Research labs at Korea's QS Top 10 universities including SNU, KAIST, and Yonsei.
Professor Hyunjung Yi's research lab specializes in the development of advanced functional materials and wearable electronic systems for biomedical and human-machine interface applications. The lab focuses on integrating nanomaterials—particularly carbon nanotubes and hydrogels—into flexible, biocompatible, and stimuli-responsive devices for real-time sensing and imaging. Key research directions include smart electronic skins, fiber-based optoelectronics, and bio-integrated sensors that enable deep-tissue imaging, pressure sensing, and neural-inspired signal processing for disease diagnosis.
Professor Jeung Hee An's research lab specializes in translational biomedical research, focusing on the development of natural product-based therapeutics and nanomaterials for inflammatory diseases, liver injury, and neurological disorders. The lab investigates the molecular mechanisms of neuroinflammation, glioma tropism, and hepatoprotection using advanced omics technologies, including proteomics and genomics, alongside nanoscale sensing platforms like SERS. Key research directions include the immunomodulatory and anti-inflammatory effects of plant-derived compounds, such as *Centella asiatica* and hederagenin, and the application of engineered nanomaterials in regenerative medicine and drug delivery.
Professor Chang-Yong Lee's research lab specializes in technology and innovation management, with a focus on leveraging large-scale patent analytics to uncover technological trends, industry convergence, and intellectual property dynamics. The lab develops advanced computational methods—such as hierarchical keyword vectors, tree matching algorithms, and network centrality analysis—to model complex relationships in patent data and support strategic decision-making in R&D and technology policy. Their work bridges computer science, information systems, and innovation studies, emphasizing practical applications in patent infringement detection and foresight analysis. The lab also investigates the structural properties of complex networks, particularly in technological and industrial contexts, to understand the drivers of innovation and convergence.
Professor Kyung Ju Lee's research lab focuses on interdisciplinary environmental and health sciences, integrating molecular biology, public health, and environmental medicine. The lab investigates the impact of environmental factors—such as urban greenery, air quality, and forest types—on maternal and metabolic health outcomes, as well as the role of molecular pathways (e.g., COX-2, IDO, and Tregs) in immune regulation and cancer tolerance. It also explores biophysical and psychological responses to natural environments, particularly in chronic disease populations, and develops innovative, nature-based interventions for mental well-being during public health crises like the COVID-19 pandemic. The lab emphasizes translational research that bridges environmental sustainability with preventive healthcare strategies.
Professor Shu-Chin Lin's research lab specializes in empirical macroeconomics and development economics, with a focus on the interplay between foreign direct investment, financial development, human capital, and natural resources in shaping income inequality and economic performance across countries. The lab employs advanced econometric techniques—such as panel cointegration, threshold regression, and stochastic finite-element analysis—to examine dynamic and heterogeneous effects in developing and advanced economies. Research directions include the distributional impacts of FDI, the role of financial and human capital in economic growth, and the long-term consequences of natural resource dependence.
Professor Christopher W. Bielawski's research lab specializes in the synthesis, functionalization, and application of graphene-based nanomaterials and carbon allotropes. The lab focuses on developing advanced carbon materials—particularly graphene oxide and related derivatives—for use in catalysis, energy storage, polymer nanocomposites, and biomedical applications. A key emphasis is placed on understanding the fundamental chemistry of these materials to enable tailored design for specific technological applications. The lab also explores innovative macromolecular architectures, such as cyclic polymers, through novel synthetic methodologies.
Professor Ji Yi Lee's research lab specializes in atmospheric chemistry, with a focus on the sources, seasonal variations, and health impacts of fine particulate matter (PM2.5) in East Asia. The lab investigates polycyclic aromatic hydrocarbons (PAHs), n-alkanes, and their oxygenated derivatives (oxy-PAHs) in urban and background environments, using advanced analytical techniques such as GC×GC-TOFMS to identify and quantify complex organic pollutants. Research also emphasizes long-term trends in air quality, emission source apportionment, and the environmental and physiological effects of airborne pollutants, particularly in megacities like Seoul and remote background sites in Korea. The lab plays a key role in understanding the transformation of air pollution in Northeast Asia, especially in response to emission control policies and seasonal combustion patterns.
Professor Sungjee Kim's research lab specializes in the design, synthesis, and application of advanced nanomaterials for biomedical and optoelectronic applications. Key research directions include the development of novel quantum dot heterostructures with tailored band alignments—particularly type-II and double-perovskite nanocrystals—for tunable optical properties and enhanced stability. The lab also pioneers innovative ligand chemistry to control surface charge and functionality, enabling biomedical applications such as targeted drug delivery, imaging, and cellular uptake. Additionally, the lab explores stimuli-responsive nanomaterials, including smart gold nanoparticles and DNA hydrogels, for synergistic cancer therapy and precision diagnostics.
Professor Hyoungsub Kim's research lab specializes in advanced materials for next-generation semiconductor devices, with a focus on high-k dielectrics, atomic layer deposition (ALD) processes, and 2D materials. The lab investigates microstructural evolution, interfacial engineering, and electrical properties of oxide films on Si and Ge substrates to enable scalable transistor technologies. Key research directions include controlling interfacial layers through oxygen-gettering techniques, achieving epitaxial oxide growth on group IV semiconductors, and developing wafer-scale 2D transition metal dichalcogenides for nanoelectronics. The lab combines in situ characterization techniques such as TEM and MEIS with advanced thin-film deposition to address fundamental challenges in dielectric scaling and material integration.
Professor Simon S. Woo's research lab specializes in reliable and efficient data transmission, particularly in challenging environments such as space communications. The lab focuses on innovative coding techniques—especially Luby Transform (LT) codes—to prioritize critical data, ensuring high-priority information is decoded quickly and accurately. Their work emphasizes designing intelligent degree distributions in fountain codes to enhance decoding performance and reliability for mission-critical applications. The lab also explores cross-layer optimization and real-time adaptation in communication systems to improve overall system efficiency.
Professor Doo-Hyun Ko's research lab specializes in next-generation organic photovoltaics (OPVs) with a focus on developing multifunctional, smart energy systems for diverse lighting environments. The lab pioneers innovative designs that integrate energy harvesting with energy storage, such as optically controlled smart windows and quaternary blend OPVs, enabling efficient performance under both sunlight and artificial indoor lighting. Key research directions include morphological engineering of non-fullerene acceptor systems to minimize charge recombination and enhance stability, particularly for indoor applications. The lab also explores monolithic integration of photovoltaics with electrochromic supercapacitors to create compact, aesthetically pleasing, and self-sustaining energy platforms.
Professor Ali Mirzaei's research lab specializes in the design, synthesis, and application of advanced nanomaterials for environmental and energy-related sensing technologies. The lab focuses on developing highly sensitive and selective resistive gas sensors based on nanostructured metal oxide semiconductors and their hybrid composites, with particular emphasis on detecting volatile organic compounds such as benzene, toluene, xylene, acetone, and ethanol. Innovative core–shell nanostructures, including Ag@α-Fe2O3 and size-controlled silver nanoparticles, are engineered to enhance sensing performance through tailored morphology and surface chemistry. The lab also explores plasmonic nanostructures for optical applications, using computational optimization to achieve tailored light scattering and cloaking effects.
Professor Hsiao L. Chung's research lab specializes in the inverse design of nanophotonic and metasurface devices, leveraging advanced computational methods such as adjoint-based optimization and machine learning to achieve unprecedented control over light manipulation. The lab focuses on creating high-efficiency, broadband, and tunable optical components—such as metalenses and metasurfaces—capable of operating across diverse numerical apertures and dynamic conditions. Key research directions include free-form nanophotonic design, computational electromagnetics, and data-efficient machine learning for photonic device discovery.
Professor Gi-Ja Lee's research lab specializes in the development of advanced electrochemical and immunochromatographic sensors for point-of-care diagnostics, with a focus on non-invasive biomarker detection in saliva. The lab pioneers innovative nanomaterial-based platforms—such as graphene oxide, carbon nanotubes, and Prussian blue—integrated with screen-printed electrodes and nanoparticle modifications to enable sensitive, selective, and rapid detection of disease-related analytes like uric acid, hydrogen peroxide, and pepsin. Their work emphasizes practical applications in clinical diagnostics, particularly for conditions such as laryngopharyngeal reflux and neurological disorders, by optimizing sample collection, sensor fabrication, and signal transduction. The lab also explores the electrochemical modulation of neurotransmitters, linking sensor technology to physiological mechanisms such as glutamate release in ischemic conditions.
Professor Run Hu's research lab specializes in advanced thermal management and energy conversion technologies, with a focus on smart materials and metamaterials for dynamic thermal camouflage, personalized thermoregulation, and low-grade heat recovery. The lab pioneers innovative solutions in phononic engineering, thermoresponsive electrolytes, and radiative control using stimuli-responsive materials, aiming to bridge fundamental physics with practical applications in wearable electronics and energy efficiency. Key research directions include coherent phonon manipulation, thermogalvanic energy conversion, and optical illusion engineering through metamaterials.
Professor Mallory Mativenga's research lab specializes in the development and optimization of high-performance transparent and flexible thin-film transistors (TFTs), with a primary focus on amorphous indium-gallium-zinc-oxide (a-IGZO) semiconductors. The lab explores innovative device architectures—such as bulk accumulation and dual-gate configurations—to enhance mobility, drive current, and bias stability while addressing challenges like self-heating and radiation-induced degradation. Their work spans materials engineering, device physics, and circuit integration for next-generation flexible and transparent electronics, including rollable displays and robust gate drivers. The lab also investigates the fundamental mechanisms of threshold voltage shifts and defect dynamics under electrical and optical stress, aiming to improve long-term reliability in real-world applications.
Professor Sujung Yoon's research lab focuses on the neural and neurobiological underpinnings of psychiatric and neurodevelopmental disorders, with a particular emphasis on the interplay between neuroinflammation, neurotrophic factors, and brain network integrity. The lab investigates how genetic variations—such as the BDNF Val66Met polymorphism—and environmental factors like adolescent methamphetamine use affect brain structure, function, and metabolism. Utilizing advanced neuroimaging techniques, including MRI and MRS, the lab explores the neural correlates of conditions such as PTSD, bipolar disorder, and substance use disorders, aiming to identify biomarkers and pathophysiological mechanisms.
Professor Hong Geun Lee's research lab specializes in the development of innovative transition-metal-catalyzed and electrochemically mediated methodologies for selective C–H and C–X bond functionalization, with a strong focus on synthetic methodology for complex molecule synthesis and radiolabeling. The lab pioneers mild, selective, and operationally simple transformations—particularly Pd-catalyzed fluorination, arylation of unprotected peptides, and radiosynthesis of (11)C-labeled pharmaceuticals—enabling applications in drug discovery and positron emission tomography (PET) imaging. A central theme is the design of robust, well-defined catalysts and precatalysts that enable challenging transformations under ambient conditions with high functional group tolerance and selectivity. The lab also explores fundamental reactivity patterns in sp³-hybridized carbon functionalization, leveraging electrochemical strategies to access reactive intermediates for diverse heteroatom incorporation.
Professor Soo-Yeon Kim's research lab specializes in medical imaging and diagnostic radiology, with a focus on improving breast cancer detection, prognosis prediction, and treatment response assessment. The lab develops advanced imaging techniques—such as MRI, ultrasound, and deep learning-based computer-aided diagnosis—to enhance the accuracy of early diagnosis and reduce false positives. Key research directions include the development of predictive nomograms using radiologic and clinical data, evaluating abbreviated MRI protocols, and investigating the role of oxidative stress and trace elements in cervical neoplasia. The lab also explores functional imaging biomarkers, such as dynamic contrast-enhanced MRI parameters, to optimize personalized cancer care.
Professor Jong-Tae Lee's research lab focuses on environmental health and epidemiology, with a primary emphasis on the impacts of air pollution and urban environmental factors on human health. The lab investigates the associations between ambient air pollutants, greenness exposure, and health outcomes such as asthma, cardiovascular diseases, and mental health in urban populations, particularly among vulnerable groups like children and the elderly. Using large-scale population data and advanced statistical modeling, the lab explores how environmental interventions—such as traffic restrictions during major events—can lead to measurable health benefits. The research also examines the interplay between socioeconomic status and environmental health disparities in metropolitan settings.
