INTELLIGENT MICROGRID ENERGY MANAGEMENT USING DEEP Q-LEARNING METHOD BASED ON GRID FEED OPTIMIZATION

Microgrid (MG) is one of the energy system entities in a smart electricity network that realizes the integration of renewable energy sources to answer the increasing demand for electrical energy along with the depletion of fossil energy reserves. However, the intermittent nature of renewable ener...

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Main Author: Mahardika P. Setiawan, Fadhila
Format: Final Project
Language:Indonesia
Online Access:https://digilib.itb.ac.id/gdl/view/73210
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Institution: Institut Teknologi Bandung
Language: Indonesia
id id-itb.:73210
spelling id-itb.:732102023-06-16T13:31:05ZINTELLIGENT MICROGRID ENERGY MANAGEMENT USING DEEP Q-LEARNING METHOD BASED ON GRID FEED OPTIMIZATION Mahardika P. Setiawan, Fadhila Indonesia Final Project microgrid, energy storage battery system, charging-discharging, grid feed, optimization-based energy management, deep Q-learning. INSTITUT TEKNOLOGI BANDUNG https://digilib.itb.ac.id/gdl/view/73210 Microgrid (MG) is one of the energy system entities in a smart electricity network that realizes the integration of renewable energy sources to answer the increasing demand for electrical energy along with the depletion of fossil energy reserves. However, the intermittent nature of renewable energy sources is an obstacle for MG, because it can cause a decrease in MG's performance which is marked by the non-maximum renewable fraction (RF). This can be overcome by implementing controls on MG components, with one of the components being the energy storage battery system (SBPE). By adding the grid feed action option to the SBPE, the charging and discharging range of the battery will increase and based on grid feed scheduling it can result in an increase in RF and PV Utilization (PU). In this research, optimization-based scheduling of SBPE actions was developed using a type of reinforcement learning method, namely deep Q-learning based on grid feed optimization. The control algorithm is designed to be compatible with the MG digital twin (MGDT) framework which models physical objects into digital objects. Based on the test results and analysis, it was found that the increase in RF and PU was 15.30% and 36.28%, respectively. Grid feed optimization reduced the LCOE (Levelized Cost of Electricity) value from IDR 3,102.09/kWh to IDR 139.10/kWh. The average value of the training reward is 3.93 after adding the grid feed. text
institution Institut Teknologi Bandung
building Institut Teknologi Bandung Library
continent Asia
country Indonesia
Indonesia
content_provider Institut Teknologi Bandung
collection Digital ITB
language Indonesia
description Microgrid (MG) is one of the energy system entities in a smart electricity network that realizes the integration of renewable energy sources to answer the increasing demand for electrical energy along with the depletion of fossil energy reserves. However, the intermittent nature of renewable energy sources is an obstacle for MG, because it can cause a decrease in MG's performance which is marked by the non-maximum renewable fraction (RF). This can be overcome by implementing controls on MG components, with one of the components being the energy storage battery system (SBPE). By adding the grid feed action option to the SBPE, the charging and discharging range of the battery will increase and based on grid feed scheduling it can result in an increase in RF and PV Utilization (PU). In this research, optimization-based scheduling of SBPE actions was developed using a type of reinforcement learning method, namely deep Q-learning based on grid feed optimization. The control algorithm is designed to be compatible with the MG digital twin (MGDT) framework which models physical objects into digital objects. Based on the test results and analysis, it was found that the increase in RF and PU was 15.30% and 36.28%, respectively. Grid feed optimization reduced the LCOE (Levelized Cost of Electricity) value from IDR 3,102.09/kWh to IDR 139.10/kWh. The average value of the training reward is 3.93 after adding the grid feed.
format Final Project
author Mahardika P. Setiawan, Fadhila
spellingShingle Mahardika P. Setiawan, Fadhila
INTELLIGENT MICROGRID ENERGY MANAGEMENT USING DEEP Q-LEARNING METHOD BASED ON GRID FEED OPTIMIZATION
author_facet Mahardika P. Setiawan, Fadhila
author_sort Mahardika P. Setiawan, Fadhila
title INTELLIGENT MICROGRID ENERGY MANAGEMENT USING DEEP Q-LEARNING METHOD BASED ON GRID FEED OPTIMIZATION
title_short INTELLIGENT MICROGRID ENERGY MANAGEMENT USING DEEP Q-LEARNING METHOD BASED ON GRID FEED OPTIMIZATION
title_full INTELLIGENT MICROGRID ENERGY MANAGEMENT USING DEEP Q-LEARNING METHOD BASED ON GRID FEED OPTIMIZATION
title_fullStr INTELLIGENT MICROGRID ENERGY MANAGEMENT USING DEEP Q-LEARNING METHOD BASED ON GRID FEED OPTIMIZATION
title_full_unstemmed INTELLIGENT MICROGRID ENERGY MANAGEMENT USING DEEP Q-LEARNING METHOD BASED ON GRID FEED OPTIMIZATION
title_sort intelligent microgrid energy management using deep q-learning method based on grid feed optimization
url https://digilib.itb.ac.id/gdl/view/73210
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