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 Yoshinori Fukui's research lab focuses on signal transduction mechanisms in immune cells and cancer biology, with a central emphasis on the roles of phosphoinositide kinases, Rho GTPase regulators like DOCK2, and oncogenic tyrosine kinases in cellular signaling. The lab investigates how lipid second messengers and scaffolding proteins spatially and temporally regulate cell migration, immune activation, and oncogenic transformation. Key research directions include the molecular mechanisms of DOCK2-mediated Rac activation in neutrophils and plasmacytoid dendritic cells, and the interplay between tyrosine kinases such as v-Src and phosphatidylinositol 3-kinase in signal transduction and cytoskeletal organization. The lab integrates biochemical, cell biological, and imaging approaches to dissect signaling networks in immunity and disease.
Professor Kiyonori Takahashi's research lab specializes in the design and synthesis of functional coordination materials and hybrid nanocomposites with tailored properties for advanced technological applications. The lab focuses on developing stimuli-responsive materials, including metal-organic frameworks, supramolecular architectures, and bio-derived nanocomposites, with applications in gas storage, proton conduction, and multifunctional molecular machines. Key research directions include controlling intermolecular interactions—such as π···π, halogen···π, and hydrogen bonding—to achieve precise control over structural dynamics, thermal stability, and transport properties in crystalline and flexible frameworks.
Professor Manuel Bailera's research lab focuses on sustainable energy conversion and carbon management, with a strong emphasis on integrating renewable energy systems with industrial processes—particularly in the iron and steel sector. The lab specializes in Power-to-X technologies, especially Power-to-Gas and Power-to-Syngas, aiming to decarbonize high-emission industries through electrolysis-based synthetic fuel production and carbon recycling. Key research directions include the techno-economic and thermodynamic optimization of integrated systems such as oxy-fuel ironmaking combined with Power-to-Gas, and the development of advanced process models (e.g., extended Rist diagrams and 1D reactor models) to assess scalability and efficiency. The lab also investigates thermochemical energy storage using Ca-looping for solar energy applications, targeting long-term, high-temperature energy storage solutions.
Professor Hiroshi Onoda's research lab focuses on advanced materials science and sustainable energy technologies, with a strong emphasis on functional thin films, interfacial engineering in microelectronics, and renewable energy systems. The lab investigates materials such as Al-Si alloys and TiN for high-performance electronic interconnects, exploring their crystallographic control and electromigration behavior. It also addresses environmental and societal challenges through research on woody biomass gasification for power generation and smart waste management systems for post-pandemic urban development. The integration of emerging technologies like virtual reality in education and low-dose medical imaging further highlights the lab’s interdisciplinary approach to innovation.
Professor Mototsugu Oya's research lab focuses on the molecular mechanisms underlying cancer progression, particularly in colorectal and urothelial cancers, with an emphasis on the roles of inflammatory markers, transcription factors, and xenobiotic-sensing receptors. The lab investigates biomarkers such as D-dimer and CRP, as well as key signaling pathways like NF-κB and aryl hydrocarbon receptor (AhR), to understand their contributions to tumor stage, aggressiveness, and patient survival. Their work bridges clinical oncology and molecular pathology, aiming to improve preoperative diagnosis and postoperative prognosis prediction.
Professor Hirohisa Fujikawa's research lab specializes in postgraduate medical education, with a focus on enhancing professionalism, clinical autonomy, and tolerance of ambiguity among medical trainees. The lab develops and validates educational tools such as the J-PCOS and J-TAMSAD to assess and support trainee development in clinical settings. Their work also explores the impact of workplace environment and institutional policies—such as duty hour regulations—on resident education, well-being, and patient care. The lab’s research is deeply rooted in improving the quality and effectiveness of clinical training programs in Japan and beyond.
Professor Yohei Sawada's research lab specializes in land-atmosphere interactions, with a focus on improving weather, seasonal, and climate predictions through advanced land data assimilation systems (LDAS). The lab develops innovative methods to simultaneously simulate surface and root-zone soil moisture, vegetation dynamics, and terrestrial biomass by integrating satellite microwave and infrared observations into land surface models. A key research direction involves autocalibration of hydrological and ecological parameters using remote sensing data, particularly passive microwave brightness temperatures sensitive to both soil moisture and vegetation water content. The lab also pioneers field-validated algorithms for estimating vegetation water content and ecohydrological drought indicators, enhancing drought monitoring and prediction in data-scarce regions such as the Horn of Africa.
Professor Menaka Revel's research lab specializes in advancing global water cycle understanding through innovative data assimilation techniques that integrate satellite observations—particularly from the upcoming SWOT mission—with large-scale hydrodynamic models. The lab focuses on improving the accuracy of continental-scale river discharge and water surface elevation estimates by developing computationally efficient filtering methods, such as the Local Ensemble Transform Kalman Filter (LETKF), tailored for complex river systems. A key research direction involves optimizing local analysis domains and handling uncertainties in remote sensing data to enhance model performance in ungauged and data-scarce basins.
Professor Takahiro Hattori's research lab specializes in financial econometrics and market microstructure, with a focus on asset pricing, volatility modeling, and central bank intervention in financial markets. The lab investigates market efficiency and arbitrage dynamics in digital and traditional financial assets, including Bitcoin and real estate investment trusts (REITs), using high-frequency data and advanced econometric techniques. It also explores the intersection of monetary policy and financial stability, particularly through the lens of unconventional monetary operations such as central bank equity purchases. Additionally, the lab contributes to applied physics through experimental research on high-power laser transmission in chalcogenide glass fibers.
Professor S. Hasegawa's research lab focuses on molecular and translational studies in nephrology, inflammation, and metabolic disease, with a strong emphasis on the pathophysiology of chronic kidney disease (CKD). The lab investigates key regulatory pathways such as HIF stabilization and Adrb2 signaling in immune cells, exploring their roles in tissue protection and fibrosis. Additionally, the lab examines the impact of dietary factors and uremic toxins—such as advanced glycation end products (AGEs) and indoxyl sulfate—on disease progression, identifying novel therapeutic targets. The lab also contributes to biomedical imaging and enzymology, particularly in characterizing enzymes involved in pectin degradation and their potential applications in biotechnology and medicine.
Professor Shin Nakamura's research lab specializes in advanced materials and insulation systems for high-power electronic applications, with a focus on electrical treeing phenomena in silicone gel and epoxy nanocomposites under high-frequency and fast-rising voltage stresses. The lab investigates the influence of environmental factors such as temperature and voltage waveform on partial discharge and insulation degradation, aiming to improve the reliability and longevity of power electronic modules. Additionally, the lab contributes to biomedical imaging and diagnostics, particularly in distinguishing physiological from pathological FDG uptake in PET scans and rare infectious syndromes like Lemierre’s syndrome.
Professor Bin Feng's research lab specializes in advanced electron microscopy and atomic-scale characterization of functional materials, with a focus on grain boundaries, defects, and interfacial phenomena in oxide ceramics and thermoelectric materials. The lab investigates how atomic-scale structural and chemical inhomogeneities—such as solute segregation, oxygen vacancies, and dislocations—affect macroscopic material properties like ionic conductivity, electrochemical reactivity, and thermoelectric performance. By combining atomic-resolution scanning transmission electron microscopy (STEM), energy-dispersive X-ray spectroscopy (EDS), and theoretical calculations, the lab uncovers fundamental mechanisms governing defect engineering in materials for energy applications.
Professor Yun-Wen Zheng's research lab focuses on regenerative medicine and disease modeling using human induced pluripotent stem cells (iPSCs), with a strong emphasis on liver and skin biology. The lab develops patient-specific organoids to study viral infections such as hepatitis B, explore host-pathogen interactions, and model complex diseases like vitiligo and skin aging. Innovative applications in digital surgery planning and 3D reconstruction further extend their translational impact in precision medicine and hepatobiliary surgery. The lab integrates stem cell technology, disease modeling, and advanced imaging to advance personalized therapeutic strategies.
Professor Qiu Zheng's research lab specializes in advanced materials processing, with a focus on microforming, high-temperature forming, and deformation behavior of lightweight metals such as titanium and magnesium alloys. The lab investigates size effects, strain gradient plasticity, and dynamic softening mechanisms in thin foils and components under extreme conditions, employing innovative techniques like digital image correlation (DIC) and resistance heating for real-time full-field strain measurement. Key research directions include heat-assisted microforming, constitutive modeling of materials under large plastic strains, and seismic-fuse design in civil infrastructure components.
Professor T. Saito's research spans high-energy astrophysics and plant molecular biology, with a focus on very high-energy gamma-ray astronomy using Cherenkov telescopes like MAGIC, and the functional characterization of magnesium transporters in higher plants, particularly in rice. His work in astrophysics investigates transient VHE gamma-ray emissions from active galactic nuclei and pulsars, challenging existing emission models through precise spectral measurements. In plant biology, he explores the evolutionary and functional diversity of MRS2/MGT family genes, aiming to understand magnesium homeostasis across monocot and dicot species. His interdisciplinary approach bridges observational astrophysics and molecular plant physiology.
Professor Lei Qin's research lab specializes in low-temperature rock mechanics and unconventional energy resource enhancement, with a focus on liquid nitrogen (LN2) freezing and thawing techniques for improving coalbed methane extraction. The lab investigates the physical and mechanical changes in coal induced by LN2, including pore structure modification, fracture permeability enhancement, and mechanical property degradation due to freeze-thaw cycles. Key research directions include the mechanisms of LN2-induced fracturing, the influence of freezing parameters (time, cycles, moisture content), and the impact on coal adsorption capacity and ultrasonic wave propagation. The lab also explores applications in anhydrous fracturing technologies for sustainable energy development.
Professor Katsuhiro Hata's research lab specializes in advanced power electronics and wireless energy transfer technologies, with a strong focus on high-efficiency power conversion and dynamic wireless charging systems for electric vehicles. The lab develops innovative DC-DC converters—such as dual-path, hybrid, and always-dual-path architectures—designed to minimize conduction losses and maximize efficiency, particularly in low-voltage, high-current applications. A key research direction involves the design and control of secondary-side power management in magnetic resonant wireless power transfer systems, enabling real-time power control and efficiency optimization during vehicle motion. The lab also pioneers sensorless vehicle detection and integrated resonant road coils to simplify infrastructure and enhance safety in in-motion charging systems.
Professor Hui Liang's research lab focuses on advanced environmental and nuclear safety technologies, particularly in the context of nuclear decommissioning and radioactive aerosol mitigation. The lab specializes in developing innovative spray and agglomeration techniques to enhance the removal of submicron radioactive aerosols generated during the dismantling of damaged nuclear reactors, such as those at Fukushima Daiichi. Research also extends into medical interventional guidance systems, where ultrasound and fluoroscopy are combined for precise treatment of trigeminal neuralgia. The lab integrates fluid dynamics, aerosol science, and biomedical engineering to address critical challenges in nuclear decommissioning and clinical intervention.
Professor Atsuhiro Noguchi's research lab specializes in 3D vision and generative deep learning, focusing on unsupervised and self-supervised methods for learning 3D geometry, shape, and structure from 2D images without annotated data. The lab develops advanced generative models such as RGBD-GAN and Neural Articulated Radiance Field (NARF) to enable pose-controllable 3D generation, depth estimation, and 3D representation learning from multi-view observations. A key research direction involves transferring knowledge from large-scale pre-trained models to small, unseen domains, enhancing data efficiency and generalization. The lab also explores structure-aware generation of articulated objects, learning joint configurations and deformations from video sequences without human-annotated keypoint or skeleton data.
Professor Manabu Miyata's research lab specializes in ophthalmic imaging and retinal vascular pathology, with a focus on advanced optical coherence tomography angiography (OCTA) to non-invasively visualize and analyze choriocapillaris blood flow in inherited retinal diseases such as Bietti's crystalline dystrophy (BCD) and retinitis pigmentosa (RP). The lab also explores innovative medical imaging technologies, including time-of-flight positron emission tomography (TOF-PET) using Cherenkov radiation, aiming to improve image resolution and diagnostic accuracy. Their work emphasizes the correlation between microvascular changes and visual function, contributing to a deeper understanding of disease progression and guiding personalized treatment strategies.
