WO2019148920A1 - 一种信息传输方法及装置 - Google Patents

一种信息传输方法及装置 Download PDF

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Publication number
WO2019148920A1
WO2019148920A1 PCT/CN2018/114195 CN2018114195W WO2019148920A1 WO 2019148920 A1 WO2019148920 A1 WO 2019148920A1 CN 2018114195 W CN2018114195 W CN 2018114195W WO 2019148920 A1 WO2019148920 A1 WO 2019148920A1
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WIPO (PCT)
Prior art keywords
paging
bit
type
dci
rnti
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PCT/CN2018/114195
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English (en)
French (fr)
Inventor
毕峰
刘星
郝鹏
贺海港
刘文豪
Original Assignee
中兴通讯股份有限公司
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Application filed by 中兴通讯股份有限公司 filed Critical 中兴通讯股份有限公司
Priority to JP2020541578A priority Critical patent/JP6986162B2/ja
Priority to KR1020207022951A priority patent/KR102418654B1/ko
Priority to CA3090024A priority patent/CA3090024C/en
Priority to EP18904113.0A priority patent/EP3737188A4/en
Priority to US16/965,133 priority patent/US11363587B2/en
Publication of WO2019148920A1 publication Critical patent/WO2019148920A1/zh

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    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04W—WIRELESS COMMUNICATION NETWORKS
    • H04W68/00—User notification, e.g. alerting and paging, for incoming communication, change of service or the like
    • H04W68/005—Transmission of information for alerting of incoming communication
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04W—WIRELESS COMMUNICATION NETWORKS
    • H04W72/00—Local resource management
    • H04W72/20—Control channels or signalling for resource management
    • H04W72/23—Control channels or signalling for resource management in the downlink direction of a wireless link, i.e. towards a terminal
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04W—WIRELESS COMMUNICATION NETWORKS
    • H04W68/00—User notification, e.g. alerting and paging, for incoming communication, change of service or the like
    • H04W68/02—Arrangements for increasing efficiency of notification or paging channel

Definitions

  • the embodiments of the present disclosure relate to the field of communications technologies, and in particular, to an information transmission method and apparatus.
  • the traditional radio service mainly uses spectrum resources between 300MHz and 3GHz. These spectrum resources are limited. However, with the continuous advancement of radio technologies, various radio services have emerged in large numbers, and people are facing increasing demands for bandwidth. The occupation of these spectrum resources shows an extremely tense situation and is unable to meet the needs of future wireless communications.
  • New Radio, NR NR includes the 5th Generation Mobile Communication (5G) system and the communication system after the 5G system
  • the 4th Generation Mobile Communication, 4G system uses a carrier frequency with a higher carrier frequency for communication, such as 28 GHz, 45 GHz, 70 GHz, etc., which has a large free propagation loss and is easily absorbed by oxygen.
  • the shortcomings of rain attenuation have seriously affected the coverage performance of high-frequency communication systems, but at the same time, the carrier frequency corresponding to such high-frequency communication has shorter wavelengths, so that more antenna elements can be accommodated per unit area. And more antenna elements mean that the beamforming method can be used to improve the antenna gain, thus ensuring the coverage performance of high-frequency communication. Therefore, the beamforming method to improve the antenna gain will undoubtedly be applied to the 5G system. .
  • the embodiments of the present disclosure provide an information transmission method and apparatus, which enable a terminal (User Equipment, UE) to perform an action to switch a paging mechanism, thereby avoiding massive congestion of a traffic channel and excessive invalid uplink. Access process.
  • UE User Equipment
  • an embodiment of the present disclosure provides an information transmission method, including:
  • the base station sets indication information for indicating actions of different types of UEs in the multiplexed downlink control information (DCI);
  • DCI downlink control information
  • the base station sends the multiplexed DCI to the UE;
  • the multiplexed DCI is a DCI multiplexed DCI of the Physical Downlink Shared Channel (PDSCH), and the multiplexed DCI is scrambled by using a preset Radio Network Temporary Identifier (RNTI).
  • RNTI Radio Network Temporary Identifier
  • P-RNTI Paging-Radio Network Temporary Identifier
  • the preset RNTI is an RNTI other than the P-RNTI.
  • the embodiment of the present disclosure further provides an information transmission method, including:
  • the UE receives the multiplexed DCI sent by the base station, where the multiplexed DCI is the DCI multiplexed by the base station to the DCI of the PDSCH, and when the multiplexed DCI is scrambled by using the preset RNTI, it is the DCI of the PDSCH, and the P-RNTI is adopted.
  • the preset RNTI is an RNTI other than the P-RNTI;
  • the UE performs an action according to the indication information set in the multiplexing DCI.
  • the embodiment of the present disclosure further provides a base station, including:
  • a first processing module configured to set, in the multiplexed DCI, indication information used to indicate that different types of UEs perform an action
  • a first sending module configured to send the multiplexed DCI to the UE
  • the multiplexed DCI is a DCI multiplexed with the DCI of the PDSCH, and is a DCI of the PDSCH when the multiplexed DCI is scrambled by using a preset RNTI, and is a paging DCI when the P-RNTI is scrambled.
  • the RNTI is an RNTI other than the P-RNTI.
  • the embodiment of the present disclosure further provides a UE, including:
  • the first receiving module is configured to receive the multiplexed DCI sent by the base station, where the multiplexed DCI is a DCI that the base station multiplexes the DCI of the PDSCH, and is the PDSCH when the multiplexed DCI is scrambled by using the preset RNTI.
  • the DCI is a paging DCI when the P-RNTI is scrambled, and the preset RNTI is an RNTI other than the P-RNTI;
  • the third processing module is configured to perform an action according to the indication information set in the multiplexing DCI.
  • the multiplexed DCI is provided with indication information for indicating that different types of UEs operate to switch the paging mechanism, large-scale congestion of the traffic channel and excessive invalid uplink access procedures are avoided. The need for network deployment and resource scheduling.
  • the embodiment of the present disclosure further provides an information transmission method, including:
  • the base station sets, in the multiplexed DCI, indication information for indicating that different types of UEs perform an action
  • the multiplexed DCI is the directly indicated DCI multiplexed DCI, and when the preset bit in the multiplexed DCI indicates direct indication, it is a direct indication DCI, indicating that the page is a paging DCI.
  • the embodiment of the present disclosure further provides an information transmission method, including:
  • a multiplexed DCI sent by the base station where the multiplexed DCI is a DCI multiplexed DCI directly indicated by the base station, and when the preset bit indicates a direct indication, the DCI is directly indicated, indicating that the paging is performed.
  • the multiplexed DCI is a DCI multiplexed DCI directly indicated by the base station, and when the preset bit indicates a direct indication, the DCI is directly indicated, indicating that the paging is performed.
  • the UE performs an action according to the indication information set in the multiplexing DCI.
  • the embodiment of the present disclosure further provides a base station, including:
  • a second processing module configured to multiplex indication information of different service types in the multiplexing DCI
  • a second sending module configured to send the multiplexed DCI to the UE
  • the multiplexed DCI is the directly indicated DCI multiplexed DCI, and when the preset bit in the multiplexed DCI indicates direct indication, it is a direct indication DCI, indicating that the page is a paging DCI.
  • the embodiment of the present disclosure further provides a UE, including:
  • a second receiving module configured to receive a multiplexed DCI sent by the base station, where the multiplexed DCI is a DCI multiplexed DCI directly indicated by the base station, and is directly indicated when the preset bit indicates a direct indication DCI, indicating paging is DCI when paging;
  • the fourth processing module is configured to perform an action according to the indication information set in the multiplexing DCI.
  • the multiplexed DCI is provided with indication information for indicating that different types of UEs operate to switch the paging mechanism, large-scale congestion of the traffic channel and excessive invalid uplink access procedures are avoided. The need for network deployment and resource scheduling.
  • the embodiment of the present disclosure further provides an information transmission method, including:
  • the base station calculates a paging moment of the UE
  • the base station transmits the paging DCI to the UE at a determined location.
  • the embodiment of the present disclosure further provides an information transmission method, including:
  • the UE calculates its own paging moment
  • the UE receives the paging DCI sent by the base station at the determined location.
  • the embodiment of the present disclosure further provides a base station, including:
  • a first calculating module configured to calculate a paging moment of the UE
  • a third processing module configured to determine a location of the paging DCI at a paging control resource set or a paging search space location corresponding to the obtained paging moment;
  • a third sending module configured to send the paging DCI to the UE at the determined location.
  • the embodiment of the present disclosure further provides a UE, including:
  • a second calculating module configured to calculate a paging moment of the UE
  • a seventh processing module configured to determine a location of the paging DCI on a paging control resource set or a paging search space location corresponding to the obtained paging moment;
  • the third receiving module is configured to receive the paging DCI sent by the base station at the determined location.
  • the base station can send the paging DCI at different paging moments, so that the paging DCI is dispersed, and the time-frequency domain resource congestion is avoided.
  • the embodiment of the present disclosure further provides an information transmission method, including:
  • the base station performs resource association on the set configured on the part of the bandwidth (BWP) according to the actually transmitted Synchronization Signal Block (SSB); wherein the configured set includes the paging control resource set and other At least one of a collection of System Information (OSI).
  • OSI System Information
  • the embodiment of the present disclosure further provides an information transmission method, including:
  • the UE performs resource association on the set configured on the BWP according to the actually transmitted SSB in a configured or preset manner; wherein the configured set includes at least one of a paging control resource set and an OSI set.
  • the embodiment of the present disclosure further provides a base station, including:
  • the fourth processing module the base station performs resource association on the configured set according to the number E of actually transmitted SSBs in a configuration or a preset manner, where the set of the configuration includes at least one of a paging control resource set and an OSI set.
  • the embodiment of the present disclosure further provides a UE, including:
  • the eighth processing module is configured to perform resource association on the configured set according to the actually transmitted SSB in a configured or preset manner, where the set of the configuration includes at least one of a paging control resource set and an OSI set.
  • FIG. 1 is a schematic flowchart diagram of an information transmission method according to an embodiment of the present disclosure
  • FIG. 2 is a schematic flowchart diagram of another information transmission method according to an embodiment of the present disclosure.
  • FIG. 3 is a schematic flowchart of still another information transmission method according to an embodiment of the present disclosure.
  • FIG. 4 is a schematic diagram of a DRX cycle including P time-domain direction paging moments according to an embodiment of the present disclosure
  • FIG. 5 is a schematic diagram of a DRX cycle including P time-domain direction paging moments and Q frequency domain direction paging moments according to an embodiment of the present disclosure
  • FIG. 6 is a schematic flowchart diagram of still another information transmission method according to an embodiment of the present disclosure.
  • FIG. 7 is a schematic flowchart diagram of still another information transmission method according to an embodiment of the present disclosure.
  • FIG. 8 is a schematic flowchart diagram of still another information transmission method according to an embodiment of the present disclosure.
  • FIG. 9 is a schematic flowchart diagram of still another information transmission method according to an embodiment of the present disclosure.
  • FIG. 10 is a schematic flowchart diagram of still another information transmission method according to an embodiment of the present disclosure.
  • FIG. 11 is a schematic structural diagram of a base station according to an embodiment of the present disclosure.
  • FIG. 12 is a schematic structural diagram of another base station according to an embodiment of the present disclosure.
  • FIG. 13 is a schematic structural diagram of still another base station according to an embodiment of the present disclosure.
  • FIG. 14 is a schematic structural diagram of still another base station according to an embodiment of the present disclosure.
  • FIG. 15 is a schematic structural diagram of a UE according to an embodiment of the present disclosure.
  • FIG. 16 is a schematic structural diagram of another UE according to an embodiment of the present disclosure.
  • FIG. 17 is a schematic structural diagram of still another UE according to an embodiment of the present disclosure.
  • FIG. 18 is a schematic structural diagram of still another UE according to an embodiment of the present disclosure.
  • the paging related information includes paging scheduling information (also referred to as paging DCI) and paging messages.
  • the paging scheduling information is used to schedule and allocate the resource location where the paging message is located; the paging message includes system information update systemInfoModification, earthquake tsunami warning system indication etws-Indication, commercial mobile alarm service indication cmas-Indication, extended access restriction Parameter update eab-ParamModification, reassignment indication redistributionIndication, enhanced discontinuous reception of system information update systemInfoModification-eDRX, paging record PagingRecord (including S-Temporary Mobile Station Identifier (S-TMSI) or international mobile subscribers) A message such as an International Mobile Subscriber Identity (IMSI).
  • IMSI International Mobile Subscriber Identity
  • the paging message includes only messages of a system message update type (for example, systemInfoModification, etws-Indication, cmas-Indication, eab-ParamModification, redistributionIndication, systemInfoModification-eDRX), This type of message can be directly carried in the DCI, which is called Direct indication.
  • the UE detects the corresponding paging scheduling information at different paging moments. Each UE has its own corresponding paging moment, and each paging frame corresponds to one or more paging moments. If the UE does not detect paging scheduling information at the corresponding paging moment, the UE does not perform subsequent paging.
  • the UE receives and demodulates the paging message according to the paging scheduling information. If the paging message includes the S-TMSI or the IMSI to which the UE belongs, the UE performs a subsequent connection establishment process (paging). S-TMSI or IMSI is present in the message, usually for regular call incoming, collectively referred to as UE_ID); if the paging message includes other Modification messages or Indication messages, the UE performs subsequent receiving of the corresponding message process, for example, if it is systemInfoModification Then, the UE performs a subsequent process of receiving a system message.
  • S-TMSI or IMSI is present in the message, usually for regular call incoming, collectively referred to as UE_ID
  • UE_ID if the paging message includes other Modification messages or Indication messages, the UE performs subsequent receiving of the corresponding message process, for example, if it is systemInfoModification Then, the UE performs a subsequent process of receiving
  • sweeping mode paging DCI and paging messages require beam scanning transmission
  • trigger mode The paging group indicator triggers the UE to feed back a better downlink transmit beam, and then the network side only transmits the paging DCI and/or the paging message in the downlink transmit beam direction fed back by the UE
  • the power saving mode power saving mode Saving mode
  • the UE does not receive the paging DCI unless the paging (group) indicates
  • the compression mode reduces the overhead of the UE_ID in the paging message
  • the scanning mode is the basic mechanism of the NR paging mechanism, but scanning The mode introduces more scanning overhead, so it is necessary to consider how to apply the trigger mode, power saving mode, compression mode, etc. in subsequent versions of Rel-15 in a previously compatible manner in Rel-15.
  • An embodiment of the present disclosure provides an information transmission method. As shown in FIG. 1, the method includes:
  • Step 101 The base station sets indication information for indicating that different types of UEs perform operations in the multiplex DCI.
  • Step 102 The base station sends a multiplexed DCI to the UE.
  • the multiplexed DCI is the DCI multiplexed with the DCI of the PDSCH, and is the DCI of the PDSCH when the multiplexed DCI is scrambled by the preset RNTI, and is the paging DCI when the P-RNTI is scrambled, and the preset RNTI is the P. - RNTI other than RNTI.
  • the information transmission method provided by the present disclosure because the multiplexed DCI is provided with indication information, is used to indicate that different types of UEs perform actions to switch the paging mechanism, thereby avoiding large-scale congestion of the traffic channel and excessive invalid uplink access process. Take into account the needs of network deployment and resource scheduling.
  • the base station sets, in the multiplexed DCI, indication information that is used to indicate that the UE of the different type performs the action, including:
  • the base station adds the A bit in the multiplexed DCI and defines the meaning of the A bit to indicate that the UE performs the action.
  • the multiplexed DCI itself includes X bits, and the UE includes the first type UE and the second type UE, and the first type UE For the UE in the 15th version of Rel-15 of the 3rd Generation Partnership Project (3GPP), the second type of UE is the UE in the subsequent version of Rel-15.
  • the base station selects R bits in the multiplexed DCI and defines the meaning of the R bits for instructing the UE to perform an action; where R is less than X.
  • the base station divides the P-RNTI into two categories and defines two types of P-RNTI meanings for indicating that the first type UE and the second type UE perform actions.
  • the base station adds the A bit in the multiplexed DCI and defines the meaning of the A bit, including:
  • the base station defines that when the multiplexed DCI is scrambled by using the preset RNTI, the meaning of the A bit state is to indicate that the first type UE and the second type UE discard the A bit; and when the multiplex DCI is scrambled by the P-RNTI and the A bit status is In the preset state, the meaning of the A bit state is a paging message indicating that the first type UE and the second type UE detect the scan mode transmission; and the multiplexed DCI is scrambled by the P-RNTI and the A bit status is the preset state.
  • the meaning of the A bit is to indicate that the first type of UE discards the multiplexed DCI, and indicates that the second type of UE switches to at least one of the corresponding non-scan mode and the paging indication; wherein the paging indication is a single homing
  • the preset state is one of arbitrarily selected from all the states corresponding to the A bit in advance as a state indicating that the first type UE and the second type UE detect the paging message transmitted by the scan mode.
  • the base station adds the A bit in the multiplexed DCI and defines the meaning of the A bit, including:
  • the base station defines that when the multiplexed DCI is scrambled by using the preset RNTI, the meaning of the A bit state is to indicate that the first type UE and the second type UE discard the A bit; and when the multiplex DCI is scrambled by the P-RNTI, the A bit status is defined.
  • the meaning is that the first type of UE discards the A bit and detects the paging message transmitted by the scan mode, and indicates that the second type of UE switches to at least one of the corresponding non-scan mode and the paging indication; wherein the paging indication is a single homing Call indication or paging indicator group.
  • the base station selects R bits in the multiplexed DCI and defines the meaning of the R bits, including:
  • the base station defines that when the multiplexed DCI is scrambled by the P-RNTI and the R bit state is the preset state, the meaning of the R bit state is a paging message indicating that the first type UE and the second type UE detect the scan mode transmission;
  • the meaning of the R bit is to indicate that the first type of UE discards the multiplexed DCI, and indicates that the second type of UE switches to the corresponding non-scan mode.
  • the paging indication is a single paging indication or a paging indication group
  • the preset state is any one of arbitrarily selected from all the states corresponding to the R bit in advance as the indication of the first type of UE
  • the second type of UE detects the status of the paging message transmitted in the scan mode.
  • the base station selects R bits in the multiplexed DCI and defines the meaning of the R bits, including:
  • the base station defines that when the multiplexed DCI is scrambled by the P-RNTI, the meaning of the R bit state is a paging message indicating that the first type of UE detects the scan mode transmission, and indicates that the second type of UE switches to the corresponding non-scan mode and the paging indicator. At least one of them; wherein the paging indication is a single paging indicator or a paging indication group. .
  • the base station divides the P-RNTI into two categories and defines two types of P-RNTI meanings, including:
  • the base station defines that when the multiplexed DCI is scrambled by the first type of P-RNTI, the meaning of the first type of P-RNTI is a paging message indicating that the first type of UE and the second type of UE detect the scan mode transmission;
  • the second type of P-RNTI is used for scrambling, the second type of P-RNTI is used to indicate that the first type of UE discards the multiplexed DCI or the second type of P-RNTI, and then discards the multiplexed DCI, indicating the second type of UE.
  • multiplexed DCI mentioned in the embodiments of the present disclosure refers to the DCI of the multiplexed PSCDH.
  • the information transmission method provided by the embodiment of the present disclosure because the multiplexed DCI is provided with indication information, is used to indicate that different types of UEs perform actions to switch the paging mechanism, thereby avoiding large-scale congestion of the traffic channel and excessive invalid uplink access.
  • the process takes into account the needs of network deployment and resource scheduling.
  • the embodiment of the present disclosure further provides an information transmission method, as shown in FIG. 2, the method includes:
  • Step 201 The base station sets indication information for indicating that different types of UEs perform operations in the multiplex DCI.
  • Step 202 The base station sends a multiplexed DCI to the UE.
  • the multiplexed DCI is the directly indicated DCI multiplexed DCI, and when the preset bit in the multiplexed DCI indicates direct indication, it is a direct indication DCI, indicating that the paging is the paging DCI.
  • the base station sets, in the multiplexed DCI, indication information that is used to indicate that the UE of the different type performs the action, including:
  • the base station adds B bits in the multiplexed DCI and defines the meaning of the B bits for instructing the UE to perform an action; wherein the multiplexed DCI itself includes Y bits; the UE includes the first type of UE and the second type of UE, and the first type of UE.
  • the UE in the Rel-15 of 3GPP, the UE of the second type is the UE in the subsequent version of Rel-15.
  • the base station selects S bits in the multiplexed DCI and defines the meaning of the S bits for instructing the UE to perform an action; wherein S is smaller than Y.
  • the base station divides the P-RNTI into two categories and defines two types of P-RNTI meanings for indicating that the first type UE and the second type UE perform actions.
  • the base station adds B bits in the multiplexed DCI and defines the meaning of the B bits, including:
  • the base station defines that when the preset bit of the multiplexed DCI indicates a direct indication, the meaning of the B-bit state is to indicate that the first type of UE and the second type of UE discard B bits; and when the preset bit of the multiplexed DCI indicates paging and When the B bit state is the preset state, the meaning of the B bit state is a paging message indicating that the first type UE and the second type UE detect the scan mode transmission; defining that the preset bit of the multiplexed DCI indicates the paging and the B bit When the state is a state other than the preset state, the meaning of the B bit is to indicate that the first type of UE discards the multiplexed DCI, and indicates that the second type of UE switches to at least one of the corresponding non-scan mode and the paging indicator;
  • the paging indicator is a single paging indicator or a paging indication group, and the preset state is one of arbitrarily selected from all the states corresponding to
  • the base station adds B bits in the multiplexed DCI and defines the meaning of the B bits, including:
  • the base station defines that when the preset bit of the multiplexed DCI indicates a direct indication, the meaning of the B-bit state is to indicate that the first type of UE and the second type of UE discard B bits; and when the preset bit of the multiplexed DCI indicates paging
  • the B-bit state is a paging message indicating that the first type of UE discards the B-bit and detects the scan mode transmission, and indicates that the second type of UE switches to at least one of the corresponding non-scan mode and the paging indication; wherein, the paging Indicated as a single paging indicator or paging indicator group.
  • the base station selects S bits in the multiplexed DCI and defines the meaning of the S bits, including:
  • the base station defines that when the preset bit of the multiplexed DCI indicates the paging and the S bit state is the preset state, the meaning of the S bit state is a paging message indicating that the first type UE and the second type UE detect the scan mode transmission;
  • the preset bit of the multiplexed DCI indicates the paging and the S bit state is a state other than the preset state, the meaning of the S bit is to indicate that the first type of UE discards the multiplexed DCI, and indicates that the second type of UE switches to the corresponding state.
  • At least one of a non-scan mode and a paging indicator wherein the paging indicator is a single paging indicator or a paging indication group, and the preset state is one of arbitrarily selected from all states corresponding to the S bit in advance as an indication
  • the first type of UE and the second type of UE detect the status of the paging message transmitted in the scan mode.
  • the base station selects S bits in the multiplexed DCI and defines the meaning of the S bits, including:
  • the base station defines that when the preset bit of the multiplexed DCI indicates paging, the meaning of the S-bit state is a paging message indicating that the first type of UE detects the scan mode transmission, and indicates that the second type of UE switches to the corresponding non-scan mode and seeks. At least one of the call indications; wherein the paging indication is a single paging indicator or a paging indication group.
  • the base station divides the P-RNTI into two categories and defines two types of P-RNTI meanings, including:
  • the base station defines that when the multiplexed DCI is scrambled by the first type of P-RNTI, the meaning of the first type of P-RNTI is a paging message indicating that the first type of UE and the second type of UE detect the scan mode transmission;
  • the second type of P-RNTI is used for scrambling, the second type of P-RNTI is used to indicate that the first type of UE discards the multiplexed DCI or the second type of P-RNTI, and then discards the multiplexed DCI, indicating the second type of UE.
  • multiplexed DCI mentioned in the embodiments of the present disclosure refers to the directly indicated DCI of the multiplex.
  • the information transmission method provided by the embodiment of the present disclosure because the multiplexed DCI is provided with indication information, is used to indicate that different types of UEs perform actions to switch the paging mechanism, thereby avoiding large-scale congestion of the traffic channel and excessive invalid uplink access.
  • the process takes into account the needs of network deployment and resource scheduling.
  • An embodiment of the present disclosure further provides an information transmission method. As shown in FIG. 3, the method includes:
  • Step 301 The base station calculates a paging moment of the UE.
  • Step 302 The base station determines the location of the paging DCI on the obtained paging control resource set or the paging search space location corresponding to the paging moment.
  • Step 303 The base station sends a paging DCI to the UE at the determined location.
  • the base station calculates a paging moment of the UE, including:
  • the base station calculates a paging moment of the UE by using UE_IDmod(P); when the DRX period includes N paging frames, and each paging When the frame includes P time-domain direction paging moments, the base station calculates the paging moment of the UE by using floor(UE_ID/N) mod(P); wherein, UE_ID is the temporary mobile station identification number in the paging message (S-Temporary Mobile) Station Identifier (S-TMSI) or IMSI, the number of paging control resource sets or paging search spaces in the frequency domain direction corresponding to the paging time in the time domain direction is not greater than the number of BWPs.
  • S-Temporary Mobile S-Temporary Mobile Station Identifier
  • IMSI the number of paging control resource sets or paging search spaces in the frequency domain direction corresponding to the paging time in the time domain direction is not greater than the number of BWPs.
  • the schematic diagram of the DRX cycle including P time zones in the time domain direction may be as shown in FIG. 4 .
  • the base station sends the paging DCI to the UE at the determined location, including:
  • the base station transmits the paging DCI corresponding to all the paging UEs in the paging direction resource set or the paging search space position in the frequency domain direction corresponding to the paging time in the time domain direction.
  • the base station transmits a paging message on the resource location of the paging message according to the paging DCI.
  • the base station sends the paging message on the resource location of the paging message according to the paging DCI, including:
  • the base station When the paging DCI includes a time domain location indication field of the paging message, the base station sends a paging message on the time domain resource corresponding to the time domain location indication domain; when the paging DCI includes the BWP index of the paging message, the base station Sending a paging message on the BWP resource corresponding to the BWP index; when the paging DCI includes the time domain location indication field and the BWP index of the paging message, the base station indicates the time domain resource corresponding to the domain and the BWP index in the time domain location indication domain. A paging message is detected on the BWP resource.
  • the base station calculates a paging moment of the UE, including:
  • the base station calculates a paging moment of the UE by using a first preset calculation manner; when the DRX cycle includes N paging frames, and each When the paging frame includes the P time-domain direction paging moments and the Q frequency-domain direction paging moments, the base station calculates the paging moment of the UE by using the second preset manner; wherein, the first preset calculation manner is UE_ID mod ( P*Q), UE_ID mod (P) mod (Q) and UE_ID mod (Q) mod (P) any one of the calculation methods; the second preset calculation mode is floor (UE_ID/N) mod (P*Q) Any calculation method of floor (UE_ID/N) mod(P) mod(Q) and floor(UE_ID/N) mod(Q) mod(P); wherein UE_ID is S-TMSI or IMSI in the paging message
  • the DRX cycle includes P time-domain direction paging moments and Q frequency domain direction paging moments as shown in FIG. 5.
  • the base station sends the paging DCI to the UE at the determined location, including:
  • the base station transmits a paging message on the resource location of the paging message according to the paging DCI.
  • the base station sends the paging message on the resource location of the paging message according to the paging DCI, including:
  • the base station When the paging DCI includes a time domain location indication field of the paging message, the base station sends a paging message on the time domain resource corresponding to the time domain location indication domain; when the paging DCI includes the BWP index of the paging message, the base station Sending a paging message on the BWP resource corresponding to the BWP index; when the paging DCI includes the time domain location indication field and the BWP index of the paging message, the base station indicates the time domain resource corresponding to the domain and the BWP index in the time domain location indication domain. A paging message is detected on the BWP resource.
  • the paging control resource set and the paging search space are not allocated on the BWP indicated by the BWP index.
  • the base station configures according to the manner in which the SSB exists.
  • the set of the time-frequency resource configuration is the same as the time-frequency resource configuration of the RMSI set on the initial access BWP; wherein the first resource block index of the SSB is obtained by the UE detection or configured by the base station.
  • the aggregated time-frequency resource configuration is the same as the time-frequency resource configuration of the RMSI set on the initial access BWP; wherein the first resource block index of the set is configured by the base station.
  • the base station when at least one of the paging control resource set, the OSI set, and the RMSI set is configured on the BWP, performs resource mapping on the configured set according to the presence of the SSB, regardless of whether the SSB exists on the BWP.
  • the time-frequency resource configuration is the same as the time-frequency resource configuration of the RMSI set on the initial access BWP; wherein the first resource block index of the SSB is obtained by the UE detection or configured by the base station.
  • the aggregated time-frequency resource configuration is the same as the time-frequency resource configuration of the RMSI set on the initial access BWP; wherein the first resource block index of the set is configured by the base station.
  • the base station can send the paging DCI at different paging moments, thereby realizing the dispersion of paging DCI and avoiding resource congestion in the time-frequency domain.
  • the embodiment of the present disclosure further provides an information transmission method, as shown in FIG. 6, further including:
  • Step 401 The base station performs resource association on the set configured on the BWP according to the number E of actually transmitted SSBs in a configured or preset manner.
  • the configured set includes at least one of a paging control resource set and an OSI set.
  • the base station performs resource association on the set configured on the BWP according to the number E of actually transmitted SSBs in a configured or preset manner, including:
  • the base station adjusts the associated SSB index according to the number E of actually transmitted SSBs in a configured or preset manner to obtain an adjusted associated SSB index i.
  • the value range of j is ⁇ 0, 1, 2...E-1 ⁇ , and offset is an offset.
  • the base station performs resource association on the set configured on the BWP according to the number E of actually transmitted SSBs in a configured or preset manner, including:
  • the base station calculates the first slot index of the set configured on the BWP according to i; wherein i is used for the first one
  • the position of the transmitting SSB is used as the starting position, one-to-one corresponding to the logical index j of the actually transmitted SSB; or, i is the starting position of the first actually transmitted SSB, one-to-one corresponding to the logical index of the actually transmitted SSB
  • i is the first (F-E+1) position for transmitting the SSB as the starting position, one-to-one corresponding to the logical index j of the actually transmitted SSB
  • j has a value range of ⁇ 0, 1, 2 ...E-1 ⁇ .
  • the base station performs resource association on the set configured on the BWP according to the number E of actually transmitted SSBs in a configuration or a preset manner, including:
  • the base station adjusts the associated SSB index according to the number E of actually transmitted SSBs in a configured manner.
  • the search window of the configured set of resources associated with the SSB index is a search window of the RMSI associated with the SSB index, or a search window other than the search window of the RMSI actually associated with the SSB index.
  • the information transmission method provided by the embodiment of the present disclosure reduces the unnecessary reserved resources by establishing an association between the paging control resource set and the SSB.
  • An embodiment of the present disclosure further provides an information transmission method. As shown in FIG. 7, the method includes:
  • Step 501 The UE receives the multiplexed DCI sent by the base station.
  • the multiplexed DCI is provided with indication information for indicating that different types of UEs perform operations, and the multiplexed DCI is a DCI in which the base station multiplexes the DCI of the PDSCH, and is a DCI of the PDSCH when the multiplexed DCI is scrambled by using the preset RNTI.
  • the paging DCI is preset, and the preset RNTI is an RNTI other than the P-RNTI.
  • Step 502 The UE performs an action according to the indication information set in the multiplexing DCI.
  • the UE performs an action according to the indication information that is set in the multiplexing DCI, including:
  • the UE When the base station adds the A bit in the multiplexed DCI and defines the meaning of the A bit, the UE operates according to the A bit; wherein the multiplexed DCI itself includes X bits, and the UE includes the first type UE and the second type UE, the first type
  • the UE is a UE in Rel-15 of 3GPP, and the UE of the second type is a UE in a subsequent version of Rel-15.
  • the base station selects R bits in the multiplexed DCI and defines the meaning of the R bits
  • the UE operates according to the R bits; where R is smaller than X.
  • the UE When the base station divides the P-RNTI into two categories and defines two types of P-RNTI meanings, the UE operates according to the meaning of the first type of P-RNTI and the meaning of the second type of P-RNTI.
  • the UE when the UE is in the first type of UE and is in the Rel-15, or when the UE is in the first type of UE and in the subsequent version of the Rel-15, the UE acts according to the A bit, including:
  • the first type of UE When the first type of UE detects that the multiplexed DCI is scrambled by using the preset RNTI, the first type of UE discards the A bit and detects the corresponding PDSCH according to the X bit; when the first type of UE detects the multiplexed DCI, the P-RNTI is added.
  • the first type of UE When the A bit state is a preset state, the first type of UE detects a paging message transmitted in a scanning mode according to bits other than the paging indication bit field in the X bit or the X bit; when the first type UE detects the multiplexing DCI When the P-RNTI is scrambled and the A bit is in a state other than the preset state, the first type of UE discards the multiplexed DCI; wherein the A bit state is the state corresponding to the A bit, and the preset state is the corresponding bit from the A bit in advance.
  • any one of any of the states is selected as a state indicating that the first type UE and the second type UE detect a paging message transmitted by the scan mode, and the paging indication bit field includes a hybrid automatic repeat reQuest (HARQ) At least one of a process number bit field and a downlink allocation index bit field.
  • HARQ hybrid automatic repeat reQuest
  • the UE When the UE is a second type of UE and in a subsequent version of Rel-15, the UE performs actions according to the A bit, including:
  • the second type of UE When the second type of UE detects that the multiplexed DCI is scrambled by using the preset RNTI, the second type of UE discards the A bit and detects the corresponding PDSCH according to the X bit; when the second type of UE detects the multiplexed DCI, the P-RNTI is added.
  • the second type UE When the A bit state is a preset state, the second type UE detects a paging message transmitted in a scanning mode according to bits other than the paging indication bit field in the X bit or the X bit; when the second type UE detects the multiplexing DCI
  • the second type UE switches to the corresponding non-scan mode and seeks according to bits other than the paging indication bit field in the X bit or the X bit. At least one of the call indications; wherein the paging indication is a single paging indicator or a paging indication group.
  • the UE when the UE is in the first type of UE and is in the Rel-15, or when the UE is in the first type of UE and in the subsequent version of the Rel-15, the UE acts according to the A bit, including:
  • the first type of UE When the first type of UE detects that the multiplexed DCI is scrambled by using the preset RNTI, the first type of UE discards the A bit and detects the corresponding PDSCH according to the X bit; when the first type of UE detects the multiplexed DCI, the P-RNTI is added.
  • the first type of UE discards the A bit, and detects the paging message transmitted in the scan mode according to the bits other than the paging indication bit field in the X bit or the X bit; wherein the paging indication is a single paging indication or paging
  • the paging indicator bit field includes at least one of a HARQ process number bit field and a downlink allocation index bit field.
  • the UE When the UE is a second type of UE and in a subsequent version of Rel-15, the UE performs actions according to the A bit, including:
  • the second type of UE When the second type of UE detects that the multiplexed DCI is scrambled by using the preset RNTI, the second type of UE discards the A bit and detects the corresponding PDSCH according to the X bit; when the second type of UE detects the multiplexed DCI, the P-RNTI is added. At the time of the interference, the second type of UE switches to at least one of the corresponding non-scan mode and the paging indicator according to bits other than the paging indicator bit field in the X bit or the X bit; wherein the paging indication is a single paging indicator or Paging indicator group.
  • the UE when the UE is in the first type of UE and is in the Rel-15, or when the UE is in the first type of UE and in a subsequent version of the Rel-15, the UE acts according to the R bit, including:
  • the first type of UE detects the corresponding PDSCH according to the X bits; when the first type of UE detects that the multiplexed DCI is scrambled by the P-RNTI and the R bit status
  • the first type of UE detects a paging message transmitted in a scanning mode according to bits other than the paging indication bit field in the (XR) bit or the (XR) bit; when the first type UE detects the multiplexing DCI
  • the P-RNTI is scrambled and the R bit is in a state other than the preset state
  • the first type of UE discards the multiplexed DCI; wherein the R bit state is a state corresponding to the R bit, and the preset state is a pre-corresponding from the R bit.
  • An arbitrarily selected one of all states is used as a state indicating that the first type UE and the second type UE detect a paging message transmitted by the scan mode, and the paging indication bit field includes at least a HARQ process number bit field and a downlink allocation index bit field.
  • the UE When the UE is a second type of UE and in a subsequent version of Rel-15, the UE performs actions according to the R bit, including:
  • the second type of UE detects the corresponding PDSCH according to the X bits; when the second type of UE detects that the multiplexed DCI is scrambled by the P-RNTI and the R bit status
  • the second type of UE detects a paging message transmitted in a scanning mode according to bits other than the paging indication bit field in the (XR) bit or the (XR) bit; when the second type UE detects the multiplexing DCI
  • the P-RNTI is scrambled and the R bit state is other than the preset state, the second type of UE switches to the corresponding non-scan according to bits other than the paging indicator bit field in the (XR) bit or (XR) bit.
  • the UE when the UE is in the first type of UE and is in the Rel-15, or when the UE is in the first type of UE and in a subsequent version of the Rel-15, the UE acts according to the R bit, including:
  • the first type of UE detects the corresponding PDSCH according to the X bits; when the first type of UE detects that the multiplexed DCI is scrambled by the P-RNTI, the first The class UE detects a paging message transmitted in a scanning mode according to bits other than the paging indication bit field in the (XR) bit or the (XR) bit; wherein the R bit state is a state corresponding to the R bit, and the preset state is pre-requiring from R Any one of all the states corresponding to the bit is used as a state indicating that the first type UE and the second type UE detect the paging message transmitted by the scan mode, and the paging indication bit field includes a HARQ process number bit field and a downlink allocation index bit. At least one of the domains.
  • the UE When the UE is a second type of UE and in a subsequent version of Rel-15, the UE performs actions according to the R bit, including:
  • the second type of UE detects the corresponding PDSCH according to the X bits; when the second type of UE detects that the multiplexed DCI is scrambled by the P-RNTI, the second type The class UE switches to at least one of a corresponding non-scan mode and a paging indicator according to a bit other than the paging indicator bit field in the (XR) bit or the (XR) bit; wherein the paging indicator is a single paging indicator or a seek Call the group.
  • the UE when the UE is in the first type of UE and in Rel-15, or when the UE is in the first type of UE and in a subsequent version of Rel-15, the UE according to the meaning of the first type of P-RNTI
  • the meaning of the second type of P-RNTI acts, including:
  • the first type of UE detects the corresponding PDSCH according to the X bits; when the first type of UE detects that the multiplexed DCI is scrambled by the first type of P-RNTI a first type of UE detects a paging message transmitted in a scanning mode according to a bit other than a paging indication bit field in an X bit or an X bit; when the first type UE detects that the multiplexed DCI is scrambled by the second type P-RNTI
  • the first type of UE discards the multiplexed DCI, or uses the second type of P-RNTI to descramble and discard the multiplexed DCI.
  • the UE When the UE is a second type of UE and is in a subsequent version of Rel-15, the UE performs actions according to the meaning of the first type of P-RNTI and the meaning of the second type of P-RNTI, including:
  • the second type of UE detects the corresponding PDSCH according to the X bits; when the second type of UE detects that the multiplexed DCI is scrambled by the first type of P-RNTI a second type of UE detects a paging message transmitted in a scan mode according to a bit other than the paging indication bit field in the X bit or the X bit; when the second type UE detects that the multiplexed DCI is scrambled by the second type P-RNTI And the second type of UE switches to at least one of a corresponding non-scan mode and a paging indicator according to bits other than the paging indication bit field in the X bit or the X bit; wherein the paging indication is a single paging indication or paging Indicate the group.
  • multiplexed DCI mentioned in the embodiments of the present disclosure refers to the DCI of the multiplexed PSCDH.
  • the information transmission method provided by the embodiment of the present disclosure because the multiplexed DCI is provided with indication information, is used to indicate that different types of UEs perform actions to switch the paging mechanism, thereby avoiding large-scale congestion of the traffic channel and excessive invalid uplink access.
  • the process takes into account the needs of network deployment and resource scheduling.
  • the embodiment of the present disclosure further provides an information transmission method. As shown in FIG. 8, the method includes:
  • Step 601 The UE receives the multiplexed DCI sent by the base station.
  • the multiplexed DCI is a DCI multiplexed DCI directly indicated by the base station, and is a direct indication DCI when the preset bit indicates a direct indication, and indicates a paging DCI when paging.
  • Step 602 The UE performs an action according to the indication information set in the multiplexing DCI.
  • the UE performs an action according to the indication information that is set in the multiplexing DCI, including:
  • the UE When the base station adds the B bit in the multiplexed DCI and defines the meaning of the B bit, the UE operates according to the B bit; wherein the multiplexed DCI itself includes the Y bit, and the UE includes the first type UE and the second type UE, the first type
  • the UE is a UE in Rel-15 of 3GPP, and the UE of the second type is a UE in a subsequent version of Rel-15.
  • the base station selects S bits in the multiplex DCI and defines the meaning of the S bits
  • the UE operates according to the S bits; where S is smaller than Y.
  • the UE When the base station divides the P-RNTI into two categories and defines two types of P-RNTI meanings, the UE operates according to the meaning of the first type of P-RNTI and the meaning of the second type of P-RNTI.
  • the UE when the UE is in the first type of UE and is in the Rel-15, or when the UE is in the first type of UE and in the subsequent version of the Rel-15, the UE performs the action according to the B bit, including:
  • the first type of UE When the first type of UE detects that the preset bit of the multiplexed DCI indicates direct indication, the first type of UE discards the B bit, and detects the corresponding PDSCH according to the Y bit; when the first type of UE detects the preset of the multiplexed DCI When the bit indicates the paging and the B bit state is the preset state, the first type of UE detects the paging message transmitted in the scanning mode according to the bit other than the paging indication bit field in the Y bit or the Y bit; when the first type UE detects The first type of UE discards the multiplexed DCI when the preset bit of the multiplexed DCI indicates the paging and the B bit is other than the preset state; wherein the B bit state is the state corresponding to the B bit, the preset state a paging indicator bit field including a HARQ process number bit field and a state of arbitrarily selected from all the states corresponding to the B bit in advance as
  • the UE When the UE is a second type of UE and in a subsequent version of Rel-15, the UE performs actions according to the B bit, including:
  • the second type of UE When the second type of UE detects that the preset bit of the multiplexed DCI indicates a direct indication, the second type of UE discards the B bit and detects the corresponding PDSCH according to the Y bit; when the second type of UE detects the preset of the multiplexed DCI When the bit indicates the paging and the B bit state is the preset state, the second type of UE detects the paging message transmitted in the scanning mode according to the bit other than the paging indication bit field in the Y bit or the Y bit; when the second type UE detects When the preset bit of the multiplexed DCI indicates paging and the B bit state is other than the preset state, the second type of UE considers B as a bit other than the paging indicator bit field in the Y bit or the Y bit.
  • the paging mechanism and the B bit corresponding to the bit are switched to at least one of a corresponding non-scan mode and a paging indicator; where
  • the UE when the UE is in the first type of UE and is in the Rel-15, or when the UE is in the first type of UE and in the subsequent version of the Rel-15, the UE performs the action according to the B bit, including:
  • the first type of UE When the first type of UE detects that the preset bit of the multiplexed DCI indicates direct indication, the first type of UE discards the B bit, and detects the corresponding PDSCH according to the Y bit; when the first type of UE detects the preset of the multiplexed DCI When the bit indicates paging, the first type of UE discards the B bit, and detects the paging message transmitted in the scan mode according to the bit other than the paging indication bit field in the Y bit or the Y bit; wherein the paging indication is a single paging
  • the paging indication bit field includes at least one of a HARQ process number bit field and a downlink allocation index bit field.
  • the UE When the UE is a second type of UE and in a subsequent version of Rel-15, the UE performs actions according to the B bit, including:
  • the second type of UE When the second type of UE detects that the preset bit of the multiplexed DCI indicates a direct indication, the second type of UE discards the B bit and detects the corresponding PDSCH according to the Y bit; when the second type of UE detects the preset of the multiplexed DCI When the bit indicates paging, the second type of UE switches to at least one of the corresponding non-scan mode paging indications according to bits other than the paging indication bit field in the Y bit or the Y bit; wherein the paging indication is a single seek Call indication or paging indicator group.
  • the UE when the UE is in the first type of UE and is in the Rel-15, or when the UE is in the first type of UE and in the subsequent version of the Rel-15, the UE performs the action according to the S bit, including:
  • the first type of UE detects the corresponding PDSCH according to the Y bit; when the first type of UE detects that the preset bit of the multiplexed DCI represents the paging And the S-bit state is a preset state, the first type of UE detects a paging message transmitted in a scanning mode according to a bit other than the paging indication bit field in the (YS) bit or the (YS) bit; when the first type UE detects When the preset bit of the multiplexed DCI indicates the paging and the S bit is in a state other than the preset state, the first type of UE discards the multiplexed DCI; wherein the S bit state is a state corresponding to the S bit, and the preset state is Any one of arbitrarily selected from all the states corresponding to the S bit as a state indicating that the first type UE and the second type UE detect
  • the UE When the UE is a second type of UE and in a subsequent version of Rel-15, the UE performs actions according to the S bit, including:
  • the second type of UE detects the corresponding PDSCH according to the Y bit; when the second type of UE detects that the preset bit of the multiplexed DCI represents the paging And when the S bit state is a preset state, the second type UE detects a paging message transmitted in a scan mode according to a bit other than the paging indication bit field in the (YS) bit or the (YS) bit; when the second type UE detects When the preset bit of the multiplexed DCI indicates paging and the S bit state is other than the preset state, the second type of UE according to the (YS) bit or (YS) bit except the paging indication bit field Switching to at least one of a corresponding non-scan mode and a paging indicator; wherein the paging indication is a single paging indicator or a paging indication group.
  • the UE when the UE is in the first type of UE and is in the Rel-15, or when the UE is in the first type of UE and in the subsequent version of the Rel-15, the UE performs the action according to the S bit, including:
  • the first type of UE detects the corresponding PDSCH according to the Y bit; when the first type of UE detects that the preset bit of the multiplexed DCI represents the paging
  • the first type of UE detects a paging message transmitted in a scanning mode according to a bit other than the paging indication bit field in the (YS) bit or the (YS) bit; wherein the S bit state is a state corresponding to the S bit, the preset state
  • the paging indicator bit field includes a HARQ process number bit field and a state of arbitrarily selected from all the states corresponding to the S bit in advance as a state indicating that the first type UE and the second type UE detect the scan mode transmission. At least one of the downlink allocation index bit fields.
  • the UE When the UE is a second type of UE and in a subsequent version of Rel-15, the UE performs actions according to the S bit, including:
  • the second type of UE detects the corresponding PDSCH according to the Y bit; when the second type of UE detects that the preset bit of the multiplexed DCI represents the paging And the second type of UE switches to at least one of a corresponding non-scan mode and a paging indicator according to a bit other than the paging indication bit field in the (YS) bit or the (YS) bit; wherein the paging indication is a single homing Call indication or paging indicator group.
  • the UE when the UE is in the first type of UE and in Rel-15, or when the UE is in the first type of UE and in a subsequent version of Rel-15, the UE according to the meaning of the first type of P-RNTI
  • the meaning of the second type of P-RNTI acts, including:
  • the first type of UE detects the corresponding PDSCH according to the Y bit; when the first type of UE detects that the multiplexed DCI is scrambled by the first type of P-RNTI a first type of UE detects a paging message transmitted in a scanning mode according to a bit other than a paging indication bit field in the Y bit or the Y bit; when the first type UE detects that the multiplexed DCI is scrambled by the second type P-RNTI
  • the first type of UE discards the multiplexed DCI, or uses the second type of P-RNTI to descramble and discard the multiplexed DCI.
  • the UE When the UE is a second type of UE and is in a subsequent version of Rel-15, the UE performs actions according to the meaning of the first type of P-RNTI and the meaning of the second type of P-RNTI, including:
  • the second type of UE detects the corresponding PDSCH according to the Y bit; when the second type of UE detects that the multiplexed DCI is scrambled by the first type of P-RNTI
  • the second type of UE detects a paging message transmitted in a scan mode according to a bit other than the paging indication bit field in the Y bit or the Y bit; when the second type UE detects that the multiplexed DCI is scrambled by the second type P-RNTI
  • the second type of UE switches to at least one of a corresponding non-scan mode and a paging indicator according to a bit other than the paging indication bit field in the Y bit or the Y bit; wherein the paging indication is a single paging indication or paging Indicate the group.
  • multiplexed DCI mentioned in the embodiments of the present disclosure refers to the directly indicated DCI of the multiplex.
  • the information transmission method provided by the embodiment of the present disclosure because the multiplexed DCI is provided with indication information, is used to indicate that different types of UEs perform actions to switch the paging mechanism, thereby avoiding large-scale congestion of the traffic channel and excessive invalid uplink access.
  • the process takes into account the needs of network deployment and resource scheduling.
  • An embodiment of the present disclosure further provides an information transmission method. As shown in FIG. 9, the method includes:
  • Step 701 The UE calculates its own paging moment.
  • Step 702 The UE determines the location of the paging DCI on the obtained paging control resource set or the paging search space location corresponding to the obtained paging moment.
  • Step 703 The UE receives the paging DCI sent by the base station at the determined location.
  • the UE calculates its own paging moment by using UE_ID mod(P); when the DRX cycle includes N paging frames, and each paging frame includes P
  • the UE calculates its own paging time through the floor (UE_ID/N) mod(P); wherein, the UE_ID is the S-TMSI or the IMSI in the paging message, and the paging time in the time domain direction corresponds to The number of paging control resource sets or paging search spaces in the frequency domain direction is not greater than the number of BWPs.
  • the UE receives the paging DCI sent by the base station at the determined location, including:
  • the UE detects the paging DCI corresponding to the paging moment in the time domain direction in each paging control resource set or paging search space location in the frequency domain direction corresponding to the paging time in the time domain direction.
  • the UE detects the paging message on the resource location of the paging message according to the paging DCI.
  • the UE detects the paging message on the resource location of the paging message according to the paging DCI, including:
  • the UE detects the paging message on the time domain resource corresponding to the time domain location indication domain; when the paging DCI includes the BWP index of the paging message, the UE The paging message is detected on the BWP resource corresponding to the BWP index; when the paging DCI includes the time domain location indication field and the BWP index of the paging message, the UE corresponds to the time domain resource corresponding to the BWP index in the time domain location indication domain. A paging message is detected on the BWP resource.
  • the UE calculates its own paging moment, including:
  • the UE calculates its own paging moment by using a first preset calculation manner; when the DRX cycle includes N paging frames, and each When the paging frame includes P time-domain direction paging moments and Q frequency domain direction paging moments, the UE calculates its own paging moment by using the second preset manner; wherein, the first preset calculation manner is UE_ID mod ( P*Q), UE_ID mod (P) mod (Q) and UE_ID mod (Q) mod (P) any one of the calculation methods; the second preset calculation mode is floor (UE_ID/N) mod (P*Q) Any calculation method of floor (UE_ID/N) mod(P) mod(Q) and floor(UE_ID/N) mod(Q) mod(P); wherein UE_ID is S-TMSI or IMSI in the paging message
  • the Q frequency domain direction paging moments correspond to Q paging control resource
  • the UE receives the paging DCI sent by the base station at the determined location, including:
  • the paging DCI corresponding to the paging time in the frequency domain direction corresponding to the paging time in the time domain direction is detected by the UE in the paging control resource set of the paging time in the frequency domain direction corresponding to the paging time in the time domain direction.
  • the UE detects the paging message on the resource location of the paging message according to the paging DCI.
  • the UE detects the paging message on the resource location of the paging message according to the paging DCI, including:
  • the UE detects the paging message on the time domain resource corresponding to the time domain location indication domain; when the paging DCI includes the BWP index of the paging message, the UE The paging message is detected on the BWP resource corresponding to the BWP index; when the paging DCI includes the time domain location indication field and the BWP index of the paging message, the UE corresponds to the time domain resource corresponding to the BWP index in the time domain location indication domain. A paging message is detected on the BWP resource.
  • the paging control resource set and the paging search space are not allocated on the BWP indicated by the BWP index.
  • the UE when there is no SSB on the BWP and at least one of the paging control resource set, the OSI set, and the RMSI set is configured, the UE performs resource mapping on the configured set according to the existing SSB, and the set time-frequency resource
  • the configuration and the time-frequency resource configuration of the RMSI set on the initial access BWP are the same; wherein the first resource block index of the SSB is obtained by the UE detection or configured by the base station.
  • the aggregated time-frequency resource configuration is the same as the time-frequency resource configuration of the RMSI set on the initial access BWP; wherein the first resource block index of the set is configured by the base station.
  • the UE when at least one of the paging control resource set, the OSI set, and the RMSI set is configured on the BWP, the UE performs resource mapping on the configured set according to the presence of the SSB, regardless of whether the SSB exists on the BWP.
  • the time-frequency resource configuration is the same as the time-frequency resource configuration of the RMSI set on the initial access BWP; wherein the first resource block index of the SSB is obtained by the UE detection or configured by the base station.
  • the aggregated time-frequency resource configuration is the same as the time-frequency resource configuration of the RMSI set on the initial access BWP; wherein the first resource block index of the set is configured by the base station.
  • the base station can send the paging DCI at different paging moments, thereby realizing the dispersion of paging DCI and avoiding resource congestion in the time-frequency domain.
  • An embodiment of the present disclosure further provides an information transmission method, as shown in FIG. 10, the method includes:
  • Step 801 The UE performs resource association on the set configured on the BWP according to the number E of actually transmitted SSBs in a configured or preset manner.
  • the configured set includes at least one of a paging control resource set and an OSI set.
  • the UE performs resource association on the set configured on the BWP according to the number E of actually transmitted SSBs in a configured or preset manner, including:
  • the UE adjusts the associated SSB index according to the number E of actually transmitted SSBs in a configured or preset manner to obtain an adjusted associated SSB index i.
  • the value range of j is ⁇ 0, 1, 2...E-1 ⁇ , and offset is an offset.
  • the UE performs resource association on the set configured on the BWP according to the number E of actually transmitted SSBs in a configured or preset manner, including:
  • the UE calculates the first slot index of the set configured on the BWP according to i; wherein i is used for the first one
  • the position of the transmitting SSB is used as the starting position, one-to-one corresponding to the logical index j of the actually transmitted SSB; or, i is the starting position of the first actually transmitted SSB, one-to-one corresponding to the logical index of the actually transmitted SSB
  • i is the first (F-E+1) position for transmitting the SSB as the starting position, one-to-one corresponding to the logical index j of the actually transmitted SSB
  • j has a value range of ⁇ 0, 1, 2 ...E-1 ⁇ .
  • the UE performs resource association on the set configured on the BWP according to the number E of actually transmitted SSBs in a configured or preset manner, including:
  • the UE adjusts the associated SSB index according to the number E of actually transmitted SSBs in a configured manner.
  • the search window of the configured set of resources associated with the SSB index is a search window of the RMSI associated with the SSB index, or a search window other than the search window of the RMSI actually associated with the SSB index.
  • the information transmission method provided by the embodiment of the present disclosure reduces the unnecessary reserved resources by establishing an association between the paging control resource set and the SSB.
  • the base station 9 includes:
  • the first processing module 91 is configured to set indication information used to indicate that different types of UEs perform actions in the multiplexed DCI.
  • the first sending module 92 is configured to send the multiplexed DCI to the UE.
  • the multiplexed DCI is the DCI multiplexed with the DCI of the PDSCH, and is the DCI of the PDSCH when the multiplexed DCI is scrambled by the preset RNTI, and is the paging DCI when the P-RNTI is scrambled, and the preset RNTI is the P. - RNTI other than RNTI.
  • the first processing module 91 is specifically configured to:
  • the R bit is selected in the multiplexed DCI and defines the meaning of the R bit for instructing the UE to perform an action; wherein R is less than X.
  • the P-RNTIs are divided into two categories and two types of P-RNTI meanings are defined for indicating that the first type UE and the second type UE perform actions.
  • the first processing module 91 is further configured to:
  • the meaning of the A bit state is to indicate that the first type UE and the second type UE discard the A bit; and when the multiplex DCI is scrambled by the P-RNTI and the A bit status is pre
  • the meaning of the A bit state is a paging message indicating that the first type UE and the second type UE detect the scan mode transmission; and when the multiplexed DCI is scrambled by the P-RNTI and the A bit status is other than the preset state,
  • the meaning of the A bit is to indicate that the first type of UE discards the multiplexed DCI, and indicates that the second type of UE switches to at least one of the corresponding non-scan mode and the paging indication; wherein the paging indication is a single paging The indication or paging indication group, the preset state is one of arbitrarily selected from all the states corresponding to the A bit
  • the first processing module 91 is further configured to:
  • the meaning of the A bit state is to indicate that the first type UE and the second type UE discard the A bit; and when the multiplex DCI is scrambled by the P-RNTI, the A bit status is defined.
  • the meaning is that the first type of UE discards the A bit and detects the paging message transmitted by the scan mode, and indicates that the second type of UE switches to at least one of the corresponding non-scan mode and the paging indication; wherein the paging indication is a single paging Indicate or page to indicate the group.
  • the first processing module 91 is further configured to:
  • the meaning of the R bit state is a paging message indicating that the first type UE and the second type UE detect the scan mode transmission;
  • the meaning of the R bit is to indicate that the first type of UE discards the multiplexed DCI, and indicates that the second type of UE switches to the corresponding non-scan mode and At least one of the paging indications;
  • the paging indication is a single paging indication or a paging indication group
  • the preset state is one of arbitrarily selected from all the states corresponding to the R bits in advance as the indication of the first type of UE and The second type of UE detects the status of the paging message transmitted in the scan mode.
  • the first processing module 91 is further configured to:
  • the meaning of the R bit state is a paging message indicating that the first type of UE detects the scan mode transmission, and indicates that the second type of UE switches to the corresponding non-scan mode and the paging indicator. At least one; wherein the paging indicator is a single paging indicator or a paging indication group.
  • the first processing module 91 is further configured to:
  • the meaning of the first type of P-RNTI is a paging message indicating that the first type of UE and the second type of UE detect the scan mode transmission;
  • the meaning of the second type of P-RNTI is to indicate that the first type of UE discards the multiplexed DCI or the second type of P-RNTI, and then discards the multiplexed DCI, indicating the second type of UE handover.
  • multiplexed DCI mentioned in the embodiments of the present disclosure refers to the DCI of the multiplexed PSCDH.
  • the base station provided by the embodiment of the present disclosure because the multiplexed DCI is provided with indication information, is used to indicate that different types of UEs perform actions to switch the paging mechanism, thereby avoiding large-scale congestion of the traffic channel and excessive invalid uplink access process. Take into account the needs of network deployment and resource scheduling.
  • the first processing module 91 and the first sending module 92 can be configured by a central processing unit (CPU), a microprocessor (Micro Processor Unit (MPU), a digital signal processor (located in the base station 9). Digital Signal Processor (DSP) or Field Programmable Gate Array (FPGA) implementation.
  • CPU central processing unit
  • MPU Micro Processor Unit
  • DSP Digital Signal Processor
  • FPGA Field Programmable Gate Array
  • the base station 10 includes:
  • the second processing module 1001 is configured to set, in the multiplexed DCI, indication information used to indicate that different types of UEs perform operations.
  • the second sending module 1002 is configured to send the multiplexed DCI to the UE.
  • the multiplexed DCI is the directly indicated DCI multiplexed DCI, and when the preset bit in the multiplexed DCI indicates the direct indication, the DCI is directly indicated, indicating that the paging is the paging DCI.
  • the second processing module 1001 is specifically configured to:
  • the multiplexed DCI itself includes Y bits; the UE includes the first type of UE and the second type of UE, and the first type of UE is UE in Rel-15 of 3GPP, UE of the second type is UE in a subsequent version of Rel-15.
  • the S bit is selected in the multiplexed DCI and the meaning of the S bit is defined for instructing the UE to perform an action; wherein S is smaller than Y.
  • the P-RNTIs are divided into two categories and two types of P-RNTI meanings are defined for indicating that the first type UE and the second type UE perform actions.
  • the second processing module 1001 is further specifically configured to:
  • the meaning of the B-bit state is to indicate that the first type of UE and the second type of UE discard B bits; defining that the preset bit of the multiplexed DCI indicates paging and B
  • the meaning of the B bit state is a paging message indicating that the first type UE and the second type UE detect the scan mode transmission; and the preset bit indicating the multiplexing DCI indicates the paging and the B bit state.
  • the meaning of the B bit is to indicate that the first type of UE discards the multiplexed DCI, and indicates that the second type of UE switches to at least one of the corresponding non-scan mode and the paging indicator;
  • the call indication is a single paging indicator or a paging indication group, and the preset state is one of arbitrarily selected from all the states corresponding to the B bits in advance as the paging indicating that the first type UE and the second type UE detect the scan mode transmission.
  • the status of the message is to indicate that the first type of UE discards the multiplexed DCI, and indicates that the second type of UE switches to at least one of the corresponding non-scan mode and the paging indicator;
  • the call indication is a single paging indicator or a paging indication group
  • the preset state is one of arbitrarily selected from all the states corresponding to the B bits in advance as the paging indicating that the first type UE and the second type UE detect the scan mode transmission
  • the second processing module 1001 is further specifically configured to:
  • the meaning of the B-bit state is to indicate that the first type of UE and the second type of UE discard B bits; and when the preset bit of the multiplexed DCI indicates paging,
  • the B-bit status is a paging message indicating that the first type of UE discards the B-bit and detects the scan mode transmission, and indicates that the second type of UE switches to at least one of the corresponding non-scan mode and the paging indication; wherein, the paging indication Indicates a group for a single page indication or page.
  • the second processing module 1001 is further specifically configured to:
  • the meaning of the S bit state is a paging message indicating that the first type UE and the second type UE detect the scan mode transmission;
  • the meaning of the S bit is to indicate that the first type of UE discards the multiplexed DCI, and indicates that the second type of UE switches to the corresponding one.
  • At least one of a non-scan mode and a paging indicator wherein the paging indicator is a single paging indicator or a paging indication group, and the preset state is one of arbitrarily selected from all states corresponding to the S bit in advance as an indication.
  • a class of UEs and a second type of UE detect the status of a paging message transmitted in a scan mode.
  • the second processing module 1001 is further specifically configured to:
  • the meaning of the S-bit state is a paging message indicating that the first type of UE detects the scan mode transmission, and indicates that the second type of UE switches to the corresponding non-scan mode and paging. At least one of the indications; wherein the paging indication is a single paging indicator or a paging indication group.
  • the second processing module 1001 is further specifically configured to:
  • the meaning of the first type of P-RNTI is a paging message indicating that the first type of UE and the second type of UE detect the scan mode transmission;
  • the meaning of the second type of P-RNTI is to indicate that the first type of UE discards the multiplexed DCI or the second type of P-RNTI, and then discards the multiplexed DCI, indicating the second type of UE handover.
  • multiplexed DCI mentioned in the embodiments of the present disclosure refers to the directly indicated DCI of the multiplex.
  • the base station provided by the embodiment of the present disclosure because the multiplexed DCI is provided with indication information, is used to indicate that different types of UEs perform actions to switch the paging mechanism, thereby avoiding large-scale congestion of the traffic channel and excessive invalid uplink access process. Take into account the needs of network deployment and resource scheduling.
  • the second processing module 1001 and the second sending module 1002 can be implemented by a CPU, an MPU, a DSP, an FPGA, or the like located in the base station 10.
  • the embodiment of the present disclosure further provides a base station.
  • the base station 11 includes:
  • the first calculating module 1101 is configured to calculate a paging moment of the UE.
  • the third processing module 1102 is configured to determine a location of the paging DCI on the paging control resource set or the paging search space location corresponding to the obtained paging moment.
  • the third sending module 1103 is configured to send a paging DCI to the UE at the determined location.
  • the first calculating module 1101 is specifically configured to:
  • the paging moment of the UE is calculated by UE_IDmod(P); when the DRX cycle includes N paging frames, and each paging frame includes P time domain direction pagings At the moment, the paging moment of the UE is calculated by floor(UE_ID/N) mod(P); wherein, the UE_ID is the S-TMSI or the IMSI in the paging message, and the paging in the frequency domain direction corresponding to the paging time in the time domain direction
  • the number of control resource sets or paging search spaces is not greater than the number of BWPs.
  • the third sending module 1103 is specifically configured to:
  • the third sending module 1103 is further specifically configured to:
  • the paging message is sent on the time domain resource corresponding to the time domain location indication domain; when the paging DCI includes the BWP index of the paging message, the BWP index Sending a paging message on the corresponding BWP resource; when the paging DCI includes the time domain location indication field and the BWP index of the paging message, detecting the time domain resource corresponding to the domain in the time domain location indication field and the BWP resource corresponding to the BWP index Paging message.
  • the first calculating module 1101 is further specifically configured to:
  • the paging moment of the UE is calculated by using a first preset calculation manner; when the DRX cycle includes N paging frames, and each When the paging frame includes the P time-domain direction paging moments and the Q frequency-domain direction paging moments, the paging moment of the UE is calculated by using the second preset manner; wherein, the first preset calculation manner is UE_ID mod (P*) Q), UE_ID mod (P) mod (Q) and UE_ID mod (Q) mod (P) any one of the calculation methods; the second preset calculation mode is floor (UE_ID / N) mod (P * Q), floor (UE_ID/N) mod(P) mod(Q) and floor(UE_ID/N) mod(Q)mod(P) any calculation method; wherein UE_ID is S-TMSI or IMSI in the paging message, Q The paging time in the frequency domain direction
  • the third sending module 1103 is further specifically configured to:
  • the third sending module 1103 is further specifically configured to:
  • the paging message is sent on the time domain resource corresponding to the time domain location indication field; when the paging DCI includes the BWP index of the paging message, in the BWP Sending a paging message on the BWP resource corresponding to the index; when the paging DCI includes the time domain location indication field and the BWP index of the paging message, the time domain resource corresponding to the domain in the time domain location indication and the BWP resource corresponding to the BWP index A paging message is detected.
  • the paging control resource set and the paging search space are not allocated on the BWP indicated by the BWP index.
  • the third processing module 1102 is further configured to:
  • the configured set is subjected to resource mapping according to the existence of the SSB, and the set time-frequency resource configuration and initial access are performed.
  • the time-frequency resource configuration of the RMSI set on the BWP is the same; wherein the first resource block index of the SSB is obtained by the UE detection or configured by the base station.
  • the aggregated time-frequency resource configuration is the same as the time-frequency resource configuration of the RMSI set on the initial access BWP; wherein the first resource block index of the set is configured by the base station.
  • the third processing module 1102 is further configured to:
  • the configured set is resource mapped according to the existence of the SSB, and the set time-frequency resource configuration and The time-frequency resource configuration of the RMSI set on the initial access BWP is the same; wherein the first resource block index of the SSB is obtained by the UE detection or configured by the base station.
  • the aggregated time-frequency resource configuration is the same as the time-frequency resource configuration of the RMSI set on the initial access BWP; wherein the first resource block index of the set is configured by the base station.
  • the base station provided by the embodiment of the present disclosure can implement the paging DCI to enable the base station to send the paging DCI at different paging moments, thereby implementing the paging DCI dispersion and avoiding time-frequency domain resource congestion.
  • the first calculation module 1101, the third processing module 1102, and the third transmission module 1103 can all be implemented by a CPU, an MPU, a DSP, an FPGA, or the like located in the base station 11.
  • the base station 12 includes:
  • the fourth processing module 1201 is configured to perform resource association on the set configured on the BWP according to the number E of actually transmitted SSBs in a configured or preset manner.
  • the configured set includes at least one of a paging control resource set and an OSI set.
  • the fourth processing module 1201 is specifically configured to:
  • the associated SSB index is adjusted according to the number E of actually transmitted SSBs in a configured or preset manner to obtain an adjusted associated SSB index i.
  • the fourth processing module 1201 is further configured to:
  • the first slot index of the set configured on the BWP is calculated according to i; wherein i is the first one for transmission
  • the position of the SSB is taken as the starting position, one-to-one corresponds to the logical index j of the actually transmitted SSB; or, i is the position of the first actually transmitted SSB as the starting position, one-to-one corresponding to the logical index j of the actually transmitted SSB; Or, i is the starting position of the (F-E+1)th position for transmitting the SSB, and the logical index j of the SSB corresponding to the actual transmission is j; the value range of j is ⁇ 0, 1, 2... E-1 ⁇ .
  • the fourth processing module 1201 is further configured to:
  • the associated SSB index is adjusted in a configured manner according to the number E of actually transmitted SSBs.
  • the search window of the configured set of resources associated with the SSB index is a search window of the RMSI associated with the SSB index, or a search window other than the search window of the RMSI actually associated with the SSB index.
  • the base station provided by the embodiment of the present disclosure reduces the unnecessary reserved resources by establishing an association between the paging control resource set and the SSB.
  • the fourth processing module 1201 may be implemented by a CPU, an MPU, a DSP, an FPGA, or the like located in the base station 12.
  • the embodiment of the present disclosure further provides a UE, as shown in FIG. 15, the UE 13 includes:
  • the first receiving module 1301 is configured to receive a multiplexed DCI sent by the base station, where the multiplexed DCI is a DCI that the base station multiplexes the DCI of the PDSCH, and is a DCI of the PDSCH when the multiplexed DCI is scrambled by using the preset RNTI.
  • the P-RNTI is scrambled, it is a paging DCI, and the preset RNTI is an RNTI other than the P-RNTI.
  • the fifth processing module 1302 is configured to perform an action according to the indication information set in the multiplexing DCI.
  • the fifth processing module 1302 is specifically configured to:
  • the action is performed according to the A bit; wherein the multiplexed DCI itself includes X bits, and the UE includes the first type UE and the second type UE, and the first type UE
  • the UE in the Rel-15 of 3GPP the UE of the second type is the UE in the subsequent version of Rel-15.
  • the base station selects the R bit in the multiplexed DCI and defines the meaning of the R bit, it operates according to the R bit; where R is smaller than X.
  • the base station When the base station divides the P-RNTI into two categories and defines two types of P-RNTI meanings, the base station operates according to the meaning of the first type of P-RNTI and the meaning of the second type of P-RNTI.
  • the fifth processing module 1302 is further configured to:
  • the A bit is discarded, and the corresponding PDSCH is detected according to the X bit; when the first type of UE detects the multiplexed DCI, the P-RNTI is scrambled and the A bit is used.
  • the paging message transmitted in the scanning mode is detected according to the bit other than the paging indication bit field in the X bit or the X bit; when the first type UE detects the multiplexed DCI, the P-RNTI is scrambled and A When the bit is a state other than the preset state, the multiplexed DCI is discarded; wherein the A bit state is a state corresponding to the A bit, and the preset state is an arbitrarily selected one of all states corresponding to the A bit in advance as an indication.
  • the first type of UE and the second type of UE detect a state of a paging message transmitted by the scan mode, and the paging indication bit field includes at least one of a HARQ process number bit field and a downlink allocation index bit field.
  • the fifth processing module 1302 is further specifically configured to:
  • the second type of UE When the second type of UE detects that the multiplexed DCI is scrambled by using the preset RNTI, discards the A bit and detects the corresponding PDSCH according to the X bits; when the second type of UE detects that the multiplexed DCI is scrambled by the P-RNTI and the A bit
  • the state is the preset state, the paging message transmitted in the scanning mode is detected according to the bit other than the paging indication bit field in the X bit or the X bit; when the second type UE detects the multiplexing DCI, the P-RNTI is scrambled and A
  • the bit status is a state other than the preset state, switching to a corresponding non-scan mode and a paging indication according to bits other than the paging indication bit field in the X bit or the X bit; wherein, the paging indication Indicates a group for a single page indication or page.
  • the fifth processing module 1302 is further configured to:
  • the UE When the first type of UE detects that the multiplexed DCI is scrambled by using the preset RNTI, the UE discards the A bit and detects the corresponding PDSCH according to the X bit; when the first type of UE detects that the multiplexed DCI is scrambled by the P-RNTI, Discarding the A bit and detecting a paging message transmitted in a scan mode according to bits other than the paging indicator bit field in the X bit or the X bit; wherein the paging indicator is a single paging indicator or a paging indication group, and the paging indicator bit
  • the domain includes at least one of a HARQ process number bit field and a downlink allocation index bit field.
  • the fifth processing module 1302 is further specifically configured to:
  • the second type of UE detects that the multiplexed DCI is scrambled by using the preset RNTI, the A bit is discarded, and the corresponding PDSCH is detected according to the X bit; when the second type of UE detects that the multiplexed DCI is scrambled by the P-RNTI, according to The bits other than the paging indicator bit field in the X bit or the X bit are switched to at least one of the corresponding non-scan mode and the paging indicator; wherein the paging indicator is a single paging indicator or a paging indication group.
  • the fifth processing module 1302 is further configured to:
  • the paging message transmitted in the scanning mode is detected according to the bit other than the paging indication bit field in the (XR) bit or (XR) bit; when the first type UE detects the multiplexed DCI, the P-RNTI is scrambled and the R bit is used.
  • the multiplexed DCI is discarded; wherein the R bit state is a state corresponding to the R bit, and the preset state is a arbitrarily selected one of all states corresponding to the R bit in advance as an indication.
  • a type of UE and a second type of UE detect a state of a paging message transmitted in a scan mode, and the paging indicator bit field includes at least one of a HARQ process number bit field and a downlink allocation index bit field.
  • the fifth processing module 1302 is further specifically configured to:
  • the paging message transmitted in the scanning mode is detected according to the bit other than the paging indication bit field in the (XR) bit or (XR) bit; when the second type UE detects that the multiplexed DCI is scrambled by the P-RNTI and the R bit.
  • the state is a state other than the preset state, the bit other than the paging indicator bit field in the (XR) bit or the (XR) bit is switched to at least one of the corresponding non-scan mode and the paging indicator;
  • the paging indication is a single paging indicator or a paging indication group.
  • the fifth processing module 1302 is further configured to:
  • a paging indication bit field includes at least one of a HARQ process number bit field and a downlink allocation index bit field in a state indicating that a paging message transmitted by the first type UE and the second type UE is detected in a scan mode.
  • the fifth processing module 1302 is further specifically configured to:
  • the second type of UE detects that the multiplexed DCI is scrambled by the preset RNTI, detects the corresponding PDSCH according to the X bits; when the second type of UE detects that the multiplexed DCI is scrambled by the P-RNTI, according to the (XR) bit or The bits other than the paging indicator bit field in the (XR) bit are switched to at least one of the corresponding non-scan mode and the paging indicator; wherein the paging indicator is a single paging indicator or a paging indication group.
  • the fifth processing module 1302 is further configured to:
  • the corresponding PDSCH is detected according to the X bits; when the first type of UE detects that the multiplexed DCI is scrambled by the first type of P-RNTI, according to the X bits Or a paging message transmitted in a bit detection scan mode other than the paging indication bit field in the X bit; when the first type UE detects that the multiplexed DCI is scrambled by the second type P-RNTI, discarding the multiplex DCI, or using After the second type of P-RNTI is descrambled, the multiplexed DCI is discarded.
  • the fifth processing module 1302 is further specifically configured to:
  • the second type of UE detects that the multiplexed DCI is scrambled by the preset RNTI, detects the corresponding PDSCH according to the X bits; when the second type of UE detects that the multiplexed DCI is scrambled by the first type of P-RNTI, according to the X bits Or a paging message transmitted in a bit detection scan mode other than the paging indication bit field in the X bit; when the second type UE detects that the multiplexed DCI is scrambled by the second type P-RNTI, according to the X bit or the X bit
  • the bits other than the paging indicator bit field are switched to at least one of a corresponding non-scan mode and a paging indicator; wherein the paging indicator is a single paging indicator or a paging indication group.
  • multiplexed DCI mentioned in the embodiments of the present disclosure refers to the DCI of the multiplexed PSCDH.
  • the UE provided by the embodiment of the present disclosure because the multiplexed DCI is provided with indication information, is used to indicate that different types of UEs perform operations to switch the paging mechanism, thereby avoiding large-scale congestion of the traffic channel and excessive invalid uplink access process. Take into account the needs of network deployment and resource scheduling.
  • the first receiving module 1301 and the fifth processing module 1302 can be implemented by a CPU, an MPU, a DSP, an FPGA, or the like located in the UE 13.
  • An embodiment of the present disclosure further provides a UE.
  • the UE 14 includes:
  • the second receiving module 1401 is configured to receive the multiplexed DCI sent by the base station, where the multiplexed DCI is provided with indication information for indicating that different types of UEs perform operations, and the multiplexed DCI is a DCI multiplexed DCI directly indicated by the base station. And when the preset bit indicates that the direct indication is a direct indication DCI, indicating that the paging is a paging DCI.
  • the sixth processing module 1402 is configured to perform an action according to the indication information set in the multiplexing DCI.
  • the sixth processing module 1402 is specifically configured to:
  • the action is performed according to the B bit; wherein the multiplexed DCI itself includes the Y bit, and the UE includes the first type UE and the second type UE, and the first type UE
  • the UE in the Rel-15 of 3GPP the UE of the second type is the UE in the subsequent version of Rel-15.
  • the base station selects the S bit in the multiplexed DCI and defines the meaning of the S bit, it operates according to the S bit; where S is smaller than Y.
  • the base station When the base station divides the P-RNTI into two categories and defines two types of P-RNTI meanings, the base station operates according to the meaning of the first type of P-RNTI and the meaning of the second type of P-RNTI.
  • the sixth processing module 1402 is further configured to:
  • the first type of UE When the first type of UE detects that the preset bit of the multiplexed DCI indicates a direct indication, discards the B bit, and detects the corresponding PDSCH according to the Y bit; when the first type of UE detects the preset bit of the multiplexed DCI, it indicates When the B bit state is a preset state, the paging message transmitted in the scanning mode is detected according to the bit other than the paging indication bit field in the Y bit or the Y bit; when the first type UE detects the preset bit of the multiplexing DCI When the bit indicates the paging and the B bit is in a state other than the preset state, the multiplexed DCI is discarded; wherein the B bit state is a state corresponding to the B bit, and the preset state is arbitrarily selected from all the states corresponding to the B bit in advance.
  • a paging indication bit field includes at least one of a HARQ process number bit field and a downlink allocation index bit field in a state indicating that a paging message transmitted by the first type UE and the second type UE is detected in a scan mode.
  • the sixth processing module 1402 is further specifically configured to:
  • the second type of UE detects that the preset bit of the multiplexed DCI indicates direct indication, discards the B bit, and detects the corresponding PDSCH according to the Y bit; when the second type of UE detects the preset bit of the multiplexed DCI, it indicates When the B bit state is a preset state, the paging message transmitted in the scanning mode is detected according to the bit other than the paging indication bit field in the Y bit or the Y bit; when the second type UE detects the preset bit of the multiplexing DCI When the bit indicates the paging and the B bit status is other than the preset state, the paging mechanism corresponding to the B bit corresponding to the bit other than the paging indication bit field in the Y bit or the Y bit is switched to the corresponding B bit. At least one of a non-scan mode and a paging indicator; wherein the paging indication is a single paging indicator or a paging indication group.
  • the sixth processing module 1402 is further configured to:
  • the first type of UE When the first type of UE detects that the preset bit of the multiplexed DCI indicates a direct indication, discards the B bit, and detects the corresponding PDSCH according to the Y bit; when the first type of UE detects the preset bit of the multiplexed DCI, it indicates At the time of paging, the B bit is discarded, and the paging message transmitted in the scan mode is detected according to the bit other than the paging indication bit field in the Y bit or the Y bit; wherein the paging indication is a single paging indication or paging indication group,
  • the call indication bit field includes at least one of a HARQ process number bit field and a downlink allocation index bit field.
  • the sixth processing module 1402 is further specifically configured to:
  • the second type of UE When the second type of UE detects that the preset bit of the multiplexed DCI indicates direct indication, discards the B bit, and detects the corresponding PDSCH according to the Y bit; when the second type of UE detects the preset bit of the multiplexed DCI, it indicates At the time of calling, at least one of the bits other than the paging indicator bit field in the Y bit or the Y bit is switched to the corresponding non-scan mode paging indicator; wherein the paging indication is a single paging indication or a paging indication group.
  • the sixth processing module 1402 is further configured to:
  • the paging indication bit field includes at least
  • the sixth processing module 1402 is further specifically configured to:
  • the corresponding PDSCH is detected according to the Y bit; when the second type of UE detects that the preset bit of the multiplexed DCI indicates the paging and the S bit status
  • the paging message transmitted in the scanning mode is detected according to the bit other than the paging indication bit field in the (YS) bit or the (YS) bit; when the second type UE detects the preset bit of the multiplexed DCI
  • the bits other than the paging indication bit field in the (YS) bit or the (YS) bit are switched to the corresponding non-scan mode and the paging indicator.
  • the paging indicator is a single paging indicator or a paging indication group.
  • the sixth processing module 1402 is further configured to:
  • the corresponding PDSCH is detected according to the Y bit; when the first type of UE detects that the preset bit of the multiplexed DCI indicates the paging, according to ( a paging message transmitted in a bit detection scan mode other than the paging indication bit field in the YS) bit or (YS) bit; wherein the S bit state is a state corresponding to the S bit, and the preset state is all corresponding to the S bit in advance Any one of the arbitrarily selected states is used to indicate that the first type UE and the second type UE detect a paging message transmitted by the scan mode, and the paging indication bit field includes at least one of a HARQ process number bit field and a downlink allocation index bit field.
  • the paging indication bit field includes at least one of a HARQ process number bit field and a downlink allocation index bit field.
  • the sixth processing module 1402 is further specifically configured to:
  • the corresponding PDSCH is detected according to the Y bit; when the second type of UE detects that the preset bit of the multiplexed DCI indicates the paging, according to ( The bits other than the paging indicator bit field in the YS) bit or (YS) bits are switched to at least one of a corresponding non-scan mode and a paging indicator; wherein the paging indicator is a single paging indicator or a paging indication group.
  • the sixth processing module 1402 is further configured to:
  • the corresponding PDSCH is detected according to the Y bit; when the first type of UE detects that the multiplexed DCI is scrambled by the first type of P-RNTI, according to the Y bit Or a paging message transmitted in a bit detection scan mode other than the paging indication bit field in the Y bit; when the first type UE detects that the multiplexed DCI is scrambled by the second type P-RNTI, discarding the multiplexed DCI, or using After the second type of P-RNTI is descrambled, the multiplexed DCI is discarded.
  • the sixth processing module 1402 is further specifically configured to:
  • the second type of UE detects that the multiplexed DCI is scrambled by the preset RNTI, detects the corresponding PDSCH according to the Y bit; when the second type of UE detects that the multiplexed DCI is scrambled by the first type of P-RNTI, according to the Y bit Or a paging message transmitted in a bit detection scan mode other than the paging indication bit field in the Y bit; when the second type UE detects that the multiplexed DCI is scrambled by the second type P-RNTI, according to the Y bit or the Y bit
  • the bits other than the paging indicator bit field are switched to at least one of a corresponding non-scan mode and a paging indicator; wherein the paging indicator is a single paging indicator or a paging indication group.
  • multiplexed DCI mentioned in the embodiments of the present disclosure refers to the directly indicated DCI of the multiplex.
  • the UE provided by the embodiment of the present disclosure because the multiplexed DCI is provided with indication information, is used to indicate that different types of UEs perform operations to switch the paging mechanism, thereby avoiding large-scale congestion of the traffic channel and excessive invalid uplink access process. Take into account the needs of network deployment and resource scheduling.
  • the second receiving module 1401 and the sixth processing module 1402 can be implemented by a CPU, an MPU, a DSP, an FPGA, or the like located in the UE 14.
  • the embodiment of the present disclosure further provides a UE.
  • the UE 15 includes:
  • the second calculating module 1501 is configured to calculate a paging moment of the UE.
  • the seventh processing module 1502 is configured to determine a location of the paging DCI on the paging control resource set or the paging search space location corresponding to the obtained paging moment.
  • the third receiving module 1503 is configured to receive the paging DCI sent by the base station at the determined location.
  • the second calculating module 1501 is specifically configured to:
  • the paging time of the UE is calculated by the floor (UE_ID/N) mod (P); wherein, the UE_ID is the S-TMSI or the IMSI in the paging message, and the paging in the frequency domain direction corresponding to the paging time in the time domain direction
  • the number of control resource sets or paging search spaces is not greater than the number of BWPs.
  • the third receiving module 1503 is specifically configured to:
  • the paging DCI corresponding to the paging moment in the time domain direction is detected on each paging control resource set or paging search space location in the frequency domain direction corresponding to the paging time in the time domain direction.
  • the paging message is detected on the resource location of the paging message according to the paging DCI.
  • the third receiving module 1503 is further specifically configured to:
  • the paging message is detected on the time domain resource corresponding to the time domain location indication field; when the paging DCI includes the BWP index of the paging message, in the BWP The paging message is detected on the BWP resource corresponding to the index; when the time domain location indication field and the BWP index of the paging message are included in the paging DCI, the time domain resource corresponding to the domain in the time domain location indication and the BWP resource corresponding to the BWP index are A paging message is detected.
  • the second calculating module 1501 is further specifically configured to:
  • the paging moment is calculated by the first preset calculation manner; when the DRX cycle includes N paging frames, and each When the paging frame includes P time-domain paging moments and Q frequency-domain paging moments, the paging moment is calculated by the second preset mode; wherein the first preset calculation mode is UE_ID mod (P*) Q), UE_ID mod (P) mod (Q) and UE_ID mod (Q) mod (P) any one of the calculation methods; the second preset calculation mode is floor (UE_ID / N) mod (P * Q), floor (UE_ID/N) mod(P) mod(Q) and floor(UE_ID/N) mod(Q) mod(P), wherein UE_ID is S-TMSI or IMSI in the paging message, Q
  • the paging time in the frequency domain direction corresponds to the Q paging control resource set or the paging search space, and
  • the third receiving module 1503 is further specifically configured to:
  • the paging DCI corresponding to the paging time in the frequency domain direction corresponding to the paging time in the time domain direction is detected in the paging control resource set or the paging search space position corresponding to the paging time in the frequency domain direction corresponding to the paging time in the time domain direction.
  • the paging message is detected on the resource location of the paging message according to the paging DCI.
  • the third receiving module 1503 is further specifically configured to:
  • the paging message is detected on the time domain resource corresponding to the time domain location indication field; when the paging DCI includes the BWP index of the paging message, in the BWP The paging message is detected on the BWP resource corresponding to the index; when the time domain location indication field and the BWP index of the paging message are included in the paging DCI, the time domain resource corresponding to the domain in the time domain location indication and the BWP resource corresponding to the BWP index are A paging message is detected.
  • the paging control resource set and the paging search space are not allocated on the BWP indicated by the BWP index.
  • the seventh processing module 1502 is further configured to:
  • the configured set is subjected to resource mapping according to the existence of the SSB, and the set time-frequency resource configuration and initial access are performed.
  • the time-frequency resource configuration of the RMSI set on the BWP is the same; wherein the first resource block index of the SSB is obtained by the UE detection or configured by the base station.
  • the aggregated time-frequency resource configuration is the same as the time-frequency resource configuration of the RMSI set on the initial access BWP; wherein the first resource block index of the set is configured by the base station.
  • the seventh processing module 1502 is further configured to:
  • the time-frequency resource configuration of the RMSI set on the access BWP is the same; wherein the first resource block index of the SSB is obtained by the UE detection or configured by the base station.
  • the aggregated time-frequency resource configuration is the same as the time-frequency resource configuration of the RMSI set on the initial access BWP; wherein the first resource block index of the set is configured by the base station.
  • the UE provided by the embodiment of the present disclosure can implement the paging DCI to enable the base station to send the paging DCI at different paging moments, thereby implementing the paging DCI dispersion and avoiding time-frequency domain resource congestion.
  • the second calculation module 1501, the seventh processing module 1502, and the third receiving module 1402 can be implemented by a CPU, an MPU, a DSP, an FPGA, or the like located in the UE 15.
  • An embodiment of the present disclosure further provides a UE.
  • the UE 16 includes:
  • the eighth processing module 1601 is configured to perform resource association on the set configured on the BWP according to the number E of actually transmitted SSBs in a configured or preset manner; where the configured set includes the paging control resource set and the OSI set At least one.
  • the eighth processing module 1601 is specifically configured to:
  • the associated SSB index is adjusted according to the number E of actually transmitted SSBs in a configured or preset manner to obtain an adjusted associated SSB index i.
  • the eighth processing module 1601 is further specifically configured to:
  • the first slot index of the set configured on the BWP is calculated according to i; wherein i is the first one for transmission
  • the position of the SSB is taken as the starting position, one-to-one corresponds to the logical index j of the actually transmitted SSB; or, i is the position of the first actually transmitted SSB as the starting position, one-to-one corresponding to the logical index j of the actually transmitted SSB; Or, i is the starting position of the (F-E+1)th position for transmitting the SSB, and the logical index j of the SSB corresponding to the actual transmission is j; the value range of j is ⁇ 0, 1, 2... E-1 ⁇ .
  • the eighth processing module 1601 is further configured to adjust the associated SSB index according to the number E of actually transmitted SSBs in a configured manner.
  • the search window of the configured set of resources associated with the SSB index is a search window of the RMSI associated with the SSB index, or a search window other than the search window of the RMSI actually associated with the SSB index.
  • the UE provided by the embodiment of the present disclosure reduces the unnecessary reserved resources by establishing an association between the paging control resource set and the SSB.
  • the eighth processing module 1601 can be implemented by a CPU, an MPU, a DSP, an FPGA, or the like located in the UE 16.
  • the present disclosure is applicable to the field of communication technologies, and is used to enable a user equipment (UE) to operate to switch the paging mechanism, thereby avoiding large-scale congestion of the traffic channel and excessive invalid uplink access procedures.
  • UE user equipment

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Abstract

本公开公开了一种信息传输方法及装置，包括：基站在复用下行链路控制信息(DCI)中设置用于指示不同类型终端UE进行动作的指示信息；基站向UE发送复用DCI；其中，复用DCI为将物理下行共享信道(PDSCH)的DCI复用的DCI，且当复用DCI采用预设无线网络临时标识(RNTI)加扰时为PDSCH的DCI，采用寻呼无线网络临时标识(P-RNTI)加扰时为寻呼DCI，预设RNTI为除P-RNTI以外的RNTI。从本公开实施例可见，由于复用DCI设置有指示信息，以用于指示不同类型UE进行动作从而切换寻呼机制，因此避免了业务信道的大规模堵塞和过多无效的上行接入过程，兼顾了网络部署和资源调度的需求。 (图1)

Description

一种信息传输方法及装置 技术领域
本公开实施例涉及通信技术领域，尤指一种信息传输方法及装置。
背景技术
传统的无线电业务主要使用300MHz～3GHz之间的频谱资源，这些频谱资源是有限的，然而随着无线电技术的不断进步，各种各样的无线电业务大量涌现，面对人们对带宽需求的不断增加，这些频谱资源的占用表现出极为紧张的局面，已经无法满足未来无线通信的需求。在新一代无线通信系统(New Radio，NR)中(NR包括第五代无线通信(the 5th Generation Mobile Communication，5G)系统和5G系统之后的通信系统)中，将会采用比第四代无线通信(the 4th Generation Mobile Communication，4G)系统所采用的载波频率更高的载波频率进行通信，例如28GHz、45GHz、70GHz等等，这种高频信道具有自由传播损耗较大，容易被氧气吸收，受雨衰影响大等缺点，严重影响了高频通信系统的覆盖性能，但与此同时这种高频通信对应的载波频率具有更短的波长，所以可以保证单位面积上能容纳更多的天线元素，而更多的天线元素意味着可以采用波束赋形的方法来提高天线增益，从而保证高频通信的覆盖性能，因此采用波束赋形的方法来提高天线增益毫无疑问会被应用于5G系统。
但是，由于采用了波束赋形的方法，寻呼机制中的扫描模式所耗费的资源过大，因此在第三代合作伙伴计划(3rd Generation Partnership Project，3GPP)中版本15(the 15th Released，Rel-15)中需要解决寻呼机制切换的问题，从而在Rel-15的后续版本中才能应用更多的寻呼机制，避免业务信道的大规模堵塞和过多无效的上行接入过程。
然而，现有技术却缺乏相应的解决方法。
发明内容
为了解决上述技术问题，本公开实施例提供了一种信息传输方法及装置，能够使得终端(User Equipment，UE)进行动作从而切换寻呼机制，从而避免业务信道的大规模堵塞和过多无效的上行接入过程。
为了达到本公开目的，本公开实施例提供了一种信息传输方法，包括：
基站在复用下行链路控制信息(Downlink Control Information，DCI)中设置用于指示不同类型UE进行动作的指示信息；
所述基站向UE发送所述复用DCI；
其中，复用DCI为将物理下行共享信道Physical Downlink Shared channel，PDSCH)的DCI复用的DCI，且当所述复用DCI采用预设无线网络临时标识(Radio Network Temporary Identifier，RNTI)加扰时为PDSCH的DCI，采用寻呼无线网络临时标识Paging-Radio Network Temporary Identifier，P-RNTI)加扰时为寻呼DCI，所述预设RNTI为除所述P-RNTI以外的 RNTI。
本公开实施例还提供了一种信息传输方法，包括：
UE接收基站发送的复用DCI；其中，所述复用DCI为基站将PDSCH的DCI复用的DCI，且当所述复用DCI采用预设RNTI加扰时为PDSCH的DCI，采用P-RNTI加扰时为寻呼DCI，所述预设RNTI为除所述P-RNTI以外的RNTI；
所述UE根据所述复用DCI中设置的指示信息进行动作。
本公开实施例还提供了一种基站，包括：
第一处理模块，设置为在复用DCI中设置用于指示不同类型UE进行动作的指示信息；
第一发送模块，设置为向所述UE发送所述复用DCI；
其中，复用DCI为将PDSCH的DCI复用的DCI，且当所述复用DCI采用预设RNTI加扰时为PDSCH的DCI，采用P-RNTI加扰时为寻呼DCI，所述预设RNTI为除所述P-RNTI以外的RNTI。
本公开实施例还提供了一种UE，包括：
第一接收模块，设置为接收基站发送的复用DCI；其中，所述复用DCI为基站将PDSCH的DCI复用的DCI，且当所述复用DCI采用预设RNTI加扰时为PDSCH的DCI，采用P-RNTI加扰时为寻呼DCI，所述预设RNTI为除所述P-RNTI以外的RNTI；
第三处理模块，设置为根据所述复用DCI中设置的指示信息进行动作。
与现有技术相比，由于复用DCI设置有指示信息，以用于指示不同类型UE进行动作从而切换寻呼机制，因此避免了业务信道的大规模堵塞和过多无效的上行接入过程，兼顾了网络部署和资源调度的需求。
本公开实施例还提供了一种信息传输方法，包括：
所述基站在所述复用DCI中设置用于指示不同类型UE进行动作的指示信息；
所述基站向所述UE发送所述复用DCI；
其中，复用DCI为直接指示的DCI复用的DCI，且当所述复用DCI中预设比特位表示直接指示时为直接指示的DCI，表示寻呼时为寻呼的DCI时。
本公开实施例还提供了一种信息传输方法，包括：
UE接收基站发送的复用DCI；其中，所述复用DCI为基站将直接指示的DCI复用的DCI，且当其中的预设比特位表示直接指示时为直接指示的DCI，表示寻呼时为寻呼DCI；
所述UE根据所述复用DCI中设置的指示信息进行动作。
本公开实施例还提供了一种基站，包括：
第二处理模块，设置为在复用DCI中复用不同业务类型的指示信息；
第二发送模块，设置为向所述UE发送所述复用DCI；
其中，复用DCI为直接指示的DCI复用的DCI，且当所述复用DCI中预设比特位表示直接指示时为直接指示的DCI，表示寻呼时为寻呼的DCI时。
本公开实施例还提供了一种UE，包括：
第二接收模块，设置为接收基站发送的复用DCI；其中，所述复用DCI为基站将直接指 示的DCI复用的DCI，且当其中的预设比特位表示直接指示时为直接指示的DCI，表示寻呼时为寻呼DCI；
第四处理模块，设置为根据所述复用DCI中设置的指示信息进行动作。
与现有技术相比，由于复用DCI设置有指示信息，以用于指示不同类型UE进行动作从而切换寻呼机制，因此避免了业务信道的大规模堵塞和过多无效的上行接入过程，兼顾了网络部署和资源调度的需求。
本公开实施例还提供了一种信息传输方法，包括：
基站计算UE的寻呼时刻；
所述基站在得到的寻呼时刻对应的寻呼控制资源集合或寻呼搜索空间位置上确定寻呼DCI的位置；
所述基站在确定的位置上向所述UE发送所述寻呼DCI。
本公开实施例还提供了一种信息传输方法，包括：
UE计算自身的寻呼时刻；
所述UE在获得的寻呼时刻对应的寻呼控制资源集合或寻呼搜索空间位置上确定寻呼DCI的位置；
所述UE在确定的位置上接收基站发送的寻呼DCI。
本公开实施例还提供了一种基站，包括：
第一计算模块，设置为计算UE的寻呼时刻；
第三处理模块，设置为在得到的寻呼时刻对应的寻呼控制资源集合或寻呼搜索空间位置上确定寻呼DCI的位置；
第三发送模块，设置为在确定的位置上向所述UE发送所述寻呼DCI。
本公开实施例还提供了一种UE，包括：
第二计算模块，设置为计算UE的寻呼时刻；
第七处理模块，设置为在获得的寻呼时刻对应的寻呼控制资源集合或寻呼搜索空间位置上确定寻呼DCI的位置；
第三接收模块，设置为在确定的位置上接收基站发送的寻呼DCI。
与现有技术相比，由于计算了寻呼时刻，使得基站能够在不同的寻呼时刻发送寻呼DCI，因此实现了寻呼DCI的分散，避免了时频域资源拥塞。
本公开实施例还提供了一种信息传输方法，包括：
基站按照实际发射的同步信号块(Synchronization Signal Block，SSB)对部分带宽(Band Width Part，BWP)上所配置的集合进行资源关联；其中，所述所配置的集合包括寻呼控制资源集合和其他系统信息(Other System Information，OSI)集合中至少一种。
本公开实施例还提供了一种信息传输方法，包括：
UE以被配置或预设的方式按照实际发射的SSB对BWP上所配置的集合进行资源关联；其中，所述配置的集合包括寻呼控制资源集合和OSI集合中至少一种。
本公开实施例还提供了一种基站，包括：
第四处理模块，基站以配置或预设的方式按照实际发射的SSB的数量E对所配置的集合进行资源关联，所述配置的集合包括寻呼控制资源集合和OSI集合中至少一种。
本公开实施例还提供了一种UE，包括：
第八处理模块，设置为以被配置或预设的方式按照实际发射的SSB对所配置的集合进行资源关联，所述配置的集合包括寻呼控制资源集合和OSI集合中至少一种。
与现有技术相比，由于建立了寻呼控制资源集合与SSB之间的关联，从而减少不必要的预留资源。
本公开的其它特征和优点将在随后的说明书中阐述，并且，部分地从说明书中变得显而易见，或者通过实施本公开而了解。本公开的目的和其他优点可通过在说明书、权利要求书以及附图中所特别指出的结构来实现和获得。
附图说明
附图用来提供对本公开技术方案的进一步理解，并且构成说明书的一部分，与本申请的实施例一起用于解释本公开的技术方案，并不构成对本公开技术方案的限制。
图1为本公开实施例提供的一种信息传输方法的流程示意图；
图2为本公开实施例提供的另一种信息传输方法的流程示意图；
图3为本公开实施例提供的又一种信息传输方法的流程示意图；
图4为本公开实施例提供的一种DRX周期包括P个时域方向寻呼时刻的示意图；
图5为本公开实施例提供的一种DRX周期包括P个时域方向寻呼时刻和Q个频域方向寻呼时刻的示意图；
图6为本公开实施例提供的又一种信息传输方法的流程示意图；
图7为本公开实施例提供的又一种信息传输方法的流程示意图；
图8为本公开实施例提供的又一种信息传输方法的流程示意图；
图9为本公开实施例提供的又一种信息传输方法的流程示意图；
图10为本公开实施例提供的又一种信息传输方法的流程示意图；
图11为本公开实施例提供的一种基站的结构示意图；
图12为本公开实施例提供的另一种基站的结构示意图；
图13为本公开实施例提供的又一种基站的结构示意图；
图14为本公开实施例提供的又一种基站的结构示意图；
图15为本公开实施例提供的一种UE的结构示意图；
图16为本公开实施例提供的另一种UE的结构示意图；
图17为本公开实施例提供的又一种UE的结构示意图；
图18为本公开实施例提供的又一种UE的结构示意图。
具体实施方式
为使本公开的目的、技术方案和优点更加清楚明白，下文中将结合附图对本公开的实施 例进行详细说明。需要说明的是，在不冲突的情况下，本申请中的实施例及实施例中的特征可以相互任意组合。
在附图的流程图示出的步骤可以在诸如一组计算机可执行指令的计算机系统中执行。并且，虽然在流程图中示出了逻辑顺序，但是在某些情况下，可以以不同于此处的顺序执行所示出或描述的步骤。
在说明本公开实施例提供的信息传输方法之前，先对所涉及的相关知识进行说明：
寻呼相关信息包括寻呼调度信息(也称为寻呼DCI)、寻呼消息。其中寻呼调度信息是用于调度、分配寻呼消息所在的资源位置；寻呼消息包括系统信息更新systemInfoModification、地震海啸警报系统指示etws-Indication、商用移动警报服务指示cmas-Indication、扩展的访问限制参数更新eab-ParamModification、重新分配指示redistributionIndication、增强的非连续接收的系统信息更新systemInfoModification-eDRX、寻呼记录PagingRecord(包括临时移动台识别(S-Temporary Mobile Station Identifier，S-TMSI)或国际移动用户标识(International Mobile Subscriber Identity，IMSI)等消息。如果寻呼消息中仅包括系统消息更新类型的消息等(例如systemInfoModification、etws-Indication、cmas-Indication、eab-ParamModification、redistributionIndication、systemInfoModification-eDRX)，也可把这种类型的消息直接承载在DCI中，这种方式被称为直接指示(Direct indication)。UE在不同的寻呼时刻检测对应的寻呼调度信息，每个UE都有各自对应的寻呼时刻，每个寻呼帧对应一个或多个寻呼时刻。如果UE在对应的寻呼时刻上没有检测到寻呼调度信息，则UE不进行后续寻呼过程。如果UE检测到寻呼调度信息，则UE根据寻呼调度信息接收并解调寻呼消息，如果寻呼消息包括UE所属的S-TMSI或IMSI，则UE进行后续建立连接过程(寻呼消息中存在S-TMSI或IMSI，通常是为了常规的来电接通，统称为UE_ID)；如果寻呼消息包括其他的Modification消息或Indication消息，则UE进行后续的接收对应消息过程，例如如果是systemInfoModification，则UE进行后续的接收系统消息过程。
一些NR(Rel-15版本的NR)系统中寻呼机制(paging mechanism)的模式简介：扫描模式(sweeping mode)：寻呼DCI和寻呼消息都需要进行波束扫描发射；触发模式(trigger mode)：寻呼(组)指示(paging group indicator)触发UE反馈较好的下行发射波束，之后网络侧仅在UE反馈的下行发射波束方向上发射寻呼DCI和/或寻呼消息；节电模式(power saving mode)：除非寻呼(组)指示，否则UE不接收寻呼DCI；压缩模式(compressing mode)：减少寻呼消息中UE_ID的开销；其中，扫描模式是NR寻呼机制的基本机制，但扫描模式引入了较多的扫描开销，因此需要考虑如何在Rel-15中以前向兼容的方式在Rel-15的后续版本中应用触发模式、节电模式、压缩模式等。
本公开实施例提供一种信息传输方法，如图1所示，该方法包括：
步骤101、基站在复用DCI中设置用于指示不同类型UE进行动作的指示信息。
步骤102、基站向UE发送复用DCI。
其中，复用DCI为将PDSCH的DCI复用的DCI，且当复用DCI采用预设RNTI加扰时 为PDSCH的DCI，采用P-RNTI加扰时为寻呼DCI，预设RNTI为除P-RNTI以外的RNTI。
本公开提供的信息传输方法，由于复用DCI设置有指示信息，以用于指示不同类型UE进行动作从而切换寻呼机制，因此避免了业务信道的大规模堵塞和过多无效的上行接入过程，兼顾了网络部署和资源调度的需求。
可选地，基站在复用DCI中设置用于指示不同类型UE进行动作的指示信息，包括：
基站在复用DCI中加入A比特并定义A比特的含义，以用于指示UE进行动作；其中，复用DCI本身包含X比特，UE包括第一类UE和第二类UE，第一类UE为第三代合作伙伴计划(3rd Generation Partnership Project，3GPP)的的第15版本Rel-15中的UE，第二类UE为Rel-15的后续版本中的UE。
或者，
基站在复用DCI中选择R比特并定义R比特的含义，以用于指示UE进行动作；其中，R小于X。
或者，
基站将P-RNTI分成两类并定义两类P-RNTI含义，以用于指示第一类UE和第二类UE进行动作。
可选地，基站在复用DCI中加入A比特并定义A比特的含义，包括：
基站定义当复用DCI采用预设RNTI加扰时，A比特状态的含义为指示第一类UE和第二类UE丢弃A比特；定义当复用DCI采用P-RNTI加扰且A比特状态为预设状态时，A比特状态的含义为指示第一类UE和第二类UE检测扫描模式发射的寻呼消息；定义当复用DCI采用P-RNTI加扰且A比特状态为除预设状态以外的其他状态时，A比特的含义为指示第一类UE丢弃复用DCI，指示第二类UE切换至对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组，预设状态为预先从A比特对应的所有状态中任意选择的一种以作为指示第一类UE和第二类UE检测扫描模式发射的寻呼消息的状态。
可选地，基站在复用DCI中加入A比特并定义A比特的含义，包括：
基站定义当复用DCI采用预设RNTI加扰时，A比特状态的含义为指示第一类UE和第二类UE丢弃A比特；定义当复用DCI采用P-RNTI加扰时，A比特状态的含义为指示第一类UE丢弃A比特并检测扫描模式发射的寻呼消息，指示第二类UE切换至对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组。
可选地，基站在复用DCI中选择R比特并定义R比特的含义，包括：
基站定义当复用DCI采用P-RNTI加扰且R比特状态为预设状态时，R比特状态的含义为指示第一类UE和第二类UE检测扫描模式发射的寻呼消息；定义当复用DCI采用P-RNTI加扰且R比特状态为除预设状态以外的其他状态时，R比特的含义为指示第一类UE丢弃复用DCI，指示第二类UE切换至对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组，预设状态为预先从R比特对应的所有状态中任意选择的一种以作为指示第一类UE和第二类UE检测扫描模式发射的寻呼消息的状态。
可选地，基站在复用DCI中选择R比特并定义R比特的含义，包括：
基站定义当复用DCI采用P-RNTI加扰时，R比特状态的含义为指示第一类UE检测扫描模式发射的寻呼消息，指示第二类UE切换至对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组。。
可选地，基站将P-RNTI分成两类并定义两类P-RNTI含义，包括：
基站定义当复用DCI采用第一类P-RNTI加扰时，第一类P-RNTI的含义为指示第一类UE和第二类UE检测扫描模式发射的寻呼消息；定义当复用DCI采用第二类P-RNTI加扰时，第二类P-RNTI的含义为指示第一类UE丢弃复用DCI或采用第二类P-RNTI解扰后丢弃复用DCI，指示第二类UE切换为对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组。
需要说明的是，本公开实施例中所提到的复用DCI都是指复用的PSCDH的DCI。
本公开实施例提供的信息传输方法，由于复用DCI设置有指示信息，以用于指示不同类型UE进行动作从而切换寻呼机制，因此避免了业务信道的大规模堵塞和过多无效的上行接入过程，兼顾了网络部署和资源调度的需求。
本公开实施例还提供一种信息传输方法，如图2所示，该方法包括：
步骤201、基站在复用DCI中设置用于指示不同类型UE进行动作的指示信息。
步骤202、基站向UE发送复用DCI。
其中，复用DCI为直接指示的DCI复用的DCI，且当复用DCI中预设比特位表示直接指示时为直接指示的DCI，表示寻呼时为寻呼的DCI时。
可选地，基站在复用DCI中设置用于指示不同类型UE进行动作的指示信息，包括：
基站在复用DCI中加入B比特并定义B比特的含义，以用于指示UE进行动作；其中，复用DCI本身包含Y比特；UE包括第一类UE和第二类UE，第一类UE为3GPP的Rel-15中的UE，第二类UE为Rel-15的后续版本中的UE。
或者，
基站在复用DCI中选择S比特并定义S比特的含义，以用于指示UE进行动作；其中，S小于Y。
或者，
基站将P-RNTI分成两类并定义两类P-RNTI含义，以用于指示第一类UE和第二类UE进行动作。
可选地，基站在复用DCI中加入B比特并定义B比特的含义，包括：
基站定义当复用DCI的预设比特位表示直接指示时，B比特状态的含义为指示第一类UE和第二类UE丢弃B比特；定义当复用DCI的预设比特位表示寻呼且B比特状态为预设状态时，B比特状态的含义为指示第一类UE和第二类UE检测扫描模式发射的寻呼消息；定义当复用DCI的预设比特位表示寻呼且B比特状态为除预设状态以外的其他状态时，B比特的含义为指示第一类UE丢弃复用DCI，指示第二类UE切换至对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组，预设状态为预先从B比特对应的所有状态中任意选择的一种以作为指示第一类UE和第二类UE检测扫描模式发射 的寻呼消息的状态。
可选地，基站在复用DCI中加入B比特并定义B比特的含义，包括：
基站定义当复用DCI的预设比特位表示直接指示时，B比特状态的含义为指示第一类UE和第二类UE丢弃B比特；定义当复用DCI的预设比特位表示寻呼时，B比特状态的含义为指示第一类UE丢弃B比特并检测扫描模式发射的寻呼消息，指示第二类UE切换至对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组。
可选地，基站在复用DCI中选择S比特并定义S比特的含义，包括：
基站定义当复用DCI的预设比特位表示寻呼且S比特状态为预设状态时，S比特状态的含义为指示第一类UE和第二类UE检测扫描模式发射的寻呼消息；定义当复用DCI的预设比特位表示寻呼且S比特状态为除预设状态以外的其他状态时，S比特的含义为指示第一类UE丢弃复用DCI，指示第二类UE切换至对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组，预设状态为预先从S比特对应的所有状态中任意选择的一种以作为指示第一类UE和第二类UE检测扫描模式发射的寻呼消息的状态。
可选地，基站在复用DCI中选择S比特并定义S比特的含义，包括：
基站定义当复用DCI的预设比特位表示寻呼时，S比特状态的含义为指示第一类UE检测扫描模式发射的寻呼消息，指示第二类UE切换至对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组。
可选地，基站将P-RNTI分成两类并定义两类P-RNTI含义，包括：
基站定义当复用DCI采用第一类P-RNTI加扰时，第一类P-RNTI的含义为指示第一类UE和第二类UE检测扫描模式发射的寻呼消息；定义当复用DCI采用第二类P-RNTI加扰时，第二类P-RNTI的含义为指示第一类UE丢弃复用DCI或采用第二类P-RNTI解扰后丢弃复用DCI，指示第二类UE切换为对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组。
需要说明的是，本公开实施例中所提到的复用DCI都是指复用的直接指示的DCI。
本公开实施例提供的信息传输方法，由于复用DCI设置有指示信息，以用于指示不同类型UE进行动作从而切换寻呼机制，因此避免了业务信道的大规模堵塞和过多无效的上行接入过程，兼顾了网络部署和资源调度的需求。
本公开实施例还提供一种信息传输方法，如图3所示，该方法包括：
步骤301、基站计算UE的寻呼时刻。
步骤302、基站在得到的寻呼时刻对应的寻呼控制资源集合或寻呼搜索空间位置上确定寻呼DCI的位置。
步骤303、基站在确定的位置上向UE发送寻呼DCI。
可选地，基站计算UE的寻呼时刻，包括：
当非连续接收(Discontinuous Reception，DRX)周期包括P个时域方向寻呼时刻时，基站通过UE_IDmod(P)计算UE的寻呼时刻；当DRX周期包括N个寻呼帧，且每个寻呼帧包括P个时域方向寻呼时刻时，基站通过floor(UE_ID/N)mod(P)计算UE的寻呼时刻；其中， UE_ID为寻呼消息中的临时移动台识别号(S-Temporary Mobile Station Identifier，S-TMSI)或IMSI，时域方向寻呼时刻对应的频域方向的寻呼控制资源集合或寻呼搜索空间的数量不大于BWP的数量。
需要说明的是，DRX周期包括P个时域方向寻呼时刻的示意图可以如图4所示。
可选地，基站在确定的位置上向UE发送寻呼DCI，包括：
基站在时域方向寻呼时刻对应的频域方向的每个寻呼控制资源集合或寻呼搜索空间位置上发射时域方向寻呼时刻所有被寻呼UE对应的寻呼DCI。
基站根据寻呼DCI在寻呼消息的资源位置上发射寻呼消息。
可选地，基站根据寻呼DCI在寻呼消息的资源位置上发射寻呼消息，包括：
当寻呼DCI内包括寻呼消息的时域位置指示域时，基站在时域位置指示域对应的时域资源上发送寻呼消息；当寻呼DCI内包括寻呼消息的BWP索引时，基站在BWP索引对应的BWP资源上发送寻呼消息；当寻呼DCI内包括寻呼消息的时域位置指示域和BWP索引时，基站在时域位置指示域对应的时域资源和BWP索引对应的BWP资源上检测寻呼消息。
可选地，基站计算UE的寻呼时刻，包括：
当DRX周期包括P个时域方向寻呼时刻和Q个频域方向寻呼时刻时，基站通过第一预设计算方式计算UE的寻呼时刻；当DRX周期包括N个寻呼帧，且每个寻呼帧包括P个时域方向寻呼时刻和Q个频域方向寻呼时刻时，基站通过第二预设方式计算UE的寻呼时刻；其中，第一预设计算方式为UE_ID mod(P*Q)、UE_ID mod(P)mod(Q)和UE_ID mod(Q)mod(P)中任意一种计算方式；第二预设计算方式为floor(UE_ID/N)mod(P*Q)、floor(UE_ID/N)mod(P)mod(Q)和floor(UE_ID/N)mod(Q)mod(P)中任意一种计算方式；其中，UE_ID为寻呼消息中S-TMSI或IMSI，Q个频域方向寻呼时刻对应Q个寻呼控制资源集合或寻呼搜索空间，Q不大于BWP的数量。
需要说明的是，DRX周期包括P个时域方向寻呼时刻和Q个频域方向寻呼时刻的示意图可以如图5所示。
可选地，基站在确定的位置上向UE发送寻呼DCI，包括：
基站在时域方向寻呼时刻对应的一个频域方向寻呼时刻的寻呼控制资源集合或寻呼搜索空间位置上发射时域方向寻呼时刻对应的频域方向寻呼时刻所有被寻呼UE对应的寻呼DCI。
基站根据寻呼DCI在寻呼消息的资源位置上发射寻呼消息。
可选地，基站根据寻呼DCI在寻呼消息的资源位置上发射寻呼消息，包括：
当寻呼DCI内包括寻呼消息的时域位置指示域时，基站在时域位置指示域对应的时域资源上发送寻呼消息；当寻呼DCI内包括寻呼消息的BWP索引时，基站在BWP索引对应的BWP资源上发送寻呼消息；当寻呼DCI内包括寻呼消息的时域位置指示域和BWP索引时，基站在时域位置指示域对应的时域资源和BWP索引对应的BWP资源上检测寻呼消息。
可选地，被BWP索引指示的BWP上不分配寻呼控制资源集合和寻呼搜索空间。
可选地，当BWP上不存在SSB且配置有寻呼控制资源集合、OSI集合和剩余最小系统 信息(Remaining Minimum System Information，RMSI)集合中至少一种时，基站按照存在SSB的方式对所配置的集合进行资源映射，集合的时频资源配置和初始接入BWP上的RMSI集合的时频资源配置相同；其中，SSB的第一个资源块索引由UE检测获取，或是由基站配置。或者，集合的时频资源配置和初始接入BWP上的RMSI集合的时频资源配置相同；其中，集合的第一个资源块索引由基站配置。
可选地，当BWP上配置了寻呼控制资源集合、OSI集合和RMSI集合中至少一种时，无论BWP上是否存在SSB，基站按照存在SSB的方式对所配置的集合进行资源映射，集合的时频资源配置和初始接入BWP上的RMSI集合的时频资源配置相同；其中，SSB的第一个资源块索引由UE检测获取，或是由基站配置。或者，集合的时频资源配置和初始接入BWP上的RMSI集合的时频资源配置相同；其中，集合的第一个资源块索引由基站配置。
本公开实施例提供的信息传输方法，由于计算了寻呼时刻，使得基站能够在不同的寻呼时刻发送寻呼DCI，因此实现了寻呼DCI的分散，避免了时频域资源拥塞。
本公开实施例还提供一种信息传输方法，如图6所示，还包括：
步骤401、基站以配置或预设的方式按照实际发射的SSB的数量E对BWP上所配置的集合进行资源关联。
其中，所配置的集合包括寻呼控制资源集合和OSI集合中至少一种
可选地，基站以配置或预设的方式按照实际发射的SSB的数量E对BWP上所配置的集合进行资源关联，包括：
基站以配置或预设的方式按照实际发射的SSB的数量E调整关联的SSB索引，得到经过调整的关联的SSB索引i。
基站根据i计算BWP上所配置的集合的第一个时隙索引；其中，i＝j+offset，j表示实际发射的SSB的逻辑索引，j与实际发射的SSB的实际索引按照升序方式一一对应，j的取值范围为{0，1，2…E-1}，offset为偏移量。
可选地，基站以配置或预设的方式按照实际发射的SSB的数量E对BWP上所配置的集合进行资源关联，包括：
当基站以预设的方式按照实际发射的SSB的数量E调整关联的SSB索引i，基站根据i计算BWP上所配置的集合的第一个时隙索引；其中，i为以第一个用于发射SSB的位置作为起始位置，一一对应实际发射的SSB的逻辑索引j；或者，i为以第一个实际发射SSB的位置作为起始位置，一一对应实际发射的SSB的逻辑索引j；或者，i为以第(F-E+1)个用于发射SSB的位置作为起始位置，一一对应实际发射的SSB的逻辑索引j；j的取值范围为{0，1，2…E-1}。
可选地，基站以配置或预设方式按照实际发射的SSB的数量E对BWP上所配置的集合进行资源关联，包括：
基站以配置的方式按照实际发射的SSB的数量E调整关联的SSB索引。
可选地，与SSB索引关联的所配置的资源集合的搜索窗是与SSB索引关联的RMSI的搜索窗，或是除实际与SSB索引关联的RMSI的搜索窗之外的搜索窗。
本公开实施例提供的信息传输方法，由于建立了寻呼控制资源集合与SSB之间的关联，从而减少不必要的预留资源。
本公开实施例还提供一种信息传输方法，如图7所示，该方法包括：
步骤501、UE接收基站发送的复用DCI。
其中，复用DCI中设置有用于指示不同类型UE进行动作的指示信息，复用DCI为基站将PDSCH的DCI复用的DCI，且当复用DCI采用预设RNTI加扰时为PDSCH的DCI，采用P-RNTI加扰时为寻呼DCI，预设RNTI为除P-RNTI以外的RNTI。
步骤502、UE根据复用DCI中设置的指示信息进行动作。
可选地，UE根据复用DCI中设置的指示信息进行动作，包括：
当基站在复用DCI中加入A比特并定义A比特的含义时，UE根据A比特进行动作；其中，复用DCI本身包含X比特，UE包括第一类UE和第二类UE，第一类UE为3GPP的Rel-15中的UE，第二类UE为Rel-15的后续版本中的UE。
或者，
当基站在复用DCI中选择R比特并定义R比特的含义时，UE根据R比特进行动作；其中，R小于X。
或者，
当基站将P-RNTI分成两类并定义两类P-RNTI含义时，UE根据第一类P-RNTI的含义和第二类P-RNTI的含义进行动作。
可选地，当UE为第一类UE且在Rel-15中时，或者，当UE为第一类UE且在Rel-15的后续版本中时，UE根据A比特进行动作，包括：
当第一类UE检测到复用DCI采用预设RNTI加扰时，第一类UE丢弃A比特，并根据X比特检测对应的PDSCH；当第一类UE检测到复用DCI采用P-RNTI加扰且A比特状态为预设状态时，第一类UE根据X比特或X比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；当第一类UE检测到复用DCI采用P-RNTI加扰且A比特为除预设状态以外的其他状态时，第一类UE丢弃复用DCI；其中，A比特状态为A比特对应的状态，预设状态为预先从A比特对应的所有状态中任意选择的一种以作为指示第一类UE和第二类UE检测扫描模式发射的寻呼消息的状态，寻呼指示比特域包括混合自动重传请求(Hybrid Automatic Repeat reQuest，HARQ)进程号比特域和下行分配索引比特域中至少一种。
当UE为第二类UE且在Rel-15的后续版本中，UE根据A比特进行动作，包括：
当第二类UE检测到复用DCI采用预设RNTI加扰时，第二类UE丢弃A比特，并根据X比特检测对应的PDSCH；当第二类UE检测到复用DCI采用P-RNTI加扰且A比特状态为预设状态时，第二类UE根据X比特或X比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；当第二类UE检测到复用DCI采用P-RNTI加扰且A比特状态为除预设状态以外的其他状态时，第二类UE根据X比特或X比特中除寻呼指示比特域以外的比特切换至对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组。
可选地，当UE为第一类UE且在Rel-15中时，或者，当UE为第一类UE且在Rel-15的后续版本中时，UE根据A比特进行动作，包括：
当第一类UE检测到复用DCI采用预设RNTI加扰时，第一类UE丢弃A比特，并根据X比特检测对应的PDSCH；当第一类UE检测到复用DCI采用P-RNTI加扰时，第一类UE丢弃A比特，并根据X比特或X比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；其中，寻呼指示为单个寻呼指示或寻呼指示组，寻呼指示比特域包括HARQ进程号比特域和下行分配索引比特域中至少一种。
当UE为第二类UE且在Rel-15的后续版本中，UE根据A比特进行动作，包括：
当第二类UE检测到复用DCI采用预设RNTI加扰时，第二类UE丢弃A比特，并根据X比特检测对应的PDSCH；当第二类UE检测到复用DCI采用P-RNTI加扰时，第二类UE根据X比特或X比特中除寻呼指示比特域以外的比特切换至对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组。
可选地，当UE为第一类UE且在Rel-15中时，或者，当UE为第一类UE且在Rel-15的后续版本中时，UE根据R比特进行动作，包括：
当第一类UE检测到复用DCI采用预设RNTI加扰时，第一类UE根据X比特检测对应的PDSCH；当第一类UE检测到复用DCI采用P-RNTI加扰且R比特状态为预设状态时，第一类UE根据(X-R)比特或(X-R)比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；当第一类UE检测到复用DCI采用P-RNTI加扰且R比特为除预设状态以外的其他状态时，第一类UE丢弃复用DCI；其中，R比特状态为R比特对应的状态，预设状态为预先从R比特对应的所有状态中任意选择的一种以作为指示第一类UE和第二类UE检测扫描模式发射的寻呼消息的状态，寻呼指示比特域包括HARQ进程号比特域和下行分配索引比特域中至少一种。
当UE为第二类UE且在Rel-15的后续版本中，UE根据R比特进行动作，包括：
当第二类UE检测到复用DCI采用预设RNTI加扰时，第二类UE根据X比特检测对应的PDSCH；当第二类UE检测到复用DCI采用P-RNTI加扰且R比特状态为预设状态时，第二类UE根据(X-R)比特或(X-R)比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；当第二类UE检测到复用DCI采用P-RNTI加扰且R比特状态为除预设状态以外的其他状态时，第二类UE根据(X-R)比特或(X-R)比特中除寻呼指示比特域以外的比特切换至对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组。
可选地，当UE为第一类UE且在Rel-15中时，或者，当UE为第一类UE且在Rel-15的后续版本中时，UE根据R比特进行动作，包括：
当第一类UE检测到复用DCI采用预设RNTI加扰时，第一类UE根据X比特检测对应的PDSCH；当第一类UE检测到复用DCI采用P-RNTI加扰时，第一类UE根据(X-R)比特或(X-R)比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；其中，R比特状态为R比特对应的状态，预设状态为预先从R比特对应的所有状态中任意选择的一 种以作为指示第一类UE和第二类UE检测扫描模式发射的寻呼消息的状态，寻呼指示比特域包括HARQ进程号比特域和下行分配索引比特域中至少一种。
当UE为第二类UE且在Rel-15的后续版本中，UE根据R比特进行动作，包括：
当第二类UE检测到复用DCI采用预设RNTI加扰时，第二类UE根据X比特检测对应的PDSCH；当第二类UE检测到复用DCI采用P-RNTI加扰时，第二类UE根据(X-R)比特或(X-R)比特中除寻呼指示比特域以外的比特切换至对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组。
可选地，当UE为第一类UE且在Rel-15中时，或者，当UE为第一类UE且在Rel-15的后续版本中时，UE根据第一类P-RNTI的含义和第二类P-RNTI的含义进行动作，包括：
当第一类UE检测到复用DCI采用预设RNTI加扰时，第一类UE根据X比特检测对应的PDSCH；当第一类UE检测到复用DCI采用第一类P-RNTI加扰时，第一类UE根据X比特或X比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；当第一类UE检测到复用DCI采用第二类P-RNTI加扰时，第一类UE丢弃复用DCI，或使用第二类P-RNTI解扰后丢弃复用DCI。
当UE为第二类UE且在Rel-15的后续版本中，UE根据第一类P-RNTI的含义和第二类P-RNTI的含义进行动作，包括：
当第二类UE检测到复用DCI采用预设RNTI加扰时，第二类UE根据X比特检测对应的PDSCH；当第二类UE检测到复用DCI采用第一类P-RNTI加扰时，第二类UE根据X比特或X比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；当第二类UE检测到复用DCI采用第二类P-RNTI加扰时，第二类UE根据X比特或X比特中除寻呼指示比特域以外的比特切换至对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组。
需要说明的是，本公开实施例中所提到的复用DCI都是指复用的PSCDH的DCI。
本公开实施例提供的信息传输方法，由于复用DCI设置有指示信息，以用于指示不同类型UE进行动作从而切换寻呼机制，因此避免了业务信道的大规模堵塞和过多无效的上行接入过程，兼顾了网络部署和资源调度的需求。
本公开实施例还提供一种信息传输方法，如图8所示，该方法包括：
步骤601、UE接收基站发送的复用DCI。
其中，复用DCI为基站将直接指示的DCI复用的DCI，且当其中的预设比特位表示直接指示时为直接指示的DCI，表示寻呼时为寻呼DCI。
步骤602、UE根据复用DCI中设置的指示信息进行动作。
可选地，UE根据复用DCI中设置的指示信息进行动作，包括：
当基站在复用DCI中加入B比特并定义B比特的含义时，UE根据B比特进行动作；其中，复用DCI本身包含Y比特，UE包括第一类UE和第二类UE，第一类UE为3GPP的Rel-15中的UE，第二类UE为Rel-15的后续版本中的UE。
或者，
当基站在复用DCI中选择S比特并定义S比特的含义时，UE根据S比特进行动作；其中，S小于Y。
或者，
当基站将P-RNTI分成两类并定义两类P-RNTI含义时，UE根据第一类P-RNTI的含义和第二类P-RNTI的含义进行动作。
可选地，当UE为第一类UE且在Rel-15中时，或者，当UE为第一类UE且在Rel-15的后续版本中时，UE根据B比特进行动作，包括：
当第一类UE检测到复用DCI的预设比特位表示直接指示时，第一类UE丢弃B比特，并根据Y比特检测对应的PDSCH；当第一类UE检测到复用DCI的预设比特位表示寻呼且B比特状态为预设状态时，第一类UE根据Y比特或Y比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；当第一类UE检测到复用DCI的预设比特位表示寻呼且B比特为除预设状态以外的其他状态时，第一类UE丢弃复用DCI；其中，B比特状态为B比特对应的状态，预设状态为预先从B比特对应的所有状态中任意选择的一种以作为指示第一类UE和第二类UE检测扫描模式发射的寻呼消息的状态，寻呼指示比特域包括HARQ进程号比特域和下行分配索引比特域中至少一种。
当UE为第二类UE且在Rel-15的后续版本中，UE根据B比特进行动作，包括：
当第二类UE检测到复用DCI的预设比特位表示直接指示时，第二类UE丢弃B比特，并根据Y比特检测对应的PDSCH；当第二类UE检测到复用DCI的预设比特位表示寻呼且B比特状态为预设状态时，第二类UE根据Y比特或Y比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；当第二类UE检测到复用DCI的预设比特位表示寻呼且B比特状态为除预设状态以外的其他状态时，第二类UE根据Y比特或Y比特中除寻呼指示比特域以外的比特认为是B比特对应的寻呼机制和B比特切换至对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组。
可选地，当UE为第一类UE且在Rel-15中时，或者，当UE为第一类UE且在Rel-15的后续版本中时，UE根据B比特进行动作，包括：
当第一类UE检测到复用DCI的预设比特位表示直接指示时，第一类UE丢弃B比特，并根据Y比特检测对应的PDSCH；当第一类UE检测到复用DCI的预设比特位表示寻呼时，第一类UE丢弃B比特，并根据Y比特或Y比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；其中，寻呼指示为单个寻呼指示或寻呼指示组，寻呼指示比特域包括HARQ进程号比特域和下行分配索引比特域中至少一种。
当UE为第二类UE且在Rel-15的后续版本中，UE根据B比特进行动作，包括：
当第二类UE检测到复用DCI的预设比特位表示直接指示时，第二类UE丢弃B比特，并根据Y比特检测对应的PDSCH；当第二类UE检测到复用DCI的预设比特位表示寻呼时，第二类UE根据Y比特或Y比特中除寻呼指示比特域以外的比特切换至对应的非扫描模式寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组。
可选地，当UE为第一类UE且在Rel-15中时，或者，当UE为第一类UE且在Rel-15 的后续版本中时，UE根据S比特进行动作，包括：
当第一类UE检测到复用DCI的预设比特位表示直接指示时，第一类UE根据Y比特检测对应的PDSCH；当第一类UE检测到复用DCI的预设比特位表示寻呼且S比特状态为预设状态时，第一类UE根据(Y-S)比特或(Y-S)比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；当第一类UE检测到复用DCI的预设比特位表示寻呼且S比特为除预设状态以外的其他状态时，第一类UE丢弃复用DCI；其中，S比特状态为S比特对应的状态，预设状态为预先从S比特对应的所有状态中任意选择的一种以作为指示第一类UE和第二类UE检测扫描模式发射的寻呼消息的状态，寻呼指示比特域包括HARQ进程号比特域和下行分配索引比特域中至少一种。
当UE为第二类UE且在Rel-15的后续版本中，UE根据S比特进行动作，包括：
当第二类UE检测到复用DCI的预设比特位表示直接指示时，第二类UE根据Y比特检测对应的PDSCH；当第二类UE检测到复用DCI的预设比特位表示寻呼且S比特状态为预设状态时，第二类UE根据(Y-S)比特或(Y-S)比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；当第二类UE检测到复用DCI的预设比特位表示寻呼且S比特状态为除预设状态以外的其他状态时，第二类UE根据(Y-S)比特或(Y-S)比特中除寻呼指示比特域以外的比特切换至对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组。
可选地，当UE为第一类UE且在Rel-15中时，或者，当UE为第一类UE且在Rel-15的后续版本中时，UE根据S比特进行动作，包括：
当第一类UE检测到复用DCI的预设比特位表示直接指示时，第一类UE根据Y比特检测对应的PDSCH；当第一类UE检测到复用DCI的预设比特位表示寻呼时，第一类UE根据(Y-S)比特或(Y-S)比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；其中，S比特状态为S比特对应的状态，预设状态为预先从S比特对应的所有状态中任意选择的一种以作为指示第一类UE和第二类UE检测扫描模式发射的寻呼消息的状态，寻呼指示比特域包括HARQ进程号比特域和下行分配索引比特域中至少一种。
当UE为第二类UE且在Rel-15的后续版本中，UE根据S比特进行动作，包括：
当第二类UE检测到复用DCI的预设比特位表示直接指示时，第二类UE根据Y比特检测对应的PDSCH；当第二类UE检测到复用DCI的预设比特位表示寻呼时，第二类UE根据(Y-S)比特或(Y-S)比特中除寻呼指示比特域以外的比特切换至对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组。
可选地，当UE为第一类UE且在Rel-15中时，或者，当UE为第一类UE且在Rel-15的后续版本中时，UE根据第一类P-RNTI的含义和第二类P-RNTI的含义进行动作，包括：
当第一类UE检测到复用DCI采用预设RNTI加扰时，第一类UE根据Y比特检测对应的PDSCH；当第一类UE检测到复用DCI采用第一类P-RNTI加扰时，第一类UE根据Y比特或Y比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；当第一类UE检测到复用DCI采用第二类P-RNTI加扰时，第一类UE丢弃复用DCI，或使用第二类P-RNTI 解扰后丢弃复用DCI。
当UE为第二类UE且在Rel-15的后续版本中，UE根据第一类P-RNTI的含义和第二类P-RNTI的含义进行动作，包括：
当第二类UE检测到复用DCI采用预设RNTI加扰时，第二类UE根据Y比特检测对应的PDSCH；当第二类UE检测到复用DCI采用第一类P-RNTI加扰时，第二类UE根据Y比特或Y比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；当第二类UE检测到复用DCI采用第二类P-RNTI加扰时，第二类UE根据Y比特或Y比特中除寻呼指示比特域以外的比特切换至对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组。
需要说明的是，本公开实施例中所提到的复用DCI都是指复用的直接指示的DCI。
本公开实施例提供的信息传输方法，由于复用DCI设置有指示信息，以用于指示不同类型UE进行动作从而切换寻呼机制，因此避免了业务信道的大规模堵塞和过多无效的上行接入过程，兼顾了网络部署和资源调度的需求。
本公开实施例还提供一种信息传输方法，如图9所示，该方法包括：
步骤701、UE计算自身的寻呼时刻。
步骤702、UE在获得的寻呼时刻对应的寻呼控制资源集合或寻呼搜索空间位置上确定寻呼DCI的位置。
步骤703、UE在确定的位置上接收基站发送的寻呼DCI。
可选地，当DRX周期包括P个时域方向寻呼时刻时，UE通过UE_ID mod(P)计算自身的寻呼时刻；当DRX周期包括N个寻呼帧，且每个寻呼帧包括P个时域方向寻呼时刻时，UE通过floor(UE_ID/N)mod(P)计算自身的寻呼时刻；其中，UE_ID为寻呼消息中S-TMSI或IMSI，时域方向寻呼时刻对应的频域方向的寻呼控制资源集合或寻呼搜索空间的数量不大于BWP的数量。
可选地，UE在确定的位置上接收基站发送的寻呼DCI，包括：
UE在时域方向寻呼时刻对应的频域方向的每个寻呼控制资源集合或寻呼搜索空间位置上检测时域方向寻呼时刻对应的寻呼DCI。
UE根据寻呼DCI在寻呼消息的资源位置上检测寻呼消息。
可选地，UE根据寻呼DCI在寻呼消息的资源位置上检测寻呼消息，包括：
当寻呼DCI内包括寻呼消息的时域位置指示域时，UE在时域位置指示域对应的时域资源上检测寻呼消息；当寻呼DCI内包括寻呼消息的BWP索引时，UE在BWP索引对应的BWP资源上检测寻呼消息；当寻呼DCI内包括寻呼消息的时域位置指示域和BWP索引时，UE在时域位置指示域对应的时域资源和BWP索引对应的BWP资源上检测寻呼消息。
可选地，UE计算自身的寻呼时刻，包括：
当DRX周期包括P个时域方向寻呼时刻和Q个频域方向寻呼时刻时，UE通过第一预设计算方式计算自身的寻呼时刻；当DRX周期包括N个寻呼帧，且每个寻呼帧包括P个时域方向寻呼时刻和Q个频域方向寻呼时刻时，UE通过第二预设方式计算自身的寻呼时刻； 其中，第一预设计算方式为UE_ID mod(P*Q)、UE_ID mod(P)mod(Q)和UE_ID mod(Q)mod(P)中任意一种计算方式；第二预设计算方式为floor(UE_ID/N)mod(P*Q)、floor(UE_ID/N)mod(P)mod(Q)和floor(UE_ID/N)mod(Q)mod(P)中任意一种计算方式；其中，UE_ID为寻呼消息中S-TMSI或IMSI，Q个频域方向寻呼时刻对应Q个寻呼控制资源集合或寻呼搜索空间，Q不大于BWP的数量。
可选地，UE在确定的位置上接收基站发送的寻呼DCI，包括：
UE在时域方向寻呼时刻对应的一个频域方向寻呼时刻的寻呼控制资源集合或寻呼搜索空间位置上检测时域方向寻呼时刻对应的频域方向寻呼时刻对应的寻呼DCI。
UE根据寻呼DCI在寻呼消息的资源位置上检测寻呼消息。
可选地，UE根据寻呼DCI在寻呼消息的资源位置上检测寻呼消息，包括：
当寻呼DCI内包括寻呼消息的时域位置指示域时，UE在时域位置指示域对应的时域资源上检测寻呼消息；当寻呼DCI内包括寻呼消息的BWP索引时，UE在BWP索引对应的BWP资源上检测寻呼消息；当寻呼DCI内包括寻呼消息的时域位置指示域和BWP索引时，UE在时域位置指示域对应的时域资源和BWP索引对应的BWP资源上检测寻呼消息。
可选地，被BWP索引指示的BWP上不分配寻呼控制资源集合和寻呼搜索空间。
可选地，当BWP上不存在SSB且配置有寻呼控制资源集合、OSI集合和RMSI集合中至少一种时，UE按照存在SSB的方式对所配置的集合进行资源映射，集合的时频资源配置和初始接入BWP上的RMSI集合的时频资源配置相同；其中，SSB的第一个资源块索引由UE检测获取，或是由基站配置。或者，集合的时频资源配置和初始接入BWP上的RMSI集合的时频资源配置相同；其中，集合的第一个资源块索引由基站配置。
可选地，当BWP上配置了寻呼控制资源集合、OSI集合和RMSI集合中至少一种时，无论BWP上是否存在SSB，UE按照存在SSB的方式对所配置的集合进行资源映射，集合的时频资源配置和初始接入BWP上的RMSI集合的时频资源配置相同；其中，SSB的第一个资源块索引由UE检测获取，或是由基站配置。或者，集合的时频资源配置和初始接入BWP上的RMSI集合的时频资源配置相同；其中，集合的第一个资源块索引由基站配置。
本公开实施例提供的信息传输方法，由于计算了寻呼时刻，使得基站能够在不同的寻呼时刻发送寻呼DCI，因此实现了寻呼DCI的分散，避免了时频域资源拥塞。
本公开实施例还提供一种信息传输方法，如图10所示，该方法包括：
步骤801、UE以被配置或预设的方式按照实际发射的SSB的数量E对BWP上所配置的集合进行资源关联。
其中，配置的集合包括寻呼控制资源集合和OSI集合中至少一种。
可选地，UE以被配置或预设的方式按照实际发射的SSB的数量E对BWP上所配置的集合进行资源关联，包括：
UE以被配置或预设的方式按照实际发射的SSB的数量E调整关联的SSB索引，得到经过调整的的关联的SSB索引i。
UE根据i计算BWP上所配置的集合的第一个时隙索引；其中，i＝j+offset，j表示实际 发射的SSB的逻辑索引，j与实际发射的SSB的实际索引按照升序方式一一对应，j的取值范围为{0，1，2…E-1}，offset为偏移量。
可选地，UE以被配置或预设的方式按照实际发射的SSB的数量E对BWP上所配置的集合进行资源关联，包括：
当UE以预设的方式按照实际发射的SSB的数量E调整关联的SSB索引i，UE根据i计算BWP上所配置的集合的第一个时隙索引；其中，i为以第一个用于发射SSB的位置作为起始位置，一一对应实际发射的SSB的逻辑索引j；或者，i为以第一个实际发射SSB的位置作为起始位置，一一对应实际发射的SSB的逻辑索引j；或者，i为以第(F-E+1)个用于发射SSB的位置作为起始位置，一一对应实际发射的SSB的逻辑索引j；j的取值范围为{0，1，2…E-1}。
UE以被配置或预设的方式按照实际发射的SSB的数量E对BWP上所配置的集合进行资源关联，包括：
UE以配置的方式按照实际发射的SSB的数量E调整关联的SSB索引。
可选地，与SSB索引关联的所配置的资源集合的搜索窗是与SSB索引关联的RMSI的搜索窗，或是除实际与SSB索引关联的RMSI的搜索窗之外的搜索窗。
本公开实施例提供的信息传输方法，由于建立了寻呼控制资源集合与SSB之间的关联，从而减少不必要的预留资源。
本公开实施例提供一种基站，如图11所示，该基站9包括：
第一处理模块91，用于在复用DCI中设置用于指示不同类型UE进行动作的指示信息。
第一发送模块92，用于向UE发送复用DCI。
其中，复用DCI为将PDSCH的DCI复用的DCI，且当复用DCI采用预设RNTI加扰时为PDSCH的DCI，采用P-RNTI加扰时为寻呼DCI，预设RNTI为除P-RNTI以外的RNTI。
可选地，第一处理模块91具体用于：
在复用DCI中加入A比特并定义A比特的含义，以用于指示UE进行动作；其中，复用DCI本身包含X比特，UE包括第一类UE和第二类UE，第一类UE为第三代合作伙伴计划3GPP的第15版本Rel-15中的UE，第二类UE为Rel-15的后续版本中的UE。
在复用DCI中选择R比特并定义R比特的含义，以用于指示UE进行动作；其中，R小于X。
将P-RNTI分成两类并定义两类P-RNTI含义，以用于指示第一类UE和第二类UE进行动作。
可选地，第一处理模块91具体还用于：
定义当复用DCI采用预设RNTI加扰时，A比特状态的含义为指示第一类UE和第二类UE丢弃A比特；定义当复用DCI采用P-RNTI加扰且A比特状态为预设状态时，A比特状态的含义为指示第一类UE和第二类UE检测扫描模式发射的寻呼消息；定义当复用DCI采用P-RNTI加扰且A比特状态为除预设状态以外的其他状态时，A比特的含义为指示第一类UE丢弃复用DCI，指示第二类UE切换至对应的非扫描模式和寻呼指示中至少一种；其中， 寻呼指示为单个寻呼指示或寻呼指示组，预设状态为预先从A比特对应的所有状态中任意选择的一种以作为指示第一类UE和第二类UE检测扫描模式发射的寻呼消息的状态。
可选地，第一处理模块91具体还用于：
定义当复用DCI采用预设RNTI加扰时，A比特状态的含义为指示第一类UE和第二类UE丢弃A比特；定义当复用DCI采用P-RNTI加扰时，A比特状态的含义为指示第一类UE丢弃A比特并检测扫描模式发射的寻呼消息，指示第二类UE切换至对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组。
可选地，第一处理模块91具体还用于：
定义当复用DCI采用P-RNTI加扰且R比特状态为预设状态时，R比特状态的含义为指示第一类UE和第二类UE检测扫描模式发射的寻呼消息；定义当复用DCI采用P-RNTI加扰且R比特状态为除预设状态以外的其他状态时，R比特的含义为指示第一类UE丢弃复用DCI，指示第二类UE切换至对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组，预设状态为预先从R比特对应的所有状态中任意选择的一种以作为指示第一类UE和第二类UE检测扫描模式发射的寻呼消息的状态。
可选地，第一处理模块91具体还用于：
定义当复用DCI采用P-RNTI加扰时，R比特状态的含义为指示第一类UE检测扫描模式发射的寻呼消息，指示第二类UE切换至对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组。
可选地，第一处理模块91具体还用于：
定义当复用DCI采用第一类P-RNTI加扰时，第一类P-RNTI的含义为指示第一类UE和第二类UE检测扫描模式发射的寻呼消息；定义当复用DCI采用第二类P-RNTI加扰时，第二类P-RNTI的含义为指示第一类UE丢弃复用DCI或采用第二类P-RNTI解扰后丢弃复用DCI，指示第二类UE切换为对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组。
需要说明的是，本公开实施例中所提到的复用DCI都是指复用的PSCDH的DCI。
本公开实施例提供的基站，由于复用DCI设置有指示信息，以用于指示不同类型UE进行动作从而切换寻呼机制，因此避免了业务信道的大规模堵塞和过多无效的上行接入过程，兼顾了网络部署和资源调度的需求。
在实际应用中，第一处理模块91和第一发送模块92均可由位于基站9中的中央处理器(Central Processing Unit，CPU)、微处理器(Micro Processor Unit，MPU)、数字信号处理器(Digital Signal Processor，DSP)或现场可编程门阵列(Field Programmable Gate Array，FPGA)等实现。
本公开实施例还提供一种基站，如图12所示，该基站10包括：
第二处理模块1001，用于在复用DCI中设置用于指示不同类型UE进行动作的指示信息。
第二发送模块1002，用于向UE发送复用DCI。
其中，复用DCI为直接指示的DCI复用的DCI，且当复用DCI中预设比特位表示直接 指示时为直接指示的DCI，表示寻呼时为寻呼的DCI时。
可选地，第二处理模块1001具体用于：
在复用DCI中加入B比特并定义B比特的含义，以用于指示UE进行动作；其中，复用DCI本身包含Y比特；UE包括第一类UE和第二类UE，第一类UE为3GPP的Rel-15中的UE，第二类UE为Rel-15的后续版本中的UE。
在复用DCI中选择S比特并定义S比特的含义，以用于指示UE进行动作；其中，S小于Y。
将P-RNTI分成两类并定义两类P-RNTI含义，以用于指示第一类UE和第二类UE进行动作。
可选地，第二处理模块1001具体还用于：
定义当复用DCI的预设比特位表示直接指示时，B比特状态的含义为指示第一类UE和第二类UE丢弃B比特；定义当复用DCI的预设比特位表示寻呼且B比特状态为预设状态时，B比特状态的含义为指示第一类UE和第二类UE检测扫描模式发射的寻呼消息；定义当复用DCI的预设比特位表示寻呼且B比特状态为除预设状态以外的其他状态时，B比特的含义为指示第一类UE丢弃复用DCI，指示第二类UE切换至对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组，预设状态为预先从B比特对应的所有状态中任意选择的一种以作为指示第一类UE和第二类UE检测扫描模式发射的寻呼消息的状态。
可选地，第二处理模块1001具体还用于：
定义当复用DCI的预设比特位表示直接指示时，B比特状态的含义为指示第一类UE和第二类UE丢弃B比特；定义当复用DCI的预设比特位表示寻呼时，B比特状态的含义为指示第一类UE丢弃B比特并检测扫描模式发射的寻呼消息，指示第二类UE切换至对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组。
可选地，第二处理模块1001具体还用于：
定义当复用DCI的预设比特位表示寻呼且S比特状态为预设状态时，S比特状态的含义为指示第一类UE和第二类UE检测扫描模式发射的寻呼消息；定义当复用DCI的预设比特位表示寻呼且S比特状态为除预设状态以外的其他状态时，S比特的含义为指示第一类UE丢弃复用DCI，指示第二类UE切换至对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组，预设状态为预先从S比特对应的所有状态中任意选择的一种以作为指示第一类UE和第二类UE检测扫描模式发射的寻呼消息的状态。
可选地，第二处理模块1001具体还用于：
定义当复用DCI的预设比特位表示寻呼时，S比特状态的含义为指示第一类UE检测扫描模式发射的寻呼消息，指示第二类UE切换至对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组。
可选地，第二处理模块1001具体还用于：
定义当复用DCI采用第一类P-RNTI加扰时，第一类P-RNTI的含义为指示第一类UE 和第二类UE检测扫描模式发射的寻呼消息；定义当复用DCI采用第二类P-RNTI加扰时，第二类P-RNTI的含义为指示第一类UE丢弃复用DCI或采用第二类P-RNTI解扰后丢弃复用DCI，指示第二类UE切换为对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组。
需要说明的是，本公开实施例中所提到的复用DCI都是指复用的直接指示的DCI。
本公开实施例提供的基站，由于复用DCI设置有指示信息，以用于指示不同类型UE进行动作从而切换寻呼机制，因此避免了业务信道的大规模堵塞和过多无效的上行接入过程，兼顾了网络部署和资源调度的需求。
在实际应用中，第二处理模块1001和第二发送模块1002均可由位于基站10中的CPU、MPU、DSP或FPGA等实现。
本公开实施例还提供一种基站，如图13所示，该基站11包括：
第一计算模块1101，用于计算UE的寻呼时刻.
第三处理模块1102，用于在得到的寻呼时刻对应的寻呼控制资源集合或寻呼搜索空间位置上确定寻呼DCI的位置。
第三发送模块1103，用于在确定的位置上向UE发送寻呼DCI。
可选地，第一计算模块1101具体用于：
当DRX周期包括P个时域方向寻呼时刻时，通过UE_IDmod(P)计算UE的寻呼时刻；当DRX周期包括N个寻呼帧，且每个寻呼帧包括P个时域方向寻呼时刻时，通过floor(UE_ID/N)mod(P)计算UE的寻呼时刻；其中，UE_ID为寻呼消息中的S-TMSI或IMSI，时域方向寻呼时刻对应的频域方向的寻呼控制资源集合或寻呼搜索空间的数量不大于BWP的数量。
可选地，第三发送模块1103具体用于：
在时域方向寻呼时刻对应的频域方向的每个寻呼控制资源集合或寻呼搜索空间位置上发射时域方向寻呼时刻所有被寻呼UE对应的寻呼DCI；根据寻呼DCI在寻呼消息的资源位置上发射寻呼消息。
可选地，第三发送模块1103具体还用于：
当寻呼DCI内包括寻呼消息的时域位置指示域时，在时域位置指示域对应的时域资源上发送寻呼消息；当寻呼DCI内包括寻呼消息的BWP索引时，BWP索引对应的BWP资源上发送寻呼消息；当寻呼DCI内包括寻呼消息的时域位置指示域和BWP索引时，在时域位置指示域对应的时域资源和BWP索引对应的BWP资源上检测寻呼消息。
可选地，第一计算模块1101具体还用于：
当DRX周期包括P个时域方向寻呼时刻和Q个频域方向寻呼时刻时，通过第一预设计算方式计算UE的寻呼时刻；当DRX周期包括N个寻呼帧，且每个寻呼帧包括P个时域方向寻呼时刻和Q个频域方向寻呼时刻时，通过第二预设方式计算UE的寻呼时刻；其中，第一预设计算方式为UE_ID mod(P*Q)、UE_ID mod(P)mod(Q)和UE_ID mod(Q)mod(P)中任意一种计算方式；第二预设计算方式为floor(UE_ID/N)mod(P*Q)、floor(UE_ID/N)mod(P) mod(Q)和floor(UE_ID/N)mod(Q)mod(P)中任意一种计算方式；其中，UE_ID为寻呼消息中S-TMSI或IMSI，Q个频域方向寻呼时刻对应Q个寻呼控制资源集合或寻呼搜索空间，Q不大于BWP的数量。
可选地，第三发送模块1103具体还用于：
在时域方向寻呼时刻对应的一个频域方向寻呼时刻的寻呼控制资源集合或寻呼搜索空间位置上发射时域方向寻呼时刻对应的频域方向寻呼时刻所有被寻呼UE对应的寻呼DCI；根据寻呼DCI在寻呼消息的资源位置上发射寻呼消息。
可选地，第三发送模块1103具体还用于：
当寻呼DCI内包括寻呼消息的时域位置指示域时，在时域位置指示域对应的时域资源上发送寻呼消息；当寻呼DCI内包括寻呼消息的BWP索引时，在BWP索引对应的BWP资源上发送寻呼消息；当寻呼DCI内包括寻呼消息的时域位置指示域和BWP索引时，在时域位置指示域对应的时域资源和BWP索引对应的BWP资源上检测寻呼消息。
可选地，被BWP索引指示的BWP上不分配寻呼控制资源集合和寻呼搜索空间。
可选地，第三处理模块1102还用于：
当BWP上不存在SSB且配置有寻呼控制资源集合、OSI集合和RMSI集合中至少一种时，按照存在SSB的方式对所配置的集合进行资源映射，集合的时频资源配置和初始接入BWP上的RMSI集合的时频资源配置相同；其中，SSB的第一个资源块索引由UE检测获取，或是由基站配置。或者，集合的时频资源配置和初始接入BWP上的RMSI集合的时频资源配置相同；其中，集合的第一个资源块索引由基站配置。
可选地，第三处理模块1102还用于：
当BWP上配置了寻呼控制资源集合、OSI集合和RMSI集合中至少一种时，无论BWP上是否存在SSB，按照存在SSB的方式对所配置的集合进行资源映射，集合的时频资源配置和初始接入BWP上的RMSI集合的时频资源配置相同；其中，SSB的第一个资源块索引由UE检测获取，或是由基站配置。或者，集合的时频资源配置和初始接入BWP上的RMSI集合的时频资源配置相同；其中，集合的第一个资源块索引由基站配置。
本公开实施例提供的基站，由于计算了寻呼时刻，使得基站能够在不同的寻呼时刻发送寻呼DCI，因此实现了寻呼DCI的分散，避免了时频域资源拥塞。
在实际应用中，第一计算模块1101、第三处理模块1102和第三发送模块1103均可由位于基站11中的CPU、MPU、DSP或FPGA等实现。
本公开实施例还提供一种基站，如图14所示，该基站12包括：
第四处理模块1201，用于以配置或预设的方式按照实际发射的SSB的数量E对BWP上所配置的集合进行资源关联。
其中，所配置的集合包括寻呼控制资源集合和OSI集合中至少一种。
可选地，第四处理模块1201，具体用于：
以配置或预设的方式按照实际发射的SSB的数量E调整关联的SSB索引，得到经过调整的关联的SSB索引i。
根据i计算BWP上所配置的集合的第一个时隙索引；其中，i＝j+offset，j表示实际发射的SSB的逻辑索引，j与实际发射的SSB的实际索引按照升序方式一一对应，j的取值范围为{0，1，2…E-1}，offset为偏移量。
可选地，第四处理模块1201，具体还用于：
当基站以预设的方式按照实际发射的SSB的数量E调整关联的SSB索引i，根据i计算BWP上所配置的集合的第一个时隙索引；其中，i为以第一个用于发射SSB的位置作为起始位置，一一对应实际发射的SSB的逻辑索引j；或者，i为以第一个实际发射SSB的位置作为起始位置，一一对应实际发射的SSB的逻辑索引j；或者，i为以第(F-E+1)个用于发射SSB的位置作为起始位置，一一对应实际发射的SSB的逻辑索引j；j的取值范围为{0，1，2…E-1}。
可选地，第四处理模块1201，具体还用于：
以配置的方式按照实际发射的SSB的数量E调整关联的SSB索引。
可选地，与SSB索引关联的所配置的资源集合的搜索窗是与SSB索引关联的RMSI的搜索窗，或是除实际与SSB索引关联的RMSI的搜索窗之外的搜索窗。
本公开实施例提供的基站，由于建立了寻呼控制资源集合与SSB之间的关联，从而减少不必要的预留资源。
在实际应用中，第四处理模块1201可由位于基站12中的CPU、MPU、DSP或FPGA等实现。
本公开实施例还提供一种UE，如15所示，该UE 13包括：
第一接收模块1301，用于接收基站发送的复用DCI；其中，复用DCI为基站将PDSCH的DCI复用的DCI，且当复用DCI采用预设RNTI加扰时为PDSCH的DCI，采用P-RNTI加扰时为寻呼DCI，预设RNTI为除P-RNTI以外的RNTI。
第五处理模块1302，用于根据复用DCI中设置的指示信息进行动作。
可选地，第五处理模块1302具体用于：
当基站在复用DCI中加入A比特并定义A比特的含义时，根据A比特进行动作；其中，复用DCI本身包含X比特，UE包括第一类UE和第二类UE，第一类UE为3GPP的Rel-15中的UE，第二类UE为Rel-15的后续版本中的UE。
当基站在复用DCI中选择R比特并定义R比特的含义时，根据R比特进行动作；其中，R小于X。
当基站将P-RNTI分成两类并定义两类P-RNTI含义时，根据第一类P-RNTI的含义和第二类P-RNTI的含义进行动作。
可选地，当UE为第一类UE且在Rel-15中时，或者，当UE为第一类UE且在Rel-15的后续版本中时，第五处理模块1302具体还用于：
当第一类UE检测到复用DCI采用预设RNTI加扰时，丢弃A比特，并根据X比特检测对应的PDSCH；当第一类UE检测到复用DCI采用P-RNTI加扰且A比特状态为预设状态时，根据X比特或X比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息； 当第一类UE检测到复用DCI采用P-RNTI加扰且A比特为除预设状态以外的其他状态时，丢弃复用DCI；其中，A比特状态为A比特对应的状态，预设状态为预先从A比特对应的所有状态中任意选择的一种以作为指示第一类UE和第二类UE检测扫描模式发射的寻呼消息的状态，寻呼指示比特域包括HARQ进程号比特域和下行分配索引比特域中至少一种。
当UE为第二类UE且在Rel-15的后续版本中，第五处理模块1302具体还用于：
当第二类UE检测到复用DCI采用预设RNTI加扰时，丢弃A比特，并根据X比特检测对应的PDSCH；当第二类UE检测到复用DCI采用P-RNTI加扰且A比特状态为预设状态时，根据X比特或X比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；当第二类UE检测到复用DCI采用P-RNTI加扰且A比特状态为除预设状态以外的其他状态时，根据X比特或X比特中除寻呼指示比特域以外的比特切换至对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组。
可选地，当UE为第一类UE且在Rel-15中时，或者，当UE为第一类UE且在Rel-15的后续版本中时，第五处理模块1302具体还用于：
当第一类UE检测到复用DCI采用预设RNTI加扰时，UE丢弃A比特，并根据X比特检测对应的PDSCH；当第一类UE检测到复用DCI采用P-RNTI加扰时，弃A比特，并根据X比特或X比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；其中，寻呼指示为单个寻呼指示或寻呼指示组，寻呼指示比特域包括HARQ进程号比特域和下行分配索引比特域中至少一种。
当UE为第二类UE且在Rel-15的后续版本中，第五处理模块1302具体还用于：
当第二类UE检测到复用DCI采用预设RNTI加扰时，丢弃A比特，并根据X比特检测对应的PDSCH；当第二类UE检测到复用DCI采用P-RNTI加扰时，根据X比特或X比特中除寻呼指示比特域以外的比特切换至对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组。
可选地，当UE为第一类UE且在Rel-15中时，或者，当UE为第一类UE且在Rel-15的后续版本中时，第五处理模块1302具体还用于：
当第一类UE检测到复用DCI采用预设RNTI加扰时，根据X比特检测对应的PDSCH；当第一类UE检测到复用DCI采用P-RNTI加扰且R比特状态为预设状态时，根据(X-R)比特或(X-R)比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；当第一类UE检测到复用DCI采用P-RNTI加扰且R比特为除预设状态以外的其他状态时，丢弃复用DCI；其中，R比特状态为R比特对应的状态，预设状态为预先从R比特对应的所有状态中任意选择的一种以作为指示第一类UE和第二类UE检测扫描模式发射的寻呼消息的状态，寻呼指示比特域包括HARQ进程号比特域和下行分配索引比特域中至少一种。
当UE为第二类UE且在Rel-15的后续版本中，第五处理模块1302具体还用于：
当第二类UE检测到复用DCI采用预设RNTI加扰时，根据X比特检测对应的PDSCH；当第二类UE检测到复用DCI采用P-RNTI加扰且R比特状态为预设状态时，根据(X-R)比特或(X-R)比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；当第二 类UE检测到复用DCI采用P-RNTI加扰且R比特状态为除预设状态以外的其他状态时，根据(X-R)比特或(X-R)比特中除寻呼指示比特域以外的比特切换至对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组。
可选地，当UE为第一类UE且在Rel-15中时，或者，当UE为第一类UE且在Rel-15的后续版本中时，第五处理模块1302具体还用于：
当第一类UE检测到复用DCI采用预设RNTI加扰时，根据X比特检测对应的PDSCH；当第一类UE检测到复用DCI采用P-RNTI加扰时，根据(X-R)比特或(X-R)比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；其中，R比特状态为R比特对应的状态，预设状态为预先从R比特对应的所有状态中任意选择的一种以作为指示第一类UE和第二类UE检测扫描模式发射的寻呼消息的状态，寻呼指示比特域包括HARQ进程号比特域和下行分配索引比特域中至少一种。
当UE为第二类UE且在Rel-15的后续版本中，第五处理模块1302具体还用于：
当第二类UE检测到复用DCI采用预设RNTI加扰时，根据X比特检测对应的PDSCH；当第二类UE检测到复用DCI采用P-RNTI加扰时，根据(X-R)比特或(X-R)比特中除寻呼指示比特域以外的比特切换至对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组。
可选地，当UE为第一类UE且在Rel-15中时，或者，当UE为第一类UE且在Rel-15的后续版本中时，第五处理模块1302具体还用于：
当第一类UE检测到复用DCI采用预设RNTI加扰时，根据X比特检测对应的PDSCH；当第一类UE检测到复用DCI采用第一类P-RNTI加扰时，根据X比特或X比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；当第一类UE检测到复用DCI采用第二类P-RNTI加扰时，丢弃复用DCI，或使用第二类P-RNTI解扰后丢弃复用DCI。
当UE为第二类UE且在Rel-15的后续版本中，第五处理模块1302具体还用于：
当第二类UE检测到复用DCI采用预设RNTI加扰时，根据X比特检测对应的PDSCH；当第二类UE检测到复用DCI采用第一类P-RNTI加扰时，根据X比特或X比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；当第二类UE检测到复用DCI采用第二类P-RNTI加扰时，根据X比特或X比特中除寻呼指示比特域以外的比特切换至对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组。
需要说明的是，本公开实施例中所提到的复用DCI都是指复用的PSCDH的DCI。
本公开实施例提供的UE，由于复用DCI设置有指示信息，以用于指示不同类型UE进行动作从而切换寻呼机制，因此避免了业务信道的大规模堵塞和过多无效的上行接入过程，兼顾了网络部署和资源调度的需求。
在实际应用中，第一接收模块1301和第五处理模块1302均可由位于UE 13中的CPU、MPU、DSP或FPGA等实现。
本公开实施例还提供一种UE，如图16所示，该UE 14包括：
第二接收模块1401，用于接收基站发送的复用DCI；其中，复用DCI中设置有用于指 示不同类型UE进行动作的指示信息，复用DCI为基站将直接指示的DCI复用的DCI，且当其中的预设比特位表示直接指示时为直接指示的DCI，表示寻呼时为寻呼DCI。
第六处理模块1402，用于根据复用DCI中设置的指示信息进行动作。
可选地，第六处理模块1402具体用于：
当基站在复用DCI中加入B比特并定义B比特的含义时，根据B比特进行动作；其中，复用DCI本身包含Y比特，UE包括第一类UE和第二类UE，第一类UE为3GPP的Rel-15中的UE，第二类UE为Rel-15的后续版本中的UE。
当基站在复用DCI中选择S比特并定义S比特的含义时，根据S比特进行动作；其中，S小于Y。
当基站将P-RNTI分成两类并定义两类P-RNTI含义时，根据第一类P-RNTI的含义和第二类P-RNTI的含义进行动作。
可选地，当UE为第一类UE且在Rel-15中时，或者，当UE为第一类UE且在Rel-15的后续版本中时，第六处理模块1402具体还用于：
当第一类UE检测到复用DCI的预设比特位表示直接指示时，丢弃B比特，并根据Y比特检测对应的PDSCH；当第一类UE检测到复用DCI的预设比特位表示寻呼且B比特状态为预设状态时，根据Y比特或Y比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；当第一类UE检测到复用DCI的预设比特位表示寻呼且B比特为除预设状态以外的其他状态时，丢弃复用DCI；其中，B比特状态为B比特对应的状态，预设状态为预先从B比特对应的所有状态中任意选择的一种以作为指示第一类UE和第二类UE检测扫描模式发射的寻呼消息的状态，寻呼指示比特域包括HARQ进程号比特域和下行分配索引比特域中至少一种。
当UE为第二类UE且在Rel-15的后续版本中，第六处理模块1402具体还用于：
当第二类UE检测到复用DCI的预设比特位表示直接指示时，丢弃B比特，并根据Y比特检测对应的PDSCH；当第二类UE检测到复用DCI的预设比特位表示寻呼且B比特状态为预设状态时，根据Y比特或Y比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；当第二类UE检测到复用DCI的预设比特位表示寻呼且B比特状态为除预设状态以外的其他状态时，根据Y比特或Y比特中除寻呼指示比特域以外的比特认为是B比特对应的寻呼机制和B比特切换至对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组。
可选地，当UE为第一类UE且在Rel-15中时，或者，当UE为第一类UE且在Rel-15的后续版本中时，第六处理模块1402具体还用于：
当第一类UE检测到复用DCI的预设比特位表示直接指示时，丢弃B比特，并根据Y比特检测对应的PDSCH；当第一类UE检测到复用DCI的预设比特位表示寻呼时，丢弃B比特，并根据Y比特或Y比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；其中，寻呼指示为单个寻呼指示或寻呼指示组，寻呼指示比特域包括HARQ进程号比特域和下行分配索引比特域中至少一种。
当UE为第二类UE且在Rel-15的后续版本中，第六处理模块1402具体还用于：
当第二类UE检测到复用DCI的预设比特位表示直接指示时，丢弃B比特，并根据Y比特检测对应的PDSCH；当第二类UE检测到复用DCI的预设比特位表示寻呼时，根据Y比特或Y比特中除寻呼指示比特域以外的比特切换至对应的非扫描模式寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组。
可选地，当UE为第一类UE且在Rel-15中时，或者，当UE为第一类UE且在Rel-15的后续版本中时，第六处理模块1402具体还用于：
当第一类UE检测到复用DCI的预设比特位表示直接指示时，根据Y比特检测对应的PDSCH；当第一类UE检测到复用DCI的预设比特位表示寻呼且S比特状态为预设状态时，根据(Y-S)比特或(Y-S)比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；当第一类UE检测到复用DCI的预设比特位表示寻呼且S比特为除预设状态以外的其他状态时，丢弃复用DCI；其中，S比特状态为S比特对应的状态，预设状态为预先从S比特对应的所有状态中任意选择的一种以作为指示第一类UE和第二类UE检测扫描模式发射的寻呼消息的状态，寻呼指示比特域包括HARQ进程号比特域和下行分配索引比特域中至少一种。
当UE为第二类UE且在Rel-15的后续版本中，第六处理模块1402具体还用于：
当第二类UE检测到复用DCI的预设比特位表示直接指示时，根据Y比特检测对应的PDSCH；当第二类UE检测到复用DCI的预设比特位表示寻呼且S比特状态为预设状态时，根据(Y-S)比特或(Y-S)比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；当第二类UE检测到复用DCI的预设比特位表示寻呼且S比特状态为除预设状态以外的其他状态时，根据(Y-S)比特或(Y-S)比特中除寻呼指示比特域以外的比特切换至对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组。
可选地，当UE为第一类UE且在Rel-15中时，或者，当UE为第一类UE且在Rel-15的后续版本中时，第六处理模块1402具体还用于：
当第一类UE检测到复用DCI的预设比特位表示直接指示时，根据Y比特检测对应的PDSCH；当第一类UE检测到复用DCI的预设比特位表示寻呼时，根据(Y-S)比特或(Y-S)比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；其中，S比特状态为S比特对应的状态，预设状态为预先从S比特对应的所有状态中任意选择的一种以作为指示第一类UE和第二类UE检测扫描模式发射的寻呼消息的状态，寻呼指示比特域包括HARQ进程号比特域和下行分配索引比特域中至少一种。
当UE为第二类UE且在Rel-15的后续版本中，第六处理模块1402具体还用于：
当第二类UE检测到复用DCI的预设比特位表示直接指示时，根据Y比特检测对应的PDSCH；当第二类UE检测到复用DCI的预设比特位表示寻呼时，根据(Y-S)比特或(Y-S)比特中除寻呼指示比特域以外的比特切换至对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组。
可选地，当UE为第一类UE且在Rel-15中时，或者，当UE为第一类UE且在Rel-15 的后续版本中时，第六处理模块1402具体还用于：
当第一类UE检测到复用DCI采用预设RNTI加扰时，根据Y比特检测对应的PDSCH；当第一类UE检测到复用DCI采用第一类P-RNTI加扰时，根据Y比特或Y比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；当第一类UE检测到复用DCI采用第二类P-RNTI加扰时，丢弃复用DCI，或使用第二类P-RNTI解扰后丢弃复用DCI。
当UE为第二类UE且在Rel-15的后续版本中，第六处理模块1402具体还用于：
当第二类UE检测到复用DCI采用预设RNTI加扰时，根据Y比特检测对应的PDSCH；当第二类UE检测到复用DCI采用第一类P-RNTI加扰时，根据Y比特或Y比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；当第二类UE检测到复用DCI采用第二类P-RNTI加扰时，根据Y比特或Y比特中除寻呼指示比特域以外的比特切换至对应的非扫描模式和寻呼指示中至少一种；其中，寻呼指示为单个寻呼指示或寻呼指示组。
需要说明的是，本公开实施例中所提到的复用DCI都是指复用的直接指示的DCI。
本公开实施例提供的UE，由于复用DCI设置有指示信息，以用于指示不同类型UE进行动作从而切换寻呼机制，因此避免了业务信道的大规模堵塞和过多无效的上行接入过程，兼顾了网络部署和资源调度的需求。
在实际应用中，第二接收模块1401和第六处理模块1402均可由位于UE 14中的CPU、MPU、DSP或FPGA等实现。
本公开实施例还提供一种UE，如图17所示，该UE 15包括：
第二计算模块1501，用于计算UE的寻呼时刻。
第七处理模块1502，用于在获得的寻呼时刻对应的寻呼控制资源集合或寻呼搜索空间位置上确定寻呼DCI的位置。
第三接收模块1503，用于在确定的位置上接收基站发送的寻呼DCI。
可选地，第二计算模块1501具体用于：
当DRX周期包括P个时域方向寻呼时刻时，通过UE_ID mod(P)计算自身的寻呼时刻；当DRX周期包括N个寻呼帧，且每个寻呼帧包括P个时域方向寻呼时刻时，通过floor(UE_ID/N)mod(P)计算自身的寻呼时刻；其中，UE_ID为寻呼消息中S-TMSI或IMSI，时域方向寻呼时刻对应的频域方向的寻呼控制资源集合或寻呼搜索空间的数量不大于BWP的数量。
可选地，第三接收模块1503具体用于：
在时域方向寻呼时刻对应的频域方向的每个寻呼控制资源集合或寻呼搜索空间位置上检测时域方向寻呼时刻对应的寻呼DCI。
根据寻呼DCI在寻呼消息的资源位置上检测寻呼消息。
可选地，第三接收模块1503具体还用于：
当寻呼DCI内包括寻呼消息的时域位置指示域时，在时域位置指示域对应的时域资源上检测寻呼消息；当寻呼DCI内包括寻呼消息的BWP索引时，在BWP索引对应的BWP资源上检测寻呼消息；当寻呼DCI内包括寻呼消息的时域位置指示域和BWP索引时，在时域位 置指示域对应的时域资源和BWP索引对应的BWP资源上检测寻呼消息。
可选地，第二计算模块1501具体还用于：
当DRX周期包括P个时域方向寻呼时刻和Q个频域方向寻呼时刻时，通过第一预设计算方式计算自身的寻呼时刻；当DRX周期包括N个寻呼帧，且每个寻呼帧包括P个时域方向寻呼时刻和Q个频域方向寻呼时刻时，通过第二预设方式计算自身的寻呼时刻；其中，第一预设计算方式为UE_ID mod(P*Q)、UE_ID mod(P)mod(Q)和UE_ID mod(Q)mod(P)中任意一种计算方式；第二预设计算方式为floor(UE_ID/N)mod(P*Q)、floor(UE_ID/N)mod(P)mod(Q)和floor(UE_ID/N)mod(Q)mod(P)中任意一种计算方式；其中，UE_ID为寻呼消息中S-TMSI或IMSI，Q个频域方向寻呼时刻对应Q个寻呼控制资源集合或寻呼搜索空间，Q不大于BWP的数量。
可选地，第三接收模块1503具体还用于：
在时域方向寻呼时刻对应的一个频域方向寻呼时刻的寻呼控制资源集合或寻呼搜索空间位置上检测时域方向寻呼时刻对应的频域方向寻呼时刻对应的寻呼DCI。
根据寻呼DCI在寻呼消息的资源位置上检测寻呼消息。
可选地，第三接收模块1503具体还用于：
当寻呼DCI内包括寻呼消息的时域位置指示域时，在时域位置指示域对应的时域资源上检测寻呼消息；当寻呼DCI内包括寻呼消息的BWP索引时，在BWP索引对应的BWP资源上检测寻呼消息；当寻呼DCI内包括寻呼消息的时域位置指示域和BWP索引时，在时域位置指示域对应的时域资源和BWP索引对应的BWP资源上检测寻呼消息。
可选地，被BWP索引指示的BWP上不分配寻呼控制资源集合和寻呼搜索空间。
可选地，第七处理模块1502还用于：
当BWP上不存在SSB且配置有寻呼控制资源集合、OSI集合和RMSI集合中至少一种时，按照存在SSB的方式对所配置的集合进行资源映射，集合的时频资源配置和初始接入BWP上的RMSI集合的时频资源配置相同；其中，SSB的第一个资源块索引由UE检测获取，或是由基站配置。或者，集合的时频资源配置和初始接入BWP上的RMSI集合的时频资源配置相同；其中，集合的第一个资源块索引由基站配置。
可选地，第七处理模块1502还用于：
BWP上配置了寻呼控制资源集合、OSI集合和RMSI集合中至少一种时，无论BWP上是否存在SSB，按照存在SSB的方式对所配置的集合进行资源映射，集合的时频资源配置和初始接入BWP上的RMSI集合的时频资源配置相同；其中，SSB的第一个资源块索引由UE检测获取，或是由基站配置。或者，集合的时频资源配置和初始接入BWP上的RMSI集合的时频资源配置相同；其中，集合的第一个资源块索引由基站配置。
本公开实施例提供的UE，由于计算了寻呼时刻，使得基站能够在不同的寻呼时刻发送寻呼DCI，因此实现了寻呼DCI的分散，避免了时频域资源拥塞。
在实际应用中，第二计算模块1501、第七处理模块1502和第三接收模块1402均可由位于UE 15中的CPU、MPU、DSP或FPGA等实现。
本公开实施例还提供一种UE，如图18所示，该UE 16包括：
第八处理模块1601，用于以被配置或预设的方式按照实际发射的SSB的数量E对BWP上所配置的集合进行资源关联；其中，配置的集合包括寻呼控制资源集合和OSI集合中至少一种。
可选地，第八处理模块1601具体用于：
以被配置或预设的方式按照实际发射的SSB的数量E调整关联的SSB索引，得到经过调整的的关联的SSB索引i。
根据i计算BWP上所配置的集合的第一个时隙索引；其中，i＝j+offset，j表示实际发射的SSB的逻辑索引，j与实际发射的SSB的实际索引按照升序方式一一对应，j的取值范围为{0，1，2…E-1}，offset为偏移量。
可选地，第八处理模块1601具体还用于：
当UE以预设的方式按照实际发射的SSB的数量E调整关联的SSB索引i，根据i计算BWP上所配置的集合的第一个时隙索引；其中，i为以第一个用于发射SSB的位置作为起始位置，一一对应实际发射的SSB的逻辑索引j；或者，i为以第一个实际发射SSB的位置作为起始位置，一一对应实际发射的SSB的逻辑索引j；或者，i为以第(F-E+1)个用于发射SSB的位置作为起始位置，一一对应实际发射的SSB的逻辑索引j；j的取值范围为{0，1，2…E-1}。
可选地，第八处理模块1601，具体还用于以配置的方式按照实际发射的SSB的数量E调整关联的SSB索引。
可选地，与SSB索引关联的所配置的资源集合的搜索窗是与SSB索引关联的RMSI的搜索窗，或是除实际与SSB索引关联的RMSI的搜索窗之外的搜索窗。
本公开实施例提供的UE，由于建立了寻呼控制资源集合与SSB之间的关联，从而减少不必要的预留资源。
在实际应用中，第八处理模块1601均可由位于UE 16中的CPU、MPU、DSP或FPGA等实现。
虽然本公开所揭露的实施方式如上，但的内容仅为便于理解本公开而采用的实施方式，并非用以限定本公开。任何本公开所属领域内的技术人员，在不脱离本公开所揭露的精神和范围的前提下，可以在实施的形式及细节上进行任何的修改与变化，但本公开的专利保护范围，仍须以所附的权利要求书所界定的范围为准。
工业实用性
本公开适用于通信技术领域，用以使得终端(User Equipment，UE)进行动作从而切换寻呼机制，从而避免业务信道的大规模堵塞和过多无效的上行接入过程。

Claims (66)

  1. 一种信息传输方法，包括：
    基站在复用下行链路控制信息DCI中设置用于指示不同类型终端UE进行动作的指示信息；
    所述基站向UE发送所述复用DCI；
    其中，复用DCI为将物理下行共享信道PDSCH的DCI复用的DCI，且当所述复用DCI采用预设无线网络临时标识RNTI加扰时为PDSCH的DCI，采用寻呼无线网络临时标识P-RNTI加扰时为寻呼DCI，所述预设RNTI为除所述P-RNTI以外的RNTI。
  2. 根据权利要求1所述的信息传输方法，其中，所述基站在复用DCI中设置指示信息用于指示不同类型UE进行动作，包括：
    所述基站在所述复用DCI中加入A比特并定义所述A比特的含义，以用于指示所述UE进行动作；其中，所述复用DCI本身包含X比特，所述UE包括第一类UE和第二类UE，所述第一类UE为第三代合作伙伴计划3GPP的第15版本Rel-15中的UE，所述第二类UE为所述Rel-15的后续版本中的UE；
    或者，
    所述基站在所述复用DCI中选择R比特并定义所述R比特的含义，以用于指示所述UE进行动作；其中，R小于X；
    或者，
    所述基站将所述P-RNTI分成两类并定义两类P-RNTI含义，以用于指示所述第一类UE和所述第二类UE进行动作。
  3. 根据权利要求2所述的信息传输方法，其中，所述基站在复用DCI中加入A比特并定义A比特的含义，包括：
    所述基站定义当所述复用DCI采用所述预设RNTI加扰时，所述A比特状态的含义为指示所述第一类UE和第二类UE丢弃所述A比特；定义当所述复用DCI采用所述P-RNTI加扰且所述A比特状态为预设状态时，所述A比特状态的含义为指示所述第一类UE和所述第二类UE检测扫描模式发射的寻呼消息；定义当所述复用DCI采用所述P-RNTI加扰且所述A比特状态为除所述预设状态以外的其他状态时，所述A比特的含义为指示所述第一类UE丢弃所述复用DCI，指示所述第二类UE切换至对应的非扫描模式和寻呼指示中至少一种；其中，所述寻呼指示为单个寻呼指示或寻呼指示组，所述预设状态为预先从所述A比特对应的所有状态中任意选择的一种以作为指示所述第一类UE和所述第二类UE检测扫描模式发射的寻呼消息的状态。
  4. 根据权利要求2所述的信息传输方法，其中，所述基站在复用DCI中加入A比特并定义A比特的含义，包括：
    所述基站定义当所述复用DCI采用所述预设RNTI加扰时，所述A比特状态的含义为指示所述第一类UE和第二类UE丢弃所述A比特；定义当所述复用DCI采用所述 P-RNTI加扰时，所述A比特状态的含义为指示所述第一类UE丢弃所述A比特并检测扫描模式发射的寻呼消息，指示所述第二类UE切换至对应的非扫描模式和寻呼指示中至少一种；其中，所述寻呼指示为单个寻呼指示或寻呼指示组。
  5. 根据权利要求2所述的信息传输方法，其中，所述基站在复用DCI中选择R比特并定义所述R比特的含义，包括：
    所述基站定义当所述复用DCI采用所述P-RNTI加扰且所述R比特状态为预设状态时，所述R比特状态的含义为指示所述第一类UE和所述第二类UE检测扫描模式发射的寻呼消息；定义当所述复用DCI采用所述P-RNTI加扰且R比特状态为除所述预设状态以外的其他状态时，所述R比特的含义为指示所述第一类UE丢弃所述复用DCI，指示第二类UE切换至对应的非扫描模式和寻呼指示中至少一种；其中，所述寻呼指示为单个寻呼指示或寻呼指示组，所述预设状态为预先从所述R比特对应的所有状态中任意选择的一种以作为指示所述第一类UE和所述第二类UE检测扫描模式发射的寻呼消息的状态。
  6. 根据权利要求2所述的信息传输方法，其中，所述基站在复用DCI中选择R比特并定义R比特的含义，包括：
    所述基站定义当所述复用DCI采用所述P-RNTI加扰时，所述R比特状态的含义为指示所述第一类UE检测扫描模式发射的寻呼消息，指示所述第二类UE切换至对应的非扫描模式和寻呼指示中至少一种；其中，所述寻呼指示为单个寻呼指示或寻呼指示组。
  7. 根据权利要求2所述的信息传输方法，其中，所述基站将P-RNTI分成两类并定义两类P-RNTI含义，包括：
    所述基站定义当所述复用DCI采用第一类P-RNTI加扰时，所述第一类P-RNTI的含义为指示所述第一类UE和所述第二类UE检测扫描模式发射的寻呼消息；定义当所述复用DCI采用第二类P-RNTI加扰时，所述第二类P-RNTI的含义为指示所述第一类UE丢弃所述复用DCI或采用所述第二类P-RNTI解扰后丢弃所述复用DCI，指示所述第二类UE切换为对应的非扫描模式和寻呼指示中至少一种；其中，所述寻呼指示为单个寻呼指示或寻呼指示组。
  8. 一种信息传输方法，包括：
    基站在复用DCI中设置用于指示不同类型UE进行动作的指示信息；
    所述基站向所述UE发送所述复用DCI；
    其中，复用DCI为直接指示的DCI复用的DCI，且当所述复用DCI中预设比特位表示直接指示时为直接指示的DCI，表示寻呼时为寻呼的DCI时。
  9. 根据权利要求8所述的信息传输方法，其中，所述基站在复用DCI中设置用于指示不同类型UE进行动作的指示信息，包括：
    所述基站在所述复用DCI中加入B比特并定义所述B比特的含义，以用于指示所述UE进行动作；其中，所述复用DCI本身包含Y比特；所述UE包括第一类UE和第二类UE，所述第一类UE为3GPP的Rel-15中的UE，所述第二类UE为所述Rel-15的后续版 本中的UE；
    或者，
    所述基站在所述复用DCI中选择S比特并定义所述S比特的含义，以用于指示所述UE进行动作；其中，S小于Y；
    或者，
    所述基站将所述P-RNTI分成两类并定义两类P-RNTI含义，以用于指示所述第一类UE和所述第二类UE进行动作。
  10. 根据权利要求9所述的信息传输方法，其中，所述基站在复用DCI中加入B比特并定义B比特的含义，包括：
    所述基站定义当所述复用DCI的预设比特位表示直接指示时，所述B比特状态的含义为指示所述第一类UE和第二类UE丢弃所述B比特；定义当所述复用DCI的预设比特位表示寻呼且所述B比特状态为预设状态时，所述B比特状态的含义为指示所述第一类UE和所述第二类UE检测扫描模式发射的寻呼消息；定义当所述复用DCI的预设比特位表示寻呼且所述B比特状态为除所述预设状态以外的其他状态时，所述B比特的含义为指示所述第一类UE丢弃所述复用DCI，指示所述第二类UE切换至对应的非扫描模式和寻呼指示中至少一种；其中，所述寻呼指示为单个寻呼指示或寻呼指示组，所述预设状态为预先从所述B比特对应的所有状态中任意选择的一种以作为指示所述第一类UE和所述第二类UE检测扫描模式发射的寻呼消息的状态。
  11. 根据权利要求9所述的信息传输方法，其中，所述基站在复用DCI中加入B比特并定义B比特的含义，包括：
    所述基站定义当所述复用DCI的预设比特位表示直接指示时，所述B比特状态的含义为指示所述第一类UE和第二类UE丢弃所述B比特；定义当所述复用DCI的预设比特位表示寻呼时，所述B比特状态的含义为指示所述第一类UE丢弃所述B比特并检测扫描模式发射的寻呼消息，指示所述第二类UE切换至对应的非扫描模式和寻呼指示中至少一种；其中，所述寻呼指示为单个寻呼指示或寻呼指示组。
  12. 根据权利要求9所述的信息传输方法，其中，所述基站在复用DCI中选择S比特并定义所述S比特的含义，包括：
    所述基站定义当所述复用DCI的预设比特位表示寻呼且所述S比特状态为预设状态时，所述S比特状态的含义为指示所述第一类UE和所述第二类UE检测扫描模式发射的寻呼消息；定义当所述复用DCI的预设比特位表示寻呼且S比特状态为除所述预设状态以外的其他状态时，所述S比特的含义为指示所述第一类UE丢弃所述复用DCI，指示第二类UE切换至对应的非扫描模式和寻呼指示中至少一种；其中，所述寻呼指示为单个寻呼指示或寻呼指示组，所述预设状态为预先从所述S比特对应的所有状态中任意选择的一种以作为指示所述第一类UE和所述第二类UE检测扫描模式发射的寻呼消息的状态。
  13. 根据权利要求9所述的信息传输方法，其中，所述基站在复用DCI中选择S比特 并定义S比特的含义，包括：
    所述基站定义当所述复用DCI的预设比特位表示寻呼时，所述S比特状态的含义为指示所述第一类UE检测扫描模式发射的寻呼消息，指示所述第二类UE切换至对应的非扫描模式和寻呼指示中至少一种；其中，所述寻呼指示为单个寻呼指示或寻呼指示组。
  14. 根据权利要求9所述的信息传输方法，其中，所述基站将P-RNTI分成两类并定义两类P-RNTI含义，包括：
    所述基站定义当所述复用DCI采用第一类P-RNTI加扰时，所述第一类P-RNTI的含义为指示所述第一类UE和所述第二类UE检测扫描模式发射的寻呼消息；定义当所述复用DCI采用第二类P-RNTI加扰时，所述第二类P-RNTI的含义为指示所述第一类UE丢弃所述复用DCI或采用所述第二类P-RNTI解扰后丢弃所述复用DCI，指示所述第二类UE切换为对应的非扫描模式和寻呼指示中至少一种；其中，所述寻呼指示为单个寻呼指示或寻呼指示组。
  15. 一种信息传输方法，包括：
    基站计算UE的寻呼时刻；
    所述基站在得到的寻呼时刻对应的寻呼控制资源集合或寻呼搜索空间位置上确定寻呼DCI的位置；
    所述基站在确定的位置上向所述UE发送所述寻呼DCI。
  16. 根据权利要求15所述的信息传输方法，其中，所述基站计算UE的寻呼时刻，包括：
    当非连续接收DRX周期包括P个时域方向寻呼时刻时，所述基站通过UE_IDmod(P)计算所述UE的寻呼时刻；当所述DRX周期包括N个寻呼帧，且每个寻呼帧包括P个时域方向寻呼时刻时，所述基站通过floor(UE_ID/N)mod(P)计算所述UE的寻呼时刻；其中，所述UE_ID为寻呼消息中的临时移动台识别号S-TMSI或国际移动用户标识IMSI，所述时域方向寻呼时刻对应的频域方向的寻呼控制资源集合或寻呼搜索空间的数量不大于部分带宽BWP的数量。
  17. 根据权利要求16所述的信息传输方法，其中，所述基站在确定的位置上向UE发送寻呼DCI，包括：
    所述基站在时域方向寻呼时刻对应的频域方向的每个寻呼控制资源集合或寻呼搜索空间位置上发射所述时域方向寻呼时刻所有被寻呼UE对应的寻呼DCI；
    所述基站根据寻呼DCI在寻呼消息的资源位置上发射寻呼消息。
  18. 根据权利要求17所述的信息传输方法，其中，所述基站根据寻呼DCI在寻呼消息的资源位置上发射寻呼消息，包括：
    当所述寻呼DCI内包括寻呼消息的时域位置指示域时，所述基站在所述时域位置指示域对应的时域资源上发送所述寻呼消息；当寻呼DCI内包括寻呼消息的BWP索引时，所述基站在BWP索引对应的BWP资源上发送所述寻呼消息；当寻呼DCI内包括所述寻 呼消息的时域位置指示域和BWP索引时，所述基站在所述时域位置指示域对应的时域资源和所述BWP索引对应的BWP资源上检测寻呼消息。
  19. 根据权利要求15所述的信息传输方法，其中，所述基站计算UE的寻呼时刻，包括：
    当DRX周期包括P个时域方向寻呼时刻和Q个频域方向寻呼时刻时，所述基站通过第一预设计算方式计算所述UE的寻呼时刻；当所述DRX周期包括N个寻呼帧，且每个寻呼帧包括P个时域方向寻呼时刻和Q个频域方向寻呼时刻时，所述基站通过第二预设方式计算所述UE的寻呼时刻；其中，所述第一预设计算方式为UE_ID mod(P*Q)、UE_ID mod(P)mod(Q)和UE_ID mod(Q)mod(P)中任意一种计算方式；所述第二预设计算方式为floor(UE_ID/N)mod(P*Q)、floor(UE_ID/N)mod(P)mod(Q)和floor(UE_ID/N)mod(Q)mod(P)中任意一种计算方式；其中，所述UE_ID为寻呼消息中S-TMSI或IMSI，所述Q个频域方向寻呼时刻对应Q个寻呼控制资源集合或寻呼搜索空间，Q不大于BWP的数量。
  20. 根据权利要求19所述的信息传输方法，其中，所述基站在确定的位置上向UE发送寻呼DCI，包括：
    所述基站在时域方向寻呼时刻对应的一个频域方向寻呼时刻的寻呼控制资源集合或寻呼搜索空间位置上发射所述时域方向寻呼时刻对应的频域方向寻呼时刻所有被寻呼UE对应的寻呼DCI；
    所述基站根据寻呼DCI在寻呼消息的资源位置上发射寻呼消息。
  21. 根据权利要求20所述的信息传输方法，其中，所述基站根据寻呼DCI在寻呼消息的资源位置上发射寻呼消息，包括：
    当所述寻呼DCI内包括寻呼消息的时域位置指示域时，所述基站在所述时域位置指示域对应的时域资源上发送所述寻呼消息；当寻呼DCI内包括寻呼消息的BWP索引时，所述基站在BWP索引对应的BWP资源上发送所述寻呼消息；当寻呼DCI内包括所述寻呼消息的时域位置指示域和BWP索引时，所述基站在所述时域位置指示域对应的时域资源和所述BWP索引对应的BWP资源上检测寻呼消息。
  22. 根据权利要求16或19所述的信息传输方法，其中，被BWP索引指示的BWP上不分配所述寻呼控制资源集合和所述寻呼搜索空间。
  23. 根据权利要求16或19所述的信息传输方法，其中，当所述BWP上不存在同步信号块SSB且配置有所述寻呼控制资源集合、其他系统信息OSI集合和剩余最小系统信息RMSI集合中至少一种时，所述基站按照存在所述SSB的方式对所配置的集合进行资源映射，所述集合的时频资源配置和初始接入BWP上的RMSI集合的时频资源配置相同；其中，所述SSB的第一个资源块索引由所述UE检测获取，或是由所述基站配置；或者，所述集合的时频资源配置和初始接入BWP上的RMSI集合的时频资源配置相同；其中，所述集合的第一个资源块索引由所述基站配置。
  24. 根据权利要求16或19所述的信息传输方法，其中，当所述BWP上配置了寻呼 控制资源集合、OSI集合和RMSI集合中至少一种时，无论所述BWP上是否存在SSB，所述基站按照存在所述SSB的方式对所配置的集合进行资源映射，所述集合的时频资源配置和初始接入BWP上的RMSI集合的时频资源配置相同；其中，所述SSB的第一个资源块索引由所述UE检测获取，或是由所述基站配置；或者，所述集合的时频资源配置和初始接入BWP上的RMSI集合的时频资源配置相同；其中，所述集合的第一个资源块索引由所述基站配置。
  25. 一种信息传输方法，包括：
    基站以配置或预设的方式按照实际发射的SSB的数量E对BWP上所配置的集合进行资源关联；其中，所述所配置的集合包括寻呼控制资源集合和OSI集合中至少一种。
  26. 根据权利要求25所述的信息传输方法，其中，所述基站以配置或预设的方式按照实际发射的SSB的数量E对BWP上所配置的集合进行资源关联，包括：
    所述基站以配置或预设的方式按照实际发射的SSB的数量E调整关联的SSB索引，得到经过调整的关联的SSB索引i；
    所述基站根据i计算BWP上所配置的集合的第一个时隙索引；其中，i＝j+offset，j表示实际发射的SSB的逻辑索引，j与实际发射的SSB的实际索引按照升序方式一一对应，j的取值范围为{0，1，2…E-1}，offset为偏移量。
  27. 根据权利要求25所述的信息传输方法，其中，所述基站以配置或预设的方式按照实际发射的SSB的数量E对BWP上所配置的集合进行资源关联，包括：
    当所述基站以预设的方式按照实际发射的SSB的数量E调整关联的SSB索引i，所述基站根据i计算BWP上所配置的集合的第一个时隙索引；其中，所述i为以第一个用于发射SSB的位置作为起始位置，一一对应实际发射的SSB的逻辑索引j；或者，所述i为以第一个实际发射SSB的位置作为起始位置，一一对应实际发射的SSB的逻辑索引j；或者，所述i为以第(F-E+1)个用于发射SSB的位置作为起始位置，一一对应实际发射的SSB的逻辑索引j；j的取值范围为{0，1，2…E-1}。
  28. 根据权利要求25所述的信息传输方法，其中，所述基站以配置或预设方式按照实际发射的SSB的数量E对BWP上所配置的集合进行资源关联，包括：
    所述基站以配置的方式按照实际发射的SSB的数量E调整关联的SSB索引。
  29. 根据权利要求26-28任一项所述的信息传输方法，其中，与所述SSB索引关联的所配置的资源集合的搜索窗是所述与SSB索引关联的RMSI的搜索窗，或是除实际与所述SSB索引关联的RMSI的搜索窗之外的搜索窗。
  30. 一种信息传输方法，包括：
    UE接收基站发送的复用DCI；其中，所述复用DCI中设置有用于指示不同类型UE进行动作的指示信息，所述复用DCI为基站将PDSCH的DCI复用的DCI，且当所述复用DCI采用预设RNTI加扰时为PDSCH的DCI，采用P-RNTI加扰时为寻呼DCI，所述预设RNTI为除所述P-RNTI以外的RNTI；
    所述UE根据所述复用DCI中设置的指示信息进行动作。
  31. 根据权利要求30所述的信息传输方法，其中，所述UE根据复用DCI中设置的指示信息进行动作，包括：
    当所述基站在所述复用DCI中加入A比特并定义所述A比特的含义时，所述UE根据所述A比特进行动作；其中，所述复用DCI本身包含X比特，所述UE包括第一类UE和第二类UE，所述第一类UE为3GPP的Rel-15中的UE，所述第二类UE为所述Rel-15的后续版本中的UE；
    或者，
    当所述基站在所述复用DCI中选择R比特并定义所述R比特的含义时，所述UE根据所述R比特进行动作；其中，R小于X；
    或者，
    当所述基站将所述P-RNTI分成两类并定义两类P-RNTI含义时，所述UE根据第一类P-RNTI的含义和第二类P-RNTI的含义进行动作。
  32. 根据权利要求31所述的信息传输方法，其中，当所述UE为所述第一类UE且在所述Rel-15中时，或者，当所述UE为所述第一类UE且在所述Rel-15的后续版本中时，所述UE根据A比特进行动作，包括：
    当所述第一类UE检测到所述复用DCI采用所述预设RNTI加扰时，所述第一类UE丢弃所述A比特，并根据所述X比特检测对应的PDSCH；当所述第一类UE检测到所述复用DCI采用所述P-RNTI加扰且所述A比特状态为预设状态时，所述第一类UE根据所述X比特或所述X比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；当所述第一类UE检测到所述复用DCI采用所述P-RNTI加扰且所述A比特为除所述预设状态以外的其他状态时，所述第一类UE丢弃所述复用DCI；其中，所述A比特状态为所述A比特对应的状态，所述预设状态为预先从所述A比特对应的所有状态中任意选择的一种以作为指示所述第一类UE和所述第二类UE检测扫描模式发射的寻呼消息的状态，所述寻呼指示比特域包括混合自动重传请求HARQ进程号比特域和下行分配索引比特域中至少一种；
    当所述UE为所述第二类UE且在所述Rel-15的后续版本中，所述UE根据A比特进行动作，包括：
    当所述第二类UE检测到所述复用DCI采用所述预设RNTI加扰时，所述第二类UE丢弃所述A比特，并根据所述X比特检测对应的PDSCH；当所述第二类UE检测到所述复用DCI采用所述P-RNTI加扰且所述A比特状态为预设状态时，所述第二类UE根据所述X比特或所述X比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；当所述第二类UE检测到所述复用DCI采用所述P-RNTI加扰且所述A比特状态为除所述预设状态以外的其他状态时，所述第二类UE根据所述X比特或所述X比特中除寻呼指示比特域以外的比特切换至对应的非扫描模式和寻呼指示中至少一种；其中，所述寻呼指 示为单个寻呼指示或寻呼指示组。
  33. 根据权利要求31所述的信息传输方法，其中，当所述UE为所述第一类UE且在所述Rel-15中时，或者，当所述UE为所述第一类UE且在所述Rel-15的后续版本中时，所述UE根据A比特进行动作，包括：
    当所述第一类UE检测到所述复用DCI采用所述预设RNTI加扰时，所述第一类UE丢弃所述A比特，并根据所述X比特检测对应的PDSCH；当所述第一类UE检测到所述复用DCI采用所述P-RNTI加扰时，所述第一类UE丢弃所述A比特，并根据所述X比特或所述X比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；其中，所述寻呼指示为单个寻呼指示或寻呼指示组，所述寻呼指示比特域包括HARQ进程号比特域和下行分配索引比特域中至少一种；
    当所述UE为所述第二类UE且在所述Rel-15的后续版本中，所述UE根据A比特进行动作，包括：
    当所述第二类UE检测到所述复用DCI采用所述预设RNTI加扰时，所述第二类UE丢弃所述A比特，并根据所述X比特检测对应的PDSCH；当所述第二类UE检测到所述复用DCI采用所述P-RNTI加扰时，所述第二类UE根据所述X比特或所述X比特中除寻呼指示比特域以外的比特切换至对应的非扫描模式和寻呼指示中至少一种；其中，所述寻呼指示为单个寻呼指示或寻呼指示组。
  34. 根据权利要求31所述的信息传输方法，其中，当所述UE为所述第一类UE且在所述Rel-15中时，或者，当所述UE为所述第一类UE且在所述Rel-15的后续版本中时，所述UE根据R比特进行动作，包括：
    当所述第一类UE检测到所述复用DCI采用所述预设RNTI加扰时，所述第一类UE根据所述X比特检测对应的PDSCH；当所述第一类UE检测到所述复用DCI采用所述P-RNTI加扰且所述R比特状态为预设状态时，所述第一类UE根据(X-R)比特或所述(X-R)比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；当所述第一类UE检测到所述复用DCI采用所述P-RNTI加扰且所述R比特为除所述预设状态以外的其他状态时，所述第一类UE丢弃所述复用DCI；其中，所述R比特状态为所述R比特对应的状态，所述预设状态为预先从R比特对应的所有状态中任意选择的一种以作为指示所述第一类UE和所述第二类UE检测扫描模式发射的寻呼消息的状态，所述寻呼指示比特域包括HARQ进程号比特域和下行分配索引比特域中至少一种；
    当所述UE为所述第二类UE且在所述Rel-15的后续版本中，所述UE根据R比特进行动作，包括：
    当所述第二类UE检测到所述复用DCI采用所述预设RNTI加扰时，所述第二类UE根据所述X比特检测对应的PDSCH；当所述第二类UE检测到所述复用DCI采用所述P-RNTI加扰且所述R比特状态为预设状态时，所述第二类UE根据所述(X-R)比特或所述(X-R)比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；当所述 第二类UE检测到所述复用DCI采用所述P-RNTI加扰且所述R比特状态为除所述预设状态以外的其他状态时，所述第二类UE根据所述(X-R)比特或所述(X-R)比特中除寻呼指示比特域以外的比特切换至对应的非扫描模式和寻呼指示中至少一种；其中，所述寻呼指示为单个寻呼指示或寻呼指示组。
  35. 根据权利要求31所述的信息传输方法，其中，当所述UE为所述第一类UE且在Rel-15中时，或者，当所述UE为所述第一类UE且在所述Rel-15的后续版本中时，所述UE根据R比特进行动作，包括：
    当所述第一类UE检测到所述复用DCI采用所述预设RNTI加扰时，所述第一类UE根据所述X比特检测对应的PDSCH；当所述第一类UE检测到所述复用DCI采用所述P-RNTI加扰时，所述第一类UE根据(X-R)比特或所述(X-R)比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；其中，所述R比特状态为所述R比特对应的状态，所述预设状态为预先从R比特对应的所有状态中任意选择的一种以作为指示所述第一类UE和所述第二类UE检测扫描模式发射的寻呼消息的状态，所述寻呼指示比特域包括HARQ进程号比特域和下行分配索引比特域中至少一种；
    当所述UE为所述第二类UE且在所述Rel-15的后续版本中，所述UE根据R比特进行动作，包括：
    当所述第二类UE检测到所述复用DCI采用所述预设RNTI加扰时，所述第二类UE根据所述X比特检测对应的PDSCH；当所述第二类UE检测到所述复用DCI采用所述P-RNTI加扰时，所述第二类UE根据所述(X-R)比特或所述(X-R)比特中除寻呼指示比特域以外的比特切换至对应的非扫描模式和寻呼指示中至少一种；其中，所述寻呼指示为单个寻呼指示或寻呼指示组。
  36. 根据权利要求31所述的信息传输方法，其中，当所述UE为所述第一类UE且在Rel-15中时，或者，当所述UE为所述第一类UE且在所述Rel-15的后续版本中时，所述UE根据第一类P-RNTI的含义和第二类P-RNTI的含义进行动作，包括：
    当所述第一类UE检测到所述复用DCI采用所述预设RNTI加扰时，所述第一类UE根据所述X比特检测对应的PDSCH；当所述第一类UE检测到所述复用DCI采用所述第一类P-RNTI加扰时，所述第一类UE根据所述X比特或所述X比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；当所述第一类UE检测到所述复用DCI采用所述第二类P-RNTI加扰时，所述第一类UE丢弃所述复用DCI，或使用所述第二类P-RNTI解扰后丢弃所述复用DCI；
    当所述UE为所述第二类UE且在所述Rel-15的后续版本中，所述UE根据第一类P-RNTI的含义和第二类P-RNTI的含义进行动作，包括：
    当所述第二类UE检测到所述复用DCI采用所述预设RNTI加扰时，所述第二类UE根据所述X比特检测对应的PDSCH；当所述第二类UE检测到所述复用DCI采用所述第一类P-RNTI加扰时，所述第二类UE根据所述X比特或所述X比特中除寻呼指示比特域 以外的比特检测扫描模式发射的寻呼消息；当所述第二类UE检测到所述复用DCI采用所述第二类P-RNTI加扰时，所述第二类UE根据所述X比特或所述X比特中除寻呼指示比特域以外的比特切换至对应的非扫描模式和寻呼指示中至少一种；其中，所述寻呼指示为单个寻呼指示或寻呼指示组。
  37. 一种信息传输方法，包括：
    UE接收基站发送的复用DCI；其中，所述复用DCI为基站将直接指示的DCI复用的DCI，且当其中的预设比特位表示直接指示时为直接指示的DCI，表示寻呼时为寻呼DCI；
    所述UE根据所述复用DCI中设置的指示信息进行动作。
  38. 根据权利要求37所述的信息传输方法，其中，所述UE根据复用DCI中设置的指示信息进行动作，包括：
    当所述基站在所述复用DCI中加入B比特并定义所述B比特的含义时，所述UE根据所述B比特进行动作；其中，所述复用DCI本身包含Y比特，所述UE包括第一类UE和第二类UE，所述第一类UE为3GPP的Rel-15中的UE，所述第二类UE为所述Rel-15的后续版本中的UE；
    或者，
    当所述基站在所述复用DCI中选择S比特并定义所述S比特的含义时，所述UE根据所述S比特进行动作；其中，S小于Y；
    或者，
    当所述基站将所述P-RNTI分成两类并定义两类P-RNTI含义时，所述UE根据第一类P-RNTI的含义和第二类P-RNTI的含义进行动作。
  39. 根据权利要求37所述的信息传输方法，其中，当所述UE为所述第一类UE且在所述Rel-15中时，或者，当所述UE为所述第一类UE且在所述Rel-15的后续版本中时，所述UE根据B比特进行动作，包括：
    当所述第一类UE检测到所述复用DCI的预设比特位表示直接指示时，所述第一类UE丢弃所述B比特，并根据所述Y比特检测对应的PDSCH；当所述第一类UE检测到所述复用DCI的预设比特位表示寻呼且所述B比特状态为预设状态时，所述第一类UE根据所述Y比特或所述Y比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；当所述第一类UE检测到所述复用DCI的预设比特位表示寻呼且所述B比特为除所述预设状态以外的其他状态时，所述第一类UE丢弃所述复用DCI；其中，所述B比特状态为所述B比特对应的状态，所述预设状态为预先从所述B比特对应的所有状态中任意选择的一种以作为指示所述第一类UE和所述第二类UE检测扫描模式发射的寻呼消息的状态，所述寻呼指示比特域包括HARQ进程号比特域和下行分配索引比特域中至少一种；
    当所述UE为所述第二类UE且在所述Rel-15的后续版本中，所述UE根据B比特进行动作，包括：
    当所述第二类UE检测到所述复用DCI的预设比特位表示直接指示时，所述第二类UE丢弃所述B比特，并根据所述Y比特检测对应的PDSCH；当所述第二类UE检测到所述复用DCI的预设比特位表示寻呼且所述B比特状态为预设状态时，所述第二类UE根据所述Y比特或所述Y比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；当所述第二类UE检测到所述复用DCI的预设比特位表示寻呼且所述B比特状态为除所述预设状态以外的其他状态时，所述第二类UE根据所述Y比特或所述Y比特中除寻呼指示比特域以外的比特认为是所述B比特对应的寻呼机制和所述B比特切换至对应的非扫描模式和寻呼指示中至少一种；其中，所述寻呼指示为单个寻呼指示或寻呼指示组。
  40. 根据权利要求38所述的信息传输方法，其中，当所述UE为所述第一类UE且在所述Rel-15中时，或者，当所述UE为所述第一类UE且在所述Rel-15的后续版本中时，所述UE根据B比特进行动作，包括：
    当所述第一类UE检测到所述复用DCI的预设比特位表示直接指示时，所述第一类UE丢弃所述B比特，并根据所述Y比特检测对应的PDSCH；当所述第一类UE检测到所述复用DCI的预设比特位表示寻呼时，所述第一类UE丢弃所述B比特，并根据所述Y比特或所述Y比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；其中，所述寻呼指示为单个寻呼指示或寻呼指示组，所述寻呼指示比特域包括HARQ进程号比特域和下行分配索引比特域中至少一种；
    当所述UE为所述第二类UE且在所述Rel-15的后续版本中，所述UE根据B比特进行动作，包括：
    当所述第二类UE检测到所述复用DCI的预设比特位表示直接指示时，所述第二类UE丢弃所述B比特，并根据所述Y比特检测对应的PDSCH；当所述第二类UE检测到所述复用DCI的预设比特位表示寻呼时，所述第二类UE根据所述Y比特或所述Y比特中除寻呼指示比特域以外的比特切换至对应的非扫描模式寻呼指示中至少一种；其中，所述寻呼指示为单个寻呼指示或寻呼指示组。
  41. 根据权利要求38所述的信息传输方法，其中，当所述UE为所述第一类UE且在所述Rel-15中时，或者，当所述UE为所述第一类UE且在所述Rel-15的后续版本中时，所述UE根据S比特进行动作，包括：
    当所述第一类UE检测到所述复用DCI的预设比特位表示直接指示时，所述第一类UE根据所述Y比特检测对应的PDSCH；当所述第一类UE检测到所述复用DCI的预设比特位表示寻呼且所述S比特状态为预设状态时，所述第一类UE根据所述(Y-S)比特或所述(Y-S)比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；当所述第一类UE检测到所述复用DCI的预设比特位表示寻呼且所述S比特为除所述预设状态以外的其他状态时，所述第一类UE丢弃所述复用DCI；其中，所述S比特状态为所述S比特对应的状态，所述预设状态为预先从S比特对应的所有状态中任意选择的一种以作 为指示所述第一类UE和所述第二类UE检测扫描模式发射的寻呼消息的状态，所述寻呼指示比特域包括HARQ进程号比特域和下行分配索引比特域中至少一种；
    当所述UE为所述第二类UE且在所述Rel-15的后续版本中，所述UE根据S比特进行动作，包括：
    当所述第二类UE检测到所述复用DCI的预设比特位表示直接指示时，所述第二类UE根据所述Y比特检测对应的PDSCH；当所述第二类UE检测到所述复用DCI的预设比特位表示寻呼且所述S比特状态为预设状态时，所述第二类UE根据所述(Y-S)比特或所述(Y-S)比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；当所述第二类UE检测到所述复用DCI的预设比特位表示寻呼且所述S比特状态为除所述预设状态以外的其他状态时，所述第二类UE根据所述(Y-S)比特或所述(Y-S)比特中除寻呼指示比特域以外的比特切换至对应的非扫描模式和寻呼指示中至少一种；其中，所述寻呼指示为单个寻呼指示或寻呼指示组。
  42. 根据权利要求38所述的信息传输方法，其中，当所述UE为所述第一类UE且在Rel-15中时，或者，当所述UE为所述第一类UE且在所述Rel-15的后续版本中时，所述UE根据S比特进行动作，包括：
    当所述第一类UE检测到所述复用DCI的预设比特位表示直接指示时，所述第一类UE根据所述Y比特检测对应的PDSCH；当所述第一类UE检测到所述复用DCI的预设比特位表示寻呼时，所述第一类UE根据(Y-S)比特或所述(Y-S)比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；其中，所述S比特状态为所述S比特对应的状态，所述预设状态为预先从S比特对应的所有状态中任意选择的一种以作为指示所述第一类UE和所述第二类UE检测扫描模式发射的寻呼消息的状态，所述寻呼指示比特域包括HARQ进程号比特域和下行分配索引比特域中至少一种；
    当所述UE为所述第二类UE且在所述Rel-15的后续版本中，所述UE根据S比特进行动作，包括：
    当所述第二类UE检测到所述复用DCI的预设比特位表示直接指示时，所述第二类UE根据所述Y比特检测对应的PDSCH；当所述第二类UE检测到所述复用DCI的预设比特位表示寻呼时，所述第二类UE根据所述(Y-S)比特或所述(Y-S)比特中除寻呼指示比特域以外的比特切换至对应的非扫描模式和寻呼指示中至少一种；其中，所述寻呼指示为单个寻呼指示或寻呼指示组。
  43. 根据权利要求38所述的信息传输方法，其中，当所述UE为所述第一类UE且在Rel-15中时，或者，当所述UE为所述第一类UE且在所述Rel-15的后续版本中时，所述UE根据第一类P-RNTI的含义和第二类P-RNTI的含义进行动作，包括：
    当所述第一类UE检测到所述复用DCI采用所述预设RNTI加扰时，所述第一类UE根据所述Y比特检测对应的PDSCH；当所述第一类UE检测到所述复用DCI采用所述第一类P-RNTI加扰时，所述第一类UE根据所述Y比特或所述Y比特中除寻呼指示比特域 以外的比特检测扫描模式发射的寻呼消息；当所述第一类UE检测到所述复用DCI采用所述第二类P-RNTI加扰时，所述第一类UE丢弃所述复用DCI，或使用所述第二类P-RNTI解扰后丢弃所述复用DCI；
    当所述UE为所述第二类UE且在所述Rel-15的后续版本中，所述UE根据第一类P-RNTI的含义和第二类P-RNTI的含义进行动作，包括：
    当所述第二类UE检测到所述复用DCI采用所述预设RNTI加扰时，所述第二类UE根据所述Y比特检测对应的PDSCH；当所述第二类UE检测到所述复用DCI采用所述第一类P-RNTI加扰时，所述第二类UE根据所述Y比特或所述Y比特中除寻呼指示比特域以外的比特检测扫描模式发射的寻呼消息；当所述第二类UE检测到所述复用DCI采用所述第二类P-RNTI加扰时，所述第二类UE根据所述Y比特或所述Y比特中除寻呼指示比特域以外的比特切换至对应的非扫描模式和寻呼指示中至少一种；其中，所述寻呼指示为单个寻呼指示或寻呼指示组。
  44. 一种信息传输方法，包括：
    UE计算自身的寻呼时刻；
    所述UE在获得的寻呼时刻对应的寻呼控制资源集合或寻呼搜索空间位置上确定寻呼DCI的位置；
    所述UE在确定的位置上接收基站发送的寻呼DCI。
  45. 根据权利要求44所述的信息传输方法，其中，所述UE计算自身的寻呼时刻，包括：
    当DRX周期包括P个时域方向寻呼时刻时，所述UE通过UE_IDmod(P)计算自身的寻呼时刻；当所述DRX周期包括N个寻呼帧，且每个寻呼帧包括P个时域方向寻呼时刻时，所述UE通过floor(UE_ID/N)mod(P)计算自身的寻呼时刻；其中，所述UE_ID为寻呼消息中S-TMSI或IMSI，所述时域方向寻呼时刻对应的频域方向的寻呼控制资源集合或寻呼搜索空间的数量不大于BWP的数量。
  46. 根据权利要求45所述的信息传输方法，其中，所述UE在确定的位置上接收基站发送的寻呼DCI，包括：
    所述UE在时域方向寻呼时刻对应的频域方向的每个寻呼控制资源集合或寻呼搜索空间位置上检测所述时域方向寻呼时刻对应的寻呼DCI；
    所述UE根据寻呼DCI在寻呼消息的资源位置上检测寻呼消息。
  47. 根据权利要求46所述的信息传输方法，其中，所述UE根据寻呼DCI在寻呼消息的资源位置上检测寻呼消息，包括：
    当所述寻呼DCI内包括寻呼消息的时域位置指示域时，所述UE在所述时域位置指示域对应的时域资源上检测所述寻呼消息；当寻呼DCI内包括寻呼消息的BWP索引时，所述UE在BWP索引对应的BWP资源上检测所述寻呼消息；当寻呼DCI内包括所述寻呼消息的时域位置指示域和BWP索引时，所述UE在所述时域位置指示域对应的时域资 源和所述BWP索引对应的BWP资源上检测寻呼消息。
  48. 根据权利要求44所述的信息传输方法，其中，所述UE计算自身的寻呼时刻，包括：
    当DRX周期包括P个时域方向寻呼时刻和Q个频域方向寻呼时刻时，所述UE通过第一预设计算方式计算自身的寻呼时刻；当所述DRX周期包括N个寻呼帧，且每个寻呼帧包括P个时域方向寻呼时刻和Q个频域方向寻呼时刻时，所述UE通过第二预设方式计算自身的寻呼时刻；其中，所述第一预设计算方式为UE_ID mod(P*Q)、UE_ID mod(P)mod(Q)和UE_ID mod(Q)mod(P)中任意一种计算方式；所述第二预设计算方式为floor(UE_ID/N)mod(P*Q)、floor(UE_ID/N)mod(P)mod(Q)和floor(UE_ID/N)mod(Q)mod(P)中任意一种计算方式；其中，所述UE_ID为寻呼消息中S-TMSI或IMSI，所述Q个频域方向寻呼时刻对应Q个寻呼控制资源集合或寻呼搜索空间，Q不大于BWP的数量。
  49. 根据权利要求48所述的信息传输方法，其中，所述UE在确定的位置上接收基站发送的寻呼DCI，包括：
    所述UE在时域方向寻呼时刻对应的一个频域方向寻呼时刻的寻呼控制资源集合或寻呼搜索空间位置上检测所述时域方向寻呼时刻对应的所述频域方向寻呼时刻对应的寻呼DCI；
    所述UE根据寻呼DCI在寻呼消息的资源位置上检测寻呼消息。
  50. 根据权利要求49所述的信息传输方法，其中，所述UE根据寻呼DCI在寻呼消息的资源位置上检测寻呼消息，包括：
    当所述寻呼DCI内包括寻呼消息的时域位置指示域时，所述UE在所述时域位置指示域对应的时域资源上检测所述寻呼消息；当寻呼DCI内包括寻呼消息的BWP索引时，所述UE在BWP索引对应的BWP资源上检测所述寻呼消息；当寻呼DCI内包括所述寻呼消息的时域位置指示域和BWP索引时，所述UE在所述时域位置指示域对应的时域资源和所述BWP索引对应的BWP资源上检测寻呼消息。
  51. 根据权利要求45或48所述的信息传输方法，其中，被BWP索引指示的BWP上不分配所述寻呼控制资源集合和所述寻呼搜索空间。
  52. 根据权利要求45或48所述的信息传输方法，其中，当所述BWP上不存在SSB且配置有所述寻呼控制资源集合、OSI集合和RMSI集合中至少一种时，所述UE按照存在所述SSB的方式对所配置的集合进行资源映射，所述集合的时频资源配置和初始接入BWP上的RMSI集合的时频资源配置相同；其中，所述SSB的第一个资源块索引由所述UE检测获取，或是由所述基站配置；或者，所述集合的时频资源配置和初始接入BWP上的RMSI集合的时频资源配置相同；其中，所述集合的第一个资源块索引由所述基站配置。
  53. 根据权利要求45或48所述的信息传输方法，其中，当所述BWP上配置了寻呼控制资源集合、OSI集合和RMSI集合中至少一种时，无论所述BWP上是否存在SSB， 所述UE按照存在所述SSB的方式对所配置的集合进行资源映射，所述集合的时频资源配置和初始接入BWP上的RMSI集合的时频资源配置相同；其中，所述SSB的第一个资源块索引由所述UE检测获取，或是由所述基站配置；或者，所述集合的时频资源配置和初始接入BWP上的RMSI集合的时频资源配置相同；其中，所述集合的第一个资源块索引由所述基站配置。
  54. 一种信息传输方法，包括：
    UE以被配置或预设的方式按照实际发射的SSB的数量E对BWP上所配置的集合进行资源关联；其中，所述配置的集合包括寻呼控制资源集合和OSI集合中至少一种。
  55. 根据权利要求54所述的信息传输方法，其中，所述UE以被配置或预设的方式按照实际发射的SSB的数量E对BWP上所配置的集合进行资源关联，包括：
    所述UE以被配置或预设的方式按照实际发射的SSB的数量E调整关联的SSB索引，得到经过调整的的关联的SSB索引i；
    所述UE根据i计算BWP上所配置的集合的第一个时隙索引；其中，i＝j+offset，j表示实际发射的SSB的逻辑索引，j与实际发射的SSB的实际索引按照升序方式一一对应，j的取值范围为{0，1，2…E-1}，offset为偏移量。
  56. 根据权利要求54所述的信息传输方法，其中，所述UE以被配置或预设的方式按照实际发射的SSB的数量E对BWP上所配置的集合进行资源关联，包括：
    当所述UE以预设的方式按照实际发射的SSB的数量E调整关联的SSB索引i，所述UE根据i计算BWP上所配置的集合的第一个时隙索引；其中，所述i为以第一个用于发射SSB的位置作为起始位置，一一对应实际发射的SSB的逻辑索引j；或者，所述i为以第一个实际发射SSB的位置作为起始位置，一一对应实际发射的SSB的逻辑索引j；或者，所述i为以第(F-E+1)个用于发射SSB的位置作为起始位置，一一对应实际发射的SSB的逻辑索引j；j的取值范围为{0，1，2…E-1}。
  57. 根据权利要求54所述的信息传输方法，其中，所述UE以被配置或预设的方式按照实际发射的SSB的数量E对BWP上所配置的集合进行资源关联，包括：
    所述UE以配置的方式按照实际发射的SSB的数量E调整关联的SSB索引。
  58. 根据权利要求55-57任一项所述的信息传输方法，其中，与所述SSB索引关联的所配置的资源集合的搜索窗是所述与SSB索引关联的RMSI的搜索窗，或是除实际与所述SSB索引关联的RMSI的搜索窗之外的搜索窗。
  59. 一种基站，包括：
    第一处理模块，设置为在复用DCI中设置用于指示不同类型UE进行动作的指示信息；
    第一发送模块，设置为向所述UE发送所述复用DCI；
    其中，复用DCI为将PDSCH的DCI复用的DCI，且当所述复用DCI采用预设RNTI加扰时为PDSCH的DCI，采用P-RNTI加扰时为寻呼DCI，所述预设RNTI为除所述P-RNTI 以外的RNTI。
  60. 一种基站，包括：
    第二处理模块，设置为在复用DCI中设置用于指示不同类型UE进行动作的指示信息；
    第二发送模块，设置为向所述UE发送所述复用DCI；
    其中，所述复用DCI为直接指示的DCI复用的DCI，且当所述复用DCI中预设比特位表示直接指示时为直接指示的DCI，表示寻呼时为寻呼的DCI时。
  61. 一种基站，包括：
    第一计算模块，设置为计算UE的寻呼时刻；
    第三处理模块，设置为在得到的寻呼时刻对应的寻呼控制资源集合或寻呼搜索空间位置上确定寻呼DCI的位置；
    第三发送模块，设置为在确定的位置上向所述UE发送所述寻呼DCI。
  62. 一种基站，包括：
    第四处理模块，设置为以配置或预设的方式按照实际发射的SSB的数量E对BWP上所配置的集合进行资源关联；其中，所述所配置的集合包括寻呼控制资源集合和OSI集合中至少一种。
  63. 一种终端，包括：
    第一接收模块，设置为接收基站发送的复用DCI；其中，所述复用DCI为基站将PDSCH的DCI复用的DCI，且当所述复用DCI采用预设RNTI加扰时为PDSCH的DCI，采用P-RNTI加扰时为寻呼DCI，所述预设RNTI为除所述P-RNTI以外的RNTI；
    第五处理模块，设置为根据所述复用DCI中设置的指示信息进行动作。
  64. 一种终端，包括：
    第二接收模块，设置为接收基站发送的复用DCI；其中，所述复用DCI中设置有用于指示不同类型UE进行动作的指示信息，所述复用DCI为基站将直接指示的DCI复用的DCI，且当其中的预设比特位表示直接指示时为直接指示的DCI，表示寻呼时为寻呼DCI；
    第六处理模块，设置为根据所述复用DCI中设置的指示信息进行动作。
  65. 一种终端，包括：
    第二计算模块，设置为计算终端的寻呼时刻；
    第七处理模块，设置为在获得的寻呼时刻对应的寻呼控制资源集合或寻呼搜索空间位置上确定寻呼DCI的位置；
    第三接收模块，设置为在确定的位置上接收基站发送的寻呼DCI。
  66. 一种终端，包括：
    第八处理模块，设置为以被配置或预设的方式按照实际发射的SSB的数量E对BWP上所配置的集合进行资源关联；其中，所述所配置的集合包括寻呼控制资源集合和OSI 集合中至少一种。
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