CN101491137B

CN101491137B - Method and apparatus for frequency selective and frequency diversity transmissions in wireless communication system

Info

Publication number: CN101491137B
Application number: CN200780026391.2A
Authority: CN
Inventors: D·P·马拉蒂
Original assignee: Qualcomm Inc
Current assignee: Qualcomm Inc
Priority date: 2006-07-14
Filing date: 2007-07-16
Publication date: 2013-10-23
Anticipated expiration: 2027-07-16
Also published as: TWI353125B; UA92958C2; CN101491137A; TW200816666A

Abstract

Techniques for efficiently supporting frequency selective scheduling (FSS) and frequency diversity scheduling (FDS) are described. In one design, a first transmission for an FSS user may be mapped to a subband selected for this user from among at least one subband in a first frequency region of the system bandwidth. The first transmission may be mapped to a fixed portion or different portions of the selected subband in different time intervals. A second transmission for an FDS user may be mapped across multiple subbands in a second frequency region of the system bandwidth. The second transmission may be mapped to different subbands or different resource blocks in the second frequency region in different time intervals. Each time interval may correspond to a symbol period, a slot, a subframe, etc. The frequency hopping may be performed based on a fixed hopping pattern or a pseudo-random hopping pattern.

Description

Be used for the frequency selection of wireless communication system and the method and apparatus of frequency diversity transmission

The application require to enjoy submit on July 14th, 2006, exercise question is 60/830 for " METHOD ANDAPPARATUS FOR SUBBAND AND DIVERSITY SCHEDULINGTECHNIQUES FOR FDMA SYSTEMS ", sequence number, the priority of 770 U.S. Provisional Application, this provisional application have transferred this assignee and have incorporated by reference the application into.

Technical field

Put it briefly, the present invention relates to communication, specifically, the present invention relates to the transmission technology for wireless communication system.

Background technology

Wireless communication system is widely used in provides various communication services, for example voice, video, grouped data, message, broadcasting etc.These wireless systems can be multi-address systems, can support a plurality of users by sharing available system resource.The example of this multi-address system comprises code division multiple access (CDMA) system, time division multiple access (TDMA) system, frequency division multiple access (FDMA) system, OFDM (OFDMA) system, and single-carrier frequency division multiple access (SC-FDMA) system.

In wireless communication system, the base station can be many user's services.These users can observe different channel conditions (for example, different fading effects, multipath effect and disturbing effect) and can obtain different reception signals and interference-plus-noise than (SINR).In addition, given user can the observing frequency selectivity decline and can obtain different SINR across system bandwidth.Hope can be to the transmission of the different channel conditions of different User supports, so that the performance that can both obtain all these users.

Summary of the invention

This paper describes the technology of effectively supporting frequency selective scheduling (FSS) and frequency diversity scheduling (FDS).For FSS, user's transmission can send at the subband that from least one subband that is used for FSS is user selection.For FDS, user's transmission can send across a plurality of subbands that are used for FDS, to obtain channel and interference diversity.

In a kind of design, the first transmission of FSS user can be mapped to from least one subband in the first frequency zone of system bandwidth and be the subband of this user selection.Each subband can comprise a plurality of Resource Block, and each Resource Block can comprise a plurality of subcarriers.This first transmission can be mapped in the different time intervals standing part (for example, fixed resource piece) of selected subband.The first transmission can also be mapped in different time interval utilization frequency hoppings in selected subband the different piece (for example, different Resource Block) of selected subband.

The second transmission of FDS user can be shone upon across a plurality of subbands in the second frequency zone.First and second frequency field can the correspondence system bandwidth in two nonoverlapping parts.A plurality of subbands in the second frequency zone can be adjacency or non-adjacent.The second transmission can utilize the sub-band levels frequency hopping to be mapped to different sub-band in the second frequency zone in the different time intervals.The second transmission also can utilize Resource Block level frequency hopping to be mapped to different resource piece in the second frequency zone in the different time intervals.

Usually, transmission can be mapped in the different time intervals different sub carrier group in one or more subbands.The time interval can be corresponding to symbol period, time slot, subframe etc.Frequency hopping can be carried out based on fixing saltus step pattern or pseudorandom saltus step pattern.

Various aspects disclosed by the invention and feature will obtain more detailed description hereinafter.

Description of drawings

Fig. 1 illustrates a kind of wireless communication system.

Fig. 2 illustrates a kind of frequency structure.

Fig. 3 illustrates a kind of time structure.

Fig. 4 illustrates a kind of resource structures.

Fig. 5 illustrates a kind of sub band structure.

Fig. 6 A and 6B illustrate two kinds of multiplexing structures, utilize and have both supported FSS also to support FDS across subband hopping.

Fig. 7 illustrates a kind of multiplexing structure, utilizes and has both supported FSS also to support FDS across the Resource Block frequency hopping.

Fig. 8 illustrates the frequency hopping across the Resource Block in the subband.

Fig. 9 A and 9B illustrate two kinds of multiplexing structures, support FSS and FDS, and FSS is supported on all subbands.

Figure 10 be illustrated in one time-interleaved in across the frequency hopping of the Resource Block in the subband.

Figure 11 and 12 illustrates respectively process and the device that is used to FSS and FDS user to send transmission.

Figure 13 and 14 illustrates respectively at time-interleaved process and the device that sends transmission for FSS and FDS user.

Figure 15 illustrates for the process that receives transmission.

Figure 16 illustrates for the device that receives transmission.

Figure 17 illustrates the block diagram of Node B and two subscriber equipmenies (UE).

Embodiment

Fig. 1 illustrates wireless communication system 100, comprises a plurality of Node B 110 and a plurality of UE 120.Usually, Node B is the fixed station that communicates with a plurality of UE, also can be referred to as enode b (eNodeB), base station, access point etc.Each Node B 110 provides communication overlay for specific geographic area, and support is positioned at the communication of the UE of the area of coverage.The term that uses among the application " residential quarter " can dactylus point B and/or its overlay area.System controller 130 can be coupled to a plurality of Node B, and these Node B of coordination and control.System controller 130 can be the set of single network entity or network entity, for example Mobility Management Entity (MME)/system architecture evolution (SAE) gateway, radio network controller (RNC) etc.

UE 120 can be dispersed in the whole system, and each UE can be that fix or mobile.UE may also be referred to as mobile radio station, mobile device, terminal, accesses terminal, subscriber unit, stand etc.UE can be cell phone, personal digital assistant (PDA), Wireless Telecom Equipment, hand portable equipment, radio modem, laptop computer etc.In the following description, term " UE " is used interchangeably with " user ".

In any given moment, Node B can on the down link to one or more UE send data and/or on up link from one or more UE receive datas.Down link (or forward link) refers to the communication link from the Node B to UE, and up link (or reverse link) refers to the communication link from UE to the Node B.

Transmission technology described herein can be used for downlink transmission and ul transmissions.This technology also can be used for various wireless communication systems, for example CDMA, TDMA, FDMA, OFDMA and SC-FDMA system.Term " system " and " network " frequent Alternate.Cdma system can be realized the wireless technology such as universal terrestrial radio access (UTRA), cdma2000 etc.UTRA comprises wideband CDMA (W-CDMA) and low spreading rate (LCR).Cdma2000 comprises IS-2000, IS-95 and IS-856 standard.Tdma system can be realized the wireless technology such as global system for mobile communications (GSM).The OFDMA system can realize for example evolution UTRA (E-UTRA), IEEE 802.11, IEEE 802.16, IEEE 802.20, Flash-

Etc. wireless technology.The wireless technology that these are different and standard are well known in the art.UTRA, E-UTRA and GSM are the parts of universal mobile telecommunications system (UMTS).Long Term Evolution (LTE) is the version that is about to appearance that UMTS uses E-UTRA.In being called the file that " third generation partner program " (3GPP) organize, UTRA, E-UTRA, GSM, UMTS and LTE have been described.In being called the file that " third generation partner program 2 " (3GPP2) organize, cdma2000 has been described.For clarity, some aspect of transmission technology described below is used for LTE, and uses the 3GPP term in following most description.

LTE uses OFDM (OFDM) at down link, and the using single carrier frequency is divided multiplexing (SC-FDM) on up link.OFDM and SC-FDM are divided into a plurality of (N) orthogonal sub-carriers with system bandwidth, and subcarrier is also referred to as tone, frequency band etc. usually.Each subcarrier data available is modulated.Usually, modulation symbol utilizes OFDM to send in frequency domain, utilizes SC-FDM to send in time domain.Interval between the subcarrier of adjacency can be fixed, and the sum of subcarrier (N) depends on system bandwidth.In a kind of design, for the system bandwidth of 5MHz, N=512, for the system bandwidth of 10MHz, N=1024, and for the system bandwidth of 20MHz, N=2048.Usually, N can be arbitrary integer value.

Fig. 2 illustrates the frequency structure 200 that can be used for transmitting.System bandwidth can be divided into N _SBIndividual subband, each subband can be divided into N _RBIndividual Resource Block, each Resource Block can comprise N _SCIndividual subcarrier.Usually, N _SB, N _RBWith N _SCIt can be any integer value.In a kind of design, each Resource Block comprises N _SC=12 subcarriers.Number (the N of subband _SB) with each subband in the number (N of Resource Block _RB) depend on system bandwidth.In a kind of design, system bandwidth is divided into N _SB=6 subbands, each subband comprises N _RB=8 Resource Block.So that N _SBN _RBN _SCOther value of≤N also can be used for N _SB, N _RBWith N _SC

Fig. 3 illustrates the time structure 300 for transmission.The transmission time line can be divided take frame as unit.Each frame can be across one period predetermined duration, for example 10 milliseconds (ms).A frame can be divided into N _SlotIndividual time slot, each time slot can comprise N _SymIndividual symbol period, wherein N _SlotWith N _SymIt can be any integer value.In a kind of design, each frame comprises N _Slot=20 time slots, each time slot comprises N _Sym=6 or 7 symbol periods.A subframe comprises two time slots, may also be referred to as a Transmission Time Interval (TTI).Usually, each frame can comprise subframe and the time slot of any amount, and each time slot can comprise the symbol period of any amount.

Fig. 4 illustrates the resource structures 400 that can be used for transmission.The temporal frequency resource that can be used for transmitting can be divided into a plurality of temporal frequency Resource Block.A temporal frequency Resource Block can be the minimum unit of distributing to user's resource.Usually, temporal frequency Resource Block can comprise any frequency range and across any duration.In a kind of design, a temporal frequency Resource Block comprises a Resource Block in frequency, in time across a time slot.In this design, if Resource Block comprises 12 continuous subcarriers, when a time slot had six symbol periods, a temporal frequency Resource Block comprised 72 resource elements so, when a time slot had 7 symbol periods, a temporal frequency Resource Block comprised 84 resource elements.Resource element is a subcarrier in the symbol period, can be used for sending a modulation symbol.In a kind of design of following most description, the temporal frequency Resource Block comprises a Resource Block in frequency, and term " Resource Block " refers to sub-carrier set or resource element block.When the one or more Resource Block of scheduling are used for transmission, can be the one or more Resource Block of user assignment.

The user can be scattered in the whole system and can observe different channel conditions.For some users, if striding to take place frequently, their transmission send to obtain channel and interference diversity, then can improve performance.For other user, if their transmission is to send, then can improve performance in some part of the system bandwidth with high SINR.

In one aspect, the scheduling scheme/type of system shown in can support matrix 1.Frequency selective scheduling (FSS) also can be called sub-band scheduling.Frequency diversity scheduling (FDS) is also referred to as the frequency hopping scheduling.

Table 1

Scheduling type	Describe
		Frequency selective scheduling (FSS)	User's transmission subcarrier of (in the subband of for example selecting) in the part of system bandwidth sends
Frequency diversity scheduling (FDS)	User transmission sends at the subcarrier across whole or most of (for example in a plurality of subbands) of system bandwidth

In a kind of design, FDS utilizes frequency hopping to realize.For frequency hopping, user's transmission can send in the different piece of different hop period in system bandwidth.A hop period is to spend in one group of time quantum on the given subcarrier, and corresponding to a symbol period, a time slot, a subframe, a frame etc.Can from all subcarriers that can be used for FDS, be the different subcarrier group of user selection based on the known saltus step pattern of user.In a kind of design, by the subcarrier in the selected subband is distributed to the user, realize FSS.The subband of selecting can be that the user obtains the subband of the highest SINR in can be used for all subbands of FSS.Frequency hopping also can be used for FSS, but is subject to selected subband.

In a kind of design of supporting FSS and FDS, system bandwidth can be divided into a plurality of (N _SB) subband, each subband can be used for FSS or FDS.Indicate which subband can send or otherwise transmit at broadcast channel (BCH) for the information that FSS, which subband are used for FDS.For example, the subband bit-masks can comprise N _SBEach subband bit in the individual subband.The bit of each subband can be set to 0 to represent that this subband is used for FDS, perhaps is set to 1 to represent that this subband is used for FSS.

In a kind of design, can be used for for the FSS user assignment Resource Block of the subband of FSS.In this design, FSS user is subject to a subband, and this subband is to select from all subbands that are used for FSS.The Resource Block of distributing to FSS user can take fixing subcarrier group (not having frequency hopping) or different subcarrier groups (frequency hopping is arranged).In a kind of design, can be used for for the FDS user assignment Resource Block of arbitrary subband of FDS.In this design, FDS user can saltus step across all subbands that are used for FDS.The Resource Block of distributing to FDS user can take the different sub carrier group for the subband of FDS.

Can support efficiently FSS and FDS user also so that two kinds of performances that the user can both obtain in transmission technology described herein.Some users are benefited by the channel and the interference diversity that utilize the FDS acquisition.Other user is by being benefited in the particular sub-band transmission with good SINR.These transmission technologys permission FSS and FDS user are easily multiplexing in section preset time (for example a time slot, a subframe etc.).Various multiplexing structures all can be supported these transmission technologys, and the some of them multiplexing structure is described below.

Fig. 5 illustrates the design of sub band structure 500.In this design, system bandwidth is divided into N _SB=6 physics subbands are the numbering of these physics allocation of subbands 0 to 5.Each physics subband comprises the specific part of system bandwidth.Also define six virtual subbands and be the numbering of these virtual allocation of subbands 0 to 5.When not using frequency hopping, virtual subband s is mapped to physics subband s, and both can be referred to as subband s, wherein s ∈ 0 ..., 5}.When using frequency hopping, virtual subband s can be mapped in the different time intervals different physics subbands.When using frequency hopping, virtual subband can make resource distribute simplification.In the following description, unless otherwise, otherwise term " subband " refers to the physics subband.

Fig. 6 A illustrates the design of multiplexing structure 600, and it utilizes the sub-band levels frequency hopping both to support FSS also to support FDS.In this exemplary design, system bandwidth is divided into is numbered 0 to 5 N _SB=6 physics subbands, two

physics subbands

0 and 1 are used for FSS, and four physics subbands 2 to 5 are used for FDS.For FSS, the mapping between virtual subband and the physics subband is static.In the example shown in Fig. 6 A, in each time interval, virtual subband 0 is mapped to physics subband 0, and in each time interval, virtual subband 1 is mapped to physics subband 1.

For FDS, in each time interval, each virtual subband can be mapped to any one the physics subband for FDS.In the example shown in Fig. 6 A, virtual subband 2 is mapped to physics subband 2 at time interval n, is mapped to physics subband 3 at time interval n+1, is mapped to physics subband 4 at time interval n+2, and the rest may be inferred.In the mapping of arriving physics subband 2 to 5 at virtual subband 2 to 5 of each time interval shown in Fig. 6 A.In the example shown in Fig. 6 A, the virtual subband of each of FDS is skipped physics subband 2 to 5 in mode circulation or annular.Virtual subnet takes the mapping of physics subband to also can be based on other saltus step pattern.

Fig. 6 B illustrates the design of multiplexing structure 610, and it utilizes the sub-band levels frequency hopping both to support FSS also to support FDS.In this exemplary design, system bandwidth is divided into is numbered 0 to 5 N _SB=6 physics subbands, two

physics subbands

0 and 3 are used for FSS, and four

physics subbands

1,2,4 and 5 are used for FDS.For FSS, in each time interval, virtual subband s is mapped to physics subband s, wherein s ∈ { 0,3}.

For FDS, in each time interval, each virtual subband can be mapped to any one the physics subband for FDS.In the example shown in Fig. 6 B, in the different time intervals, based on pseudorandom saltus step pattern, virtual subband 1 is mapped to different in the

physics subband

1,2,4 and 5 physics subbands.Based on identical pseudorandom saltus step pattern,

virtual subband

2,4 and 5 also is mapped to

physics subband

1,2,4 and 5, but is offset circularly respectively 1,2 and 3 from virtual subband 1.

In the exemplary design shown in Fig. 6 A and Fig. 6 B, two subbands are used for FSS, and four subbands are used for FDS.Usually, N _SBArbitrary subband in the subband may be used to FSS.The subband that is used for FSS can be to adjoin each other (for example, as shown in Figure 6A) or non-adjacent, and may be distributed in whole system bandwidth (for example, shown in Fig. 6 B).The subband that is not used for FSS can be used for FDS.Can carry out the sub-band levels frequency hopping across the whole subbands that are used for FDS.

Can utilize the sub-band levels frequency hopping take several means as FDS user resource allocation piece.Each subband can comprise N _RBIndividual Resource Block is numbered 0 to N _RB-1, as shown in Figure 2.Can be the particular resource block r among the FDS user assignment particular virtual subband s.Utilize the sub-band levels frequency hopping, in the different time intervals, virtual subband s can be mapped to different physics subbands.In a kind of design, the N among the virtual subband s _RBThe same resource block position of individual resource block mapping in each physics subband, wherein virtual subband s is mapped to above-mentioned each physics subband.For example, in Fig. 6 B, can be the Resource Block of r=3 in the virtual subband of FDS user assignment s=1.Then this FDS user can be mapped to Resource Block 3 in the physics subband 1 at time interval n, is mapped to Resource Block 3 in the physics subband 5 at time interval n+1, is mapped to Resource Block 3 in the physics subband 2 at time interval n+2, and the rest may be inferred.FDS user can be mapped to different physics subbands in the different time intervals, but the resource block location in these physics subbands is constant.In the another kind design, can be the particular resource block r among the FDS user assignment particular virtual subband s, the Resource Block r among the virtual subband s can be mapped to the different resource piece position in the different physics subbands.

Fig. 7 illustrates a kind of design of multiplexing structure 700, utilizes Resource Block level frequency hopping both to support FSS also to support FDS.In this exemplary design, system bandwidth is divided into is numbered 0 to 5 N _SB=6 physics subbands, wherein four

physics subbands

0,1,3 and 5 are used for FSS, two physics subbands 2 with 4 for FDS.For FSS, the mapping between virtual subband and the physics subband is static, and in each time interval, virtual subband s is mapped to physics subband s, wherein s ∈ { 0,1,3,5}.

The Resource Block that is used for whole physics subbands of FDS can be generically and collectively referred to as Physical Resource Block.In the exemplary design shown in Fig. 7, each physics subband comprises N _RB=8 Resource Block, the

physics subband

2 and 4 that is used for FDS comprises altogether 16 Physical Resource Block, distributes 0 to 15 numbering for these Physical Resource Block.Can define 16 virtual resource blocks and for their distribute 0 to 15 numbering.When using frequency hopping, virtual resource blocks can make resource distribute simplification.

For FDS, can application resource piece level frequency hopping, and in each time interval, each virtual resource blocks can be mapped to any Physical Resource Block.In the example shown in Fig. 7, virtual resource blocks 0 is mapped to Physical Resource Block 0 at time interval n, is mapped to Physical Resource Block 1 at time interval n+1, is mapped to Physical Resource Block 2 at time interval n+2, and the rest may be inferred.In each time interval, virtual resource blocks 0 to 15 to the mapping of Physical Resource Block 0 to 15 as shown in Figure 7.In example shown in Figure 7, each virtual resource blocks is skipped Physical Resource Block 0 to 15 in a kind of mode of circulation.The mapping of virtual resource block to physical resource block also can be based on other saltus step pattern.

Can be the specific virtual resource blocks r of FDS user assignment.Utilize Resource Block level frequency hopping, virtual resource blocks r can be mapped to different Physical Resource Block in the different time intervals, and these Physical Resource Block can be in identical or different subband.

In exemplary design shown in Figure 7, four non-adjacent subbands are used for FSS, and two non-adjacent subbands are used for FDS.Usually, N _SBAny subband in the individual subband can be used for FSS, and the residue subband can be used for FDS.Can carry out Resource Block level frequency hopping across the whole subbands that are used for FDS.

Sub-band levels frequency hopping (for example, shown in Fig. 6 A and 6B) has the less saltus step position across system bandwidth, and the number of saltus step position depends on the number of sub-bands for FDS.Because compare the subband for FDS, have a lot of Resource Block, so Resource Block level frequency hopping (for example, as shown in Figure 7) can there be the more saltus step position across system.

Usually, frequency hopping can be used to FSS and also frequency hopping can be do not used.In a kind of design, FSS is not used frequency hopping.In this design, can be the same resource block in the given subband of FSS user assignment, and this FSS user's transmission can send in the same section of system bandwidth.In the another kind design, to frequency hopping in the FSS applying subband.In this design, can be the different resource piece in the given subband of FSS user assignment, and this FSS user's transmission can send in the different piece of this subband.

Fig. 8 illustrates the design of multiplexing structure 800, utilizes and supports FSS across the Resource Block frequency hopping in the subband.In this design, subband comprises N _RB=8 Physical Resource Block are the numbering of these Physical Resource Block distribution 0 to 7.Also define eight virtual resource blocks and distribute 0 to 7 numbering for these virtual resource blocks.Each virtual resource blocks can be mapped to any one Physical Resource Block in the Physical Resource Block 0 to 7 in each time interval.In the example shown in Fig. 8, virtual resource blocks 0 is mapped to Physical Resource Block 0 at time interval n, is mapped to Physical Resource Block 1 at time interval n+1, is mapped to Physical Resource Block 2 at time interval n+2, and the rest may be inferred.Virtual resource blocks 0 to 7 each time interval to the mapping of Physical Resource Block 0 to 7 as shown in Figure 8.Fig. 8 illustrates a kind of cyclic shift saltus step pattern, also can use other saltus step patterns.

In the exemplary design shown in Fig. 6 A, Fig. 6 B and Fig. 7, some subbands are used for FSS, and the residue subband is used for FDS.What wish is to allow N _SBWhole or a plurality of subbands in the individual subband are used for FSS.Different FSS can obtain superperformance in different subbands.By on the subband of FSS user's expectation, these FSS users being arranged the performance that can be improved (for example, higher throughput of system).

Fig. 9 A illustrates a kind of design of multiplexing structure 900, and it had both supported FSS also to support FDS, supports FSS at whole subbands.In this exemplary design, system bandwidth is divided into is numbered 0 to 5 N _SB=6 subbands, in each time period, two subbands are used for FSS, and four subbands are used for FDS.Usually, a corresponding symbol period of time period, a time slot, a subframe, a frame etc.In this exemplary design, at time period m,

subband

0 and 1 is used for FSS, and at time period m+1,

subband

2 and 3 is used for FSS, and at time period m+2,

subband

4 and 5 is used for FSS, and the rest may be inferred.In each time period, the subband that is not used for FSS is used for FDS.Can use across subband or Resource Block frequency hopping the subband that is used for FDS.

Can define a plurality of (M) time-interleaved, each time-interleaved time period that comprises an even interval M time period.Usually M can be any integer value.In the exemplary design shown in Fig. 9 A, definition M=6's is time-interleaved, is numbered 0 to 5, and wherein time-interleaved 0 comprises time period m, m+6 etc., and time-interleaved 1 comprises time period m+1, m+7 etc., and time-interleaved 5 comprise time period m+5, m+11 etc.In another exemplary design that Fig. 9 A does not illustrate, can define three time-interleaved 0 to 2, time-interleaved 0 comprises time period m, m+3, m+6 etc., and time-interleaved 1 comprises time period m+1, m+4 etc., and time-interleaved 2 comprise time period m+2, m+5 etc.In either case, no matter how many time-interleaved numbers is, in each time interval, specific subband set or zero subband or a plurality of subband can be used for FSS.For the exemplary design shown in Fig. 9 A,

subband

0 and 1 is used for FSS in time-interleaved 0, and

subband

2 and 3 is used for FSS in time-interleaved 1, and

subband

4 and 5 is used for FSS in time-interleaved 2, and the rest may be inferred.For each was time-interleaved, the subband that is not used for FSS was used to FDS.

Fig. 9 B illustrates the design of multiplexing structure 910, and it had both supported FSS also to support FDS, supports FSS at whole subbands.In this exemplary design, system bandwidth is divided into N _SB=6 subbands (being numbered 0 to 5), and definition M=6 time-interleaved (being numbered 0 to 5).In the exemplary design shown in Fig. 9 B, in time-interleaved 0,

subband

0,1 and 2 is used for FSS; In time-interleaved 1,

subband

3,4 and 5 is used for FSS; In time-interleaved 2,

subband

0 and 3 is used for FSS; In time-interleaved 3,

subband

1 and 4 is used for FSS; In time-interleaved 4,

subband

2 and 5 is used for FSS; In time-interleaved 5, there is not subband to be used for FSS.

The Resource Block of the subband that can in reasonable time interweaves, wish for the FSS user assignment.For the exemplary design shown in Fig. 9 A, it is the Resource Block of wanting these subbands of FSS user assignment of

subband

0 and 1 in time-interleaved 0 and/or 3, being the Resource Block of wanting these subbands of FSS user assignment of

subband

2 and 3 in time-interleaved 1 and/or 4, is the Resource Block of wanting these subbands of FSS user assignment of

subband

4 and 5 in time-interleaved 2 and/or 5.Thereby, the Resource Block in the subband that can want for each FSS user assignment user.

Usually, multiplexing structure can comprise the subband (N of arbitrary number _SB) with time-interleaved (M) of arbitrary number.The subband of arbitrary number can be used for FSS in each is time-interleaved.The subband of identical or different number can be used for FSS in M is time-interleaved.For each was time-interleaved, the subband that is used for FSS can be adjacency or non-adjacent.

In each was time-interleaved, the subband that is used for the subband of FSS and is used for FDS can be sent to the user in every way.In a kind of design, can for time-interleaved 0 subband of selecting for FSS and FDS, be defined in the subband that interweaves each remaining time for FSS and FDS based on the subband that in time-interleaved 0, is used for FSS and FDS.In a kind of design, the subband bit-masks can be for time-interleaved 0 and for N _SBEach subband in the individual subband has a bit.Can be set to 0 for the bit of each subband and be used for FDS with the expression subband, or be set to 1 and be used for FSS with the expression subband.Can time-based interweave 0 subband bit-masks of the subband bit-masks that interweave with each remaining time defines.In a kind of design, the subband bit-masks that interweave with each remaining time is the cyclic shift version of time-interleaved 0 subband bit-masks.For the time-interleaved exemplary design of the M=6 shown in Fig. 9 A, each time-interleaved subband bit-masks is as follows:

Time-interleaved 0 subband bit-masks=1,1,0,0,0,0},

Time-interleaved 1 subband bit-masks=0,0,1,1,0,0},

Time-interleaved 2 subband bit-masks=0,0,0,0,1,1},

Time-interleaved 3 subband bit-masks=1,1,0,0,0,0},

Time-interleaved 4 subband bit-masks=0,0,1,1,0,0},

Time-interleaved 5 subband bit-masks={ 0,0,0,0,1,1}.

Time-interleaved subband bit-masks also can define based on certain other mapping.The same sub-band bit-masks also can be time-interleaved for all.In either case, by using the predetermined mapping of M M time-interleaved subband bit-masks, can send single subband bit-masks so as to transmit M time-interleaved each time-interleaved in for the subband of FSS and FDS.In the another kind design, the subband that is used for FSS and FDS during each is time-interleaved can be selected and transmit independently, for example, divides other subband bit-masks to each time-interleaved use.

System can support mixed automatic retransfer (HARQ), and it is also referred to as steadily increase redundancy, follows the tracks of merging (that is, Chase merges) etc.Utilize HARQ, transmitter sends transmitted in packets, and is correctly decoded by receiver in this grouping, or has sent the maximum retransmit number, or runs into before certain other the termination condition, sends one or more re-transmissions always.HARQ can improve the reliability of transfer of data.

Can define M HARQ and interweave, wherein M can be any integer value.Each HARQ interweaves and can comprise the interval M time period of a time period (do not count in minute be used in expense time).For some examples, can define three or six HARQ and interweave (shown in Fig. 9 A), perhaps can define six HARQ interweave (shown in Fig. 9 B).Also can define less or more a plurality of HARQ interweaves.Each HARQ interweave can be corresponding one different time-interleaved.

The HARQ process refers to all transmission and re-transmission (if any) of a grouping.As long as resource can use, the HARQ process just begins, and this process after first transmission or one or more subsequently re-transmissions stop later on.The HARQ process has the variable duration, and this depends on the decoded result of receiver.Each HARQ process can be in a HARQ middle transmission that interweaves.Can in interweaving, the HARQ with subband that the user wants be FSS user resource allocation piece.

Usually, the time-interleaved time period (for example, in Fig. 9 A or 9B) can equal, is shorter than or is longer than the time interval (for example, at Fig. 5 to shown in Fig. 8) of frequency hopping.If a time period is longer than a time interval, frequency hopping can occur in each time period so.In a kind of design, the time interval is across a symbol period, and time period is across two time slots of 12 or 14 symbol periods.In this design, frequency hopping can one by one symbol period ground generation within each time period of two time slots.In the another kind design, a time period equals a time interval, both equals a symbol period, a time slot, subframe etc.In this design, for FSS, in each was time-interleaved, frequency hopping one by one time period ground occured.For FDS, frequency hopping can time-interleavedly be carried out respectively for each, or time-interleavedly jointly carries out across all.

Figure 10 illustrates the design of multiplexing structure 1000, utilizes among the time-interleaved m Resource Block frequency hopping across a subband to support FSS.In this exemplary design, time-interleaved m comprises time period m, m+M etc., corresponding time slot of each time period, corresponding symbol period of each time interval.

In the exemplary design shown in Figure 10, subband comprises N _RB=8 Physical Resource Block 0 to 7, and define eight virtual resource blocks 0 to 7.Based on pseudorandom saltus step pattern, in each symbol period of time-interleaved m, each virtual resource blocks is mapped in the Physical Resource Block 0 to 7.In the symbol period 0 of time period m virtual resource blocks 0 is mapped to Physical Resource Block 0, is mapped to Physical Resource Block 5 in symbol period 1, be mapped to Physical Resource Block 2 in symbol period 2, the rest may be inferred.Virtual resource blocks 0 to 7 to the mapping of Physical Resource Block 0 to 7 as shown in figure 10 in each symbol period of time-interleaved m.Figure 10 illustrates pseudorandom saltus step pattern, also can use other saltus step patterns.

Usually, different saltus step patterns can be used for the frequency hopping of FDS and FSS.FDS can use identical saltus step pattern with FSS, and perhaps FDS can use different saltus step patterns from FSS.The saltus step pattern can be for example other pattern of cyclic shift pattern or certain of fixedly saltus step pattern.The saltus step pattern also can generate based on known function or maker, and it can receive any parameter as input or seed.In a kind of design, the saltus step pattern is used for each residential quarter or the sector of system.Adjacent cell or sector can use different saltus step patterns so that the interference randomization between cell/section.

In a kind of design, the saltus step pattern of each residential quarter or sector is static in time, and repeats within the predetermined duration (for example, the subframe of predetermined number).For example, based on fixing saltus step pattern, for example, the cyclic shift pattern can be carried out frequency hopping to Q Resource Block collection across 12 or 14 symbol periods in each subframe.At the first symbol period of each subframe, virtual resource blocks 0 to Q-1 can be mapped to respectively Physical Resource Block 0 to Q-1.At each residue symbol period of this subframe, each virtual resource blocks can be mapped to different Physical Resource Block.

In the another kind design, the saltus step pattern of each residential quarter or sector is time dependent.The saltus step pattern can define based on known function, for example, is exclusively used in the function of the pseudorandom scrambler of this residential quarter or sector.For example, based on fixing saltus step pattern, for example, the cyclic shift pattern can be carried out frequency hopping to Q Resource Block collection across 12 or 14 symbol periods in each subframe.Yet the initial mapping of first symbol period can be determined based on four bits of scrambler.For example, if 4 bit scrambler values are q, for first symbol period of subframe, virtual resource blocks 0 can be mapped to Physical Resource Block q so, and virtual resource blocks 1 can be mapped to Physical Resource Block (q+1) mod Q, and the rest may be inferred.4 bit scrambler values can change between subframe, become frequency hopping during with realization.

Figure 11 illustrates the design of process 1100, is used to FSS and FDS to send transmission.Process 1100 can be carried out by Node B or some other entity.The first transmission of first user (for example, FSS user) can be mapped to the subband (square frame 1112) of selecting for first user from least one subband in the first frequency zone of system bandwidth.In the different time intervals, the first transmission can be mapped to the standing part (for example, specific Resource Block) of selected subband.Also can in selected subband, carry out frequency hopping to first user.Like this, in the different time intervals, the first transmission can be mapped to the different piece (for example, different Resource Block) of selected subband.The first transmission can be in time-interleaved the continuous time period or the evenly spaced time period in send.

The second transmission of the second user (for example, FDS user) can be shone upon across a plurality of subbands in the second frequency zone (square frame 1114).First and second frequency field can the correspondence system bandwidth two is lap not.A plurality of subbands in the second frequency zone can be adjacency or non-adjacent.Can carry out the sub-band levels frequency hopping to the second user.Like this, in the different time intervals, the second transmission can be mapped to the different sub-band in the second frequency zone.Also can carry out Resource Block level frequency hopping to the second user.Like this, in the different time intervals, the second transmission can be mapped to the different resource piece in the second frequency zone.Also can carry out subcarrier level frequency hopping.

Usually, utilize frequency hopping, in the different time intervals, transmission can be mapped to the different sub carrier collection in one or more subbands.Can be based on fixing saltus step pattern (for example, cyclic shift pattern) or pseudorandom saltus step pattern (for example, determining based on scrambler) execution frequency hopping.OFDM symbol or SC-FDM symbol can utilize the first transmission and second to transmit and generate, the subband that described the first transmission map is selected in the first frequency zone, a plurality of subbands (square frame 1116) of described the second transmission map in the second frequency zone.

The subband that the user also can select in the first frequency zone that is used for frequency selective scheduling sends transmission.The user can send transmission across a plurality of subbands in the second frequency zone that is used for frequency diversity scheduling.

Figure 12 illustrates the design of device 1200, is used for sending the transmission of FSS and FDS.Device 1200 comprises: mapping block (module 1212) is used for the first transmission map of first user to from least one subband in the first frequency zone of system bandwidth subband for the first user selection; Mapping block (module 1214) is used for the second transmission map of the second user a plurality of subbands across the second frequency zone of system bandwidth; And generation module (module 1216), be used for utilizing the first transmission and the second transmission to generate OFDM symbol or SC-FDM symbol, the subband that described the first transmission map is selected in the first frequency zone, described the second transmission map a plurality of subbands in the second frequency zone.

Figure 13 illustrates the design of process 1300, is used for sending the transmission of FSS and FDS.Process 1300 can be carried out by Node B or some other entity.First group of user's transmission is mapped to the first subband set with at least one subband in the very first time interweaves, each user of first group of user is mapped to a subband (square frame 1312) in the first subband set.The very first time interweaves and can comprise the evenly spaced time period.Second group of user's transmission can be mapped to the second subband set in the very first time interweaves, each user of second group of user is shone upon across a plurality of subbands in the second subband set (square frame 1314).The second subband set can comprise the subband that is not included in the first subband set.

To the 3rd subband set with at least one subband, each user among the 3rd group of user is mapped to a subband (square frame 1316) in the 3rd subband set in the second time-interleaved middle transmission map with the 3rd group of user.The 3rd subband set can be identical or different with the first subband set.Be not included in the evenly spaced time period of the very first time in interweaving the second time-interleaved can comprising.In the second time-interleaved middle transmission map to the four subband set with the 4th group of user, each user among the 4th group of user is shone upon across a plurality of subbands in the 4th subband set (square frame 1318).The 4th subband set can comprise the subband that is not included in the 3rd subband set.Can adopt similar mode in extra time-interleaved middle transmission transmission.Every group of user's transmission can utilize HARQ to send in this group time-interleaved.

Based on FSS user's business load and FDS user's business load, be divided into system bandwidth for the subband set of FSS and be used for the subband set of FDS.The information that transmits the subband in every subband set can be broadcast to the user or send in other mode.This information can by one or more subband bit-masks (for example, the subband bit-masks that the very first time interweaves, the subband bit-masks that each is time-interleaved, etc.) provide.

Figure 14 illustrates the design of device 1400, is used for sending the transmission of FSS and FDS.Device 1400 comprises: mapping block (module 1412), be used for transmission with first group of user and interweave in the very first time and be mapped to the first subband set with at least one subband, each user among first group of user is mapped to a subband in the first subband set; Mapping block (module 1414) is used for transmission with second group of user and interweaves in the very first time and be mapped to the second subband set, with each user's mapping among second group of user across a plurality of subbands in the second subband set; Mapping block (module 1416) is used for transmission with the 3rd group of user in the second time-interleaved the 3rd subband set with at least one subband that is mapped to, and each user among the 3rd group of user is mapped to a subband in the 3rd subband set; And mapping block (module 1418), be used for transmission with the 4th group of user in the second time-interleaved the 4th subband set that is mapped to, with each user's mapping among the 4th group of user across a plurality of subbands in the 4th subband set.

Figure 15 illustrates the design for the process 1500 that receives transmission.Process 1500 can be carried out by UE or some other entity.If transmission utilizes frequency selective scheduling to send, the subband that then can select from least one subband in the first frequency zone of system bandwidth receives transmission (square frame 1512).Can receive and transmit by the standing part (for example, specific Resource Block) from the subband of selection in the different time intervals.If utilize frequency hopping to send transmission, then also can different part (for example, different Resource Block) the reception transmission from the subband of selection in the different time intervals.

If transmission utilizes frequency diversity scheduling to send, then receive transmission (square frame 1514) across a plurality of subbands in the second frequency zone of system bandwidth.If utilize the sub-band levels frequency hopping to send, then can receive transmission from the different sub-band in second frequency zone in the different time intervals.If utilize Resource Block level frequency hopping to send, then also can receive transmission from the different resource piece in second frequency zone in the different time intervals.If utilize frequency hopping to send, then can receive transmission based on fixedly saltus step pattern (for example, cyclic shift pattern) or pseudorandom saltus step pattern.For example, utilize HARQ, also can receive transmission in the evenly spaced time period.Subband in the first and second frequency fields can be determined based on broadcast message, signaling etc.

Figure 16 illustrates the design for the process 1600 that receives transmission.Device 1600 comprises: receiver module (module 1612), if transmission utilizes frequency selective scheduling to send, the subband of then selecting from least one subband in the first frequency zone of system bandwidth receives transmission; Receiver module (module 1614), if transmission utilizes frequency diversity scheduling to send, then a plurality of subbands across the second frequency zone of system bandwidth receive transmission.

Module among Figure 12,14 and 16 can comprise processor, electronic equipment, hardware device, electronic unit, logical circuit, memory etc., or above-mentioned any combination.

Figure 17 illustrates the block diagram of the design of Node B 110 and two

UE

120x and 120y, and Node B is in a plurality of Node B shown in Figure 1, and

UE

120x and 120y are two among a plurality of UE shown in Figure 1.In Node B 110, transmission (TX) data processor 1714 can receive business datum and/or receive signaling from controller/processor 1730 and scheduler 1734 from data source 1712.TX data processor 1714 can be processed (for example, encode, interweave, sign map) business datum and signaling, and data symbol and signaling symbols are provided respectively.Modulator (Mod) 1716 can carry out data and signaling symbols and frequency pilot sign multiplexing, multiplexed symbols (for example, the OFDM symbol) is modulated, and the output chip is provided.Transmitter (TMTR) 1718 can be processed (for example, converting simulation, amplification, filtering and up-conversion to) output chip and generating downlink signal, and described down link signal can be by antenna 1720 transmission.

At each UE 120, antenna 1752 can be from Node B 110 and other Node B receiving downlink signals.Receiver (RCVR) 1754 can be processed (for example, filtering, amplification, down-conversion and digitlization) from the reception signal of antenna 1752 and sampling is provided.Demodulator (Demod) 1756 can be carried out demodulation and sign estimation is provided sampling (for example, OFDM sampling).Receive (RX) data processor 1758 and can process (for example, symbol de-maps, deinterleaving and decoding) sign estimation, provide decoded data to data sink 1760, and provide after testing signaling to controller/processor 1770.Usually, complementary with the processing at the TX of Node B 110 data processor 1714 and modulator 1716 respectively with the processing of demodulator 1756 at the RX of each UE 120 data processor 1758.

On up link, TX data processor 1782 can be processed from the business datum of data source 1780 and/or come the signaling of self-controller/processor 1770, and respectively generated data symbol and signaling symbols.These symbols can be modulated and be processed with generating uplink signal by transmitter 1786 by modulator 1784, and described uplink signal can be by antenna 1752 transmission.In Node B 110, can be regulated by receiver 1740 by antenna 1720 receptions from the uplink signal of

UE

120x and 120y and other UE, carry out demodulation by demodulator 1742, processed by RX data processor 1744.Processor 1744 can provide decoded data to data sink 1746, provides after testing signaling to controller/processor 1730.

The operation of controller/processor 1730,1770x and 1770y difference management node B 110 and UE 120x and

120y.Memory

1732,1772x and 1772y can distinguish data and the program code of memory node B 110 and UE 120x and 120y.Scheduler 1734 can arrange a plurality of UE and Node B 110 to communicate.Scheduler 1734 and/or controller/processor 1730 can be identified the UE that will utilize the FDS scheduling and the UE that will utilize the FSS scheduling, and can be the Resource Block in the suitable subband of these UE distribution.Scheduler 1734 and/or controller/processor 1730 can be carried out process 1100, the process 1300 among Figure 13 among Figure 11 and/or go to other transmission courses of UE.Can carry out respectively process 1500 among Figure 15 and/or other process at the controller of

UE

120x and 120y/processor 1770x and 1770y, in order to be that these UE receive and/or send transmission.

The transmission technology that the application describes can realize in several ways.For example, these technology can with hardware, firmware, software or it be in conjunction with realizing.Realize for hardware, be used for to realize in one or more application-specific integrated circuit (ASIC)s (ASIC), digital signal processor (DSP), digital signal processing appts (DSPD), programmable logic device (PLD), field programmable gate array (FPGA), processor, controller, microcontroller, microprocessor, electronic equipment, other electronic unit that is used for the function of execution the application description, computer or its combination at the processing unit of entity (for example, Node B or UE) execution technique.

Realize for firmware and/or software, the technology among the application can realize with the module (for example, process, function etc.) of the function of carrying out the application's description.Firmware and/or software instruction can be stored in (for example,

memory

1732,1772x or 1772y among Figure 17) in the memory, and are carried out by processor (for example, processor 1730,1770x or 1770y).This memory can be realized in processor or realize outside processor.Firmware and/or software instruction also can be stored in other the processor readable medium, such as random access memory (RAM), read-only memory (ROM), nonvolatile RAM (NVRAM), programmable read only memory (PROM), Electrically Erasable Read Only Memory (EEPROM), flash memory, CD (CD), magnetic or optical data storage etc.

For making those of ordinary skills realize or to use the present invention, above the disclosed embodiments are described.To those skilled in the art, the various modifications of these embodiment all are apparent, and the general principles of the application's definition also can be applicable to other embodiment on the basis that does not break away from spirit of the present invention or protection range.Therefore, the present invention is not limited to the embodiment that the application provides, but consistent with the widest scope of the disclosed principle of the application and novel features.

Claims

1. device that is used for radio communication comprises:

The first module, being used for the first transmission map of first user be the subband of described first user selection at least one subband from the first frequency zone that is used for frequency selective scheduling;

The second module is used for the second transmission map of the second user a plurality of subbands across the second frequency zone that is used for frequency diversity scheduling, described first frequency zone and two the nonoverlapping parts of described second frequency zone corresponding to system bandwidth; And

The 3rd module is used for sending simultaneously described the first transmission and described the second transmission in a time interval.

2. device as claimed in claim 1, wherein, described the first module is used for: the different time intervals with the standing part of described the first transmission map to selected subband.

3. device as claimed in claim 1, wherein, described the first module is used for: carrying out frequency hopping at the subband of selecting for described first user, and the different piece that will described the first transmission map arrives selected subband in the different time intervals.

4. device as claimed in claim 1, wherein, each subband comprises a plurality of subcarriers, wherein, described the second module be used for the different time intervals with the different sub carrier collection of described the second transmission map to described a plurality of subbands.

5. device as claimed in claim 4, wherein, each time interval is corresponding to a symbol period or corresponding to the time slot that comprises a plurality of symbol periods or corresponding to a subframe that comprises a plurality of time slots.

6. device as claimed in claim 1, wherein, described the second module is used for: described the second user is carried out the sub-band levels frequency hopping, and the different time intervals with the different sub-band of described the second transmission map in the described second frequency zone.

7. device as claimed in claim 1, wherein, each subband comprises a plurality of Resource Block, wherein, described the second module is used for: described the second user is carried out Resource Block level frequency hopping, and the different time intervals with the different resource piece of described the second transmission map in the described second frequency zone.

8. device as claimed in claim 1, wherein, described the second module is used for: according to fixedly saltus step pattern or pseudorandom saltus step pattern frequency hopping across described a plurality of subbands is carried out in described the second transmission.

9. device as claimed in claim 1, wherein, the described a plurality of subbands in the described second frequency zone are non-adjacent.

10. device as claimed in claim 1, wherein, described the first module is used in the evenly spaced time period the first transmission map of described first user to selected subband.

11. device as claimed in claim 1, wherein, also comprise: be used for utilizing described the first transmission and described the second transmission to come the module of generating orthogonal frequency division multiplexing (OFDM) symbol, described the first transmission is mapped to the subband of selecting in described first frequency zone, described the second transmission is mapped to a plurality of subbands in the described second frequency zone.

12. a method that is used for radio communication comprises:

Be the subband of described first user selection with the first transmission map of first user at least one subband from the first frequency zone that is used for frequency selective scheduling;

With the second transmission map of the second user a plurality of subbands across the second frequency zone that is used for frequency diversity scheduling, described first frequency zone and two the nonoverlapping parts of described second frequency zone corresponding to system bandwidth;

And in a time interval, send simultaneously described the first transmission and described second and transmit.

13. such as the method for claim 12, wherein, shine upon described the first transmission and be included in the different time intervals with the standing part of described the first transmission map to selected subband.

14. such as the method for claim 12, wherein, shine upon described the first transmission and be included in the different time intervals with the different piece of described the first transmission map to selected subband.

15. such as the method for claim 12, wherein, each subband comprises a plurality of subcarriers, wherein, described the second transmission shone upon is included in the different time intervals with the different sub carrier collection of described the second transmission map in described a plurality of subbands.

16. such as the method for claim 15, wherein, each time interval is corresponding to a symbol period or corresponding to the time slot that comprises a plurality of symbol periods or corresponding to a subframe that comprises a plurality of time slots.

17. such as the method for claim 12, wherein, shine upon described the second transmission and be included in the different time intervals with the different sub-band of described the second transmission map in the described second frequency zone.

18. such as the method for claim 12, wherein, each subband comprises a plurality of Resource Block, wherein, shines upon described the second transmission and is included in the different time intervals with the different resource piece of described the second transmission map in the described second frequency zone.

19. the method such as claim 12 also comprises:

Transmit the frequency hopping of carrying out across described a plurality of subbands according to fixedly saltus step pattern or pseudorandom saltus step pattern to described second.

20. such as the method for claim 12, wherein, the described a plurality of subbands in the described second frequency zone are non-adjacent.

21. such as the method for claim 12, wherein, to described the first transmission shine upon be included in the evenly spaced time period with the first transmission map of described first user to selected subband.

22. the method such as claim 12 also comprises:

Utilize described the first transmission and described the second transmission to come generating orthogonal frequency division multiplexing (OFDM) symbol, described the first transmission is mapped to the subband of selecting in described first frequency zone, described the second transmission is mapped to a plurality of subbands in the described second frequency zone.

23. a device that is used for radio communication comprises:

The first transmission map module, being used for the first transmission map of first user be the subband of described first user selection at least one subband from the first frequency zone that is used for frequency selective scheduling;

The second transmission map module, be used for the second transmission map of the second user a plurality of subbands across the second frequency zone that is used for frequency diversity scheduling, described first frequency zone and two the nonoverlapping parts of described second frequency zone corresponding to system bandwidth; And

Sending module is used for sending simultaneously described the first transmission and described the second transmission in a time interval.

24. such as the device of claim 23, wherein, described the first transmission map module comprises: the module that is used in the different time intervals described the first transmission map being arrived the standing part of selected subband.

25. such as the device of claim 23, wherein, described the first transmission map module comprises: the module that is used in the different time intervals described the first transmission map being arrived the different piece of selected subband.

26. such as the device of claim 23, wherein, each subband comprises a plurality of subcarriers, wherein, described the second transmission map module comprise for the different time intervals with the module of described the second transmission map to the different sub carrier collection of described a plurality of subbands.

27. such as the device of claim 26, wherein, each time interval is corresponding to a symbol period or corresponding to the time slot that comprises a plurality of symbol periods or corresponding to a subframe that comprises a plurality of time slots.

28. such as the device of claim 23, wherein, described the second transmission map module comprises: be used for the different time intervals with the module of described the second transmission map to the different sub-band in described second frequency zone.

29. such as the device of claim 23, wherein, each subband comprises a plurality of Resource Block, wherein, described the second transmission map module comprises: be used for the different time intervals with the module of described the second transmission map to the different resource piece in described second frequency zone.

30. the device such as claim 23 also comprises:

Be used for transmitting the module of carrying out across the frequency hopping of described a plurality of subbands according to fixedly saltus step pattern or pseudorandom saltus step pattern to described second.

31. such as the device of claim 23, wherein, the described a plurality of subbands in the described second frequency zone are non-adjacent.

32. such as the device of claim 23, wherein, described the first transmission map module comprises for the module that the first transmission map of described first user is arrived selected subband in the evenly spaced time period.

33. the device such as claim 23 also comprises:

Be used for utilizing described the first transmission and described the second transmission to come the module of generating orthogonal frequency division multiplexing (OFDM) symbol, described the first transmission is mapped to the subband of selecting in described first frequency zone, described the second transmission is mapped to a plurality of subbands in the described second frequency zone.

34. a device that is used for radio communication comprises:

Be used for first group of user's transmission interweaved in the very first time and be mapped to module for first subband set with at least one subband of frequency selective scheduling; And

Be used for second group of user's transmission interweaved in the described very first time and be mapped to module for second subband set with a plurality of subbands of frequency diversity scheduling, each user among described first group of user is mapped to a subband in described the first subband set, each user among described second group of user is shone upon across a plurality of subbands in described the second subband set, described the second subband set comprises the subband that is not included in described the first subband set, and the described very first time interweaves and comprises the evenly spaced time period.

35. the device such as claim 34 also comprises:

Be used for transmission with the 3rd group of user in the second time-interleaved module that is mapped to the 3rd subband set with at least one subband; And

Be used for transmission with the 4th group of user in the described second time-interleaved module that is mapped to the 4th subband set with a plurality of subbands, each user among described the 3rd group of user is mapped to a subband in described the 3rd subband set, each user among described the 4th group of user is shone upon across a plurality of subbands in described the 4th subband set, described the 4th subband set comprises the subband that is not included in described the 3rd subband set, the described second time-interleaved evenly spaced time period that comprises during not being included in the described very first time interweaves.

36. the device such as claim 35, wherein, the described second time-interleaved described the 3rd subband set with at least one subband is different from described the first subband set with at least one subband that the described very first time interweaves, and wherein, the described second time-interleaved described the 4th subband set is different from described the second subband set that the described very first time interweaves.

37. the device such as claim 35 also comprises:

Be used for interweaving and the described second time-interleaved module of utilizing mixed automatic retransfer (HARQ) to send transmission to described first group of user and described the 3rd group of user in the described very first time respectively.

38. the device such as claim 34 also comprises:

Be used for according to frequency selective scheduling (FSS) user's business load and frequency diversity scheduling (FDS) user's business load, system bandwidth is divided into described the first subband set with at least one subband and the module with described second subband set of a plurality of subbands.

39. the device such as claim 34 also comprises:

Be used for transmission information, described information transmits described the first subband set that the described very first time interweaves and the module of described the second subband set.

40. the device such as claim 39, wherein, described information comprises the subband bit-masks, described subband bit-masks has a bit for each subband of a plurality of subbands, be set to first for the bit of each subband and be worth to represent this subband in described the first subband set, be set to second for the bit of each subband and be worth to represent that this subband is in described the second subband set.

41. the device such as claim 35 also comprises:

Be used for transmission information, described information transmits described the first subband set that the described very first time interweaves and the module of described the second subband set, wherein, the described second time-interleaved described the 3rd subband set and described the 4th subband set are based on that described the first subband set that the described very first time interweaves and described the second subband set determine.

42. a method that is used for radio communication comprises:

First group of user's transmission in interweaving, is mapped to the very first time the first subband set with at least one subband for frequency selective scheduling, each user among described first group of user is mapped to a subband in described the first subband set, and the described very first time interweaves and comprises the evenly spaced time period;

Second group of user's transmission in interweaving, is mapped to the described very first time the second subband set with a plurality of subbands for frequency diversity scheduling, each user's mapping among described second group of user is across a plurality of subbands in described the second subband set, and described the second subband set comprises the subband that is not included in described the first subband set.

43. the method such as claim 42 also comprises:

The 3rd group of user's transmission is mapped to the 3rd subband set with at least one subband second in time-interleaved, each user among described the 3rd group of user is mapped to a subband in described the 3rd subband set, the described second time-interleaved evenly spaced time period that comprises during not being included in the described very first time interweaves;

The 4th group of user's transmission is mapped to the 4th subband set with a plurality of subbands described second in time-interleaved, each user's mapping among described the 4th group of user is across a plurality of subbands in described the 4th subband set, and described the 4th subband set comprises the subband that is not included in described the 3rd subband set.

44. the method such as claim 43, wherein, the described second time-interleaved described the 3rd subband set with at least one subband is different from described the first subband set with at least one subband that the described very first time interweaves, and wherein, the described second time-interleaved described the 4th subband set is different from described the second subband set that the described very first time interweaves.

45. the method such as claim 43 also comprises:

Interweaving in the described very first time respectively utilizes mixed automatic retransfer (HARQ) to send transmission to described first group of user and described the 3rd group of user in time-interleaved with described second.

46. the method such as claim 42 also comprises:

According to frequency selective scheduling (FSS) user's business load and frequency diversity scheduling (FDS) user's business load, system bandwidth is divided into described the first subband set with at least one subband and described the second subband set with a plurality of subbands.

47. the method such as claim 42 also comprises:

Transmission information, described information transmit described the first subband set and described the second subband set that the described very first time interweaves.

48. the method such as claim 47, wherein, described information comprises the subband bit-masks, described subband bit-masks has a bit for each subband of a plurality of subbands, be set to first for the bit of each subband and be worth to represent this subband in described the first subband set, be set to second for the bit of each subband and be worth to represent that this subband is in described the second subband set.

49. the method such as claim 43 also comprises:

Transmission information, described information transmits described the first subband set and described the second subband set that the described very first time interweaves, wherein, the described second time-interleaved described the 3rd subband set and described the 4th subband set are based on that described the first subband set that the described very first time interweaves and described the second subband set determine.

50. a device that is used for radio communication comprises:

The first module is used for: if transmission utilizes frequency selective scheduling to send, then receive described transmission from the subband that is selected from at least one subband in the first frequency zone of frequency selective scheduling; And

The second module, be used for: if described transmission utilizes frequency diversity scheduling to send, then a plurality of subbands across the second frequency zone that is used for frequency diversity scheduling receive described transmission, described first frequency zone and two the nonoverlapping parts of described second frequency zone corresponding to system bandwidth, wherein, in a time interval, in described first frequency zone and described second frequency zone, send simultaneously a plurality of transmission to a plurality of users, and wherein, described transmission is a transmission in described a plurality of transmission.

51. such as the device of claim 50, wherein, described the first module is used for: if described transmission utilizes frequency selective scheduling to send, then receive described transmission in the different time intervals from the standing part of selected subband.

52. such as the device of claim 50, wherein, described the first module is used for: if described transmission utilizes frequency selective scheduling to send, then receive described transmission in the different time intervals from the different piece of selected subband.

53. such as the device of claim 50, wherein, described the second module is used for: if described transmission utilizes frequency diversity scheduling to send, then the different sub-band from described second frequency zone receives described transmission in the different time intervals.

54. the device such as claim 50, wherein, each subband comprises a plurality of Resource Block, wherein, described the second module is used for: if described transmission utilizes frequency diversity scheduling to send, then the different resource piece from described second frequency zone receives described transmission in the different time intervals.

55. such as the device of claim 50, wherein, described the second module is used for: receive described transmission based on fixedly saltus step pattern or pseudorandom saltus step pattern, described fixedly saltus step pattern or pseudorandom saltus step pattern utilize frequency hopping to send described transmission.

56. such as the device of claim 50, wherein, described the first module or described the second module are used for: utilize mixed automatic retransfer (HARQ) to receive described transmission in the evenly spaced time period.

57. such as the device of claim 50, wherein, described the first module and described the second module are used for: the subband of determining respectively described first frequency zone and described second frequency zone according to broadcast message.

58. a method that is used for radio communication comprises:

If transmission utilizes frequency selective scheduling to send, then receive described transmission from the subband that is selected from at least one subband in the first frequency zone of frequency selective scheduling; And

If described transmission utilizes frequency diversity scheduling to send, then a plurality of subbands across the second frequency zone that is used for frequency diversity scheduling receive described transmission, described first frequency zone and two the nonoverlapping parts of described second frequency zone corresponding to system bandwidth, wherein, in a time interval, in described first frequency zone and described second frequency zone, send simultaneously a plurality of transmission to a plurality of users, and wherein, described transmission is a transmission in described a plurality of transmission.

59. such as the method for claim 58, wherein, receive described transmission from selected subband and comprise: receive described transmission in the different time intervals from the standing part of selected subband.

60. such as the method for claim 58, wherein, receive described transmission from selected subband and comprise: receive described transmission in the different time intervals from the different piece of selected subband.

61. such as the method for claim 58, wherein, receive described transmission across a plurality of subbands and comprise: receive described transmission in the different time intervals from the different sub-band in described second frequency zone.

62. such as the method for claim 58, wherein, each subband comprises a plurality of Resource Block, wherein, receives described transmission across a plurality of subbands and comprises: receive described transmission in the different time intervals from the different resource piece in described second frequency zone.

63. the method such as claim 58 also comprises:

Receive described transmission based on fixedly saltus step pattern or pseudorandom saltus step pattern, described fixedly saltus step pattern or pseudorandom saltus step pattern utilize frequency hopping to send described transmission.

64. the method such as claim 58 also comprises:

Utilize mixed automatic retransfer (HARQ) to receive described transmission in the evenly spaced time period.

65. the method such as claim 58 also comprises:

Determine subband in described first frequency zone and the described second frequency zone according to broadcast message.

66. a device that is used for radio communication comprises:

Be used for receiving from selected subband the module of transmission, if transmission utilizes frequency selective scheduling to send, then receive described transmission from a subband that is selected from at least one subband in the first frequency zone of frequency selective scheduling; And

Be used for receiving across a plurality of subbands the module of transmission, if described transmission utilizes frequency diversity scheduling to send, then a plurality of subbands across the second frequency zone that is used for frequency diversity scheduling receive described transmission, described first frequency zone and two the nonoverlapping parts of described second frequency zone corresponding to system bandwidth, wherein, in a time interval, in described first frequency zone and described second frequency zone, send simultaneously a plurality of transmission to a plurality of users, and wherein, described transmission is a transmission in described a plurality of transmission.

67. such as the device of claim 66, wherein, described module for receive transmission from selected subband comprises: the module that is used for receiving from the standing part of selected subband in the different time intervals described transmission.

68. such as the device of claim 66, wherein, described module for receive transmission from selected subband comprises: the module that is used for receiving from the different piece of selected subband in the different time intervals described transmission.

69. such as the device of claim 66, wherein, described module for receive transmission across a plurality of subbands comprises: the module that is used for receiving across the different sub-band in described second frequency zone in the different time intervals described transmission.

70. the device such as claim 66, wherein, each subband comprises a plurality of Resource Block, and wherein, described module for receive transmission across a plurality of subbands comprises: the module that is used for receiving from the different resource piece in described second frequency zone in the different time intervals described transmission.

71. the device such as claim 66 also comprises:

Be used for receiving based on fixedly saltus step pattern or pseudorandom saltus step pattern the module of described transmission, described fixedly saltus step pattern or pseudorandom saltus step pattern utilize frequency hopping to send described transmission.

72. the device such as claim 66 also comprises:

Be used for utilizing mixed automatic retransfer (HARQ) to receive the module of described transmission in the evenly spaced time period.

73. the device such as claim 66 also comprises:

Be used for determining according to broadcast message the module of the subband in described first frequency zone and described second frequency zone.