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 Soo-Young Yoon's research lab focuses on clinical and translational studies in nephrology and internal medicine, with a strong emphasis on acute and chronic kidney disease, particularly in the context of aging, diabetes, and pandemic-related health challenges. The lab investigates novel biomarkers for early detection of kidney injury, explores the pathophysiology of myelodysplastic syndromes and chronic myeloproliferative disorders, and examines metabolic influences—such as fasting blood glucose—on patient outcomes in hemodialysis populations. The research integrates epidemiological data with clinical biomarker analysis to improve diagnosis, prognosis, and management strategies in renal and metabolic diseases.
Professor Ji-Won Kim's research lab focuses on translational oncology and molecular gastroenterology, with a primary emphasis on identifying biomarkers and genetic alterations that influence clinical outcomes in gastrointestinal cancers, particularly gastric cancer. The lab investigates the roles of key signaling molecules such as VEGF-A, TGF-β1, and PIK3CA mutations in tumor progression and treatment response, as well as the impact of immune and metabolic pathways on cancer-related conditions like sarcopenia and obesity. Additionally, the lab explores predictive biomarkers for chemotherapy response and survival outcomes in metastatic and advanced-stage cancers.
Professor Seng Chan You's research lab focuses on cardiovascular and metabolic health, with a strong emphasis on real-world evidence generation using large-scale health data. The lab investigates the impact of antiplatelet therapy in acute coronary syndrome, the interplay between liver fibrosis and cardiovascular risk factors, and the use of imaging modalities like transient elastography (TE) and coronary artery calcium (CAC) scoring to identify high-risk populations. A key direction involves integrating national health data into international research frameworks, such as the OHDSI network, to enhance the applicability of medical evidence in Asian populations.
Professor Mohammad Hassan Baig's research lab specializes in computational and structural biology, focusing on computer-aided drug design (CADD) to identify novel therapeutic agents for neurodegenerative diseases, muscle disorders, and antibiotic-resistant infections. The lab employs advanced in silico techniques such as molecular dynamics simulations, virtual screening, and structure-based drug design to investigate molecular targets like amyloid-beta, myostatin, and β-lactamases. A key focus is on developing peptide-based inhibitors and natural compound therapeutics to modulate disease-related pathways, particularly in Alzheimer’s disease, muscle atrophy, and drug resistance mechanisms. The lab also explores the role of advanced glycation end products (AGEs) in diabetic myopathy and their amelioration by bioactive compounds like curcumin and gingerol.
Professor Chul-Won Ha's research lab specializes in regenerative medicine, with a primary focus on articular cartilage repair using stem cell-based therapies. The lab investigates the chondrogenic potential of allogeneic human umbilical cord blood-derived mesenchymal stem cells (hUCB-MSCs), particularly when combined with hyaluronic acid hydrogel scaffolds for enhanced cartilage regeneration. Their work spans preclinical studies in large animal models to clinical translation, including phase I/II trials for osteoarthritis patients with severe cartilage defects. The lab also explores gene-engineered cell therapies using growth factors like TGF-β to promote endogenous cartilage repair.
Professor Eun Jeong Yoo's research lab specializes in the development of transition metal-catalyzed C–H functionalization and multicomponent reactions, with a strong focus on palladium- and copper-catalyzed transformations. The lab pioneers innovative methodologies for the selective synthesis of nitrogen-containing heterocycles, carbonyl compounds, and sulfonamide derivatives through C–H activation, carbonylation, and cycloaddition strategies. Key research directions include the design of mild, selective, and atom-economical reactions using in situ generated intermediates such as O-benzoyl hydroxylamines, ketenimines, and triazolyl-copper species. The work integrates experimental and computational studies to elucidate reaction mechanisms and guide the development of new disconnections in synthetic organic chemistry.
Professor Yuseob Kim's research lab specializes in evolutionary genetics and population genomics, focusing on the population genetic consequences of natural selection, particularly selective sweeps and genetic hitchhiking. The lab investigates how directional selection, background selection, and interference among beneficial alleles shape patterns of genetic variation, using a combination of analytical modeling, forward simulations, and population genetic data analysis. Key research directions include the detection of selection signatures from DNA polymorphism data, the dynamics of linked neutral variation under selection, and the evolutionary impact of recombination and clonal interference in asexual and sexual populations.
Professor Jae Hyup Lee's research lab specializes in biomedical materials and spinal regeneration, focusing on developing advanced biomaterials for orthopedic and spinal applications. The lab investigates bioactive ceramics, such as whitlockite and hydroxyapatite coatings, to enhance osseointegration and improve the performance of spinal implants. Key research directions include the development of 3D-printed scaffolds with controlled architecture and bioactive factors like rhBMP-2 and mesenchymal stem cells to promote bone regeneration. The lab also explores innovative coating techniques—such as cold-spray deposition—to enhance the biocompatibility of implant materials like PEEK without compromising their mechanical integrity.
Professor Jee Hyun Lee's research lab specializes in the intersection of design education, virtual reality (VR), and cognitive processes in creative design. The lab investigates how immersive digital environments—particularly VR—enhance creativity, cognitive engagement, and collaborative idea generation in fashion and design education. Key research directions include the development of VR-based instructional models, the analysis of cognitive actions during design sketching, and the facilitation of integrated, interdisciplinary design studios. The lab emphasizes experiential and reflective learning through technology-mediated design processes.
Professor Eun-Chel Cho's research lab specializes in advanced photovoltaic materials and devices, with a focus on silicon-based nanostructures for next-generation solar energy conversion. The lab explores quantum dots, quantum wells, and heterojunction architectures to enhance light absorption and charge carrier extraction in thin-film and tandem solar cells. Key research directions include engineering wide-bandgap silicon-based materials, optimizing interface and defect control, and developing lightweight, high-efficiency photovoltaics for transportation and building-integrated applications. The lab combines advanced thin-film deposition techniques with comprehensive device simulation and characterization to push the limits of solar cell efficiency and reliability.
Professor Byong-Guk Park's research lab specializes in spintronics, focusing on spin-orbit torque phenomena, spin Hall effects, and spin-based logic and memory devices in semiconductor and magnetic heterostructures. The lab explores fundamental spintronic mechanisms such as charge-to-spin conversion, interfacial spin currents, and spin pumping to enable energy-efficient, high-speed nanoelectronic devices. Recent work emphasizes the design of all-semiconductor spintronic transistors, magnetic tunnel junctions with tailored interfaces, and spin thermopiles for energy harvesting. The lab bridges quantum materials physics with practical device applications, particularly in next-generation computing and spin-based electronics.
Professor Sung-Bae Cho's research lab specializes in intelligent systems and machine learning, with a strong focus on deep learning, hybrid AI models, and real-world applications in energy management, fault diagnosis, and human-centered computing. The lab develops advanced neural network architectures—such as ensemble methods, autoencoders, and continuous hidden Markov models—to address complex, time-series, and high-dimensional data problems. Key research directions include automated feature learning, human-in-the-loop systems using interactive genetic algorithms, and domain adaptation for industrial applications like P2P lending and rotating machinery fault diagnosis.
Professor Chang-Keun Song's research lab specializes in atmospheric aerosol modeling, satellite remote sensing, and air quality simulation with a focus on East Asia and the continental United States. The lab develops advanced algorithms for retrieving aerosol optical depth and particulate matter concentrations from geostationary and polar-orbiting satellite instruments, integrating multi-sensor data with chemical transport models. Key research directions include improving air quality forecasting through downscaling of global chemistry models and investigating the formation and impacts of secondary organic aerosols. The lab also emphasizes the application of satellite-derived aerosol data to assess public health risks and support environmental policy.
Professor Min Seok Jang's research lab specializes in nanophotonics, metamaterials, and 2D materials, focusing on the design and application of advanced optical and photonic devices. The lab explores tunable plasmonic resonators, metasurfaces for dynamic wavefront shaping, and novel perovskite materials for next-generation optoelectronics and photovoltaics. A key theme is the integration of materials with unique electronic and optical properties—such as graphene and gold-based perovskites—into efficient, scalable photonic devices.
Professor Chi Ryang Chung's research lab focuses on improving critical care outcomes through the integration of clinical biomarkers, machine learning, and psychological assessment in intensive care settings. The lab investigates predictive biomarkers such as procalcitonin and C-reactive protein for sepsis prognosis, explores machine learning models for early delirium detection using electronic health records, and examines cognitive and psychological sequelae in ICU survivors. A central theme is the development of data-driven tools to enhance early diagnosis, intervention, and long-term recovery in critically ill patients.
Professor Yeonhee Choi's research lab focuses on epigenetic regulation in *Arabidopsis thaliana*, with a central emphasis on DNA methylation, demethylation, and their roles in plant development, particularly during gametogenesis, embryogenesis, and flowering time control. The lab investigates key epigenetic enzymes such as DEMETER (DME), a DNA glycosylase involved in active DNA demethylation, and their impact on genomic imprinting, transposon silencing, and seed viability. Using molecular, genetic, and epigenomic approaches, the lab explores how dynamic DNA methylation changes—especially CHH methylation and maintenance of FLC chromatin states—contribute to developmental reprogramming and genome stability across the plant life cycle. Their work bridges epigenetic mechanisms with fundamental developmental processes in flowering plants.
Professor Sukchan Lee's research lab specializes in plant virology and molecular plant pathology, focusing on the interactions between plant viruses and their hosts, particularly geminiviruses such as beet curly top virus (BCTV) and tomato yellow leaf curl virus (TYLCV). The lab investigates viral replication, symptom development, host range variation, and the cellular and molecular mechanisms underlying viral pathogenesis, including phloem disruption and callus-like tissue formation. Recent work also extends into the intersection of virology and neurotoxicology, exploring the role of environmental metals like aluminum in chemotherapy-induced neuropathy. The lab employs integrative approaches combining virology, molecular biology, bioinformatics, and machine learning to decode viral genomes and predict disease symptoms.
Professor Soyoung Park's research lab focuses on interdisciplinary health and environmental epidemiology, with a strong emphasis on occupational health, environmental toxicology, and the impact of lifestyle and work-related factors on chronic diseases. The lab investigates the associations between shift work, long working hours, and health outcomes such as reflux esophagitis and liver enzyme abnormalities, particularly in specific populations like hepatitis B carriers. It also explores biomarkers of exposure to environmental toxins—such as phthalates in firefighters—using longitudinal and cross-sectional study designs. Additionally, the lab contributes to computer systems research by examining performance trade-offs in GPU memory protection and persistent memory file systems, highlighting the intersection of health sciences and computing technology.
Professor Kyung-A Lee's research lab specializes in translational biomedical research, focusing on the molecular and genetic mechanisms underlying inflammatory diseases, hematological disorders, and cancer. The lab investigates biomarkers such as the delta neutrophil index and genetic polymorphisms (e.g., GSTM1/GSTT1, LTA) for improved diagnosis and prognosis prediction in conditions like sepsis, aplastic anemia, and migraine. It also explores molecular profiling in triple-negative breast cancer to identify predictive markers for targeted therapy response, emphasizing precision medicine approaches in Asian populations. The lab integrates molecular diagnostics, real-time PCR, and genetic analysis to bridge laboratory findings with clinical applications.
Professor Hyungil Jung's research lab specializes in the development of advanced micro- and nanofabrication techniques for biomedical applications, with a focus on point-of-care diagnostics, drug delivery systems, and organ-on-a-chip platforms. The lab pioneers innovative methods such as drawing lithography, centrifugal lithography, and paper-based microsystems to enable low-cost, user-friendly, and highly integrated diagnostic and therapeutic devices. Key research directions include the design of dissolving microneedles for transdermal drug delivery, functionalized microfluidic chips for modeling cancer metastasis, and biomolecule-immobilized surfaces for high-performance biosensors. The lab emphasizes the integration of materials science, microengineering, and life sciences to create next-generation medical technologies with real-world clinical impact.
