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 Nguyễn Văn Toàn's research lab specializes in advanced thin film materials, micro- and nano-fabrication technologies, and flexible energy conversion devices. Key research directions include atomic layer deposition of transparent conductive oxides (e.g., AZO), development of novel etching techniques such as neutral beam etching and metal-assisted chemical etching for high-aspect-ratio structures, and the design of ultra-flexible thermoelectric generators for wearable and IoT applications. The lab also investigates glass micromachining and resonator-based microsystems, emphasizing precision, scalability, and real-world applicability in sustainable electronics and healthcare technologies.
Professor Jaegeon Ryu's research lab specializes in the development of advanced silicon-based nanomaterials for next-generation energy storage applications, with a primary focus on lithium-ion batteries. The lab pioneers scalable and cost-effective synthesis methods—particularly using natural clays—to produce high-performance silicon nanosheets and hyperporous silicon structures with enhanced structural stability and electrochemical performance. Key research directions include nanostructure engineering, interface stabilization through carbon coating, and controlling volume expansion during lithiation/delithiation to enable durable and high-capacity anodes. The lab also explores the application of these materials in sustainable and high-energy-density battery systems for electric vehicles and grid storage.
Professor Dae Sik Jang's research lab specializes in natural product chemistry and pharmacology, focusing on the isolation, structural elucidation, and biological evaluation of bioactive compounds from medicinal plants. The lab primarily investigates natural compounds for their potential in preventing and treating diabetic complications, particularly through inhibition of advanced glycation end products (AGEs) and aldose reductase (AR), as well as for cancer chemopreventive and chemoprotective activities. Their work integrates bioassay-guided fractionation with advanced spectroscopic techniques, especially NMR, to identify novel natural products with therapeutic potential.
Professor Bok Jik Lee's research lab specializes in advanced fluid dynamics, energy conversion systems, and sustainable materials, with a strong focus on multiphase flows, combustion processes, and thermal energy storage. The lab develops innovative numerical methods—such as improved immersed boundary techniques and interface-tracking algorithms—for simulating complex flow behaviors in engineering systems. Key research directions include MILD combustion of alternative fuels (e.g., ammonia-hydrogen mixtures), self-cleaning and superhydrophobic surfaces for industrial applications, and phase change materials for efficient thermal energy storage. The lab also investigates practical challenges in aerospace icing and anticoagulation monitoring, demonstrating a multidisciplinary approach to energy, environment, and biomedical engineering.
Professor Jiseon Ahn's research lab specializes in tourism and hospitality management, with a strong focus on customer behavior, brand loyalty, and experiential value creation in service contexts. The lab investigates how psychological, emotional, and cognitive factors influence customer attitudes and intentions, particularly in integrated resorts, green hotels, and cruise environments. Key research directions include the role of perceived value, brand experiences, corporate social responsibility, and impulsive consumption behaviors. The lab employs advanced quantitative methods such as PLS-SEM and structural equation modeling to explore complex behavioral mechanisms in tourism and hospitality settings.
Professor Jongwook Park's research lab specializes in the design, synthesis, and application of novel organic semiconductors for optoelectronic devices, with a primary focus on high-performance blue organic light-emitting diodes (OLEDs). The lab develops advanced emitter materials featuring tailored molecular architectures—such as anthracene, pyrene, and indenopyrazine cores—engineered for enhanced thermal stability, high photoluminescence quantum yield, and narrow emission bandwidths. Key research directions include molecular engineering of dendritic and dual-core architectures to improve device efficiency, color purity, and operational stability in non-doped and doped OLED configurations.
Professor Nobuhiko Hosono's research lab specializes in the design and synthesis of advanced functional polymers and nanostructured materials through precise molecular engineering. The lab focuses on supramolecular self-assembly, particularly the creation of single-chain polymeric nanoparticles (SCPNs) and coordination-based architectures such as coordination star polymers and metal-organic frameworks (MOFs). By leveraging stimuli-responsive motifs like UPy and BTA, along with controlled polymerization techniques such as ATRP and RAFT, the group develops smart, stimuli-responsive materials with tailored nanostructures and dynamic properties. The lab also employs single-molecule force spectroscopy to probe the mechanical and kinetic behavior of supramolecular interactions at the molecular level.
Professor Shohei Saito's research lab specializes in the design and synthesis of advanced organic and carbon-based materials with tailored electronic and structural properties. Key research directions include the development of expanded porphyrins for applications in aromaticity studies, multimetal coordination, and functional materials such as dyes, sensors, and organic semiconductors. The lab also focuses on boron-doped nanocarbons and planarized triarylboranes, exploring their unique Lewis acidity, redox behavior, and potential in energy storage and optoelectronic devices. Additionally, the group investigates dynamic molecular systems in liquid crystals for smart materials and responsive technologies.
Professor Yongwoo Jang's research lab focuses on the development of bio-integrated smart systems and implantable electronic devices, with a strong emphasis on nanomaterials and their applications in biomedicine. The lab explores the intersection of nanotechnology, neuroscience, and bioelectronics, particularly in designing flexible, stretchable, and biocompatible devices for in vivo energy storage and neural modulation. Key research directions include carbon nanotube-based supercapacitors for implantable systems, ion channel mechanisms in neurological disorders such as bipolar disorder and hereditary neuropathies, and the development of advanced biosensors for monitoring physiological functions like gastric motility. The lab also investigates redox biomolecules and their integration into next-generation bioelectronic systems.
Professor Kenji Osafune's research lab specializes in regenerative medicine and developmental biology, focusing on the differentiation of human pluripotent stem cells into kidney lineage cells. The lab develops efficient, small-molecule-based protocols to generate intermediate mesoderm, metanephric nephron progenitors, and ureteric bud-like structures—key progenitor cells in kidney organogenesis. By establishing in vitro models that recapitulate nephrogenic niches and studying trophic mechanisms of renal progenitor cells, the lab aims to advance stem cell-based therapies for acute and chronic kidney diseases. Their work bridges developmental biology with translational medicine, emphasizing functional kidney organoid formation and regenerative potential.
Professor Masahiro Yamashita's research lab specializes in the design and synthesis of functional lanthanide and transition metal complexes, with a focus on their unique magnetic, optical, and catalytic properties. The lab investigates rare earth-based molecular materials such as single-molecule magnets (SMMs) and organolanthanide complexes for applications in molecular electronics, spintronics, and controlled polymerization. Key research directions include the development of stimuli-responsive metal complexes, including spin-crossover and photochromic systems, and the functionalization of tetrapyrrolic macrocycles for advanced materials. The lab also explores the interplay between molecular structure and magnetic behavior, particularly in lanthanide complexes on surfaces, aiming to bridge molecular magnetism with device integration.
Professor Hitoshi Miyasaka's research lab specializes in the design and synthesis of molecular magnetic materials, with a focus on single-chain magnets (SCMs), single-molecule magnets (SMMs), and donor/acceptor metal-organic frameworks (D/A-MOFs). The lab explores electron transfer and spin interactions in multidimensional coordination architectures, particularly using Mn(III) and Fe(III) complexes with redox-active ligands to achieve slow magnetic relaxation and metamagnetic behavior. By manipulating ligand frameworks and metal centers, the group develops functional materials with tunable magnetic and electronic properties for potential applications in molecular electronics and spintronics.
Professor Motohiko Kato's research lab specializes in advanced endoscopic therapies for gastrointestinal neoplasms, with a primary focus on endoscopic submucosal dissection (ESD) and mucosal resection techniques for early-stage gastrointestinal cancers. The lab investigates technical challenges, predictors of difficulty, and optimal resection strategies—particularly for rare and complex lesions such as superficial non-ampullary duodenal epithelial tumors (SNADET) and duodenal stromal tumors (GIST). Their work emphasizes organ-preserving, minimally invasive approaches to improve patient outcomes and quality of life.
Professor Ja Hun Kwak's research lab specializes in the design and characterization of heterogeneous catalysts, with a strong focus on understanding the atomic-level interactions between metal species and oxide supports. The lab investigates the structural and electronic properties of single-atom and nanoparticulate catalysts on metal oxides such as alumina and zeolites, using advanced spectroscopic and microscopic techniques like solid-state NMR, STEM, and FTIR. Key research directions include the stabilization of atomically dispersed metals, the role of metal-support interactions in catalytic activity, and the mechanistic understanding of reactions such as CO2 reduction and NOx conversion. The lab also explores the structural evolution of oxide supports under thermal treatment, aiming to enhance catalyst stability and performance.
Professor Jaerim Kim's research lab specializes in the design and fabrication of advanced nanomaterials for sustainable energy applications, with a primary focus on electrocatalysis and photoelectrochemical water splitting. The lab investigates fundamental mechanisms governing hydrogen evolution reaction (HER) kinetics and bubble dynamics on nanostructured catalysts, particularly nickel-based systems, to enhance alkaline water electrolysis efficiency. Additionally, the lab develops innovative microfluidic platforms to model vascular biology, integrating cell interactions in perfusable microvessels for biomedical applications. Their work bridges materials science, energy conversion, and bioengineering through rational nanostructure engineering.
Professor Masaki Yamada's research lab specializes in theoretical particle physics and cosmology, focusing on the interplay between dark matter, gravitational waves, and phase transitions in the early universe. The lab explores novel mechanisms for dark matter production—such as axion-like particles, hidden monopoles, and baryonic glueballs—within strongly coupled gauge theories like pure Yang-Mills and SU(N) models. A central theme is the connection between cosmic phenomena, such as cosmic strings and gravitational wave backgrounds, and observable signals from pulsar timing arrays and future CMB experiments. The lab also investigates the cosmological implications of new symmetries and non-perturbative dynamics in the dark sector.
Professor Jong-In Hong's research lab specializes in the design and synthesis of functional molecular receptors and fluorescent probes for selective recognition of biologically and environmentally relevant anions, particularly pyrophosphate (PPi) and fluoride ions. The lab focuses on developing smart sensing materials—especially fluorescent and colorimetric probes—with high selectivity, sensitivity, and biocompatibility for applications in cellular imaging and medical diagnostics. A key research direction involves the integration of molecular recognition with optical signaling, often through tailored receptor architectures combining Lewis acidic/basic sites or conjugated fluorophores with tailored electronic properties. The lab also explores advanced materials such as dye-doped silica nanoparticles and novel organic semiconductors for optoelectronic and bioanalytical applications.
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.
