Element contents
Series: Elements in Grid Energy Storage
Beyond Li-ion Batteries for Grid-Scale Energy Storage
Published online by Cambridge University Press: 10 June 2022
Summary
In order to improve the resiliency of the grid and to enable integration of renewable energy sources into the grid, the utilization of battery systems to store energy for later demand is of the utmost importance. The implementation of grid-scale electrical energy storage systems can aid in peak shaving and load leveling, voltage and frequency regulation, as well as emergency power supply. Although the predominant battery chemistry currently used is Li-ion; due to cost, safety and sourcing concerns, incorporation of other battery technologies is of interest for expanding the breadth and depth of battery storage system installations. This Element discusses existing technologies beyond Li-ion battery storage chemistries that have seen grid-scale deployment, as well as several other promising battery technologies, and analyzes their chemistry mechanisms, battery construction and design, and corresponding advantages and disadvantages.
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- Series: Elements in Grid Energy StorageOnline ISBN: 9781009030359Publisher: Cambridge University PressPrint publication: 07 July 2022
References
Fan, X., Liu, B., Liu, J. et al., “Battery Technologies for Grid-Level Large-Scale Electrical Energy Storage,” Transactions of Tianjin University, vol. 26, pp. 92–103, 2020. https://doi.org/10.1007/s12209-019-00231-wGoogle Scholar
Byrne, R. H., Nguyen, T. A., Copp, D. A., Chalamala, B. R., and Gyuk, I., “Energy management and optimization methods for grid energy storage systems,” IEEE Access, vol. 6, pp. 13231–13260, 2018.CrossRefGoogle Scholar
“Case 18-E-0130, in the Matter of Energy Storage Deployment Program, Order Establishing Energy Storage Goal and Deployment Policy (issued December 13, 2018),” New York Public Service Commission, 2018.Google Scholar
“Solving Challenges in Energy Storage,” US Department of Energy, Office of Technology Transitions. Accessed at www.energy.gov/sites/default/files/2019/07/f64/2018-OTT-Energy-Storage-Spotlight.pdf, 2019.Google Scholar
Al Shaqsi, A. Z., Sopian, K., and Al-Hinai, A., “Review of energy storage services, applications, limitations, and benefits,” Energy Reports, vol. 6, pp.288–306, 2020.CrossRefGoogle Scholar
Pasta, M., Wessells, C. D., Huggins, R. A., and Cui, Y., “A high-rate and long cycle life aqueous electrolyte battery for grid-scale energy storage,” Nature Communications, vol. 3, 1149, 2012.CrossRefGoogle ScholarPubMed
Bowen, T., Chernyakhovski, I., Denholm, P., and National Renewable Energy Laboratory, “Grid-scale battery storage: frequently asked questions,” www.nrel.gov/docs/fy19osti/74426.pdf.Google Scholar
Kubota, K., Dahbi, M., Hosaka, T., Kumakura, S., and Komaba, S., “Towards K‐ion and Na‐ion batteries as ‘beyond Li‐ion’,” The Chemical Record, vol. 18, pp. 459–479, 2018.Google Scholar
Chen, H., Cong, T. N., Yang, W. et al., “Progress in electrical energy storage system: a critical review,” Progress in Natural Science, vol. 19, pp.291–312, 2009.CrossRefGoogle Scholar
Faunce, T. A., Prest, J., Su, D., Hearne, S. J., and Iacopi, F., “On-grid batteries for large-scale energy storage: challenges and opportunities for policy and technology,” MRS Energy & Sustainability, vol. 5, p. E11, 2018.CrossRefGoogle Scholar
“DOE OE Global Energy Storage Database,” National Technology & Engineering Sciences of Sandia, 2020. Accessed at https://sandia.gov/ess-ssl/gesdb/public/index.html.Google Scholar
Hernández, J., Gyuk, I., and Christensen, C., “DOE global energy storage database – a platform for large scale data analytics and system performance metrics,” in 2016 IEEE International Conference on Power System Technology (POWERCON), 2016, pp. 1–6. doi: https://doi.org/10.1109/POWERCON.2016.7754009.CrossRefGoogle Scholar
“Distributed Energy Resources Database,” New York State Energy Research and Development Authority, 2020. Accessed at https://der.nyserda.ny.gov/search/Google Scholar
Ali, M. U., Zafar, A., Nengroo, S. H. et al., “Towards a smarter battery management system for electric vehicle applications: a critical review of lithium-ion battery state of charge estimation,” Energies, vol. 12, p. 446, 2019.Google Scholar
Posada, J. O. G., Rennie, A. J. R., Villar, S. P. et al., “Aqueous batteries as grid scale energy storage solutions,” Renewable and Sustainable Energy Reviews, vol. 68, pp.1174–1182, 2017.Google Scholar
Subburaj, A. S., Pushpakaran, B. N., and Bayne, S. B., “Overview of grid connected renewable energy based battery projects in USA,” Renewable and Sustainable Energy Reviews, vol. 45, pp.219–234, 2015.Google Scholar
May, G. J., Davidson, A., and Monahov, B., “Lead batteries for utility energy storage: a review,” Journal of Energy Storage, vol. 15, pp.145–157, 2018.Google Scholar
Enos, D. G., “Chapter 3 – Lead-acid batteries for medium- and large-scale energy storage,” in Menictas, C., Skyllas-Kazacos, M., and Lim, T. M., eds., Advances in Batteries for Medium and Large-Scale Energy Storage, Woodhead Publishing, 2015, pp. 57–71.Google Scholar
Nelson, R., “The basic chemistry of gas recombination in lead-acid batteries,” JOM, vol. 53, pp. 28–33, 2001.CrossRefGoogle Scholar
Beck, F. and Rüetschi, P., “Rechargeable batteries with aqueous electrolytes,” Electrochimica Acta, vol. 45, pp. 2467–2482, 2000.Google Scholar
Cooper, A., Furakawa, J., Lam, L., and Kellaway, M., “The UltraBattery – a new battery design for a new beginning in hybrid electric vehicle energy storage,” Journal of Power Sources, vol. 188, pp. 642–649, 2009.CrossRefGoogle Scholar
Lai, S.-B., Jamesh, M.-I., Wu, X.-C. et al., “A promising energy storage system: rechargeable Ni–Zn battery,” Rare Metals, vol. 36, pp.381–396, 2017.Google Scholar
Pop, V., “State-of-the-art of battery state-of-charge determination,” in Pop, V., Bergveld, H. J., Danilov, D., Regtien, P. P. L., and Notten, P. H. L., eds., Battery Management Systems: Accurate State-of-Charge Indication for Battery-Powered Applications, Dordrecht: Springer Netherlands, 2008, pp. 11–45.Google Scholar
Putois, F., “Market for nickel-cadmium batteries,” Journal of Power Sources, vol. 57, pp.67–70, 1995.CrossRefGoogle Scholar
Dhar, S. K., Ovshínsky, S. R., Gifford, P. R. et al., “Nickel/metal hydride technology for consumer and electric vehicle batteries – a review and up-date,” Journal of Power Sources, vol. 65, pp.1–7, 1997.Google Scholar
Parker, J. F., Chervin, C. N., Pala, I. R. et al., “Rechargeable nickel–3D zinc batteries: an energy-dense, safer alternative to lithium-ion,” Science, vol. 356, pp. 415–418, 2017.Google Scholar
Dunn, B., Kamath, H., and Tarascon, J.-M., “Electrical energy storage for the grid: A battery of choices,” Science, vol. 334, p. 928, 2011.Google Scholar
Yang, Z., Zhang, J., Kintner-Meyer, M. C. W. et al., “Electrochemical energy storage for green grid,” Chemical Reviews, vol. 111, pp. 3577–3613, 2011.CrossRefGoogle ScholarPubMed
Doughty, D. H., Butler, P. C., Akhil, A. A., Clark, N. H., and Boyes, J. D., “Batteries for large-scale stationary electrical energy storage,” The Electrochemical Society Interface, vol. 19, pp. 49–53, 2010.Google Scholar
Duduta, M., Ho, B., Wood, V. C. et al., “Semi-solid lithium rechargeable flow battery,” vol. 1, pp. 511–516, 2011.Google Scholar
Yuan, X.-Z., Song, C., Platt, A. et al., “A review of all-vanadium redox flow battery durability: degradation mechanisms and mitigation strategies,” vol. 43, pp. 6599–6638, 2019.Google Scholar
Kim, K. J., Park, M.-S., Kim, Y.-J. et al., “A technology review of electrodes and reaction mechanisms in vanadium redox flow batteries,” Journal of Materials Chemistry A, vol. 3, pp. 16913–16933, 2015.Google Scholar
Weber, S., Peters, J. F., Baumann, M., and Weil, M., “Life cycle assessment of a vanadium redox flow battery,” Environmental Science & Technology, vol. 52, pp. 10864–10873, 2018.Google Scholar
Choi, C., Kim, S., Kim, R. et al., “A review of vanadium electrolytes for vanadium redox flow batteries,” Renewable and Sustainable Energy Reviews, vol. 69, pp.263–274, 2017.Google Scholar
Rahman, F. and Skyllas-Kazacos, M., “Solubility of vanadyl sulfate in concentrated sulfuric acid solutions,” Journal of Power Sources, vol. 72, pp.105–110, 1998.Google Scholar
Qian, P., Zhang, H., Chen, J. et al., “A novel electrode-bipolar plate assembly for vanadium redox flow battery applications,” Journal of Power Sources, vol. 175, pp.613–620, 2008.Google Scholar
Kear, G., Shah, A. A., and Walsh, F. C., “Development of the all-vanadium redox flow battery for energy storage: a review of technological, financial and policy aspects,” International Journal of Energy Research, vol. 36, pp. 1105–1120, 2012.Google Scholar
Xie, W., Darling, R. M., and Perry, M. L., “Processing and pretreatment effects on vanadium transport in nafion membranes,” Journal of The Electrochemical Society, vol. 163, pp. A5084–A5089, 2015.CrossRefGoogle Scholar
Luo, Q., Zhang, H., Chen, J., Qian, P., and Zhai, Y., “Modification of Nafion membrane using interfacial polymerization for vanadium redox flow battery applications,” Journal of Membrane Science, vol. 311, pp. 98–103, 2008.CrossRefGoogle Scholar
Teng, X., Zhao, Y., Xi, J. et al., “Nafion/organic silica modified TiO2 composite membrane for vanadium redox flow battery via in situ sol–gel reactions,” Journal of Membrane Science, vol. 341, pp.149–154, 2009.CrossRefGoogle Scholar
Skyllas-Kazacos, M., Chakrabarti, M. H., Hajimolana, S. A., Mjalli, F. S., and Saleem, M., “Progress in flow battery research and development,” Journal of The Electrochemical Society, vol. 158, p. R55, 2011.Google Scholar
Pan, F. and Wang, Q., “Redox species of redox flow batteries: a review,” Molecules (Basel, Switzerland), vol. 20, pp. 20499–20517, 2015.Google Scholar
Zhou, H., Zhang, H., Zhao, P., and Yi, B., “A comparative study of carbon felt and activated carbon based electrodes for sodium polysulfide/bromine redox flow battery,” Electrochimica Acta, vol. 51, pp. 6304–6312, 2006.Google Scholar
Zhao, P., Zhang, H., Zhou, H., and Yi, B., “Nickel foam and carbon felt applications for sodium polysulfide/bromine redox flow battery electrodes,” Electrochimica Acta, vol. 51, pp. 1091–1098, 2005.CrossRefGoogle Scholar
Leung, P., Li, X., Ponce de León, C. et al., “Progress in redox flow batteries, remaining challenges and their applications in energy storage,” RSC Advances, vol. 2, pp. 10125–10156, 2012.CrossRefGoogle Scholar
Dean Frankel, C. L., Minnihan, S., See, K., and Xie, L., “Flow battery cost reduction: exploring strategies to improve market adoption,” Lux Research State of the Market Report, https://members.luxresearchinc.com/research/report/15909, 2014.Google Scholar
Mongird, V. F. K., Viswanathan, V., Koritarov, V. et al., “Energy storage technology and cost characterization report,” https://energystorage.pnnl.gov/pdf/PNNL-28866.pdf, 2019.CrossRefGoogle Scholar
Reed, D., Thomsen, E., Li, B. et al., “Stack developments in a kW class all vanadium mixed acid redox flow battery at the Pacific Northwest National Laboratory,” Journal of The Electrochemical Society, vol. 163, pp. A5211–A5219, 2015.Google Scholar
Guo, S.-P., Li, J.-C., Xu, Q.-T., Ma, Z., and Xue, H.-G., “Recent achievements on polyanion-type compounds for sodium-ion batteries: syntheses, crystal chemistry and electrochemical performance,” Journal of Power Sources, vol. 361, pp.285–299, 2017.CrossRefGoogle Scholar
Harrington, K., “Flow battery makers battle over new electrolyte,” https://www.aiche.org/chenected/2014/09/flow-battery-makers-battle-over-new-electrolyte, 2014.Google Scholar
Shinkle, A. A., Sleightholme, A. E. S., Thompson, L. T., and Monroe, C. W., “Electrode kinetics in non-aqueous vanadium acetylacetonate redox flow batteries,” Journal of Applied Electrochemistry, vol. 41, pp. 1191–1199, 2011.Google Scholar
Liu, Q., Shinkle, A. A., Li, Y. et al., “Non-aqueous chromium acetylacetonate electrolyte for redox flow batteries,” Electrochemistry Communications, vol. 12, pp. 1634–1637, 2010.CrossRefGoogle Scholar
Sleightholme, A. E. S., Shinkle, A. A., Liu, Q. et al., “Non-aqueous manganese acetylacetonate electrolyte for redox flow batteries,” Journal of Power Sources, vol. 196, pp. 5742–5745, 2011.Google Scholar
Duduta, M., Ho, B., Wood, V. C. et al., “Semi-solid lithium rechargeable flow battery,” Advanced Energy Materials, vol. 1, pp. 511–516, 2011.Google Scholar
Li, Z., Li, S., Liu, S. et al., “Electrochemical properties of an all-organic redox flow battery using 2,2,6,6-tetramethyl-1-piperidinyloxy and N-methylphthalimide,” Electrochemical and Solid-State Letters, vol. 14, p. A171, 2011.CrossRefGoogle Scholar
Yang, B., Hoober-Burkhardt, L., Wang, F., Surya Prakash, G. K., and Narayanan, S. R., “An inexpensive aqueous flow battery for large-scale electrical energy storage based on water-soluble organic redox couples,” Journal of The Electrochemical Society, vol. 161, pp.A1371–A1380, 2014.Google Scholar
Wang, L., Abraham, A., Lutz, D. M. et al., “Toward environmentally friendly lithium sulfur batteries: probing the role of electrode design in MoS2-containing Li–S batteries with a green electrolyte,” ACS Sustainable Chemistry & Engineering, vol. 7, pp. 5209–5222, 2019.Google Scholar
Wang, Y.-X., Zhang, B., Lai, W. et al., “Room-temperature sodium-sulfur batteries: a comprehensive review on research progress and cell chemistry,” Advanced Energy Materials, vol. 7, p. 1602829, 2017.CrossRefGoogle Scholar
Kummer, J. T. and Weber, N., “A sodium-sulfur secondary battery,” SAE Technical Paper 670179, https://doi.org/10.4271/670179, 1967.Google Scholar
Nikiforidis, G., van de Sanden, M. C. M., and Tsampas, M. N., “High and intermediate temperature sodium–sulfur batteries for energy storage: development, challenges and perspectives,” RSC Advances, vol. 9, pp. 5649–5673, 2019.CrossRefGoogle ScholarPubMed
Xin, S., Yin, Y.-X., Guo, Y.-G., and Wan, L.-J., “A high-energy room-temperature sodium-sulfur battery,” Advanced Materials, vol. 26, pp. 1261–1265, 2014.Google Scholar
Steudel, R. and Steudel, Y., “Polysulfide chemistry in sodium–sulfur batteries and related systems – a computational study by G3X(MP2) and PCM calculations,” Chemistry – A European Journal, vol. 19, pp. 3162–3176, 2013.Google Scholar
Yu, X. and Manthiram, A., “Sodium-sulfur batteries with a polymer-coated NASICON-type sodium-ion solid electrolyte,” Matter, vol. 1, pp.439–451, 2019.Google Scholar
Armstrong, R. D., Dickinson, T., and Reid, M., “Alternating current impedance measurements of the vitreous carbon/sodium polysulphide interphase at 350°C,” Electrochimica Acta, vol. 21, pp. 935–942, 1976.Google Scholar
Kim, G., Park, Y.-C., Lee, Y. et al., “The effect of cathode felt geometries on electrochemical characteristics of sodium sulfur (NaS) cells: planar vs. tubular,” Journal of Power Sources, vol. 325, pp.238–245, 2016.Google Scholar
Okuyama, R., Nakashima, H., Sano, T., and Nomura, E., “The effect of metal sulfides in the cathode on Na/S battery performance,” Journal of Power Sources, vol. 93, pp.50–54, 2001.Google Scholar
Sudworth, J. L., “The sodium/sulphur battery,” Journal of Power Sources, vol. 11, pp. 143–154, 1984.Google Scholar
Lu, X., Xia, G., Lemmon, J. P., and Yang, Z., “Advanced materials for sodium-beta alumina batteries: status, challenges and perspectives,” Journal of Power Sources, vol. 195, pp. 2431–2442, 2010.Google Scholar
Miyoshi, M. M. T., Kusakabe, Y., Hatou, H. et al., US Pat., Application No. 10/246703, 2003.Google Scholar
Li, F., Wei, Z., Manthiram, A. et al., “Sodium-based batteries: from critical materials to battery systems,” Journal of Materials Chemistry A, vol. 7, pp. 9406–9431, 2019.Google Scholar
Manthiram, A. and Yu, X., “Ambient temperature sodium–sulfur batteries,” Small, vol. 11, pp. 2108–2114, 2015.CrossRefGoogle ScholarPubMed
Tan, X., Li, Q., and Wang, H., “Advances and trends of energy storage technology in Microgrid,” International Journal of Electrical Power & Energy Systems, vol. 44, pp. 179–191, 2013.CrossRefGoogle Scholar
Andriollo, M., Benato, R., Dambone Sessa, S. et al., “Energy intensive electrochemical storage in Italy: 34.8 MW sodium–sulphur secondary cells,” Journal of Energy Storage, vol. 5, pp.146–155, 2016.Google Scholar
Staffell, I. and Rustomji, M., “Maximising the value of electricity storage,” Journal of Energy Storage, vol. 8, pp.212–225, 2016.Google Scholar
Hueso, K. B., Armand, M., and Rojo, T., “High temperature sodium batteries: status, challenges and future trends,” Energy & Environmental Science, vol. 6, pp. 734–749, 2013.Google Scholar
Sudworth, J., “The sodium/nickel chloride (ZEBRA) battery,” Journal of Power Sources, vol. 100, pp. 149–163, 2001.Google Scholar
Coetzer, J., “A new high energy density battery system,” Journal of Power Sources, vol. 18, pp.377–380, 1986.CrossRefGoogle Scholar
Gao, X., Hu, Y., Li, Y. et al., “High-rate and long-life intermediate-temperature Na–NiCl2 battery with dual-functional Ni–carbon composite nanofiber network,” ACS Applied Materials & Interfaces, vol. 12, pp. 24767–24776, 2020.CrossRefGoogle Scholar
Li, Y., Wu, X., Wang, J. et al., “Ni-less cathode with 3D free-standing conductive network for planar Na-NiCl2 batteries,” Chemical Engineering Journal, vol. 387, p. 124059, 2020.Google Scholar
Ahn, B.-M., Ahn, C.-W., Hahn, B.-D. et al., “Easy approach to realize low cost and high cell capacity in sodium nickel-iron chloride battery,” Composites Part B: Engineering, vol. 168, pp.442–447, 2019.Google Scholar
Zhan, X., Bowden, M. E., Lu, X. et al., “A low-cost durable Na-FeCl2 battery with ultrahigh rate capability,” Advanced Energy Materials, vol. 10, 1903472, 2020.Google Scholar
Lu, X., Chang, H. J., Bonnett, J. F. et al., “An intermediate-temperature high-performance Na–ZnCl2 battery,” ACS Omega, vol. 3, pp. 15702–15708, 2018.Google Scholar
Lu, X., Li, G., Kim, J. Y. et al., “A novel low-cost sodium–zinc chloride battery,” Energy & Environmental Science, vol. 6, pp. 1837–1843, 2013.Google Scholar
Hueso, K. B., Palomares, V., Armand, M., and Rojo, T., “Challenges and perspectives on high and intermediate-temperature sodium batteries,” Nano Research, vol. 10, pp. 4082–4114, 2017.Google Scholar
Christensen, R., “Na-NiCl2 batteries.” In Technology Data for Energy storage: November 2018 (pp. 147–160), vol. 183. Danish Energy Agency. https://ens.dk/en/our-services/projections-and-models/technology-data, 2018.Google Scholar
Li, F., Wei, Z. X., Manthiram, A. et al., “Sodium-based batteries: from critical materials to battery systems,” Journal of Materials Chemistry A, vol. 7, pp. 9406–9431, Apr. 2019.Google Scholar
Li, M. Y., Du, Z. J., Khaleel, M. A., and Belharouak, I., “Materials and engineering endeavors towards practical sodium-ion batteries,” Energy Storage Materials, vol. 25, pp. 520–536, Mar. 2020.Google Scholar
Adelhelm, P., Hartmann, P., Bender, C. L. et al., “From lithium to sodium: cell chemistry of room temperature sodium-air and sodium-sulfur batteries,” Beilstein Journal of Nanotechnology, vol. 6, pp. 1016–1055, Apr. 2015.CrossRefGoogle ScholarPubMed
Yu, H., Guo, S., Zhu, Y., Ishida, M., and Zhou, H., “Novel titanium-based O3-type NaTi0.5Ni0.5O2 as a cathode material for sodium ion batteries,” Chemical Communications, vol. 50, pp. 457–459, 2014.Google Scholar
Zatovsky, I., “NASICON-type Na3V2(PO4)3,” Acta Crystallographica Section E, vol. 66, p. i12, 2010.Google Scholar
Wu, X., Wu, C., Wei, C. et al., “Highly crystallized Na2CoFe(CN)6 with suppressed lattice defects as superior cathode material for sodium-ion batteries,” ACS Applied Materials & Interfaces, vol. 8, pp. 5393–5399, 2016.Google Scholar
Matei Ghimbeu, C., Górka, J., Simone, V. et al., “Insights on the Na+ ion storage mechanism in hard carbon: discrimination between the porosity, surface functional groups and defects,” Nano Energy, vol. 44, pp.327–335, 2018.Google Scholar
El Kharbachi, A., Zavorotynska, O., Latroche, M. et al., “Exploits, advances and challenges benefiting beyond Li-ion battery technologies,” Journal of Alloys and Compounds, vol. 817, p. 153261, 2020.Google Scholar
Shannon, R. D., “Revised effective ionic-radii and systematic studies of interatomic distances in halides and chalcogenides,” Acta Crystallographica Section A, vol. 32, pp. 751–767, 1976.Google Scholar
Su, D., Ahn, H. J., and Wang, G., “Hydrothermal synthesis of alpha-MnO2 and beta-MnO2 nanorods as high capacity cathode materials for sodium ion batteries,” Journal of Materials Chemistry A, vol. 1, pp. 4845–4850, 2013.Google Scholar
Su, D. W., Ahn, H. J., and Wang, G. X., “Beta-MnO2 nanorods with exposed tunnel structures as high-performance cathode materials for sodium-ion batteries,” Npg Asia Materials, vol. 5, Nov. 2013.Google Scholar
Huang, J., Poyraz, A. S., Lee, S.-Y. et al., “Silver-containing α-MnO2 nanorods: electrochemistry in Na-based battery systems,” ACS Applied Materials & Interfaces, vol. 9, pp. 4333–4342, 2017.Google Scholar
Lee, S.-Y., Housel, L. M., Huang, J. et al., “Inhomogeneous structural evolution of silver-containing Alpha-MnO2 nanorods in sodium-ion batteries investigated by comparative transmission electron microscopy approach,” Journal of Power Sources, vol. 435, 226779, 2019.CrossRefGoogle Scholar
Qian, J., Wu, C., Cao, Y. et al., “Prussian blue cathode materials for sodium‐ion batteries and other ion batteries,” Advanced Energy Materials, vol. 8, 2018.Google Scholar
Wu, X., Sun, M., Guo, S. et al., “Vacancy‐free Prussian blue nanocrystals with high capacity and superior cyclability for aqueous sodium‐ion batteries,” ChemNanoMat, vol. 1, pp. 188–193, 2015.Google Scholar
Wessells, C. D., Huggins, R. A., and Cui, Y., “Copper hexacyanoferrate battery electrodes with long cycle life and high power,” Nature Communications, vol. 2, 550, 2011.Google Scholar
Song, J., Wang, L., Lu, Y. et al., “Removal of interstitial H2O in hexacyanometallates for a superior cathode of a sodium-ion battery,” Journal of the American Chemical Society, vol. 137, pp. 2658–2664, 2015.Google Scholar
Wu, X., Deng, W., Qian, J. et al., “Single-crystal FeFe(CN)6 nanoparticles: a high capacity and high rate cathode for Na-ion batteries,” Journal of Materials Chemistry A, vol. 1, pp. 10130–10134, 2013.Google Scholar
Jiang, Y., Yu, S., Wang, B. et al., “Prussian Blue@C composite as an ultrahigh‐rate and long‐life sodium‐ion battery cathode,” Advanced Functional Materials, vol. 26, pp. 5315–5321, 2016.Google Scholar
You, Y., Yao, H. R., Xin, S. et al., “Subzero‐temperature cathode for a sodium‐ion battery,” Advanced Materials, vol. 28, pp. 7243–7248, 2016.Google Scholar
Fang, Y., Yu, X. Y., and Lou, X. W., “A practical high‐energy cathode for sodium‐ion batteries based on uniform P2‐Na0.7CoO2 Microspheres,” Angewandte Chemie International Edition, vol. 56, pp. 5801–5805, 2017.Google Scholar
Komaba, S., Takei, C., Nakayama, T., Ogata, A., and Yabuuchi, N., “Electrochemical intercalation activity of layered NaCrO2 vs. LiCrO2,” Electrochemistry Communications, vol. 12, pp. 355–358, 2010.Google Scholar
Kubota, K., Asari, T., Yoshida, H. et al., “Understanding the structural evolution and redox mechanism of a NaFeO2–NaCoO2 solid solution for sodium‐ion batteries,” Advanced Functional Materials, vol. 26, pp. 6047–6059, 2016.Google Scholar
Komaba, S., Yabuuchi, N., Nakayama, T. et al., “Study on the reversible electrode reaction of Na1–xNi0.5Mn0.5O2 for a rechargeable sodium-ion battery,” Inorganic Chemistry, vol. 51, pp. 6211–6220, 2012.Google Scholar
Buchholz, D., Moretti, A., Kloepsch, R. et al., “Toward Na-ion batteries – synthesis and characterization of a novel high capacity Na ion intercalation material,” Chemistry of Materials, vol. 25, pp.142–148, 2013.Google Scholar
Chagas, L. G., Buchholz, D., Wu, L. M., Vortmann, B., and Passerini, S., “Unexpected performance of layered sodium-ion cathode material in ionic liquid-based electrolyte,” Journal of Power Sources, vol. 247, pp. 377–383, Feb. 2014.Google Scholar
Hwang, J.-Y., Myung, S.-T., Choi, J. U. et al., “Resolving the degradation pathways of the O3-type layered oxide cathode surface through the nano-scale aluminum oxide coating for high-energy density sodium-ion batteries,” Journal of Materials Chemistry A, vol. 5, pp. 23671–23680, 2017.Google Scholar
Yu, H. J., Guo, S. H., Zhu, Y. B., Ishida, M., and Zhou, H. S., “Novel titanium-based O-3-type NaTi0.5Ni0.5O2 as a cathode material for sodium ion batteries,” Chemical Communications, vol. 50, pp. 457–459, 2014.CrossRefGoogle Scholar
Yao, H.-R., Wang, P.-F., Gong, Y. et al., “Designing air-stable O3-type cathode materials by combined structure modulation for Na-ion batteries,” Journal of the American Chemical Society, vol. 139, pp. 8440–8443, 2017.Google Scholar
Vassilaras, P., Dacek, S. T., Kim, H. et al., “Communication – O3-type layered oxide with a quaternary transition metal composition for Na-ion battery cathodes: NaTi0.25Fe0.25Co0.25Ni0.25O2,” Journal of The Electrochemical Society, vol. 164, pp.A3484–A3486, 2017.Google Scholar
Billaud, J., Clément, R. J., Armstrong, A. R. et al., “β-NaMnO2: a high-performance cathode for sodium-ion batteries,” Journal of the American Chemical Society, vol. 136, pp. 17243–17248, 2014.Google Scholar
Barpanda, P., Oyama, G., Nishimura, S.-i., Chung, S.-C., and Yamada, A., “A 3.8-V earth-abundant sodium battery electrode,” Nature Communications, vol. 5, 4358, 2014.Google Scholar
Saravanan, K., Mason, C. W., Rudola, A., Wong, K. H., and Balaya, P., “The first report on excellent cycling stability and superior rate capability of Na3V2(PO4)3 for sodium ion batteries,” Advanced Energy Materials, vol. 3, pp. 444–450, 2013.Google Scholar
Park, Y.-U., Seo, D.-H., Kwon, H.-S. et al., “A new high-energy cathode for a Na-ion battery with ultrahigh stability,” Journal of the American Chemical Society, vol. 135, pp. 13870–13878, 2013.Google Scholar
Bianchini, M., Xiao, P., Wang, Y., and Ceder, G., “Additional sodium insertion into polyanionic cathodes for higher‐energy Na‐ion batteries,” Advanced Energy Materials, vol. 7, 2017.Google Scholar
Tang, W., Song, X., Du, Y. et al., “High-performance NaFePO4 formed by aqueous ion-exchange and its mechanism for advanced sodium ion batteries,” Journal of Materials Chemistry A, vol. 4, pp. 4882–4892, 2016.Google Scholar
Fang, Y., Xiao, L., Ai, X., Cao, Y., and Yang, H., “Hierarchical carbon framework wrapped Na3V2(PO4)3 as a superior high‐rate and extended lifespan cathode for sodium‐ion batteries,” Advanced Materials, vol. 27, pp. 5895–5900, 2015.Google Scholar
Yang, G., Song, H., Wu, M., and Wang, C., “Porous NaTi2(PO4)3 nanocubes: a high-rate nonaqueous sodium anode material with more than 10 000 cycle life,” Journal of Materials Chemistry A, vol. 3, pp. 18718–18726, 2015.Google Scholar
Chen, C. Y., Matsumoto, K., Nohira, T. et al., “Pyrophosphate Na2FeP2O7 as a low-cost and high-performance positive electrode material for sodium secondary batteries utilizing an inorganic ionic liquid,” Journal of Power Sources, vol. 246, pp. 783–787, Jan. 2014.Google Scholar
Jiao, S., Tuo, J., Xie, H. et al., “The electrochemical performance of Cu3[Fe(CN)6]2 as a cathode material for sodium-ion batteries,” Materials Research Bulletin, vol. 86, pp. 194–200, 2017.Google Scholar
Lee, H.-W., Wang, R. Y., Pasta, M. et al., “Manganese hexacyanomanganate open framework as a high-capacity positive electrode material for sodium-ion batteries,” Nature Communications, vol. 5, 5280, 2014.Google Scholar
Takachi, M., Matsuda, T., and Moritomo, Y., “Cobalt hexacyanoferrate as cathode material for Na+ secondary battery,” Applied Physics Express, vol. 6, Feb. 2013.Google Scholar
You, Y., Wu, X.-L., Yin, Y.-X., and Guo, Y.-G., “A zero-strain insertion cathode material of nickel ferricyanide for sodium-ion batteries,” Journal of Materials Chemistry A, vol. 1, pp. 14061–14065, 2013.Google Scholar
Lee, H., Kim, Y.-I., Park, J.-K., and Choi, J. W., “Sodium zinc hexacyanoferrate with a well-defined open framework as a positive electrode for sodium ion batteries,” Chemical Communications, vol. 48, pp. 8416–8418, 2012.Google Scholar
Komaba, S., Murata, W., Ishikawa, T. et al., “Electrochemical Na insertion and solid electrolyte interphase for hard‐carbon electrodes and application to Na‐ion batteries,” Advanced Functional Materials, vol. 21, pp. 3859–3867, 2011.Google Scholar
Zhao, J., Zhao, L., Chihara, K. et al., “Electrochemical and thermal properties of hard carbon-type anodes for Na-ion batteries,” Journal of Power Sources, vol. 244, pp.752–757, 2013.Google Scholar
Stevens, D. A. and Dahn, J. R., “High capacity anode materials for rechargeable sodium-ion batteries,” Journal of the Electrochemical Society, vol. 147, pp. 1271–1273, Apr. 2000.Google Scholar
Qiao, Y., Han, R., Liu, Y. et al., “Bio‐inspired synthesis of an ordered N/P dual‐doped porous carbon and application as an anode for sodium‐ion batteries,” Chemistry – A European Journal, vol. 23, pp. 16051–16058, 2017.Google Scholar
Wang, Z., Qie, L., Yuan, L. et al., “Functionalized N-doped interconnected carbon nanofibers as an anode material for sodium-ion storage with excellent performance,” Carbon, vol. 55, pp.328–334, 2013.Google Scholar
Ma, Y., Guo, Q., Yang, M. et al., “Highly doped graphene with multi-dopants for high-capacity and ultrastable sodium-ion batteries,” Energy Storage Materials, vol. 13, pp.134–141, 2018.Google Scholar
Wen, Y., He, K., Zhu, Y. et al., “Expanded graphite as superior anode for sodium-ion batteries,” Nature Communications, vol. 5, 4033, 2014.Google Scholar
Xiao, W., Sun, Q., Liu, J. et al., “Utilizing the full capacity of carbon black as anode for Na-ion batteries via solvent co-intercalation,” Nano Research, vol. 10, pp. 4378–4387, 2017.Google Scholar
Li, Y., Mu, L., Hu, Y.-S. et al., “Pitch-derived amorphous carbon as high performance anode for sodium-ion batteries,” Energy Storage Materials, vol. 2, pp.139–145, 2016.CrossRefGoogle Scholar
Sun, N., Liu, H., and Xu, B., “Facile synthesis of high performance hard carbon anode materials for sodium ion batteries,” Journal of Materials Chemistry A, vol. 3, pp. 20560–20566, 2015.Google Scholar
Hwang, J. Y., Myung, S. T., and Sun, Y. K., “Recent progress in rechargeable potassium batteries,” Advanced Functional Materials, vol. 28, Oct. 2018.Google Scholar
Komaba, S., Hasegawa, T., Dahbi, M., and Kubota, K., “Potassium intercalation into graphite to realize high-voltage/high-power potassium-ion batteries and potassium-ion capacitors,” Electrochemistry Communications, vol. 60, pp. 172–175, 2015.Google Scholar
Huie, M. M., Bock, D. C., Takeuchi, E. S., Marschilok, A. C., and Takeuchi, K. J., “Cathode materials for magnesium and magnesium-ion based batteries,” Coordination Chemistry Reviews, vol. 287, pp. 15–27, Mar. 2015.Google Scholar
Rashad, M., Asif, M., Wang, Y., He, Z., and Ahmed, I., “Recent advances in electrolytes and cathode materials for magnesium and hybrid-ion batteries,” Energy Storage Materials, vol. 25, pp.342–375, 2020.Google Scholar
Mao, M. L., Gao, T., Hou, S. Y., and Wang, C. S., “A critical review of cathodes for rechargeable Mg batteries,” Chemical Society Reviews, vol. 47, pp. 8804–8841, Dec. 2018.Google Scholar
Yoo, H. D., Shterenberg, I., Gofer, Y. et al., “Mg rechargeable batteries: an on-going challenge,” Energy & Environmental Science, vol. 6, pp. 2265–2279, 2013.Google Scholar
Xu, Y., Deng, X., Li, Q. et al., “Vanadium oxide pillared by interlayer Mg2+ ions and water as ultralong-life cathodes for magnesium-ion batteries,” Chem, vol. 5, pp.1194–1209, 2019.Google Scholar
Kondrashev, Y. D. and Zaslavskii, A., “The structure of the modifications of manganese (IV) oxide,” Izvestiya Akademii Nauk SSSR, Seriya Fizicheskaya, vol. 15, pp. 179–186, 1951.Google Scholar
Baur, W. H., “Rutile-type compounds. V. Refinement of MnO2 and MgF2,” Acta Crystallographica Section B: Structural Crystallography and Crystal Chemistry, vol. 32, pp. 2200–2204, 1976.Google Scholar
Miura, H., Kudou, H., Choi, J. H., and Hariya, Y., “The crystal structure of ramsdellite from Pirika Mine,” Journal of the Faculty of Science, vol. 22, pp. 611–617, 1990.Google Scholar
Post, J. E. and Veblen, D. R., “Crystal structure determinations of synthetic sodium, magnesium, and potassium birnessite using TEM and the Rietveld method,” American Mineralogist, vol. 75, pp. 477–489, 1990.Google Scholar
Aurbach, D., Lu, Z., Schechter, A. et al., “Prototype systems for rechargeable magnesium batteries,” Nature, vol. 407, pp.724–727, 2000.Google Scholar
Lancry, E., Levi, E., Gofer, Y. et al., “Leaching chemistry and the performance of the Mo6S8 cathodes in rechargeable Mg batteries,” Chemistry of Materials, vol. 16, pp. 2832–2838, 2004.Google Scholar
Lancry, E., Levi, E., Mitelman, A., Malovany, S., and Aurbach, D., “Molten salt synthesis (MSS) of Cu2Mo6S8 – new way for large-scale production of Chevrel phases,” Journal of Solid State Chemistry, vol. 179, pp. 1879–1882, 2006.Google Scholar
Novák, P., Imhof, R., and Haas, O., “Magnesium insertion electrodes for rechargeable nonaqueous batteries – a competitive alternative to lithium?,” Electrochimica Acta, vol. 45, pp. 351–367, 1999.Google Scholar
Imamura, D., Miyayama, M., Hibino, M., and Kudo, T., “Mg intercalation properties into V2O5 gel/carbon composites under high-rate condition,” Journal of the Electrochemical Society, vol. 150, pp. A753–A758, Jun 2003.Google Scholar
Jiao, L., Yuan, H., Wang, Y., Cao, J., and Wang, Y., “Mg intercalation properties into open-ended vanadium oxide nanotubes,” Electrochemistry Communications, vol. 7, pp. 431–436, 2005.Google Scholar
Gershinsky, G., Yoo, H. D., Gofer, Y., and Aurbach, D., “Electrochemical and spectroscopic analysis of Mg2+ intercalation into thin film electrodes of layered oxides: V2O5 and MoO3,” Langmuir, vol. 29, pp. 10964–10972, 2013.Google Scholar
Petkov, V., Trikalitis, P. N., Bozin, E. S. et al., “Structure of V2O5·nH2O xerogel solved by the atomic pair distribution function technique,” Journal of the American Chemical Society, vol. 124, pp. 10157–10162, 2002.Google Scholar
Sa, N., Kinnibrugh, T. L., Wang, H. et al., “Structural evolution of reversible Mg insertion into a bilayer structure of V2O5·nH2O xerogel material,” Chemistry of Materials, vol. 28, pp. 2962–2969, 2016.Google Scholar
Sai Gautam, G., Canepa, P., Richards, W. D., Malik, R., and Ceder, G., “Role of structural H2O in intercalation electrodes: the case of Mg in nanocrystalline xerogel-V2O5,” Nano Letters, vol. 16, pp. 2426–2431, 2016.Google Scholar
Novak, P., Scheifele, W., Joho, F., and Haas, O., “Electrochemical insertion of magnesium into hydrated vanadium bronzes,” Journal of the Electrochemical Society, vol. 142, pp. 2544–2550, Aug. 1995.Google Scholar
Lee, S. H., DiLeo, R. A., Marschilok, A. C., Takeuchi, K. J., and Takeuchi, E. S., “Sol gel based synthesis and electrochemistry of magnesium vanadium oxide: a promising cathode material for secondary magnesium ion batteries,” Ecs Electrochemistry Letters, vol. 3, pp. 87–90, 2014.Google Scholar
Deng, X., Xu, Y., An, Q. et al., “Manganese ion pre-intercalated hydrated vanadium oxide as a high-performance cathode for magnesium ion batteries,” Journal of Materials Chemistry A, vol. 7, pp. 10644–10650, 2019.Google Scholar
Hu, X., Kitchaev, D. A., Wu, L. et al., “Revealing and rationalizing the rich polytypism of todorokite MnO2,” Journal of the American Chemical Society, vol. 140, pp. 6961–6968, 2018.Google Scholar
Kumagai, N., Komaba, S., Sakai, H., and Kumagai, N., “Preparation of todorokite-type manganese-based oxide and its application as lithium and magnesium rechargeable battery cathode,” Journal of Power Sources, vol. 97–98, pp. 515–517, 2001.Google Scholar
Zhang, R., Yu, X., Nam, K.-W. et al., ”α-MnO2 as a cathode material for rechargeable Mg batteries,” Electrochemistry Communications, vol. 23, pp. 110–113, 2012.Google Scholar
Rasul, S., Suzuki, S., Yamaguchi, S., and Miyayama, M., “High capacity positive electrodes for secondary Mg-ion batteries,” Electrochimica Acta, vol. 82, pp. 243–249, 2012.Google Scholar
Arthur, T. S., Zhang, R., Ling, C. et al., “Understanding the electrochemical mechanism of K-αMnO2 for magnesium battery cathodes,” ACS Applied Materials & Interfaces, vol. 6, pp. 7004–7008, 2014.Google Scholar
Wang, L., Asheim, K., Vullum, P. E., Svensson, A. M., and Vullum-Bruer, F., “Sponge-like porous manganese(II,III) oxide as a highly efficient cathode material for rechargeable magnesium ion batteries,” Chemistry of Materials, vol. 28, pp. 6459–6470, 2016.Google Scholar
Wang, L., Vullum, P. E., Asheim, K. et al., “High capacity Mg batteries based on surface-controlled electrochemical reactions,” Nano Energy, vol. 48, pp. 227–237, 2018.Google Scholar
Cabello, M., Alcántara, R., Nacimiento, F. et al., “Electrochemical and chemical insertion/deinsertion of magnesium in spinel-type MgMn2O4 and lambda-MnO2 for both aqueous and non-aqueous magnesium-ion batteries,” CrystEngComm, vol. 17, pp. 8728–8735, 2015.Google Scholar
Feng, Z., Chen, X., Qiao, L. et al., “Phase-controlled electrochemical activity of epitaxial Mg-spinel thin films,” ACS Applied Materials & Interfaces, vol. 7, pp. 28438–28443, 2015.Google Scholar
Kim, C., Phillips, P. J., Key, B. et al., “Direct observation of reversible magnesium ion intercalation into a spinel oxide host,” Advanced Materials, vol. 27, pp. 3377–3384, 2015.Google Scholar
Mizrahi, O., Amir, N., Pollak, E. et al., “Electrolyte solutions with a wide electrochemical window for rechargeable magnesium batteries,” Journal of The Electrochemical Society, vol. 155, p. A103, 2008.Google Scholar
Aurbach, D., Suresh, G. S., Levi, E. et al., “Progress in rechargeable magnesium battery technology,” Advanced Materials, vol. 19, pp. 4260-+, Dec. 2007.Google Scholar
Liang, Y. L., Feng, R. J., Yang, S. Q. et al., “Rechargeable Mg batteries with graphene-like MoS2 cathode and ultrasmall Mg nanoparticle anode,” Advanced Materials, vol. 23, pp. 640–643, Feb. 2011.Google Scholar
Lipson, A. L., Han, S.-D., Kim, S. et al., “Nickel hexacyanoferrate, a versatile intercalation host for divalent ions from nonaqueous electrolytes,” Journal of Power Sources, vol. 325, pp. 646–652, 2016.Google Scholar
Lu, Z., Schechter, A., Moshkovich, M., and Aurbach, D., “On the electrochemical behavior of magnesium electrodes in polar aprotic electrolyte solutions,” Journal of Electroanalytical Chemistry, vol. 466, pp. 203–217, 1999.Google Scholar
Gregory, T. D., Hoffman, R. J., and Winterton, R. C., “Nonaqueous electrochemistry of magnesium – applications to energy-storage,” Journal of the Electrochemical Society, vol. 137, pp. 775–780, Mar. 1990.Google Scholar
Aurbach, D., Weissman, I., Gofer, Y., and Levi, E., “Nonaqueous magnesium electrochemistry and its application in secondary batteries,” Chemical Record, vol. 3, pp. 61–73, 2003.CrossRefGoogle ScholarPubMed
Aurbach, D., Gofer, Y., Lu, Z. et al., “A short review on the comparison between Li battery systems and rechargeable magnesium battery technology,” Journal of Power Sources, vol. 97–98, pp. 28–32, 2001.Google Scholar
Aurbach, D., Gizbar, H., Schechter, A. et al., “Electrolyte solutions for rechargeable magnesium batteries based on organomagnesium chloroaluminate complexes,” Journal of the Electrochemical Society, vol. 149, pp. A115–A121, Feb. 2002.Google Scholar
Nelson, E. G., Brody, S. I., Kampf, J. W., and Bartlett, B. M., “A magnesium tetraphenylaluminate battery electrolyte exhibits a wide electrochemical potential window and reduces stainless steel corrosion,” Journal of Materials Chemistry A, vol. 2, pp. 18194–18198, 2014.Google Scholar
Pour, N., Gofer, Y., Major, D. T., and Aurbach, D., “Structural analysis of electrolyte solutions for rechargeable Mg batteries by stereoscopic means and DFT calculations,” Journal of the American Chemical Society, vol. 133, pp. 6270–6278, 2011.Google Scholar
Liu, T., Shao, Y., Li, G. et al., “A facile approach using MgCl2 to formulate high performance Mg2+ electrolytes for rechargeable Mg batteries,” Journal of Materials Chemistry A, vol. 2, pp. 3430–3438, 2014.Google Scholar
Barile, C. J., Barile, E. C., Zavadil, K. R., Nuzzo, R. G., and Gewirth, A. A., “Electrolytic conditioning of a magnesium aluminum chloride complex for reversible magnesium deposition,” The Journal of Physical Chemistry C, vol. 118, pp. 27623–27630, 2014.Google Scholar
See, K. A., Liu, Y.-M., Ha, Y., Barile, C. J., and Gewirth, A. A., “Effect of concentration on the electrochemistry and speciation of the magnesium aluminum chloride complex electrolyte solution,” ACS Applied Materials & Interfaces, vol. 9, pp. 35729–35739, 2017.Google Scholar
Muldoon, J., Bucur, C. B., Oliver, A. G. et al., “Corrosion of magnesium electrolytes: chlorides – the culprit,” Energy & Environmental Science, vol. 6, pp. 482–487, 2013.Google Scholar
Mohtadi, R., Matsui, M., Arthur, T. S., and Hwang, S. J., “Magnesium borohydride: from hydrogen storage to magnesium battery,” Angewandte Chemie International Edition, vol. 51, pp. 9780–9783, 2012.Google Scholar
Shao, Y., Liu, T., Li, G. et al., “Coordination chemistry in magnesium battery electrolytes: how ligands affect their performance,” Scientific Reports, vol. 3, 3130, 2013.Google Scholar
Niu, J., Zhang, Z., and Aurbach, D., “Alloy anode materials for rechargeable Mg ion batteries,” Advanced Energy Materials, vol. n/a, 2000697, 2020.Google Scholar
Liu, F., Wang, T., Liu, X., and Fan, L.-Z., “Challenges and recent progress on key materials for rechargeable magnesium batteries,” Advanced Energy Materials, vol. n/a, 2000787, 2020.Google Scholar
Shao, Y., Gu, M., Li, X. et al., “Highly reversible Mg insertion in nanostructured Bi for Mg ion batteries,” Nano Letters, vol. 14, pp. 255–260, 2014.Google Scholar
Kravchyk, K. V., Piveteau, L., Caputo, R. et al., “Colloidal bismuth nanocrystals as a model anode material for rechargeable Mg-ion batteries: atomistic and mesoscale insights,” ACS Nano, vol. 12, pp. 8297–8307, 2018.Google Scholar
Arthur, T. S., Singh, N., and Matsui, M., “Electrodeposited Bi, Sb and Bi1-xSbx alloys as anodes for Mg-ion batteries,” Electrochemistry Communications, vol. 16, pp. 103–106, 2012.Google Scholar
DiLeo, R. A., Zhang, Q., Marschilok, A. C., Takeuchi, K. J., and Takeuchi, E. S., “Composite anodes for secondary magnesium ion batteries prepared via electrodeposition of nanostructured bismuth on carbon nanotube substrates,” ECS Electrochemistry Letters, vol. 4, pp. A10–A14, 2014.Google Scholar
Attias, R., Salama, M., Hirsch, B., Goffer, Y., and Aurbach, D., “Anode-electrolyte interfaces in secondary magnesium batteries,” Joule, vol. 3, pp. 27–52, 2019.Google Scholar
Singh, N., Arthur, T. S., Ling, C., Matsui, M., and Mizuno, F., “A high energy-density tin anode for rechargeable magnesium-ion batteries,” Chemical Communications, vol. 49, pp. 149–151, 2013.Google Scholar
Wang, L., Welborn, S. S., Kumar, H. et al., “High-rate and long cycle-life alloy-type magnesium-ion battery anode enabled through (de)magnesiation-induced near-room-temperature solid–liquid phase transformation,” Advanced Energy Materials, vol. 9, 1902086, 2019.Google Scholar
Cheng, Y., Shao, Y., Parent, L. R. et al., “Interface promoted reversible Mg insertion in nanostructured tin–antimony alloys,” Advanced Materials, vol. 27, pp. 6598–6605, 2015.Google Scholar
Niu, J., Gao, H., Ma, W. et al., “Dual phase enhanced superior electrochemical performance of nanoporous bismuth-tin alloy anodes for magnesium-ion batteries,” Energy Storage Materials, vol. 14, pp. 351–360, 2018.Google Scholar
Niu, J., Yin, K., Gao, H. et al., “Composition- and size-modulated porous bismuth–tin biphase alloys as anodes for advanced magnesium ion batteries,” Nanoscale, vol. 11, pp. 15279–15288, 2019.Google Scholar
Song, M., Niu, J., Yin, K. et al., “Self-supporting, eutectic-like, nanoporous biphase bismuth-tin film for high-performance magnesium storage,” Nano Research, vol. 12, pp. 801–808, 2019.CrossRefGoogle Scholar
Nguyen, D.-T., Tran, X. M., Kang, J., and Song, S.-W., “Magnesium storage performance and surface film formation behavior of tin anode material,” ChemElectroChem, vol. 3, pp. 1813–1819, 2016.Google Scholar
Fang, G., Zhou, J., Pan, A., and Liang, S., “Recent advances in aqueous zinc-ion batteries,” ACS Energy Letters, vol. 3, pp. 2480–2501, 2018.Google Scholar
Tang, B. Y., Shan, L. T., Liang, S. Q., and Zhou, J., “Issues and opportunities facing aqueous zinc-ion batteries,” Energy & Environmental Science, vol. 12, pp. 3288–3304, Nov. 2019.Google Scholar
Xu, W. W. and Wang, Y., “Recent progress on zinc-ion rechargeable batteries,” Nano-Micro Letters, vol. 11, Oct 2019.Google Scholar
Li, C., Zhang, X., He, W., Xu, G., and Sun, R., “Cathode materials for rechargeable zinc-ion batteries: from synthesis to mechanism and applications,” Journal of Power Sources, vol. 449, 227596, 2020.Google Scholar
Liu, X. Y., Yi, J., Wu, K. et al., “Rechargeable Zn-MnO2 batteries: advances, challenges and perspectives,” Nanotechnology, vol. 31, Mar. 2020.Google Scholar
Wan, F. and Niu, Z., “Design strategies for vanadium-based aqueous zinc-ion batteries,” Angewandte Chemie International Edition, vol. 58, pp. 16358–16367, 2019.Google Scholar
Lee, B., Lee, H. R., Kim, H. et al., “Elucidating the intercalation mechanism of zinc ions into α-MnO2 for rechargeable zinc batteries,” Chemical Communications, vol. 51, pp. 9265–9268, 2015.Google Scholar
Lee, B., Yoon, C. S., Lee, H. R. et al., “Electrochemically-induced reversible transition from the tunneled to layered polymorphs of manganese dioxide,” Scientific Reports, vol. 4, 6066, 2014.Google Scholar
Wei, C., Xu, C., Li, B., Du, H., and Kang, F., “Preparation and characterization of manganese dioxides with nano-sized tunnel structures for zinc ion storage,” Journal of Physics and Chemistry of Solids, vol. 73, pp. 1487–1491, 2012.Google Scholar
Xu, C. J., Li, B. H., Du, H. D., and Kang, F. Y., “Energetic zinc ion chemistry: the rechargeable zinc ion battery,” Angewandte Chemie-International Edition, vol. 51, pp. 933–935, 2012.Google Scholar
Pan, H., Shao, Y., Yan, P. et al., “Reversible aqueous zinc/manganese oxide energy storage from conversion reactions,” Nature Energy, vol. 1, 16039, 2016.Google Scholar
Sun, W., Wang, F., Hou, S. et al., “Zn/MnO2 battery chemistry with H+ and Zn2+ coinsertion,” Journal of the American Chemical Society, vol. 139, pp. 9775–9778, 2017.Google Scholar
Zhang, N., Cheng, F., Liu, J. et al., “Rechargeable aqueous zinc-manganese dioxide batteries with high energy and power densities,” Nature Communications, vol. 8, 405, 2017.Google Scholar
Islam, S., Alfaruqi, M. H., Mathew, V. et al., “Facile synthesis and the exploration of the zinc storage mechanism of β-MnO2 nanorods with exposed (101) planes as a novel cathode material for high performance eco-friendly zinc-ion batteries,” Journal of Materials Chemistry A, vol. 5, pp. 23299–23309, 2017.Google Scholar
Alfaruqi, M. H., Mathew, V., Gim, J. et al., “Electrochemically induced structural transformation in a γ-MnO2 cathode of a high capacity zinc-ion battery system,” Chemistry of Materials, vol. 27, pp. 3609–3620, 2015.Google Scholar
Lee, J., Ju, J. B., Cho, W. I., Cho, B. W., and Oh, S. H., “Todorokite-type MnO2 as a zinc-ion intercalating material,” Electrochimica Acta, vol. 112, pp. 138–143, 2013.Google Scholar
Jin, Y., Zou, L. F., Liu, L. L. et al., “Joint charge storage for high-rate aqueous zinc-manganese dioxide batteries,” Advanced Materials, vol. 31, Jul. 2019.Google Scholar
Nam, K. W., Kim, H., Choi, J. H., and Choi, J. W., “Crystal water for high performance layered manganese oxide cathodes in aqueous rechargeable zinc batteries,” Energy & Environmental Science, vol. 12, pp. 1999–2009, Jun. 2019.Google Scholar
Ren, H., Zhao, J., Yang, L. et al., “Inverse opal manganese dioxide constructed by few-layered ultrathin nanosheets as high-performance cathodes for aqueous zinc-ion batteries,” Nano Research, vol. 12, pp. 1347–1353, 2019.Google Scholar
Ko, J. S., Sassin, M. B., Parker, J. F., Rolison, D. R., and Long, Jeffrey W., “Combining battery-like and pseudocapacitive charge storage in 3D MnOx@carbon electrode architectures for zinc-ion cells,” Sustainable Energy & Fuels, vol. 2, pp. 626–636, 2018.Google Scholar
Alfaruqi, M. H., Gim, J., Kim, S. et al., “A layered δ-MnO2 nanoflake cathode with high zinc-storage capacities for eco-friendly battery applications,” Electrochemistry Communications, vol. 60, pp. 121–125, 2015.Google Scholar
Zhang, N., Cheng, F., Liu, Y. et al., “Cation-deficient spinel ZnMn2O4 cathode in Zn(CF3SO3)2 electrolyte for rechargeable aqueous Zn-ion battery,” Journal of the American Chemical Society, vol. 138, pp. 12894–12901, 2016.Google Scholar
Fang, G., Zhu, C., Chen, M. et al., “Suppressing manganese dissolution in potassium manganate with rich oxygen defects engaged high-energy-density and durable aqueous zinc-ion battery,” Advanced Functional Materials, vol. 29, 1808375, 2019.Google Scholar
Shan, L. T., Zhou, J., Zhang, W. Y. et al., “Highly reversible phase transition endows V6O13 with enhanced performance as aqueous zinc-ion battery cathode,” Energy Technology, vol. 7, Jun 2019.Google Scholar
Zhou, J., Shan, L. T., Wu, Z. X. et al., “Investigation of V2O5 as a low-cost rechargeable aqueous zinc ion battery cathode,” Chemical Communications, vol. 54, pp. 4457–4460, Apr. 2018.Google Scholar
Yan, M., He, P., Chen, Y. et al., “Water-lubricated intercalation in V2O5·nH2O for high-capacity and high-rate aqueous rechargeable zinc batteries,” Advanced Materials, vol. 30, 1703725, 2018.Google Scholar
Kundu, D., Adams, B. D., Duffort, V., Vajargah, S. H., and Nazar, L. F., “A high-capacity and long-life aqueous rechargeable zinc battery using a metal oxide intercalation cathode,” Nature Energy, vol. 1, 16119, 2016.Google Scholar
Xia, C., Guo, J., Li, P., Zhang, X., and Alshareef, H. N., “Highly stable aqueous zinc-ion storage using a layered calcium vanadium oxide bronze cathode,” Angewandte Chemie International Edition, vol. 57, pp. 3943–3948, 2018.Google Scholar
He, P., Zhang, G., Liao, X. et al., “Sodium ion stabilized vanadium oxide nanowire cathode for high-performance zinc-ion batteries,” Advanced Energy Materials, vol. 8, 1702463, 2018.Google Scholar
Yang, Y., Tang, Y., Fang, G. et al., “Li+ intercalated V2O5·nH2O with enlarged layer spacing and fast ion diffusion as an aqueous zinc-ion battery cathode,” Energy & Environmental Science, vol. 11, pp. 3157–3162, 2018.Google Scholar
He, P., Quan, Y. L., Xu, X. et al., “High-performance aqueous zinc-ion battery based on layered H2V3O8 nanowire cathode,” Small, vol. 13, Dec 2017.Google Scholar
Hu, P., Zhu, T., Wang, X. et al., “Highly durable Na2V6O16·1.63H2O nanowire cathode for aqueous zinc-ion battery,” Nano Letters, vol. 18, pp. 1758–1763, 2018.Google Scholar
Wan, F., Zhang, L., Dai, X. et al., “Aqueous rechargeable zinc/sodium vanadate batteries with enhanced performance from simultaneous insertion of dual carriers,” Nature Communications, vol. 9, 1656, 2018.Google Scholar
Yufit, V., Tariq, F., Eastwood, D. S. et al., “Operando visualization and multi-scale tomography studies of dendrite formation and dissolution in zinc batteries,” Joule, vol. 3, pp. 485–502, 2019.Google Scholar
Lu, W. J., Xie, C. X., Zhang, H. M., and Li, X. F., “Inhibition of zinc dendrite growth in zinc-based batteries,” Chemsuschem, vol. 11, pp. 3996–4006, Dec. 2018.Google Scholar
Parker, J. F., Chervin, C. N., Nelson, E. S., Rolison, D. R., and Long, J. W., “Wiring zinc in three dimensions re-writes battery performance – dendrite-free cycling,” Energy & Environmental Science, vol. 7, pp. 1117–1124, 2014.Google Scholar
Hopkins, B. J., Sassin, M. B., Chervin, C. N. et al., “Fabricating architected zinc electrodes with unprecedented volumetric capacity in rechargeable alkaline cells,” Energy Storage Materials, vol. 27, pp. 370–376, 2020.Google Scholar
Parker, J. F., Chervin, C. N., Pala, I. R. et al., “Rechargeable nickel–3D zinc batteries: an energy-dense, safer alternative to lithium-ion,” Science, vol. 356, 415, 2017.Google Scholar
Kang, Z., Wu, C., Dong, L. et al., “3D porous copper skeleton supported zinc anode toward high capacity and long cycle life zinc ion batteries,” ACS Sustainable Chemistry & Engineering, vol. 7, pp. 3364–3371, 2019.Google Scholar
Li, H. F., Xu, C. J., Han, C. P. et al., “Enhancement on cycle performance of Zn anodes by activated carbon modification for neutral rechargeable zinc ion batteries,” Journal of the Electrochemical Society, vol. 162, pp. A1439–A1444, 2015.Google Scholar
Wang, X., Wang, F., Wang, L. et al., “An aqueous rechargeable Zn//Co3O4 battery with high energy density and good cycling behavior,” Advanced Materials, vol. 28, pp. 4904–4911, 2016.Google Scholar
Wang, L.-P., Li, N.-W., Wang, T.-S. et al., “Conductive graphite fiber as a stable host for zinc metal anodes,” Electrochimica Acta, vol. 244, pp. 172–177, 2017.Google Scholar
Qiu, W., Li, Y., You, A. et al., “High-performance flexible quasi-solid-state Zn–MnO2 battery based on MnO2 nanorod arrays coated 3D porous nitrogen-doped carbon cloth,” Journal of Materials Chemistry A, vol. 5, pp. 14838–14846, 2017.Google Scholar
Zhao, Z., Zhao, J., Hu, Z. et al., “Long-life and deeply rechargeable aqueous Zn anodes enabled by a multifunctional brightener-inspired interphase,” Energy & Environmental Science, vol. 12, pp. 1938–1949, 2019.Google Scholar
Zhao, K. N., Wang, C. X., Yu, Y. H. et al., “Ultrathin surface coating enables stabilized zinc metal anode,” Advanced Materials Interfaces, vol. 5, 1800848, Aug. 2018.Google Scholar
Kang, L., Cui, M., Jiang, F. et al., “Nanoporous CaCO3 coatings enabled uniform Zn stripping/plating for long-Life zinc rechargeable aqueous batteries,” Advanced Energy Materials, vol. 8, 1801090, 2018.Google Scholar
Xie, X., Liang, S., Gao, J. et al., “Manipulating the ion-transfer kinetics and interface stability for high-performance zinc metal anodes,” Energy & Environmental Science, vol. 13, pp. 503–510, 2020.Google Scholar
Ming, J., Guo, J., Xia, C., Wang, W., and Alshareef, H. N., “Zinc-ion batteries: materials, mechanisms, and applications,” Materials Science and Engineering: R: Reports, vol. 135, pp. 58–84, 2019.Google Scholar
Ding, F., Xu, W., Graff, G. L. et al., “Dendrite-free lithium deposition via self-healing electrostatic shield mechanism,” Journal of the American Chemical Society, vol. 135, pp. 4450–4456, 2013.Google Scholar
Banik, S. J. and Akolkar, R., “Suppressing dendrite growth during zinc electrodeposition by PEG-200 additive,” Journal of the Electrochemical Society, vol. 160, pp. D519–D523, 2013.Google Scholar
Banik, S. J. and Akolkar, R., “Suppressing dendritic growth during alkaline zinc electrodeposition using polyethylenimine additive,” Electrochimica Acta, vol. 179, pp. 475–481, 2015.Google Scholar
Hou, Z., Zhang, X., Li, X. et al., “Surfactant widens the electrochemical window of an aqueous electrolyte for better rechargeable aqueous sodium/zinc battery,” Journal of Materials Chemistry A, vol. 5, pp. 730–738, 2017.Google Scholar
Lee, C. W., Sathiyanarayanan, K., Eom, S. W., Kim, H. S., and Yun, M. S., “Novel electrochemical behavior of zinc anodes in zinc/air batteries in the presence of additives,” Journal of Power Sources, vol. 159, pp. 1474–1477, 2006.Google Scholar
Alfaruqi, M. H., Islam, S., Putro, D. Y. et al., “Structural transformation and electrochemical study of layered MnO2 in rechargeable aqueous zinc-ion battery,” Electrochimica Acta, vol. 276, pp. 1–11, 2018.Google Scholar
Wu, X. W., Xiang, Y. H., Peng, Q. J. et al., “Green-low-cost rechargeable aqueous zinc-ion batteries using hollow porous spinel ZnMn2O4 as the cathode material,” Journal of Materials Chemistry A, vol. 5, pp. 17990–17997, Sep. 2017.Google Scholar
Kim, S. H. and Oh, S. M., “Degradation mechanism of layered MnO2 cathodes in Zn/ZnSO4/MnO2 rechargeable cells,” Journal of Power Sources, vol. 72, pp. 150–158, 1998.Google Scholar
Jo, J. H., Sun, Y.-K., and Myung, S.-T., “Hollandite-type Al-doped VO1.52(OH)0.77 as a zinc ion insertion host material,” Journal of Materials Chemistry A, vol. 5, pp. 8367–8375, 2017.Google Scholar
Lai, J., Zhu, H., Zhu, X., Koritala, H., and Wang, Y., “Interlayer-expanded V6O13·nH2O architecture constructed for an advanced rechargeable aqueous zinc-ion battery,” ACS Applied Energy Materials, vol. 2, pp. 1988–1996, 2019.Google Scholar
Li, Y. and Lu, J., “Metal–air batteries: will they be the future electrochemical energy storage device of choice?,” ACS Energy Letters, vol. 2, pp. 1370–1377, 2017.Google Scholar
Zhang, J., Zhou, Q., Tang, Y., Zhang, L., and Li, Y., “Zinc–air batteries: are they ready for prime time?,” Chemical Science, vol. 10, pp. 8924–8929, 2019.Google Scholar
Li, Y. and Dai, H., “Recent advances in zinc–air batteries,” Chemical Society Reviews, vol. 43, pp. 5257–5275, 2014.Google Scholar
Suen, N.-T., Hung, S.-F., Quan, Q. et al., “Electrocatalysis for the oxygen evolution reaction: recent development and future perspectives,” Chemical Society Reviews, vol. 46, pp. 337–365, 2017.Google Scholar
Mainar, A. R., Colmenares, L. C., Leonet, O. et al., “Manganese oxide catalysts for secondary zinc air batteries: from electrocatalytic activity to bifunctional air electrode performance,” Electrochimica Acta, vol. 217, pp. 80–91, 2016.Google Scholar
Stock, D., Dongmo, S., Janek, J., and Schröder, D., “Benchmarking anode concepts: the future of electrically rechargeable zinc–air batteries,” ACS Energy Letters, vol. 4, pp. 1287–1300, 2019.Google Scholar
Parker, J. F., Ko, J. S., Rolison, D. R., and Long, J. W., “Translating materials-level performance into device-relevant metrics for zinc-based batteries,” Joule, vol. 2, pp. 2519–2527, 2018.Google Scholar
Mainar, A. R., Iruin, E., Colmenares, L. C. et al., “An overview of progress in electrolytes for secondary zinc-air batteries and other storage systems based on zinc,” Journal of Energy Storage, vol. 15, pp. 304–328, 2018.Google Scholar
Clark, S., Mainar, A. R., Iruin, E. et al., “Towards rechargeable zinc–air batteries with aqueous chloride electrolytes,” Journal of Materials Chemistry A, vol. 7, pp. 11387–11399, 2019.Google Scholar
Weaver, J., “Zinc-air battery being deployed in New York aims for extremely low $45/kWh cost,” PV Magazine, Jan. 27, 2020.Google Scholar
Fu, J., Cano, Z. P., Park, M. G. et al., “Electrically rechargeable zinc–air batteries: progress, challenges, and perspectives,” vol. 29, 1604685, 2017.Google Scholar
Fan, X., Liu, B., Liu, J. et al., “Battery technologies for grid-level large-scale electrical energy storage,” Transactions of Tianjin University, vol. 26, pp. 92–103, 2020.Google Scholar
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