<p>This paper proposes an innovative approach that combines a QMIX algorithm (a multi-agent deep reinforcement learning algorithm, MADRL) with a Gaussian Mixture Model (GMM) algorithm for optimizing intelligent path planning and scheduling of mining trucks in open-pit mining environments. The focus of this method is twofold. Firstly, it achieves collaborative cooperation among multiple mining trucks using the QMIX algorithm. Secondly, it integrates the GMM algorithm with QMIX for modeling, predicting, classifying and analyzing existing vehicle outcomes, to enhance the navigation capabilities of mining trucks within the environment. Through simulation experiments, the effectiveness of this combined algorithm was validated in improving vehicle operational efficiency, reducing non-working waiting time, and enhancing transportation efficiency. Moreover, this research compares the results of the algorithm with single-agent deep reinforcement learning algorithms, demonstrating the advantages of multi-agent algorithms in environments characterized with multi-agent collaboration. The QMIX-GMM mixed framework outperformed traditional approaches as complexity increased in the mining environments. The study provides new technological insights for intelligent planning of mining trucks and offers significant reference value for the automation of multi-agent collaboration in other environments. The limitation has been with regard to the maximum fleet size considered in the study being suitable to small or mid-scale mines.</p>

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A hybrid MARL clustering framework for real time open pit mine truck scheduling

  • Xiaolei Xiang,
  • Wei Lin,
  • Danqi Li

摘要

This paper proposes an innovative approach that combines a QMIX algorithm (a multi-agent deep reinforcement learning algorithm, MADRL) with a Gaussian Mixture Model (GMM) algorithm for optimizing intelligent path planning and scheduling of mining trucks in open-pit mining environments. The focus of this method is twofold. Firstly, it achieves collaborative cooperation among multiple mining trucks using the QMIX algorithm. Secondly, it integrates the GMM algorithm with QMIX for modeling, predicting, classifying and analyzing existing vehicle outcomes, to enhance the navigation capabilities of mining trucks within the environment. Through simulation experiments, the effectiveness of this combined algorithm was validated in improving vehicle operational efficiency, reducing non-working waiting time, and enhancing transportation efficiency. Moreover, this research compares the results of the algorithm with single-agent deep reinforcement learning algorithms, demonstrating the advantages of multi-agent algorithms in environments characterized with multi-agent collaboration. The QMIX-GMM mixed framework outperformed traditional approaches as complexity increased in the mining environments. The study provides new technological insights for intelligent planning of mining trucks and offers significant reference value for the automation of multi-agent collaboration in other environments. The limitation has been with regard to the maximum fleet size considered in the study being suitable to small or mid-scale mines.