To solve the problem that the controllable load management of multiple controllable load resources requires a lot of computing resources and can not achieve accurate automatic power control
a cloud-edge cooperative load resource allocation strategy for multiple controllable load regulation was proposed. Firstly
the collaborative control framework of cloud edge was designed to integrate and process the data of various controllable load resources. Secondly
considering the similarity of computing tasks of different edge nodes
the optimization goal was to minimize the time cost of all computing tasks
and the cloud computing resource allocation strategy was given to allocate computing resources reasonably. Finally
the computational resource allocation was solved by genetic algorithm based on adaptive cross-mutation probability. Finally
the calculation of resource allocation was solved using a genetic algorithm based on adaptive crossover mutation probability. The experimental results show that the algorithm proposed has significant advantages in task completion time and execution cost
and these advantages become more pronounced as the number of tasks increases and computing resources decrease. It can significantly improve computing efficiency and reduce computing time.
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