In this paper, a non-cooperation pursuit-evasion game universal framework of orbit-maneuver is proposed, to compensate for the degeneration in pursuit-evasion performance caused by delayed information from the ground decision-making to the orbital maneuver. History states of the spacecrafts serve as inputs for Informer, which works as a predictor to predict future states of the spacecrafts. With the predicted states as inputs, an online adaptive dynamic programming method is employed to solve the non-cooperation pursuit-evasion game problem to obtain an approximate optimal policy. Then, obtained results are fed back to Informer for further prediction. This process takes place in a rolling pattern. Moreover, stability analysis is conducted using the Lyapunov method, and the pursuit-evasion process is validated through simulation. Simulation results demonstrate the efficacy of the rolling prediction method in compensating for the performance degeneration.

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NPU-OM: Non-cooperation Pursuit-Evasion Universal-Frame of Orbital Maneuver: A Case Study of Rolling Prediction Game Control

  • Wenjuan Li,
  • Shuoheng Ma,
  • Yuxin Li,
  • Yaoyao Guo,
  • Ximing Zhang,
  • Hanlin Dong,
  • Bo Zhang,
  • Zhiqiang Ma,
  • Panfeng Huang

摘要

In this paper, a non-cooperation pursuit-evasion game universal framework of orbit-maneuver is proposed, to compensate for the degeneration in pursuit-evasion performance caused by delayed information from the ground decision-making to the orbital maneuver. History states of the spacecrafts serve as inputs for Informer, which works as a predictor to predict future states of the spacecrafts. With the predicted states as inputs, an online adaptive dynamic programming method is employed to solve the non-cooperation pursuit-evasion game problem to obtain an approximate optimal policy. Then, obtained results are fed back to Informer for further prediction. This process takes place in a rolling pattern. Moreover, stability analysis is conducted using the Lyapunov method, and the pursuit-evasion process is validated through simulation. Simulation results demonstrate the efficacy of the rolling prediction method in compensating for the performance degeneration.