port serves as the terminal's subsequent control channel demodulation reference signal port, or as the demodulation reference signal port for the second control information in this time unit. Figure 8 As shown, in one time unit, the first control information indicates the demodulation reference signal port information of the second control information. Figure 8 The first control information and the second control information are frequency-division multiplexing. Of course, this embodiment does not exclude the possibility that the first control information and the second control information are time-division multiplexing and / or frequency-division multiplexing.

[0273] Similarly, the above transmission parameters can also be configured through multi-level control information.

[0274] Example 10

[0275] In this embodiment, the high-level control information configuration transmission parameter information (the aforementioned first parameter configuration) corresponds to a time transmission region, such as corresponding to... Figures 5a-5e The first time window in the process.

[0276] The terminal performs the following information processing steps one and two:

[0277] Step 1: In each time unit included in the first time window, the terminal performs signal reception, and / or channel estimation, and / or data equalization, and / or channel decoding based on the transmission parameters notified by higher-layer control information. It also detects dynamic physical layer control information.

[0278] Step Two:

[0279] If no dynamic physical layer control information is detected in the aforementioned time unit (or no dynamic physical layer control information for the channel or signal is detected, wherein the aforementioned transmission parameters are transmission parameters for the aforementioned channel or signal), the aforementioned higher layer control information is used as the configuration value of the transmission parameters for information processing.

[0280] If physical layer dynamic control information is detected after the nth time domain symbol in the aforementioned time unit (n is an integer, and the time domain symbols of the aforementioned time unit are numbered from 0), and the aforementioned dynamic control information also includes configuration values ​​of the same type of transmission parameters notified in the higher layer control information, then the value of the aforementioned transmission parameter is determined according to the dynamic control information, or the configuration value of the aforementioned transmission parameter is determined jointly according to the dynamic control information and the higher layer control information, and information processing is performed according to the determined configuration value.

[0281] Alternatively, step two is:

[0282] If no dynamic physical layer control information is detected in the above time unit, discard the information processing results already obtained and wait for the next time unit.

[0283] If physical layer dynamic control information is detected after the nth time domain symbol in the aforementioned time unit (n is an integer, and the time domain symbols of the aforementioned time unit are numbered from 0), and the aforementioned dynamic control information also includes the configuration value of the transmission parameters notified in the higher layer control information, then the value of the aforementioned transmission parameters is determined based on the dynamic control information, or the configuration value of the aforementioned transmission parameters is determined jointly based on the dynamic control information and the higher layer control information.

[0284] Alternatively, step two is:

[0285] If no dynamic physical layer control information is detected in the above time unit, discard the data processing results already obtained.

[0286] If physical layer dynamic control information is detected after the nth time domain symbol in the above time unit (n is an integer, and the time domain symbols of the above time unit are numbered from 0), the dynamic control information indicates whether there is a terminal signal / channel (e.g., whether there is terminal scheduling data or whether there is terminal measurement reference signal). If there is terminal scheduling data, the subsequent processing of information continues according to the information processing results obtained in step one. If there is no terminal scheduling signal / channel, the information processing results obtained in step one are discarded.

[0287] The above describes the processing of information, including the processing of data channels, measurement reference signals, or uplink control channels.

[0288] Example 11

[0289] In this embodiment, the terminal corresponds to multiple demodulation reference signal port sets (the aforementioned reference signal resource areas), and each demodulation reference signal port set has a different frequency domain bundling (the aforementioned transmission parameters).

[0290] One implementation of different frequency domain bundling is to use different frequency domain bundling sizes. For example, the frequency domain bundling size of the first demodulation reference signal port set is 2 PRBs, and the frequency domain bundling size of the second demodulation reference signal port set is 4 PRBs. Preferably, the smaller frequency domain bundling region falls within the larger frequency domain bundling region, such as... Figure 9 As shown.

[0291] The second implementation differs in frequency domain bundling. The frequency domain bundling size is the same, but the frequency domain bundling regions are divided differently, such as... Figure 10 As shown.

[0292] The base station notifies the terminal of the frequency domain bundling information corresponding to each demodulation reference signal port set. Alternatively, the base station notifies the terminal of the frequency domain bundling information corresponding to some demodulation reference signal port sets, while the frequency domain bundling information corresponding to other demodulation reference signal port sets is obtained according to agreed rules.

[0293] The demodulation reference signal for the data and / or control of the aforementioned terminal is formed by the union of the first demodulation reference signal port set and the second demodulation reference signal port set. Alternatively, there may be a priority among the different demodulation reference signal port sets corresponding to the terminal.

[0294] In the aforementioned frequency domain bundling region, the transmitted beam of the aforementioned signal remains unchanged, and / or the received beam of the aforementioned signal remains unchanged.

[0295] Similarly, the terminal corresponds to multiple demodulation reference signal port sets, each with a different time-domain bundling. The base station notifies the terminal of the time-domain bundling information corresponding to each demodulation reference signal port set, which will not be elaborated here.

[0296] Example 12

[0297] In this embodiment, the terminal corresponds to multiple demodulation reference signal port sets (the resource areas mentioned above), and the frequency domain resources (the transmission parameters mentioned above) corresponding to each demodulation reference signal port set are different.

[0298] The frequency domain resources corresponding to the aforementioned demodulation reference signals are different. In the first embodiment, this means that the frequency domain resources occupied by the data corresponding to different demodulation reference signals are different. The frequency domain resources occupied by one demodulation reference signal port are the frequency domain resources occupied by the data corresponding to the aforementioned demodulation reference signal port. For example, if the frequency domain of demodulation reference signal port 1 corresponds to PRB0 to PRB3, then the frequency domain resources occupied by the data corresponding to demodulation reference signal port 1 are also PRB0 to PRB3. Figure 11 As shown.

[0299] The frequency domain resources corresponding to the aforementioned demodulation reference signals are different. In the second embodiment, this means that the first frequency domain resources corresponding to different demodulation reference signals are different, and the first frequency domain resources corresponding to one of the demodulation reference signals are different from the frequency domain resources occupied by the data of the aforementioned demodulation reference signal. For example, the first frequency domain resources corresponding to a demodulation reference signal are configured by a higher layer, and the frequency domain resources occupied by the data corresponding to the aforementioned demodulation reference signal are a subset of the aforementioned first frequency domain resources. And / or the aforementioned first frequency domain resources can be the smallest frequency domain unit transmitted by the aforementioned demodulation reference signal, or the aforementioned first frequency domain resources can be the largest frequency domain resources transmitted by the aforementioned demodulation reference signal.

[0300] Example 13

[0301] In LTE, the division of frequency domain bundling areas is determined based on system bandwidth and is basically cell-specific. For example, if the frequency domain bundling is 2 PRBs and the system has 50 available PRBs, then starting from the lowest frequency domain PRB0, every 2 PRBs constitute a PRB Bundling area.

[0302] In NR, since the system bandwidth seen by the base station and the system bandwidth seen by the terminal can be different, the system bandwidth can be allocated in a UE-specific manner. In this case, the division of the PRB Bundling area needs to be further considered.

[0303] The first approach in this embodiment is to perform PRB Bundling region division based on the lowest frequency domain of the system bandwidth seen by the terminal, rather than performing PRB Bundling region division based on the system bandwidth on the base station side. Figure 12 As shown, the system bandwidth on the base station side and the system bandwidth on the terminal side are different. Preferably, when allocating system bandwidth to the terminal, the boundary of the system bandwidth should coincide with the boundary of the PRB Bundling region division based on the base station side. This ensures that the boundaries between the PRB Bundling region obtained from the base station side system bandwidth and the PRB Bundling region obtained from the terminal side system bandwidth are consistent, preventing situations like... Figure 13 As shown, different terminals with the same bundle size may have different regional divisions.

[0304] The second method in this embodiment is to perform PRBBundling region division based on the resources allocated to the terminal in the current time unit, such as... Figure 14As shown, the resources allocated to the terminal in the current time unit are {PRB0, PRB3, PRB5, PRB6}. When the PRB Bundling includes two PRBs, then {PRB0, PRB3} constitutes one PRB Bundling region, and {PRB5, PRB6} constitutes another PRB Bundling region. Of course, there can be further restrictions on the division of PRB Bundling regions based on the resources allocated to the terminal in the current time unit. For example, if the interval between two allocated resources is greater than the PRB Bundling size, they are not divided into the same PRB Bundling region. Figure 14 As shown, this forms three PRB Bundling regions: {PRB0}, {PRB3}, and {PRB5~6}.

[0305] Example 14

[0306] The frequency domain units of the above signal are determined according to the number of time domain symbols occupied by the above signal, wherein the frequency domain units of the above signal include at least one of the following units: the frequency domain scheduling unit corresponding to the above signal; the precoding frequency domain unit corresponding to the above signal.

[0307] The length of the aforementioned time-domain symbols satisfies at least one of the following characteristics: the number of the aforementioned time-domain symbols is the number of the first reference time-domain symbols corresponding to the aforementioned signal; the number of the aforementioned time-domain symbols is the number of the aforementioned signal corresponding to the aforementioned signal; or the number of the aforementioned time-domain symbols is the number of the first time units corresponding to the aforementioned signal. For example, if the subcarrier spacing corresponding to the aforementioned demodulation reference signal is 60kHz, then the number of time-domain symbols occupied by the aforementioned signal is the number of time-domain symbols with a subcarrier spacing of 60kHz, and the number of the aforementioned first reference time-domain symbols is the number of time-domain symbols with a subcarrier spacing of not 60kHz. For example, if the first reference time-domain symbols are the number of time-domain symbols with a subcarrier spacing of 15kHz, then one 15kHz time-domain symbol corresponds to one 60kHz time-domain symbol, for example, one 15kHz time-domain symbol corresponds to four 60kHz time-domain symbols.

[0308] The fewer time-domain symbols the aforementioned signal occupies, the larger the aforementioned frequency-domain unit. For example, Table 1 shows the relationship between the aforementioned frequency-domain units and the number of time-domain symbols.

[0309] Table 1

[0310]

[0311] The aforementioned frequency domain unit can be further determined by combining at least one of the following information: the size of the frequency domain resources occupied by the current terminal's data, the size of the data transmission block of the aforementioned terminal, and the carrier frequency location of the aforementioned communication.

[0312] Of course, this embodiment does not exclude other correspondences between the frequency domain units and the number of time domain symbols, such as the relationship that the fewer the number of time domain symbols, the smaller the frequency domain units. Or there may be a relationship between the number of time domain symbols and the frequency domain units, but it is not a monotonic relationship. The monotonic relationship can be a regional monotonic relationship as shown in Table 1. For example, the frequency domain units corresponding to the number of time domain symbols of 3 to 4 are 4. In this case, the monotonic relationship is not satisfied (the number of time domain symbols does not determine the size of the frequency domain units). However, there is a monotonic relationship between the time domain symbol number region of 3 to 4 and the time domain symbol number region of 5 to 7, that is, the larger the number of time domain symbols, the smaller the corresponding frequency domain units.

[0313] The method described above in this embodiment can be similarly used to determine the time-domain unit of the signal based on the size of the frequency-domain resources occupied by the signal, wherein the time-domain unit of the signal includes at least one of the following units: the time-domain scheduling unit corresponding to the signal; and the precoding time-domain unit corresponding to the signal, which will not be elaborated here.

[0314] Example 15

[0315] In this embodiment, the base station performs joint encoding notification of the frequency domain resource information and time domain resource information of the above signal in a control information notification domain.

[0316] Joint coding can save control information overhead. For example, if a frequency domain resource is notified separately, it requires 3 bits. If a time domain resource is notified separately, such as the start symbol position and / or end symbol position of the time domain resource, it requires 2 bits. However, if joint coding can eliminate some unnecessary notification cases, the above information can be notified with only 4 bits. Of course, this embodiment does not exclude the possibility that the number of notification bits in joint coding is the same as the sum of the number of bits in separate notifications. However, there are cases where the number of notification bits in joint coding is less than the sum of the number of bits in separate notifications. Therefore, overall, it can save control information overhead.

[0317] Example 16

[0318] In this embodiment, the number of notification bits for frequency domain resources is determined based on the number of time domain symbols corresponding to the above signal, or based on the number of time domain symbols occupied by the transmission domain with the same transmission direction as the above signal in a time unit.

[0319] For example, the first control information notifies the terminal of the number of time-domain symbols occupied by the signal, and / or the position of the time-domain symbols occupied by the terminal's signal. The second control information notifies the terminal of the number of bits in the frequency-domain resource domain of the signal, which is determined based on the aforementioned number of time-domain symbols occupied by the signal. Preferably, the first control information is higher-layer control information, and the second control information is physical-layer dynamic control information; however, it is not excluded that both are physical-layer dynamic control information.

[0320] Alternatively, the first control information may indicate the number of time-domain symbols occupied by the transmission domain in the same direction as the signal transmission of the aforementioned terminal within the current time unit, such as the number of time-domain symbols occupied by the downlink transmission domain in the current time unit, and / or the position of the time-domain symbols occupied by the downlink transmission domain signal. The second control information may indicate the number of bits in the frequency domain resource domain occupied by the downlink data, determined based on the number of time-domain symbols occupied by the downlink transmission domain in the aforementioned time unit. Preferably, the first control information is common control information, and the second control information is proprietary control information. In this case, the number of time-domain symbols in the downlink transmission domain may include the downlink control domain or may not include the downlink control domain.

[0321] The method described above in this embodiment can be similarly used to determine the number of notification bits for time-domain resources based on the size of the frequency-domain resources corresponding to the signal, or based on the size of the frequency-domain bandwidth allocated to the terminal, which will not be elaborated here.

[0322] Example 17

[0323] In this embodiment, the transmission parameters of the periodically transmitted measurement reference signal or the half-periodly transmitted measurement reference signal (such as SRS, CSI-RS) reference signal are in the higher-level control information (the aforementioned first parameter configuration information).

[0324] The same type of parameters mentioned above will also be notified in the physical layer dynamic control information, enabling adaptation to dynamic resource scheduling.

[0325] In time units without dynamic control information, the values ​​of the aforementioned parameter types are determined solely based on higher-layer control information. When dynamic control information is available, the values ​​of the aforementioned parameter types are determined based on dynamic physical layer control information. For example, the aforementioned transmission parameters include the time-domain resources occupied by the aforementioned parameter signals and the frequency-domain resources occupied by the aforementioned reference signals. When the time-domain resources and / or frequency-domain resources (time-domain resources or frequency-domain resources obtained from the configuration of the first parameter) occupied by the measurement reference signal in a time unit cannot be used for the aforementioned measurement reference signal, dynamic signaling is required to inform the terminal of this information.

[0326] For example, if the time / frequency domain resources occupied by the measurement reference signal on slot n, as notified by the higher layer, are occupied by other signals or channels, the base station informs the terminal of this information in the dynamic control information on slot n. If the aforementioned measurement reference signal is an SRS measurement reference signal, the terminal cannot send SRS on this slot, or it can send only a portion of the SRS (the portion not occupied by other signals or channels). Alternatively, the control information may inform the terminal of a new time / frequency domain position for the aforementioned measurement reference signal on slot n (i.e., the aforementioned second parameter configuration), and the SRS will be sent at this new time / frequency domain position. Depending on the new time / frequency domain position obtained, in the next cycle, one approach is to use the first parameter configuration, and another is to use the second parameter configuration; that is, after slot n, the first parameter configuration is updated to the second parameter configuration.

[0327] When the aforementioned measurement reference signal is an SRS measurement reference signal, the base station can send control information on slotn, or send the aforementioned control information after slotn, so that the terminal knows that the aforementioned measurement reference signal on slotn has changed the time domain / frequency domain resources, or that the aforementioned measurement reference signal was not sent on slotn, or that only part of the measurement reference signal was sent on slotn, or that the aforementioned measurement reference signal was not sent on slotn and was moved to slotn+k to send the measurement reference signal.

[0328] Furthermore, the control information can indicate or specify whether the terminal needs to detect the dynamic control information to determine the time domain and / or frequency domain location of the aforementioned measurement reference signal. That is, whether the parameter type of the terminal needs to determine the time domain and / or frequency domain location of the aforementioned measurement reference signal has only one parameter configuration or two parameter configurations.

[0329] Example 18

[0330] In this embodiment, parameters of the same type are configured in both the higher-level control information and the physical layer dynamic control information. Alternatively, they may be configured in both the RRC control information and the MAC-CE control information, or both the MAC-CE control information and the physical layer dynamic control information.

[0331] Example 19

[0332] In this embodiment, parameters of the same type are configured in the high-level control information, the MAC-CE control information, and the physical layer dynamic control information.

[0333] Example 20

[0334] In this embodiment, for parameters of the same type, one set of transmission parameters corresponds to multiple subsets, and each subset of transmission parameters corresponds to a configuration value of the above-mentioned type of parameter.

[0335] Specifically, for example, the configuration values ​​of the aforementioned transmission parameters corresponding to each subset and a virtual transmission cell.

[0336] For example, in a time unit, the terminal is allocated three frequency domain resources (corresponding to three virtual cells respectively). Each frequency domain resource has its own independent configuration (such as MCS, DMRS) and other related information for the corresponding transmission parameters. Of course, some transmission parameters on these three frequency domain resources can be the same (such as NDI, RV, etc.).

[0337] Alternatively, a transmission parameter set may consist of multiple subsets representing different configurations of the same transmission parameter set. For example, a higher layer might configure a first transmission parameter set, which includes two types of parameters: {frequency domain resources, MCS, DMRS}. This first transmission parameter set could contain three subsets, such as {{frequency domain resource 1, MCS1, DMRS1}, {frequency domain resource 1, MCS2, DMRS2}, and {frequency domain resource 3, MCS3, DMRS3}}. Here, MCS1 to MCS3 represent the configuration values ​​of the three MCS values, and similarly, DMRS1 to DMRS3 represent the configuration values ​​of the three DMRS (demodulation reference signal). Frequency domain resources 1 to 3 correspond to the allocation values ​​of the three frequency domain resources. The physical layer dynamic control information notifies the second transmission parameter set, which includes three sets: {{frequency domain resource d1, MCSd1, DMRSd1}. {Frequency domain resources d1, MCSd2, DMRSd2}, {Frequency domain resources d3, MCSd3, DMRSd3}}, where MCSd1 to MCSd3 represent the configuration values ​​of 3 MCSs, and similarly, DMRSd1 to DMRSd3 represent the configuration values ​​of 3 DMRSs (demodulation reference signals). Frequency domain resources d1 to d3 correspond to the allocation values ​​of 3 frequency domain resources.

[0338] In the above embodiments, the first transmission parameter set and the second transmission parameter set include the same number of subsets. This embodiment does not exclude the possibility that the two sets include different numbers of subsets.

[0339] Example 21

[0340] In this embodiment, the same type of transmission parameters correspond to multiple parameter configurations, and different parameter configurations correspond to different frequency domain resources.

[0341] For example, the OCC length information of a demodulation reference signal, as mentioned above, varies in different frequency domain resources. This allows for different numbers of MU users or layers to correspond to different frequency domain resources in the same time unit.

[0342] For example, the above transmission parameters may correspond to different sets of demodulation reference signal ports for MU interference cancellation based on a demodulation reference signal. This allows for different numbers of MU users or layers corresponding to different frequency domain resources in the same time unit.

[0343] For example, the above transmission parameters are RI information, which allows different number of layers to correspond to different frequency domain resources;

[0344] For example, the above transmission parameters are MCS information, which allows different frequency domain resources to correspond to different MCS;

[0345] The above transmission parameters can be one or more of the transmission parameters described in Example 8.

[0346] Example 22

[0347] In this embodiment, the first resource region changes according to the second resource region. For example, if the first transmission parameter set (or first parameter configuration) is configured by a higher layer, the first time region corresponding to the aforementioned first transmission parameters is... Figure 5a or Figure 5b In one of the first time windows, the aforementioned second transmission parameters are dynamically controlled and notified at the physical layer, and the second transmission parameters correspond to the second time region. Figure 5a or Figure 5b In one of the time windows, for example, before slot n1, the first time window is {slot n1, slot n2, slot n3, slot n4}, and in slot n2, the first time window is {slot n1, slot n3, slot n4}. If the transmitted parameter is a measurement reference signal parameter, then the first time window includes time units excluding the time unit containing the second time window.

[0348] Example 23

[0349] In this embodiment, the first transmission parameter is notified in the higher-level control information, and the first transmission parameter is notified in the dynamic control information (which corresponds to...). Figure 5a or Figure 5b (in the middle), where the dynamic control information further indicates whether there is information update for the same type of parameter in the dynamic control information.

[0350] For example, the aforementioned transmission parameters represent the time-domain start position of the data channel allocated to the terminal. The higher-layer control information indicates that it starts from the second time domain. The dynamic control information indicates whether to maintain the original state. If the indication is to maintain the original state, the terminal's data starts from the second symbol notified by the higher layer. When the indication changes to a new state, the dynamic control information further indicates the starting position of the data, or the offset between the starting position of the data and the starting position of the higher layer.

[0351] For example, the aforementioned transmission parameters represent the frequency domain resources allocated to the data channel of the terminal. The first dynamic control information indicates whether the aforementioned frequency domain resources have changed. If they remain unchanged, the frequency domain resources of the terminal in the current time unit are indicated by the higher-layer control information. If they need to be changed, the second dynamic control information further indicates the new frequency domain resources.

[0352] Alternatively, the number of bits required for physical layer dynamic information can be determined based on whether the aforementioned transmission parameters have changed.

[0353] Example 24

[0354] In this embodiment, multiple sets of transmission parameters are notified in the higher-layer control information, and the physical layer dynamic control information selects one of the multiple sets of transmission parameters.

[0355] The aforementioned transmission parameters can be any one of those in Example 8.

[0356] The above set of transmission parameters includes one or more transmission parameter types, and each transmission parameter is combined.

[0357] For example, the higher-level configuration might be as follows: demodulation reference signal port set {1, 2, 3}, {2, 3, 4}, {5, 6}. This is the demodulation reference signal set corresponding to the current data channel in the physical layer dynamic control information.

[0358] Alternatively, the aforementioned set of demodulation reference signal ports configured at higher levels may be the set of demodulation reference signal ports used by the terminal for MU interference cancellation. For example, the terminal cannot assume that the ports in the aforementioned set of reference signal ports are not occupied by other users. It cannot assume that the ports in the aforementioned set of reference signal ports, excluding those corresponding to the terminal's data channel, are not occupied by other users.

[0359] Example 25

[0360] In this embodiment, the higher layer configures a first transmission parameter set information, wherein the transmission parameter set includes the following eleven parameter types:

[0361] Carrier frequency indication information, downlink data channel time-frequency resource allocation indication information, uplink power configuration parameters, uplink control channel time-domain / frequency-domain correlation indication information, HARQ process number, antenna port / sequence scrambling information / layer number joint indication information, uplink measurement reference signal request information, MCS, NDI, RV indication information, PQI indication information (PDSCH RE Mapping and Quasi-Co-Location Indicator).

[0362] In each time unit covered by the higher-layer control information (the time unit covered by the higher-layer control information can also be further defined), the terminal first performs channel estimation, equalization demodulation, and data processing based on the information configured by the higher layer. If the terminal obtains dynamic physical layer control information corresponding to a downlink data channel in the 4th time domain symbol of the current time unit, it abandons the data processing results it has already obtained.

[0363] When dynamic physical layer control information corresponding to downlink data of this terminal in the current time unit is obtained, the dynamic physical layer control information specifically indicates the parameter type that needs to be updated among the above eleven types of parameters. For example, if the notification is type 5 out of the eleven types, the dynamic physical layer control information further indicates the update value of the five types of parameter that need to be updated, or the relative value of the update parameter relative to the higher layer notification parameter.

[0364] Example 26

[0365] In this embodiment, the first resource area corresponding to the aforementioned high-level control information is as follows: Figure 5a The first time window in the dynamic physical layer control information corresponds to the second resource region, such as... Figure 5a The second time window in the process. The higher-layer control information (where the parameter value being notified is the first transmission parameter mentioned above) and the dynamic physical layer control information (where the parameter value being notified is the second transmission parameter mentioned above) include parameters of the same type. For example, information related to transmitting beams or information related to receiving beams.

[0366] In the first method, after slotn2 (slotn2 is the time unit where the dynamic physical control information is located), the first transmission parameter mentioned above is still the value of the higher layer notification, that is, in slotn3, the data is first processed using the beam 1 of the higher layer notification.

[0367] In the second approach, after slotn2 (where the dynamic physical control information resides in time unit), the aforementioned first transmission parameter is updated to the second transmission parameter value. That is, in slotn3, data processing is first performed using beam 2, which is notified from higher layers.

[0368] In this embodiment, it is assumed that the beam for higher-level control information notification before slotn1 is 1, and slotn2...

[0369] The beam for sending dynamic physical layer notifications is beam 2.

[0370] Example 27

[0371] In this implementation, P demodulation reference signal port sets are configured for the terminal, where P is a natural number greater than 1. Each of the P demodulation reference signal port sets has at least one of the following pieces of information:

[0372] The third demodulation reference signal set corresponding to the above set; the frequency domain resources corresponding to the above set; the time domain cell pattern information corresponding to the above set;

[0373] The frequency domain precoding granularity units corresponding to the above set;

[0374] The temporal precoding granularity units corresponding to the above set;

[0375] Configure at least one of the following information for each of the P demodulation reference signal port sets mentioned above:

[0376] The third demodulation reference signal set corresponding to the above set;

[0377] The frequency domain resources corresponding to the above set;

[0378] The time-domain unit pattern information corresponding to the above set; the frequency-domain precoding granularity unit corresponding to the above set; the time-domain precoding granularity unit corresponding to the above set.

[0379] In the above implementation, the precoding granularity unit, or bundling region, may also be called a precoding resource block group, or other equivalent name. In short, within a bundling region, the transmit beam remains unchanged, and / or the receive beam remains unchanged. The beam can be an RF beam (where different beams are represented by different RF precoding), a digital beam (where different beams are represented by different digital precoding), or a hybrid beam (where different beams are represented by different RF precoding and / or different digital precoding). Alternatively, the above precoding granularity unit is the smallest unit in which the transmit beam and / or receive beam change.

[0380] In the above embodiments, the higher-layer control information includes RRC control information, MAC CE control information, or other future control information. In short, this control information cannot be semi-statically configured, and its information changes within a time unit greater than one first time unit. The first time unit is either the minimum time unit for resource scheduling or the minimum time unit for the terminal to detect downlink control information. For example, the first time unit could be a slot or mini-slot in NR, or a subframe in LTE.

[0381] Example 28

[0382] Embodiments of the present invention also provide a storage medium. Optionally, in this embodiment, the storage medium may be configured to store program code for performing the following steps:

[0383] S1, obtain multiple sets of transmission parameters, wherein the multiple sets of transmission parameters include at least: a first set of transmission parameters, a second set of transmission parameters, and a transmission parameter of the same type;

[0384] S2, determine multiple resource regions, wherein the multiple resource regions include at least: a first resource region and a second resource region; the resource regions include at least one of the following: time domain resource region, code domain resource region, frequency domain resource region, spatial domain resource region, and reference signal resource region;

[0385] S3, sending or receiving information in the resource area according to the transmission parameter set; wherein at least: sending or receiving information in the first resource area according to the first transmission parameter set; and sending or receiving information in the second resource area according to the second transmission parameter set.

[0386] Optionally, the storage medium is also configured to store program code for performing the following steps:

[0387] S4, determine the number X of parameter configurations corresponding to the parameter type, where X is a natural number, there is at least a first parameter configuration, and the first time domain resource region where the first parameter acts;

[0388] S5, Obtain the configuration of the parameter type based on the judgment result;

[0389] S6, when it is determined that X is greater than 1, there is at least a second parameter configuration and a second time domain resource region where the second parameter acts.

[0390] Optionally, in this embodiment, the storage medium may include, but is not limited to, various media capable of storing program code, such as USB flash drives, read-only memory (ROM), random access memory (RAM), portable hard drives, magnetic disks, or optical disks.

[0391] Optionally, in this embodiment, the processor executes the above steps S1, S2, and S3 according to the program code stored in the storage medium.

[0392] Optionally, in this embodiment, the processor executes S4, S5, and S6 according to the program code stored in the storage medium.

[0393] Optionally, specific examples in this embodiment can refer to the examples described in the above embodiments and optional implementations, and will not be repeated here.

[0394] It is obvious to those skilled in the art that the modules or steps of the present invention described above can be implemented using general-purpose computing devices. They can be centralized on a single computing device or distributed across a network of multiple computing devices. Optionally, they can be implemented using computer-executable program code, thereby storing them in a storage device for execution by a computing device. In some cases, the steps shown or described can be performed in a different order than those presented herein, or they can be fabricated as separate integrated circuit modules, or multiple modules or steps can be fabricated as a single integrated circuit module. Thus, the present invention is not limited to any particular combination of hardware and software.

[0395] The above description is merely a preferred embodiment of the present invention and is not intended to limit the invention. Various modifications and variations can be made to the present invention by those skilled in the art. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the scope of protection of the present invention.

Claims

1. A method for determining transmission parameters, characterized in that, include: Multiple sets of transmission parameters are obtained, wherein the multiple sets of transmission parameters include at least a first set of transmission parameters and a second set of transmission parameters, and each set of transmission parameters includes at least one transmission parameter of the same type; wherein the transmission parameters of the same type include the following parameters of the data channel: time domain resource configuration parameters, frequency domain resource configuration parameters, demodulation reference signal (DMRS) port configuration related parameters, modulation and coding scheme (MCS) configuration parameters, number of transmission layers, and transmit power configuration parameters; Multiple resource regions are defined, wherein the multiple resource regions include at least: a first resource region and a second resource region; the resource regions include at least a time-domain resource region; Transmitting or receiving information in the data channel in the multiple resource areas according to the multiple sets of transmission parameters; wherein at least: transmitting or receiving information in the data channel in the first resource area according to the first set of transmission parameters; and transmitting or receiving information in the data channel in the second resource area according to the second set of transmission parameters; The multiple sets of transmission parameters are obtained in different ways; The first set of transmission parameters is obtained through one or more of the following methods: Acquisition of control information via Radio Resource Control (RRC); Acquisition of control information via Media Access Control Unit (MAC-CE); The second set of transmission parameters is obtained through information notified in the physical layer downlink dynamic control channel.

2. The method according to claim 1, characterized in that, It satisfies at least one of the following characteristics: The intersection between the second resource region and the first resource region is empty; The second resource region is a subset of the first resource region; or The intersection between the second resource region and the first resource region is non-empty, and the second resource region and the first resource region do not overlap.

3. The method according to claim 1, characterized in that, The same type of transmission parameters also includes at least one of the following parameters: Transmit beam configuration parameters, time domain resources corresponding to DMRS port configuration parameters, sequence information of the DMRS port, and precoding information parameters.

4. The method according to claim 1, characterized in that, The first set of transmission parameters is obtained according to agreed rules.

5. The method according to claim 1, characterized in that, Also includes: Based on the information notified in the physical layer downlink dynamic control channel, determine whether the resources of the periodic or half-cycle measurement reference signal configured by the higher layer control information are available.

6. The method according to claim 5, characterized in that, Also includes: Based on the determined result, perform at least one of the following: In response to determining that resources for the periodic or half-cycle measurement reference signal are available, the periodic or half-cycle measurement reference signal is transmitted or received. In response to determining that the resource for the periodic or half-cycle measurement reference signal is unavailable, the periodic or half-cycle measurement reference signal is not transmitted or received.

7. The method according to claim 1, characterized in that, Sending or receiving information in the multiple resource areas according to the multiple sets of transmission parameters includes at least one of the following: In the intersection of N resource regions among the plurality of resource regions, information is sent or received in the intersection region according to one of the N transmission parameter sets corresponding to the N resource regions, where N is a natural number greater than 1; In a separate function of a resource area, information is sent or received in that separate function according to the set of transmission parameters corresponding to the resource area.

8. A transmission parameter determination device, characterized in that, include: The first acquisition module is used to acquire multiple sets of transmission parameters, wherein the multiple sets of transmission parameters include at least a first set of transmission parameters and a second set of transmission parameters, and each set of transmission parameters includes at least one transmission parameter of the same type; wherein the transmission parameters of the same type include the following parameters of the data channel: time domain resource configuration parameters, frequency domain resource configuration parameters, demodulation reference signal (DMRS) port configuration related parameters, modulation and coding scheme (MCS) configuration parameters, transmission layer number, and transmit power configuration parameters; The first determining module is used to determine multiple resource regions, wherein the multiple resource regions include at least: a first resource region and a second resource region; the resource regions include at least a time-domain resource region. A processing module is configured to transmit or receive information in a data channel over multiple resource areas according to the plurality of transmission parameter sets; wherein at least the following are included: transmitting or receiving information in a data channel over a first resource area according to a first transmission parameter set; and transmitting or receiving information in a data channel over a second resource area according to a second transmission parameter set. The multiple sets of transmission parameters are obtained in different ways; The first set of transmission parameters is obtained through one or more of the following methods: Acquisition of control information via Radio Resource Control (RRC); Acquisition of control information via Media Access Control Unit (MAC-CE); The second set of transmission parameters is obtained through information notified in the physical layer downlink dynamic control channel.

9. The apparatus according to claim 8, characterized in that, It satisfies at least one of the following characteristics: The intersection between the second resource region and the first resource region is empty; The second resource region is a subset of the first resource region; or The intersection between the second resource region and the first resource region is non-empty, and the second resource region and the first resource region do not overlap.

10. The apparatus according to claim 8, characterized in that, The same type of transmission parameters also includes at least one of the following parameters: Transmit beam configuration parameters, time domain resources corresponding to DMRS port configuration parameters, sequence information of the DMRS port, and precoding information parameters.

11. The apparatus according to claim 8, characterized in that, The first set of transmission parameters is obtained according to agreed rules.

12. The apparatus according to claim 8, characterized in that, The device is also used for: Based on the information notified in the physical layer downlink dynamic control channel, determine whether the resources of the periodic or half-cycle measurement reference signal configured by the higher layer control information are available.

13. The apparatus according to claim 12, characterized in that, The device is also used for: Based on the determined result, perform at least one of the following: In response to determining that resources for the periodic or half-cycle measurement reference signal are available, the periodic or half-cycle measurement reference signal is transmitted or received. In response to determining that the resource for the periodic or half-cycle measurement reference signal is unavailable, the periodic or half-cycle measurement reference signal is not transmitted or received.

14. The apparatus according to claim 8, characterized in that, Sending or receiving information in the multiple resource areas according to the multiple sets of transmission parameters includes: In the intersection of N resource regions among the plurality of resource regions, information is sent or received in the intersection region according to one of the N transmission parameter sets corresponding to the N resource regions, where N is a natural number greater than 1; In a separate function of a resource area, information is sent or received in that separate function according to the set of transmission parameters corresponding to the resource area.

15. A transmission parameter determination device, characterized in that, include: A processor and a memory, the memory storing a computer program executable by the at least one processor, the computer program being executed by the at least one processor to enable the at least one processor to perform the transmission parameter determination method according to any one of claims 1-7.

16. A storage medium for computer-readable storage, characterized in that, The storage medium stores one or more programs, which can be executed by one or more processors to implement the steps of the transmission parameter determination method according to any one of claims 1-7.

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