WO2021175016A1 - 无线传输方法和装置、信息确定方法和装置、电子设备、计算机可读存储介质 - Google Patents

无线传输方法和装置、信息确定方法和装置、电子设备、计算机可读存储介质 Download PDF

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Publication number
WO2021175016A1
WO2021175016A1 PCT/CN2021/071472 CN2021071472W WO2021175016A1 WO 2021175016 A1 WO2021175016 A1 WO 2021175016A1 CN 2021071472 W CN2021071472 W CN 2021071472W WO 2021175016 A1 WO2021175016 A1 WO 2021175016A1
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time domain
mapped
domain symbol
dmrs
pbch
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PCT/CN2021/071472
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English (en)
French (fr)
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肖凯
刘星
郝鹏
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中兴通讯股份有限公司
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Priority to US17/800,711 priority Critical patent/US20230353310A1/en
Priority to EP21763725.5A priority patent/EP4117319A1/en
Priority to BR112022017695A priority patent/BR112022017695A2/pt
Priority to KR1020227033436A priority patent/KR20220147645A/ko
Publication of WO2021175016A1 publication Critical patent/WO2021175016A1/zh

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    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04W—WIRELESS COMMUNICATION NETWORKS
    • H04W56/00—Synchronisation arrangements
    • H04W56/001—Synchronization between nodes
    • H04W56/0015—Synchronization between nodes one node acting as a reference for the others
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04W—WIRELESS COMMUNICATION NETWORKS
    • H04W4/00—Services specially adapted for wireless communication networks; Facilities therefor
    • H04W4/06—Selective distribution of broadcast services, e.g. multimedia broadcast multicast service [MBMS]; Services to user groups; One-way selective calling services
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04W—WIRELESS COMMUNICATION NETWORKS
    • H04W56/00—Synchronisation arrangements
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04B—TRANSMISSION
    • H04B7/00—Radio transmission systems, i.e. using radiation field
    • H04B7/24—Radio transmission systems, i.e. using radiation field for communication between two or more posts
    • H04B7/26—Radio transmission systems, i.e. using radiation field for communication between two or more posts at least one of which is mobile
    • H04B7/2643—Radio transmission systems, i.e. using radiation field for communication between two or more posts at least one of which is mobile using time-division multiple access [TDMA]
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04J—MULTIPLEX COMMUNICATION
    • H04J11/00—Orthogonal multiplex systems, e.g. using WALSH codes
    • H04J11/0069—Cell search, i.e. determining cell identity [cell-ID]
    • H04J11/0073—Acquisition of primary synchronisation channel, e.g. detection of cell-ID within cell-ID group
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04J—MULTIPLEX COMMUNICATION
    • H04J11/00—Orthogonal multiplex systems, e.g. using WALSH codes
    • H04J11/0069—Cell search, i.e. determining cell identity [cell-ID]
    • H04J11/0076—Acquisition of secondary synchronisation channel, e.g. detection of cell-ID group
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04L—TRANSMISSION OF DIGITAL INFORMATION, e.g. TELEGRAPHIC COMMUNICATION
    • H04L5/00—Arrangements affording multiple use of the transmission path
    • H04L5/003—Arrangements for allocating sub-channels of the transmission path
    • H04L5/0048—Allocation of pilot signals, i.e. of signals known to the receiver
    • H04L5/0051—Allocation of pilot signals, i.e. of signals known to the receiver of dedicated pilots, i.e. pilots destined for a single user or terminal
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04L—TRANSMISSION OF DIGITAL INFORMATION, e.g. TELEGRAPHIC COMMUNICATION
    • H04L5/00—Arrangements affording multiple use of the transmission path
    • H04L5/22—Arrangements affording multiple use of the transmission path using time-division multiplexing
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04W—WIRELESS COMMUNICATION NETWORKS
    • H04W48/00—Access restriction; Network selection; Access point selection
    • H04W48/08—Access restriction or access information delivery, e.g. discovery data delivery
    • H04W48/10—Access restriction or access information delivery, e.g. discovery data delivery using broadcasted information
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04W—WIRELESS COMMUNICATION NETWORKS
    • H04W72/00—Local resource management
    • H04W72/04—Wireless resource allocation
    • H04W72/044—Wireless resource allocation based on the type of the allocated resource
    • H04W72/0446—Resources in time domain, e.g. slots or frames
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04W—WIRELESS COMMUNICATION NETWORKS
    • H04W72/00—Local resource management
    • H04W72/30—Resource management for broadcast services
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04J—MULTIPLEX COMMUNICATION
    • H04J11/00—Orthogonal multiplex systems, e.g. using WALSH codes
    • H04J11/0069—Cell search, i.e. determining cell identity [cell-ID]
    • H04J11/0079—Acquisition of downlink reference signals, e.g. detection of cell-ID

Definitions

  • the present disclosure relates to the communication field, for example, it relates to the transmission of broadcast signal channel block (BSCHB, Broadcast Signal Channel Block) or synchronization signal physical broadcast channel block (SSB, synchronization signal (SS, Synchronization Signal)/physical broadcast channel (PBCH, Physical Broadcast Channel) Block) SSB wireless transmission method and device, information determination method and device, electronic equipment, computer readable storage medium.
  • BSCHB Broadcast Signal Channel Block
  • SSB synchronization signal physical broadcast channel block
  • SS synchronization signal
  • SS Synchronization Signal
  • PBCH Physical Broadcast Channel
  • SSB is based on the design of a multi-carrier communication system. It consists of a primary synchronization signal (Primary Synchronization Signal, PSS), a secondary synchronization signal (SSS), a physical broadcast channel (Physical Broadcast Channel, PBCH), and a demodulation reference signal (Demodulation Reference Signal). , DMRS) composition. Among them, DMRS and PBCH can be frequency division multiplexed.
  • PSS Primary Synchronization Signal
  • SSS secondary synchronization signal
  • PBCH Physical Broadcast Channel
  • PBCH Physical Broadcast Channel
  • Demodulation Reference Signal Demodulation Reference Signal
  • the single-carrier communication system can alleviate the above-mentioned problems, and compared with the multi-carrier system, the impact of the hardware loss of the single-carrier system is also lower.
  • PBCH and DMRS are not allowed to be multiplexed on frequency domain resources.
  • the present disclosure provides a wireless transmission method and device, an information determination method and device, electronic equipment, and a computer-readable storage medium.
  • the embodiments of the present disclosure provide a wireless transmission method, which includes:
  • the signals and channels included in the SSB are mapped to M consecutive time-domain symbols in a time-division multiplexed manner, where M is a positive integer;
  • the SSB includes: physical broadcast channel PBCH, primary synchronization signal PSS and secondary synchronization signal SSS.
  • the SSB further includes: DMRS.
  • An embodiment of the present disclosure provides an electronic device, which includes:
  • At least one processor a memory having at least one program stored thereon, and when the at least one program is executed by the at least one processor, the at least one processor uses any one of the above-mentioned wireless transmission methods.
  • the embodiments of the present disclosure provide a computer-readable storage medium on which a computer program is stored, and when the program is executed by a processor, any one of the above-mentioned wireless transmission methods is implemented.
  • the embodiments of the present disclosure provide a wireless transmission method, which includes:
  • the broadcast signal Channel blocks include: physical downlink control channel PDCCH, demodulation reference signal DMRS, physical broadcast channel PBCH, primary synchronization signal PSS, and secondary synchronization signal SSS.
  • the broadcast signal channel block further includes: and the physical downlink shared channel PDSCH.
  • An embodiment of the present disclosure provides an electronic device, which includes:
  • At least one processor a memory having at least one program stored thereon, and when the at least one program is executed by the at least one processor, any one of the above-mentioned wireless transmission methods is enabled by the at least one processor.
  • the embodiments of the present disclosure provide a computer-readable storage medium on which a computer program is stored, and when the program is executed by a processor, any one of the above-mentioned wireless transmission methods is implemented.
  • the embodiment of the present disclosure provides an information determination method, including:
  • the frequency domain reference point of the DMRS is determined according to the reference point and the first frequency offset; wherein the reference point includes any one of the following frequency domain positions in the time domain symbol where the position reference channel is mapped: lowest resource block RB; highest RB; lowest resource element RE; highest RE.
  • An embodiment of the present disclosure provides an electronic device, which includes:
  • At least one processor a memory having at least one program stored thereon, and when the at least one program is executed by the at least one processor, any one of the foregoing information determining methods for the at least one processor is enabled.
  • the embodiments of the present disclosure provide a computer-readable storage medium on which a computer program is stored, and when the program is executed by a processor, any one of the foregoing information determining methods is implemented.
  • the embodiment of the present disclosure provides an information determination method, including:
  • n 0 + n 1 *14 Determine the index of the first time domain symbol mapped to the candidate synchronization signal physical broadcast channel block SSB in the subcarrier interval of the SSB in half a radio frame: n 0 + n 1 *14; determine in half a radio frame
  • An embodiment of the present disclosure provides an electronic device, which includes:
  • At least one processor a memory having at least one program stored thereon, and when the at least one program is executed by the at least one processor, any one of the foregoing information determining methods for the at least one processor is enabled.
  • the embodiments of the present disclosure provide a computer-readable storage medium on which a computer program is stored, and when the program is executed by a processor, any one of the foregoing information determining methods is implemented.
  • the wireless transmission method provided by the embodiments of the present disclosure uses time division multiplexing to map the signals and channels included in the SSB to M consecutive time domain symbols for transmission, thereby realizing the transmission of the SSB in a single carrier system.
  • the wireless transmission method of the embodiment of the present disclosure integrates PDCCH and PDSCH based on the SSB to form a broadcast signal channel block (BSCHB, Broadcast Signal Channel Block), which is more conducive to adapting to beam transmission, and uses time division multiplexing to combine the broadcast signal channel
  • BSCHB Broadcast Signal Channel Block
  • the signals and channels included in the block are mapped to 7N consecutive time-domain symbols for transmission, which realizes the transmission of broadcast signal channel blocks in a single carrier system.
  • the information determination method of the embodiment of the present disclosure determines the frequency domain reference point according to the position reference channel, and provides a position reference for the determination of the DMRS demodulation sequence (ie, the reference sequence).
  • FIG. 1 is a flowchart of a wireless transmission method provided by an embodiment of the disclosure
  • Figure 2 is a diagram of the mapping structure of the time domain symbols of the SSB in Example 1;
  • Figure 3 is a diagram of the mapping structure of the time domain symbols of the SSB in Example 2;
  • Figure 4 is a diagram of the mapping structure of the time domain symbols of the SSB in Example 3.
  • Figure 5 is a diagram of the mapping structure of the time domain symbols of the SSB in Example 4.
  • FIG. 6 is a block diagram of a wireless transmission device provided by an embodiment of the disclosure.
  • FIG. 7 is a flowchart of another wireless transmission method provided by an embodiment of the disclosure.
  • Example 8 is a diagram of the mapping structure of time domain symbols of broadcast signal channel blocks in Example 5;
  • Example 9 is a diagram of the mapping structure of time-domain symbols of broadcast signal channel blocks in Example 6.
  • Example 10 is a diagram of the mapping structure of time-domain symbols of broadcast signal channel blocks in Example 7.
  • FIG. 11 is a block diagram of another wireless transmission device provided by an embodiment of the disclosure.
  • FIG. 12 is a flowchart of an information determination method provided by an embodiment of the disclosure.
  • Example 13 is a schematic diagram of the frequency domain position offset relationship among the frequency domain reference point, the channel to be demodulated (for example, PDCCH), and the position reference channel (for example, PBCH) in Example 8;
  • the channel to be demodulated for example, PDCCH
  • PBCH position reference channel
  • FIG. 14 is a block diagram of the composition of an information determining device provided by an embodiment of the disclosure.
  • FIG. 15 is a flowchart of another method for determining information provided by an embodiment of the disclosure.
  • 16 is a schematic diagram of the SSB period distribution of 5 time-domain symbols in Example 9;
  • FIG. 17 is a block diagram of another information determining device provided by an embodiment of the disclosure.
  • the maturity of the fifth generation mobile communication technology will further support enhanced mobile broadband (eMBB, Enhanced Mobile Broadband), high reliability and ultra-low latency communication (URLLC, Ultra-Reliable and Low Latency Communication) and large-scale machine communication (MMTC, Massive Machine Type of Communication) and other three application scenarios.
  • eMBB enhanced mobile broadband
  • URLLC Ultra-Reliable and Low Latency Communication
  • MMTC large-scale machine communication
  • the 5G system will have a peak rate of 10-20 Gbit/s, a connection density of 1 million per square kilometer, an air interface delay of 1 ms, a mobility support of 500 km/h, and a traffic of 10 Mbit/s per square meter. Key capability indicators such as density.
  • 5G uses higher frequency spectrum resources, which increases the spectrum efficiency by 3 to 5 times compared to 4G.
  • SSB synchronization signal physical broadcast channel block
  • DMRS and PBCH can be frequency-division multiplexed.
  • the problem of the multi-carrier system is that the ratio of the maximum instantaneous power to the average power is large, and it is sensitive to frequency offset and phase noise. The above problems are more prominent in high frequencies.
  • the single-carrier communication system can alleviate the above-mentioned problems, and compared with the multi-carrier system, the impact of the hardware loss of the single-carrier system is also lower.
  • PBCH and DMRS are not allowed to be multiplexed on frequency domain resources in a single carrier system, and there is no effective solution for how to transmit SSB in a single carrier system.
  • FIG. 1 is a flowchart of a wireless transmission method provided by an embodiment of the disclosure.
  • an embodiment of the present disclosure provides a wireless transmission method, which can be applied to a single-carrier communication node, and the method includes:
  • Step 100 Transmit the SSB; wherein the signals and channels included in the SSB are mapped to M consecutive time-domain symbols in a time division multiplexing manner, where M is a positive integer; the SSB includes: PBCH, PSS, and SSS .
  • the transmission includes at least one of the following: sending and receiving.
  • M is any one of 3, 4, and 5.
  • the SSB further includes: DMRS.
  • the characteristics of the SSB include at least one of the following:
  • Each signal included in the SSB is mapped to at least one resource block (RB, Resource Block) or at least one resource element (RE, Resource Element) of the time domain symbol where the signal is located, and each signal included in the SSB A channel is mapped to at least one RB or at least one RE of the time domain symbol where the channel is located; the intersection between all RBs or REs of the time domain symbol where the PBCH is located and the RE mapped to the DMRS is empty In some embodiments, the intersection between all RBs of the time domain symbol where any signal or channel is located and the RE mapped to any other signal or channel is empty; the bandwidth occupied by the DMRS is greater than or equal to each mapping The bandwidth occupied by the PBCH carried in the PBCH time domain symbol; the bandwidth occupied by the SSS is greater than or equal to the bandwidth occupied by the PBCH carried in each time domain symbol mapped with the PBCH; the SSS is cross-mapped To the RB or RE of the time domain symbol where the SSS is located, where
  • the RB refers to an RB in the frequency domain, that is, the RB includes 12 consecutive subcarriers in the frequency domain.
  • the bandwidth occupied by DMRS needs to be greater than or equal to the bandwidth occupied by the PBCH carried in each time domain symbol; similarly, in order to implement demodulation with reference to SSS for PBCH, the bandwidth occupied by SSS needs to be greater than Or equal to the bandwidth occupied by the PBCH carried in each time domain symbol.
  • the PBCH symbol and the DMRS symbol are adjacent to improve the accuracy; when the PBCH is referenced to the SSS for demodulation, the PBCH symbol and the SSS symbol are adjacent to improve the accuracy.
  • the characteristics of the SSB include:
  • Each signal included in the SSB is mapped to at least one resource block RB or at least one resource element RE of the time domain symbol where the signal is located; each channel included in the SSB is mapped to the channel where the channel is located. At least one RB or at least one RE of the time domain symbol; the intersection between all RBs or REs of the time domain symbol where the PBCH is located and the RE mapped to the DMRS is empty; the bandwidth occupied by the DMRS is greater than or equal to The bandwidth occupied by the PBCH; the PSS, the SSS, the PBCH, and the DMRS are respectively mapped to a time domain symbol; the PBCH symbol is adjacent to the DMRS symbol; wherein the DMRS symbol is mapped The time domain symbol of the DMRS, and the PBCH symbol is a time domain symbol mapped to the PBCH.
  • the characteristics of the SSB include:
  • Each signal included in the SSB is mapped to at least one resource block RB or at least one resource element RE of the time domain symbol where the signal is located; each channel included in the SSB is mapped to the channel where the channel is located. At least one RB or at least one RE of the time domain symbol; the intersection between all RBs or REs of the time domain symbol where the PBCH is located and the RE mapped to the DMRS is empty; the occupied bandwidth of the DMRS is greater than or equal to The bandwidth occupied by the PBCH carried in one time domain symbol mapped with PBCH; the PSS, the SSS, and the DMRS are respectively mapped to one time domain symbol; the PBCH is mapped to two time domain symbols; The PBCH is mapped to one time domain symbol before and after a DMRS symbol; wherein, the DMRS symbol is a time domain symbol to which the DMRS is mapped.
  • the M is 5, and the M consecutive time domain symbols are: the first time domain symbol, the second time domain symbol, the third time domain symbol, the fourth time domain symbol, and the fifth time domain symbol.
  • Time domain symbols, the SSB includes: PSS, SSS, DMRS, and PBCH; the signals and channels included in the SSB are mapped to M consecutive time domain symbols in a time division multiplexing manner, including any one of the following:
  • the PSS is mapped to the first time domain symbol, the SSS is mapped to the second time domain symbol, the DMRS is mapped to the fourth time domain symbol, and the PBCH is mapped To the third time domain symbol and the fifth time domain symbol;
  • the PSS is mapped to the second time domain symbol, the SSS is mapped to the first time domain symbol, and the DMRS is Is mapped to the fourth time domain symbol, the PBCH is mapped to the third time domain symbol and the fifth time domain symbol;
  • the PSS is mapped to the fifth time domain symbol, the SSS Is mapped to the first time domain symbol, the DMRS is mapped to the third time domain symbol, and the PBCH is mapped to the second time domain symbol and the fourth time domain symbol;
  • the PSS is mapped to the first time domain symbol, the SSS is mapped to the fifth time domain symbol, the DMRS is mapped to the third time domain symbol, and the PBCH is mapped To the second time domain symbol and the fourth time domain symbol; the
  • the M is 4, and the M consecutive time-domain symbols are: a sixth time-domain symbol, a seventh time-domain symbol, an eighth time-domain symbol, and a ninth time-domain symbol.
  • the SSB includes: PSS, SSS, DMRS, and PBCH; the signals and channels included in the SSB are time-division multiplexed and mapped to M consecutive time-domain symbols, including any one of the following:
  • the PSS is mapped to the sixth time domain symbol, the SSS is mapped to the seventh time domain symbol, the DMRS is mapped to the eighth time domain symbol, and the PBCH is mapped To the ninth time domain symbol; the PSS is mapped to the sixth time domain symbol, the SSS is mapped to the seventh time domain symbol, and the DMRS is mapped to the ninth time domain symbol Among the time domain symbols, the PBCH is mapped to the eighth time domain symbol; the PSS is mapped to the seventh time domain symbol, and the SSS is mapped to the sixth time domain symbol, The DMRS is mapped to the eighth time domain symbol, the PBCH is mapped to the ninth time domain symbol; the PSS is mapped to the seventh time domain symbol, and the SSS is mapped To the sixth time domain symbol, the DMRS is mapped to the ninth time domain symbol, the PBCH is mapped to the eighth time domain symbol; the PSS is mapped to the sixth time domain symbol Among the time domain symbols, the SSS is mapped to the ninth
  • mapping schemes given above are only a part of them, and there are many other mapping schemes that fall within the protection scope of the embodiments of the present disclosure, and will not be repeated here.
  • the characteristics of the SSB include:
  • Each signal included in the SSB is mapped to at least one resource block RB or at least one resource element RE of the time domain symbol where the signal is located; each channel included in the SSB is mapped to the channel where the channel is located.
  • the bandwidth occupied by the SSS is greater than or equal to the bandwidth occupied by the PBCH carried in each time domain symbol mapped to the PBCH;
  • the SSS is cross-mapped to In the RB or RE of the time domain symbol where the SSS is located; wherein, the cross mapping may be mapped only to the odd-numbered RB or RE of the time domain symbol where the SSS is located, or only mapped to the time domain symbol where the SSS is located In an even-numbered RB or RE;
  • the PSS and the SSS are respectively mapped to 1 time domain symbol;
  • the PBCH is mapped to at least 1 time domain symbol; at least one PBCH symbol is adjacent to the SSS symbol; wherein,
  • the PBCH symbol is a time domain symbol
  • the characteristics of the SSB include:
  • Each signal included in the SSB is mapped to at least one resource block RB or at least one resource element RE of the time domain symbol where the signal is located; each channel included in the SSB is mapped to the channel where the channel is located.
  • the bandwidth occupied by the SSS is greater than or equal to the bandwidth occupied by the PBCH carried in each time domain symbol mapped to the PBCH;
  • the SSS is mapped in all All RBs or REs of the time domain symbol where the SSS is located; the intersection between all RBs of the time domain symbol where the PBCH is located and the RE mapped to the DMRS is empty;
  • the PSS and the SSS are respectively mapped to 1 time domain symbol;
  • the PBCH is mapped to at least 1 time domain symbol;
  • the SSS symbol is adjacent to at least one PBCH symbol; wherein, the SSS symbol is a time domain symbol mapped with SSS, and the PBCH symbol It is a time domain symbol mapped with PBCH
  • the M is 4, and the M consecutive time-domain symbols are in order: the tenth time-domain symbol, the eleventh time-domain symbol, the twelfth time-domain symbol, and the thirteenth time-domain symbol
  • the SSB includes: PSS, SSS, and PBCH; the signals and channels included in the SSB are mapped to M consecutive time domain symbols in a time division multiplexing manner, including any one of the following:
  • the PSS is mapped to the tenth time domain symbol, the SSS is mapped to the twelfth time domain symbol, and the PBCH is mapped to the eleventh time domain symbol and the tenth time domain symbol.
  • Three time domain symbols the PSS is mapped to the thirteenth time domain symbol, the SSS is mapped to the eleventh time domain symbol, and the PBCH is mapped to the tenth time domain symbol Symbol and the twelfth time domain symbol; the PSS is mapped to the thirteenth time domain symbol, the SSS is mapped to the twelfth time domain symbol, and the PBCH is mapped to The tenth time domain symbol and the eleventh time domain symbol.
  • the M is 3, and the M consecutive time-domain symbols are: a fourteenth time-domain symbol, a fifteenth time-domain symbol, and a sixteenth time-domain symbol, and the SSB includes: PSS, SSS, and PBCH; the signals and channels included in the SSB are mapped to M consecutive time-domain symbols in a time division multiplexing manner, including any one of the following:
  • the PSS is mapped to the fourteenth time domain symbol, the SSS is mapped to the sixteenth time domain symbol, and the PBCH is mapped to the fifteenth time domain symbol; the The PSS is mapped to the fourteenth time domain symbol, the SSS is mapped to the fifteenth time domain symbol, and the PBCH is mapped to the sixteenth time domain symbol.
  • mapping schemes There are many other mapping schemes as long as they meet the characteristics of the above-mentioned SSB, and all mapping schemes that meet the above-mentioned characteristics of the SSB are within the protection scope of the embodiments of the present disclosure.
  • the wireless transmission method provided by the embodiments of the present disclosure uses time division multiplexing to map the signals and channels included in the SSB to M consecutive time domain symbols for transmission, thereby realizing the transmission of the SSB in a single carrier system.
  • the demodulation of the PBCH requires the use of DMRS, and the single-carrier system does not allow the two to be multiplexed on frequency domain resources.
  • the potential solution is to use the adjacent PSS or SSS to demodulate the PBCH, or to introduce DMRS symbols separately. demodulation. Therefore, the SSB transmitted in the single carrier system may include DMRS, which is used as a reference for demodulation of the PBCH; the SSB may also not include the DMRS, and the PBCH may be demodulated with the aid of the adjacent PSS or SSS.
  • This example describes a method in which the signals and channels included in the SSB are mapped into 4 consecutive time-domain symbols in a time division multiplexing manner for transmission; among them, the SSB includes: PSS, SSS, DMRS, and PBCH.
  • the main features of SSB include at least one of the following features:
  • PSS is mapped to at least one RB or at least one RE of the time domain symbol where the PSS is located;
  • SSS is mapped to at least one RB or at least one RE of the time domain symbol where the SSS is located;
  • DMRS is mapped to at least one RB or at least one RE of the time domain symbol where the DMRS is located At least one RE;
  • the PBCH is mapped to at least one RB or at least one RE of the time domain symbol where the PBCH is located; the intersection between all RBs or REs of the time domain symbol where the PBCH is located and the RE mapped with the DMRS is empty; the bandwidth occupied by the DMRS Greater than or equal to the bandwidth occupied by the PBCH.
  • the main features of SSB include at least one of the following features:
  • PSS, SSS, PBCH, and DMRS are respectively mapped to a time domain symbol; the PBCH symbol is adjacent to the DMRS symbol; among them, the PBCH symbol is the time domain symbol mapped to the PBCH, and the DMRS symbol is the symbol mapped to the DMRS.
  • the numbers of the 4 consecutive time domain symbols are 1, 2, 3, and 4, respectively.
  • the mapping order of PSS, SSS, DMRS and PBCH to the 4 consecutive time domain symbols can be any of the following A sort of:
  • PSS-SSS-DMRS-PBCH that is, the time domain symbol numbers to which PSS, SSS, DMRS and PBCH are mapped are ⁇ 1 ⁇ , ⁇ 2 ⁇ , ⁇ 3 ⁇ , ⁇ 4 ⁇
  • PSS- SSS-PBCH-DMRS that is, the time domain symbol numbers to which PSS, SSS, DMRS and PBCH are mapped are ⁇ 1 ⁇ , ⁇ 2 ⁇ , ⁇ 4 ⁇ , ⁇ 3 ⁇ respectively
  • SSS-PSS-DMRS-PBCH That is, the time-domain symbol numbers to which PSS, SSS, DMRS and PBCH are mapped are ⁇ 2 ⁇ , ⁇ 1 ⁇ , ⁇ 3 ⁇ , ⁇ 4 ⁇ respectively
  • SSS-PSS-PBCH-DMRS namely PSS, SSS , DMRS and PBCH are mapped to the time domain symbol numbers ⁇ 2 ⁇ , ⁇ 1 ⁇ , ⁇ 4 ⁇ , ⁇ 3 ⁇ respectively
  • PSS-PSS-PBCH-DMRS namely PSS,
  • each signal or channel in Figure 2 represents the bandwidth occupied by the signal or channel.
  • the one given in Figure 2 is only an example and does not mean that the bandwidth occupied by the signal or channel is limited to the bandwidth shown in Figure 2 It also does not mean that the relationship between the bandwidth occupied by signals or channels is limited to the relationship shown in FIG. 2.
  • the subcarrier spacing (SCS, Subcarrier Spacing) is an example of 120kHz.
  • This design can also support the time domain structure of SCS of 15kHz, 30kHz, 60kHz, 240kHz, 480kHz, 960kHz.
  • This embodiment describes a method in which signals and channels included in the SSB are mapped to 5 consecutive time-domain symbols in a time division multiplexing manner for transmission; wherein, the SSB includes: PSS, SSS, DMRS, and PBCH.
  • the main features of SSB include at least one of the following features:
  • PSS is mapped to at least one RB or at least one RE of the time domain symbol where the PSS is located;
  • SSS is mapped to at least one RB or at least one RE of the time domain symbol where the SSS is located;
  • DMRS is mapped to at least one of the time domain symbol where the DMRS is located RB or at least one RE;
  • PBCH is mapped to at least one RB or at least one RE of the time domain symbol where the PBCH is located; the intersection between all RBs or REs of the time domain symbol where the PBCH is located and the RE mapped with the DMRS is empty;
  • the bandwidth occupied by the DMRS is greater than or equal to the bandwidth occupied by the PBCH carried in each time domain symbol mapped to the PBCH.
  • the main features of SSB include at least one of the following features:
  • PSS, SSS, and DMRS are respectively mapped to one time domain symbol; PBCH is mapped to two time domain symbols; PBCH is mapped to one time domain symbol before and after the DMRS symbol; among them, the DMRS symbol is mapped with DMRS Time domain symbol.
  • the numbers of the 5 consecutive time domain symbols are 1, 2, 3, 4, and 5, respectively.
  • the mapping order of PSS, SSS, DMRS and PBCH to the 5 consecutive time domain symbols can be Any of the following:
  • PSS-SSS-PBCH-DMRS-PBCH that is, the time domain symbol numbers to which PSS, SSS, DMRS and PBCH are mapped are ⁇ 1 ⁇ , ⁇ 2 ⁇ , ⁇ 4 ⁇ , ⁇ 3,5 ⁇ respectively
  • SSS-PSS-PBCH-DMRS-PBCH that is, the time domain symbol numbers to which PSS, SSS, DMRS and PBCH are mapped are ⁇ 2 ⁇ , ⁇ 1 ⁇ , ⁇ 4 ⁇ , ⁇ 3,5 ⁇ respectively
  • SSS-PBCH-DMRS-PBCH-PSS that is, the time-domain symbol numbers to which PSS, SSS, DMRS and PBCH are mapped are ⁇ 5 ⁇ , ⁇ 1 ⁇ , ⁇ 3 ⁇ , ⁇ 2, 4 ⁇ respectively
  • PSS-PBCH-DMRS-PBCH-SSS that is, the time domain symbol numbers to which PSS, SSS, DMRS, and PBCH are mapped are ⁇ 1 ⁇ , ⁇ 2 ⁇ , ⁇ 4 ⁇ , ⁇ 3,5
  • each signal or channel in Figure 3 represents the bandwidth occupied by the signal or channel.
  • the one given in Figure 3 is only an example, and it does not mean that the bandwidth occupied by the signal or channel is limited to the bandwidth shown in Figure 3 It also does not mean that the relationship between the bandwidth occupied by signals or channels is limited to the relationship shown in FIG. 3.
  • the subcarrier spacing (SCS, Subcarrier Spacing) is an example of 120kHz.
  • This design can also support the time domain structure of SCS of 15kHz, 30kHz, 60kHz, 240kHz, 480kHz, 960kHz.
  • This embodiment describes a method in which signals and channels included in the SSB are mapped to 3 or 4 consecutive time domain symbols in a time division multiplexing manner for transmission; wherein, the SSB includes: PSS, SSS, and PBCH.
  • the main features of SSB include at least one of the following features:
  • PSS is mapped to at least one RB of the time domain symbol where the PSS is located; SSS is mapped to at least one RB of the time domain symbol where the SSS is located; PBCH is mapped to at least one RB of the time domain symbol where the PBCH is located; the bandwidth occupied by the SSS is greater than or equal to each The bandwidth occupied by the PBCH carried in a time domain symbol mapped to the PBCH; SSS is cross-mapped to the RB or RE of the time domain symbol where the SSS is located; wherein, the cross-map can be mapped only to the odd RB or the time domain symbol where the SSS is located. In the RE, or only mapped to the even-numbered RB or RE of the time domain symbol where the SSS is located.
  • the main features of SSB include at least one of the following features:
  • PSS and SSS are respectively mapped to 1 time domain symbol; PBCH is mapped to 1 or 2 time domain symbols; at least one PBCH symbol is adjacent to the SSS symbol; among them, the PBCH symbol is a time domain symbol mapped with PBCH , SSS symbol is a time domain symbol mapped with SSS.
  • the 3 consecutive time domain symbols are numbered 1, 2, 3, and the 4 consecutive time domain symbols are numbered 1, 2, 3, and 4.
  • PSS, SSS, and PBCH are mapped to
  • the mapping order of 3 or 4 consecutive time-domain symbols can be any of the following:
  • PSS-PBCH-SSS-PBCH that is, the time domain symbol numbers to which PSS, SSS, and PBCH are mapped are ⁇ 1 ⁇ , ⁇ 3 ⁇ , ⁇ 2,4 ⁇ respectively, where SSS and PBCH are in the frequency domain Alignment (that is, the bandwidth occupied by the SSS is equal to the bandwidth occupied by the PBCH, and the frequency domain start point of the SSS is the same as the frequency domain start point of the PBCH, and the frequency domain end point of the SSS is the same as the frequency domain end point of the PBCH), the SSS sequence is Cross-mapped to RB or RE; (b) PBCH-SSS-PBCH-PSS, that is, the time domain symbol numbers to which PSS, SSS and PBCH are mapped are ⁇ 4 ⁇ , ⁇ 2 ⁇ , ⁇ 1, 3 ⁇ respectively, where SSS and PBCH are aligned in the frequency domain, and the SSS sequence is cross-mapped to RB or RE; (c) PBCH-PBCH,
  • each signal or channel in Figure 4 represents the bandwidth occupied by the signal or channel.
  • the one given in Figure 4 is only an example, and it does not mean that the bandwidth occupied by the signal or channel is limited to the bandwidth shown in Figure 4 It also does not mean that the relationship between the bandwidth occupied by signals or channels is limited to the relationship shown in FIG. 4.
  • the subcarrier spacing (SCS, Subcarrier Spacing) is an example of 120kHz.
  • This design can also support the time domain structure of SCS of 15kHz, 30kHz, 60kHz, 240kHz, 480kHz, 960kHz.
  • This embodiment describes a method in which signals and channels included in the SSB are mapped to 3 or 4 consecutive time domain symbols in a time division multiplexing manner for transmission; wherein, the SSB includes: PSS, SSS, and PBCH.
  • the main features of SSB include at least one of the following features:
  • PSS is mapped to at least one RB or at least one RE of the time domain symbol where the PSS is located; SSS is mapped to at least one RB of the time domain symbol where the SSS is located; PBCH is mapped to at least one RB of the time domain symbol where the PBCH is located; SSS is occupied The bandwidth of the PBCH is greater than or equal to the bandwidth occupied by the PBCH carried in each time domain symbol where the PBCH is mapped; SSS is mapped in all RBs or REs of the time domain symbol where the SSS is located; all RBs and mappings of the time domain symbol where the PBCH is located are The intersection between the REs of the DMRS is empty.
  • the main features of SSB include at least one of the following features:
  • PSS and SSS are respectively mapped to 1 time domain symbol; PBCH is mapped to 1 or 2 time domain symbols; SSS symbol is adjacent to at least one PBCH symbol; among them, SSS symbol is a time domain symbol mapped with SSS , PBCH symbol is a time domain symbol mapped with PBCH.
  • the 3 consecutive time domain symbols are numbered 1, 2, 3, and the 4 consecutive time domain symbols are numbered 1, 2, 3, and 4.
  • PSS, SSS, and PBCH are mapped to
  • the mapping order of 3 or 4 consecutive time-domain symbols can be any of the following:
  • PSS-PBCH-SSS-PBCH that is, the time domain symbol numbers to which PSS, SSS, and PBCH are mapped are ⁇ 1 ⁇ , ⁇ 3 ⁇ , ⁇ 2, 4 ⁇ respectively
  • PBCH-SSS-PBCH- PSS that is, the time-domain symbol numbers to which PSS, SSS, and PBCH are mapped are ⁇ 4 ⁇ , ⁇ 2 ⁇ , ⁇ 1,3 ⁇ respectively
  • PBCH-PBCH-SSS-PSS that is, PSS, SSS, and PBCH are mapped The mapped time domain symbol numbers are ⁇ 4 ⁇ , ⁇ 3 ⁇ , ⁇ 1,2 ⁇
  • PSS-PBCH-SSS that is, the time domain symbol numbers mapped to PSS, SSS, and PBCH are ⁇ 1 ⁇ , ⁇ 3 ⁇ , ⁇ 2 ⁇
  • PSS-SSS-PBCH that is, the time domain symbol numbers to which PSS, SSS and PBCH are mapped are
  • each signal or channel in Figure 5 represents the bandwidth occupied by the signal or channel.
  • the one given in Figure 5 is only an example, and it does not mean that the bandwidth occupied by the signal or channel is limited to the bandwidth shown in Figure 5 It also does not mean that the relationship between the bandwidth occupied by signals or channels is limited to the relationship shown in FIG. 5.
  • the subcarrier spacing (SCS, Subcarrier Spacing) is an example of 120kHz.
  • This design can also support the time domain structure of SCS of 15kHz, 30kHz, 60kHz, 240kHz, 480kHz, 960kHz.
  • An embodiment of the present disclosure provides an electronic device, which includes:
  • At least one processor a memory, which stores at least one program, and when the at least one program is executed by the at least one processor, the at least one processor implements any of the foregoing wireless transmission methods.
  • a processor is a device with data processing capabilities, including but not limited to a central processing unit (CPU), etc.
  • a memory is a device with data storage capabilities, including but not limited to random access memory (Random Access Memory, RAM), such as synchronous dynamic random access memory (Synchronous Dynamic RAM, SDRAM), double rate (Double Data Rate, DDR) SDRAM, etc.), read-only memory (Read-Only Memory, ROM), live erasable programmable only Read memory (Electrically Erasable Programmable ROM, EEPROM), flash memory (FLASH).
  • RAM Random Access Memory
  • the processor and the memory are connected to each other through a bus, and further connected to other components of the computing device.
  • the embodiments of the present disclosure provide a computer-readable storage medium on which a computer program is stored, and when the program is executed by a processor, any one of the above-mentioned wireless transmission methods is implemented.
  • FIG. 6 is a block diagram of a wireless transmission device provided by an embodiment of the disclosure.
  • an embodiment of the present disclosure provides a wireless transmission device, which can be applied to a single-carrier communication node, including:
  • the first transmission module 601 is used to transmit SSB; wherein the signals and channels included in the SSB are mapped to M consecutive time-domain symbols in a time division multiplexing manner, where M is a positive integer; the SSB includes: PBCH, PSS and SSS.
  • the transmission includes at least one of the following: sending and receiving.
  • M is any one of 3, 4, and 5.
  • the SSB further includes: DMRS.
  • the characteristics of the SSB include at least one of the following:
  • Each signal included in the SSB is mapped to at least one resource block RB or at least one resource element RE of the time domain symbol where the signal is located, and each channel included in the SSB is mapped to the time domain where the channel is located At least one RB or at least one RE of the symbol; the intersection between all RBs or REs of the time domain symbol where the PBCH is located and the RE mapped to the DMRS is empty.
  • any signal or channel The intersection between all the RBs or REs of the time domain symbol and the RE mapped to any other signal or channel is empty; the bandwidth occupied by the DMRS is greater than or equal to that carried in each time domain symbol mapped to the PBCH The bandwidth occupied by the PBCH; the bandwidth occupied by the SSS is greater than or equal to the bandwidth occupied by the PBCH carried in each time domain symbol mapped to the PBCH; when the SSS is cross-mapped to the SSS In the RB or RE of the domain symbol, the cross mapping includes: mapping only to the odd RB or odd RE of the time domain symbol where the SSS is located, or only mapping to the even RB or RE of the time domain symbol where the SSS is located.
  • the SSS is mapped to all RBs or REs of the time domain symbol where the SSS is located; the PSS, the SSS, and the DMRS are respectively mapped to one time domain symbol; the PSS, the The SSS is respectively mapped to a time domain symbol; the PBCH is mapped to at least one time domain symbol; the PBCH is mapped to a time domain symbol before and after the DMRS symbol; the PBCH symbol is the same as the DMRS symbol Adjacent; at least one PBCH symbol is adjacent to an SSS symbol; wherein the DMRS symbol is a time domain symbol mapped to the DMRS, the PBCH symbol is a time domain symbol mapped to the PBCH, and the SSS symbol is mapped to the The time domain symbol of SSS.
  • the RB refers to an RB in the frequency domain, that is, the RB includes 12 consecutive subcarriers in the frequency domain.
  • the bandwidth occupied by DMRS needs to be greater than or equal to the bandwidth occupied by the PBCH carried in each time domain symbol; similarly, in order to implement demodulation with reference to SSS for PBCH, the bandwidth occupied by SSS needs to be greater than Or equal to the bandwidth occupied by the PBCH carried in each time domain symbol.
  • the PBCH symbol and the DMRS symbol are adjacent to improve the accuracy; when the PBCH is referenced to the SSS for demodulation, the PBCH symbol and the SSS symbol are adjacent to improve the accuracy.
  • the characteristics of the SSB include:
  • Each signal included in the SSB is mapped to at least one resource block RB or at least one resource element RE of the time domain symbol where the signal is located; each channel included in the SSB is mapped to the channel where the channel is located. At least one RB or at least one RE of the time domain symbol; the intersection between all RBs or REs of the time domain symbol where the PBCH is located and the RE mapped to the DMRS is empty; the bandwidth occupied by the DMRS is greater than or equal to The bandwidth occupied by the PBCH; the PSS, the SSS, the PBCH, and the DMRS are respectively mapped to a time domain symbol; the PBCH symbol is adjacent to the DMRS symbol; wherein the DMRS symbol is mapped The time domain symbol of the DMRS, and the PBCH symbol is a time domain symbol mapped to the PBCH.
  • the characteristics of the SSB include:
  • Each signal included in the SSB is mapped to at least one resource block RB or at least one resource element RE of the time domain symbol where the signal is located; each channel included in the SSB is mapped to the channel where the channel is located. At least one RB or at least one RE of the time domain symbol; the intersection between all RBs or REs of the time domain symbol where the PBCH is located and the RE mapped to the DMRS is empty; the occupied bandwidth of the DMRS is greater than or equal to The bandwidth occupied by the PBCH carried in one time domain symbol mapped with PBCH; the PSS, the SSS, and the DMRS are respectively mapped to one time domain symbol; the PBCH is mapped to two time domain symbols; The PBCH is mapped to one time domain symbol before and after a DMRS symbol; wherein, the DMRS symbol is a time domain symbol to which the DMRS is mapped.
  • the M is 5, and the M consecutive time domain symbols are: the first time domain symbol, the second time domain symbol, the third time domain symbol, the fourth time domain symbol, and the fifth time domain symbol.
  • Time domain symbols, the SSB includes: PSS, SSS, DMRS, and PBCH; the signals and channels included in the SSB are mapped to M consecutive time domain symbols in a time division multiplexing manner, including any one of the following:
  • the PSS is mapped to the first time domain symbol, the SSS is mapped to the second time domain symbol, the DMRS is mapped to the fourth time domain symbol, and the PBCH is mapped To the third time domain symbol and the fifth time domain symbol;
  • the PSS is mapped to the second time domain symbol, the SSS is mapped to the first time domain symbol, and the DMRS is Is mapped to the fourth time domain symbol, the PBCH is mapped to the third time domain symbol and the fifth time domain symbol;
  • the PSS is mapped to the fifth time domain symbol, the SSS Is mapped to the first time domain symbol, the DMRS is mapped to the third time domain symbol, and the PBCH is mapped to the second time domain symbol and the fourth time domain symbol;
  • the PSS is mapped to the first time domain symbol, the SSS is mapped to the fifth time domain symbol, the DMRS is mapped to the third time domain symbol, and the PBCH is mapped To the second time domain symbol and the fourth time domain symbol; the
  • the M is 4, and the M consecutive time-domain symbols are: a sixth time-domain symbol, a seventh time-domain symbol, an eighth time-domain symbol, and a ninth time-domain symbol.
  • the SSB includes: PSS, SSS, DMRS, and PBCH; the signals and channels included in the SSB are time-division multiplexed and mapped to M consecutive time-domain symbols, including any one of the following:
  • the PSS is mapped to the sixth time domain symbol, the SSS is mapped to the seventh time domain symbol, the DMRS is mapped to the eighth time domain symbol, and the PBCH is mapped To the ninth time domain symbol; the PSS is mapped to the sixth time domain symbol, the SSS is mapped to the seventh time domain symbol, and the DMRS is mapped to the ninth time domain symbol Among the time domain symbols, the PBCH is mapped to the eighth time domain symbol; the PSS is mapped to the seventh time domain symbol, and the SSS is mapped to the sixth time domain symbol, The DMRS is mapped to the eighth time domain symbol, the PBCH is mapped to the ninth time domain symbol; the PSS is mapped to the seventh time domain symbol, and the SSS is mapped To the sixth time domain symbol, the DMRS is mapped to the ninth time domain symbol, the PBCH is mapped to the eighth time domain symbol; the PSS is mapped to the sixth time domain symbol Among the time domain symbols, the SSS is mapped to the ninth
  • mapping schemes given above are only a part of them, and there are many other mapping schemes that fall within the protection scope of the embodiments of the present disclosure, and will not be repeated here.
  • the characteristics of the SSB include:
  • Each signal included in the SSB is mapped to at least one resource block RB or at least one resource element RE of the time domain symbol where the signal is located; each channel included in the SSB is mapped to the channel where the channel is located.
  • the bandwidth occupied by the SSS is greater than or equal to the bandwidth occupied by the PBCH carried in each time domain symbol mapped to the PBCH;
  • the SSS is cross-mapped to In the RB or RE of the time domain symbol where the SSS is located; wherein, the cross mapping may be mapped only to the odd-numbered RB or RE of the time domain symbol where the SSS is located, or only mapped to the time domain symbol where the SSS is located In an even-numbered RB or RE;
  • the PSS and the SSS are respectively mapped to 1 time domain symbol;
  • the PBCH is mapped to at least 1 time domain symbol; at least one PBCH symbol is adjacent to the SSS symbol; wherein,
  • the PBCH symbol is a time domain symbol
  • the characteristics of the SSB include:
  • Each signal included in the SSB is mapped to at least one resource block RB or at least one resource element RE of the time domain symbol where the signal is located; each channel included in the SSB is mapped to the channel where the channel is located.
  • the bandwidth occupied by the SSS is greater than or equal to the bandwidth occupied by the PBCH carried in each time domain symbol mapped to the PBCH;
  • the SSS is mapped in all All RBs or REs of the time domain symbol where the SSS is located; the intersection between all RBs or REs of the time domain symbol where the PBCH is located and the RE mapped to the DMRS is empty;
  • the PSS and the SSS are respectively Is mapped to one time domain symbol;
  • the PBCH is mapped to at least one time domain symbol;
  • the SSS symbol is adjacent to at least one PBCH symbol; wherein, the SSS symbol is a time domain symbol to which the SSS is mapped, and the The PBCH symbol is a time
  • the M is 4, and the M consecutive time-domain symbols are in order: the tenth time-domain symbol, the eleventh time-domain symbol, the twelfth time-domain symbol, and the thirteenth time-domain symbol
  • the SSB includes: PSS, SSS, and PBCH; the signals and channels included in the SSB are mapped to M consecutive time domain symbols in a time division multiplexing manner, including any one of the following:
  • the PSS is mapped to the tenth time domain symbol, the SSS is mapped to the twelfth time domain symbol, and the PBCH is mapped to the eleventh time domain symbol and the tenth time domain symbol.
  • Three time domain symbols the PSS is mapped to the thirteenth time domain symbol, the SSS is mapped to the eleventh time domain symbol, and the PBCH is mapped to the tenth time domain symbol Symbol and the twelfth time domain symbol; the PSS is mapped to the thirteenth time domain symbol, the SSS is mapped to the twelfth time domain symbol, and the PBCH is mapped to The tenth time domain symbol and the eleventh time domain symbol.
  • the M is 3, and the M consecutive time-domain symbols are: a fourteenth time-domain symbol, a fifteenth time-domain symbol, and a sixteenth time-domain symbol, and the SSB includes: PSS, SSS, and PBCH; the signals and channels included in the SSB are mapped to M consecutive time-domain symbols in a time division multiplexing manner, including any one of the following:
  • the PSS is mapped to the fourteenth time domain symbol, the SSS is mapped to the sixteenth time domain symbol, and the PBCH is mapped to the fifteenth time domain symbol; the The PSS is mapped to the fourteenth time domain symbol, the SSS is mapped to the fifteenth time domain symbol, and the PBCH is mapped to the sixteenth time domain symbol.
  • mapping schemes There are many other mapping schemes as long as they meet the characteristics of the above-mentioned SSB, and all mapping schemes that meet the above-mentioned characteristics of the SSB are within the protection scope of the embodiments of the present disclosure.
  • the wireless transmission device uses time division multiplexing to map the signals and channels included in the SSB to M consecutive time domain symbols for transmission, thereby realizing the transmission of the SSB in a single carrier system.
  • the demodulation of the PBCH requires the use of DMRS, and the single-carrier system does not allow the two to be multiplexed on frequency domain resources.
  • the potential solution is to use the adjacent PSS or SSS to demodulate the PBCH, or to introduce DMRS symbols separately. demodulation. Therefore, the SSB transmitted in the single carrier system may include DMRS, which is used as a reference for demodulation of the PBCH; the SSB may also not include the DMRS, and the PBCH may be demodulated with the aid of the adjacent PSS or SSS.
  • FIG. 7 is a flowchart of another wireless transmission method provided by an embodiment of the disclosure.
  • an embodiment of the present disclosure provides another wireless transmission method, which can be applied to a single-carrier communication node, and the method includes:
  • Step 700 Transmit a broadcast signal channel block; wherein the signals and channels included in the broadcast signal channel block are mapped into 7N consecutive time-domain symbols in a time division multiplexing manner, and N is an integer greater than or equal to 1;
  • the broadcast signal channel block includes at least one of the following: Physical Downlink Control Channel (PDCCH), DMRS, PBCH, PSS, SSS, and Physical Downlink Shared Channel (PDSCH, Physical Downlink Shared Channel).
  • PDCCH Physical Downlink Control Channel
  • DMRS DMRS
  • PBCH Physical Downlink Control Channel
  • PSS PSS
  • SSS Physical Downlink Shared Channel
  • PDSCH Physical Downlink Shared Channel
  • the transmission includes at least one of the following: sending and receiving.
  • the characteristics of the broadcast signal channel block include at least one of the following:
  • Each signal included in the broadcast signal channel block is mapped to at least one RB or at least one RE of the time domain symbol where the signal is located, and each channel included in the SSB is mapped to the time domain symbol where the channel is located At least one RB or at least one RE; the intersection of all RBs or REs of the time domain symbol where the PBCH is located and the RE mapped to the DMRS is empty; all RBs or REs of the time domain symbol where the PDCCH is located The intersection between the RE and the RE to which the DMRS is mapped is empty; the bandwidth occupied by the DMRS carried in at least one time domain symbol is greater than or equal to the PBCH carried in each time domain symbol to which the PBCH is mapped Occupied bandwidth; the bandwidth occupied by the DMRS carried in at least one time domain symbol is greater than or equal to the bandwidth occupied by the PDCCH carried in each time domain symbol mapped to the PDCCH; the PSS and the SSS are respectively Is mapped to one time domain symbol;
  • the RB refers to an RB in the frequency domain, that is, the RB includes 12 consecutive subcarriers in the frequency domain.
  • none of the RBs of the time domain symbol where any one signal or channel is located contains an RE mapped to any other signal or channel.
  • the bandwidth occupied by the DMRS carried in at least one time domain symbol needs to be greater than or equal to the bandwidth occupied by the PBCH carried in each time domain symbol; similarly, in order to implement PDCCH reference DMRS for decoding To adjust, the bandwidth occupied by the DMRS carried in at least one time domain symbol is required to be greater than or equal to the bandwidth occupied by the PDCCH carried in each time domain symbol.
  • the PBCH symbol and the DMRS symbol are adjacent to improve the accuracy; when the PBCH is referenced to the SSS for demodulation, the PBCH symbol and the SSS symbol are adjacent to improve the accuracy.
  • the characteristics of the broadcast signal channel block include:
  • Each signal included in the broadcast signal channel block is mapped to at least one resource block RB or at least one resource element RE of the time domain symbol where the signal is located; each channel included in the SSB is mapped to the At least one RB or at least one RE of the time domain symbol where the channel is located; the intersection between all RBs or REs of the time domain symbol where the PBCH is located and the RE mapped to the DMRS is empty; the time when the PDCCH is located The intersection between all RBs or REs of the domain symbol and the RE mapped to the DMRS is empty; the bandwidth occupied by the DMRS is greater than or equal to that occupied by the PBCH carried in each time domain symbol mapped to the PBCH Bandwidth; the bandwidth occupied by the DMRS is greater than or equal to the bandwidth occupied by the PDCCH carried in each time domain symbol mapped to the PDCCH; the DMRS, the PSS, and the SSS are respectively mapped to a time domain Symbol; the PBCH is mapped to
  • the characteristics of the broadcast signal channel block include:
  • Each signal included in the broadcast signal channel block is mapped to at least one resource block RB or at least one resource element RE of the time domain symbol where the signal is located; each channel included in the SSB is mapped to the At least one RB or at least one RE of the time domain symbol where the channel is located; the intersection between all RBs or REs of the time domain symbol where the PBCH is located and the RE mapped to the DMRS is empty; the time when the PDCCH is located The intersection between all RBs or REs of the domain symbol and the RE mapped to the DMRS is empty; at least one of the time domain symbols mapped to the DMRS occupies a bandwidth of the DMRS that is greater than or equal to the PDCCH occupation The bandwidth occupied by the DMRS carried in at least one time domain symbol mapped with the DMRS is greater than or equal to the bandwidth occupied by the PBCH carried in each time domain symbol mapped with the PBCH; The PSS and the SSS are respectively mapped to a time domain symbol; the PB
  • the characteristics of the broadcast signal channel block include:
  • Each signal included in the broadcast signal channel block is mapped to at least one resource block RB or at least one resource element RE of the time domain symbol where the signal is located; each channel included in the SSB is mapped to the At least one RB or at least one RE of the time domain symbol where the channel is located; the intersection between all RBs or REs of the time domain symbol where the PBCH is located and the RE mapped to the DMRS is empty; the time when the PDCCH is located The intersection between all the RBs or REs of the domain symbol and the RE mapped to the DMRS is empty; the bandwidth occupied by the DMRS carried in at least one time domain symbol mapped to the DMRS is greater than or equal to that of each mapping.
  • the bandwidth occupied by the PDCCH carried in the time domain symbol of the PDCCH; the bandwidth occupied by the DMRS carried in at least one time domain symbol mapped to the DMRS is greater than or equal to the bandwidth occupied by the PBCH; the PSS, The SSS and the PBCH are respectively mapped to one time domain symbol; each of the PDSCH, the DMRS, and the PDCCH is mapped to at least one time domain symbol; the PDCCH is mapped to a DMRS symbol
  • the PBCH is mapped to the adjacent time domain symbol of the DMRS symbol, or is mapped to the time domain symbol separated from the DMRS symbol by one time domain symbol; wherein, the The DMRS symbol is a time domain symbol to which the DMRS is mapped.
  • the N is 1, and the 7N consecutive time-domain symbols are in order: the seventeenth time-domain symbol, the eighteenth time-domain symbol, the nineteenth time-domain symbol, and the twentieth time-domain symbol.
  • Symbols, twenty-first time-domain symbols, twenty-second time-domain symbols, and twenty-third time-domain symbols, the signals or channels included in the broadcast signal channel block are time-division multiplexed and mapped to 7N consecutive
  • the time domain symbols of includes any of the following:
  • the PDCCH is mapped to the seventeenth time domain symbol, the DMRS is mapped to the eighteenth time domain symbol, and the PBCH is mapped to the nineteenth time domain symbol and the first In the twenty time domain symbols, the PSS is mapped to the twenty-first time domain symbol, the SSS is mapped to the twenty-second time domain symbol, and the PDSCH is mapped to the first Twenty-third time-domain symbols; the PDCCH is mapped to the seventeenth time-domain symbol, the DMRS is mapped to the eighteenth time-domain symbol, and the PBCH is mapped to the tenth Among the nine time-domain symbols and the twentieth time-domain symbol, the PSS is mapped to the twenty-second time-domain symbol, and the SSS is mapped to the twenty-first time-domain symbol, so The PDSCH is mapped to the twenty-third time domain symbol; the PDCCH is mapped to the seventeenth time domain symbol, the DMRS is mapped to the nineteenth time domain symbol, and the PBCH is
  • the PBCH is mapped to the eighteenth time-domain symbol and the twentieth time-domain symbol
  • the PSS is mapped to the twenty-second time-domain symbol
  • the SSS is mapped to the twenty-first time domain symbol
  • the PDSCH is mapped to the twenty-third time domain symbol
  • the PDCCH is mapped to the seventeenth time domain symbol and the eighteenth time domain symbol
  • the DMRS is mapped to the nineteenth time domain symbol
  • the PBCH is mapped to the twentieth time domain symbol
  • the PSS is mapped to the twenty-first time domain symbol.
  • the SSS is mapped to the twenty-second time domain symbol
  • the PDSCH is mapped to the twenty-third time domain symbol
  • the PDCCH is mapped to the seventeenth time domain symbol Domain symbols and eighteenth time domain symbols
  • the DMRS is mapped to the nineteenth time domain symbol
  • the PBCH is mapped to the twentieth time domain symbol
  • the PSS is mapped to all In the twenty-second time domain symbol
  • the SSS is mapped to the twenty-first time domain symbol
  • the PDSCH is mapped to the twenty-third time domain symbol
  • the PDCCH is mapped to In the seventeenth time domain symbol
  • the DMRS is mapped to the eighteenth time domain symbol and the twenty-second time domain symbol
  • the PBCH is mapped to the twenty-first time domain symbol Symbol and the twenty-third time domain symbol
  • the PSS is mapped to the nineteenth time domain symbol
  • the SSS is mapped to the twentieth time domain symbol
  • the PDCCH is mapped To the seventeenth time domain symbol
  • the SSS is mapped to the nineteenth time domain symbol; the PDCCH is mapped to the seventeenth time domain symbol, and the DMRS is mapped to the eighteenth time domain symbol And in the twenty-first time domain symbol, the PBCH is mapped to the twentieth time domain symbol and the twenty-second time domain symbol, and the PSS is mapped to the twenty-third time domain symbol.
  • the SSS is mapped to the nineteenth time domain symbol; the PDCCH is mapped to the seventeenth time domain symbol, and the DMRS is mapped to the eighteenth time domain symbol Symbol and the twenty-first time domain symbol, the PBCH is mapped to the twentieth time domain symbol and the twenty-second time domain symbol, and the PSS is mapped to the nineteenth time domain symbol.
  • the SSS is mapped to the twenty-third time domain symbol; the PDCCH is mapped to the seventeenth time domain symbol, and the DMRS is mapped to the eighteenth time symbol.
  • the PBCH is mapped to the nineteenth time domain symbol and the twenty-first time domain symbol
  • the PSS is mapped to the twentieth time domain symbol.
  • the SSS is mapped to the twenty-third time domain symbol;
  • the PDCCH is mapped to the seventeenth time domain symbol, and the DMRS is mapped to the eighteenth time domain symbol.
  • the PBCH is mapped to the nineteenth time domain symbol and the twenty-first time domain symbol, and the PSS is mapped to the second
  • the SSS is mapped to the twenty-second time domain symbol
  • the PDCCH is mapped to the seventeenth time domain symbol
  • the DMRS is mapped to the tenth time domain symbol.
  • the PBCH is mapped to the nineteenth time domain symbol
  • the PSS is mapped to the twentieth time domain symbol
  • the SSS is mapped to the twenty-first time domain symbol.
  • the PDSCH is mapped to the twenty-second time domain symbol and the twenty-third time domain symbol; the PDCCH is mapped to the seventeenth time domain symbol, and the DMRS is mapped to the eighteenth time domain symbol and the twenty-first time domain symbol, the PBCH is mapped to the twenty-second time domain symbol, and the PSS is mapped to the first Among the nineteen time domain symbols, the SSS is mapped to the twentieth time domain symbol, and the PDSCH is mapped to the twenty-third time domain symbol; the PDCCH is mapped to the tenth time domain symbol.
  • the DMRS is mapped to the eighteenth time-domain symbol and the twenty-first time-domain symbol
  • the PBCH is mapped to the twentieth time-domain symbol
  • the PSS is mapped to the nineteenth time domain symbol
  • the SSS is mapped to the twenty-second time domain symbol
  • the PDSCH is mapped to all The twenty-third time domain symbol
  • the PDCCH is mapped to the seventeenth time domain symbol
  • the DMRS is mapped to the eighteenth time domain symbol and the twentieth time domain symbol
  • the PBCH is mapped to the twenty-first time domain symbol
  • the PSS is mapped to the nineteenth time domain symbol
  • the SSS is mapped to the twenty-second time domain symbol
  • the PDSCH is mapped to the twenty-third time domain symbol
  • the PDCCH is mapped to the eighteenth time domain symbol
  • the DMRS is mapped to the seventeenth time domain symbol and the In the twenty-first time domain symbol
  • the PBCH is mapped to the twentieth time domain symbol
  • mapping schemes There are many other mapping schemes as long as they meet the characteristics of the above-mentioned SSB, and all mapping schemes that meet the above-mentioned characteristics of the SSB are within the protection scope of the embodiments of the present disclosure.
  • the wireless transmission method of the embodiments of the present disclosure integrates PDCCH and PDSCH based on SSB to form a broadcast signal channel block (BSCHB, Broadcast Signal Channel Block), which is more conducive to adapting to beam transmission, and uses time division multiplexing to combine broadcast signal channels
  • BSCHB Broadcast Signal Channel Block
  • the signals and channels included in the block are mapped to 7N consecutive time-domain symbols for transmission, which realizes the transmission of broadcast signal channel blocks in a single carrier system.
  • This embodiment describes a method in which the signals and channels included in BSCHB are mapped into 7 consecutive time-domain symbols in a time-division multiplexed manner for transmission; among them, BSCHB includes: PDCCH, DMRS, PBCH, PSS, SSS, and PDSCH Wait for the signal or channel.
  • the main features of BSCHB include at least one of the following features:
  • PDCCH is mapped to at least one RB or at least one RE of the time domain symbol where the PDCCH is located;
  • DMRS is mapped to at least one RB or at least one RE of the time domain symbol where the DMRS is located;
  • PBCH is mapped to at least one of the time domain symbols where the PBCH is located RB or at least one RE;
  • PSS is mapped to at least one RB or at least one RE of the time domain symbol where the PSS is located;
  • SSS is mapped to at least one RB or at least one RE of the time domain symbol where the SSS is located;
  • PDSCH is mapped to PDSCH In at least one RB or at least one RE of the time domain symbol; the intersection of all RBs or REs of the time domain symbol where the PBCH is located and the RE mapped to the DMRS is empty; all RBs or REs of the time domain symbol where the PDCCH is located and The intersection between REs mapped with DMRS is empty; the bandwidth
  • the main features of BSCHB include at least one of the following features:
  • DMRS, PSS, and SSS are respectively mapped to one time domain symbol; PBCH is mapped to two time domain symbols, and PBCH is mapped to the last two time domain symbols of the DMRS symbol, or PBCH is mapped to the second time domain symbol of the DMRS symbol One time domain symbol before and after; PDCCH is mapped to at least one time domain symbol, and is mapped to the adjacent time domain symbol of the DMRS symbol; PDSCH is mapped to at least one complete time domain symbol, or with other Channels are mapped in the same time domain symbol; DMRS symbols are time domain symbols mapped with DMRS.
  • the 7 consecutive time domain symbols are numbered 1, 2, 3, 4, 5, 6, 7, and PDCCH, DMRS, PBCH, PSS, SSS, and PDSCH are mapped to 7 consecutive time domain symbols.
  • the mapping order in the domain symbol can be any of the following:
  • PDCCH-DMRS-PBCH-PBCH-PSS-SSS-PDSCH that is, the numbers of the time domain symbols to which PDCCH, DMRS, PBCH, PSS, SSS, and PDSCH are mapped are ⁇ 1 ⁇ , ⁇ 2 ⁇ , ⁇ 3 ,4 ⁇ , ⁇ 5 ⁇ , ⁇ 6 ⁇ , ⁇ 7 ⁇ ;
  • PDCCH-DMRS-PBCH-PBCH-SSS-PSS-PDSCH that is, when PDCCH, DMRS, PBCH, PSS, SSS, and PDSCH are mapped to The numbers of the domain symbols are ⁇ 1 ⁇ , ⁇ 2 ⁇ , ⁇ 3,4 ⁇ , ⁇ 6 ⁇ , ⁇ 5 ⁇ , ⁇ 7 ⁇ ;
  • PDCCH-PBCH-DMRS-PBCH-PSS-SSS-PDSCH namely The numbers of the time domain symbols to which PDCCH, DMRS, PBCH, PSS, SSS, and PDSCH are mapped are ⁇ 1 ⁇
  • the time-domain symbols for PDSCH mapping can be selected as ⁇ 1,2,3,4,5,6,7 ⁇ .
  • the configured BSCHB bandwidth may be the bandwidth part (BWP, Bandwidth Part) where the BSCHB is located, or the BSCHB bandwidth configured by the base station.
  • this design can also support time domain structures with SCS of 15kHz, 30kHz, 60kHz, 240kHz, 480kHz, and 960kHz.
  • This embodiment describes a method in which the signals and channels included in BSCHB are mapped into 7 consecutive time-domain symbols in a time-division multiplexed manner for transmission; among them, BSCHB includes: PDCCH, DMRS, PBCH, PSS, SSS, and PDSCH Wait for the signal or channel.
  • the main features of BSCHB include at least one of the following features:
  • PDCCH is mapped to at least one RB or at least one RE of the time domain symbol where the PDCCH is located;
  • DMRS is mapped to at least one RB or at least one RE of the time domain symbol where the DMRS is located;
  • PBCH is mapped to at least one of the time domain symbols where the PBCH is located RB or at least one RE;
  • PSS is mapped to at least one RB or at least one RE of the time domain symbol where the PSS is located;
  • SSS is mapped to at least one RB or at least one RE of the time domain symbol where the SSS is located;
  • PDSCH is mapped to PDSCH In at least one RB or at least one RE of the time domain symbol; the intersection of all RBs or REs of the time domain symbol where the PBCH is located and the RE mapped to the DMRS is empty; all RBs or REs of the time domain symbol where the PDCCH is located and The intersection between the REs mapped with DMRS is empty; at
  • the main features of BSCHB include at least one of the following features:
  • PSS and SSS are respectively mapped to a time domain symbol; PBCH is mapped to two time domain symbols, and is mapped to one symbol before and after the DMRS symbol; PDCCH is mapped to a time domain symbol, and is mapped To the adjacent time domain symbols of the DMRS symbol; PDSCH is not mapped, or is mapped to the same time domain symbol with other channels; DMRS is mapped to two time domain symbols; among them, the DMRS symbol is a symbol mapped with DMRS .
  • the 7 consecutive time domain symbols are numbered 1, 2, 3, 4, 5, 6, 7, and PDCCH, DMRS, PBCH, PSS, SSS, and PDSCH are mapped to 7 consecutive time domain symbols.
  • the mapping order in the domain symbol can be any of the following:
  • PDCCH-DMRS-PSS-SSS-PBCH-DMRS-PBCH that is, PDCCH, DMRS, PBCH, PSS, and SSS are mapped to the time domain symbols numbered respectively ⁇ 1 ⁇ , ⁇ 2, 6 ⁇ , ⁇ 5 ,7 ⁇ , ⁇ 3 ⁇ , ⁇ 4 ⁇
  • PDCCH-DMRS-SSS-PSS-PBCH-DMRS-PBCH that is, the numbers of the time domain symbols to which PDCCH, DMRS, PBCH, PSS, and SSS are mapped are respectively ⁇ 1 ⁇ , ⁇ 2, 6 ⁇ , ⁇ 5, 7 ⁇ , ⁇ 4 ⁇ , ⁇ 3 ⁇
  • PDCCH-DMRS-SSS-PBCH-DMRS-PBCH-PSS namely PDCCH, DMRS, PBCH, PSS and The numbers of the time domain symbols to which SSS is mapped are ⁇ 1 ⁇ , ⁇ 2, 5 ⁇ , ⁇ 4, 6 ⁇ , ⁇ 7 ⁇ , ⁇ 3
  • the time-domain symbols for PDSCH mapping can be selected as ⁇ 1,2,3,4,5,6,7 ⁇ .
  • the configured BSCHB bandwidth may be the BWP where the BSCHB is located, or the BSCHB bandwidth configured by the base station.
  • the SCS is 120kHz as an example.
  • This design can also support the time domain structure of SCS at 15kHz, 30kHz, 60kHz, 240kHz, 480kHz, 960kHz.
  • This embodiment describes a method in which the signals and channels included in BSCHB are mapped into 7 consecutive time-domain symbols in a time-division multiplexed manner for transmission; among them, BSCHB includes: PDCCH, DMRS, PBCH, PSS, SSS, and PDSCH Wait for the signal or channel.
  • the main features of BSCHB include at least one of the following features:
  • PDCCH is mapped to at least one RB or at least one RE of the time domain symbol where the PDCCH is located;
  • DMRS is mapped to at least one RB or at least one RE of the time domain symbol where the DMRS is located;
  • PBCH is mapped to at least one of the time domain symbols where the PBCH is located RB or at least one RE;
  • PSS is mapped to at least one RB or at least one RE of the time domain symbol where the PSS is located;
  • SSS is mapped to at least one RB or at least one RE of the time domain symbol where the SSS is located;
  • PDSCH is mapped to PDSCH In at least one RB or at least one RE of the time domain symbol; the intersection of all RBs or REs of the time domain symbol where the PBCH is located and the RE mapped to the DMRS is empty; all RBs or REs of the time domain symbol where the PDCCH is located and The intersection between the REs mapped with DMRS is empty; the
  • the main features of BSCHB include at least one of the following features:
  • PSS, SSS, and PBCH are respectively mapped to one time domain symbol; each of PDSCH, DMRS, and PDCCH is mapped to at least one time domain symbol; PDCCH is mapped to the adjacent time domain symbol of the DMRS symbol; PBCH is mapped to the adjacent time domain symbol of the DMRS symbol; It is mapped to the adjacent time domain symbol of the DMRS symbol, or is mapped to a time domain symbol separated from the DMRS symbol by one time domain symbol; wherein, the DMRS symbol is a time domain symbol to which the DMRS is mapped.
  • the 7 consecutive time domain symbols are numbered 1, 2, 3, 4, 5, 6, 7, and PDCCH, DMRS, PBCH, PSS, SSS, and PDSCH are mapped to 7 consecutive time domain symbols.
  • the mapping order in the domain symbol can be any of the following:
  • PDCCH-DMRS-PBCH-PSS-SSS-PDSCH-PDSCH that is, the numbers of the time domain symbols to which PDCCH, DMRS, PBCH, PSS, SSS, and PDSCH are mapped are ⁇ 1 ⁇ , ⁇ 2 ⁇ , ⁇ 3 ⁇ , ⁇ 4 ⁇ , ⁇ 5 ⁇ , ⁇ 6,7 ⁇ ;
  • PDCCH-DMRS-PSS-SSS-DMRS-PBCH-PDSCH that is, when PDCCH, DMRS, PBCH, PSS, SSS, and PDSCH are mapped to The numbers of the domain symbols are ⁇ 1 ⁇ , ⁇ 2,5 ⁇ , ⁇ 6 ⁇ , ⁇ 3 ⁇ , ⁇ 4 ⁇ , ⁇ 7 ⁇ ;
  • PDCCH-DMRS-PSS-PBCH-DMRS-SSS-PDSCH namely The numbers of the time domain symbols to which PDCCH, DMRS, PBCH, PSS, SSS, and PDSCH are mapped are ⁇ 1 ⁇ ,
  • the time-domain symbols for PDSCH mapping can be selected as ⁇ 1,2,3,4,5,6,7 ⁇ .
  • the configured BSCHB bandwidth may be the BWP where the BSCHB is located, or the BSCHB bandwidth configured by the base station.
  • the SCS is 120kHz as an example. This design can also support the structure of SCS at 15kHz, 30kHz, 60kHz, 240kHz, 480kHz, 960kHz.
  • An embodiment of the present disclosure provides an electronic device, which includes:
  • At least one processor a storage device having at least one program stored thereon, and when the at least one program is executed by the at least one processor, the at least one processor implements any one of the above-mentioned wireless transmission methods.
  • a processor is a device with data processing capabilities, including but not limited to a central processing unit (CPU), etc.; a memory is a device with data storage capabilities, including but not limited to random access memory (RAM, such as SDRAM, DDR, etc.) , Read-only memory (ROM), charged erasable programmable read-only memory (EEPROM), flash memory (FLASH).
  • RAM random access memory
  • ROM Read-only memory
  • EEPROM charged erasable programmable read-only memory
  • FLASH flash memory
  • the processor and the memory are connected to each other through a bus, and further connected to other components of the computing device.
  • the embodiments of the present disclosure provide a computer-readable storage medium on which a computer program is stored, and when the program is executed by a processor, any one of the above-mentioned wireless transmission methods is implemented.
  • FIG. 11 is a block diagram of another wireless transmission device provided by an embodiment of the disclosure.
  • an embodiment of the present disclosure provides another wireless transmission device, which can be applied to a single-carrier communication node, including:
  • the second transmission module 1101 is used to transmit broadcast signal channel blocks; wherein the signals and channels included in the broadcast signal channel blocks are mapped into 7N consecutive time domain symbols in a time division multiplexing manner, where N is greater than or An integer equal to 1; the broadcast signal channel block includes at least one of the following: physical downlink control channel (PDCCH, Physical Downlink Control CHannel), DMRS, PBCH, PSS, SSS, and physical downlink shared channel (PDSCH, Physical Downlink Shared CHannel) .
  • PDCCH Physical Downlink Control CHannel
  • DMRS Physical Downlink Control CHannel
  • PBCH Physical Downlink Control CHannel
  • PSS PSS
  • SSS Physical Downlink shared channel
  • PDSCH Physical Downlink Shared CHannel
  • the transmission includes at least one of the following: sending and receiving.
  • the characteristics of the broadcast signal channel block include at least one of the following:
  • Each signal included in the broadcast signal channel block is mapped to at least one resource block RB or at least one resource element RE of the time domain symbol where the signal is located, and each channel included in the SSB is mapped to the channel where the signal is located.
  • the intersection between all RBs or REs of the time domain symbol where the PBCH is located and the RE mapped to the DMRS is empty; the time domain symbol where the PDCCH is located.
  • the intersection between all the RBs or REs and the RE mapped to the DMRS is empty; the bandwidth occupied by the DMRS carried in at least one time domain symbol is greater than or equal to that carried in each time domain symbol mapped to the PBCH
  • the bandwidth occupied by the PBCH; the bandwidth occupied by the DMRS carried in at least one time domain symbol is greater than or equal to the bandwidth occupied by the PDCCH carried in each time domain symbol mapped to the PDCCH; the PSS, The SSS is respectively mapped to one time domain symbol
  • the RB refers to an RB in the frequency domain, that is, the RB includes 12 consecutive subcarriers in the frequency domain.
  • none of the RBs of the time domain symbol where any one signal or channel is located contains an RE mapped to any other signal or channel.
  • the bandwidth occupied by the DMRS carried in at least one time domain symbol needs to be greater than or equal to the bandwidth occupied by the PBCH carried in each time domain symbol; similarly, in order to implement PDCCH reference DMRS for decoding To adjust, the bandwidth occupied by the DMRS carried in at least one time domain symbol is required to be greater than or equal to the bandwidth occupied by the PDCCH carried in each time domain symbol.
  • the PBCH symbol and the DMRS symbol are adjacent to improve the accuracy; when the PBCH is referenced to the SSS for demodulation, the PBCH symbol and the SSS symbol are adjacent to improve the accuracy.
  • the characteristics of the broadcast signal channel block include:
  • Each signal included in the broadcast signal channel block is mapped to at least one resource block RB or at least one resource element RE of the time domain symbol where the signal is located; each channel included in the SSB is mapped to the At least one RB or at least one RE of the time domain symbol where the channel is located; the intersection between all RBs or REs of the time domain symbol where the PBCH is located and the RE mapped to the DMRS is empty; the time when the PDCCH is located The intersection between all RBs or REs of the domain symbol and the RE mapped to the DMRS is empty; the bandwidth occupied by the DMRS is greater than or equal to that occupied by the PBCH carried in each time domain symbol mapped to the PBCH Bandwidth; the bandwidth occupied by the DMRS is greater than or equal to the bandwidth occupied by the PDCCH carried in each time domain symbol mapped to the PDCCH; the DMRS, the PSS, and the SSS are respectively mapped to a time domain Symbol; the PBCH is mapped to
  • the characteristics of the broadcast signal channel block include:
  • Each signal included in the broadcast signal channel block is mapped to at least one resource block RB or at least one resource element RE of the time domain symbol where the signal is located; each channel included in the SSB is mapped to the At least one RB or at least one RE of the time domain symbol where the channel is located; the intersection between all RBs or REs of the time domain symbol where the PBCH is located and the RE mapped to the DMRS is empty; the time when the PDCCH is located The intersection between all RBs or REs of the domain symbol and the RE mapped to the DMRS is empty; at least one of the time domain symbols mapped to the DMRS occupies a bandwidth of the DMRS that is greater than or equal to the PDCCH occupation The bandwidth occupied by the DMRS carried in at least one time domain symbol mapped with the DMRS is greater than or equal to the bandwidth occupied by the PBCH carried in each time domain symbol mapped with the PBCH; The PSS and the SSS are respectively mapped to a time domain symbol; the PB
  • the characteristics of the broadcast signal channel block include:
  • Each signal included in the broadcast signal channel block is mapped to at least one resource block RB or at least one resource element RE of the time domain symbol where the signal is located; each channel included in the SSB is mapped to the At least one RB or at least one RE of the time domain symbol where the channel is located; the intersection between all RBs or REs of the time domain symbol where the PBCH is located and the RE mapped to the DMRS is empty; the time when the PDCCH is located The intersection between all the RBs or REs of the domain symbol and the RE mapped to the DMRS is empty; the bandwidth occupied by the DMRS carried in at least one time domain symbol mapped to the DMRS is greater than or equal to that of each mapping.
  • the bandwidth occupied by the PDCCH carried in the time domain symbol of the PDCCH; the bandwidth occupied by the DMRS carried in at least one time domain symbol mapped to the DMRS is greater than or equal to the bandwidth occupied by the PBCH; the PSS, The SSS and the PBCH are respectively mapped to one time domain symbol; each of the PDSCH, the DMRS, and the PDCCH is mapped to at least one time domain symbol; the PDCCH is mapped to a DMRS symbol
  • the PBCH is mapped to the adjacent time domain symbol of the DMRS symbol, or is mapped to the time domain symbol separated from the DMRS symbol by one time domain symbol; wherein, the The DMRS symbol is a time domain symbol to which the DMRS is mapped.
  • the N is 1, and the 7N consecutive time-domain symbols are in order: the seventeenth time-domain symbol, the eighteenth time-domain symbol, the nineteenth time-domain symbol, and the twentieth time-domain symbol.
  • Symbols, twenty-first time-domain symbols, twenty-second time-domain symbols, and twenty-third time-domain symbols, the signals or channels included in the broadcast signal channel block are time-division multiplexed and mapped to 7N consecutive
  • the time domain symbols of includes any of the following:
  • the PDCCH is mapped to the seventeenth time domain symbol, the DMRS is mapped to the eighteenth time domain symbol, and the PBCH is mapped to the nineteenth time domain symbol and the first In the twenty time domain symbols, the PSS is mapped to the twenty-first time domain symbol, the SSS is mapped to the twenty-second time domain symbol, and the PDSCH is mapped to the first Twenty-third time-domain symbols; the PDCCH is mapped to the seventeenth time-domain symbol, the DMRS is mapped to the eighteenth time-domain symbol, and the PBCH is mapped to the tenth Among the nine time-domain symbols and the twentieth time-domain symbol, the PSS is mapped to the twenty-second time-domain symbol, and the SSS is mapped to the twenty-first time-domain symbol, so The PDSCH is mapped to the twenty-third time domain symbol; the PDCCH is mapped to the seventeenth time domain symbol, the DMRS is mapped to the nineteenth time domain symbol, and the PBCH is
  • the PBCH is mapped to the eighteenth time-domain symbol and the twentieth time-domain symbol
  • the PSS is mapped to the twenty-second time-domain symbol
  • the SSS is mapped to the twenty-first time domain symbol
  • the PDSCH is mapped to the twenty-third time domain symbol
  • the PDCCH is mapped to the seventeenth time domain symbol and the eighteenth time domain symbol
  • the DMRS is mapped to the nineteenth time domain symbol
  • the PBCH is mapped to the twentieth time domain symbol
  • the PSS is mapped to the twenty-first time domain symbol.
  • the SSS is mapped to the twenty-second time domain symbol
  • the PDSCH is mapped to the twenty-third time domain symbol
  • the PDCCH is mapped to the seventeenth time domain symbol Domain symbols and eighteenth time domain symbols
  • the DMRS is mapped to the nineteenth time domain symbol
  • the PBCH is mapped to the twentieth time domain symbol
  • the PSS is mapped to all In the twenty-second time domain symbol
  • the SSS is mapped to the twenty-first time domain symbol
  • the PDSCH is mapped to the twenty-third time domain symbol
  • the PDCCH is mapped to In the seventeenth time domain symbol
  • the DMRS is mapped to the eighteenth time domain symbol and the twenty-second time domain symbol
  • the PBCH is mapped to the twenty-first time domain symbol Symbol and the twenty-third time domain symbol
  • the PSS is mapped to the nineteenth time domain symbol
  • the SSS is mapped to the twentieth time domain symbol
  • the PDCCH is mapped To the seventeenth time domain symbol
  • the SSS is mapped to the nineteenth time domain symbol; the PDCCH is mapped to the seventeenth time domain symbol, and the DMRS is mapped to the eighteenth time domain symbol And in the twenty-first time domain symbol, the PBCH is mapped to the twentieth time domain symbol and the twenty-second time domain symbol, and the PSS is mapped to the twenty-third time domain symbol.
  • the SSS is mapped to the nineteenth time domain symbol; the PDCCH is mapped to the seventeenth time domain symbol, and the DMRS is mapped to the eighteenth time domain symbol Symbol and the twenty-first time domain symbol, the PBCH is mapped to the twentieth time domain symbol and the twenty-second time domain symbol, and the PSS is mapped to the nineteenth time domain symbol.
  • the SSS is mapped to the twenty-third time domain symbol; the PDCCH is mapped to the seventeenth time domain symbol, and the DMRS is mapped to the eighteenth time domain symbol.
  • the PBCH is mapped to the nineteenth time domain symbol and the twenty-first time domain symbol
  • the PSS is mapped to the twentieth time domain symbol.
  • the SSS is mapped to the twenty-third time domain symbol;
  • the PDCCH is mapped to the seventeenth time domain symbol, and the DMRS is mapped to the eighteenth time domain symbol.
  • the PBCH is mapped to the nineteenth time domain symbol and the twenty-first time domain symbol, and the PSS is mapped to the second
  • the SSS is mapped to the twenty-second time domain symbol
  • the PDCCH is mapped to the seventeenth time domain symbol
  • the DMRS is mapped to the tenth time domain symbol.
  • the PBCH is mapped to the nineteenth time domain symbol
  • the PSS is mapped to the twentieth time domain symbol
  • the SSS is mapped to the twenty-first time domain symbol.
  • the PDSCH is mapped to the twenty-second time domain symbol and the twenty-third time domain symbol; the PDCCH is mapped to the seventeenth time domain symbol, and the DMRS is mapped to the eighteenth time domain symbol and the twenty-first time domain symbol, the PBCH is mapped to the twenty-second time domain symbol, and the PSS is mapped to the first Among the nineteen time domain symbols, the SSS is mapped to the twentieth time domain symbol, and the PDSCH is mapped to the twenty-third time domain symbol; the PDCCH is mapped to the tenth time domain symbol.
  • the DMRS is mapped to the eighteenth time-domain symbol and the twenty-first time-domain symbol
  • the PBCH is mapped to the twentieth time-domain symbol
  • the PSS is mapped to the nineteenth time domain symbol
  • the SSS is mapped to the twenty-second time domain symbol
  • the PDSCH is mapped to all The twenty-third time domain symbol
  • the PDCCH is mapped to the seventeenth time domain symbol
  • the DMRS is mapped to the eighteenth time domain symbol and the twentieth time domain symbol
  • the PBCH is mapped to the twenty-first time domain symbol
  • the PSS is mapped to the nineteenth time domain symbol
  • the SSS is mapped to the twenty-second time domain symbol
  • the PDSCH is mapped to the twenty-third time domain symbol
  • the PDCCH is mapped to the eighteenth time domain symbol
  • the DMRS is mapped to the seventeenth time domain symbol and the In the twenty-first time domain symbol
  • the PBCH is mapped to the twentieth time domain symbol
  • mapping schemes There are many other mapping schemes as long as they meet the characteristics of the above-mentioned SSB, and all mapping schemes that meet the above-mentioned characteristics of the SSB are within the protection scope of the embodiments of the present disclosure.
  • the wireless transmission device of the embodiment of the present disclosure integrates PDCCH and PDSCH based on SSB to form a broadcast signal channel block (BSCHB, Broadcast Signal Channel Block), which is more conducive to adapting to beam transmission, and adopts time division multiplexing to combine the broadcast signal channel
  • BSCHB Broadcast Signal Channel Block
  • the signals and channels included in the block are mapped to 7N consecutive time-domain symbols for transmission, which realizes the transmission of broadcast signal channel blocks in a single carrier system.
  • DMRS usually uses frequency division multiplexing to insert DMRS sequences into other channels.
  • other channels refer to DMRS for demodulation, refer to the DMRS sequence for demodulation reference.
  • DMRS cannot use frequency division multiplexing. The above method is not applicable in the method used; when the DMRS does not use frequency division multiplexing in a multi-carrier system, the above method is also not applicable.
  • FIG. 12 is a flowchart of an information determination method provided by an embodiment of the disclosure.
  • an embodiment of the present disclosure provides an information determination method, including:
  • Step 1200 Determine the frequency domain reference point of the DMRS according to the reference point and the first frequency offset.
  • the reference point includes any one of the following in the frequency domain position in the time domain symbol where the position reference channel is mapped: the lowest resource block RB; the highest RB; the lowest resource element RE; the highest RE.
  • the location reference channel includes any one of the following: physical downlink control channel PDCCH, physical broadcast channel PBCH, primary synchronization signal PSS, secondary synchronization signal SSS; the bandwidth occupied by the DMRS is greater than or equal to the bandwidth to be demodulated Bandwidth occupied by the channel; each of the DMRS, the channel to be demodulated, and the position reference channel is mapped to at least one RB or at least one RE of the time domain symbol.
  • the first frequency offset is X RBs, or Y REs, or X RBs plus Y REs; wherein, X and Y are both integers greater than or equal to zero.
  • X and Y may be predefined by a protocol or configured through radio resource control (RRC, Radio Resource Control) signaling.
  • RRC Radio Resource Control
  • determining the frequency domain reference point of the DMRS according to the reference point and the first frequency offset includes any one of the following:
  • the frequency domain reference point of the DMRS is the reference point shifted by the first frequency offset in the low frequency direction; the frequency domain reference point of the DMRS is determined as the reference point shifted by the high frequency direction The first frequency offset.
  • the method further includes:
  • the reference sequence in the DMRS is determined according to the frequency domain reference point of the DMRS, and the channel to be demodulated refers to the reference sequence in the DMRS for demodulation.
  • determining the reference sequence in the DMRS according to the frequency domain reference point of the DMRS includes:
  • a sequence with the same length as the frequency domain length of the channel to be demodulated is intercepted from the DMRS as a reference sequence.
  • the second frequency offset between the first frequency offset, the lowest RE in the frequency domain position to which the position reference channel is mapped, and the lowest RE in the frequency domain position to which the channel to be demodulated is mapped
  • the frequency offset and the third frequency offset can be directly configured as fixed values through RRC signaling configuration; alternatively, their candidate values can be pre-defined through the protocol, and then the values can be selected through RRC signaling; alternatively, they can also be selected through RRC signaling
  • the protocol is predefined as a fixed value.
  • the information determination method of the embodiment of the present disclosure determines the frequency domain reference point according to the position reference channel, and provides a position reference for the determination of the DMRS demodulation sequence (that is, the above-mentioned reference sequence).
  • This embodiment describes a method for determining information.
  • the channel to be demodulated refers to the reference sequence of the DMRS for demodulation.
  • the main features include: at least three channels, such as DMRS, channel to be demodulated, and position reference channel, are mapped on time domain symbols.
  • the main features include at least one of the following:
  • the bandwidth occupied by DMRS is greater than or equal to the bandwidth occupied by the channel to be demodulated; the frequency domain reference point is based on the lowest RE or lowest RB or highest RE or highest RB of the position reference channel, and a fixed offset to the low frequency or high frequency direction
  • the offset2 value (that is, the above-mentioned first frequency offset); each of the DMRS, the channel to be demodulated, and the position reference channel is mapped to at least one RB or at least one RE of the time domain symbol.
  • it may be the SSB or broadcast signal channel block proposed in the foregoing embodiments, or may be other signal channel structures, which are not limited in the embodiments of the present disclosure.
  • the PDCCH is the channel to be demodulated and the PBCH is the position reference channel.
  • the PDCCH is demodulated with reference to a reference sequence in the DMRS, where the frequency domain position of the PBCH is known, and the method for determining the frequency domain reference point of the DMRS includes at least one of the following:
  • the configuration method of offset1 and offset2 is one of the following:
  • the determined offset value is directly configured; the offset candidate value is determined through the protocol predefinition, and the offset value is selected through the RRC signaling; the determined offset value is directly defined through the protocol predefinition determination.
  • Methods (a-f) use the lowest RE or RB of the channel signal as the reference point.
  • the highest RE or RB can also be used as the reference point; the offset direction according to the reference point can be towards the low frequency direction or towards the high frequency direction. Similar methods will not be repeated.
  • An embodiment of the present disclosure provides an electronic device, which includes:
  • At least one processor a storage device having at least one program stored thereon, and when the at least one program is executed by the at least one processor, the at least one processor implements any one of the foregoing information determination methods.
  • a processor is a device with data processing capabilities, including but not limited to a central processing unit (CPU), etc.; a memory is a device with data storage capabilities, including but not limited to random access memory (RAM, such as SDRAM, DDR, etc.) , Read-only memory (ROM), charged erasable programmable read-only memory (EEPROM), flash memory (FLASH).
  • RAM random access memory
  • ROM Read-only memory
  • EEPROM charged erasable programmable read-only memory
  • FLASH flash memory
  • the processor and the memory are connected to each other through a bus, and further connected to other components of the computing device.
  • the embodiments of the present disclosure provide a computer-readable storage medium on which a computer program is stored, and when the program is executed by a processor, any one of the foregoing information determining methods is implemented.
  • FIG. 14 is a block diagram of an information determination device provided by an embodiment of the disclosure.
  • an embodiment of the present disclosure provides an information determining device, including:
  • the frequency domain reference point determination module 1401 is configured to determine the frequency domain reference point of the DMRS according to the reference point and the first frequency offset; wherein, the reference point includes the frequency domain in the time domain symbol to which the position reference channel is mapped Any one of the following positions: lowest resource block RB; highest RB; lowest resource element RE; highest RE.
  • the location reference channel includes any one of the following: physical downlink control channel PDCCH, physical broadcast channel PBCH, primary synchronization signal PSS, secondary synchronization signal SSS; the bandwidth occupied by the DMRS is greater than or equal to the bandwidth to be demodulated Bandwidth occupied by the channel; each of the DMRS, the channel to be demodulated, and the position reference channel is mapped to at least one RB or at least one RE of the time domain symbol.
  • the first frequency offset is X RBs, or Y REs, or X RBs plus Y REs; wherein, X and Y are both integers greater than or equal to zero.
  • X and Y may be predefined by a protocol or configured through radio resource control (RRC, Radio Resource Control) signaling.
  • RRC Radio Resource Control
  • the apparatus for determining the frequency domain reference point of the DMRS further includes:
  • the demodulation module 1402 is configured to determine a reference sequence in the DMRS according to the frequency domain reference point of the DMRS, and the channel to be demodulated refers to the reference sequence in the DMRS for demodulation.
  • the demodulation module 1402 is configured to determine the reference sequence in the DMRS according to the frequency domain reference point of the DMRS in the following manner:
  • a sequence with the same length as the frequency domain length of the channel to be demodulated is intercepted from the DMRS as the reference sequence.
  • the first frequency offset, the second frequency offset, and the third frequency offset can be directly configured as fixed values through RRC signaling configuration; or, the candidate values can also be pre-defined through the protocol. , And then select the value through RRC signaling; alternatively, it can also be predefined as a fixed value through the protocol.
  • the determining module 1401 is used to perform any one of the following:
  • the frequency domain reference point of the DMRS is the reference point shifted by the first frequency offset in the low frequency direction; the frequency domain reference point of the DMRS is determined as the reference point shifted by the high frequency direction The first frequency offset.
  • FIG. 15 is a flowchart of another method for determining information provided by an embodiment of the disclosure.
  • an embodiment of the present disclosure provides another method for determining information, including:
  • Step 1500 Determine the index of the first time domain symbol to which the candidate synchronization signal physical broadcast channel block SSB in the (n 1 +1)th slot in the half radio frame is mapped: n 0 +n 1 ⁇ 14 ; Among them, n 0 is 2 or 9, n 1 ⁇ N, n scs is the size of the SCS of the SSB.
  • This method is suitable for the case where the signals and channels included in the SSB are mapped to 5 consecutive time-domain symbols in a time-division multiplexing manner for transmission.
  • This example describes a method for determining the time domain position of the SSB whose SCS is 120kHz.
  • the signals and channels included in the SSB are time-division multiplexed and mapped to 5 consecutive time-domain symbols for transmission (for example, the above example 2 Transmission method in).
  • the time granularity in the horizontal direction is at the time domain symbol level, that is, a square represents a time domain symbol, and the duration of the time domain symbol t scales inversely as the SCS increases.
  • this method can not only support SSB with SCS of 120kHz, but also supports SSB with SCS of 30kHz, 60kHz, 240kHz, 480kHz, and 960kHz.
  • An embodiment of the present disclosure provides an electronic device, which includes:
  • At least one processor a storage device having at least one program stored thereon, and when the at least one program is executed by the at least one processor, the at least one processor implements any one of the foregoing information determination methods.
  • a processor is a device with data processing capabilities, including but not limited to a central processing unit (CPU), etc.; a memory is a device with data storage capabilities, including but not limited to random access memory (RAM, such as SDRAM, DDR, etc.) , Read-only memory (ROM), charged erasable programmable read-only memory (EEPROM), flash memory (FLASH).
  • RAM random access memory
  • ROM Read-only memory
  • EEPROM charged erasable programmable read-only memory
  • FLASH flash memory
  • the processor and the memory are connected to each other through a bus, and further connected to other components of the computing device.
  • the embodiments of the present disclosure provide a computer-readable storage medium on which a computer program is stored, and when the program is executed by a processor, any one of the foregoing information determining methods is implemented.
  • FIG. 17 is a block diagram of another information determining device provided by an embodiment of the disclosure.
  • an information determining device including:
  • This method is suitable for the case where the signals and channels included in the SSB are mapped to 5 consecutive time-domain symbols in a time-division multiplexing manner for transmission.
  • the functional modules/units in the system, and the device can be implemented as software, firmware, hardware, and appropriate combinations thereof.
  • the division between functional modules/units mentioned in the above description does not necessarily correspond to the division of physical components; for example, a physical component may have multiple functions, or a function or step may consist of several physical components.
  • the components are executed cooperatively.
  • Some physical components or all physical components may be implemented as software executed by a processor, such as a central processing unit, a digital signal processor, or a microprocessor, or as hardware, or as an integrated circuit, such as an application specific integrated circuit.
  • Such software may be distributed on a computer-readable medium
  • the computer-readable medium may include a computer storage medium (or a non-transitory medium) and a communication medium (or a transitory medium).
  • the term computer storage medium includes volatile and nonvolatile, removable and non-removable implemented in any method or technology for storing information (such as computer readable instructions, data structures, program modules, or other data) medium.
  • Computer storage media include but are not limited to RAM, ROM, EEPROM, flash memory or other memory technologies, compact disk ROM (CD-ROM), digital versatile disk (Digital Versatile Disc, DVD) or other optical disk storage, magnetic boxes, Tape, disk storage or other magnetic storage devices, or any other medium that can be used to store desired information and that can be accessed by a computer.
  • a communication medium usually contains computer-readable instructions, data structures, program modules, or other data in a modulated data signal such as a carrier wave or other transmission mechanism, and may include any information delivery medium.

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Abstract

本文公开了一种无线传输方法，该无线传输方法包括：传输同步信号物理广播信道块SSB；其中，所述SSB中包括的信号和信道被以时分复用的方式映射到M个连续的时域符号中，M为正整数；所述SSB包括：物理广播信道PBCH、主同步信号PSS和辅同步信号SSS。本文还公开了一种无线传输装置、信息确定方法和装置、电子设备、计算机可读存储介质。

Description

无线传输方法和装置、信息确定方法和装置、电子设备、计算机可读存储介质
本申请要求在2020年03月05日提交中国专利局、申请号为202010148328.3的中国专利申请的优先权，该申请的全部内容通过引用结合在本申请中。
技术领域
本公开涉及通信领域，例如涉及传输广播信号信道块(BSCHB，Broadcast Signal Channel Block)或同步信号物理广播信道块(SSB，同步信号(SS，Synchronization Signal)/物理广播信道(PBCH，Physical Broadcast Channel)Block)SSB的无线传输方法和装置、信息确定方法和装置、电子设备、计算机可读存储介质。
背景技术
SSB基于多载波通信系统设计，由主同步信号(Primary Synchronization Signal，PSS)、辅同步信号(Secondary Synchronization Signal，SSS)、物理广播信道(Physical Broadcast Channel，PBCH)和解调参考信号(Demodulation Reference Signal，DMRS)组成。其中，DMRS与PBCH能够频分复用。多载波系统的问题是：最大瞬时功率与平均功率比值较大，且对频率偏移、相位噪声敏感，以上问题在高频通信中更为突出。单载波通信系统能够缓解上述问题，并且单载波系统相较于多载波系统的硬件损耗造成的影响也较低。然而，单载波系统中不允许PBCH和DMRS在频域资源上复用。
发明内容
本公开提供一种无线传输方法和装置、信息确定方法和装置、电子设备、计算机可读存储介质。
本公开实施例提供一种无线传输方法，该方法包括：
传输SSB；其中，所述SSB中包括的信号和信道被以时分复用的方式映射到M个连续的时域符号中，M为正整数；所述SSB包括：物理广播信道PBCH、主同步信号PSS和辅同步信号SSS。
在一些实施例中，SSB还包括：DMRS。
本公开实施例提供一种电子设备，其包括：
至少一个处理器；存储器，其上存储有至少一个程序，当所述至少一个程序被所述至少一个处理器执行，使得所述至少一个处理器上述任意一种无线传 输方法。
本公开实施例提供一种计算机可读存储介质，其上存储有计算机程序，所述程序被处理器执行时实现上述任意一种无线传输方法。
本公开实施例提供一种无线传输方法，该方法包括：
传输广播信号信道块；其中，所述广播信号信道块中包括的信号和信道被以时分复用的方式映射到7N个连续的时域符号中，N为不小于1的整数；所述广播信号信道块包括：物理下行控制信道PDCCH、解调参考信号DMRS、物理广播信道PBCH、主同步信号PSS、辅同步信号SSS。
在一些实施例中，广播信号信道块还包括：和物理下行共享信道PDSCH。
本公开实施例提供一种电子设备，其包括：
至少一个处理器；存储器，其上存储有至少一个程序，当所述至少一个程序被所述至少一个处理器执行，使得所述至少一个处理器上述任意一种无线传输方法。
本公开实施例提供一种计算机可读存储介质，其上存储有计算机程序，所述程序被处理器执行时实现上述任意一种无线传输方法。
本公开实施例提供一种信息确定方法，包括：
根据基准点和第一频率偏移量确定DMRS的频域参考点；其中，所述基准点包括位置参考信道被映射到的所在时域符号中的频域位置中的以下任意一个：最低资源块RB；最高RB；最低资源元素RE；最高RE。
本公开实施例提供一种电子设备，其包括：
至少一个处理器；存储器，其上存储有至少一个程序，当所述至少一个程序被所述至少一个处理器执行，使得所述至少一个处理器上述任意一种信息确定方法。
本公开实施例提供一种计算机可读存储介质，其上存储有计算机程序，所述程序被处理器执行时实现上述任意一种信息确定方法。
本公开实施例提供一种信息确定方法，包括：
确定半个无线帧内的候选同步信号物理广播信道块SSB在SSB的子载波间隔下被映射到的第一个时域符号的索引为：n 0+n 1*14；确定半个无线帧内的候选SSB的数目为m＝2*l；其中，n 0为2或9，n 1∈N，
Figure PCTCN2021071472-appb-000001
n scs为SSB以kHz为单位的子载波的大小，l＝{1,2,...,k}，T为5毫秒，t为0.125毫秒。
本公开实施例提供一种电子设备，其包括：
至少一个处理器；存储器，其上存储有至少一个程序，当所述至少一个程序被所述至少一个处理器执行，使得所述至少一个处理器上述任意一种信息确定方法。
本公开实施例提供一种计算机可读存储介质，其上存储有计算机程序，所述程序被处理器执行时实现上述任意一种信息确定方法。
本公开实施例提供的无线传输方法，采用时分复用的方式将SSB中包括的信号和信道映射到M个连续的时域符号中进行传输，实现了单载波系统中SSB的传输。本公开实施例的无线传输方法，基于SSB整合PDCCH和PDSCH形成广播信号信道块(BSCHB，Broadcast Signal CHannel Block)，有更益于适应波束的发送，并且，采用时分复用的方式将广播信号信道块中包括的信号和信道映射到7N个连续的时域符号中进行传输，实现了单载波系统中广播信号信道块的传输。本公开实施例的信息确定方法，根据位置参考信道确定频域参考点，为DMRS解调序列(即参考序列)的确定提供位置基准。
附图说明
图1为本公开实施例提供的一种无线传输方法的流程图；
图2为示例1中SSB的时域符号的映射结构图；
图3为示例2中SSB的时域符号的映射结构图；
图4为示例3中SSB的时域符号的映射结构图；
图5为示例4中SSB的时域符号的映射结构图；
图6为本公开实施例提供的一种无线传输装置的组成框图；
图7为本公开实施例提供的另一种无线传输方法的流程图；
图8为示例5中广播信号信道块的时域符号的映射结构图；
图9为示例6中广播信号信道块的时域符号的映射结构图；
图10为示例7中广播信号信道块的时域符号的映射结构图；
图11为本公开实施例提供的另一种无线传输装置的组成框图；
图12为本公开实施例提供的一种信息确定方法的流程图；
图13为示例8中频域参考点、待解调信道(例如PDCCH)和位置参考信道(例如PBCH)之间的频域位置偏移关系示意图；
图14为本公开实施例提供的一种信息确定装置的组成框图；
图15为本公开实施例提供的另一种信息确定方法的流程图；
图16为示例9中5时域符号的SSB周期分布示意图；
图17为本公开实施例提供的另一种信息确定装置的组成框图。
具体实施方式
下面结合附图对本公开提供的信息传输方法和装置、信息确定方法和装置、电子设备、计算机可读存储介质进行描述。
在下文中将参考附图描述示例实施例，但是所述示例实施例可以以不同形式来体现且不应当被解释为限于本文阐述的实施例。提供这些实施例的目的在于使本公开透彻和完整。
如本文所使用的，术语“和/或”包括至少一个相关列举条目的任何和所有组合。
本文所使用的术语仅用于描述特定实施例，且不意欲限制本公开。如本文所使用的，单数形式“一个”和“该”也意欲包括复数形式，除非上下文另外指出。当本文中使用术语“包括”和/或“由……制成”时，指定存在所述特征、整体、步骤、操作、元件和/或组件，但不排除存在或添加至少一个其它特征、整体、步骤、操作、元件、组件和/或其群组。
除非另外限定，否则本文所用的所有术语(包括技术和科学术语)的含义与本领域普通技术人员通常理解的含义相同。诸如那些在常用字典中限定的那些术语应当被解释为具有与其在相关技术以及本公开的背景下的含义一致的含义，且将不解释为具有理想化或过度形式上的含义，除非本文明确如此限定。
第五代移动通信技术(the 5th Generation mobile communication technology，5G)的成熟将进一步支持增强的移动宽带(eMBB，Enhanced Mobile Broadband)、高可靠性和超低时延的通信(URLLC，Ultra－Reliable and Low Latency Communication)以及大规模机器通信(MMTC，Massive Machine Type of Communication)等三大应用场景。在系统性能方面，5G系统将具备10～20Gbit/s的峰值速率，每平方公里100万的连接数密度，1ms的空口时延，500km/h的移动性支持，每平方米10Mbit/s的流量密度等关键能力指标。为了能够使系统容量满足上述愿景，5G采用了更高频率的频谱资源，相对4G提升3～5倍的频谱效率。
业内对5G非授权频谱进行了立项研究，提出了支持非授权小区单独组网的立项。国际电信联盟(International Telecommunication Union，ITU)会议讨论了66-71GHz、71-76GHz、81-86GHz三个候选频段。美国已经将66-71GHz作为非 授权频段，欧洲也有将其作为非授权的趋势。在高频段(52.6GHz以上)的非授权频谱设计上，需要考虑同步信号物理广播信道块(SS/PBCH Block，SSB)传输面临的一些新问题。相关技术中，SSB基于多载波通信系统设计，由PSS、SSS、PBCH和DMRS组成，其中，DMRS与PBCH能够频分复用。多载波系统的问题是：最大瞬时功率与平均功率比值较大，且对频率偏移、相位噪声敏感，以上问题在高频中更为突出。单载波通信系统能够缓解上述问题，并且单载波系统相较于多载波系统硬件损耗造成的影响也较低。然而，单载波系统中不允许PBCH和DMRS在频域资源上复用，单载波系统中如何传输SSB尚未有有效解决方案。
图1为本公开实施例提供的一种无线传输方法的流程图。
参照图1，本公开实施例提供一种无线传输方法，可以应用于单载波通信节点，该方法包括：
步骤100、传输SSB；其中，所述SSB中包括的信号和信道被以时分复用的方式映射到M个连续的时域符号中，M为正整数；所述SSB包括：PBCH、PSS和SSS。
在一些实施例中，传输包括以下至少之一：发送、接收。
在一些实施例中，M为3、4、5中的任意一个。
在一些实施例中，SSB还包括：DMRS。
在一些实施例中，所述SSB的特征包括以下至少之一：
所述SSB中包括的每一个信号被映射到所述信号所在时域符号的至少一个资源块(RB，Resource Block)或至少一个资源元素(RE，Resource Element)中，所述SSB中包括的每一个信道被映射到所述信道所在的时域符号的至少一个RB或至少一个RE中；所述PBCH所在的时域符号的所有RB或RE和映射有所述DMRS的RE之间的交集为空，在一些实施例中，任意一个信号或信道所在的时域符号的所有RB和映射有其他任意一个信号或信道的RE之间的交集为空；所述DMRS占用的带宽大于或等于每一个映射有PBCH的时域符号中承载的所述PBCH占用的带宽；所述SSS占用的带宽大于或等于每一个映射有PBCH的时域符号中承载的所述PBCH占用的带宽；所述SSS被交叉映射到所述SSS所在时域符号的RB或RE中，其中，所述交叉映射包括：仅映射到所述SSS所在时域符号的奇数RB或奇数RE中，或者，仅映射到所述SSS所在时域符号的偶数RB或偶数RE中；所述SSS被映射到所述SSS所在时域符号的所有RB或RE中；所述PSS、所述SSS、所述DMRS分别被映射到一个时域符号中；所述PSS、所述SSS分别被映射到一个时域符号中；所述PBCH被映射到 至少一个时域符号中；所述PBCH被映射到DMRS符号的前后各一个时域符号中；PBCH符号与所述DMRS符号相邻；至少一个PBCH符号与SSS符号相邻；其中，所述DMRS符号为映射所述DMRS的时域符号，所述PBCH符号为映射所述PBCH的时域符号，所述SSS符号为映射所述SSS的时域符号。
在一些实施例中，RB是指频域上的RB，也就是说，RB包括频域上连续的12个子载波。
为了实现PBCH参考DMRS进行解调，需要DMRS占用的带宽大于或等于每一个时域符号中承载的所述PBCH占用的带宽；同样的，为了实现PBCH参考SSS进行解调，需要SSS占用的带宽大于或等于每一个时域符号中承载的所述PBCH占用的带宽。
当PBCH参考DMRS进行解调时，PBCH符号和DMRS符号相邻提高了精度；当PBCH参考SSS进行解调时，PBCH符号和SSS符号相邻提高了精度。
上面所列出的SSB的特征可以随意组合。
在一些实施例中，所述SSB的特征包括：
所述SSB中包括的每一个信号被映射到所述信号所在时域符号的至少一个资源块RB或至少一个资源元素RE中；所述SSB中包括的每一个信道被映射到所述信道所在的时域符号的至少一个RB或至少一个RE中；所述PBCH所在的时域符号的所有RB或RE和映射有所述DMRS的RE之间的交集为空；所述DMRS占用的带宽大于或等于所述PBCH占用的带宽；所述PSS、所述SSS、所述PBCH和所述DMRS分别被映射到一个时域符号中；PBCH符号与所述DMRS符号相邻；其中，所述DMRS符号为映射所述DMRS的时域符号，所述PBCH符号为映射所述PBCH的时域符号。
在一些实施例中，所述SSB的特征包括：
所述SSB中包括的每一个信号被映射到所述信号所在时域符号的至少一个资源块RB或至少一个资源元素RE中；所述SSB中包括的每一个信道被映射到所述信道所在的时域符号的至少一个RB或至少一个RE中；所述PBCH所在的时域符号的所有RB或RE和映射有所述DMRS的RE之间的交集为空；所述DMRS占用带宽大于或者等于每一个映射有PBCH的时域符号中承载的PBCH占用的带宽；所述PSS、所述SSS、所述DMRS分别被映射到一个时域符号中；所述PBCH被映射到两个时域符号中；所述PBCH被映射到DMRS符号的前后各一个时域符号中；其中，所述DMRS符号为映射有所述DMRS的时域符号。
上面虽然给出了两种可能的SSB的特征，还有很多其他的组合方式均在本公开实施例的保护范围内，这里不再赘述。
在一些实施例中，所述M为5，所述M个连续的时域符号依次为：第一时域符号、第二时域符号、第三时域符号、第四时域符号和第五时域符号，所述SSB包括：PSS、SSS、DMRS和PBCH；所述SSB中包括的信号和信道被以时分复用的方式映射到M个连续的时域符号中包括以下任意一种：
所述PSS被映射到所述第一时域符号中，所述SSS被映射到所述第二时域符号中，所述DMRS被映射到所述第四时域符号中，所述PBCH被映射到所述第三时域符号和第五时域符号中；所述PSS被映射到所述第二时域符号中，所述SSS被映射到所述第一时域符号中，所述DMRS被映射到所述第四时域符号中，所述PBCH被映射到所述第三时域符号和第五时域符号中；所述PSS被映射到所述第五时域符号中，所述SSS被映射到所述第一时域符号中，所述DMRS被映射到所述第三时域符号中，所述PBCH被映射到所述第二时域符号和所述第四时域符号中；所述PSS被映射到所述第一时域符号中，所述SSS被映射到所述第五时域符号中，所述DMRS被映射到所述第三时域符号中，所述PBCH被映射到所述第二时域符号和第四时域符号中；所述PSS被映射到所述第四时域符号中，所述SSS被映射到所述第五时域符号中，所述DMRS被映射到所述第二时域符号中，所述PBCH被映射到所述第一时域符号和所述第三时域符号中；所述PSS被映射到所述第五时域符号中，所述SSS被映射到所述第四时域符号中，所述DMRS被映射到所述第二时域符号中，所述PBCH被映射到所述第一时域符号和所述第三时域符号中。
在一些实施例中，所述M为4，所述M个连续的时域符号依次为：第六时域符号、第七时域符号、第八时域符号和第九时域符号，所述SSB包括：PSS、SSS、DMRS和PBCH；所述SSB中包括的信号和信道被以时分复用的方式映射到M个连续的时域符号中包括以下任意一种：
所述PSS被映射到所述第六时域符号中，所述SSS被映射到所述第七时域符号中，所述DMRS被映射到所述第八时域符号中，所述PBCH被映射到所述第九时域符号中；所述PSS被映射到所述第六时域符号中，所述SSS被映射到所述第七时域符号中，所述DMRS被映射到所述第九时域符号中，所述PBCH被映射到所述第八时域符号中；所述PSS被映射到所述第七时域符号中，所述SSS被映射到所述第六时域符号中，所述DMRS被映射到所述第八时域符号中，所述PBCH被映射到所述第九时域符号中；所述PSS被映射到所述第七时域符号中，所述SSS被映射到所述第六时域符号中，所述DMRS被映射到所述第九时域符号中，所述PBCH被映射到所述第八时域符号中；所述PSS被映射到所述第六时域符号中，所述SSS被映射到所述第九时域符号中，所述DMRS被映射到所述第八时域符号中，所述PBCH被映射到所述第七时域符号中；所述PSS被映射到所述第九时域符号中，所述SSS被映射到所述第六时域符号中，所述 DMRS被映射到所述第八时域符号中，所述PBCH被映射到所述第七时域符号中；所述PSS被映射到所述第九时域符号中，所述SSS被映射到所述第六时域符号中，所述DMRS被映射到所述第七时域符号中，所述PBCH被映射到所述第八时域符号中；所述PSS被映射到所述第六时域符号中，所述SSS被映射到所述第九时域符号中，所述DMRS被映射到所述第七时域符号中，所述PBCH被映射到所述第八时域符号中；所述PSS被映射到所述第九时域符号中，所述SSS被映射到所述第八时域符号中，所述DMRS被映射到所述第六时域符号中，所述PBCH被映射到所述第七时域符号中；所述PSS被映射到所述第八时域符号中，所述SSS被映射到所述第九时域符号中，所述DMRS被映射到所述第六时域符号中，所述PBCH被映射到所述第七时域符号中；所述PSS被映射到所述第八时域符号中，所述SSS被映射到所述第九时域符号中，所述DMRS被映射到所述第七时域符号中，所述PBCH被映射到所述第六时域符号中；所述PSS被映射到所述第九时域符号中，所述SSS被映射到所述第八时域符号中，所述DMRS被映射到所述第七时域符号中，所述PBCH被映射到所述第六时域符号中。
上述给出的映射方案仅仅是其中一部分，还有很多其他的映射方案均在本公开实施例的保护范围内，这里不再赘述。
在一些实施例中，所述SSB的特征包括：
所述SSB中包括的每一个信号被映射到所述信号所在时域符号的至少一个资源块RB或至少一个资源元素RE中；所述SSB中包括的每一个信道被映射到所述信道所在的时域符号的至少一个RB或至少一个RE中；所述SSS占用的带宽大于或者等于每一个映射有所述PBCH的时域符号中承载的所述PBCH占用的带宽；所述SSS被交叉映射到所述SSS所在时域符号的RB或者RE中；其中，所述交叉映射可以是仅映射到所述SSS所在时域符号的奇数RB或者RE中，或者仅映射到所述SSS所在时域符号的偶数RB或者RE中；所述PSS和所述SSS分别被映射到1个时域符号中；所述PBCH被映射到至少1个时域符号中；至少一个PBCH符号与SSS符号相邻；其中，所述PBCH符号为映射有PBCH的时域符号，所述SSS符号为映射有SSS的时域符号。
在一些实施例中，所述SSB的特征包括：
所述SSB中包括的每一个信号被映射到所述信号所在时域符号的至少一个资源块RB或至少一个资源元素RE中；所述SSB中包括的每一个信道被映射到所述信道所在的时域符号的至少一个RB或至少一个RE中；所述SSS占用的带宽大于或者等于每一个映射有所述PBCH的时域符号中承载的所述PBCH占用的带宽；所述SSS被映射在所述SSS所在时域符号的所有RB或者RE中；所 述PBCH所在的时域符号的所有RB和映射有所述DMRS的RE之间的交集为空；所述PSS和所述SSS分别被映射到1个时域符号中；所述PBCH被映射到至少1个时域符号中；SSS符号与至少一个PBCH符号相邻；其中，所述SSS符号为映射有SSS的时域符号，所述PBCH符号为映射有PBCH的时域符号。
上面虽然给出了两种可能的SSB的特征，还有很多其他的组合方式均在本公开实施例的保护范围内，这里不再赘述。
在一些实施例中，所述M为4，所述M个连续的时域符号依次为：第十时域符号、第十一时域符号、第十二时域符号和第十三时域符号，所述SSB包括：PSS、SSS和PBCH；所述SSB中包括的信号和信道被以时分复用的方式映射到M个连续的时域符号中包括以下任意一种：
所述PSS被映射到所述第十时域符号中，所述SSS被映射到所述第十二时域符号中，所述PBCH被映射到所述第十一时域符号和所述第十三时域符号中；所述PSS被映射到所述第十三时域符号中，所述SSS被映射到所述第十一时域符号中，所述PBCH被映射到所述第十时域符号和所述第十二时域符号中；所述PSS被映射到所述第十三时域符号中，所述SSS被映射到所述第十二时域符号中，所述PBCH被映射到所述第十时域符号和所述第十一时域符号中。
在一些实施例中，所述M为3，所述M个连续的时域符号依次为：第十四时域符号、第十五时域符号和第十六时域符号，所述SSB包括：PSS、SSS和PBCH；所述SSB中包括的信号和信道被以时分复用的方式映射到M个连续的时域符号中包括以下任意一种：
所述PSS被映射到所述第十四时域符号中，所述SSS被映射到所述第十六时域符号中，所述PBCH被映射到所述第十五时域符号中；所述PSS被映射到所述第十四时域符号中，所述SSS被映射到所述第十五时域符号中，所述PBCH被映射到所述第十六时域符号中。
还有很多其他的映射方案，只要满足上述SSB的特征就可以，满足上述SSB的特征的映射方案均在本公开实施例的保护范围内。
本公开实施例提供的无线传输方法，采用时分复用的方式将SSB中包括的信号和信道映射到M个连续的时域符号中进行传输，实现了单载波系统中SSB的传输。
对于SSB结构，PBCH的解调需要借助DMRS，单载波的系统不允许二者在频域资源上复用，潜在的解决方式是PBCH借助临近的PSS或者SSS进行解调，或者单独引入DMRS符号进行解调。因此，单载波系统中传输的SSB可以包括DMRS，DMRS作为PBCH的解调的参考；SSB也可以不包括DMRS，而 借助临近的PSS或者SSS对PBCH进行解调。
下面通过几个示例说明上述实施例的具体实现过程，所列举的例子仅仅是为了说明方便，不能认为所列举的例子为上述实施例仅有的实现方案。
示例1
本示例描述了SSB中包括的信号和信道被以时分复用的方式映射到4个连续的时域符号中进行传输的方法；其中，SSB包括：PSS、SSS、DMRS与PBCH。
在频域上，SSB的主要特征包含以下特征中的至少之一：
PSS被映射到PSS所在时域符号的至少一个RB或者至少一个RE；SSS被映射到SSS所在时域符号的至少一个RB或者至少一个RE；DMRS被映射到DMRS所在时域符号的至少一个RB或者至少一个RE；PBCH被映射到PBCH所在时域符号的至少一个RB或者至少一个RE；PBCH所在的时域符号的所有RB或RE和映射有DMRS的RE之间的交集为空；DMRS占用的带宽大于或者等于PBCH占用的带宽。
在时域上，SSB的主要特征包含以下特征中的至少之一：
PSS、SSS、PBCH和DMRS分别被映射到一个时域符号中；PBCH符号与DMRS符号相邻；其中，PBCH符号为映射PBCH的时域符号，DMRS符号为映射DMRS的符号。
如图2所示，4个连续的时域符号的编号分别为1、2、3、4，PSS、SSS、DMRS和PBCH被映射到4个连续的时域符号中的映射顺序可以是以下任意一种：
(a)PSS-SSS-DMRS-PBCH，即PSS、SSS、DMRS以及PBCH被映射到的时域符号编号分别为{1},{2},{3},{4}；(b)PSS-SSS-PBCH-DMRS，即PSS、SSS、DMRS以及PBCH被映射到的时域符号编号分别为{1},{2},{4},{3}；(c)SSS-PSS-DMRS-PBCH，即PSS、SSS、DMRS以及PBCH被映射到的时域符号编号分别为{2},{1},{3},{4}；(d)SSS-PSS-PBCH-DMRS，即PSS、SSS、DMRS以及PBCH被映射到的时域符号编号分别为{2},{1},{4},{3}；(e)PSS-PBCH-DMRS-SSS，即PSS、SSS、DMRS以及PBCH被映射到的时域符号编号分别为{1},{4},{3},{2}；(f)SSS-PBCH-DMRS-PSS，即PSS、SSS、DMRS以及PBCH被映射到的时域符号编号分别为{4},{1},{3},{2}；(g)SSS-DMRS-PBCH-PSS，即PSS、SSS、DMRS以及PBCH被映射到的时域符号编号分别为{4},{1},{2},{3}；(h)PSS-DMRS-PBCH-SSS，即PSS、SSS、DMRS以及PBCH被映射到的时域符号编号分别为{1},{4},{2},{3}；(i)DMRS-PBCH-SSS-PSS，即PSS、SSS、DMRS以及PBCH被映射到的时域符号 编号分别为{4},{3},{1},{2}；(j)DMRS-PBCH-PSS-SSS，即PSS、SSS、DMRS以及PBCH被映射到的时域符号编号分别为{3},{4},{1},{2}；(k)PBCH-DMRS-PSS-SSS，即PSS、SSS、DMRS以及PBCH被映射到的时域符号编号分别为{3},{4},{2},{1}；(l)PBCH-DMRS-SSS-PSS，即PSS、SSS、DMRS以及PBCH被映射到的时域符号编号分别为{4},{3},{2},{1}。
图2中每一个信号或信道的高度表示该信号或信道占用的带宽，图2中给出的仅仅是一种示例，并不说明信号或信道占用的带宽仅局限于图2中示出的带宽，也不说明信号或信道之间占用的带宽之间的关系仅局限于图2中所示出的关系。
图2中以子载波间隔(SCS，Subcarrier Spacing)为120kHz示例，该设计同样能够支持SCS为15kHz、30kHz、60kHz、240kHz、480kHz、960kHz的时域结构。
示例2
本实施例描述了SSB中包括的信号和信道被以时分复用的方式映射到5个连续的时域符号中进行传输的方法；其中，SSB包括：PSS、SSS、DMRS与PBCH。
在频域上，SSB的主要特征包含以下特征中的至少之一：
PSS被映射到PSS所在时域符号的至少一个RB或者至少一个RE中；SSS被映射到SSS所在时域符号的至少一个RB或者至少一个RE中；DMRS被映射到DMRS所在时域符号的至少一个RB或者至少一个RE中；PBCH被映射到PBCH所在时域符号的至少一个RB或者至少一个RE中；PBCH所在的时域符号的所有RB或RE和映射有DMRS的RE之间的交集为空；DMRS占用带宽大于或者等于每一个映射有PBCH的时域符号中承载的PBCH占用的带宽。
在时域上，SSB的主要特征包含以下特征中的至少之一：
PSS、SSS、DMRS分别被映射到一个时域符号中；PBCH被映射到两个时域符号中；PBCH被映射到DMRS符号的前后各一个时域符号中；其中，DMRS符号为映射有DMRS的时域符号。
如图3所示，5个连续的时域符号的编号分别为1、2、3、4、5，PSS、SSS、DMRS和PBCH被映射到5个连续的时域符号中的映射顺序可以是以下任意一种：
(a)PSS-SSS-PBCH-DMRS-PBCH，即PSS、SSS、DMRS以及PBCH被映射到的时域符号编号分别为{1},{2},{4},{3,5}；(b)SSS-PSS-PBCH-DMRS-PBCH，即PSS、SSS、DMRS以及PBCH被映射到的时域符号编号分别为{2},{1},{4},{3,5}；(c)SSS-PBCH-DMRS-PBCH-PSS，即PSS、 SSS、DMRS以及PBCH被映射到的时域符号编号分别为{5},{1},{3},{2,4}；(d)PSS-PBCH-DMRS-PBCH-SSS，即PSS、SSS、DMRS以及PBCH被映射到的时域符号编号分别为{1},{5},{3},{2,4}；(e)PBCH-DMRS-PBCH-PSS-SSS，即PSS、SSS、DMRS以及PBCH被映射到的时域符号编号分别为{4},{5},{2},{1,3}；(f)PBCH-DMRS-PBCH-SSS-PSS，即PSS、SSS、DMRS以及PBCH被映射到的时域符号编号分别为{5},{4},{2},{1,3}。
图3中每一个信号或信道的高度表示该信号或信道占用的带宽，图3中给出的仅仅是一种示例，并不说明信号或信道占用的带宽仅局限于图3中示出的带宽，也不说明信号或信道之间占用的带宽之间的关系仅局限于图3中所示出的关系。
图3中以子载波间隔(SCS，Subcarrier Spacing)为120kHz示例，该设计同样能够支持SCS为15kHz、30kHz、60kHz、240kHz、480kHz、960kHz的时域结构。
示例3
本实施例描述了SSB中包括的信号和信道被以时分复用的方式映射到3个或4个连续的时域符号中进行传输的方法；其中，SSB包括：PSS、SSS与PBCH。
在频域上，SSB的主要特征包含以下特征中的至少之一：
PSS被映射到PSS所在时域符号的至少一个RB；SSS被映射到SSS所在时域符号的至少一个RB；PBCH被映射到PBCH所在时域符号的至少一个RB；SSS占用的带宽大于或者等于每一个映射有PBCH的时域符号中承载的PBCH占用的带宽；SSS被交叉映射到SSS所在时域符号的RB或者RE中；其中，交叉映射可以是仅映射到SSS所在时域符号的奇数RB或者RE中，或者仅映射到SSS所在时域符号的偶数RB或者RE中。
在时域上，SSB的主要特征包含以下特征中的至少之一：
PSS和SSS分别被映射到1个时域符号中；PBCH被映射到1个或者2个时域符号中；至少一个PBCH符号与SSS符号相邻；其中，PBCH符号为映射有PBCH的时域符号，SSS符号为映射有SSS的时域符号。
如图4所示，3个连续的时域符号的编号分别为1、2、3，4个连续的时域符号的编号分别为1、2、3、4，PSS、SSS和PBCH被映射到3个或4个连续的时域符号中的映射顺序可以是以下任意一种：
(a)PSS-PBCH-SSS-PBCH，即PSS、SSS以及PBCH被映射到的时域符号编号分别为{1},{3},{2,4}，其中，SSS与PBCH在频域上对齐(也就是说，SSS占用的带宽和PBCH占用的带宽相等，且SSS的频域起点和PBCH的频域起点 相同，且SSS的频域终点和PBCH的频域终点相同)，SSS的序列被交叉映射到RB或者RE中；(b)PBCH-SSS-PBCH-PSS，即PSS、SSS以及PBCH被映射到的时域符号编号分别为{4},{2},{1,3}，其中SSS与PBCH在频域上对齐，SSS的序列被交叉映射到RB或者RE中；(c)PBCH-PBCH-SSS-PSS，即PSS、SSS以及PBCH被映射到的时域符号编号分别为{4},{3},{1,2}，其中SSS与PBCH在频域上对齐，SSS的序列被交叉映射到RB或者RE中；(d)PSS-PBCH-SSS，即PSS、SSS以及PBCH被映射到的时域符号编号分别为{1},{3},{2}，其中SSS与PBCH在频域上对齐，SSS的序列被交叉映射到RB或者RE中；(e)PSS-SSS-PBCH，即PSS、SSS以及PBCH被映射到的时域符号编号分别为{1},{2},{3}，其中SSS与PBCH在频域上对齐，SSS的序列被交叉映射到RB或者RE中。
图4中每一个信号或信道的高度表示该信号或信道占用的带宽，图4中给出的仅仅是一种示例，并不说明信号或信道占用的带宽仅局限于图4中示出的带宽，也不说明信号或信道之间占用的带宽之间的关系仅局限于图4中所示出的关系。
图4中以子载波间隔(SCS，Subcarrier Spacing)为120kHz示例，该设计同样能够支持SCS为15kHz、30kHz、60kHz、240kHz、480kHz、960kHz的时域结构。
示例4
本实施例描述了SSB中包括的信号和信道被以时分复用的方式映射到3个或4个连续的时域符号中进行传输的方法；其中，SSB包括：PSS、SSS与PBCH。
在频域上，SSB的主要特征包含以下特征中的至少之一：
PSS被映射到PSS所在时域符号的至少一个RB，或者至少一个RE中；SSS被映射到SSS所在时域符号的至少一个RB；PBCH被映射到PBCH所在时域符号的至少一个RB；SSS占用的带宽大于或者等于每一个映射有PBCH的时域符号中承载的PBCH占用的带宽；SSS被映射在SSS所在时域符号的所有RB或者RE中；PBCH所在的时域符号的所有RB和映射有DMRS的RE之间的交集为空。
在时域上，SSB的主要特征包含以下特征至中的少之一：
PSS和SSS分别被映射到1个时域符号中；PBCH被映射到1个或者2个时域符号中；SSS符号与至少一个PBCH符号相邻；其中，SSS符号为映射有SSS的时域符号，PBCH符号为映射有PBCH的时域符号。
如图5所示，3个连续的时域符号的编号分别为1、2、3，4个连续的时域 符号的编号分别为1、2、3、4，PSS、SSS和PBCH被映射到3个或4个连续的时域符号中的映射顺序可以是以下任意一种：
(a)PSS-PBCH-SSS-PBCH，即PSS、SSS以及PBCH被映射到的时域符号编号分别为{1},{3},{2,4}；(b)PBCH-SSS-PBCH-PSS，即PSS、SSS以及PBCH被映射到的时域符号编号分别为{4},{2},{1,3}；(c)PBCH-PBCH-SSS-PSS，即PSS、SSS以及PBCH被映射到的时域符号编号分别为{4},{3},{1,2}；(d)PSS-PBCH-SSS，即PSS、SSS以及PBCH被映射到的时域符号编号分别为{1},{3},{2}；(e)PSS-SSS-PBCH，即PSS、SSS以及PBCH被映射到的时域符号编号分别为{1},{2},{3}。
图5中每一个信号或信道的高度表示该信号或信道占用的带宽，图5中给出的仅仅是一种示例，并不说明信号或信道占用的带宽仅局限于图5中示出的带宽，也不说明信号或信道之间占用的带宽之间的关系仅局限于图5中所示出的关系。
图5中以子载波间隔(SCS，Subcarrier Spacing)为120kHz示例，该设计同样能够支持SCS为15kHz、30kHz、60kHz、240kHz、480kHz、960kHz的时域结构。
本公开实施例提供一种电子设备，其包括：
至少一个处理器；存储器，其上存储有至少一个程序，当至少一个程序被至少一个处理器执行，使得至少一个处理器实现上述任意一种无线传输方法。
处理器为具有数据处理能力的器件，其包括但不限于中央处理器(Central Processing Unit，CPU)等；存储器为具有数据存储能力的器件，其包括但不限于随机存取存储器(Random Access Memory，RAM)，如同步动态随机存取内存(Synchronous Dynamic RAM，SDRAM)、双倍速率(Double Data Rate，DDR)SDRAM等)、只读存储器(Read-Only Memory，ROM)、带电可擦可编程只读存储器(Electrically Erasable Programmable ROM，EEPROM)、闪存(FLASH)。
在一些实施例中，处理器、存储器通过总线相互连接，进而与计算设备的其它组件连接。
本公开实施例提供一种计算机可读存储介质，其上存储有计算机程序，程序被处理器执行时实现上述任意一种无线传输方法。
图6为本公开实施例提供的一种无线传输装置的组成框图。
参照图6，本公开实施例提供一种无线传输装置，可以应用于单载波通信节点，包括：
第一传输模块601，用于传输SSB；其中，所述SSB中包括的信号和信道被以时分复用的方式映射到M个连续的时域符号中，M为正整数；所述SSB包括：PBCH、PSS和SSS。
在一些实施例中，传输包括以下至少之一：发送、接收。
在一些实施例中，M为3、4、5中的任意一个。
在一些实施例中，SSB还包括：DMRS。
在一些实施例中，所述SSB的特征包括以下至少之一：
所述SSB中包括的每一个信号被映射到信号所在时域符号的至少一个资源块RB或至少一个资源元素RE中，所述SSB中包括的每一个信道被映射到所述信道所在的时域符号的至少一个RB或至少一个RE中；所述PBCH所在的时域符号的所有RB或RE和映射有所述DMRS的RE之间的交集为空，在一些实施例中，任意一个信号或信道所在的时域符号的所有RB或RE和映射有其他任意一个信号或信道的RE之间的交集为空；所述DMRS占用的带宽大于或等于每一个映射有所述PBCH的时域符号中承载的所述PBCH占用的带宽；所述SSS占用的带宽大于或等于每一个映射有所述PBCH的时域符号中承载的所述PBCH占用的带宽；所述SSS被交叉映射到所述SSS所在时域符号的RB或RE中，其中，所述交叉映射包括：仅映射到所述SSS所在时域符号的奇数RB或奇数RE中，或者，仅映射到所述SSS所在时域符号的偶数RB或偶数RE中；所述SSS被映射到所述SSS所在时域符号的所有RB或RE中；所述PSS、所述SSS、所述DMRS分别被映射到一个时域符号中；所述PSS、所述SSS分别被映射到一个时域符号中；所述PBCH被映射到至少一个时域符号中；所述PBCH被映射到DMRS符号的前后各一个时域符号中；PBCH符号与所述DMRS符号相邻；至少一个PBCH符号与SSS符号相邻；其中，所述DMRS符号为映射所述DMRS的时域符号，所述PBCH符号为映射所述PBCH的时域符号，所述SSS符号为映射所述SSS的时域符号。
在一些实施例中，RB是指频域上的RB，也就是说，RB包括频域上连续的12个子载波。
为了实现PBCH参考DMRS进行解调，需要DMRS占用的带宽大于或等于每一个时域符号中承载的所述PBCH占用的带宽；同样的，为了实现PBCH参考SSS进行解调，需要SSS占用的带宽大于或等于每一个时域符号中承载的所述PBCH占用的带宽。
当PBCH参考DMRS进行解调时，PBCH符号和DMRS符号相邻提高了精度；当PBCH参考SSS进行解调时，PBCH符号和SSS符号相邻提高了精度。
上面所列出的SSB的特征可以随意组合。
在一些实施例中，所述SSB的特征包括：
所述SSB中包括的每一个信号被映射到所述信号所在时域符号的至少一个资源块RB或至少一个资源元素RE中；所述SSB中包括的每一个信道被映射到所述信道所在的时域符号的至少一个RB或至少一个RE中；所述PBCH所在的时域符号的所有RB或RE和映射有所述DMRS的RE之间的交集为空；所述DMRS占用的带宽大于或等于所述PBCH占用的带宽；所述PSS、所述SSS、所述PBCH和所述DMRS分别被映射到一个时域符号中；PBCH符号与所述DMRS符号相邻；其中，所述DMRS符号为映射所述DMRS的时域符号，所述PBCH符号为映射所述PBCH的时域符号。
在一些实施例中，所述SSB的特征包括：
所述SSB中包括的每一个信号被映射到所述信号所在时域符号的至少一个资源块RB或至少一个资源元素RE中；所述SSB中包括的每一个信道被映射到所述信道所在的时域符号的至少一个RB或至少一个RE中；所述PBCH所在的时域符号的所有RB或RE和映射有所述DMRS的RE之间的交集为空；所述DMRS占用带宽大于或者等于每一个映射有PBCH的时域符号中承载的PBCH占用的带宽；所述PSS、所述SSS、所述DMRS分别被映射到一个时域符号中；所述PBCH被映射到两个时域符号中；所述PBCH被映射到DMRS符号的前后各一个时域符号中；其中，所述DMRS符号为映射有所述DMRS的时域符号。
上面虽然给出了两种可能的SSB的特征，还有很多其他的组合方式均在本公开实施例的保护范围内，这里不再赘述。
在一些实施例中，所述M为5，所述M个连续的时域符号依次为：第一时域符号、第二时域符号、第三时域符号、第四时域符号和第五时域符号，所述SSB包括：PSS、SSS、DMRS和PBCH；所述SSB中包括的信号和信道被以时分复用的方式映射到M个连续的时域符号中包括以下任意一种：
所述PSS被映射到所述第一时域符号中，所述SSS被映射到所述第二时域符号中，所述DMRS被映射到所述第四时域符号中，所述PBCH被映射到所述第三时域符号和第五时域符号中；所述PSS被映射到所述第二时域符号中，所述SSS被映射到所述第一时域符号中，所述DMRS被映射到所述第四时域符号中，所述PBCH被映射到所述第三时域符号和第五时域符号中；所述PSS被映射到所述第五时域符号中，所述SSS被映射到所述第一时域符号中，所述DMRS被映射到所述第三时域符号中，所述PBCH被映射到所述第二时域符号和所述第四时域符号中；所述PSS被映射到所述第一时域符号中，所述SSS被映射到 所述第五时域符号中，所述DMRS被映射到所述第三时域符号中，所述PBCH被映射到所述第二时域符号和第四时域符号中；所述PSS被映射到所述第四时域符号中，所述SSS被映射到所述第五时域符号中，所述DMRS被映射到所述第二时域符号中，所述PBCH被映射到所述第一时域符号和所述第三时域符号中；所述PSS被映射到所述第五时域符号中，所述SSS被映射到所述第四时域符号中，所述DMRS被映射到所述第二时域符号中，所述PBCH被映射到所述第一时域符号和所述第三时域符号中。
在一些实施例中，所述M为4，所述M个连续的时域符号依次为：第六时域符号、第七时域符号、第八时域符号和第九时域符号，所述SSB包括：PSS、SSS、DMRS和PBCH；所述SSB中包括的信号和信道被以时分复用的方式映射到M个连续的时域符号中包括以下任意一种：
所述PSS被映射到所述第六时域符号中，所述SSS被映射到所述第七时域符号中，所述DMRS被映射到所述第八时域符号中，所述PBCH被映射到所述第九时域符号中；所述PSS被映射到所述第六时域符号中，所述SSS被映射到所述第七时域符号中，所述DMRS被映射到所述第九时域符号中，所述PBCH被映射到所述第八时域符号中；所述PSS被映射到所述第七时域符号中，所述SSS被映射到所述第六时域符号中，所述DMRS被映射到所述第八时域符号中，所述PBCH被映射到所述第九时域符号中；所述PSS被映射到所述第七时域符号中，所述SSS被映射到所述第六时域符号中，所述DMRS被映射到所述第九时域符号中，所述PBCH被映射到所述第八时域符号中；所述PSS被映射到所述第六时域符号中，所述SSS被映射到所述第九时域符号中，所述DMRS被映射到所述第八时域符号中，所述PBCH被映射到所述第七时域符号中；所述PSS被映射到所述第九时域符号中，所述SSS被映射到所述第六时域符号中，所述DMRS被映射到所述第八时域符号中，所述PBCH被映射到所述第七时域符号中；所述PSS被映射到所述第九时域符号中，所述SSS被映射到所述第六时域符号中，所述DMRS被映射到所述第七时域符号中，所述PBCH被映射到所述第八时域符号中；所述PSS被映射到所述第六时域符号中，所述SSS被映射到所述第九时域符号中，所述DMRS被映射到所述第七时域符号中，所述PBCH被映射到所述第八时域符号中；所述PSS被映射到所述第九时域符号中，所述SSS被映射到所述第八时域符号中，所述DMRS被映射到所述第六时域符号中，所述PBCH被映射到所述第七时域符号中；所述PSS被映射到所述第八时域符号中，所述SSS被映射到所述第九时域符号中，所述DMRS被映射到所述第六时域符号中，所述PBCH被映射到所述第七时域符号中；所述PSS被映射到所述第八时域符号中，所述SSS被映射到所述第九时域符号中，所述DMRS被映射到所述第七时域符号中，所述PBCH被映射到所述第六时域符号中；所述PSS 被映射到所述第九时域符号中，所述SSS被映射到所述第八时域符号中，所述DMRS被映射到所述第七时域符号中，所述PBCH被映射到所述第六时域符号中。
上述给出的映射方案仅仅是其中一部分，还有很多其他的映射方案均在本公开实施例的保护范围内，这里不再赘述。
在一些实施例中，所述SSB的特征包括：
所述SSB中包括的每一个信号被映射到所述信号所在时域符号的至少一个资源块RB或至少一个资源元素RE中；所述SSB中包括的每一个信道被映射到所述信道所在的时域符号的至少一个RB或至少一个RE中；所述SSS占用的带宽大于或者等于每一个映射有所述PBCH的时域符号中承载的所述PBCH占用的带宽；所述SSS被交叉映射到所述SSS所在时域符号的RB或者RE中；其中，所述交叉映射可以是仅映射到所述SSS所在时域符号的奇数RB或者RE中，或者仅映射到所述SSS所在时域符号的偶数RB或者RE中；所述PSS和所述SSS分别被映射到1个时域符号中；所述PBCH被映射到至少1个时域符号中；至少一个PBCH符号与SSS符号相邻；其中，所述PBCH符号为映射有PBCH的时域符号，所述SSS符号为映射有SSS的时域符号。
在一些实施例中，所述SSB的特征包括：
所述SSB中包括的每一个信号被映射到所述信号所在时域符号的至少一个资源块RB或至少一个资源元素RE中；所述SSB中包括的每一个信道被映射到所述信道所在的时域符号的至少一个RB或至少一个RE中；所述SSS占用的带宽大于或者等于每一个映射有所述PBCH的时域符号中承载的所述PBCH占用的带宽；所述SSS被映射在所述SSS所在时域符号的所有RB或者RE中；所述PBCH所在的时域符号的所有RB或RE和映射有所述DMRS的RE之间的交集为空；所述PSS和所述SSS分别被映射到1个时域符号中；所述PBCH被映射到至少1个时域符号中；SSS符号与至少一个PBCH符号相邻；其中，所述SSS符号为映射有SSS的时域符号，所述PBCH符号为映射有PBCH的时域符号。
上面虽然给出了两种可能的SSB的特征，还有很多其他的组合方式均在本公开实施例的保护范围内，这里不再赘述。
在一些实施例中，所述M为4，所述M个连续的时域符号依次为：第十时域符号、第十一时域符号、第十二时域符号和第十三时域符号，所述SSB包括：PSS、SSS和PBCH；所述SSB中包括的信号和信道被以时分复用的方式映射到M个连续的时域符号中包括以下任意一种：
所述PSS被映射到所述第十时域符号中，所述SSS被映射到所述第十二时域符号中，所述PBCH被映射到所述第十一时域符号和所述第十三时域符号中；所述PSS被映射到所述第十三时域符号中，所述SSS被映射到所述第十一时域符号中，所述PBCH被映射到所述第十时域符号和所述第十二时域符号中；所述PSS被映射到所述第十三时域符号中，所述SSS被映射到所述第十二时域符号中，所述PBCH被映射到所述第十时域符号和所述第十一时域符号中。
在一些实施例中，所述M为3，所述M个连续的时域符号依次为：第十四时域符号、第十五时域符号和第十六时域符号，所述SSB包括：PSS、SSS和PBCH；所述SSB中包括的信号和信道被以时分复用的方式映射到M个连续的时域符号中包括以下任意一种：
所述PSS被映射到所述第十四时域符号中，所述SSS被映射到所述第十六时域符号中，所述PBCH被映射到所述第十五时域符号中；所述PSS被映射到所述第十四时域符号中，所述SSS被映射到所述第十五时域符号中，所述PBCH被映射到所述第十六时域符号中。
还有很多其他的映射方案，只要满足上述SSB的特征就可以，满足上述SSB的特征的映射方案均在本公开实施例的保护范围内。
本公开实施例提供的无线传输装置，采用时分复用的方式将SSB中包括的信号和信道映射到M个连续的时域符号中进行传输，实现了单载波系统中SSB的传输。
对于SSB结构，PBCH的解调需要借助DMRS，单载波的系统不允许二者在频域资源上复用，潜在的解决方式是PBCH借助临近的PSS或者SSS进行解调，或者单独引入DMRS符号进行解调。因此，单载波系统中传输的SSB可以包括DMRS，DMRS作为PBCH的解调的参考；SSB也可以不包括DMRS，而借助临近的PSS或者SSS对PBCH进行解调。
图7为本公开实施例提供的另一种无线传输方法的流程图。
参照图7，本公开实施例提供另一种无线传输方法，可以应用于单载波通信节点，该方法包括：
步骤700、传输广播信号信道块；其中，所述广播信号信道块中包括的信号和信道被以时分复用的方式映射到7N个连续的时域符号中，N为大于或等于1的整数；所述广播信号信道块包括以下至少之一：物理下行控制信道(PDCCH，Physical Downlink Control CHannel)、DMRS、PBCH、PSS、SSS和物理下行共享信道(PDSCH，Physical Downlink Shared CHannel)。
在一些实施例中，传输包括以下至少之一：发送、接收。
在一些实施例中，所述广播信号信道块的特征包括以下至少之一：
所述广播信号信道块中包括的每一个信号被映射到信号所在时域符号的至少一个RB或至少一个RE中，所述SSB中包括的每一个信道被映射到所述信道所在的时域符号的至少一个RB或至少一个RE中；所述PBCH所在的时域符号的所有RB或RE和映射有所述DMRS的RE之间的交集为空；所述PDCCH所在的时域符号的所有RB或RE和映射有所述DMRS的RE之间的交集为空；至少一个时域符号中承载的所述DMRS占用的带宽大于或等于每一个映射有所述PBCH的时域符号中承载的所述PBCH占用的带宽；至少一个时域符号中承载的所述DMRS占用的带宽大于或等于每一个映射有所述PDCCH的时域符号中承载的所述PDCCH占用的带宽；所述PSS、所述SSS分别被映射到一个时域符号中；所述DMRS被映射到至少一个时域符号中；所述PBCH被映射到至少一个时域符号中；所述PDCCH被映射到至少一个时域符号中；所述PBCH被映射到DMRS符号的前后各一个时域符号中；或者，所述PBCH被映射到所述DMRS符号的后两个时域符号中；所述PDCCH被映射到与所述DMRS符号相邻的时域符号中；所述PBCH被映射到与所述DMRS符号相邻的时域符号中，或者，所述PBCH被映射到与所述DMRS符号间隔一个时域符号的时域符号中；所述PDSCH被映射到空余时频资源中，其中，所述空余时频资源包括所述广播信号信道块对应的时频资源中，除所述PDSCH之外的其他信号和信道占用的时频资源之外的时频资源；所述PDSCH被映射到至少一个时域符号中；其中，所述DMRS符号为映射所述DMRS的时域符号。
在一些实施例中，RB是指频域上的RB，也就是说，RB包括频域上连续的12个子载波。
在一些实施例中，任意一个信号或信道所在的时域符号的所有RB中均不包含映射有其他任意一个信号或信道的RE。
为了实现PBCH参考DMRS进行解调，需要至少一个时域符号中承载的DMRS占用的带宽大于或等于每一个时域符号中承载的所述PBCH占用的带宽；同样的，为了实现PDCCH参考DMRS进行解调，需要至少一个时域符号中承载的DMRS占用的带宽大于或等于每一个时域符号中承载的所述PDCCH占用的带宽。
当PBCH参考DMRS进行解调时，PBCH符号和DMRS符号相邻提高了精度；当PBCH参考SSS进行解调时，PBCH符号和SSS符号相邻提高了精度。
上面所列出的SSB的特征可以随意组合。
在一些实施例中，所述广播信号信道块的特征包括：
所述广播信号信道块中包括的每一个信号被映射到所述信号所在时域符号的至少一个资源块RB或至少一个资源元素RE中；所述SSB中包括的每一个信道被映射到所述信道所在的时域符号的至少一个RB或至少一个RE中；所述PBCH所在的时域符号的所有RB或RE和映射有所述DMRS的RE之间的交集为空；所述PDCCH所在的时域符号的所有RB或RE和映射有所述DMRS的RE之间的交集为空；所述DMRS占用的带宽大于或等于每一个映射有所述PBCH的时域符号中承载的所述PBCH占用的带宽；所述DMRS占用的带宽大于或等于每一个映射有所述PDCCH的时域符号中承载的所述PDCCH占用的带宽；所述DMRS、所述PSS、所述SSS分别被映射到一个时域符号中；所述PBCH被映射到两个时域符号中；所述PDCCH被映射到至少一个时域符号中；所述PBCH被映射到DMRS符号的前后各一个时域符号中；或者，所述PBCH被映射到所述DMRS符号的后两个时域符号中；所述PDCCH被映射到与所述DMRS符号相邻的时域符号中；所述PDSCH被映射到至少一个完整的时域符号中，或者，所述PDSCH被映射到空余时频资源中；其中，所述空余时频资源包括所述广播信号信道块对应的时频资源中，除所述PDSCH之外的其他信号和信道占用的时频资源之外的时频资源；其中，所述DMRS符号为映射所述DMRS的时域符号。
在一些实施例中，所述广播信号信道块的特征包括：
所述广播信号信道块中包括的每一个信号被映射到所述信号所在时域符号的至少一个资源块RB或至少一个资源元素RE中；所述SSB中包括的每一个信道被映射到所述信道所在的时域符号的至少一个RB或至少一个RE中；所述PBCH所在的时域符号的所有RB或RE和映射有所述DMRS的RE之间的交集为空；所述PDCCH所在的时域符号的所有RB或RE和映射有所述DMRS的RE之间的交集为空；至少有一个映射有所述DMRS的时域符号中承载的所述DMRS占用的带宽大于或等于所述PDCCH占用的带宽；至少有一个映射有所述DMRS的时域符号中承载的所述DMRS占用的带宽大于或等于每一个映射有所述PBCH的时域符号中承载的所述PBCH占用的带宽；所述PSS以及所述SSS分别被映射到一个时域符号中；所述PBCH被映射到两个时域符号中，且被映射到DMRS符号的前后各一个符号中；所述PDCCH被映射到一个时域符号中，且被映射到DMRS符号的相邻时域符号中；所述PDSCH被映射到空余时频资源中；其中，所述空余时频资源包括所述广播信号信道块对应的时频资源中，除所述PDSCH之外的其他信号和信道占用的时频资源之外的时频资源；所述DMRS被映射到两个时域符号中；其中，所述DMRS符号为映射有DMRS的符号。
在一些实施例中，所述广播信号信道块的特征包括：
所述广播信号信道块中包括的每一个信号被映射到所述信号所在时域符号的至少一个资源块RB或至少一个资源元素RE中；所述SSB中包括的每一个信道被映射到所述信道所在的时域符号的至少一个RB或至少一个RE中；所述PBCH所在的时域符号的所有RB或RE和映射有所述DMRS的RE之间的交集为空；所述PDCCH所在的时域符号的所有RB或RE和映射有所述DMRS的RE之间的交集为空；至少一个映射有所述DMRS的时域符号中承载的所述DMRS占用的带宽大于或等于每一个映射有所述PDCCH的时域符号中承载的所述PDCCH占用的带宽；至少一个映射有所述DMRS的时域符号中承载的所述DMRS占用的带宽大于或等于所述PBCH占用的带宽；所述PSS、所述SSS以及所述PBCH分别被映射到一个时域符号中；所述PDSCH、所述DMRS以及所述PDCCH中每一个均被映射到至少一个时域符号中；所述PDCCH被映射到DMRS符号的相邻时域符号中；所述PBCH被映射到所述DMRS符号的相邻时域符号中，或者被映射到与所述DMRS符号间隔一个时域符号的时域符号中；其中，所述DMRS符号为映射有DMRS的时域符号。
上面虽然给出了三种可能的广播信号信道块的特征，还有很多其他的组合方式均在本公开实施例的保护范围内，这里不再赘述。
在一些实施例中，所述N为1，所述7N个连续的时域符号依次为：第十七时域符号、第十八时域符号、第十九时域符号、第二十时域符号、第二十一时域符号、第二十二时域符号和第二十三时域符号，所述广播信号信道块中包括的信号或信道被以时分复用的方式映射到7N个连续的时域符号中包括以下任意一种：
所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号中，所述PBCH被映射到所述第十九时域符号和所述第二十时域符号中，所述PSS被映射到所述第二十一时域符号中，所述SSS被映射到所述第二十二时域符号中，所述PDSCH被映射到所述第二十三时域符号中；所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号中，所述PBCH被映射到所述第十九时域符号和所述第二十时域符号中，所述PSS被映射到所述第二十二时域符号中，所述SSS被映射到所述第二十一时域符号中，所述PDSCH被映射到所述第二十三时域符号中；所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十九时域符号中，所述PBCH被映射到所述第十八时域符号和所述第二十时域符号中，所述PSS被映射到所述第二十一时域符号中，所述SSS被映射到所述第二十二时域符号中，所述PDSCH被映射到所述第二十三时域符号中；所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十九时域符号中，所述PBCH被映射到所述第十八时域符号和所述第二十时域符号中，所述PSS被映射到所 述第二十二时域符号中，所述SSS被映射到所述第二十一时域符号中，所述PDSCH被映射到所述第二十三时域符号中；所述PDCCH被映射到所述第十七时域符号和第十八时域符号中，所述DMRS被映射到所述第十九时域符号中，所述PBCH被映射到所述第二十时域符号中，所述PSS被映射到所述第二十一时域符号中，所述SSS被映射到所述第二十二时域符号中，所述PDSCH被映射到所述第二十三时域符号中；所述PDCCH被映射到所述第十七时域符号和第十八时域符号中，所述DMRS被映射到所述第十九时域符号中，所述PBCH被映射到所述第二十时域符号中，所述PSS被映射到所述第二十二时域符号中，所述SSS被映射到所述第二十一时域符号中，所述PDSCH被映射到所述第二十三时域符号中；所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号和所述第二十二时域符号中，所述PBCH被映射到所述第二十一时域符号和所述第二十三时域符号中，所述PSS被映射到所述第十九时域符号中，所述SSS被映射到所述第二十时域符号中；所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号和所述第二十二时域符号中，所述PBCH被映射到所述第二十一时域符号和所述第二十三时域符号中，所述PSS被映射到所述第二十时域符号中，所述SSS被映射到所述第十九时域符号中；所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号和所述第二十一时域符号中，所述PBCH被映射到所述第二十时域符号和所述第二十二时域符号中，所述PSS被映射到所述第二十三时域符号中，所述SSS被映射到所述第十九时域符号中；所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号和所述第二十一时域符号中，所述PBCH被映射到所述第二十时域符号和所述第二十二时域符号中，所述PSS被映射到所述第十九时域符号中，所述SSS被映射到所述第二十三时域符号中；所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号和所述第二十时域符号中，所述PBCH被映射到所述第十九时域符号和所述第二十一时域符号中，所述PSS被映射到所述第二十二时域符号中，所述SSS被映射到所述第二十三时域符号中；所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号和所述第二十时域符号中，所述PBCH被映射到所述第十九时域符号和所述第二十一时域符号中，所述PSS被映射到所述第二十三时域符号中，所述SSS被映射到所述第二十二时域符号中；所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号中，所述PBCH被映射到所述第十九时域符号中，所述PSS被映射到所述第二十时域符号中，所述SSS被映射到所述第二十一时域符号中，所述PDSCH被映射到所述第二十二时域符号和所述第二十三时域符号中；所述PDCCH被映射到所述第十七时域 符号中，所述DMRS被映射到所述第十八时域符号和所述第二十一时域符号中，所述PBCH被映射到所述第二十二时域符号中，所述PSS被映射到所述第十九时域符号中，所述SSS被映射到所述第二十时域符号中，所述PDSCH被映射到所述第二十三时域符号中；所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号和所述第二十一时域符号中，所述PBCH被映射到所述第二十时域符号中，所述PSS被映射到所述第十九时域符号中，所述SSS被映射到所述第二十二时域符号中，所述PDSCH被映射到所述第二十三时域符号中；所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号和所述第二十时域符号中，所述PBCH被映射到所述第二十一时域符号中，所述PSS被映射到所述第十九时域符号中，所述SSS被映射到所述第二十二时域符号中，所述PDSCH被映射到所述第二十三时域符号中；所述PDCCH被映射到所述第十八时域符号中，所述DMRS被映射到所述第十七时域符号和所述第二十一时域符号中，所述PBCH被映射到所述第二十时域符号中，所述PSS被映射到所述第十九时域符号中，所述SSS被映射到所述第二十二时域符号中，所述PDSCH被映射到所述第二十三时域符号中；所述PDCCH被映射到所述第十八时域符号中，所述DMRS被映射到所述第十七时域符号和所述第二十时域符号中，所述PBCH被映射到所述第二十一时域符号中，所述PSS被映射到所述第十九时域符号中，所述SSS被映射到所述第二十二时域符号中，所述PDSCH被映射到所述第二十三时域符号中；所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号和所述第二十二时域符号中，所述PBCH被映射到所述第二十一时域符号中，所述PSS被映射到所述第十九时域符号中，所述SSS被映射到所述第二十时域符号中，所述PDSCH被映射到所述第二十三时域符号中；所述PDCCH被映射到所述第十七时域符号和所述第十八时域符号中，所述DMRS被映射到所述第十九时域符号中，所述PBCH被映射到所述第二十时域符号中，所述PSS被映射到所述第二十一时域符号中，所述SSS被映射到所述第二十二时域符号中，所述PDSCH被映射到所述第二十三时域符号中；所述PDCCH被映射到所述第十八时域符号中，所述DMRS被映射到所述第十七时域符号中，所述PBCH被映射到所述第十九时域符号中，所述PSS被映射到所述第二十时域符号中，所述SSS被映射到所述第二十一时域符号中，所述PDSCH被映射到所述第二十二时域符号和所述第二十三时域符号中。
还有很多其他的映射方案，只要满足上述SSB的特征就可以，满足上述SSB的特征的映射方案均在本公开实施例的保护范围内。
本公开实施例的无线传输方法，基于SSB整合PDCCH和PDSCH形成广播信号信道块(BSCHB，Broadcast Signal CHannel Block)，有更益于适应波束的 发送，并且，采用时分复用的方式将广播信号信道块中包括的信号和信道映射到7N个连续的时域符号中进行传输，实现了单载波系统中广播信号信道块的传输。
下面通过几个示例说明上述实施例的具体实现过程，所列举的例子仅仅是为了说明方便，不能认为所列举的例子为上述实施例仅有的实现方案。
示例5
本实施例描述了BSCHB中包括的信号和信道被以时分复用的方式映射到7个连续的时域符号中进行传输的方法；其中，BSCHB包括：PDCCH、DMRS、PBCH、PSS、SSS以及PDSCH等信号或信道。
在频域上，BSCHB的主要特征包含以下特征中的至少之一：
PDCCH被映射到PDCCH所在时域符号的至少一个RB或者至少一个RE中；DMRS被映射到DMRS所在时域符号的至少一个RB或者至少一个RE中；PBCH被映射到PBCH所在时域符号的至少一个RB或者至少一个RE中；PSS被映射到PSS所在时域符号的至少一个RB或者至少一个RE中；SSS被映射到SSS所在时域符号的至少一个RB或者至少一个RE中；PDSCH被映射到PDSCH所在时域符号的至少一个RB或者至少一个RE中；PBCH所在的时域符号的所有RB或RE和映射有DMRS的RE之间的交集为空；PDCCH所在的时域符号的所有RB或RE和映射有DMRS的RE之间的交集为空；DMRS占用的带宽大于或等于每一个映射有PDCCH的时域符号中承载的PDCCH占用的带宽；DMRS占用的带宽大于或等于每一个映射有PBCH的时域符号中承载的PBCH占用的带宽。
在时域上，BSCHB的主要特征包含以下特征中的至少之一：
DMRS、PSS以及SSS分别被映射到一个时域符号；PBCH被映射到两个时域符号中，并且，PBCH被映射到DMRS符号的后两个时域符号中，或者PBCH被映射到DMRS符号的前后各一个时域符号上；PDCCH被映射到至少一个时域符号中，且被映射到DMRS符号的相邻的时域符号中；PDSCH被映射到至少一个完整的时域符号中，或者与其他信道映射在同一个时域符号中；DMRS符号为映射有DMRS的时域符号。
如图8所示，7个连续的时域符号的编号分别为1、2、3、4、5、6、7，PDCCH、DMRS、PBCH、PSS、SSS以及PDSCH被映射到7个连续的时域符号中的映射顺序可以是以下任意一种：
(a)PDCCH-DMRS-PBCH-PBCH-PSS-SSS-PDSCH，即PDCCH、DMRS、PBCH、PSS、SSS以及PDSCH被映射到的时域符号的编号分别为{1}，{2}，{3,4}， {5}，{6}，{7}；(b)PDCCH-DMRS-PBCH-PBCH-SSS-PSS-PDSCH，即PDCCH、DMRS、PBCH、PSS、SSS以及PDSCH被映射到的时域符号的编号分别为{1}，{2}，{3,4}，{6}，{5}，{7}；(c)PDCCH-PBCH-DMRS-PBCH-PSS-SSS-PDSCH，即PDCCH、DMRS、PBCH、PSS、SSS以及PDSCH被映射到的时域符号的编号分别为{1}，{3}，{2,4}，{5}，{6}，{7}；(d)PDCCH-PBCH-DMRS-PBCH-SSS-PSS-PDSCH，即PDCCH、DMRS、PBCH、PSS以及SSS被映射到的时域符号的编号分别为{1}，{3}，{2,4}，{6}，{5}，{7}；(e)PDCCH-PDCCH-DMRS-PBCH-PBCH-PSS-SSS，即PDCCH、DMRS、PBCH、PSS以及SSS被映射到的时域符号的编号分别为{1，2}，{3}，{4，5}，{6}，{7}；(f)PDCCH-PDCCH-DMRS-PBCH-PBCH-SSS-PSS，即PDCCH、DMRS、PBCH、PSS以及SSS被映射到的时域符号的编号分别为{1,2}，{3}，{4，5}，{7}，{6}。
当PDCCH、DMRS、PBCH、PSS、SSS占用的带宽均小于配置的BSCHB带宽时，PDSCH映射的时域符号可选为{1,2,3,4,5,6,7}。所述配置的BSCHB带宽可以是BSCHB所处带宽部分(BWP，Bandwidth Part)，或者是基站配置的BSCHB带宽。
图8中以子载波间隔(SCS，Subcarrier Spacing)为120kHz示例，该设计同样能够支持SCS为15kHz、30kHz、60kHz、240kHz、480kHz、960kHz的时域结构。
示例6
本实施例描述了BSCHB中包括的信号和信道被以时分复用的方式映射到7个连续的时域符号中进行传输的方法；其中，BSCHB包括：PDCCH、DMRS、PBCH、PSS、SSS以及PDSCH等信号或信道。
在频域上，BSCHB的主要特征包含以下特征中的至少之一：
PDCCH被映射到PDCCH所在时域符号的至少一个RB或者至少一个RE中；DMRS被映射到DMRS所在时域符号的至少一个RB或者至少一个RE中；PBCH被映射到PBCH所在时域符号的至少一个RB或者至少一个RE中；PSS被映射到PSS所在时域符号的至少一个RB或者至少一个RE中；SSS被映射到SSS所在时域符号的至少一个RB或者至少一个RE中；PDSCH被映射到PDSCH所在时域符号的至少一个RB或者至少一个RE中；PBCH所在的时域符号的所有RB或RE和映射有DMRS的RE之间的交集为空；PDCCH所在的时域符号的所有RB或RE和映射有DMRS的RE之间的交集为空；至少有一个映射有DMRS的时域符号中承载的DMRS占用的带宽大于或等于PDCCH占用的带宽；至少有一个映射有DMRS的时域符号中承载的DMRS占用的带宽大于或等于每 一个映射有PBCH的时域符号中承载的PBCH占用的带宽。
在时域上，BSCHB的主要特征包含以下特征中的至少之一：
PSS以及SSS分别被映射到一个时域符号中；PBCH被映射到两个时域符号中，且被映射到DMRS符号的前后各一个符号中；PDCCH被映射到一个时域符号中，且被映射到DMRS符号的相邻时域符号中；PDSCH不映射，或者与其他信道被映射到同一个时域符号中；DMRS被映射到两个时域符号中；其中，DMRS符号为映射有DMRS的符号。
如图9所示，7个连续的时域符号的编号分别为1、2、3、4、5、6、7，PDCCH、DMRS、PBCH、PSS、SSS以及PDSCH被映射到7个连续的时域符号中的映射顺序可以是以下任意一种：
(a)PDCCH-DMRS-PSS-SSS-PBCH-DMRS-PBCH，即PDCCH、DMRS、PBCH、PSS以及SSS被映射到的时域符号的编号分别为{1}，{2,6}，{5,7}，{3}，{4}；(b)PDCCH-DMRS-SSS-PSS-PBCH-DMRS-PBCH，即PDCCH、DMRS、PBCH、PSS以及SSS被映射到的时域符号的编号分别为{1}，{2，6}，{5,7}，{4}，{3}；(c)PDCCH-DMRS-SSS-PBCH-DMRS-PBCH-PSS，即PDCCH、DMRS、PBCH、PSS以及SSS被映射到的时域符号的编号分别为{1}，{2，5}，{4,6}，{7}，{3}；(d)PDCCH-DMRS-SSS-PBCH-DMRS-PBCH-PSS，即PDCCH、DMRS、PBCH、PSS以及SSS被映射到的时域符号的编号分别为{1}，{2，5}，{4,6}，{3}，{7}；(e)PDCCH-DMRS-PBCH-DMRS-PBCH-PSS-SSS，即PDCCH、DMRS、PBCH、PSS以及SSS被映射到的时域符号的编号分别为{1}，{2，4}，{3,5}，{6}，{7}；(f)PDCCH-DMRS-PBCH-DMRS-PBCH-SSS-PSS，即PDCCH、DMRS、PBCH、PSS以及SSS被映射到的时域符号的编号分别为{1}，{2,4}，{3,5}，{7}，{6}。
当PDCCH、DMRS、PBCH、PSS、SSS占用的带宽均小于配置的BSCHB带宽时，PDSCH映射的时域符号可选为{1,2,3,4,5,6,7}。所述配置的BSCHB带宽可以是BSCHB所处BWP，或者是基站配置的BSCHB带宽。
图9中以SCS为120kHz示例，该设计同样能够支持SCS为15kHz、30kHz、60kHz、240kHz、480kHz、960kHz的时域结构。
示例7
本实施例描述了BSCHB中包括的信号和信道被以时分复用的方式映射到7个连续的时域符号中进行传输的方法；其中，BSCHB包括：PDCCH、DMRS、PBCH、PSS、SSS以及PDSCH等信号或信道。
在频域上，BSCHB的主要特征包含以下特征中的至少之一：
PDCCH被映射到PDCCH所在时域符号的至少一个RB或者至少一个RE中；DMRS被映射到DMRS所在时域符号的至少一个RB或者至少一个RE中；PBCH被映射到PBCH所在时域符号的至少一个RB或者至少一个RE中；PSS被映射到PSS所在时域符号的至少一个RB或者至少一个RE中；SSS被映射到SSS所在时域符号的至少一个RB或者至少一个RE中；PDSCH被映射到PDSCH所在时域符号的至少一个RB或者至少一个RE中；PBCH所在的时域符号的所有RB或RE和映射有DMRS的RE之间的交集为空；PDCCH所在的时域符号的所有RB或RE和映射有DMRS的RE之间的交集为空；至少一个映射有DMRS的时域符号中承载的DMRS占用的带宽大于或等于每一个映射有PDCCH的时域符号中承载的PDCCH占用的带宽；至少一个映射有DMRS的时域符号中承载的DMRS占用的带宽大于或等于PBCH占用的带宽。
在时域上，BSCHB的主要特征包含以下特征中的至少之一：
PSS、SSS以及PBCH分别被映射到一个时域符号中；PDSCH、DMRS以及PDCCH中每一个均被映射到至少一个时域符号中；PDCCH被映射到DMRS符号的相邻时域符号中；PBCH被映射到DMRS符号的相邻时域符号中，或者被映射到与DMRS符号间隔一个时域符号的时域符号中；其中，DMRS符号为映射有DMRS的时域符号。
如图10所示，7个连续的时域符号的编号分别为1、2、3、4、5、6、7，PDCCH、DMRS、PBCH、PSS、SSS以及PDSCH被映射到7个连续的时域符号中的映射顺序可以是以下任意一种：
(a)PDCCH-DMRS-PBCH-PSS-SSS-PDSCH-PDSCH，即PDCCH、DMRS、PBCH、PSS、SSS以及PDSCH被映射到的时域符号的编号分别为{1}，{2}，{3}，{4}，{5}，{6,7}；(b)PDCCH-DMRS-PSS-SSS-DMRS-PBCH-PDSCH，即PDCCH、DMRS、PBCH、PSS、SSS以及PDSCH被映射到的时域符号的编号分别为{1}，{2,5}，{6}，{3}，{4}，{7}；(c)PDCCH-DMRS-PSS-PBCH-DMRS-SSS-PDSCH，即PDCCH、DMRS、PBCH、PSS、SSS以及PDSCH被映射到的时域符号的编号分别为{1}，{2,5}，{4}，{3}，{6}，{7}；(d)PDCCH-DMRS-PSS-DMRS-PBCH-SSS-PDSCH，即PDCCH、DMRS、PBCH、PSS、SSS以及PDSCH被映射到的时域符号的编号分别为{1}，{2,4}，{5}，{3}，{6}，{7}；(e)DMRS-PDCCH-PSS-PBCH-DMRS-SSS-PDSCH，即PDCCH、DMRS、PBCH、PSS、SSS以及PDSCH被映射到的时域符号的编号分别为{2}，{1,5}，{4}，{3}，{6}，{7}；(f)DMRS-PDCCH-PSS-DMRS-PBCH-SSS-PDSCH，即PDCCH、DMRS、PBCH、PSS、SSS以及PDSCH被映射到的时域符号的编号分别为{2}，{1,4}，{5}，{3}，{6}，{7}；(g) DMRS-PDCCH-PBCH-PSS-SSS-PDSCH-PDSCH，即PDCCH、DMRS、PBCH、PSS、SSS以及PDSCH被映射到的时域符号的编号分别为{2}，{1}，{3}，{4}，{5}，{6,7}；(h)PDCCH-DMRS-PSS-SSS-PBCH-DMRS-PDSCH，即PDCCH、DMRS、PBCH、PSS、SSS以及PDSCH被映射到的时域符号的编号分别为{1}，{2,6}，{5}，{3}，{4}，{7}；(i)PDCCH-PDCCH-DMRS-PBCH-PSS-SSS-PDSCH，即PDCCH、DMRS、PBCH、PSS、SSS以及PDSCH被映射到的时域符号的编号分别为{1，2}，{3}，{4}，{5}，{6}，{7}。
当PDCCH、DMRS、PBCH、PSS、SSS占用的带宽均小于配置的BSCHB带宽时，PDSCH映射的时域符号可选为{1,2,3,4,5,6,7}。所述配置的BSCHB带宽可以是BSCHB所处BWP，或者是基站配置的BSCHB带宽。
图10中以SCS为120kHz示例，该设计同样能够支持SCS为15kHz、30kHz、60kHz、240kHz、480kHz、960kHz的结构。
本公开实施例提供一种电子设备，其包括：
至少一个处理器；存储装置，其上存储有至少一个程序，当所述至少一个程序被所述至少一个处理器执行，使得所述至少一个处理器实现上述任意一种无线传输方法。
处理器为具有数据处理能力的器件，其包括但不限于中央处理器(CPU)等；存储器为具有数据存储能力的器件，其包括但不限于随机存取存储器(RAM，如SDRAM、DDR等)、只读存储器(ROM)、带电可擦可编程只读存储器(EEPROM)、闪存(FLASH)。
在一些实施例中，处理器、存储器通过总线相互连接，进而与计算设备的其它组件连接。
本公开实施例提供一种计算机可读存储介质，其上存储有计算机程序，所述程序被处理器执行时实现上述任意一种无线传输方法。
图11为本公开实施例提供的另一种无线传输装置的组成框图。
参照图11，本公开实施例提供另一种无线传输装置，可以应用于单载波通信节点，包括：
第二传输模块1101，用于传输广播信号信道块；其中，所述广播信号信道块中包括的信号和信道被以时分复用的方式映射到7N个连续的时域符号中，N为大于或等于1的整数；所述广播信号信道块包括以下至少之一：物理下行控制信道(PDCCH，Physical Downlink Control CHannel)、DMRS、PBCH、PSS、SSS和物理下行共享信道(PDSCH，Physical Downlink Shared CHannel)。
在一些实施例中，传输包括以下至少之一：发送、接收。
在一些实施例中，所述广播信号信道块的特征包括以下至少之一：
所述广播信号信道块中包括的每一个信号被映射到信号所在时域符号的至少一个资源块RB或至少一个资源元素RE中，所述SSB中包括的每一个信道被映射到所述信道所在的时域符号的至少一个RB或至少一个RE中；所述PBCH所在的时域符号的所有RB或RE和映射有所述DMRS的RE之间的交集为空；所述PDCCH所在的时域符号的所有RB或RE和映射有所述DMRS的RE之间的交集为空；至少一个时域符号中承载的所述DMRS占用的带宽大于或等于每一个映射有所述PBCH的时域符号中承载的所述PBCH占用的带宽；至少一个时域符号中承载的所述DMRS占用的带宽大于或等于每一个映射有所述PDCCH的时域符号中承载的所述PDCCH占用的带宽；所述PSS、所述SSS分别被映射到一个时域符号中；所述DMRS被映射到至少一个时域符号中；所述PBCH被映射到至少一个时域符号中；所述PDCCH被映射到至少一个时域符号中；所述PBCH被映射到DMRS符号的前后各一个时域符号中，或者，所述PBCH被映射到所述DMRS符号的后两个时域符号中；所述PDCCH被映射到与所述DMRS符号相邻的时域符号中；所述PBCH被映射到与所述DMRS符号相邻的时域符号中；或者，所述PBCH被映射到与所述DMRS符号间隔一个时域符号的时域符号中；所述PDSCH被映射到空余时频资源中，其中，所述空余时频资源包括所述广播信号信道块对应的时频资源中，除所述PDSCH之外的其他信号和信道占用的时频资源之外的时频资源；所述PDSCH被映射到至少一个时域符号中；其中，所述DMRS符号为映射所述DMRS的时域符号。
在一些实施例中，RB是指频域上的RB，也就是说，RB包括频域上连续的12个子载波。
在一些实施例中，任意一个信号或信道所在的时域符号的所有RB中均不包含映射有其他任意一个信号或信道的RE。
为了实现PBCH参考DMRS进行解调，需要至少一个时域符号中承载的DMRS占用的带宽大于或等于每一个时域符号中承载的所述PBCH占用的带宽；同样的，为了实现PDCCH参考DMRS进行解调，需要至少一个时域符号中承载的DMRS占用的带宽大于或等于每一个时域符号中承载的所述PDCCH占用的带宽。
当PBCH参考DMRS进行解调时，PBCH符号和DMRS符号相邻提高了精度；当PBCH参考SSS进行解调时，PBCH符号和SSS符号相邻提高了精度。
上面所列出的SSB的特征可以随意组合。
在一些实施例中，所述广播信号信道块的特征包括：
所述广播信号信道块中包括的每一个信号被映射到所述信号所在时域符号的至少一个资源块RB或至少一个资源元素RE中；所述SSB中包括的每一个信道被映射到所述信道所在的时域符号的至少一个RB或至少一个RE中；所述PBCH所在的时域符号的所有RB或RE和映射有所述DMRS的RE之间的交集为空；所述PDCCH所在的时域符号的所有RB或RE和映射有所述DMRS的RE之间的交集为空；所述DMRS占用的带宽大于或等于每一个映射有所述PBCH的时域符号中承载的所述PBCH占用的带宽；所述DMRS占用的带宽大于或等于每一个映射有所述PDCCH的时域符号中承载的所述PDCCH占用的带宽；所述DMRS、所述PSS、所述SSS分别被映射到一个时域符号中；所述PBCH被映射到两个时域符号中；所述PDCCH被映射到至少一个时域符号中；所述PBCH被映射到DMRS符号的前后各一个时域符号中；或者，所述PBCH被映射到所述DMRS符号的后两个时域符号中；所述PDCCH被映射到与所述DMRS符号相邻的时域符号中；所述PDSCH被映射到至少一个完整的时域符号中，或者，所述PDSCH被映射到空余时频资源中；其中，所述空余时频资源包括所述广播信号信道块对应的时频资源中，除所述PDSCH之外的其他信号和信道占用的时频资源之外的时频资源；其中，所述DMRS符号为映射所述DMRS的时域符号。
在一些实施例中，所述广播信号信道块的特征包括：
所述广播信号信道块中包括的每一个信号被映射到所述信号所在时域符号的至少一个资源块RB或至少一个资源元素RE中；所述SSB中包括的每一个信道被映射到所述信道所在的时域符号的至少一个RB或至少一个RE中；所述PBCH所在的时域符号的所有RB或RE和映射有所述DMRS的RE之间的交集为空；所述PDCCH所在的时域符号的所有RB或RE和映射有所述DMRS的RE之间的交集为空；至少有一个映射有所述DMRS的时域符号中承载的所述DMRS占用的带宽大于或等于所述PDCCH占用的带宽；至少有一个映射有所述DMRS的时域符号中承载的所述DMRS占用的带宽大于或等于每一个映射有所述PBCH的时域符号中承载的所述PBCH占用的带宽；所述PSS以及所述SSS分别被映射到一个时域符号中；所述PBCH被映射到两个时域符号中，且被映射到DMRS符号的前后各一个符号中；所述PDCCH被映射到一个时域符号中，且被映射到DMRS符号的相邻时域符号中；所述PDSCH被映射到空余时频资源中；其中，所述空余时频资源包括所述广播信号信道块对应的时频资源中，除所述PDSCH之外的其他信号和信道占用的时频资源之外的时频资源；所述DMRS被映射到两个时域符号中；其中，所述DMRS符号为映射有DMRS的符号。
在一些实施例中，所述广播信号信道块的特征包括：
所述广播信号信道块中包括的每一个信号被映射到所述信号所在时域符号的至少一个资源块RB或至少一个资源元素RE中；所述SSB中包括的每一个信道被映射到所述信道所在的时域符号的至少一个RB或至少一个RE中；所述PBCH所在的时域符号的所有RB或RE和映射有所述DMRS的RE之间的交集为空；所述PDCCH所在的时域符号的所有RB或RE和映射有所述DMRS的RE之间的交集为空；至少一个映射有所述DMRS的时域符号中承载的所述DMRS占用的带宽大于或等于每一个映射有所述PDCCH的时域符号中承载的所述PDCCH占用的带宽；至少一个映射有所述DMRS的时域符号中承载的所述DMRS占用的带宽大于或等于所述PBCH占用的带宽；所述PSS、所述SSS以及所述PBCH分别被映射到一个时域符号中；所述PDSCH、所述DMRS以及所述PDCCH中每一个均被映射到至少一个时域符号中；所述PDCCH被映射到DMRS符号的相邻时域符号中；所述PBCH被映射到所述DMRS符号的相邻时域符号中，或者被映射到与所述DMRS符号间隔一个时域符号的时域符号中；其中，所述DMRS符号为映射有DMRS的时域符号。
上面虽然给出了三种可能的广播信号信道块的特征，还有很多其他的组合方式均在本公开实施例的保护范围内，这里不再赘述。
在一些实施例中，所述N为1，所述7N个连续的时域符号依次为：第十七时域符号、第十八时域符号、第十九时域符号、第二十时域符号、第二十一时域符号、第二十二时域符号和第二十三时域符号，所述广播信号信道块中包括的信号或信道被以时分复用的方式映射到7N个连续的时域符号中包括以下任意一种：
所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号中，所述PBCH被映射到所述第十九时域符号和所述第二十时域符号中，所述PSS被映射到所述第二十一时域符号中，所述SSS被映射到所述第二十二时域符号中，所述PDSCH被映射到所述第二十三时域符号中；所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号中，所述PBCH被映射到所述第十九时域符号和所述第二十时域符号中，所述PSS被映射到所述第二十二时域符号中，所述SSS被映射到所述第二十一时域符号中，所述PDSCH被映射到所述第二十三时域符号中；所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十九时域符号中，所述PBCH被映射到所述第十八时域符号和所述第二十时域符号中，所述PSS被映射到所述第二十一时域符号中，所述SSS被映射到所述第二十二时域符号中，所述PDSCH被映射到所述第二十三时域符号中；所述PDCCH被映射到所 述第十七时域符号中，所述DMRS被映射到所述第十九时域符号中，所述PBCH被映射到所述第十八时域符号和所述第二十时域符号中，所述PSS被映射到所述第二十二时域符号中，所述SSS被映射到所述第二十一时域符号中，所述PDSCH被映射到所述第二十三时域符号中；所述PDCCH被映射到所述第十七时域符号和第十八时域符号中，所述DMRS被映射到所述第十九时域符号中，所述PBCH被映射到所述第二十时域符号中，所述PSS被映射到所述第二十一时域符号中，所述SSS被映射到所述第二十二时域符号中，所述PDSCH被映射到所述第二十三时域符号中；所述PDCCH被映射到所述第十七时域符号和第十八时域符号中，所述DMRS被映射到所述第十九时域符号中，所述PBCH被映射到所述第二十时域符号中，所述PSS被映射到所述第二十二时域符号中，所述SSS被映射到所述第二十一时域符号中，所述PDSCH被映射到所述第二十三时域符号中；所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号和所述第二十二时域符号中，所述PBCH被映射到所述第二十一时域符号和所述第二十三时域符号中，所述PSS被映射到所述第十九时域符号中，所述SSS被映射到所述第二十时域符号中；所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号和所述第二十二时域符号中，所述PBCH被映射到所述第二十一时域符号和所述第二十三时域符号中，所述PSS被映射到所述第二十时域符号中，所述SSS被映射到所述第十九时域符号中；所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号和所述第二十一时域符号中，所述PBCH被映射到所述第二十时域符号和所述第二十二时域符号中，所述PSS被映射到所述第二十三时域符号中，所述SSS被映射到所述第十九时域符号中；所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号和所述第二十一时域符号中，所述PBCH被映射到所述第二十时域符号和所述第二十二时域符号中，所述PSS被映射到所述第十九时域符号中，所述SSS被映射到所述第二十三时域符号中；所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号和所述第二十时域符号中，所述PBCH被映射到所述第十九时域符号和所述第二十一时域符号中，所述PSS被映射到所述第二十二时域符号中，所述SSS被映射到所述第二十三时域符号中；所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号和所述第二十时域符号中，所述PBCH被映射到所述第十九时域符号和所述第二十一时域符号中，所述PSS被映射到所述第二十三时域符号中，所述SSS被映射到所述第二十二时域符号中；所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号中，所述PBCH被映射到所述第十九时域符号中，所述PSS被映射到所述第二十时域符号中， 所述SSS被映射到所述第二十一时域符号中，所述PDSCH被映射到所述第二十二时域符号和所述第二十三时域符号中；所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号和所述第二十一时域符号中，所述PBCH被映射到所述第二十二时域符号中，所述PSS被映射到所述第十九时域符号中，所述SSS被映射到所述第二十时域符号中，所述PDSCH被映射到所述第二十三时域符号中；所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号和所述第二十一时域符号中，所述PBCH被映射到所述第二十时域符号中，所述PSS被映射到所述第十九时域符号中，所述SSS被映射到所述第二十二时域符号中，所述PDSCH被映射到所述第二十三时域符号中；所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号和所述第二十时域符号中，所述PBCH被映射到所述第二十一时域符号中，所述PSS被映射到所述第十九时域符号中，所述SSS被映射到所述第二十二时域符号中，所述PDSCH被映射到所述第二十三时域符号中；所述PDCCH被映射到所述第十八时域符号中，所述DMRS被映射到所述第十七时域符号和所述第二十一时域符号中，所述PBCH被映射到所述第二十时域符号中，所述PSS被映射到所述第十九时域符号中，所述SSS被映射到所述第二十二时域符号中，所述PDSCH被映射到所述第二十三时域符号中；所述PDCCH被映射到所述第十八时域符号中，所述DMRS被映射到所述第十七时域符号和所述第二十时域符号中，所述PBCH被映射到所述第二十一时域符号中，所述PSS被映射到所述第十九时域符号中，所述SSS被映射到所述第二十二时域符号中，所述PDSCH被映射到所述第二十三时域符号中；所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号和所述第二十二时域符号中，所述PBCH被映射到所述第二十一时域符号中，所述PSS被映射到所述第十九时域符号中，所述SSS被映射到所述第二十时域符号中，所述PDSCH被映射到所述第二十三时域符号中；所述PDCCH被映射到所述第十七时域符号和所述第十八时域符号中，所述DMRS被映射到所述第十九时域符号中，所述PBCH被映射到所述第二十时域符号中，所述PSS被映射到所述第二十一时域符号中，所述SSS被映射到所述第二十二时域符号中，所述PDSCH被映射到所述第二十三时域符号中；所述PDCCH被映射到所述第十八时域符号中，所述DMRS被映射到所述第十七时域符号中，所述PBCH被映射到所述第十九时域符号中，所述PSS被映射到所述第二十时域符号中，所述SSS被映射到所述第二十一时域符号中，所述PDSCH被映射到所述第二十二时域符号和所述第二十三时域符号中。
还有很多其他的映射方案，只要满足上述SSB的特征就可以，满足上述SSB的特征的映射方案均在本公开实施例的保护范围内。
本公开实施例的无线传输装置，基于SSB整合PDCCH和PDSCH形成广播信号信道块(BSCHB，Broadcast Signal CHannel Block)，有更益于适应波束的发送，并且，采用时分复用的方式将广播信号信道块中包括的信号和信道映射到7N个连续的时域符号中进行传输，实现了单载波系统中广播信号信道块的传输。
相关技术中，DMRS通常采用频分复用的方式将DMRS序列插入到其他信道中，在其他信道参考DMRS进行解调时，参考DMRS序列进行解调参考，单载波系统中DMRS不能采用频分复用的方式，上述方式不适用；多载波系统中当DMRS不是采用频分复用时，上述方式同样不适用。
图12为本公开实施例提供的一种信息确定方法的流程图。
参照图12，本公开实施例提供一种信息确定方法，包括：
步骤1200、根据基准点和第一频率偏移量确定DMRS的频域参考点。
所述基准点包括位置参考信道被映射到的所在时域符号中的频域位置中的以下任意一个：最低资源块RB；最高RB；最低资源元素RE；最高RE。
在一些实施例中，位置参考信道包括以下任意一种：物理下行控制信道PDCCH，物理广播信道PBCH，主同步信号PSS，辅同步信号SSS；所述DMRS占用的带宽大于或等于所述待解调信道占用的带宽；所述DMRS、所述待解调信道和所述位置参考信道中每一个信道被映射到所在时域符号的至少一个RB或至少一个RE中。
在一些实施例中，第一频率偏移量为X个RB，或Y个RE，或X个RB加Y个RE；其中，X和Y均为大于或等于0的整数。在一些实施例中，X和Y可以由协议预定义或者通过无线资源控制(RRC，Radio Resource Control)信令配置。
在一些实施例中，根据基准点和第一频率偏移量确定DMRS的频域参考点包括以下任意一个：
确定所述DMRS的频域参考点为所述基准点向低频方向偏移所述第一频率偏移量；确定所述DMRS的频域参考点为所述基准点向高频方向偏移所述第一频率偏移量。
在一些实施例中，该方法还包括：
根据所述DMRS的频域参考点确定DMRS中的参考序列，所述待解调信道参考所述DMRS中的参考序列进行解调。
在一些实施例中，根据所述DMRS的频域参考点确定DMRS中的参考序列 包括：
从与DMRS的频域参考点之间的距离为第三频率偏移量(即图13中的offset0)的位置开始，从DMRS中截取长度与待解调信道的频域长度相同的序列作为参考序列。
在一些实施例中，第一频率偏移量、所述位置参考信道被映射到的频域位置中的最低RE和待解调信道被映射到的频域位置中的最低RE之间的第二频率偏移量和第三频率偏移量可以通过RRC信令配置直接配置为固定值；或者，也可以先通过协议预定义其候选值，再通过RRC信令选择取值；或者，也可以通过协议预定义为固定值。
本公开实施例的信息确定方法，根据位置参考信道确定频域参考点，为DMRS解调序列(即上述参考序列)的确定提供位置基准。
示例8
本实施例描述了信息确定方法，该方法中，待解调信道参考DMRS的参考序列进行解调。
在时域上，主要特征包含：至少存在DMRS、待解调信道与位置参考信道等三种信道映射在时域符号上。
在频域上，主要特征包含以下至少之一：
DMRS占用的带宽大于或者等于待解调信道占用的带宽；频域参考点以位置参考信道的最低RE或最低RB或最高RE或最高RB为基准点，向低频方向或者高频方向偏移固定的offset2值(即上述第一频率偏移量)；DMRS、待解调信道以及位置参考信道中每一个信道被映射到所在时域符号的至少一个RB或至少一个RE中。
例如，可以是前述实施例中提出的SSB或广播信号信道块，也可以是其他的信号信道结构，本公开实施例对此不作限定。
如图13，以PDCCH为待解调信道，PBCH为位置参考信道举例。PDCCH参考DMRS中的一段参考序列进行解调，其中PBCH的频域位置已知，确定所述DMRS的频域参考点的方法包括以下至少之一：
(a)以所述PBCH最低RE为基准点，向低频方向偏移offset2(即X个RB)作为频域参考点，X为0或者大于0的正整数；(b)以所述PBCH最低RE为基准点，向低频方向偏移offset2(即Y个RE)作为频域参考点，Y为0或者大于0的正整数；(c)以所述PBCH最低RE为基准点，向低频方向偏移offset2(即X个RB加Y个RE)作为频域参考点，X与Y为0或者大于0的正 整数；(d)以所述PBCH最低RB为基准点，向低频方向偏移offset2(即X个RB)作为频域参考点，X为0或者大于0的正整数；(e)以所述PBCH最低RB为基准点，向低频方向偏移offset2(即Y个RE)作为频域参考点，Y为0或者大于0的正整数；(f)以所述PBCH最低RB为基准点，向低频方向偏移offset2(即X个RB加Y个RE)作为频域参考点，X与Y为0或者大于0的正整数。
所述offset1与offset2配置方法是如下之一：
通过RRC信令配置，直接配置确定的offset值；通过协议预定义确定offset候选值，通过RRC信令选择offset值；通过协议预定义确定，直接定义确定的offset值。
方法(a-f)以信道信号最低RE或者RB作为基准点，同样的，最高RE或者RB也可以作为基准点；根据基准点偏移的方向可以是朝向低频方向，也可以是朝向高频方向。类似方法不做赘述。
本公开实施例提供一种电子设备，其包括：
至少一个处理器；存储装置，其上存储有至少一个程序，当所述至少一个程序被所述至少一个处理器执行，使得所述至少一个处理器实现上述任意一种信息确定方法。
处理器为具有数据处理能力的器件，其包括但不限于中央处理器(CPU)等；存储器为具有数据存储能力的器件，其包括但不限于随机存取存储器(RAM，如SDRAM、DDR等)、只读存储器(ROM)、带电可擦可编程只读存储器(EEPROM)、闪存(FLASH)。
在一些实施例中，处理器、存储器通过总线相互连接，进而与计算设备的其它组件连接。
本公开实施例提供一种计算机可读存储介质，其上存储有计算机程序，所述程序被处理器执行时实现上述任意一种信息确定方法。
图14为本公开实施例提供的一种信息确定装置的组成框图。
参照图14，本公开实施例提供一种信息确定装置，包括：
频域参考点确定模块1401，用于根据基准点和第一频率偏移量确定DMRS的频域参考点；其中，所述基准点包括位置参考信道被映射到的所在时域符号中的频域位置中的以下任意一个：最低资源块RB；最高RB；最低资源元素RE；最高RE。
在一些实施例中，位置参考信道包括以下任意一种：物理下行控制信道 PDCCH，物理广播信道PBCH，主同步信号PSS，辅同步信号SSS；所述DMRS占用的带宽大于或等于所述待解调信道占用的带宽；所述DMRS、所述待解调信道和所述位置参考信道中每一个信道被映射到所在时域符号的至少一个RB或至少一个RE中。
在一些实施例中，第一频率偏移量为X个RB，或Y个RE，或X个RB加Y个RE；其中，X和Y均为大于或等于0的整数。在一些实施例中，X和Y可以由协议预定义或者通过无线资源控制(RRC，Radio Resource Control)信令配置。
在一些实施例中，确定DMRS的频域参考点的装置还包括：
解调模块1402，用于根据所述DMRS的频域参考点确定DMRS中的参考序列，所述待解调信道参考所述DMRS中的参考序列进行解调。
在一些实施例中，解调模块1402用于采用以下方式实现根据所述DMRS的频域参考点确定DMRS中的参考序列：
从与DMRS的频域参考点之间的距离为第三频率偏移量的位置开始，从DMRS中截取长度与待解调信道的频域长度相同的序列作为参考序列。
在一些实施例中，第一频率偏移量、第二频率偏移量和第三频率偏移量可以通过RRC信令配置直接配置为固定值；或者，也可以先通过协议预定义其候选值，再通过RRC信令选择取值；或者，也可以通过协议预定义为固定值。
在一些实施例中，确定模块1401用于执行以下任意一个：
确定所述DMRS的频域参考点为所述基准点向低频方向偏移所述第一频率偏移量；确定所述DMRS的频域参考点为所述基准点向高频方向偏移所述第一频率偏移量。
图15为本公开实施例提供的另一种信息确定方法的流程图。
参照图15，本公开实施例提供另一种信息确定方法，包括：
步骤1500、确定半个无线帧内第(n 1+1)个时隙中的候选同步信号物理广播信道块SSB被映射到的第一个时域符号的索引为：n 0+n 1×14；其中，n 0为2或9，n 1∈N，
Figure PCTCN2021071472-appb-000002
n scs为SSB的SCS的大小。
步骤1501、确定半个无线帧内的候选SSB的数目为m＝2*l；其中，l＝{1,2,...,k}。
该方法适用于SSB中包括的信号和信道被以时分复用的方式映射到5个连续的时域符号中进行传输的情况。
示例9
本示例中描述了一种信息确定方法。
下面结合附图对技术方案的实施作描述：
本示例描述了SCS为120kHz的SSB的一种时域位置的确定方法，SSB中包括的信号和信道被以时分复用的方式映射到5个连续的时域符号中进行传输(例如上述示例2中的传输方法)。
图16给出了t＝0.125毫秒时间内子载波间隔为120kHz的SSB的时域位置，水平方向的时间粒度是时域符号级，即一个方格代表一个时域符号，且时域符号的持续时间t随SCS增大成反比例缩放，图16最上方的数字表示在t＝0.125毫秒时间内120kHz的子载波间隔对应的时域符号索引。
按照图16在半个无线帧(T＝5毫秒)内，第(n 1+1)个时隙(slot)中的候选SSB被映射到的第一个时域符号的索引为：n 0+n 1*14；其中，n 0为2或9，n 1∈N，
Figure PCTCN2021071472-appb-000003
n scs为SSB的SCS的大小，本示例中n scs＝120。
半个无线帧内候选SSB按时间升序依次编号，候选SSB的数目为m＝2*l，其中l＝{1,2,...,k}，则候选SSB的编号依次为0,1,...,m-1。
此外，该方法除了能够支持SCS为120kHz的SSB，也能够支持SCS为30kHz、60kHz、240kHz、480kHz以及960kHz等扩展的SSB。
本公开实施例提供一种电子设备，其包括：
至少一个处理器；存储装置，其上存储有至少一个程序，当所述至少一个程序被所述至少一个处理器执行，使得所述至少一个处理器实现上述任意一种信息确定方法。
处理器为具有数据处理能力的器件，其包括但不限于中央处理器(CPU)等；存储器为具有数据存储能力的器件，其包括但不限于随机存取存储器(RAM，如SDRAM、DDR等)、只读存储器(ROM)、带电可擦可编程只读存储器(EEPROM)、闪存(FLASH)。
在一些实施例中，处理器、存储器通过总线相互连接，进而与计算设备的其它组件连接。
本公开实施例提供一种计算机可读存储介质，其上存储有计算机程序，所述程序被处理器执行时实现上述任意一种信息确定方法。
图17为本公开实施例提供的另一种信息确定装置的组成框图。
参照图17，本公开实施例提供一种信息确定装置，包括：
信息确定模块1701，用于确定半个无线帧内第(n 1+1)个时隙中的候选同步信号物理广播信道块SSB被映射到的第一个时域符号的索引为：n 0+n 1*14；其中，n 0为2或9，n 1∈N，
Figure PCTCN2021071472-appb-000004
n scs为SSB的SCS的大小；确定半个无线帧内的候选SSB的数目为m＝2*l；其中，l＝{1,2,...,k}。
该方法适用于SSB中包括的信号和信道被以时分复用的方式映射到5个连续的时域符号中进行传输的情况。
上文中所公开方法中的全部或一些步骤、系统、装置中的功能模块/单元可以被实施为软件、固件、硬件及其适当的组合。在硬件实施方式中，在以上描述中提及的功能模块/单元之间的划分不一定对应于物理组件的划分；例如，一个物理组件可以具有多个功能，或者一个功能或步骤可以由若干物理组件合作执行。一些物理组件或所有物理组件可以被实施为由处理器，如中央处理器、数字信号处理器或微处理器执行的软件，或者被实施为硬件，或者被实施为集成电路，如专用集成电路。这样的软件可以分布在计算机可读介质上，计算机可读介质可以包括计算机存储介质(或非暂时性介质)和通信介质(或暂时性介质)。术语计算机存储介质包括在用于存储信息(诸如计算机可读指令、数据结构、程序模块或其它数据)的任何方法或技术中实施的易失性和非易失性、可移除和不可移除介质。计算机存储介质包括但不限于RAM、ROM、EEPROM、闪存或其它存储器技术、光盘ROM(Compact Disk ROM，CD-ROM)、数字多功能盘(Digital Versatile Disc，DVD)或其它光盘存储、磁盒、磁带、磁盘存储或其它磁存储装置、或者可以用于存储期望的信息并且可以被计算机访问的任何其它的介质。此外，通信介质通常包含计算机可读指令、数据结构、程序模块或者诸如载波或其它传输机制之类的调制数据信号中的其它数据，并且可包括任何信息递送介质。

Claims (29)

  1. 一种无线传输方法，包括：
    传输同步信号物理广播信道块SSB；
    其中，所述SSB中包括的信号和信道被以时分复用的方式映射到M个连续的时域符号中，M为正整数；
    所述SSB包括：物理广播信道PBCH、主同步信号PSS和辅同步信号SSS。
  2. 根据权利要求1所述的方法，其中，所述SSB还包括：解调参考信号DMRS。
  3. 根据权利要求2所述的方法，其中，所述SSB的特征包括：
    所述SSB中包括的每一个信号被映射到所述信号所在时域符号的至少一个资源元素RE中；所述SSB中包括的每一个信道被映射到所述信道所在的时域符号的至少一个RE中；
    所述PBCH所在的时域符号的所有RE和映射有所述DMRS的RE之间的交集为空；
    所述DMRS占用的带宽不小于所述PBCH占用的带宽；
    所述PSS、所述SSS、所述PBCH和所述DMRS分别被映射到一个时域符号中；
    PBCH符号与DMRS符号相邻；
    其中，所述DMRS符号为映射所述DMRS的时域符号，所述PBCH符号为映射所述PBCH的时域符号。
  4. 根据权利要求2所述的方法，其中，所述SSB的特征包括：
    所述SSB中包括的每一个信号被映射到所述信号所在时域符号的至少一个RE中；所述SSB中包括的每一个信道被映射到所述信道所在的时域符号的至少一个RE中；
    所述PBCH所在的时域符号的所有RE和映射有所述DMRS的RE之间的交集为空；
    所述DMRS占用带宽不小于每一个映射有PBCH的时域符号中承载的PBCH占用的带宽；
    所述PSS、所述SSS、所述DMRS分别被映射到一个时域符号中；
    所述PBCH被映射到两个时域符号中；
    所述PBCH被映射到DMRS符号的前一个时域符号和后一个时域符号中；其中，所述DMRS符号为映射有所述DMRS的时域符号。
  5. 根据权利要求2所述的方法，其中，M为5，所述M个连续的时域符号依次为：第一时域符号、第二时域符号、第三时域符号、第四时域符号和第五时域符号；
    所述SSB中包括的信号和信道被以时分复用的方式映射到M个连续的时域符号中包括以下一种：
    所述PSS被映射到所述第一时域符号中，所述SSS被映射到所述第二时域符号中，所述DMRS被映射到所述第四时域符号中，所述PBCH被映射到所述第三时域符号和所述第五时域符号中；
    所述PSS被映射到所述第二时域符号中，所述SSS被映射到所述第一时域符号中，所述DMRS被映射到所述第四时域符号中，所述PBCH被映射到所述第三时域符号和所述第五时域符号中；
    所述PSS被映射到所述第五时域符号中，所述SSS被映射到所述第一时域符号中，所述DMRS被映射到所述第三时域符号中，所述PBCH被映射到所述第二时域符号和所述所述第四时域符号中；
    所述PSS被映射到所述第一时域符号中，所述SSS被映射到所述第五时域符号中，所述DMRS被映射到所述第三时域符号中，所述PBCH被映射到所述第二时域符号和所述第四时域符号中；
    所述PSS被映射到所述第四时域符号中，所述SSS被映射到所述第五时域符号中，所述DMRS被映射到所述第二时域符号中，所述PBCH被映射到所述第一时域符号和所述第三时域符号中；
    所述PSS被映射到所述第五时域符号中，所述SSS被映射到所述第四时域符号中，所述DMRS被映射到所述第二时域符号中，所述PBCH被映射到所述第一时域符号和所述第三时域符号中。
  6. 根据权利要求2所述的方法，其中，M为4，所述M个连续的时域符号依次为：第六时域符号、第七时域符号、第八时域符号和第九时域符号；
    所述SSB中包括的信号和信道被以时分复用的方式映射到M个连续的时域符号中包括以下一种：
    所述PSS被映射到所述第六时域符号中，所述SSS被映射到所述第七时域符号中，所述DMRS被映射到所述第八时域符号中，所述PBCH被映射到所述第九时域符号中；
    所述PSS被映射到所述第六时域符号中，所述SSS被映射到所述第七时域符号中，所述DMRS被映射到所述第九时域符号中，所述PBCH被映射到所述 第八时域符号中；
    所述PSS被映射到所述第七时域符号中，所述SSS被映射到所述第六时域符号中，所述DMRS被映射到所述第八时域符号中，所述PBCH被映射到所述第九时域符号中；
    所述PSS被映射到所述第七时域符号中，所述SSS被映射到所述第六时域符号中，所述DMRS被映射到所述第九时域符号中，所述PBCH被映射到所述第八时域符号中；
    所述PSS被映射到所述第六时域符号中，所述SSS被映射到所述第九时域符号中，所述DMRS被映射到所述第八时域符号中，所述PBCH被映射到所述第七时域符号中；
    所述PSS被映射到所述第九时域符号中，所述SSS被映射到所述第六时域符号中，所述DMRS被映射到所述第八时域符号中，所述PBCH被映射到所述第七时域符号中；
    所述PSS被映射到所述第九时域符号中，所述SSS被映射到所述第六时域符号中，所述DMRS被映射到所述第七时域符号中，所述PBCH被映射到所述第八时域符号中；
    所述PSS被映射到所述第六时域符号中，所述SSS被映射到所述第九时域符号中，所述DMRS被映射到所述第七时域符号中，所述PBCH被映射到所述第八时域符号中；
    所述PSS被映射到所述第九时域符号中，所述SSS被映射到所述第八时域符号中，所述DMRS被映射到所述第六时域符号中，所述PBCH被映射到所述第七时域符号中；
    所述PSS被映射到所述第八时域符号中，所述SSS被映射到所述第九时域符号中，所述DMRS被映射到所述第六时域符号中，所述PBCH被映射到所述第七时域符号中；
    所述PSS被映射到所述第八时域符号中，所述SSS被映射到所述第九时域符号中，所述DMRS被映射到所述第七时域符号中，所述PBCH被映射到所述第六时域符号中；
    所述PSS被映射到所述第九时域符号中，所述SSS被映射到所述第八时域符号中，所述DMRS被映射到所述第七时域符号中，所述PBCH被映射到所述第六时域符号中。
  7. 根据权利要求1所述的方法，其中，所述SSB的特征包括：
    所述SSB中包括的每一个信号被映射到所述信号所在时域符号的至少一个RE中；所述SSB中包括的每一个信道被映射到所述信道所在的时域符号的至少一个RE中；
    所述SSS占用的带宽大于或者等于每一个映射有所述PBCH的时域符号中承载的所述PBCH占用的带宽；
    所述SSS被交叉映射到所述SSS所在时域符号的RE中；其中，所述交叉映射是仅映射到所述SSS所在时域符号的奇数RE中，或者仅映射到所述SSS所在时域符号的偶数RE中；
    所述PSS和所述SSS分别被映射到1个时域符号中；
    所述PBCH被映射到至少1个时域符号中；
    至少一个PBCH符号与SSS符号相邻；其中，所述PBCH符号为映射有所述PBCH的时域符号，所述SSS符号为映射有所述SSS的时域符号。
  8. 根据权利要求1所述的方法，其中，所述SSB的特征包括：
    所述SSB中包括的每一个信号被映射到所述信号所在时域符号的至少一个RE中；所述SSB中包括的每一个信道被映射到所述信道所在的时域符号的至少一个RE中；
    所述SSS占用的带宽不小于每一个映射有所述PBCH的时域符号中承载的所述PBCH占用的带宽；
    所述SSS被映射在所述SSS所在时域符号的所有RE中；
    所述PBCH所在的时域符号的所有RE和映射有所述DMRS的RE之间的交集为空；
    所述PSS和所述SSS分别被映射到1个时域符号中；
    所述PBCH被映射到至少1个时域符号中；
    SSS符号与至少一个PBCH符号相邻；其中，所述SSS符号为映射有所述SSS的时域符号，所述PBCH符号为映射有所述PBCH的时域符号。
  9. 根据权利要求1所述的方法，其中，M为4，所述M个连续的时域符号依次为：第十时域符号、第十一时域符号、第十二时域符号和第十三时域符号；
    所述SSB中包括的信号和信道被以时分复用的方式映射到M个连续的时域符号中包括以下一种：
    所述PSS被映射到所述第十时域符号中，所述SSS被映射到所述第十二时域符号中，所述PBCH被映射到所述第十一时域符号和所述第十三时域符号中；
    所述PSS被映射到所述第十三时域符号中，所述SSS被映射到所述第十一时域符号中，所述PBCH被映射到所述第十时域符号和所述第十二时域符号中；
    所述PSS被映射到所述第十三时域符号中，所述SSS被映射到所述第十二时域符号中，所述PBCH被映射到所述第十时域符号和所述第十一时域符号中。
  10. 根据权利要求1所述的方法，其中，M为3，所述M个连续的时域符号依次为：第十四时域符号、第十五时域符号和第十六时域符号；
    所述SSB中包括的信号和信道被以时分复用的方式映射到M个连续的时域符号中包括以下一种：
    所述PSS被映射到所述第十四时域符号中，所述SSS被映射到所述第十六时域符号中，所述PBCH被映射到所述第十五时域符号中；
    所述PSS被映射到所述第十四时域符号中，所述SSS被映射到所述第十五时域符号中，所述PBCH被映射到所述第十六时域符号中。
  11. 一种电子设备，包括：
    至少一个处理器；
    存储装置，存储有至少一个程序，当所述至少一个程序被所述至少一个处理器执行，使得所述至少一个处理器实现权利要求1～10任一项所述的无线传输方法。
  12. 一种计算机可读存储介质，存储有计算机程序，所述程序被处理器执行时实现权利要求1～10任一项所述的无线传输方法。
  13. 一种无线传输方法，包括：
    传输广播信号信道块；
    其中，所述广播信号信道块中包括的信号和信道被以时分复用的方式映射到7N个连续的时域符号中，N为不小于1的整数；
    所述广播信号信道块包括：物理下行控制信道PDCCH、解调参考信号DMRS、物理广播信道PBCH、主同步信号PSS、辅同步信号SSS。
  14. 根据权利要求13所述的方法，其中，所述广播信号信道块还包括：物理下行共享信道PDSCH。
  15. 根据权利要求14所述的方法，其中，所述广播信号信道块的特征包括：
    所述广播信号信道块中包括的每一个信号被映射到所述信号所在时域符号的至少一个资源元素RE中；所述SSB中包括的每一个信道被映射到所述信道所在的时域符号的至少一个RE中；
    所述PBCH所在的时域符号的所有RE和映射有所述DMRS的RE之间的交集为空；
    所述PDCCH所在的时域符号的所有RE和映射有所述DMRS的RE之间的交集为空；
    所述DMRS占用的带宽不小于每一个映射有所述PBCH的时域符号中承载的所述PBCH占用的带宽；
    所述DMRS占用的带宽不小于每一个映射有所述PDCCH的时域符号中承载的所述PDCCH占用的带宽；
    所述DMRS、所述PSS、所述SSS分别被映射到一个时域符号中；
    所述PBCH被映射到两个时域符号中；
    所述PDCCH被映射到至少一个时域符号中；
    所述PBCH被映射到DMRS符号的前一个时域符号和后一个时域符号中；或者，所述PBCH被映射到所述DMRS符号的后两个时域符号中；
    所述PDCCH被映射到与所述DMRS符号相邻的时域符号中；
    所述PDSCH被映射到至少一个时域符号中；
    其中，所述DMRS符号为映射所述DMRS的时域符号。
  16. 根据权利要求14所述的方法，其中，所述广播信号信道块的特征包括：
    所述广播信号信道块中包括的每一个信号被映射到所述信号所在时域符号的至少一个RE中；所述SSB中包括的每一个信道被映射到所述信道所在的时域符号的至少一个RE中；
    所述PBCH所在的时域符号的所有RE和映射有所述DMRS的RE之间的交集为空；
    所述PDCCH所在的时域符号的所有RE和映射有所述DMRS的RE之间的交集为空；
    至少有一个映射有所述DMRS的时域符号中承载的所述DMRS占用的带宽不小于所述PDCCH占用的带宽；
    至少有一个映射有所述DMRS的时域符号中承载的所述DMRS占用的带宽不小于每一个映射有所述PBCH的时域符号中承载的所述PBCH占用的带宽；
    所述PSS以及所述SSS分别被映射到一个时域符号中；
    所述PBCH被映射到两个时域符号中，且被映射到DMRS符号的前一个时 域符号和后一个时域符号中；
    所述PDCCH被映射到一个时域符号中，且被映射到DMRS符号的相邻时域符号中；
    所述DMRS被映射到两个时域符号中；
    其中，所述DMRS符号为映射有所述DMRS的时域符号。
  17. 根据权利要求14所述的方法，其中，所述广播信号信道块的特征包括：
    所述广播信号信道块中包括的每一个信号被映射到所述信号所在时域符号的至少一个RE中；所述SSB中包括的每一个信道被映射到所述信道所在的时域符号的至少一个RE中；
    所述PBCH所在的时域符号的所有RE和映射有所述DMRS的RE之间的交集为空；
    所述PDCCH所在的时域符号的所有RE和映射有所述DMRS的RE之间的交集为空；
    至少一个映射有所述DMRS的时域符号中承载的所述DMRS占用的带宽不小于每一个映射有所述PDCCH的时域符号中承载的所述PDCCH占用的带宽；
    至少一个映射有所述DMRS的时域符号中承载的所述DMRS占用的带宽不小于所述PBCH占用的带宽；
    所述PSS、所述SSS以及所述PBCH分别被映射到一个时域符号中；
    所述PDSCH、所述DMRS以及所述PDCCH中每一个被映射到至少一个时域符号中；
    所述PDCCH被映射到DMRS符号的相邻时域符号中；
    所述PBCH被映射到所述DMRS符号的相邻时域符号中，或者被映射到与所述DMRS符号间隔一个时域符号的时域符号中；
    其中，所述DMRS符号为映射有所述DMRS的时域符号。
  18. 根据权利要求13或14所述的方法，其中，N为1，所述7N个连续的时域符号依次为：第十七时域符号、第十八时域符号、第十九时域符号、第二十时域符号、第二十一时域符号、第二十二时域符号和第二十三时域符号，所述广播信号信道块中包括的信号或信道被以时分复用的方式映射到7N个连续的时域符号中包括以下一种：
    所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号中，所述PBCH被映射到所述第十九时域符号和所述第二十时 域符号中，所述PSS被映射到所述第二十一时域符号中，所述SSS被映射到所述第二十二时域符号中，所述PDSCH被映射到所述第二十三时域符号中；
    所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号中，所述PBCH被映射到所述第十九时域符号和所述第二十时域符号中，所述PSS被映射到所述第二十二时域符号中，所述SSS被映射到所述第二十一时域符号中，所述PDSCH被映射到所述第二十三时域符号中；
    所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十九时域符号中，所述PBCH被映射到所述第十八时域符号和所述第二十时域符号中，所述PSS被映射到所述第二十一时域符号中，所述SSS被映射到所述第二十二时域符号中，所述PDSCH被映射到所述第二十三时域符号中；
    所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十九时域符号中，所述PBCH被映射到所述第十八时域符号和所述第二十时域符号中，所述PSS被映射到所述第二十二时域符号中，所述SSS被映射到所述第二十一时域符号中，所述PDSCH被映射到所述第二十三时域符号中；
    所述PDCCH被映射到所述第十七时域符号和第十八时域符号中，所述DMRS被映射到所述第十九时域符号中，所述PBCH被映射到所述第二十时域符号中，所述PSS被映射到所述第二十一时域符号中，所述SSS被映射到所述第二十二时域符号中，所述PDSCH被映射到所述第二十三时域符号中；
    所述PDCCH被映射到所述第十七时域符号和第十八时域符号中，所述DMRS被映射到所述第十九时域符号中，所述PBCH被映射到所述第二十时域符号中，所述PSS被映射到所述第二十二时域符号中，所述SSS被映射到所述第二十一时域符号中，所述PDSCH被映射到所述第二十三时域符号中；
    所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号和所述第二十二时域符号中，所述PBCH被映射到所述第二十一时域符号和所述第二十三时域符号中，所述PSS被映射到所述第十九时域符号中，所述SSS被映射到所述第二十时域符号中；
    所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号和所述第二十二时域符号中，所述PBCH被映射到所述第二十一时域符号和所述第二十三时域符号中，所述PSS被映射到所述第二十时域符号中，所述SSS被映射到所述第十九时域符号中；
    所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号和所述第二十一时域符号中，所述PBCH被映射到所述第二十时域符号和所述第二十二时域符号中，所述PSS被映射到所述第二十三时域符 号中，所述SSS被映射到所述第十九时域符号中；
    所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号和所述第二十一时域符号中，所述PBCH被映射到所述第二十时域符号和所述第二十二时域符号中，所述PSS被映射到所述第十九时域符号中，所述SSS被映射到所述第二十三时域符号中；
    所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号和所述第二十时域符号中，所述PBCH被映射到所述第十九时域符号和所述第二十一时域符号中，所述PSS被映射到所述第二十二时域符号中，所述SSS被映射到所述第二十三时域符号中；
    所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号和所述第二十时域符号中，所述PBCH被映射到所述第十九时域符号和所述第二十一时域符号中，所述PSS被映射到所述第二十三时域符号中，所述SSS被映射到所述第二十二时域符号中；
    所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号中，所述PBCH被映射到所述第十九时域符号中，所述PSS被映射到所述第二十时域符号中，所述SSS被映射到所述第二十一时域符号中，所述PDSCH被映射到所述第二十二时域符号和所述第二十三时域符号中；
    所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号和所述第二十一时域符号中，所述PBCH被映射到所述第二十二时域符号中，所述PSS被映射到所述第十九时域符号中，所述SSS被映射到所述第二十时域符号中，所述PDSCH被映射到所述第二十三时域符号中；
    所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号和所述第二十一时域符号中，所述PBCH被映射到所述第二十时域符号中，所述PSS被映射到所述第十九时域符号中，所述SSS被映射到所述第二十二时域符号中，所述PDSCH被映射到所述第二十三时域符号中；
    所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号和所述第二十时域符号中，所述PBCH被映射到所述第二十一时域符号中，所述PSS被映射到所述第十九时域符号中，所述SSS被映射到所述第二十二时域符号中，所述PDSCH被映射到所述第二十三时域符号中；
    所述PDCCH被映射到所述第十八时域符号中，所述DMRS被映射到所述第十七时域符号和所述第二十一时域符号中，所述PBCH被映射到所述第二十时域符号中，所述PSS被映射到所述第十九时域符号中，所述SSS被映射到所述第二十二时域符号中，所述PDSCH被映射到所述第二十三时域符号中；
    所述PDCCH被映射到所述第十八时域符号中，所述DMRS被映射到所述第十七时域符号和所述第二十时域符号中，所述PBCH被映射到所述第二十一时域符号中，所述PSS被映射到所述第十九时域符号中，所述SSS被映射到所述第二十二时域符号中，所述PDSCH被映射到所述第二十三时域符号中；
    所述PDCCH被映射到所述第十七时域符号中，所述DMRS被映射到所述第十八时域符号和所述第二十二时域符号中，所述PBCH被映射到所述第二十一时域符号中，所述PSS被映射到所述第十九时域符号中，所述SSS被映射到所述第二十时域符号中，所述PDSCH被映射到所述第二十三时域符号中；
    所述PDCCH被映射到所述第十七时域符号和所述第十八时域符号中，所述DMRS被映射到所述第十九时域符号中，所述PBCH被映射到所述第二十时域符号中，所述PSS被映射到所述第二十一时域符号中，所述SSS被映射到所述第二十二时域符号中，所述PDSCH被映射到所述第二十三时域符号中；
    所述PDCCH被映射到所述第十八时域符号中，所述DMRS被映射到所述第十七时域符号中，所述PBCH被映射到所述第十九时域符号中，所述PSS被映射到所述第二十时域符号中，所述SSS被映射到所述第二十一时域符号中，所述PDSCH被映射到所述第二十二时域符号和所述第二十三时域符号中。
  19. 一种电子设备，包括：
    至少一个处理器；
    存储装置，存储有至少一个程序，当所述至少一个程序被所述至少一个处理器执行，使得所述至少一个处理器实现权利要求13～18任一项所述的无线传输方法。
  20. 一种计算机可读存储介质，存储有计算机程序，所述程序被处理器执行时实现权利要求13～18任一项所述的无线传输方法。
  21. 一种信息确定方法，包括：
    根据基准点和第一频率偏移量确定解调参考信号DMRS的频域参考点；
    其中，所述基准点包括位置参考信道被映射到的所在时域符号中的频域位置中的最低资源元素RE。
  22. 根据权利21所述的方法，其中，所述位置参考信道包括以下一种：物理下行控制信道PDCCH，物理广播信道PBCH，主同步信号PSS，辅同步信号SSS；
    所述DMRS占用的带宽不小于待解调信道占用的带宽；
    所述DMRS、所述待解调信道和所述位置参考信道中每一个被映射到所在时域符号的至少一个RE中。
  23. 根据权利要求22所述的方法，还包括：
    根据所述DMRS的频域参考点确定所述DMRS中的参考序列，所述待解调信道参考所述DMRS中的参考序列进行解调。
  24. 根据权利要求21或23所述的方法，其中，所述根据基准点和第一频率偏移量确定DMRS的频域参考点包括以下一个：
    确定所述DMRS的频域参考点为所述基准点向低频方向偏移所述第一频率偏移量；
    确定所述DMRS的频域参考点为所述基准点向高频方向偏移所述第一频率偏移量。
  25. 一种电子设备，包括：
    至少一个处理器；
    存储装置，存储有至少一个程序，当所述至少一个程序被所述至少一个处理器执行，使得所述至少一个处理器实现权利要求21～24任一项所述的信息确定方法。
  26. 一种计算机可读存储介质，存储有计算机程序，所述程序被处理器执行时实现权利要求21～24任一项所述的信息确定方法。
  27. 一种信息确定方法，包括：
    确定半个无线帧内第(n 1+1)个时隙中的候选同步信号物理广播信道块SSB被映射到的第一个时域符号的索引为：n 0+n 1*14；
    确定所述半个无线帧内的候选SSB的数目为m＝2*l；
    其中，n 0为2或9，n 1∈N，
    Figure PCTCN2021071472-appb-100001
    n scs为候选SSB的子载波间隔SCS的大小，l＝{1,2,...,k}。
  28. 一种电子设备，包括：
    至少一个处理器；
    存储装置，存储有至少一个程序，当所述至少一个程序被所述至少一个处理器执行，使得所述至少一个处理器实现权利要求27所述的信息确定方法。
  29. 一种计算机可读存储介质，存储有计算机程序，所述程序被处理器执行时实现权利要求27所述的信息确定方法。
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CN112511987B (zh) 2024-04-26
KR20220147645A (ko) 2022-11-03

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