Method and device for implementing constant dispatching
An implementation method and technology for scheduling resources, which are applied in the field of the implementation method and device of constant scheduling, can solve the problems of large retransmission interval, weakened retransmission data validity, and increase HARQ timing complexity, and achieve short retransmission interval and simplified retransmission. Effects of HARQ Timing
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example 1
[0055] Figure 7 It is a schematic diagram of division of downlink constant scheduling areas and data transmission according to an embodiment of the present invention when the ratio of downlink / uplink subframes is 6:2, as shown in Figure 7 As shown, when the downlink-uplink ratio is 6:2, the maximum downlink constant scheduling ranges are SF1, SF2, and SF3. For the data packet sent by the base station on subframe SF1, the terminal feeds back on SF6 under the condition of receiving delay. After receiving the NACK feedback, the base station can repeat the packet on SF 1 of the next wireless frame under the condition of meeting the transmit delay. In this way, the guaranteed retransmission interval RTT is 8 subframes, that is, the duration of one radio frame. Similarly, for the data packet sent by the base station on subframe SF2, the terminal feeds back the data packet on SF6 under the condition of receiving delay. In this way, the guaranteed retransmission interval RTT is 8 ...
example 2
[0058] Figure 8 It is a schematic diagram of the maximum constant downlink scheduling range and transmission data when the downlink / uplink subframe ratio is 5:3 according to an embodiment of the present invention, as shown in Figure 8 As shown, when the downlink-uplink ratio is 5:3, the maximum downlink constant scheduling range is SF0, SF1, SF2, and SF3. For the data packet sent by the base station on subframe SF0, the terminal feeds back on SF5 under the condition of receiving delay. After receiving the NACK feedback, the base station can retransmit it on SF0 of the next wireless frame under the condition of meeting the transmit delay. , so that the guaranteed retransmission interval RTT is 8 subframes, that is, the duration of one radio frame. Similarly, for the data packet sent by the base station on subframe SF1, the terminal also feeds back on SF5 if the receiving delay condition is met. After receiving the NACK feedback, the base station can send the data packet in t...
example 3
[0060] Figure 9 It is a schematic diagram of the maximum constant downlink scheduling range and transmission data under the condition that the downlink / uplink subframe ratio is 4:4 according to an embodiment of the present invention, as shown in Figure 9 As shown, when the downlink-uplink ratio is 4:4, the maximum downlink constant scheduling range is SF0, SF1, SF2, and SF3. For the data packets sent by the base station on subframes SF0 to subframe SF3, the terminal feeds back on SF4 to SF7 under the condition of receiving delay. The subframe SF0 to subframe SF3 of the frame are retransmitted. In this way, the guaranteed retransmission interval RTT is 8 subframes, that is, the duration of one radio frame.
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