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 Hyungmo Jeong's research lab specializes in the design and engineering of advanced nanomaterials for next-generation energy storage and conversion technologies. The lab focuses on developing novel nanostructured materials—such as doped graphene, silicon anodes, and transition metal oxide catalysts—through innovative synthesis and atomic-scale engineering to enhance performance in ultracapacitors, lithium-ion batteries, and electrochemical CO2 reduction. Key research directions include optimizing interfacial engineering, controlling sub-nanometer catalyst architectures, and enabling scalable fabrication of high-energy, durable battery and electrocatalytic systems.
Professor Jung Chae's research lab specializes in structural biology and enzymology, focusing on the molecular mechanisms of proteins involved in human disease and antibiotic resistance. The lab investigates the structural and functional diversity of conserved protein families, such as the ThiJ/PfpI superfamily, to understand how evolutionarily related proteins acquire distinct biological activities. Key research directions include the structural basis of chaperone and protease functions in disease-related proteins like DJ-1, the role of unique structural motifs in cytokine signaling (e.g., TRAIL-DR5 interaction), and the molecular determinants of extended-spectrum beta-lactamase activity in antibiotic resistance. The lab integrates X-ray crystallography, biochemical analysis, and structural modeling to elucidate protein function and guide therapeutic design.
Professor Geu Ru Hong's research lab specializes in cardiovascular imaging and heart failure, with a focus on left ventricular diastolic function, intracardiac flow dynamics, and the pathophysiology of cardiomyopathies. The lab investigates the mechanisms of novel therapeutics such as SGLT2 inhibitors in diabetic cardiomyopathy and explores advanced echocardiographic and magnetic resonance imaging techniques to assess cardiac structure and function. A key interest lies in identifying early hemodynamic and structural markers of cardiac dysfunction, including vortex flow patterns and right ventricular involvement in hypertrophic cardiomyopathy.
Professor Moon Seok Park's research lab specializes in musculoskeletal imaging and radiation safety in orthopedic surgery. The lab focuses on improving the accuracy and reliability of musculoskeletal measurements—particularly patellar height assessment—across pediatric and adolescent populations using advanced imaging techniques. A key emphasis is placed on minimizing radiation exposure during fluoroscopic procedures, especially in intraoperative settings, through optimized C-arm usage and protective strategies. The lab also addresses methodological rigor in medical research, particularly the importance of statistical independence in bilateral data analysis to ensure valid and unbiased results.
Professor Soo-Hyung Park's research lab specializes in the fundamental electronic and interfacial properties of two-dimensional (2D) transition metal dichalcogenides (TMDCs) and organic semiconductors, with a focus on understanding energy level alignment, excitonic effects, and charge transfer mechanisms at heterointerfaces. The lab employs advanced photoelectron spectroscopy techniques—such as angle-resolved UPS, IPES, and inverse photoemission—to probe electronic structures and interfacial energetics in 2D semiconductor/molecule and 2D semiconductor/electrode systems. Their work bridges materials science and device physics, aiming to guide the rational design of next-generation optoelectronic and photovoltaic devices. The lab also investigates substrate-dependent doping and Fermi level engineering in 2D materials, revealing critical roles of substrate work function and electronic coupling in device performance.
Professor Mi Suk Kim's research lab specializes in stereotactic body radiotherapy (SBRT) for hepatocellular carcinoma (HCC), focusing on optimizing dose fractionation, evaluating treatment efficacy, and assessing toxicity—particularly in patients with hepatitis B-related HCC. The lab conducts multicenter clinical trials and prospective studies to establish SBRT as a safe and effective alternative for inoperable or treatment-refractory HCC. Additional research explores molecular mechanisms of anticancer agents like emodin in glioma cells, highlighting a translational interest in cancer therapeutics. The lab also contributes to prenatal imaging, particularly 3D/4D ultrasound for early fetal brain development and congenital anomaly detection.
Professor Woo Chul Kim's research lab specializes in phonon engineering and nanomaterials for advanced thermal and energy conversion applications. The lab focuses on reducing thermal conductivity in crystalline materials through atomic-scale defects and nanostructuring, particularly using nanoparticles and heterogeneous composites to enhance thermoelectric performance. Key research directions include phonon scattering mechanisms, thermal transport engineering in semiconductors and superalloys, and the development of high-efficiency thermoelectric and magnetic tunnel junction materials. The lab combines theoretical modeling with advanced synthesis and characterization techniques to design materials with tailored thermal, electrical, and magnetic properties.
Professor Minhyung Lee's research lab specializes in the development of advanced nanocarrier systems for targeted drug and gene delivery, particularly focusing on brain and lung diseases. The lab integrates biomaterials, molecular targeting, and gene therapy to overcome biological barriers such as the blood-brain barrier and to achieve hypoxia-specific delivery. Key research directions include engineering exosome-mimetic nanovesicles, peptide-conjugated polymers, and stimuli-responsive micelles for precise spatiotemporal control of therapeutic agents.
Professor Sang Gyu Lee's research lab focuses on advancing healthcare and sustainable energy technologies through interdisciplinary research. The lab investigates innovative solutions for lithium-sulfur batteries to enhance energy storage capacity and cycle life, aiming to overcome challenges in next-generation battery systems. It also explores the impact of climate change on agricultural systems, particularly in horticultural crops like hot peppers, and examines the interplay between mental health, inflammation markers, and nutritional status in hemodialysis patients. Additionally, the lab contributes to patient safety and health behavior research, emphasizing education's role in improving hand hygiene and communication in clinical settings.
Professor Jae-Jun Song's research lab focuses on microbial pathogenesis, particularly the role of biofilm formation in persistent bacterial infections caused by *Staphylococcus aureus*, *Pseudomonas aeruginosa*, and *Streptococcus pneumoniae*. The lab investigates bacterial quorum-sensing systems, such as LuxS/AI-2, and explores natural and repurposed compounds—including eugenol, cannabidiol (CBD), and disulfiram (DSF)—for their anti-biofilm and anti-cancer activities. Using both in vitro and in vivo models, including animal infection models, the lab aims to uncover novel therapeutic strategies for treating drug-resistant and chronic infections.
Professor Yong Soo Cho's research lab specializes in advanced power electronics, electric machine drives, and renewable energy systems. The lab focuses on developing innovative control algorithms—such as predictive torque control and power predictive control—for high-efficiency motor drives and power converters, with applications in electric vehicles, industrial automation, and smart grids. Additionally, the lab explores next-generation photovoltaic materials, particularly perovskite-based thin films, for enhanced solar energy conversion. The integration of intelligent control strategies with emerging semiconductor and optoelectronic materials defines the lab’s interdisciplinary approach.
Professor Soo-Hyung Park's research lab specializes in computational fluid dynamics, with a focus on advanced turbulence modeling, preconditioned Navier-Stokes solvers, and Godunov-type schemes for high-speed and viscous flows across all Mach numbers. The lab develops robust numerical methods, including multigrid and implicit schemes, to improve accuracy and convergence in simulating complex aerodynamic flows, particularly in transonic and hypersonic regimes. Additional research extends into applied fluid dynamics and data-driven modeling, such as spectral analysis for nutrient solution monitoring in hydroponics, demonstrating interdisciplinary applications of computational techniques. The lab also contributes to aerospace systems, including spacecraft and missile technologies, integrating fluid dynamics with materials, structures, and mission design.
Professor Hak-Joon Sung's research lab specializes in the design and application of smart biomaterials for regenerative medicine and implantable therapeutics. The lab focuses on developing stimuli-responsive materials—particularly those responsive to reactive oxygen species (ROS) and oxidative stress—that enable site-specific drug delivery, tissue regeneration, and immune modulation. Key research directions include engineering 3D scaffolds using graphene foams and shape-memory polymers to enhance stem cell differentiation, vascularization, and graft integration, while addressing challenges such as rapid degradation and hemodynamic complications in small-diameter vascular grafts.
Professor Jung Cheol Shin's research lab focuses on higher education policy, academic labor markets, and the dynamics of academic performance and well-being across global contexts. The lab investigates the impact of managerial reforms—particularly New Public Management—on job satisfaction and stress among academics, while also exploring the interplay between teaching quality, research output, and student success. A central theme is the comparative analysis of higher education systems, especially in East Asia, with attention to doctoral education, institutional autonomy, and the quality of academic training.
Professor Jun-Yeong Mun's research lab specializes in advanced energy storage materials, with a primary focus on next-generation batteries such as lithium-ion, sodium-ion, and aqueous rechargeable lithium-ion batteries. The lab develops innovative electrode materials, electrolytes, and functional coatings to enhance cyclability, energy density, and low-temperature performance. Key research directions include novel binder systems for high-volume anode materials like silicon, surface modification of cathodes (e.g., AlF₃ coating on LiFePO₄), and redox flow batteries using molecular redox couples. The lab emphasizes materials design through chemical innovation, such as reversible cross-linking binders and stable molecular redox mediators, to overcome fundamental limitations in battery performance and durability.
Professor Wanjoong Lee's research lab specializes in wireless communication systems, with a focus on resource allocation, multiuser MIMO, and AI-enhanced signal processing. The lab investigates efficient spectrum and power allocation in OFDM and massive MIMO systems, particularly under practical constraints such as channel state information and user fairness. A growing emphasis is placed on integrating artificial intelligence with human expertise—especially in predictive maintenance and smart energy systems—through human-AI collaboration. The lab also develops high-fidelity datasets, such as ENERTALK, to support advanced analytics in energy monitoring and smart grid applications.
Professor Minkyung Song's research lab focuses on translational biomedical research with a strong emphasis on understanding the pathophysiological mechanisms of chemotherapy-induced toxicity, particularly intestinal mucositis, and exploring natural compounds as protective agents. The lab investigates molecular biomarkers, cellular signaling pathways, and the role of endogenous receptors such as OR7A17 in skin and intestinal cell responses to stressors like chemotherapy and blue light. Additionally, the lab develops sustainable biotechnological applications, such as using food industry byproducts like whey permeate for cultivating medicinal mushrooms. These interdisciplinary efforts span molecular biology, dermatology, oncology, and bioprocessing.
Professor Jae Hong Seo's research lab specializes in translational cancer biology and medicinal chemistry, with a focus on understanding the tumor microenvironment, cancer stem cells (CSCs), and the development of repurposed drugs for aggressive cancers such as triple-negative breast cancer (TNBC), pancreatic, and biliary tract carcinomas. The lab investigates immunological markers, metastasis mechanisms, and the therapeutic potential of FDA-approved or existing drugs—like salinomycin, flubendazole, and 5-FU—against CSCs and tumor progression. Additionally, the lab contributes to synthetic organic chemistry, particularly in the stereoselective synthesis of complex natural products such as communesins, which serve as chemical probes and potential anticancer leads. Their work bridges molecular oncology, drug repositioning, and total synthesis to identify novel therapeutic strategies for treatment-resistant cancers.
Professor Sang Min Lee's research lab focuses on clinical and translational studies in musculoskeletal disorders, particularly spinal deformities such as thoracic scoliosis, with an emphasis on surgical outcomes and instrumentation techniques. The lab also investigates metabolic and nutritional factors in aquaculture species, notably protein requirements in Japanese flounder, and explores the impact of surgical interventions on reproductive health and pregnancy outcomes in inflammatory bowel disease patients. Additionally, the lab examines neuroprotective mechanisms of natural compounds like bee venom and their potential in mitigating glutamate-induced neurotoxicity, reflecting a multidisciplinary approach spanning orthopedics, gastroenterology, nutrition, and neuroscience.
Professor Jiyoung Han's research lab specializes in biomaterials and regenerative dentistry, focusing on the development of advanced materials and surface engineering strategies to enhance implant integration, periodontal health, and tissue regeneration. The lab investigates the role of nano- and micro-scale surface topographies—particularly titanium dioxide (TiO₂) patterns—in improving fouling resistance and biocompatibility of medical membranes and implants. Key research directions include guided bone and tissue regeneration, sinus augmentation, ridge preservation, and the clinical application of bone grafts and collagen membranes in oral implantology. The lab also explores the interplay between host immune responses and biomaterials, particularly in the context of inflammatory conditions such as rheumatoid arthritis and periodontitis.
