Three-Objective Optimal Scheduling for Microgrids

Resource Overview

Three-Objective Optimal Scheduling for Microgrids A microgrid, also known as micro-net, represents a novel network architecture comprising distributed generation units, loads, energy storage systems, and control devices. This autonomous system enables self-control, protection, and management while supporting both grid-connected and islanded operations. Unlike traditional power grids, microgrids integrate multiple distributed energy resources and associated loads via specific topological configurations, interconnected with conventional grids through static switches. Code Implementation Insight: Optimization algorithms typically involve multi-objective functions minimizing operational costs, carbon emissions, and maximizing reliability. Key functions may include Pareto-front solvers using genetic algorithms or mixed-integer linear programming (MILP) with constraints for power balance and storage dynamics.

Detailed Documentation

A microgrid (Micro-Grid), also referred to as a micro-net, is an innovative network structure consisting of distributed generation sources, loads, energy storage systems, and control devices. It operates as an autonomous system capable of self-control, protection, and management, functioning either in grid-connected mode or independently as an isolated network. Compared to conventional large-scale power grids, microgrids organize multiple distributed energy resources and their associated loads into specific topological configurations, connecting to main grids through static switches. Algorithm Enhancement: Implementation often involves tri-objective optimization models considering economic dispatch, environmental impact, and reliability metrics. Code frameworks may utilize heuristic algorithms (e.g., NSGA-II) to handle nonlinear constraints, with energy management systems (EMS) executing real-time scheduling through predictive control loops. The development and expansion of microgrids significantly facilitate large-scale integration of distributed generation and renewable energy sources, enabling highly reliable multi-energy supply for diverse loads. This approach serves as an effective pathway toward active distribution networks, accelerating the transition from traditional grids to smart grids. Consequently, microgrid technology presents a promising and critical solution for future energy supply, ensuring reliability while promoting environmental protection and sustainable development.