东京大学、京都大学、大阪大学等日本QS前10名大学的研究室信息。
Professor Satoshi Andoh's research lab specializes in atmospheric and ionospheric sciences, focusing on the dynamics and variability of sporadic E (Es) layers in the Earth's ionosphere. The lab employs advanced three-dimensional numerical ionospheric models to investigate the roles of atmospheric tides, wind shears, electric fields, and neutral winds in shaping the formation, structure, and day-to-day variations of Es layers at mid- and low-latitudes. Their work bridges atmospheric physics and space weather, aiming to improve understanding and forecasting of ionospheric disturbances that affect radio communication and navigation systems. The lab is particularly known for pioneering 3D simulations that reproduce complex, sporadic, and multi-layered ionospheric phenomena.
Professor Tomohisa Okada's research lab specializes in cerebrovascular and neurological disorders, with a focus on the pathophysiology of cerebral vasospasm, intracranial arteriovenous malformations (AVMs), and the neurochemical basis of chronic fatigue syndrome. The lab employs advanced neuroimaging techniques such as diffusion tensor imaging (DTI) fiber tractography to assess structural brain changes, alongside experimental animal models to investigate vascular and neural mechanisms. Their work bridges clinical neurology with experimental pathology, emphasizing the impact of blood breakdown products and inflammatory cells on vascular remodeling and neural circuit integrity.
Professor Taisei Kitamura's research lab specializes in quantum materials and strongly correlated electron systems, with a central focus on the role of quantum geometry in unconventional superconductivity. The lab investigates how geometric properties of Bloch electrons—such as the quantum metric and Berry curvature—govern emergent phenomena like superfluid weight, anapole superconductivity, and spin-triplet pairing. By combining first-principles calculations with advanced many-body theories, the group uncovers non-Fermi liquid effects that go beyond conventional descriptions, particularly in low-dimensional and multiband superconductors. Their work reveals that quantum geometry is not just a geometric curiosity but a fundamental driver of high-temperature and topological superconductivity.
Professor Haruyasu Asahara's research lab specializes in organic synthesis and physical organic chemistry, with a focus on developing novel catalytic and radical-based methods for C–H bond functionalization, particularly oxygenation and alkylation reactions. The lab explores metal-free and metal-catalyzed transformations to construct complex molecular architectures, including α-hydroxy-β-dicarbonyl compounds and tricyclic frameworks, with applications in pharmaceuticals and fine chemicals. A key theme is the use of radical intermediates—such as chlorine radicals and ClO₂•—to achieve selective and mild functionalization of sp³ C–H bonds and polymer surfaces. The lab also investigates structure-reactivity relationships through kinetic studies to guide the design of new electrophilic reagents and synthetic tools.
Professor Taku Wakabayashi's research lab specializes in retinal and choroidal microcirculation, with a focus on retinal vascular diseases such as branch retinal vein occlusion (BRVO), myopic choroidal neovascularization (mCNV), and polypoidal choroidal vasculopathy (PCV). The lab employs advanced imaging techniques like spectral-domain optical coherence tomography (SD-OCT) and indocyanine green angiography (ICGA) to investigate choroidal thickness, vascular perfusion, and photoreceptor layer integrity. A key research direction involves evaluating the structural and functional outcomes of novel therapies, particularly anti-VEGF and photodynamic therapy (PDT), in preserving vision and preventing disease recurrence.
Professor Sho Ogata's research lab specializes in the coupled thermal-hydraulic-mechanical-chemical (THMC) processes in fractured rock masses, with a focus on predicting long-term rock behavior in geological systems. The lab conducts integrated experimental and numerical studies to understand permeability evolution, fracture development, and reactive transport under geothermal and radioactive waste disposal conditions. Key research directions include CO2-based geothermal energy extraction, excavation damage zone (EDZ) prediction, and the impact of geochemical conditions—particularly pH—on rock permeability. The lab develops advanced THMC simulators with explicit fracture modeling to support safety assessments for high-level radioactive waste disposal and enhanced geothermal systems.
Professor Takahide Itokazu's research lab focuses on the neural mechanisms underlying neurological disorders, with a central emphasis on neuroinflammation, axon regeneration, and neural circuitry in conditions such as stroke, multiple sclerosis, and spinal cord injury. The lab investigates key molecular players like RGMa and IL-17A in glial cell responses and neural repair, utilizing advanced techniques including optogenetics, in vivo imaging, and genetic manipulation in mouse models. A major research direction involves identifying therapeutic targets—such as microglia and ependymal cells—for neuropathic pain and functional recovery after CNS injury. The lab also explores biomarkers and neuroimaging correlates to evaluate treatment efficacy in real time.
Professor Henderson James Cleaves' research lab focuses on the origins of life, particularly the prebiotic chemistry and mineral-organic interactions that may have facilitated the emergence of life on Earth. The lab investigates how mineral surfaces catalyze and concentrate organic molecules, enabling the complexification necessary for life’s emergence. Key research directions include the protection of prebiotic molecules from UV radiation, the polymerization of abiotic monomers like alpha-hydroxy acids, and the role of nucleic acid components in early evolutionary processes. The lab integrates experimental, theoretical, and planetary science approaches to understand the geochemical environments conducive to life’s origin.
Professor Masaaki Hirayama's research lab specializes in the development and characterization of advanced functional oxide thin films for solid-state batteries and energy storage applications. The lab focuses on epitaxial thin films of cathode and solid electrolyte materials—such as LiMn₂O₄, Li₄Ti₅O₁₂, Li₇La₃Zr₂O₁₂ (LLZO), and LiFePO₄—using pulsed laser deposition to achieve precise control over crystal orientation and interfacial structure. By combining in situ and ex situ X-ray and neutron reflectivity, surface X-ray diffraction, and electrochemical measurements, the lab investigates atomic-scale structural and ionic changes at electrode/electrolyte interfaces during battery operation. Their work provides fundamental insights into interfacial stability, lithium diffusion, and ion conduction mechanisms critical for designing high-performance, all-solid-state batteries.
Professor Keisuke Yoshida's research lab focuses on redox regulation in plant organelles, particularly mitochondria and chloroplasts, with a central emphasis on the thioredoxin (Trx) system and alternative oxidase (AOX) in cellular redox homeostasis. The lab investigates how redox signaling pathways, including the FTR/Trx cascade and AOX-mediated respiration, modulate photosynthetic efficiency and stress responses under dynamic light conditions. Using biochemical, genetic, and physiological approaches in model plants like *Arabidopsis thaliana*, the lab uncovers molecular mechanisms underlying thiol-based redox control and energy metabolism. Their work bridges subcellular redox regulation with whole-plant physiology, especially in the context of light-dependent metabolic adaptation.
Professor Eleni Aloupogianni's research lab specializes in the intersection of artificial intelligence, medical imaging, and smart systems, with a strong focus on applying hyperspectral imaging and machine learning for early cancer detection and tumor margin assessment in dermatology. The lab develops explainable and robust AI frameworks for medical diagnostics, while also advancing secure IoT infrastructure through hardware-aware firmware verification and blockchain-based protocols. Additionally, the lab contributes to urban resilience by designing AI-driven Digital Twin systems for real-time traffic management in smart cities. These efforts reflect a multidisciplinary approach combining biomedical engineering, cybersecurity, and intelligent urban systems.
Professor Nozomi Takeuchi's research lab specializes in plasma-based water treatment technologies, focusing on the decomposition of persistent organic pollutants such as perfluorinated compounds and acetic acid. The lab investigates the fundamental mechanisms of reactive species generation, transport, and reaction dynamics in plasma-liquid systems, with particular emphasis on hydrogen peroxide and ozone production. Using a combination of experimental analysis, numerical simulations, and parametric studies, the lab aims to enhance energy efficiency and scalability of plasma-driven water purification processes. Their work contributes to the development of sustainable and eco-friendly solutions for industrial and environmental water treatment.
Professor Satoru Ebihara's research lab focuses on neurobiological mechanisms underlying neurological disorders and age-related physiological decline, with key research directions in GABAergic neurotransmission in the basal ganglia, the pathophysiology of aspiration pneumonia in the elderly, diaphragm dysfunction in sepsis, and the role of serotonin in tumor biology. The lab also investigates gait instability and fall risk in older adults, integrating neurophysiological and biomechanical approaches. Their work emphasizes translational research, particularly in aging populations and critical care settings.
Professor Shinji Ueno's research lab focuses on the intersection of biophysics and neuroscience, investigating the effects of magnetic fields on biological systems, including neural activity, retinal function, and combustion processes as models for metabolic oxidation. The lab explores ion channel mechanisms in brain neurons, particularly proton-gated currents in hypothalamic neurons, and examines retinal function using electrophysiological techniques such as the ERG and PhNR analysis. A key theme is understanding how physical forces—especially magnetic fields—modulate biological and chemical processes at the cellular and tissue levels.
Professor Chae-Woo Jun's research lab specializes in space physics, focusing on electromagnetic ion cyclotron (EMIC) waves, Pc1 pulsations, and their interactions with energetic particles in Earth's inner magnetosphere. The lab conducts statistical and multi-point analyses using satellite (e.g., Van Allen Probes, Arase/ERG) and ground-based magnetometer data to investigate wave generation mechanisms, propagation characteristics, and wave-particle interactions under varying geomagnetic conditions. Key research directions include the role of particle injections, plasmaspheric boundaries, and wave polarization in driving resonant energy exchange with protons and other ions. The lab also explores the spatial and temporal coherence of Pc1 pearl structures across longitudinally and latitudinally separated ground stations to understand their source regions and excitation processes.
Professor KM Saif-ur-Rahman's research lab focuses on advancing primary health care (PHC) systems, particularly in low- and middle-income countries (LMICs), through evidence-based policy, health governance, and digital health innovations. The lab specializes in systematic reviews, health technology assessment, and implementation research to improve health outcomes using monoclonal antibodies, AI-driven digital solutions, and socioeconomic measurement tools. A key focus is on equitable access to emerging therapeutics like aducanumab and anti-SARS-CoV-2 mAbs, alongside strengthening PHC governance through stakeholder engagement and data-driven decision-making. The lab also explores scalable mHealth and AI applications to enhance service delivery in resource-limited settings.
Professor Yasuo Takehara's research lab specializes in advanced magnetic resonance imaging (MRI) techniques for vascular and pancreaticobiliary system evaluation. The lab focuses on developing and applying non-invasive, high-precision MRI methods such as MRCP, MRA, and 4D-flow to assess vascular abnormalities, pancreatic ductal pathology, and hemodynamic changes in aortic disease. A key emphasis is on improving diagnostic accuracy while minimizing patient burden through ionizing radiation-free and contrast-free imaging protocols.
Professor Chandan Chaudhari's research lab specializes in the design and development of heterogeneous nanocatalysts for sustainable organic transformations. The lab focuses on noble metal-based nanomaterials—particularly Pt, Pd, Ru, Rh, and Ir—supported on oxides such as CeO₂, Pr₂O₃, and polymers for applications in selective hydrogenation, dehydrogenation, and C–N/C–C bond formation under mild and additive-free conditions. Key research directions include catalyst structure–activity relationships, metal alloying effects, and recyclability to enable efficient, green synthesis of pharmaceuticals and fine chemicals.
Professor Takayuki Yamamoto's research lab specializes in the development and characterization of advanced solid electrolytes and oxide interfaces for next-generation energy storage devices, particularly all-solid-state batteries (ASSBs). The lab focuses on lithium-based anti-perovskites, oxyhalide electrolytes, and complex oxide heterostructures, with an emphasis on understanding and manipulating interfacial chemistry, ionic conductivity, and electrochemical stability. Key research directions include the synthesis of novel solid electrolytes via mechanochemical and thin-film processes, the control of crystal structure and doping effects to enhance Li+ mobility, and the design of stable, high-performance thin-film all-solid-state batteries. The lab combines advanced spectroscopic and diffraction techniques (e.g., XPS, XAS, synchrotron XRD) with electrochemical evaluation to bridge materials synthesis with device performance.
Professor Leonardo Zorrón Cheng Tao Pu's research lab focuses on gastrointestinal endoscopy, with a strong emphasis on improving diagnostic accuracy, therapeutic outcomes, and quality metrics in colorectal and biliary disease. Key research directions include optimizing stent selection and endoscopic interventions for biliary strictures, advancing classification systems for colorectal polyps (such as MS and NICE), and investigating the role of the gut microbiome in colorectal cancer progression. The lab also explores telemedicine applications in gastroenterology, particularly video consultations during public health crises like the COVID-19 pandemic.
