Chemical lithiation methodology enabled Prussian blue as a Li-rich cathode material for secondary Li-ion batteries
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Chengyi Zhang | Jiangfeng Qian | X. Ai | Hanxiang Chen | Lin Zhuang | Chen Wu | Mingli Xu | Jie-Yu Hu
[1] J. L. Gómez‐Cámer,et al. Rechargeable sodium-ion battery based on a cathode of copper hexacyanoferrate , 2021, Journal of Solid State Electrochemistry.
[2] W. Kan,et al. Lithiated Prussian blue analogues as positive electrode active materials for stable non-aqueous lithium-ion batteries , 2022, Nature communications.
[3] Jun Chen,et al. Dual-Function Presodiation with Sodium Diphenyl Ketone towards Ultra-stable Hard Carbon Anodes for Sodium-Ion Batteries. , 2022, Angewandte Chemie.
[4] Chengyi Zhang,et al. Cost-Effective Recycling of Spent Limn2o4 Cathode Via a Chemical Lithiation Strategy , 2022, SSRN Electronic Journal.
[5] D. Ghosh,et al. A comprehensive review of pre-lithiation/sodiation additives for Li-ion and Na-ion batteries , 2022, Journal of Energy Chemistry.
[6] Jiangfeng Qian,et al. Exfoliation of MoS2 Nanosheets Enabled by a Redox-Potential-Matched Chemical Lithiation Reaction. , 2022, Nano letters.
[7] S. Dou,et al. Ice-Assisted Synthesis of Highly Crystallized Prussian Blue Analogues for All-Climate and Long-Calendar-Life Sodium Ion Batteries. , 2022, Nano letters.
[8] Hongyang Li,et al. Operando Electrochemical X-ray Diffraction and Raman Spectroscopic Studies Revealing the Alkali-Metal Ion Intercalation Mechanism in Prussian Blue Analogues. , 2022, The journal of physical chemistry letters.
[9] Sen Xin,et al. Research Progress on Key Materials and Technologies for Secondary Batteries , 2022, Acta Physico Chimica Sinica.
[10] S. Nair,et al. Chemical Reduction of Prussian Blue Nanocubes as Alkali Ion Containing Cathodes and their Battery Applications , 2022, Sustainable Energy & Fuels.
[11] Qiannan Liu,et al. Prussian Blue Analogues for Sodium‐Ion Batteries: Past, Present, and Future , 2021, Advanced materials.
[12] Jiang Zhou,et al. Surface-substituted Prussian blue analogue cathode for sustainable potassium-ion batteries , 2021, Nature Sustainability.
[13] Jiangfeng Qian,et al. Direct Regeneration of Spent Li-Ion Battery Cathodes via Chemical Relithiation Reaction , 2021, ACS Sustainable Chemistry & Engineering.
[14] Hongqiang Wang,et al. Conducting network interface modulated rate performance in LiFePO4/C cathode materials , 2021, Rare Metals.
[15] Yunhui Huang,et al. A High Rate and Stable Hybrid Li/Na-Ion Battery Based on a Hydrated Molten Inorganic Salt Electrolyte. , 2021, Small.
[16] Shao‐hua Luo,et al. Synthesis and electrochemical properties of LiFePO4 cathode material by ionic thermal method using eutectic mixture of tetramethyl ammonium chloride–urea , 2021, Rare Metals.
[17] Z. Su,et al. Ultra-high-energy lithium-ion batteries enabled by aligned structured thick electrode design , 2021, Rare Metals.
[18] Jiangfeng Qian,et al. Achieving Desirable Initial Coulombic Efficiencies and Full Capacity Utilization of Li‐Ion Batteries by Chemical Prelithiation of Graphite Anode , 2021, Advanced Functional Materials.
[19] Hanwen Liu,et al. Processing Rusty Metals into Versatile Prussian Blue for Sustainable Energy Storage , 2021, Advanced Energy Materials.
[20] Yong Lu,et al. A Low-Strain Potassium-Rich Prussian Blue Analogue Cathode for High Power Potassium-Ion Batteries. , 2021, Angewandte Chemie.
[21] Yu Ding,et al. Defect-free-induced Na+ disordering in electrode materials , 2021 .
[22] L. Mai,et al. Highly Crystallized Prussian Blue with Enhanced Kinetics for Highly Efficient Sodium Storage. , 2021, ACS applied materials & interfaces.
[23] Tiefeng Liu,et al. Multi-core–shell-structured LiFePO4@Na3V2(PO4)3@C composite for enhanced low-temperature performance of lithium-ion batteries , 2020, Rare Metals.
[24] Weixiao Ji,et al. An electrode-level prelithiation of SiO anodes with organolithium compounds for lithium-ion batteries , 2020 .
[25] Zhi‐Kuang Tan,et al. High‐Capacity Sodium–Prussian Blue Rechargeable Battery through Chelation‐Induced Nano‐Porosity , 2020, Advanced Materials Interfaces.
[26] H. Meyer,et al. Lithium Iron Aluminum Nickelate, LiNixFeyAlzO2—New Sustainable Cathodes for Next‐Generation Cobalt‐Free Li‐Ion Batteries , 2020, Advanced materials.
[27] Zhichuan J. Xu,et al. Unconventional Mn Vacancies in Mn–Fe Prussian Blue Analogs: Suppressing Jahn-Teller Distortion for Ultrastable Sodium Storage , 2020 .
[28] Ya‐Xia Yin,et al. Enabling SiOx/C Anode with High Initial Coulombic Efficiency through a Chemical Pre-Lithiation Strategy for High Energy Density Lithium-Ion Batteries. , 2020, ACS applied materials & interfaces.
[29] K. Yi,et al. Molecularly tailored lithium-arene complex enables chemical prelithiation of high-capacity lithium-ion battery anodes. , 2020, Angewandte Chemie.
[30] Seung‐Taek Myung,et al. Co-Free Layered Cathode Materials for High Energy Density Lithium-Ion Batteries , 2020 .
[31] D. Qu,et al. Controlled Prelithiation of SnO2/C Nanocomposite Anode for Building Full Lithium-ion Batteries. , 2020, ACS applied materials & interfaces.
[32] S. Dou,et al. Reversible structural evolution of sodium-rich rhombohedral Prussian blue for sodium-ion batteries , 2020, Nature Communications.
[33] S. Dou,et al. The Cathode Choice for Commercialization of Sodium‐Ion Batteries: Layered Transition Metal Oxides versus Prussian Blue Analogs , 2020, Advanced Functional Materials.
[34] Weixiao Ji,et al. Fast and Controllable Prelithiation of Hard Carbon Anodes for Lithium-Ion Batteries. , 2020, ACS applied materials & interfaces.
[35] Jiangfeng Qian,et al. Chemically Prelithiated Hard-Carbon Anode for High Power and High Capacity Li-Ion Batteries. , 2020, Small.
[36] Zhenpo Wang,et al. Sustainable Recycling Technology for Li-Ion Batteries and Beyond: Challenges and Future Prospects. , 2020, Chemical reviews.
[37] A. Goodwin,et al. Hidden diversity of vacancy networks in Prussian blue analogues , 2019, Nature.
[38] Xiao‐Qing Yang,et al. High performance lithium-ion and lithium–sulfur batteries using prelithiated phosphorus/carbon composite anode , 2020 .
[39] J. Réthoré,et al. Concentration-Gradient Prussian Blue Cathodes for Na-Ion Batteries , 2019, ACS Energy Letters.
[40] C. Zhi,et al. Achieving High‐Voltage and High‐Capacity Aqueous Rechargeable Zinc Ion Battery by Incorporating Two‐Species Redox Reaction , 2019, Advanced Energy Materials.
[41] Ho Won Jang,et al. +Iron hexacyanocobaltate metal-organic framework: Highly reversible and stationary electrode material with rich borders for lithium-ion batteries , 2019, Journal of Alloys and Compounds.
[42] Daliang Fang,et al. Activating C‐Coordinated Iron of Iron Hexacyanoferrate for Zn Hybrid‐Ion Batteries with 10 000‐Cycle Lifespan and Superior Rate Capability , 2019, Advanced materials.
[43] Bo Wang,et al. Effective Chemical Prelithiation Strategy for Building a Silicon/Sulfur Li-Ion Battery , 2019, ACS Energy Letters.
[44] Ho Won Jang,et al. A Hybrid Energy Storage Mechanism of Zinc Hexacyanocobaltate-Based Metal–Organic Framework Endowing Stationary and High-Performance Lithium-Ion Storage , 2019, Electronic Materials Letters.
[45] Dan Liu,et al. Chemical Prelithiation of Negative Electrodes in Ambient Air for Advanced Lithium-Ion Batteries. , 2019, ACS applied materials & interfaces.
[46] Xiaolei Jiang,et al. Hierarchical polyhedron K2CoFe(CN)6 as promising cathode for rechargeable batteries , 2019, Journal of Alloys and Compounds.
[47] Tongchao Liu,et al. Diffusion-free Grotthuss topochemistry for high-rate and long-life proton batteries , 2019, Nature Energy.
[48] Yunhui Huang,et al. Structure Distortion Induced Monoclinic Nickel Hexacyanoferrate as High‐Performance Cathode for Na‐Ion Batteries , 2018, Advanced Energy Materials.
[49] Chen Wu,et al. Prussian Blue Cathode Materials for Sodium‐Ion Batteries and Other Ion Batteries , 2018 .
[50] Yunhui Huang,et al. A Dual‐Insertion Type Sodium‐Ion Full Cell Based on High‐Quality Ternary‐Metal Prussian Blue Analogs , 2018 .
[51] V. Tran,et al. Carbon-coated LiFePO4–carbon nanotube electrodes for high-rate Li-ion battery , 2018, Journal of Solid State Electrochemistry.
[52] B. Mandal,et al. A novel aqueous Li4Fe(CN)6 cathode and hydrophobic ionic liquid electrolyte combined lithium-ion battery , 2017 .
[53] Wenhao Ren,et al. Activation of Sodium Storage Sites in Prussian Blue Analogues via Surface Etching. , 2017, Nano letters.
[54] Jiangfeng Qian,et al. Recent progress and challenges in the development of Prussian blue analogues as new intercalation cathode materials , 2017 .
[55] Linda F. Nazar,et al. Crystallite Size Control of Prussian White Analogues for Nonaqueous Potassium-Ion Batteries , 2017 .
[56] D. Aurbach,et al. Electrochemical Performance of Li- and Mn-Rich Cathodes in Full Cells with Prelithiated Graphite Negative Electrodes , 2017 .
[57] Allen Pei,et al. Stabilized Li3N for efficient battery cathode prelithiation , 2017 .
[58] Jiangfeng Qian,et al. Low Defect FeFe(CN)6 Framework as Stable Host Material for High Performance Li-Ion Batteries. , 2016, ACS applied materials & interfaces.
[59] Yong Li,et al. Prussian Blue@C Composite as an Ultrahigh‐Rate and Long‐Life Sodium‐Ion Battery Cathode , 2016 .
[60] Wenquan Lu. A New Strategy to Mitigate the Initial Capacity Loss of Lithium Ion Batteries , 2016 .
[61] Jiulin Wang,et al. Highly Crystallized Na₂CoFe(CN)₆ with Suppressed Lattice Defects as Superior Cathode Material for Sodium-Ion Batteries. , 2016, ACS applied materials & interfaces.
[62] Hyun-Wook Lee,et al. High-capacity battery cathode prelithiation to offset initial lithium loss , 2016, Nature Energy.
[63] Peixun Xiong,et al. Prussian blue analogues Mn[Fe(CN)6]0.6667·nH2O cubes as an anode material for lithium-ion batteries. , 2015, Dalton transactions.
[64] Yong Liu,et al. Vacancy‐Free Prussian Blue Nanocrystals with High Capacity and Superior Cyclability for Aqueous Sodium‐Ion Batteries , 2015 .
[65] Xinping Ai,et al. Low-defect Prussian blue nanocubes as high capacity and long life cathodes for aqueous Na-ion batteries , 2015 .
[66] M. Armand,et al. K1−xFe2+x/3(CN)6·yH2O, Prussian Blue as a displacement anode for lithium ion batteries , 2014 .
[67] Liquan Chen,et al. Prussian blues as a cathode material for lithium ion batteries. , 2014, Chemistry.
[68] Jiangfeng Qian,et al. Energetic aqueous rechargeable sodium-ion battery based on Na2 CuFe(CN)6 -NaTi2 (PO4 )3 intercalation chemistry. , 2014, ChemSusChem.
[69] Ya‐Xia Yin,et al. Sodium iron hexacyanoferrate with high Na content as a Na-rich cathode material for Na-ion batteries , 2014, Nano Research.
[70] M. Okubo,et al. Ternary metal Prussian blue analogue nanoparticles as cathode materials for Li-ion batteries. , 2013, Dalton transactions.
[71] Wenwen Deng,et al. Single-crystal FeFe(CN)6 nanoparticles: a high capacity and high rate cathode for Na-ion batteries , 2013 .
[72] Xinping Ai,et al. A low-cost and environmentally benign aqueous rechargeable sodium-ion battery based on NaTi2(PO4)3–Na2NiFe(CN)6 intercalation chemistry , 2013 .
[73] John B Goodenough,et al. A superior low-cost cathode for a Na-ion battery. , 2013, Angewandte Chemie.
[74] Haoshen Zhou,et al. Bimetallic cyanide-bridged coordination polymers as lithium ion cathode materials: core@shell nanoparticles with enhanced cyclability. , 2013, Journal of the American Chemical Society.
[75] John B Goodenough,et al. Prussian blue: a new framework of electrode materials for sodium batteries. , 2012, Chemical communications.
[76] Min Zhou,et al. Nanosized Na4Fe(CN)6/C Composite as a Low‐Cost and High‐Rate Cathode Material for Sodium‐Ion Batteries , 2012 .
[77] Xiqian Yu,et al. Kinetic analysis on LiFePO4 thin films by CV, GITT, and EIS , 2011 .
[78] Bruno Scrosati,et al. An advanced lithium ion battery based on high performance electrode materials. , 2011, Journal of the American Chemical Society.
[79] M. Okubo,et al. Switching Redox-Active Sites by Valence Tautomerism in Prussian Blue Analogues AxMny[Fe(CN)6]·nH2O (A: K, Rb): Robust Frameworks for Reversible Li Storage , 2010 .
[80] Yasuo Takeda,et al. Lithium intercalation behavior into iron cyanide complex as positive electrode of lithium secondary battery , 1999 .
[81] J. D. Wet,et al. On the existence and Autoreduction of Iron(III)-hexacyanoferrate(III) , 1965 .