Investigation on optimum control interval for intra-cell fractional TPC using AMC for shared channel in Evolved UTRA uplink

Daisuke Nishikawa, Y. Kishiyama, K. Higuchi, M. Sawahashi
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引用次数: 4

Abstract

This paper presents the optimum control interval for intra-cell fractional transmission power control (TPC) for a shared data channel employing frequency domain channel-dependent scheduling and adaptive modulation and coding (AMC) in the evolved UTRA uplink using single-carrier (SC)-FDMA radio access. The simulation results show that the best attenuation factor in the fractional TPC is approximately 0.6 for achieving the maximum user throughput when the maximum target received signal power, P0 is -60 dBm. Then, we show that the optimum averaging interval for the desired signal level, which corresponds to a substantial control interval for the fractional TPC, is approximately 100 - 200 msec regardless of the maximum Doppler frequency up to 222 Hz and the distance at the shadowing correlation of 0.5. Throughout the simulation results, we verify that slow intra-cell fractional TPC associated with fast AMC is effective in achieving the maximum cell throughput and cell-edge user throughput.
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演进UTRA上行共享信道中基于AMC的小区内分式TPC最优控制区间研究
本文提出了一种基于频域信道相关调度和自适应调制编码(AMC)的共享数据信道单元内分式传输功率控制(TPC)的最佳控制间隔,该控制在采用单载波(SC)-FDMA无线接入的演进UTRA上行链路中实现。仿真结果表明,当最大目标接收信号功率P0为-60 dBm时,分数阶TPC中实现最大用户吞吐量的最佳衰减因子约为0.6。然后,我们表明,所需信号电平的最佳平均间隔(对应于分数TPC的实质性控制间隔)约为100 - 200毫秒,而不管最大多普勒频率高达222 Hz和阴影相关性为0.5的距离。通过整个仿真结果,我们验证了与快速AMC相关联的慢细胞内分数TPC在实现最大细胞吞吐量和细胞边缘用户吞吐量方面是有效的。
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