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 Min-Seok Rha's research lab focuses on mucosal immunology and T cell responses in the context of respiratory viral infections, particularly SARS-CoV-2. The lab investigates tissue-resident memory T cells in the nasal mucosa, T cell exhaustion in severe COVID-19, and cross-reactive immunity from prior common-cold coronavirus exposure. They also explore systemic immune markers such as neutrophil-to-lymphocyte ratio and hematocrit in obstructive sleep apnea, linking systemic inflammation and immune dysregulation to respiratory diseases. Their work bridges basic immunology with translational applications in vaccine development and host defense mechanisms.
Professor Insub Jung's research lab specializes in the rational design and synthesis of complex plasmonic nanostructures with precise control over morphology and functionality. The lab focuses on creating advanced nanomaterials such as nanoframes, core-in-frame architectures, and 3D nanostructures that enable strong light-matter interactions through engineered electromagnetic hot spots. Key research directions include the development of high-performance surface-enhanced Raman spectroscopy (SERS) substrates, magnetoplasmonic systems for biodetection, and hybrid plasmonic-organic nanostructures for tunable optical responses. The lab integrates wet-chemical synthesis with advanced optical characterization to pioneer next-generation plasmonic platforms for sensing and nanophotonics.
Professor In Gyu Song's research lab specializes in perinatal and pediatric health, with a primary focus on the neurodevelopmental outcomes of preterm and low birth weight infants. The lab investigates the impacts of gestational age, birth weight, environmental exposures such as air pollution, and neonatal care practices on long-term child development. Key research directions include early risk prediction using growth parameters, the epidemiology of neurodevelopmental disorders like ADHD and autism spectrum disorder, and health disparities in neonatal outcomes. The lab also emphasizes clinical translation, advocating for improved care planning and systemic support in pediatric healthcare.
Professor Su-Jeong Suh's research lab specializes in the design and synthesis of advanced nanomaterials for sustainable energy applications, with a strong focus on electrocatalysts for water splitting and renewable energy conversion. The lab investigates transition metal-based materials such as FeCo, NiFe, MoS2, and trimetallic Fe-Co-Ni systems, emphasizing nanostructure engineering to enhance catalytic activity, stability, and charge transfer kinetics. Key research directions include binder-free electrodeposition, additive-assisted electroplating for void-free TSV filling in 3D electronics, and the optimization of electrochemical performance through controlled synthesis and surface modification.
Professor Yong Taek Lee's research lab specializes in advanced materials and microfluidic systems, focusing on the development of functional porous membranes and miniaturized RF components for biomedical and electronic applications. The lab investigates membrane science through surface modification techniques—such as radical-induced grafting on PVDF hollow fibers—to enhance hydrophilicity and antibacterial properties, while also exploring fluid dynamics in porous media for efficient separation processes. In parallel, the lab designs ultra-wideband (UWB) filters using integrated passive device (IPD) technology for compact, high-performance wireless communication systems. These interdisciplinary efforts bridge materials engineering, fluid mechanics, and microelectronics to address challenges in healthcare and next-generation electronics.
Professor Shohei Kumagai's research lab specializes in the design, synthesis, and application of organic semiconductors (OSCs) for next-generation printed and flexible electronics. The lab focuses on developing high-performance n-type organic semiconductors with enhanced electron mobility and environmental stability through innovative molecular engineering involving electronegative heteroatoms and tailored π-conjugated frameworks. A key research direction involves enabling coherent (band-like) electron transport in solution-processed organic single crystals, aiming to realize high-speed, complementary organic integrated circuits compatible with low-cost, large-area printing technologies. The lab also explores the potential of OSCs in emerging applications such as flexible transistors and energy-efficient logic circuits for the Internet of Things (IoT).
Professor Koji Miyake's research lab specializes in the design and synthesis of advanced functional materials, particularly focusing on zeolite-based catalysts and nanostructured magnetic materials. The lab explores catalytic materials for sustainable chemical transformations, including methanol-to-olefins, propane dehydrogenation, and dry reforming of methane, with an emphasis on enhancing selectivity, activity, and stability through precise control of active sites and framework structures. Additionally, the lab investigates spintronic materials using nanoscale magnetic structures, aiming to understand and manipulate magnetization dynamics at the nanoscale for next-generation electronic devices. These interdisciplinary efforts bridge materials chemistry, catalysis, and nanomagnetism to address challenges in energy conversion and environmental sustainability.
Professor K. Kawahata's research lab focuses on the molecular mechanisms underlying neurodegenerative diseases, particularly Parkinson’s disease and related synucleinopathies. The lab investigates the roles of α-synuclein aggregation, post-translational modifications, and cellular lipid-binding proteins such as FABP3 in neuronal toxicity and dopaminergic neuron degeneration. Using integrative approaches combining molecular biology, cell biology, and in vivo models, the lab explores novel degradation pathways of key enzymes like tyrosine hydroxylase and the impact of fatty acid metabolism on protein aggregation and mitochondrial dysfunction. The research aims to uncover therapeutic targets for neurodegenerative disorders with a focus on early pathogenic events in dopaminergic neurons.
Professor Qi Guo's research lab focuses on next-generation wireless communication networks, particularly the design and optimization of space-air-ground integrated networks (SAGIN) for 6G and beyond. The lab specializes in intelligent resource allocation, UAV-assisted networking, and the integration of emerging technologies such as machine learning, device-to-device (D2D) communication, and free-space optical (FSO) communication to enhance network performance, spectrum efficiency, and quality of service. Research also emphasizes digital twin technology for smart manufacturing and industrial IoT, aiming to enable ultra-reliable, low-latency, and ubiquitous connectivity for future intelligent systems.
Professor Atsushi Natsume's research lab focuses on understanding the molecular mechanisms underlying glioma progression, tumor plasticity, and therapeutic resistance, with a particular emphasis on identifying novel biomarkers and therapeutic targets. The lab investigates key molecules such as podoplanin, MGMT, cancer/testis antigens, and epigenetic regulators like PRC2 and EZH2 to develop innovative immunotherapeutic and epigenetic strategies for gliomas and other malignancies. Their work integrates molecular oncology, epigenetics, and translational medicine to improve outcomes in brain tumors, especially glioblastoma, through personalized and targeted therapies.
Professor Guangqi Chen's research lab specializes in computational mechanics and numerical methods for geomechanical and rock engineering problems, with a strong focus on advanced simulation techniques for large deformation and dynamic failure processes. The lab develops and applies innovative numerical methods such as the Manifold Method of Material Analysis (MM) and Discontinuous Deformation Analysis (DDA) to address complex challenges in rock mechanics, including rock bursts and structural instability in underground excavations. Their work emphasizes high-accuracy modeling using high-order approximation functions and robust algorithm development for practical engineering applications.
Professor Takayuki Nonoyama's research lab specializes in the development of advanced functional hydrogels and biomimetic materials for biomedical and environmental applications. The lab focuses on creating tough, biocompatible hydrogels inspired by natural extracellular matrices and biomineralization processes, with particular emphasis on osteointegration, tissue engineering, and stimuli-responsive materials. Key research directions include the design of double-network hydrogels for artificial soft tissues, bioinspired inorganic synthesis (e.g., TiO₂ via biomineralization), and thermoresponsive materials that undergo rapid, reversible transitions. The lab also pioneers innovative imaging techniques to visualize nanoscale hydrogel network structures, enabling a deeper understanding of structure-property relationships.
Professor Han-Kwang Yang's research lab specializes in gastrointestinal oncology, with a primary focus on improving surgical outcomes and survival prediction in gastric cancer. The lab investigates minimally invasive surgical techniques such as laparoscopic distal gastrectomy and their impact on recovery, pain, and long-term prognosis. A key direction involves developing and validating clinical nomograms for individualized survival prediction after D2 gastrectomy, integrating data from large institutional cohorts. The lab also explores the cost-effectiveness and clinical benefits of gastric cancer screening programs, particularly in population-based settings.
Professor You-Me Kim's research lab focuses on innate immunity and signal transduction, particularly the molecular mechanisms underlying viral immune evasion, G protein-coupled receptor (GPCR) regulation by arrestins, and T cell receptor signaling. The lab investigates how pathogens like SARS-CoV-2 subvert type I and III interferon responses, how arrestins modulate receptor trafficking and downstream signaling, and how lipid microenvironments regulate key kinases such as Lck in immune cell activation. Their work integrates molecular biology, cell signaling, and structural biochemistry to uncover fundamental mechanisms in immune regulation and inflammation-related diseases such as asthma and viral infections.
Professor Seong Keun Kim's research lab specializes in advanced thin film materials and atomic layer deposition (ALD) technologies for next-generation semiconductor and energy applications. The lab focuses on developing high-k dielectrics—such as TiO₂, Al-doped TiO₂, and perovskite SrTiO₃—for use in dynamic random access memory (DRAM) capacitors, emphasizing high dielectric constants, low leakage current, and thermal stability. A key research direction involves using ALD to engineer nanostructured interfaces and conformal coatings in thermoelectric materials, enhancing performance through defect engineering and interfacial control. The lab also investigates Ru-based electrodes and ALD processes for integration into advanced logic and memory devices.
Professor Yu Seok Youn's research lab specializes in the design and application of advanced nanomaterials for targeted drug delivery and cancer therapy. The lab focuses on bioinspired nanotherapeutics, particularly using viral and protein-based platforms to enhance tumor targeting and blood-brain barrier penetration. Key research directions include stimuli-responsive nanocarriers, ferroptosis-inducing systems, and inhalable or injectable nanoparticle formulations for improved therapeutic efficacy and reduced systemic toxicity. The lab integrates materials science, nanomedicine, and molecular oncology to develop innovative solutions for challenging cancers such as triple-negative breast cancer and brain tumors.
Professor S.S. Shinde's research lab specializes in the design and development of advanced nanomaterials for sustainable energy applications, with a primary focus on electrocatalysts for metal-air batteries and hydrogen evolution reactions. The lab emphasizes scalable synthesis of carbon-based and metal oxide nanostructures—such as doped carbon nitrides, metal-organic frameworks, and hematite-based materials—engineered for high surface area, stability, and bifunctional electrocatalytic activity. Key research directions include optimizing oxygen reduction and evolution reactions (ORR/OER) and enhancing photocatalytic performance under visible light for environmental remediation and solar energy conversion.
Professor Eunice Kim's research lab specializes in digital marketing communication, with a focus on branded content, influencer marketing, and native advertising in digital and gaming environments. The lab investigates how credibility, disclosure practices, cognitive processing, and user engagement shape consumer perceptions and behaviors in social media and interactive platforms. Key research directions include the psychological mechanisms behind persuasion knowledge, the impact of sponsorship transparency, and the effectiveness of branded content across mobile apps, social networks, and video games. The lab bridges theory and practice by addressing emerging challenges in digital advertising regulation and consumer experience.
Professor Michiyuki Matsuda's research lab specializes in signal transduction mechanisms, particularly focusing on the roles of Rho-family GTPases such as Rac, Cdc42, and Rho in regulating cytoskeletal dynamics, cell motility, and morphology. The lab pioneers the development of live-cell imaging probes—such as Raichu-based FRET sensors—to visualize the spatiotemporal activation of these GTPases in real time. They also investigate adaptor proteins like CRK and Grb2, elucidating their roles in Ras activation and oncogenic signaling pathways. The lab's work bridges molecular cell biology with advanced imaging techniques to dissect intracellular signaling networks in health and disease.
Professor Sunbin Yoo's research lab specializes in the socioeconomic and environmental impacts of transportation infrastructure, with a focus on high-speed rail, autonomous vehicles, and urban-rural disparities. The lab investigates how infrastructure development influences regional inequality, air quality, and public behavior, particularly in the context of technological adoption and disaster resilience. Key research directions include causal analysis of market access, behavioral economics in transportation choices, and the role of social support in shaping technology acceptance. The lab integrates econometric methods with large-scale survey data to inform policy and promote sustainable, inclusive mobility solutions.
