Research

International

• CoFree and NiMinimized Li and MnRich Layered Cathodes With Suppressed Structural Disordering for HighPerformance and CostEffective LIBs, Advanced Energy Materials, , 16, - (2026 )
• Fast and TrapMinimized Li Transport via SizeMismatchDriven CationOrdering Control in LiExcess Disordered Rocksalt Cathodes, ACS Nano, , 20, 10556-10569 (2026 )
• Tailoring electrochemical interface to regulate competition between Zn deposition and hydrogen evolution in aqueous rechargeable batteries, Energy Storage Materials, , 86, - (2026 )
• Unlocking the Full Redox Capability of Organic Charge‐Transfer Complex in High‐Loading Electrodes for Organic Rechargeable Batteries, Advanced Energy Materials, , 15, - (2025 )
• ReductionInduced Oxygen Loss the Hidden Surface Reconstruction Mechanism of Layered Oxide Cathodes in LithiumIon Batteries, Advanced Energy Materials, , 15, - (2025 )
• Immersiontype hydrogen charging into a zinccoated ultrahighstrength steel, Journal of Materials Research and Technology, , 37, 1933-1940 (2025 )
• Interfacial chemistrydriven reaction dynamics and resultant microstructural evolution in lithiumbased allsolidstate batteries, Nature Communications, , 16, - (2025 )
• SolutionBased Deep Prelithiation for LithiumIon Capacitors with High Energy Density, Small, , 20, - (2024 )
• Fast discharging mitigates cathodeelectrolyte interface degradation of LiNi06Mn02Co02O2 in rechargeable lithium batteries, Energy Storage Materials, , 65, - (2024 )
• Thermodynamically controlled chemical regeneration of spent battery cathodes using recyclable electron donors under ambient conditions, Energy Environmental Science, , 17, 4064-4077 (2024 )
• Activation of Oxygen Redox by Inhibited Dynamic Phase Transition for HighEnergy LiRich Layered Oxide Cathode, Chemical Engineering Journal, , 495, - (2024 )
• Unlocking the Full Redox Capability of Organic Charge‐Transfer Complex in High‐Loading Electrodes for Organic Rechargeable Batteries, Advanced Energy Materials, , , - (2024 )
• Decoupling capacity fade and voltage decay of Lirich Mnrich cathodes by tailoring surface reconstruction pathways, Energy Environmental Science, , 17, 9623-9634 (2024 )
• Effect of the simultaneous addition of lanthanum and nickel on the oxidation behavior and related areaspecific resistance of ferritic stainless steels for solid oxide fuel cell interconnects, Corrosion Science, , 233, 112098- (2024 )
• Identification of a Ternary Nitride Ti10Cu3N4 with a Unique Structure Type, ACS Omega, , 9, 31035-31042 (2024 )
• Reversible Magnesium Metal Cycling in AdditiveFree Simple Salt Electrolytes Enabled by Spontaneous Chemical Activation, ACS Nano, , 17, 8980-8991 (2023 )
• Optimizing strengthcorrosion properties in sulfuric acid environment via tailoring V–Cr composition in mediumentropy VCrCoNi alloys, Corrosion Science, , 223, - (2023 )
• Occurrence of anionic redox with absence of full oxidation to Ru5 in highenergy P2type layered oxide cathode, Journal of Energy Chemistry, , 84, 153-161 (2023 )
• Stimulating CuZn alloying for compact Zn metal growth towards high energy aqueous batteries and hybrid supercapacitors, Energy Environmental Science, , 15, 2889-2899 (2022 )
• Regulating Dynamic Electrochemical Interface of LiNisub05subMnsub15subOsub4sub Spinel Cathode for Realizing Simultaneous Mn and Ni Redox in Rechargeable Lithium Batteries, ADVANCED ENERGY MATERIALS, , 12, - (2022 )
• Highenergy P2type Nalayered oxide cathode with sequentially occurred anionic redox and suppressed phase transition, Applied Physics Reviews, , 9, - (2022 )
• Li‐Rich Mn–Mg Layered Oxide as a Novel Ni‐Co‐Free Cathode, Advanced Functional Materials, , 32, - (2022 )
• Exceptionally increased reversible capacity of O3type NaCrO2 cathode by preventing irreversible phase transition, Energy Storage Materials, , 46, 289-299 (2022 )
• Unlocking the hidden chemical space in cubicphase garnet solid electrolyte for efficient quasiallsolidstate lithium batteries, Nature Communications, , 13, - (2022 )
• Bisub2subOsub3subBiOsub2sub Nanoheterojunction for Highly Efficient Electrocatalytic COsub2sub Reduction to Formate, Nano Letters, , 22, 1656-1664 (2022 )
• Weakly Solvating Solution Enables Chemical Prelithiation of GraphiteSiOisubxsubi Anodes for HighEnergy LiIon Batteries, Journal of the American Chemical Society, , 143, 9169-9176 (2021 )
• Selective Anionic Redox and Suppressed Structural Disordering Enabling High‐Energy and Long‐Life Li‐Rich Layered‐Oxide Cathode, Advanced Energy Materials, , 11, - (2021 )
• Molecularly Tailored LithiumArene Complex Enables Chemical Prelithiation of HighCapacity LithiumIon Battery Anodes, Angewandte Chemie International Edition, , 59, 14473-14480 (2020 )
• Multielectron redox phenazine for readytocharge organic batteries, Green Chemistry, , 19, 2980-2985 (2017 )
• Highperformance sodiumorganic battery by realizing foursodium storage in disodium rhodizonate, Nature Energy, , 2, - (2017 )
• Rational design of redox mediators for advanced LiOsub2sub batteries, Nature Energy, , 1, - (2016 )
• Thermal structural stability of a multicomponent olivine electrode for lithium ion batteries, CrystEngComm, , 18, 7463-7470 (2016 )
• High Energy Organic Cathode for Sodium Rechargeable Batteries, Chemistry of Materials, , 27, 7258-7264 (2015 )
• Biologically inspired pteridine redox centres for rechargeable batteries, Nature Communications, , 5, - (2014 )
• Organic Nanohybrids for Fast and Sustainable Energy Storage, Advanced Materials, , 26, 2558-2565 (2014 )
• Superior Rechargeability and Efficiency of LithiumOxygen Batteries Hierarchical Air Electrode Architecture Combined with a Soluble Catalyst, ANGEWANDTE CHEMIEINTERNATIONAL EDITION, , 53, 3926-3931 (2014 )
• Recent progress on flexible lithium rechargeable batteries, Energy Environmental Science, , 7, 538-551 (2014 )
• HighPerformance Hybrid Supercapacitor Based on GrapheneWrapped Li4Ti5O12 and Activated Carbon, ChemElectroChem, , 1, 125-130 (2014 )
• Novel transitionmetalfree cathode for high energy and power sodium rechargeable batteries, Nano Energy, , 4, 97-104 (2014 )
• IonExchange Mechanism of Layered TransitionMetal Oxides Case Study of LiNi05Mn05O2, Inorganic Chemistry, , 53, 8083-8087 (2014 )
• Allgraphenebattery bridging the gap between supercapacitors and lithium ion batteries, SCIENTIFIC REPORTS, , 4, - (2014 )
• AntiSite Reordering in LiFePO4 Defect Annihilation on Charge Carrier Injection, Chemistry of Materials, , 26, 5345-5351 (2014 )
• Understanding the Degradation Mechanisms of LiNi05Co02Mn03O2 Cathode Material in Lithium Ion Batteries, Advanced Energy Materials, , 4, - (2014 )
• Redox Cofactor from Biological Energy Transduction as Molecularly Tunable EnergyStorage Compound, Angewandte Chemie International Edition, , 52, 8322-8328 (2013 )
• Toward a LithiumAir Battery The Effect of CO2 on the Chemistry of a LithiumOxygen Cell, Journal of the American Chemical Society, , 135, 9733-9742 (2013 )
• Factors that Affect the Phase Behavior of MultiComponent Olivine (LiFexMnyCo1xyPO4 0 lt x y lt 1) in Lithium Rechargeable Batteries OnePhase Reaction vs TwoPhase Reaction, Journal of the Electrochemical Society, , 160, A444-A448 (2013 )
• Scalable Functionalized Graphene Nanoplatelets as Tunable Cathodes for Highperformance Lithium Rechargeable Batteries, Scientific Reports, , 3, - (2013 )
• Critical Role of Oxygen Evolved from Layered LiExcess Metal Oxides in Lithium Rechargeable Batteries, Chemistry of Materials, , 24, 2692-2697 (2012 )
• Synthesis of graphenewrapped CuO hybrid materials by CO2 mineralization, Green Chemistry, , 14, 2391-2394 (2012 )
• The potential for longterm operation of a lithiumoxygen battery using a noncarbonatebased electrolyte, Chemical Communications, , 48, 8374-8376 (2012 )
• Thermal stability of FeMn binary olivine cathodes for Li rechargeable batteries, JOURNAL OF MATERIALS CHEMISTRY, , 22, 11964-11970 (2012 )
• Multicomponent Effects on the Crystal Structures and Electrochemical Properties of SpinelStructured M3O4 (M Fe Mn Co) Anodes in Lithium Rechargeable Batteries, Chemistry of Materials, , 24, 720-725 (2012 )
• Energy storage in composites of a redox couple host and a lithium ion host, Nano Today, , 7, 168-173 (2012 )
• Polymorphism and phase transformations of Li2xFeSiO4 (0 ≤ x ≤ 2) from first principles , Physical Review B Condensed Matter and Materials Physics, , 84, - (2011 )
• Invited paper Preparation and electrochemical characterization of doped spinel LiMn188Ge01Li002O4 cathode material, Electronic Materials Letters, , 7, 105-108 (2011 )
• GrapheneBased Hybrid Electrode Material for HighPower LithiumIon Batteries, Journal of the Electrochemical Society, , 158, A930-A935 (2011 )
• Electrochemical and exsitu analysis on manganese oxidegraphene hybrid anode for lithium rechargeable batteries, Journal of Materials Research, , 26, 2665-2671 (2011 )

Invited Talk or Presentations

• ReductionInduced Oxygen Loss and Surface Reconstruction Mechanism of Layered Oxide Cathodes in LithiumIon Batteries, , , 0, - (2025)
• Tailoring Surface Reconstruction Controls TwoStep Phase Evolution in LiRich Layered Oxides, , , 0, - (2025)
• Modulating surface reconstruction controls twostep bulk phase evolution in LiMnrich layered oxides, , , 0, - (2025)
• ReductionInduced Oxygen Loss and Surface Reconstruction Mechanism of Layered Oxide Cathodes in LithiumIon Batteries, , , 0, - (2025)
• ECfree electrolyte enables superior cycle life through insitu spinel phase stabilization in LiMnrich layered oxides, , , 0, - (2025)
• Bridging Atomic and ChemoMechanical Degradation Pathways at HighVoltage Operation in SingleCrystalline NMC622, , , 0, - (2025)
• Elucidating surface reconstruction pathways of highenergy cathode materials in Liion batteries, , , 0, - (2025)
• Insitu Stabilized Spinel Phase of Li Mnrich Layered Oxides in ECfree Electrolyte Enabling Long Cyclability, , , 0, - (2025)
• Effect of Electrolyte Properties on Surface Reconstruction and Interfacial Degradation in NMC622 Cathodes, , , 0, - (2025)
• Reductive oxygen loss and rocksalt phase formation at cathodeelectrolyte interface of NCM cathodes below a certain potential, , , 0, - (2025)
• Electrolyte Modification Strategies for Enhanced Stability and Improved Performance of MidNickel Layered Oxide Cathode under HighVoltage Operation, , , 0, - (2025)
• 표면 재배열 경로 제어를 통한 리튬망간 과잉 층상구조 산화물 양극재의 열화기구 규명, , , 0, - (2025)
• ReductionInduced Surface Reconstruction Mechanism of Layered Oxide Cathodes in LithiumIon Batteries, , , 0, - (2025)
• Decoupling Capacity Fade and Voltage Decay of LiRich MnRich Layered Oxides by Regulating Surface Reconstruction Pathways, , , 0, - (2025)
• Elucidating and Tailoring Surface Reconstruction Pathways of Mnrich Oxide Cathodes, , , 0, - (2024)
• Insitu Stabilized Spinel Phase of LiMnrich Layered Oxides in ECfree Electrolyte Enabling Long Cycle Life, , , 0, - (2024)
• Elucidating and Tailoring Surface Reconstruction Pathways of Mnrich Oxide Cathodes , , , 0, - (2024)
• Destabilized LayeredtoRocksalt Surface Reconstruction Enabling Extended Cycle Life for Li and Mnrich Layered Oxides, , , 0, - (2024)
• Reductive oxygen loss and rocksalt phase formation at cathodeelectrolyte interface of NCM cathodes below a certain potential, , , 0, - (2024)
• Destabilized LayeredtoRocksalt Surface Reconstruction Enabling Extended Cycle Life for Li and Mnrich Layered Oxides, , , 0, - (2024)