CN101578902B - Control resource mapping for a wireless communication system - Google Patents

Control resource mapping for a wireless communication system Download PDF

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CN101578902B
CN101578902B CN2008800017344A CN200880001734A CN101578902B CN 101578902 B CN101578902 B CN 101578902B CN 2008800017344 A CN2008800017344 A CN 2008800017344A CN 200880001734 A CN200880001734 A CN 200880001734A CN 101578902 B CN101578902 B CN 101578902B
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tile
transmission unit
control
index
flcs
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CN101578902A (en
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A·坎得卡尔
A·格洛科夫
N·布杉
S·萨卡
R·帕兰基
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Qualcomm Inc
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Qualcomm Inc
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Abstract

Techniques for sending control information in a wireless communication system are described. A control segment may include L>=1 tiles, and each tile may include a number of transmission units. A number of control resources may be defined and mapped to the transmission units for the control segment. For symmetric mapping, multiple sets of S>=1 control resources may be formed, and each batch of L consecutive sets of S control resources may be mapped to S transmission units at the same location in the L tiles. For localized mapping, S>1, and each set of S control resources may be mapped to a cluster of S adjacent transmission units in one tile. For distributed mapping, S=1, and each control resource may be mapped to one transmission unit in one tile. For diversity, each control resource may be mapped to multiple (e.g., three) transmission units in at least one tile.

Description

Be used for the control resource mapping of wireless communication system
Present patent application requires the interim U. S. application S/N.60/883 that is entitled as " METHOD ANDAPPARATUS FOR UTILIZING OTHER SECTOR INTERFERENCE (OSI) INDICATION (being used to utilize the method and apparatus of other sector interference (OSI) indication) " of submission on January 4th, 2007; The interim U. S. application S/N.60/883 that is entitled as " WIRELESSCOMMUNICATION SYSTEM (wireless communication system) " that on January 5th, 387 and 2007 submitted to; 758 priority, the two is all transferred this assignee and is incorporated into this through quoting.
Background
I. field
The disclosure relates generally to communication, relates in particular to the technology that sends control information at wireless communication system of being used for.
II. background
Wireless communication system is used to provide such as various communication services such as voice, video, grouped data, information receiving, broadcasting by widespread deployment.These wireless systems can be to support a plurality of users' multi-address system through sharing free system resources.The example of this type of multi-address system comprises code division multiple access (CDMA) system, time division multiple access (TDMA) system, frequency division multiple access (FDMA) system, quadrature FDMA (OFDMA) system and Single Carrier Frequency Division Multiple Access (SC-FDMA) system.
Wireless communication system can comprise the many base stations that can support to communicate by letter in many terminals on forward direction and reverse link.Forward link (or down link) refers to the communication link from the base station to the terminal, and reverse link (or up link) refers to the communication link from terminal to base station.System's various control channels capable of using are supported the transfer of data on forward link and the reverse link.For example, but the base station communicating control information confirms to be received from the grouping, the working condition on the informing base station of terminal at terminal etc. with to the terminal assign resources.Although it is useful being sent control information by the base station, in system, also representing expense.
Therefore, need be used for the technology that efficiently sends control information at wireless communication system in this area.
General introduction
This paper has described and has been used for controlling the technology that resource sends control information wireless communication system utilization.Control section can be used to send different control channels and can comprise L tile, wherein L >=1.Each tile can comprise a plurality of transmission units, and each transmission unit can be corresponding to a subcarrier in (for example, can be mapped to) code-element period.Definable is corresponding to a plurality of control resources of control section, and can it be assigned and give control channel and be used to send control information.
In one aspect, a plurality of control resources can be reached the scalability of control section, the branch collection of each control resource, symmetrical mapping that a plurality of control resource is striden L tile, the localization mapping of control resource collection, continuous control distribution of resource formula is shone upon or the mode of any combination of these characteristics is mapped to the transmission unit of control section.In a kind of design of symmetrical mapping, a plurality of S that can form corresponding a plurality of control resources control resource collection, wherein S >=1.Every batch L continuous S control resource collection can be mapped to S the transmission unit at same position place in L the tile.In a kind of design of the mapping that localizes, S>1, and each S control resource collection can be mapped in the tile S and adjoins transmission unit and troop.In a kind of design of distributed mapping, S=1, and the successive control resource can be mapped to different tiles.A kind of can be used for localizing with the mapping of distributed mapping design in; Can travel through a plurality of S control resource collections; Wherein S>1, and each S is controlled resource collection and can be mapped to via cycling through L S transmission unit in the determined tile of tile.Preceding S control resource can be mapped to tile 0, and following S control resource can be mapped to tile 1, or the like.Compromise can the acquisition between localization and the branch collection through choosing suitable S value.In a kind of design that divides collection, each control resource can be mapped to a plurality of (for example, three) transmission unit on the diverse location of at least one tile to obtain the branch collection of control resource.
In a kind of design, can confirm tile index h and the transmission unit index r of control resource index R based on mapping scheme.Index is that the control resource of R can be mapped to that index is the transmission unit of r in the tile that index is h.Control information can send and receive via the control resource.
On the other hand; The transmission unit that can be used for given control channel can be confirmed in the middle of all transmission units of control section; And can get rid of the transmission unit (transmission unit that for example, is used for pilot tone, other control channels and/or other transmission) that is not useable for control channel.A plurality of groupings can be sent on the control channel of control section.Each grouping can be mapped to different transmission unit set, and these transmission unit set can be striden the transmission unit that can be used for control channel and distributed.In a kind of design, can travel through a plurality of transmission units in each tile, and each transmission unit can be assigned to a grouping via cycling through a plurality of groupings.Each grouping can be gathered via transmission unit and sent.
In following this public various aspects and characteristic that described in further detail.
The accompanying drawing summary
Fig. 1 shows wireless communication system.
Fig. 2 shows superframe structure.
Fig. 3 shows tile structure.
Fig. 4 shows forward link (FL) control section (FLCS).
Fig. 5 shows three tile sections of FLCS tile.
Fig. 6 shows the mapping of FLCS resource to three transmission unit.
Fig. 7 shows the localization mapping of FLCS resource.
Fig. 8 shows the FLCS tile with available transmission unit.
Fig. 9 shows the another kind mapping of FLCS resource to three transmission unit.
Figure 10 shows the mapping of FLCS distribution of resource formula.
Figure 11 shows the mapping of dividing into groups to transmission unit.
Figure 12 shows the process that is used to pass on control information.
Figure 13 shows the equipment that is used to pass on control information.
Figure 14 shows and is used to exchange the process that control is divided into groups.
Figure 15 shows and is used to exchange the equipment that control is divided into groups.
Figure 16 illustrates the block diagram at base station and terminal.
Describe in detail
Technology described herein can be used for various wireless communication systems, such as CDMA, TDMA, FDMA, OFDMA and SC-FDMA system.Term " system " and " network " are often used interchangeably.Cdma system can be realized inserting radiotechnicss such as (UTRA) such as cdma2000, universal terrestrial radio electricity.The OFDMA system can realize radiotechnics, such as Ultra-Mobile Broadband (UMB), evolution UTRA (E-UTRA), IEEE 802.16, IEEE 802.20, Flash (flash)
Figure G2008800017344D00031
etc.UTRA and E-UTRA describe in the document from " third generation partnership projects " tissue (3GPP) by name.Cdma2000 and UMB are described in the document from " third generation partnership projects 2 " tissue (3GPP2) by name.Radiotechnics that these are different and standard are known in the art.For brevity, below these technological particular aspects are described, and in following most description, used the UMB term to UMB.UMB was described in being entitled as in " Physical Layer for Ultra Mobile Broadband (UMB) Air Interface Specification (the physical-layer air interfaces standard of Ultra-Mobile Broadband (UMB)) " of 3GPP2 C.S0084-001 in obtainable in August, 2007 of the public.
Fig. 1 shows the wireless communication system 100 that also can be described as access network (AN).System 100 can comprise a plurality of base stations 110.The base station is the station that communicates with the terminal and also can be called as access point, B node, evolved B node etc.Each base station provides the communication to specific geographic area 102 to cover.Term " cellular cell " depends on that the context that uses this term can refer to base station and/or its overlay area.For increasing power system capacity, can base station coverage area be divided into a plurality of littler zones, for example three smaller area territory 104a, 104b and 104c.Each littler zone can be served by the corresponding base station subsystem.Term " sector " can refer to the minimum area of coverage of base station and/or serve the base station sub-system of this area of coverage.
Terminal 120 may be interspersed among the system, and each terminal can be static or mobile.The terminal also can be described as access terminal (AT), mobile radio station, subscriber's installation, subscriber unit, stands etc.The terminal can be cell phone, PDA(Personal Digital Assistant), Wireless Telecom Equipment, radio modem, portable equipment, laptop computer, cordless telephone etc.The terminal can be at any given time at forward direction and/or reverse link and zero, one or more base station communication.
For centralized architecture, system controller 130 can be coupled to all base stations 110 and coordination and the control to these base stations is provided.System controller 130 can be the set of single network entity or network entity.For distributed structure/architecture, the base station can communicate with one another as required.
Fig. 2 shows the design of the superframe structure 200 that can be used for forward link.It is unit that the transmission time line can be divided into the superframe.Each superframe is across the specific duration, and this duration can be that fix or configurable.Each superframe can comprise the preamble of following Q physical layer (PHY) frame thereafter, and wherein Q can be any integer value.In a kind of design, each superframe comprises that index is 25 PHY frames of 0 to 24.Superframe preamble portability system information and acquisition pilot.Each PHY frame portability traffic data, control information/signaling, pilot tone etc.
Running time-frequency resource in each PHY frame can be divided into all tiles.Tile also can be described as time-frequency piece, Resource Block etc.It can be fixing or configurable specific time-frequency dimension that tile can cover.In a kind of design, tile comprises physical resource, the subcarrier block in for example one or more code-element periods.In the another kind design, tile comprises the logical resource that can be mapped to physical resource based on any mapping.In a kind of design, system bandwidth can use orthogonal frequency division multiplexed (OFDM) to be divided into a plurality of (K) quadrature subcarrier.A definable K hop-ports also can map to K subcarrier with it based on known mapping.Can be based on perhaps subcarrier (it is a physical resource) or hop-ports (it is a logical resource) define tile.
Fig. 3 shows the design of tile 300.In this design, each PHY frame covers 8 OFDM code-element periods, and 16 hop-ports that tile 300 covers in 8 OFDM code-element periods, and comprise 128 transmission units.16 hop-ports of tile can be mapped to 16 continuous subcarriers or map to strides 16 subcarriers that whole or most of system bandwidths distribute.Transmission unit can be corresponding to a subcarrier in the OFDM code-element period, and can be used to send a code element, and the latter can be real number value or complex values.Transmission unit also can be described as subcarrier symbol, resource element etc.Pilot frequency code element can send on some transmission units in tile, and other code element can be sent on all the other transmission units in tile.In the design shown in Fig. 3, tile comprises 18 transmission units that are used for pilot frequency code element and 110 transmission units that are used for other code elements.
Look back Fig. 2, each PHY frame can comprise that index is 0 to T-1 T tile, and wherein T can exist with ... system bandwidth.16 hop-ports in each tile can be mapped to the subcarrier of continuous subcarrier or the wide distribution of interdepartmental regiment commander.
System's one group of control channel capable of using sends on the forward link dissimilar control informations.Table 1 has been listed the control channel of one group of example, and the summary to each control channel is provided.These control channels are described in detail in aforesaid 3GPP2 C.S0084-001.
Table 1
Code element Channel Describe
F-ACKCH The forward direction acknowledgement channel Carry affirmation bit to the grouping that on reverse link, receives.
F-SPCH Forward packet begins channel Carry and newly divide into groups to begin and/or control the grouping that permanent resource assigns in order to signaling and begin indication
F-RABCH Forward direction reverse activity property bit channel Carry indication to the load on of the CDMA on the reverse link section.
F-PQICH The forward pilot channel quality indicator The reverse-link pilot frequency that carried terminal sends on reverse link receive pilot frequency intensity
F-FOSICH Forward direction is other sector interference channel fast Carry the indication that sector place is observed from the interference level at the terminal of other sectors
F-IOTCH Forward direction interference heat is made an uproar and is compared channel Carry the indication of the interference level that the place, sector is observed
F-PCCH The forward power control channel Carry power control command in order to the transmitting power of regulating the terminal.
F-SCCH Forward shared control channel Carry and insert permission, resource assignment and other control informations relevant with resource management.
In a kind of design, can in the FL control section in each PHY frame, send these control channels.The FL control section can comprise enough stock numbers, and for example, enough tile numbers are to carry the control information of all control channels.
Fig. 4 shows the design of FL control section 400.In this design, the FL control section comprises that common segment and zero or index are more a plurality of (K) link assignment piece (LAB) section of 0 to K-1.In the following description, word " index is the element of x " and " element x " are used interchangeably, and wherein element can refer to any amount.Common segment can comprise that index is 0 to L the FLCS tile of L-1, wherein L >=1 and can be configurable value.The FLCS tile is the tile that is used to the FL control section.K LAB section can comprise 3K FLCS tile, and each LAB section comprises three continuous FLCS tiles, as shown in Figure 4.Also can otherwise define the FL control section.In a kind of design, common segment carry in the table 1 maybe be except that F-SCCH all control channels.If there is the LAB section, then F-SCCH can send in K LAB section, otherwise can in common segment, send.
In a kind of design, common segment can be divided into N FLCSIndividual FLCS resource, wherein N FLCSCan exist with ... the number of the FLCS tile that is used for common segment and other possible factors.The FLCS resource is to simplify the logical resource of the distribution and the use of common segment.The FLCS resource can map to the transmission unit in the common segment in every way.Resource mapping can make common segment can realize following one or more:
Scalability-regardless of the number of FLCS tile, the mapping of the transmission unit in FLCS resource to L the FLCS tile all should be easy to convergent-divergent,
Divide collection-each FLCS resource can be mapped to the branch collection of a plurality of transmission units with realization FLCS resource,
S the FLCS resource that symmetrical mapping-L is continuous be integrated into another position that moves to the FLCS tile before can be mapped to L the same position in the continuous FLCS tile, S >=1 wherein,
The set of localization mapping-many FLCS resource can be mapped to FLCS interior adjoin transmission unit observing similar channel response,
Distributed mapping-the FLCS resource can be mapped to different FLCS tiles with observation randomization channel response continuously, and
Forbidding area-FLCS resource can be mapped to the available transmission unit, and avoids being mapped to the intrazonal unavailable transmission unit of forbidding.
Can be as follows reach above characteristic with describing.
In a kind of design, can obtain three diversity orders through three transmission units that each FLCS resource mapped at the most in three different FLCS tiles.Also can obtain other diversity orders (for example, 2,4 etc.) through the transmission unit that each FLCS resource is mapped to different numbers.For the purpose of clear, the major part supposition FLCS resource of below describing is mapped to and obtains three diversity orders.
In a FLCS resource mapping scheme, the FLCS resource is mapped to the transmission unit in the common segment with the mode of reaching scalability, three diversity orders and localization mapping.The one FLCS resource mapping scheme also can be called as piece channel resource (BRCH) mapping scheme.
For a FLCS resource mapping scheme, that kind that each FLCS tile can be as shown in Figure 3, and can comprise 110 transmission units that can be used for sending control information.If common segment comprises L FLCS tile as shown in Figure 4, the sum that then is used for the FLCS resource of common segment can be given as:
Figure G2008800017344D00071
formula (1)
Wherein
Figure G2008800017344D00072
expression rounds (floor) operator downwards.N FLCSIndividual FLCS resource can be assigned 0 to N FLCS-1 index.
Fig. 5 shows the design of the FLCS tile of three diversity orders that can be used for supporting a FLCS resource mapping scheme.In this design, the FLCS tile is divided into three tile sections 0,1 and 2.Each tile section comprises 36 transmission units that the FLCS resource can be mapped to.36 transmission units in each tile section can be assigned index 0 to 35 based on predetermined mapping.In the design shown in Fig. 5; Transmission unit 0 in time period 0 occupies the hop-ports 2 in the OFDM code-element period 0; Transmission unit 0 in time period 1 occupies the hop-ports 4 in the OFDM code-element period 6, and the transmission unit 0 in the time period 2 occupies the hop-ports 6 in the OFDM code-element period 0.Other 35 transmission units in each time period have been shown among Fig. 5.
Fig. 6 shows the mapping in order to FLCS resource to three transmission unit of three diversity orders of reaching a FLCS resource mapping scheme.In this design, index is that the FLCS resource of R is mapped to three transmission units that index in all three tile sections 0,1 and 2 of three continuous FLCS tiles at the most is all r.Map unit 610 can receive the index R of FLCS resource and can confirm that (i) is used for the index h and the (ii) index r of the transmission unit that is mapped to of FLCS resource of a FLCS tile of FLCS resource.FLCS resource R can be mapped to the transmission unit r in the tile section 2 of transmission unit r and FLCS tile h+2 of tile section 1 of transmission unit r in the tile section 0 of FLCS tile h, FLCS tile h+1 subsequently.For the purpose of clear, Fig. 6 shows three continuous FLCS tiles that are used to FLCS resource R.Three FLCS tiles also can be reeled like following description ground.
In the design shown in Fig. 6, when L >=3, three diversity orders are to reach through three transmission units that the FLCS resource mapped in three different FLCS tiles.In addition, the FLCS resource is mapped to three different tile sections in three FLCS tiles, and occupies the different time-frequencies position in three FLCS tiles thus.FLCS may observe frequency diversity (owing to mapping to three different hop-ports) and time diversity (owing to mapping to different OFDM code elements).
Regardless of the number of the FLCS tile that is used for common segment, the design shown in Fig. 6 all can be reached three diversity orders.If L=1, then the FLCS resource is mapped to three transmission units in three tile sections 0,1 and 2 of a FLCS tile.If L=2, then the FLCS resource be mapped to a FLCS tile tile section 0 and 2 and the tile section 1 of another FLCS tile in three transmission units.If L >=3, then the FLCS resource is mapped to three transmission units in the tile section 0,1 and 2 of three FLCS tiles.
In a kind of design, localization mapping can be trooped and reaches through four continuous FLCS resources being mapped to 2 * 2 of four transmission units.Look back Fig. 5; Four of can be mapped in three tile sections of four continuous FLCS resources adjoin transmission unit 0 to 3; Four of can be mapped in three tile sections of following four continuous FLCS resources adjoin transmission unit 4 to 7, and four of can be mapped in three tile sections of following again four continuous FLCS resources adjoin transmission unit 8 to 11 or the like.It is static relatively that radio channel response can be presumed to be on the trooping of per four transmission units.The value of control channel can be sent in four continuous FLCS resources, and can be mapped to each tile Duan Zhongsi subsequently and adjoin trooping of transmission unit.This value will be observed each constant relatively channel response of trooping subsequently, and this can promote demodulation performance.Transmission unit 32 to 35 is 1 * 2 modes of trooping, so that utilize all the other transmission units in the FLCS tile.Localization mapping also can be corresponding to other cluster size and shape---for example 2 * 3 troop, 3 * 3 troop etc.---carries out.
For a FLCS resource mapping scheme, FLCS resource R can map to three transmission units according to following program.
1. define
Figure G2008800017344D00091
formula (2)
2. define
Figure G2008800017344D00092
formula (3)
3. for k={0,1,2}
A. order p k = F P k ( r 1 ) , F wherein P k() is the hop-ports mapping function of tile section k.
B. order t k = F S k ( r 1 ) , F wherein S k() is the OFDM symbol mapped function of tile section k.
C. make h k=(h+k) mod L.Formula (4)
D. index is h kThe FLCS tile in index be t kThe OFDM code element in index be p kHop-ports be assigned to the FLCS resource that index is R.
More than design has some desired features, and this will be described in detail following.
For the purpose of clear, in the description of this paper, use following term." traversal " refers to the experience element set only once, and for example, first element from set is to a last element." cycle through " and refer to the experience element set repeatedly, for example, first element from set is to a last element at every turn.
Fig. 7 diagram the FLCS resource of a corresponding FLCS resource mapping scheme to the mapping of different initial FLCS tiles.Formula (2) cycles through the N that is used for common segment FLCSIndividual FLCS resource, and each four FLCS resource collection mapped to corresponding initial FLCS tile, and from 0 beginning of FLCS tile and the FLCS tile 0 of after arriving FLCS tile L-1, reeling back.For a 4L FLCS resource, FLCS resource 0 to 3 is mapped to initial FLCS tile 0, and FLCS resource 4 to 7 is mapped to initial FLCS tile 1, and the like, and FLCS resource 4L-4 is mapped to initial FLCS tile L-1 to 4L-1.For following 4L FLCS resource, FLCS resource 4L is mapped to initial FLCS tile 0 to 4L+3, and FLCS resource 4L+4 is mapped to initial FLCS tile 1 to 4L+7, and the like, and FLCS resource 8L-4 is mapped to initial FLCS tile L-1 to 8L-1.Mapping is proceeded to be mapped to the initial FCLS tile of just fitting until all FLCS resources.The FLCS resource serves as that set is shone upon (except that last 6L the FLCS resource that is mapped to transmission unit 32 to 35) by mapping with the localization of reaching each four FLCS resource collection with four.Mapping among Fig. 7 is symmetrical; Because L four continuous FLCS resource collections are mapped to four identical in L FLCS tile transmission units and troop; And another four transmission unit that descends L four FLCS resource collections to be mapped in L the FLCS tile is subsequently trooped, or the like.
Fig. 7 also shows the mapping of each four FLCS resource collection of a corresponding FLCS resource mapping scheme to transmission unit.For each FLCS tile; Formula (3) maps to transmission unit 0 to 3 with the one or four FLCS resource collection in the FLCS tile; The two or four FLCS resource collection is mapped to transmission unit 4 to 7, and last four FLCS resource collections are mapped to transmission unit 32 to 35 (not shown in Fig. 7).
It is h that each FLCS resource is mapped to index 0, h 1And h 2Three tile sections 0,1 and 2 of three different FLCS tiles at the most of---it is suc as formula such calculating shown in (4)---.h 0Equal the initial FLCS tile index h that formula (2) is provided.h 1And h 2Corresponding to following two FLCS tiles, these two index possibly reel back 0 because of mod L calculates after reaching L-1.If L=2, then h 2Can equal h, and if L=1, then h 1And h 2Can equal h.
Each FLCS resource is mapped to three transmission units that have same index r in three tile sections 0,1 and 2.For each tile section k---wherein k ∈ 0,1,2}, function F P k() provides the hop-ports p of transmission unit r k, and function F S k() provides the OFDM code-element period t of transmission unit r kFunction F corresponding to tile section 0 P 0() and F S 0() can be confirmed the function F of corresponding tile section 1 according to the left tile fragment among Fig. 5 P 1() and F S 1() can be confirmed according to middle tile section, and the function F of corresponding tile section 2 P 2() and F S 2() can be confirmed according to the right tile fragment.For design described above, FLCS resource R is mapped to (i) FLCS tile h 0The OFDM code-element period t of middle tile section 0 0In hop-ports p 0On transmission unit r, (ii) FLCS tile h 1The OFDM code-element period t of middle tile section 1 1In hop-ports p 1On transmission unit r and (iii) FLCS tile h 2The OFDM code-element period t of middle tile section 2 2In hop-ports p 2On transmission unit r.
In the 2nd FLCS resource mapping scheme, the mode that the FLCS resource can be reached scalability, three diversity orders and avoid forbidding the area is mapped to the transmission unit in the common segment.The 2nd FLCS resource mapping scheme also can be called as distributed resource channel (DRCH) mapping scheme.
Fig. 8 shows the design of the FLCS tile that can be used for the 2nd FLCS resource mapping scheme.In this design, drop in the forbidding area and the transmission unit that is not useable for the FLCS resource is marked as " X ".Unavailable transmission unit can be used for such as channels such as forward direction CPICH Common Pilot Channel, forward direction beacon pilot frequency channels.Not can be used for the FLCS resource at the intrazonal transmission unit of forbidding.The number N of available transmission unit AVAILExist with ... the sum of transmission unit in the FLCS tile and the number of unavailable transmission unit.The available transmission unit can be assigned the uniqueness index, and this index starts from 0 corresponding to transmission unit in the lower left corner of FLCS tile and with N AVAIL-1 finishes corresponding to the transmission unit in the upper right corner.In the example shown in Fig. 8, the FLCS tile comprises that 38 unavailable transmission units and index are 90 available transmission unit of 0 to 89.
For the 2nd FLCS resource mapping scheme, the sum of the FLCS resource of common segment can be given as:
Figure G2008800017344D00111
formula (5)
N FLCSIndividual FLCS resource can be assigned 0 to N FLCS-1 index.The number M of the FLCS resource of every FLCS tile can be given as:
Figure G2008800017344D00112
formula (6)
Fig. 9 shows the mapping in order to FLCS resource to three transmission unit of three diversity orders of reaching the 2nd FLCS resource mapping scheme.In this design, index is that the FLCS resource of R is mapped at the most three transmission units in three continuous FLCS tiles.Map unit 910 can receive the index R of FLCS resource and can confirm that (i) is used for the index h and the (ii) index r of the transmission unit that is mapped to of a FLCS tile FLCS resource of a FLCS tile of FLCS resource.FLCS resource R can be mapped to transmission unit r, the transmission unit r+M among the FLCS tile h+1 and the transmission unit r+2M among the FLCS tile h+2 among the FLCS tile h subsequently.For the purpose of clear, Fig. 9 shows three continuous FLCS tiles that are used for FLCS resource R.Three FLCS tiles also can be reeled like following description ground.
In the design shown in Fig. 9, when L >=3, three diversity orders are to reach through three different transmission units that the FLCS resource mapped in three different FLCS tiles.When one or two FLCS tile is used to common segment, also can reach three diversity orders.
For the 2nd FLCS resource mapping scheme, FLCS resource R can be mapped to three transmission units according to following program.
1. define h=R mod L.Formula (7)
2. define formula (8)
3. for k={0,1,2}
A. make
Figure G2008800017344D00114
formula (9)
B. make h k=(h+k) mod L.Formula (10)
C. index is h kThe FLCS tile in index be r kTransmission unit be assigned to the FLCS resource that index is R.
Figure 10 diagram the FLCS resource of corresponding the 2nd FLCS resource mapping scheme to the mapping of different initial FLCS tiles.Formula (7) cycles through the N of common segment FLCSIndividual FLCS resource, and each FLCS resource mapped to corresponding initial FLCS tile, and from 0 beginning of FLCS tile and the FLCS tile 0 of after arriving FLCS tile L-1, reeling back.For a L FLCS resource, FLCS resource 0 to L-1 is mapped to initial FLCS tile 0 to L-1 respectively.For following L FLCS resource, FLCS resource L is mapped to initial FLCS tile 0 to L-1 respectively to 2L-1.Mapping is proceeded to be mapped to the initial FCLS tile of just fitting until all FLCS resources.Mapping among Figure 10 is symmetric, because L continuous FLCS resource is mapped to identical transmission unit in L the FLCS tile, and descends L FLCS resource to be mapped to another transmission unit in L the FLCS tile subsequently, or the like.
Figure 10 also shows the mapping of each FLCS resource of corresponding the 2nd FLCS resource mapping scheme to transmission unit.For each FLCS tile, formula (8) maps to the FLCS resource in the FLCS tile transmission unit 0, the 2nd FLCS resource is mapped to transmission unit 1, and the like.
It is h that each FLCS resource can be mapped to index 0, h 1And h 2Three different FLCS tiles at the most in index be r 0, r 1And r 2Three different transmission units, these index are to calculate suc as formula that kind shown in (9) and (10).h 0Equal the initial FLCS tile index h that formula (7) is provided.h 1And h 2Corresponding to following two FLCS tiles, these two index can reel back 0 because of mod L operation after reaching L-1.r 0Equal the transmission unit index r that formula (8) is provided.If L=2, then h 2Can equal h, and if L=1, then h 1And h 2Can equal h.r 1Equal r+M, and r 2Equal r+2M.FLCS resource R is mapped to FLCS tile h 0In transmission unit r 0, FLCS tile h 1In transmission unit r 1, and FLCS tile h 2In transmission unit r 2
For the 2nd FLCS resource mapping scheme, transmission unit 0 to M-1 can be considered to belong to tile section 0, and transmission unit M can be considered to belong to tile section 1 to 2M-1, and transmission unit 2M can be considered to belong to tile section 3 to 3M-1.Each tile section can comprise M transmission unit.The 2nd FLCS resource mapping scheme can be similar to a FLCS resource mapping scheme, though three tile sections have different F H k() and F S k() mapping function.
System can only support a FLCS resource mapping scheme, only support the 2nd FLCS resource mapping scheme or this two kinds of mapping schemes.If support this two kinds of mapping schemes, then can selecting perhaps, the first or the 2nd FLCS resource mapping scheme uses.For example, can parameter UseDRCHForFLC be made as 0 to select a FLCS resource scheme or to be made as 1 to select the 2nd FLCS resource mapping scheme.
Below about common segment two kinds of FLCS resource mapping schemes have been described.The FLCS resource can otherwise map to the available transmission unit in L the FLCS tile of common segment based on other FLCS resource mapping schemes.
Control channel in the table 1 can send on common segment in every way.The number of assigning the FLCS resource of giving each control channel can be existed with ... the amount of the control information that will on this control channel, send and the mode of sending this control information.In a kind of design, the control channel of the first seven in the table 1 is sequentially assigned the FLCS resource.Table 2 shows and is used for the design of giving seven control channels is assigned on FLCS resource sequence ground.
Table 2
Figure G2008800017344D00131
In a kind of design, can on F-ACKCH, send N aIndividual ACK value, wherein N a>=0, and can in the set of four FLCS resources, be sent to many four ACK values.Can be each ACK value and generate 12 sequence of symhols, and be denoted as { Z 00, Z 01, Z 02, Z 10, Z 11, Z 12, Z 20, Z 21, Z 22, Z 30, Z 31, Z 32, Z wherein IjIt is the code element that on the FLCS resource i in j the FLCS tile, to send.Can generate sequence of symhols based on ACK value, the sector marker (ID) and medium access control (MAC) ID of receiving side terminal that send the sector of ACK value.Four 4 chip orthogonal sequences (for example, four of 4 * 4DFT matrix row) can be used to four ACK values can on identical FLCS resource collection, sending simultaneously.The sequence of symhols of each ACK value can generate based on the orthogonal sequence of this ACK value.For each ACK value, each four code element Z 0j, Z 1j, Z 2jAnd Z 3jSet can generate based on the orthogonal sequence of this ACK and in a FLCS tile j four adjoin on the transmission unit and send.
In a kind of design, can on F-SPCH, send N bIndividual grouping begins (SP) value, wherein N b>=0, and can in the set of four FLCS resources, be sent to many four SP values.Can generate 12 sequence of symhols based on each SP value and sector ID for this SP value with the similar mode of ACK value.Four 4 chip orthogonal sequences can be used for four the SP values at the most that can on four identical FLCS resource collections, send simultaneously.
In a kind of design, can on F-RABCH, send N cIndividual reverse activity property bit (RAB) value, wherein N c>=0, and each RAB value can be sent in two FLCS resources.Can generate 6 sequence of symhols { c for this RAB value based on each RAB value and sector ID 0, c 1, c 2, c 3, c 4, c 5.This sequence of symhols can send on six transmission units of two FLCS resources.
In a kind of design, can on F-PQIC, send N dIndividual PQI report, wherein N d>=0, and each PQI report can be sent in two FLCS resources.PQI report can comprise 4 bit PQI values, and can be encoded based on the MAC ID of this PQI value, sector ID and receiving side terminal and map to 6 sequence of symhols { c 0, c 1, c 2, c 3, c 4, c 5.The sequence of symhols of each PQI report can send on six transmission units of two FLCS resources.
In a kind of design, can on F-FOSICH, send N eIndividual quick OSI report, wherein N e>=0, and each quick OSI report can be sent in two FLCS resources.Fast the OSI report can comprise 4 quick OSI values, and can be encoded and map to 6 sequence of symhols { c based on this quick OSI value and sector ID 0, c 1, c 2, c 3, c 4, c 5.The sequence of symhols of each quick OSI report can send on six transmission units of two FLCS resources.In order to reduce transmitting power, the quick OSI value ' 0000 ' that most probable will be sent out can be had the sequence of symhols of null value by mapping value.
In a kind of design, can on F-FIOTCH, send N fIndividual interference heat is made an uproar than (IOT) report, wherein N f>=0, and each IOT report can be sent in two FLCS resources.IOT report can comprise 4 bit IOT values, and can be encoded and map to 6 sequence of symhols { c based on this IOT value and sector ID 0, c 1, c 2, c 3, c 4, c 5.The sequence of symhols of each IOT report can send on six transmission units of two FLCS resources.
In a kind of design, can on F-PCCH, send N gIndividual power control (PC) bit, wherein N g>=0, and three PC bits can send on a FLCS resource at the most.Can be that this PC bit generates code element based on each PC bit and sector ID.Three code elements at the most that correspond to many three PC bits can be sent on three transmission units of a FLCS resource.
Table 2 shows the particular design that is used for the FLCS resource assignment is given control channel.In this design, can at first be assigned with the FLCS resource such as the control channel that shines upon that benefits to localize such as F-ACKCH and F-SPCH.These FLCS resources are mapped to adjoins transmission unit.Be not assigned with the FLCS resource at last such as F-PCCH etc. from the control channel that the localization mapping benefits.These FLCS resources can be mapped to the transmission unit 32 to 35 that spreads in the FLCS tile.The FLCS resource also can otherwise be assigned to control channel.
F-SCCH can send on common segment or K LAB section in every way.In a kind of design,, then can on common segment, send F-SCCH if perhaps (i) uses a FLCS resource mapping scheme and do not have the LAB section or (ii) use the 2nd FLCS resource mapping scheme.
In a kind of design, the grouping of F-SCCH portability variable number.Each grouping can be encoded and use QPSK to map to N SYMIndividual code element or use 16-QAM map to N SYM/ 2 code elements.Therefore, can be under QPSK at N SYMSend a grouping in the individual transmission unit, and can be at N under 16-QAM SYMSend two groupings in the individual transmission unit.P is divided into groups to can on F-SCCH, sending, and wherein P can exist with ... the number of the right code element of per minute group and the number that can be used for the transmission unit of F-SCCH.Each divides into groups to comprising or use QPSK to send and having of index (a, 0) divide into groups or use 16-QAM transmission and have index (a, 0) and (a; 1) two groupings, wherein a ∈ 0 ...; P-1} is the right index that divides into groups, and this right grouping 0 and 1 of dividing into groups (if being suitable for) of 0 and 1 sign.
In a F-SCCH mapping scheme, P is divided into groups to mapping to the transmission unit in L the FLCS tile of common segment according to following program.
1. hop-ports counter i, block counter k, OFDM symbol counter j are initialized as 0.
2. initialization modulated symbol index p (n)=0, n=0 wherein, 1,2 ..., P-1.
3. if hop-ports counter i is the available hop-ports of F-SCCH, then
A. define a=(k+j+i) mod P.Formula (11)
If the grouping that b. index is (a, 0) is to use QPSK to send, then define b=0
Otherwise, definition b=p (a) mod 2.Formula (12)
Be to use QPSK to send if c. divide into groups, then in k FLCS tile of common segment on i the hop-ports of j OFDM code element filling be that the index of the grouping of (a, 0) is the modulated symbol of p (a) from index.
If d. this grouping is to use 16-QAM to send; Then in k FLCS tile of common segment, filling from index on i the hop-ports of j OFDM code element is that (a, the index of grouping b) are the modulated symbol of
Figure G2008800017344D00151
.
E. p (a) is increased progressively 1.
4. i is increased progressively 1.If i=16 then is provided with k=k+1 and i=0 is set.
5. if k >=L then is provided with k=0 and j is increased progressively 1.
6. if j >=8 are then withdrawed from.Otherwise forward step 3 to.
For a F-SCCH mapping scheme, program starts from OFDM code-element period 0, and traversal is through each all 16 hop-ports of L FLCS tile, and with a grouping to mapping to each transmission unit.The grouping that is mapped to the transmission unit among the hop-ports i of OFDM code-element period j among the FLCS tile k is to confirming according to formula (11).I increases progressively along with index, and it is right that formula (11) cycles through P grouping.
For each divides into groups to keep next code element that a counter p (a) and its indication will be sent in can be used for next right transmission unit of this grouping.Each right counter p (a) that divides into groups is initialized to 0.After this, when grouping was mapped to the available transmission unit and uses QPSK a, the code element p of grouping a (a) was mapped to this transmission unit and increments index p (a) subsequently.If use 16-QAM; Then alternately be mapped to and be used for the available transmission unit that it is right that this divides into groups from the code element of two groupings of grouping centering, for example, from (a that divides into groups; 0) code element is mapped to the available transmission unit that is used to divide into groups to a; Be mapped to next the available transmission unit that is used to divide into groups to a from the code element of divide into groups (a, 1) subsequently, or the like.
After traversal was through all the transmission unit/hop-ports in the OFDM code-element period, program pass was through all transmission units in next OFDM code-element period and repeat this mapping.Through all transmission units in all L the FLCS tiles of traversal common segment, each available transmission unit can and be used for F-SCCH by sign.
Figure 11 shows based on five groupings of the F-SCCH of F-SCCH mapping scheme example mappings to the transmission unit to common segment.Start from for simplicity, each divides into groups to a grouping that comprises that use QPSK sends.For each the FLCS tile in the common segment, being grouped among Figure 11 of each transmission unit of shining upon in the FLCS tile so far indicated.The transmission unit that is not useable for F-SCCH illustrates and is marked as " X " with gray shade.The transmission unit that can be used for F-SCCH by shadow-free illustrate, and come this transmission unit of mark with the index of the grouping that maps to each transmission unit.Start from for simplicity, Figure 11 supposes that only F-SCCH sends on common segment.If other control channels are sent out, the transmission unit that then is used for these other control channels is disabled and is marked as " X ".
From for simplicity, it is a grouping of 0 that Figure 11 only shows in this example in the middle of five groupings of sending on F-SCCH index.The code element of grouping 0 can be sent in each available transmission unit that grouping 0 is mapped to.Figure 11 shows some code elements of 0 mapping to 0 some the available transmission unit that are mapped to that divide into groups of dividing into groups.As described above, the code element of grouping 0 sequentially is mapped to and can be used for this transmission packets unit.Yet the mapping among Figure 11 looks like at random, because code element and FLCS tile be by numbering sequentially from top to bottom, and hop-ports is by numbering sequentially from top to bottom.The code element of each packets remaining can map to the available transmission unit in a similar manner.
Also can in K LAB section, send F-SCCH.In a kind of design, P grouping can in comprising each LAB section of 3 FLCS tiles, sending F-SCCH is right, and wherein P can exist with ... the number of available transmission unit of number and every LAB section of the right code element of per minute group.Index is 0 to PK-1 PK altogether and divides into groups to can in K LAB section, sending.Each divides into groups to comprising or under QPSK, sending and have an index (a; 0) two groupings of dividing into groups or under 16-QAM, sending and having index (a, 0) and (a, 1); Wherein a ∈ { 0; ..., PK-1} is the right index that divides into groups, and this right grouping 0 and 1 of dividing into groups (if being suitable for) of 0 and 1 sign.
In the 2nd F-SCCH mapping scheme, to be qP divide into groups to mapping to the transmission unit in three FLCS tiles of LAB section q according to following program to P of (q+1) P-1 index, wherein q ∈ 0 ..., K-1}.
1. hop-ports counter i, block counter k, OFDM symbol counter j are initialized as 0.
2. initialization modulated symbol index p (n)=0, n=qP wherein ..., (q+1) P-1.
3. if hop-ports counter i is the available hop-ports of F-SCCH, then
A. define a=[(k+j+i) mod P]+qP.Formula (13)
If the grouping that b. index is (a, 0) is to use QPSK to send, then define b=0.
Otherwise, definition b=p (a) mod 2.Formula (14)
Be to use QPSK to send if c. divide into groups, then filling is that the index of the grouping of (a, 0) is the modulated symbol of p (a) from index on i the hop-ports of j OFDM code element in k the FLCS tile of LAB section q.
If d. this grouping is to use 16-QAM to send; Then in k the FLCS tile of LAB section q, filling from index on i the hop-ports of j OFDM code element is that (a, the index of grouping b) are the modulated symbol of .
E. p (a) is increased progressively 1.
4. i is increased progressively 1.If i=16 then is provided with k=k+1 and i=0 is set.
5. if k >=3 then are provided with k=0 and j are increased progressively 1.
6. if i >=8 are then withdrawed from.Otherwise forward step 3 to.
The 2nd F-SCCH mapping scheme is similar to a F-SCCH mapping scheme, but has following difference.At first, in alternative plan, P of LAB section q divides into groups to being mapped to three FLCS tiles of LAB section q, and in first scheme, the P of F-SCCH grouping is to being mapped to L the FLCS tile that is used for common segment.The second, the available transmission unit in three FLCS tiles of the LAB section q of corresponding alternative plan can be different from the available transmission unit of L FLCS tile of common segment in first scheme.The 3rd, index a keeps tracking that the P that in each LAB section, sends is divided into groups in alternative plan, and and in first scheme, keeps the tracking to P the grouping of F-SCCH.For two kinds of schemes, cycle through P divide into groups to and through with the different transmission unit of predesigned order traversal with this P packet map to these transmission units.These two kinds of schemes are striden the code element of approximate each grouping that distributes equably of each FLCS tile that is used to divide into groups.
Below with regard to F-SCCH two kinds of F-SCCH mapping schemes have been described.The grouping of F-SCCH also can map to the available transmission unit based on other mapping schemes.In another F-SCCH mapping scheme, can at first confirm the available transmission unit, and can P be divided into groups to sequentially mapping to these available transmission unit.In this scheme, can be all P and divide into groups keeping single counter p (a).
Figure 12 shows the design of the process 1200 that is used to pass on control information.Process 1200 can be carried out by base station and/or terminal.Can confirm tile index h and the transmission unit index r (frame 1212) of corresponding control resource index R.Index is that the control resource (for example, FLCS resource) of R can be mapped to that index is the transmission unit (frame 1214) of r in the tile that index is h.The control resource can be one of a plurality of control resources of the correspondence control section that comprises L tile, wherein L >=1.Each tile can comprise a plurality of transmission units.Can carry out frame 1212 based on L the tile of striding any number tile a plurality of control resource mapping schemes that distribute.Mapping scheme can be a kind of or some other mapping schemes shown in a kind of, the formula (7) shown in formula (2) and (3) and (8).(frame 1216) sent and received to control information can via the control resource.
In a kind of design of symmetrical mapping, a plurality of S that can form corresponding a plurality of control resources control resource collection, wherein S >=1.Every batch L continuous S control resource collection can be mapped to S the transmission unit at same position place in L the tile.Different batches L continuous S control resource collection can be mapped to the diverse location of L tile.
In a kind of design of the mapping that localizes, a plurality of S that can form corresponding a plurality of control resources control resource collection, wherein S>1.Each S control resource collection can be mapped to that S adjoins trooping of transmission unit in each of at least one tile.Can travel through a plurality of S control resource collections, and each S control resource collection can be mapped to via cycling through L determined at least one tile of tile.In a kind of design, S=4, and each four control resource collection can be mapped in each of at least one tile four and adjoin trooping of transmission unit, for example, shown in Fig. 7 and formula (2) and (3).In a kind of design of distributed mapping, can travel through a plurality of control resources, and each control resource can be mapped to via cycling through L determined at least one tile of tile, for example, as 10 and formula (7) and (8) shown in.
Index is that the control resource of R can be mapped to a plurality of (for example, the three) transmission unit in central at least one tile of L tile, thinks that the control resource obtains to divide collection.A plurality of transmission units can be on the diverse location of at least one tile.The index of a plurality of transmission units can be confirmed based on transmission unit index r.
In a kind of design that divides collection, each tile can be associated with a plurality of tile sections, and each tile section can comprise the different subclass of a plurality of transmission units in this tile.Transmission unit in each tile section can have preparatory assignment indexing, for example, as shown in Figure 5.Index is that index is the transmission unit of r in each of the control resource of R a plurality of tile sections that can be mapped at least one tile, for example, as shown in Figure 6.
Divide in the design of collection at another kind, operational transmission unit can be assigned the uniqueness index in each tile.Index is that the control resource of R can be mapped to a plurality of transmission units that have different index at least one tile.The index of a plurality of transmission units can be confirmed based on transmission unit index r, and the M of can being separated by, for example, as shown in Figure 9.The number of the transmission unit that can be mapped to based on the number and the control resource of operational transmission unit in each tile is confirmed M.
A plurality of control resources can be assigned to a plurality of control channels by every next control channel and predetermined order ground.The control channel that depends on the localization mapping can at first be assigned the control resource, can not be assigned the control resource after a while and rely on the control channel that shines upon that localizes.
Figure 13 shows the design of the equipment 1300 that is used to pass on control information.Equipment 1300 comprises: be used for confirming the tile index h of corresponding control resource index R and the device (module 1312) of transmission unit index r; Being used for index is that to map to index be that the tile index of h is the device (module 1314) of the transmission unit of r for the control resource of R; And be used for via the device (module 1316) of controlling resource transmission or receiving control information.
Figure 14 shows the design of the process 1400 that is used for exchange of control information.Process 1400 can be carried out by base station and/or terminal.(for example can be used for a control channel; F-SCCH) transmission unit can be from the control section of sending this control channel therein (for example; Common segment or LAB section) all transmission units in the middle of confirm, and can get rid of the transmission unit (frame 1412) that is not useable for this control channel.Unavailable transmission unit can comprise the transmission unit that is used for pilot tone, other control channels, other transmission etc.
Being used for the transmission packets unit set can confirm in the middle of the transmission unit that can be used for control channel, and can stride these available transmission cell distribution (frame 1414).Control section can comprise at least one tile, and each tile can comprise a plurality of transmission units.In a kind of design, can travel through a plurality of transmission units in each tile, and each transmission unit can assign to a grouping in the middle of these a plurality of groupings via cycling through a plurality of groupings, for example, as shown in Figure 11.All transmission units at least one tile that can confirm to divide into groups to be mapped to.Be used for the transmission packets unit set and can in the middle of these transmission units, confirm subsequently, and can get rid of the transmission unit that is not useable for control channel.Can send or receive divide into groups (frame 1416) via the transmission unit set.
Figure 15 shows the design of the equipment 1500 that is used for exchange of control information.Equipment 1500 comprises: be used in the middle of all transmission units of the control section that transmits control channel therein, confirming the device (module 1512) that can be used for the transmission unit of this control channel and get rid of the transmission unit that is not useable for this control channel; Be used in the middle of the transmission unit that can be used for control channel, confirming to be used for the device (module 1514) of transmission packets unit set; And be used for sending or receive the device (module 1516) that divides into groups via the transmission unit set.
Module among Figure 13 and 15 can comprise processor, electronic equipment, hardware device, electronic building brick, logical circuit, memory etc., or its combination in any.
Figure 16 illustrates the block diagram as the design at the base station 110 at one of base station in the system 100 of Fig. 1 and one of terminal and terminal 120.110 places in the base station, emission (TX) data processor 1614 can be used for sending on the forward link the traffic data at terminal from data source 1612 receiving schedulings, and slave controller/processor 1620 receives the control information of different control channels.For example, controller/processor 1620 can be provided for the control information of the control channel in the table 1.Scheduler 1630 can provide the resource assignment to the terminal that is scheduled, and the mode that these appointments can control information is sent.TX data processor 1614 can be handled (for example, coding and symbol mapped) data and control information, carry out modulation (for example, to OFDM) and the output chip is provided.Transmitter (TMTR) 1616 can be nursed one's health (for example, being transformed into simulation, filtering, amplification and up-conversion) these output chips and generate forward link signal, and this signal is launched via antenna 1618.
120 places at the terminal, antenna 1652 can receive from the forward link signal of base station 110 and will receive that signal offers receiver (RCVR) 1654.Receiver 1654 can be nursed one's health and digitlization is received signal and sample is provided.Receive (RX) data processor 1656 and can carry out demodulation, and demodulation and the gained code element of decoding are to obtain through decoded data and control information sample (for example) to OFDM.Processor 1656 can be with offering data trap 1658 through decoded data and will offering controller/processor 1660 through decoded data.
On reverse link, the TX data processor 1674 on the terminal 120 can receive traffic data and slave controller/processor 1660 receiving control informations from data source 1672.Data and control information can be handled (for example, coding, symbol mapped and modulation) by TX data processor 1674 and further conditioning is to generate reverse link signal by transmitter 1676, and the latter can be launched via antenna 1652.110 places in the base station come the reverse link signal of self terminal 120 and other-end to be received through antenna 1618, by receiver 1632 conditionings and by RX data processor 1634 demodulation sign indicating numbers.
Controller/ processor 1620 and 1660 can be distinguished the operation at direct base station 110 and 120 places, terminal.But controller/processor 1620 director datas and control information transmission on the forward link also can confirm to be used for the control resource of each control channel.Controller/processor 1620 and/or 1660 can be carried out other processes of process 1200, the process 1400 among Figure 14 and/or technology described herein among Figure 12. Memory 1622 and 1662 can be stored program code and the data that supply base station 110 and terminal 120 to use respectively.
These technology of describing among this paper can realize through various means.For example, these technology can realize in hardware, firmware, software or its combination.Realize for hardware; The processing unit that is used to the technology on the entity (for example, base station or terminal) of carrying out can be realized in one or more application-specific integrated circuit (ASIC)s (ASIC), digital signal processor (DSP), digital signal processor spare (DSPD), programmable logic device (PLD), field programmable gate array (FPGA), processor, controller, microcontroller, microprocessor, electronic device, other electronic units that are designed to carry out the function of describing among this paper, computer or its combination.
Realize that for firmware and/or software the code (for example, program, function, module, instruction or the like) of the function of describing among these technological available execution this paper is realized.Usually, any any computer/processor-readable medium that visibly embodies firmware and/or software code can be used to realize the techniques described herein.For example, these firmwares and/or software code can be stored in the memory (for example, the memory 1622 or 1662 among Figure 16), and are carried out by processor (for example, processor 1620 or 1660).This memory is implemented in the processor, maybe can be placed on processor.Firmware and/or software code also can be stored in such as random-access memory (ram), read-only memory (ROM), nonvolatile RAM (NVRAM), programmable read-only memory (prom), electricity and can wipe in the computer/processor-readable medium such as PROM (EEPROM), flash memory, floppy disk, compact disk (CD), digital versatile disc (DVD), magnetic or light data storage device.Code can be carried out by one or many computer/processor, and can make computer/processor carry out some aspect of function described herein.
It is in order to make any technical staff in this area all can make or use the disclosure to disclosed description that the front is provided.This is disclosed various modifications will be conspicuous to those skilled in the art, and the generic principles that defines among this paper can be applied to other distortion and can not break away from spirit of the present disclosure or scope.Thus, the disclosure is not to be intended to be defined to example described in this paper and design, but should be authorized the scope of the broad sense consistent with principle disclosed herein and novel features.

Claims (37)

1. one kind is used for method of wireless communication, comprising:
Confirm tile index h and the transmission unit index r of control resource index R, and
With index is that the control resource of R maps to that index is the transmission unit of r in the tile that index is h; Said transmission unit is corresponding to specific hop-ports; Said control resource is one of a plurality of control resources of control section; Wherein said control section comprises L tile, and wherein L is 1 or bigger, and each tile comprises a plurality of transmission units.
2. the method for claim 1; It is characterized in that, also comprise:---wherein L is an arbitrary value---the said a plurality of control resource mapping scheme that distributes is confirmed said tile index h and the said transmission unit index r of said control resource index R based on striding a said L tile.
3. the method for claim 1 is characterized in that, also comprises:
Form a plurality of S control resource collections of corresponding said a plurality of control resources, wherein S is 1 or bigger, and
Every crowd of L continuous S control resource collection shone upon S transmission unit on the same position in the said L tile.
4. the method for claim 1 is characterized in that, also comprises:
Form a plurality of S control resource collections of corresponding said a plurality of control resources, wherein S is greater than 1, and
Each S control resource collection being shone upon S in each of at least one tile in the middle of the said L tile adjoins transmission unit and troops.
5. the method for claim 1 is characterized in that, also comprises:
Form a plurality of S control resource collections of corresponding said a plurality of control resources, wherein S is greater than 1,
Traversal is controlled resource collections through said a plurality of S, and
Each S control resource collection is mapped to via cycling through determined at least one tile of a said L tile.
6. the method for claim 1 is characterized in that, also comprises:
Form a plurality of four control resource collections of corresponding said a plurality of control resources, and
Four that each four control resource collection are shone upon in each of at least one tile in the middle of the said L tile are adjoined transmission unit.
7. the method for claim 1 is characterized in that, also comprises:
Travel through through said a plurality of control resources, and
Each control resource is mapped to via cycling through determined at least one tile of a said L tile.
8. the method for claim 1; It is characterized in that; Also comprise: with index is that the said control resource of R maps to a plurality of transmission units at least one tile in the middle of the said L tile obtaining the branch collection of said control resource, and said a plurality of transmission units comprise that index is that index is the said transmission unit of r in the said tile of h.
9. method as claimed in claim 8 is characterized in that, also comprises: with index is that the said control resource of R maps to the said a plurality of transmission units on the diverse location of said at least one tile.
10. the method for claim 1; It is characterized in that; Also comprise: with index is that the said control resource of R maps to three transmission units at least one tile in the middle of the said L tile obtaining three diversity orders of said control resource, and said three transmission units comprise that index is that index is the said transmission unit of r in the said tile of h.
11. method as claimed in claim 10 is characterized in that, also comprises: the index of confirming said three transmission units in said at least one tile based on said transmission unit index r.
12. method as claimed in claim 10 is characterized in that, when L equals 3 or when bigger, said three transmission units are in three different tiles.
13. the method for claim 1 is characterized in that, each tile is associated with a plurality of tile sections, and each tile section comprises the different subclass of a plurality of transmission units described in the said tile, and wherein said method also comprises:
It with index a transmission unit in each of the said control resource of R said a plurality of tile sections of mapping at least one tile in the middle of the said L tile.
14. method as claimed in claim 13 is characterized in that, the transmission unit in each tile section has preparatory assignment indexing.
15. the method for claim 1 is characterized in that, operational transmission unit is assigned the uniqueness index in each tile, and wherein said method also comprises:
With index is that the said control resource of R maps to a plurality of transmission units that have different index at least one tile in the middle of the said L tile, and
Confirm the said index of said a plurality of transmission units based on said transmission unit index r.
16. method as claimed in claim 15; It is characterized in that; The said index of the said a plurality of transmission units M of being separated by, wherein M is greater than 1 and be based on that the number of the number of operational transmission unit in each tile and the transmission unit that said control resource is mapped to confirms.
17. the method for claim 1 is characterized in that, also comprises: send control information at least one terminal via said control resource.
18. the method for claim 1 is characterized in that, also comprises: via said control resource from the base station receiving control information.
19. the method for claim 1 is characterized in that, also comprises: every next control channel of said a plurality of control resources and predetermined order ground are assigned to a plurality of control channels.
20. an equipment that is used for radio communication comprises:
Be used for confirming the tile index h of control resource index R and the device of transmission unit index r; And
Being used for index is that to map to index be that the tile index of h is the device of the transmission unit of r for the control resource of R; Said transmission unit is corresponding to specific hop-ports; Said control resource is one of a plurality of control resources of control section; Wherein said control section comprises L tile, and wherein L is 1 or bigger, and each tile comprises a plurality of transmission units.
21. equipment as claimed in claim 20 is characterized in that, also comprises:
Be used to form the device of a plurality of S control resource collections of corresponding said a plurality of control resources, wherein S is 1 or bigger; And
Be used for every crowd of L continuous S control resource collection shone upon the device of said L S transmission unit on the tile same position.
22. equipment as claimed in claim 20 is characterized in that, also comprises:
Be used to form the device of a plurality of S control resource collections of corresponding said a plurality of control resources, wherein S is greater than 1; And
Each the S that is used for each S control resource collection is shone upon at least one tile in the middle of the said L tile adjoins the device that transmission unit is trooped.
23. equipment as claimed in claim 20 is characterized in that, also comprises:
Be used to form the device of a plurality of S control resource collections of corresponding said a plurality of control resources, wherein S is 1 or bigger;
Be used to travel through device through said a plurality of S control resource collections; And
Be used for each S control resource collection is mapped to via the device that cycles through said L determined at least one tile of tile.
24. equipment as claimed in claim 20 is characterized in that, also comprises:
Being used for index is the said control resource of R a plurality of transmission units of mapping at least one tile in the middle of the said L tile with the device of the branch collection that obtains said control resource, and said a plurality of transmission units comprise that index is that index is the said transmission unit of r in the said tile of h.
25. equipment as claimed in claim 20 is characterized in that, also comprises:
Be used for every next control channel of said a plurality of control resources and predetermined order ground are assigned the device of giving a plurality of control channels.
26. one kind is used for method of wireless communication, comprises:
Can be used for the transmission unit of said control channel in the middle of all transmission units of definite control section that transmits control channel therein and get rid of the transmission unit that is used for pilot tone and other control channels,
Confirm to can be used for to be used for the transmission packets unit set in the middle of the said transmission unit of said control channel, and
Send or receive said grouping via said transmission unit set, each transmission unit in the wherein said transmission unit set is corresponding to specific hop-ports.
27. method as claimed in claim 26 is characterized in that, the said transmission unit set that is used for said grouping is to stride the said transmission unit that can be used for said control channel to distribute.
28. method as claimed in claim 26 is characterized in that, also comprises getting rid of the transmission unit that is used for other transmission.
29. method as claimed in claim 26 is characterized in that, said control section comprises at least one tile, and each tile comprises a plurality of transmission units.
30. method as claimed in claim 29 is characterized in that, said at least one tile has the unavailable transmission unit of model identical.
31. method as claimed in claim 29 is characterized in that, also comprises:
Traversal is passed through the said a plurality of transmission units in each tile, and
Each transmission unit is assigned to a grouping in the middle of a plurality of groupings of said control channel, and a said grouping is confirmed via cycling through said a plurality of grouping.
32. method as claimed in claim 29 is characterized in that, also comprises:
Confirm the transmission unit in each tile that said grouping is mapped to, and
Be used for the said transmission unit set of said grouping and get rid of the transmission unit that is not useable for said control channel in the middle of said at least one said transmission unit in dividing into groups of confirming that said grouping is mapped to.
33. method as claimed in claim 26 is characterized in that, said control section comprises a plurality of tiles, and each tile comprises a plurality of transmission units, and the said transmission unit set that wherein is used for said grouping is in the subclass of said a plurality of tiles.
34. method as claimed in claim 26; It is characterized in that; Said control section comprises each three tiles of at least one section, and each tile comprises a plurality of transmission units, and the said transmission unit set that wherein is used for said grouping is in three tiles of a section.
35. an equipment that is used for radio communication comprises:
Be used in the middle of all transmission units of the control section that transmits control channel therein, confirming the device that can be used for the transmission unit of said control channel and get rid of the transmission unit that is used for pilot tone and other control channels;
Be used in the middle of the said transmission unit that can be used for said control channel, confirming to be used for the device of transmission packets unit set; And
Be used for sending or receiving via said transmission unit set the device of said grouping, each transmission unit in the wherein said transmission unit set is corresponding to specific hop-ports.
36. equipment as claimed in claim 35 is characterized in that, said control section comprises at least one tile, and each tile comprises a plurality of transmission units, and wherein said equipment also comprises:
Be used for traveling through device through said a plurality of transmission units of each tile; And
Be used for each transmission unit is assigned the device to a grouping in the middle of a plurality of groupings of said control channel, a said grouping is confirmed via cycling through said a plurality of grouping.
37. equipment as claimed in claim 35 is characterized in that, said control section comprises at least one tile, and each tile comprises a plurality of transmission units, and wherein said equipment also comprises:
The device of the transmission unit of each tile that is used for confirming that said grouping is mapped to; And
Be used for the said transmission unit set of said grouping in the middle of the said transmission unit of said at least one tile that is used for confirming that said grouping is mapped to and get rid of the device of the transmission unit that is not useable for said control channel.
CN2008800017344A 2007-01-04 2008-01-04 Control resource mapping for a wireless communication system Expired - Fee Related CN101578902B (en)

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US88338707P 2007-01-04 2007-01-04
US60/883,387 2007-01-04
US88375807P 2007-01-05 2007-01-05
US60/883,758 2007-01-05
US11/968,642 US8681749B2 (en) 2007-01-04 2008-01-02 Control resource mapping for a wireless communication system
US11/968,642 2008-01-02
PCT/US2008/050187 WO2008086149A2 (en) 2007-01-04 2008-01-04 Control resource mapping for a wireless communication system

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