探索全球顶尖大学的研究室——研究领域与主要论文一览无余。
Professor Jin-Woo Park's research lab specializes in the development of advanced wearable electronic systems, with a focus on flexible, stretchable, and transparent electronics for biomedical applications. The lab pioneers innovative materials and devices such as Ag nanowire-based conductors, self-powered sensors, and triboelectric nanogenerators, emphasizing biocompatibility, mechanical compliance, and real-time physiological monitoring. Key research directions include epidermal electronics, energy-autonomous wearable systems, and non-invasive biosensors for continuous health monitoring.
Professor Dong-Hyun Kim's research lab specializes in advanced magnetic resonance (MR) imaging techniques, focusing on quantitative tissue property mapping with an emphasis on electromagnetic properties, susceptibility, and myelin water fraction. The lab develops innovative MR methods—particularly combining deep learning and physics-based modeling—to improve image accuracy, reduce artifacts, and enable simultaneous multi-frequency conductivity imaging. Key research directions include synthetic MRI, electromagnetic property tomography, and robust quantification in multi-echo sequences, with applications in neuroimaging and clinical diagnostics.
Professor Sam Sherriff-Tadano's research lab specializes in paleoclimatology and climate modeling, focusing on the dynamics of the Atlantic Meridional Overturning Circulation (AMOC) during glacial periods. The lab investigates the impacts of ice sheets, atmospheric circulation, and oceanic feedbacks—particularly involving sea ice and wind interactions—on past climate variability. Using comprehensive atmosphere–ocean general circulation models and large ensemble simulations, the lab addresses key model-data discrepancies in Last Glacial Maximum (LGM) climate reconstructions. Their work emphasizes the sensitivity of climate systems to boundary conditions such as ice sheet topography and sea surface temperatures.
Professor Kengo Sudo's research lab specializes in atmospheric chemistry and climate modeling, focusing on the tropospheric composition, air quality, and radiative forcing. The lab develops and applies advanced global chemical transport models, such as CHASER, to study photochemical processes, ozone formation, and the interplay between emissions, chemistry, and climate. A key focus is on improving model accuracy through satellite data assimilation and process-oriented evaluation using observational diagnostics. The lab also contributes to international initiatives like CCMI and AeroCom to enhance understanding of atmospheric aerosols, nitrogen oxides, and their global impacts.
Professor Keisuke Takahashi's research lab specializes in materials informatics and catalyst informatics, focusing on the integration of data science, machine learning, and high-throughput experimentation to accelerate materials discovery. The lab develops large-scale, process-consistent datasets for catalytic materials—particularly perovskites and methane conversion systems—enabling predictive modeling and insight-driven catalyst design. A key focus is on applying machine learning techniques such as random forest and data visualization to uncover hidden trends in material properties, especially band gap prediction for solar energy applications. The lab also explores the physiological implications of epidural pressure in spinal disorders, linking biomechanics to clinical symptoms, demonstrating a multidisciplinary approach bridging materials science and biomedical engineering.
Professor Keun Lee's research lab specializes in innovation systems, technological catch-up, and industrial development, with a focus on latecomer economies in Asia and Latin America. The lab investigates how firms and nations overcome technological and institutional barriers to achieve sustained economic growth, particularly through strategic innovation, intellectual property systems, and leapfrogging in emerging technologies. Central themes include the role of state capacity, firm-level capabilities, and the impact of digital transformation and the Fourth Industrial Revolution on development trajectories.
Professor Young Jin Choi's research lab specializes in food materials science, focusing on the physical behavior and stability of fat-based food systems. The lab investigates oil migration, phase transitions, and microstructure evolution in confectionery products using advanced imaging techniques such as magnetic resonance imaging (MRI). Key research directions include understanding the impact of formulation variables—such as particle size, fat content, emulsifiers, and tempering conditions—on product quality and shelf life. The lab also explores the fundamental mechanisms of fat crystallization and interfacial phenomena in complex food emulsions and composites.
Professor Myungeun Seo's research lab specializes in the design and synthesis of advanced polymeric materials with tailored nanostructures for applications in catalysis, separations, and chiral materials. The lab focuses on creating hierarchical porous polymers, stimuli-responsive nanoparticles, and supramolecular architectures through innovative polymerization techniques such as RAFT, RDRP, and block copolymer self-assembly. A key research direction involves controlling molecular and nanoscale architecture to achieve functional materials with precise porosity, chirality, and dynamic responsiveness. The lab also explores light-responsive systems and chiral induction mechanisms, particularly using circularly polarized light to control molecular handedness and amplify chiral information.
Professor Ji-Ho Park's research lab specializes in the design and development of multifunctional nanomaterials for cancer theranostics, focusing on hybrid nanoassemblies that integrate diagnostic imaging, targeted drug delivery, and photothermal therapy. The lab investigates how nanoparticle shape, surface ligand density, and targeting strategies influence in vivo tumor accumulation and therapeutic efficacy, with a strong emphasis on translational applications. Key innovations include tumor-homing magnetic nanoworms, PEGylated micellar systems for dual-mode imaging, and cooperative nanosystems combining gold nanorods with targeted nanoparticles for remote-controlled tumor heating. The lab's work bridges nanotechnology, biomedicine, and clinical oncology to create smart, responsive nanotherapeutics.
Professor Sungwoo Chun's research lab specializes in developing advanced flexible and stretchable electronic systems inspired by biological structures, with a focus on wearable sensors, soft robotics, and biomimetic sensing technologies. The lab pioneers innovations in transparent and skin-attachable sensors using 2D materials like graphene, micropatterned structures, and stimuli-responsive materials for multimodal detection of touch, pressure, temperature, and airflow. Key research directions include the design of bioinspired electronic skins, magnetorheological adhesion systems for soft robots, and nanostructured 3D foams for enhanced surface area and mechanical performance in wearable and energy applications.
Professor Mun Seok Jeong's research lab specializes in the design, fabrication, and characterization of advanced two-dimensional (2D) materials and hybrid nanostructures for next-generation optoelectronic and energy devices. The lab focuses on enhancing the performance of nanoscale optoelectronic components—such as photodetectors, LEDs, and resistive switches—through innovative heterostructures involving transition metal dichalcogenides (TMDs), quantum dots, plasmonic nanostructures, and perovskite materials. Key research directions include defect engineering, charge transfer modulation, and gate-tunable electronic behavior in 2D heterojunctions, with applications in high-efficiency, low-power, and transparent electronics.
Professor Hironori Kaji's research lab specializes in the development of advanced organic semiconductors for optoelectronic applications, with a primary focus on thermally activated delayed fluorescence (TADF) materials and metal-free emitters for highly efficient organic light-emitting diodes (OLEDs). The lab explores the fundamental photophysical processes involving excitons, charge transfer, and spin dynamics in donor-acceptor systems to overcome key limitations such as efficiency roll-off and triplet exciton quenching. By designing novel molecular architectures with controlled intramolecular and intermolecular charge transfer, the lab achieves high photoluminescence quantum yields and full utilization of both singlet and triplet excitons in solution-processable materials, particularly for deep-blue OLEDs. The work also integrates solid-state NMR and computational analysis to understand molecular packing and isomeric states in functional materials like Alq3, linking molecular structure to device performance.
Professor Zsolt Radák's research lab focuses on the role of reactive oxygen species (ROS) and redox signaling in aging, exercise physiology, and neurodegenerative diseases such as Alzheimer’s. The lab investigates how moderate exercise-induced oxidative stress triggers adaptive responses that enhance cellular resilience, improve mitochondrial function, and protect against age-related and oxidative stress-associated pathologies. Key research directions include the interplay between physical activity, antioxidant defenses, and mitochondrial biogenesis, particularly through regulators like PGC-1α and NF-κB. The lab also explores the dual role of ROS as both damaging agents and essential signaling molecules, with implications for disease prevention and therapeutic strategies.
Professor Youho Lee's research lab specializes in advanced nuclear materials and cladding technologies for light water reactors, with a focus on enhancing accident tolerance and long-term performance under irradiation and severe accident conditions. Key research directions include the mechanical and oxidative behavior of silicon carbide (SiC) and chromium-coated zirconium alloys under high-temperature steam environments, stress evolution in coated fuel cladding due to irradiation-induced strains, and the embrittlement mechanisms of spent nuclear fuel cladding due to hydrogen precipitation. The lab combines experimental testing, mechanistic modeling (e.g., TRANOX-1.0), and post-irradiation analysis to evaluate cladding integrity during normal operation, loss-of-coolant accidents, and long-term dry storage.
Professor Chul-Hwan Kim's research lab specializes in the application of advanced signal processing techniques, particularly the wavelet transform, to power system protection and power quality analysis. The lab focuses on developing innovative fault detection methods for high-impedance faults in high-voltage transmission systems, as well as analyzing transient phenomena such as partial discharge in gas-insulated substations. In parallel, the lab explores biochemical mechanisms in nitrogen fixation through molecular biology and protein engineering, particularly studying the role of key amino acids in MoFe protein function. The integration of mathematical tools with real-world engineering and biological systems defines the lab’s interdisciplinary approach.
Professor Jeeyun Lee's research lab specializes in translational oncology, focusing on biomarker-driven precision medicine in gastrointestinal cancers, particularly gastric cancer. The lab develops and validates prognostic and predictive models using molecular profiling, including gene expression signatures and targeted sequencing, to identify high-risk patients and guide personalized treatment strategies. Key research directions include optimizing adjuvant and metastatic therapy through biomarker stratification, evaluating immune microenvironment features such as PD-L1 expression, and advancing clinical trial design using molecular basket approaches. The lab integrates genomics, pathology, and clinical outcomes to improve patient selection for targeted and immunotherapies.
Professor Dong Hui Lim's research lab specializes in ophthalmic and neurological health, with a focus on the interplay between vision, cognitive function, and neurodegenerative diseases. The lab investigates the role of ocular conditions—such as refractive errors, low vision, and dry eye disease—in systemic and neurological disorders, including dementia and Parkinson’s disease. Additionally, the lab explores the therapeutic potential of natural compounds, such as Devil’s Claw and Indian gooseberry, in managing chronic pain and inflammation using preclinical animal models. The research integrates epidemiological data, clinical ophthalmology, and translational neuroscience to identify early biomarkers and novel interventions.
Professor Yong-Min Lee's research lab specializes in bioinorganic chemistry and sustainable energy materials, focusing on the development of non-precious metal catalysts for oxygen and carbon dioxide transformations. The lab investigates the mechanisms of non-heme iron complexes in O₂ activation and high-valent iron-oxo intermediates, aiming to mimic enzymatic oxygenation processes. A key direction involves designing efficient, earth-abundant electrocatalysts for hydrogen peroxide production and oxygen reduction, as well as for CO₂ reduction into fuels and chemicals. The lab also explores seawater electrolysis and photoelectrocatalytic systems for green hydrogen generation.
Professor Hirohisa Ohmiya's research lab specializes in the development of innovative organocatalytic methodologies, particularly focusing on N-heterocyclic carbene (NHC)-catalyzed radical reactions and photoredox-free radical processes. The lab explores single-electron transfer mechanisms to enable challenging C–C and C–heteroatom bond formations, with a strong emphasis on umpolung reactivity, stereoselective transformations, and the use of aryl and alkyl radicals in catalytic cycles. Recent work also includes cobalt-catalyzed cross-couplings and visible-light-driven reactions, aiming to achieve atom-economical and selective synthesis without traditional photocatalysts or precious metals.
Professor Kenta Yamanaka's research lab specializes in advanced metallic materials, with a focus on high-entropy alloys and high-strength biomaterials. The lab investigates the microstructure-property relationships in additively manufactured and severely deformed alloys, emphasizing corrosion resistance, passive film formation, and mechanical strengthening mechanisms. A key research direction involves developing high-performance materials for biomedical and structural applications through innovative processing techniques such as electron beam melting and multipass hot-rolling. The lab also explores the biological interactions of materials, including systemic effects in disease models like acute pancreatitis and associated organ injury.
