Data cell indication transmission method, apparatus and system in expansion frame or continuous assignment
A technology of data unit and transmission method, which is applied in the field of mobile communication, and can solve problems such as sub-channel poor channel environment, data transmission failure, and low sub-channel transmission quality, so as to improve the transmission success rate and reduce inter-cell interference
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Embodiment 1
[0055] Such as Figure 4 As shown, the existing data packet is divided into two data blocks, which need to be transmitted through an extended frame. Assuming that an uplink subframe includes two frame units, a data packet is transmitted through the two frame units of the uplink subframe whose frame index is 1, and the number of jumps is 1.
[0056] At the logical layer on the user side, the logical resources allocated by the previous data block in the previous frame unit correspond to the six sub-channels 59, 122, 143, 225, 308, and 398 of the physical layer.
[0057]The latter data block jumps 1 to the logical resource of the previous data unit, and the logical resource after the jump corresponds to the six sub-channels 60, 123, 144, 226, 309, and 399 of the physical layer.
[0058] Map the logical resources of the previous data block to the six sub-channels 59, 122, 143, 225, 308, and 398 of the physical layer; map the logical resources of the next data block to the 60, 123, 144...
Embodiment 2
[0068] Such as Figure 4 As shown, the existing data packet is divided into two data blocks, which need to be transmitted through an extended frame. Assuming that one uplink subframe includes two frame units, a data packet is transmitted through the two frame units of the uplink subframe with the frame index number 1.
[0069] The previous frame unit uses the current uplink replacement formula:
[0070] Tile(s, n)=N subchannels ·N+(Pt[(s+n)mod N subchannels ]+UL_Permbase)mod N subchannels
[0071] Where s is the sub-channel index; n is the tile index in a sub-channel; UL_Permbase is an integer allocated by the management entity; Pt is the tile permutation function; N subchannel Is the number of sub-channels.
[0072] When s=3, UL_Permbase=2, N subchannels = 70, TilePermutation = {6, 48, 58, 57, 50, 1, 13, 26, 46, 44, 30, 3, 27, 53, 22, 18, 61, 7, 55, 36, 45, 37, 52,15,40,2,20,4,34,31,10,5,41,9,69,63,21,11,12,19,68,56,43,23,25,39,66, 42, 16, 47, 51, 8, 62, 14, 33, 24, 32, 17, 54, ...
Embodiment 3
[0085] Such as Figure 4 As shown, the existing data packet is divided into two data units, which need to be transmitted through an extended frame. Assuming that one uplink subframe includes two frame units, a data packet is transmitted through the two frame units of the uplink subframe with the frame index number 1.
[0086] The previous frame unit uses the current uplink replacement formula:
[0087] Tile(s, n)=N subchannels ·N+(Pt[(s+n)mod N subchannels ]+UL_Permbase)mod N subchannels
[0088] Where s is the sub-channel index; n is the tile index in a sub-channel; UL_Permbase is an integer allocated by the management entity; Pt is the tile permutation function; N subchannel Is the number of sub-channels.
[0089] When s=3, UL_Permbase=2, N subchannels = 70, TilePermutation = {6, 48, 58, 57, 50, 1, 13, 26, 46, 44, 30, 3, 27, 53, 22, 18, 61, 7, 55, 36, 45, 37, 52,15,40,2,20,4,34,31,10,5,41,9,69,63,21,11,12,19,68,56,43,23,25,39,66, 42, 16, 47, 51, 8, 62, 14, 33, 24, 32, 17, 54, 2...
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