Technologies and economics of electric energy storages in power systems: Review and perspective

Abstract Current power systems are still highly reliant on dispatchable fossil fuels to meet variable electrical demand. As fossil fuel generation is progressively replaced with intermittent and less predictable renewable energy generation to decarbonize the power system, Electrical energy storage (EES) technologies are increasingly required to address the supply-demand balance challenge over a wide range of timescales. However, the current use of EES technologies in power systems is significantly below the estimated capacity required for power decarbonization. This paper presents a comprehensive review of EES technologies and investigates how to accelerate the uptake of EES in power systems by reviewing and discussing techno-economic requirements for EES. Individual EES technologies and power system applications are described, which provides guidance for the appraisal of specific EES technologies for specific power system services. Plausibly required scales and technology types of EES over different regions are then reviewed, followed by discussions on storage cost modelling and predictions for different EES technologies. Opportunities and challenges in developing scalable, economically viable and socio-environmental EES technologies are discussed. The paper explores EES's evolving roles and challenges in power system decarbonization and provides useful information and guidance on EES for further R&D, storage market building and policy making in the transition to zero-carbon power systems.

[1]  Adel Nasiri,et al.  Testing and modeling of lithium-ion ultracapacitors , 2011, 2011 IEEE Energy Conversion Congress and Exposition.

[2]  Yu Zhu,et al.  Stable Low-Cost Organic Dye Anolyte for Aqueous Organic Redox Flow Battery , 2020 .

[3]  Jessika E. Trancik,et al.  Determinants of the Pace of Global Innovation in Energy Technologies , 2012, PloS one.

[4]  R. Dubey,et al.  Review of carbon-based electrode materials for supercapacitor energy storage , 2019, Ionics.

[5]  Kamal Al-Haddad,et al.  A comprehensive review of Flywheel Energy Storage System technology , 2017 .

[6]  R. Farrugia,et al.  Small-scale Experimental Testing of a Novel Marine Floating Platform with Integrated Hydro-pneumatic Energy Storage , 2019, Journal of Energy Storage.

[7]  Denis Leducq,et al.  Liquid Air Energy Storage (LAES) as a large-scale storage technology for renewable energy integration – A review of investigation studies and near perspectives of LAES , 2020, International Journal of Refrigeration.

[8]  Anthony G. Fane,et al.  New All-Vanadium Redox Flow Cell. , 1986 .

[9]  J. Bergthorson Recyclable metal fuels for clean and compact zero-carbon power , 2018, Progress in Energy and Combustion Science.

[10]  Ali Emadi,et al.  Making the Case for Electrified Transportation , 2015, IEEE Transactions on Transportation Electrification.

[11]  V. Linkov,et al.  Induction melted AB2-type metal hydrides for hydrogen storage and compression applications , 2018 .

[12]  Giorgio Locatelli,et al.  Assessing the economics of large Energy Storage Plants with an optimisation methodology , 2015 .

[13]  Bin Li,et al.  Cost and performance model for redox flow batteries , 2014 .

[14]  D. Sauer,et al.  The development of stationary battery storage systems in Germany – A market review , 2020, Journal of Energy Storage.

[15]  Nihal Kularatna,et al.  Implementation of the supercapacitor-assisted surge absorber (SCASA) technique in a practical surge protector , 2014, IECON 2014 - 40th Annual Conference of the IEEE Industrial Electronics Society.

[16]  Bjarne Steffen,et al.  Prospects for Pumped‐Hydro Storage in Germany , 2012 .

[17]  Hui Wang,et al.  Automatic generation of assembly system configuration with equipment selection for automotive battery manufacturing , 2011 .

[18]  Abhisek Ukil,et al.  Recent development of membrane for vanadium redox flow battery applications: A review , 2019, Applied Energy.

[19]  Alastair D. Stuart,et al.  Application of hydrides in hydrogen storage and compression: Achievements, outlook and perspectives , 2019, International Journal of Hydrogen Energy.

[20]  Adam Hawkes,et al.  The future cost of electrical energy storage based on experience rates , 2017, Nature Energy.

[21]  Wei He,et al.  Techno-economic analysis of bulk-scale compressed air energy storage in power system decarbonisation , 2021, Applied Energy.

[22]  Y.R.L. Jayawickrama,et al.  Ultracapacitor based ride-through system for a DC load , 2004, 2004 International Conference on Power System Technology, 2004. PowerCon 2004..

[23]  Robert Morgan,et al.  Liquid air energy storage – Analysis and first results from a pilot scale demonstration plant , 2015 .

[24]  C. Yoon,et al.  Reducing cobalt from lithium-ion batteries for the electric vehicle era , 2021 .

[25]  Emanuela Colombo,et al.  Off-grid systems for rural electrification in developing countries: Definitions, classification and a comprehensive literature review , 2016 .

[26]  D. Hall,et al.  Prospects for lithium-ion batteries and beyond—a 2030 vision , 2020, Nature Communications.

[27]  David L. Frost,et al.  Direct combustion of recyclable metal fuels for zero-carbon heat and power , 2015 .

[28]  T. Nguyen,et al.  Advanced Hydrogen-Bromine Flow Batteries with Improved Efficiency, Durability and Cost , 2016 .

[29]  W. Green,et al.  Learning only buys you so much: Practical limits on battery price reduction , 2019, Applied Energy.

[30]  Norbert Auner,et al.  Silicon as energy carrier—Facts and perspectives , 2006 .

[31]  Andrew Blakers,et al.  Geographic information system algorithms to locate prospective sites for pumped hydro energy storage , 2018, Applied Energy.

[32]  Jinyue Yan,et al.  A review on compressed air energy storage: Basic principles, past milestones and recent developments , 2016 .

[33]  Aaron Fyke,et al.  The Fall and Rise of Gravity Storage Technologies , 2019, Joule.

[34]  Haisheng Chen,et al.  Progress in electrical energy storage system: A critical review , 2009 .

[35]  Christian Breyer,et al.  Hydro, wind and solar power as a base for a 100% renewable energy supply for South and Central America , 2017, PloS one.

[36]  Meihong Wang,et al.  Energy storage technologies and real life applications – A state of the art review , 2016 .

[37]  William F. Pickard,et al.  The History, Present State, and Future Prospects of Underground Pumped Hydro for Massive Energy Storage , 2012, Proceedings of the IEEE.

[38]  J.P. Barton,et al.  Energy storage and its use with intermittent renewable energy , 2004, IEEE Transactions on Energy Conversion.

[39]  Yuan Zhou,et al.  Design and engineering implementation of non-supplementary fired compressed air energy storage system: TICC-500 , 2015 .

[40]  C. Breyer,et al.  Assessment of geological resource potential for compressed air energy storage in global electricity supply , 2018, Energy Conversion and Management.

[41]  Andreas Nascimento,et al.  Mountain Gravity Energy Storage: A new solution for closing the gap between existing short- and long-term storage technologies , 2020 .

[42]  J. Rubio-García,et al.  Hydrogen/functionalized benzoquinone for a high-performance regenerative fuel cell as a potential large-scale energy storage platform , 2020, Journal of Materials Chemistry A.

[43]  Verena Jülch,et al.  Comparison of electricity storage options using levelized cost of storage (LCOS) method , 2016 .

[44]  Jihong Wang,et al.  Overview of current compressed air energy storage projects and analysis of the potential underground storage capacity in India and the UK , 2021 .

[45]  Renaldi Renaldi,et al.  An optimisation framework for thermal energy storage integration in a residential heat pump heating system , 2017, Applied Energy.

[46]  J. G. Bitterly,et al.  Flywheel technology: past, present, and 21st century projections , 1998 .

[47]  Yi Cui,et al.  Promises and challenges of nanomaterials for lithium-based rechargeable batteries , 2016, Nature Energy.

[48]  M. A. Cameron,et al.  Low-cost solution to the grid reliability problem with 100% penetration of intermittent wind, water, and solar for all purposes , 2015, Proceedings of the National Academy of Sciences.

[49]  K. Nagashima,et al.  Development of Superconducting Magnetic Bearing for 300 kW Flywheel Energy Storage System , 2017, IEEE Transactions on Applied Superconductivity.

[50]  E. Cairns,et al.  GALVANIC CELLS WITH FUSED-SALT ELECTROLYTES. , 1967 .

[51]  Lidong Chen,et al.  Research progress on conducting polymer based supercapacitor electrode materials , 2017 .

[52]  Froylan E. Sifuentes,et al.  Rapid cost decrease of renewables and storage accelerates the decarbonization of China’s power system , 2020, Nature Communications.

[53]  Brian L. Spatocco,et al.  Liquid metal batteries: past, present, and future. , 2013, Chemical reviews.

[54]  Ottorino Veneri,et al.  Technologies and Applications for Smart Charging of Electric and Plug-in Hybrid Vehicles , 2017 .

[55]  R. Kaunda Potential environmental impacts of lithium mining , 2020 .

[56]  A. Blakers,et al.  Global Atlas of Closed-Loop Pumped Hydro Energy Storage , 2021 .

[57]  Teófilo Rojo,et al.  Graphene-based lithium ion capacitor with high gravimetric energy and power densities , 2017 .

[58]  Jessika E. Trancik,et al.  Evaluating the Causes of Cost Reduction in Photovoltaic Modules , 2017, Energy Policy.

[59]  Donald R. Sadoway,et al.  Lithium–antimony–lead liquid metal battery for grid-level energy storage , 2014, Nature.

[60]  Peter Schegner,et al.  Algorithm and Optimization Model for Energy Storage Using Vertically Stacked Blocks , 2020, IEEE Access.

[61]  Nikos D. Hatziargyriou,et al.  Distributed Coordination of Electric Vehicles Providing V2G Services , 2016, IEEE Transactions on Power Systems.

[62]  Ranjit Roy,et al.  Review of Ultracapacitor Technology and its Applications , 2008 .

[63]  E. Erdem,et al.  Current progress achieved in novel materials for supercapacitor electrodes: mini review , 2019, Nanoscale advances.

[64]  J. Tollefson COVID curbed carbon emissions in 2020 — but not by much , 2021, Nature.

[65]  J. Rubio-García,et al.  Hybrid Redox Flow Cells with Enhanced Electrochemical Performance via Binderless and Electrophoretically Deposited Nitrogen-Doped Graphene on Carbon Paper Electrodes. , 2020, ACS applied materials & interfaces.

[66]  Wei Qiao,et al.  Constant Power Control of DFIG Wind Turbines With Supercapacitor Energy Storage , 2011, IEEE Transactions on Industry Applications.

[67]  M. Rosen,et al.  A review of energy storage types, applications and recent developments , 2020 .

[68]  Catalina Spataru,et al.  Long-term scenarios for reaching climate targets and energy security in UK , 2015 .

[69]  Gregory P. Thiel,et al.  To decarbonize industry, we must decarbonize heat , 2021 .

[70]  Atul K. Jain,et al.  Global Carbon Budget 2020 , 2020, Earth System Science Data.

[71]  P. Albertus,et al.  Long-Duration Electricity Storage Applications, Economics, and Technologies , 2020 .

[72]  C. Sattler,et al.  Design, development, construction and operation of a novel metal hydride compressor , 2017 .

[73]  Detlef Stolten,et al.  Large-Scale Hydrogen Underground Storage for Securing Future Energy Supplies , 2010 .

[74]  J. Saulsbury A Comparison of the Environmental Effects of Open-Loop and Closed-Loop Pumped Storage Hydropower , 2020 .

[75]  Mikhail S. Vlaskin,et al.  Aluminum as energy carrier: Feasibility analysis and current technologies overview , 2011 .

[76]  Valerie M. Thomas,et al.  Can developing countries leapfrog the centralized electrification paradigm , 2016 .

[77]  V. A. Babuk,et al.  Nanoaluminum as a Solid Propellant Fuel , 2009 .

[78]  Alexander J. White,et al.  Pumped thermal electricity storage with supercritical CO2 cycles and solar heat input , 2020 .

[79]  Tim Cockerill,et al.  Technical benefits of energy storage and electricity interconnections in future British power systems , 2014 .

[80]  K. Lian,et al.  Hydroxide ion conducting polymer electrolytes and their applications in solid supercapacitors: A review , 2020 .

[81]  Wei He,et al.  Technoeconomic model of second-life batteries for utility-scale solar considering calendar and cycle aging , 2020, 2003.03216.

[82]  F. Tezel,et al.  Materials for energy storage: Review of electrode materials and methods of increasing capacitance for supercapacitors , 2018, Journal of Energy Storage.

[83]  Davide Lauria,et al.  Experimental evaluation of model-based control strategies of sodium-nickel chloride battery plus supercapacitor hybrid storage systems for urban electric vehicles , 2018, Applied Energy.

[84]  Dmitrii Bogdanov,et al.  A Techno-Economic Study of an Entirely Renewable Energy-Based Power Supply for North America for 2030 Conditions , 2017 .

[85]  Dan Wang,et al.  Overview of Compressed Air Energy Storage and Technology Development , 2017 .

[86]  Ottorino Veneri,et al.  Integration between Super-capacitors and ZEBRA Batteries as High Performance Hybrid Storage System for Electric Vehicles , 2017 .

[87]  Yongliang Li,et al.  A review of pumped hydro energy storage development in significant international electricity markets , 2016 .

[88]  Daniel M. Kammen,et al.  Energy storage deployment and innovation for the clean energy transition , 2017, Nature Energy.

[89]  Darren H. S. Tan,et al.  Sodium‐Ion Batteries Paving the Way for Grid Energy Storage , 2020, Advanced Energy Materials.

[90]  Nathan S. Lewis,et al.  Role of Long-Duration Energy Storage in Variable Renewable Electricity Systems , 2020, Joule.

[91]  R. Stolkin,et al.  Recycling lithium-ion batteries from electric vehicles , 2019, Nature.

[92]  T. M. Gür Correction: Review of electrical energy storage technologies, materials and systems: challenges and prospects for large-scale grid storage , 2018 .

[93]  Christian Breyer,et al.  Flexible electricity generation, grid exchange and storage for the transition to a 100% renewable energy system in Europe , 2019, Renewable Energy.

[94]  Mustafizur Rahman,et al.  Assessment of energy storage technologies: A review , 2020 .

[95]  G. Nhamo SDG7 – Ensure Access to Affordable, Reliable, Sustainable and Modern Energy , 2020 .

[96]  W. Steinmann,et al.  Progress and prospects of thermo-mechanical energy storage—a critical review , 2021, Progress in Energy.

[97]  Asegun Henry,et al.  Thermophotovoltaics: a potential pathway to high efficiency concentrated solar power , 2016 .

[98]  Samuel Graham,et al.  Experimental and analytical evaluation of a hydro-pneumatic compressed-air Ground-Level Integrated Diverse Energy Storage (GLIDES) system , 2018, Applied Energy.

[99]  Jihong Wang,et al.  Overview of current development in electrical energy storage technologies and the application potential in power system operation , 2015 .

[100]  Ilja Pawel,et al.  The Cost of Storage – How to Calculate the Levelized Cost of Stored Energy (LCOE) and Applications to Renewable Energy Generation , 2014 .

[101]  A. Hawkes,et al.  Projecting the Future Levelized Cost of Electricity Storage Technologies , 2019, Joule.

[102]  Linda F. Nazar,et al.  Energy storage emerging: A perspective from the Joint Center for Energy Storage Research , 2020, Proceedings of the National Academy of Sciences.

[103]  Michael A Filler,et al.  Process Principles for Large-Scale Nanomanufacturing. , 2017, Annual review of chemical and biomolecular engineering.

[104]  E. Olivetti,et al.  Designing for Manufacturing Scalability in Clean Energy Research , 2018, Joule.

[105]  Jeremy Neubauer,et al.  Identifying and Overcoming Critical Barriers to Widespread Second Use of PEV Batteries , 2015 .

[106]  J. Rubio-García,et al.  Hydrogen/manganese hybrid redox flow battery , 2018, Journal of Physics: Energy.

[107]  Malte Jochum,et al.  Trade-offs between multifunctionality and profit in tropical smallholder landscapes , 2020, Nature Communications.

[108]  Zhengshan J. Yu,et al.  World record demonstration of > 30% thermophotovoltaic conversion efficiency , 2020, 2020 47th IEEE Photovoltaic Specialists Conference (PVSC).

[109]  Daniel J. Friedman,et al.  Correction: Thermal energy grid storage using multi-junction photovoltaics , 2018, Energy & Environmental Science.

[110]  A. Azad,et al.  Advanced materials and technologies for hybrid supercapacitors for energy storage – A review , 2019, Journal of Energy Storage.

[111]  Fikile R. Brushett,et al.  Air-Breathing Aqueous Sulfur Flow Battery for Ultralow-Cost Long-Duration Electrical Storage , 2017 .

[112]  D. Chattopadhyay,et al.  Battery storage in developing countries: Key issues to consider , 2019, The Electricity Journal.

[113]  B. Saikia,et al.  A brief review on supercapacitor energy storage devices and utilization of natural carbon resources as their electrode materials , 2020 .

[114]  K. B. Bommegowda,et al.  Supercapacitor technology and its applications: a review , 2019, IOP Conference Series: Materials Science and Engineering.

[115]  J. Tarascon,et al.  Towards greener and more sustainable batteries for electrical energy storage. , 2015, Nature chemistry.

[116]  Malcolm McCulloch,et al.  Levelized cost of electricity for solar photovoltaic and electrical energy storage , 2017 .

[117]  Hans Eric Melin,et al.  Circular economy strategies for electric vehicle batteries reduce reliance on raw materials , 2020, Nature Sustainability.

[118]  Jihong Wang,et al.  Optimal selection of air expansion machine in compressed air energy storage : a review , 2018 .

[119]  Bruce Dunn,et al.  Efficient storage mechanisms for building better supercapacitors , 2016, Nature Energy.

[120]  D. Bradwell,et al.  Magnesium-antimony liquid metal battery for stationary energy storage. , 2012, Journal of the American Chemical Society.