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Adaptive modulation and frame length method based on Moore state machine in LTE‐R communication system

Published: 01 May 2020 Publication History

Abstract

In this study, the problem of adaptive modulation and frame length (AMFL) is investigated in long‐term evolution for railway (LTE‐R) communication system. By considering the effect of frame length, a novel AMFL strategy based on Moore state machine (MSM) is proposed. The influence of the frame length on the goodput is discussed by theoretical analysis and simulation evaluation. According to modulation and frame length schemes (MFLSs) adopted in LTE‐R system, the finite state set of the MSM is designed. For different MFLSs, the frame error rate (FER) and signal‐to‐noise ratio (SNR) curve is obtained. By giving a target FER, the SNR thresholds corresponding to different MFLSs are achieved. From the perspectives of modulation priority and frame length priority, two different AMFL‐MSMs are designed to change MFLSs dynamically. Simulation results show that the proposed two AMFL‐MSMs have more stable goodput than the common modulation schemes and less symbol energy consumption than the high‐order modulation scheme. In addition, the AMFL‐MSM with modulation priority has better performance than the AMFL‐MSM with frame length priority in terms of goodput stability.

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Information

Published In

cover image IET Communications
IET Communications  Volume 14, Issue 8
May 2020
161 pages
EISSN:1751-8636
DOI:10.1049/cmu2.v14.8
Issue’s Table of Contents

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John Wiley & Sons, Inc.

United States

Publication History

Published: 01 May 2020

Author Tags

  1. Long Term Evolution
  2. adaptive modulation
  3. error statistics
  4. railway communication
  5. finite state machines

Author Tags

  1. adaptive modulation
  2. Moore state machine
  3. LTE‐R communication system
  4. railway communication system
  5. frame error rate
  6. modulation priority
  7. frame length priority
  8. AMFL‐MSM
  9. MFLSs
  10. goodput stability

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