To tackle the challenges of today’s dynamic network environment, this strategy combines adaptability, intelligence, and efficiency. The main point of the article is that in order to meet the growing demands of our more interconnected world, 5G network speed must be increased. The following parts present the proposed method, which utilizes adaptive modulation and coding techniques, and set it up for further study. These flexible configurations support the diverse needs of 5G applications while preserving optimal data speeds and network dependability under all conditions. The results of this study demonstrate the superiority of the proposed method over the status quo in a number of significant evaluation metrics. The proposed strategy consistently achieves higher throughput (e.g., 180 Mbps) than the current method, which reaches 150 Mbps. Its 15 ms delay is also far less than the 20 ms lag observed with more traditional methods. Compared to traditional methods, which attain a packet loss rate of 2% and a BER of 0.005, the proposed method achieves a 1% packet loss rate and a BER of 0.002. The recommended solution achieves 95% reliability, which is a major improvement over traditional methods. The spectrum efficiency of the proposed method is 4.2 bps/Hz, which is significantly greater than that of the traditional approaches (3.6 bps/Hz).

错误:搜索内容不能为空,请输入英文关键词
错误:关键词超出字数限制,请精简
高级检索

Optimizing Modulation Schemes for 5G Efficiency Networks

  • Manish Kumar,
  • I. B. Lal,
  • Rajani Ranjan,
  • Neeraj Kumar,
  • Nitesh Kumar,
  • Nitin Anand

摘要

To tackle the challenges of today’s dynamic network environment, this strategy combines adaptability, intelligence, and efficiency. The main point of the article is that in order to meet the growing demands of our more interconnected world, 5G network speed must be increased. The following parts present the proposed method, which utilizes adaptive modulation and coding techniques, and set it up for further study. These flexible configurations support the diverse needs of 5G applications while preserving optimal data speeds and network dependability under all conditions. The results of this study demonstrate the superiority of the proposed method over the status quo in a number of significant evaluation metrics. The proposed strategy consistently achieves higher throughput (e.g., 180 Mbps) than the current method, which reaches 150 Mbps. Its 15 ms delay is also far less than the 20 ms lag observed with more traditional methods. Compared to traditional methods, which attain a packet loss rate of 2% and a BER of 0.005, the proposed method achieves a 1% packet loss rate and a BER of 0.002. The recommended solution achieves 95% reliability, which is a major improvement over traditional methods. The spectrum efficiency of the proposed method is 4.2 bps/Hz, which is significantly greater than that of the traditional approaches (3.6 bps/Hz).