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 Insang Yang's research lab specializes in advanced spectroscopic techniques, particularly polarized Raman and electronic Raman scattering, to investigate the electronic and lattice dynamics in quantum materials. The lab focuses on transition metal oxides, superconductors, and functional oxides, exploring phenomena such as superconducting gaps, spin-wave excitations, and electron correlation effects. Key research directions include the temperature-dependent behavior of phonons and electronic modes, symmetry analysis of vibrational modes, and the role of electron localization in suppressing superconductivity. The lab also applies Raman spectroscopy to practical problems, such as quality assessment in olive oil, demonstrating the versatility of vibrational spectroscopy in both fundamental and applied sciences.
Professor Ja Hyun Jang's research lab specializes in clinical molecular genetics, focusing on the molecular diagnosis and variant interpretation of monogenic disorders. The lab investigates disease-causing variants in genes associated with conditions such as neurofibromatosis type 1, congenital adrenal hyperplasia, and Marfan syndrome, with particular emphasis on splicing variants and structural mutations. Utilizing advanced molecular techniques—including in silico splicing prediction, MLPA, and Sanger sequencing—the lab contributes to refining variant classification and improving diagnostic accuracy in diverse genetic disorders.
Professor Hee Chul Shin's research spans biomedical engineering and clinical oncology, with a focus on molecular diagnostics, hereditary cancer syndromes, and the biological behavior of aggressive breast cancers. His lab investigates germline mutations in Korean breast cancer patients using next-generation sequencing, explores receptor status discordance between primary tumors and metastases, and examines rare presentations such as leukemic infiltration of the breast. The lab emphasizes translational research that bridges genetic profiling with clinical decision-making to improve patient outcomes in breast cancer.
Professor An Hye-jin's research lab specializes in parasitology and infectious disease immunology, with a primary focus on Toxoplasma gondii and Neospora caninum, two apicomplexan parasites affecting both humans and animals. The lab investigates host-parasite interactions at the molecular level, particularly the role of parasitic dense granule proteins (GRAs) in pathogenesis and immune evasion. Key research directions include identifying parasite protein interactions with host cellular machinery, developing serological diagnostic tools using recombinant antigens, and exploring the epidemiological and clinical implications of parasitic infections in human and veterinary populations. The lab also examines the broader impact of chronic infections on mental and systemic health, as seen in studies linking parasitic and inflammatory skin conditions with depression.
Professor Jae Jin Cho's research lab specializes in biomedical engineering and translational science, focusing on the development of advanced materials and technologies for regenerative medicine and clinical diagnostics. The lab investigates stem cell behavior on novel metallic biomaterials—particularly 3D-printed cobalt-chrome and nickel-chrome alloys—aiming to improve dental implant biocompatibility and osseointegration. Additionally, the lab explores machine learning applications in speech recognition and emotion detection, integrating acoustic and linguistic features through deep learning models such as LSTMs and CNNs. A significant research thrust involves understanding the role of innate immune receptors, such as Toll-like receptors, in cancer progression and tissue regeneration.
Professor Young Ho Lee's research lab specializes in orthopedic surgery and soft tissue reconstruction, with a focus on innovative fixation techniques for forearm fractures using interlocking intramedullary nails and the clinical application of distally based adipofascial flaps for foot and ankle reconstruction. The lab also explores molecular mechanisms in plant biology, particularly lipoxygenase activity during soybean seed germination, and contributes to writing education research through the analysis of genre, authorship, and creativity in historical and pedagogical writing. These diverse research directions reflect a strong commitment to clinical innovation, tissue engineering, and educational methodology.
Professor In Gul Kim's research lab specializes in regenerative medicine and biomaterials engineering, focusing on developing advanced tissue-engineered constructs for complex organ repair. The lab pioneers innovative strategies using stem cells, decellularized extracellular matrix (ECM), and bioactive hydrogels to enhance regeneration in critical organs such as the trachea, esophagus, heart, and erectile tissues. Key research directions include designing patient-specific, biocompatible scaffolds with optimal mechanical and biological properties, and combining these with stem cell therapies and growth factor delivery systems to improve tissue integration and functional recovery. The lab emphasizes translational approaches, using preclinical animal models to validate regenerative therapies for clinical applications.
Professor Inhyuk Nam's research lab specializes in high-energy-density physics, focusing on the behavior of matter under extreme conditions of pressure and temperature. The lab employs advanced x-ray diagnostics, such as x-ray diffraction and Thomson scattering, to study phase transitions, structural dynamics, and chemical reactions in materials like transition metals, planetary constituents, and hydrocarbons. Key research directions include laser-driven shock compression, inertial confinement fusion, and the dynamics of dense plasmas, with strong integration of first-principles simulations and cutting-edge experimental platforms like X-ray free-electron lasers. The lab also explores novel particle acceleration schemes using laser-plasma interactions, aiming to enhance electron beam quality and energy gain for applications in science and technology.
Professor Cheol-Woo Kim's research lab focuses on the molecular and cellular mechanisms governing T cell differentiation, function, and aging, with a particular emphasis on transcription factors (e.g., TCF1), microRNAs (e.g., miR-181a, miR-21), and T cell receptor repertoire diversity in immunity and vaccinology. The lab investigates how these regulators shape T cell responses in chronic infections, cancer, and aging, while also exploring novel nanomaterials—such as conductive PEDOT nanofibers—for applications in bioelectronics and energy conversion. Recent work bridges immunology and materials science, aiming to enhance vaccine efficacy and develop next-generation immunotherapies.
Professor Hwajung Yoo's research lab specializes in dermatological interventions using advanced energy-based technologies, focusing on the development and evaluation of non-invasive and minimally invasive treatments for skin conditions. The lab investigates microwave and light-based therapies—such as short-pulsed intense pulsed light and laser systems—for inflammatory and vascular disorders like rosacea and axillary hyperhidrosis. It also explores the immunological mechanisms underlying chronic skin diseases, including atopic dermatitis and the role of cytokines such as IL-33 and TSLP. Additionally, the lab examines the safety and efficacy of injectable biodegradable polymers, like poly(L-lactic acid), in skin rejuvenation and regenerative dermatology.
Professor Young Bin Joo's research lab specializes in autoimmune and inflammatory diseases, with a strong focus on systemic lupus erythematosus (SLE) and axial spondyloarthritis (AS). The lab investigates genetic, environmental, and virological factors influencing disease onset, disease activity, and long-term outcomes such as organ damage and mortality. Using large-scale national health databases and advanced genetic analyses, the lab explores the interplay between host genetics, viral triggers, and immune dysregulation in autoimmune conditions.
Professor Hong Sang Moon's research lab specializes in urological biomaterials and medical device innovation, focusing on improving patient outcomes through advanced drug delivery systems and minimally invasive technologies. Key research directions include the development of smart urinary stents and indwelling catheters with sustained local anesthetic release to alleviate bladder discomfort, as well as investigating the clinical associations between lower urinary tract symptoms, overactive bladder, fibromyalgia, and fall risk in aging populations. The lab integrates biomedical engineering with clinical urology to design patient-centered solutions for chronic urological conditions.
Professor Min Joo-Hong's research lab specializes in computational mathematics and applied numerical analysis, with a focus on developing and analyzing numerical methods for partial differential equations, particularly on complex and irregular domains. The lab investigates interface and boundary treatment techniques in PDEs, including the Ghost Fluid Method for Poisson and diffusion-type problems, and explores their applications in multiphase and Stefan-type problems. Additionally, the lab engages in experimental and computational studies of nonlinear dynamical systems, exemplified by their work on the Malkus–Lorenz waterwheel, where they combine image processing with bifurcation analysis to study chaotic behavior. The lab also emphasizes pedagogical innovation in numerical linear algebra, particularly in simplifying the understanding of advanced algorithms like the QR method for eigenvalue computation.
Professor Ha Ryong Kim's research lab specializes in nanotoxicology and pulmonary disease mechanisms, focusing on the genotoxic and apoptotic effects of nanomaterials—particularly silver nanoparticles and guanidine-based oligomers—on human lung cells. The lab investigates oxidative stress, DNA damage, and p53-mediated apoptosis in airway epithelial cells, aiming to elucidate the molecular pathways underlying chemical-induced lung fibrosis. Using advanced techniques such as confocal microscopy and 'omics' technologies, the lab explores the cellular and molecular mechanisms of toxicity from environmental and industrial chemicals, including PHMG-p, a disinfectant linked to severe pulmonary disease.
Professor Hee-joong Kim's research lab focuses on regenerative medicine and interventional therapeutics, with a strong emphasis on stem cell therapy using human mesenchymal stem cells (hMSCs) for treating incurable diseases. The lab investigates the biological characteristics and therapeutic potential of hMSCs, particularly in tissue repair and regeneration, while also exploring endoscopic and surgical interventions for complex conditions such as bile duct tumors, renal cell carcinoma metastasis, and valvular heart disease. The research integrates clinical, radiological, and pathological analyses to improve outcomes in cardiovascular and oncological interventions.
Professor Rena Lee's research lab specializes in advanced medical imaging and radiation therapy optimization, focusing on improving image-guided radiotherapy, respiratory motion management, and image reconstruction techniques. The lab investigates innovative image fusion methods—such as CT-3D ultrasound and CT-MR fusion—for accurate target localization and treatment planning. It also explores radiation-free patient setup technologies, including 3D optical surface imaging, and develops advanced reconstruction algorithms using tensor framelet regularization for low-dose CT imaging. The lab integrates statistical process control and quality assurance frameworks to enhance treatment delivery accuracy and safety across various cancer sites.
Professor Chang Suk Oh's research lab specializes in clinical and applied anatomy, with a strong emphasis on improving medical education through innovative teaching methods. The lab focuses on cross-sectional and neuroanatomy using tactile, hands-on techniques such as clay modeling, dynamic medical imaging, and digital dissection reports to enhance student understanding. Research also extends to detailed anatomical studies of clinically relevant structures, including the ganglion impar, intermalleolar ligament, and anterior interosseous nerve, with implications for pain management and surgical treatment of conditions like umbilical hernia. The integration of radiological imaging (CT/MRI) with physical modeling and digital tools underscores the lab’s commitment to advancing both anatomical education and clinical anatomy research.
Professor Doory Kim's research lab specializes in advanced super-resolution fluorescence microscopy and correlative imaging techniques, focusing on nanoscale visualization of biomolecular structures and dynamic cellular processes. The lab develops innovative imaging protocols that integrate stochastic optical reconstruction microscopy (STORM) with electron microscopy and single-molecule spectroscopy to study cellular ultrastructure, protein dynamics, and molecular mechanisms at the nanometer scale. Key research directions include the development of correlative super-resolution and electron microscopy methods, understanding molecular reaction pathways through single-molecule spectroscopy, and applying deep learning to enhance super-resolution image analysis. The lab's work bridges biophysics, cell biology, and materials science, with applications in cancer therapeutics, platelet biology, and functional nanomaterials.
Professor Jee-Soo Lee's research lab focuses on advancing biomedical technologies for disease diagnosis, prognosis, and management, with a strong emphasis on liquid biopsy applications in oncology and infectious diseases. The lab investigates circulating biomarkers—such as circulating tumor DNA and proteins—using cutting-edge molecular and proteomic technologies to enable early detection, real-time monitoring, and personalized treatment strategies. Research also extends to understanding disease dynamics in conditions like pancreatic ductal adenocarcinoma and COVID-19, leveraging genomics and proteomics to identify prognostic markers. Additionally, the lab contributes to the development of next-generation materials for energy storage, particularly in gel polymer electrolytes for lithium-ion batteries.
Professor Chang-Ho Son's research lab specializes in developing innovative molecular and imaging technologies to decode biological systems at high spatial and molecular resolution. The lab focuses on advancing spatial transcriptomics, single-molecule detection in thick tissues, and 3D organoid analysis using cutting-edge chemical labeling, dynamic nanotechnology, and computational image analysis. Key research directions include the creation of robust, scalable methods for whole-tissue phenotyping—such as eFLASH for uniform labeling and SCOUT for multiscale organoid analysis—enabling systems-level understanding of development and disease.
