Techno-Economic Evaluation of On-Grid Battery Energy Storage System in Jordan using Homer Pro

Khasawneh, Hussam J.; Mustafa, Motasem Bani; Al‐Salaymeh, Ahmed; Saidan, Motasem N.

doi:10.23919/aeit.2019.8893416

Cited by 7 publications

(4 citation statements)

References 20 publications

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“…The battery allows storing excess electricity production during the day and can be used to serve the load at night. One of the best financial ways to compare BESS technologies is the cost of energy to be supplied across the system, defined as the Levelized Cost of Energy (LCOE) [4].…”

Section: B Battery Technology Parametermentioning

confidence: 99%

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Simulation and Techno-Economic Analysis of On-Grid Battery Energy Storage Systems in Indonesia

Ramelan¹,

Adriyanto²,

Apribowo³

et al. 2021

JEEICT

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The limited capacity of renewable energy sources in the grid utility is a challenge. Increasing the capacity of renewable energy sources is supported by energy storage in the grid. The Battery Energy Storage System (BESS) allows storing more electricity from New and Renewable Energy (EBT) sources to meet load requirements. This paper designs a techno-economic study of various battery technologies using HOMER (Hybrid Optimization Modeling Software) software simulation. Simulations are made for grid-connected photovoltaic systems in Indonesia. HOMER is used to find the energy cost ($ / kWh) for each type of battery technology and battery system size. The simulation is designed using 1MWp PV component parameters, inverter, energy storage to be compared, residental load, and connected to the grid. The results will help to determine which technology and battery size is more suitable for the system. The findings from this paper resulted in the lowest Levelized Cost Of Energy (LCOE) of $ 1.03 in solar power generation.

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Section: B Battery Technology Parametermentioning

confidence: 99%

“…Power plants will benefit more when using battery with PV on-grid systems as it allows for more energy saving and sales. As a result of all the points mentioned above, using battery with PV on-grid system is mutually beneficial for the government, private sector, and the state [4].…”

Section: Introductionmentioning

confidence: 99%

Simulation and Techno-Economic Analysis of On-Grid Battery Energy Storage Systems in Indonesia

Ramelan¹,

Adriyanto²,

Apribowo³

et al. 2021

JEEICT

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“…Comparison of battery energy storage6,13 Literature review and key findings[16][17][18][19][20][21][22] …”

mentioning

confidence: 99%

Hybrid energy storage design and dispatch strategy evaluation with sensitivity analysis:Techno‐economic‐environmentalassessment

Citalingam

2022

Energy Storage

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International Energy Agency reported the net‐zero carbon target by 2050 in its recent annual report. The global energy landscape is expected to anticipate an energy transition with an increase in renewable energy share from 12% to 35% for electricity sector by 2050. Most of the countries in the world had pledged to be become net‐zero or carbon neutral countries by 2050. Solar photovoltaic (PV) and wind energy will contribute 50% of energy mix in this context. Solar PV and wind energy are intermittent resources that highly depending on the weather and climate conditions. The intermittency issues caused mismatch between electricity generation and demand profiles. This will greatly affect the requirement of meeting the daily load profile, satisfying the peak demand and resulting in generation of surplus, and so on. Energy storages play a vital role in this scenario by allowing this excess energy to be stored and used to meet the demand during low energy production. Previous literature evaluated the feasibility of utilizing battery energy storage in large‐scale solar PV plant in Malaysia using load following dispatch strategy, which can be further enhanced by utilizing a hybrid energy storage system. This study aims to develop an optimized hybrid energy storage system utilizing battery and supercapacitors to complement a large‐scale solar PV system. This study also evaluates two dispatch strategies that are load following and cycle charging for three different power system configurations. Subsequently, a market leading battery is modelled with parameters such as nominal voltage, capacity, round‐trip efficiency, minimum and maximum state of charge, and maximum and minimum charge and discharge current in four different scenarios utilizing two dispatch strategies. These studies are conducted using power system and energy storage modelling tools with localized energy data for the Malaysia context. The proposed hybrid energy storage system demonstrates an improvement of about 30% in annual throughput under the load following dispatch strategy. The hybrid power system also increases the renewable energy fraction by 5% in the system. This study creates an optimized framework in the development of energy storage for grid integration that permits high level of solar PV penetration in the transmission and distribution network.

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“…The studies about the implementation and the control of a BESS in a photovoltaic solar power plant connected to the electric grid, providing power control and offering reserve of energy in case of contingencies have been presented in [37]. [38] has evaluated different battery technologies using HOMER (Hybrid Optimization Modelling Software) simulation software in order to compare different available battery technologies to different technical specifications from an economic point of view.…”

mentioning

confidence: 99%

Transient Stability Improvement Using Coordinated Control of Solar PVs and Solid State Transformers

Khemmook

Khomfoi

2018

IREE

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A key motivator for wider deployment of microgrids (small electric networks with distributed generation connected that operate either connected at low and medium voltage levels or isolated mode) is to bring about the decentralization of the generation. This goal is because microgrids use renewable power sources and storage energy systems. However, the microgrids operation represents various challenges for grid-connected microgrids about the power interchanges with the distribution network. If the operation is performed under optimal conditions, there are benefits for microgrid investment. This paper proposes a detailed formulation to operate microgrids with photovoltaic systems and storage. The model can be used with multiple microgrids interconnected considering electricity prices and tariffs. The model corresponds to an optimal power flow approach for microgrids considering some energy storage systems. The mathematical model considers explicitly electricity tariffs. Illustrative results indicate the optimal operation of microgrids considering a load curve; specifically, the microgrid is designed to operate at different operational circumstances. A case includes multiple microgrids interconnected at different electricity prices. The electricity tariffs determine the power interchanges between the distribution network and the microgrid. Such insights about the optimal operation of microgrids provide a wide range of applications, particularly in operation and feasibility of projects.

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Techno-Economic Evaluation of On-Grid Battery Energy Storage System in Jordan using Homer Pro

Cited by 7 publications

References 20 publications

Simulation and Techno-Economic Analysis of On-Grid Battery Energy Storage Systems in Indonesia

Simulation and Techno-Economic Analysis of On-Grid Battery Energy Storage Systems in Indonesia

Hybrid energy storage design and dispatch strategy evaluation with sensitivity analysis:Techno‐economic‐environmentalassessment

Transient Stability Improvement Using Coordinated Control of Solar PVs and Solid State Transformers

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