Trajectory Tracking Method of Four-Wheeled Independent Drive and Steering AGV Based on LSTM-MPC and Fuzzy PID Cooperative Control

With the ongoing advancements in automation technology, four-wheeled independent drive and steering (4WID-4WIS) automated guided vehicles (AGVs) are increasingly employed in intelligent logistics and warehousing systems. To enhance the performance of path tracking accuracy and cruising stability of AGVs, an automatic cruising methodology is proposed operating in complex environments. The approach integrates lateral control through model predictive control (MPC), which is optimized by a Long Short-Term Memory (LSTM) network, alongside fuzzy PID control for longitudinal management. By utilizing the LSTM network for trajectory prediction, the system can anticipate future vehicle states and outputs, thereby facilitating proactive adjustments that enhance the performance of the MPC lateral controller and improve both trajectory tracking accuracy and response speed. Concurrently, the fuzzy PID control strategy for longitudinal management increases the system’s adaptability to dynamic environments. The proposed methodology has been demonstrated in a physical prototype operating in real practical environments. Comparative results demonstrate that the LSTM-MPC significantly outperforms conventional MPC in lateral control accuracy. Additionally, the fuzzy PID controller yields superior longitudinal performance compared to traditional dual-PID and constant-speed strategies. This advantage is particularly evident in curved path segments, where the proposed fuzzy PID–LSTM–MPC framework achieves significantly higher lateral and longitudinal tracking accuracy compared to other control strategies.

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Publication Details

Journal
Electronics
Published
2025-05-14
DOI
https://doi.org/10.3390/electronics14102000
Citations
9
Primary Topic
Control and Dynamics of Mobile Robots
Type
article
Field-Weighted Citation Impact
10.93
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article

Trajectory Tracking Method of Four-Wheeled Independent Drive and Steering AGV Based on LSTM-MPC and Fuzzy PID Cooperative Control

Zhong Wan, Yang Li, Fangping Ye, Chaobin Xu et al.
9 citations
Electronics
Control and Dynamics of Mobile Robots
10.93
article

Trajectory Tracking Method of Four-Wheeled Independent Drive and Steering AGV Based on LSTM-MPC and Fuzzy PID Cooperative Control

Zhong Wan, Yang Li, Fangping Ye, Chaobin Xu, Bazhou Li
article en
9 citations

Abstract

With the ongoing advancements in automation technology, four-wheeled independent drive and steering (4WID-4WIS) automated guided vehicles (AGVs) are increasingly employed in intelligent logistics and warehousing systems. To enhance the performance of path tracking accuracy and cruising stability of AGVs, an automatic cruising methodology is proposed operating in complex environments. The approach integrates lateral control through model predictive control (MPC), which is optimized by a Long Short-Term Memory (LSTM) network, alongside fuzzy PID control for longitudinal management. By utilizing the LSTM network for trajectory prediction, the system can anticipate future vehicle states and outputs, thereby facilitating proactive adjustments that enhance the performance of the MPC lateral controller and improve both trajectory tracking accuracy and response speed. Concurrently, the fuzzy PID control strategy for longitudinal management increases the system’s adaptability to dynamic environments. The proposed methodology has been demonstrated in a physical prototype operating in real practical environments. Comparative results demonstrate that the LSTM-MPC significantly outperforms conventional MPC in lateral control accuracy. Additionally, the fuzzy PID controller yields superior longitudinal performance compared to traditional dual-PID and constant-speed strategies. This advantage is particularly evident in curved path segments, where the proposed fuzzy PID–LSTM–MPC framework achieves significantly higher lateral and longitudinal tracking accuracy compared to other control strategies.

ElectronicsVol. 14(10)
CCCC Wuhan Harbour Engineering Design and Research (China) (CN), Hubei University of Technology (CN)
Openalex Percentile: Top 1%
Control and Dynamics of Mobile Robots
10.93
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