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 Chan-Wook Park's research lab specializes in perinatal inflammation and its implications in preterm birth, focusing on the role of inflammatory biomarkers such as matrix metalloproteinase-8 (MMP-8) in amniotic fluid. The lab investigates the pathogenesis of intra-amniotic inflammation, funisitis, and chorioamnionitis, particularly in preterm pregnancies with intact membranes or preterm prelabor rupture of membranes. Using bedside diagnostic tools like the MMP-8 PTD Check, the lab aims to improve early detection and risk stratification of fetal and maternal inflammatory responses. Their work bridges clinical obstetrics with molecular diagnostics to identify surrogate markers for intrauterine inflammation and adverse outcomes.
Professor Yon Ho Choe's research lab focuses on the intersection of gastrointestinal health, iron metabolism, and neurobiological mechanisms underlying chronic diseases. Key research directions include the role of *Helicobacter pylori* infection in iron-deficiency anemia and growth retardation in children, the neurotrophic regulation of dopaminergic pathways in stress and reward processing, and the management of pediatric inflammatory bowel disease with biologic therapies. The lab also investigates molecular mechanisms such as lactoferrin sequestration in gastric mucosa and the translational efficacy of biosimilars in pediatric IBD.
Professor Chul Geun Kim's research lab focuses on molecular and cellular mechanisms underlying gene regulation, particularly in hematopoietic and cancer-related contexts. The lab investigates transcriptional control elements such as locus control regions (LCRs) and tissue-specific transcription factors in globin gene expression, with a strong emphasis on erythroid development and gene regulation. Additionally, the lab explores the role of signaling pathways—especially the MAPK/ERK pathway—in non-small cell lung cancer (NSCLC), including the development of targeted therapies and biomarkers for MEK1/2 inhibitors. The lab also examines the role of alternative splicing and tumor suppressor genes, such as periostin, in bladder cancer progression and metastasis. Overall, the research integrates molecular biology, stem cell biology, and cancer genetics to uncover regulatory mechanisms in development and disease.
Professor Yong Eun Cho's research lab focuses on molecular mechanisms underlying neurodegenerative diseases, particularly in the context of HIV infection, and explores the pathophysiological roles of oxidative stress and cell death signaling. The lab also investigates the potential of circulating microRNAs in exosomes as non-invasive biomarkers for drug-induced organ injuries, including liver, kidney, and muscle toxicity. Additionally, the lab examines calcium-independent signaling pathways in vascular smooth muscle, particularly the role of ZIPK in hypertension-related vascular dysfunction. These interdisciplinary efforts bridge neuroscience, molecular diagnostics, and translational medicine.
Professor Seoung Bum Kim's research lab specializes in advanced data analytics and machine learning applications in health sciences, chemistry, and pharmaceutical innovation. The lab focuses on developing statistical and computational methods for feature selection, multivariate process monitoring, and intelligent molecular design. Key research directions include the integration of nonparametric statistical techniques like the bootstrap with multivariate control charts, the application of association rule mining and network analysis to traditional medical texts, and the use of deep generative models—particularly generative adversarial networks with reinforcement learning—for de novo drug design. The lab also works on grounding heuristic methods like the Mahalanobis-Taguchi System in rigorous statistical theory to enhance their reliability and interpretability.
Professor Wan Soo Yun's research lab specializes in the design, fabrication, and application of advanced nanomaterials for next-generation electronic and biomedical devices. The lab focuses on nanoscale ferroelectrics, conductive and biocompatible hydrogels for neural interfaces, and plasmonic or catalytic nanostructures using precise nanofabrication techniques. Key research directions include the development of ultrathin nanowires, patterned 2D nanomaterials like RGO nanorings, and supramolecular hydrogels that enable high-sensitivity, stable neural recording with minimal tissue response.
Professor Eun Kyoung Seo's research lab specializes in natural product chemistry and neuropharmacology, focusing on the isolation, structural elucidation, and biological evaluation of bioactive compounds from medicinal plants. The lab investigates the neuroprotective and anticancer properties of natural molecules, particularly resveratrol derivatives, xanthones, and phenylbutenoids, with an emphasis on their mechanisms in treating neurodegenerative diseases and cancer. The research also integrates advanced analytical techniques such as NMR, FT-IR, and bioassay-guided fractionation to bridge natural product discovery with therapeutic applications.
Professor Byung-Kwon Min's research lab specializes in advanced manufacturing systems, focusing on the integration of real-time machine tool simulation with virtual manufacturing environments to enhance precision and efficiency in factory planning. The lab develops intelligent electro-mechanical systems, particularly for precision machining, by combining structural design with active control strategies—such as piezoelectric actuation and real-time vibration compensation. A key research direction involves the co-design of mechanical components and controllers to optimize performance in high-accuracy manufacturing processes. The lab also explores adaptive tool control systems that mitigate geometric errors and dynamic disturbances during machining.
Professor Kyoung-Jin Shin's research lab specializes in mitochondrial DNA (mtDNA) analysis, focusing on molecular genetics, forensic DNA profiling, and population genetics. The lab develops advanced molecular techniques for accurate mtDNA haplogrouping, heteroplasmy detection, and sequence nomenclature standardization, with applications in forensic science, medical genetics, and population studies. Key research directions include optimizing bisulfite conversion for epigenetic analysis, improving mtDNA sequencing accuracy, and investigating tissue-specific mtDNA distribution and heteroplasmy. The lab also creates user-friendly bioinformatics tools, such as mtDNAprofiler, to streamline mtDNA data interpretation and comparison.
Professor Sadia Ilyas's research lab specializes in sustainable metallurgical processes, focusing on the bio-recovery of critical metals—such as lithium, cobalt, nickel, rare earth elements, and precious metals—from electronic waste and mine tailings. The lab pioneers green bio-hydrometallurgical techniques using microbial systems, including fungi and bacteria, to produce organic and inorganic acids for efficient metal leaching, while exploring low-cost substrates like biowaste and agricultural residues. A key research direction involves hybrid bio-chemical processes to overcome kinetic limitations and enhance scalability for industrial applications.
Professor Zee Hwan Kim's research lab specializes in ultrafast optical spectroscopy and nanoscale optical imaging, focusing on the interaction of light with plasmonic nanostructures and reactive molecules at the single-molecule and single-particle level. The lab investigates surface-enhanced Raman scattering (SERS), plasmonics, and vibrational dynamics in gas-phase reactions using advanced techniques such as resonance-enhanced multiphoton ionization and apertureless near-field scanning optical microscopy (ANSOM). Key research directions include the spatial and vectorial characterization of enhanced optical near-fields, the role of molecular orientation and electronic resonances in SERS, and the dynamics of elementary chemical reactions like CH₄ + Cl•. The lab combines experimental innovation with theoretical modeling to probe light-matter interactions at nanometer scales.
Professor So Mi Jemma Cho's research lab focuses on cardiovascular disease prevention, with a strong emphasis on dyslipidemia, polygenic risk scores, and individualized risk prediction. The lab investigates how genetic, clinical, sociodemographic, and lifestyle factors interact to influence coronary artery disease (CAD) risk and recurrence, particularly in diverse populations. Using large-scale clinical data and health system-based studies, the lab aims to improve risk stratification and precision prevention strategies. Their work spans from basic genetic associations to real-world implementation of risk models in clinical settings.
Professor Tamer Abuhmed's research lab specializes in cybersecurity, artificial intelligence, and optimization algorithms with a focus on developing intelligent systems for network security, medical diagnostics, and wireless sensor networks. The lab explores advanced techniques such as deep packet inspection, remote code attestation in resource-constrained environments, and AI-driven early detection of neurodegenerative diseases using medical imaging. A key research direction involves enhancing metaheuristic optimization algorithms—like the Velocity-Aided Grey Wolf Optimizer—to improve performance in complex, real-world applications. The lab integrates computational intelligence and secure systems to address critical challenges in healthcare and network infrastructure.
Professor Hyungsuk Kim's research lab focuses on translational and molecular mechanisms underlying musculoskeletal disorders, particularly degenerative spinal conditions and chronic pain. The lab investigates spinal deformity correction, especially sagittal decompensation and lumbosacral fixation, alongside the molecular transcriptomic transitions from acute to chronic low back pain. Additional research explores the pathophysiology of diabetic nephropathy and the therapeutic potential of natural compounds like garlic phytocompounds in cancer. The lab integrates clinical outcomes with molecular biology and bioinformatics to identify novel therapeutic targets and biomarkers.
Professor Seungwon Choi's research lab specializes in advanced signal processing, intelligent control systems, and biomedical materials characterization. The lab focuses on developing innovative beamforming techniques for wireless communications, model predictive control with online learning for autonomous vehicles, and high-precision LiDAR-based motion estimation. Additionally, the lab investigates the structural and mechanical degradation of biological materials—particularly human hair—under chemical treatments using advanced microscopy and nanomechanical mapping.
Professor Jeong Gon Son's research lab specializes in advanced nanofabrication and functional nanomaterials, focusing on block copolymer self-assembly for high-resolution patterning, graphene-based nanoelectronics, and stretchable energy storage devices. The lab develops innovative templating and alignment strategies—such as solvent annealing and surface reconstruction—enabling precise control over sub-10 nm structures and complex nanoarchitectures. Key research directions include the integration of 2D materials like graphene into functional devices and the design of all-component stretchable batteries using hierarchical, mechanically robust nanostructures.
Professor Seok Jun Moon's research lab focuses on the molecular and cellular mechanisms underlying sensory perception, particularly taste, mechanosensation, and hearing in *Drosophila melanogaster*. The lab investigates how sensory neurons detect and integrate chemical and mechanical stimuli through ion channels, G protein-coupled receptors, and signaling pathways such as PLC and TRP channels. A central theme is the role of membrane phosphoinositides and ciliary trafficking in sensory transduction, with key contributions to understanding the function of proteins like dINPP5E, dTULP, and GRs in sensory organ development and function. The lab also explores translational applications in neuroprosthetics and bio-inspired control systems, including semiactive vibration control in civil structures.
Professor Cherl-Ho Lee's research lab specializes in food science and technology, with a focus on the physicochemical properties and processing of traditional Korean fermented foods, particularly takju (Korean rice wine) and rice-based products. The lab investigates texture, rheology, thermal stability, and microbial safety to optimize fermentation processes and enhance product quality. Key research directions include understanding the effects of processing parameters—such as water usage, calcium addition, and thermal treatment—on texture, viscosity, and sensory attributes in food systems.
Professor Dasol Lee's research lab specializes in nanophotonics and metamaterials, focusing on the design and application of metasurfaces for advanced optical imaging and sensing. The lab pioneers innovations in functional optical elements such as metalenses, hyperlenses, and broadband absorbers, enabling sub-diffraction-limited imaging, super-resolution microscopy, and enhanced chiral sensing. Key research directions include tunable and all-dielectric metasurfaces, wafer-scale fabrication techniques, and integration of machine learning for intelligent optical systems. The lab bridges fundamental nanophotonics with real-world applications in life sciences and optical technology.
Professor Byung Jin Kim's research lab focuses on the pathophysiology of metabolic and ocular diseases, with a primary emphasis on the role of zinc signaling in pancreatic beta-cell death and retinal ischemia/reperfusion injury. The lab investigates cellular stress pathways, particularly the JNK signaling cascade, in neurodegenerative conditions such as retinal ganglion cell degeneration. Additionally, the lab explores the metabolic consequences of lifestyle factors, including smoking cessation and alcohol consumption, in relation to metabolic syndrome and non-alcoholic fatty liver disease (NAFLD). These studies integrate molecular biology, in vivo models, and clinical epidemiology to identify novel therapeutic targets.
