Research labs at Korea's QS Top 10 universities including SNU, KAIST, and Yonsei.
Professor Jin-Ha Yoon's research lab focuses on occupational and environmental health, with a strong emphasis on the psychological and physiological impacts of workplace stressors and hazardous exposures. Key research directions include the associations between occupational noise, gender discrimination, and crystalline silica exposure with mental health outcomes such as depression and suicidal ideation, as well as the links between poor lung function and kidney or cardiovascular damage. The lab employs large-scale epidemiological studies and systematic reviews to investigate the long-term health effects of occupational hazards, particularly in Asian populations.
Professor Changsik Song's research lab specializes in advanced materials chemistry, with a focus on sustainable polymer design, energy storage materials, and functional molecular systems. The lab develops biomass-derived and recyclable polymers, including network polyurethanes with dynamic covalent bonds for self-healing and shape-memory applications, and designs high-performance polymer electrolytes for next-generation lithium-ion batteries. Additionally, the lab investigates electron spin systems and dynamic nuclear polarization for enhanced NMR techniques, as well as functional organic materials such as emissive π-dimers and conductive hydrogels for optoelectronic and sensing applications.
Professor Kyung-Hoon Shin's research lab specializes in atmospheric chemistry and environmental science, focusing on the role of biogenic emissions—particularly marine-derived dimethyl sulfide (DMS)—in aerosol formation and their impacts on Arctic air quality and climate. The lab investigates the complex interactions between marine ecosystems, atmospheric chemistry, and aerosol microphysics, especially during seasonal transitions such as phytoplankton blooms. Using long-term, concurrent measurements of atmospheric gases, aerosol size distributions, and chemical composition, the lab aims to quantify the contribution of biogenic sulfur to secondary aerosol formation in polar regions. Their work contributes to improving climate models by better understanding the feedback mechanisms between oceanic biological activity and atmospheric particle formation in the Arctic.
Professor Junsuk Kang's research lab specializes in sustainable urban infrastructure and environmental thermal comfort, focusing on innovative civil engineering solutions for urban heat mitigation and structural performance of buried utilities. The lab investigates advanced methods such as imperfect trench installation for reducing earth pressure on underground structures, optimizes green infrastructure like rooftop gardens and fog cooling systems for urban cooling, and applies computational modeling and AI-driven simulations to enhance thermal comfort and energy efficiency in urban environments. The research integrates structural mechanics, environmental fluid dynamics, and smart urban design to address challenges posed by urbanization and climate change.
Professor Jong Min Yuk's research lab specializes in advanced electron microscopy techniques, particularly graphene liquid cell transmission electron microscopy (GLC-TEM), to investigate dynamic nanoscale processes in liquids with atomic resolution. The lab focuses on understanding fundamental mechanisms in nanomaterial synthesis, growth, and transformation—such as colloidal nanoparticle coalescence, oriented attachment, and structural evolution—under realistic liquid environments. Their work also extends to energy materials, including silicon anodes for lithium-ion batteries and vanadium-based NASICON cathodes for sodium-ion batteries, aiming to design high-performance materials through in situ observation. The lab pioneers innovative methods for creating artificial 2D heterostructures using graphene-based 'veil' and 'sandwich' architectures, enabling tailored functionalities in nanomaterials.
Professor Joona Bang's research lab specializes in the design and fabrication of advanced functional materials through controlled self-assembly of block copolymers and stimuli-responsive polymers. The lab focuses on developing nanostructured thin films, nanoporous arrays, and patterned surfaces with precise control over morphology, surface interactions, and hierarchical organization. Key research directions include block copolymer lithography, solvent- and humidity-assisted self-assembly, and the integration of 'bottom-up' self-assembly with 'top-down' photolithographic techniques for high-resolution patterning. The lab also explores applications in sustainable water treatment, optoelectronics, and advanced displays through tailored nanomaterials and crosslinking strategies.
Professor Narasimharao Kitchamsetti's research lab specializes in the design, synthesis, and application of advanced nanomaterials for environmental remediation and energy conversion technologies. The lab focuses on developing transition metal oxides—such as NiO, MTO, CTO, and TiO₂—through hydrothermal, sol-gel, and physical vapor deposition methods to enable efficient photocatalytic degradation of organic pollutants and high-performance energy storage in supercapacitors and lithium-ion batteries. A key emphasis is placed on tailoring nanostructure morphology (e.g., nanobelts, nanodiscs, microrods) to enhance surface area, ion diffusion, and charge transfer properties.
Professor Byong-Guk Park's research lab specializes in spintronics, focusing on spin-orbit torque phenomena, spin Hall effects, and spin-based logic and memory devices in semiconductor and magnetic heterostructures. The lab explores fundamental spintronic mechanisms such as charge-to-spin conversion, interfacial spin currents, and spin pumping to enable energy-efficient, high-speed nanoelectronic devices. Recent work emphasizes the design of all-semiconductor spintronic transistors, magnetic tunnel junctions with tailored interfaces, and spin thermopiles for energy harvesting. The lab bridges quantum materials physics with practical device applications, particularly in next-generation computing and spin-based electronics.
Professor Yun Jung Lee's research lab specializes in the design and synthesis of advanced nanomaterials for next-generation energy storage devices, with a focus on lithium-ion batteries and electrochemical energy conversion. The lab leverages bio-inspired and biomimetic strategies—particularly using genetically engineered viruses as nanoscale templates—to create nanostructured materials with enhanced ion and electron transport, high power density, and improved stability. Key research directions include the development of flexible and high-performance battery components, such as conductive nanowires, amorphous and heterostructured cathode materials, and novel catalysts for oxygen reduction reactions.
Professor Jeon-Soo Shin's research lab focuses on the molecular mechanisms underlying the unconventional secretion and extracellular release of damage-associated molecular patterns (DAMPs), particularly HMGB1, in innate immune responses and sterile inflammation. The lab investigates post-translational modifications—such as oxidation, acetylation, and phosphorylation—of HMGB1 that regulate its translocation and secretion, as well as its role in amplifying inflammation through interactions with pathogen-associated molecular patterns (PAMPs), complement system activation, and immune cell signaling. The research also explores the involvement of autophagy machinery and vesicular trafficking in non-classical protein secretion pathways.
Professor Beakcheol Jang's research lab specializes in wireless networking, machine learning, and intelligent data processing, with a focus on developing energy-efficient communication protocols, advanced indoor positioning systems, and deep learning-based text and signal classification techniques. The lab explores practical applications of reinforcement learning, such as Q-learning optimization, and leverages neural networks—including CNNs and LSTMs—for natural language processing and big data analytics. A key research direction involves enhancing the accuracy and efficiency of wireless systems, particularly in challenging environments like indoor spaces and sensor networks.
Professor Yong-Hee Kim's research lab specializes in the development of advanced drug delivery systems for treating metabolic disorders, cancer, and inflammatory diseases. The lab focuses on designing smart, biocompatible nanocarriers—such as peptide-based polyplexes, microneedle patches, and hybrid nanoparticles—that enable targeted, efficient, and stimuli-responsive delivery of therapeutic agents. Key research directions include gene delivery using self-assembled oligopeptoplexes, targeted delivery of HO-1 modulators to adipose tissue and leukemia microenvironments, and the application of 3D-printed microneedles for precise transcutaneous drug administration. The lab integrates principles of biomaterials, molecular targeting, and nanomedicine to overcome biological barriers and improve therapeutic outcomes.
Professor Moo Whan Shin's research lab specializes in advanced semiconductor devices and energy storage systems, with a strong focus on gallium nitride (GaN)-based high-power electronics and lithium-air batteries. The lab investigates microwave GaN HEMTs for high-power and high-temperature applications, leveraging advanced simulation and characterization techniques to optimize device performance. In parallel, the lab explores novel nanomaterials for energy conversion and storage, particularly cobalt-based porous carbon composites for efficient air cathodes in lithium-air batteries. The integration of materials engineering with device physics enables the development of next-generation electronic and electrochemical systems.
Professor Seok Hyun Eom's research lab focuses on plant metabolism, particularly the biosynthesis and regulation of bioactive phytochemicals such as flavonoids, isoflavonoids, and phenolic compounds in economically important crops and medicinal plants. The lab investigates how environmental factors—especially light quality and abiotic stresses like salinity—affect the accumulation of these health-promoting metabolites. Key research directions include metabolic profiling, gene expression analysis, and biotechnological applications for enhancing the nutritional and pharmaceutical value of plants in agriculture and food industries.
Professor Sung Soo Ahn's research lab specializes in diagnostic and prognostic radiology, with a focus on advanced medical imaging techniques for accurate tumor characterization and personalized treatment planning. The lab investigates the application of dynamic contrast-enhanced MRI, radiomics, and machine learning to improve the diagnosis and prognosis of glioblastoma and hepatocellular carcinoma. A key emphasis is placed on integrating molecular biomarkers—such as MGMT methylation status and genetic alterations in gliomas—into radiological interpretation to support precision oncology.
Professor Dong Kun Lee's research lab focuses on environmental and public health issues in urban settings, with a strong emphasis on urban green infrastructure, forest fire risk assessment, and the socio-ecological impacts of urbanization. The lab investigates the role of urban trees and green spaces in mitigating environmental stressors such as stormwater runoff, urban heat, and air quality degradation, while also examining mental health outcomes linked to urban living conditions. Additionally, the lab applies advanced geospatial technologies and machine learning to model environmental hazards, such as forest fire susceptibility, in ecologically sensitive regions like Gangwon-do, Korea. Their interdisciplinary work bridges environmental science, urban planning, and public health to develop data-driven solutions for sustainable urban development.
Professor Jinsung Park's research lab specializes in interdisciplinary studies at the intersection of nanoscale characterization, molecular interactions, and nonlinear dynamics. The lab focuses on developing advanced scanning probe microscopy techniques—particularly Kelvin probe force microscopy (KPFM)—to investigate surface potential and electronic properties at the single-molecule and nanomaterial level. Key research directions include the detection of biomolecular interactions with high sensitivity, the analysis of charge states in doped nanomaterials such as polyaniline, and the experimental observation of complex spatiotemporal patterns in reaction-diffusion systems, including spiral waves mediated by line defects. The lab also contributes to theoretical mathematical physics, particularly in spectral invariants and adiabatic limits of differential operators.
Professor Je-Yoel Cho's research lab specializes in translational glycobiology and regenerative medicine, focusing on the role of glycoproteins and glycosylation modifications in cancer biomarker discovery and therapeutic development. The lab investigates disease-associated glycoproteins—particularly fucosylated and N-glycosylated forms—in serum from cancer patients, aiming to identify novel diagnostic and prognostic markers. Additionally, the lab develops advanced cell-based and nanotechnology-driven therapeutic strategies, including CAR-T cell engineering and injectable microgel systems for vascular regeneration, integrating stem/progenitor cells with growth factors for tissue repair. Their work bridges glycobiology, molecular oncology, and biomedical engineering to advance precision medicine.
Professor Soon-Il An's research lab specializes in tropical climate dynamics, with a primary focus on the El Niño–Southern Oscillation (ENSO) phenomenon. The lab investigates the nonlinear behavior, feedback mechanisms, and interdecadal variability of ENSO using theoretical modeling, observational analysis, and ocean-atmosphere coupling dynamics. Key research directions include the role of thermocline and zonal advective feedbacks, the impact of tropical instability waves on ENSO, and the mechanisms behind ENSO's frequency and amplitude changes over time.
Professor Ik-Kyung Jang's research lab specializes in cardiovascular thrombosis and interventional cardiology, focusing on the pathophysiology of acute coronary syndromes, thrombus composition, and the efficacy of antithrombotic therapies. The lab employs advanced intravascular imaging techniques such as optical coherence tomography (OCT) to characterize vulnerable atherosclerotic plaques in vivo, particularly in patients with acute myocardial infarction (AMI) or unstable angina (ACS). A key research direction involves evaluating the resistance of different thrombus components—such as platelet-rich and erythrocyte-rich clots—to thrombolytic therapy, as well as testing novel anticoagulants like argatroban in animal models. The lab also investigates immune-mediated thrombosis, notably heparin-induced thrombocytopenia (HIT), aiming to improve diagnostic accuracy and therapeutic strategies for thrombotic complications of anticoagulant therapy.
