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 Ki-Yong Oh's research lab specializes in the development of advanced monitoring systems and physics-informed modeling for sustainable energy systems and battery safety. The lab focuses on structural health monitoring of wind turbine components, offshore wind foundation design considering soil-structure interaction, and predictive modeling of thermal runaway in lithium-ion batteries using multiphysics-informed neural networks. Key research directions include real-time condition monitoring, failure detection in renewable energy infrastructure, and the integration of physical laws with data-driven algorithms for improved accuracy and reliability.
Professor Jeonggyu Lee's research lab specializes in advanced electronic materials and devices, with a primary focus on resistive random-access memory (RRAM) systems based on titanium oxide (TiOx) and related oxides. The lab investigates fundamental mechanisms of resistive switching, current conduction, and low-frequency noise phenomena, particularly in amorphous and atomic-layer-deposited oxide structures. Key research directions include trap dynamics, oxygen ion migration, and the electrical behavior of nanoscale resistive devices for next-generation non-volatile memory applications. The lab also explores innovative 3D localization algorithms and gas-sensing technologies based on metal-oxide materials.
Professor Jeong Hyun Park's research lab specializes in regenerative medicine and molecular oncology, with a focus on developing novel therapeutic agents for cancer and degenerative diseases. The lab investigates epigenetic modulators, such as synthetic HDAC inhibitors, to target cancer cell proliferation and apoptosis, while also exploring stem cell-derived conditioned media and growth factors to promote tissue regeneration, particularly in hair loss and cardiac hypertrophy. A key emphasis is placed on understanding paracrine signaling mechanisms and optimizing regenerative therapies using mesenchymal stem cells and bioactive molecules.
Professor Jun Heo's research lab specializes in advanced 3D sensing, indoor spatial modeling, and remote sensing technologies, with a strong focus on automated data processing and geometric modeling using laser scanning and imaging data. The lab develops innovative methods for tunnel and building interior modeling from terrestrial laser scanner (TLS) data, emphasizing accuracy, efficiency, and integration with Building Information Modeling (BIM). It also conducts cutting-edge research in radiometric normalization of multitemporal images and atmospheric correction for hyperspectral remote sensing, aiming to enhance data reliability for environmental monitoring and change detection. The lab’s work bridges the gap between sensor technology, data processing, and practical applications in civil infrastructure, energy efficiency, and environmental science.
Professor Ilho Park's research lab focuses on the molecular mechanisms underlying chronic rhinosinusitis (CRS) and tissue remodeling, with a particular emphasis on fibroblast activation, extracellular matrix regulation, and epigenetic modulation. The lab investigates key pathways involving TGF-β1, histone deacetylases (HDACs), heat shock protein 47 (HSP47), and metformin in driving fibrosis and inflammation in nasal tissues. Current research also explores the impact of environmental factors such as cigarette smoke and the potential therapeutic roles of agents like antihistamines and ginsenosides in modulating inflammatory and fibrotic responses.
Professor Young Sik Lee's research lab focuses on molecular and systems biology, with a central emphasis on non-coding RNA regulation, host-microbe interactions, and neurobehavioral disorders. The lab investigates the roles of small non-coding RNAs—particularly endo-siRNAs and miRNAs—in gene regulation, stress response, and metabolic homeostasis, using Drosophila as a key model system. Additionally, the lab explores the neurobiological mechanisms underlying behavioral phenotypes such as internet gaming disorder and the psychopathological aspects of 'Sudden Withdrawal Yelling' (SWY), integrating behavioral neuroscience with translational approaches. The work bridges fundamental mechanisms in RNA biology with clinical and physiological implications in mental health and metabolic disease.
Professor Yoo-kyung Kim's research lab specializes in interdisciplinary materials science and biomedical engineering, focusing on the development of advanced nanomaterials for energy and health applications. The lab investigates the biological toxicity of dietary supplements like glucosamine on pancreatic beta cells and explores protective mechanisms of incretin hormones such as GLP-1. It also conducts cutting-edge research on hierarchical nanostructures, including carbon nanotube-polymer composites for high-performance energy and electronic devices. Additionally, the lab contributes to cybersecurity research, particularly in machine learning-based detection of mobile malware and the analysis of state-sponsored cyber operations.
Professor Sanghoo Park's research lab specializes in atmospheric-pressure plasma physics and diagnostics, with a focus on weakly ionized plasmas and their applications in medicine, agriculture, and environmental technology. The lab investigates fundamental plasma phenomena such as electron-neutral bremsstrahlung, electric wind mechanisms, and nitrogen fixation through plasma-treated water, emphasizing accurate diagnostics of electron density and temperature. A key research direction involves developing non-thermal plasma methods for selective production of ozone and nitrogen oxides, enabling applications in health and industry without thermal degradation. The lab combines experimental techniques like Schlieren photography and emission spectroscopy with theoretical modeling to explore plasma kinetics and energy transfer in highly collisional environments.
Professor Yeu Chun Kim's research lab specializes in the design and development of smart biomaterials and nanotheranostic agents for targeted cancer therapy and metabolic disease management. The lab focuses on exploiting subcellular organelles—particularly mitochondria and the endoplasmic reticulum—as therapeutic targets to induce immunogenic cell death or apoptosis through stimuli-responsive mechanisms. Key research directions include the development of mitochondria-targeting photosensitizers, fluorinated helical polypeptides, and glucose-responsive nanogels for precise drug delivery and controlled release.
Professor Hye-Jin Lee's research lab focuses on biomedical and biotechnological applications of microfluidic systems and synthetic biology, with an emphasis on developing advanced diagnostic platforms for genetic and metabolic disorders. The lab investigates the detection of nucleic acids using surface plasmon resonance imaging and designs microbial cell factories for the sustainable production of bioactive flavonoids. Additionally, the lab explores environmental and endocrine disruptors' impact on metabolic health, particularly insulin resistance and obesity in reproductive-aged women. These interdisciplinary efforts integrate nanofabrication, metabolic engineering, and clinical epidemiology to address public health challenges.
Professor Byung Jae Lee's research lab focuses on the immunological and molecular mechanisms underlying chronic inflammatory diseases, particularly atopic dermatitis, chronic cough, and severe asthma. The lab investigates the role of bacterial factors—such as Staphylococcus aureus-derived extracellular vesicles and α-hemolysin—in skin and airway inflammation, as well as the pathogenesis of severe, non-eosinophilic asthma involving IFN-γ-driven emphysema. A central theme is the identification of key mediators like fibroblast growth factor 2 (FGF2) and their potential as therapeutic targets. The lab also explores cough hypersensitivity and drug-induced severe cutaneous reactions to improve diagnostic and treatment strategies in primary and referral care settings.
Professor Suk Hyung Kim's research lab focuses on understanding the molecular and cellular mechanisms underlying developmental biology, ion channel function, and metabolic regulation, with a strong emphasis on zebrafish as a model organism. Key research directions include the roles of TRP channels in sensory transduction, prostaglandin signaling in gastrulation and morphogenesis, autophagy in metabolic inflammation and diabetes, and the exocyst complex in ciliogenesis and organ development. The lab integrates genetics, cell biology, and high-throughput phenotyping to dissect conserved biological pathways with implications for human disease.
Professor Sungbin Lim's research lab specializes in stochastic processes and statistical physics, with a focus on anomalous diffusion, fractional Brownian motion, and generalized Gaussian processes. The lab investigates the mathematical foundations of non-Markovian dynamics, including self-similarity, long-range dependence, and local stationarity, using tools such as zeta regularization and Lamperti transformations. Recent work also extends into data-driven methods in machine learning, particularly efficient neural architecture search via density-matching-based auto-augmentation. The lab bridges theoretical probability with applications in statistical mechanics and signal modeling.
Professor Yunseon Choi's research lab focuses on palliative and end-of-life care, particularly advancing hospice and palliative care integration in clinical practice and public health systems. The lab investigates patient and family caregiver (FC) quality of life, with an emphasis on emotional distress, coping mechanisms, and psychosocial factors. It also explores public awareness and health system engagement related to advance care planning and chronic disease management, especially in the context of metabolic syndrome and adolescent mental health. The lab combines clinical, epidemiological, and health services research to improve holistic, family-centered care models.
Professor Kim Heon Seok's research lab specializes in functional genomics and genome engineering, with a focus on developing and applying CRISPR-based technologies to dissect gene function, model human diseases, and identify therapeutic targets. The lab pioneers innovative screening platforms—ranging from pooled and arrayed CRISPR screens to in vivo imaging probes—enabling high-resolution dissection of cellular responses to drugs, viruses, and immune challenges. A central theme is the functional characterization of genetic variants, particularly those of uncertain significance, using precision genome editing and high-throughput sequencing. The lab also explores novel mechanisms of DNA repair and cellular transport to uncover new biological insights and therapeutic opportunities.
Professor Yong Sung Park's research lab specializes in interdisciplinary studies at the intersection of biomedical engineering, materials science, and environmental fluid dynamics. The lab focuses on developing innovative medical interventions such as endoscopic biliary stone removal techniques and DNA vaccines targeting bacterial pathogens like Bacillus anthracis. It also investigates the rheological behavior of complex fluids, particularly soft yield-stress materials like Carbopol and muddy seabeds, using advanced experimental and analytical methods. Additionally, the lab explores fungal pathogenesis and metal homeostasis in pathogenic fungi such as Aspergillus fumigatus, contributing to antifungal drug discovery and host-pathogen interaction understanding.
Professor Namhun Kim's research lab specializes in advanced manufacturing technologies, with a strong focus on additive manufacturing (3D/4D printing), smart materials integration, and intelligent process optimization. The lab explores innovative applications of shape memory polymers in multistable 4D-printed structures and develops decision-support systems for multi-objective scheduling in AM networks. It also investigates intelligent control strategies for multi-phase electric machines and quantifies manufacturing complexity in mixed-model assembly systems using information-theoretic approaches. The lab bridges materials science, manufacturing systems, and data-driven process control to enhance product quality, design freedom, and system efficiency.
Professor Yong Hwy Kim's research lab specializes in neurosurgical oncology and minimally invasive neurosurgical techniques, with a primary focus on skull base tumors, trigeminal neuralgia, and metastatic brain tumors. The lab investigates advanced treatment strategies such as endoscopic endonasal surgery, stereotactic radiosurgery (including Gamma Knife), and multimodal therapies to optimize both tumor control and patients’ quality of life. Research also emphasizes prognostic factors, long-term outcomes, and individualized treatment planning for rare and challenging intracranial neoplasms.
Professor Yoonkyung Kim's research lab focuses on infectious diseases in pediatric populations, with a strong emphasis on antimicrobial resistance, viral pathogenesis, and the impact of public health interventions on childhood infections. The lab investigates the molecular epidemiology of multidrug-resistant bacteria such as ESBL-producing E. coli and K. pneumoniae, as well as respiratory viruses like hMPV and RSV, using molecular diagnostics and phylogenetic analysis. Additionally, the lab explores host stress responses in disease pathogenesis, including the role of heat shock proteins in cardiac injury. The integration of clinical microbiology with public health surveillance enables a comprehensive understanding of infectious disease trends in children, especially under pandemic conditions.
Professor Kyeong-sik Jin's research lab specializes in advanced X-ray scattering techniques, particularly small-angle X-ray scattering (SAXS) and grazing incidence SAXS (GISAXS), to investigate the structural dynamics of soft materials, biomolecules, and nanostructured thin films under physiologically or processing-relevant conditions. The lab focuses on understanding the pH-dependent structural transitions in biological systems such as ferritin, i-motif DNA, and SMC condensin complexes, as well as the in-situ evolution of nanoporous structures during thin film fabrication. Their work bridges fundamental structural biology with materials science, enabling real-time, quantitative analysis of nano- and mesoscale architectures in solution and on surfaces.
