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 R. Takagi's research lab specializes in the physics of topological magnetic textures, particularly magnetic skyrmions and their emergent spin phenomena. The lab investigates the formation mechanisms, dynamic properties, and topological stability of skyrmions in chiral and noncentrosymmetric magnetic materials, with a focus on understanding the roles of Dzyaloshinskii-Moriya interaction, magnetocrystalline anisotropy, and spin wave dynamics. Using advanced techniques such as resonant soft X-ray scattering, Lorentz microscopy, and spin-wave spectroscopy, the lab explores skyrmion lattice transformations, magnonic excitations, and spin current generation in quantum materials. Their work bridges fundamental magnetism with potential applications in spintronics and low-power information technologies.
Professor Osamu Sugino's research lab specializes in first-principles electronic structure calculations and quantum dynamics simulations, focusing on materials properties, phase stability, and electron-proton transfer processes at complex interfaces. The lab develops advanced computational methodologies within time-dependent and static density functional theory to study electron dynamics, defect physics, and electrochemical reactions in semiconductors and catalytic systems. Key research directions include the thermodynamic and kinetic behavior of materials under extreme conditions, such as pressure and temperature, and the microscopic mechanisms of hydrogen adsorption and multistep electron/proton transfer in energy-relevant systems. The lab also bridges theory and experiment by validating simulations against spectroscopic and electrochemical data, particularly in the context of electrocatalysis and semiconductor defects.
Professor Hiroshi Suzuki's research lab focuses on molecular mechanisms underlying aging, cancer biology, and post-transcriptional gene regulation. Key research directions include the role of TGF-β and senescence in aging and age-related pathologies, the function of ABCG2 in transporting sulfated conjugates, and the regulatory roles of microRNAs in cancer initiation, progression, and tumor microenvironment crosstalk. The lab also investigates oncogenic miRNAs such as miR-135b in lymphoma pathogenesis, particularly in NPM-ALK-driven anaplastic large cell lymphoma.
Professor Tadashi Matsuda's research lab focuses on the molecular mechanisms underlying cytokine and growth factor signaling, particularly the cross-talk between TGF-beta, IL-6, and estrogen receptor pathways in immune regulation, fibrosis, and cancer. The lab investigates key signaling molecules such as Smads, STAT3, Tyk2, and gp130 in the context of inflammation, tissue repair, and autoimmune diseases. A central theme is the identification of novel regulatory proteins—like PDLIM2 and PIASy—that control transcription factor activity through ubiquitination and protein-protein interactions. The lab integrates molecular biology, cell signaling, and in vivo disease models to uncover therapeutic targets for inflammatory and fibrotic disorders.
Professor Jiyeon Lee's research lab specializes in digital health interventions, eHealth literacy, and mobile health technologies, with a strong focus on improving health outcomes through evidence-based digital solutions. The lab investigates the effectiveness and security of emerging web-based health applications, such as Progressive Web Apps, while also advancing rehabilitation technologies for chronic conditions like stroke. A key research direction involves evaluating and enhancing the psychometric quality of health literacy instruments and digital tools to support clinical decision-making and patient empowerment.
Professor Chul-Hyun Cho's research lab specializes in the intersection of circadian biology, digital health, and mental health, focusing on how environmental factors—particularly light exposure—affect mood and sleep regulation. The lab employs machine learning and digital phenotyping to develop early detection tools for mood disorders using real-world behavioral and physiological data. Key research directions include understanding the impact of artificial light at night on sleep architecture and circadian rhythms, and translating these findings into clinical applications for early intervention in bipolar and mood disorders. The lab also emphasizes translational research, bridging basic chronobiology with digital technology for personalized mental health care.
Professor Hocheol Song's research lab specializes in environmental remediation using advanced nanomaterials, with a primary focus on the degradation of persistent organic pollutants such as chlorinated hydrocarbons. The lab investigates the reactivity and mechanisms of nanoscale zero-valent iron and other engineered nanomaterials in reducing toxic chlorinated ethanes and related compounds in aqueous systems. Current research emphasizes optimizing reaction kinetics, understanding surface reactivity, and improving the efficiency and selectivity of nanoscale iron particles for practical environmental applications. The lab also explores the influence of solution conditions and material properties on degradation pathways and rates.
Professor Junichi Takagi's research lab specializes in structural biology and molecular mechanisms underlying integrin function, with a focus on how conformational changes regulate ligand binding and cell adhesion. The lab investigates the structural basis of integrin activation, particularly in immune and platelet cells, using advanced techniques such as cryo-electron microscopy, X-ray crystallography, and NMR. A key research direction involves understanding the role of sorting receptors like SORLA in neurodegenerative diseases, especially Alzheimer’s disease, where they modulate amyloid-β production. The lab also explores the molecular determinants of integrin ligand specificity and signaling through domain-swapping and mutagenesis studies.
Professor Yoshinori Kondo's research lab specializes in transition-metal-catalyzed organic transformations, with a strong focus on the development of novel reagents and catalytic systems for selective C–H functionalization and C–X bond formation. Key research directions include the design of highly chemoselective bases such as TMP–zincate for directed ortho metalation, the application of at-complexes in metalation chemistry, and the exploration of palladium- and copper-catalyzed reactions in aqueous media for the synthesis of phenols and azole derivatives. The lab also investigates regioselective arylation of nitrogen heterocycles and the use of innovative ligands and CO sources in carbonylative coupling reactions.
Professor Kai Wu's research lab specializes in computational neuroscience and brain network analysis, focusing on the topological organization of structural and functional brain networks across the lifespan. The lab investigates how brain network properties—such as small-world organization, modularity, and nodal efficiency—evolve with age, and how they are influenced by biological factors like sex and IQ, as well as clinical conditions such as schizophrenia. Using advanced neuroimaging techniques (e.g., MRI, fMRI) combined with graph theory and machine learning, the lab explores both typical brain development and neuropsychiatric disorders with a strong emphasis on individual-level prediction and network-level mechanisms. The research also extends to psychological and social factors, such as parental education anxiety and family functioning, in relation to adolescent mental health.
Professor Atsushi Hozawa's research lab specializes in cardiovascular epidemiology and preventive medicine, with a focus on understanding the impact of lifestyle factors, genetic predispositions, and environmental exposures on cardiovascular disease (CVD) risk. The lab investigates the interplay between biomarkers such as serum carotenoids, blood pressure, and metabolic profiles in diverse populations, particularly in relation to inflammation, oxidative stress, and insulin resistance. Utilizing large-scale longitudinal cohorts with comprehensive omics data—including genomics, metabolomics, and disaster exposure—his team aims to develop personalized prevention strategies for CVD and metabolic diseases. The lab also explores the clinical significance of home blood pressure monitoring and pulse pressure in predicting long-term cardiovascular outcomes.
Professor In Ah Kim's research lab specializes in translational oncology, focusing on improving cancer treatment outcomes through advanced imaging, molecular targeted therapies, and radiation sensitization strategies. The lab investigates machine learning applications in neuro-oncology to differentiate pseudoprogression from true disease progression in glioblastoma, while also exploring molecular pathways—such as EGFR, HER-2, K-RAS, and HDAC signaling—that influence radiosensitivity in various cancers. Their work integrates clinical imaging, molecular biology, and pharmacologic interventions to develop precision radiotherapy approaches.
Professor Won-Jin Yi's research lab specializes in medical image analysis and intelligent diagnostic systems, focusing on enhancing diagnostic accuracy in dentistry and oral surgery through advanced machine learning and signal processing. The lab develops AI-driven solutions for automatic diagnosis using panoramic radiographs and cone-beam CT, aiming to improve image quality and Hounsfield unit accuracy via deep generative models. Another key direction involves wearable, unobtrusive physiological monitoring, particularly respiratory signal extraction from ECG using wavelet transforms and textile electrodes. The lab also explores robotic and image-guided navigation systems to improve precision in orthognathic surgery.
Professor Kyu Eun Lee's research lab specializes in minimally invasive and endoscopic thyroid and parathyroid surgery, with a focus on advancing surgical techniques for optimal cosmetic outcomes and patient recovery. The lab also conducts molecular studies on thyroid tumors, particularly follicular thyroid carcinoma and its benign counterparts, to identify genetic and transcriptomic markers that distinguish malignant from benign disease. Their work integrates surgical innovation with molecular pathology to improve preoperative diagnosis and treatment strategies.
Professor Sungjoo Hwang's research lab specializes in construction engineering and disaster resilience, focusing on improving safety, productivity, and cost efficiency in construction projects. The lab develops advanced systems for real-time monitoring of workers’ emotional states and situation awareness using EEG and other physiological data, aiming to enhance on-site safety and decision-making. It also pioneers automated forecasting tools for construction material costs and dynamic simulation models for post-disaster facility restoration, emphasizing system integration and real-world applicability. The lab’s work bridges engineering, data science, and human factors to support resilient and sustainable infrastructure development.
Professor Sho Ohata's research lab specializes in atmospheric aerosol science, with a focus on the microphysical properties, aging processes, and climate impacts of black carbon and accumulation-mode aerosols. The lab employs advanced single-particle and in-situ measurement techniques—such as the single-particle soot photometer (SP2) and aerosol mass spectrometry—to investigate aerosol mixing states, hygroscopicity, wet removal mechanisms, and the accuracy of ground-based BC monitoring instruments. Their work spans field campaigns in the Arctic and East Asia, emphasizing the role of aerosols in regional and global climate systems.
Professor Naoya Nishi's research lab specializes in interfacial science and electrochemistry at the molecular level, focusing on ionic liquids, self-assembled monolayers, and electrode interfaces. The lab investigates the structural dynamics, relaxation processes, and ion transport phenomena at liquid-liquid and liquid-solid interfaces using advanced spectroscopic and electroanalytical techniques such as sum frequency generation spectroscopy, surface plasmon resonance, and x-ray reflectivity. A central theme is understanding the behavior of ions and molecules at confined interfaces, particularly in fluorine-free and hydrophobic ionic liquids, with applications in energy conversion, separation science, and electrochemical sensing.
Professor Takuya Kubo's research lab specializes in the development of advanced functional materials for biomedical and analytical applications, with a focus on stimuli-responsive drug delivery systems, molecularly imprinted polymers (MIPs) for selective recognition of biomolecules, and novel surface modification techniques for enhanced immobilization and separation. The lab pioneers innovative approaches using magnetic nanoparticles, C60-fullerene modified materials, and photocoupling agents to enable precise control over molecular interactions and transport. Key research directions include smart drug delivery, protein separation, and high-efficiency surface functionalization for nanomaterials and analytical devices.
Professor Takayoshi Shimizu's research lab specializes in spinal surgery and spinal biomechanics, with a focus on improving clinical outcomes through innovative implant design and surgical techniques. The lab investigates bioactive spinal implants—particularly TiO2-coated PEEK—aiming to enhance spinal fusion rates and bone integration. It also explores spinal sagittal realignment and the role of lower extremity compensation in patients with adult spinal deformity, using advanced radiographic parameters to guide preoperative planning. The lab's work bridges biomaterials science and clinical spine surgery, aiming to optimize long-term patient outcomes.
Professor Yuta Murakami's research lab specializes in nonequilibrium quantum many-body physics, focusing on ultrafast dynamics and quantum phase transitions in strongly correlated electron systems. The lab investigates light-induced quantum phenomena such as high-harmonic generation, photo-induced superconductivity, and excitonic insulator dynamics using advanced theoretical frameworks like nonequilibrium dynamical mean-field theory, Floquet theory, and time-dependent mean-field approaches. Key research directions include the role of electron-phonon coupling, electron correlation effects, and nonthermal quantum states in driving novel ordered phases. The lab also explores the interplay between light, electron correlations, and lattice degrees of freedom in low-dimensional quantum materials.
