探索全球顶尖大学的研究室——研究领域与主要论文一览无余。
Professor Seokhyun Yoon's research lab specializes in the development and characterization of advanced oxide-based semiconductor materials for optoelectronic and energy conversion devices. The lab focuses on designing low-dimensional semiconductors such as ZnO, GaN, and IGZO thin films to enhance device performance through interface engineering, defect control, and novel fabrication techniques. Key research directions include surface-enhanced Raman spectroscopy (SERS) using non-noble metal nanostructures, high-performance thin-film transistors with improved stability, and perovskite solar cells with efficient and stable electron transport layers. The lab also explores low-temperature processing methods and post-annealing treatments to optimize material properties and device reliability.
Professor Kyung-Hoe Huh's research lab specializes in biomedical imaging and quantitative bone morphometry, focusing on the structural analysis of trabecular bone using advanced fractal geometry. The lab employs computational methods such as the tile counting method to assess the complexity and architectural integrity of mandibular trabecular bone, contributing to improved understanding of bone quality in clinical contexts. Current research directions emphasize the development of reliable, non-invasive biomarkers for early detection of bone metabolic disorders and osteoporosis. The lab also explores the application of fractal dimension as a quantitative parameter in dental and maxillofacial imaging.
Professor Kang Hee Ku's research lab specializes in the design and synthesis of functional colloidal particles with precise control over their shape, morphology, and surface properties. The lab focuses on utilizing block copolymers and interfacial engineering to create stimuli-responsive, patchy, Janus, and porous particles for advanced applications in smart materials, emulsion catalysis, and drug delivery. Key research directions include evaporation-driven self-assembly, interfacial tension modulation, and dynamic surface engineering using stimuli-responsive surfactants and nanoparticles.
Professor Eun Joo Kang's research lab focuses on translational oncology, with a primary emphasis on understanding the biological behavior and clinical outcomes of aggressive cancers, particularly in the context of metastasis and patient-specific risk factors. The lab investigates the prognostic implications of specific biomarkers—such as ALDH1 in breast cancer and PD-L1 expression in NSCLC—while also exploring the impact of comorbid conditions like COPD on treatment outcomes in metastatic lung cancer. A significant portion of the research is grounded in real-world population data, utilizing national health insurance claims to identify pregnancy-related risk factors in postpartum breast cancer. The lab’s work bridges clinical oncology, molecular pathology, and health services research to improve patient stratification and personalized treatment strategies.
Professor Yong Sung Park's research lab specializes in biomedical and biophysical sciences, focusing on vaccine development against bacterial pathogens such as Bacillus anthracis using novel DNA vaccine platforms, and investigating fungal iron acquisition systems as potential virulence factors in opportunistic pathogens like Aspergillus fumigatus and Fusarium graminearum. The lab also explores the complex rheological behavior of soft yield-stress fluids, particularly in oscillatory and wave-induced flows, using advanced experimental techniques like PIV and theoretical modeling. These interdisciplinary efforts span molecular immunology, fungal pathogenesis, and non-Newtonian fluid dynamics.
Professor Dong Soon Lee's research lab focuses on hematological malignancies, particularly chronic myelogenous leukemia (CML), myelodysplastic syndromes (MDS), multiple myeloma, and chronic lymphocytic leukemia (CLL). The lab investigates molecular mechanisms underlying disease progression, including genetic aberrations, microenvironmental interactions, and signaling pathways such as interferon and IL-6R. Using advanced techniques like FISH, next-generation sequencing, and in vivo models, the lab explores novel therapeutic targets and drug responses, especially in imatinib-resistant CML and statin-based therapies. A key emphasis is on translational research linking genetic markers to clinical outcomes and treatment strategies.
Professor KyeoReh Lee's research lab specializes in advanced optical imaging and light manipulation techniques for biomedical and materials sciences. The lab focuses on developing quantitative phase imaging, holography, and optical tomography methods to enable label-free, non-invasive, and high-resolution analysis of biological cells and materials at the microscopic level. Key research directions include reference-free holography, structured illumination for 3D refractive index tomography, and angle-resolved light scattering for cellular diagnostics. The lab also explores novel laser designs and scattering-based imaging to push the limits of optical sensing and imaging in complex environments.
Professor Sungho Tae's research lab specializes in sustainable construction and environmental impact assessment within the building lifecycle. The lab focuses on reducing CO2 emissions through innovative materials and technologies, particularly in concrete production and building envelope systems. Key research directions include life-cycle assessment of green buildings using BIM, development of low-carbon concrete, and energy-efficient building retrofitting using advanced glazing technologies such as PDLC and electrochromic windows. The lab also investigates the environmental impacts of construction materials and processes, aiming to support Korea’s green building and carbon reduction initiatives.
Professor Baek-Il Kim's research lab specializes in preventive and restorative dentistry with a strong focus on oral health promotion through advanced materials and microbiological interventions. The lab investigates the role of nano-hydroxyapatite and other biomaterials in preventing dental erosion and enhancing tooth whitening, while also exploring the use of light-activated therapies and photosensitizers to modulate the oral microbiome. A key research direction involves the clinical application of diagnostic technologies such as quantitative light-induced fluorescence (QLF) to detect early signs of dental disease and assess microbial community changes. The lab integrates clinical, biochemical, and molecular approaches to improve both oral and systemic health outcomes.
Professor Hye Sun Gwak's research lab specializes in pharmaceutical and clinical pharmacology, with a focus on optimizing drug delivery systems and understanding genetic influences on drug response. The lab investigates transdermal drug permeation using various vehicles and penetration enhancers, particularly for medications like ondansetron and rosuvastatin. It also explores the clinical implications of pharmacogenomics, such as the ABCG2 421C>A polymorphism's impact on rosuvastatin pharmacokinetics, and examines the relationship between mental health factors—like anxiety and smartphone addiction—and adolescent health outcomes. The lab integrates preclinical studies with large-scale epidemiological data to support personalized medicine and public health interventions.
Professor Wonjung Kim's research lab specializes in the fluid mechanics and physical principles underlying biological and microscale phenomena, with a focus on biomimetic systems and interfacial dynamics. The lab investigates how natural organisms—ranging from hummingbirds to seed plants—optimize fluid transport and mechanical responses through specialized morphologies and physical mechanisms such as capillarity, viscoelasticity, and hygroscopic actuation. Their work bridges biology, fluid dynamics, and materials science, often combining in vivo observations, microscale experiments, and theoretical modeling to uncover fundamental principles of energy-efficient transport and self-actuation. The lab also explores applications in nanomaterials and microfluidic processes, particularly in surface passivation and particle removal at the microscale.
Professor Shinichi Komaba's research lab focuses on the development of sustainable and high-performance energy storage systems, with a primary emphasis on sodium- and potassium-ion batteries as viable alternatives to lithium-ion batteries. The lab explores novel electrode materials—such as layered oxides, hard carbon, and conversion-type materials—alongside electrolyte engineering to enhance electrochemical performance, cyclability, and safety. A key research direction involves understanding and optimizing the electrochemical reactions in Na and K ion insertion systems, particularly in the context of abundant, low-cost, and globally distributed elements. The lab also investigates interface stabilization and solid-electrolyte interphase (SEI) formation using advanced electrolyte additives like fluoroethylene carbonate.
Professor Hyun Hwan Sung's research lab specializes in urological oncology and minimally invasive surgical techniques, with a strong focus on renal and urothelial cancers. The lab investigates advanced treatment strategies such as robotic-assisted and open radical cystectomy, thermal ablation (RFA), and endoscopic diagnostics, aiming to optimize surgical outcomes and preserve renal function. Key research directions include prognostic biomarkers—particularly systemic inflammatory markers like ESR and NLR—for predicting oncological outcomes in upper tract urothelial carcinoma (UTUC), and evaluating the impact of preoperative ureterorenoscopy on recurrence risk. The lab also explores long-term outcomes and risk factors in kidney transplant recipients with urothelial carcinoma.
Professor Joong-Soo Han's research lab focuses on cellular signaling mechanisms underlying inflammation, apoptosis, and cell differentiation, with a particular emphasis on the roles of phospholipase D (PLD) and mTOR signaling pathways. The lab investigates how lipid mediators such as phosphatidic acid and second messengers like cAMP regulate key physiological processes in immune cells, endometrial stromal cells, and renal collecting ducts. Current research directions include the molecular links between obesity and respiratory inflammation, the regulation of decidualization in the endometrium, and the dual roles of neuropeptides like vasopressin and oxytocin in water balance and cell survival. The lab employs a multidisciplinary approach combining molecular biology, cell signaling, and primary cell culture systems to dissect intracellular signaling networks in health and disease.
Professor Sung-Gul Hong's research lab specializes in advanced cementitious materials, with a primary focus on ultra-high performance concrete (UHPC) and its advanced composites. The lab investigates the mechanical performance, microstructural development, and multifunctional properties of UHPC reinforced with steel fibers, carbon nanotubes (CNTs), and other nanomaterials, emphasizing applications in structural durability, seismic retrofitting, and smart construction materials. Key research directions include optimizing curing processes, enhancing dispersion of nanomaterials (e.g., via ozone treatment), and developing sustainable binders such as kaolinite clay-based mortars.
Professor Sung Mok Kim's research lab specializes in medical imaging and biomechanical engineering, focusing on advancing cardiovascular imaging techniques and optimizing parallel mechanism design for precision applications. The lab investigates low-dose, non-gated CT for coronary artery calcium scoring and explores dual-energy CT perfusion for improved detection of myocardial ischemia, aiming to enhance diagnostic accuracy while minimizing radiation exposure. In parallel, the lab develops innovative 4-DOF parallel mechanisms with asymmetric chain configurations to overcome architectural singularities and improve motion precision in robotic and medical devices.
Professor Young-Jin Kim's research lab specializes in smart grid technologies, with a focus on enhancing grid reliability and efficiency through advanced control strategies for building-level energy systems. The lab investigates demand response, grid frequency regulation, and optimal operation of HVAC and energy storage systems using dynamic modeling, data-driven approaches, and real-time control. Key research directions include integrating variable speed heat pumps, battery energy storage, and distributed generators into distribution networks while minimizing equipment wear and improving power quality. The lab emphasizes practical implementation through real-time simulation, experimental validation, and secure data communication for wide-area grid monitoring.
Professor Kuo Li's research lab specializes in distributed control of nonlinear multiagent systems under challenging conditions such as uncertain dynamics, time-varying delays, switching topologies, partial state availability, and stochastic disturbances. The lab focuses on developing advanced output-feedback control strategies, finite-time and predefined-time observers, and robust consensus algorithms for leader-following and containment control. Key innovations include dynamic compensators, high-gain observers, and switched observer designs that ensure fast, accurate, and reliable coordination under non-ideal sensing and communication environments.
Professor Justin Sangwook Ko's research lab specializes in transplant surgery and hepatobiliary surgery, with a strong focus on improving outcomes in living donor liver transplantation. Key research directions include optimizing postoperative pain management in live donors, understanding the role of platelets and donor characteristics—such as sex and steatosis—in graft survival and hepatocellular carcinoma recurrence, and evaluating the impact of transfusions on patient outcomes. The lab integrates clinical research with translational insights to enhance donor safety and recipient long-term survival.
Professor Hong Hee Yoo's research lab specializes in the dynamic analysis and mechanical modeling of rotating structures, with a focus on vibration characteristics, modal behavior, and structural stiffening effects in rotating plates and beams. The lab develops advanced analytical and numerical methods using dimensionless formulations and hybrid deformation variables to accurately capture motion-induced stiffness variations and boundary conditions. A key emphasis is placed on the effects of geometric and inertial parameters on eigenvalue loci veering and crossing, as well as on the dynamic response of structures with distributed or concentrated masses. The lab also extends its expertise to biomechanics, particularly in measuring the frequency-dependent viscoelastic properties of human tissues such as skin and muscle.
