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 Danilo Ambrosio's research lab specializes in advanced friction stir welding (FSW) processes, focusing on optimizing tool design, process parameters, and material behavior to achieve high-strength, defect-free joints in dissimilar and lightweight alloys. The lab investigates thermomechanical phenomena, microstructural evolution, and interfacial bonding mechanisms—particularly in aluminum, steel, and titanium alloys—while integrating predictive modeling and machine learning for real-time defect detection. A key focus is on developing reliable, scalable, and cost-effective FSW solutions for industrial applications through innovative tool geometries and thermal modeling.
Professor Takumi Sannomiya's research lab specializes in nanophotonics and plasmonics, focusing on the design, simulation, and experimental characterization of nanostructured metallic systems for advanced sensing and light manipulation. Key research directions include localized and propagating surface plasmon resonances in nanoparticle arrays and hole arrays, with applications in ultra-sensitive biosensing, single-molecule detection, and chiral light generation. The lab combines advanced optical measurements, electron microscopy, and rigorous electromagnetic simulations—particularly using the multiple multipole program—to understand and control plasmonic field distributions, coupling mechanisms, and phase dynamics at the nanoscale.
Professor Daisuke Nagao's research lab specializes in the design, synthesis, and functionalization of anisotropic and composite colloidal particles with tailored morphologies and multifunctional properties. The lab focuses on advanced emulsion polymerization techniques—particularly soap-free and multi-step methods—to fabricate monodisperse, asymmetric particles such as dumbbells, core-shell structures, and hollow architectures. Key research directions include the integration of inorganic nanoparticles (e.g., silica, titania, magnetic, and ferroelectric BT) into polymer matrices for applications in optics, electronics, and responsive materials. The lab also investigates the field-induced assembly of anisotropic particles, enabling precise control over particle orientation and hierarchical structuring.
Professor Issei Suzuki's research lab specializes in the computational and experimental investigation of chalcogenide and oxide semiconductors for renewable energy applications, with a strong focus on thin-film solar cells and defect engineering in functional oxides. The lab explores novel materials such as SnS, CuGaO₂, and solid solutions like (Cu₁₋ₓLiₓ)GaO₂ to optimize electronic and optical properties for photovoltaic efficiency. Key research directions include homojunction solar cell development, band gap tuning through ion exchange, and first-principles calculations combined with spectroscopic validation to understand defect levels and electronic structures. The lab bridges materials synthesis, structural characterization, and theoretical modeling to advance sustainable energy materials.
Professor Yoshiharu Tamaki's research lab specializes in computational fluid dynamics, with a focus on advanced turbulence modeling and large-eddy simulation (LES) for high-fidelity flow prediction. The lab develops innovative numerical methods—particularly immersed boundary and wall-modeled LES techniques—on Cartesian grids to enable accurate and efficient simulation of complex turbulent flows around bodies, including transonic and high-Reynolds-number flows. Key research directions include near-wall modeling, shear-stress balance in turbulent boundary layers, and the physical mechanisms underlying flow separation and stall phenomena.
Professor Hirokazu Arimoto's research lab specializes in innovative drug discovery strategies, with a focus on targeted protein degradation and the development of novel antibiotics. The lab pioneers the design of autophagy-based degraders (AUTACs) that exploit cysteine modification to selectively degrade disease-related proteins, offering a promising approach to target the 'undruggable' proteome. Additionally, the lab develops advanced synthetic methodologies for complex natural products and antibacterial agents, such as multivalent vancomycin derivatives, to combat drug-resistant pathogens.
Professor Masaki Sano's research lab specializes in paleoclimatology and environmental science, focusing on tree-ring stable isotope analysis—particularly δ¹⁸O in cellulose—to reconstruct past hydroclimatic conditions across monsoon-affected regions of Asia. The lab emphasizes long-term climate variability, especially related to the Asian summer monsoon, using high-resolution tree-ring chronologies from diverse species and altitudes in the Himalayas, Southeast Asia, and the Russian Far East. Their work integrates dendroclimatology with climatic response modeling to understand monsoon dynamics, drought history, and climate-vegetation interactions over centuries. The lab also contributes to broader climate network development by expanding spatial coverage of tree-ring isotope data in data-sparse regions.
Professor Muhammad Mubashar Dogar's research lab specializes in climate dynamics, with a focus on the sensitivity of regional climates—particularly in monsoon and arid regions like the Middle East, North Africa, and South Asia—to external forcings such as explosive volcanic eruptions and large-scale climate modes like ENSO and NAO. The lab employs high-resolution atmospheric modeling and observational data to investigate post-eruption climate responses, including changes in atmospheric circulation, precipitation patterns, and oceanic heat content. A key research direction involves disentangling the complex interactions between volcanism, ENSO, and large-scale climate oscillations such as the NAO, especially in relation to high-latitude winter warming and tropical circulation changes. The lab also examines the role of volcanic aerosols in altering radiative forcing and their indirect climatic effects on global and regional hydrological cycles.
Professor Atsuko Nakayama's research lab focuses on translational biomedical research with a strong emphasis on clinical cardiology, vascular biology, and molecular mechanisms of tissue remodeling. The lab investigates cardiovascular disease prevention and management, particularly through cardiac rehabilitation programs—both remote and outpatient—while also exploring the role of oxidative stress and natural antioxidants like luteolin in protecting against cardiac fibrosis and hypertrophy. Additionally, the lab examines structural and electronic changes in materials under extreme conditions, such as high-pressure phase transitions in bismuth telluride (Bi2Te3), linking materials science with potential applications in superconductivity. These diverse yet interconnected research directions highlight a commitment to improving patient outcomes through both clinical and basic science approaches.
Professor Naoto Yokoya's research lab specializes in remote sensing and image analysis, focusing on advanced data fusion techniques for hyperspectral and multispectral imagery. The lab develops innovative algorithms—such as coupled nonnegative matrix factorization and deep learning-based optical image simulation—to enhance spatial and spectral resolution in Earth observation. Key research directions include hyperspectral unmixing, multimodal data fusion (e.g., SAR and optical), and applications in environmental monitoring, mineral mapping, and urban climate zone classification.
Professor Siqin Wang's research lab specializes in geospatial data science, artificial intelligence, and urban informatics, with a focus on leveraging big data and advanced analytics to address urban sustainability, public health, and smart city governance. The lab integrates geospatial AI, large language models, and mobility data to study human behavior, spatial accessibility, and policy impacts in urban environments. Key research directions include the application of AI in human geography, data-driven urban planning, and evidence-based policy evaluation during public health crises such as the COVID-19 pandemic.
Professor Hiroki Miura's research lab specializes in the development of advanced heterogeneous catalysts and functional materials for sustainable chemical transformations. The lab focuses on noble metal-catalyzed reactions—particularly Pd–Au and Ru-based systems—for selective C–H functionalization, hydrosilylation, and C–O bond activation, enabling environmentally benign synthesis under mild conditions. A key emphasis is placed on designing nanostructured catalysts with precise control over composition, size, and support interactions to enhance activity and recyclability. Additionally, the lab explores stimuli-responsive metal–organic frameworks and high-performance electro-optic polymers for advanced technological applications.
Professor Fujun He's research lab specializes in resource allocation and reliability optimization in virtualized and cloud computing environments, with a strong focus on network function virtualization (NFV) and virtual network management. The lab develops probabilistic and robust optimization models to ensure fault tolerance and high availability by jointly allocating backup computing, bandwidth, and server resources under failure uncertainty. Key research directions include unavailability-aware backup allocation, shared protection mechanisms, and capacity-efficient resource provisioning in data centers and cloud infrastructures.
Professor Tomohiro Ono's research lab specializes in the integration of robotics, artificial intelligence, and medical technology, with a focus on advancing patient-specific quality assurance in radiotherapy and developing intelligent service robots for real-world applications. The lab explores AI-driven solutions for improving the efficiency and accuracy of radiation therapy, particularly in intensity-modulated and volumetric modulated arc therapy, while also pioneering robotics technologies for domestic service tasks such as object recognition, grasping, and navigation. Their work bridges biological insights—like sperm competition mechanisms in insects—with cutting-edge engineering and computational methods.
Professor Kazushi Izawa's research lab focuses on the intersection of theoretical particle physics and molecular immunology, with core research in dynamical supersymmetry breaking in vector-like gauge theories and nonlinear gauge theories in high-energy physics. The lab also investigates the genetic and immunological mechanisms underlying autoinflammatory and lymphoproliferative disorders, particularly those involving the NLRP3 inflammasome, STING pathway, and CD27/CD70 co-stimulation in EBV-associated diseases. Recent work emphasizes the detection and clinical implications of somatic mosaicism in inflammatory conditions and the role of type I interferon signatures in undifferentiated inflammatory diseases.
Professor Takumi Ikenoue's research lab specializes in the development of solution-processed functional thin films for optoelectronic and radiation detection applications. The lab focuses on scalable deposition techniques—particularly mist chemical vapor deposition—for fabricating high-quality perovskite and oxide semiconductors with tailored nanostructures. Key research directions include the design of single- and multi-layer thin films for X-ray and UV photodetectors, as well as perovskite solar cells, emphasizing high carrier mobility, large-area uniformity, and device stability. The lab also explores fundamental growth mechanisms to optimize film morphology and performance.
Professor Ryoma Kamikawa's research lab specializes in evolutionary cell biology, focusing on the origin, diversification, and functional transformation of plastids and mitochondria in microbial eukaryotes. The lab investigates the evolutionary transitions from photosynthetic to nonphotosynthetic plastids, particularly in apochlorotic diatoms and other algal lineages, using genomics, transcriptomics, and subcellular imaging. A central theme is understanding how endosymbiotic organelles retain essential metabolic functions despite the loss of photosynthesis, with a particular interest in the retention and potential roles of plastid genomes and conserved protein systems like ATP synthase and the Tat translocase. The lab also explores the evolutionary history of endosymbioses, including the origins of complex plastids in dinoflagellates and cryptophytes, using phylogenetic and genomic approaches.
Professor Masayoshi Tsukahara's research lab specializes in regenerative medicine and stem cell biology, with a focus on the molecular mechanisms governing human induced pluripotent stem cell (hiPSC) adhesion, survival, and differentiation. The lab investigates key extracellular matrix components—particularly laminin isoforms and fibronectin motifs—and their roles in regulating signaling pathways such as PI3K/Akt, Fyn-RhoA-ROCK, and integrin-mediated signaling to enhance hiPSC culture efficiency and therapeutic application. The lab also pioneers innovative 3D closed-system bioreactor technologies for autologous iPSC-based therapies, aiming to streamline clinical translation through scalable, patient-specific manufacturing. Additionally, the lab explores plant regeneration mechanisms in rice to identify genetic determinants of somatic cell totipotency, contributing to broader regenerative biology insights.
Professor Sho Yamasaki's research lab specializes in innate immunity, with a focus on C-type lectin receptors (CLRs), particularly Mincle, as key sensors of damage-associated molecular patterns (DAMPs) and pathogen-associated molecular patterns (PAMPs). The lab investigates endogenous ligands such as β-glucosylceramide and cholesterol crystals that activate Mincle to drive inflammatory responses in myeloid cells. By combining biochemical fractionation, mass spectrometry, and functional signaling assays, the lab uncovers molecular mechanisms underlying immune recognition in tissue damage and infection. Their work bridges innate immunity, lipid immunology, and host defense mechanisms.
Professor Akira Kikuchi's research lab specializes in cell signaling pathways, with a primary focus on Wnt signaling and its roles in development and cancer. The lab investigates the crosstalk between Wnt/β-catenin and cAMP/PKA pathways, the post-translational modifications of Wnt ligands (such as glycosylation and palmitoylation), and the molecular mechanisms underlying β-catenin regulation and signal transduction. Additionally, the lab explores non-canonical Wnt pathways, including Wnt5a-mediated signaling in cell polarity and tissue morphogenesis, as well as G protein-coupled receptor signaling in immune cells. These studies integrate molecular biology, cell biology, and biochemistry to uncover fundamental mechanisms in cellular communication and disease pathogenesis.
