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 Young-Bin Park's research lab specializes in advanced functional nanomaterials and their applications in thermal management and structural health monitoring. The lab focuses on developing high-performance nanofluids, such as CuO-graphene oxide nanocomposite nanofluids, for enhanced heat transfer in boiling applications, aiming to improve critical heat flux and thermal conductivity. Additionally, the lab pioneers non-destructive, self-sensing structural health monitoring systems using electrical resistance imaging and convolutional neural networks for carbon fiber-reinforced plastics, enabling real-time damage detection and localization. These interdisciplinary efforts bridge materials science, nanotechnology, and smart structural systems.
Professor Mohamed Saber's research lab specializes in hydrological hazard assessment, with a strong focus on flash flood susceptibility, rainfall-runoff modeling, and groundwater quality evaluation using advanced machine learning and geochemical modeling techniques. The lab integrates remote sensing data, satellite precipitation estimates, and in-situ measurements to develop predictive models for flood and water quality risks in arid and semi-arid regions, particularly in Egypt and Turkey. Key research directions include climate change impacts on hydrological extremes, urbanization effects on flood vulnerability, and sustainable water resource management.
Professor Yong‐Sun Bahn's research lab focuses on the molecular mechanisms underlying fungal pathogenesis, particularly in the human pathogenic yeast *Cryptococcus neoformans*. The lab investigates conserved signaling pathways—such as the Pbs2-Hog1 MAPK cascade, cAMP signaling, and the unfolded protein response (UPR)—that regulate stress responses, morphological transitions, and virulence. By integrating molecular genetics, cell biology, and comparative genomics, the lab uncovers how these pathways have evolved to support fungal survival and pathogenicity in diverse environments. A central theme is understanding how fungal pathogens adapt to host environments through signaling network rewiring and evolutionary innovation.
Professor Sung Wng Kim's research lab specializes in advanced functional materials, with a primary focus on electron-doped oxides and thermoelectric materials. The lab pioneers the creation of electrides—materials where electrons act as anions—by engineering sub-nanometer-sized cages in complex oxides like 12CaO·7Al₂O₃ (C12A7), enabling unique electronic properties such as metallic conductivity, low work function, and superconductivity. A key research direction involves boundary engineering in thermoelectric materials to decouple and optimize thermal and electrical transport, significantly enhancing the figure of merit (zT). The lab also explores high-temperature melt chemistry and solidification processes to stabilize exotic states, including solvated electrons and electron-doped phases, for next-generation energy applications.
Professor Byung Cheon Lee's research lab focuses on redox biology and the molecular mechanisms underlying oxidative stress, aging, and cellular homeostasis. The lab investigates the roles of selenoproteins and methionine redox modifications in regulating immune responses, antioxidant defense, and longevity, with a particular emphasis on enzymes like methionine sulfoxide reductase B1 (MsrB1) and selenoproteins such as R and O. The research integrates molecular biology, redox signaling, and translational studies to explore how these mechanisms influence health, disease, and stress resilience in mammals and plants. Additionally, the lab examines the impact of dietary interventions, including selenium and protein restriction, on aging and metabolic regulation.
Professor Jungwoo Shin's research lab specializes in sustainable technology adoption and consumer behavior, with a strong focus on environmental innovation, green consumption, and the role of digital technologies such as cloud computing and artificial intelligence in promoting eco-friendly practices. The lab conducts quantitative, data-driven studies using advanced econometric models—such as Bayesian multivariate probit and mixed logit models—to analyze consumer preferences, attitude-behavior gaps, and the economic impacts of eco-labeling and green infrastructure. Key research directions include the diffusion of green products, pro-environmental behavior prediction, and the design of sustainable technology ecosystems, particularly in the context of Korea’s environmental policies and emerging markets.
Professor Tatsuya Yamasoba's research lab specializes in otolaryngology and molecular medicine, focusing on inner ear disorders, particularly sudden sensorineural hearing loss, Meniere’s disease, and the pathophysiology of endolymphatic hydrops. The lab investigates molecular mechanisms of cellular stress, including oxidative stress, mitochondrial dysfunction, and apoptosis, in relation to heavy metal toxicity and aging. A key research direction involves advancing gene therapy techniques for the inner ear, particularly through innovative surgical delivery methods of viral vectors to target both cochlear and vestibular tissues. The lab also explores the role of hemodynamic factors, such as slow blood flow in the vertebrobasilar system, in the etiology of sudden deafness.
Professor Yasuo Nagafuchi's research lab specializes in the immunological and molecular mechanisms underlying systemic autoimmune diseases, particularly systemic lupus erythematosus (SLE) and rheumatoid arthritis (RA). The lab focuses on identifying disease-specific biomarkers, dissecting immune cell heterogeneity through advanced single-cell and 'omics' technologies, and elucidating the roles of dendritic cell subsets and T cell subsets in disease pathogenesis and treatment response. A central theme is translating immunophenotypic and transcriptomic insights into clinically relevant tools for diagnosis, monitoring, and personalized therapy.
Professor Jun Takahashi's research lab specializes in regenerative medicine and stem cell biology, with a primary focus on developing cell replacement therapies for neurological disorders, particularly Parkinson’s disease. The lab pioneers methods to efficiently differentiate human induced pluripotent stem cells (iPSCs) into midbrain dopaminergic neurons and employs novel cell sorting strategies—such as using the floor plate marker CORIN—to enhance the purity and safety of transplanted cells. A key direction involves evaluating immune responses to iPSC-derived grafts in nonhuman primates, demonstrating that MHC-matching significantly reduces neuroinflammation and immune rejection, which is critical for clinical translation. The lab also investigates signaling pathways governing neural lineage specification, using small-molecule inhibitors to optimize neural induction from pluripotent stem cells under defined, scalable conditions.
Professor Donglin Han's research lab specializes in the development and fundamental understanding of proton-conducting oxides for advanced electrochemical energy conversion and storage applications. The lab focuses on optimizing the composition, microstructure, and defect chemistry of perovskite-type ceramics such as Y-doped BaZrO₃ and its solid solutions to enhance ionic conductivity, sinterability, and chemical stability. Key research directions include the role of dopants (e.g., Ce, Tm, NiO, CuO, ZnO) in modifying proton transport, phase stability, hydration behavior, and chemical expansion, with applications in solid oxide fuel cells and electrolyzers. The lab also investigates interfacial phenomena and cation diffusion mechanisms during co-sintering processes to improve device integration and performance.
Professor Hiroyuki Umegaki's research lab focuses on the intersection of aging, metabolic disorders, and age-related functional decline, with a particular emphasis on type 2 diabetes mellitus (T2DM) and its systemic complications. The lab investigates the pathophysiological links between T2DM, sarcopenia, cognitive dysfunction, and frailty, exploring shared mechanisms such as insulin resistance, chronic inflammation, and mitochondrial dysfunction. Research also addresses clinical challenges in managing elderly diabetic patients, including optimal glycemic control, medication selection, and reducing polypharmacy in home-care settings.
Professor Kyung-Jin Lee's research lab specializes in spintronics and nanomagnetic devices, focusing on current-induced magnetic phenomena such as spin-transfer torque switching and magnetization dynamics in nano-scale structures. The lab investigates the fundamental mechanisms of voltage- and current-driven resistance switching in solid electrolyte memories, with particular emphasis on the formation and evolution of nanoscale conducting filaments. Using advanced in situ characterization techniques like transmission electron microscopy, the lab combines theoretical modeling with experimental validation to explore next-generation magnetic and resistive memory technologies. Their work bridges the gap between nanoscale physics and practical device applications in non-volatile memory and low-power electronics.
Professor Javad Sharifi-Rad's research lab specializes in the pharmacological and nutraceutical evaluation of bioactive natural compounds, with a primary focus on polyphenols such as apigenin, resveratrol, curcumin, naringenin, and kaempferol. The lab investigates their therapeutic potential in preventing and managing chronic diseases, including cancer, neurodegenerative disorders, cardiovascular diseases, and metabolic syndromes, with strong emphasis on in vivo and clinical translational research. The team also explores the bioavailability, safety, and industrial applications of these phytochemicals in food and biotechnology sectors.
Professor Jong Seung Kim's research lab specializes in the development of advanced fluorescent probes and sensors for biomedical applications, with a strong focus on monitoring dynamic biological microenvironments such as pH, viscosity, and water content. The lab pioneers the design of biocompatible, highly sensitive, and selective molecular tools based on organic scaffolds like coumarins, enabling real-time imaging in living systems. Their work bridges chemistry, materials science, and biomedicine, with particular emphasis on applications in cancer diagnosis and theranostics, including combinatory phototherapies and intracellular sensing. The lab also explores the integration of these probes into next-generation diagnostic platforms for early disease detection.
Professor Hyung Ju Hwang's research lab specializes in mathematical physics and applied analysis, focusing on kinetic equations, partial differential equations, and their applications to biological and physical systems. The lab investigates the rigorous mathematical foundations of models in chemotaxis, plasma physics, and epidemiology, with particular emphasis on asymptotic behavior, inverse problems, and the derivation of macroscopic limits from microscopic dynamics. Current research directions include the Vlasov-Poisson system, Landau damping, and the mathematical modeling of disease spread using SIR-type models.
Professor Eun-Suk Kang's research lab focuses on immunology and cancer biology, with a particular emphasis on tumor microenvironment regulation, T cell biology, and mitochondrial protein transport in cancer progression. The lab investigates the role of immune cell subsets—such as regulatory T cells and myeloid-derived suppressor cells—in gastric and ovarian cancers, aiming to identify prognostic biomarkers and therapeutic targets. Additionally, the lab explores mechanisms of immune tolerance and protein trafficking in mitochondria, especially the TOM40 complex, linking cellular metabolism to cancer pathogenesis. Their work also extends to clinical applications, including stem cell mobilization for transplantation and diagnostic biomarkers in autoimmune neurological disorders.
Professor Ki Hong Choi's research lab specializes in interventional cardiology and vascular medicine, with a strong focus on optimizing clinical outcomes in patients with acute coronary syndromes, peripheral artery disease, and cardiogenic shock. The lab investigates hemodynamic support strategies, such as VA-ECMO and inotropic support, and evaluates risk stratification tools like the Vasoactive Inotropic Score and PRECISE-DAPT score to personalize treatment in interventional cardiology. Their work also emphasizes the role of percutaneous revascularization techniques, including drug-eluting stents and endovascular therapy, particularly in complex coronary and peripheral vascular disease. The lab conducts large-scale, multicenter registries and clinical trials to inform evidence-based, patient-tailored interventions.
Professor Alexandros Gasparatos leads a research lab focused on sustainability science, with a strong emphasis on the interconnections between human well-being, ecosystem services, and environmental change. His work explores cultural ecosystem services, urban sustainability, and the drivers and impacts of household consumption on global emissions. The lab specializes in developing and applying integrated assessment frameworks, data inventories, and multi-scale indicators to advance evidence-based sustainability policy.
Professor Wan Beom Park's research lab specializes in infectious diseases, with a strong focus on viral pathogenesis, antimicrobial resistance, and host immune responses in HIV, SARS-CoV-2, and other emerging pathogens. The lab investigates clinical outcomes, treatment efficacy, and long-term sequelae of severe respiratory and systemic infections, including MERS and HIV. Key research directions include antimicrobial stewardship, particularly in comparing antibiotic regimens for serious staphylococcal infections, and pharmacogenomics, such as HLA-B*5701 screening in Asian populations to prevent drug hypersensitivity reactions.
Professor Hiromi Rakugi's research lab focuses on vascular biology and metabolic disorders, particularly the role of the renin-angiotensin system in vascular remodeling and diabetic complications. The lab investigates how angiotensin II and angiotensin-converting enzyme (ACE) contribute to vascular smooth muscle cell proliferation and neointimal hyperplasia following vascular injury, with implications for atherosclerosis and restenosis. Another key direction explores the link between poor glycemic control and reduced muscle mass in diabetes, highlighting the intersection of metabolic dysfunction and tissue homeostasis. The lab employs molecular, histological, and in vivo models to elucidate pathophysiological mechanisms and identify therapeutic targets.
