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 Euni Lee's research lab focuses on pharmaceutical outcomes, health disparities, and medication safety with an emphasis on vulnerable populations such as pregnant women, children, and African American adults. The lab investigates the impact of eHealth literacy on health behaviors, off-label prescribing patterns, and the risks associated with specific medications, including hepatotoxicity from nimesulide and high-risk drugs during pregnancy. Using large-scale national datasets, the lab aims to inform public health policy and improve patient safety through evidence-based research.
Professor Haksoo Han's research lab specializes in the development and characterization of advanced polyimide-based materials for high-performance applications in flexible electronics, energy devices, and sustainable packaging. The lab focuses on designing functional polyimides with tailored thermal, mechanical, optical, and transport properties through molecular engineering, including sulfonation, crosslinking, and nanocomposite formation. Key research directions include enhancing proton conductivity and hydrolytic stability in electrolyte membranes, improving mechanical robustness and optical clarity in flexible window films, and optimizing barrier and antibacterial properties in biodegradable polymer nanocomposites.
Professor Tae-Hyun Yoo's research lab focuses on the molecular mechanisms underlying kidney fibrosis and diabetic kidney disease, with a particular emphasis on signaling pathways such as Notch and integrin activation in renal epithelial and podocyte cells. The lab investigates metabolic reprogramming in kidney cells, including mitochondrial function and fatty acid oxidation, and explores circulating factors like suPAR in disease progression. A central theme is identifying novel therapeutic targets to prevent or reverse fibrotic and glomerular diseases. The lab integrates preclinical models with human tissue studies to translate findings into clinical applications.
Professor Kyunghoon Kim's research lab specializes in nanomaterials and their applications in energy, sensing, and biomedicine. The lab focuses on designing advanced nanocomposites—such as CNT/PANI, PDA/CNT, and plasmonic structures—for tunable optical properties, corrosion resistance, and high-performance biosensors. Key research directions include plasmonic absorbers for polarization control, photodeposition of nanoparticles on 2D materials, and ion transport through CNT porins for bio-inspired membranes. The lab also develops label-free electrochemical aptasensors for sensitive cancer biomarker detection.
Professor Jeong Jae Wie's research lab specializes in the design and development of smart, stimuli-responsive soft materials and robotic systems with applications in microscale and nanoscale actuation. The lab focuses on creating monolithic polymer networks—particularly azobenzene-functionalized liquid crystal polymer networks (azo-LCNs)—that exhibit large-amplitude, directional deformations in response to light, magnetic fields, or thermal stimuli. By engineering molecular and microstructural architectures such as twisted-nematic and hybrid orientations, the lab enables complex 3D motions like torsional twisting, coiling, and orbital maneuvering, advancing untethered soft robotics and reconfigurable microsystems.
Professor Young Kee Shin's research lab focuses on cancer genomics, epigenetics, and tumor biology, with a particular emphasis on understanding the molecular mechanisms underlying cancer initiation, progression, and therapy resistance. The lab investigates genomic instability, homologous recombination deficiency, and the role of cancer stem cells in ovarian and breast cancers, integrating next-generation sequencing, epigenetic profiling, and functional genomics. Key research directions include identifying robust reference genes for gene expression normalization, deciphering epigenetic activation of oncogenes, and exploring regulatory networks involving microRNAs and DNA repair pathways. The lab aims to translate molecular insights into improved biomarkers and therapeutic strategies for precision oncology.
Professor Bumki Min's research lab specializes in nanophotonics and integrated optoelectronics, focusing on advanced photonic devices such as ultrahigh-Q microcavities, metamaterials, and metasurfaces. The lab explores active and tunable optical functionalities in the terahertz and visible to near-infrared regimes, with particular emphasis on lasing, Raman amplification, and non-Hermitian photonics using engineered nanostructures. Key research directions include the integration of 2D materials like graphene with photonic platforms for dynamic control, and the development of low-threshold lasing and nonlinear optical phenomena in toroidal and microsphere resonators. The lab also investigates time-periodic (Floquet) photonic systems, aiming to extend topological and band structure concepts into the time domain for novel photonic devices.
Professor Shipeng Wan's research lab specializes in the design and development of advanced semiconductor materials for sustainable energy and environmental applications. The lab focuses on photocatalysis and photoelectrochemistry, with main research directions including the rational engineering of bismuth-based semiconductors (e.g., BiVO₄), carbon nitride nanomaterials, and Z-scheme heterojunctions for efficient solar-driven water splitting, CO₂ reduction, and air/water purification. Innovative strategies such as surface oxygen vacancy engineering, elemental doping (e.g., N, O, C), and supramolecular synthesis are employed to enhance charge separation, light absorption, and surface reactivity.
Professor R. Sakthivel's research lab specializes in advanced control theory and stochastic systems, with a focus on fractional-order dynamics, impulsive systems, and fuzzy modeling. The lab investigates resilient, fault-tolerant, and robust control strategies for complex systems under uncertainties such as time delays, actuator faults, and stochastic disturbances. Key research directions include approximate controllability of stochastic and impulsive systems, reliable H∞ and passivity-based control, and the development of LMI-based stabilization techniques for Markovian jump and Takagi-Sugeno fuzzy systems. The lab emphasizes theoretical rigor combined with practical applicability through numerical validation and real-world system modeling.
Professor Dong-Yup Lee's research lab specializes in systems biology and metabolic engineering, focusing on genome-scale metabolic modeling of microbial and mammalian cell systems to enhance bioproduction efficiency. The lab integrates metabolomics, kinetic modeling, and in silico systems analysis to unravel cellular metabolism in industrially relevant organisms such as CHO cells, Zymomonas mobilis, and Candida tropicalis. Their work aims to optimize the production of therapeutic proteins, biofuels like ethanol, and high-value chemicals such as dicarboxylic acids through a deep understanding of metabolic networks. The lab also develops advanced computational tools, such as MetaFluxNet, to support systems-level analysis and model-driven strain and process design.
Professor Chung-Sik Yoo's research lab specializes in geotechnical engineering, with a focus on ground improvement techniques and performance evaluation of geosynthetic-reinforced soil structures. The lab investigates advanced ground improvement systems such as geosynthetic-encased stone columns, geogrid-encased stone columns, and segmental retaining walls, emphasizing their load-carrying capacity, settlement reduction, and long-term stability. Using advanced numerical modeling (finite element analysis) and field instrumentation, the lab evaluates behavior under various loading and environmental conditions, particularly in soft ground and complex ground profiles.
Professor Dukjoon Kim's research lab specializes in the development of advanced functional materials for sustainable energy applications, with a primary focus on proton and anion exchange membranes for fuel cells and lithium batteries. The lab investigates nanocomposite membranes engineered with rare earth elements (e.g., cerium) and 2D nanomaterials (e.g., graphene oxide, graphitic carbon nitride) to enhance chemical stability, proton conductivity, and radical scavenging capabilities. Key research directions include the design of hybrid electrolytes with tailored ion transport pathways, structural stability, and long-term durability under harsh electrochemical conditions. The lab also explores innovative grafting and crosslinking strategies to optimize membrane performance for next-generation energy conversion and storage devices.
Professor Kuk-Jin Yoon's research lab specializes in advanced sensing technologies and computer vision, with a strong focus on developing low-power, high-performance sensor systems and intelligent image processing algorithms. The lab pioneers innovations in electronic nose (e-nose) systems using semiconductor metal oxide (SMO) gas sensors combined with deep learning to enhance selectivity and real-time detection in environmental monitoring. In parallel, the lab develops novel computer vision techniques for challenging tasks such as stereo matching and reflection separation, emphasizing robustness to image ambiguity and computational efficiency. The integration of nanomaterials, smart sensing, and artificial intelligence defines the lab’s interdisciplinary approach to solving real-world sensing and perception problems.
Professor Soojin Park's research lab specializes in the design and synthesis of advanced silicon-based nanomaterials for next-generation energy storage applications, particularly in high-performance lithium-ion batteries. The lab focuses on developing innovative nanostructures—such as porous silicon, core-shell architectures, and covalent triazine frameworks—that enable high specific capacity, exceptional rate capability, and long-term cycling stability. By employing scalable and cost-effective processes like metal-assisted chemical etching, thermal annealing, and chemical activation, the lab creates binder-free, self-supporting electrodes with enhanced volumetric and gravimetric performance. Their work bridges fundamental materials science with practical battery engineering, targeting applications in fast-charging electric vehicles and high-energy-density storage systems.
Professor Ki Jae Kim's research lab specializes in advanced energy storage materials and systems, with a primary focus on next-generation batteries such as aqueous zinc-ion, lithium-metal, and solid-state batteries. The lab investigates novel electrode materials, electrolyte engineering, and interfacial stabilization strategies to enhance cyclability, safety, and energy density. Key research directions include suppressing dendrite growth in lithium metal anodes, mitigating polysulfide shuttling in lithium–sulfur batteries, and developing high-performance solid electrolytes and cathode coatings using functional oxides and ionic liquids. The lab also explores cost-effective and scalable solutions for large-scale energy storage applications, emphasizing practical viability and long-term stability.
Professor Hyung Mo Jeong's research lab specializes in the design and engineering of advanced nanomaterials for next-generation energy storage technologies. The lab focuses on developing high-performance electrodes and catalysts for ultracapacitors, lithium-ion batteries, and solid-state batteries, with an emphasis on enhancing capacitance, cycle life, and scalability. Key research directions include nitrogen-doped carbon and graphene architectures, silicon-based anodes with core-shell structures, and atomic-scale engineered copper catalysts for CO2 reduction. The lab integrates advanced synthesis techniques with in situ characterization and computational modeling to achieve fundamental insights into ion-to-atom redox mechanisms and interfacial stability.
Professor Jong-Won Lee's research lab specializes in advanced energy storage materials, with a primary focus on solid-state batteries and sustainable electrochemical systems. The lab develops innovative materials and architectures—such as surface-engineered graphite anodes, quasi-solid-state electrolytes, and carbon-free cathodes—to enhance the performance, safety, and scalability of lithium-ion and lithium-oxygen batteries. A key research direction involves designing high-conductivity, stable solid electrolytes like LATP and exploring novel fabrication methods for all-solid-state batteries. The lab also pioneers bio-based electrochemical processes, including microbial production of green solvents, demonstrating a multidisciplinary approach to sustainable energy and chemical technologies.
Professor Miji Kim's research lab specializes in geriatric health and aging, focusing on the assessment and management of sarcopenia, frailty, and sarcopenic obesity in older adults. The lab employs advanced body composition analysis, such as DXA and bioelectrical impedance, to evaluate muscle mass, fat mass, and physical function in community-dwelling older populations. Key research directions include identifying reliable and accessible tools for diagnosing sarcopenia and frailty, understanding the interplay between muscle health and cognitive function, and evaluating the utility of anthropometric indices in predicting cardiometabolic risk. The lab’s work contributes to improving early detection and intervention strategies for age-related physical decline.
Professor Sangmin‐Michelle Lee’s research lab specializes in technology-enhanced language learning, with a focus on integrating emerging technologies such as machine translation, context-aware augmented reality, and digital games into EFL/FL education. The lab investigates how these tools support second language writing, foster learner autonomy, and enhance motivation and creativity in authentic learning contexts. Current research directions emphasize the pedagogical potential of AI-driven translation tools and immersive technologies in promoting meaningful, context-rich language acquisition.
Professor Jin-Byung Park's research lab specializes in synthetic biology and systems metabolic engineering, focusing on the sustainable production of high-value chemicals from renewable feedstocks such as fatty acids and plant oils. The lab develops innovative whole-cell biocatalysts using engineered enzymes and microbial hosts—particularly *Escherichia coli* and *Saccharomyces cerevisiae*—to enable multi-step cascades for the synthesis of dicarboxylic acids, hydroxy- and aminocarboxylic acids, epoxides, and long-chain amines. A central theme is the optimization of enzyme stability and catalytic efficiency to enhance productivity and scalability in biotransformations.
