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 Ji-Won Jung's research lab specializes in the design and engineering of advanced nanomaterials for next-generation energy storage devices, with a strong focus on lithium-ion, sodium-ion, and lithium-oxygen batteries. The lab explores novel synthesis strategies—such as electrospinning, carbon thermal shock, and covalent organic framework engineering—to develop high-performance electrode materials with tailored nanostructures and enhanced electrochemical stability. Key research directions include the development of hierarchical nanofibrous architectures, high-entropy alloys, and carbon-free conductive frameworks for improved catalysis and ion transport.
Professor Hyun S. Park's research lab specializes in developing advanced materials and electrochemical systems for sustainable energy conversion and environmental applications. Key research directions include designing high-performance photoelectrocatalysts—such as doped bismuth vanadate (BiVO4) and p-type heterojunctions—for efficient solar-driven water splitting and hydrogen production. The lab also investigates biomaterials and lipid metabolism in disease models, particularly the role of conjugated linoleic acid in colon cancer prevention. Additionally, the lab applies advanced electrochemical microscopy techniques to probe surface reaction mechanisms at the nanoscale.
Professor Dong-Hyun Cha's research lab specializes in regional climate modeling, with a focus on improving the simulation and prediction of tropical cyclones, monsoon systems, and extreme weather events in East Asia and the western North Pacific. The lab emphasizes dynamical downscaling using high-resolution regional climate models, spectral nudging techniques, and coupled air–sea interaction to reduce systematic model errors and enhance forecast accuracy. Key research directions include the development of advanced initialization schemes for tropical cyclones, the impact of large-scale atmospheric constraints on regional climate simulations, and the assessment of climate change effects on extreme precipitation and heat waves. The lab also investigates the role of synoptic-scale dynamics and local processes in shaping regional climate variability and extremes under global warming.
Professor Ji-Hee Kim's research lab specializes in the fundamental and applied investigation of two-dimensional van der Waals heterostructures and low-dimensional nanomaterials, with a focus on their optoelectronic and photonic properties. The lab explores carrier dynamics, carrier multiplication, and interfacial charge trapping in 2D materials such as MoS₂, WSe₂, and MoTe₂, aiming to advance next-generation devices including high-efficiency photodetectors, optical memories, and neuromorphic computing components. Additionally, the lab investigates ultrafast optical phenomena in carbon nanotubes and the functional screening of natural marine biomaterials for antiviral applications.
Professor Yonghan Ahn's research lab focuses on sustainable construction and building innovation, with a strong emphasis on green building practices, Building Information Modeling (BIM) adoption, and the integration of sustainability across the construction lifecycle. The lab investigates organizational transformation, stakeholder collaboration, and competency development needed to advance sustainable design and construction in the U.S. construction industry. Research also explores the balance between environmental performance and user experience in sectors like hospitality, particularly in green hotel design. The lab’s work bridges industry needs with academic training, targeting improved education, recruitment, and implementation strategies for sustainable construction.
Professor Mi Young Kim's research lab focuses on chronic disease management, particularly diabetes self-management and quality of life in patients with type 1 diabetes. The lab also investigates health promotion and preparedness in vulnerable populations, including older adults and nursing students, with an emphasis on empathy development, disaster resilience, and educational innovation in nursing. Research spans both clinical and public health domains, integrating patient-reported outcomes, behavioral interventions, and health system factors.
Professor Hwi Young Kim's research lab focuses on the pathophysiology, biomarkers, and therapeutic interventions in nonalcoholic fatty liver disease (NAFLD) and hepatocellular carcinoma (HCC), with particular emphasis on metabolic and microbiota-related mechanisms. The lab investigates the role of visceral adiposity, gut-liver axis, and systemic metabolism in disease progression, utilizing advanced techniques such as metabolomics, 16S rRNA sequencing, and clinical imaging. A key research direction involves evaluating the efficacy of emerging pharmacotherapies, especially glucagon-like peptide-1 receptor agonists (GLP-1RAs), in improving liver histology and fibrosis in NAFLD. The lab also contributes to the development of noninvasive diagnostic tools and the understanding of clinical heterogeneity in liver diseases.
Professor Yūsuke Yokoyama's research lab specializes in paleoclimatology and Earth system science, focusing on reconstructing past climate changes using high-resolution geological and geochemical records. Key research directions include the dynamics of ice sheet and ice shelf retreat during glacial-interglacial transitions, sea-level variations inferred from uplifted coral terraces, and the development of advanced radiocarbon dating techniques for ultra-small samples. The lab integrates field observations from regions such as the Ross Sea and Papua New Guinea with cutting-edge accelerator mass spectrometry (AMS) to improve the calibration of the radiocarbon time scale and understand abrupt climate events linked to iceberg discharge and rapid sea-level rise.
Professor Antonio De Felice's research lab specializes in theoretical cosmology and modified gravity, focusing on scalar-tensor theories, massive gravity, and generalized Galileon models that maintain second-order equations of motion. The lab investigates cosmological solutions such as tracker and de Sitter phases, with particular attention to dark energy, cosmic acceleration, and the avoidance of ghosts and Laplacian instabilities in scalar, vector, and tensor perturbations. They also explore primordial non-Gaussianities in inflationary models and the cosmological implications of generalized Proca theories with derivative interactions. Their work aims to construct viable, theoretically consistent models of dark energy and early-universe dynamics.
Professor Izuru Takewaki's research lab specializes in structural dynamics and seismic resilience, focusing on the optimal design of passive vibration control systems for civil and aerospace structures. The lab develops advanced analytical and computational methods to identify critical earthquake excitations and to optimize damper and mass damper placement for maximum performance under severe ground motions. Key research directions include dynamic compliance minimization, energy-based critical excitation methods, and the mechanical behavior of base-isolated and high-rise buildings under long-period seismic inputs. The lab emphasizes systematic, non-iterative optimization techniques to enhance structural robustness with minimal control devices.
Professor So-ichiro Fukada's research lab focuses on the molecular mechanisms regulating muscle stem cells (satellite cells) in muscle development, regeneration, and disease. The lab investigates how signaling pathways—such as Notch, cAMP-PKA, and Yap1/Taz—control satellite cell quiescence, activation, and niche maintenance. Key research directions include understanding the roles of specific genes (e.g., Hesr1/3, Calcr) and mechanical cues in satellite cell function, with implications for muscular dystrophies, sarcopenia, and muscle atrophy. The lab also explores the contribution of hematopoietic and mesenchymal progenitors to muscle repair and adaptation.
Professor Run-Zi Wang's research lab specializes in high-temperature mechanical behavior and life prediction of advanced engineering materials, with a focus on creep-fatigue interaction, microstructural evolution, and damage mechanisms in superalloys such as GH4169 and Inconel 718. The lab develops advanced constitutive models, including unified viscoplasticity and strain energy density-based approaches, to predict component reliability under complex thermomechanical loading. Emphasis is placed on integrating experimental characterization (e.g., EBSD, TEM) with numerical modeling to bridge microscale degradation to macroscale performance, supporting long-life and high-reliability design for aerospace and energy applications.
Professor Keiichi Shirasu's research lab specializes in the development and characterization of advanced composite materials, with a focus on carbon nanotubes (CNTs) and epoxy-based thermosetting resins. The lab investigates the structure-property relationships of nanomaterials, particularly the effects of defects, stoichiometric ratios, and interfacial chemistry on mechanical performance. Using a combination of experimental testing, molecular dynamics simulations, and advanced microscopy, the lab aims to optimize the strength, toughness, and reliability of next-generation nanocomposites for structural and functional applications. Their work bridges molecular-level design with macroscopic mechanical behavior, targeting high-performance materials for aerospace, automotive, and electronic industries.
Professor Takayuki Murata's research lab focuses on the molecular mechanisms of Epstein-Barr virus (EBV) latency and reactivation, with particular emphasis on the role of the viral BZLF1 protein in initiating the lytic cycle. The lab investigates host-virus interactions, especially how cellular signaling pathways and epigenetic regulation control EBV gene expression and viral persistence. A key research direction involves exploring the potential of inducing lytic replication for oncolytic therapy in EBV-associated cancers. The lab also examines viral manipulation of host organelles, such as mitochondrial reorganization during viral infection, to understand viral immune evasion and pathogenesis.
Professor Byungwoo Park's research lab specializes in the design and engineering of advanced nanomaterials for energy conversion and storage applications. Key research directions include the development of nanostructured anodes for lithium-ion batteries—particularly tin-based and lithium titanate materials—enhanced by carbon or mesoporous architectures to improve structural stability and rate capability. The lab also investigates metal oxide and perovskite materials for optoelectronic devices, such as perovskite solar cells and lithium-oxygen batteries, with a focus on nanostructural control and defect engineering to optimize performance and durability. Their work bridges materials synthesis, structural characterization, and device integration to advance sustainable energy technologies.
Professor Ji Eon Kwon's research lab specializes in the design and application of advanced organic functional materials, with a focus on excited-state intramolecular proton transfer (ESIPT) molecules for optoelectronic and bioimaging technologies. The lab pioneers molecular engineering strategies to achieve tunable fluorescence, color purity, and turn-on sensing responses, particularly for applications in chemical sensors, OLEDs, and live-cell imaging. Additionally, the lab explores sustainable organic electrode materials for high-performance lithium-ion and lithium–organic batteries, emphasizing multi-redox activity and structural stability to overcome the capacity–voltage trade-off.
Professor Won-Suk Chung's research lab focuses on the dynamic roles of glial cells—particularly astrocytes—in synaptic regulation, neural circuit development, and neurodegenerative disease pathogenesis. The lab investigates how astrocytes control synapse formation, function, and elimination through secreted factors, direct contact, and phagocytic activity, with a special emphasis on the influence of APOE isoforms and stress hormones. Key research directions include the molecular mechanisms underlying astrocyte-mediated synaptic pruning, the impact of early-life stress on glial function, and the contribution of glial dysfunction to Alzheimer’s disease and other neuropsychiatric disorders. The lab integrates in vitro, in vivo, and human brain organoid models to dissect cellular and molecular pathways in health and disease.
Professor Jee Suk Chang's research lab specializes in radiation oncology and medical physics, with a strong focus on improving the precision and safety of radiation therapy. The lab investigates advanced image-guided treatment techniques, including atlas-based segmentation and auto-contouring for head and neck structures, to enhance treatment planning efficiency. It also explores patient-specific anatomical changes—such as bladder volume variations in rectal cancer patients—aimed at optimizing treatment outcomes through personalized interventions. Additionally, the lab contributes to the clinical application and evaluation of intensity-modulated radiation therapy (IMRT) in breast cancer, emphasizing treatment planning optimization and quality assurance.
Professor Joon-Kyung Seong's research lab specializes in computational neuroimaging and geometric modeling, focusing on the analysis of brain structure and shape in neurodegenerative diseases such as Alzheimer’s disease. The lab develops advanced algorithms for medical image analysis, including structural covariance networks, surface-based morphometry, and geometric computations for freeform curves and surfaces. Key research directions include identifying early neuroanatomical biomarkers through MRI and PET imaging, investigating the impact of amyloid and tau pathology on subcortical and cortical atrophy patterns, and creating robust computational methods for shape analysis and distance computation in complex anatomical structures. The lab integrates mathematical modeling, computer graphics, and clinical neuroscience to advance precision diagnostics in aging and dementia.
Professor Mingjie Fang's research lab specializes in digital transformation, supply chain resilience, and the impact of emerging technologies on business performance and consumer behavior. The lab focuses on strategic agility, innovation adoption, and organizational responses to global disruptions such as the COVID-19 pandemic, particularly in Chinese manufacturing and SME contexts. It integrates theories from information systems, innovation diffusion, and behavioral economics to examine how digital strategies, AI tools like ChatGPT, and supply chain configurations influence financial outcomes and operational resilience. The lab also explores the synergy between industries such as MICE and tourism through quantitative modeling and data-driven evaluation frameworks.
