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 Yuji Oe's research lab focuses on the pathophysiological roles of coagulation and endothelial dysfunction in kidney diseases, particularly diabetic nephropathy and chronic kidney disease. The lab investigates molecular mechanisms involving tissue factor, factor Xa, protease-activated receptors (PARs), and endothelial nitric oxide synthase (eNOS) in driving inflammation and fibrosis. A key research direction is identifying novel therapeutic targets—such as FXa and PAR2—within the coagulation-inflammation axis to protect renal function. The lab also explores the renoprotective effects of SGLT2 inhibitors beyond glycemic control, emphasizing metabolic and hemodynamic benefits in kidney disease.
Professor Hisashi Shiga's research lab specializes in inflammatory bowel diseases (IBD), with a focus on optimizing treatment strategies for Crohn’s disease and ulcerative colitis. The lab investigates biomarker-guided, or 'tight control', management approaches using readily available serum markers such as CRP and albumin to improve clinical outcomes. Research also explores the impact of psychosocial stress—particularly post-disaster stress—on disease relapse, highlighting the interplay between mental health and IBD progression. Additionally, the lab contributes to endoscopic therapy research, particularly in the safe application of endoscopic submucosal dissection (ESD) in colorectal lesions by less experienced endoscopists.
Professor Hiroki Matsubara's research lab specializes in molecular-level understanding of thermophysical properties in soft and confined matter, with a focus on heat transport, diffusion, and phase transitions. Using advanced molecular dynamics simulations—particularly non-equilibrium and equilibrium methods—the lab investigates the microscopic mechanisms underlying thermal conductivity, self-diffusion in nanoconfined liquids, and nucleation processes in liquids. A key emphasis is placed on connecting macroscopic transport properties to molecular structures and intermolecular interactions, such as hydrogen bonding and van der Waals forces. The lab also explores interfacial thermal transport, especially the role of surfactants in enhancing heat transfer at solid–liquid interfaces through vibrational mode matching.
Professor Yoh Nagasaki's research lab specializes in high-temperature superconducting (HTS) materials and their applications, focusing on the design, characterization, and optimization of HTS coils for advanced energy and space systems. Key research directions include the mechanical and electrical behavior of REBCO and YBCO coils under thermal and stress conditions, modeling of screening currents and flux dynamics using percolation and creep models, and the development of efficient SMES systems and wireless power transfer for railways and renewable energy integration. The lab also investigates thermal transport properties in HTS tapes, particularly thermal diffusivity and conduction cooling performance, to support practical device design.
Professor Mika K. Kaneko's research lab specializes in glycobiology, focusing on the structure, function, and regulation of glycosyltransferases and glycoproteins involved in cancer progression and immune modulation. The lab investigates the role of specific glycosylation patterns—particularly fucosylation and sialylation—on tumor-associated proteins such as podoplanin (Aggrus) in platelet aggregation, metastasis, and immune evasion. Using molecular cloning, glycomics, and functional assays in cell lines and animal models, the lab explores how post-translational modifications influence disease mechanisms and therapeutic targeting. A key focus is on developing glycoprotein-targeted antibodies and enzymes as potential cancer therapeutics.
Professor Yuki Murakami's research lab specializes in combustion science and materials physics, focusing on the fundamental oxidation mechanisms of alternative fuels such as ammonia, dimethyl ether, and methane, particularly in mixtures with hydrogen and other hydrocarbons. The lab develops detailed and reduced chemical kinetic mechanisms to predict combustion behavior under various conditions, while also investigating the microstructural and magnetic properties of functional materials like shape memory alloys and spinels. Experimental and computational approaches, including micro-flow reactors, electron holography, and transmission electron microscopy, are employed to explore reaction kinetics, phase transformations, and defect evolution in materials under thermal and mechanical stress.
Professor A. Gando's research lab specializes in neutrino physics, with a primary focus on searching for neutrinoless double-beta decay in xenon-136 using the KamLAND-Zen experiment. The lab also conducts precision measurements of reactor antineutrino oscillations, leveraging long-term data from the KamLAND experiment to constrain neutrino mixing parameters and probe fundamental symmetries. Their work includes background suppression techniques, radiopurity improvements, and the study of geoneutrinos from uranium and thorium decay in the Earth’s interior. The lab plays a key role in advancing the sensitivity of double-beta decay experiments and testing the Majorana nature of neutrinos.
Professor Kunihiro Iwamoto's research lab specializes in psychopharmacology and clinical psychopharmacology, with a primary focus on evaluating the impact of psychotropic medications on driving performance and cognitive function. The lab investigates how acute and chronic administration of antidepressants, anxiolytics, and other psychotropic drugs affect real-world tasks such as road tracking and reaction control. Their work emphasizes the development of evidence-based evaluation methods to assess medication safety in daily activities, particularly for patients with mental disorders.
Professor Yoshiyuki Takahashi's research lab focuses on immunology and hematopoietic stem cell transplantation, particularly exploring the graft-versus-tumor effects in metastatic solid tumors such as renal cell carcinoma. The lab investigates donor-derived T cells and their tumor-specific antigens to understand immune-mediated tumor regression. Additionally, the lab examines oocyte quality and developmental potential in cattle, linking cellular morphology and ATP levels to maturation success. These diverse research directions reflect a strong emphasis on translational immunology and reproductive biology.
Professor Kazuhiro Gotoh's research lab specializes in advanced materials and heterostructure engineering for high-efficiency, low-cost crystalline silicon solar cells. The lab focuses on developing novel passivation layers, such as hydrogenated amorphous silicon, silicon nanocrystals in oxide matrices, and atomic layer deposited titanium oxide, to enhance carrier selectivity and surface passivation. Key research directions include optimizing deposition processes, understanding defect and hydrogen distributions, and improving electron transport through tailored oxide and interlayer structures.
Professor Yuanfang Zhu's research lab specializes in intelligent transportation systems, with a focus on driver behavior analysis and driving style assessment using advanced data analytics. The lab leverages naturalistic driving data, GPS trajectories, and G-G diagram-based methods to classify driving styles—particularly distinguishing aggressive from non-aggressive behaviors—through unsupervised and statistical learning techniques. Research also addresses the unique challenges of elderly drivers, emphasizing safe driving support through behavioral modeling and risk detection. The lab integrates signal processing, machine learning, and transportation informatics to support applications in usage-based insurance, driver feedback systems, and aging driver safety.
Professor Norio Ozaki's research lab focuses on the genetic and molecular mechanisms underlying neuropsychiatric disorders, particularly autism spectrum disorder (ASD) and schizophrenia (SCZ). The lab investigates the role of copy-number variations (CNVs) and functional polymorphisms in genes such as the serotonin 5-HT2A receptor to understand their contributions to neurobehavioral variation and disease susceptibility. Using population-based genetic analyses and cellular functional assays, the lab aims to identify shared biological pathways and clinically relevant genetic variants. Their work bridges population genetics with neuropharmacology to uncover novel insights into the pathophysiology of mental disorders.
Professor Sihwan Lee's research lab specializes in sustainable building technologies with a focus on energy-efficient indoor environmental control and renewable energy integration. The lab investigates natural ventilation strategies, advanced air conditioning systems, and photovoltaic-integrated façade solutions to enhance thermal comfort while minimizing energy consumption. Key research directions include optimizing airflow dynamics in buildings, improving the performance of radiant heating and desiccant-based air-conditioning systems, and developing innovative solar shading devices that balance daylighting, energy generation, and thermal performance. The lab combines experimental measurements with advanced computational fluid dynamics (CFD) simulations to validate and refine its designs.
Professor Yingji Zhao's research lab specializes in the design and synthesis of advanced functional materials, particularly metal-organic frameworks (MOFs) and covalent-organic frameworks (COFs), for sustainable energy conversion and environmental remediation. The lab focuses on developing tailored electrocatalysts—such as single-atom and hierarchical nanostructures—for critical reactions including CO₂ reduction, oxygen evolution, and hydrogen evolution, with an emphasis on enhancing activity, selectivity, and stability. Innovative strategies like soft-template assembly, crystal engineering, and defect modulation are employed to control porosity, morphology, and active site accessibility in porous materials. The lab also explores the integration of transition metal phosphides, doped carbons, and rare-earth-doped MOFs for next-generation energy applications.
Professor Akihiro Kishimura's research lab specializes in the design and application of polyion complex-based nanomaterials, particularly for biomedical and drug delivery systems. The lab focuses on developing stimuli-responsive vesicles (PICsomes) that can selectively accumulate in tumor tissues and release their cargo in response to environmental triggers such as pH changes. Key research directions include the fabrication of enzyme-loaded nanoreactors, siRNA delivery systems, and functional organogels with tunable optical properties through metallophilic interactions. The lab also explores the use of size-tunable nanocarriers to understand and control biodistribution in vivo.
Professor Kosei Yamauchi's research lab specializes in molecular catalysis for sustainable energy conversion, with a primary focus on designing and developing transition metal complexes—particularly those based on nickel, platinum, and cobalt—that efficiently catalyze the hydrogen evolution reaction (HER) under mild conditions. The lab investigates structure–activity relationships in molecular catalysts, emphasizing ligand design, electronic modulation, and proton-coupled electron transfer processes to lower overpotentials and enhance turnover numbers. Their work integrates electrochemistry, DFT calculations, and spectroscopic techniques to elucidate reaction mechanisms, particularly in biomimetic systems inspired by [NiFe] hydrogenase enzymes.
Professor Aya Hagishima's research lab specializes in plant-environment interactions, with a focus on transpiration dynamics and microclimate regulation in urban and controlled greenery systems. Her work explores how spatial arrangement and plant density influence water use efficiency and evapotranspiration rates in potted plants, contributing to sustainable urban greening and climate-resilient design. The lab integrates field experiments with statistical modeling to optimize plant placement for environmental benefits. Current research also examines soil moisture management and its impact on plant water relations under varying density conditions.
Professor Kazuki Tokuda's research lab specializes in high-resolution millimeter and submillimeter observations of dense molecular clouds and star-forming regions across diverse galactic environments, from the Milky Way to nearby galaxies such as the Small and Large Magellanic Clouds. The lab focuses on understanding the initial conditions of star and brown dwarf formation, particularly through detailed studies of prestellar and protostellar cores, filamentary structures, and the role of molecular tracers like CO and dust continuum in low-metallicity and high-mass environments. Using ALMA and other state-of-the-art facilities, the lab investigates the physical and chemical properties of dense gas, protostellar disks, and clumps to unravel the mechanisms governing the formation of stars and stellar clusters.
Professor Ronald Nguele's research lab specializes in advanced enhanced oil recovery (EOR) techniques, focusing on the thermodynamic behavior of heavy and extra-heavy crude oils, asphaltene aggregation, and the development of novel nanofluids and microemulsions for improved oil mobility. The lab investigates interfacial phenomena, phase behavior, and the impact of ultrasound and chemical additives on crude oil viscosity and stability. Key research directions include the design of stable silica nanofluids for light oil recovery, in situ emulsification strategies for residual oil mobilization, and the application of spectroscopic and rheological methods to understand degradation and aggregation mechanisms in complex petroleum systems.
Professor Satoshi Hata's research lab specializes in advanced electron microscopy, focusing on the three-dimensional characterization of microstructures and atomic-scale phenomena in functional materials. The lab pioneers in-situ and electron tomography techniques to investigate dynamic processes such as deformation, phase transformations, and nanostructure evolution in superalloys, MgB2-based superconductors, and intermetallic compounds. Their work combines high-resolution transmission electron microscopy, energy-filtered imaging, and computed tomography algorithms to achieve detailed 3D reconstructions at nanoscale resolution. The lab also develops innovative sample preparation and data acquisition methods, including focused ion beam milling and fast tilt-series imaging, to enable real-time observation of material behavior under external stimuli.
