Economic and Technical Performance Assessment of a Thermal Energy Storage System for Ancillary Services

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Date

2022

Authors

emin selahattin umdu
LEVENT BILIR

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Publisher

Sakarya University

Open Access Color

GOLD

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No

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Abstract

Increasing renewables in energy mix results in lower emissions but also increased fluctuations in the electricity grid. Current thermal energy conversion-based systems will stay as main electricity generation in the grid and they will support base loads of the system. Whether these systems are fossil or geothermal sourced they need adaptive technologies to harmonize with the changing network. This study aims to investigate feasibility and performance to satisfy response demands for a proposed thermal energy storage system connected to feed stream of thermal power generation to support ancillary services in a case study in Turkey. Tin is selected as the phase change material for its good inductive properties. It is demonstrated numerically that the evaluated heat storage tank filled with tin provides adequate time for thermal discharging within time limits to benefit from hourly ancillary power market. Using hourly pricing data for entire 2020 it is found that proposed system shows better economic performance than investment requirement of ROI over 11% as stated in various literature for renewable energy systems. Analysis of system economic performance shows a ROI of 16% and NPV is 17.8% higher than required investment.

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Keywords

Enerji ve Yakıtlar, Ansys-fluent, Thermal Energy Storage, Ancillary Services, Economic Analysis, NPV, ansys-fluent, Mechanical Engineering, thermal energy storage, Makine Mühendisliği, ancillary services, Engineering (General). Civil engineering (General), npv, economic analysis, Chemistry, Thermal energy storage;ancillary services;NPV;economic analysis;Ansys-Fluent, TA1-2040, QD1-999

Fields of Science

02 engineering and technology, 0202 electrical engineering, electronic engineering, information engineering

Citation

[1] Roadmap 2050 A Practical Guide to A Prosperous Low-Carbon Europe Technical Analysis https://www.roadmap2050.eu/attachments/files/Volume1_fullreport_PressPack.pdf (Accessed: 08.03.2021).[2] ITRE (Committee on Industry Research and Energy) “Follow up to the European Parliament non-legislative resolution on a comprehensive European approach to energy storage” P9_TA-PROV (2020) 0198 10 July 2020.[3] B. Cárdenas L. Noel “High temperature latent heat thermal energy storage: Phase change materials design considerations and performance enhancement techniques” Renewable and Sustainable Energy Reviews vol.27 pp.724-737 2013.[4] K. Vigneshwaran G.S. Sodhi P. Muthukumara A. Guhac S. Senthilmurugana “Experimental and numerical investigations on high temperature cast steel based sensible heat storage system” Energy vol. 251 113322. 2019.[5] M.A. Bashir A. Giovannelli “Design optimization of the phase change material integrated solar receiver: A numerical parametric study”. Applied Thermal Engineering vol. 160 114008. 2019.[6] M. Zeneli I. Malgarinos A. Nikolopoulos N. Nikolopoulos P. Grammelis S. Karellas E. Kakaras “Numerical simulation of a silicon-based latent heat thermal energy storage system operating at ultra-high temperatures” Applied Energy vol. 242 pp. 837-853 2019.[7] P. Royo L. Acevedo V.J. Ferreira T. García-Armingol A.M. Lopez-Sabiron G. Ferreira “High-temperature PCM-based thermal energy storage for industrial furnaces installed in energy-intensive industries”. Energy vol. 173 pp. 1030-1040 2019.[8] M. Dulau B. Dorin “Mathematical modelling and simulation of the behaviour of the steam turbine” Procedia Technology vol.12 pp. 723-729 2014.[9] O. Lucía P. Maussion E. J. Dede J. M. Burdío “Induction heating technology and its applications: past developments current technology and future challenges” IEEE Transactions on industrial electronics vol. 61 no. 5 pp. 2509-2520 2013.[10] V. Rudnev D. Loveless R.L. Cook “Handbook of induction heating” CRC press 2017.[11] Wikipedia Tin Physical Properties https://en.wikipedia.org/wiki/Tin accessed: 03.05.2021[12] Therminol Therminol XP Physical Properties https://www.therminol.com/sites/therminol/files/documents/TF-8694_Therminol_XP_Technical_Bulletin.pdfi accessed: 03.05.2021[13] Turkish Electricity Transmission Corporation energy market management system transparency tool https://tpys.teias.gov.tr/ accessed April 2022[14] TEİAŞ Turkish Electricity Transmission Corporation “Electricity Market Ancillary Services Regulation” Elektrik Piyasasi Yan Hizmetler Yönetmeliği 26.20.2018 Official Gazette (in Turkish)[15] X. Zhou W. Christian C. Ben “The energy transition and changing financing costs” Oxford Sustainable Finance Programme Smith School of Enterprise and The Environment University of Oxford April 2021.

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Sakarya University Journal of Science

Volume

26

Issue

3

Start Page

633

End Page

642
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