[1] Etacheri, V., Marom, R., Elazari, R., Salitra, G., & Aurbach, D. (2011). Challenges in the development of advanced Li-ion batteries: a review. Energy & Environmental Science, 4(9), 3243-3262.
[2] Goodenough, J. B., & Kim, Y. (2010). Challenges for rechargeable Li batteries. Chemistry of materials, 22(3), 587-603. .
[3] Zaryabi, H. (2010). Age of lithium batteries. Applied Chemistry Today, 5(16), 13-30.
[4] Heidari, , Saadatjoo, , & Dostmohamadi, (2010). Thcnological Development Batteries in Medical Instrment. Applied Chemistry Today, 5(15), 13-18. doi: 10.22075/chem.2017.572
[5] Rupp, H., Bhandary, R., Kulkarni, A., & Binder, W. (2022). Printable Electrolytes: Tuning 3D‐Printing by Multiple Hydrogen Bonds and Added Inorganic Lithium‐Salts. Advanced Materials Technologies, 7(8), 2200088.
[6] Zhu, Y., Li, Y., Bettge, M., & Abraham, D. P. (2012). Positive electrode passivation by LiDFOB electrolyte additive in high-capacity lithium-ion cells. Journal of the Electrochemical Society, 159(12), A2109.
[7] Daryanavard, M., & Shahrokhi, P. (2024). Preparation, Characterization, and Application of Zinc Borate as a Fire Retardant Agent for Poly (acrylonitrile). Applied Chemistry Today, 19(70), 215-230.
[8] TAHERPUR, H., POURHERAVI, M., & ASHOURI, M. F. (2016). Exploring the PES of the Staudinger Reaction between (CH3) 2CHCH2N3 and (CH3) 3P by DFT Method.
[9] Fouladvand, M., Naji, L., & Javanbakht, M. (2020). Investigating effect of Graphene Oxide on the morphology and electrochemical properties of Polymer Electrolyte based on Poly (vinylidenefluoride) for lithium-ion batteries. Applied Chemistry Today, 15(54), 257-272.
[10] Liang, B., Liu, Y., & Xu, Y. (2014). Silicon-based materials as high capacity anodes for next generation lithium ion batteries. Journal of Power sources, 267, 469-490.
[11] Zhang, S., He, M., Su, C. C., & Zhang, Z. (2016). Advanced electrolyte/additive for lithium-ion batteries with silicon anode. Current opinion in chemical engineering, 13, 24-35.
[12] Zhou, X., Yin, Y. X., Wan, L. J., & Guo, Y. G. (2012). Self-assembled nanocomposite of silicon nanoparticles encapsulated in graphene through electrostatic attraction for lithium-ion batteries. Advanced Energy Materials, 2.
[13] Luo, W., Chen, X., Xia, Y., Chen, M., Wang, L., Wang, Q., ... & Yang, J. (2017). Surface and interface engineering of silicon‐based anode materials for lithium‐ion batteries. Advanced Energy Materials, 7(24), 1701083.
[14] Ramasubramanian, B., Sundarrajan, S., Chellappan, V., Reddy, M. V., Ramakrishna, S., & Zaghib, K. (2022). Recent development in carbon-LiFePO4 cathodes for lithium-ion batteries: a mini review. Batteries, 8(10), 133.
[15] Mao, B., Liu, C., Yang, K., Li, S., Liu, P., Zhang, M., ... & Sun, J. (2021). Thermal runaway and fire behaviors of a 300 Ah lithium ion battery with LiFePO4 as cathode. Renewable and Sustainable Energy Reviews, 139, 110717.
[16] Lei, W., Jiao, X., Yang, S., Ajdari, F. B., Salavati-Niasari, M., Feng, Y., ... & Song, J. (2022). Temperature and stress-resistant solid state electrolyte for stable lithium-metal batteries. Energy Storage Materials, 49, 502-508.
[17] Lei, W., Zhang, C., Qiao, R., Ravivarma, M., Chen, H., Ajdari, F. B., ... & Song, J. (2023). Stable Li| LAGP interface enabled by confining solvate ionic liquid in a hyperbranched polyanionic copolymer for NASICON-based solid-state batteries. ACS Applied Energy Materials, 6(8), 4363-4371.
[18] Boorboor Ajdari, F., Asghari, P., Molaei Aghdam, A., Abbasi, F., Rao, R. P., Abbasi, A., ... & Mikaeili Chahartagh, N. (2024). Silicon Solid State Battery: The Solid‐State Compatibility, Particle Size, and Carbon Compositing for High Energy Density. Advanced Functional Materials, 2314822.
[19] Kim, K., Ma, H., Park, S., & Choi, N. S. (2020). Electrolyte-additive-driven interfacial engineering for high-capacity electrodes in lithium-ion batteries: promise and challenges. ACS Energy Letters, 5(5), 1537-1553.
[20] Li, L., Wang, D., Xu, G., Zhou, Q., Ma, J., Zhang, J., ... & Cui, G. (2022). Recent progress on electrolyte functional additives for protection of nickel-rich layered oxide cathode materials. Journal of Energy Chemistry, 65, 280-292.
[21] Qian, Y., Kang, Y., Hu, S., Shi, Q., Chen, Q., Tang, X., ... & Deng, Y. (2020). Mechanism study of unsaturated tripropargyl phosphate as an efficient electrolyte additive forming multifunctional interphases in lithium ion and lithium metal batteries. ACS applied materials & interfaces, 12(9), 10443-10451.
[22] Che, Y., Lin, X., Xing, L., Guan, X., Guo, R., Lan, G., ... & Li, W. (2021). Protective electrode/electrolyte interphases for high energy lithium-ion batteries with p-toluenesulfonyl fluoride electrolyte additive. Journal of Energy Chemistry, 52, 361-371.
[23] Li, J., Liao, Y., Fan, W., Li, Z., Li, G., Zhang, Q., ... & Li, W. (2020). Significance of electrolyte additive molecule structure in constructing robust interphases on high-voltage cathodes. ACS Applied Energy Materials, 3(3), 3049-3058.
[24] Hu, Z., Wang, K., Che, Y., Liu, M., Zhang, W., Xing, L., ... & Li, W. (2021). A Novel electrolyte additive enables high-voltage operation of nickel-rich oxide/graphite cells. The Journal of Physical Chemistry Letters, 12(18), 4327-4338.
[25] Lei, S., Zeng, Z., Cheng, S., & Xie, J. (2023). Fast‐charging of lithium‐ion batteries: A review of electrolyte design aspects. Battery Energy, 2(5), 20230018.
[26] Kim, T., Choi, W., Shin, H. C., Choi, J. Y., Kim, J. M., Park, M. S., & Yoon, W. S. (2020). Applications of voltammetry in lithium ion battery research. Journal of Electrochemical Science and Technology, 11(1), 14-25.
[27] Liu, L., Gao, W., Cui, Y., & Chen, S. (2020). A bifunctional additive bi (4-flurorophenyl) sulfone for enhancing the stability and safety of nickel-rich cathode based cells. Journal of Alloys and Compounds, 820, 153069.
[28] Sungjemmenla, SK, V., Soni, C. B., Kumar, V., & Seh, Z. W. (2022). Understanding the cathode–electrolyte interphase in lithium‐ion batteries. Energy Technology, 10(9), 2200421.
[29] Liao, X. Q., Li, F., Zhang, C. M., Yin, Z. L., Liu, G. C., & Yu, J. G. (2021). Improving the stability of high-voltage lithium cobalt oxide with a multifunctional electrolyte additive: Interfacial analyses. Nanomaterials, 11(3), 609..
[30] Xu, J. (2022). Critical review on cathode–electrolyte interphase toward high-voltage cathodes for Li-ion batteries. Nano-micro letters, 14(1), 166.
[31] Lee, S. J., Han, J. G., Lee, Y., Jeong, M. H., Shin, W. C., Ue, M., & Choi, N. S. (2014). A bi-functional lithium difluoro (oxalato) borate additive for lithium cobalt oxide/lithium nickel manganese cobalt oxide cathodes and silicon/graphite anodes in lithium-ion batteries at elevated temperatures. Electrochimica Acta, 137, 1-8.
[32] Wang, W., & Yang, S. (2017). Enhanced overall electrochemical performance of silicon/carbon anode for lithium-ion batteries using fluoroethylene carbonate as an electrolyte additive. Journal of Alloys and Compounds, 695, 3249-3255.
[33] Chatterjee, K., Pathak, A. D., Sahu, K. K., & Singh, A. K. (2020). New Thiourea-based ionic liquid as an electrolyte additive to improve cell safety and enhance electrochemical performance in lithium-ion batteries. ACS omega, 5(27), 16681-16689.
[34] Cho, Y. H., Kim, K., Ahn, S., & Liu, H. K. (2011). Allyl-substituted triazines as additives for enhancing the thermal stability of Li-ion batteries. Journal of Power Sources, 196(3), 1483-1487.
[35] Kanamura, K. (1999). Anodic oxidation of nonaqueous electrolytes on cathode materials and current collectors for rechargeable lithium batteries. Journal of power sources, 81, 123-129.
[36] Zheng, Q., Xing, L., Yang, X., Li, X., Ye, C., Wang, K., ... & Li, W. (2018). N-Allyl-N, N-Bis (trimethylsilyl) amine as a novel electrolyte additive to enhance the interfacial stability of a Ni-rich electrode for Lithium-ion batteries. ACS applied materials & interfaces, 10(19), 16843-16851.
[37] Zheng, Y., Xu, N., Chen, S., Liao, Y., Zhong, G., Zhang, Z., & Yang, Y. (2020). Construction of a stable LiNi0. 8Co0. 1Mn0. 1O2 (NCM811) cathode interface by a multifunctional organosilicon electrolyte additive. ACS Applied Energy Materials, 3(3), 2837-2845.
[38] Liu, G., Jiao, T., Cheng, Y., Zhou, K., Zou, Y., Wang, M., ... & Zheng, J. (2021). Interfacial enhancement of silicon-based anode by a lactam-type electrolyte additive. Acs Applied Energy Materials, 4(9), 10323-10332.
[39] Lee, S. H., Yoon, S., Hwang, E. H., Kwon, Y. G., Lee, Y. G., & Cho, K. Y. (2018). [4, 4′-bi (1, 3, 2-dioxathiolane)] 2, 2′-dioxide: A novel cathode additive for high-voltage performance in lithium ion batteries. Journal of Power Sources, 378, 112-118.
[40] Park, E. J., Kwon, Y. G., Yoon, S., & Cho, K. Y. (2019). Synergistic high-voltage lithium ion battery performance by dual anode and cathode stabilizer additives. Journal of Power Sources, 441, 126668.
[41] Lee, H., Han, T., Cho, K. Y., Ryou, M. H., & Lee, Y. M. (2016). Dopamine as a novel electrolyte additive for high-voltage lithium-ion batteries. ACS Applied Materials & Interfaces, 8(33), 21366-21372.
[42] Peljo, P., & Girault, H. H. (2018). Electrochemical potential window of battery electrolytes: the HOMO–LUMO misconception. Energy & Environmental Science, 11(9), 2306-2309.
[43] Peljo, P., & Girault, H. H. (2018). Electrochemical potential window of battery electrolytes: the HOMO–LUMO misconception. Energy & Environmental Science, 11(9), 2306-2309.
[44] Borodin, O. (2019). Challenges with prediction of battery electrolyte electrochemical stability window and guiding the electrode–electrolyte stabilization. Current Opinion in Electrochemistry, 13, 86-93.
[45] Park, S., Choi, G., Lim, H. Y., Jung, K. M., Kwak, S. K., & Choi, N. S. (2023). A Phosphorofluoridate-Based Multifunctional Electrolyte Additive Enables Long Cycling of High-Energy Lithium-Ion Batteries. ACS Applied Materials & Interfaces, 15(28), 33693-33702.
[46] Liu, M. C., Liu, Q. S., Quan, Y. Z., Yu, J. L., Wu, G., Wang, X. L., & Wang, Y. Z. (2024). Phosphorus-silicon-integrated electrolyte additive boosts cycling performance and safety of high-voltage lithium-ion batteries. Chinese Chemical Letters, 35(8), 109123.
[47] Kim, K. J., Kim, J. H., Park, M. S., Kwon, H. K., Kim, H., & Kim, Y. J. (2012). Enhancement of electrochemical and thermal properties of polyethylene separators coated with polyvinylidene fluoride–hexafluoropropylene co-polymer for Li-ion batteries. Journal of power Sources, 198, 298-302.
[48] Jeong, Y. B., & Kim, D. W. (2004). Cycling performances of Li/LiCoO2 cell with polymer-coated separator. Electrochimica acta, 50(2-3), 323-326.
[49] Lee, J. R., Won, J. H., Kim, J. H., Kim, K. J., & Lee, S. Y. (2012). Evaporation-induced self-assembled silica colloidal particle-assisted nanoporous structural evolution of poly (ethylene terephthalate) nonwoven composite separators for high-safety/high-rate lithium-ion batteries. Journal of Power Sources, 216, 42-47.
[50] Park, J. H., Kim, J. S., Shim, E. G., Park, K. W., Hong, Y. T., Lee, Y. S., & Lee, S. Y. (2010). Polyimide gel polymer electrolyte-nanoencapsulated LiCoO2 cathode materials for high-voltage Li-ion batteries. Electrochemistry Communications, 12(8), 1099-1102.
[51] Duh, Y. S., Sun, Y., Lin, X., Zheng, J., Wang, M., Wang, Y., ... & Yu, G. (2021). Characterization on thermal runaway of commercial 18650 lithium-ion batteries used in electric vehicles: A review. Journal of Energy Storage, 41, 102888.
[52] Wu, Y., Wang, S., Li, H., Chen, L., & Wu, F. (2021). Progress in thermal stability of all‐solid‐state‐Li‐ion‐batteries. InfoMat, 3(8), 827-853.
[53] Long, J., Huang, J., Miao, Y., Huang, H., Chen, X., Wu, J., ... & Chen, Y. (2024). A multi-functional electrolyte additive for fast-charging and flame-retardant lithium-ion batteries. Journal of Materials Chemistry A.
[54] Moon, H., Kim, D., Park, G., Shin, K., Cho, Y., Gong, C., ... & Choi, N. S. Balancing Ionic and Electronic Conduction at the LiFePO4 Cathode–Electrolyte Interface and Regulating Solid Electrolyte Interphase in Lithium‐Ion Batteries. Advanced Functional Materials, 2403261.
[55] Shangguan, X., Jia, G., Li, F., Liu, S., Yang, G., Wu, K., & Wu, Z. (2018). 1‐Ethyl‐3‐Methyl‐Imidazolium Bis (Trifluoromethane‐sulfonyl) Imide as an Electrolyte Additive in LiFePO4‐Based Batteries for Suppressing Aluminum Corrosion. Energy Technology, 6(9), 1667-1674.
[56] Zhang, S., Li, J., Jiang, N., Li, X., Pasupath, S., Fang, Y., ... & Dang, D. (2019). Rational Design of an Ionic Liquid‐Based Electrolyte with High Ionic Conductivity Towards Safe Lithium/Lithium‐Ion Batteries. Chemistry–An Asian Journal, 14(16), 2810-2814.
[57] Zhao, K., Liang, H., Zhou, M., Zhang, G., Zhao, C., Ge, J., ... & Gao, Z. (2018). Enhancing High‐Rate Capability by Introducing Phosphonate Functionalized Imidazolium Ionic Liquid into Organic Carbonate Electrolyte. ChemistrySelect, 3(16), 4421-4424.
[58] Brown, Z. L., Heiskanen, S., & Lucht, B. L. (2019). Using triethyl phosphate to increase the solubility of LiNO3 in carbonate electrolytes for improving the performance of the lithium metal anode. Journal of The Electrochemical Society, 166(12), A2523-A2527.
[59] Zhang, J., Shkrob, I. A., Assary, R. S., Zhang, S., Hu, B., Liao, C., ... & Zhang, L. (2018). Dual overcharge protection and solid electrolyte interphase-improving action in Li-ion cells containing a bis-annulated dialkoxyarene electrolyte additive. Journal of Power Sources, 378, 264-267.
[60] Wang, B., Xia, Q., Zhang, P., Li, G. C., Wu, Y. P., Luo, H. J., ... & van Ree, T. (2008). N-Phenylmaleimide as a new polymerizable additive for overcharge protection of lithium-ion batteries. Electrochemistry communications, 10(5), 727-730.
[61] Jankowski, P., Lindahl, N., Weidow, J., Wieczorek, W., & Johansson, P. (2018). Impact of sulfur-containing additives on lithium-ion battery performance: from computational predictions to full-cell assessments. ACS Applied Energy Materials, 1(6), 2582-2591.
[62] Yan, P., Zhu, Y., Pan, X., & Ji, H. (2021). A novel flame‐retardant electrolyte additive for safer lithium‐ion batteries. International Journal of Energy Research, 45(2), 2776-2784.
