References
[1]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-w [2]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.
[3]“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.
[5]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.
[6]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.
[7]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. [8]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.
[9]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.
[10]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.
[12]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. [14]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.
[15]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.
[16]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.
[17]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.
[18]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.
[19]Nelson, R., “The basic chemistry of gas recombination in lead-acid batteries,” JOM, vol. 53, pp. 28–33, 2001.
[20]Beck, F. and Rüetschi, P., “Rechargeable batteries with aqueous electrolytes,” Electrochimica Acta, vol. 45, pp. 2467–2482, 2000.
[21]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.
[22]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.
[23]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.
[24]Putois, F., “Market for nickel-cadmium batteries,” Journal of Power Sources, vol. 57, pp.67–70, 1995.
[25]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.
[26]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.
[27]Dunn, B., Kamath, H., and Tarascon, J.-M., “Electrical energy storage for the grid: A battery of choices,” Science, vol. 334, p. 928, 2011.
[28]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.
[29]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.
[30]Duduta, M., Ho, B., Wood, V. C. et al., “Semi-solid lithium rechargeable flow battery,” vol. 1, pp. 511–516, 2011.
[31]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.
[32]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.
[33]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.
[34]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.
[35]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.
[36]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.
[37]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.
[38]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.
[39]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.
[40]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.
[41]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.
[42]Pan, F. and Wang, Q., “Redox species of redox flow batteries: a review,” Molecules (Basel, Switzerland), vol. 20, pp. 20499–20517, 2015.
[43]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.
[44]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.
[45]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.
[46]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. [48]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.
[49]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.
[51]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.
[52]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.
[53]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.
[54]Duduta, M., Ho, B., Wood, V. C. et al., “Semi-solid lithium rechargeable flow battery,” Advanced Energy Materials, vol. 1, pp. 511–516, 2011.
[55]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.
[56]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.
[57]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.
[58]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.
[60]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.
[61]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.
[62]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.
[63]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.
[64]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.
[65]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.
[66]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.
[67]Sudworth, J. L., “The sodium/sulphur battery,” Journal of Power Sources, vol. 11, pp. 143–154, 1984.
[68]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.
[69]Miyoshi, M. M. T., Kusakabe, Y., Hatou, H. et al., US Pat., Application No. 10/246703, 2003.
[70]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.
[71]Manthiram, A. and Yu, X., “Ambient temperature sodium–sulfur batteries,” Small, vol. 11, pp. 2108–2114, 2015.
[72]Ohki, Y., IEEE Electrical Insulation Magazine, vol. 33, pp. 59–61, 2017.
[73]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.
[74]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.
[75]Staffell, I. and Rustomji, M., “Maximising the value of electricity storage,” Journal of Energy Storage, vol. 8, pp.212–225, 2016.
[76]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.
[77]Sudworth, J., “The sodium/nickel chloride (ZEBRA) battery,” Journal of Power Sources, vol. 100, pp. 149–163, 2001.
[78]Coetzer, J., “A new high energy density battery system,” Journal of Power Sources, vol. 18, pp.377–380, 1986.
[79]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.
[80]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.
[81]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.
[82]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.
[83]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.
[84]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.
[85]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.
[87]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.
[88]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.
[89]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.
[90]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.
[91]Zatovsky, I., “NASICON-type Na3V2(PO4)3,” Acta Crystallographica Section E, vol. 66, p. i12, 2010.
[92]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.
[93]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.
[94]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.
[95]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.
[96]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.
[97]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.
[98]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.
[99]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.
[100]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.
[101]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.
[102]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.
[103]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.
[104]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.
[105]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.
[106]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.
[107]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.
[108]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.
[109]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.
[110]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.
[111]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.
[112]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.
[113]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.
[114]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.
[115]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.
[116]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.
[117]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.
[118]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.
[119]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.
[120]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.
[121]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.
[122]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.
[123]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.
[124]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.
[125]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.
[126]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.
[127]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.
[128]Takachi, M., Matsuda, T., and Moritomo, Y., “Cobalt hexacyanoferrate as cathode material for Na+ secondary battery,” Applied Physics Express, vol. 6, Feb. 2013.
[129]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.
[130]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.
[131]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.
[132]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.
[133]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.
[134]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.
[135]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.
[136]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.
[137]Wen, Y., He, K., Zhu, Y. et al., “Expanded graphite as superior anode for sodium-ion batteries,” Nature Communications, vol. 5, 4033, 2014.
[138]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.
[139]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.
[140]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.
[141]Hwang, J. Y., Myung, S. T., and Sun, Y. K., “Recent progress in rechargeable potassium batteries,” Advanced Functional Materials, vol. 28, Oct. 2018.
[142]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.
[143]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.
[144]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.
[145]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.
[146]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.
[147]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.
[148]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.
[149]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.
[150]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.
[151]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.
[152]Aurbach, D., Lu, Z., Schechter, A. et al., “Prototype systems for rechargeable magnesium batteries,” Nature, vol. 407, pp.724–727, 2000.
[153]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.
[154]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.
[155]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.
[156]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.
[157]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.
[158]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.
[159]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.
[160]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.
[161]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.
[162]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.
[163]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.
[164]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.
[165]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.
[166]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.
[167]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.
[168]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.
[169]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.
[170]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.
[171]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.
[172]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.
[173]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.
[174]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.
[175]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.
[176]Aurbach, D., Suresh, G. S., Levi, E. et al., “Progress in rechargeable magnesium battery technology,” Advanced Materials, vol. 19, pp. 4260-+, Dec. 2007.
[177]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.
[178]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.
[179]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.
[180]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.
[181]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.
[182]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.
[183]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.
[184]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.
[185]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.
[186]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.
[187]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.
[188]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.
[189]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.
[190]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.
[191]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.
[192]Niu, J., Zhang, Z., and Aurbach, D., “Alloy anode materials for rechargeable Mg ion batteries,” Advanced Energy Materials, vol. n/a, 2000697, 2020.
[193]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.
[194]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.
[195]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.
[196]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.
[197]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.
[198]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.
[199]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.
[200]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.
[201]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.
[202]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.
[203]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.
[204]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.
[205]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.
[206]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.
[207]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.
[208]Xu, W. W. and Wang, Y., “Recent progress on zinc-ion rechargeable batteries,” Nano-Micro Letters, vol. 11, Oct 2019.
[209]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.
[210]Liu, X. Y., Yi, J., Wu, K. et al., “Rechargeable Zn-MnO2 batteries: advances, challenges and perspectives,” Nanotechnology, vol. 31, Mar. 2020.
[211]Wan, F. and Niu, Z., “Design strategies for vanadium-based aqueous zinc-ion batteries,” Angewandte Chemie International Edition, vol. 58, pp. 16358–16367, 2019.
[212]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.
[213]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.
[214]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.
[215]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.
[216]Pan, H., Shao, Y., Yan, P. et al., “Reversible aqueous zinc/manganese oxide energy storage from conversion reactions,” Nature Energy, vol. 1, 16039, 2016.
[217]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.
[218]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.
[219]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.
[220]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.
[221]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.
[222]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.
[223]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.
[224]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.
[225]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.
[226]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.
[227]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.
[228]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.
[229]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.
[230]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.
[231]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.
[232]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.
[233]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.
[234]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.
[235]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.
[236]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.
[237]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.
[238]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.
[239]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.
[240]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.
[241]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.
[242]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.
[243]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.
[244]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.
[245]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.
[246]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.
[247]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.
[248]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.
[249]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.
[250]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.
[251]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.
[252]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.
[253]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.
[254]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.
[255]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.
[256]Banik, S. J. and Akolkar, R., “Suppressing dendritic growth during alkaline zinc electrodeposition using polyethylenimine additive,” Electrochimica Acta, vol. 179, pp. 475–481, 2015.
[257]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.
[258]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.
[259]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.
[260]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.
[261]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.
[262]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.
[263]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.
[264]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.
[265]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.
[266]Li, Y. and Dai, H., “Recent advances in zinc–air batteries,” Chemical Society Reviews, vol. 43, pp. 5257–5275, 2014.
[267]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.
[268]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.
[269]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.
[270]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.
[271]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.
[272]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.
[273]Weaver, J., “Zinc-air battery being deployed in New York aims for extremely low $45/kWh cost,” PV Magazine, Jan. 27, 2020.
[274]Fu, J., Cano, Z. P., Park, M. G. et al., “Electrically rechargeable zinc–air batteries: progress, challenges, and perspectives,” vol. 29, 1604685, 2017.
[275]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.