Minah Lee

RESEARCH, TEACHING, or OTHER INTERESTS

Materials Chemistry, Energy, Electrochemistry, Organic Chemistry

Scopus Publications

Reduction-Induced Oxygen Loss: the Hidden Surface Reconstruction Mechanism of Layered Oxide Cathodes in Lithium-Ion Batteries
Seungyun Jeon, Gukhyun Lim, Hoseok Lee, Hyunyoung Park, Min Kyung Cho, Chan Kim, YeEun Lee, Jaehoon Kim, Minhyung Kwon, Jung‐Keun Yoo,et al.
Wiley
AbstractThe surface reconstruction from the layered to rocksalt‐type phase represents a primary deterioration pathway of layered‐oxide cathodes in lithium‐ion batteries, involving irreversible oxygen loss and transition metal migration. This degradation mechanism has primarily been attributed to the oxidative instability of highly delithiated cathodes at high voltages (>4.3 V vs Li/Li+). However, the battery degradation also occurs under seemingly stable voltage ranges, the origin of which remains unclear. Herein, a hidden mechanism to induce surface reconstruction and oxygen loss is proposed, termed the “quasi‐conversion reaction”, which is revealed to occur during electrochemical reduction (discharge) processes just below 3.0 V (vs Li/Li+). Combined experiments and first‐principles calculations unveil that the oxygens at the surface can be extracted from the cathode lattice by forming lithium oxides and oxygen vacancies, at significantly higher potentials than conventional conversion reaction, due to the instability of surface oxygens coordinated with fewer cations than in the bulk. The chemical incompatibility between lithium oxides and commercial carbonate‐based electrolytes results in electrolyte decomposition, forming an organic‐rich blocking layer and gaseous byproducts, which further increases the cell impedance. This study emphasizes the necessity of a thorough understanding of surface instability upon reduction to develop long‐lasting batteries.


Thermal runaway prevention through scalable fabrication of safety reinforced layer in practical Li-ion batteries
In Taek Song, Joonkoo Kang, Jongkwan Koh, Hyunju Choi, Heemyeong Yang, Eunkyung Park, Jina Lee, Woohyung Cho, Yu-mi Lee, Seokkyeong Lee,et al.
Springer Science and Business Media LLC



Bilayer Interphase for Air-Stable and Dendrite-Free Lithium Metal Anode Cycling in Carbonate Electrolytes
A‐Re Jeon, Byeol Yi Han, Minhyung Kwon, Seung‐Ho Yu, Kyung Yoon Chung, Jimin Shim, and Minah Lee
Wiley
AbstractThe intrinsic reactivity of lithium (Li) toward ambient air, combined with insufficient cycling stability in conventional electrolytes, hinders the practical adoption of Li metal anodes in rechargeable batteries. Here, a bilayer interphase for Li metal is introduced to address both its susceptibility to corrosion in ambient air and its deterioration during cycling in carbonate electrolytes. Initially, the Li metal anode is coated with a conformal bottom layer of polysiloxane bearing methacrylate, followed by further grafting with poly(vinyl ethylene carbonate) (PVEC) to enhance anti‐corrosion capability and electrochemical stability. In contrast to single‐layer applications of polysiloxane or PVEC, the bilayer design offers a highly uniform coating that effectively resists humid air and prevents dendritic Li growth. Consequently, it demonstrates stable plating/stripping behavior with only a marginal increase in overpotential over 200 cycles in carbonate electrolytes, even after exposure to ambient air with 46% relative humidity. The design concept paves the way for scalable production of high‐voltage, long‐cycling Li metal batteries.


Solution-Based Deep Prelithiation for Lithium-Ion Capacitors with High Energy Density
Seungyun Jeon, Sehee lm, Inyeong Kang, Dongki Shin, Seung‐Ho Yu, Minah Lee, and Jihyun Hong
Wiley
AbstractLithium‐ion capacitors (LICs) exhibit superior power density and cyclability compared to lithium‐ion batteries. However, the low initial Coulombic efficiency (ICE) of amorphous carbon anodes (e.g., hard carbon (HC) and soft carbon (SC)) limits the energy density of LICs by underutilizing cathode capacity. Here, a solution‐based deep prelithiation strategy for carbon anodes is applied using a contact‐ion pair dominant solution, offering high energy density based on a systematic electrode balancing based on the cathode capacity increased beyond the original theoretical limit. Increasing the anode ICE to 150% over 100%, the activated carbon (AC) capacity is doubled by activating Li+ cation storage, which unleashes rocking‐chair LIC operation alongside the dual‐ion‐storage mechanism. The increased AC capacity results in an energy density of 106.6 Wh kg−1AC+SC, equivalent to 281% of that of LICs without prelithiation. Moreover, this process lowers the cathode‐anode mass ratio, reducing the cell thickness by 67% without compromising the cell capacity. This solution‐based deep chemical prelithiation promises high‐energy LICs based on transition metal‐free, earth‐abundant active materials to meet the practical demands of power‐intensive applications.


Thermodynamically controlled chemical regeneration of spent battery cathodes using recyclable electron donors under ambient conditions
Sunghyun Ko, Jinkwan Choi, Jihyun Hong, Changsoo Kim, Uichan Hwang, Minhyung Kwon, Gukhyun Lim, Seok Su Sohn, Jinha Jang, Ung Lee,et al.
Royal Society of Chemistry (RSC)
We establish thermodynamically controlled Li-coupled electron transfer from recyclable electron donors to cathodes as a viable route for directly regenerating spent cathodes under ambient conditions.


Fast discharging mitigates cathode-electrolyte interface degradation of LiNi<inf>0.6</inf>Mn<inf>0.2</inf>Co<inf>0.2</inf>O<inf>2</inf> in rechargeable lithium batteries
Suyeon Oh, A-Re Jeon, Gukhyun Lim, Min Kyung Cho, Keun Hwa Chae, Seok Su Sohn, Minah Lee, Sung-Kyun Jung, and Jihyun Hong
Elsevier BV



Decoupling capacity fade and voltage decay of Li-rich Mn-rich cathodes by tailoring surface reconstruction pathways
Gukhyun Lim, Min Kyung Cho, Jaewon Choi, Ke-Jin Zhou, Dongki Shin, Seungyun Jeon, Minhyung Kwon, A-Re Jeon, Jinkwan Choi, Seok Su Sohn,et al.
Royal Society of Chemistry (RSC)
Stabilizing lattice oxygen at the electrochemical interface of Li-/Mn-rich cathodes preferentially promotes layered-to-spinel phase transition and suppresses rocksalt phase formation, offering excellent capacity retention.


A fluoroalkyl iodide additive for Li-O<inf>2</inf> battery electrolytes enables stable cycle life and high reversibility
Min-Gi Jeong, Hyun Ho Lee, Hyeon-Ji Shin, Yeseul Jeong, Jang-Yeon Hwang, Won-Jin Kwak, Gwangseok Oh, Wonkeun Kim, Kyounghan Ryu, Seungho Yu,et al.
Royal Society of Chemistry (RSC)
The introduction of CF3(CF2)2I into the electrolyte leads to the simultaneous formation of LiI as a redox mediator and LiF as a protective layer. This enables long cycle life and high reversibility even at high areal capacity (∼5 mA h cm−2).


Reversible Magnesium Metal Cycling in Additive-Free Simple Salt Electrolytes Enabled by Spontaneous Chemical Activation
A-Re Jeon, Seungyun Jeon, Gukhyun Lim, Juyoung Jang, Woo Joo No, Si Hyoung Oh, Jihyun Hong, Seung-Ho Yu, and Minah Lee
American Chemical Society (ACS)
Rechargeable magnesium (Mg) batteries can offer higher volumetric energy densities and be safer than their conventional counterparts, lithium-ion batteries. However, their practical implementation is impeded due to the passivation of the Mg metal anode or the severe corrosion of the cell parts in conventional electrolyte systems. Here, we present a chemical activation strategy to facilitate the Mg deposition/stripping process in additive-free simple salt electrolytes. By exploiting the simple immersion-triggered spontaneous chemical reaction between reactive organic halides and Mg metal, the activated Mg anode exhibited an overpotential below 0.2 V and a Coulombic efficiency as high as 99.5% in a Mg(TFSI)2 electrolyte. Comprehensive analyses reveal simultaneous evolution of morphology and interphasial chemistry during the activation process, through which stable Mg cycling over 990 cycles was attained. Our activation strategy enabled the efficient cycling of Mg full-cell candidates using commercially available electrolytes, thereby offering possibilities of building practical Mg batteries.


Molecularly engineered linear organic carbonates as practically viable nonflammable electrolytes for safe Li-ion batteries
Jina Lee, A-Re Jeon, Hye Jin Lee, Ukseon Shin, Yiseul Yoo, Hee-Dae Lim, Cheolhee Han, Hochun Lee, Yong Jin Kim, Jayeon Baek,et al.
Royal Society of Chemistry (RSC)
Concurrent modification of linear carbonates combining alkyl-chain extension and alkoxy substitution enables thermally stable high-performance batteries by decreasing volatility and increasing solvation ability simultaneously.


In Situ Mesopore Formation in SiO<inf>x</inf> Nanoparticles by Chemically Reinforced Heterointerface and Use of Chemical Prelithiation for Highly Reversible Lithium-Ion Battery Anode
Sanghyuk Gong, Yeongje Lee, Jinkwan Choi, Minah Lee, Kyung Yoon Chung, Hun‐Gi Jung, Sunho Jeong, and Hyung‐Seok Kim
Wiley
AbstractSiOx is a promising next‐generation anode material for lithium‐ion batteries. However, its commercial adoption faces challenges such as low electrical conductivity, large volume expansion during cycling, and low initial Coulombic efficiency. Herein, to overcome these limitations, an eco‐friendly in situ methodology for synthesizing carbon‐containing mesoporous SiOx nanoparticles wrapped in another carbon layers is developed. The chemical reactions of vinyl‐terminated silanes are designed to be confined inside the cationic surfactant‐derived emulsion droplets. The polyvinylpyrrolidone‐based chemical functionalization of organically modified SiO2 nanoparticles leads to excellent dispersion stability and allows for intact hybridization with graphene oxide sheets. The formation of a chemically reinforced heterointerface enables the spontaneous generation of mesopores inside the thermally reduced SiOx nanoparticles. The resulting mesoporous SiOx‐based nanocomposite anodes exhibit superior cycling stability (≈100% after 500 cycles at 0.5 A g−1) and rate capability (554 mAh g−1 at 2 A g−1), elucidating characteristic synergetic effects in mesoporous SiOx‐based nanocomposite anodes. The practical commercialization potential with a significant enhancement in initial Coulombic efficiency through a chemical prelithiation reaction is also presented. The full cell employing the prelithiated anode demonstrated more than 2 times higher Coulombic efficiency and discharge capacity compared to the full cell with a pristine anode.


Regulating Dynamic Electrochemical Interface of LiNi<inf>0.5</inf>Mn<inf>1.5</inf>O<inf>4</inf> Spinel Cathode for Realizing Simultaneous Mn and Ni Redox in Rechargeable Lithium Batteries
Gukhyun Lim, Dongki Shin, Keun Hwa Chae, Min Kyung Cho, Chan Kim, Seok Su Sohn, Minah Lee, and Jihyun Hong
Wiley
AbstractThe exploding electric‐vehicle market requires cost‐effective high‐energy materials for rechargeable lithium batteries. The manganese‐rich spinel oxide LiNi0.5Mn1.5O4 (LNMO) can store a capacity greater than 200 mAh g−1 based on the multi‐cation (Ni2+/Ni4+ and Mn3+/Mn4+) redox centers. However, its practical capacity is limited to Ni2+/Ni4+ redox (135 mAh g−1) due to the poor reversibility of Mn3+/Mn4+ redox. This instability is generally attributed to the Jahn–Teller distortion of Mn3+ and its disproportionation, which leads to severe Mn dissolution. Herein, for the first time, the excellent reversibility of Mn3+/Mn4+ redox within 2.3–4.3 V is demonstrated, requiring revisiting the previous theory. LNMO loses capacity only within a wide voltage range of 2.3–4.9 V. It is revealed that a dynamic evolution of the electrochemical interface, for example, potential‐driven rocksalt phase formation and decomposition, repeatedly occurs during cycling. The interfacial evolution induces electrolyte degradation and surface passivation, impeding the charge‐transfer reactions. It is further demonstrated that stabilizing the interface by electrolyte modification extends the cycle life of LNMO while using the multi‐cation redox, enabling 71.5% capacity retention of LNMO after 500 cycles. The unveiled dynamic oxide interface will propose a new guideline for developing Mn‐rich cathodes by realizing the reversible Mn redox.


Discovery of organic catalysts boosting lithium carbonate decomposition toward ambient air operational lithium-air batteries
Sunghyun Ko, Yiseul Yoo, Jinkwan Choi, Hee-Dae Lim, Chan Beum Park, and Minah Lee
Royal Society of Chemistry (RSC)
We present a series of organic redox mediators (RMs) for ambient air operational LABs. The selected RMs capable of decomposing Li2O2 can not only facilitate Li2CO3 oxidation but also inhibit 1O2 generation during the charging process.


Nitrogen–doped graphitic mesoporous carbon materials as effective sulfur imbibition hosts for magnesium-sulfur batteries
Minseok Lee, Minji Jeong, Youn Shin Nam, Janghyuk Moon, Minah Lee, Hee-Dae Lim, Dongjin Byun, Taeeun Yim, and Si Hyoung Oh
Elsevier BV



Stimulating Cu-Zn alloying for compact Zn metal growth towards high energy aqueous batteries and hybrid supercapacitors
Minhyung Kwon, Jina Lee, Sunghyun Ko, Gukhyun Lim, Seung-Ho Yu, Jihyun Hong, and Minah Lee
Royal Society of Chemistry (RSC)
A synthetic method to construct a highly stable, densely packed Zn anode is presented by provoking the unusual Cu–Zn alloying alongside Zn plating. The compact Zn anode retains its morphology over repeated plating/stripping cycles in aqueous media.


Weakly Solvating Solution Enables Chemical Prelithiation of Graphite-SiO<inf>x</inf>Anodes for High-Energy Li-Ion Batteries
Jinkwan Choi, Hyangsoo Jeong, Juyoung Jang, A-Re Jeon, Inyeong Kang, Minhyung Kwon, Jihyun Hong, and Minah Lee
American Chemical Society (ACS)
Although often overlooked in anode research, the anode's initial Coulombic efficiency (ICE) is a crucial factor dictating the energy density of a practical Li-ion battery. For next-generation anodes, a blend of graphite and Si/SiOx represents the most practical way to balance capacity and cycle life, but its low ICE limits its commercial viability. Here, we develop a chemical prelithiation method to maximize the ICE of the blend anodes using a reductive Li-arene complex solution of regulated solvation power, which enables a full cell to exhibit a near-ideal energy density. To prevent structural degradation of the blend during prelithiation, we investigate a solvation rule to direct the Li+ intercalation mechanism. Combined spectroscopy and density functional theory calculations reveal that in weakly solvating solutions, where the Li+-anion interaction is enhanced, free solvated-ion formation is inhibited during Li+ desolvation, thereby mitigating solvated-ion intercalation into graphite and allowing stable prelithiation of the blend. Given the ideal ICE of the prelithiated blend anode, a full cell exhibits an energy density of 506 Wh kg-1 (98.6% of the ideal value), with a capacity retention after 250 cycles of 87.3%. This work highlights the promise of adopting chemical prelithiation for high-capacity anodes to achieve practical high-energy batteries.


Solution Processing of Lithium-Rich Amorphous Li-La-Zr-O Ion Conductor and Its Application for Cycling Durability Improvement of LiCoO<inf>2</inf> Cathode as Coating Layer
Tan Tan Bui, Boseon Yun, Kwabena Darko, Seung Beom Shin, Jaehyun Kim, Jongin Hong, Minah Lee, Sung Kyu Park, and Myung‐Gil Kim
Wiley
AbstractLithium‐rich amorphous Li‐La‐Zr‐O (a‐Li‐La‐Zr‐O) electrolyte is successfully synthesized using sol–gel processing method. With unlimited compositions of the amorphous structure, lithium‐rich compositions are systematically investigated to determine optimal composition and optimized processing conditions of a‐Li‐La‐Zr‐O coatings. There is an improvement in ionic conductivity of a‐Li‐La‐Zr‐O with Li content increasing, specifically from 3.0 × 10−8 S cm−1 (Li8La2Zr2O11) to 1.18 × 10−6 S cm−1 (Li18La2Zr2O16), thereby resulting in low activation energy. The high‐ionic‐conductivity a‐Li‐La‐Zr‐O is implemented as an artificial solid electrolyte interface coating layer on cathode materials. The a‐Li‐La‐Zr‐O‐coated LiCoO2 (LCO) and LiNi0.8Mn0.1Co0.1O2 (NMC 811) coin cells exhibit better cycling performance than the bare coin cell at the optimum compositional ratio of a‐Li‐La‐Zr‐O. A‐Li‐La‐Zr‐O can be a promising material for solid electrolyte battery and a potential coating layer for the modification of cathode surface.


Molecularly Tailored Lithium–Arene Complex Enables Chemical Prelithiation of High-Capacity Lithium-Ion Battery Anodes
Juyoung Jang, Inyeong Kang, Jinkwan Choi, Hyangsoo Jeong, Kyung‐Woo Yi, Jihyun Hong, and Minah Lee
Wiley
AbstractPrelithiation is of great interest to Li‐ion battery manufacturers as a strategy for compensating for the loss of active Li during initial cycling of a battery, which would otherwise degrade its available energy density. Solution‐based chemical prelithiation using a reductive chemical promises unparalleled reaction homogeneity and simplicity. However, the chemicals applied so far cannot dope active Li in Si‐based high‐capacity anodes but merely form solid–electrolyte interphases, leading to only partial mitigation of the cycle irreversibility. Herein, we show that a molecularly engineered Li–arene complex with a sufficiently low redox potential drives active Li accommodation in Si‐based anodes to provide an ideal Li content in a full cell. Fine control over the prelithiation degree and spatial uniformity of active Li throughout the electrodes are achieved by managing time and temperature during immersion, promising both fidelity and low cost of the process for large‐scale integration.


A Dynamic, Electrolyte-Blocking, and Single-Ion-Conductive Network for Stable Lithium-Metal Anodes
Zhiao Yu, David G. Mackanic, Wesley Michaels, Minah Lee, Allen Pei, Dawei Feng, Qiuhong Zhang, Yuchi Tsao, Chibueze V. Amanchukwu, Xuzhou Yan,et al.
Elsevier BV



An Electrochemical Gelation Method for Patterning Conductive PEDOT:PSS Hydrogels
Vivian Rachel Feig, Helen Tran, Minah Lee, Kathy Liu, Zhuojun Huang, Levent Beker, David G. Mackanic, and Zhenan Bao
Wiley
AbstractDue to their high water content and macroscopic connectivity, hydrogels made from the conducting polymer PEDOT:PSS are a promising platform from which to fabricate a wide range of porous conductive materials that are increasingly of interest in applications as varied as bioelectronics, regenerative medicine, and energy storage. Despite the promising properties of PEDOT:PSS‐based porous materials, the ability to pattern PEDOT:PSS hydrogels is still required to enable their integration with multifunctional and multichannel electronic devices. In this work, a novel electrochemical gelation (“electrogelation”) method is presented for rapidly patterning PEDOT:PSS hydrogels on any conductive template, including curved and 3D surfaces. High spatial resolution is achieved through use of a sacrificial metal layer to generate the hydrogel pattern, thereby enabling high‐performance conducting hydrogels and aerogels with desirable material properties to be introduced into increasingly complex device architectures.


Designing a Quinone-Based Redox Mediator to Facilitate Li <inf>2</inf> S Oxidation in Li-S Batteries
Yuchi Tsao, Minah Lee, Elizabeth C. Miller, Guoping Gao, Jihye Park, Shucheng Chen, Toru Katsumata, Helen Tran, Lin-Wang Wang, Michael F. Toney,et al.
Elsevier BV



Erratum to: Mechanically tunable conductive interpenetrating network hydrogels that mimic the elastic moduli of biological tissue (Nature Communications, (2018), 9, 1, (2740), 10.1038/s41467-018-05222-4)
Vivian R. Feig, Helen Tran, Minah Lee, and Zhenan Bao
Springer Science and Business Media LLC
The original version of this Article contained an error in the second sentence of the ‘Materials’ section of the Methods, which incorrectly read ‘PEDOT:PSS synthesized by Orgacon (739324 Aldrich, MDL MFCD07371079) was purchased as a surfactant-free aqueous dispersion with 1.1 wt% solid content.’ The correct version replaces this sentence with ‘PEDOT:PSS Orgacon ICP 1050 was provided by Agfa as a surfactant-free aqueous dispersion with 1.1 wt% solid content.’ This has been corrected in both the PDF and HTML versions of the Article.


Mechanically tunable conductive interpenetrating network hydrogels that mimic the elastic moduli of biological tissue
Vivian R. Feig, Helen Tran, Minah Lee, and Zhenan Bao
Springer Science and Business Media LLC
AbstractConductive and stretchable materials that match the elastic moduli of biological tissue (0.5–500 kPa) are desired for enhanced interfacial and mechanical stability. Compared with inorganic and dry polymeric conductors, hydrogels made with conducting polymers are promising soft electrode materials due to their high water content. Nevertheless, most conducting polymer-based hydrogels sacrifice electronic performance to obtain useful mechanical properties. Here we report a method that overcomes this limitation using two interpenetrating hydrogel networks, one of which is formed by the gelation of the conducting polymer PEDOT:PSS. Due to the connectivity of the PEDOT:PSS network, conductivities up to 23 S m−1 are achieved, a record for stretchable PEDOT:PSS-based hydrogels. Meanwhile, the low concentration of PEDOT:PSS enables orthogonal control over the composite mechanical properties using a secondary polymer network. We demonstrate tunability of the elastic modulus over three biologically relevant orders of magnitude without compromising stretchability ( &gt; 100%) or conductivity ( &gt; 10 S m−1).


Synthetic Routes for a 2D Semiconductive Copper Hexahydroxybenzene Metal-Organic Framework
Jihye Park, Allison C. Hinckley, Zhehao Huang, Dawei Feng, Andrey A. Yakovenko, Minah Lee, Shucheng Chen, Xiaodong Zou, and Zhenan Bao
American Chemical Society (ACS)
Conductive metal-organic frameworks (c-MOFs) have shown outstanding performance in energy storage and electrocatalysis. Varying the bridging metal species and the coordinating atom are versatile approaches to tune their intrinsic electronic properties in c-MOFs. Herein we report the first synthesis of the oxygen analog of M3(C6X6)2 (X = NH, S) family using Cu(II) and hexahydroxybenzene (HHB), namely Cu-HHB [Cu3(C6O6)2], through a kinetically controlled approach with a competing coordination reagent. We also successfully demonstrate an economical synthetic approach using tetrahydroxyquinone as the starting material. Cu-HHB was found to have a partially eclipsed packing between adjacent 2D layers and a bandgap of approximately 1 eV. The addition of Cu-HHB to the family of synthetically realized M3(C6X6)2 c-MOFs will enable greater understanding of the influence of the organic linkers and metals, and further broadens the range of applications for these materials.


A Dual-Crosslinking Design for Resilient Lithium-Ion Conductors
Jeffrey Lopez, Yongming Sun, David G. Mackanic, Minah Lee, Amir M. Foudeh, Min‐Sang Song, Yi Cui, and Zhenan Bao
Wiley
AbstractSolid‐state electrolyte materials are attractive options for meeting the safety and performance needs of advanced lithium‐based rechargeable battery technologies because of their improved mechanical and thermal stability compared to liquid electrolytes. However, there is typically a tradeoff between mechanical and electrochemical performance. Here an elastic Li‐ion conductor with dual covalent and dynamic hydrogen bonding crosslinks is described to provide high mechanical resilience without sacrificing the room‐temperature ionic conductivity. A solid‐state lithium‐metal/LiFePO4 cell with this resilient electrolyte can operate at room temperature with a high cathode capacity of 152 mAh g−1 for 300 cycles and can maintain operation even after being subjected to intense mechanical impact testing. This new dual crosslinking design provides robust mechanical properties while maintaining ionic conductivity similar to state‐of‐the‐art polymer‐based electrolytes. This approach opens a route toward stable, high‐performance operation of solid‐state batteries even under extreme abuse.

RECENT SCHOLAR PUBLICATIONS

Reduction‐Induced Oxygen Loss: the Hidden Surface Reconstruction Mechanism of Layered Oxide Cathodes in Lithium‐Ion Batteries
S Jeon, G Lim, H Lee, H Park, MK Cho, C Kim, YE Lee, J Kim, M Kwon, ...
Advanced Energy Materials, 2404193 2025



Bilayer Interphase for Air‐Stable and Dendrite‐Free Lithium Metal Anode Cycling in Carbonate Electrolytes
AR Jeon, BY Han, M Kwon, SH Yu, KY Chung, J Shim, M Lee
Small 20 (42), 2402213 2024



Thermal runaway prevention through scalable fabrication of safety reinforced layer in practical Li-ion batteries
IT Song, J Kang, J Koh, H Choi, H Yang, E Park, J Lee, W Cho, Y Lee, ...
Nature Communications 15 (1), 8294 2024



Solution‐Based Deep Prelithiation for Lithium‐Ion Capacitors with High Energy Density
S Jeon, S Lm, I Kang, D Shin, SH Yu, M Lee, J Hong
Small 20 (30), 2401295 2024



Ion-conductive organic networks for battery applications
Z Bao, Z Yu, D Feng, MA Lee, Y Cui, A Pei
US Patent 11,909,050 2024



Fast discharging mitigates cathode-electrolyte interface degradation of LiNi0. 6Mn0. 2Co0. 2O2 in rechargeable lithium batteries
S Oh, AR Jeon, G Lim, MK Cho, KH Chae, SS Sohn, M Lee, SK Jung, ...
Energy Storage Materials 65, 103169 2024



Decoupling capacity fade and voltage decay of Li-rich Mn-rich cathodes by tailoring surface reconstruction pathways
G Lim, MK Cho, J Choi, KJ Zhou, D Shin, S Jeon, M Kwon, AR Jeon, ...
Energy & Environmental Science 17 (24), 9623-9634 2024



Thermodynamically controlled chemical regeneration of spent battery cathodes using recyclable electron donors under ambient conditions
S Ko, J Choi, J Hong, C Kim, U Hwang, M Kwon, G Lim, SS Sohn, J Jang, ...
Energy & Environmental Science 17 (12), 4064-4077 2024



Rational design of redox mediator for fast and energy-efficient charging of sulfur cathodes
Z Bao, Y Cui, Y Tsao, MA Lee
US Patent 11,804,620 2023



Reversible magnesium metal cycling in additive-free simple salt electrolytes enabled by spontaneous chemical activation
AR Jeon, S Jeon, G Lim, J Jang, WJ No, SH Oh, J Hong, SH Yu, M Lee
ACS nano 17 (10), 8980-8991 2023



In Situ Mesopore Formation in SiO_x Nanoparticles by Chemically Reinforced Heterointerface and Use of Chemical Prelithiation for Highly Reversible Lithium‐Ion
S Gong, Y Lee, J Choi, M Lee, KY Chung, HG Jung, S Jeong, HS Kim
Small 19 (16), 2206238 2023



A fluoroalkyl iodide additive for Li–O 2 battery electrolytes enables stable cycle life and high reversibility
MG Jeong, HH Lee, HJ Shin, Y Jeong, JY Hwang, WJ Kwak, G Oh, W Kim, ...
Journal of Materials Chemistry A 11 (28), 15246-15255 2023



Molecularly engineered linear organic carbonates as practically viable nonflammable electrolytes for safe Li-ion batteries
J Lee, AR Jeon, HJ Lee, U Shin, Y Yoo, HD Lim, C Han, H Lee, YJ Kim, ...
Energy & Environmental Science 16 (7), 2924-2933 2023



Regulating Dynamic Electrochemical Interface of LiNi_0.5Mn_1.5O₄ Spinel Cathode for Realizing Simultaneous Mn and Ni Redox in Rechargeable Lithium Batteries
G Lim, D Shin, KH Chae, MK Cho, C Kim, SS Sohn, M Lee, J Hong
Advanced Energy Materials 12 (46), 2202049 2022



Stimulating Cu–Zn alloying for compact Zn metal growth towards high energy aqueous batteries and hybrid supercapacitors
M Kwon, J Lee, S Ko, G Lim, SH Yu, J Hong, M Lee
Energy & Environmental Science 15 (7), 2889-2899 2022



Nitrogen–doped graphitic mesoporous carbon materials as effective sulfur imbibition hosts for magnesium-sulfur batteries
M Lee, M Jeong, YS Nam, J Moon, M Lee, HD Lim, D Byun, T Yim, SH Oh
Journal of Power Sources 535, 231471 2022



Prelithiation solution for graphite or graphite composite anode and prelithiation method using same
LEE Minah, H Jihyun, KY Chung, JK Choi, JY Jang
US Patent App. 17/217,413 2022



Discovery of organic catalysts boosting lithium carbonate decomposition toward ambient air operational lithium–air batteries
S Ko, Y Yoo, J Choi, HD Lim, CB Park, M Lee
Journal of Materials Chemistry A 10 (38), 20464-20472 2022



Weakly Solvating Solution Enables Chemical Prelithiation of Graphite–SiO_x Anodes for High-Energy Li-Ion Batteries
J Choi, H Jeong, J Jang, AR Jeon, I Kang, M Kwon, J Hong, M Lee
Journal of the American Chemical Society 143 (24), 9169-9176 2021



Solution Processing of Lithium‐Rich Amorphous Li‐La‐Zr‐O Ion Conductor and Its Application for Cycling Durability Improvement of LiCoO₂ Cathode as Coating
TT Bui, B Yun, K Darko, SB Shin, J Kim, J Hong, M Lee, SK Park, MG Kim
Advanced Materials Interfaces 8 (5), 2001767 2021

MOST CITED SCHOLAR PUBLICATIONS

Robust and conductive two-dimensional metal− organic frameworks with exceptionally high volumetric and areal capacitance
D Feng, T Lei, MR Lukatskaya, J Park, Z Huang, M Lee, L Shaw, S Chen, ...
Nature Energy 3 (1), 30-36 2018
Citations: 996



Mechanically tunable conductive interpenetrating network hydrogels that mimic the elastic moduli of biological tissue
VR Feig, H Tran, M Lee, Z Bao
Nature communications 9 (1), 2740 2018
Citations: 564



High-performance sodium–organic battery by realizing four-sodium storage in disodium rhodizonate
M Lee, J Hong, J Lopez, Y Sun, D Feng, K Lim, WC Chueh, MF Toney, ...
Nature Energy 2 (11), 861-868 2017
Citations: 441



Stabilization of hexaaminobenzene in a 2D conductive metal–organic framework for high power sodium storage
J Park, M Lee, D Feng, Z Huang, AC Hinckley, A Yakovenko, X Zou, Y Cui, ...
Journal of the American Chemical Society 140 (32), 10315-10323 2018
Citations: 434



Rational design of redox mediators for advanced Li–O2 batteries
HD Lim, B Lee, Y Zheng, J Hong, J Kim, H Gwon, Y Ko, M Lee, K Cho, ...
Nature Energy 1 (6), 1-9 2016
Citations: 388



Critical role of oxygen evolved from layered Li–excess metal oxides in lithium rechargeable batteries
J Hong, HD Lim, M Lee, SW Kim, H Kim, ST Oh, GC Chung, K Kang
Chemistry of Materials 24 (14), 2692-2697 2012
Citations: 332



Biologically inspired pteridine redox centres for rechargeable batteries
J Hong, M Lee, B Lee, DH Seo, CB Park, K Kang
Nature communications 5 (1), 5335 2014
Citations: 292



Synthetic routes for a 2D semiconductive copper hexahydroxybenzene metal–organic framework
J Park, AC Hinckley, Z Huang, D Feng, AA Yakovenko, M Lee, S Chen, ...
Journal of the American Chemical Society 140 (44), 14533-14537 2018
Citations: 280



Carbon‐based nanomaterials for tissue engineering
SH Ku, M Lee, CB Park
Advanced healthcare materials 2 (2), 244-260 2013
Citations: 275



Self‐Assembled Light‐Harvesting Peptide Nanotubes for Mimicking Natural Photosynthesis
JH Kim, M Lee, JS Lee, CB Park
Angewandte Chemie International Edition 51 (2), 517-520 2012
Citations: 262



Organic nanohybrids for fast and sustainable energy storage
M Lee, J Hong, H Kim, HD Lim, SB Cho, K Kang, CB Park
Advanced Materials 26 (16), 2558-2565 2014
Citations: 256



Designing a quinone-based redox mediator to facilitate Li2S oxidation in Li-S batteries
Y Tsao, M Lee, EC Miller, G Gao, J Park, S Chen, T Katsumata, H Tran, ...
Joule 3 (3), 872-884 2019
Citations: 243



Crosslinked poly (tetrahydrofuran) as a loosely coordinating polymer electrolyte
DG Mackanic, W Michaels, M Lee, D Feng, J Lopez, J Qin, Y Cui, Z Bao
Advanced Energy Materials 8 (25), 1800703 2018
Citations: 236



A dynamic, electrolyte-blocking, and single-ion-conductive network for stable lithium-metal anodes
Z Yu, DG Mackanic, W Michaels, M Lee, A Pei, D Feng, Q Zhang, Y Tsao, ...
Joule 3 (11), 2761-2776 2019
Citations: 231



High energy organic cathode for sodium rechargeable batteries
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Weakly Solvating Solution Enables Chemical Prelithiation of Graphite–SiO_x Anodes for High-Energy Li-Ion Batteries
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