首尔大学、KAIST、延世大学等韩国QS前10名大学的研究室信息。
Professor Jongsoo Lee's research lab specializes in advanced simulation-driven design optimization, with a focus on multidisciplinary engineering systems involving structural mechanics, materials behavior, and nuclear energy applications. The lab develops and applies meta-modeling techniques—such as Kriging and surrogate modeling—combined with evolutionary algorithms like genetic and micro-genetic algorithms to solve complex, constrained optimization problems in aerospace, automotive, and nuclear engineering. Research emphasizes improving computational efficiency, constraint feasibility, and reliability in design under uncertainty, particularly for high-performance materials and components under extreme conditions. The lab also integrates statistical and probabilistic methods to model material fatigue, viscoplasticity, and system-level performance in safety-critical applications.
Professor Young Kyung Yoon's research lab specializes in antimicrobial stewardship, infectious disease management, and antibiotic resistance prevention. The lab focuses on optimizing antibiotic use through evidence-based guidelines, evaluating treatment outcomes for resistant infections such as MRSA and carbapenem-resistant organisms, and analyzing national antibiotic consumption patterns. Their work integrates clinical research with public health policy to improve patient outcomes and reduce antimicrobial resistance in healthcare settings.
Professor Sung-Gil Chi's research lab specializes in developing advanced nanomaterials and molecular therapeutics for precision cancer therapy. The lab focuses on designing stimuli-responsive drug delivery systems that exploit the unique tumor microenvironment—such as redox and pH gradients—for spatiotemporally controlled drug release. Key research directions include mitochondria-targeted theranostic agents, enzyme-activatable prodrugs, and the molecular mechanisms of tumor suppressor proteins in cancer metabolism and apoptosis. The lab integrates nanomedicine, chemical biology, and molecular oncology to enhance therapeutic efficacy while minimizing systemic toxicity.
Professor Jae Hoon Chung's research lab specializes in thyroid cancer diagnostics and personalized management, focusing on molecular diagnostics, tumor progression monitoring, and recurrence prediction in papillary thyroid cancer (PTC). The lab develops and applies highly sensitive molecular assays like MEMO sequencing to detect BRAF mutations in fine-needle aspiration cytology, improving early detection and risk stratification. They also investigate tumor volume dynamics during active surveillance and the clinicopathologic factors influencing recurrence patterns, aiming to optimize treatment strategies and long-term follow-up. Their work bridges molecular pathology with clinical decision-making to enhance patient outcomes.
Professor Taikyu Kim's research lab specializes in the development and optimization of advanced semiconductor materials for next-generation thin-film transistors, with a strong focus on oxide semiconductors, tellurium-based 2D materials, and p-type semiconductor integration. The lab explores novel fabrication techniques such as atomic layer deposition, sputtering, and plasma treatment to achieve high-performance, low-temperature processed devices compatible with CMOS technology. Key research directions include enhancing field-effect mobility, reducing contact resistance, and controlling defect states—particularly oxygen vacancies—to enable high-performance, scalable transistors for 3D integrated electronics and flexible optoelectronics.
Professor Seungwon Kwon's research lab specializes in integrative and herbal medicine therapies, focusing on the clinical efficacy and safety of traditional herbal formulations in neurodegenerative diseases such as Parkinson’s disease, Alzheimer’s disease, and stroke-related conditions. The lab conducts rigorous clinical trials and meta-analyses to evaluate herbal medicine interventions, including novel applications like Oreongsan for chronic subdural hematoma and traditional prescriptions for COVID-19. A key research direction involves exploring the mechanisms and therapeutic potential of herbal medicine complexes in metabolic and neurological disorders, often in combination with conventional treatments. The lab also investigates complementary therapies such as acupuncture in patients on anticoagulant therapy, emphasizing patient safety and integrative healthcare approaches.
Professor Kang-Il Kim's research lab specializes in regenerative medicine and orthopedic surgery, with a primary focus on mesenchymal stem cell therapy and cartilage regeneration in osteoarthritis. The lab investigates innovative, minimally invasive treatments such as intra-articular injection of autologous adipose-derived mesenchymal stem cells and the use of osteotomies—particularly medial open-wedge high tibial osteotomy—for structural and biological joint repair. Their work combines clinical trials with biomechanical and regenerative outcomes, emphasizing patient-centered results in knee and hip joint preservation. The lab also explores the synergistic effects of surgical correction and tissue regeneration, particularly in lower BMI patients with varus malalignment.
Professor In-Jee Jeong's research lab specializes in nonlinear partial differential equations arising in fluid dynamics, with a primary focus on the mathematical analysis of the Euler and surface quasi-geostrophic (SQG) equations. The lab investigates fundamental questions related to well-posedness, ill-posedness, norm inflation, and the loss of regularity in critical and supercritical function spaces. Key themes include the formation of singularities, vorticity growth, and the behavior of solutions in both bounded and unbounded domains, often employing advanced techniques from harmonic analysis and dynamical systems.
Professor Phill-Seung Lee's research lab specializes in advanced marine and offshore structural systems, with a focus on the design, analysis, and safety of floating and submerged nuclear power plants. The lab conducts cutting-edge research in hydrodynamic analysis of flexible floating structures, employing advanced numerical methods such as finite element and boundary element formulations to model complex fluid-structure interactions under wave and dynamic loading. Key research directions include the development of innovative offshore nuclear power plant concepts—such as spar-type, gravity-based, and submerged designs—alongside the integration of safety and structural integrity in extreme marine environments. The lab also contributes to the advancement of next-generation nuclear energy systems with a strong emphasis on passive safety and environmental resilience.
Professor Hyuck Mo Lee's research lab specializes in the design and synthesis of advanced nanomaterials for sustainable energy applications, with a primary focus on electrocatalysts for water splitting and energy conversion. The lab develops core-shell nanostructures and doped transition metal (oxy)hydroxides to enhance catalytic activity, stability, and durability in electrochemical processes. Key research directions include the rational engineering of noble-metal-free catalysts, understanding surface segregation and oxidation mechanisms, and formulating functional inks for printable electronics. The lab combines advanced materials synthesis with in-depth characterization techniques such as XPS, APT, and electron microscopy to achieve structure-property relationships.
Professor Dong-Soo Kwon's research lab specializes in advanced robotics and intelligent control systems, with a focus on flexible manipulators, teleoperation, and surgical robotics. The lab develops innovative control strategies—such as inverse dynamic trajectory planning and adaptive bilateral control—for high-precision robotic systems in challenging environments, including minimally invasive surgery. It also pioneers emotion interaction systems in service robots to enhance human-robot collaboration through affective computing. The lab's work bridges theoretical control design with practical applications in healthcare and human-centered robotics.
Professor Kawon Han's research lab specializes in advanced radar signal processing and sensing technologies, focusing on MIMO and FMCW radar systems for human-centric applications. The lab develops innovative methods for detecting human vital signs, body movements, and vocal signals with high sensitivity and accuracy, even in challenging environments with clutter and motion artifacts. Key research directions include virtual array synthesis, phase-based motion and vital sign detection, sub-Nyquist sampling, and hybrid beamforming techniques to enhance system performance while reducing hardware complexity. The lab also explores novel signal processing algorithms such as curve-length estimation and differential phase techniques to improve robustness and resolution in real-world sensing scenarios.
Professor Young Lan Kwak's research lab focuses on cardiovascular anesthesiology and myocardial protection, with a primary emphasis on understanding and mitigating ischemia/reperfusion injury in cardiac surgery. The lab investigates hemodynamic management in patients with pulmonary hypertension, particularly the hemodynamic effects of vasopressors like phenylephrine and norepinephrine. A key research direction involves the molecular mechanisms of myocardial protection, especially the role of oxidative stress, inflammasome activation, and the therapeutic potential of antioxidants such as ethyl pyruvate. The lab also employs advanced hemodynamic monitoring techniques, such as thermodilution catheterization, to assess right ventricular function during off-pump coronary artery bypass surgery.
Professor Kyong Whan Moon's research lab focuses on environmental health and chemical risk assessment, with a strong emphasis on the health impacts of environmental pollutants such as heavy metals (e.g., lead, cadmium, mercury) and volatile organic compounds (VOCs). The lab investigates the associations between environmental toxicants and metabolic diseases, including cardiovascular disease and metabolic syndrome, while exploring mediating biological pathways such as thyroid function. It also specializes in chemical accident risk analysis, safety distance modeling, and the development of localized risk assessment frameworks for industrial and residential areas in South Korea.
Professor Ju-Hyung Lee's research lab specializes in next-generation wireless communication systems, focusing on non-terrestrial networks (NTNs) that integrate low-Earth orbit (LEO) satellites, high-altitude platforms (HAPs), and unmanned aerial vehicles (UAVs). The lab investigates advanced networking challenges such as trajectory optimization, hybrid RF/Freespace Optical (FSO) communication, and intelligent resource management to enhance end-to-end throughput, energy efficiency, and latency in 6G and beyond-5G systems. A key focus is on applying deep reinforcement learning to solve dynamic, time-varying network control problems in highly mobile and scalable non-terrestrial environments.
Professor Jin-Kuk Kim's research lab specializes in sustainable water management and industrial water integration, focusing on innovative design strategies for reducing freshwater consumption in industrial processes. The lab develops advanced water reuse and recycling systems, particularly integrating wastewater streams into cooling water systems to minimize makeup water demand. Key research directions include process integration, water network optimization, and the technical and economic feasibility of using treated or untreated wastewater as cooling water makeup. The lab also investigates the operational challenges of cooling towers when exposed to recycled water, aiming to enhance system stability and efficiency.
Professor Donghwan Lee's research lab specializes in catalysis, particularly in the development of transition metal-catalyzed C–H and C–C bond-forming reactions for sustainable organic synthesis. The lab also focuses on machine learning applications in neuroscience and mental health, leveraging EEG and quantitative biomarkers to classify psychiatric disorders. Additionally, the lab investigates advanced materials for energy and electronics, including zeolite-supported catalysts and parameter estimation in NAND flash memory. The integration of catalysis, data science, and materials science defines the lab’s interdisciplinary approach.
Professor Jonghwi Kim's research lab specializes in autonomous navigation and perception systems for unmanned surface vehicles (USVs) and autonomous surface vehicles (ASVs), with a focus on sensor fusion, multimodal data integration, and robust localization in challenging environments such as narrow waterways and urban canyons. The lab develops advanced algorithms combining LiDAR, radar, cameras, and GPS/INS for real-time target detection, tracking, and path planning, with applications in autonomous maritime operations and UAV landing on moving platforms. Emphasis is placed on deep learning-based semantic segmentation, geometric correction of aerial maps, and vision-based navigation to enhance safety and accuracy in GPS-denied or degraded conditions.
Professor Young K. Ju's research lab specializes in innovative structural systems for high-rise buildings, focusing on reducing floor-to-floor height while enhancing seismic resilience, fire resistance, and constructability. Key research directions include the development of advanced composite beams with web openings, buckling-restrained braces (BRBs) and hybrid BRBs for energy dissipation, and novel composite floor systems using high-performance materials like GFRP and hollow concrete slabs. The lab emphasizes experimental validation and performance-based design to improve structural efficiency and sustainability in urban high-rise construction.
Professor Jaichan Lee's research lab specializes in advanced functional materials, with a focus on oxide heterostructures, correlated electron systems, and nanocatalysts. The lab investigates electronically driven phase transitions in complex oxides—such as in vanadium dioxide and perovskites—while exploring strain engineering and interface control to achieve novel electronic and dielectric properties. It also develops high-performance nanomaterials for energy applications, including perovskite solar cells and selective hydrogenation catalysts, combining thin-film synthesis, advanced characterization, and first-principles modeling.
