Optimal Combination Control Technology of Demand Side Resources of Distributed Renewable Energy Power Generation
DOI:
https://doi.org/10.13052/dgaej2156-3306.3631Keywords:
Unit commitment, demand-side resources, fuzzy dual-objective optimization model, combined control, greenhouse gas emission reduction.Abstract
The paper proposes a new unit commitment model that can promote car-
bon emission reduction in distributed renewable energy power systems. The
model first comprehensively considers the optimal combination of low-
carbon demand-side resources such as supply-side resources and demand
response, electric vehicles, and distributed renewable energy power gener-
ation. Secondly, the model unit scheduling rules fully consider the carbon
emission target and the economic target and propose a fuzzy dual-objective
optimization method that can consider the relative priority of the target. When
solving the optimization model, we improved the particle swarm optimization
algorithm. We introduced the “cross” and “mutation” operators in the genetic
algorithm to improve the particle swarm algorithm’s global optimization
capability. The paper verifies the effectiveness of the model and algorithm
through the analysis of a ten computer system.
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