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 Jaebong Jang's research lab specializes in the development of novel therapeutic strategies for cancer, particularly focusing on targeting drug-resistant mutations in receptor tyrosine kinases such as EGFR and HER2. The lab pioneers innovative approaches including allosteric inhibitors and targeted protein degraders to overcome resistance mechanisms in non-small cell lung cancer. Additionally, the group explores advanced bioconjugation techniques using visible-light photocatalysis for precise biomolecule modification, enabling new tools for chemical biology and drug development. Their work bridges medicinal chemistry, structural biology, and chemical biology to address unmet clinical needs in oncology and beyond.
Professor Florent Noulèkoun's research lab specializes in ecological resilience, forest landscape restoration, and climate change adaptation in African drylands. The lab focuses on understanding the dynamics of multipurpose tree species, agroforestry systems, and forest structural diversity under environmental and anthropogenic pressures. Using integrated approaches combining field data, ecological modeling (e.g., MaxEnt, WaNuLCAS), and local ecological knowledge, the lab advances science-based strategies for sustainable land management and carbon sequestration in socioecological systems.
Professor Docheon Ahn's research lab specializes in the design, synthesis, and characterization of advanced functional materials for next-generation energy storage devices, with a primary focus on sodium-ion and lithium-ion batteries. The lab investigates layered oxide cathodes, doped olivine-structured materials, and nanostructured surface coatings to enhance electrochemical performance, structural stability, and ion diffusion kinetics. Through a combination of advanced materials characterization, computational optimization, and innovative surface engineering techniques such as in-situ polymerization, the lab develops high-performance cathode materials with tailored electronic and ionic conductivity. Their work bridges fundamental materials science with practical battery applications, aiming to enable sustainable and high-energy-density energy storage systems.
Professor Ki Ro Yoon's research lab specializes in the design and development of advanced nanomaterials for sustainable energy conversion and storage technologies. The lab focuses on creating high-performance electrocatalysts—particularly for lithium-oxygen batteries and proton exchange membrane fuel cells—by engineering nanostructured materials with tailored electronic and surface properties. Key research directions include the rational design of bifunctional catalysts for oxygen reduction and evolution reactions, the enhancement of interfacial stability in polymer electrolyte membranes using bio-inspired adhesion strategies, and the development of selective 2-electron oxygen reduction systems for efficient hydrogen peroxide production. The lab emphasizes scalable synthesis methods and fundamental understanding of structure–activity relationships to enable practical applications in clean energy devices.
Professor Wooseok Ji's research lab specializes in computational mechanics and multiscale modeling of advanced engineering materials, with a focus on the finite element analysis of composite and sandwich structures. The lab investigates fundamental issues in constitutive modeling, such as work-conjugacy in finite strain formulations and the objective stress rates in 3D solid analysis, to ensure accuracy in predicting buckling and instability behaviors. Research also extends to progressive damage and failure analysis of fiber-reinforced composites, incorporating material variability and manufacturing uncertainties through probabilistic frameworks. Additionally, the lab develops homogenization techniques to predict effective thermal and mechanical properties of complex textile composites across multiple scales.
Professor Taeghwan Hyeon's research lab specializes in the design, synthesis, and application of functional nanomaterials, with a strong focus on magnetic and rare-earth oxide nanoparticles. The lab pioneers advanced colloidal synthesis methods to produce highly uniform, monodisperse nanocrystals with precise control over size, shape, and crystal structure, enabling tailored properties for biomedical and materials applications. Key research directions include the development of high-relaxivity iron oxide and ceria-based nanoparticles for magnetic resonance imaging (MRI) contrast agents and neuroprotective therapeutics, as well as exploring their surface engineering and in vivo performance.
Professor Jeomshik Hwang's research lab specializes in biogeochemistry and marine organic matter cycling, with a focus on understanding the sources, transformations, and long-term fate of particulate and sedimentary organic carbon in marine environments. The lab investigates the isotopic signatures (particularly radiocarbon and stable carbon isotopes) of organic matter fractions to trace the origins and diagenetic processes of uncharacterized or refractory organic matter in the deep ocean. Key research directions include the role of lithogenic particles in transporting aged organic carbon, the dynamics of carbon export in polar and abyssal oceans, and the molecular-scale properties of organic matter in marine sediments and DNA-based systems. The lab combines field observations, sediment trap deployments, and advanced isotopic and molecular analyses to address fundamental questions in the global carbon cycle.
Professor Ji Bong Jeong's research lab specializes in materials science and biomedical engineering, focusing on the electrical properties of thin-film solar cells—particularly Cu(In,Ga)Se₂/Mo heterojunctions—and the role of interface engineering and doping in enhancing device performance. The lab also investigates the clinical and physiological impacts of metabolic and lifestyle factors on urological health, hearing loss, and disease severity in conditions such as liver cirrhosis and COVID-19, integrating biomedical data with machine learning for predictive modeling. Their work bridges advanced materials characterization with translational health research, emphasizing predictive diagnostics and personalized medicine.
Professor Seibum B. Choi's research lab specializes in advanced vehicle control systems, focusing on intelligent braking and throttle control for autonomous and automated vehicles. The lab develops model-based, adaptive, and sliding mode control strategies to enhance vehicle stability, safety, and ride quality, with particular emphasis on electromechanical brakes, active steering, and integrated longitudinal control. Research integrates real-time estimation, dynamic modeling, and hardware-in-the-loop validation using test vehicles and dynamometer systems. The lab’s work bridges theoretical control design with practical implementation in drive-by-wire and automated driving systems.
Professor Jae Seong Lee's research lab specializes in advanced genetic engineering of mammalian cell lines, particularly Chinese hamster ovary (CHO) and human cell lines, for the efficient production of therapeutic proteins. The lab focuses on targeted genome editing using CRISPR/Cas9 technology to achieve precise, stable, and homogeneous transgene expression by integrating genes into genomic safe harbors. Key research directions include improving homology-directed repair efficiency, minimizing clonal variation, and enhancing cell survival through dual targeting of apoptosis and autophagy pathways. The lab also develops platform technologies for generating isogenic cell lines with predictable and high-level protein expression.
Professor Young-Seok Shim's research lab specializes in the design and fabrication of advanced 3D nanostructured materials for next-generation sensing applications, with a strong focus on gas sensors for environmental and health monitoring. The lab pioneers rational nanoarchitecture engineering—particularly using TiO₂, SnO₂, and ZnO-based hierarchical structures—combined with nanocatalysts and 2D materials like graphene quantum dots to achieve high sensitivity, selectivity, and room-temperature operation. Their work integrates advanced nanofabrication techniques with AI-assisted data analysis to develop standardized, reliable sensing platforms for the Internet of Things and smart health systems. The lab emphasizes fundamental structure-property relationships to overcome limitations in traditional metal oxide sensors, such as high operating temperatures and poor selectivity.
Professor Jaesung Choe's research lab specializes in 3D vision and reconstruction, focusing on advancing depth estimation, point cloud processing, and neural rendering for dynamic and complex scenes. The lab develops deep learning-based methods that integrate multi-modal sensor data—such as stereo cameras and LiDAR—while emphasizing geometric consistency, robustness to noise, and temporal coherence in dynamic environments. Key research directions include stereo-LiDAR fusion, 3D point cloud reconstruction with joint densification and denoising, monocular 3D object localization using surface priors, and spacetime-aware neural surface regularization for high-fidelity 3D reconstruction. The lab emphasizes interpretable, geometry-aware architectures that bridge the gap between perception and 3D scene understanding.
Professor JuHee Lee's research lab focuses on advancing health sciences through innovative educational methodologies and interventions targeting diverse populations. The lab explores critical thinking development in nursing education, with a strong emphasis on simulation-based learning and its impact on student competencies. Additionally, the lab investigates health promotion strategies for older adults, particularly through cognitive and physical activity interventions, and examines community-based health and tourism dynamics in rural settings. The integration of qualitative research, health behavior analysis, and translational approaches in dermatological conditions further defines the lab’s interdisciplinary scope.
Professor Hong-Gyoo Sohn's research lab specializes in remote sensing, geospatial analysis, and Earth observation, with a strong focus on glaciology, ice sheet dynamics, and flood monitoring using satellite and airborne sensors. The lab develops advanced image processing and mathematical modeling techniques for high-resolution declassified satellite imagery (e.g., CORONA) and radar data (e.g., SAR), enabling precise mapping of environmental changes such as ice margin fluctuations and flood extents. Key research directions include automated feature extraction, sensor calibration for mobile mapping systems, and the integration of multi-source geospatial data for environmental monitoring and urban mobility analysis.
Professor Euna Han's research lab focuses on health economics and health disparities, with a particular emphasis on the socioeconomic determinants of health outcomes. The lab investigates how factors such as body mass index, income level, race/ethnicity, and access to healthcare influence health behaviors, mental health service utilization, and mortality—especially among older adults and marginalized populations. Key research directions include the intersection of obesity and labor market outcomes, racial and socioeconomic disparities in prescription drug use, and the impact of food environments on dietary patterns. The lab also examines the role of social determinants in shaping health behaviors and outcomes across the life course.
Professor Tae-im Kim's research lab specializes in anterior segment ophthalmology, with a focus on corneal diseases, refractive surgery, and retinal disorders in premature infants. The lab investigates the pathogenesis and clinical management of conditions such as corneal haze after PRK, the impact of mitomycin C on corneal healing, and the effects of anti-VEGF agents like bevacizumab on epithelial repair. It also explores the role of ocular surface parameters, including lipid layer thickness, in diagnosing dry eye and related disorders. The lab combines clinical data analysis with in vitro and in vivo experimental models to improve surgical outcomes and patient care.
Professor Dominik Lungerich's research lab specializes in the design, synthesis, and application of advanced organic nanomaterials, with a focus on nanographenes, hexaarylbenzenes (HABs), and porphyrin-based architectures. The lab develops innovative synthetic strategies—such as acid-promoted cyclizations, functionalization cascades, and mechanochemical methods—to access structurally complex and electronically tailored systems with precise symmetry and regiocontrol. Key research directions include the creation of molecular electronic components, optoelectronic materials for light-emitting devices, and scalable platforms for mass spectrometry and energy transfer studies. The lab also pioneers novel characterization techniques, including quasi-optoelectronic electrodes, to bridge molecular design with device functionality.
Professor Kyung Jin Eoh's research lab specializes in gynecologic oncology, with a focus on the molecular mechanisms underlying cervical and ovarian carcinogenesis. The lab investigates the roles of non-coding RNAs, particularly lncRNA SRA, in cancer progression, and integrates next-generation sequencing (NGS) to identify germline and somatic mutations that influence prognosis and treatment response. Key research directions include the clinical application of multi-gene panel testing, BRCA1/2 mutation profiling, and optimizing surgical approaches such as radical hysterectomy and lymphadenectomy in early-stage gynecologic cancers.
Professor Jong-Seok Lee's research lab specializes in advanced materials and systems for environmental and biomedical applications, with a strong focus on adsorption science, particularly CO2 capture using zeolites and composite materials. The lab also explores perceptual video compression and scalable video coding to enhance quality of experience in multimedia communications. Additionally, it investigates molecular mechanisms in neuroinflammation, especially the role of transcription factors and caspases in microglial cell death. The lab integrates experimental, computational, and perceptual modeling approaches to address challenges in energy efficiency, healthcare technology, and next-generation data delivery.
Professor Jee Ye Kim's research lab focuses on clinical oncology and surgical oncology, with a particular emphasis on breast cancer and pancreatic surgery. The lab investigates metabolic factors such as insulin resistance in breast cancer patients, aiming to understand their impact on disease progression and treatment outcomes. Additionally, the lab explores imaging predictors for congenital anomalies like duodenal obstruction and develops predictive models for post-surgical complications, such as pancreatic leakage after pancreaticoduodenectomy. The research also examines the role of liver resection in metastatic breast cancer, highlighting its survival benefits in selected patients.
