WO2023123516A1 - 资源的指示方法、终端设备和网络设备 - Google Patents

资源的指示方法、终端设备和网络设备 Download PDF

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Publication number
WO2023123516A1
WO2023123516A1 PCT/CN2021/144065 CN2021144065W WO2023123516A1 WO 2023123516 A1 WO2023123516 A1 WO 2023123516A1 CN 2021144065 W CN2021144065 W CN 2021144065W WO 2023123516 A1 WO2023123516 A1 WO 2023123516A1
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size
serving cells
cell
bwp
frequency domain
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PCT/CN2021/144065
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English (en)
French (fr)
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徐婧
林亚男
梁彬
张轶
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Oppo广东移动通信有限公司
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Application filed by Oppo广东移动通信有限公司 filed Critical Oppo广东移动通信有限公司
Priority to PCT/CN2021/144065 priority Critical patent/WO2023123516A1/zh
Priority to CN202180102558.9A priority patent/CN118044292A/zh
Publication of WO2023123516A1 publication Critical patent/WO2023123516A1/zh

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    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04W—WIRELESS COMMUNICATION NETWORKS
    • H04W72/00—Local resource management
    • H04W72/04—Wireless resource allocation

Definitions

  • the present application relates to the communication field, and more specifically, to a method for indicating resources, a terminal device, a network device, a computer-readable storage medium, a computer program product, and a computer program.
  • the network side indicates the frequency domain resource used by the terminal in a cell through the Frequency domain resource assignment (FDRA, frequency domain resource assignment) field in DCI (Downlink Control Information, Downlink Control Information).
  • FDRA Frequency domain resource assignment
  • DCI Downlink Control Information, Downlink Control Information
  • Embodiments of the present application provide a method for indicating resources, a terminal device, a network device, a computer-readable storage medium, a computer program product, and a computer program.
  • An embodiment of the present application provides a resource indication method, including:
  • the terminal device receives the first downlink control information DCI sent by the network device;
  • the first DCI is used to schedule N data channels of N first serving cells; the first DCI includes a frequency domain resource allocation indication FDRA domain, and the frequency domain size indicated by the FDRA domain is determined by M second
  • the activated BWP of the serving cell is determined; the sum of the activated BWPs of the M second serving cells is greater than or equal to the sum of the activated BWPs of the N first serving cells; M is a positive integer, and N is a positive integer.
  • An embodiment of the present application provides a resource indication method, including:
  • the network device sends the first downlink control information DCI to the terminal device;
  • the first DCI is used to schedule N data channels of N first serving cells; the first DCI includes a frequency domain resource allocation indication FDRA domain, and the frequency domain size indicated by the FDRA domain is determined by M second
  • the activated BWP of the serving cell is determined; the sum of the activated BWPs of the M second serving cells is greater than or equal to the sum of the activated BWPs of the N first serving cells; M is a positive integer, and N is a positive integer.
  • An embodiment of the present application provides a terminal device, including:
  • the first communication unit is configured to receive first downlink control information DCI sent by the network device;
  • the first DCI is used to schedule N data channels of N first serving cells; the first DCI includes a frequency domain resource allocation indication FDRA domain, and the frequency domain size indicated by the FDRA domain is determined by M second
  • the activated BWP of the serving cell is determined; the sum of the activated BWPs of the M second serving cells is greater than or equal to the sum of the activated BWPs of the N first serving cells; M is a positive integer, and N is a positive integer.
  • An embodiment of the present application provides a network device, including:
  • the second communication unit is configured to send the first downlink control information DCI to the terminal device;
  • the first DCI is used to schedule N data channels of N first serving cells; the first DCI includes a frequency domain resource allocation indication FDRA domain, and the frequency domain size indicated by the FDRA domain is determined by M second
  • the activated BWP of the serving cell is determined; the sum of the activated BWPs of the M second serving cells is greater than or equal to the sum of the activated BWPs of the N first serving cells; M is a positive integer, and N is a positive integer.
  • An embodiment of the present application provides a terminal device, including a processor and a memory.
  • the memory is used to store a computer program
  • the processor is used to call and run the computer program stored in the memory, so that the terminal device executes the above method.
  • An embodiment of the present application provides a chip configured to implement the foregoing method.
  • the chip includes: a processor, configured to invoke and run a computer program from the memory, so that the device installed with the chip executes the above-mentioned method.
  • An embodiment of the present application provides a computer-readable storage medium for storing a computer program, and when the computer program is run by a device, the device is made to execute the above method.
  • An embodiment of the present application provides a computer program product, including computer program instructions, where the computer program instructions cause a computer to execute the foregoing method.
  • An embodiment of the present application provides a computer program that, when running on a computer, causes the computer to execute the above method.
  • N data channels of N first serving cells can be scheduled in the first DCI, so that the flexibility of independent indication can be maintained, and since the frequency domain size of the FDRA domain of the first DCI is based on M
  • the activated BWP of the second serving cell is determined, and the sum of the activated BWPs of the M second serving cells is greater than or equal to the sum of the activated BWPs of the N first serving cells, so the first DCI can also allow multiple serving cells to share one indicates the domain, thereby reducing the indication overhead of the FDRA domain.
  • Fig. 1 is a schematic diagram of an application scenario according to an embodiment of the present application.
  • Fig. 2 is a schematic diagram of two resource allocation types according to the present application.
  • Fig. 3 is a schematic flowchart of a method for indicating resources according to an embodiment of the present application.
  • Fig. 4 is a schematic diagram of a scheduling cell according to an embodiment of the present application.
  • Fig. 5 is a schematic flowchart of a resource indication method according to another embodiment of the present application.
  • Fig. 6 is a schematic block diagram of a terminal device according to an embodiment of the present application.
  • Fig. 7 is a schematic block diagram of a network device according to another embodiment of the present application.
  • Fig. 8 is a schematic block diagram of a communication device according to an embodiment of the present application.
  • FIG. 9 is a schematic block diagram of a chip according to an embodiment of the present application.
  • Fig. 10 is a schematic block diagram of a communication system according to an embodiment of the present application.
  • the technical solution of the embodiment of the present application can be applied to various communication systems, such as: Global System of Mobile communication (Global System of Mobile communication, GSM) system, code division multiple access (Code Division Multiple Access, CDMA) system, broadband code division multiple access (Wideband Code Division Multiple Access, WCDMA) system, General Packet Radio Service (GPRS), Long Term Evolution (LTE) system, Advanced long term evolution (LTE-A) system , New Radio (NR) system, evolution system of NR system, LTE (LTE-based access to unlicensed spectrum, LTE-U) system on unlicensed spectrum, NR (NR-based access to unlicensed spectrum) on unlicensed spectrum unlicensed spectrum (NR-U) system, Non-Terrestrial Networks (NTN) system, Universal Mobile Telecommunications System (UMTS), Wireless Local Area Networks (WLAN), Wireless Fidelity (Wireless Fidelity, WiFi), fifth-generation communication (5th-Generation, 5G) system or other communication systems, etc.
  • GSM Global System of Mobile
  • D2D Device to Device
  • M2M Machine to Machine
  • MTC Machine Type Communication
  • V2V Vehicle to Vehicle
  • V2X Vehicle to everything
  • the communication system in the embodiment of the present application may be applied to a carrier aggregation (Carrier Aggregation, CA) scenario, may also be applied to a dual connectivity (Dual Connectivity, DC) scenario, and may also be applied to an independent ( Standalone, SA) network deployment scene.
  • Carrier Aggregation, CA Carrier Aggregation
  • DC Dual Connectivity
  • SA Standalone
  • the communication system in the embodiment of the present application can be applied to an unlicensed spectrum, where the unlicensed spectrum can also be considered as a shared spectrum; or, the communication system in the embodiment of the present application can also be applied to Licensed spectrum, where the licensed spectrum can also be considered as non-shared spectrum.
  • the embodiments of the present application describe various embodiments in conjunction with network equipment and terminal equipment, wherein the terminal equipment may also be referred to as user equipment (User Equipment, UE), access terminal, user unit, user station, mobile station, mobile station, remote station, remote terminal, mobile device, user terminal, terminal, wireless communication device, user agent or user device, etc.
  • user equipment User Equipment, UE
  • access terminal user unit
  • user station mobile station
  • mobile station mobile station
  • remote station remote terminal
  • mobile device user terminal
  • terminal wireless communication device
  • wireless communication device user agent or user device
  • the terminal device can be a station (STAION, ST) in the WLAN, a cellular phone, a cordless phone, a Session Initiation Protocol (Session Initiation Protocol, SIP) phone, a wireless local loop (Wireless Local Loop, WLL) station, a personal digital processing (Personal Digital Assistant, PDA) devices, handheld devices with wireless communication functions, computing devices or other processing devices connected to wireless modems, vehicle-mounted devices, wearable devices, next-generation communication systems such as terminal devices in NR networks, or future Terminal equipment in the evolved public land mobile network (Public Land Mobile Network, PLMN) network, etc.
  • STAION, ST Session Initiation Protocol
  • SIP Session Initiation Protocol
  • WLL Wireless Local Loop
  • PDA Personal Digital Assistant
  • the terminal device can be deployed on land, including indoor or outdoor, handheld, wearable or vehicle-mounted; it can also be deployed on water (such as ships, etc.); it can also be deployed in the air (such as aircraft, balloons and satellites) superior).
  • the terminal device may be a mobile phone (Mobile Phone), a tablet computer (Pad), a computer with a wireless transceiver function, a virtual reality (Virtual Reality, VR) terminal device, an augmented reality (Augmented Reality, AR) terminal Equipment, wireless terminal equipment in industrial control, wireless terminal equipment in self driving, wireless terminal equipment in remote medical, wireless terminal equipment in smart grid , wireless terminal equipment in transportation safety, wireless terminal equipment in smart city, or wireless terminal equipment in smart home.
  • a virtual reality (Virtual Reality, VR) terminal device an augmented reality (Augmented Reality, AR) terminal Equipment
  • wireless terminal equipment in industrial control wireless terminal equipment in self driving
  • wireless terminal equipment in remote medical wireless terminal equipment in smart grid
  • wireless terminal equipment in transportation safety wireless terminal equipment in smart city, or wireless terminal equipment in smart home.
  • the terminal device may also be a wearable device.
  • Wearable devices can also be called wearable smart devices, which is a general term for the application of wearable technology to intelligently design daily wear and develop wearable devices, such as glasses, gloves, watches, clothing and shoes.
  • a wearable device is a portable device that is worn directly on the body or integrated into the user's clothing or accessories. Wearable devices are not only a hardware device, but also achieve powerful functions through software support, data interaction, and cloud interaction.
  • Generalized wearable smart devices include full-featured, large-sized, complete or partial functions without relying on smart phones, such as smart watches or smart glasses, etc., and only focus on a certain type of application functions, and need to cooperate with other devices such as smart phones Use, such as various smart bracelets and smart jewelry for physical sign monitoring.
  • the network device may be a device for communicating with the mobile device, and the network device may be an access point (Access Point, AP) in WLAN, a base station (Base Transceiver Station, BTS) in GSM or CDMA , or a base station (NodeB, NB) in WCDMA, or an evolved base station (Evolutional Node B, eNB or eNodeB) in LTE, or a relay station or access point, or a vehicle-mounted device, a wearable device, and an NR network
  • BTS Base Transceiver Station
  • NodeB, NB base station
  • Evolutional Node B, eNB or eNodeB evolved base station
  • LTE Long Term Evolutional Node B, eNB or eNodeB
  • gNB network equipment in the network or the network equipment in the future evolved PLMN network or the network equipment in the NTN network, etc.
  • the network device may have a mobile feature, for example, the network device may be a mobile device.
  • the network equipment can be a satellite or a balloon station.
  • the satellite can be a low earth orbit (low earth orbit, LEO) satellite, a medium earth orbit (medium earth orbit, MEO) satellite, a geosynchronous earth orbit (geosynchronous earth orbit, GEO) satellite, a high elliptical orbit (High Elliptical Orbit, HEO) satellite. ) Satellite etc.
  • the network device may also be a base station installed on land, water, and other locations.
  • the network device may provide services for a cell, and the terminal device communicates with the network device through the transmission resources (for example, frequency domain resources, or spectrum resources) used by the cell, and the cell may be a network device ( For example, a cell corresponding to a base station), the cell may belong to a macro base station, or may belong to a base station corresponding to a small cell (Small cell), and the small cell here may include: a metro cell (Metro cell), a micro cell (Micro cell), a pico cell ( Pico cell), Femto cell, etc. These small cells have the characteristics of small coverage and low transmission power, and are suitable for providing high-speed data transmission services.
  • the transmission resources for example, frequency domain resources, or spectrum resources
  • the cell may be a network device (
  • the cell may belong to a macro base station, or may belong to a base station corresponding to a small cell (Small cell)
  • the small cell here may include: a metro cell (Metro cell), a micro cell (Micro
  • FIG. 1 exemplarily shows a communication system 100 .
  • the communication system includes a network device 110 and two terminal devices 120 .
  • the communication system 100 may include multiple network devices 110, and each network device 110 may include other numbers of terminal devices 120 within the coverage area, which is not limited in this embodiment of the present application.
  • the communication system 100 may also include other network entities such as a mobility management entity (Mobility Management Entity, MME), an access and mobility management function (Access and Mobility Management Function, AMF), etc.
  • MME Mobility Management Entity
  • AMF Access and Mobility Management Function
  • the network equipment may further include access network equipment and core network equipment. That is, the wireless communication system also includes multiple core networks for communicating with access network devices.
  • the access network device may be a long-term evolution (long-term evolution, LTE) system, a next-generation (mobile communication system) (next radio, NR) system or an authorized auxiliary access long-term evolution (LAA- Evolved base station (evolutional node B, abbreviated as eNB or e-NodeB) macro base station, micro base station (also called “small base station”), pico base station, access point (access point, AP), Transmission point (transmission point, TP) or new generation base station (new generation Node B, gNodeB), etc.
  • LTE long-term evolution
  • NR next-generation
  • LAA- Evolved base station evolutional node B, abbreviated as eNB or e-NodeB
  • eNB next-generation
  • NR next-generation
  • a device with a communication function in the network/system in the embodiment of the present application may be referred to as a communication device.
  • the communication equipment may include network equipment and terminal equipment with communication functions. It may include other devices in the communication system, such as network controllers, mobility management entities and other network entities, which are not limited in this embodiment of the present application.
  • eMBB Enhanced Mobile Broadband
  • URLLC Ultra Reliable Low Latency Communications
  • mMTC Massive Machine Type Communications
  • eMBB is aimed at users to obtain multimedia content, services and data, and its demand is growing rapidly; since eMBB may be deployed in different scenarios, such as indoors, urban areas, rural areas, etc., its capabilities and requirements vary greatly , so it must be analyzed in detail in combination with specific deployment scenarios.
  • Typical applications of URLLC include: industrial automation, electric power automation, telemedicine operations (surgery), traffic safety guarantee, etc.
  • the typical characteristics of mMTC include: high connection density, small data volume, delay-insensitive services, low cost and long service life, etc.
  • RRC_INACTIVE Radio Resource Control
  • RRC_IDLE RRC idle
  • RRC_ACTIVE RRC activation
  • RRC_CONNECTED RRC connection
  • RRC_IDLE state Mobility is UE-based cell selection and reselection, paging is initiated by the core network (CN, Core Network) and the paging area is configured by the CN.
  • CN Core Network
  • AS Access Stratum
  • RRC_CONNECTED state There is an RRC connection between the UE and the base station, and the UE AS context exists between the base station and the UE.
  • the location of the UE obtained by the network side is at the cell level; mobility is controlled by the network side.
  • unicast data can be transmitted between the UE and the base station.
  • RRC_INACTIVE state Mobility is UE-based cell selection and reselection, and there is a connection between CN-NR (New Radio, New Radio); UE AS context exists on a certain base station, and paging is performed by the radio access network (RAN, Radio Access Network), the RAN-based paging area is managed by the RAN, and the network side knows the location of the UE based on the RAN-based paging area level.
  • CN-NR New Radio, New Radio
  • RAN Radio Access Network
  • NR frequency domain resource allocation specifically including:
  • Both uplink and downlink of NR support two types of frequency domain resource allocation: Type 0 frequency domain resource allocation type and Type 1 frequency domain resource allocation type.
  • the network side configures the type of frequency domain resource allocation used by the terminal through the high-level parameter resourceAllocation, which can be It is configured that the terminal uses resource allocation Type0, resource allocation Type 1, or dynamic switch.
  • the configuration parameter is "dynamic switch"
  • the network side indicates the type of frequency domain resource assignment used by the terminal through the Frequency domain resource assignment field in the DCI.
  • the RB indexing of Type0 and Type1 is determined in the active BWP of the terminal; if the terminal supports DCI-based BWP change, and scheduling
  • the BWP indication field is configured in the DCI, then the RB indexing of frequency domain resource allocation Type 0 and resource allocation Type 1 is determined based on the BWP indicated by the BWP indicator in the DCI.
  • the terminal needs to first determine the BWP through PDCCH detection, and then determine the frequency domain resource allocation in the BWP.
  • Type 0 specifically includes: As shown in Figure 2, the granularity of Type 0 frequency domain resource allocation type is RBG, RBG is a combination of a series of continuous virtual RBs, and the number of virtual RBs included in each RBG depends on the size of the BWP and The RRC configuration parameter rbg-Size is determined, and rbg-Size is used to configure 'configuration 1' (configuration 1) or 'configuration 2' (configuration 2) in Table 1 below.
  • “Bandwidth Part Size” in the table below indicates the bandwidth part
  • the size of the BWP that is, after determining the size of the BWP, the size of the RBG under configuration 1 or configuration 2 can be determined based on Table 1:
  • Type 0 frequency domain resource allocation type using a bitmap to indicate the RBG allocated to the terminal, 1 means that this RBG is allocated to the terminal, 0 means that this RBG is not allocated to the terminal, it can realize the flexible distribution of frequency domain resources in the BWP, support Discontinuous resource allocation can use discrete frequency domain transmission to combat frequency selective fading.
  • the disadvantages are: (1) the number of bits in the bitmap is large, and it needs to cover each RBG in the entire BWP; (2) the granularity of resource allocation is relatively coarse, because an RBG contains 2 to 16 RBs, and cannot be selected RB by RB resource;
  • the size of the first RBG is the size of the first RBG.
  • the size of the last RBG is: if And P is another value.
  • the remaining RBGs are of size P.
  • Type 1 resource allocation type as shown in Figure 2, the Type 1 resource allocation type can indicate a series of continuous virtual RBs to the terminal, and a RIV (resource indication value, resource indication value) is used to pair the allocated starting RB (RB start ) and the number of RBs (L RBs ) are jointly encoded.
  • RIV resource indication value, resource indication value
  • the advantage of Type 1 is that it can indicate RB-level resources with a small number of bits, but the disadvantage is that it can only allocate continuous frequency domain resources. When the number of resources is small, the frequency diversity is limited and it is easily affected by frequency selective fading.
  • the method of joint encoding of the starting RB (RB start ) and the number of RBs (L RBs ) is as follows:
  • L RBs ⁇ 1 and not exceeding Among them, L RBs represents the number of RBs, and RB start represents the number of the starting RB; Indicates the size of the BWP; Indicates rounding down.
  • NR supports the terminal to perform PDCCH blind detection in the search space sets (search space sets) configured on the network side.
  • the reason for "blind detection" is that the terminal does not know the format and other information of the DCI before detecting the DCI carried by the PDCCH, so It is necessary to use some fixed DCI size to perform blind detection on the PDCCH candidate in the search space set.
  • NR stipulates that after completing the DCI size alignment step defined by the protocol, the terminal does not expect the total number of DCI sizes to be greater than 4, and the total number of DCI sizes scrambled by C-RNTI to be greater than 3.
  • the terminal Since the terminal only tries to use some fixed DCI sizes to detect the PDCCH, it is necessary for the terminal to know the DCI sizes of different DCI formats before PDCCH blind detection. What is the number of bits contained in each information field? Taking the Frequency domain resource assignment (FDRA) field as an example, the determination method of the number of bits is as follows:
  • the indication field contains N RBG bits
  • the indication field contains bit
  • the indication field contains Bits, where the highest bit is used to indicate the resource allocation type used by the terminal, 0 means type 0, 1 means type 1. in, Indicates the size of the BWP, Indicates rounding up; N RBG indicates the number of bits of indication information contained in the FDRA indication field in resource allocation type 0; max() indicates taking the maximum value.
  • DCI format 1_1/0_1 DCI format 1_1/0_1
  • TDRA Time domain resource assignment
  • RRC parameter pdsch-TimeDomainAllocationList Occupied symbols, PDSCH/PUSCH mapping type, etc., and then indicate one of the TDRA entries through the TDRA field in the DCI;
  • the TDRA field in DCI contains Bits, where I is the number of TDRA entries (entries) included in the pdsch-TimeDomainAllocationList configured by the upper layer, or the number of entries included in the default TDRA table.
  • the "indication" mentioned in the embodiments of the present application may be a direct indication, may also be an indirect indication, and may also mean that there is an association relationship.
  • a indicates B which can mean that A directly indicates B, for example, B can be obtained through A; it can also indicate that A indirectly indicates B, for example, A indicates C, and B can be obtained through C; it can also indicate that there is an association between A and B relation.
  • the term "corresponding" may indicate that there is a direct or indirect correspondence between the two, or that there is an association between the two, or that it indicates and is indicated, configuration and is configuration etc.
  • Fig. 3 is a schematic flowchart of an information reporting method according to an embodiment of the present application.
  • the method can be applied to terminal devices in the system shown in FIG. 1 , but is not limited thereto.
  • the method includes at least some of the following.
  • the terminal device receives first downlink control information (DCI, Downlink Control Information) sent by the network device;
  • DCI Downlink Control Information
  • the first DCI is used to schedule N data channels of N first serving cells; the first DCI includes a frequency domain resource assignment indication (FDRA, Frequency domain resource assignment) domain, and the FDRA domain indicates The frequency domain size is determined by the activated BWPs of M second serving cells; the sum of the activated BWPs of the M second serving cells is greater than or equal to the sum of the activated BWPs of the N first serving cells; M is a positive integer, and N is positive integer.
  • FDRA Frequency domain resource assignment
  • the M second serving cells may be configured by high-level signaling and/or determined according to rules.
  • the M second serving cells include at least one of the following:
  • At least some of the serving cells in the serving cells configured by high-layer signaling are At least some of the serving cells in the serving cells configured by high-layer signaling
  • the serving cells in the first serving cell combination are configured by high-level signaling, and the first serving cell combination is the serving cell combination with the largest sum of equivalent activated BWPs;
  • a serving cell in a second serving cell combination is an activated serving cell, and the second serving cell combination is a serving cell combination with the largest sum of equivalent activated BWPs.
  • the serving cells in the same cell group may refer to all serving cells in the same cell group.
  • the cell group can be configured by the network device for the terminal device through high-level signaling.
  • the network side configures four service cells (cell 1 to cell 4) for the terminal device through high-level signaling, and configures the four service cells
  • the cells belong to the same cell group (cell group), such as both belong to MCG (Master Cell group, primary cell group), or both belong to primary PUCCH group (main PUCCH group)/SCG (Secondary Cell group, secondary cell group).
  • the above four serving cells (cell 1-cell 4) may be M second serving cells.
  • the serving cell scheduled in the same cell may be: a serving cell that can be scheduled by the first DCI transmitted in a serving cell.
  • the network device may configure a scheduling relationship between serving cells for the terminal device.
  • the network side configures four serving cells for the terminal equipment through high-level signaling, namely cell 1 to cell 4; among them, cell 1 can be scheduled together with cell 2, or cell1 can be scheduled together with cell 3, Alternatively, cell 2 can be scheduled by cell 1 along with cell 3.
  • the serving cells scheduled by the same cell may refer to cell2 and cell3, or cell1 and cell2, or cell1 and cell3.
  • the first DCI transmitted in cell 1 can be used to schedule the serving cell included in any combination of cell1 ⁇ cell3, then any combination of cell 1, cell2 and cell3 is the M second DCI that cell1 can schedule.
  • Serve the community the community.
  • the serving cell scheduled by the same cell is: the serving cell scheduled by a Physical Downlink Data Channel (PDCCH, Physical Downlink Control Channel) in the same search space of the same cell. That is to say, the M second serving cells are all the serving cells scheduled by the PDCCH of a certain cell in the same search space (search space).
  • PDCCH Physical Downlink Data Channel
  • the serving cells configured by high-layer signaling may specifically refer to a subset or a complete set of all serving cells configured by the network device for the terminal device through high-layer signaling.
  • the network side configures four serving cells for the terminal device through high-level signaling, which are cell 1-cell 4, and the above-mentioned cell1-cell4 can be used as the aforementioned M second serving cells; or, cell1 and cell2 can be used as the aforementioned The M second serving cells and so on are not exhaustive here.
  • the determination method may be: combining all the serving cells configured by the network device for the terminal device through high-level signaling to obtain multiple serving cell combinations; calculating the sum of the equivalent activated BWPs of the multiple serving cell combinations, and combining the equivalent A serving cell combination with the largest sum of activated BWPs is used as the first serving cell combination, and all serving cells in the first serving cell combination are used as the aforementioned M second serving cells.
  • At least part of the activated serving cells in the activated serving cells may be: a subset or a complete set of any combination of all activated serving cells.
  • there are three serving cells in the currently activated serving cell which are cell 1 to cell 3, and the above-mentioned cell1 to cell3 can be used as the aforementioned M second serving cells; or, cell1 and cell2 can be used as the aforementioned M second serving cells.
  • Serving communities, etc., here is not exhaustive.
  • the determination method may be: combining all the currently activated serving cells respectively to obtain multiple serving cell combinations; calculating the sum of equivalent activated BWPs of the multiple serving cell combinations, and using the one with the largest sum of equivalent activated BWPs
  • the cell combination is used as the second serving cell combination, and all the serving cells in the second serving cell combination are used as the aforementioned M second serving cells.
  • the sum of equivalent activated BWPs refers to the sum of activated BWPs of all serving cells in each serving cell group.
  • the M second serving cells include a target cell; the target cell is a cell scheduled by the first DCI. That is to say, in the original processing mechanism, the network device schedules cell 1 through DCI; in the implementation manner provided by the present disclosure, the above M second serving cells include the above cell 1.
  • the N first serving cells may be one or more, which is specifically related to the number of serving cells to be scheduled currently.
  • Each first serving cell in the N first serving cells corresponds to a data channel, that is, the N first serving cells and the N data channels have a one-to-one correspondence.
  • the above-mentioned data channel may specifically include: PDSCH (Physical Downlink Share CHannel, Physical Downlink Share CHannel) or PUSCH (Physical Uplink Share CHannel, Physical Uplink Share CHannel).
  • PDSCH Physical Downlink Share CHannel, Physical Downlink Share CHannel
  • PUSCH Physical Uplink Share CHannel, Physical Uplink Share CHannel
  • the N first serving cells are indicated by one of the following: higher layer signaling, the first DCI, and a second DCI; the second DCI is different from the first DCI.
  • the above N first serving cells are configured by high layer signaling, or indicated by the first DCI, or indicated by other DCIs.
  • the first DCI refers to the DCI including the FDRA domain
  • the network device may deliver other DCIs to the terminal device, and any one of the other DCIs is referred to as the second DCI in the embodiments of the present disclosure. DCI.
  • the N first serving cells may be a subset or all of the M second serving cells, and the sum of the activated BWPs of the N first serving cells is less than or equal to the sum of the activated BWPs of the M second serving cells .
  • the network device may send configured M second serving cells to the terminal device through high-level signaling in advance; then the network device configures M second serving cells for the terminal device through the first DCI (or second DCI, or high-level signaling) N first serving cells in the second serving cells.
  • the terminal device determines M second serving cells according to the rules; then the network device configures N of the M second serving cells for the terminal device through the first DCI (or second DCI, or high-layer signaling) The first service area.
  • the N first serving cells are different from the M second serving cells, and the sum of activated BWPs of the N first serving cells is less than or equal to the sum of activated BWPs of the M second serving cells.
  • the M second serving cells may be part of the serving cells in the system, such as serving cells 1-5, whose total activated BWP is 200 PRB; the N first serving cells may be serving cell 7 and serving cell 8 , the sum of its activated BWP is 100PRB.
  • the M second serving cells may be some of the serving cells in the system, such as serving cells 1-5, whose total activated BWP is 200 PRB; the N first serving cells may be serving cell 3 and serving cell 8 , the sum of its activated BWP is 150PRB.
  • the aforementioned N first serving cells are a subset or a complete set of the M second serving cells, that is to say, the N first serving cells may be equal to the M second serving cells, for example, the M second serving cells include Cell 1-cell 4, then the N first serving cells also include cell 1-cell 4. Alternatively, the N first serving cells are part of the M second serving cells. For example, the M second serving cells include Cell 1-cell 4, and the N first serving cells include cell 1 and cell 2.
  • the N first serving cells include a target cell; the target cell is a cell scheduled by the first DCI. That is to say, in the original processing mechanism, the network device schedules cell 1 through DCI; in the implementation manner provided by the present disclosure, the above N first serving cells include cell 1.
  • the size of the FDRA domain is determined by the size of the first BWP; wherein, the size of the first BWP is one of the following:
  • An average value of frequency domain resources of activated BWPs of the M second serving cells is an average value of frequency domain resources of activated BWPs of the M second serving cells.
  • the size of the first BWP is the maximum frequency domain range indicated by the FDRA field, or the size of the first BWP is the frequency domain size indicated by the FDRA field. That is to say, the terminal device may determine the size of the FDRA field included in the first DCI based on the first BWP; where the size of the FDRA field may specifically refer to the number of bits occupied by the FDRA field.
  • the sum of frequency domain resources of activated BWPs of the M second serving cells may specifically refer to a sum obtained by adding frequency domain resources of activated BWPs of each second serving cell in the M second serving cells.
  • the sum of the frequency domain resources of the activated BWP of the M second serving cells may be the sum of the M second serving cells in any case. The sum obtained by adding the frequency domain resources of the activated BWP of each serving cell in the serving cell.
  • the method for determining the average value of the frequency domain resources of the activated BWPs of the M second serving cells may be: adding the frequency domain resources of the activated BWPs of the M second serving cells to obtain a sum, and dividing the sum by M to obtain the average value.
  • the size of the first BWP may also be a value configured by a network device.
  • it may be a value configured by the network device through high-level signaling, and correspondingly, the terminal device may directly use the value as the size of the first BWP.
  • the size of the first BWP is different when the M second serving cells are different and the determination method of the size of the first BWP is different, as follows:
  • the M second serving cells may be serving cells scheduled by the same cell.
  • the size of the first BWP is the sum of the frequency domain resources of the activated BWPs of the M second serving cells.
  • the size of the first BWP is determined by the sum of the activated BWPs of M second serving cells that can be scheduled by the first DCI of one serving cell.
  • the first DCI is the first DCI of serving cell 1 among the M second serving cells, and the serving cell 1 is used to schedule serving cell 1, serving cell 2 and serving cell 3, then the size of the first BWP is serving cell 1 , the sum of the frequency domain resources of the activated BWP of the serving cell 2 and the serving cell 3 .
  • the network side configures four second serving cells (cell 1-cell 4) for the terminal through high-level signaling, and the four second serving cells belong to the same cell group (for example, all belong to MCG, or both belong to primary PUCCH group/secondary cell group).
  • the scheduling relationship between the serving cells configured for the terminal through high-level signaling is shown in Figure 2: where cell 1 can be scheduled together with cell 2, or cell1 can be scheduled together with cell 3, or cell 2 can be scheduled together with cell 3 Cell 3 is scheduled together by cell 1.
  • the serving cells scheduled by the same cell may refer to cell2 and cell3, or cell1 and cell2, or cell1 and cell3.
  • cell 1 is used to schedule the frequency domain resource size corresponding to the FDRA in the first DCI carried by the PDCCH in the search space of cell2 (that is, the size of the first BWP), it is the size of the activated BWP of the cell2 That is 100PRB.
  • the frequency domain resource size corresponding to the FDRA in the first DCI carried by the PDCCH in the search space of cell 1 for scheduling cell 3 (that is, the size of the first BWP) is the size of the active BWP of the cell 3, that is, 30 PRB.
  • the size of the frequency domain resource corresponding to the FDRA in the first DCI carried by the PDCCH in the search space of the cell4 used to schedule the cell4 (that is, the size of the first BWP) is 200 PRB for the size of the active BWP of the cell4.
  • the size of the first BWP is configured by a network device.
  • the size of the frequency domain corresponding to the FDRA field in the first DCI can be directly configured by the network device through high-layer signaling. At this time, the size of the first BWP is equal to the value configured by the network device.
  • the value configured by the network device is expressed as K, that is, the frequency domain size corresponding to the FDRA in the first DCI carried by the PDCCH in the search space for scheduling the serving cell is K PRBs.
  • the M second serving cells are the serving cells configured by high layer signaling or the complete set of activated serving cells.
  • the size of the first BWP is an average value of frequency domain resources of activated BWPs of M second serving cells.
  • an average value may be calculated after summing frequency domain resources of activated BWPs of all M second serving cells, and the average value may be used as the size of the first BWP.
  • the M second serving cells are the serving cells configured by high-level signaling or the complete set of activated serving cells.
  • the size of the first BWP is the sum of the frequency domain resources of the activated BWPs of the M second serving cells.
  • all serving cells configured by high-level signaling or all activated serving cells may be used as M second serving cells, and the frequency domain resources of activated BWPs of M second serving cells may be summed up as the first The size of the BWP.
  • All the serving cells configured by the network device through high-level signaling are M second serving cells.
  • all the serving cells configured by the network device may only be part of a cell group.
  • Case 5 The M second serving cells are serving cells of the same cell group.
  • the size of the first BWP is the sum of the frequency domain resources of the activated BWPs of the M second serving cells.
  • the sum of frequency domain resources of activated BWPs of all M second serving cells of the same cell group may be used as the size of the first BWP.
  • the M second serving cells are a subset of serving cells or activated serving cells configured by high layer signaling.
  • the size of the first BWP is the sum of the frequency domain resources of the activated BWPs of the M second serving cells.
  • all the serving cells configured by high-level signaling or a part of all activated serving cells may be used as M second serving cells, and the frequency domain resources of the activated BWPs of the M second serving cells are summed up as the total Describe the size of the first BWP.
  • M second serving cells are serving cells in the first serving cell combination; the serving cells in the first serving cell combination are configured by high-level signaling, and the first serving cell combination is equivalently activated
  • the size of the first BWP is the sum of the frequency domain resources of the activated BWPs of the M second serving cells.
  • all the serving cells configured by high-level signaling or all the activated serving cells can be combined respectively to obtain multiple serving cell combinations, and all the serving cells in the serving cell combination with the largest sum of equivalent activated BWPs can be combined.
  • the cells serve as M second serving cells.
  • the sum of the frequency domain resources of the activated BWPs of the M second serving cells is used as the size of the first BWP.
  • the M second serving cells are respectively represented as cell 1 ⁇ cell 4, and the equivalent BWP for scheduling cell 1 and cell 1-cell3 on cell 1 includes: ⁇ 50,50+100,50 +30,100+30 ⁇ , where the maximum equivalent BWP is 150 PRB, so the first BWP is 150 PRB.
  • the size of the FDRA field may be calculated based on the size of the first BWP by using a calculation method under the second resource allocation type.
  • the second resource allocation type may specifically be a type-1 resource allocation type.
  • the size of the FDRA domain is determined in the following manner:
  • the size of the above FDRA field may represent the number of bits of indication information in the FDRA field included in the first DCI.
  • the frequency domain range indicated by the FDRA field is determined by the size of the FDRA field and the indication information included in the FDRA field. That is to say, determine the number of bits of indication information contained in the FDRA domain in the first DCI based on the size of the FDRA domain, extract the indication information from the FDRA domain, and then determine the frequency domain indicated by the FDRA domain based on the indication information scope.
  • the frequency domain range indicated by the FDRA field can be combined with the indication information based on the processing method corresponding to the second resource allocation type
  • the specific content is calculated. for example:
  • the second resource allocation type is used to allocate continuous RB resources.
  • the starting RB is denoted as RB start , the number of continuously occupied RBs is L RBs , and the frequency domain resource indication value RIV is:
  • L RBs ⁇ 1 and not exceeding is the bandwidth of a BWP.
  • the terminal reads the RIV, and can obtain the corresponding RB start and L RBs , that is, the frequency domain range indicated by the FDRA field is determined.
  • L RBs represents the number of RBs
  • RB start represents the number of the starting RB
  • the frequency domain resources respectively corresponding to the N data channels are determined by the frequency domain range indicated by the FDRA field and the activated BWPs of the N first serving cells.
  • frequency domain ranges respectively corresponding to the N first serving cells indicated by the FDRA field may be determined.
  • the frequency domain resource corresponding to the i-th data channel among the N data channels is the intersection of the frequency domain range indicated by the FDRA field and the activated BWP of the i-th first serving cell;
  • the i-th data channel is a data channel corresponding to the i-th serving cell among the N first serving cells; i is an integer greater than or equal to 1 and less than or equal to N.
  • the frequency domain range indicated by the FDRA field may include the entire frequency domain range after the concatenation of N first serving cells; according to the i-th first serving cell in the N first serving cells
  • the concatenation order and the total frequency domain range indicated by the FDRA field can determine the frequency domain range corresponding to the i-th data channel of the i-th first serving cell.
  • M is equal to 4, that is, the network side configures four second serving cells (cell 1-cell 4) for the terminal through high-level signaling, and the four second serving cells belong to the same cell group (such as All belong to the MCG, or all belong to the primary PUCCH group/secondary cell group) and the scheduling relationship between the serving cells configured for the terminal through high-level signaling is shown in Figure 4: where cells 1 to 4 can be scheduled as individual cells, Cell 1 can be scheduled with cell 2 or cell 3, and cell 2 can be scheduled with cell 3 or cell 1.
  • the size of the FDRA field is determined by the size of the first BWP.
  • the size of the first BWP is the sum of the frequency domain resources of the activated BWPs of the M second serving cells.
  • the M second serving cells are all possibly scheduled serving cells, and the size of the first BWP is determined based on the sum of the active BWPs (activated BWP) of the M second serving cells.
  • the frequency domain resource size corresponding to the FDRA in the first DCI carried by the PDCCH in the search space of cell 1 for scheduling cell 2 (that is, the size of the first BWP) is 100 PRB.
  • the frequency domain resource size corresponding to the FDRA in the first DCI carried by the PDCCH in the search space of cell 1 for scheduling cell 3 (that is, the size of the first BWP) is 30 PRB.
  • the frequency domain resource size corresponding to the FDRA in the first DCI carried by the PDCCH in the search space of cell 4 for scheduling cell 4 (that is, the size of the first BWP) is 200 PRB.
  • the size of the first BWP is directly configured by the upper layer.
  • the size of the frequency domain resource corresponding to the FDRA in the first DCI carried by the PDCCH in the search space used to schedule the serving cell in cell 1 is K PRBs , K is a positive integer configured by the network.
  • the size of the first BWP is an average value of frequency domain resources of activated BWPs of M second serving cells.
  • the size of the first BWP is the sum of the frequency domain resources of the activated BWPs of the M second serving cells.
  • the M second serving cells are serving cells of the same cell group.
  • the size of the FDRA domain is determined in the following way: in, Indicates the size of the first BWP, Indicates rounding up.
  • the number of bits required for the FDRA field in the first DCI carried by the PDCCH in the search space of cell 1 and cell 1-cell 3 combination (that is, the size of the FDRA field) is
  • the frequency domain range indicated by the FDRA field is determined by the size of the FDRA field and the indication information included in the FDRA field.
  • the N data channels are the data channels of cell2 and cell3
  • the indication information of the field is 0010 0100 1011 11, and it can be obtained that the PRB corresponding to the frequency domain range indicated by the FDRA field is 31-60 PRB.
  • the frequency domain resources respectively corresponding to the N data channels of the N first serving cells are determined by the frequency domain range indicated by the FDRA field and the activated BWPs of the N first serving cells.
  • the frequency domain resource corresponding to the i-th data channel of the i-th serving cell among the N first serving cells is the frequency domain range indicated by the FDRA field and the activated BWP of the i-th serving cell
  • the intersection of ; i is an integer greater than or equal to 1 and less than or equal to N.
  • the i-th first serving cell is cell 1
  • the frequency domain range of the activated BWP of cell 1 is the first 50 PRBs
  • the first data channel of cell 1 namely PDSCH/PUSCH
  • the second data channel of cell 3 occupies the 1st-10th PRB in the frequency domain resource of cell 3.
  • the size of the FDRA domain is determined by the size of the first BWP and the size of the first RBG.
  • the size of the first RBG is determined by the size of the first BWP.
  • the size of the first RBG is determined based on preset information corresponding to the first resource allocation type and the size of the first BWP.
  • the first resource allocation type may be type0
  • the preset information may specifically be a table set in type0 frequency domain resource allocation type, as shown in FIG. 2 .
  • the size of the first RBG is determined from the table based on the size of the first BWP.
  • the size of the FDRA domain is determined based on a ratio of the size of the first BWP to the size of the first RBG.
  • the size of the FDRA field specifically refers to the number of bits of indication information included in the FDRA field.
  • the size of the FDRA domain is obtained by dividing the size of the first BWP by the size of the first RBG and rounding up.
  • the size of the first BWP is equal to 180, and the size of the first RBG is equal to 16, then the size of the FDRA domain is
  • the indication granularity of the frequency domain range indicated by the FDRA field is determined based on the size of the first RBG.
  • the foregoing indication granularity may also be referred to as a second RBG.
  • the indication granularity (that is, the second RBG) may be equal to the size of the first RBG. For example, if the size of the first RBG is determined to be 16, then the indicated granularity is equal to 16.
  • the indication granularity is determined based on a sum of activated BWPs of the N first serving cells, a size of the first BWP, and a size of the first RBG. For example, the terminal device divides the sum of the activated BWPs of the N first serving cells by the first BWP and then multiplies it with the size of the first RBG to obtain a first value, based on the first value Determine the indication granularity.
  • the indication granularity is determined based on a first value, the first value is divided by the sum of the activated BWPs of the N first serving cells and the size of the first BWP and then divided by the first RBG Multiplied by size.
  • the terminal device divides the sum of the activated BWPs of the N first serving cells by the size of the first BWP and then multiplies it by the size of the first RBG to obtain a second value.
  • a binary value is rounded up to obtain the first value; and the indication granularity is determined based on the first value.
  • the indicated granularity is equal to the first value
  • the indication granularity is determined by the first value and preset information corresponding to the first resource allocation type.
  • the frequency domain resources respectively corresponding to the N data channels of the N first serving cells are determined by the frequency domain range indicated by the FDRA field and the activated BWPs of the N first serving cells.
  • the frequency domain range indicated by the FDRA field is determined by the size of the FDRA field, the indication information contained in the FDRA field, and the indication granularity.
  • the frequency domain range indicated by the FDRA field may specifically be the total frequency domain resources corresponding to the N data channels of the N first serving cells.
  • the frequency domain range indicated by the FDRA field is determined based on the effective bits and the frequency domain resource ranges of the N first serving cells; wherein the effective bits are based on the indication granularity and the The frequency domain resource ranges of the N first serving cells are determined.
  • the effective bits are determined based on the indication granularity and the frequency domain resource ranges of the N first serving cells, which may specifically include:
  • the terminal device divides the frequency domain resource range of the N first serving cells by the indication granularity to obtain a third value, and the value obtained by taking the third value up is used as the indication included in the FDRA field The number of valid bits in the message.
  • the third value is equal to 10, and 10 is used as the number of effective bits in the indication information included in the FDRA field.
  • the number of bits of the indication information of the FDRA field is equal to the size of the FDRA field, and the effective bits are a part of the FDRA field.
  • the effective bits in the indication information included in the FDRA field are extracted from front to back, assuming that the indication information included in the FDRA field includes 12 bits, and the effective bits are the first 10 bits.
  • the frequency domain range indicated by the FDRA field is determined based on the effective bits and the frequency domain resource ranges of the N first serving cells, and specifically refers to the case where the jth effective bit is the first value In this case, there is no transmission data channel on the frequency domain resource corresponding to the jth effective bit; when the jth effective bit is the second value, the jth effective bit corresponds to the frequency domain resource to transmit the data channel. Wherein, the first value is 0, and the second value is 1.
  • the frequency domain resource corresponding to the i-th data channel among the N data channels is the intersection of the frequency domain range indicated by the FDRA domain and the activated BWP of the i-th first serving cell;
  • the i-th data channel is a data channel corresponding to the i-th serving cell among the N first serving cells; i is an integer greater than or equal to 1 and less than or equal to N.
  • the i-th serving cell in the frequency domain range indicated in the FDRA field is related to the i-th serving cell.
  • the indication sequence of N first serving cells in the FDRA domain may be arranged according to the number (or index) of the first serving cells from low to high, or may be arranged in other default ways. In this embodiment It is not limited. After determining the total frequency domain range indicated by the FDRA field, the frequency domain range of each first serving cell may be determined based on the indication order of the N first serving cells.
  • the i-th first serving cell is the first serving cell
  • the size of its activated BWP is known in advance, and then based on its own activated BWP size and the total frequency domain indicated by the first serving cell in the FDRA field
  • the order of the ranges is the first, to determine the frequency domain range within the size range of the activated BWP of the first serving cell indicated this time, and use the frequency domain range as the frequency domain range corresponding to the i-th data channel.
  • M is equal to 4, that is, the network side configures four second serving cells (cell 1-cell 4) for the terminal through high-level signaling, and the four second serving cells belong to the same cell group (such as All belong to the MCG, or all belong to the primary PUCCH group/secondary cell group) and the scheduling relationship between the serving cells configured for the terminal through high-level signaling is shown in Figure 4: where cells 1 to 4 can be scheduled as individual cells, Cell 1 can be scheduled together with cell 2 or cell 3, and cell 2 can be scheduled together with cell 3 or cell 1.
  • the size of the FDRA field is determined by the size of the first BWP.
  • the M second serving cells are all possibly scheduled serving cells, and the size of the first BWP is determined based on the sum of the active BWPs (activated BWP) of the M second serving cells.
  • the frequency domain resource size corresponding to the FDRA in the first DCI carried by the PDCCH in the search space of cell 1 for scheduling cell 2 (that is, the size of the first BWP) is 100 PRB.
  • the frequency domain resource size corresponding to the FDRA in the first DCI carried by the PDCCH in the search space of cell 1 for scheduling cell 3 (that is, the size of the first BWP) is 30 PRB.
  • the frequency domain resource size corresponding to the FDRA in the first DCI carried by the PDCCH in the search space of cell 4 for scheduling cell 4 (that is, the size of the first BWP) is 200 PRB.
  • the size of the first BWP is directly configured by the upper layer.
  • the size of the frequency domain resource corresponding to the FDRA in the first DCI carried by the PDCCH in the search space used to schedule the serving cell in cell 1 is K PRBs , K is a positive integer configured by the network.
  • the size of the first BWP is an average value of frequency domain resources of activated BWPs of M second serving cells.
  • the M second serving cells are cell 1 to cell 4, and the total active BWP (total active BWP) of various second serving cell combinations is averaged, generally, it is approximated to ten, that is, the first
  • the size of the first BWP is the sum of the frequency domain resources of the activated BWPs of the M second serving cells.
  • the M second serving cells are serving cells of the same cell group.
  • the size of the first BWP is determined by M second serving cells, and the M second serving cells are configured by high-level signaling.
  • the size of the first BWP is determined by M second serving cells, and the M second serving cells are a subset or all of the configured or activated serving cells; for example, the size of the first BWP is determined by cell 2 , cell 2 is one of the configured or activated serving cells scheduled by cell1.
  • the size of the first RBG is at least determined by the size of the first BWP.
  • the size of the FDRA domain is determined by the size of the first BWP and the size of the first RBG. That is, the size of the FDRA domain is equal to the size of the first BWP divided by the size of the first RBG and then obtained by taking upward values.
  • the size of the FDRA field in the first DCI carried by the PDCCH in the search space used to schedule cell1 and the combination of cell1, cell2 and cell3 is
  • the indication granularity in one mode, is equal to the first RBG size (size), that is, 16.
  • the indication granularity is determined based on a sum of activated BWPs of the N first serving cells, a size of the first BWP, and a size of the first RBG.
  • the indicated granularity Assuming that the size of the first BWP is equal to 180 and the size of the first RBG is equal to 16, then the indicated granularity In this way, while keeping the size of the FDRA field unchanged, the indication is as accurate as possible, that is, the RBG size is as small as possible, and it can be adjusted proportionally according to the sum of the active BWPs of the actually scheduled serving cells.
  • the indication granularity is determined by the first value and the preset information corresponding to the first resource allocation type, that is, find an RBG that is closest to and greater than or equal to the calculated value from the RBG size agreed upon by the type0 resource configuration type size is used as the indicated granularity.
  • the closest value can be obtained by looking up the table to be 8, so it is determined that the indication granularity is 8PRBs.
  • the frequency domain resources respectively corresponding to the N data channels are determined by the frequency domain range indicated by the FDRA field and the activated BWPs of the N first serving cells.
  • cell1 when it is used to schedule two PDSCH/PUSCHs of cell1 and cell3, it corresponds to 80PRBs of frequency domain resources; the size of the FDRA field in the first DCI has been determined to be 12, and the size of the second RBG size (ie When the indication granularity) is 8, it can be determined that the first 10 bits of the 12 bits of the indication information in the FDRA field are valid bits, for example, it is expressed as 0110110100xx.
  • the first 10 bits above correspond to the 2nd, 3rd, 5th, 6th, and 8th RBGs.
  • the second group of RBGs includes 8 PRBs, that is, data channels are transmitted from the 9th to 16th PRBs, and so on.
  • the i-th serving cell is cell1 in the two serving cells, and the frequency domain range of the activated BWP of cell1 is the first 50 PRBs, then the PDSCH/PUSCH of cell1 occupies the 9th-24th, 33rd-48th PRBs. If the i-th serving cell is cell3, and the frequency domain range of the active BWP of cell3 is 30 PRBs, the PDSCH/PUSCH of cell3 occupies the 57th-64th PRBs.
  • M is equal to 4, that is, the network side configures four second serving cells (cell 1-cell 4) for the terminal through high-level signaling, and the four second serving cells belong to the same cell group (such as All belong to the MCG, or all belong to the primary PUCCH group/secondary cell group) and the scheduling relationship between the serving cells configured for the terminal through high-level signaling is shown in Figure 4: where cells 1 to 4 can be scheduled as individual cells, Cell 1 can be scheduled with cell 2 or cell 3, and cell 2 can be scheduled with cell 3 or cell 1.
  • the size of the FDRA field is determined by the size of the first BWP.
  • the M second serving cells are serving cells in the first serving cell combination; the serving cells in the first serving cell combination are configured by high-level signaling, and the first serving cell combination is equal to The combination of serving cells with the largest sum of effectively activated BWPs, the size of the first BWP is determined by the sum of M second serving cells.
  • the frequency domain resource size corresponding to the FDRA domain is determined by the combination with the largest equivalent active BWP including the combination of cell 1 and cell 1 to cell 3.
  • the equivalent BWP for scheduling cell 1 and cell 1 to cell 3 on cell 1 includes: ⁇ 50, 50+100, 50+30, 100+30 ⁇ , where the largest equivalent BWP is 150 PRB, So the size of the first BWP is 150 PRB.
  • the frequency domain resource size corresponding to the FDRA in the first DCI carried by the PDCCH in the search space of cell 4 for scheduling cell 4 (that is, the size of the first BWP) is 200 PRB.
  • the size of the first BWP is determined by M second serving cells, and the M second serving cells are a subset or all of the configured or activated serving cells;
  • the size of the first BWP is determined by M second serving cells, and the M second serving cells are the combination with the largest equivalent active BWP of a subset or all of any combination of configured or activated serving cells.
  • cell 1 is the largest combination of equivalent active BWPs of all configured or activated serving cells, that is, the size of the first BWP of cell 1 is 50 PRB.
  • the M cells are the combination with the largest equivalent active BWP of all configured or activated second serving cells, that is, the combination of cell 1 ⁇ cell 3, that is, the largest among ⁇ 50+100, 50+30, 100+30 ⁇
  • the active BWP, that is, the size of the first BWP is 150PRBs.
  • the size of the first BWP is determined by the M second serving cells, and the combination of the serving cells and any combination of the serving cells configured by the upper layers of the M second serving cells has the largest equivalent active BWP.
  • the combination of cell 1 and cell 1 ⁇ cell 2 is configured by the upper layer to determine the size of the FDRA domain. Therefore, the size of the first BWP is the largest value among ⁇ 50,100+50 ⁇ , that is, 150 PRB.
  • the size of the first BWP is directly configured by the upper layer.
  • the frequency domain resource size corresponding to the FDRA in the first DCI carried by the PDCCH in the search space of a serving cell for scheduling the first serving cell (that is, the size of the first BWP) is K PRBs, and K is the network configuration positive integer of .
  • the size of the first BWP is an average value of frequency domain resources of activated BWPs of M second serving cells.
  • the size of the first BWP is the sum of the frequency domain resources of the activated BWPs of the M second serving cells.
  • the M second serving cells are serving cells of the same cell group.
  • the size of the first RBG is at least determined by the size of the first BWP.
  • the size of the FDRA domain is determined by the size of the first BWP and the size of the first RBG. That is, the size of the FDRA domain is equal to the size of the first BWP divided by the size of the first RBG and then obtained by taking upward values.
  • the size of the FDRA field in the first DCI carried by the PDCCH in the search space used to schedule cell1 and the combination of cell1, cell2 and cell3 is
  • the indication granularity in one mode, is equal to the first RBG size (size), that is, 16.
  • the indication granularity is determined based on a sum of activated BWPs of the N first serving cells, a size of the first BWP, and a size of the first RBG.
  • the size of the first BWP is equal to 150 and the size of the first RBG is equal to 16, then the indicated granularity In this way, while keeping the size of the FDRA field unchanged, the indication is as accurate as possible, that is, the RBG size is as small as possible, and it can be adjusted proportionally according to the sum of the active BWPs of the actually scheduled serving cells.
  • the indication granularity is determined by the first value and the preset information corresponding to the first resource allocation type, that is, find an RBG that is closest to and greater than or equal to the calculated value from the RBG size agreed upon by the type0 resource configuration type size is used as the indicated granularity.
  • the closest value can be obtained by looking up the table as 9, so it is determined that the indication granularity is 9PRBs.
  • the frequency domain resources respectively corresponding to the N data channels are determined by the frequency domain range indicated by the FDRA field and the activated BWPs of the N first serving cells.
  • cell1 when it is used to schedule the 2 PDSCH/PUSCH of cell1 and cell3, it corresponds to 80PRBs of frequency domain resources; the size of the FDRA field in the first DCI has been determined to be 10, and the size of the second RBG size (ie When the indication granularity) is 9, the first 9 bits of the 10 bits in the FDRA domain are effective bits, corresponding to 80 PRBs of frequency domain resources. Therefore, 011011011x corresponds to the 2nd, 3rd, 5th, 6th, 8th, and 9th RBGs.
  • the second group of RBGs includes 9 PRBs, that is, data channels are transmitted from the 10th to 18th PRBs, and so on.
  • the i-th serving cell is cell1 in the two serving cells, and the frequency domain range of the activated BWP of cell1 is the first 50 PRBs, then the PDSCH/PUSCH of cell1 occupies the 10th-27th, 37th- 50PRB, the PDSCH/PUSCH of cell3 occupies the 1st-4th, 14th-30PRB of cell3.
  • resource allocation in the time domain can also be It can be realized by adopting the above-mentioned solution. It is also applicable to replace the above-mentioned frequency domain range with time domain range, and replace frequency domain resources with time domain resources, but the unit of time domain resources can be changed into time slot, OFDM symbol, etc., which is not mentioned here. Do exhaustive.
  • N data channels of N first serving cells can be scheduled in the first DCI, so that the flexibility of independent indication can be maintained, and since the frequency domain size of the FDRA domain of the first DCI is based on The activated BWP of the M second serving cells is determined, and the sum of the activated BWPs of the M second serving cells is greater than or equal to the sum of the activated BWPs of the N first serving cells, so the first DCI can also allow multiple serving cells Share an indication domain, thereby reducing the indication overhead of the FDRA domain.
  • Fig. 5 is a schematic flowchart of a method for indicating resources according to an embodiment of the present application.
  • the method can be applied to network devices in the system shown in FIG. 1 , but is not limited thereto.
  • the method includes at least some of the following.
  • the network device sends the first downlink control information (DCI, Downlink Control Information) to the terminal device;
  • DCI Downlink Control Information
  • the first DCI is used to schedule N data channels of N first serving cells; the first DCI includes a frequency domain resource assignment indication (FDRA, Frequency domain resource assignment) domain, and the FDRA domain indicates The frequency domain size is determined by the activated BWPs of M second serving cells; the sum of the activated BWPs of the M second serving cells is greater than or equal to the sum of the activated BWPs of the N first serving cells; M is a positive integer, and N is positive integer.
  • FDRA Frequency domain resource assignment
  • the M second serving cells may be determined according to rules.
  • the M second serving cells include at least one of the following:
  • the serving cell in the first serving cell combination is configured by the network device for the terminal device, and the first serving cell combination is the serving cell combination with the largest sum of equivalent activated BWPs ;
  • a serving cell in a second serving cell combination the serving cell in the second serving cell combination is an activated serving cell, and the second serving cell combination is a serving cell combination with the largest sum of equivalent activated BWPs.
  • the serving cells in the same cell group may refer to all serving cells in the same cell group.
  • the cell group may be configured for the terminal device by the network device through high-level signaling.
  • the network side configures four serving cells (cell 1-cell 4) for the terminal equipment through high-level signaling, and configures the four serving cells to belong to the same cell group (cell group), such as all belong to MCG (Master Cell group , primary cell group), or both belong to primary PUCCH group (primary PUCCH group)/SCG (Secondary Cell group, secondary cell group).
  • the above four serving cells (cell 1-cell 4) may be M second serving cells.
  • the serving cell scheduled in the same cell may be: a serving cell that can be scheduled by the first DCI transmitted in a serving cell.
  • the network device may configure a scheduling relationship between serving cells for the terminal device.
  • the network side configures four serving cells for the terminal equipment through high-level signaling, namely cell 1 to cell 4; among them, cell 1 can be scheduled together with cell 2, or cell1 can be scheduled together with cell 3, Alternatively, cell 2 can be scheduled by cell 1 along with cell 3.
  • the serving cells scheduled by the same cell may refer to cell2 and cell3, or cell1 and cell2, or cell1 and cell3.
  • the first DCI transmitted in cell 1 can be used to schedule the serving cell included in any combination of cell1 ⁇ cell3, then any combination of cell 1, cell2 and cell3 is the M second DCI that cell1 can schedule.
  • Serve the community the community.
  • the serving cell scheduled by the same cell is: the serving cell scheduled by a Physical Downlink Data Channel (PDCCH, Physical Downlink Control Channel) in the same search space of the same cell. That is to say, the M second serving cells are all the serving cells scheduled by the PDCCH of a certain cell in the same search space (search space).
  • PDCCH Physical Downlink Data Channel
  • the serving cells configured for the terminal device may specifically refer to a subset or a complete set of all serving cells configured for the terminal device by the network device through high-level signaling.
  • the network side configures four serving cells for the terminal device through high-level signaling, which are cell 1-cell 4, and the above-mentioned cell1-cell4 can be used as the aforementioned M second serving cells; or, cell1 and cell2 can be used as the aforementioned The M second serving cells and so on are not exhaustive here.
  • the above M second serving cells are serving cells in the first serving cell combination of the network device; the serving cells in the first serving cell combination are configured by the network device for the terminal device, and the first serving cell combination
  • the determination method may be: respectively combine all the serving cells configured by the network device for the terminal device through high-level signaling to obtain multiple serving cell combinations; calculate the multiple serving cell combinations; For the sum of equivalent activated BWPs of the serving cell combinations, all the serving cells in a serving cell combination with the largest sum of equivalent activated BWPs are used as the aforementioned M second serving cells.
  • At least part of the activated serving cells in the activated serving cells may be: a subset or a complete set of any combination of all activated serving cells.
  • there are three serving cells in the currently activated serving cell which are cell 1 to cell 3, and the above-mentioned cell1 to cell3 can be used as the aforementioned M second serving cells; or, cell1 and cell2 can be used as the aforementioned M second serving cells.
  • Serving communities, etc., here is not exhaustive.
  • the above M second serving cells are serving cells in the second serving cell combination; the serving cells in the second serving cell combination are activated serving cells, and the second serving cell combination is the sum of equivalent activated BWP
  • the largest serving cell combination can be determined by: combining all currently activated serving cells to obtain multiple serving cell combinations; calculating the sum of the equivalent activation BWPs of the multiple serving cell combinations, and equivalently activating All the serving cells in a serving cell combination with the largest sum of BWPs are used as the aforementioned M second serving cells.
  • the sum of equivalent activated BWPs refers to the sum of activated BWPs of all serving cells in each serving cell group.
  • the M second serving cells include a target cell; the target cell is a cell scheduled by the first DCI. That is to say, in the original processing mechanism, the network device schedules cell 1 through DCI; in the implementation manner provided by the present disclosure, the above M second serving cells include the above cell 1.
  • the N first serving cells may be one or more, which is specifically related to the number of serving cells to be scheduled currently.
  • Each first serving cell in the N first serving cells corresponds to a data channel, that is, the N first serving cells and the N data channels have a one-to-one correspondence.
  • the above-mentioned data channel may specifically include: PDSCH (Physical Downlink Share CHannel, Physical Downlink Share CHannel) or PUSCH (Physical Uplink Share CHannel, Physical Uplink Share CHannel).
  • PDSCH Physical Downlink Share CHannel, Physical Downlink Share CHannel
  • PUSCH Physical Uplink Share CHannel, Physical Uplink Share CHannel
  • the N first serving cells are indicated by one of the following: higher layer signaling, the first DCI, and a second DCI; the second DCI is different from the first DCI.
  • the above N first serving cells are configured by high layer signaling, or indicated by the first DCI, or indicated by other DCIs.
  • the first DCI refers to the DCI including the FDRA domain
  • the network device may deliver other DCIs to the terminal device, and any one of the other DCIs is referred to as the second DCI in the embodiments of the present disclosure. DCI.
  • the N first serving cells may be a subset or all of the M second serving cells, and the sum of the activated BWPs of the N first serving cells is less than or equal to the sum of the activated BWPs of the M second serving cells .
  • the network device may send configured M second serving cells to the terminal device through high-level signaling in advance; then the network device configures M second serving cells for the terminal device through the first DCI (or second DCI, or high-level signaling) N first serving cells in the second serving cells.
  • the terminal device determines M second serving cells according to the rules; then the network device configures N of the M second serving cells for the terminal device through the first DCI (or second DCI, or high-layer signaling) The first service area.
  • the N first serving cells are different from the M second serving cells, and the sum of activated BWPs of the N first serving cells is less than or equal to the sum of activated BWPs of the M second serving cells.
  • the M second serving cells may be part of the serving cells in the system, such as serving cells 1-5, whose total activated BWP is 200 PRB; the N first serving cells may be serving cell 7 and serving cell 8 , the sum of its activated BWP is 100PRB.
  • the M second serving cells may be some of the serving cells in the system, such as serving cells 1-5, whose total activated BWP is 200 PRB; the N first serving cells may be serving cell 3 and serving cell 8 , the sum of its activated BWP is 150PRB.
  • the N first serving cells include a target cell; the target cell is a cell scheduled by the first DCI. That is to say, in the original processing mechanism, the network device schedules cell 1 through DCI; in the implementation manner provided by the present disclosure, the above N first serving cells include cell 1.
  • the size of the FDRA domain is determined by the size of the first BWP; wherein, the size of the first BWP is one of the following:
  • An average value of frequency domain resources of activated BWPs of the M second serving cells is an average value of frequency domain resources of activated BWPs of the M second serving cells.
  • the size of the first BWP is the maximum frequency domain range indicated by the FDRA field, or the size of the first BWP is the frequency domain size indicated by the FDRA field. That is to say, the size of the FDRA field included in the first DCI may be determined based on the size of the first BWP; where the size of the FDRA field may specifically refer to the number of bits occupied by the FDRA field.
  • the sum of frequency domain resources of activated BWPs of the M second serving cells may specifically refer to a sum obtained by adding frequency domain resources of activated BWPs of each second serving cell in the M second serving cells.
  • the sum of the frequency domain resources of the activated BWP of the M second serving cells may be the sum of the M second serving cells in any case. The sum obtained by adding the frequency domain resources of the activated BWP of each serving cell in the serving cell.
  • the method for determining the average value of the frequency domain resources of the activated BWPs of the M second serving cells may be: adding the frequency domain resources of the activated BWPs of the M second serving cells to obtain a sum, and dividing the sum by M to obtain the average value.
  • the size of the first BWP may also be a value configured by a network device.
  • it may be a value configured by the network device through high-level signaling, and correspondingly, the terminal device may directly use the value as the size of the first BWP.
  • the size of the first BWP is different when the M second serving cells are different and the determination method of the size of the first BWP is different, as follows:
  • the M second serving cells may be serving cells scheduled by the same cell.
  • the size of the first BWP is the sum of the frequency domain resources of the activated BWPs of the M second serving cells.
  • the size of the first BWP is determined by the sum of the activated BWPs of M second serving cells that can be scheduled by the first DCI of one serving cell.
  • the first DCI is the first DCI of serving cell 1 among the M second serving cells, and the serving cell 1 is used to schedule serving cell 1, serving cell 2 and serving cell 3, then the size of the first BWP is serving cell 1 , the sum of the frequency domain resources of the activated BWP of the serving cell 2 and the serving cell 3 .
  • the network side configures four second serving cells (cell 1-cell 4) for the terminal through high-level signaling, and the four second serving cells belong to the same cell group (for example, all belong to MCG, or both belong to primary PUCCH group/secondary cell group).
  • the scheduling relationship between the serving cells configured for the terminal through high-level signaling is shown in Figure 2: where cell 1 can be scheduled together with cell 2, or cell1 can be scheduled together with cell 3, or cell 2 can be scheduled together with cell 3 Cell 3 is scheduled together by cell 1.
  • the serving cells scheduled by the same cell may refer to cell2 and cell3, or cell1 and cell2, or cell1 and cell3.
  • the RBG size is configured as configuration 2 (RRC configuration parameter rbg-Size).
  • cell 1 is used to schedule the frequency domain resource size corresponding to the FDRA in the first DCI carried by the PDCCH in the search space of cell2 (that is, the size of the first BWP), it is the size of the activated BWP of the cell2 That is 100PRB.
  • the frequency domain resource size corresponding to the FDRA in the first DCI carried by the PDCCH in the search space of cell 1 for scheduling cell 3 (that is, the size of the first BWP) is the size of the active BWP of the cell 3, that is, 30 PRB.
  • the size of the frequency domain resource corresponding to the FDRA in the first DCI carried by the PDCCH in the search space of the cell4 used to schedule the cell4 (that is, the size of the first BWP) is 200 PRB for the size of the active BWP of the cell4.
  • the size of the first BWP is configured by a network device.
  • the size of the frequency domain corresponding to the FDRA domain in the first DCI may be directly configured by the network device to the terminal device through high-layer signaling. At this time, the size of the first BWP is equal to the value configured by the network device.
  • the value configured by the network device is expressed as K, that is, the frequency domain size corresponding to the FDRA in the first DCI carried by the PDCCH in the search space for scheduling the serving cell is K PRBs.
  • the M second serving cells are the serving cells configured by high layer signaling or the complete set of activated serving cells.
  • the size of the first BWP is an average value of frequency domain resources of activated BWPs of M second serving cells.
  • an average value may be calculated after summing frequency domain resources of activated BWPs of all M second serving cells, and the average value may be used as the size of the first BWP.
  • the M second serving cells are the complete set of configured serving cells or activated serving cells.
  • the size of the first BWP is the sum of the frequency domain resources of the activated BWPs of the M second serving cells.
  • the network device may use all the serving cells configured for the terminal device through high-level signaling or all the activated serving cells as M second serving cells, and add the frequency domain resources of the activated BWPs of the M second serving cells , as the size of the first BWP.
  • All the serving cells configured by the network device may be only a part of a cell group.
  • the M second serving cells configured by the network device are cell1 and cell2 shown in FIG. 4, and the size of the first BWP is equal to cell 1 and cell 2.
  • the sum of the frequency domain resources of cell 2, that is, 50+100 150PRB.
  • Case 5 The M second serving cells are serving cells of the same cell group.
  • the size of the first BWP is the sum of the frequency domain resources of the activated BWPs of the M second serving cells.
  • the sum of frequency domain resources of activated BWPs of all M second serving cells of the same cell group may be used as the size of the first BWP.
  • the network device can use the M second serving cells (cell1-cell4) configured for the terminal device through high-level signaling as serving cells of the same cell group, and the total active BWP (activation) of cell1-cell4
  • the M second serving cells are a subset of serving cells or activated serving cells configured by high layer signaling.
  • the size of the first BWP is the sum of the frequency domain resources of the activated BWPs of the M second serving cells.
  • the network device may use all the serving cells configured for the terminal device through high-level signaling or a part of all activated serving cells as the M second serving cells, and use the activated BWP frequencies of the M second serving cells as M second serving cells.
  • the sum of domain resources is used as the size of the first BWP.
  • M second serving cells are serving cells in the first serving cell combination; the serving cells in the first serving cell combination are configured by high-level signaling, and the first serving cell combination is equivalently activated
  • the size of the first BWP is the sum of the frequency domain resources of the activated BWPs of the M second serving cells.
  • the network device can combine all the serving cells configured for the terminal device through high-layer signaling or all the activated serving cells to obtain a combination of multiple serving cells, and serve the one with the largest sum of equivalent activated BWPs. All serving cells in the cell combination serve as M second serving cells. The sum of the frequency domain resources of the activated BWPs of the M second serving cells is used as the size of the first BWP.
  • the M second serving cells are respectively represented as cell 1 to cell 4, and the equivalent BWP for scheduling cell 1 and cell 1-cell 3 combinations on cell 1 includes: ⁇ 50,50+100, 50+30,100+30 ⁇ , where the largest equivalent BWP is 150PRB, so the size of the first BWP is 150PRB.
  • the size of the FDRA field may be calculated based on the size of the first BWP by using a calculation method under the second resource allocation type.
  • the second resource allocation type may specifically be a type-1 frequency domain resource allocation type.
  • the size of the FDRA domain is determined in the following manner:
  • the size of the above FDRA field may represent the number of bits of indication information in the FDRA field included in the first DCI.
  • the frequency domain range indicated by the FDRA field is determined by the size of the FDRA field and the indication information included in the FDRA field. That is to say, determine the number of bits of indication information contained in the FDRA domain in the first DCI based on the size of the FDRA domain, extract the indication information from the FDRA domain, and then determine the frequency domain indicated by the FDRA domain based on the indication information scope.
  • the frequency domain range indicated by the FDRA field can be combined with the indication information based on the processing method corresponding to the second resource allocation type
  • the specific content is calculated. for example:
  • the frequency domain resources respectively corresponding to the N data channels are determined by the frequency domain range indicated by the FDRA field and the activated BWPs of the N first serving cells.
  • frequency domain ranges respectively corresponding to the N first serving cells indicated by the FDRA field may be determined.
  • the frequency domain resource corresponding to the i-th data channel among the N data channels is the intersection of the frequency domain range indicated by the FDRA field and the activated BWP of the i-th first serving cell;
  • the i-th data channel is a data channel corresponding to the i-th serving cell among the N first serving cells; i is an integer greater than or equal to 1 and less than or equal to N.
  • the frequency domain range indicated by the FDRA field may include the entire frequency domain range after the concatenation of N first serving cells; according to the i-th first serving cell in the N first serving cells
  • the concatenation order and the total frequency domain range indicated by the FDRA field can determine the frequency domain range corresponding to the i-th data channel of the i-th first serving cell.
  • M is equal to 4, that is, the network side configures four second serving cells (cell 1-cell 4) for the terminal through high-level signaling, and the four second serving cells belong to the same cell group (such as All belong to the MCG, or all belong to the primary PUCCH group/secondary cell group) and the scheduling relationship between the serving cells configured for the terminal through high-level signaling is shown in Figure 4: where cells 1 to 4 can be scheduled as individual cells, Cell 1 can be scheduled with cell 2 or cell 3, and cell 2 can be scheduled with cell 3 or cell 1.
  • the size of the FDRA field is determined by the size of the first BWP.
  • the size of the first BWP is the sum of the frequency domain resources of the activated BWPs of the M second serving cells.
  • the M second serving cells are all possibly scheduled serving cells, and the size of the first BWP is determined based on the sum of the active BWPs (activated BWP) of the M second serving cells.
  • the frequency domain resource size corresponding to the FDRA in the first DCI carried by the PDCCH in the search space of cell 1 for scheduling cell 2 (that is, the size of the first BWP) is 100 PRB.
  • the frequency domain resource size corresponding to the FDRA in the first DCI carried by the PDCCH in the search space of cell 1 for scheduling cell 3 (that is, the size of the first BWP) is 30 PRB.
  • the frequency domain resource size corresponding to the FDRA in the first DCI carried by the PDCCH in the search space of cell 4 for scheduling cell 4 (that is, the size of the first BWP) is 200 PRB.
  • the size of the first BWP is directly configured by the upper layer.
  • the size of the frequency domain resource corresponding to the FDRA in the first DCI carried by the PDCCH in the search space used to schedule the serving cell in cell 1 is K PRBs , K is a positive integer configured by the network.
  • the size of the first BWP is an average value of frequency domain resources of activated BWPs of M second serving cells.
  • the size of the first BWP is the sum of the frequency domain resources of the activated BWPs of the M second serving cells.
  • the M second serving cells are serving cells of the same cell group.
  • the size of the FDRA domain is determined in the following way: in, Indicates the size of the first BWP.
  • the number of bits required for the FDRA field in the first DCI carried by the PDCCH in the search space of cell 1 and cell 1-cell 3 combination (that is, the size of the FDRA field) is
  • the frequency domain range indicated by the FDRA field is determined by the size of the FDRA field and the indication information included in the FDRA field.
  • the indication information of the FDRA field in the first DCI is interpreted according to the processing method of type-1 frequency domain resource allocation type, for example , the indication information of the FDRA domain is 0010 0100 1011 11, and it can be obtained that the PRB corresponding to the frequency domain range indicated by the FDRA domain is 31-60 PRB.
  • the frequency domain resources respectively corresponding to the N data channels are determined by the frequency domain range indicated by the FDRA field and the activated BWPs of the N first serving cells.
  • the frequency domain resource corresponding to the i-th data channel of the i-th serving cell among the N first serving cells is the frequency domain range indicated by the FDRA field and the activated BWP of the i-th serving cell
  • the intersection of ; i is an integer greater than or equal to 1 and less than or equal to N.
  • the i-th first serving cell is cell 1
  • the frequency domain range of the activated BWP of cell 1 is the first 50 PRBs
  • the first data channel of cell 1 namely PDSCH/PUSCH
  • the second data channel of cell 3 occupies the 1st-10th PRB in the frequency domain resource of cell 3.
  • the size of the FDRA domain is determined by the size of the first BWP and the size of the first RBG.
  • the size of the first RBG is determined by the size of the first BWP.
  • the size of the first RBG is determined based on preset information corresponding to the first resource allocation type and the size of the first BWP.
  • the first resource allocation type may be type0
  • the preset information may specifically be a table set in type0 frequency domain resource allocation type, as shown in FIG. 2 .
  • the size of the first RBG is determined from the table based on the size of the first BWP.
  • the size of the FDRA domain is determined by dividing the first BWP by the size of the first RBG.
  • the size of the FDRA field specifically refers to the number of bits of indication information included in the FDRA field.
  • the size of the FDRA domain is determined based on a ratio of the size of the first BWP to the size of the first RBG.
  • the size of the first BWP is equal to 180, and the size of the first RBG is equal to 16, then the size of the FDRA domain is
  • the indication granularity of the frequency domain range indicated by the FDRA field is determined based on the size of the first RBG.
  • the foregoing indication granularity may also be referred to as a second RBG.
  • the indication granularity (that is, the second RBG) may be equal to the size of the first RBG. For example, if the size of the first RBG is determined to be 16, then the indicated granularity is equal to 16.
  • the indication granularity is determined based on a sum of activated BWPs of the N first serving cells, a size of the first BWP, and a size of the first RBG. For example, the terminal device divides the sum of the activated BWPs of the N first serving cells by the size of the first BWP and then multiplies it by the size of the first RBG to obtain the first value. A value that determines the indication granularity.
  • the indication granularity is determined based on a first value, the first value is divided by the sum of the activated BWPs of the N first serving cells and the size of the first BWP and then divided by the first RBG Multiplied by size.
  • the terminal device divides the sum of the activated BWPs of the N first serving cells by the size of the first BWP and then multiplies it by the size of the first RBG to obtain a second value.
  • a binary value is rounded up to obtain the first value; and the indication granularity is determined based on the first value.
  • the indicated granularity is equal to the first value
  • the indication granularity is determined by the first value and preset information corresponding to the first resource allocation type.
  • the frequency domain resources respectively corresponding to the N data channels are determined by the frequency domain range indicated by the FDRA field and the activated BWPs of the N first serving cells.
  • the frequency domain range indicated by the FDRA field is determined by the size of the FDRA field, the indication information contained in the FDRA field, and the indication granularity.
  • the frequency domain range indicated by the FDRA field may specifically be the total frequency domain resources corresponding to the N data channels of the N first serving cells.
  • the frequency domain range indicated by the FDRA field is determined based on the effective bits and the frequency domain resource ranges of the N first serving cells; wherein the effective bits are based on the indication granularity and the The frequency domain resource ranges of the N first serving cells are determined.
  • the effective bits are determined based on the indication granularity and the frequency domain resource ranges of the N first serving cells, which may specifically include:
  • the terminal device divides the frequency domain resource range of the N first serving cells by the indication granularity to obtain a third value, and the value obtained by taking the third value up is used as the indication included in the FDRA field The number of valid bits in the message.
  • the third value is equal to 10, and 10 is used as the number of effective bits in the indication information included in the FDRA field.
  • the number of bits of the indication information of the FDRA field is equal to the size of the FDRA field, and the effective bits are a part of the FDRA field.
  • the effective bits in the indication information included in the FDRA field are extracted from front to back, assuming that the indication information included in the FDRA field includes 12 bits, and the effective bits are the first 10 bits.
  • the frequency domain range indicated by the FDRA field is determined based on the effective bits and the frequency domain resource ranges of the N first serving cells, and specifically refers to the case where the jth effective bit is the first value In this case, there is no transmission data channel on the frequency domain resource corresponding to the jth effective bit; when the jth effective bit is the second value, the jth effective bit corresponds to the frequency domain resource to transmit the data channel. Wherein, the first value is 0, and the second value is 1.
  • the frequency domain resource corresponding to the i-th data channel of the i-th serving cell among the N first serving cells is the frequency domain range indicated by the FDRA field and the activated BWP of the i-th serving cell
  • the intersection of ; i is an integer greater than or equal to 1 and less than or equal to N.
  • the i-th serving cell in the frequency domain range indicated in the FDRA field The intersection of the frequency-domain ranges of the activated BWP.
  • M is equal to 4, that is, the network side configures four second serving cells (cell 1-cell 4) for the terminal through high-level signaling, and the four second serving cells belong to the same cell group (such as All belong to the MCG, or all belong to the primary PUCCH group/secondary cell group) and the scheduling relationship between the serving cells configured for the terminal through high-level signaling is shown in Figure 4: where cells 1 to 4 can be scheduled as individual cells, Cell 1 can be scheduled with cell 2 or cell 3, and cell 2 can be scheduled with cell 3 or cell 1.
  • the size of the FDRA field is determined by the size of the first BWP.
  • the M second serving cells are all possibly scheduled serving cells, and the size of the first BWP is determined based on the sum of the active BWPs (activated BWP) of the M second serving cells.
  • the frequency domain resource size corresponding to the FDRA in the first DCI carried by the PDCCH in the search space of cell 1 for scheduling cell 2 (that is, the size of the first BWP) is 100 PRB.
  • the frequency domain resource size corresponding to the FDRA in the first DCI carried by the PDCCH in the search space of cell 1 for scheduling cell 3 (that is, the size of the first BWP) is 30 PRB.
  • the frequency domain resource size corresponding to the FDRA in the first DCI carried by the PDCCH in the search space of cell 4 for scheduling cell 4 (that is, the size of the first BWP) is 200 PRB.
  • the size of the first BWP is directly configured by the upper layer.
  • the size of the frequency domain resource corresponding to the FDRA in the first DCI carried by the PDCCH in the search space used to schedule the serving cell in cell 1 is K PRBs , K is a positive integer configured by the network.
  • the size of the first BWP is an average value of frequency domain resources of activated BWPs of M second serving cells.
  • the size of the first BWP is the sum of the frequency domain resources of the activated BWPs of the M second serving cells.
  • the M second serving cells are serving cells of the same cell group.
  • the size of the first BWP is determined by M second serving cells, and the M second serving cells are configured by high-level signaling.
  • the size of the first BWP is determined by M second serving cells, and the M second serving cells are a subset or all of the configured or activated serving cells; for example, the size of the first BWP is determined by cell 2 , cell 2 is one of the configured or activated serving cells scheduled by cell1.
  • the size of the first RBG is at least determined by the size of the first BWP.
  • the size of the FDRA domain is determined by the size of the first BWP and the size of the first RBG. That is, the size of the FDRA domain is equal to the size of the first BWP divided by the size of the first RBG and then obtained by taking upward values.
  • the size of the FDRA field in the first DCI carried by the PDCCH in the search space used to schedule cell1 and the combination of cell1, cell2 and cell3 is
  • the indication granularity in one mode, is equal to the first RBG size (size), that is, 16.
  • the indication granularity is determined based on a sum of activated BWPs of the N first serving cells, a size of the first BWP, and a size of the first RBG.
  • the indicated granularity Assuming that the size of the first BWP is equal to 180 and the size of the first RBG is equal to 16, then the indicated granularity In this way, while keeping the size of the FDRA field unchanged, the indication is as accurate as possible, that is, the RBG size is as small as possible, and it can be adjusted proportionally according to the sum of the active BWPs of the actually scheduled serving cells.
  • the indication granularity is determined by the first value and the preset information corresponding to the first resource allocation type, that is, find an RBG that is closest to and greater than or equal to the calculated value from the RBG size agreed upon by the type0 resource configuration type size is used as the indicated granularity.
  • the closest value can be obtained by looking up the table to be 8, so it is determined that the indication granularity is 8PRBs.
  • the frequency domain resources respectively corresponding to the N data channels are determined by the frequency domain range indicated by the FDRA field and the activated BWPs of the N first serving cells.
  • cell1 when it is used to schedule two PDSCH/PUSCHs of cell1 and cell3, it corresponds to 80PRBs of frequency domain resources; the size of the FDRA field in the first DCI has been determined to be 12, and the size of the second RBG size (ie When the indication granularity) is 8, it can be determined that the first 10 bits of the 12 bits of the indication information in the FDRA field are valid bits, for example, it is expressed as 0110110100xx.
  • the first 10 bits above correspond to the 2nd, 3rd, 5th, 6th, and 8th RBGs.
  • the second group of RBGs includes 8 PRBs, that is, data channels are transmitted from the 9th to 16th PRBs, and so on.
  • the i-th serving cell is cell1 in the two serving cells, and the frequency domain range of the activated BWP of cell1 is the first 50 PRBs, then the PDSCH/PUSCH of cell1 occupies the 9th-24th, 33rd-48th PRBs. If the i-th serving cell is cell3, and the frequency domain range of the active BWP of cell3 is 30 PRBs, the PDSCH/PUSCH of cell3 occupies the 57th-64th PRBs.
  • M is equal to 4, that is, the network side configures four second serving cells (cell 1-cell 4) for the terminal through high-level signaling, and the four second serving cells belong to the same cell group (such as All belong to the MCG, or all belong to the primary PUCCH group/secondary cell group) and the scheduling relationship between the serving cells configured for the terminal through high-level signaling is shown in Figure 4: where cells 1 to 4 can be scheduled as individual cells, Cell 1 can be scheduled with cell 2 or cell 3, and cell 2 can be scheduled with cell 3 or cell 1.
  • the size of the FDRA field is determined by the size of the first BWP.
  • the M second serving cells are serving cells in the first serving cell combination of the network device; the serving cells in the first serving cell combination are configured by the network device for the terminal device, and the first serving cell A serving cell combination is a combination of serving cells with the largest sum of equivalent activated BWPs, and the size of the first BWP is determined by the sum of M second serving cells.
  • the frequency domain resource size corresponding to the FDRA domain is determined by the combination with the largest equivalent active BWP including the combination of cell 1 and cell 1 to cell 3.
  • the equivalent BWP for scheduling cell 1 and cell 1 to cell 3 on cell 1 includes: ⁇ 50, 50+100, 50+30, 100+30 ⁇ , where the largest equivalent BWP is 150 PRB, So the size of the first BWP is 150 PRB.
  • the frequency domain resource size corresponding to the FDRA in the first DCI carried by the PDCCH in the search space of cell 4 for scheduling cell 4 (that is, the size of the first BWP) is 200 PRB.
  • the size of the first BWP is determined by M second serving cells, and the M second serving cells are a subset or all of the configured or activated serving cells;
  • the size of the first BWP is determined by M second serving cells, and the M second serving cells are the combination with the largest equivalent active BWP of a subset or all of any combination of configured or activated serving cells.
  • cell 1 is the largest combination of equivalent active BWPs of all configured or activated serving cells, that is, the size of the first BWP of cell 1 is 50 PRB.
  • the M cells are the combination with the largest equivalent active BWP of all configured or activated second serving cells, that is, the combination of cell 1 ⁇ cell 3, that is, the largest among ⁇ 50+100, 50+30, 100+30 ⁇
  • the active BWP, that is, the size of the first BWP is 150PRBs.
  • the size of the first BWP is determined by the M second serving cells, and the combination of the serving cells and any combination of the serving cells configured by the upper layers of the M second serving cells has the largest equivalent active BWP.
  • the combination of cell 1 and cell 1 ⁇ cell 2 is configured by the upper layer to determine the size of the FDRA domain. Therefore, the size of the first BWP is the largest value among ⁇ 50,100+50 ⁇ , that is, 150 PRB.
  • the size of the first BWP is configured by the network device for the terminal device.
  • the frequency domain resource size corresponding to the FDRA in the first DCI carried by the PDCCH in the search space of a serving cell for scheduling the first serving cell (that is, the size of the first BWP) is K PRBs, and K is the network configuration positive integer of .
  • the size of the first BWP is an average value of frequency domain resources of activated BWPs of M second serving cells.
  • the size of the first BWP is the sum of the frequency domain resources of the activated BWPs of the M second serving cells.
  • the M second serving cells are serving cells of the same cell group.
  • the size of the first RBG is at least determined by the size of the first BWP.
  • the size of the FDRA domain is determined by the size of the first BWP and the size of the first RBG. That is, the size of the FDRA domain is equal to the size of the first BWP divided by the size of the first RBG and then obtained by taking upward values.
  • the size of the FDRA field in the first DCI carried by the PDCCH in the search space used to schedule cell1 and the combination of cell1, cell2 and cell3 is
  • the indication granularity in one mode, is equal to the first RBG size (size), that is, 16.
  • the indication granularity is determined based on a sum of activated BWPs of the N first serving cells, a size of the first BWP, and a size of the first RBG.
  • the first BWP is equal to 150 and the size of the first RBG is equal to 16, then the indicated granularity In this way, while keeping the size of the FDRA field unchanged, the indication is as accurate as possible, that is, the RBG size is as small as possible, and it can be adjusted proportionally according to the sum of the active BWPs of the actually scheduled serving cells.
  • the indication granularity is determined by the first value and the preset information corresponding to the first resource allocation type, that is, find an RBG that is closest to and greater than or equal to the calculated value from the RBG size agreed upon by the type0 resource configuration type size is used as the indicated granularity.
  • the closest value can be obtained by looking up the table as 9, so it is determined that the indication granularity is 9PRBs.
  • the frequency domain resources respectively corresponding to the N data channels are determined by the frequency domain range indicated by the FDRA field and the activated BWPs of the N first serving cells.
  • cell1 when it is used to schedule the 2 PDSCH/PUSCH of cell1 and cell3, it corresponds to 80PRBs of frequency domain resources; the size of the FDRA field in the first DCI has been determined to be 10, and the size of the second RBG size (ie When the indication granularity) is 9, the first 9 bits of the 10 bits in the FDRA domain are effective bits, corresponding to 80 PRBs of frequency domain resources. Therefore, 011011011x corresponds to the 2nd, 3rd, 5th, 6th, 8th, and 9th RBGs.
  • the second group of RBGs includes 9 PRBs, that is, data channels are transmitted from the 10th to 18th PRBs, and so on.
  • the i-th serving cell is cell1 in the two serving cells, and the frequency domain range of the activated BWP of cell1 is the first 50 PRBs, then the PDSCH/PUSCH of cell1 occupies the 10th-27th, 37th- 50PRB, the PDSCH/PUSCH of cell3 occupies the 1st-4th, 14th-30PRB of cell3.
  • N data channels of N first serving cells can be scheduled in the first DCI, so that the flexibility of independent indication can be maintained, and since the frequency domain size of the FDRA domain of the first DCI is based on The activated BWP of the M second serving cells is determined, and the sum of the activated BWPs of the M second serving cells is greater than or equal to the sum of the activated BWPs of the N first serving cells, so the first DCI can also allow multiple serving cells Share an indication domain, thereby reducing the indication overhead of the FDRA domain.
  • the embodiment of the third aspect of the present application provides a terminal device, as shown in FIG. 6 , including:
  • the first communication unit 6100 is configured to receive the first downlink control information DCI sent by the network device;
  • the first DCI is used to schedule N data channels of N first serving cells; the first DCI includes a frequency domain resource allocation indication FDRA domain, and the frequency domain size indicated by the FDRA domain is determined by M second
  • the activated BWP of the serving cell is determined; the sum of the activated BWPs of the M second serving cells is greater than or equal to the sum of the activated BWPs of the N first serving cells; M is a positive integer, and N is a positive integer.
  • the size of the FDRA domain is determined by the size of the first BWP
  • the size of the first BWP is one of the following:
  • An average value of frequency domain resources of activated BWPs of the M second serving cells is an average value of frequency domain resources of activated BWPs of the M second serving cells.
  • the frequency domain resources respectively corresponding to the N data channels are determined by the frequency domain range indicated by the FDRA field and the activated BWPs of the N first serving cells.
  • the frequency domain resource corresponding to the i-th data channel among the N data channels is the intersection of the frequency domain range indicated by the FDRA domain and the activated BWP of the i-th first serving cell;
  • the i-th data channel is a data channel corresponding to the i-th serving cell among the N first serving cells; i is an integer greater than or equal to 1 and less than or equal to N.
  • the size of the FDRA domain is determined in the following way:
  • the frequency domain range indicated by the FDRA field is determined by the size of the FDRA field and the indication information included in the FDRA field.
  • the size of the FDRA domain is determined by the size of the first BWP and the size of the first RBG.
  • the size of the first RBG is determined by the size of the first BWP.
  • the size of the first RBG is determined based on preset information corresponding to the first resource allocation type and the size of the first BWP.
  • the size of the FDRA domain is determined based on a ratio of the size of the first BWP to the size of the first RBG.
  • the indication granularity of the frequency domain range indicated by the FDRA field is determined based on the size of the first RBG.
  • the indication granularity is equal to the size of the first RBG.
  • the indication granularity is determined based on the sum of activated BWPs of the N first serving cells, the size of the first BWP, and the size of the first RBG.
  • the indication granularity is determined based on a first value, and the first value is multiplied by the size of the first RBG after dividing the sum of the activated BWPs of the N first serving cells by the size of the first BWP .
  • the indicated granularity is equal to the first value
  • the indication granularity is determined by the first value and preset information corresponding to the first resource allocation type.
  • the frequency domain range indicated by the FDRA field is determined by the size of the FDRA field, the indication information contained in the FDRA field, and the indication granularity.
  • the frequency domain range indicated by the FDRA field is determined based on the effective bits and the frequency domain resource ranges of the N first serving cells; wherein, the effective bits are based on the indication granularity and the Nth Nth serving cells
  • the frequency domain resource range of a serving cell is determined.
  • the N first serving cells are indicated by one of the following: higher layer signaling, the first DCI, and a second DCI; the second DCI is different from the first DCI.
  • the M second serving cells include at least one of the following:
  • At least some of the serving cells in the serving cells configured by high-layer signaling are At least some of the serving cells in the serving cells configured by high-layer signaling
  • the serving cells in the first serving cell combination are configured by high-level signaling, and the first serving cell combination is the serving cell combination with the largest sum of equivalent activated BWPs;
  • a serving cell in a second serving cell combination the serving cell in the second serving cell combination is an activated serving cell, and the second serving cell combination is a serving cell combination with the largest sum of equivalent activated BWPs.
  • the serving cell scheduled in the same cell is the serving cell scheduled by the physical downlink control channel PDCCH in the same search space of the same cell.
  • the M second serving cells include a target cell; the target cell is a cell scheduled by the first DCI;
  • the N first serving cells include a target cell; the target cell is a cell scheduled by the first DCI.
  • the N first serving cells are a subset or all of the M second serving cells.
  • the data channel is PDSCH or PUSCH.
  • the terminal device may further include a first processing unit, and the first processing unit may be configured to perform the above determination of the size of the first BWP, determination of the size of the first RBG, determination of the frequency domain range indicated by the FDRA domain and so on, which will not be repeated here.
  • the embodiment of the fourth aspect of the present application also provides a network device, as shown in FIG. 7 , including:
  • the second communication unit 7100 is configured to send the first downlink control information DCI to the terminal device;
  • the first DCI is used to schedule N data channels of N first serving cells; the first DCI includes a frequency domain resource allocation indication FDRA domain, and the frequency domain size indicated by the FDRA domain is determined by M second
  • the activated BWP of the serving cell is determined; the sum of the activated BWPs of the M second serving cells is greater than or equal to the sum of the activated BWPs of the N first serving cells; M is a positive integer, and N is a positive integer.
  • the size of the FDRA domain is determined by the size of the first BWP
  • the size of the first BWP is one of the following:
  • An average value of frequency domain resources of activated BWPs of the M second serving cells is an average value of frequency domain resources of activated BWPs of the M second serving cells.
  • the frequency domain resources respectively corresponding to the N data channels are determined by the frequency domain range indicated by the FDRA field and the activated BWPs of the N first serving cells.
  • the frequency domain resource corresponding to the i-th data channel among the N data channels is the intersection of the frequency domain range indicated by the FDRA domain and the activated BWP of the i-th first serving cell;
  • the i-th data channel is a data channel corresponding to the i-th serving cell among the N first serving cells; i is an integer greater than or equal to 1 and less than or equal to N.
  • the size of the FDRA domain is determined in the following way:
  • the frequency domain range indicated by the FDRA field is determined by the size of the FDRA field and the indication information included in the FDRA field.
  • the size of the FDRA domain is determined by the size of the first BWP and the size of the first RBG.
  • the size of the first RBG is determined by the size of the first BWP.
  • the size of the first RBG is determined based on preset information corresponding to the first resource allocation type and the size of the first BWP.
  • the size of the FDRA domain is determined based on a ratio of the size of the first BWP to the size of the first RBG.
  • the indication granularity of the frequency domain range indicated by the FDRA field is determined based on the size of the first RBG.
  • the indication granularity is equal to the size of the first RBG.
  • the indication granularity is determined based on the sum of activated BWPs of the N first serving cells, the size of the first BWP, and the size of the first RBG.
  • the indication granularity is determined based on a first value, and the first value is multiplied by the size of the first RBG after dividing the sum of the activated BWPs of the N first serving cells by the size of the first BWP .
  • the indicated granularity is equal to the first value
  • the indication granularity is determined by the first value and preset information corresponding to the first resource allocation type.
  • the frequency domain range indicated by the FDRA field is determined by the size of the FDRA field, the indication information contained in the FDRA field, and the indication granularity.
  • the frequency domain range indicated by the FDRA field is determined based on the effective bits and the frequency domain resource ranges of the N first serving cells; wherein, the effective bits are based on the indication granularity and the Nth Nth serving cells
  • the frequency domain resource range of a serving cell is determined.
  • the N first serving cells are indicated by one of the following: higher layer signaling, the first DCI, and a second DCI; the second DCI is different from the first DCI.
  • the M second serving cells include at least one of the following:
  • the serving cell in the first serving cell combination is configured by the network device for the terminal device, and the first serving cell combination is the serving cell combination with the largest sum of equivalent activated BWPs ;
  • a serving cell in a second serving cell combination the serving cell in the second serving cell combination is an activated serving cell, and the second serving cell combination is a serving cell combination with the largest sum of equivalent activated BWPs.
  • the serving cell scheduled in the same cell is the serving cell scheduled by the physical downlink control channel PDCCH in the same search space of the same cell.
  • the M second serving cells include a target cell; the target cell is a cell scheduled by the first DCI;
  • the N first serving cells include a target cell; the target cell is a cell scheduled by the first DCI.
  • the N first serving cells are a subset or all of the M second serving cells.
  • the data channel is PDSCH or PUSCH.
  • the network device may further include a second processing unit, and the second processing unit may be configured to perform the above determination of the size of the first BWP, determination of the size of the first RBG, determination of the frequency domain range indicated by the FDRA domain and so on, which will not be repeated here.
  • the terminal device in the embodiment of the present application can implement the corresponding function of the terminal device in the foregoing method embodiment.
  • each module (submodule, unit or component, etc.) in the terminal device refers to the corresponding description in the above method embodiment, and details are not repeated here.
  • the functions described by each module (submodule, unit or component, etc.) in the terminal device of the embodiment of the application can be realized by different modules (submodules, units or components, etc.), or by the same module (submodule, unit or component, etc.) implementation.
  • Fig. 8 is a schematic structural diagram of a communication device 800 according to an embodiment of the present application.
  • the communication device 800 includes a processor 810, and the processor 810 can invoke and run a computer program from a memory, so that the communication device 800 implements the method in the embodiment of the present application.
  • the communication device 800 may further include a memory 820 .
  • the processor 810 may call and run a computer program from the memory 820, so that the communication device 800 implements the method in the embodiment of the present application.
  • the memory 820 may be an independent device independent of the processor 810 , or may be integrated in the processor 810 .
  • the communication device 800 may further include a transceiver 830, and the processor 810 may control the transceiver 830 to communicate with other devices, specifically, to send information or data to other devices, or to receive information from other devices information or data sent.
  • the transceiver 830 may include a transmitter and a receiver.
  • the transceiver 830 may further include antennas, and the number of antennas may be one or more.
  • the communication device 800 may be the network device of the embodiment of the present application, and the communication device 800 may implement the corresponding processes implemented by the network device in each method of the embodiment of the present application. For the sake of brevity, the This will not be repeated here.
  • the communication device 800 may be a terminal device in the embodiment of the present application, and the communication device 800 may implement the corresponding processes implemented by the terminal device in each method of the embodiment of the present application. For the sake of brevity, the This will not be repeated here.
  • FIG. 9 is a schematic structural diagram of a chip 900 according to an embodiment of the present application.
  • the chip 900 includes a processor 910, and the processor 910 can invoke and run a computer program from a memory, so as to implement the method in the embodiment of the present application.
  • the chip 900 may further include a memory 920 .
  • the processor 910 may invoke and run a computer program from the memory 920, so as to implement the method performed by the terminal device or the network device in the embodiment of the present application.
  • the memory 920 may be an independent device independent of the processor 910 , or may be integrated in the processor 910 .
  • the chip 900 may further include an input interface 930 .
  • the processor 910 can control the input interface 930 to communicate with other devices or chips, specifically, can obtain information or data sent by other devices or chips.
  • the chip 900 may further include an output interface 940 .
  • the processor 910 can control the output interface 940 to communicate with other devices or chips, specifically, can output information or data to other devices or chips.
  • the chip can be applied to the network device in the embodiment of the application, and the chip can implement the corresponding processes implemented by the network device in the methods of the embodiment of the application.
  • the Let me repeat for the sake of brevity, the Let me repeat.
  • the chip can be applied to the terminal device in the embodiment of the present application, and the chip can implement the corresponding process implemented by the terminal device in each method of the embodiment of the present application.
  • the Let me repeat for the sake of brevity, the Let me repeat.
  • Chips applied to network devices and terminal devices may be the same chip or different chips.
  • the chip mentioned in the embodiment of the present application may also be called a system-on-chip, a system-on-chip, a system-on-a-chip, or a system-on-a-chip.
  • the processor mentioned above can be a general-purpose processor, a digital signal processor (DSP), an off-the-shelf programmable gate array (FPGA), an application specific integrated circuit (ASIC) or Other programmable logic devices, transistor logic devices, discrete hardware components, etc.
  • DSP digital signal processor
  • FPGA off-the-shelf programmable gate array
  • ASIC application specific integrated circuit
  • the general-purpose processor mentioned above may be a microprocessor or any conventional processor or the like.
  • the aforementioned memories may be volatile memories or nonvolatile memories, or may include both volatile and nonvolatile memories.
  • the non-volatile memory can be read-only memory (read-only memory, ROM), programmable read-only memory (programmable ROM, PROM), erasable programmable read-only memory (erasable PROM, EPROM), electrically programmable Erases programmable read-only memory (electrically EPROM, EEPROM) or flash memory.
  • the volatile memory may be random access memory (RAM).
  • the memory in the embodiment of the present application may also be a static random access memory (static RAM, SRAM), a dynamic random access memory (dynamic RAM, DRAM), Synchronous dynamic random access memory (synchronous DRAM, SDRAM), double data rate synchronous dynamic random access memory (double data rate SDRAM, DDR SDRAM), enhanced synchronous dynamic random access memory (enhanced SDRAM, ESDRAM), synchronous connection Dynamic random access memory (synch link DRAM, SLDRAM) and direct memory bus random access memory (Direct Rambus RAM, DR RAM), etc. That is, the memory in the embodiments of the present application is intended to include, but not be limited to, these and any other suitable types of memory.
  • Fig. 10 is a schematic block diagram of a communication system 1000 according to an embodiment of the present application.
  • the communication system 1000 includes a terminal device 1010 and a network device 1020 .
  • the terminal device 1010 may be used to realize the corresponding functions realized by the terminal device in the above method
  • the network device 1020 may be used to realize the corresponding functions realized by the network device in the above method.
  • details are not repeated here.
  • all or part of them may be implemented by software, hardware, firmware or any combination thereof.
  • software When implemented using software, it may be implemented in whole or in part in the form of a computer program product.
  • the computer program product includes one or more computer instructions. When the computer program instructions are loaded and executed on the computer, the processes or functions according to the embodiments of the present application will be generated in whole or in part.
  • the computer can be a general purpose computer, a special purpose computer, a computer network, or other programmable device.
  • the computer instructions may be stored in or transmitted from one computer-readable storage medium to another computer-readable storage medium, e.g.
  • the computer-readable storage medium may be any available medium that can be accessed by a computer, or a data storage device such as a server or a data center integrated with one or more available media.
  • the available medium may be a magnetic medium (such as a floppy disk, a hard disk, or a magnetic tape), an optical medium (such as a DVD), or a semiconductor medium (such as a solid state disk (Solid State Disk, SSD)), etc.
  • sequence numbers of the above-mentioned processes do not mean the order of execution, and the execution order of the processes should be determined by their functions and internal logic, and should not be used in the embodiments of the present application.
  • the implementation process constitutes any limitation.

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Abstract

本申请涉及一种资源的指示方法、终端设备、网络设备、计算机可读存储介质、计算机程序产品以及计算机程序。其中方法包括：终端设备接收网络设备发送的第一下行控制信息DCI；所述第一DCI用于调度N个第一服务小区的N个数据信道；所述第一DCI中包含频域资源分配指示FDRA域，所述FDRA域所指示的频域大小由M个第二服务小区的激活BWP确定；所述M个第二服务小区的激活BWP总和大于等于所述N个第一服务小区的激活BWP总和；M为正整数，N为正整数。

Description

资源的指示方法、终端设备和网络设备 技术领域
本申请涉及通信领域，更具体地，涉及一种资源的指示方法、终端设备、网络设备、计算机可读存储介质、计算机程序产品以及计算机程序。
背景技术
在相关技术中，网络侧通过DCI(下行控制信息，Downlink Control Information)中的Frequency domain resource assignment(FDRA，频域资源分配)域来指示终端在一个小区上所使用的频域资源。但是，如何更加高效的调度并且不造成过多的FDRA的指示开销，就成为需要解决的问题。
发明内容
本申请实施例提供一种资源的指示方法、终端设备、网络设备、计算机可读存储介质、计算机程序产品以及计算机程序。
本申请实施例提供一种资源的指示方法，包括：
终端设备接收网络设备发送的第一下行控制信息DCI；
所述第一DCI用于调度N个第一服务小区的N个数据信道；所述第一DCI中包含频域资源分配指示FDRA域，所述FDRA域所指示的频域大小由M个第二服务小区的激活BWP确定；所述M个第二服务小区的激活BWP总和大于等于所述N个第一服务小区的激活BWP总和；M为正整数，N为正整数。
本申请实施例提供一种资源的指示方法，包括：
网络设备向终端设备发送第一下行控制信息DCI；
所述第一DCI用于调度N个第一服务小区的N个数据信道；所述第一DCI中包含频域资源分配指示FDRA域，所述FDRA域所指示的频域大小由M个第二服务小区的激活BWP确定；所述M个第二服务小区的激活BWP总和大于等于所述N个第一服务小区的激活BWP总和；M为正整数，N为正整数。
本申请实施例提供一种终端设备，包括：
第一通信单元，用于接收网络设备发送的第一下行控制信息DCI；
所述第一DCI用于调度N个第一服务小区的N个数据信道；所述第一DCI中包含频域资源分配指示FDRA域，所述FDRA域所指示的频域大小由M个第二服务小区的激活BWP确定；所述M个第二服务小区的激活BWP总和大于等于所述N个第一服务小区的激活BWP总和；M为正整数，N为正整数。
本申请实施例提供一种网络设备，包括：
第二通信单元，用于向终端设备发送第一下行控制信息DCI；
所述第一DCI用于调度N个第一服务小区的N个数据信道；所述第一DCI中包含频域资源分配指示FDRA域，所述FDRA域所指示的频域大小由M个第二服务小区的激活BWP确定；所述M个第二服务小区的激活BWP总和大于等于所述N个第一服务小区的激活BWP总和；M为正整数，N为正整数。
本申请实施例提供一种终端设备，包括处理器和存储器。该存储器用于存储计算机程序，该处理器用于调用并运行该存储器中存储的计算机程序，以使该终端设备执行上述方法。
本申请实施例提供一种芯片，用于实现上述方法。
具体地，该芯片包括：处理器，用于从存储器中调用并运行计算机程序，使得安装有该芯片的设备执行上述的方法。
本申请实施例提供一种计算机可读存储介质，用于存储计算机程序，当该计算机程序被设备运行时使得该设备执行上述方法。
本申请实施例提供一种计算机程序产品，包括计算机程序指令，该计算机程序指令使得计算机执行上述方法。
本申请实施例提供一种计算机程序，当其在计算机上运行时，使得计算机执行上述方法。
本申请实施例，可以在第一DCI中调度N个第一服务小区的N个数据信道，从而即可以保持独立指示的灵活性，并且由于第一DCI的FDRA域的频域大小是基于M个第二服务小区的激活BWP确定的，而M个第二服务小区的激活BWP总和大于等于所述N个第一服务小区的激活BWP总和，因此该第一DCI还可以让多个服务小区共享一个指示域，从而减少FDRA域的指示开销。
附图说明
图1是根据本申请实施例的应用场景的示意图。
图2是根据本申请两种资源分配类型示意图。
图3是根据本申请一实施例的资源的指示方法的示意性流程图。
图4是根据本申请一实施例的调度小区的示意图。
图5是根据本申请另一实施例的资源的指示方法的示意性流程图。
图6是根据本申请的一实施例的终端设备的示意性框图。
图7是根据本申请的另一实施例的网络设备的示意性框图。
图8是根据本申请实施例的通信设备示意性框图。
图9是根据本申请实施例的芯片的示意性框图。
图10是根据本申请实施例的通信系统的示意性框图。
具体实施方式
下面将结合本申请实施例中的附图，对本申请实施例中的技术方案进行描述。
本申请实施例的技术方案可以应用于各种通信系统，例如：全球移动通讯(Global System of Mobile communication，GSM)系统、码分多址(Code Division Multiple Access，CDMA)系统、宽带码分多址(Wideband Code Division Multiple Access，WCDMA)系统、通用分组无线业务(General Packet Radio Service，GPRS)、长期演进(Long Term Evolution，LTE)系统、先进的长期演进(Advanced long term evolution，LTE-A)系统、新无线(New Radio，NR)系统、NR系统的演进系统、非授权频谱上的LTE(LTE-based access to unlicensed spectrum，LTE-U)系统、非授权频谱上的NR(NR-based access to unlicensed spectrum，NR-U)系统、非地面通信网络(Non-Terrestrial Networks，NTN)系统、通用移动通信系统(Universal Mobile Telecommunication System，UMTS)、无线局域网(Wireless Local Area Networks，WLAN)、无线保真(Wireless Fidelity，WiFi)、第五代通信(5th-Generation，5G)系统或其他通信系统等。
通常来说，传统的通信系统支持的连接数有限，也易于实现，然而，随着通信技术的发展，移动通信系统将不仅支持传统的通信，还将支持例如，设备到设备(Device to Device，D2D)通信，机器到机器(Machine to Machine，M2M)通信，机器类型通信(Machine Type Communication，MTC)，车辆间(Vehicle to Vehicle，V2V)通信，或车联网(Vehicle to everything，V2X)通信等，本申请实施例也可以应用于这些通信系统。
在一种可能的实现方式中，本申请实施例中的通信系统可以应用于载波聚合(Carrier Aggregation，CA)场景，也可以应用于双连接(Dual Connectivity，DC)场景，还可以应用于独立(Standalone，SA)布网场景。
在一种可能的实现方式中，本申请实施例中的通信系统可以应用于非授权频谱，其中，非授权频谱也可以认为是共享频谱；或者，本申请实施例中的通信系统也可以应用于授权频谱，其中，授权频谱也可以认为是非共享频谱。
本申请实施例结合网络设备和终端设备描述了各个实施例，其中，终端设备也可以称为用户设备(User Equipment，UE)、接入终端、用户单元、用户站、移动站、移动台、远方站、远程终端、移动设备、用户终端、终端、无线通信设备、用户代理或用户装置等。
终端设备可以是WLAN中的站点(STAION，ST)，可以是蜂窝电话、无绳电话、会话启动协议(Session Initiation Protocol，SIP)电话、无线本地环路(Wireless Local Loop，WLL)站、个人数字处理(Personal Digital Assistant，PDA)设备、具有无线通信功能的手持设备、计算设备或连接到无线调制解调器的其它处理设备、车载设备、可穿戴设备、下一代通信系统例如NR网络中的终端设备，或者未来演进的公共陆地移动网络(Public Land Mobile Network，PLMN)网络中的终端设备等。
在本申请实施例中，终端设备可以部署在陆地上，包括室内或室外、手持、穿戴或车载；也可以部署在水面上(如轮船等)；还可以部署在空中(例如飞机、气球和卫星上等)。
在本申请实施例中，终端设备可以是手机(Mobile Phone)、平板电脑(Pad)、带无线收发功能的电脑、虚拟现实(Virtual Reality，VR)终端设备、增强现实(Augmented Reality，AR)终端设备、工业控制(industrial control)中的无线终端设备、无人驾驶(self driving)中的无线终端设备、远程医疗(remote medical)中的无线终端设备、智能电网(smart grid)中的无线终端设备、运输安全(transportation safety)中的无线终端设备、智慧城市(smart city)中的无线终端设备或智慧家庭(smart home)中的无线终端设备等。
作为示例而非限定，在本申请实施例中，该终端设备还可以是可穿戴设备。可穿戴设备也可以称为 穿戴式智能设备，是应用穿戴式技术对日常穿戴进行智能化设计、开发出可以穿戴的设备的总称，如眼镜、手套、手表、服饰及鞋等。可穿戴设备即直接穿在身上，或是整合到用户的衣服或配件的一种便携式设备。可穿戴设备不仅仅是一种硬件设备，更是通过软件支持以及数据交互、云端交互来实现强大的功能。广义穿戴式智能设备包括功能全、尺寸大、可不依赖智能手机实现完整或者部分的功能，例如：智能手表或智能眼镜等，以及只专注于某一类应用功能，需要和其它设备如智能手机配合使用，如各类进行体征监测的智能手环、智能首饰等。
在本申请实施例中，网络设备可以是用于与移动设备通信的设备，网络设备可以是WLAN中的接入点(Access Point，AP)，GSM或CDMA中的基站(Base Transceiver Station，BTS)，也可以是WCDMA中的基站(NodeB，NB)，还可以是LTE中的演进型基站(Evolutional Node B，eNB或eNodeB)，或者中继站或接入点，或者车载设备、可穿戴设备以及NR网络中的网络设备(gNB)或者未来演进的PLMN网络中的网络设备或者NTN网络中的网络设备等。
作为示例而非限定，在本申请实施例中，网络设备可以具有移动特性，例如网络设备可以为移动的设备。网络设备可以为卫星、气球站。例如，卫星可以为低地球轨道(low earth orbit，LEO)卫星、中地球轨道(medium earth orbit，MEO)卫星、地球同步轨道(geostationary earth orbit，GEO)卫星、高椭圆轨道(High Elliptical Orbit，HEO)卫星等。网络设备还可以为设置在陆地、水域等位置的基站。
在本申请实施例中，网络设备可以为小区提供服务，终端设备通过该小区使用的传输资源(例如，频域资源，或者说，频谱资源)与网络设备进行通信，该小区可以是网络设备(例如基站)对应的小区，小区可以属于宏基站，也可以属于小小区(Small cell)对应的基站，这里的小小区可以包括：城市小区(Metro cell)、微小区(Micro cell)、微微小区(Pico cell)、毫微微小区(Femto cell)等，这些小小区具有覆盖范围小、发射功率低的特点，适用于提供高速率的数据传输服务。
图1示例性地示出了一种通信系统100。该通信系统包括一个网络设备110和两个终端设备120。在一种可能的实现方式中，该通信系统100可以包括多个网络设备110，并且每个网络设备110的覆盖范围内可以包括其它数量的终端设备120，本申请实施例对此不做限定。
在一种可能的实现方式中，该通信系统100还可以包括移动性管理实体(Mobility Management Entity，MME)、接入与移动性管理功能(Access and Mobility Management Function，AMF)等其他网络实体，本申请实施例对此不作限定。
其中，网络设备又可以包括接入网设备和核心网设备。即无线通信系统还包括用于与接入网设备进行通信的多个核心网。接入网设备可以是长期演进(long-term evolution，LTE)系统、下一代(移动通信系统)(next radio，NR)系统或者授权辅助接入长期演进(authorized auxiliary access long-term evolution，LAA-LTE)系统中的演进型基站(evolutional node B，简称可以为eNB或e-NodeB)宏基站、微基站(也称为“小基站”)、微微基站、接入站点(access point，AP)、传输站点(transmission point，TP)或新一代基站(new generation Node B，gNodeB)等。
应理解，本申请实施例中网络/系统中具有通信功能的设备可称为通信设备。以图1示出的通信系统为例，通信设备可包括具有通信功能的网络设备和终端设备，网络设备和终端设备可以为本申请实施例中的具体设备，此处不再赘述；通信设备还可包括通信系统中的其他设备，例如网络控制器、移动管理实体等其他网络实体，本申请实施例中对此不做限定。
为了便于理解本申请实施例，下面对本申请实施例所涉及到的基本流程以及基本概念进行简单说明。应理解，下文所介绍的基本流程以及基本概念并不对本申请实施例产生限定。
5G的主要应用场景为：增强移动超宽带(eMBB，Enhanced Mobile Broadband)、低时延高可靠通信(URLLC，Ultra Reliable Low Latency Communications)、大规模机器类通信(mMTC，massive Machine Type Communications)。其中，eMBB以用户获得多媒体内容、服务和数据为目标，其需求增长十分迅速；由于eMBB可能部署在不同的场景中，便如室内，市区，农村等，其能力和需求的差别也比较大，所以必须结合具体的部署场景详细分析。URLLC的典型应用包括：工业自动化，电力自动化，远程医疗操作(手术)，交通安全保障等。mMTC的典型特点包括：高连接密度、小数据量、时延不敏感业务、低成本和长使用寿命等。
在5G网络环境中，为了降低空口信令和快速恢复无线连接，快速恢复数据业务的目的，定义了新的RRC(无线资源控制，Radio Resource Control)状态，即RRC_INACTIVE(RRC非激活)状态。这种状态有别于RRC_IDLE(RRC空闲)状态、RRC_ACTIVE(RRC激活)或RRC_CONNECTED(RRC连接)状态，分别来说：
RRC_IDLE状态：移动性为基于UE的小区选择重选，寻呼由核心网(CN，Core Network)发起以及寻呼区域由CN配置。相应的，基站侧不存在UE接入层(AS，Access Stratum)上下文且不存在RRC连接。
RRC_CONNECTED状态：UE与基站侧存在RRC连接，基站和UE存在UE AS上下文。网络侧获取到的UE的位置是小区级别的；移动性是网络侧控制的。并且所述UE和基站之间可以传输单播数据。
RRC_INACTIVE状态：移动性为基于UE的小区选择重选，存在CN-NR(New Radio，新无线)之间的连接；UE AS上下文存在某个基站上，寻呼由无线接入网(RAN，Radio Access Network)触发，基于RAN的寻呼区域由RAN管理，网络侧知道UE的位置是基于RAN的寻呼区域级别的。
NR频域资源分配，具体包括：
NR上行/下行均支持两种频域资源分配类型：Type 0频域资源分配类型和Type 1频域资源分配类型，网络侧通过高层参数resourceAllocation来配置终端所使用的频域资源分配的类型，可以配置为终端使用资源分配Type0、资源分配Type 1，或者dynamic switch，当配置参数为“dynamicswitch”时，网络侧通过DCI中的Frequency domain resource assignment域来指示终端所使用的频域资源分配的类型。
如果在scheduling DCI中没有配置BWP indicator指示域，或者终端不支持基于DCI的BWP change，那么Type0和Type1的RB indexing是在终端的active BWP中确定的；如果终端支持基于DCI的BWP change，且scheduling DCI中配置了BWP指示域，那么频域资源分配Type 0和资源分配Type 1的RB indexing是基于DCI中的BWP indicator指示的BWP确定的。终端需要先通过PDCCH检测确定BWP，再确定在BWP中的频域资源分配。
Type 0，具体包括：如图2上所示，Type 0频域资源分配类型的粒度为RBG，RBG为一系列连续的虚拟RB的组合，每个RBG包括的虚拟RB的数量根据BWP的大小以及RRC配置参数rbg-Size确定，rbg-Size用于配置下表1中的‘configuration 1’(配置1)或者‘configuration 2’(配置2)，另外，在下表中“Bandwidth Part Size”表示带宽部分BWP的大小，也就是说，在确定了BWP的大小之后基于表1可以确定在配置1或配置2下的RBG的大小：
Bandwidth Part Size configuration 1(配置1) configuration 2(配置2)
1-36 2 4
37-72 4 8
73-144 8 16
145-275 16 16
表1
Type 0频域资源分配类型，采用一个bitmap指示分配给终端的RBG，1代表将这个RBG分配给终端，0代表不将这个RBG分配给终端，可以实现频域资源在BWP内的灵活分布，支持不连续资源分配，可以用离散的频域传输对抗频率选择型衰落。但缺点是：(1)bitmap的比特数量较大，需要覆盖整个BWP中的每个RBG；(2)资源分配颗粒度较粗，因为一个RBG包含2～16个RB，并不能逐RB的选择资源；
对于一个包含
Figure PCTCN2021144065-appb-000001
个PRB的BWP，其包含的总的RBG的数量N RBG为：
Figure PCTCN2021144065-appb-000002
其中：
第一个RBG的大小为
Figure PCTCN2021144065-appb-000003
最后一个RBG的大小为：
Figure PCTCN2021144065-appb-000004
如果
Figure PCTCN2021144065-appb-000005
且P为其他值。
其余的RBG的大小为P。
Type 1资源分配类型，如图2下所示，Type 1资源分配类型可以指示给终端一系列连续的虚拟RB，采用一个RIV(resource indication value，资源指示值)对所分配的起始RB(RB start)和RB数量(L RBs)进行联合编码。Type 1的优点是可以用较少的比特数量指示RB级别的资源，但缺点只能分配连续的频域资源，当资源数量较少时，频率分集有限，容易受到频率选择型衰落的影响。
起始RB(RB start)和RB数量(L RBs)联合编码的方式如下：
如果
Figure PCTCN2021144065-appb-000006
则
Figure PCTCN2021144065-appb-000007
否则，
Figure PCTCN2021144065-appb-000008
其中，L RBs≥1并且不超过
Figure PCTCN2021144065-appb-000009
其中，L RBs表示RB数量，RB start表示起始RB的编号；
Figure PCTCN2021144065-appb-000010
表示BWP的大小；
Figure PCTCN2021144065-appb-000011
表示向下取整。
NR支持终端在网络侧配置的search space sets(搜索空间集合)中进行PDCCH盲检，之所以是“盲检”，即终端在检测到PDCCH承载的DCI之前并不知道DCI的format等信息，因此需要使用一些固定的DCI size对搜索空间集合中的PDCCH candidate进行盲检。为了降低终端盲检PDCCH的复杂度，NR规定在进行完协议定义的DCI size alignment步骤后，终端不期待总的DCI size数大于4，以及C-RNTI加扰的总的DCI size数大于3。
由于终端只是尝试使用一些固定的DCI size来对PDCCH进行检测，这就需要终端在PDCCH盲检之前，知道不同DCI format的DCI size是多少，换句话说，也就是需要知道DCI中所包含的每个信息域所包含的比特数是多少，以频域资源分配指示Frequency domain resource assignment(FDRA)域为例，其比特数的确定方式如下：
如果只配置了资源分配type 0，则指示域包含N RBG比特；
如果只配置了资源分配type 1，则指示域包含
Figure PCTCN2021144065-appb-000012
比特；
如果同时配置了type 0和type 1，则指示域包含
Figure PCTCN2021144065-appb-000013
比特，其中最高位比特用于指示终端使用的资源分配类型，0表示type 0,1表示type 1。其中，
Figure PCTCN2021144065-appb-000014
表示BWP的大小，
Figure PCTCN2021144065-appb-000015
表示向上取整；N RBG表示资源分配type 0中FDRA指示域中包含的指示信息的比特数；max()表示取最大值。
DCI format 1_1/0_1中包含的其他和高层配置参数或者BWP size相关的指示域(以TDRA为例，也包含其他的，不一一列举)：
-Time domain resource assignment(TDRA)：NR时域资源分配为网络侧先通过RRC参数pdsch-TimeDomainAllocationList为终端配置多个TDRA entry，每个TDRA entry包含DCI到PDSCH/PUSCH的slot offset、PDSCH/PUSCH所占的符号、PDSCH/PUSCH的mapping type等，再通过DCI中的TDRA field指示其中的一个TDRA entry；
DCI中的TDRA field包含
Figure PCTCN2021144065-appb-000016
比特，其中I为高层配置的pdsch-TimeDomainAllocationList所包含的TDRA entry(条目)数目，或者缺省TDRA table所包含的entry数。
应理解，本文中术语“系统”和“网络”在本文中常被可互换使用。本文中术语“和/或”，仅仅是一种描述关联对象的关联关系，表示可以存在三种关系，例如，A和/或B，可以表示：单独存在A，同时存在A和B，单独存在B这三种情况。另外，本文中字符“/”，一般表示前后关联对象是一种“或”的关系。
应理解，在本申请的实施例中提到的“指示”可以是直接指示，也可以是间接指示，还可以是表示具有关联关系。举例说明，A指示B，可以表示A直接指示B，例如B可以通过A获取；也可以表示A间接指示B，例如A指示C，B可以通过C获取；还可以表示A和B之间具有关联关系。
在本申请实施例的描述中，术语“对应”可表示两者之间具有直接对应或间接对应的关系，也可以表示两者之间具有关联关系，也可以是指示与被指示、配置与被配置等关系。
为便于理解本申请实施例的技术方案，以下对本申请实施例的相关技术进行说明，以下相关技术作为可选方案与本申请实施例的技术方案可以进行任意结合，其均属于本申请实施例的保护范围。
图3是根据本申请一实施例的信息上报方法的示意性流程图。该方法可以应用于图1所示的系统中的终端设备，但并不仅限于此。该方法包括以下内容的至少部分内容。
S310、终端设备接收网络设备发送的第一下行控制信息(DCI，Downlink Control Information)；
其中，所述第一DCI用于调度N个第一服务小区的N个数据信道；所述第一DCI中包含频域资源分配指示(FDRA，Frequency domain resource assignment)域，所述FDRA域所指示的频域大小由M个第二服务小区的激活BWP确定；所述M个第二服务小区的激活BWP总和大于等于所述N个第一服务小区的激活BWP总和；M为正整数，N为正整数。
所述M个第二服务小区，可以是由高层信令配置，和/或按照规则确定的。
所述M个第二服务小区包括以下至少之一：
同小区组的服务小区；
在同一小区调度的服务小区；
高层信令配置的服务小区中的至少部分服务小区；
第一服务小区组合中的服务小区；所述第一服务小区组合中的服务小区为高层信令配置的，且所述第一服务小区组合为等效激活BWP的总和最大的服务小区组合；
激活的服务小区中的至少部分激活的服务小区；
第二服务小区组合中的服务小区；所述第二服务小区组合中的服务小区为激活的服务小区，且所述 第二服务小区组合为等效激活BWP的总和最大的服务小区组合。
具体的，所述同小区组的服务小区，可以指的是同一个小区组的全部服务小区。关于小区组可以为网络设备通过高层信令为所述终端设备配置的，比如，网络侧通过高层信令为终端设备配置4个服务小区(cell 1～cell 4)，并配置所述4个服务小区属于相同的cell group(小区组)，如都属于MCG(Master Cell group，主小区组)，或者都属于primary PUCCH group(主PUCCH组)/SCG(Secondary Cell group，辅小区组)。此时，上述4个服务小区(cell 1～cell 4)可以为M个第二服务小区。
所述在同一小区调度的服务小区，可以是：在一个服务小区传输的所述第一DCI能够调度的服务小区。
比如，所述网络设备可以为所述终端设备配置服务小区之间的调度关系。参见图4来说，网络侧通过高层信令为终端设备配置4个服务小区，分别为cell 1～cell 4；其中，cell 1可以和cell 2一起调度，或cell1可以和cell 3一起被调度，或者，cell 2可以和cell 3一起被cell 1调度。此时，同一小区调度的服务小区可以指的是cell2和cell3，或者，cell1和cell2，或者cell1和cell3。则在cell 1传输的第一DCI，可以是用于调度cell1～cell3的任意组合中包含的服务小区，则该cell 1、cell2和cell3中的任意组合为cell1这个小区能够调度的M个第二服务小区。
进一步地，所述同一小区调度的服务小区为：所述同一小区的同一个搜索空间的物理下行数据信道(PDCCH，Physical Downlink Control Channel)调度的服务小区。也就是说，所述M个第二服务小区为某一个小区在同一个搜索空间(search space)的PDCCH调度的全部服务小区。
高层信令配置的服务小区中的至少部分服务小区，具体可以指的是：网络设备通过高层信令为终端设备配置的全部服务小区中的子集或全集。举例来说，网络侧通过高层信令为终端设备配置4个服务小区，分别为cell 1～cell 4，可以将上述cell1～cell4作为前述M个第二服务小区；或者，将cell1和cell2作为前述M个第二服务小区等等，这里不做穷举。
第一服务小区组合中的服务小区；所述第一服务小区组合中的服务小区为高层信令配置的，且所述第一服务小区组合为等效激活BWP的总和最大的服务小区组合，其确定方式可以是：将网络设备通过高层信令为终端设备配置的全部服务小区分别进行组合，得到多个服务小区组合；计算所述多个服务小区组合的等效激活BWP的总和，将等效激活BWP的总和最大的一个服务小区组合作为第一服务小区组合，该第一服务小区组合中的全部服务小区作为前述M个第二服务小区。
激活的服务小区中的至少部分激活的服务小区，可以为：激活的所有服务小区任意组合的子集或全集。举例来说，当前激活的服务小区有3个服务小区，分别为cell 1～cell 3，可以将上述cell1～cell3作为前述M个第二服务小区；或者，将cell1和cell2作为前述M个第二服务小区等等，这里不做穷举。
上述第二服务小区组合中的服务小区；所述第二服务小区组合中的服务小区为激活的服务小区，且所述第二服务小区组合为等效激活BWP的总和最大的服务小区组合，其确定方式可以是：将当前激活的全部服务小区分别进行组合，得到多个服务小区组合；计算所述多个服务小区组合的等效激活BWP的总和，将等效激活BWP的总和最大的一个服务小区组合作为第二服务小区组合，将该第二服务小区组合中的全部服务小区作为前述M个第二服务小区。
其中，所述等效激活BWP的总和，指的是：每个服务小区组中全部服务小区的激活BWP的总和。
在前述基础上，一种实施方式中，所述M个第二服务小区中包含目标小区；所述目标小区为所述第一DCI调度的小区。也就是说，在原处理机制中，网络设备通过DCI调度cell 1；在本公开提供的实施方式中，上述M个第二服务小区包含上述cell 1。
其中，所述N个第一服务小区可以为一个或多个，具体与当前所要调度的服务小区的数量相关。
所述N个第一服务小区中每个第一服务小区对应一个数据信道，即所述N个第一服务小区与所述N个数据信道为一一对应的关系。
上述数据信道具体可以包括：PDSCH(物理下行共享信道，Physical Downlink Share CHannel)或者PUSCH(物理上行共享信道，Physical Uplink Share CHannel)。
所述N个第一服务小区由以下之一指示：高层信令，所述第一DCI，第二DCI；所述第二DCI与所述第一DCI不同。
也就是说，上述N个第一服务小区由高层信令配置，或者由所述第一DCI指示，或者由其他DCI指示。应理解，所述第一DCI指的为包含FDRA域的DCI，而所述网络设备可以为终端设备下发的还有其他DCI，本公开实施例中将其他DCI中任意之一称为第二DCI。
所述N个第一服务小区可以为M个第二服务小区的子集或全集，且所述N个第一服务小区的激活BWP总和小于或等于所述M个第二服务小区的激活BWP总和。比如，所述网络设备可以预先通过高层信令为终端设备发送配置的M个第二服务小区；然后网络设备再通过第一DCI(或第二DCI，或高层信令)为终端设备配置M个第二服务小区中的N个第一服务小区。又比如，所述终端设备按照规则 确定M个第二服务小区；然后网络设备再通过第一DCI(或第二DCI，或高层信令)为终端设备配置M个第二服务小区中的N个第一服务小区。
或者，所述N个第一服务小区与所述M个第二服务小区不同，且所述N个第一服务小区的激活BWP总和小于或等于所述M个第二服务小区的激活BWP总和。举例来说，所述M个第二服务小区可以为系统中的部分服务小区，比如服务小区1-5，其激活BWP总和为200PRB；N个第一服务小区可以为服务小区7和服务小区8，其激活BWP总和为100PRB。
或者，所述N个第一服务小区与所述M个第二服务小区存在交集，且所述N个第一服务小区的激活BWP总和小于或等于所述M个第二服务小区的激活BWP总和。举例来说，所述M个第二服务小区可以为系统中的部分服务小区，比如服务小区1-5，其激活BWP总和为200PRB；N个第一服务小区可以为服务小区3和服务小区8，其激活BWP总和为150PRB。
上述N个第一服务小区为所述M个第二服务小区的子集或全集，也就是说，N个第一服务小区可以等于M个第二服务小区，比如，M个第二服务小区包含Cell 1～cell 4，则N个第一服务小区中也包含cell 1-cell 4。或者，N个第一服务小区为M个第二服务小区的一部分，比如，M个第二服务小区包含Cell 1～cell 4，则N个第一服务小区包含cell 1、cell 2。
在前述基础上，一种实施方式中，所述N个第一服务小区中包含目标小区；所述目标小区为所述第一DCI调度的小区。也就是说，在原处理机制中，网络设备通过DCI调度cell 1；在本公开提供的实施方式中，上述N个第一服务小区中包含cell 1。
所述FDRA域的大小由第一BWP的大小确定；其中，所述第一BWP的大小为以下之一：
M个第二服务小区的激活BWP的频域资源总和；
M个第二服务小区的激活BWP的频域资源的平均值。
所述第一BWP的大小即所述FDRA域所能够指示的最大频域范围，或者所述第一BWP的大小为所述FDRA域所指示的频域大小。也就是说，终端设备可以基于第一BWP来确定在所述第一DCI中包含的FDRA域的大小；其中FDRA域的大小具体可以指的是，所述FDRA域占用的bit位数。
其中，所述M个第二服务小区的激活BWP的频域资源总和具体可以指的是：M个第二服务小区中每个第二服务小区的激活BWP的频域资源相加得到的总和。
再进一步地，由于上述M个第二服务小区可能存在前述多种情况，相应的，所述M个第二服务小区的激活BWP的频域资源总和，可以是任意一种情况下M个第二服务小区中每个服务小区的激活BWP的频域资源相加得到的总和。
M个第二服务小区的激活BWP的频域资源的平均值的确定方式可以为：M个第二服务小区的激活BWP的频域资源相加得到总和，将该总和除以M得到平均值。
另外，所述第一BWP的大小还可以为网络设备配置的数值。比如，可以是网络设备通过高层信令配置的数值，相应的，所述终端设备可以将该数值直接作为所述第一BWP的大小。
再进一步来说，所述第一BWP的大小，在M个第二服务小区不同且所述第一BWP的大小的确定方式不同的情况下是不同的，下面分别来说：
情况1、所述M个第二服务小区可以是同一小区调度的服务小区。第一BWP的大小为M个第二服务小区的激活BWP的频域资源总和。
也就是说，第一BWP的大小，由一个服务小区的第一DCI所能够调度的M个第二服务小区的激活BWP的总和确定。
比如第一DCI为M个第二服务小区中的服务小区1的第一DCI，该服务小区1用于调度服务小区1、服务小区2和服务小区3，则第一BWP的大小为服务小区1、服务小区2和服务小区3的激活BWP的频域资源总和。
举例来说，如图4所示，网络侧通过高层信令为终端配置4个第二服务小区(cell 1～cell 4)，所述4个第二服务小区属于相同的cell group(如都属于MCG，或者都属于primary PUCCH group/secondary cell group)。并且，通过高层信令为终端配置的服务小区之间的调度关系如图2所示：其中，cell 1可以和cell 2一起调度，或cell1可以和cell 3一起被调度，或者，cell 2可以和cell 3一起被cell 1调度。此时，同一小区调度的服务小区可以指的是cell2和cell3，或者，cell1和cell2，或者cell1和cell3。另外，cell 1～cell 4分别包含的PRB数为50PRB，100PRB，30PRB，200PRB(编号都从RB＝0开始)，其中cell 1～cell 4均被配置使用type-0资源分配类型，且RBG size被配置为configuration 2(RRC配置参数rbg-Size)。
比如在图4中示意出的cell 1用于调度cell 1以及cell 1-cell3组合的search space(搜索空间)内的PDCCH所承载的第一DCI中的FDRA对应的频域资源大小(即第一BWP的大小)，由包含cell 1-cell3组合的所有小区的active BWP(激活BWP)总和确定，即50+100+30＝180PRB。
类似地，若cell 1用于调度cell2的search space内的PDCCH所承载的所述第一DCI中的FDRA对应的频域资源大小(即第一BWP的大小)，为该cell2的激活BWP的大小即100PRB。
在cell 1用于调度cell3的search space内的PDCCH所承载的第一DCI中的FDRA对应的频域资源大小(即第一BWP的大小)，为该cell3的激活BWP的大小即30PRB。
在cell4用于调度cell4的search space内的PDCCH所承载的第一DCI中的FDRA对应的频域资源大小(即第一BWP的大小)，为该cell4的激活BWP的大小即为200PRB。
情况2、所述第一BWP的大小由网络设备配置。
也就是说，所述第一DCI中的FDRA域对应的频域大小即所述第一BWP的大小，可以由网络设备通过高层信令直接配置。此时，所述第一BWP的大小等于所述网络设备配置的数值。
比如，将网络设备配置的数值表示为K，也就是在用于调度服务小区的search space内的PDCCH所承载的第一DCI中的FDRA对应的频域大小为K个PRB。
情况3、M个第二服务小区为高层信令配置的服务小区或激活的服务小区的全集。所述第一BWP的大小为M个第二服务小区的激活BWP的频域资源的平均值。
也就是说，可以将全部M个第二服务小区的激活BWP的频域资源加和之后计算平均值，将该平均值作为所述第一BWP的大小。
同样以图4举例来说，M个第二服务小区为cell1～cell4，将cell1～cell4的total active BWP(总激活BWP)取平均，一般地，近似到十位，即(50+150+130+80)/4＝110。
情况4、M个第二服务小区为高层信令配置的服务小区或激活的服务小区的全集。所述第一BWP的大小为M个第二服务小区的激活BWP的频域资源总和。
也就是说，可以将高层信令配置的全部服务小区或激活的全部服务小区作为M个第二服务小区，将M个第二服务小区的激活BWP的频域资源加和，作为所述第一BWP的大小。
网络设备通过高层信令配置的全部服务小区为M个第二服务小区，此时网络设备配置的全部服务小区可能仅为一个小区组中的一部分，例如，网络设备配置的M个第二服务小区为图4中所示的cell1和cell2，则第一BWP的大小等于cell 1和cell 2的频域资源总和，即50+100＝150PRB。
情况5、M个第二服务小区为同小区组的服务小区。所述第一BWP的大小为M个第二服务小区的激活BWP的频域资源总和。
也就是说，可以将同一个小区组的全部M个第二服务小区的激活BWP的频域资源加和，作为所述第一BWP的大小。
同样以图4举例来说，网络设备配置的M个第二服务小区(cell1～cell4)为同一个小区组的服务小区，cell1-cell4的total active BWP(激活BWP的总和)为第一BWP的大小，即50+100+30+200＝380PRB。
情况6、M个第二服务小区为高层信令配置的服务小区或激活的服务小区的子集。所述第一BWP的大小为M个第二服务小区的激活BWP的频域资源总和。
也就是说，可以将高层信令配置的全部服务小区或激活的全部服务小区中的一部分作为M个第二服务小区，将M个第二服务小区的激活BWP的频域资源加和，作为所述第一BWP的大小。
情况7、M个第二服务小区为第一服务小区组合中的服务小区；所述第一服务小区组合中的服务小区为高层信令配置的，且所述第一服务小区组合为等效激活BWP的总和最大的服务小区组合，或者，M个第二服务小区为第二服务小区组合中的服务小区；所述第二服务小区组合中的服务小区为激活的服务小区，且所述第二服务小区组合为等效激活BWP的总和最大的服务小区组合。所述第一BWP的大小为M个第二服务小区的激活BWP的频域资源总和。
也就是说，可以将高层信令配置的全部服务小区或激活的全部服务小区中分别进行组合，得到多个服务小区组合，将其中等效激活BWP的总和最大的一个服务小区组合中的全部服务小区作为M个第二服务小区。将M个第二服务小区的激活BWP的频域资源加和，作为所述第一BWP的大小。
例如，以图4为例，M个第二服务小区分别表示为cell 1～cell 4，在cell 1上调度cell 1以及cell 1-cell3组合的等效BWP包括：{50,50+100,50+30,100+30}，其中，最大的等效BWP为150PRB，所以第一BWP为150PRB。
应理解，以上仅为示例性说明，实际处理中还可以包含更多种情况，只是本实施例中不进行穷举。
在以上说明的基础上，下面分别说明确定N个第一服务小区的N个数据信道所分别对应的频域资源的具体方式：
方式1、
首先，关于第一BWP的大小的确定方式与前述实施例相同，这里不做重复说明。
所述FDRA域的大小可以基于所述第一BWP的大小采用第二资源分配类型下的计算方式计算得到。其中，所述第二资源分配类型具体可以为type-1资源分配类型。
具体的，所述FDRA域的大小采用以下方式确定：
Figure PCTCN2021144065-appb-000017
其中，
Figure PCTCN2021144065-appb-000018
表示第一BWP，
Figure PCTCN2021144065-appb-000019
表示向上取整。
上述FDRA域的大小可以表示在第一DCI中包含的FDRA域中指示信息的bit位数。
所述FDRA域所指示的频域范围由所述FDRA域的大小以及所述FDRA域包含的指示信息确定。也就是说，基于所述FDRA域的大小确定所述第一DCI中FDRA域包含的指示信息的位数，从该FDRA域提取指示信息，再基于指示信息确定所述FDRA域所指示的频域范围。
具体的，由于FDRA域的大小可以采用第二资源分配类型计算得到，相应的，所述FDRA域所指示的频域范围可以基于所述第二资源分配类型对应的处理方式结合所述指示信息中的具体内容计算得到。比如：
第二资源分配类型用于分配连续的RB资源，其起始RB记作RB start，连续占用的RB数为L RBs，频域资源指示取值RIV为：
如果
Figure PCTCN2021144065-appb-000020
则
Figure PCTCN2021144065-appb-000021
否则
Figure PCTCN2021144065-appb-000022
其中，L RBs≥1并且不超过
Figure PCTCN2021144065-appb-000023
是一个BWP的带宽。
终端读取RIV，可以得到对应的RB start和L RBs，即确定了FDRA域所指示的频域范围。其中，L RBs表示RB数量，RB start表示起始RB的编号；
Figure PCTCN2021144065-appb-000024
表示BWP的大小，本实施例用其来表征第一BWP的大小；
Figure PCTCN2021144065-appb-000025
表示向下取整。
所述N个数据信道所分别对应的频域资源，由所述FDRA域所指示的频域范围以及所述N个第一服务小区的激活BWP确定。
也就是说，在得到了所述FDRA域所指示的频域范围之后，可以确定FDRA域所指示的N个第一服务小区分别对应的频域范围。
进一步地，所述N个数据信道中的第i个数据信道所对应的频域资源，为所述FDRA域所指示的频域范围与第i个第一服务小区的激活BWP的交集；
所述第i个数据信道为所述N个第一服务小区中的第i个服务小区对应的数据信道；i为大于或等于1且小于或等于N的整数。
具体的，在所述FDRA域所指示的频域范围中，可以包含N个第一服务小区级联后的全部频域范围；根据N个第一服务小区中的第i个第一服务小区的级联顺序，以及FDRA域所指示的总的频域范围，可以确定第i个第一服务小区的第i个数据信道所对应的频域范围。
下面结合图4，对本方式进行说明：
如图4所示，M等于4，也就是网络侧通过高层信令为终端配置4个第二服务小区(cell 1～cell 4)，所述4个第二服务小区属于相同的cell group(如都属于MCG，或者都属于primary PUCCH group/secondary cell group)且通过高层信令为终端配置的服务小区之间的调度关系如图4所示：其中，cell 1～4可以作为单独小区被调度，cell 1可以和cell 2或cell 3一起被调度，cell 2可以和cell 3或cell 1一起被调度。
cell 1～cell 4分别包含的PRB数为50PRB，100PRB，30PRB，200PRB(编号都从RB＝0开始)，其中cell 1～cell 4均被配置使用type-1资源分配类型。
所述FDRA域的大小由第一BWP的大小确定。第一BWP的大小为M个第二服务小区的激活BWP的频域资源总和。
一种情况中，M个第二服务小区为所有可能调度的服务小区，基于M个第二服务小区的active BWP(激活BWP)的总和确定第一BWP的大小。
在cell 1用于调度cell 1以及cell 1～cell 3组合的search space(搜索空间)内的PDCCH(物理下行控制信道)所承载的第一DCI中，FDRA域对应的频域资源大小(即第一BWP的大小)，由包含cell 1以及cell 1～cell 3组合的所有小区的active BWP总和确定，比如50+100+30＝180PRB。
类似地，在cell 1用于调度cell 2的search space内的PDCCH所承载的第一DCI中的FDRA对应的频域资源大小(即第一BWP的大小)，为100PRB。
在cell 1用于调度cell 3的search space内的PDCCH所承载的第一DCI中的FDRA对应的频域资 源大小(即第一BWP的大小)，为30PRB。
在cell 4用于调度cell 4的search space内的PDCCH所承载的第一DCI中的FDRA对应的频域资源大小(即第一BWP的大小)，为200PRB。
另一种情况中，第一BWP的大小由高层直接配置，例如在cell 1用于调度服务小区的search space内的PDCCH所承载的第一DCI中的FDRA对应的频域资源大小为K个PRB，K为网络配置的正整数。
再一种情况，第一BWP的大小为M个第二服务小区的激活BWP的频域资源的平均值。
比如图4的示例中，M个第二服务小区即cell 1～cell 4，各种第二服务小区组合的total active BWP(总激活BWP)取平均，一般地，近似到十位，即第一BWP的大小为(50+150+130+80)/4＝110。
再一种情况，第一BWP的大小为M个第二服务小区的激活BWP的频域资源的总和。M个第二服务小区为同一个小区组的服务小区。
如图4的例子，M个第二服务小区即cell 1～cell 4，即第一BWP的大小为即为50+100+30+200＝380PRB。
所述FDRA域的大小采用以下方式确定：
Figure PCTCN2021144065-appb-000026
其中，
Figure PCTCN2021144065-appb-000027
表示第一BWP的大小，
Figure PCTCN2021144065-appb-000028
表示向上取整。
以cell 1为例，用于调度cell 1以及cell 1-cell 3组合的search space内的PDCCH所承载的第一DCI中的FDRA域所需要的比特数(即FDRA域的大小)为
Figure PCTCN2021144065-appb-000029
Figure PCTCN2021144065-appb-000030
所述FDRA域所指示的频域范围由所述FDRA域的大小以及所述FDRA域包含的指示信息确定。
举例来说，当N个数据信道(PDSCH/PUSCH)为cell2和cell3的数据信道时，根据type-1资源分配类型的处理方式解读所述第一DCI中的FDRA域的指示信息，例如，FDRA域的指示信息为0010 0100 1011 11,可以得到FDRA域所指示的频域范围对应的PRB为31-60PRB。
所述N个第一服务小区的N个数据信道所分别对应的频域资源，由所述FDRA域所指示的频域范围以及所述N个第一服务小区的激活BWP确定。
所述N个第一服务小区中的第i个服务小区的第i个数据信道所对应的频域资源，为所述FDRA域所指示的频域范围与所述第i个服务小区的激活BWP的交集；i为大于或等于1且小于或等于N的整数。
假设N为2，第i个第一服务小区为cell 1，cell 1的激活BWP的频域范围为前50的PRB，则cell 1的第一数据信道即PDSCH/PUSCH占用了31-50PRB。若第i个服务小区为cell 3，cell 3的第二数据信道即占用了cell 3的频域资源中的第1-10PRB。
方式2、
首先，关于第一BWP的大小的确定方式与前述实施例相同，这里不做重复说明。
所述FDRA域的大小由第一BWP的大小和第一RBG的大小确定。
所述第一RBG的大小由所述第一BWP的大小确定。
在一种实施方式中，所述第一RBG的大小为基于第一资源分配类型所对应的预设信息以及所述第一BWP的大小确定的。
所述第一资源分配类型具体可以为type0，所述预设信息具体可以为type0频域资源分配类型中设置的表格，比如图2所示。
具体的，所述第一RBG的大小为基于所述第一BWP的大小从所述表格中确定的。
假设某一个服务小区对应的第一BWP的大小为180PRB，RBG size被配置为configuration 2(配置2)，则查上述表格可知第一RBG的大小(size)＝16。再假设另一个服务小区对应的第一BWP的大小为200PRB，则通过查上述表格可知，第一RBG的大小＝16。
所述FDRA域的大小基于所述第一BWP的大小与所述第一RBG的大小的比值确定。
其中，所述FDRA域的大小具体指的是，FDRA域中包含的指示信息的比特数。
具体来说，所述FDRA域的大小由所述第一BWP的大小除以所述第一RBG的大小后向上取整得到的。
假设第一BWP的大小等于180，第一RBG的大小等于16，则FDRA域的大小即为
Figure PCTCN2021144065-appb-000031
所述FDRA域所指示的频域范围的指示粒度基于所述第一RBG的大小确定。
上述指示粒度还可以被称为第二RBG。
在一种方式中，该指示粒度(即第二RBG)可以等于所述第一RBG的大小。比如前述确定第一RBG的大小为16，则指示粒度等于16。
在另一种方式中，所述指示粒度基于所述N个第一服务小区的激活BWP的总和、所述第一BWP的大小以及所述第一RBG的大小确定。比如，所述终端设备基于所述N个第一服务小区的激活BWP的总和与所述第一BWP相除之后与所述第一RBG的大小相乘得到第一值，基于所述第一值确定所述指示粒度。
具体的，所述指示粒度基于第一值确定，所述第一值由所述N个第一服务小区的激活BWP的总和与所述第一BWP的大小相除之后与所述第一RBG的大小相乘。
比如，所述终端设备基于所述N个第一服务小区的激活BWP的总和与所述第一BWP的大小相除之后与所述第一RBG的大小相乘得到第二值，对所述第二值向上取整得到所述第一值；基于该第一值确定所述指示粒度。
其中，所述指示粒度等于所述第一值；
或者，所述指示粒度由所述第一值以及第一资源分配类型所对应的预设信息确定。
所述N个第一服务小区的N个数据信道所分别对应的频域资源，由所述FDRA域所指示的频域范围以及所述N个第一服务小区的激活BWP确定。
其中，所述FDRA域所指示的频域范围，由所述FDRA域的大小、所述FDRA域包含的指示信息以及所述指示粒度确定。
所述FDRA域所指示的频域范围具体可以为N个第一服务小区的所述N个数据信道所对应的总频域资源。
具体的，所述FDRA域所指示的频域范围为基于所述有效比特以及所述N个第一服务小区的频域资源范围确定的；其中，所述有效比特基于所述指示粒度以及所述N个第一服务小区的频域资源范围确定。
所述有效比特基于所述指示粒度以及所述N个第一服务小区的频域资源范围确定的处理方式，具体可以包括：
所述终端设备将所述N个第一服务小区的频域资源范围除以所述指示粒度，得到第三值，将该第三值向上取值得到的值，作为所述FDRA域包含的指示信息中的有效比特的数量。
假设N个第一服务小区的频域资源范围等于80，前述指示粒度等于8，则所述第三值等于10，将10作为所述FDRA域包含的指示信息中的有效比特的数量。
也就是说，所述FDRA域的指示信息的比特数等于FDRA域的大小，而所述有效比特为FDRA域中的一部分。
在一些实施例中，所述FDRA域包含的指示信息中的有效比特为从前向后提取的，假设FDRA域包含的指示信息包含12比特，有效比特为前10个比特。
所述FDRA域所指示的频域范围为基于所述有效比特以及所述N个第一服务小区的频域资源范围确定的，具体指的是：在第j位有效比特为第一值的情况下，该第j位有效比特对应的频域资源上没有传输数据信道；在第j位有效比特为第二值的情况下，该第j位有效比特对应的频域资源上传输数据信道。其中，第一值为0，第二值为1。
所述N个数据信道中的第i个数据信道所对应的频域资源，为所述FDRA域所指示的频域范围与第i个第一服务小区的激活BWP的交集；
所述第i个数据信道为所述N个第一服务小区中的第i个服务小区对应的数据信道；i为大于或等于1且小于或等于N的整数。
也就是说，根据第i个服务小区在N个第一服务小区中的指示顺序，以及第i个服务小区的激活BWP的大小，可以确定FDRA域中指示的频域范围中与第i个服务小区的激活BWP的频域范围的交集。
进一步地，在FDRA域中存在N个第一服务小区的指示顺序，可以是按照第一服务小区的编号(或索引)从低到高的顺序排列，或者可以按照其他默认方式排列，本实施例不对其进行限定。可以在确定了FDRA域指示的总的频域范围的情况下，基于N个第一服务小区的指示顺序，分别确定每一个第一服务小区的频域范围。比如，第i个第一服务小区为第1个服务小区，其激活BWP的大小为预先得知的，然后基于自身的激活BWP大小与该第1个服务小区在FDRA域指示的总的频域范围的排序为第1个，来确定本次指示的该第1个服务小区的激活BWP的大小范围内的频域范围，将该频域范围作为第i个数据信道所对应的频域范围。
下面结合图4，对本方式进行第一种说明：
如图4所示，M等于4，也就是网络侧通过高层信令为终端配置4个第二服务小区(cell 1～cell 4)，所述4个第二服务小区属于相同的cell group(如都属于MCG，或者都属于primary PUCCH group/secondary cell group)且通过高层信令为终端配置的服务小区之间的调度关系如图4所示：其中，cell 1～4可以作为单独小区被调度，cell 1可以和cell 2或cell 3一起被调度，cell 2可以和cell 3或cell 1 一起被调度。
cell 1～cell 4分别包含的PRB数为50PRB，100PRB，30PRB，200PRB(编号都从RB＝0开始)，其中cell 1～cell 4均被配置使用type-0频域资源分配类型。
所述FDRA域的大小由第一BWP的大小确定。
一种情况中，M个第二服务小区为所有可能调度的服务小区，基于M个第二服务小区的active BWP(激活BWP)的总和确定第一BWP的大小。
在cell 1用于调度cell 1以及cell 1～cell 3组合的search space(搜索空间)内的PDCCH(物理下行控制信道)所承载的第一DCI中，FDRA域对应的频域资源大小(即第一BWP的大小)，由包含cell 1以及cell 1～cell 3组合的所有小区的active BWP总和确定，比如50+100+30＝180PRB。
类似地，在cell 1用于调度cell 2的search space内的PDCCH所承载的第一DCI中的FDRA对应的频域资源大小(即第一BWP的大小)，为100PRB。
在cell 1用于调度cell 3的search space内的PDCCH所承载的第一DCI中的FDRA对应的频域资源大小(即第一BWP的大小)，为30PRB。
在cell 4用于调度cell 4的search space内的PDCCH所承载的第一DCI中的FDRA对应的频域资源大小(即第一BWP的大小)，为200PRB。
另一种情况中，第一BWP的大小由高层直接配置，例如在cell 1用于调度服务小区的search space内的PDCCH所承载的第一DCI中的FDRA对应的频域资源大小为K个PRB，K为网络配置的正整数。
再一种情况，第一BWP的大小为M个第二服务小区的激活BWP的频域资源的平均值。
比如图4的示例中，M个第二服务小区即cell 1～cell 4，各种第二服务小区组合的total active BWP(总激活BWP)取平均，一般地，近似到十位，即第一BWP的大小为(50+150+130+80)/4＝110。
再一种情况，第一BWP的大小为M个第二服务小区的激活BWP的频域资源的总和。M个第二服务小区为同一个小区组的服务小区。
如图4的例子，M个第二服务小区即cell 1～cell 4，即第一BWP的大小为即为50+100+30+200＝380PRB。
另一种情况，第一BWP的大小由M个第二服务小区确定，M个第二服务小区由高层信令配置。例如，第一BWP的大小由cell 1～cell 2确定，即第一BWP的大小为50+100＝150PRB。
又一种情况，第一BWP的大小由M个第二服务小区确定，M个第二服务小区是配置的或者激活的服务小区的子集或全集；例如，第一BWP的大小由cell 2确定，cell 2是由cell1调度的配置的或者激活的服务小区中的一个服务小区。
第一RBG的大小至少由第一BWP的大小确定。
以cell1为例，cell1对应的第一BWP的大小为180PRB，RBG size被配置为configuration 2，则查表(如图2所示)可知第一RBG的大小＝16。
FDRA域的大小由第一BWP的大小和第一RBG的大小确定。即FDRA域的大小等于第一BWP的大小除以第一RBG的大小后向上取值得到的。
以cell1为例，用于调度cell1以及cell1、cell2和cell3组合的search space内的PDCCH所承载的第一DCI中的FDRA域的大小为
Figure PCTCN2021144065-appb-000032
确定指示粒度：一种方式中，所述指示粒度等于第一RBG size(大小),即16。
另一种方式中，所述指示粒度基于所述N个第一服务小区的激活BWP的总和、所述第一BWP的大小以及所述第一RBG的大小确定。
以cell1为例，用于调度cell 1和cell3的2个PDSCH/PUSCH时，其N个第一服务小区的激活BWP的总和为：50+30＝80PRBs。假设第一BWP的大小等于180，第一RBG的大小等于16，则所述指示粒度
Figure PCTCN2021144065-appb-000033
这样在保持FDRA域大小不变的情况下，尽可能指示精确，即尽可能小的RBG size，则可以根据实际调度的服务小区的active BWP的总和进行等比例调整。
进一步，所述指示粒度由所述第一值以及第一资源分配类型所对应的预设信息确定，也就是从type0资源配置类型约定的RBG size中找一个最接近且大于等于该计算值的RBG size作为所述指示粒度。以上述示例计算出来的第一值等于7PRB为例来说，通过查表可以得到最接近的值为8，因此确定所述指示粒度为8PRBs。
所述N个数据信道所分别对应的频域资源，由所述FDRA域所指示的频域范围以及所述N个第一服务小区的激活BWP确定。
以cell1为例，用于调度cell1和cell3的2个PDSCH/PUSCH时，对应80PRBs的频域资源；前面 已经确定第一DCI中的FDRA域的大小为12，在确定第二RBG size大小(即指示粒度)为8时，可以确定FDRA域中的指示信息的12比特中的前10比特为有效比特，比如表示为0110110100xx。
上述前10bit对应第2,3,5,6,8个RBG。结合所述指示粒度，可以确定第2组RBG包含了8PRB，也就是从第9-16个PRB上传输了数据信道，以此类推。
假设N为2，第i个服务小区为2个服务小区中的cell1，cell1的激活BWP的频域范围为前50的PRB，则cell1的PDSCH/PUSCH占用了第9-24,33-48PRB。若第i个服务小区为cell3，cell3的active BWP的频域范围为30PRB时，cell3的PDSCH/PUSCH占用了第57-64PRB。
下面结合图4，对本方式进行第二种说明：
如图4所示，M等于4，也就是网络侧通过高层信令为终端配置4个第二服务小区(cell 1～cell 4)，所述4个第二服务小区属于相同的cell group(如都属于MCG，或者都属于primary PUCCH group/secondary cell group)且通过高层信令为终端配置的服务小区之间的调度关系如图4所示：其中，cell 1～4可以作为单独小区被调度，cell 1可以和cell 2或cell 3一起被调度，cell 2可以和cell 3或cell 1一起被调度。
cell 1～cell 4分别包含的PRB数为50PRB，100PRB，30PRB，200PRB(编号都从RB＝0开始)，其中cell 1～cell 4均被配置使用type-0频域资源分配类型，且RBG size被配置为configuration 2(RRC配置参数rbg-Size)，则
所述FDRA域的大小由第一BWP的大小确定。
一种情况中，M个第二服务小区为第一服务小区组合中的服务小区；所述第一服务小区组合中的服务小区为高层信令配置的，且所述第一服务小区组合为等效激活BWP的总和最大的服务小区组合，第一BWP的大小由M个第二服务小区的总和确定。
也就是在cell 1用于调度cell 1以及cell 1～cell 3组合的search space(搜索空间)内的PDCCH(物理下行控制信道)所承载的第一DCI中，FDRA域对应的频域资源大小(即第一BWP的大小)由包含cell 1以及cell 1～cell 3组合的等效active BWP最大的组合确定。以图4为例，在cell 1上调度cell 1以及cell 1～cell 3组合的等效BWP包括：{50,50+100,50+30,100+30},其中，最大的等效BWP为150PRB，所以第一BWP的大小为150PRB。
在cell 4用于调度cell 4的search space内的PDCCH所承载的第一DCI中的FDRA对应的频域资源大小(即第一BWP的大小)，为200PRB。
又一种情况，第一BWP的大小由M个第二服务小区确定，M个第二服务小区是配置的或者激活的服务小区的子集或全集；
第一BWP的大小由M个第二服务小区确定，M个第二服务小区为配置的或者激活的所有服务小区任意组合的子集或全集的等效active BWP最大的组合。例如，cell 1为配置的或者激活的所有服务小区的等效active BWP最大的组合，即cell 1的第一BWP的大小为50PRB。
例如，对于cell 1，M个小区为配置的或者激活的所有第二服务小区即cell 1～cell 3组合的等效active BWP最大的组合，即{50+100,50+30,100+30}中最大的active BWP,即第一BWP的大小为150PRBs。
例如，第一BWP的大小由M个第二服务小区确定，M个第二服务小区高层配置的服务小区和服务小区的任意组合的等效active BWP最大的组合。例如，高层配置cell 1和cell 1～cell 2组合来确定FDRA域的大小，所以，第一BWP的大小为{50,100+50}中最大的值，即150PRB。
另一种情况中，第一BWP的大小由高层直接配置。例如在一个服务小区用于调度第一服务小区的search space内的PDCCH所承载的第一DCI中的FDRA对应的频域资源大小(即第一BWP的大小)为K个PRB，K为网络配置的正整数。
再一种情况，第一BWP的大小为M个第二服务小区的激活BWP的频域资源的平均值。
比如图4的示例中，M个第二服务小区即cell 1～cell 4，各种第二服务小区组合的total active BWP(总激活BWP)取平均，一般地，近似到十位，即第一BWP的大小为(50+150+130+80)/4＝110。
再一种情况，第一BWP的大小为M个第二服务小区的激活BWP的频域资源的总和。M个第二服务小区为同一个小区组的服务小区。
如图4的例子，M个第二服务小区即cell 1～cell 4，即第一BWP的大小为即为50+100+30+200＝380PRB。
第一RBG的大小至少由第一BWP的大小确定。
以cell1为例，cell1对应的第一BWP的大小为180PRB，RBG size被配置为configuration 2，则查表(如图2所示)可知第一RBG的大小＝16。
FDRA域的大小由第一BWP的大小和第一RBG的大小确定。即FDRA域的大小等于第一BWP的大小除以第一RBG的大小后向上取值得到的。
以cell1为例，用于调度cell1以及cell1、cell2和cell3组合的search space内的PDCCH所承载的第一DCI中的FDRA域的大小为
Figure PCTCN2021144065-appb-000034
确定指示粒度：一种方式中，所述指示粒度等于第一RBG size(大小),即16。
另一种方式中，所述指示粒度基于所述N个第一服务小区的激活BWP的总和、所述第一BWP的大小以及所述第一RBG的大小确定。
以cell1为例，用于调度cell 1和cell3的2个PDSCH/PUSCH时，其N个第一服务小区的激活BWP的总和为：50+30＝80PRBs。假设第一BWP的大小等于150，第一RBG的大小等于16，则所述指示粒度
Figure PCTCN2021144065-appb-000035
这样在保持FDRA域大小不变的情况下，尽可能指示精确，即尽可能小的RBG size，则可以根据实际调度的服务小区的active BWP的总和进行等比例调整。
进一步，所述指示粒度由所述第一值以及第一资源分配类型所对应的预设信息确定，也就是从type0资源配置类型约定的RBG size中找一个最接近且大于等于该计算值的RBG size作为所述指示粒度。以上述示例计算出来的第一值等于9PRB为例来说，通过查表可以得到最接近的值为9，因此确定所述指示粒度为9PRBs。
所述N个数据信道所分别对应的频域资源，由所述FDRA域所指示的频域范围以及所述N个第一服务小区的激活BWP确定。
以cell1为例，用于调度cell1和cell3的2个PDSCH/PUSCH时，对应80PRBs的频域资源；前面已经确定第一DCI中的FDRA域的大小为10，且确定第二RBG size大小(即指示粒度)为9时，则FDRA域中的10比特的前9比特为有效比特，对应80PRBs的频域资源。所以，011011011x对应第2,3,5,6,8,9个RBG。
结合所述指示粒度，可以确定第2组RBG包含了9PRB，也就是从第10-18个PRB上传输了数据信道，以此类推。
假设N为2，第i个服务小区为2个服务小区中的cell1，cell1的激活BWP的频域范围为前50的PRB，则cell1的PDSCH/PUSCH占用了cell1的第10-27,37-50PRB，cell3的PDSCH/PUSCH占用了cell3的第1-4,14-30PRB。
应理解，本实施例提供的方案虽然针对了FDRA域进行了说明，实际处理中，针对其他类型的资源的指示方式也均可以包括在本实施例的保护范围内，比如针对时域资源分配也可以采用上述方案来实现，将上述频域范围替换为时域范围，以及频域资源替换为时域资源也同样适用，只是时域资源的单位可以变成时隙、OFDM符号等等，这里不做穷举。
可见，通过采用上述方案，可以在第一DCI中调度N个第一服务小区的N个数据信道，从而即可以保持独立指示的灵活性，并且由于第一DCI的FDRA域的频域大小是基于M个第二服务小区的激活BWP确定的，而M个第二服务小区的激活BWP总和大于等于所述N个第一服务小区的激活BWP总和，因此该第一DCI还可以让多个服务小区共享一个指示域，从而减少FDRA域的指示开销。
图5是根据本申请一实施例的资源的指示方法的示意性流程图。该方法可以应用于图1所示的系统中的网络设备，但并不仅限于此。该方法包括以下内容的至少部分内容。
S510、网络设备向终端设备发送第一下行控制信息(DCI，Downlink Control Information)；
其中，所述第一DCI用于调度N个第一服务小区的N个数据信道；所述第一DCI中包含频域资源分配指示(FDRA，Frequency domain resource assignment)域，所述FDRA域所指示的频域大小由M个第二服务小区的激活BWP确定；所述M个第二服务小区的激活BWP总和大于等于所述N个第一服务小区的激活BWP总和；M为正整数，N为正整数。
所述M个第二服务小区，可以是按照规则确定的。
所述M个第二服务小区包括以下至少之一：
同小区组的服务小区；
在同一小区调度的服务小区；
为终端设备配置的服务小区中的至少部分服务小区；
第一服务小区组合中的服务小区；所述第一服务小区组合中的服务小区为网络设备为终端设备配置的，且所述第一服务小区组合为等效激活BWP的总和最大的服务小区组合；
激活的服务小区中的至少部分激活的服务小区；
第二服务小区组合中的服务小区；所述第二服务小区组合中的服务小区为激活的服务小区，且所述第二服务小区组合为等效激活BWP的总和最大的服务小区组合。
具体的，所述同小区组的服务小区，可以指的是同一个小区组的全部服务小区。关于小区组可以为网络设备通过高层信令为所述终端设备配置。比如，网络侧通过高层信令为终端设备配置4个服务小区 (cell 1～cell 4)，并配置所述4个服务小区属于相同的cell group(小区组)，如都属于MCG(Master Cell group，主小区组)，或者都属于primary PUCCH group(主PUCCH组)/SCG(Secondary Cell group，辅小区组)。此时，上述4个服务小区(cell 1～cell 4)可以为M个第二服务小区。
所述在同一小区调度的服务小区，可以是：在一个服务小区传输的所述第一DCI能够调度的服务小区。
比如，所述网络设备可以为所述终端设备配置服务小区之间的调度关系。参见图4来说，网络侧通过高层信令为终端设备配置4个服务小区，分别为cell 1～cell 4；其中，cell 1可以和cell 2一起调度，或cell1可以和cell 3一起被调度，或者，cell 2可以和cell 3一起被cell 1调度。此时，同一小区调度的服务小区可以指的是cell2和cell3，或者，cell1和cell2，或者cell1和cell3。则在cell 1传输的第一DCI，可以是用于调度cell1～cell3的任意组合中包含的服务小区，则该cell 1、cell2和cell3中的任意组合为cell1这个小区能够调度的M个第二服务小区。
进一步地，所述同一小区调度的服务小区为：所述同一小区的同一个搜索空间的物理下行数据信道(PDCCH，Physical Downlink Control Channel)调度的服务小区。也就是说，所述M个第二服务小区为某一个小区在同一个搜索空间(search space)的PDCCH调度的全部服务小区。
为终端设备配置的服务小区中的至少部分服务小区，具体可以指的是：网络设备通过高层信令为终端设备配置的全部服务小区中的子集或全集。举例来说，网络侧通过高层信令为终端设备配置4个服务小区，分别为cell 1～cell 4，可以将上述cell1～cell4作为前述M个第二服务小区；或者，将cell1和cell2作为前述M个第二服务小区等等，这里不做穷举。
上述M个第二服务小区为所述网络设备第一服务小区组合中的服务小区；所述第一服务小区组合中的服务小区为网络设备为终端设备配置的，且所述第一服务小区组合为等效激活BWP的总和最大的服务小区组合，其确定方式可以是：将网络设备通过高层信令为终端设备配置的全部服务小区分别进行组合，得到多个服务小区组合；计算所述多个服务小区组合的等效激活BWP的总和，将等效激活BWP的总和最大的一个服务小区组合中的全部服务小区作为前述M个第二服务小区。
激活的服务小区中的至少部分激活的服务小区，可以为：激活的所有服务小区任意组合的子集或全集。举例来说，当前激活的服务小区有3个服务小区，分别为cell 1～cell 3，可以将上述cell1～cell3作为前述M个第二服务小区；或者，将cell1和cell2作为前述M个第二服务小区等等，这里不做穷举。
上述M个第二服务小区为第二服务小区组合中的服务小区；所述第二服务小区组合中的服务小区为激活的服务小区，且所述第二服务小区组合为等效激活BWP的总和最大的服务小区组合，其确定方式可以是：将当前激活的全部服务小区分别进行组合，得到多个服务小区组合；计算所述多个服务小区组合的等效激活BWP的总和，将等效激活BWP的总和最大的一个服务小区组合中的全部服务小区作为前述M个第二服务小区。
其中，所述等效激活BWP的总和，指的是：每个服务小区组中全部服务小区的激活BWP的总和。
在前述基础上，一种实施方式中，所述M个第二服务小区中包含目标小区；所述目标小区为所述第一DCI调度的小区。也就是说，在原处理机制中，网络设备通过DCI调度cell 1；在本公开提供的实施方式中，上述M个第二服务小区包含上述cell 1。
其中，所述N个第一服务小区可以为一个或多个，具体与当前所要调度的服务小区的数量相关。
所述N个第一服务小区中每个第一服务小区对应一个数据信道，即所述N个第一服务小区与所述N个数据信道为一一对应的关系。
上述数据信道具体可以包括：PDSCH(物理下行共享信道，Physical Downlink Share CHannel)或者PUSCH(物理上行共享信道，Physical Uplink Share CHannel)。
所述N个第一服务小区由以下之一指示：高层信令，所述第一DCI，第二DCI；所述第二DCI与所述第一DCI不同。
也就是说，上述N个第一服务小区由高层信令配置，或者由所述第一DCI指示，或者由其他DCI指示。应理解，所述第一DCI指的为包含FDRA域的DCI，而所述网络设备可以为终端设备下发的还有其他DCI，本公开实施例中将其他DCI中任意之一称为第二DCI。
所述N个第一服务小区可以为M个第二服务小区的子集或全集，且所述N个第一服务小区的激活BWP总和小于或等于所述M个第二服务小区的激活BWP总和。比如，所述网络设备可以预先通过高层信令为终端设备发送配置的M个第二服务小区；然后网络设备再通过第一DCI(或第二DCI，或高层信令)为终端设备配置M个第二服务小区中的N个第一服务小区。又比如，所述终端设备按照规则确定M个第二服务小区；然后网络设备再通过第一DCI(或第二DCI，或高层信令)为终端设备配置M个第二服务小区中的N个第一服务小区。
或者，所述N个第一服务小区与所述M个第二服务小区不同，且所述N个第一服务小区的激活 BWP总和小于或等于所述M个第二服务小区的激活BWP总和。举例来说，所述M个第二服务小区可以为系统中的部分服务小区，比如服务小区1-5，其激活BWP总和为200PRB；N个第一服务小区可以为服务小区7和服务小区8，其激活BWP总和为100PRB。
或者，所述N个第一服务小区与所述M个第二服务小区存在交集，且所述N个第一服务小区的激活BWP总和小于或等于所述M个第二服务小区的激活BWP总和。举例来说，所述M个第二服务小区可以为系统中的部分服务小区，比如服务小区1-5，其激活BWP总和为200PRB；N个第一服务小区可以为服务小区3和服务小区8，其激活BWP总和为150PRB。
在前述基础上，一种实施方式中，所述N个第一服务小区中包含目标小区；所述目标小区为所述第一DCI调度的小区。也就是说，在原处理机制中，网络设备通过DCI调度cell 1；在本公开提供的实施方式中，上述N个第一服务小区中包含cell 1。
所述FDRA域的大小由第一BWP的大小确定；其中，所述第一BWP的大小为以下之一：
M个第二服务小区的激活BWP的频域资源总和；
M个第二服务小区的激活BWP的频域资源的平均值。
所述第一BWP的大小即所述FDRA域所能够指示的最大频域范围，或者所述第一BWP的大小为所述FDRA域所指示的频域大小。也就是说，可以基于第一BWP的大小来确定在所述第一DCI中包含的FDRA域的大小；其中FDRA域的大小具体可以指的是，所述FDRA域占用的bit位数。
其中，所述M个第二服务小区的激活BWP的频域资源总和具体可以指的是：M个第二服务小区中每个第二服务小区的激活BWP的频域资源相加得到的总和。
再进一步地，由于上述M个第二服务小区可能存在前述多种情况，相应的，所述M个第二服务小区的激活BWP的频域资源总和，可以是任意一种情况下M个第二服务小区中每个服务小区的激活BWP的频域资源相加得到的总和。
M个第二服务小区的激活BWP的频域资源的平均值的确定方式可以为：M个第二服务小区的激活BWP的频域资源相加得到总和，将该总和除以M得到平均值。
另外，所述第一BWP的大小还可以为网络设备配置的数值。比如，可以是网络设备通过高层信令配置的数值，相应的，所述终端设备可以将该数值直接作为所述第一BWP的大小。
再进一步来说，所述第一BWP的大小，在M个第二服务小区不同且所述第一BWP的大小的确定方式不同的情况下是不同的，下面分别来说：
情况1、所述M个第二服务小区可以是同一小区调度的服务小区。第一BWP的大小为M个第二服务小区的激活BWP的频域资源总和。
也就是说，第一BWP的大小，由一个服务小区的第一DCI所能够调度的M个第二服务小区的激活BWP的总和确定。
比如第一DCI为M个第二服务小区中的服务小区1的第一DCI，该服务小区1用于调度服务小区1、服务小区2和服务小区3，则第一BWP的大小为服务小区1、服务小区2和服务小区3的激活BWP的频域资源总和。
举例来说，如图4所示，网络侧通过高层信令为终端配置4个第二服务小区(cell 1～cell 4)，所述4个第二服务小区属于相同的cell group(如都属于MCG，或者都属于primary PUCCH group/secondary cell group)。并且，通过高层信令为终端配置的服务小区之间的调度关系如图2所示：其中，cell 1可以和cell 2一起调度，或cell1可以和cell 3一起被调度，或者，cell 2可以和cell 3一起被cell 1调度。此时，同一小区调度的服务小区可以指的是cell2和cell3，或者，cell1和cell2，或者cell1和cell3。另外，cell 1～cell 4分别包含的PRB数为50PRB，100PRB，30PRB，200PRB(编号都从RB＝0开始)，其中cell 1～cell 4均被配置使用type-0频域资源分配类型，且RBG size被配置为configuration 2(RRC配置参数rbg-Size)。
比如在图4中示意出的cell 1用于调度cell 1以及cell 1-cell3组合的search space(搜索空间)内的PDCCH所承载的第一DCI中的FDRA对应的频域资源大小(即第一BWP的大小)，由包含cell 1-cell3组合的所有小区的active BWP(激活BWP)总和确定，即50+100+30＝180PRB。
类似地，若cell 1用于调度cell2的search space内的PDCCH所承载的所述第一DCI中的FDRA对应的频域资源大小(即第一BWP的大小)，为该cell2的激活BWP的大小即100PRB。
在cell 1用于调度cell3的search space内的PDCCH所承载的第一DCI中的FDRA对应的频域资源大小(即第一BWP的大小)，为该cell3的激活BWP的大小即30PRB。
在cell4用于调度cell4的search space内的PDCCH所承载的第一DCI中的FDRA对应的频域资源大小(即第一BWP的大小)，为该cell4的激活BWP的大小即为200PRB。
情况2、所述第一BWP的大小由网络设备配置。
也就是说，所述第一DCI中的FDRA域对应的频域大小即所述第一BWP的大小，可以由网络设备通过高层信令直接配置给终端设备。此时，所述第一BWP的大小等于所述网络设备配置的数值。
比如，将网络设备配置的数值表示为K，也就是在用于调度服务小区的search space内的PDCCH所承载的第一DCI中的FDRA对应的频域大小为K个PRB。
情况3、M个第二服务小区为高层信令配置的服务小区或激活的服务小区的全集。所述第一BWP的大小为M个第二服务小区的激活BWP的频域资源的平均值。
也就是说，可以将全部M个第二服务小区的激活BWP的频域资源加和之后计算平均值，将该平均值作为所述第一BWP的大小。
同样以图4举例来说，M个第二服务小区为cell1～cell4，将cell1～cell4的total active BWP(总激活BWP)取平均，一般地，近似到十位，即(50+150+130+80)/4＝110。
情况4、M个第二服务小区为配置的服务小区或激活的服务小区的全集。所述第一BWP的大小为M个第二服务小区的激活BWP的频域资源总和。
也就是说，网络设备可以将通过高层信令为终端设备配置的全部服务小区或激活的全部服务小区作为M个第二服务小区，将M个第二服务小区的激活BWP的频域资源加和，作为所述第一BWP的大小。
网络设备配置的全部服务小区可能仅为一个小区组中的一部分，例如，网络设备配置的M个第二服务小区为图4中所示的cell1和cell2，则第一BWP的大小等于cell 1和cell 2的频域资源总和，即50+100＝150PRB。
情况5、M个第二服务小区为同小区组的服务小区。所述第一BWP的大小为M个第二服务小区的激活BWP的频域资源总和。
也就是说，可以将同一个小区组的全部M个第二服务小区的激活BWP的频域资源加和，作为所述第一BWP的大小。
同样以图4举例来说，网络设备可以将通过高层信令为终端设备配置的M个第二服务小区(cell1～cell4)为同一个小区组的服务小区，cell1-cell4的total active BWP(激活BWP的总和)为第一BWP的大小，即50+100+30+200＝380PRB。
情况6、M个第二服务小区为高层信令配置的服务小区或激活的服务小区的子集。所述第一BWP的大小为M个第二服务小区的激活BWP的频域资源总和。
也就是说，网络设备可以将通过高层信令为终端设备配置的全部服务小区或激活的全部服务小区中的一部分，作为M个第二服务小区，将M个第二服务小区的激活BWP的频域资源加和，作为所述第一BWP的大小。
情况7、M个第二服务小区为第一服务小区组合中的服务小区；所述第一服务小区组合中的服务小区为高层信令配置的，且所述第一服务小区组合为等效激活BWP的总和最大的服务小区组合，或者，M个第二服务小区为第二服务小区组合中的服务小区；所述第二服务小区组合中的服务小区为激活的服务小区，且所述第二服务小区组合为等效激活BWP的总和最大的服务小区组合。所述第一BWP的大小为M个第二服务小区的激活BWP的频域资源总和。
也就是说，网络设备可以将通过高层信令为终端设备配置的全部服务小区或激活的全部服务小区中分别进行组合，得到多个服务小区组合，将其中等效激活BWP的总和最大的一个服务小区组合中的全部服务小区作为M个第二服务小区。将M个第二服务小区的激活BWP的频域资源加和，作为所述第一BWP的大小。
例如，以图4为例，M个第二服务小区分别表示为cell 1～cell 4，在cell 1上调度cell 1以及cell 1-cell 3组合的等效BWP包括：{50,50+100,50+30,100+30}，其中，最大的等效BWP为150PRB，所以第一BWP的大小为150PRB。
应理解，以上仅为示例性说明，实际处理中还可以包含更多种情况，只是本实施例中不进行穷举。
在以上说明的基础上，下面分别说明确定N个第一服务小区的N个数据信道所分别对应的频域资源的具体方式：
方式1、
首先，关于第一BWP的大小的确定方式与前述实施例相同，这里不做重复说明。
所述FDRA域的大小可以基于所述第一BWP的大小采用第二资源分配类型下的计算方式计算得到。其中，所述第二资源分配类型具体可以为type-1频域资源分配类型。
具体的，所述FDRA域的大小采用以下方式确定：
Figure PCTCN2021144065-appb-000036
其中，
Figure PCTCN2021144065-appb-000037
表示第一BWP的大小。
上述FDRA域的大小可以表示在第一DCI中包含的FDRA域中指示信息的bit位数。
所述FDRA域所指示的频域范围由所述FDRA域的大小以及所述FDRA域包含的指示信息确定。也就是说，基于所述FDRA域的大小确定所述第一DCI中FDRA域包含的指示信息的位数，从该FDRA域提取指示信息，再基于指示信息确定所述FDRA域所指示的频域范围。
具体的，由于FDRA域的大小可以采用第二资源分配类型计算得到，相应的，所述FDRA域所指示的频域范围可以基于所述第二资源分配类型对应的处理方式结合所述指示信息中的具体内容计算得到。比如：
所述N个数据信道所分别对应的频域资源，由所述FDRA域所指示的频域范围以及所述N个第一服务小区的激活BWP确定。
也就是说，在得到了所述FDRA域所指示的频域范围之后，可以确定FDRA域所指示的N个第一服务小区分别对应的频域范围。
进一步地，所述N个数据信道中的第i个数据信道所对应的频域资源，为所述FDRA域所指示的频域范围与第i个第一服务小区的激活BWP的交集；
所述第i个数据信道为所述N个第一服务小区中的第i个服务小区对应的数据信道；i为大于或等于1且小于或等于N的整数。
具体的，在所述FDRA域所指示的频域范围中，可以包含N个第一服务小区级联后的全部频域范围；根据N个第一服务小区中的第i个第一服务小区的级联顺序，以及FDRA域所指示的总的频域范围，可以确定第i个第一服务小区的第i个数据信道所对应的频域范围。
下面结合图4，对本方式进行说明：
如图4所示，M等于4，也就是网络侧通过高层信令为终端配置4个第二服务小区(cell 1～cell 4)，所述4个第二服务小区属于相同的cell group(如都属于MCG，或者都属于primary PUCCH group/secondary cell group)且通过高层信令为终端配置的服务小区之间的调度关系如图4所示：其中，cell 1～4可以作为单独小区被调度，cell 1可以和cell 2或cell 3一起被调度，cell 2可以和cell 3或cell 1一起被调度。
cell 1～cell 4分别包含的PRB数为50PRB，100PRB，30PRB，200PRB(编号都从RB＝0开始)，其中cell 1～cell 4均被配置使用type-1频域资源分配类型。
所述FDRA域的大小由第一BWP的大小确定。第一BWP的大小为M个第二服务小区的激活BWP的频域资源总和。
一种情况中，M个第二服务小区为所有可能调度的服务小区，基于M个第二服务小区的active BWP(激活BWP)的总和确定第一BWP的大小。
在cell 1用于调度cell 1以及cell 1～cell 3组合的search space(搜索空间)内的PDCCH(物理下行控制信道)所承载的第一DCI中，FDRA域对应的频域资源大小(即第一BWP的大小)，由包含cell 1以及cell 1～cell 3组合的所有小区的active BWP总和确定，比如50+100+30＝180PRB。
类似地，在cell 1用于调度cell 2的search space内的PDCCH所承载的第一DCI中的FDRA对应的频域资源大小(即第一BWP的大小)，为100PRB。
在cell 1用于调度cell 3的search space内的PDCCH所承载的第一DCI中的FDRA对应的频域资源大小(即第一BWP的大小)，为30PRB。
在cell 4用于调度cell 4的search space内的PDCCH所承载的第一DCI中的FDRA对应的频域资源大小(即第一BWP的大小)，为200PRB。
另一种情况中，第一BWP的大小由高层直接配置，例如在cell 1用于调度服务小区的search space内的PDCCH所承载的第一DCI中的FDRA对应的频域资源大小为K个PRB，K为网络配置的正整数。
再一种情况，第一BWP的大小为M个第二服务小区的激活BWP的频域资源的平均值。
比如图4的示例中，M个第二服务小区即cell 1～cell 4，各种第二服务小区组合的total active BWP(总激活BWP)取平均，一般地，近似到十位，即第一BWP的大小为(50+150+130+80)/4＝110。
再一种情况，第一BWP的大小为M个第二服务小区的激活BWP的频域资源的总和。M个第二服务小区为同一个小区组的服务小区。
如图4的例子，M个第二服务小区即cell 1～cell 4，即第一BWP的大小为即为50+100+30+200＝380PRB。
所述FDRA域的大小采用以下方式确定：
Figure PCTCN2021144065-appb-000038
其中，
Figure PCTCN2021144065-appb-000039
表示第一BWP的大小。
以cell 1为例，用于调度cell 1以及cell 1-cell 3组合的search space内的PDCCH所承载的第一DCI 中的FDRA域所需要的比特数(即FDRA域的大小)为
Figure PCTCN2021144065-appb-000040
Figure PCTCN2021144065-appb-000041
所述FDRA域所指示的频域范围由所述FDRA域的大小以及所述FDRA域包含的指示信息确定。
举例来说，当N个数据信道(PDSCH/PUSCH)为cell2和cell3的数据信道时，根据type-1频域资源分配类型的处理方式解读所述第一DCI中的FDRA域的指示信息，例如，FDRA域的指示信息为0010 0100 1011 11,可以得到FDRA域所指示的频域范围对应的PRB为31-60PRB。
所述N个数据信道所分别对应的频域资源，由所述FDRA域所指示的频域范围以及所述N个第一服务小区的激活BWP确定。
所述N个第一服务小区中的第i个服务小区的第i个数据信道所对应的频域资源，为所述FDRA域所指示的频域范围与所述第i个服务小区的激活BWP的交集；i为大于或等于1且小于或等于N的整数。
假设N为2，第i个第一服务小区为cell 1，cell 1的激活BWP的频域范围为前50的PRB，则cell 1的第一数据信道即PDSCH/PUSCH占用了31-50PRB。若第i个服务小区为cell 3，cell 3的第二数据信道即占用了cell 3的频域资源中的第1-10PRB。
方式2、
首先，关于第一BWP的大小的确定方式与前述实施例相同，这里不做重复说明。
所述FDRA域的大小由第一BWP的大小和第一RBG的大小确定。
所述第一RBG的大小由所述第一BWP的大小确定。
在一种实施方式中，所述第一RBG的大小为基于第一资源分配类型所对应的预设信息以及所述第一BWP的大小确定的。
所述第一资源分配类型具体可以为type0，所述预设信息具体可以为type0频域资源分配类型中设置的表格，比如图2所示。
具体的，所述第一RBG的大小为基于所述第一BWP的大小从所述表格中确定的。
假设某一个服务小区对应的第一BWP的大小为180PRB，RBG size被配置为configuration 2(配置2)，则查上述表格可知第一RBG的大小(size)＝16。再假设另一个服务小区对应的第一BWP的大小为200PRB，则通过查上述表格可知，第一RBG的大小＝16。
所述FDRA域的大小由所述第一BWP除以所述第一RBG的大小确定。
其中，所述FDRA域的大小具体指的是，FDRA域中包含的指示信息的比特数。
具体来说，所述FDRA域的大小基于所述第一BWP的大小与所述第一RBG的大小的比值确定。
假设第一BWP的大小等于180，第一RBG的大小等于16，则FDRA域的大小即为
Figure PCTCN2021144065-appb-000042
所述FDRA域所指示的频域范围的指示粒度基于所述第一RBG的大小确定。
上述指示粒度还可以被称为第二RBG。
在一种方式中，该指示粒度(即第二RBG)可以等于所述第一RBG的大小。比如前述确定第一RBG的大小为16，则指示粒度等于16。
在另一种方式中，所述指示粒度基于所述N个第一服务小区的激活BWP的总和、所述第一BWP的大小以及所述第一RBG的大小确定。比如，所述终端设备基于所述N个第一服务小区的激活BWP的总和与所述第一BWP的大小相除之后与所述第一RBG的大小相乘得到第一值，基于所述第一值确定所述指示粒度。
具体的，所述指示粒度基于第一值确定，所述第一值由所述N个第一服务小区的激活BWP的总和与所述第一BWP的大小相除之后与所述第一RBG的大小相乘。
比如，所述终端设备基于所述N个第一服务小区的激活BWP的总和与所述第一BWP的大小相除之后与所述第一RBG的大小相乘得到第二值，对所述第二值向上取整得到所述第一值；基于该第一值确定所述指示粒度。
其中，所述指示粒度等于所述第一值；
或者，所述指示粒度由所述第一值以及第一资源分配类型所对应的预设信息确定。
所述N个数据信道所分别对应的频域资源，由所述FDRA域所指示的频域范围以及所述N个第一服务小区的激活BWP确定。
其中，所述FDRA域所指示的频域范围，由所述FDRA域的大小、所述FDRA域包含的指示信息以及所述指示粒度确定。
所述FDRA域所指示的频域范围具体可以为N个第一服务小区的所述N个数据信道所对应的总频域资源。
具体的，所述FDRA域所指示的频域范围为基于所述有效比特以及所述N个第一服务小区的频域 资源范围确定的；其中，所述有效比特基于所述指示粒度以及所述N个第一服务小区的频域资源范围确定。
所述有效比特基于所述指示粒度以及所述N个第一服务小区的频域资源范围确定的处理方式，具体可以包括：
所述终端设备将所述N个第一服务小区的频域资源范围除以所述指示粒度，得到第三值，将该第三值向上取值得到的值，作为所述FDRA域包含的指示信息中的有效比特的数量。
假设N个第一服务小区的频域资源范围等于80，前述指示粒度等于8，则所述第三值等于10，将10作为所述FDRA域包含的指示信息中的有效比特的数量。
也就是说，所述FDRA域的指示信息的比特数等于FDRA域的大小，而所述有效比特为FDRA域中的一部分。
在一些实施例中，所述FDRA域包含的指示信息中的有效比特为从前向后提取的，假设FDRA域包含的指示信息包含12比特，有效比特为前10个比特。
所述FDRA域所指示的频域范围为基于所述有效比特以及所述N个第一服务小区的频域资源范围确定的，具体指的是：在第j位有效比特为第一值的情况下，该第j位有效比特对应的频域资源上没有传输数据信道；在第j位有效比特为第二值的情况下，该第j位有效比特对应的频域资源上传输数据信道。其中，第一值为0，第二值为1。
所述N个第一服务小区中的第i个服务小区的第i个数据信道所对应的频域资源，为所述FDRA域所指示的频域范围与所述第i个服务小区的激活BWP的交集；i为大于或等于1且小于或等于N的整数。
也就是说，根据第i个服务小区在N个第一服务小区中的顺序，以及第i个服务小区的激活BWP的大小，可以确定FDRA域中指示的频域范围中与第i个服务小区的激活BWP的频域范围的交集。
下面结合图4，对本方式进行第一种说明：
如图4所示，M等于4，也就是网络侧通过高层信令为终端配置4个第二服务小区(cell 1～cell 4)，所述4个第二服务小区属于相同的cell group(如都属于MCG，或者都属于primary PUCCH group/secondary cell group)且通过高层信令为终端配置的服务小区之间的调度关系如图4所示：其中，cell 1～4可以作为单独小区被调度，cell 1可以和cell 2或cell 3一起被调度，cell 2可以和cell 3或cell 1一起被调度。
cell 1～cell 4分别包含的PRB数为50PRB，100PRB，30PRB，200PRB(编号都从RB＝0开始)，其中cell 1～cell 4均被配置使用type-0频域资源分配类型。
所述FDRA域的大小由第一BWP的大小确定。
一种情况中，M个第二服务小区为所有可能调度的服务小区，基于M个第二服务小区的active BWP(激活BWP)的总和确定第一BWP的大小。
在cell 1用于调度cell 1以及cell 1～cell 3组合的search space(搜索空间)内的PDCCH(物理下行控制信道)所承载的第一DCI中，FDRA域对应的频域资源大小(即第一BWP的大小)，由包含cell 1以及cell 1～cell 3组合的所有小区的active BWP总和确定，比如50+100+30＝180PRB。
类似地，在cell 1用于调度cell 2的search space内的PDCCH所承载的第一DCI中的FDRA对应的频域资源大小(即第一BWP的大小)，为100PRB。
在cell 1用于调度cell 3的search space内的PDCCH所承载的第一DCI中的FDRA对应的频域资源大小(即第一BWP的大小)，为30PRB。
在cell 4用于调度cell 4的search space内的PDCCH所承载的第一DCI中的FDRA对应的频域资源大小(即第一BWP的大小)，为200PRB。
另一种情况中，第一BWP的大小由高层直接配置，例如在cell 1用于调度服务小区的search space内的PDCCH所承载的第一DCI中的FDRA对应的频域资源大小为K个PRB，K为网络配置的正整数。
再一种情况，第一BWP的大小为M个第二服务小区的激活BWP的频域资源的平均值。
比如图4的示例中，M个第二服务小区即cell 1～cell 4，各种第二服务小区组合的total active BWP(总激活BWP)取平均，一般地，近似到十位，即第一BWP的大小为(50+150+130+80)/4＝110。
再一种情况，第一BWP的大小为M个第二服务小区的激活BWP的频域资源的总和。M个第二服务小区为同一个小区组的服务小区。
如图4的例子，M个第二服务小区即cell 1～cell 4，即第一BWP的大小为即为50+100+30+200＝380PRB。
另一种情况，第一BWP的大小由M个第二服务小区确定，M个第二服务小区由高层信令配置。 例如，第一BWP的大小由cell 1～cell 2确定，即第一BWP的大小为50+100＝150PRB。
又一种情况，第一BWP的大小由M个第二服务小区确定，M个第二服务小区是配置的或者激活的服务小区的子集或全集；例如，第一BWP的大小由cell 2确定，cell 2是由cell1调度的配置的或者激活的服务小区中的一个服务小区。
第一RBG的大小至少由第一BWP的大小确定。
以cell1为例，cell1对应的第一BWP的大小为180PRB，RBG size被配置为configuration 2，则查表(如图2所示)可知第一RBG的大小＝16。
FDRA域的大小由第一BWP大小和第一RBG的大小确定。即FDRA域的大小等于第一BWP的大小除以第一RBG的大小后向上取值得到的。
以cell1为例，用于调度cell1以及cell1、cell2和cell3组合的search space内的PDCCH所承载的第一DCI中的FDRA域的大小为
Figure PCTCN2021144065-appb-000043
确定指示粒度：一种方式中，所述指示粒度等于第一RBG size(大小),即16。
另一种方式中，所述指示粒度基于所述N个第一服务小区的激活BWP的总和、所述第一BWP的大小以及所述第一RBG的大小确定。
以cell1为例，用于调度cell 1和cell3的2个PDSCH/PUSCH时，其N个第一服务小区的激活BWP的总和为：50+30＝80PRBs。假设第一BWP的大小等于180，第一RBG的大小等于16，则所述指示粒度
Figure PCTCN2021144065-appb-000044
这样在保持FDRA域大小不变的情况下，尽可能指示精确，即尽可能小的RBG size，则可以根据实际调度的服务小区的active BWP的总和进行等比例调整。
进一步，所述指示粒度由所述第一值以及第一资源分配类型所对应的预设信息确定，也就是从type0资源配置类型约定的RBG size中找一个最接近且大于等于该计算值的RBG size作为所述指示粒度。以上述示例计算出来的第一值等于7PRB为例来说，通过查表可以得到最接近的值为8，因此确定所述指示粒度为8PRBs。
所述N个数据信道所分别对应的频域资源，由所述FDRA域所指示的频域范围以及所述N个第一服务小区的激活BWP确定。
以cell1为例，用于调度cell1和cell3的2个PDSCH/PUSCH时，对应80PRBs的频域资源；前面已经确定第一DCI中的FDRA域的大小为12，在确定第二RBG size大小(即指示粒度)为8时，可以确定FDRA域中的指示信息的12比特中的前10比特为有效比特，比如表示为0110110100xx。
上述前10bit对应第2,3,5,6,8个RBG。结合所述指示粒度，可以确定第2组RBG包含了8PRB，也就是从第9-16个PRB上传输了数据信道，以此类推。
假设N为2，第i个服务小区为2个服务小区中的cell1，cell1的激活BWP的频域范围为前50的PRB，则cell1的PDSCH/PUSCH占用了第9-24,33-48PRB。若第i个服务小区为cell3，cell3的active BWP的频域范围为30PRB时，cell3的PDSCH/PUSCH占用了第57-64PRB。
下面结合图4，对本方式进行第二种说明：
如图4所示，M等于4，也就是网络侧通过高层信令为终端配置4个第二服务小区(cell 1～cell 4)，所述4个第二服务小区属于相同的cell group(如都属于MCG，或者都属于primary PUCCH group/secondary cell group)且通过高层信令为终端配置的服务小区之间的调度关系如图4所示：其中，cell 1～4可以作为单独小区被调度，cell 1可以和cell 2或cell 3一起被调度，cell 2可以和cell 3或cell 1一起被调度。
cell 1～cell 4分别包含的PRB数为50PRB，100PRB，30PRB，200PRB(编号都从RB＝0开始)，其中cell 1～cell 4均被配置使用type-0频域资源分配类型，且RBG size被配置为configuration 2(RRC配置参数rbg-Size)，则
所述FDRA域的大小由第一BWP的大小确定。
一种情况中，M个第二服务小区为所述网络设备第一服务小区组合中的服务小区；所述第一服务小区组合中的服务小区为网络设备为终端设备配置的，且所述第一服务小区组合为等效激活BWP的总和最大的服务小区组合，第一BWP的大小由M个第二服务小区的总和确定。
也就是在cell 1用于调度cell 1以及cell 1～cell 3组合的search space(搜索空间)内的PDCCH(物理下行控制信道)所承载的第一DCI中，FDRA域对应的频域资源大小(即第一BWP的大小)由包含cell 1以及cell 1～cell 3组合的等效active BWP最大的组合确定。以图4为例，在cell 1上调度cell 1以及cell 1～cell 3组合的等效BWP包括：{50,50+100,50+30,100+30},其中，最大的等效BWP为150PRB，所以第一BWP的大小为150PRB。
在cell 4用于调度cell 4的search space内的PDCCH所承载的第一DCI中的FDRA对应的频域资 源大小(即第一BWP的大小)，为200PRB。
又一种情况，第一BWP的大小由M个第二服务小区确定，M个第二服务小区是配置的或者激活的服务小区的子集或全集；
第一BWP的大小由M个第二服务小区确定，M个第二服务小区为配置的或者激活的所有服务小区任意组合的子集或全集的等效active BWP最大的组合。例如，cell 1为配置的或者激活的所有服务小区的等效active BWP最大的组合，即cell 1的第一BWP的大小为50PRB。
例如，对于cell 1，M个小区为配置的或者激活的所有第二服务小区即cell 1～cell 3组合的等效active BWP最大的组合，即{50+100,50+30,100+30}中最大的active BWP,即第一BWP的大小为150PRBs。
例如，第一BWP的大小由M个第二服务小区确定，M个第二服务小区高层配置的服务小区和服务小区的任意组合的等效active BWP最大的组合。例如，高层配置cell 1和cell 1～cell 2组合来确定FDRA域的大小，所以，第一BWP的大小为{50,100+50}中最大的值，即150PRB。
另一种情况中，第一BWP的大小由所述网络设备为终端设备配置。例如在一个服务小区用于调度第一服务小区的search space内的PDCCH所承载的第一DCI中的FDRA对应的频域资源大小(即第一BWP的大小)为K个PRB，K为网络配置的正整数。
再一种情况，第一BWP的大小为M个第二服务小区的激活BWP的频域资源的平均值。
比如图4的示例中，M个第二服务小区即cell 1～cell 4，各种第二服务小区组合的total active BWP(总激活BWP)取平均，一般地，近似到十位，即第一BWP的大小为(50+150+130+80)/4＝110。
再一种情况，第一BWP的大小为M个第二服务小区的激活BWP的频域资源的总和。M个第二服务小区为同一个小区组的服务小区。
如图4的例子，M个第二服务小区即cell 1～cell 4，即第一BWP的大小为即为50+100+30+200＝380PRB。
第一RBG的大小至少由第一BWP的大小确定。
以cell1为例，cell1对应的第一BWP的大小为180PRB，RBG size被配置为configuration 2，则查表(如图2所示)可知第一RBG的大小＝16。
FDRA域的大小由第一BWP大小和第一RBG的大小确定。即FDRA域的大小等于第一BWP的大小除以第一RBG的大小后向上取值得到的。
以cell1为例，用于调度cell1以及cell1、cell2和cell3组合的search space内的PDCCH所承载的第一DCI中的FDRA域的大小为
Figure PCTCN2021144065-appb-000045
确定指示粒度：一种方式中，所述指示粒度等于第一RBG size(大小),即16。
另一种方式中，所述指示粒度基于所述N个第一服务小区的激活BWP的总和、所述第一BWP的大小以及所述第一RBG的大小确定。
以cell1为例，用于调度cell 1和cell3的2个PDSCH/PUSCH时，其N个第一服务小区的激活BWP的总和为：50+30＝80PRBs。假设第一BWP等于150，第一RBG的大小等于16，则所述指示粒度
Figure PCTCN2021144065-appb-000046
Figure PCTCN2021144065-appb-000047
这样在保持FDRA域大小不变的情况下，尽可能指示精确，即尽可能小的RBG size，则可以根据实际调度的服务小区的active BWP的总和进行等比例调整。
进一步，所述指示粒度由所述第一值以及第一资源分配类型所对应的预设信息确定，也就是从type0资源配置类型约定的RBG size中找一个最接近且大于等于该计算值的RBG size作为所述指示粒度。以上述示例计算出来的第一值等于9PRB为例来说，通过查表可以得到最接近的值为9，因此确定所述指示粒度为9PRBs。
所述N个数据信道所分别对应的频域资源，由所述FDRA域所指示的频域范围以及所述N个第一服务小区的激活BWP确定。
以cell1为例，用于调度cell1和cell3的2个PDSCH/PUSCH时，对应80PRBs的频域资源；前面已经确定第一DCI中的FDRA域的大小为10，且确定第二RBG size大小(即指示粒度)为9时，则FDRA域中的10比特的前9比特为有效比特，对应80PRBs的频域资源。所以，011011011x对应第2,3,5,6,8,9个RBG。
结合所述指示粒度，可以确定第2组RBG包含了9PRB，也就是从第10-18个PRB上传输了数据信道，以此类推。
假设N为2，第i个服务小区为2个服务小区中的cell1，cell1的激活BWP的频域范围为前50的PRB，则cell1的PDSCH/PUSCH占用了cell1的第10-27,37-50PRB，cell3的PDSCH/PUSCH占用了cell3的第1-4,14-30PRB。
可见，通过采用上述方案，可以在第一DCI中调度N个第一服务小区的N个数据信道，从而即可 以保持独立指示的灵活性，并且由于第一DCI的FDRA域的频域大小是基于M个第二服务小区的激活BWP确定的，而M个第二服务小区的激活BWP总和大于等于所述N个第一服务小区的激活BWP总和，因此该第一DCI还可以让多个服务小区共享一个指示域，从而减少FDRA域的指示开销。
本申请第三方面实施例提供了一种终端设备，如图6所示，包括：
第一通信单元6100，用于接收网络设备发送的第一下行控制信息DCI；
所述第一DCI用于调度N个第一服务小区的N个数据信道；所述第一DCI中包含频域资源分配指示FDRA域，所述FDRA域所指示的频域大小由M个第二服务小区的激活BWP确定；所述M个第二服务小区的激活BWP总和大于等于所述N个第一服务小区的激活BWP总和；M为正整数，N为正整数。
所述FDRA域的大小由第一BWP的大小确定；
其中，所述第一BWP的大小为以下之一：
M个第二服务小区的激活BWP的频域资源总和；
M个第二服务小区的激活BWP的频域资源的平均值。
所述N个数据信道所分别对应的频域资源，由所述FDRA域所指示的频域范围以及所述N个第一服务小区的激活BWP确定。
所述N个数据信道中的第i个数据信道所对应的频域资源，为所述FDRA域所指示的频域范围与第i个第一服务小区的激活BWP的交集；
所述第i个数据信道为所述N个第一服务小区中的第i个服务小区对应的数据信道；i为大于或等于1且小于或等于N的整数。
所述FDRA域的大小采用以下方式确定：
Figure PCTCN2021144065-appb-000048
其中，
Figure PCTCN2021144065-appb-000049
表示第一BWP的大小。
所述FDRA域所指示的频域范围由所述FDRA域的大小以及所述FDRA域包含的指示信息确定。
所述FDRA域的大小由第一BWP的大小和第一RBG的大小确定。
所述第一RBG的大小由所述第一BWP的大小确定。
所述第一RBG的大小为基于第一资源分配类型所对应的预设信息以及所述第一BWP的大小确定的。
所述FDRA域的大小基于所述第一BWP的大小与所述第一RBG的大小的比值确定。
所述FDRA域所指示的频域范围的指示粒度基于所述第一RBG的大小确定。
所述指示粒度等于所述第一RBG的大小。
所述指示粒度基于所述N个第一服务小区的激活BWP的总和、所述第一BWP的大小以及所述第一RBG的大小确定。
所述指示粒度基于第一值确定，所述第一值由所述N个第一服务小区的激活BWP的总和与所述第一BWP的大小相除之后与所述第一RBG的大小相乘。
所述指示粒度等于所述第一值；
或者，所述指示粒度由所述第一值以及第一资源分配类型所对应的预设信息确定。
所述FDRA域所指示的频域范围由所述FDRA域的大小、所述FDRA域包含的指示信息以及所述指示粒度确定。
所述FDRA域所指示的频域范围为基于所述有效比特以及所述N个第一服务小区的频域资源范围确定的；其中，所述有效比特基于所述指示粒度以及所述N个第一服务小区的频域资源范围确定。
所述N个第一服务小区由以下之一指示：高层信令，所述第一DCI，第二DCI；所述第二DCI与所述第一DCI不同。
所述M个第二服务小区包括以下至少之一：
同小区组的服务小区；
在同一小区调度的服务小区；
高层信令配置的服务小区中的至少部分服务小区；
第一服务小区组合中的服务小区；所述第一服务小区组合中的服务小区为高层信令配置的，且所述第一服务小区组合为等效激活BWP的总和最大的服务小区组合；
激活的服务小区中的至少部分激活的服务小区；
第二服务小区组合中的服务小区；所述第二服务小区组合中的服务小区为激活的服务小区，且所述第二服务小区组合为等效激活BWP的总和最大的服务小区组合。
所述在同一小区调度的服务小区为所述同一小区的同一个搜索空间的物理下行控制信道PDCCH 调度的服务小区。
所述M个第二服务小区中包含目标小区；所述目标小区为所述第一DCI调度的小区；
或者，所述N个第一服务小区中包含目标小区；所述目标小区为所述第一DCI调度的小区。
所述N个第一服务小区为M个第二服务小区的子集或全集。
所述数据信道为PDSCH或PUSCH。
此外，所述终端设备还可以包括第一处理单元，所述第一处理单元可以用于执行以上确定第一BWP的大小、确定第一RBG的大小、确定所述FDRA域所指示的频域范围等处理，这里不对其进行赘述。
本申请第四方面实施例还提供一种网络设备，如图7所示，包括：
第二通信单元7100，用于向终端设备发送第一下行控制信息DCI；
所述第一DCI用于调度N个第一服务小区的N个数据信道；所述第一DCI中包含频域资源分配指示FDRA域，所述FDRA域所指示的频域大小由M个第二服务小区的激活BWP确定；所述M个第二服务小区的激活BWP总和大于等于所述N个第一服务小区的激活BWP总和；M为正整数，N为正整数。
所述FDRA域的大小由第一BWP的大小确定；
其中，所述第一BWP的大小为以下之一：
M个第二服务小区的激活BWP的频域资源总和；
M个第二服务小区的激活BWP的频域资源的平均值。
所述N个数据信道所分别对应的频域资源，由所述FDRA域所指示的频域范围以及所述N个第一服务小区的激活BWP确定。
所述N个数据信道中的第i个数据信道所对应的频域资源，为所述FDRA域所指示的频域范围与第i个第一服务小区的激活BWP的交集；
所述第i个数据信道为所述N个第一服务小区中的第i个服务小区对应的数据信道；i为大于或等于1且小于或等于N的整数。
所述FDRA域的大小采用以下方式确定：
Figure PCTCN2021144065-appb-000050
其中，
Figure PCTCN2021144065-appb-000051
表示第一BWP的大小。
所述FDRA域所指示的频域范围由所述FDRA域的大小以及所述FDRA域包含的指示信息确定。
所述FDRA域的大小由第一BWP的大小和第一RBG的大小确定。
所述第一RBG的大小由所述第一BWP的大小确定。
所述第一RBG的大小为基于第一资源分配类型所对应的预设信息以及所述第一BWP的大小确定的。
所述FDRA域的大小基于所述第一BWP的大小与所述第一RBG的大小的比值确定。
所述FDRA域所指示的频域范围的指示粒度基于所述第一RBG的大小确定。
所述指示粒度等于所述第一RBG的大小。
所述指示粒度基于所述N个第一服务小区的激活BWP的总和、所述第一BWP的大小以及所述第一RBG的大小确定。
所述指示粒度基于第一值确定，所述第一值由所述N个第一服务小区的激活BWP的总和与所述第一BWP的大小相除之后与所述第一RBG的大小相乘。
所述指示粒度等于所述第一值；
或者，所述指示粒度由所述第一值以及第一资源分配类型所对应的预设信息确定。
所述FDRA域所指示的频域范围由所述FDRA域的大小、所述FDRA域包含的指示信息以及所述指示粒度确定。
所述FDRA域所指示的频域范围为基于所述有效比特以及所述N个第一服务小区的频域资源范围确定的；其中，所述有效比特基于所述指示粒度以及所述N个第一服务小区的频域资源范围确定。
所述N个第一服务小区由以下之一指示：高层信令，所述第一DCI，第二DCI；所述第二DCI与所述第一DCI不同。
所述M个第二服务小区包括以下至少之一：
同小区组的服务小区；
在同一小区调度的服务小区；
为终端设备配置的服务小区中的至少部分服务小区；
第一服务小区组合中的服务小区；所述第一服务小区组合中的服务小区为网络设备为终端设备配置的，且所述第一服务小区组合为等效激活BWP的总和最大的服务小区组合；
激活的服务小区中的至少部分激活的服务小区；
第二服务小区组合中的服务小区；所述第二服务小区组合中的服务小区为激活的服务小区，且所述第二服务小区组合为等效激活BWP的总和最大的服务小区组合。
所述在同一小区调度的服务小区为所述同一小区的同一个搜索空间的物理下行控制信道PDCCH调度的服务小区。
所述M个第二服务小区中包含目标小区；所述目标小区为所述第一DCI调度的小区；
或者，所述N个第一服务小区中包含目标小区；所述目标小区为所述第一DCI调度的小区。
所述N个第一服务小区为M个第二服务小区的子集或全集。
所述数据信道为PDSCH或PUSCH。
此外，所述网络设备还可以包括第二处理单元，所述第二处理单元可以用于执行以上确定第一BWP的大小、确定第一RBG的大小、确定所述FDRA域所指示的频域范围等处理，这里不对其进行赘述。
本申请实施例的终端设备能够实现前述的方法实施例中的终端设备的对应功能。该终端设备中的各个模块(子模块、单元或组件等)对应的流程、功能、实现方式以及有益效果，可参见上述方法实施例中的对应描述，在此不再赘述。需要说明，关于申请实施例的终端设备中的各个模块(子模块、单元或组件等)所描述的功能，可以由不同的模块(子模块、单元或组件等)实现，也可以由同一个模块(子模块、单元或组件等)实现。
图8是根据本申请实施例的通信设备800示意性结构图。该通信设备800包括处理器810，处理器810可以从存储器中调用并运行计算机程序，以使通信设备800实现本申请实施例中的方法。
在一种可能的实现方式中，通信设备800还可以包括存储器820。其中，处理器810可以从存储器820中调用并运行计算机程序，以使通信设备800实现本申请实施例中的方法。
其中，存储器820可以是独立于处理器810的一个单独的器件，也可以集成在处理器810中。
在一种可能的实现方式中，通信设备800还可以包括收发器830，处理器810可以控制该收发器830与其他设备进行通信，具体地，可以向其他设备发送信息或数据，或接收其他设备发送的信息或数据。
其中，收发器830可以包括发射机和接收机。收发器830还可以进一步包括天线，天线的数量可以为一个或多个。
在一种可能的实现方式中，该通信设备800可为本申请实施例的网络设备，并且该通信设备800可以实现本申请实施例的各个方法中由网络设备实现的相应流程，为了简洁，在此不再赘述。
在一种可能的实现方式中，该通信设备800可为本申请实施例的终端设备，并且该通信设备800可以实现本申请实施例的各个方法中由终端设备实现的相应流程，为了简洁，在此不再赘述。
图9是根据本申请实施例的芯片900的示意性结构图。该芯片900包括处理器910，处理器910可以从存储器中调用并运行计算机程序，以实现本申请实施例中的方法。
在一种可能的实现方式中，芯片900还可以包括存储器920。其中，处理器910可以从存储器920中调用并运行计算机程序，以实现本申请实施例中由终端设备或者网络设备执行的方法。
其中，存储器920可以是独立于处理器910的一个单独的器件，也可以集成在处理器910中。
在一种可能的实现方式中，该芯片900还可以包括输入接口930。其中，处理器910可以控制该输入接口930与其他设备或芯片进行通信，具体地，可以获取其他设备或芯片发送的信息或数据。
在一种可能的实现方式中，该芯片900还可以包括输出接口940。其中，处理器910可以控制该输出接口940与其他设备或芯片进行通信，具体地，可以向其他设备或芯片输出信息或数据。
在一种可能的实现方式中，该芯片可应用于本申请实施例中的网络设备，并且该芯片可以实现本申请实施例的各个方法中由网络设备实现的相应流程，为了简洁，在此不再赘述。
在一种可能的实现方式中，该芯片可应用于本申请实施例中的终端设备，并且该芯片可以实现本申请实施例的各个方法中由终端设备实现的相应流程，为了简洁，在此不再赘述。
应用于网络设备和终端设备的芯片可以是相同的芯片或不同的芯片。
应理解，本申请实施例提到的芯片还可以称为系统级芯片，系统芯片，芯片系统或片上系统芯片等。
上述提及的处理器可以是通用处理器、数字信号处理器(digital signal processor，DSP)、现成可编程门阵列(field programmable gate array，FPGA)、专用集成电路(application specific integrated circuit，ASIC)或者其他可编程逻辑器件、晶体管逻辑器件、分立硬件组件等。其中，上述提到的通用处理器可以是微处理器或者也可以是任何常规的处理器等。
上述提及的存储器可以是易失性存储器或非易失性存储器，或可包括易失性和非易失性存储器两者。其中，非易失性存储器可以是只读存储器(read-only memory，ROM)、可编程只读存储器(programmable ROM，PROM)、可擦除可编程只读存储器(erasable PROM，EPROM)、电可擦除可编程只读存储器 (electrically EPROM，EEPROM)或闪存。易失性存储器可以是随机存取存储器(random access memory，RAM)。
应理解，上述存储器为示例性但不是限制性说明，例如，本申请实施例中的存储器还可以是静态随机存取存储器(static RAM，SRAM)、动态随机存取存储器(dynamic RAM，DRAM)、同步动态随机存取存储器(synchronous DRAM，SDRAM)、双倍数据速率同步动态随机存取存储器(double data rate SDRAM，DDR SDRAM)、增强型同步动态随机存取存储器(enhanced SDRAM，ESDRAM)、同步连接动态随机存取存储器(synch link DRAM，SLDRAM)以及直接内存总线随机存取存储器(Direct Rambus RAM，DR RAM)等等。也就是说，本申请实施例中的存储器旨在包括但不限于这些和任意其它适合类型的存储器。
图10是根据本申请实施例的通信系统1000的示意性框图。该通信系统1000包括终端设备1010和网络设备1020。
其中，该终端设备1010可以用于实现上述方法中由终端设备实现的相应的功能，以及该网络设备1020可以用于实现上述方法中由网络设备实现的相应的功能。为了简洁，在此不再赘述。
在上述实施例中，可以全部或部分地通过软件、硬件、固件或者其任意组合来实现。当使用软件实现时，可以全部或部分地以计算机程序产品的形式实现。该计算机程序产品包括一个或多个计算机指令。在计算机上加载和执行该计算机程序指令时，全部或部分地产生按照本申请实施例中的流程或功能。该计算机可以是通用计算机、专用计算机、计算机网络、或者其他可编程装置。该计算机指令可以存储在计算机可读存储介质中，或者从一个计算机可读存储介质向另一个计算机可读存储介质传输，例如，该计算机指令可以从一个网站站点、计算机、服务器或数据中心通过有线(例如同轴电缆、光纤、数字用户线(Digital Subscriber Line，DSL))或无线(例如红外、无线、微波等)方式向另一个网站站点、计算机、服务器或数据中心进行传输。该计算机可读存储介质可以是计算机能够存取的任何可用介质或者是包含一个或多个可用介质集成的服务器、数据中心等数据存储设备。该可用介质可以是磁性介质，(例如，软盘、硬盘、磁带)、光介质(例如，DVD)、或者半导体介质(例如固态硬盘(Solid State Disk，SSD))等。
应理解，在本申请的各种实施例中，上述各过程的序号的大小并不意味着执行顺序的先后，各过程的执行顺序应以其功能和内在逻辑确定，而不应对本申请实施例的实施过程构成任何限定。
所属领域的技术人员可以清楚地了解到，为描述的方便和简洁，上述描述的系统、装置和单元的具体工作过程，可以参考前述方法实施例中的对应过程，在此不再赘述。
以上所述仅为本申请的具体实施方式，但本申请的保护范围并不局限于此，任何熟悉本技术领域的技术人员在本申请揭露的技术范围内，可轻易想到变化或替换，都应涵盖在本申请的保护范围之内。因此，本申请的保护范围应以该权利要求的保护范围为准。

Claims (58)

  1. 一种资源的指示方法，包括：
    终端设备接收网络设备发送的第一下行控制信息DCI；
    所述第一DCI用于调度N个第一服务小区的N个数据信道；所述第一DCI中包含频域资源分配指示FDRA域，所述FDRA域所指示的频域大小由M个第二服务小区的激活BWP确定；所述M个第二服务小区的激活BWP总和大于等于所述N个第一服务小区的激活BWP总和；M为正整数，N为正整数。
  2. 根据权利要求1所述的方法，其中，所述FDRA域的大小由第一BWP的大小确定；
    其中，所述第一BWP的大小为以下之一：
    M个第二服务小区的激活BWP的频域资源总和；
    M个第二服务小区的激活BWP的频域资源的平均值。
  3. 根据权利要求2所述的方法，其中，所述N个数据信道分别对应的频域资源，由所述FDRA域所指示的频域范围以及所述N个第一服务小区的激活BWP确定。
  4. 根据权利要求3所述的方法，其中，所述N个数据信道中的第i个数据信道所对应的频域资源，为所述FDRA域所指示的频域范围与第i个第一服务小区的激活BWP的交集；
    所述第i个数据信道为所述N个第一服务小区中的第i个服务小区对应的数据信道；i为大于或等于1且小于或等于N的整数。
  5. 根据权利要求2-4任一项所述的方法，其中，所述FDRA域的大小采用以下方式确定：
    Figure PCTCN2021144065-appb-100001
    其中，
    Figure PCTCN2021144065-appb-100002
    表示第一BWP的大小，
    Figure PCTCN2021144065-appb-100003
    表示向上取整。
  6. 根据权利要求5所述的方法，其中，所述FDRA域所指示的频域范围由所述FDRA域的大小以及所述FDRA域包含的指示信息确定。
  7. 根据权利要求2-4任一项所述的方法，其中，所述FDRA域的大小由所述第一BWP的大小和第一RBG的大小确定。
  8. 根据权利要求7所述的方法，其中，所述第一RBG的大小由所述第一BWP的大小确定。
  9. 根据权利要求8所述的方法，其中，所述第一RBG的大小为基于第一资源分配类型所对应的预设信息以及所述第一BWP的大小确定的。
  10. 根据权利要求9所述的方法，其中，所述FDRA域的大小基于所述第一BWP的大小与所述第一RBG的大小的比值确定。
  11. 根据权利要求7-10任一项所述的方法，其中，所述FDRA域所指示的频域范围的指示粒度基于所述第一RBG的大小确定。
  12. 根据权利要求11所述的方法，其中，所述指示粒度等于所述第一RBG的大小。
  13. 根据权利要求11所述的方法，其中，所述指示粒度基于所述N个第一服务小区的激活BWP的总和、所述第一BWP的大小以及所述第一RBG的大小确定。
  14. 根据权利要求13所述的方法，其中，所述指示粒度基于第一值确定，所述第一值由所述N个第一服务小区的激活BWP的总和与所述第一BWP的大小相除之后与所述第一RBG的大小相乘。
  15. 根据权利要求14所述的方法，其中，所述指示粒度等于所述第一值；
    或者，所述指示粒度由所述第一值以及第一资源分配类型所对应的预设信息确定。
  16. 根据权利要求7-15任一项所述的方法，其中，所述FDRA域所指示的频域范围由所述FDRA域的大小、所述FDRA域包含的指示信息以及指示粒度确定。
  17. 根据权利要求16所述的方法，其中，所述FDRA域所指示的频域范围为基于有效比特以及所述N个第一服务小区的频域资源范围确定的；其中，所述有效比特基于所述指示粒度以及所述N个第一服务小区的频域资源范围确定。
  18. 根据权利要求1-17任一项所述的方法，其中，所述N个第一服务小区由以下之一指示：高层信令，所述第一DCI，第二DCI；所述第二DCI与所述第一DCI不同。
  19. 根据权利要求1-18任一项所述的方法，其中，所述M个第二服务小区包括以下至少之一：
    同小区组的服务小区；
    在同一小区调度的服务小区；
    高层信令配置的服务小区中的至少部分服务小区；
    第一服务小区组合中的服务小区；所述第一服务小区组合中的服务小区为高层信令配置的，且所述第一服务小区组合为等效激活BWP的总和最大的服务小区组合；
    激活的服务小区中的至少部分激活的服务小区；
    第二服务小区组合中的服务小区；所述第二服务小区组合中的服务小区为激活的服务小区，且所述第二服务小区组合为等效激活BWP的总和最大的服务小区组合。
  20. 根据权利要求19所述的方法，其中，所述在同一小区调度的服务小区为所述同一小区的同一个搜索空间的物理下行控制信道PDCCH调度的服务小区。
  21. 根据权利要求1-20任一项所述的方法，其中，所述M个第二服务小区中包含目标小区；所述目标小区为所述第一DCI调度的小区；
    或者，所述N个第一服务小区中包含目标小区；所述目标小区为所述第一DCI调度的小区。
  22. 根据权利要求1-21任一项所述的方法，其中，所述N个第一服务小区为M个第二服务小区的子集或全集。
  23. 根据权利要求1-22任一项所述的方法，其中，所述数据信道为物理下行共享信道PDSCH，或物理上行共享信道PUSCH。
  24. 一种资源的指示方法，包括：
    网络设备向终端设备发送第一下行控制信息DCI；
    所述第一DCI用于调度N个第一服务小区的N个数据信道；所述第一DCI中包含频域资源分配指示FDRA域，所述FDRA域所指示的频域大小由M个第二服务小区的激活BWP确定；所述M个第二服务小区的激活BWP总和大于等于所述N个第一服务小区的激活BWP总和；M为正整数，N为正整数。
  25. 根据权利要求24所述的方法，其中，所述FDRA域的大小由第一BWP的大小确定；
    其中，所述第一BWP的大小为以下之一：
    M个第二服务小区的激活BWP的频域资源总和；
    M个第二服务小区的激活BWP的频域资源的平均值。
  26. 根据权利要求25所述的方法，其中，所述N个数据信道所分别对应的频域资源，由所述FDRA域所指示的频域范围以及所述N个第一服务小区的激活BWP确定。
  27. 根据权利要求26所述的方法，其中，所述N个数据信道中的第i个数据信道所对应的频域资源，为所述FDRA域所指示的频域范围与第i个第一服务小区的激活BWP的交集；
    所述第i个数据信道为所述N个第一服务小区中的第i个服务小区对应的数据信道；i为大于或等于1且小于或等于N的整数。
  28. 根据权利要求25-27任一项所述的方法，其中，所述FDRA域的大小采用以下方式确定：
    Figure PCTCN2021144065-appb-100004
    其中，
    Figure PCTCN2021144065-appb-100005
    表示第一BWP的大小，
    Figure PCTCN2021144065-appb-100006
    表示向上取整。
  29. 根据权利要求28所述的方法，其中，所述FDRA域所指示的频域范围由所述FDRA域的大小以及所述FDRA域包含的指示信息确定。
  30. 根据权利要求25-27任一项所述的方法，其中，所述FDRA域的大小由所述第一BWP的大小和第一RBG的大小确定。
  31. 根据权利要求30所述的方法，其中，所述第一RBG的大小由所述第一BWP的大小确定。
  32. 根据权利要求31所述的方法，其中，所述第一RBG的大小为基于第一资源分配类型所对应的预设信息以及所述第一BWP的大小确定的。
  33. 根据权利要求32所述的方法，其中，所述FDRA域的大小基于所述第一BWP的大小与所述第一RBG的大小的比值确定。
  34. 根据权利要求30-33任一项所述的方法，其中，所述FDRA域所指示的频域范围的指示粒度基于所述第一RBG的大小确定。
  35. 根据权利要求34所述的方法，其中，所述指示粒度等于所述第一RBG的大小。
  36. 根据权利要求34所述的方法，其中，所述指示粒度基于所述N个第一服务小区的激活BWP的总和、所述第一BWP的大小以及所述第一RBG的大小确定。
  37. 根据权利要求36所述的方法，其中，所述指示粒度基于第一值确定，所述第一值由所述N个第一服务小区的激活BWP的总和与所述第一BWP的大小相除之后与所述第一RBG的大小相乘。
  38. 根据权利要求37所述的方法，其中，所述指示粒度等于所述第一值；
    或者，所述指示粒度由所述第一值以及第一资源分配类型所对应的预设信息确定。
  39. 根据权利要求30-38任一项所述的方法，其中，所述FDRA域所指示的频域范围由所述FDRA域的大小、所述FDRA域包含的指示信息以及指示粒度确定。
  40. 根据权利要求39所述的方法，其中，所述FDRA域所指示的频域范围为基于有效比特以及所 述N个第一服务小区的频域资源范围确定的；其中，所述有效比特基于所述指示粒度以及所述N个第一服务小区的频域资源范围确定。
  41. 根据权利要求24-40任一项所述的方法，其中，所述N个第一服务小区由以下之一指示：高层信令，所述第一DCI，第二DCI；所述第二DCI与所述第一DCI不同。
  42. 根据权利要求24-41任一项所述的方法，其中，所述M个第二服务小区包括以下至少之一：
    同小区组的服务小区；
    在同一小区调度的服务小区；
    为终端设备配置的服务小区中的至少部分服务小区；
    第一服务小区组合中的服务小区；所述第一服务小区组合中的服务小区为网络设备为终端设备配置的，且所述第一服务小区组合为等效激活BWP的总和最大的服务小区组合；
    激活的服务小区中的至少部分激活的服务小区；
    第二服务小区组合中的服务小区；所述第二服务小区组合中的服务小区为激活的服务小区，且所述第二服务小区组合为等效激活BWP的总和最大的服务小区组合。
  43. 根据权利要求42所述的方法，其中，所述在同一小区调度的服务小区为所述同一小区的同一个搜索空间的物理下行控制信道PDCCH调度的服务小区。
  44. 根据权利要求24-43任一项所述的方法，其中，所述M个第二服务小区中包含目标小区；所述目标小区为所述第一DCI调度的小区；
    或者，所述N个第一服务小区中包含目标小区；所述目标小区为所述第一DCI调度的小区。
  45. 根据权利要求24-44任一项所述的方法，其中，所述N个第一服务小区为M个第二服务小区的子集或全集。
  46. 根据权利要求24-25任一项所述的方法，其中，所述数据信道为物理下行共享信道PDSCH，或物理上行共享信道PUSCH。
  47. 一种终端设备，包括：
    第一通信单元，用于接收网络设备发送的第一下行控制信息DCI；
    所述第一DCI用于调度N个第一服务小区的N个数据信道；所述第一DCI中包含频域资源分配指示FDRA域，所述FDRA域所指示的频域大小由M个第二服务小区的激活BWP确定；所述M个第二服务小区的激活BWP总和大于等于所述N个第一服务小区的激活BWP总和；M为正整数，N为正整数。
  48. 一种网络设备，包括：
    第二通信单元，用于向终端设备发送第一下行控制信息DCI；
    所述第一DCI用于调度N个第一服务小区的N个数据信道；所述第一DCI中包含频域资源分配指示FDRA域，所述FDRA域所指示的频域大小由M个第二服务小区的激活BWP确定；所述M个第二服务小区的激活BWP总和大于等于所述N个第一服务小区的激活BWP总和；M为正整数，N为正整数。
  49. 一种终端设备，包括：处理器和存储器，该存储器用于存储计算机程序，所述处理器用于调用并运行所述存储器中存储的计算机程序，以使所述终端设备执行如权利要求1至23中任一项所述的方法。
  50. 一种网络设备，包括：处理器和存储器，该存储器用于存储计算机程序，所述处理器用于调用并运行所述存储器中存储的计算机程序，以使所述终端设备执行如权利要求24至46中任一项所述的方法。
  51. 一种芯片，包括：处理器，用于从存储器中调用并运行计算机程序，使得安装有所述芯片的设备执行如权利要求1至23中任一项所述的方法。
  52. 一种芯片，包括：处理器，用于从存储器中调用并运行计算机程序，使得安装有所述芯片的设备执行如权利要求24至46中任一项所述的方法。
  53. 一种计算机可读存储介质，用于存储计算机程序，当所述计算机程序被设备运行时使得所述设备执行如权利要求1至23中任一项所述的方法。
  54. 一种计算机可读存储介质，用于存储计算机程序，当所述计算机程序被设备运行时使得所述设备执行如权利要求24至46中任一项所述的方法。
  55. 一种计算机程序产品，包括计算机程序指令，该计算机程序指令使得计算机执行如权利要求1至23中任一项所述的方法。
  56. 一种计算机程序产品，包括计算机程序指令，该计算机程序指令使得计算机执行如权利要求24至46中任一项所述的方法。
  57. 一种计算机程序，所述计算机程序使得计算机执行如权利要求1至23中任一项所述的方法。
  58. 一种计算机程序，所述计算机程序使得计算机执行如权利要求24至46中任一项所述的方法。
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