Release 8 36 3GPP TS 36.211 V8.5.0 (2008-12)
Table 5.7.2-4: Root Zadoff-Chu sequence order for preamble formats 0 – 3.
Logical root sequence number 0–23 24–29 30–35 36–41 42–51 52–63 64–75 76–89 90–115 116–135 136–167 168–203 204–263 264–327 Physical root sequence number u (in increasing order of the corresponding logical sequence number) 129, 710, 140, 699, 120, 719, 210, 629, 168, 671, 84, 755, 105, 734, 93, 746, 70, 769, 60, 779 2, 837, 1, 838 56, 783, 112, 727, 148, 691 80, 759, 42, 797, 40, 799 35, 804, 73, 766, 146, 693 31, 808, 28, 811, 30, 809, 27, 812, 29, 810 24, 815, 48, 791, 68, 771, 74, 765, 178, 661, 136, 703 86, 753, 78, 761, 43, 796, 39, 800, 20, 819, 21, 818 95, 744, 202, 637, 190, 649, 181, 658, 137, 702, 125, 714, 151, 688 217, 622, 128, 711, 142, 697, 122, 717, 203, 636, 118, 721, 110, 729, 89, 750, 103, 736, 61, 778, 55, 784, 15, 824, 14, 825 12, 827, 23, 816, 34, 805, 37, 802, 46, 793, 207, 632, 179, 660, 145, 694, 130, 709, 223, 616 228, 611, 227, 612, 132, 707, 133, 706, 143, 696, 135, 704, 161, 678, 201, 638, 173, 666, 106, 733, 83, 756, 91, 748, 66, 773, 53, 786, 10, 829, 9, 830 7, 832, 8, 831, 16, 823, 47, 792, 64, 775, 57, 782, 104, 735, 101, 738, 108, 731, 208, 631, 184, 655, 197, 642, 191, 648, 121, 718, 141, 698, 149, 690, 216, 623, 218, 621 152, 687, 144, 695, 134, 705, 138, 701, 199, 640, 162, 677, 176, 663, 119, 720, 158, 681, 164, 675, 174, 665, 171, 668, 170, 669, 87, 752, 169, 670, 88, 751, 107, 732, 81, 758, 82, 757, 100, 739, 98, 741, 71, 768, 59, 780, 65, 774, 50, 789, 49, 790, 26, 813, 17, 822, 13, 826, 6, 833 5, 834, 33, 806, 51, 788, 75, 764, 99, 740, 96, 743, 97, 742, 166, 673, 172, 667, 175, 664, 187, 652, 163, 676, 185, 654, 200, 639, 114, 725, 189, 650, 115, 724, 194, 645, 195, 644, 192, 647, 182, 657, 157, 682, 156, 683, 211, 628, 154, 685, 123, 716, 139, 700, 212, 627, 153, 686, 213, 626, 215, 624, 150, 689 225, 614, 224, 615, 221, 618, 220, 619, 127, 712, 147, 692, 124, 715, 193, 646, 205, 634, 206, 633, 116, 723, 160, 679, 186, 653, 167, 672, 79, 760, 85, 754, 77, 762, 92, 747, 58, 781, 62, 777, 69, 770, 54, 785, 36, 803, 32, 807, 25, 814, 18, 821, 11, 828, 4, 835 3, 836, 19, 820, 22, 817, 41, 798, 38, 801, 44, 795, 52, 787, 45, 794, 63, 776, 67, 772, 72 767, 76, 763, 94, 745, 102, 737, 90, 749, 109, 730, 165, 674, 111, 728, 209, 630, 204, 635, 117, 722, 188, 651, 159, 680, 198, 641, 113, 726, 183, 656, 180, 659, 177, 662, 196, 643, 155, 684, 214, 625, 126, 713, 131, 708, 219, 620, 222, 617, 226, 613 230, 609, 232, 607, 262, 577, 252, 587, 418, 421, 416, 423, 413, 426, 411, 428, 376, 463, 395, 444, 283, 556, 285, 554, 379, 460, 390, 449, 363, 476, 384, 455, 388, 451, 386, 453, 361, 478, 387, 452, 360, 479, 310, 529, 354, 485, 328, 511, 315, 524, 337, 502, 349, 490, 335, 504, 324, 515 323, 516, 320, 519, 334, 505, 359, 480, 295, 544, 385, 454, 292, 547, 291, 548, 381, 458, 399, 440, 380, 459, 397, 442, 369, 470, 377, 462, 410, 429, 407, 432, 281, 558, 414, 425, 247, 592, 277, 562, 271, 568, 272, 567, 264, 575, 259, 580 237, 602, 239, 600, 244, 595, 243, 596, 275, 564, 278, 561, 250, 589, 246, 593, 417, 422, 248, 591, 394, 445, 393, 446, 370, 469, 365, 474, 300, 539, 299, 540, 364, 475, 362, 477, 298, 541, 312, 527, 313, 526, 314, 525, 353, 486, 352, 487, 343, 496, 327, 512, 350, 489, 326, 513, 319, 520, 332, 507, 333, 506, 348, 491, 347, 492, 322, 517 330, 509, 338, 501, 341, 498, 340, 499, 342, 497, 301, 538, 366, 473, 401, 438, 371, 468, 408, 431, 375, 464, 249, 590, 269, 570, 238, 601, 234, 605 257, 582, 273, 566, 255, 584, 254, 585, 245, 594, 251, 588, 412, 427, 372, 467, 282, 557, 403, 436, 396, 443, 392, 447, 391, 448, 382, 457, 389, 450, 294, 545, 297, 542, 311, 528, 344, 495, 345, 494, 318, 521, 331, 508, 325, 514, 321, 518 346, 493, 339, 500, 351, 488, 306, 533, 289, 550, 400, 439, 378, 461, 374, 465, 415, 424, 270, 569, 241, 598 231, 608, 260, 579, 268, 571, 276, 563, 409, 430, 398, 441, 290, 549, 304, 535, 308, 531, 358, 481, 316, 523 293, 546, 288, 551, 284, 555, 368, 471, 253, 586, 256, 583, 263, 576 242, 597, 274, 565, 402, 437, 383, 456, 357, 482, 329, 510 317, 522, 307, 532, 286, 553, 287, 552, 266, 573, 261, 578 236, 603, 303, 536, 356, 483 355, 484, 405, 434, 404, 435, 406, 433 235, 604, 267, 572, 302, 537 309, 530, 265, 574, 233, 606 367, 472, 296, 543 336, 503, 305, 534, 373, 466, 280, 559, 279, 560, 419, 420, 240, 599, 258, 581, 229, 610 328–383 384–455 456–513 514–561 562–629 630–659 660–707 708–729 730–751 752–765 766–777 778–789 790–795 796–803 804–809 810–815 816–819 820–837
3GPP
Release 8 37 3GPP TS 36.211 V8.5.0 (2008-12)
Table 5.7.2-5: Root Zadoff-Chu sequence order for preamble format 4.
Logical root sequence number 0 – 19 20 – 39 40 – 59 60 – 79 80 – 99 100 – 119 120 – 137 138 – 837 Physical root sequence number u (in increasing order of the corresponding logical sequence number) 1 11 21 31 41 51 61 138 128 118 108 98 88 78 2 12 22 32 42 52 62 137 127 117 107 97 87 77 3 13 23 33 43 53 63 136 126 116 106 96 86 76 4 14 24 34 44 54 64 135 125 115 105 95 85 75 5 15 25 35 45 55 65 134 6 124 16 114 26 104 36 94 46 84 56 74 66 N/A 133 123 113 103 93 83 73 7 17 27 37 47 57 67 132 122 112 102 92 82 72 8 18 28 38 48 58 68 131 121 111 101 91 81 71 9 19 29 39 49 59 69 130 120 110 100 90 80 70 10 129 20 119 30 109 40 99 50 89 60 79 - -
5.7.3 基带信号生成
The time-continuous random access signal s(t) is defined by
s?t???PRACHNZC?1NZC?1??k?0n?0?jxu,v(n)?e2?nkNZC1?ej2??k???K?k0?2???fRA?t?TCP?
where0?t?TSEQ?TCP, ?PRACH is an amplitude scaling factor in order to conform to the transmit power PPRACH specified in Section 6.1 in [4], and k0RARARBULRB?nPRBNsc?NRBNsc2. The location in the frequency domain is controlled
by the parameternPRB is derived from section 5.7.1. The factor K??f?fRA accounts for the difference in subcarrier
spacing between the random access preamble and uplink data transmission. The variable?fRA, the subcarrier spacing for the random access preamble, and the variable?, a fixed offset determining the frequency-domain location of the random access preamble within the physical resource blocks, are both given by Table 5.7.3-1.
Table 5.7.3-1: Random access baseband parameters.
Preamble format 0 – 3 4 ?fRA 1250 Hz 7500 Hz ? 7 2
5.8 调制与上变频
6
6.1
下行链路
概述
下行传输最小时频单元记作资源单元，在6.2.2节中定义。
6.1.1 物理信道
A downlink physical channel corresponds to a set of resource elements carrying information originating from higher layers and is the interface defined between 36.212 and 36.211. The following downlink physical channels are defined:
3GPP
Release 8 38 3GPP TS 36.211 V8.5.0 (2008-12)
- 物理下行共享信道, PDSCH - 物理广播信道， PBCH - 物理多播信道, PMCH
- 物理控制格式指示信道, PCFICH - 物理下行控制信道, PDCCH - 物理混合ARQ 指示信道, PHICH
6.1.2 物理信号
不携带高层信息的物理信号 - 参考信号 - 同步信号
6.2
6.2.1
时隙结构和物理资源单元
资源格
DLRBDLDL每时隙中资源格定义为NRBOFDM符号。 NRB取决于高层配置的下行带宽，满足 Nsc个子载波和Nsymbmin,DLDLmax,DL6?NRB?NRB?NRB?110
DL参见表6.2.3-1。 Nsymb多天线传输情况下，每个天线端口定义一个资源格。天线端口由相应的参考信号定义。所支持的天线端口集取决于小区内参考信号配置。
- 小区专用参考信号CRS，用于非MBSFN传输, 支持1个、2个或4个天线端口的配置，这里天线端口号
p 应分别满足p?0, p??0,1?和p??0,1,2,3?。 - MBSFN 参考信号, 用于MBSFN 传输, 在天线端口p?4上传输。 - UE专用参考信号DRS，在天线端口p?5上传输。
6.2.2 资源单元
(p)DLRBDLNsc?1，l?0,...,Nsymb天线端口p对应的资源格中资源单元记为?k,l?，k?0,...,NRB?1，对应复值ak,l。
3GPP
Release 8
One downlink slotTslot39 3GPP TS 36.211 V8.5.0 (2008-12)
DLNsymbOFDM symbolsDLRBk?NRBNsc?1Resource blockDLRBresource Nsymb?NscelementssubcarrierssubcarriersDLRBNRB?NscBNsRcResource element(k,l)k?0l?0DLl?Nsymb?1
Figure 6.2.2-1: Downlink resource grid.
6.2.3 资源块
资源块用于物理信道到资源单元的映射，包括物理资源块和虚拟资源块。
RBDLDLRB物理资源块定义为时域Nsymb个连续OFDM符号以及频域Nsc个连续子载波，故包含Nsymb个资源单?NscRBDL元，对应时域的一个时隙以及频域的180 kHz 带宽。Nsymb和Nsc有表6.2.3-1给出。
表6.2.3-1: 物理资源块参数
配置 常规CP 扩展CP RBNsc DLNsymb?f?15 kHz ?f?15 kHz ?f?7.5 kHz 12 24 7 6 3
虚拟资源块和物理资源块具有同样的大小，两种类型的虚拟资源块定义如下：
3GPP
Release 8 40 3GPP TS 36.211 V8.5.0 (2008-12)
- 局部类型虚拟资源块 - 分布类型虚拟资源块
一个子帧两个时隙虚拟资源块对的序号，统一记为nVRB。
6.2.3.1 局部类型虚拟资源块
就是物理资源块
6.2.3.2 分布类型虚拟资源块
Virtual resource blocks of distributed type are mapped to physical resource blocks as described below.
Table 6.2.3.2-1: RB gap values
System BW (N6-10 11 12-19 20-26 27-44 45-49 50-63 64-79 80-110 DLRB) Gap (Ngap) 1 Gap (Ngap,1) DL/2? ?NRBst2 Gap (Ngap,2) N/A N/A N/A N/A N/A N/A 9 16 16 nd4 8 12 18 27 27 32 48
DLThe parameter Ngap is given by Table 6.2.3.2-1. For 6?NRB?49, only one gap value Ngap,1 is defined and
DLNgap?Ngap,1. For 50?NRB?110, two gap values Ngap,1 and Ngap,2 are defined. Whether Ngap?Ngap,1 or
Ngap?Ngap,2is signaled as part of the downlink scheduling assignment as described in [3].
DLVirtual resource blocks of distributed type are numbered from 0 toNVRB?1, where
DLDLDLDLDLDL for Ngap?Ngap,1 and NV for NVRB?NVRB,gap2??NRB/2Ngap??2NgapRB?NVRB,gap1?2?min(Ngap,NRB?Ngap)Ngap?Ngap,2.
DLDLDLConsecutive NVRB VRB numbers compose a unit of VRB number interleaving, where NVRB?NVRB for Ngap?Ngap,1 DLand NVRB?2Ngap for Ngap?Ngap,2. Interleaving of VRB numbers of each interleaving unit is performed with 4
~~~DLcolumns and Nrow rows, where Nrow?NV, and P is RBG size as described in [4]. VRB numbers are RB/(4P)?P?~?written row by row in the rectangular matrix, and read out column by column. Nnull nulls are inserted in the last
~DLNnull/2 rows of the 2nd and 4th column, where Nnull?4Nrow?NVRB. Nulls are ignored when reading out. The
VRB numbers mapping to PRB numbers including interleaving is derived as follows: For even slot number ns;
3GPP