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 Hyungsuk Lee's research lab specializes in the mechanical characterization of biological systems and functional materials at the micro- and nanoscale. The lab investigates the interplay between cellular structures—such as the cytoskeleton, chromatin, and nuclear envelope—and their mechanical properties, particularly in cardiac myocytes and extracellular matrices like collagen. Using advanced techniques including optical tweezers, microfluidic devices, and computational modeling, the lab explores viscoelastic behavior, force-induced molecular transitions, and the design of protective coatings for miniaturized devices. A central theme is linking molecular-scale mechanics to macroscopic cellular and material responses.
Professor Seong Su Kim's research lab specializes in the design and synthesis of advanced functional materials, with a primary focus on mesoporous silica and polymer-based nanomaterials. The lab explores supramolecular assembly strategies to create materials with hierarchical structures, exceptional thermal and hydrothermal stability, and tailored porosity for applications in catalysis, adsorption, and separation. A key research direction involves enhancing the piezoelectric and mechanical properties of electrospun and wet-spun polymer fibers, particularly PVDF, through process optimization and novel fabrication techniques such as microwave treatment. The lab also investigates high-strength electrospun nanofibers for structural and functional composite applications.
Professor Beom Jin Lim's research lab focuses on the pathophysiology of kidney and liver fibrosis, with a particular emphasis on molecular mechanisms underlying glomerular diseases such as focal segmental glomerulosclerosis (FSGS) and IgA nephropathy. The lab investigates the role of podocyte injury, inflammatory signaling pathways (e.g., TLR4/MAPK/MCP-1), and metabolic regulators like SGLT2 in renal injury and fibrosis. Additionally, the lab explores the crosstalk between liver cells and hepatic stellate cells in fibrosis, especially through PDGFRα signaling. Recent work also includes the application of artificial intelligence to predict biomarkers like MSI/dMMR in cancer using histopathological features.
Professor Changheui Jang's research lab specializes in advanced materials development with a focus on high-temperature oxidation resistance and functional coatings. The lab investigates high-strength FeCrAl alloys for use in advanced energy systems, particularly under supercritical CO₂ environments, emphasizing oxide scale formation and microstructural evolution. Another key research direction involves electrodeposition of chromium and nickel-based coatings, aiming to enhance their corrosion and wear resistance through fundamental understanding of deposition mechanisms and microstructure control. The lab integrates materials characterization, thermodynamics, and surface engineering to develop durable, high-performance materials for energy and industrial applications.
Professor Kyungtae Kang's research lab specializes in the intersection of nanomaterials, biochemistry, and neurobiology, focusing on how nanoscale topographical cues influence neuronal development and function. The lab investigates the design and application of functional nanomaterials—particularly nanozymes and polydopamine-coated electrodes—for biomedical and biotechnological applications. A central theme is the development of bioorthogonal chemistry tools and stimuli-responsive nanomaterials to probe and manipulate biological systems with high spatiotemporal precision. The lab also explores the intrinsic enzymatic activities of inorganic nanoparticles, aiming to overcome limitations of natural enzymes in therapeutic and diagnostic contexts.
Professor Kwang-Hyeon Chang's research lab specializes in freshwater ecology, with a focus on predator-prey interactions, zooplankton community dynamics, and the ecological and evolutionary responses of aquatic invertebrates to biotic and abiotic factors. The lab investigates how invertebrate predators such as copepods and Leptodora influence zooplankton populations through selective predation and morphological plasticity, particularly in seasonal and eutrophic environments. Key research directions include the mechanisms of anti-predator adaptations, such as cyclomorphosis in Bosmina species, and the role of chemical signaling (e.g., nitric oxide) in regulating physiological and ecological processes in aquatic systems. The lab employs mesocosm experiments, field observations, and laboratory assays to understand ecosystem-level impacts of predation and environmental change.
Professor Myung-Ki Kim's research lab specializes in nanophotonics, plasmonics, and 2D materials, with a focus on designing and fabricating ultra-small, high-performance nanodevices for extreme light confinement, nonlinear optics, and electromagnetic interference (EMI) shielding. The lab pioneers advanced plasmonic nanoantennas with sub-10 nm gaps to achieve unprecedented field enhancement and single-particle detection, while also exploring the unique electromagnetic properties of MXenes—especially Ti₃C₂Tₓ—for applications in nonlinear optics, sensing, and high-frequency EMI shielding. Their work bridges fundamental nanoscale physics with practical device integration, emphasizing solution-processable, ultrathin, and stable materials for next-generation optoelectronic and communication technologies.
Professor Ho-Kyung Kim's research lab specializes in structural dynamics and wind engineering, with a focus on the dynamic performance and serviceability of long-span bridges under environmental loads. The lab investigates vortex-induced vibrations (VIV), buffeting response, and crosswind stability of cable-supported bridges, integrating experimental wind tunnel testing, operational modal analysis, and probabilistic assessment methods. Key research directions include the identification of modal damping ratios from ambient vibration data, the development of advanced vibration mitigation strategies such as multiple tuned mass dampers (MTMD), and the evaluation of vehicle safety under extreme wind conditions. The lab emphasizes practical applications through case studies on real-world bridges, particularly in challenging environments like sea-crossing and high-wind regions.
Professor Jong-Won Oh's research lab focuses on viral molecular biology and host-virus interactions, with a central emphasis on hepatitis C virus (HCV) and coronaviruses. The lab investigates the molecular mechanisms of viral replication, particularly the functions of viral enzymes such as the RNA-dependent RNA polymerase (NS5B) and regulatory proteins like the HCV core and nucleocapsid proteins. A key research direction involves understanding the role of host non-coding RNAs, including miR-122 and tRNA-derived fragments (tRFs), in viral pathogenesis and cellular regulation. The lab also develops novel molecular tools, such as high-affinity RNA aptamers, for viral detection and therapeutic targeting.
Professor Jejoong Yoo's research lab specializes in computational biophysics, focusing on the atomic-scale simulation of biomolecular systems, particularly nucleic acids and their interactions with ions and polycations. The lab develops and refines all-atom molecular dynamics (MD) force fields to accurately model electrostatic and van der Waals interactions, addressing artifacts in simulations of DNA condensation, nucleic acid assemblies, and DNA origami. A central theme is the quantitative characterization of ion atmospheres and the physical mechanisms underlying DNA self-assembly and compaction under physiological conditions.
Professor Jaegeun Noh's research lab specializes in the fundamental understanding of self-assembled monolayers (SAMs) at solid-liquid and solid-vacuum interfaces, with a focus on molecular-scale structure, dynamics, and stability. The lab employs advanced surface characterization techniques such as scanning tunneling microscopy (STM), X-ray photoelectron spectroscopy (XPS), and high-resolution electron energy loss spectroscopy (HREELS) to investigate molecular packing, phase transitions, and interfacial interactions in thiophene, alkanethiol, and disulfide-based SAMs on gold and graphite substrates. Key research directions include the role of molecular interactions—such as cofacial π–π stacking and hydrogen bonding—in determining monolayer organization, as well as the kinetics and thermodynamics of surface reconstruction and desorption processes under various environmental conditions. The lab’s work provides critical insights into the design of functional nanostructures for applications in molecular electronics, sensors, and surface engineering.
Professor Youngnim Choi's research lab focuses on the immunological and molecular mechanisms underlying chronic inflammatory diseases of the oral cavity, particularly periodontitis, Sjögren’s syndrome, and oral lichen planus. The lab investigates the role of immune cell subsets—especially T and B lymphocytes—in driving tissue destruction and autoimmunity, with an emphasis on osteoclastogenesis and epithelial cell transformation. It also explores the impact of microbial dysbiosis in the oral and gut microbiomes on disease pathogenesis, aiming to identify novel diagnostic biomarkers and therapeutic targets for early intervention.
Professor Sangseom Jeong's research lab specializes in geotechnical and pavement engineering, focusing on the behavior of soils and infrastructure under dynamic and environmental loads. Key research directions include landslide mechanisms in partially saturated soils, lateral load response of offshore piles, and the dynamic performance of asphalt pavements under varying traffic conditions. The lab integrates experimental testing, field monitoring, and advanced numerical modeling to develop practical design frameworks for geotechnical systems and flexible pavements.
Professor Seunghoon Lee's research lab specializes in the development and application of advanced quantum chemical methods, particularly focusing on time-dependent density functional theory (TDDFT) and its extensions for challenging electronic structure problems. The lab pioneers innovative approaches such as mixed-reference spin-flip TDDFT (MRSF-TDDFT) to overcome limitations in describing diradicals, conical intersections, doubly excited states, and core-level excitations—key challenges in quantum chemistry. By integrating analytic energy gradients, efficient algorithms for overlap integrals, and nonadiabatic coupling calculations, the lab enables accurate and practical simulations of excited-state dynamics and geometry optimizations. Their work bridges theoretical rigor with computational efficiency, advancing predictive capabilities in quantum chemistry and materials science.
Professor Byoungjin Park's research lab specializes in health and biomedical research, with a primary focus on identifying and validating novel biomarkers for cardiometabolic risk prediction in non-diabetic populations. The lab investigates metabolic, inflammatory, and lipid-related indicators—such as the TyG index, METS-IR, UHR, AIP, and platelet parameters—to understand their longitudinal associations with ischemic heart disease (IHD) and insulin resistance. Using large-scale longitudinal cohort data from Korean national health databases, the lab emphasizes population-level risk assessment and early detection of cardiometabolic diseases. The research integrates clinical epidemiology with metabolic health, aiming to improve preclinical risk stratification and preventive strategies.
Professor Juyeon Jung's research lab specializes in developing advanced biosensing technologies and molecular diagnostics for infectious diseases and regenerative medicine. The lab focuses on innovative applications of CRISPR-based systems, nanomaterials, and immunoassays for rapid, point-of-care detection of pathogens such as SARS-CoV-2 and influenza viruses. Additionally, the lab pioneers molecular authentication methods for medicinal plants and explores safety-enhanced stem cell therapies using genetic suicide systems. Their work bridges synthetic biology, nanotechnology, and biomedical engineering to address global health challenges.
Professor Yu-Jin Kwon's research lab focuses on the intersection of blockchain technology, cryptocurrency economics, and computational security, with a particular emphasis on incentive mechanisms, mining dynamics, and systemic vulnerabilities in distributed ledger systems. The lab investigates critical challenges such as block withholding attacks, selfish mining, fickle mining behavior, and the decentralization paradox in proof-of-work, proof-of-stake, and delegated proof-of-stake consensus models. Additionally, the lab explores the broader implications of these economic and technical dynamics on network fairness, miner behavior, and long-term protocol sustainability. Beyond blockchain, the lab also engages in health-related data science, analyzing large-scale nutritional and clinical cohorts to understand the impact of macronutrients and electrolytes on mortality outcomes.
Professor Yong Wook Kim's research lab focuses on translational and clinical neuroscience, with a strong emphasis on understanding the neural mechanisms underlying consciousness and neuropsychiatric disorders following brain injury. The lab investigates pharmacological responses to treatments such as methylphenidate in patients with impaired consciousness, explores neuroimaging correlates of post-stroke depression, and examines the role of specific brain regions in cognitive and affective sequelae after stroke. Additionally, the lab contributes to the understanding of molecular mechanisms in cancer biology, particularly the regulation of telomerase activity by signaling pathways such as PKC.
Professor Han-Sin Jeong's research lab specializes in translational and molecular oncology, with a focus on the biological mechanisms of cancer progression, particularly lymph node metastasis and tumor angiogenesis. The lab investigates the pathophysiology of rare thyroid malignancies, such as primary squamous cell carcinoma of the thyroid, and explores advanced imaging techniques to evaluate tumor behavior and treatment response. A key research direction involves understanding the limitations of antiangiogenic therapies in lymph node metastases, revealing that sprouting angiogenesis does not drive early metastatic growth, which has critical implications for treatment strategies. The lab also contributes to the development of diagnostic and therapeutic approaches for complex vascular lesions, such as hemangiomas and vascular malformations, through interventional radiology and image-guided interventions.
Professor Nuri Oh's research lab specializes in the design, synthesis, and application of advanced nanomaterials with a focus on colloidal quantum dots, gold nanoparticles, and nanostructured semiconductors. The lab explores fundamental mechanisms of nanoparticle-biological interactions, including macrophage-mediated exocytosis and intracellular trafficking, to enable safer and more effective nanotherapeutics. Key research directions include ligand engineering for enhanced photostability and processability, controlled etching and heteroepitaxial growth of nanocrystals, and the development of stimuli-responsive nanostructures for biomedical and optoelectronic applications. The lab integrates materials chemistry, surface science, and bio-nanotechnology to create functional nanomaterials with tailored optical, electronic, and biological properties.
