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 Hyuk-Jin Lee's research lab specializes in the design and development of advanced nanomaterials for targeted drug delivery and biomedical diagnostics. The lab focuses on engineering lipid nanoparticles, polymer-based micelles, and hydrogel biosensors for precise delivery of therapeutic agents—such as RNA, CRISPR-Cas9 components, and chemotherapeutics—specifically to liver cells and cancer cells. Key research directions include stimuli-responsive nanocarriers, bioconjugation strategies for hydrophilic polymers like hyaluronic acid, and the application of nanomaterials in gene editing and cancer theranostics. The lab integrates materials science, biochemistry, and molecular biology to create innovative platforms for treating challenging diseases like hemophilia and cancer.
Professor Kwang Ho Lee's research lab specializes in biomedical engineering and tissue engineering, with a focus on developing advanced biomaterials and microfluidic systems for regenerative medicine and disease modeling. The lab pioneers the fabrication of cell-laden, biocompatible microfibers—such as alginate and chitosan-based hollow fibers—for vascular and liver tissue engineering applications. By integrating microfluidic technologies with nanofiber scaffolds, the lab creates dynamic, biomimetic microenvironments to study cellular behavior and tissue function. Additionally, the lab contributes to clinical diagnostics through innovative medical imaging techniques, particularly in cerebrovascular disease assessment.
Professor Choongsik Bae's research lab specializes in advanced internal combustion engine technologies, focusing on combustion optimization, emission reduction, and alternative fuel strategies. The lab investigates innovative injection techniques—such as water and dual-fuel direct injection—aimed at improving engine efficiency and mitigating knock under high-compression conditions. Research also emphasizes fundamental studies on fuel-air mixing, ignition delay, and combustion characteristics under HCCI-like and low-temperature combustion regimes. The lab combines experimental analysis with advanced diagnostics, including in-cylinder pressure measurements and spray imaging, to develop cleaner and more efficient engine systems.
Professor Jeonghee Shin's research lab specializes in thyroid imaging and diagnostic radiology, with a primary focus on advancing ultrasonography (US)-based diagnosis, risk stratification, and personalized management of thyroid nodules. The lab investigates the integration of artificial intelligence, particularly deep learning models like convolutional neural networks (CNNs), to improve the accuracy of thyroid nodule classification and reduce diagnostic variability. Research also emphasizes optimizing fine-needle aspiration (FNA) and molecular testing (e.g., BRAF(V600E) mutation analysis) in conjunction with US features to refine preoperative diagnosis and guide surgical decisions. The lab conducts multicenter validation studies to ensure clinical applicability and reliability of AI tools in real-world settings.
Professor Inkyung Jung's research lab specializes in computational and systems biology, focusing on the integration of multi-omics data and advanced statistical methods to understand complex biological and medical phenomena. The lab investigates host immune responses in infectious diseases such as COVID-19 and tuberculosis using single-cell genomics and spatial epidemiology, while also developing novel bioinformatics tools for analyzing non-traditional data types like ordinal, multinomial, and chromatin interaction data. A key focus is applying machine learning and deep learning to medical imaging and genomic data to improve disease detection and biomarker discovery.
Professor Seungchul Lee's research lab specializes in the intersection of artificial intelligence, materials science, and biomedical engineering. The lab focuses on developing advanced machine learning and deep learning techniques for predictive maintenance in industrial systems, phase prediction in high-entropy alloys, and intelligent diagnostics for coronary heart disease. Additionally, the lab explores innovative imaging technologies, such as deep learning-enhanced superresolution microscopy and fluorescent molecular rotors for viscosity sensing in biological environments. These efforts reflect a strong emphasis on data-driven solutions for real-world challenges in health, manufacturing, and materials design.
Professor Seungchul Lee's research lab specializes in the application of artificial intelligence and machine learning to solve complex problems in engineering and biomedical sciences. The lab focuses on vibration-based condition monitoring for industrial machinery, phase prediction in high-entropy alloys using deep learning, and intelligent diagnostics for coronary heart disease and laryngeal cancer through voice signal analysis. Additionally, the lab explores fluorescent molecular rotors as viscosity sensors for biological and microfluidic applications, emphasizing molecular design and sensing mechanisms. These interdisciplinary efforts highlight a strong emphasis on data-driven innovation and intelligent system development across materials science, healthcare, and industrial maintenance.
Professor Jae Hoon Lim's research lab specializes in the development of high-performance, solution-processed quantum dot-based optoelectronic devices, with a primary focus on quantum dot light-emitting diodes (QLEDs) for next-generation displays and solid-state lighting. The lab pioneers advanced materials design—particularly core/shell heterostructured InP and CdSe-based quantum dots—with precise control over composition, morphology, and surface chemistry to achieve high efficiency, brightness, and stability under electrical and environmental stress. Key research directions include interface engineering for enhanced charge injection and balanced transport, structural optimization for suppressed Auger non-radiative recombination, and scalable printing techniques for full-color displays. The lab also emphasizes environmentally benign, heavy-metal-free QDs to enable sustainable and practical applications.
Professor Jin-Young Park's research lab focuses on translational biomedical research, particularly in neurodegenerative diseases such as Alzheimer’s disease, where the lab investigates the gut microbiota and extracellular vesicles as potential biomarkers and therapeutic targets. The lab also explores regenerative and rehabilitative strategies in neurological and orthopedic conditions, including stroke recovery through mirror therapy and rotator cuff repair using advanced arthroscopic techniques. Additionally, the lab is engaged in digital health innovation, developing AI-driven chatbots for perinatal care using text-mining and usability testing. These diverse research directions reflect a strong emphasis on integrating molecular biology, clinical applications, and health technology.
Professor Hyun Jin Park's research lab specializes in biomedical imaging, radiomics, and advanced drug delivery systems. The lab focuses on developing innovative imaging techniques—such as probabilistic atlases, parametric PET/MRI, and radiomics signatures—to improve cancer diagnosis and treatment planning, particularly in breast and prostate cancers. Additionally, the lab designs smart nanocarrier systems, including chitosan-coated nanoparticles and multilayer alginate beads, for targeted and sustained drug delivery to enhance therapeutic efficacy. These interdisciplinary efforts bridge medical imaging, computational modeling, and nanomedicine to advance precision oncology and neurodevelopmental disorder research.
Professor Joungho Kim's research lab specializes in advanced electromagnetic modeling and simulation for high-frequency electronic systems, with a strong focus on power integrity, electromagnetic compatibility (EMC), and wireless power transfer. The lab develops scalable, physics-based models for critical components such as through-silicon vias (TSVs), power distribution networks, and magnetically coupled coils, enabling reliable design in 3D integrated circuits and electric vehicle charging systems. Key research directions include noise analysis in 3D ICs, optimization of wireless power transfer systems for efficiency and EMI suppression, and the development of innovative shielding and cancellation techniques. The lab combines analytical modeling with high-fidelity simulation tools to address real-world challenges in next-generation electronic packaging and power delivery systems.
Professor Sung Gap Im's research lab specializes in advanced thin-film deposition technologies, particularly chemical vapor deposition (CVD) methods such as initiated CVD (iCVD) and oxidative CVD (oCVD), for the development of functional polymers and nanostructured materials. The lab focuses on creating high-performance materials for optoelectronics, energy devices, and surface engineering, with an emphasis on conformal coatings, electrical conductivity control, and environmental stability. Key research directions include the synthesis of high-refractive-index polymers, conductive PEDOT films, and robust superhydrophobic coatings through vapor-phase processes.
Professor Jaewoo Kim's research lab focuses on molecular mechanisms underlying adipogenesis and metabolic regulation, with a central emphasis on transcription factors such as C/EBPβ, SREBP1c, and KLF8 in adipocyte differentiation and insulin sensitivity. The lab investigates post-translational modifications—including phosphorylation and redox regulation—of key transcriptional regulators during the mitotic clonal expansion phase of adipogenesis. Additionally, the lab explores the role of adipokines like adiponectin in metabolic homeostasis and the pathophysiology of obesity-related insulin resistance. Recent work also extends to hematological biomarkers in acute pancreatitis, reflecting a translational interest in clinical metabolic and inflammatory disorders.
Professor Sang-min Yang's research lab focuses on psychological resilience, burnout, and organizational dynamics, with an emphasis on understanding the factors that influence mental health and well-being in educational, clinical, and organizational settings. The lab conducts large-scale meta-analyses and empirical studies to explore the roles of social support, parental practices, and organizational ambidexterity in shaping individual outcomes such as student burnout, counselor well-being, and firm resilience. Key research directions include the development of psychometric tools (e.g., Counselor Burnout Inventory), the application of dynamic capability theory to supply chain management, and the identification of protective and risk factors in psychological adjustment. The lab integrates psychological, educational, and strategic management perspectives to advance evidence-based interventions and organizational practices.
Professor Jeong-Min Baek's research lab specializes in advanced energy conversion and nanoscale sensing technologies, with a primary focus on triboelectric nanogenerators (TENGs) for sustainable power harvesting. The lab develops novel materials and device architectures—such as hydrophobic sponge structures, mesoporous films with Au nanoparticles, and polyimide-based functional polymers—to enhance energy output and environmental stability. Additionally, the lab pioneers highly sensitive nanoscale sensors, including hydrogen sensors based on Pd-decorated vanadium dioxide nanowires, for applications in environmental monitoring and healthcare. Their work bridges materials science, nanotechnology, and energy sustainability through innovative design and fundamental understanding of interfacial charge transfer.
Professor Hye Ran Lee's research lab specializes in the development of advanced fluorescent probes for biomedical imaging, with a focus on near-infrared (NIR) pH-activatable dyes for targeting acidic tumor microenvironments such as lysosomes and endosomes. The lab also investigates centromeric satellite DNA organization and epigenetic regulation in plant genomes, particularly in rice and wild Oryza species, using chromatin immunoprecipitation and molecular cloning techniques. A key research direction involves designing water-soluble, highly fluorescent heptamethine cyanine dyes with robust chemical stability for bioconjugation and in vivo imaging applications. The lab integrates synthetic chemistry, molecular biology, and fluorescence spectroscopy to advance tools for cancer diagnostics and functional genomics.
Professor Jeong Min Kim's research lab focuses on biomedical imaging and vascular disease mechanisms, particularly using high-resolution vessel wall MRI to assess intracranial atherosclerosis and predict stroke recurrence. The lab also explores electrochromic devices for smart window applications, emphasizing scalable, flexible manufacturing using solution-processed conducting polymers. Additionally, the lab investigates the long-term health impacts of early-life socioeconomic factors, including their association with limb length, dementia, and cerebrovascular disease. These interdisciplinary efforts bridge medical imaging, neuroscience, and materials science to advance preventive and personalized medicine.
Professor Mi-Jin Yoon's research lab specializes in molecular imaging and cancer biology, focusing on the application of PET tracers such as 18F-FDG and 11C-acetate to understand tumor metabolism and improve cancer diagnosis and therapy. The lab investigates the mechanisms of cancer cell death, particularly paraptosis and ER stress-induced cell death, and explores natural compounds like celastrol, monensin, and salinomycin as potential anticancer agents. A key research direction involves identifying metabolic vulnerabilities in cancer cells—such as acetate-dependent lipid synthesis in low-glycolysis phenotypes—that can be targeted for precision therapy.
Professor Nam-Jong Paik's research lab specializes in neurorehabilitation engineering, focusing on developing innovative, technology-driven solutions for stroke recovery. The lab explores noninvasive brain stimulation, virtual reality (VR), and mobile-based telerehabilitation systems to enhance motor and language recovery in stroke patients. Key research directions include the design and validation of low-cost, accessible rehabilitation tools using consumer-grade sensors (e.g., Kinect) and mobile devices, with an emphasis on improving patient engagement and accessibility in home-based and community settings. The lab also investigates fall risk factors post-stroke to support safer recovery outcomes.
Professor Namchun Bae's research lab focuses on molecular and genetic mechanisms underlying plant development and stress responses in rice, with a particular emphasis on transcriptional regulation, senescence, and abiotic stress tolerance. The lab investigates key transcription factors—such as WRKY, NAC, and WOX families—and hormone signaling pathways (e.g., jasmonic acid and abscisic acid) to understand their roles in leaf morphogenesis, senescence, and drought adaptation. Using forward and reverse genetics, including CRISPR/Cas9 genome editing, the lab uncovers gene functions and regulatory networks that contribute to crop resilience and yield improvement.
