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 Yoo Myeong-cheol's research lab specializes in orthopedic regenerative medicine and inflammatory joint diseases, with a primary focus on osteonecrosis of the femoral head and rheumatoid arthritis. The lab investigates joint-preserving surgical techniques—particularly vascularized fibular grafting—and explores molecular mechanisms underlying joint destruction, including the roles of adiponectin, VEGF, MMPs, and anti-inflammatory agents like taurine chloramine. Longitudinal studies on aging, sarcopenia, and body composition in Korean older adults further extend the lab’s interest into musculoskeletal health and metabolic influences on joint integrity. The research integrates clinical outcomes with molecular and cellular biology to develop targeted therapeutic strategies.
Professor Dong-Hoon Hyun's research lab focuses on the molecular mechanisms underlying neurodegenerative diseases, with a central emphasis on oxidative stress, protein homeostasis, and iron metabolism in neuronal cell death. The lab investigates the roles of redox systems, ubiquitin-proteasome function, and metal ion homeostasis—particularly iron and copper—in conditions such as Parkinson’s disease, Alzheimer’s disease, and amyotrophic lateral sclerosis (ALS). Using in vitro neuronal cell models, the lab explores how genetic mutations (e.g., in alpha-synuclein, Parkin, SOD-1) and metabolic interventions (e.g., caloric restriction) influence cellular resilience, oxidative damage, and proteostasis. The ultimate goal is to identify therapeutic targets that enhance neuronal survival in aging and neurodegeneration.
Professor Jinhee Son's research lab specializes in gastrointestinal and systemic oncology, with a focus on the pathological diagnosis, prognostic biomarkers, and clinical behavior of rare and gastrointestinal neuroendocrine tumors (GEP-NETs), gastrointestinal stromal tumors (GISTs), and adenocarcinomas of the gallbladder and breast. The lab emphasizes the role of immunohistochemical markers such as Ki-67, cytokeratin 17, and mean platelet volume (MPV) in predicting tumor behavior, recurrence, and patient survival. Through systematic reviews, meta-analyses, and tissue microarray studies, the lab aims to improve diagnostic accuracy and prognostic stratification in solid organ malignancies.
Professor Lee Jeonghun's research lab specializes in environmental geochemistry and hydrological processes, with a focus on tracing contaminant sources and transport mechanisms in water systems. The lab employs advanced isotopic analysis—particularly dual isotope (δ15N, δ18O) and stable isotope techniques in water and snowmelt—to study nitrogen cycling, nitrate pollution, seawater intrusion, and solute transport in snowpacks. Key research directions include the development of innovative microfluidic systems for proteomic analysis and the application of satellite remote sensing to understand atmospheric water vapor and cloud processes. The lab integrates field experiments, laboratory modeling, and cutting-edge analytical techniques to address critical environmental challenges in water quality and hydrological cycle dynamics.
Professor Yeon Joo Lee's research lab specializes in clinical decision support systems and patient safety, with a focus on improving early detection of clinical deterioration in hospitalized patients. The lab develops and evaluates advanced predictive models—such as DEWS and DeepCARS™—to enhance the accuracy of in-hospital cardiac arrest and critical event prediction. Research also extends to infection control in healthcare settings, particularly mobile device contamination, and quality improvement in intensive care through family-centered outcomes. The lab integrates clinical data, artificial intelligence, and real-world healthcare practices to optimize patient outcomes.
Professor Hyun Wook Jung's research lab specializes in the design and fabrication of advanced functional materials, with a primary focus on polymer-based membranes and hydrogels for water treatment and biomedical applications. The lab investigates innovative fabrication techniques—such as electrospinning, slot coating, and UV/thermal polymerization—to develop ultrathin, highly selective, and biofouling-resistant membranes for reverse osmosis and separation processes. A key research direction involves tailoring the crosslinking dynamics, mechanical properties, and swelling behavior of poly(ethylene glycol)-based hydrogels to enable stimuli-responsive performance and enhanced durability. The lab also explores biomimetic surface patterning and nanofiber engineering to improve material performance in real-world environmental and biological conditions.
Professor Eun-Ha Kim's research lab focuses on antimicrobial resistance mechanisms in bacterial pathogens, particularly in fish and zoonotic pathogens, with an emphasis on the molecular genetics of resistance genes and their mobile genetic elements. The lab investigates host-pathogen interactions, especially in viral co-infections such as SARS-CoV-2 and influenza A, using animal models to dissect immunopathological responses. Additionally, the lab explores innate immune signaling pathways, particularly TLR-TRAF6 signaling, to understand immune regulation and its implications in sepsis and inflammation. The work integrates microbiology, virology, and immunology to address emerging infectious diseases and antibiotic resistance.
Professor Sung Bae Park's research lab specializes in spinal surgery and orthopedic research, with a focus on osteoporosis-related spinal disorders, spinal fusion techniques, and the development of effective surgical strategies for elderly patients. The lab investigates bone metabolism, particularly the balance between bone resorption and formation, to improve outcomes in spinal surgery for osteoporotic patients. It also conducts clinical and preclinical studies using animal models to evaluate surgical interventions and long-term reoperation rates in degenerative lumbar spine diseases.
Professor Wan-Joon Park's research lab specializes in the development of advanced flexible and wearable sensors for artificial tactile perception, focusing on next-generation human-machine interaction systems. The lab pioneers innovative nanomaterial-based sensor designs—such as graphene, conductive polymer sponges, and nanostructured ITO—engineered for high sensitivity to both static pressure and dynamic vibrations. Key research directions include tactile sensing for soft robotics, electronic skin, and energy-harvesting devices like triboelectric nanogenerators (TENGs), with an emphasis on structural engineering for enhanced performance and reliability. The lab integrates nanofabrication, electromechanical characterization, and signal processing to enable real-time texture recognition and ultra-sensitive force detection.
Professor Ki-Young Kim's research lab focuses on the molecular mechanisms underlying cellular stress responses and tissue repair, with a strong emphasis on signaling pathways in yeast and their translational relevance to human disease. The lab investigates the non-catalytic roles of mitogen-activated protein kinases (MAPKs) in transcriptional regulation, particularly in the yeast cell wall integrity pathway, and explores the therapeutic potential of natural compounds—such as sakuranetin and tracheloside—in modulating inflammation and promoting wound healing. These studies bridge fundamental cell biology with translational applications in diabetes-related retinal degeneration and anti-inflammatory drug development. The lab integrates advanced imaging techniques like OCTA with molecular and cellular assays to understand disease mechanisms at the cellular and subcellular levels.
Professor Kunsoo Park's research lab specializes in high-performance computing and computational biology, focusing on the development of advanced algorithms and mathematical models for interpreting complex mass spectrometry data. The lab explores efficient parallel computing techniques, particularly leveraging GPU-accelerated architectures, to solve computationally intensive problems in bioinformatics and cryptography. Key research directions include isotopic peak detection in high-resolution mass spectra and the optimization of time-memory trade-off methods such as the rainbow table for cryptographic applications. The lab bridges theoretical modeling with practical implementation on heterogeneous computing systems to enable faster and more accurate data analysis in life sciences and cybersecurity.
Professor Eun-Ah Park's research lab specializes in diagnostic radiology and medical imaging, with a focus on optimizing computed tomography (CT) techniques for improved disease detection and characterization. The lab investigates advanced CT protocols—such as low-kilovoltage imaging, xenon ventilation CT, and 3D vascular anatomy analysis—to enhance image quality, reduce radiation dose, and improve diagnostic accuracy in pulmonary and cardiovascular diseases. Key research directions include quantitative and qualitative assessment of chronic obstructive pulmonary disease (COPD), coronary CT angiography, and venous thromboembolism. The lab also explores the integration of computer-aided detection (CAD) and multiplanar reconstruction techniques to support clinical decision-making in oncology and vascular imaging.
Professor Soo-Jong Jeong's research lab specializes in Earth system science, with a focus on carbon cycle dynamics, climate-vegetation interactions, and satellite-based remote sensing of greenhouse gases. The lab investigates how climate change affects terrestrial carbon exchange, vegetation phenology, and carbon residence times in high-latitude ecosystems, particularly in the Arctic and boreal regions. Using a combination of satellite observations, inverse modeling, and land-atmosphere modeling, the lab aims to improve understanding of biosphere-atmosphere feedbacks and support climate policy through accurate carbon budget assessments. Their work also includes advancing ground-based greenhouse gas monitoring networks, such as COCCON, for high-precision atmospheric measurements.
Professor Boyeon Park's research lab focuses on viral immune evasion mechanisms, particularly those employed by human cytomegalovirus (HCMV), with a central emphasis on how viral proteins subvert host innate immunity and antigen presentation pathways. The lab investigates key viral proteins such as US9, US10, and UL18, exploring their roles in disrupting interferon signaling, downregulating MHC molecules, and evading natural killer cell surveillance. Additionally, the lab examines host-directed mechanisms, including TRIM31-mediated autophagy and CNBP-regulated inflammatory gene transcription, revealing intricate host-virus interactions in mucosal immunity and intracellular defense. Their work bridges virology, immunology, and cell biology to uncover novel therapeutic targets for viral infections and immune-related diseases.
Professor Myung Il Roh's research lab specializes in maritime system optimization and intelligent ship operations, focusing on energy efficiency, route planning, and safety in marine transportation. The lab develops advanced computational methods—such as deep learning, dynamic simulation, and risk assessment models—to predict fuel consumption, optimize ship routing under varying ocean conditions, and enhance collision avoidance systems. Research also extends to offshore renewable energy infrastructure, particularly the safe installation of offshore wind turbines using floating cranes. The lab integrates data-driven and simulation-based approaches to support sustainable and safe shipping operations.
Professor Lee Jun-ho's research lab specializes in advanced materials science and biomedical engineering, with a focus on understanding fundamental interactions in perovskite semiconductors and developing innovative sensor technologies for human-like sensory perception. The lab investigates hydrogen bonding dynamics in hybrid halide perovskites to improve optoelectronic device stability, while also pioneering stretchable, multimodal sensor systems integrated with machine learning for real-time tactile and thermal signal discrimination. Additionally, the lab explores human factors in digital media, particularly the impact of social media and user behavior on tourism and content engagement, bridging engineering with social science applications.
Professor Myung-Geun Yoon's research lab specializes in biomedical physics and nanomaterials, focusing on radiation oncology applications and advanced materials for medical imaging and therapy. Key research directions include developing novel dose homogeneity indices for intensity-modulated radiotherapy, investigating the biological effects of tumor-treating fields and chemotherapeutic agents in glioblastoma, and exploring radiation dose enhancement using gold nanoparticles and platinum-based drugs in brachytherapy. The lab also conducts fundamental studies on neural regeneration in model organisms like goldfish and the self-assembly of nanoscale structures on semiconductor surfaces for potential nanoelectronic and biomedical applications.
Professor Soo Kyung Cho's research lab specializes in epidemiological and health services research focused on autoimmune and inflammatory rheumatic diseases in the Korean population. The lab investigates the incidence, prevalence, and comorbidities of conditions such as idiopathic inflammatory myopathies, rheumatoid arthritis, and primary Sjögren’s syndrome, with a strong emphasis on real-world data from national claims databases. Key research directions include evaluating treatment safety—particularly regarding glucocorticoid-induced osteoporosis, malignancy risks with biologic DMARDs, and the tolerability of TNF inhibitors in elderly patients—using large-scale population-based cohorts. The lab also focuses on validating diagnostic codes in claims data for accurate disease phenotyping, such as knee osteoarthritis.
Professor Hyun-Heon Hwang's research lab specializes in the development of advanced micro- and nanoscale biosensors for point-of-care diagnostics, with a focus on label-free and impedance-based detection of disease biomarkers. The lab pioneers innovative MEMS and nanofabrication techniques to create highly sensitive, portable, and stable biosensing platforms for early diagnosis of neurodegenerative diseases such as Alzheimer’s and prostate cancer. Key research directions include nanomechanical cantilever sensors, interdigitated microelectrode (IME) systems, and reduced graphene oxide (rGO)-based biosensors, all optimized for real-world clinical applications with high sensitivity and reliability.
Professor Junhua Yu's research lab specializes in the design, synthesis, and application of luminescent silver nanoclusters and nanodots for advanced bioimaging and biolabeling. The lab focuses on developing highly stable, bright, and photostable nanomaterials that combine the advantages of quantum dots and organic dyes—offering small size, strong fluorescence, and excellent biocompatibility. Key research directions include the development of fluorogenic cluster transfer systems for specific protein labeling, the use of silver nanodots as probes for monitoring nanomaterial stability in biological environments, and the creation of targeted probes for subcellular organelle imaging, particularly the nucleolus. The lab also explores the interplay between nanomaterial structure and photophysical properties to enable new applications in live-cell and single-molecule imaging.
