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 Kyung-Seok Hu's research lab specializes in clinical and surgical anatomy, with a focus on detailed morphological and neurovascular anatomy of the craniofacial region. The lab investigates anatomical variations in the mandible, infraorbital nerve, posterior superior alveolar artery, and trigemino-facial nerve anastomoses to improve surgical safety and outcomes in oral and maxillofacial procedures. Their work emphasizes clinical applications in implantology, orthognathic surgery, and botulinum toxin therapy, using cadaveric dissections and advanced staining techniques such as Sihler’s staining.
Professor Jae-Jun Song's research lab focuses on microbial biofilm-related infections, particularly those caused by *Staphylococcus aureus*, *Streptococcus pneumoniae*, and *Pseudomonas aeruginosa*. The lab investigates the molecular mechanisms of biofilm formation, quorum-sensing systems (such as LuxS/AI-2), and host-pathogen interactions in chronic infections like otitis media, wound infections, and cystic fibrosis. It also explores novel therapeutic strategies, including natural compounds (e.g., eugenol, sinefungin), repurposed drugs (e.g., disulfiram), and neuromodulation (e.g., transcutaneous auricular VNS) to disrupt biofilms and reduce inflammation.
Professor Sang Gyu Lee's research lab focuses on advancing energy storage technologies, particularly lithium-sulfur batteries, by addressing critical challenges such as cyclability and electrode stability through innovative materials design. The lab also explores the intersection of health and environmental factors, investigating the impact of climate change on agricultural productivity and the role of biomarkers in chronic disease management. Additionally, the lab contributes to healthcare system improvement by studying patient safety, mental health interventions in clinical populations, and public health behaviors during infectious disease outbreaks. These diverse yet interconnected research directions reflect a strong commitment to sustainable energy solutions and improved health outcomes.
Professor Dongwoo Kim's research lab specializes in advanced oxide semiconductor devices and their applications in biomedical sensing and imaging. The lab focuses on developing oxide-based phototransistors and optical synaptic transistors with enhanced visible light sensitivity through defect engineering, such as oxygen vacancy creation and nanostructured oxide insertion. A key research direction involves leveraging these materials for non-invasive medical diagnostics, including PET/CT-based glioma and hepatocellular carcinoma (HCC) prognosis using radiotracer imaging. The lab also explores natural compounds, such as grape seed extract, for their therapeutic potential in metabolic disease models.
Professor Ja-won Koo's research lab specializes in vestibulopreservation and otoneurological disorders, focusing on the pathophysiology of inner ear diseases such as Meniere’s disease, vestibular schwannoma, and endolymphatic hydrops. The lab investigates genetic susceptibility, autoimmunity (particularly anti-type II collagen responses), and the role of inflammatory mediators in hearing and balance disorders. Key research directions include the clinical and molecular characterization of intralabyrinthine schwannomas, the impact of systemic inflammation on cochlear drug uptake, and the development of diagnostic criteria for rare inner ear pathologies like superior canal dehiscence. The lab integrates clinical otology with molecular genetics and advanced imaging to improve early diagnosis and personalized treatment strategies.
Professor Sungwoo Bae's research lab specializes in the integration of multi-omics data and medical imaging to decode the spatial organization of cells and tissues. The lab develops advanced computational and deep learning methods to bridge single-cell and spatial transcriptomics, enabling precise cell type deconvolution and morphological context analysis in complex tissues. A key focus is on applying quantitative molecular imaging—particularly SPECT/CT with radiotracers like Tc-99m MDP and DPD—for objective biomarker discovery in skeletal and cardiac diseases. The lab also pioneers AI-driven approaches to decode gene expression patterns linked to tissue architecture, advancing precision diagnostics in oncology and neurodegenerative disorders.
Professor Sungzoon Cho's research lab specializes in data science and machine learning with a focus on real-world applications in cybersecurity, customer behavior modeling, and industrial data analytics. The lab develops advanced predictive models that address critical challenges such as missing data in production systems, secure user authentication through biometric-like keystroke dynamics, and response modeling in marketing with limited labeled data. Their work emphasizes robust, practical solutions for incomplete, imbalanced, or noisy data commonly found in industrial and web-based environments. The lab integrates statistical learning, neural networks, and data mining techniques to build reliable and deployable systems for real-world deployment.
Professor Kyung-Soo Inn's research lab focuses on innate immune sensing mechanisms, particularly the role of RIG-I-like receptors in viral recognition and antiviral signaling. The lab investigates how viruses such as KSHV and RSV evade host immunity by targeting key signaling molecules like RIG-I and TRIM25 through viral proteins with deubiquitinating or ubiquitination-modulating activities. Additionally, the lab explores targeted protein degradation strategies, including PROTACs and small-molecule degraders, for treating diseases such as Alzheimer’s and prostate cancer by selectively degrading pathogenic proteins like phosphorylated p38 MAPK and androgen receptor. The lab also examines host–pathogen interactions in viral infections, including MERS-CoV and HBV, with a focus on soluble host factors like sDPP4 and their clinical implications.
Professor Seung-Beom Han's research lab specializes in orthopedic surgery and surgical outcomes, with a strong focus on joint replacement, trauma surgery, and perioperative complications. The lab investigates factors influencing postoperative recovery, including blood loss, acute kidney injury, hypoalbuminemia, and the impact of surgical techniques such as computer navigation and high tibial osteotomy on long-term outcomes. A key research direction involves understanding the interplay between metabolic and environmental factors—like lead exposure and calcium intake—on bone health and fetal development, particularly in maternal populations. The lab employs rigorous meta-analytical methods to evaluate surgical interventions and improve patient safety and outcomes in orthopedic care.
Professor Jae-Joon Kim's research lab focuses on advancing cancer therapeutics, particularly in challenging malignancies such as peritoneal carcinomatosis, triple-negative breast cancer, and head and neck squamous cell carcinoma. The lab investigates innovative immunotherapeutic strategies, including intraperitoneal immunotherapy and the role of the tumor microbiome in treatment response, aiming to overcome immunological tolerance and improve outcomes. Utilizing multi-omics approaches and advanced imaging techniques like ¹⁸F-FDG PET/CT, the lab seeks to identify predictive biomarkers and optimize therapeutic evaluation in clinical settings.
Professor Kwan-Young Lee's research lab specializes in the development of advanced catalysts for sustainable chemical production, with a strong focus on green energy and environmental applications. The lab investigates innovative catalytic systems for the direct synthesis of hydrogen peroxide, the selective conversion of syngas and CO₂ to valuable chemicals like olefins, and the design of multimetallic nanoparticles for enhanced catalytic performance. Key research directions include optimizing promoter effects in iron-based catalysts, engineering nanostructured materials for improved selectivity and activity, and understanding the role of surface ligands in nanoparticle catalysis. The lab emphasizes sustainable solutions by minimizing energy consumption and reducing environmental impact through novel catalytic processes.
Professor Mikyung Shin's research lab specializes in developing bioinspired materials with multifunctional properties, particularly focusing on pyrogallol- and catechol-containing molecules for biomedical and energy applications. The lab explores adhesive hydrogels, injectable and conductive materials, and mucoadhesive systems for drug delivery and tissue engineering, leveraging the unique chemistry of gallol and catechol groups for reversible, strong, and biocompatible interactions. A key focus is on creating smart, stimuli-responsive materials for 3D bioprinting, hemostasis, and medical device integration.
Professor Eun Young Song's research lab specializes in translational immunology and molecular diagnostics, focusing on identifying and validating biomarkers for cancer and infectious diseases. The lab investigates immune system regulation through HLA genetics, explores epigenetic mechanisms in cancer progression—particularly the role of chemokines like CXCL14 in prostate cancer—and develops serum-based biomarkers such as ESM-1 for colorectal cancer. Additionally, the lab contributes to public health research by assessing the prevalence of viral infections like hepatitis B and evaluating the impact of health education on adolescent sexual knowledge.
Professor Min Sang Kwon's research lab specializes in the design and development of advanced organic materials for optoelectronic and photoredox applications. The lab focuses on enhancing room-temperature phosphorescence in metal-free organic semiconductors through strategic intermolecular interactions, such as halogen and hydrogen bonding, enabling bright, efficient, and stimuli-responsive luminescence. A key research direction involves the rational design of organic photocatalysts and their application in sustainable polymerization processes, particularly visible-light-driven PET-RAFT polymerization with high efficiency and oxygen tolerance. The lab also explores mechanism-based and computer-aided strategies for discovering next-generation organic photocatalysts and functional materials.
Professor Ibrahim Mahariq's research lab specializes in computational electromagnetics and advanced materials for sustainable energy and environmental applications. The lab focuses on developing high-accuracy numerical methods—particularly the spectral element method (SEM)—for solving complex electromagnetic problems, with applications in photonic devices, floating photovoltaic systems, and electromagnetic scattering. Additionally, the lab investigates trihybrid nanofluids and functional nanomaterials for enhanced heat transfer and photocatalytic processes, targeting clean energy and water purification solutions.
Professor Joon-Sup Yeom's research lab focuses on infectious disease epidemiology, particularly the transmission dynamics and control of vector-borne and viral infections. The lab investigates the epidemiology of re-emerging infectious diseases such as *Plasmodium vivax* malaria and SARS-CoV-2, with an emphasis on transmission patterns, diagnostic methods, and public health interventions. Research also includes gastrointestinal endoscopy-related studies, examining conditions like reflux esophagitis and hiatal hernia in clinical populations. The lab’s work bridges clinical medicine, public health surveillance, and preventive strategies in endemic and outbreak settings.
Professor Frank C. Park's research lab specializes in the geometric and mathematical foundations of robotics, with a focus on differential geometry, Lie groups, and Riemannian manifolds as tools for modeling and optimizing robotic systems. The lab develops coordinate-invariant algorithms for robot kinematics, dynamics, and visual tracking, emphasizing intrinsic performance metrics such as dexterity, workspace volume, and robust state estimation. Key research directions include the geometric formulation of robot dynamics, recursive algorithms for constrained and variable-stiffness robots, and particle filtering on nonlinear manifolds like the affine group. The lab's work bridges theoretical differential geometry with practical robotics applications, enabling more accurate, efficient, and robust robotic systems.
Professor Young Goo Song's research lab focuses on viral genomics and infectious disease diagnostics, with a particular emphasis on understanding the molecular evolution and pathogenic mechanisms of emerging viruses such as SARS-CoV-2. The lab conducts systematic bioinformatic and comparative genomic analyses to identify critical mutations in viral proteins and assess their implications for transmission, virulence, and diagnostic accuracy. Additionally, the lab investigates host-pathogen interactions and biomarkers, such as D-dimer levels, to improve prognosis prediction in severe bacterial and viral infections. Their work bridges virology, bioinformatics, and clinical microbiology to support public health responses to infectious disease outbreaks.
Professor Young Lyun Oh's research lab specializes in molecular pathology and cancer biomarkers, with a focus on improving the diagnosis and risk stratification of thyroid and breast cancers. The lab investigates molecular markers such as BRAF, PTB, and cell cycle regulators (e.g., p21, p27, cyclin D1) to understand tumorigenesis and refine pathological classification. They also study human papillomavirus (HPV) genotypes and their carcinogenic risks, contributing to preventive strategies and vaccine evaluation in Korean populations. Their work bridges clinical pathology with molecular diagnostics to enhance preoperative diagnosis and personalized treatment approaches.
Professor Hak-Joon Sung's research lab specializes in developing advanced biomaterials and smart scaffolds for regenerative medicine and cardiovascular tissue engineering. The lab focuses on stimuli-responsive materials—particularly those responsive to reactive oxygen species (ROS)—to enable site-specific drug delivery, enhanced cell infiltration, and improved tissue regeneration. Key research directions include designing shape-memory polymers for minimally invasive vascular grafts, engineering electrospun polymer scaffolds to direct stem cell differentiation into cardiomyocytes, and utilizing 3D graphene foams to support stem cell osteogenic differentiation. The overarching goal is to create functional, biocompatible, and dynamically responsive materials that can actively interact with and repair diseased tissues in vivo.
