This invention discloses a dynamic collaborative decision-making method for airport resources. By integrating collaborative exploration decision-making,
temperature control optimization, and
parallel computing acceleration, it achieves
intelligent planning of the optimal airport access sequence for returning aircraft. This invention deeply integrates real-time airport status, aircraft demand, and
dynamic resource constraints. Leveraging a "search agent" group collaborative evolution and
simulated annealing perturbation mechanism, it overcomes the limitations of traditional manual decision-making or rule-based systems under dynamic multi-constraint conditions. Through the collaborative work of functional modules such as real-
time data updates, problem modeling, group evolution, fine-grained search, and parallel evaluation, it achieves
rapid response and optimized decision-making in multi-task, multi-airport collaborative support scenarios. This invention employs a two-layer acceleration architecture of "group parallel evaluation" and "computation vectorization," significantly improving computational efficiency while ensuring
decision quality, meeting the real-time requirements of
air traffic control, and realizing collaborative optimization of aircraft return scheduling and airport resources under complex conditions.