Exploring multi-objective optimization scheduling strategies for power dispatch robots based on an improved particle swarm optimization algorithm framework

In the application of scheduling strategies for power dispatching robots, traditional particle swarm optimization algorithms often become trapped in local optima during the optimization process, preventing the attainment of globally optimal results. Therefore, this paper proposes multi-objective optimization scheduling strategies for power dispatch robots based on an improved particle swarm optimization algorithm framework. When constructing the multi-objective optimization model for power dispatch robots, the particle swarm optimization algorithm is applied, and an adaptive inertia weight adjustment mechanism is used to improve search efficiency, ultimately achieving the optimal solution for multi-objective scheduling. The experimental results show that using the improved particle swarm optimization algorithm to optimize the multi-objective scheduling task of the power dispatching robot significantly reduces the total operating cost of the power system by approximately 19,326.8 US dollars, while keeping monthly pollutant emissions below 100 tons and effectively reducing system network loss. This method not only improves power scheduling efficiency but also promotes the development of green energy, providing strong support for the sustainable development of the power system.

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Publication Details

Journal
Scientific Reports
Published
2026-05-08
DOI
https://doi.org/10.1038/s41598-026-48254-3
Primary Topic
Electric Power System Optimization
Type
article
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article

Exploring multi-objective optimization scheduling strategies for power dispatch robots based on an improved particle swarm optimization algorithm framework

Zaihe Yang, Yuqi Zhu, Xi Mo, Min Zhang et al.
Scientific Reports
Electric Power System Optimization
article

Exploring multi-objective optimization scheduling strategies for power dispatch robots based on an improved particle swarm optimization algorithm framework

Zaihe Yang, Yuqi Zhu, Xi Mo, Min Zhang, Han Yan
article en

Abstract

In the application of scheduling strategies for power dispatching robots, traditional particle swarm optimization algorithms often become trapped in local optima during the optimization process, preventing the attainment of globally optimal results. Therefore, this paper proposes multi-objective optimization scheduling strategies for power dispatch robots based on an improved particle swarm optimization algorithm framework. When constructing the multi-objective optimization model for power dispatch robots, the particle swarm optimization algorithm is applied, and an adaptive inertia weight adjustment mechanism is used to improve search efficiency, ultimately achieving the optimal solution for multi-objective scheduling. The experimental results show that using the improved particle swarm optimization algorithm to optimize the multi-objective scheduling task of the power dispatching robot significantly reduces the total operating cost of the power system by approximately 19,326.8 US dollars, while keeping monthly pollutant emissions below 100 tons and effectively reducing system network loss. This method not only improves power scheduling efficiency but also promotes the development of green energy, providing strong support for the sustainable development of the power system.

Scientific Reports
Power Grid Corporation (India) (IN)
Openalex Percentile: Top 9%
Electric Power System Optimization
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