Research labs at Korea's QS Top 10 universities including SNU, KAIST, and Yonsei.
Professor Byoung Kyu Choi's research lab specializes in computer-aided design and manufacturing (CAD/CAM), with a strong focus on advanced surface modeling, numerical control (NC) programming, and the development of integrated systems for flexible manufacturing. The lab's work spans from fundamental geometric modeling techniques—such as Bézier curves, NURBS, and surface construction from 3D data—to practical applications in automated process planning, CAM systems, and manufacturing execution systems (MES) for flexible manufacturing systems (FMS). The lab also explores business process management systems (BPMS) in the context of automotive part development and applies simulation-based methods to improve operational efficiency in healthcare settings.
Professor Jeong-Hyun Choi's research lab focuses on translational biomedical research, with a primary emphasis on immunomodulation, neurodevelopmental disorders, and microbiota-gut axis interactions. The lab investigates epigenetic regulators such as HDAC inhibitors in allergic airway inflammation, utilizes animal models to explore autism spectrum disorder pathophysiology, and examines the role of gut microbiota in age-related neurodegenerative diseases. Additionally, the lab explores probiotic-derived bioactive compounds for bone health and evaluates clinical interventions in vascular and anesthetic care. These multidisciplinary efforts aim to identify novel therapeutic targets and biomarkers for chronic inflammatory and degenerative conditions.
Professor Chang Hyeong Lee's research lab specializes in mathematical and computational modeling of infectious disease dynamics, with a focus on understanding the impact of host behavior, environmental factors, and public health interventions. The lab develops age-structured, stochastic, and network-based models to analyze transmission patterns of emerging and re-emerging diseases such as dengue fever and COVID-19, integrating climate change, human mobility, and vaccination strategies. Their work emphasizes quantitative risk assessment, sensitivity analysis, and the application of moment closure techniques for stochastic systems. The lab's research bridges mathematical biology, epidemiology, and public health policy to support evidence-based disease control strategies.
Professor Eun-mi Song's research lab focuses on gastrointestinal diseases, particularly colorectal neoplasia, inflammatory bowel disease (IBD), and ulcerative colitis, with an emphasis on clinical epidemiology, endoscopic diagnosis, and molecular mechanisms of carcinogenesis. The lab integrates advanced technologies such as deep learning for computer-aided diagnosis in colonoscopy and investigates the role of dietary fatty acids, like omega-3 PUFAs, in cancer prevention and therapy. A key direction involves understanding the clinical course and prognosis of elderly-onset inflammatory bowel diseases and reflux esophagitis in Asian populations, with a focus on patient-reported outcomes such as stress and fatigue.
Professor Inhak Song's research lab specializes in environmental catalysis and heterogeneous catalysis, with a strong focus on developing advanced materials for air pollution control and sustainable chemical transformations. The lab investigates the design and mechanism of highly selective and stable catalysts for NOx abatement, particularly through selective catalytic reduction (SCR) using ammonia, with an emphasis on low-temperature activity and sulfur resistance. Key research directions include the stabilization of active metal species (e.g., V, Mn, Pd) in confined porous environments such as zeolites and metal oxides, and the use of in situ spectroscopic and theoretical techniques to understand surface reactivity at the molecular level. The lab also explores the unique catalytic behavior of ultrasmall metal clusters and single-site ions in microporous frameworks, aiming to overcome deactivation pathways like CO poisoning and sulfate poisoning.
Professor Jae-Won Ha's research lab specializes in innovative food safety technologies, focusing on the synergistic inactivation of foodborne pathogens using non-thermal methods such as near-infrared (NIR) heating and ultraviolet (UV) irradiation. The lab investigates the mechanisms behind these combined treatments and evaluates their impact on food quality, including color, texture, and sensory properties. Research also extends to alternative antimicrobial strategies, such as combining NIR with lactic acid sprays, particularly for low-moisture foods like nuts and spices. The lab emphasizes practical applications in real food matrices, ensuring safety without compromising product quality.
Professor Hwang, Kyu Ri's research lab focuses on women's health, particularly in the areas of polycystic ovary syndrome (PCOS), menopausal hormone therapy, and metabolic and hormonal disorders in women. The lab investigates the clinical, metabolic, and anthropometric characteristics of PCOS subtypes, explores the association between PCOS and non-alcoholic fatty liver disease (NAFLD), and evaluates the role of vitamin D and insulin resistance in PCOS. The research also extends to breast cancer subtypes and their prognostic implications, highlighting a strong emphasis on endocrine and metabolic health across the female lifespan.
Professor Seong-Min Kim's research lab specializes in computational mechanics and materials modeling, with a focus on granular flow rheology, pavement engineering, and electromagnetic field management in wireless power transmission systems. The lab employs advanced numerical simulations—such as discrete element methods, finite element analysis, and electromagnetic field modeling—to investigate complex material behaviors under various loading and environmental conditions. Recent work also explores the integration of large language models into materials science and chemical synthesis prediction, highlighting a growing interest in AI-driven materials discovery. The lab bridges fundamental mechanics with practical engineering applications, from sustainable infrastructure to safe energy technologies.
Professor Young-mok Lee's research lab specializes in advanced statistical modeling, particularly in hierarchical generalized linear models, mixed-effects models, and structured dispersion analysis. The lab focuses on developing robust likelihood-based inference methods—such as h-likelihood and restricted maximum likelihood—for complex data structures, including overdispersed and non-normal responses. Key research directions include joint modeling of mean and dispersion, applications in quality improvement and epidemiological data, and the integration of quasi-likelihood and random-effects approaches. The lab also explores theoretical and practical connections between multinomial and Poisson models in overdispersed settings.
Professor GyeongAe Seomun's research lab specializes in nursing leadership, organizational effectiveness, and health care education, with a strong focus on improving nursing outcomes through self-leadership, internal marketing, and innovative educational programs. The lab investigates factors influencing nurse satisfaction, retention, and clinical performance, particularly in hospital settings, while also exploring the impact of web-based education and environmental health factors such as electromagnetic fields on health outcomes. Their work integrates quantitative research methods to support evidence-based practice and policy in nursing management and patient care.
Professor Joo-Young Jeon's research lab specializes in advanced forecasting methodologies and signal processing for energy systems and wireless communications. The lab focuses on probabilistic and density forecasting in renewable energy, particularly wind power, as well as value-at-risk modeling in financial time series using hybrid time-series and market-implied volatility approaches. Additionally, the lab develops innovative RF and microwave circuit designs, including low-noise amplifiers and power amplifiers with load-insensitive characteristics, for next-generation wireless and smart grid applications.
Professor Jongki Cho's research lab specializes in reproductive biology and regenerative medicine, with a focus on improving gamete and embryo quality through extracellular vesicles (EVs), stem cell-derived factors, and nanomaterials. The lab investigates how EVs from mesenchymal stem cells, oviductal epithelial cells, and other reproductive sources enhance sperm cryopreservation, oocyte maturation, and early embryonic development. A key research direction involves optimizing nanomaterials—such as pectin nanoparticles—and bioactive molecules to reduce oxidative stress and improve developmental competence in in vitro reproductive technologies. The lab also explores stem cell-based therapies and paracrine signaling to restore fertility in cases of male infertility and impaired gametogenesis.
Professor Yunji Kim's research lab focuses on urban fiscal policy, local government capacity, and the political economy of service delivery in the context of fiscal stress and austerity. The lab investigates how municipalities navigate financial challenges through innovative revenue strategies, alternative service delivery models (such as privatization and inter-municipal cooperation), and institutional arrangements that balance equity and efficiency. Drawing on large-scale survey data and empirical analysis, the lab challenges dominant narratives of austerity urbanism by highlighting pragmatic, context-sensitive governance responses in U.S. cities and counties.
Professor Mijung Jang's research lab specializes in diagnostic and interventional breast imaging, with a strong focus on improving the accuracy of breast cancer detection and characterization using advanced ultrasound techniques, elastography, and computer-aided diagnosis (CAD). The lab investigates novel imaging biomarkers and targeted therapeutic approaches, such as nanoparticle-based drug delivery systems for HER2-positive breast cancer. Research also extends to rare head and neck tumors, including basal cell adenoma, with detailed cross-sectional imaging characterization using CT and MRI. The lab emphasizes clinical translation by evaluating how imaging strategies impact biopsy decisions and treatment outcomes.
Professor Sang Hoon Kang's research lab specializes in intelligent control systems and biomedical engineering, with a focus on developing advanced control methodologies for robotic systems and human motion analysis. The lab investigates real-time biofeedback systems for rehabilitation, particularly using wearable sensors and motion analysis to support patients with knee osteoarthritis. Key research directions include impedance control with enhanced robustness, non-invasive monitoring of joint kinetics, and the application of time-delay estimation and internal model control in mechatronic systems. The lab also explores membrane separation technologies for bioprocessing applications, such as the recovery of valuable compounds from fermentation broths.
Professor Jaeseung Shin's research lab specializes in medical imaging and radiomics, focusing on the development and validation of non-invasive, quantitative imaging biomarkers for cancer prognosis and treatment response. The lab integrates advanced MRI and CT radiomics with clinical data to predict pathologic complete response in rectal and gastric cancers, as well as to assess hepatic steatosis in children using controlled attenuation parameter (CAP). A key emphasis is on improving personalized treatment strategies, including organ preservation in rectal cancer and early risk stratification for recurrence. The lab also investigates infectious diseases such as severe fever with thrombocytopenia syndrome (SFTS), highlighting its translational impact in public health.
Professor Sae-Kyu Choi's research lab focuses on molecular and cellular mechanisms underlying metabolic regulation, with a particular emphasis on energy homeostasis, lipid metabolism, and cellular stress responses. The lab investigates key signaling pathways involving kinases such as LKB1, SIKs, and PINK1, and their roles in metabolic diseases, neurodegeneration, and stem cell biology. Using integrative approaches in Drosophila and mammalian models, the lab explores how post-translational modifications—such as sumoylation—regulate transcription factors like SREBP1c to control lipogenesis and energy balance. The research also extends to environmental biotechnology, including the application of microbial biomass for dye removal, highlighting a translational aspect of metabolic and cellular engineering.
Professor Wan-Su Lim's research lab specializes in next-generation optical and wireless communication systems, with a focus on integrating advanced optical access networks with emerging wireless technologies. The lab explores high-capacity, low-latency communication solutions for 5G/6G and beyond, emphasizing dynamic bandwidth allocation, drone-based base stations, and hybrid optical-wireless networks. Key research directions include physical-layer performance analysis in fading channels, machine learning-optimized network deployment, and collaborative edge-cloud architectures for intelligent edge AI. The lab also investigates the convergence of passive optical networks (PONs) with mobile backhaul systems to enhance QoS and spectral efficiency.
Professor Young Hye Kwon's research lab focuses on molecular mechanisms underlying liver metabolism, oxidative stress, and cellular homeostasis, with particular emphasis on the roles of cell cycle regulators like p21 and p27 in liver injury and regeneration. The lab investigates how dietary compounds such as luteolin and genistein modulate autophagy, apoptosis, and antioxidant pathways in cancer and metabolic liver diseases. Studies also explore fungal-host interactions at the cellular level, particularly in plant pathogenesis, and the regulation of key enzymes in sulfur amino acid metabolism. Overall, the lab integrates molecular biology, cell biology, and translational models to understand disease mechanisms and identify therapeutic targets.
Professor Ju Gang Nam's research lab specializes in biomaterials and tissue engineering, focusing on the development of advanced biopolymer systems for 3D tissue scaffold fabrication with controlled delivery of bioactive agents. The lab integrates computer-aided design and additive manufacturing techniques to create patient-specific scaffolds that support cell growth and regeneration. Additional research directions include the design of bioactive protein therapeutics for viral infections and the optimization of growth factor delivery systems using natural extracellular matrix components. The lab also explores functional nanocomposites for energy and biomedical applications, emphasizing biocompatibility, mechanical performance, and controlled release properties.
