Pre-Lithiation and Continuous Lithium Compensation Technologies for Advanced Lithium-Ion Batteries

Wang Huang , Yupeng Zhu , Yulin Ma , Hua Huo , Pengjian Zuo , Chunyu Du , Geping Yin , Yikang Yu , Siyuan Li , Wei Chen , Liguang Wang , Chuankai Fu

EcoEnergy ›› 2025, Vol. 3 ›› Issue (4) : e70016

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EcoEnergy ›› 2025, Vol. 3 ›› Issue (4) :e70016 DOI: 10.1002/ece2.70016
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Pre-Lithiation and Continuous Lithium Compensation Technologies for Advanced Lithium-Ion Batteries
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Abstract

Continuous active lithium loss in lithium-ion batteries (LIBs) systems remains a major challenge for a long calendar life, particularly the severe initial capacity loss of high-capacity anode materials. In response to this critical issue, lithium replenishment technologies, encompassing both pre-lithiation and continuous lithium compensation strategies, have emerged as focal points of intensive research. This review provides a comprehensive and critical summary of recent advancements in these areas. The discussion commences with an in-depth analysis of mechanisms underlying active lithium loss associated with anode materials including graphite and other high capacity materials. A variety of pre-lithiation strategies, involving both anode-side and cathode-side techniques, are systematically categorized, compared, and evaluated in terms of their effectiveness, limitations, and implementation challenges. This work represents the systematic compilation and analysis of contemporary continuous lithium compensation strategies, highlighting their potential as innovative and promising solutions to mitigate lithium loss throughout the entire lifespan of LIBs.

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Wang Huang, Yupeng Zhu, Yulin Ma, Hua Huo, Pengjian Zuo, Chunyu Du, Geping Yin, Yikang Yu, Siyuan Li, Wei Chen, Liguang Wang, Chuankai Fu. Pre-Lithiation and Continuous Lithium Compensation Technologies for Advanced Lithium-Ion Batteries. EcoEnergy, 2025, 3(4): e70016 DOI:10.1002/ece2.70016

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References

[1]

J. W. Choi and D. Aurbach, “Promise and Reality of Post-Lithium-Ion Batteries With High Energy Densities,” Nature Reviews Materials1, no. 4 (2016): 16013.

[2]

B. Dunn, H. Kamath, and J.-M. Tarascon, “Electrical Energy Storage for the Grid: A Battery of Choices,” Science334, no. 6058 (2011): 928-935.

[3]

X.-T. Li, J. Chou, Y.-H. Zhu, W.-P. Wang, S. Xin, and Y.-G. Guo, “Hydrogen Isotope Effects: A New Path to High-Energy Aqueous Rechargeable Li/Na-Ion Batteries,” eScience3 (2023): 100121.

[4]

Y. Zhao, Y. Fu, Y. Meng, Z. Wang, J. Liu, and X. Gong, “Challenges and Strategies of Lithium-Ion Mass Transfer in Natural Graphite Anode,” Chemical Engineering Journal480 (2024): 148047.

[5]

A. Magasinski, P. Dixon, B. Hertzberg, A. Kvit, J. Ayala, and G. Yushin, “High-Performance Lithium-Ion Anodes Using a Hierarchical Bottom-Up Approach,” Nature Materials9, no. 4 (2010): 353-358.

[6]

J. Liu, P. Kopold, P. A. van Aken, J. Maier, and Y. Yu, “Energy Storage Materials From Nature Through Nanotechnology: A Sustainable Route From Reed Plants to a Silicon Anode for Lithium-Ion Batteries,” Angewandte Chemie International Edition54 (2015): 9632, https://doi.org/10.1002/anie.201503150.

[7]

C. Zhang, N. Mahmood, H. Yin, F. Liu, and Y. Hou, “Synthesis of Phosphorus-Doped Graphene and Its Multifunctional Applications for Oxygen Reduction Reaction and Lithium Ion Batteries,” Advanced Materials25, no. 35 (2013): 4932-4937.

[8]

W. Zhang, J. Hu, Y. Guo, et al., “Tin-Nanoparticles Encapsulated in Elastic Hollow Carbon Spheres for High-Performance Anode Material in Lithium-Ion Batteries,” Advanced Materials20, no. 6 (2008): 1160-1165.

[9]

C. K. Chan, X. F. Zhang, and Y. Cui, “High Capacity Li Ion Battery Anodes Using Ge Nanowires,” Nano Letters8, no. 1 (2008): 307-309.

[10]

Y. Lu, L. Yu, and X. W. (David) Lou, “Nanostructured Conversion-Type Anode Materials for Advanced Lithium-Ion Batteries,” Chem4 (2018): 972.

[11]

S. Hou, L. Su, S. Wang, et al., “Unlocking the Origins of Highly Reversible Lithium Storage and Stable Cycling in a Spinel High-Entropy Oxide Anode for Lithium-Ion Batteries,” Advanced Functional Materials34, no. 4 (2023): 2307923.

[12]

Y. Cai, C. Liu, Z. Yu, et al., “Slidable and Highly Ionic Conductive Polymer Binder for High-Performance Si Anodes in Lithium-Ion Batteries,” Advanced Science10, no. 6 (2022): 2205590.

[13]

H. Kim, B. Han, J. Choo, and J. Cho, “Three-Dimensional Porous Silicon Particles for Use in High-Performance Lithium Secondary Batteries,” Angewandte Chemie International Edition47, no. 52 (2008): 10151-10154.

[14]

Z. Liu, Q. Yu, Y. Zhao, et al., “Silicon Oxides: A Promising Family of Anode Materials for Lithium-Ion Batteries,” Chemical Society Reviews48, no. 1 (2019): 285-309.

[15]

W. Zhong, Z. Zeng, S. Cheng, and J. Xie, “Advancements in Prelithiation Technology: Transforming Batteries From Li-Shortage to Li-Rich Systems,” Advanced Functional Materials34, no. 2 (2023): 2307860.

[16]

R. Zhan, X. Wang, Z. Chen, Z. W. Seh, L. Wang, and Y. Sun, “Promises and Challenges of the Practical Implementation of Prelithiation in Lithium-Ion Batteries,” Advanced Energy Materials11, no. 35 (2021): 2101565.

[17]

T. Hu, H. Zhou, J. Tang, et al., “Stable Lithium Storage With Strong-Grain Sustained Pinning-Reinforced Nanocrystalline Silicon,” Energy & Environmental Science17 (2024): 6377-6392.

[18]

Z. Yan, S. Yi, Z. Wang, et al., “Atomic-Level Regulation of SiC4 Units Enable High Li+ Dynamics and Long-Life Micro-Size SiCx Anodes,” Advanced Energy Materials14, no. 44 (2024): 2470193.

[19]

L. Yang, T. Meng, W. Zheng, et al., “Advanced Binder Design for High-Performance Silicon Anodes,” Energy Storage Materials72 (2024): 103766.

[20]

Z. Liu, Y. Wang, G. Liu, et al., “Durable and Damageless Supramolecular Binder for Fast, Stable, and Sustainable Si-Based Anodes,” Journal of the American Chemical Society146, no. 50 (2024): 34491-34500.

[21]

A. M. Haregewoin, A. S. Wotango, and B.-J. Hwang, “Electrolyte Additives for Lithium Ion Battery Electrodes: Progress and Perspectives,” Energy & Environmental Science9, no. 6 (2016): 1955-1988.

[22]

P. Xiao, X. Yun, Y. Chen, et al., “Insights Into the Solvation Chemistry in Liquid Electrolytes for Lithium-Based Rechargeable Batteries,” Chemical Society Reviews52, no. 15 (2023): 5255-5316.

[23]

X. Zhang, C. Fan, and S. Han, “Improving the Initial Coulombic Efficiency of Hard Carbon-Based Anode for Rechargeable Batteries With High Energy Density,” Journal of Materials Science52, no. 17 (2017): 10418-10430.

[24]

L. Chen, C.-L. Chiang, X. Wu, et al., “Prolonged Lifespan of Initial-Anode-Free Lithium-Metal Battery by Pre-Lithiation in Li-Rich Li2Ni0.5Mn1.5O4 Spinel Cathode,” Chemical Science14, no. 8 (2023): 2183-2191.

[25]

B. Shen, H. Zhang, Y. Wu, H. Jiang, Y. Hu, and C. Li, “Co3O4 Quantum Dot-Catalyzed Lithium Oxalate as a Capacity and Cycle-Life Enhancer in Lithium-Ion Full Cells,” ACS Applied Energy Materials5, no. 2 (2022): 2112-2120.

[26]

C. Fu, H. Huo, Y. Ma, et al., “Intelligent Dual-Anode Strategy for High-Performance Lithium-Ion Batteries,” Device2, no. 11 (2024): 100501.

[27]

J. Lee, D. Jin, J. Y. Kim, et al., “Dry Pre-Lithiation for Graphite-Silicon Diffusion-Dependent Electrode for All-Solid-State Battery,” Advanced Energy Materials13, no. 25 (2023): 2300172, https://doi.org/10.1002/aenm.202300172.

[28]

H. J. Kim, S. Choi, S. J. Lee, et al., “Controlled Prelithiation of Silicon Monoxide for High Performance Lithium-Ion Rechargeable Full Cells,” Nano Letters16, no. 1 (2015): 282-288.

[29]

W. He, H. Xu, Z. Chen, et al., “Regulating the Solvation Structure of Li+ Enables Chemical Prelithiation of Silicon-Based Anodes Toward High-Energy Lithium-Ion Batteries,” Nano-Micro Letters15, no. 1 (2023): 107.

[30]

C. R. Lee, H. Y. Jang, H. J. Leem, et al., “Surface Work Function-Induced Thermally Vulnerable Solid Electrolyte Interphase Formation on the Negative Electrode for Lithium-Ion Batteries,” Advanced Energy Materials14, no. 6 (2023): 2302906.

[31]

S. Cora, B. Key, J. Vaughey, and N. Sa, “Electrolyte Role in SEI Evolution at Si in the Pre-Lithiation Stage vs the Post-Lithiation Stage,” Journal of the Electrochemical Society170, no. 2 (2023): 020507.

[32]

A. L. Michan, M. Leskes, and C. P. Grey, “Voltage Dependent Solid Electrolyte Interphase Formation in Silicon Electrodes: Monitoring the Formation of Organic Decomposition Products,” Chemistry of Materials28, no. 1 (2015): 385-398.

[33]

R. Tan, K. Liu, X. Zhu, et al., “Rational Molecular Design of Aryl-Lithium Reagent Enables Precise Chemical Prelithiation of Graphite Anodes for Achieving Ideal 100% Initial Coulombic Efficiency,” Journal of the American Chemical Society147, no. 25 (2025): 21865-21876.

[34]

Y. Li, X. Zheng, Z. Cao, et al., “Unveiling the Mechanisms Into Li-Trapping Induced (Ir)reversible Capacity Loss for Silicon Anode,” Energy Storage Materials55 (2023): 660-668.

[35]

N. Ding, J. Xu, Y. X. Yao, et al., “Determination of the Diffusion Coefficient of Lithium Ions in Nano-Si,” Solid State Ionics180, no. 2–3 (2009): 222-225.

[36]

B. Zhu, G. Liu, G. Lv, et al., “Minimized Lithium Trapping by Isovalent Isomorphism for High Initial Coulombic Efficiency of Silicon Anodes,” Science Advances5, no. 11 (2019): eaax0651.

[37]

Y. Li, H. Zhou, N. Lin, and Y. Qian, “Revealing the Size-Dependent Electrochemical Li-storage Behaviors of SiO-Based Anodes,” Journal of Materials ChemistryA 10, no. 44 (2022): 23770-23779.

[38]

J. Liu, Q. Duan, K. Qi, et al., “Capacity Fading Mechanisms and State of Health Prediction of Commercial Lithium-Ion Battery in Total Lifespan,” Journal of Energy Storage46 (2022): 103910.

[39]

J. Moon, J. Y. Jung, T. D. Hoang, et al., “The Correlation Between Particle Hardness and Cycle Performance of Layered Cathode Materials for Lithium-Ion Batteries,” Journal of Power Sources486 (2021): 229359.

[40]

F. Leng, Z. Wei, C. M. Tan, and R. Yazami, “Hierarchical Degradation Processes in Lithium-Ion Batteries During Ageing,” Electrochimica Acta256 (2017): 52-62.

[41]

D.-S. Ko, J.-H. Park, S. Park, et al., “Microstructural Visualization of Compositional Changes Induced by Transition Metal Dissolution in Ni-Rich Layered Cathode Materials by High-Resolution Particle Analysis,” Nano Energy56 (2019): 434-442.

[42]

J. Zheng, M. Gu, J. Xiao, P. Zuo, C. Wang, and J.-G. Zhang, “Corrosion/Fragmentation of Layered Composite Cathode and Related Capacity/Voltage Fading During Cycling Process,” Nano Letters13, no. 8 (2013): 3824-3830.

[43]

M. Dubarry and B. Y. Liaw, “Identify Capacity Fading Mechanism in a Commercial LiFePO4 Cell,” Journal of Power Sources194, no. 1 (2009): 541-549.

[44]

W. Lu, L. Zhang, Y. Qin, and A. Jansen, “Calendar and Cycle Life of Lithium-Ion Batteries Containing Silicon Monoxide Anode,” Journal of the Electrochemical Society165, no. 10 (2018): A2179-A2183.

[45]

M. G. Scott, A. H. Whitehead, and J. R. Owen, “Chemical Formation of a Solid Electrolyte Interface on the Carbon Electrode of a Li-Ion Cell,” Journal of the Electrochemical Society145, no. 5 (1998): 1506-1510.

[46]

S. Zeng and P. R. Moses, “High Energy Li-Ion Rechargeable Battery Using Thin Lithium Film Composite Separator,” Journal of Power Sources90, no. 1 (2000): 39-44.

[47]

C. R. Jarvis, M. J. Lain, Y. Gao, and M. Yakovleva, “A Lithium Ion Cell Containing a Non-Lithiated Cathode,” Journal of Power Sources146, no. 1–2 (2005): 331-334.

[48]

D. Shanmukaraj, S. Grugeon, S. Laruelle, G. Douglade, J.-M. Tarascon, and M. Armand, “Sacrificial Salts: Compensating the Initial Charge Irreversibility in Lithium Batteries,” Electrochemistry Communications12, no. 10 (2010): 1344-1347.

[49]

S. Yoshida, Y. Masuo, D. Shibata, M. Haruta, T. Doi, and M. Inaba, “Li Pre-Doping of Amorphous Silicon Electrode in Li-Naphthalene Complex Solutions,” Electrochemistry83, no. 10 (2015): 843-845.

[50]

Y. Zhan, H. Yu, L. Ben, et al., “Application of Li2S to Compensate for Loss of Active Lithium in a Si–C Anode,” Journal of Materials ChemistryA 6, no. 15 (2018): 6206-6211.

[51]

X. Su, C. Lin, X. Wang, et al., “A New Strategy to Mitigate the Initial Capacity Loss of Lithium Ion Batteries,” Journal of Power Sources324 (2016): 150-157.

[52]

Y. Sun, H.-W. Lee, Z. W. Seh, et al., “High-Capacity Battery Cathode Prelithiation to Offset Initial Lithium Loss,” Nature Energy1 (2016): 15008.

[53]

H. Ye, S. Xin, Y.-X. Yin, J.-Y. Li, Y.-G. Guo, and L.-J. Wan, “Stable Li Plating/Stripping Electrochemistry Realized by a Hybrid Li Reservoir in Spherical Carbon Granules With 3D Conducting Skeletons,” Journal of the American Chemical Society139, no. 16 (2017): 5916-5922.

[54]

J. Jang, I. Kang, J. Choi, et al., “Molecularly Tailored Lithium–Arene Complex Enables Chemical Prelithiation of High-Capacity Lithium-Ion Battery Anodes,” Angewandte Chemie International Edition59, no. 34 (2020): 14473-14480.

[55]

J. Choi, H. Jeong, J. Jang, et al., “Weakly Solvating Solution Enables Chemical Prelithiation of Graphite–SiOx Anodes for High-Energy Li-Ion Batteries,” Journal of the American Chemical Society143, no. 24 (2021): 9169-9176.

[56]

G. Liu, W. Wan, Q. Nie, et al., “Controllable Long-Term Lithium Replenishment for Enhancing Energy Density and Cycle Life of Lithium-Ion Batteries,” Energy & Environmental Science17, no. 3 (2024): 1163-1174.

[57]

S. Chen, G. Wu, H. Jiang, et al., “External Li Supply Reshapes Li Deficiency and Lifetime Limit of Batteries,” Nature638, no. 8051 (2025): 676-683.

[58]

X. Yue, Y. Yao, J. Zhang, et al., “Unblocked Electron Channels Enable Efficient Contact Prelithiation for Lithium-Ion Batteries,” Advanced Materials34, no. 15 (2022): 2110337.

[59]

C. Yang, H. Ma, R. Yuan, et al., “Roll-to-Roll Prelithiation of Lithium-Ion Battery Anodes by Transfer Printing,” Nature Energy8, no. 7 (2023): 703-713.

[60]

N. Liu, L. Hu, M. T. McDowell, A. Jackson, and Y. Cui, “Prelithiated Silicon Nanowires as an Anode for Lithium Ion Batteries,” ACS Nano5, no. 8 (2011): 6487-6493.

[61]

E. Adhitama, F. Dias Brandao, I. Dienwiebel, et al., “Pre-Lithiation of Silicon Anodes by Thermal Evaporation of Lithium for Boosting the Energy Density of Lithium Ion Cells,” Advanced Functional Materials32, no. 22 (2022): 2201455.

[62]

S. Jun, G. Lee, Y. B. Song, et al., “Interlayer Engineering and Prelithiation: Empowering Si Anodes for Low-Pressure-Operating All-Solid-State Batteries,” Small20, no. 25 (2024): 2309437.

[63]

C. Zhang, X. Chen, W. Wan, et al., “Air-Stable Lithium-Sandwiched Current Collector for Non-Destructive, Thermally Safe, and Sustained Supplementary Lithiation,” Energy & Environmental Science17, no. 18 (2024): 6766-6778.

[64]

C. Wang, F. Yang, W. Wan, et al., “A Large-Area Lithium Metal–Carbon Nanotube Film for Precise Contact Prelithiation in Lithium-Ion Batteries,” Energy & Environmental Science16, no. 10 (2023): 4660-4669.

[65]

Q. A. Nguyen, A. K. Haridas, T. Terlier, and S. L. Biswal, “Prelithiation Effects in Enhancing Silicon-Based Anodes for Full-Cell Lithium-Ion Batteries Using Stabilized Lithium Metal Particles,” ACS Applied Energy Materials6, no. 10 (2023): 5567-5579.

[66]

S.-Y. Ham, E. Sebti, A. Cronk, et al., “Overcoming Low Initial Coulombic Efficiencies of Si Anodes Through Prelithiation in All-Solid-State Batteries,” Nature Communications15, no. 1 (2024): 2991.

[67]

E. Jang, S. Ryu, M. Kim, J. Choi, and J. Yoo, “Silicon-Stabilized Lithium Metal Powder (SLMP) Composite Anodes for Fast Charging by In-Situ Prelithiation,” Journal of Power Sources580 (2023): 233326.

[68]

E. Esen, M. Mohrhardt, P. Lennartz, et al., “Effect of Prelithiation With Passivated Lithium Metal Powder on Passivation Films on High-Energy NMC-811 and SiCx Electrodes,” Materials Today Chemistry30 (2023): 101587.

[69]

G. Ai, Z. Wang, H. Zhao, et al., “Scalable Process for Application of Stabilized Lithium Metal Powder in Li-Ion Batteries,” Journal of Power Sources309 (2016): 33-41.

[70]

L. Wang, Y. Fu, V. S. Battaglia, and G. Liu, “SBR–PVDF Based Binder for the Application of SLMP in Graphite Anodes,” RSC Advances3, no. 35 (2013): 15022.

[71]

H. Dong, T. Yang, C. Liu, et al., “Controllable and Scalable Prelithiation of Dry Silicon-Based Anodes for High-Energy-Density Lithium-Ion Batteries,” Energy Storage Materials75 (2025): 104072.

[72]

K. H. Kim, J. Shon, H. Jeong, H. Park, S.-J. Lim, and J. S. Heo, “Improving the Cyclability of Silicon Anodes for Lithium-Ion Batteries Using a Simple Pre-Lithiation Method,” Journal of Power Sources459 (2020): 228066.

[73]

C. Zhang, X. Chen, W. Wan, et al., “Air-Stable Lithium-Sandwiched Current Collector for Non-Destructive, Thermally Safe, and Sustained Supplementary Lithiation,” Energy & Environmental Science17, no. 18 (2024): 6766-6778.

[74]

S. Jun, G. Lee, Y. B. Song, et al., “Interlayer Engineering and Prelithiation: Empowering Si Anodes for Low-Pressure-Operating All-Solid-State Batteries,” Small20, no. 25 (2024): 2309437.

[75]

X. Yue, Y. Yao, J. Zhang, et al., “Unblocked Electron Channels Enable Efficient Contact Prelithiation for Lithium-Ion Batteries,” Advanced Materials34, no. 15 (2022): 2110337.

[76]

N. Liu, L. Hu, M. T. McDowell, A. Jackson, and Y. Cui, “Prelithiated Silicon Nanowires as an Anode for Lithium Ion Batteries,” ACS Nano5, no. 8 (2011): 6487-6493.

[77]

C. R. Jarvis, M. J. Lain, M. V. Yakovleva, and Y. Gao, “A Prelithiated Carbon Anode for Lithium-Ion Battery Applications,” Journal of Power Sources162, no. 2 (2006): 800-802.

[78]

B. Xiang, L. Wang, G. Liu, and A. M. Minor, “Electromechanical Probing of Li/Li2CO3Core/Shell Particles in a TEM,” Journal of the Electrochemical Society160, no. 3 (2013): A415-A419.

[79]

W. Hwang and W. Y. Yoon, “Effect of Li Powder-Coated Separator on Irreversible Behavior of SiOx-C Anode in Lithium-Ion Batteries,” Journal of the Electrochemical Society161, no. 10 (2014): A1753-A1758.

[80]

M. W. Forney, R. A. Dileo, A. Raisanen, et al., “Prelithiation of Silicon–Carbon Nanotube Anodes for Lithium Ion Batteries by Stabilized Lithium Metal Powder (SLMP),” Nano Letters13, no. 9 (2013): 4158-4163.

[81]

Q. Pan, P. Zuo, T. Mu, et al., “Improved Electrochemical Performance of Micro-Sized SiO-Based Composite Anode by Prelithiation of Stabilized Lithium Metal Powder,” Journal of Power Sources347 (2017): 170-177.

[82]

A. Bhat, P. Sireesha, Y. Chen, and Y. Su, “Phase Control of Lithium Silicates for Process-Friendly Prelithiated SiO Anode Materials**,” Chemelectrochem9, no. 19 (2022): e202200772.

[83]

B. Huang, T. Huang, L. Wan, and A. Yu, “Pre-Lithiating SiO Anodes for Lithium-Ion Batteries by a Simple, Effective, and Controllable Strategy Using Stabilized Lithium Metal Powder,” ACS Sustainable Chemistry & Engineering9, no. 2 (2021): 648-657.

[84]

C. L. Berhaut, M. Mirolo, D. Z. Dominguez, et al., “Charge Dynamics Induced by Lithiation Heterogeneity in Silicon-Graphite Composite Anodes,” Advanced Energy Materials13, no. 44 (2023): 2301874.

[85]

I. W. Seong and W. Y. Yoon, “Electrochemical Behavior of a Silicon Monoxide and Li-Powder Double Layer Anode Cell,” Journal of Power Sources1955, no. 18 (2010): 6143-6147.

[86]

Q. Liu, J. Chen, D. Du, et al., “Electrochemically Prelithiated Carbon Anodes With Regulated Na-Ion Intercalation Behaviours for Advanced Sodium-Ioni Energy Storage Devices,” Journal of Materials ChemistryA 11, no. 33 (2023): 17491-17502.

[87]

F. Wang, B. Wang, Z. Yu, et al., “Construction of Air-Stable Pre-Lithiated SiOx Anodes for Next-Generation High-Energy-Density Lithium-Ion Batteries,” Cell Reports Physical Science3, no. 5 (2022): 100872.

[88]

F. Holtstiege, T. Koc, T. Hundehege, V. Siozios, M. Winter, and T. Placke, “Toward High Power Batteries: Pre-Lithiated Carbon Nanospheres as High Rate Anode Material for Lithium Ion Batteries,” ACS Applied Energy Materials1, no. 8 (2018): 4321-4331.

[89]

Y. Liu, B. Yang, X. Dong, et al., “A Simple Prelithiation Strategy To Build a High-Rate and Long-Life Lithium-Ion Battery with Improved Low-Temperature Performance,” Angewandte Chemie International Edition56, no. 52 (2017): 16606-16610.

[90]

C. Shen, R. Fu, Y. Xia, and Z. Liu, “New Perspective to Understand the Effect of Electrochemical Prelithiation Behaviors on Silicon Monoxide,” RSC Advances8, no. 26 (2018): 14473-14478.

[91]

B. B. Kopuklu, E. Esen, A. Gomez-Martin, et al., “Practical Implementation of Magnetite-Based Conversion-Type Negative Electrodes via Electrochemical Prelithiation,” ACS Applied Materials & Interfaces14, no. 30 (2022): 34665-34677.

[92]

L. Haneke, F. Pfeiffer, P. Bärmann, et al., “Insights Into Electrolytic Pre-Lithiation: A Thorough Analysis Using Silicon Thin Film Anodes,” Small19, no. 8 (2022): 2206092, https://doi.org/10.1002/smll.202206092.

[93]

T. Watanabe, T. Tsuda, N. Ando, et al., “An Improved Pre-Lithiation of Graphite Anodes Using Through-Holed Cathode and Anode Electrodes in a Laminated Lithium Ion Battery,” Electrochimica Acta324 (2019): 134848.

[94]

M. Palanisamy, M. H. Parekh, and V. G. Pol, “In Situ Replenishment of Formation Cycle Lithium-Ion Loss for Enhancing Battery Life,” Advanced Functional Materials30, no. 46 (2020): 2003668.

[95]

X. M. N. Thi, K. M. Le, Q. Phung, et al., “Improving the Electrochemical Performance of Lithium-Ion Battery Using Silica/Carbon Anode Through Prelithiation Techniques,” Battery Energy2, no. 5 (2023): 20230003.

[96]

Y. Shen, X. Shen, M. Yang, et al., “Achieving Desirable Initial Coulombic Efficiencies and Full Capacity Utilization of Li-Ion Batteries by Chemical Prelithiation of Graphite Anode,” Advanced Functional Materials31, no. 24 (2021): 2101181.

[97]

G. Wang, F. Li, D. Liu, et al., “Chemical Prelithiation of Negative Electrodes in Ambient Air for Advanced Lithium-Ion Batteries,” ACS Applied Materials & Interfaces11​​ (2019): 8699-8703.

[98]

A. V. Lunchev, K. S. Tan, A. C. Grimsdale, et al., “Electrical and Electrochemical Properties of Lithium Solvated Electron Solutions Derived From 1,3,5-Triphenylbenzenes,” New Journal of Chemistry42​​ (2018): 15678-15683.

[99]

G. Cong, W. Wang, N. C. Lai, et al., “A High-Rate and Long-Life Organic–Oxygen Battery," Nature Materials18​​ (2019): 390-396.

[100]

Y. Li, Y. Qian, Y. Zhao, N. Lin, and Y. Qian, “Revealing the Interface-Rectifying Functions of a Li-Cyanonaphthalene Prelithiation System for SiO Electrode,” Science Bulletin67, no. 6 (2022): 636-645.

[101]

Y. Luo, Y. Deng, Y. Shen, H. Li, Y. Cao, and X. Ai, “A Facile and Efficient Chemical Prelithiation of Graphite for Full Capacity Utilization of Li-Ion Batteries,” Energy Technology10, no. 7 (2022): 2200269.

[102]

X. Zhang, X. Hou, Y. Hou, R. Zhang, S. Xu, and M. Mann, “Insights Into Chemical Prelithiation of SiOx/Graphite Composite Anodes Through Scanning Electron Microscope Imaging,” ACS Applied Energy Materials6, no. 15 (2023): 7996-8005.

[103]

H. Yue, S. Zhang, T. Feng, et al., “Understanding of the Mechanism Enables Controllable Chemical Prelithiation of Anode Materials for Lithium-Ion Batteries,” ACS Applied Materials & Interfaces13, no. 45 (2021): 53996-54004.

[104]

X. He, X. Mu, Y. Wang, P. Wang, and P. He, “Fast and Scalable Complete Chemical Prelithiation Strategy for Si/C Anodes Enabling High-Performance LixSi–S Full Cells,” ACS Applied Energy Materials6, no. 12 (2023): 6790-6796.

[105]

X. Zhang, H. Qu, W. Ji, et al., “An Electrode-Level Prelithiation of SiO Anodes With Organolithium Compounds for Lithium-Ion Batteries,” Journal of Power Sources478 (2020): 229067.

[106]

H. Shen, Y. An, Q. Man, et al., “Controlled Prelithiation of Siloxene Nanosheet Anodes Enables High Performance 5 V-Class Lithium-Ion Batteries,” Chemical Engineering Journal454 (2023): 140136.

[107]

J. Inamoto, S. Maruyama, Y. Matsuo, S. Uchida, K. Maeda, and M. Ishikawa, “Effects of Pre-Lithiation on the Electrochemical Properties of Graphene-Like Graphite,” Electrochemistry87, no. 5 (2019): 260-264.

[108]

L. Frankenstein, M. Mohrhardt, C. Peschel, et al., “Experimental Considerations of the Chemical Prelithiation Process via Lithium Arene Complex Solutions on the Example of Si-Based Anodes for Lithium-Ion Batteries,” Advanced Energy and Sustainability Research5, no. 2 (2023): 2300177.

[109]

J. M. Tarascon and D. Guyomard, “Li Metal-Free Rechargeable Batteries Based on Li1+xMn2O4 Cathodes (0 ≤ x ≤ 1) and Carbon Anodes,” Journal of the Electrochemical Society138, no. 10 (1991): 2864-2868.

[110]

D. Peramunage and K. M. Abraham, “Preparation and Electrochemical Characterization of Overlithiated Spinel LiMn2O4,” Journal of the Electrochemical Society145, no. 4 (1998): 1131-1136.

[111]

N. M. Jobst, G. Gabrielli, P. Axmann, M. Hoelzle, and M. Wohlfahrt-Mehrens, “Compensation of the Irreversible Loss of Si-Anodes via Prelithiated NMC/LMO Blend Cathode,” Journal of the Electrochemical Society168, no. 7 (2021): 070550.

[112]

Z. Song, K. Feng, H. Zhang, et al., “‘Giving Comes Before Receiving’: High Performance Wide Temperature Range Li-Ion Battery With Li5V2(PO4)3 as Both Cathode Material and Extra Li Donor,” Nano Energy66 (2019): 104175.

[113]

G. Gabrielli, M. Marinaro, M. Mancini, P. Axmann, and M. Wohlfahrt-Mehrens, “A New Approach for Compensating the Irreversible Capacity Loss of High-Energy Si/C|LiNi0.5Mn1.5O4 Lithium-Ion Batteries,” Journal of Power Sources351 (2017): 35-44.

[114]

L. Chen, C.-L. Chiang, G. Zeng, et al., “Enhancing the Cycle-Life of Initial-Anode-Free Lithium-Metal Batteries by Pre-Lithiation in Mn-Based Li-Rich Spinel Cathodes,” Journal of Materials Chemistry A11, no. 21 (2023): 11119-11125.

[115]

C. Wu, J. Hu, H. Chen, et al., “Chemical Lithiation Methodology Enabled Prussian Blue as a Li-Rich Cathode Material for Secondary Li-Ion Batteries,” Energy Storage Materials60 (2023): 102803.

[116]

Z. Wu, S. Ji, Z. Hu, et al., “Pre-Lithiation of Li(Ni1-x-yMnxCoy)O2 Materials Enabling Enhancement of Performance for Li-Ion Battery,” ACS Applied Materials & Interfaces8 no. 24 (2016): 15361-15368.

[117]

C. Wu, J. Hu, H. Chen, and C. Zhang et al., “Chemical Lithiation Methodology Enabled Prussian Blue as a Li-Rich Cathode Material for Secondary Li-Ion Batteries,” Energy Storage Materials​​ 60​​ (2023): 102803.

[118]

Y. Tan, R. Wang, X. Liu, et al., “Overlithiation-Driven Structural Regulation of Lithium Nickel Manganese Oxide for High-Performance Battery Cathode,” Energy Storage Materials ​​ 63​​ (2023): 102962.

[119]

X. Ren, Y. Li, Z. He, X. Xi, and X. Shen, “In-Situ Growth of LiFePO4 With Interconnected Pores Supported on Carbon Nanotubes via Tavorite-Olivine Phase Transition,” Ceramics International49, no. 24 (2023): 40131-40139.

[120]

M. Cao, Z. Liu, X. Zhang, et al., “Feasibility of Prelithiation in LiFePO4,” Advanced Functional Materials33, no. 9 (2023): 2210032, https://doi.org/10.1002/adfm.202210032.

[121]

Q. Liu, X. Su, D. Lei, et al., “Approaching the Capacity Limit of Lithium Cobalt Oxide in Lithium Ion Batteries via Lanthanum and Aluminium Doping,” Nature Energy3, no. 11 (2018): 936-943.

[122]

R. Gao, M. Zhan, T. Li et al., “Unveiling the Over-Lithiation Behavior of NCM523 Cathode Towards Long-Life Anode-Free Li Metal Batteries,” Advanced Science12, no. 19 (2025): 2503558.

[123]

G. Huang, J. Liang, X. Zhong, et al., “Boosting the Capability of Li2C2O4 as Cathode Pre-Lithiation Additive for Lithium-Ion Batteries,” Nano Research16, no. 3 (2022): 3872-3878.

[124]

M. Arnaiz, D. Shanmukaraj, D. Carriazo, et al., “A Transversal Low-Cost Pre-Metallation Strategy Enabling Ultrafast and Stable Metal Ion Capacitor Technologies,” Energy & Environmental Science13, no. 8 (2020): 2441-2449.

[125]

C. Gu, X. Chang, S. Xiao, et al., “Element-Engineered Lithium Borate for High-Efficiency Prelithiation in Silicon-Based Lithium-Ion Batteries,” Advanced Materials (2025): e10189.

[126]

Y. Ha, M. C. Schulze, S. Frisco, et al., “Li2O-Based Cathode Additives Enabling Prelithiation of Si Anodes,” Applied Sciences11, no. 24 (2021): 12027.

[127]

L. Zheng, A. Yu, G. Li, and J. Zhang, “High-Energy-Density and Long-Lifetime Lithium-Ion Battery Enabled by a Stabilized Li2O2 Cathode Prelithiation Additive,” ACS Applied Materials & Interfaces14, no. 34 (2022): 38706-38716.

[128]

X. Mu, H. Pan, P. He, and H. Zhou, “Li–CO2 and Na–CO2 Batteries: Toward Greener and Sustainable Electrical Energy Storage,” Advanced Materials32, no. 27 (2019): 1903790.

[129]

D. Wang, Z. Zhang, B. Hong, and Y. Lai, “Self-Sacrificial Organic Lithium Salt Enhanced Initial Coulombic Efficiency for Safer and Greener Lithium-Ion Batteries,” Chemical Communications55, no. 72 (2019): 10737-10739.

[130]

Y. Sun, H.-W. Lee, G. Zheng, et al., “In Situ Chemical Synthesis of Lithium Fluoride/Metal Nanocomposite for High Capacity Prelithiation of Cathodes,” Nano Letters16, no. 2 (2016): 1497-1501.

[131]

H. Park, T. Yoon, Y.-U. Kim, J. H. Ryu, and S. M. Oh, “Li2NiO2 as a Sacrificing Positive Additive for Lithium-Ion Batteries,” Electrochimica Acta108 (2013): 591-595.

[132]

Y.-G. Lim, D. Kim, J.-M. Lim, et al., “Anti-Fluorite Li6CoO4 as an Alternative Lithium Source for Lithium Ion Capacitors: An Experimental and First Principles Study,” Journal of Materials Chemistry A3, no. 23 (2015): 12377-12385.

[133]

Y. Zhu, Y. Chen, J. Chen, J. Yin, and Z. Sun, “Lattice Engineering on Li2CO3-Based Sacrificial Cathode Prelithiation Agent for Improving the Energy Density of Li-Ion Battery Full-Cell,” Advanced Materials36 (2024): 2312159.

[134]

G. Huang, J. Liang, X. Zhong, et al., “Boosting the Capability of Li2C2O4 as Cathode Pre-Lithiation Additive for Lithium-Ion Batteries,” Nano Research16, no. 3 (2022): 3872-3878.

[135]

R. Xiao, C. Kang, Y. Ren, et al., “Electrolyte-Assisted Low-Voltage Decomposition of Li2C2O4 for Efficient Cathode Pre-Lithiation in Lithium-Ion Batteries,” Chemical Communications59, no. 94 (2023): 13982-13985.

[136]

J. Mao, J. Iocozzia, J. Huang, K. Meng, Y. Lai, and Z. Lin, “Graphene Aerogels for Efficient Energy Storage and Conversion,” Energy & Environmental Science11, no. 4 (2018): 772-799.

[137]

W. Zhong, S. Li, M. Liu, et al., “Hierarchical Spherical Mo2C/N-Doped Graphene Catalyst Facilitates Low-Voltage Li2C2O4 Prelithiation,” Nano Energy115 (2023): 108757.

[138]

W. Zhong, C. Zhang, S. Li, et al., “Mo2C Catalyzed Low-Voltage Prelithiation Using Nano-Li2C2O4 for High-Energy Lithium-Ion Batteries,” Science China Materials66, no. 3 (2023): 903-912.

[139]

Q. Nie, W. Wan, Y. Mei, et al., “Ketomalonate-Based Lithium Replenishment Reagents for Lithium-Ion Batteries With Stable Electrode Structure,” Advanced Functional Materials10 (2025): 2422034.

[140]

A. Gomez-Martin, M. M. Gnutzmann, E. Adhitama, et al., “Opportunities and Challenges of Li2C4O4 as Pre-Lithiation Additive for the Positive Electrode in NMC622|| Silicon/Graphite Lithium Ion Cells,” Advanced Science9 (2022): 2201742.

[141]

M. Arnaiz, M. Canal-Rodríguez, S. Martin-Fuentes, D. Carriazo, A. Villaverde, and J. Ajuria, “Roll-to-Roll Double Side Electrode Processing for the Development of Pre-Lithiated 80 F Lithium-Ion Capacitor Prototypes,” Journal of Physics: Energy6 (2024): 015001.

[142]

D. Wang, Z. Zhang, B. Hong, and Y. Lai, “Self-Sacrificial Organic Lithium Salt Enhanced Initial Coulombic Efficiency for Safer and Greener Lithium-Ion Batteries,” Chemical Communications55, no. 72 (2019): 10737-10739.

[143]

L. Guo, C. Xin, J. Gao, et al., “The Electrolysis of Anti-Perovskite Li2OHCl for Prelithiation of High-Energy-Density Batteries,” Angewandte Chemie International Edition60, no. 23 (2021): 13013-13020.

[144]

K. Lin, X. Xu, X. Qin, et al., “Commercially Viable Hybrid Li-Ion/Metal Batteries With High Energy Density Realized by Symbiotic Anode and Prelithiated Cathode,” Nano-Micro Letters14, no. 1 (2022): 149.

[145]

H. Zhang, T. Bai, J. Cheng, et al., “Unlocking the Decomposition Limitations of the Li2C2O4 for Highly Efficient Cathode Preliathiations,” Advanced Powder Materials3, no. 5 (2024): 100215.

[146]

M. Fan, Q. Meng, X. Chang, et al., “In Situ Electrochemical Regeneration of Degraded LiFePO4 Electrode With Functionalized Prelithiation Separator,” Advanced Energy Materials12, no. 18 (2022): 2103630.

[147]

S. Solchenbach, M. Wetjen, D. Pritzl, K. U. Schwenke, and H. A. Gasteiger, “Lithium Oxalate as Capacity and Cycle-Life Enhancer in LNMO/Graphite and LNMO/SiG Full Cells,” Journal of the Electrochemical Society165, no. 3 (2018): A512-A524.

[148]

T. Lv, W. Zhong, R. He, et al., “Low-Potential Li2C2O4 Prelithiation Catalyzed by 2D MoN With Dominant (002) Crystal Face for High-Energy Lithium-Ion Batteries,” Materials Science and Engineering: R: Reports165 (2025): 101014.

[149]

W. Zhong, R. He, L. Peng, et al., “Lifecycle Synergistic Prelithiation Strategy of Both Anode and Cathode for High-Performance Lithium-Ion Batteries,” Advanced Energy Materials15, no. 26 (2025): 2406007.

[150]

Z. Na, C. Lai, J. Zhou, et al., “Enhancing the Reversible Capacity and Cycle Stability of Lithium-Ion Batteries With Li-Compensation Material Li6CoO4,” Science China Materials65, no. 3 (2022): 620-628.

[151]

X. M. Jian, J. P. Tu, Y. Q. Qiao, Y. Lu, X. L. Wang, and C. D. Gu, “Synthesis and Electrochemical Performance of LiVO3 Cathode Materials for Lithium Ion Batteries,” Journal of Power Sources236 (2013): 33-38.

[152]

S. Li, Y. Zhang, Y. Tang, X. Tan, S. Liang, and J. Zhou, “Facile Synthesis of LiVO3 and Its Electrochemical Behavior in Rechargeable Lithium Batteries,” Journal of Electroanalytical Chemistry853 (2019): 113505.

[153]

G. Vitins, E. A. Raekelboom, M. T. Weller, and J. R. Owen, “Li2CuO2 as an Additive for Capacity Enhancement of Lithium Ion Cells,” Journal of Power Sources119–121 (2003): 938-942.

[154]

Y. Wu, J. Guo, F. Qin, et al., “Harmless Pre-Lithiation via advantageous Surface Reconstruction in Sacrificial Cathode Additives for Lithium-Ion Batteries,” Journal of Colloid and Interface Science658 (2024): 976-985.

[155]

H. Park, T. Yoon, Y.-U. Kim, J. H. Ryu, and S. M. Oh, “Li2NiO2 as a Sacrificing Positive Additive for Lithium-Ion Batteries,” Electrochimica Acta108 (2013): 591-595.

[156]

G. Kim and J. Cho, “Air Stable Al2O3-Coated Li2NiO2 Cathode Additive as a Surplus Current Consumer in a Li-Ion Cell,” Journal of Materials Chemistry18, no. 48 (2008): 5880.

[157]

H. Kim, K. Jun, N. Szymanski, et al., “Screening and Development of Sacrificial Cathode Additives for Lithium-Ion Batteries,” Advanced Energy Materials15, no. 21 (2025): 2403946.

[158]

M. Kim, B. D. Spindler, L. Dong, and A. Stein, “Li8ZrO6 as a Pre-Lithiation Additive for Lithium-Ion Batteries,” ACS Applied Energy Materials5, no. 11 (2022): 14433-14444.

[159]

Q. Meng, M. Fan, X. Chang, et al., “A Functional Prelithiation Separator Promises Sustainable High-Energy Lithium-Ion Batteries,” Advanced Energy Materials ​​ 13​​ (2023): 2300507.

[160]

W. M. Dose, C. Villa, X. Hu, et al., “Beneficial Effect of Li5FeO4 Lithium Source for Li-Ion Batteries With a Layered NMC Cathode and Si Anode,” Journal of the Electrochemical Society167, no. 16 (2020): 160543.

[161]

C. S. Johnson, S. H. Kang, J. T. Vaughey, et al., “Li₂O Removal from Li₅FeO₄: A Cathode Precursor for Lithium-Ion Batteries,” Chemistry of Materials ​​ 22​​ (2010): 1263-1270.

[162]

A. Hirano, T. Matsumura, M. Ueda, N. Imanishi, Y. Takeda, and M. Tabuchi, “Electrochemical Properties and Mössbauer Effect of Anti-Fluorite Type Compound, Li5FeO4,” Solid State Ionics176, no. 37–38 (2005): 2777-2782.

[163]

D. Peramunage and K. M. Abraham, “Preparation and Electrochemical Characterization of Overlithiated Spinel LiMn2O4,” Journal of the Electrochemical Society145, no. 4 (1998): 1131-1136.

[164]

B. Zhu, W. Zhang, Q. Wang, et al., “Understanding the Air-Exposure Degradation Chemistry of the Sacrificial Cathode Additive Li5FeO4 for Li-Ion Batteries,” Advanced Functional Materials34, no. 22 (2024): 2315010.

[165]

B. Zhu, W. Zhang, Z. Li, et al., “Fe-Locking’ Effect by g-C3N4 Stabilizing Lithium Iron Oxide Pre-Lithiation Additives,” Journal of Power Sources592 (2024): 233944.

[166]

J. Li, B. Zhu, S. Li, et al., “Air-Stable Li6CoO4@Li5FeO4 Pre-Lithiation Reagent in Cathode Enabling High Performance Lithium-Ion Batteries,” Journal of the Electrochemical Society168, no. 8 (2021): 080510.

[167]

L. Zhang, W. Dose, A. Vu, C. Johnson, and W. Lu, “Mitigating the Initial Capacity Loss and Improving the Cycling Stability of Silicon Monoxide Using Li5FeO4,” Journal of Power Sources400 (2018): 549-555.

[168]

R. Ma, Y. Chang, Q. Chen, et al., “Unravelling the Oxygen Evolution Mechanism of Lithium-Rich Antifluorite Prelithiation Agent Based on Anionic Oxidation,” Angewandte Chemie International Edition​​64​​ (2025): e202502126.

[169]

S. Narukawa, Y. Takeda, M. Nishijima, N. Imanishi, O. Yamamoto, and M. Tabuchi, “Anti-Fluorite Type Li6CoO4, Li5FeO4, and Li6MnO4 as the Cathode for Lithium Secondary Batteries,” Solid State Ionics122 (1999): 59.

[170]

X. Xu, S. Chu, S. Xu, et al., “Integrating Prelithiation and Interface Protection to Achieve High-Energy All-Solid-State Batteries,” Angewandte Chemie International Edition (2024): e202415891.

[171]

K. Park, B.-C. Yu, and J. B. Goodenough, “Li3N as a Cathode Additive for High-Energy-Density Lithium-Ion Batteries,” Advanced Energy Materials6, no. 10 (2016): 1502534.

[172]

S.-Y. Yang, X.-Y. Yue, H.-Y. Xia, et al., “Battery Prelithiation Enabled by Lithium Fixation on Cathode,” Journal of Power Sources480 (2020): 229109.

[173]

X. Bian, Q. Pang, Y. Wei, D. Zhang, Y. Gao, and G. Chen, “Dual Roles of Li3N as an Electrode Additive for Li-Excess Layered Cathode Materials: A Li-Ion Sacrificial Salt and Electrode-Stabilizing Agent,” Chemistry - A European Journal24, no. 52 (2018): 13815-13820.

[174]

M. Diaz-Lopez, P. A. Chater, P. Bordet, et al., “Li2O: Li–Mn–O Disordered Rock-Salt Nanocomposites as Cathode Prelithiation Additives for High-Energy Density Li-Ion Batteries,” Advanced Energy Materials10 (2020): 1902788.

[175]

Y. Qiao, H. Yang, Z. Chang, H. Deng, X. Li, and H. Zhou, “A High-Energy-Density and Long-Life Initial-Anode-Free Lithium Battery Enabled by a Li2O Sacrificial Agent,” Nature Energy6 (2021): 653-662.

[176]

Z. Liu, S. Ma, X. Mu, R. Li, G. Yin, and P. Zuo, “A Scalable Cathode Chemical Prelithiation Strategy for Advanced Silicon-Based Lithium Ion Full Batteries,” ACS Applied Materials & Interfaces13, no. 10 (2021): 11985-11994.

[177]

C. Liu, T. Li, H. Zhang, et al., “DMF Stabilized Li3N Slurry for Manufacturing Self-Prelithiatable Lithium-Ion Capacitors,” Scientific Bulletin65, no. 6 (2020): 434-442.

[178]

A. Abouimrane, Y. Cui, Z. Chen, et al., “Enabling High Energy Density Li-Ion Batteries Through Li2O Activation,” Nano Energy27 (2016): 196-201.

[179]

R. Tian, Z. Wang, J. Liao, et al., “High-Voltage Stability of Small-Size Single Crystal Ni-Rich Layered Cathode for Sulfide-Based All-Solid-State Lithium Battery at 4.5 V,” Advanced Energy Materials13, no. 26 (2023): 2300850.

[180]

Y. Yang, G. Zheng, S. Misra, J. Nelson, M. F. Toney, and Y. Cui, “High-Capacity Micrometer-Sized Li2S Particles as Cathode Materials for Advanced Rechargeable Lithium-Ion Batteries,” Journal of the American Chemical Society134, no. 37 (2012): 15387-15394.

[181]

J. Huang, W. Li, W. Zhang, et al., “Lithium Sulfide: A Promising Prelithiation Agent for High-Performance Lithium-Ion Batteries,” SusMat4, no. 1 (2023): 34-47.

[182]

M. Xiao, W. Li, M. Yu, et al., “Enhanced Electronic Conductivity and Ionic Conductivity of Li2S by Doping Strategy,” Matter8, no. 3 (2025): 101934.

[183]

Y. Zhan, H. Yu, L. Ben, Y. Chen, and X. Huang, “Using Li2S to Compensate for the Loss of Active Lithium in Li-Ion Batteries,” Electrochimica Acta255 (2017): 212-219.

[184]

R. Ding, Y. Zheng, and G. Liang, “Li2S as a Cathode Additive to Compensate for the Irreversible Capacity Loss of Lithium Iron Phosphate Batteries,” Ionics28, no. 4 (2022): 1573-1581.

[185]

X. Wang, C. Liu, S. Zhang, et al., “Dual-Functional Cathodic Prelithiation Reagent of Li3P in Lithium-Ion Battery for Compensating Initial Capacity Loss and Enhancing Safety,” ACS Applied Energy Materials4, no. 5 (2021): 5246-5254.

[186]

J. Du, W. Wang, A. Y. Sheng Eng, et al., “Metal/LiF/Li2O Nanocomposite for Battery Cathode Prelithiation: Trade-Off Between Capacity and Stability,” Nano Letters20, no. 1 (2019): 546-552.

[187]

X. Liu, Y. Tan, W. Wang, et al., “Conformal Prelithiation Nanoshell on LiCoO2 Enabling High-Energy Lithium-Ion Batteries,” Nano Letters20, no. 6 (2020): 4558-4565.

[188]

Y. Liu, Y. Lv, N. Li, et al., “LiF/Fe Composite for Ni-Rich Cathode Prelithiation: Synthesis, Bilayer Structured Electrode and Lithium Loss Compensation,” Chemical Engineering Journal484 (2024): 149550.

[189]

J. Zheng, K. Liang, K. Shi, and Y. Qiu, “In Situ Synthesis and Electrochemical Properties of Fe/Li2O as a High-Capacity Cathode Prelithiation Additive for Lithium Ion Batteries,” International Journal of Electrochemical Science14, no. 6 (2019): 5305-5316.

[190]

X. Chang, M. Fan, B. Yuan, et al., “Approaching Sustainable Lithium-Ion Batteries Through Voltage-Responsive Smart Prelithiation Separator With Surface-Engineered Sacrificial Lithium Agents,” Angewandte Chemie International Edition63, no. 32 (2024): e202406557.

[191]

X. Chen, F. Yang, C. Zhang, et al., “Sustainable Prelithiation Strategy: Enhancing Energy Density and Lifespan With Ultrathin Li-Mg-Al Alloy Foil,” Advanced Energy Materials14, no. 29 (2024): 2304097.

[192]

M. Tian, Y. Yan, H. Yu, et al., “Designer Lithium Reservoirs for Ultralong Life Lithium Batteries for Grid Storage,” Advanced Materials36, no. 25 (2024): 2400707.

[193]

C. L. Berhaut, D. Z. Dominguez, D. Tomasi, et al., “Prelithiation of Silicon/Graphite Composite Anodes: Benefits and Mechanisms for Long-Lasting Li-Ion Batteries,” Energy Storage Materials29 (2020): 190-197.

[194]

V. L. Chevrier, L. Liu, R. Wohl, et al., “Design and Testing of Prelithiated Full Cells With High Silicon Content,” Journal of the Electrochemical Society165, no. 5 (2018): A1129-A1136.

[195]

M.-T. F. Rodrigues, J. A. Gilbert, K. Kalaga, and D. P. Abraham, “Insights on the Cycling Behavior of a Highly-Prelithiated Silicon–Graphite Electrode in Lithium-Ion Cells,” J. Phys. Energy2 (2020): 024002.

[196]

S. Xu, Y. Liu, Y. Li, et al., “Degradation Mechanism and Enhanced Stability of Organolithium for Chemical Lithiation,” Advanced Energy Materials15, no. 8 (2024): 2402941.

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