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 Won-Ki Cho's research lab focuses on the dynamic organization of transcription machinery in living mammalian cells, with a central emphasis on how phase-separated condensates and protein clustering regulate gene expression. The lab employs cutting-edge live-cell super-resolution imaging and CRISPR-based genome editing to study the spatiotemporal dynamics of RNA polymerases (Pol I, Pol II) and regulatory proteins like CTCF and BRD4. By integrating quantitative image analysis tools such as qSR, the lab uncovers how transient, multivalent interactions drive the formation of functional transcriptional hubs and their coupling to chromatin architecture. Their work reveals fundamental principles of genome regulation through the lens of biomolecular condensation and cellular organization.
Professor Koung Mi Kang's research lab specializes in clinical and quantitative MRI applications, focusing on advanced diffusion and perfusion imaging techniques to improve the diagnosis and characterization of neurological and abdominal tumors. The lab investigates the role of IVIM, DWI, ASL, and contrast-enhanced MRI in differentiating tumor types, assessing malignancy, and understanding cerebrovascular and neurodegenerative pathologies. Their work also explores the impact of MRI contrast agents on tissue relaxation times and the association between cerebrovascular disease and neurodegenerative disorders such as Alzheimer’s disease.
Professor Wonsuk Ko's research lab specializes in computational materials science, focusing on the development of accurate interatomic potentials and the atomistic simulation of phase transformations in functional materials. Key research directions include shape-memory alloys—particularly NiTi and TiFe-based systems—where the lab investigates martensitic transformations, nanoscale effects, and alloying effects on thermodynamic and kinetic properties. The lab employs first-principles calculations and machine learning-inspired force-matching methods to design transferable potentials that accurately describe complex bonding environments, including covalent, metallic, and van der Waals interactions. These simulations provide fundamental insights into the behavior of materials under extreme conditions, supporting the design of advanced materials for micro- and nanoscale applications.
Professor Kyung Nam Kim's research lab specializes in biomaterials and biomedical engineering, with a focus on developing corrosion-resistant and biocompatible materials for ophthalmic and orthodontic applications. The lab investigates the electrochemical behavior, cytotoxicity, and long-term stability of metal alloys—particularly titanium-silver and super stainless steels—under physiological conditions. Additionally, the lab explores the health impacts of environmental exposures, such as air pollutants and endocrine-disrupting chemicals like bisphenol A, on metabolic and respiratory health, especially in aging populations. The research integrates materials science with clinical and environmental health outcomes to advance medical device safety and public health interventions.
Professor Jingook Kim's research lab specializes in electromagnetic modeling and design optimization for high-speed electronic systems, with a focus on power distribution networks (PDN), signal integrity, and electromagnetic compatibility in multilayer printed circuit boards and integrated packaging. The lab develops advanced analytical and equivalent circuit models to understand and mitigate noise coupling, via inductance, and signal distortion caused by power/ground plane discontinuities. Key research directions include wireless power transfer via electric-field coupling, impedance matching techniques, and accurate target impedance definitions for cost-effective PDN design in consumer electronics.
Professor Eul-Sik Yoon's research lab specializes in regenerative medicine and tissue engineering, with a focus on stem cell therapy and biomaterials for bone and soft tissue regeneration. The lab investigates the therapeutic potential of adipose-derived stem cells (ADSCs) and stromal vascular fraction (SVF) in critical-sized bone defects, utilizing biodegradable scaffolds such as PLGA and demineralized bone matrix. Additionally, the lab explores advanced imaging techniques—particularly high-resolution ultrasonography—for diagnosing and monitoring peripheral nerve disorders like carpal tunnel syndrome, and applies these insights to improve surgical outcomes. The integration of cell-based therapies with innovative biomaterials and clinical imaging underscores the lab’s translational approach to aesthetic and reconstructive surgery.
Professor Doosun Kang's research lab specializes in the application of advanced modeling, optimization, and machine learning techniques to improve the efficiency, sustainability, and resilience of water infrastructure systems. The lab focuses on integrated water resources management, water distribution system modeling, real-time monitoring, and the optimization of complex urban water networks. Key research directions include demand and parameter estimation, district metered area (DMA) formation, uncertainty quantification, and the development of data-driven decision support systems for water management.
Professor Hee-ju Kim's research lab specializes in developing advanced immunoassay technologies and investigating immune mechanisms underlying inflammatory skin diseases. The lab focuses on engineering novel antibody-derived reagents, such as VHH nanobodies, for sensitive detection of small molecules like environmental toxins, while also exploring the neuroimmunological basis of chronic itch in conditions like dermatomyositis and atopic dermatitis. Using cutting-edge techniques including phage display, real-time PCR-based immunoassays, and functional neuroimaging, the lab bridges molecular diagnostics with translational immunology. Their work aims to improve diagnostic sensitivity and uncover therapeutic targets for inflammatory and pruritic skin disorders.
Professor Young Jae Jang's research lab specializes in intelligent transportation systems with a focus on wireless power transfer technologies for electric vehicles, particularly the On-Line Electric Vehicle (OLEV) system developed at KAIST. The lab investigates dynamic and quasi-dynamic wireless charging infrastructure, system integration, and operational efficiency in public transit applications such as electric buses. Research also extends to sensor-based motion analysis in sports, including IMU placement for performance evaluation in skiing. The lab emphasizes sustainable, green mass transit solutions with strong engineering and systems-level optimization.
Professor Dong Jin Joo's research lab specializes in translational immunology and regenerative medicine, with a focus on liver and kidney transplantation outcomes, T cell biology in the liver, and innovative cell-based therapies for cancer. The lab investigates immune cell heterogeneity in the liver microenvironment, particularly innate-like T cells, and explores novel treatments for transplant rejection, including rATG therapy and engineered neural stem cells for glioblastoma. They also examine endogenous protective factors such as bilirubin in transplant survival, integrating multi-omics approaches like CITE-seq and TCR-seq with clinical outcomes.
Professor Seung Ah Lee's research lab specializes in the development of compact, low-cost, and portable imaging systems for biomedical and environmental applications. The lab focuses on integrating microfluidics, computational optics, and smartphone-based imaging to enable high-resolution, on-chip microscopy and 3D microfabrication. Key research directions include lensless and Fourier ptychographic microscopy, optofluidic lithography, and human-biology interaction platforms that merge microscopy with interactive technologies for education and diagnostics.
Professor Byung Jun Kim's research lab specializes in biomedical engineering and advanced materials science, focusing on innovative medical devices, tissue engineering, and surgical oncology. The lab develops microfluidic physiometers for real-time blood analysis, explores novel pitch materials for electrospinning and regenerative medicine, and investigates surgical techniques for soft tissue reconstruction and sarcoma treatment. Research spans from fundamental material synthesis to clinical applications in facial rejuvenation and oncological surgery.
Professor Sung-Bum Pyun's research lab specializes in neurological rehabilitation and neuroimaging, focusing on stroke recovery, language impairments, and respiratory function following stroke. The lab investigates neuromodulation techniques such as repetitive transcranial magnetic stimulation (rTMS) combined with action observation, respiratory muscle training, and advanced imaging methods like diffusion tensor imaging (DTI) to understand brain-behavior relationships. A key focus is on developing AI-driven tools—such as deep learning models for automated analysis of videofluoroscopic swallowing studies—to improve diagnostic efficiency and treatment personalization.
Professor Myeong-Chul Kim's research lab specializes in advanced electronic design automation (EDA), with a primary focus on global and detailed placement algorithms for integrated circuit design. The lab develops innovative, scalable, and timing- and routability-aware placement frameworks that integrate real-time congestion prediction, adaptive density modeling, and efficient optimization techniques. Key research directions include incremental timing-driven placement, routability-driven placement using lookahead routing, and primal-dual optimization for high-performance placement with minimal runtime overhead.
Professor Jong-Young Kim's research lab specializes in the synthesis and characterization of advanced functional materials, with a focus on actinide-based metal-organic frameworks, layered chalcogenides, and nanomaterials for energy and electronic applications. The lab explores the structural, thermal, and electronic properties of these materials, particularly their behavior under exfoliation and restacking processes, aiming to tailor their performance for next-generation technologies. Additionally, the lab investigates the sociocultural dimensions of transnational higher education, particularly the experiences of international students in global academic systems.
Professor Jeong-woo Park's research lab focuses on molecular mechanisms underlying human diseases, with a strong emphasis on cancer biology, genomic instability, and neurodevelopmental regulation. The lab investigates retrotransposon-driven mutagenesis in aging and disease, particularly long interspersed nuclear element-1 (L1) activity in colorectal epithelium, and explores the role of transcription factors like PAX6 and NF-κB in development and carcinogenesis. Additionally, the lab examines the therapeutic potential of natural compounds such as curcumin and the pathophysiology of lipid oxidation in food and biological systems. These interdisciplinary efforts integrate genomics, molecular biology, and translational research to uncover novel disease mechanisms and therapeutic targets.
Professor Geun Hee Seol's research lab specializes in the therapeutic applications of essential oils and bioactive terpenes, focusing on their anti-inflammatory, antioxidant, and anxiolytic effects. The lab investigates how compounds like linalool, 1,8-cineole, eucalyptol, and neroli oil modulate physiological responses in conditions such as carpal tunnel syndrome, post-surgical recovery, nicotine-induced hypertension, and menopausal symptoms. Using clinical trials and animal models, the lab explores mechanisms involving oxidative stress, cytokine regulation, and neuroendocrine modulation. Their work bridges natural product pharmacology with clinical outcomes in pain management and stress-related disorders.
Professor Cheol-Min Joo's research lab specializes in the development of advanced optical imaging techniques and functional nanomaterials for biomedical and materials science applications. The lab focuses on innovative microscopy platforms—such as smartphone-based, multi-contrast, and quantitative phase imaging systems—enabling high-resolution, label-free, and point-of-care diagnostics. Additionally, the lab pioneers scalable synthesis methods for semiconducting nanomaterials, particularly copper-based chalcogenides, with precise control over size, shape, and crystallinity for optoelectronic and sensing applications. Their work bridges nanotechnology, photonics, and biomedicine to create compact, cost-effective, and clinically relevant imaging and materials solutions.
Professor Sung-Koo Kang's research lab specializes in computational fluid dynamics and environmental hydraulics, focusing on turbulent flow modeling in natural and engineered aquatic systems. The lab employs advanced numerical methods such as large-eddy simulation (LES) and immersed boundary methods to investigate complex three-dimensional flow structures, including wake meandering, secondary flows, and vortex dynamics around hydraulic structures like turbines, spur dikes, and meandering channels. Their work emphasizes accurate near-wall modeling and turbulence closure for realistic simulations of open channel and riverine flows under natural flow conditions. The lab bridges fundamental fluid dynamics with practical applications in hydrokinetic energy, river restoration, and floodplain management.
Professor Ki-hwan Han's research lab focuses on molecular mechanisms underlying renal function and development, with a central emphasis on transcriptional regulation, ion and gas transport, and nitric oxide signaling in the kidney. The lab investigates key transcription factors such as TonEBP and their roles in osmotic stress response and urinary concentrating ability, as well as the function and regulation of Rh glycoproteins in ammonia transport and acid-base homeostasis. Additional research explores the developmental expression of endothelial nitric oxide synthase (eNOS) and its role in renal vascular development. The lab integrates molecular biology, immunohistochemistry, and gene expression analysis to understand physiological and pathological processes in the kidney and lung.
