ABSTRACT With the increasing penetration of distributed photovoltaic (PV) systems in active distribution networks (ADNs), the operation and control of these networks face new challenges, necessitating the urgent improvement of dynamic optimisation models and solution algorithms. To address this, this paper constructs a multi-objective dynamic reconfiguration model for distribution networks with integrated PV. The model accounts for the stochastic and time-sequential characteristics of source and load, aiming to optimise active network loss, average voltage deviation, and load balancing. To overcome the limitations of traditional multi-objective particle swarm optimisation (MOPSO), such as the tendency to fall into local optima and slow convergence in later stages, we introduce a hybrid multi-objective particle swarm optimisation (HMOPSO). This algorithm incorporates chaotic search and chicken swarm optimisation to enhance performance. This paper uses the Pareto principle to handle the multi-objective problem and applies a fuzzy membership function to identify the optimal compromise solution. The proposed model and algorithm were tested on an improved IEEE 33-node system. The results demonstrate the effectiveness of our approach, as it significantly improves the minimum node voltage while optimising the three specified objectives. This confirms the potential of the improved reconfiguration strategy for ADNs.
Read full abstract- All Solutions
Editage
One platform for all researcher needs
Paperpal
AI-powered academic writing assistant
R Discovery
Your #1 AI companion for literature search
Mind the Graph
AI tool for graphics, illustrations, and artwork
Unlock unlimited use of all AI tools with the Editage Plus membership.
Explore Editage Plus - Support
Overview
784 Articles
Published in last 50 years
Articles published on Pareto Principle
Authors
Select Authors
Journals
Select Journals
Duration
Select Duration
762 Search results
Sort by Recency