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 Se In Sung's research lab specializes in neonatal intensive care, with a primary focus on improving outcomes for extremely preterm and extremely-low-birth-weight infants (ELBWIs). The lab investigates critical aspects of neonatal physiology, including fluid and electrolyte balance, parenteral nutrition strategies, and hemodynamic management such as patent ductus arteriosus (PDA) ligation. Their work emphasizes evidence-based clinical interventions tailored to infants born at the limits of viability, particularly those born at 23–25 weeks' gestation. The lab integrates retrospective clinical data with physiological modeling to identify prognostic factors and optimize early postnatal care.
Professor Kyoung Tai No's research lab specializes in computational and theoretical chemistry, focusing on molecular electronic structure, atomic charge distribution, and intermolecular interactions. The lab develops and applies advanced quantum chemical methods—such as modified partial equalization of orbital electronegativity (PEOE) and polarizable continuum models (PCM)—to study the electronic properties and stability of biomolecular systems, including polypeptides and ionic pairs in solution. Their work also extends to lattice dynamics in microporous materials like zeolites and the quantitative prediction of molecular properties such as polarizability and autoignition temperature through QSPR modeling.
Professor Tae-Eun Park's research lab specializes in developing advanced human microphysiological systems (MPS) and organ-on-a-chip platforms to model human organ barriers, with a focus on the blood-brain barrier and gastric mucosal barrier. The lab integrates induced pluripotent stem cells (iPSCs), primary human cells, and microfluidic technologies to create physiologically relevant in vitro models that recapitulate in vivo barrier functions, cell-cell interactions, and host-microbe dynamics. Their work emphasizes precision drug testing by addressing key limitations of traditional platforms, such as small molecule absorption in PDMS and immature epithelial phenotypes, enabling more accurate preclinical drug screening and disease modeling. The lab's innovative approaches support translational research in neurodegenerative diseases, gastrointestinal infections, and targeted therapeutics.
Professor Chungho Kim's research lab specializes in cellular mechanobiology and signal transduction, with a focus on how mechanical and biochemical signals regulate integrin activation and cell adhesion. The lab investigates the molecular mechanisms underlying inside-out signaling in integrins, particularly the role of transmembrane domain dynamics, membrane environment, and protein interactions such as talin and cytoskeletal adaptors. Using advanced biophysical techniques—including fluorescence spectroscopy, NMR, and reconstituted membrane systems—the lab uncovers how conformational changes in integrins govern cellular responses in hemostasis, thrombosis, and cancer progression. They also explore the emerging roles of proteases like epithin/PRSS14 in modulating receptor tyrosine kinases and angiogenic signaling.
Professor Jaehan Lee's research lab specializes in advanced electrochemical technologies for sustainable water and resource recovery. The lab focuses on developing innovative capacitive and battery-based systems for desalination and lithium ion recovery, emphasizing high selectivity, energy efficiency, and environmental compatibility. Key research directions include rocking-chair capacitive deionization, Prussian blue-based desalination batteries, and electrochemical lithium recovery using advanced electrode materials such as spinel-type LiMn₂O₄ and modified carbon electrodes. The lab integrates materials engineering with electrochemical system design to address global challenges in clean water and critical metal extraction.
Professor Changho Suh's research lab specializes in wireless communication systems, with a focus on interference management, network coding, and efficient resource allocation in modern wireless networks. The lab develops advanced techniques such as interference alignment, repair-efficient MDS codes, and multicarrier multicast strategies to enhance spectral efficiency, reduce latency, and lower repair costs in distributed storage and cellular systems. Their work bridges theoretical limits with practical implementation, particularly in fading and interference-limited environments. They also explore the role of feedback and channel knowledge in improving system capacity and reliability.
Professor Suhyung Cho's research lab specializes in molecular biology and synthetic biology, focusing on the mechanisms of pre-mRNA splicing and the development of advanced genome engineering tools. The lab investigates the roles of splicing factors and RNA-binding proteins in early spliceosome assembly, while also pioneering innovative applications of CRISPR/Cas systems—particularly dCas9—for gene regulation and functional genomics in bacteria. Additionally, the lab develops high-throughput molecular tools such as micro-BACC chips and rRNA depletion methods to enable precise analysis of RNA-protein interactions and transcriptomes.
Professor Yeonyee E. Yoon's research lab specializes in cardiovascular imaging, with a focus on echocardiography, cardiac magnetic resonance (CMR), and artificial intelligence (AI) applications in cardiac function assessment. The lab investigates left atrial mechanics, fibrosis, and remodeling in conditions such as atrial fibrillation, hypertrophic cardiomyopathy, and prediabetes, aiming to improve diagnostic accuracy and patient outcomes through advanced imaging techniques. A key research direction involves leveraging AI to reduce observer variability and enhance reproducibility in echocardiographic measurements.
Professor Thomas Schultz's research lab specializes in ultrafast photodynamics and excited-state processes in isolated molecules, with a focus on fundamental mechanisms of energy dissipation and photoisomerization in biologically relevant systems. The lab combines advanced femtosecond time-resolved spectroscopy—such as pump-probe photoelectron spectroscopy and mass spectrometry—with high-level ab initio quantum chemical calculations to probe ultrafast relaxation pathways in aromatic systems, hydrogen-bonded dimers, and organic radicals. Key research directions include the photostability of DNA base pairs, the role of conical intersections in excited-state deactivation, and the dynamics of electronic transitions in small molecular clusters and radicals.
Professor Yeon Ju Kim's research lab specializes in bioactive natural products and their molecular mechanisms in disease prevention and treatment. The lab investigates phytochemicals from medicinal plants such as lemongrass and ginseng for their anticancer, antioxidant, and cytoprotective properties, with a focus on photoaging and ototoxicity. Using integrative approaches combining in vitro and in vivo models with spectroscopic and *in silico* techniques, the lab explores mechanisms involving autophagy, ion channel function, and cellular stress responses. Their work aims to translate natural compounds into therapeutic agents for cancer, skin aging, and neurotoxicity.
Professor Min-Jung Kwon's research lab specializes in clinical immunology and translational medicine, with a focus on developing innovative flow cytometry-based assays to evaluate natural killer (NK) cell function in patients with liver diseases. The lab investigates immune dysregulation in hepatocellular carcinoma and liver cirrhosis, aiming to improve diagnostic accuracy and patient management through whole blood-based NK cytotoxicity assays. Additionally, the lab explores pharmacogenomic responses, particularly in anticoagulant therapy, as demonstrated by their work on warfarin dosing and plasma concentration correlations in Korean atrial fibrillation patients. Their research bridges laboratory innovation with clinical application, emphasizing personalized medicine and immune monitoring in chronic liver disease and thrombotic disorders.
Professor Kuk Young Cho's research lab specializes in advanced materials for next-generation energy storage systems, with a strong focus on flexible and high-performance lithium-ion and lithium-metal batteries. The lab develops innovative polymer electrolytes, nanostructured anodes (particularly silicon-based), and functional separators using techniques such as nanoimprint lithography, RF magnetron sputtering, and emulsion-based microfabrication. Key research directions include dendrite suppression, structural stability under mechanical deformation, and enhanced ion transport in 3D-structured and flexible battery architectures.
Professor Jihyun Park's research lab specializes in sustainable building design and indoor environmental quality (IEQ), focusing on the integration of biophilic design, energy efficiency, and occupant well-being. The lab investigates the technical and behavioral aspects of building systems, emphasizing post-occupancy evaluation (POE), thermal, acoustic, and visual comfort, and the role of building envelope materials in reducing energy consumption. Key research directions include green building certification systems like EDGE, the optimization of indoor environmental quality through data-driven assessments, and the development of holistic evaluation frameworks that link objective measurements with occupant satisfaction.
Professor Deepak Kukkar's research lab specializes in the development and application of advanced functional materials for environmental sustainability and health safety. The lab focuses on designing novel nanomaterials—particularly metal-organic frameworks (MOFs), graphene-based materials, and biogenic nanoparticles—for the detection, removal, and remediation of environmental pollutants such as pesticides, volatile organic compounds (VOCs), and formaldehyde. A key emphasis is placed on creating low-cost, portable, and highly sensitive sensing platforms for on-site monitoring of hazardous chemicals, alongside exploring green synthesis routes for sustainable nanomaterial production. The lab also investigates bioaerosol sensing, addressing critical gaps in the detection of airborne pathogens and particulates.
Professor Youn Soo Choi's research lab focuses on the immunological mechanisms underlying T follicular helper (Tfh) cell differentiation and function, with a particular emphasis on transcriptional and signaling regulation during early T cell lineage commitment. The lab investigates the roles of cytokines such as IL-6 and transcription factors like Bcl6, STAT1, and Mef2d in shaping Tfh cell fate and their interactions with B cells. Additionally, the lab explores the functions of innate-like B cells, especially B-1 cells, in natural antibody production and mucosal immunity during viral infections. These studies integrate in vivo models, flow cytometry, and molecular genetics to dissect critical checkpoints in humoral immunity and host defense.
Professor Min Ju Kang's research lab focuses on the psychological and developmental impacts of digital technology use within family contexts, particularly examining how parenting behaviors and parental technology habits influence children's and adolescents' emotional, cognitive, and social development. The lab investigates key constructs such as academic helplessness, social withdrawal, smartphone dependency, self-regulation, and cognitive ability, with a strong emphasis on longitudinal and structural equation modeling approaches. Research directions include the mediating and serial mediating roles of behavioral and psychological factors in the pathways linking parenting practices to youth outcomes.
Professor Dae Hun Suh's research lab focuses on the pathophysiology of inflammatory skin disorders, particularly acne and hidradenitis suppurativa, with an emphasis on the roles of chronic inflammation, growth factors like TGF-β1, and extracellular matrix remodeling in scar formation. The lab investigates novel therapeutic approaches, including fractional CO₂ laser and platelet-rich plasma (PRP) therapy, to modulate fibrogenic responses and improve clinical outcomes. Additionally, the lab explores cultural influences on physician empathy through validated psychological assessments, highlighting cross-cultural differences in medical education and patient care. Their work bridges dermatology, molecular biology, and clinical practice with a strong translational focus.
Professor Sugie Lee's research lab specializes in urban sustainability, focusing on the interplay between urban form, built environments, and social well-being in metropolitan areas. The lab investigates smart growth policies, inner-ring suburban dynamics, pedestrian mobility, urban heat island effects, and the socio-spatial impacts of the sharing economy using mixed-methods approaches combining GIS, space syntax, structural equation modeling, and survey data. A central theme is enhancing urban resilience and equity through evidence-based planning and policy design.
Professor Jiseok Lee's research lab specializes in the development of advanced polydiacetylene (PDA)-based chemosensors for rapid, selective, and sensitive detection of hazardous ions and chemicals, including potassium, mercury, organophosphate nerve agents, melamine, and cyanide. The lab focuses on designing functional PDA nanostructures—such as liposomes, microparticles, and nanoplates—engineered with molecular recognition elements like aptamers, G-quadruplexes, and oxime groups to enable dual-mode (colorimetric and fluorescent) signaling. By integrating these PDA systems into stable, concentrated microenvironments such as alginate microparticles, the lab enhances sensitivity, stability, and practical applicability for real-world environmental and biomedical monitoring.
Professor Yong Bin Lim's research lab specializes in atmospheric chemistry, with a focus on the formation mechanisms and environmental impacts of secondary organic aerosols (SOA). The lab investigates how molecular structure of hydrocarbons and water-soluble organic compounds influences SOA yields and volatility through gas-phase and aqueous-phase reactions, particularly under atmospheric conditions involving OH radicals, NOx, and water. Key research directions include identifying reaction pathways in cloud and aerosol waters, characterizing complex SOA products such as nitrates and cyclic hemiacetals, and developing kinetic models for use in air quality and climate models. The lab combines advanced analytical techniques like thermal desorption particle beam mass spectrometry with environmental chamber experiments to probe real-time SOA formation and volatility.
