Energy Management for a Microgrid Cluster Using Game Theory Approach and Variable Battery Cost

This document presents an energy management system (EMS) that implements a game theory approach, using Nash equilibrium as a solution method to minimize operating costs and enhance prosumer revenue within a microgrid cluster (MGC). Prosumer revenue is determined by reducing energy costs, which depend on grid energy absorption and battery usage, considering the depth of discharge and battery type. The proposed approach is applied to a cluster of two PV-based microgrids within a neighborhood in a Puerto Rican town, where each microgrid features unique load and generation profiles as well as different battery sizes.The model operates over a seven-day window with a one-hour time step and is structured into stages, which are solved using Python.

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Published
2025-06-08
DOI
https://doi.org/10.1109/pvsc59419.2025.11132951
Primary Topic
Smart Grid Energy Management
Type
article
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Energy Management for a Microgrid Cluster Using Game Theory Approach and Variable Battery Cost

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Energy Management for a Microgrid Cluster Using Game Theory Approach and Variable Battery Cost

Adriana C. Luna, Cesar A. Vega Penagos, Omar F. Rodriguez-Martinez, Jan L. Díaz, Yuly V. García, Jesus D. Vasquez‐Plaza, Fabio Andrade
article en

Abstract

This document presents an energy management system (EMS) that implements a game theory approach, using Nash equilibrium as a solution method to minimize operating costs and enhance prosumer revenue within a microgrid cluster (MGC). Prosumer revenue is determined by reducing energy costs, which depend on grid energy absorption and battery usage, considering the depth of discharge and battery type. The proposed approach is applied to a cluster of two PV-based microgrids within a neighborhood in a Puerto Rican town, where each microgrid features unique load and generation profiles as well as different battery sizes.The model operates over a seven-day window with a one-hour time step and is structured into stages, which are solved using Python.

University of Puerto Rico-Mayaguez (PR)
Affordable and clean energy
Openalex Percentile: Top 78%
Smart Grid Energy Management
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