ソウル大学、KAIST、延世大学など韓国QSトップ10大学の研究室情報です。
Professor Keonwook Kang's research lab specializes in computational and atomistic materials science, focusing on the mechanical behavior and defect engineering of advanced nanomaterials. Key research directions include dislocation dynamics and plasticity in crystalline materials, interfacial structure and stability in heterostructured composites, and the design of functional nano-heterostructures for energy and electronic applications. The lab employs advanced simulation techniques such as molecular dynamics, density functional theory, and dislocation-based modeling to understand and predict material properties at the atomic scale.
Professor Dong Gue Roe's research lab specializes in neuromorphic engineering and bio-inspired computing, focusing on developing artificial synaptic devices and systems that emulate human neural functions. The lab pioneers innovative synaptic transistors using ion-gel dielectrics and hybrid materials like InAs quantum dots and oxide semiconductors to enable parallel, analog, and low-power computation. Key research directions include artificial stimulus-response systems, multi-input feedback control for robotics, and device-level logic operations that overcome the limitations of traditional von Neumann architectures.
Professor Cheol-Hong Cheon's research lab specializes in the development of innovative, sustainable, and catalytic methodologies for the synthesis of nitrogen-containing heterocycles—particularly benzoxazoles, quinolines, indolines, and tetrahydroquinolines. The lab focuses on transition-metal-free, metal-free, and organocatalytic strategies, with an emphasis on cyanide and nucleophilic catalysts (e.g., benzylamine, iodide, chiral phosphoric acids) to enable atom-economical, step-economical, and environmentally benign transformations. Key advances include umpolung strategies, on-water synthesis, and asymmetric catalysis, often applied to the total synthesis of complex natural products and biologically relevant compounds.
Professor Eunji Kim's research lab specializes in the molecular mechanisms and biological activities of natural bioactive compounds, with a focus on their applications in dermatology and neurodegenerative diseases. The lab investigates polyphenols and plant-derived terpenoids—such as EGCG, 3"Me-EGCG, dehydroabietic acid, and 8-hydroxydaidzein—for their antioxidant, anti-inflammatory, anti-aging, and skin hydration properties. A key research direction involves elucidating the signaling pathways through which these compounds modulate gene expression (e.g., HAS, HYAL, NF-κB, AP-1) and cellular stress responses. The lab also explores the structural basis of protein–ligand interactions, particularly in neurodegenerative disorders like spinocerebellar ataxia type 1.
Professor Jiwon Yoo's research lab specializes in advanced control and parameter identification techniques for electric machines, particularly focusing on sensorless control, flux estimation, and torque optimization in permanent-magnet and induction motors. The lab investigates critical challenges such as angle estimation error, discretization effects in observers, and overmodulation strategies to enhance dynamic performance and stability under voltage limitations. A key research direction involves developing online parameter identification methods that account for magnetic saturation, leveraging finite element analysis and experimental validation to improve accuracy across the entire operating range.
Professor Min Woo Kang's research lab specializes in clinical nephrology and predictive analytics in kidney disease, focusing on improving outcomes for patients with acute and chronic kidney injury. The lab employs advanced machine learning techniques to develop and validate predictive models for critical complications such as hypotension during continuous renal replacement therapy (CRRT), end-stage renal disease progression, and mortality risk. A key research direction involves validating and recalibrating existing risk prediction tools—like the Kidney Failure Risk Equation—for diverse populations, including Korean cohorts, to enhance clinical decision-making. The lab also investigates novel biomarkers and physiological markers, such as hyperuricemia and glomerular hyperfiltration, in relation to renal and systemic outcomes including dementia.
Professor Yun Mook Lim's research lab specializes in structural health monitoring, smart sensing technologies, and advanced materials for civil infrastructure. The lab focuses on developing real-time structural monitoring systems using wireless sensors and LiDAR for remote 3D deformation measurement, as well as innovative numerical modeling for assessing structural performance under dynamic and seismic loads. A key research direction involves the use of 3D printing to control fiber distribution in fiber-reinforced cementitious composites, enhancing material durability and mechanical performance. The lab also investigates the behavior of underground structures, particularly buried pipelines, under liquefaction-induced ground movements.
Professor Sungsoon Fang's research lab focuses on nuclear receptor signaling and its role in metabolic regulation, particularly in liver metabolism, lipid homeostasis, and energy balance. The lab investigates transcriptional mechanisms involving nuclear receptors such as RORα, FXR, and PPARγ, as well as coregulators like SHP, SMRT, and p300, in the context of metabolic diseases including nonalcoholic fatty liver disease (NAFLD), obesity, and insulin resistance. Key research directions include chromatin remodeling, post-translational modifications (e.g., acetylation, methylation), and metabolic reprogramming in cancer and liver disease. The lab employs mouse models, transcriptomics, and molecular biology to dissect gene regulatory networks underlying metabolic homeostasis and disease progression.
Professor Hang Seok Choi's research lab specializes in sustainable energy and environmental technologies, with a primary focus on advanced catalytic processes for clean fuel production and carbon capture. The lab develops innovative methods for oxidative desulfurization of heavy and waste-derived fuels, such as waste tire pyrolysis oil, using tailored solid acid catalysts to meet stringent environmental standards. It also investigates biomass pyrolysis for high-quality bio-oil production and explores CO2 capture and geological storage to mitigate climate change. The lab integrates experimental studies with computational fluid dynamics to optimize reactor design and reaction conditions for improved efficiency and sustainability.
Professor Hyun Woong Lee's research lab specializes in hepatology and viral hepatitis, with a strong focus on antiviral therapies, liver fibrosis, and the development of novel treatments for hepatitis B and C. The lab investigates host and viral factors influencing treatment response, evaluates the role of repurposed drugs like statins and immunomodulators (e.g., Tα1), and explores natural compounds from medicinal herbs as potential anti-hepatitis C agents. The research also extends to liver cancer, particularly the use of selective internal radiation therapy (SIRT) in unresectable hepatocellular carcinoma.
Professor Minsu Gu's research lab specializes in the design and engineering of advanced nanomaterials for sustainable energy applications, with a strong focus on energy storage and conversion technologies. The lab explores innovative materials such as functionalized graphene, carbon dots, and polyimide-based systems to enhance electrochemical performance in devices like lithium–sulfur batteries and solar energy converters. Key research directions include the development of ion-permselective separators, tunable multilayer electrocatalysts, and covalently modified 2D materials to improve efficiency, stability, and interfacial charge transfer. The lab emphasizes fundamental electrochemical mechanisms and scalable fabrication techniques such as layer-by-layer assembly for next-generation energy systems.
Professor Kitack Lee's research lab specializes in marine biogeochemistry, with a focus on the global carbon cycle, oceanic uptake of anthropogenic CO₂, and the impacts of atmospheric deposition on marine nutrient cycles. The lab employs high-precision field measurements and advanced inverse modeling techniques to quantify dissolved inorganic carbon, alkalinity, and nutrient dynamics across ocean basins. Key research directions include developing algorithms for estimating surface alkalinity from salinity and temperature, assessing net community production using salinity-normalized carbon inventories, and evaluating the role of atmospheric nitrogen deposition in enhancing marine productivity in sensitive regions such as the South China Sea.
Professor Ji-Hwan Ryu's research lab focuses on host-microbe interactions, particularly the molecular mechanisms underlying intestinal immune homeostasis and innate immunity in Drosophila and mammalian models. The lab investigates how transcription factors like Caudal regulate tissue-specific immune responses and maintain commensal microbiota balance, with implications for inflammatory diseases and host defense. Recent work also explores host factors involved in viral entry, such as ANO6/TMEM16F in SARS-CoV-2 infection, and oxidative stress responses in lung injury. The lab integrates genetics, cell biology, and host-pathogen interactions to uncover conserved pathways in innate immunity and tissue homeostasis.
Professor Gi Dae Park's research lab specializes in the design and synthesis of advanced nanomaterials for next-generation energy storage applications, with a primary focus on sodium-ion and other post-lithium-ion batteries. The lab develops novel composite anode materials—particularly metal selenides, oxides, and their heterostructures—using scalable spray pyrolysis and thermally driven transformation processes such as the Kirkendall effect. Key research directions include controlling nanostructure evolution, enhancing electrochemical performance through carbon matrix integration (e.g., rGO and CNTs), and enabling unique hollow or yolk–shell architectures for improved volume stability and ion diffusion.
Professor Jung-Hoon Lee's research lab specializes in computational and experimental materials science, focusing on functional oxides, hybrid perovskites, and metal-organic frameworks. The lab investigates the origins of ferroelectricity, magnetism, and structural distortions in complex oxides such as SmFeO3 and BiFeO3, with a strong emphasis on understanding the interplay between electronic structure, spin ordering, and lattice dynamics. It also explores tunable optoelectronic properties in halide perovskites and develops advanced materials for sustainable energy applications, including ammonia storage and photovoltaics. The research integrates first-principles calculations with advanced characterization techniques to guide the design of next-generation functional materials.
Professor Wan Jae Dong's research lab specializes in the design and development of advanced nanomaterials for sustainable energy conversion and storage, with a strong focus on electrochemical and photocatalytic processes. The lab pioneers innovative nanostructured catalysts and heterostructured photoelectrodes for applications in solar fuel generation, including hydrogen evolution from seawater, CO2 reduction to syngas and formate, and oxygen evolution for water splitting. Key research directions include the rational engineering of cocatalysts, such as Pt-GaN/Si and AgX/GaN/Si systems, to enhance activity, selectivity, and stability under harsh reaction conditions. The lab also emphasizes in-situ characterization and dynamic structural evolution of catalysts during operation to guide the design of next-generation energy materials.
Professor Hyun-Suk Lim's research lab specializes in chemical biology and medicinal chemistry, focusing on the development of small molecule inhibitors and targeted protein degradation strategies to modulate key regulatory proteins in cancer pathways. The lab employs innovative chemical tools such as peptoid libraries, PROTACs, and chemical probes to target ubiquitin-proteasome system components, including the 19S regulatory particle and E3 ligases like UBR box. A central theme is the discovery of novel molecular targets and mechanisms—such as the Skp2/p300 interaction or SRC-1 degradation via the N-degron pathway—that offer new therapeutic avenues for cancer treatment. The lab also pioneers synthetic methodologies, including efficient solid-phase synthesis and sequencing techniques for cyclic peptoids, to accelerate drug discovery.
Professor Jiyoung Lee's research lab focuses on antimicrobial resistance, particularly the molecular mechanisms underlying colistin resistance in Gram-negative pathogens such as *Pseudomonas aeruginosa* and *Acinetobacter baumannii*. The lab investigates genetic and evolutionary pathways involved in resistance development, including lipid A modification and two-component regulatory systems. Additionally, the lab explores the psychological and communicative impact of emerging multimedia technologies, such as AI-generated deepfake news, on information credibility and public behavior.
Professor Kwang-Yong Choi's research lab specializes in quantum magnetism and spin physics in low-dimensional and nanostructured materials, with a focus on understanding quantum spin phenomena in molecular clusters, 2D van der Waals materials, and frustrated spin systems. The lab employs advanced experimental techniques such as pulsed-field magnetization, electron spin resonance (ESR), Raman scattering, and nuclear magnetic resonance (NMR) to investigate spin-phonon coupling, magnetoelectric effects, and quantum coherence in systems like Cu-based nanomagnets and metal thiophosphates. A key research direction involves engineering multiferroic and topological spin states in 2D materials through tailored magnetic ion doping and structural control. The lab also explores the potential of these materials for quantum information applications, including coherent spin manipulation and quantum gate operations.
Professor Seok-Jun Hong's research lab specializes in computational neuroimaging and brain network analysis, focusing on understanding the macroscale organization of the human brain in health and neurodevelopmental disorders. The lab integrates advanced MRI-based neuroimaging techniques—such as connectome gradients, cortical morphology analysis, and machine learning—with large-scale neuroimaging datasets to uncover biological subtypes of conditions like autism spectrum disorder (ASD) and focal cortical dysplasia (FCD). A central theme is the identification of reproducible, biologically meaningful brain phenotypes through dimensionality reduction and data-driven modeling, with translational applications in precision diagnostics and personalized treatment planning. The lab also pioneers the use of automated, objective methods to define lesion boundaries in epilepsy, supporting minimally invasive interventions.
