Cost Optimization Incorporating Photovoltaic Power Forecasts Using Neural Networks in an Energy Management System

This paper introduces a receding horizon method designed to integrate updated Photovoltaic (PV) power generation forecasts into an effective Energy Management System (EMS). At first, three RNN PV-based forecasting algorithms are compared to find the best architecture based on evaluation metrics, and the most accurate is utilized to estimate the PV power production. Secondly, the best-performing algorithm feeds into the EMS PV power production data. In addition, the feeding process compares two approaches. In the first one, PV forecasts are updated every hour, and the EMS is run to optimize dispatch decisions for the upcoming 23 hours. In the second method, the PV forecast is received at midnight, and the EMS optimizes decisions. The proposed joint approach is verified using an accurate EMS and by comparing the results with the real PV power data benchmark. Hence, the results indicate that the dispatching of units can be accurately predicted using the proposed forecasting techniques, with the hourly update approach yielding the most precise outcomes.

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Publication Details

Published
2025-04-20
DOI
https://doi.org/10.1109/sustech63138.2025.11025673
Citations
3
Primary Topic
Smart Grid Energy Management
Type
article
Field-Weighted Citation Impact
2.19
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article

Cost Optimization Incorporating Photovoltaic Power Forecasts Using Neural Networks in an Energy Management System

Milutin Petronijević, Alice La Fata, Marco Invernizzi, Ivana Mitić et al.
3 citations
Smart Grid Energy Management
2.19
article

Cost Optimization Incorporating Photovoltaic Power Forecasts Using Neural Networks in an Energy Management System

Milutin Petronijević, Alice La Fata, Marco Invernizzi, Ivana Mitić, Muhammad Amin, Renato Procopio, Massimo Brignone
article en
3 citations

Abstract

This paper introduces a receding horizon method designed to integrate updated Photovoltaic (PV) power generation forecasts into an effective Energy Management System (EMS). At first, three RNN PV-based forecasting algorithms are compared to find the best architecture based on evaluation metrics, and the most accurate is utilized to estimate the PV power production. Secondly, the best-performing algorithm feeds into the EMS PV power production data. In addition, the feeding process compares two approaches. In the first one, PV forecasts are updated every hour, and the EMS is run to optimize dispatch decisions for the upcoming 23 hours. In the second method, the PV forecast is received at midnight, and the EMS optimizes decisions. The proposed joint approach is verified using an accurate EMS and by comparing the results with the real PV power data benchmark. Hence, the results indicate that the dispatching of units can be accurately predicted using the proposed forecasting techniques, with the hourly update approach yielding the most precise outcomes.

University of Nis (RS), University of Genoa (IT)
Affordable and clean energy
Openalex Percentile: Top 12%
Smart Grid Energy Management
2.19
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Cost Optimization Incorporating Photovoltaic Power Forecasts Using Neural Networks in an Energy Management System — Milutin Petronijević, Alice La Fata, et al. · (2025) | TGRS Research Map | TGRS