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 Daiki Suenaga's research lab specializes in theoretical particle and nuclear physics, focusing on the behavior of hadrons and mesons under extreme conditions such as high density and temperature. The lab investigates chiral symmetry restoration, medium modifications of hadron masses and decay widths, and the structure of exotic hadrons using effective field theories, chiral perturbation theory, and models like the linear sigma model and parity doublet model. A central theme is understanding how chiral symmetry and its partial restoration influence hadronic properties in nuclear matter and dense QCD matter.
Professor Heiji Watanabe's research lab specializes in the atomic-scale characterization and engineering of oxide-semiconductor interfaces, with a focus on silicon-based materials such as Si(001), Si(111), and 4H-SiC. The lab employs advanced surface analysis techniques—including scanning reflection electron microscopy (SREM), x-ray photoelectron spectroscopy (XPS), and scanning tunneling microscopy (STM)—to investigate interfacial reactions, oxidation kinetics, and defect dynamics in ultrathin oxides. Key research directions include the formation and stability of interfacial layers in high-κ dielectrics (e.g., ZrO₂/SiO₂/Si), the role of atomic-scale roughness and defects in electrical properties, and the surface diffusion and decomposition mechanisms of ultrathin oxides under thermal treatment. The lab also develops multifunctional UHV-based systems for in situ nanofabrication and real-time surface reaction monitoring at the nanoscale.
Professor Hajime Watanabe's research lab focuses on molecular and cellular mechanisms underlying gene regulation, endocrine disruption, and host-microbe interactions in biological systems. The lab investigates estrogen-responsive gene networks in vivo using DNA microarray technology, explores the roles of environmental endocrine disruptors like alkylphenols, and examines symbiotic relationships between freshwater zooplankton and bacteria. A key emphasis is placed on understanding early transcriptional responses to hormones and xenobiotics, as well as the genetic and molecular basis of virulence in pathogenic bacteria such as *Shigella dysenteriae*.
Professor Tamami Nakano's research lab investigates the neural and behavioral mechanisms underlying attention, perception, and social cognition, with a particular focus on eye movements, spontaneous eyeblinks, and gaze patterns in neurodevelopmental conditions such as autism spectrum disorder (ASD). The lab employs eye-tracking, neuroimaging, and behavioral analysis to explore how attention is regulated during dynamic visual processing, especially in naturalistic settings like video viewing. A central theme is the functional role of spontaneous eyeblinks in attentional disengagement and mental state transitions, challenging traditional views of blinks as mere physiological acts. The lab also examines developmental changes in visual processing and predictive brain activity in infants and individuals with ASD, contributing to a deeper understanding of cognitive integration and attentional control.
Professor Shigeru Kondo's research lab focuses on the developmental mechanisms underlying animal pigmentation patterns, particularly in zebrafish. The lab investigates how self-organized interactions among pigment cells—melanophores, xanthophores, and iridophores—generate complex spatial patterns through dynamic cell-cell communication and positional cues. Using genetic, cell biological, and imaging approaches, the lab explores the molecular basis of pattern formation, including the role of ion channels such as Kir7.1 in regulating stripe width and cell distribution. Their work bridges theoretical models like the Turing reaction-diffusion system with empirical developmental biology to uncover universal principles of biological pattern formation.
Professor Noa García's research lab specializes in computer vision and artificial intelligence with a focus on art and multimedia understanding. The lab explores context-aware visual representations, particularly through deep learning architectures that integrate artistic attributes such as author, period, and style into embeddings for improved image classification and retrieval. A key direction involves building multimodal datasets—like AQUA—for vision-and-language tasks in art, while also addressing societal bias in large-scale vision-and-language training data. The lab further investigates asymmetric retrieval tasks, such as image-to-video matching, using tailored deep learning models that capture spatio-temporal relationships.
Professor Shinya Takaishi's research lab specializes in the design and synthesis of functional metal-organic frameworks (MOFs) and coordination polymers with tailored electronic, magnetic, and catalytic properties. The lab focuses on creating porous materials with enhanced electrical conductivity, exploring phenomena such as spin frustration, Mott-Hubbard transitions, and spin-Peierls transitions in low-dimensional systems. A key research direction involves engineering redox-active MOFs for high-performance energy storage applications, particularly in lithium-ion batteries, by leveraging d-π interactions and porous frameworks for efficient ion transport and multiple-electron redox activity.
Professor Takeru Kondo's research lab focuses on the molecular and cellular mechanisms underlying periodontitis and bone metabolism, with a particular emphasis on the role of fibroblasts and cathepsin K in early disease onset. The lab employs advanced technologies such as single-cell RNA sequencing and novel fluorescent probes (e.g., Osteoadsorptive Fluogenic Sentinel) to dissect immune and inflammatory responses in the oral microenvironment. Additionally, the lab explores biomaterials—especially bioactive glasses and surface-modified implants—for regenerative dentistry and metabolic bone disorders, aiming to bridge immunomodulation with tissue regeneration.
Professor Noriko Satoh-Asahara's research lab focuses on the molecular mechanisms linking metabolic disorders—such as obesity, type 2 diabetes, and nonalcoholic steatohepatitis (NASH)—to systemic complications including cardiovascular disease, renal dysfunction, and neurodegeneration. Her team investigates the roles of bioactive molecules like EPA, U-CysC, myokines (e.g., CXCL1), and natural compounds (e.g., taxifolin) in modulating inflammation, oxidative stress, and tissue homeostasis. The lab integrates preclinical models with translational biomarker discovery to identify novel therapeutic targets and risk indicators for metabolic and age-related diseases.
Professor Kentaro Katahira's research lab specializes in computational neuroscience and machine learning, focusing on understanding the computational and neural mechanisms underlying human and animal decision-making. The lab develops and applies advanced statistical and probabilistic models—particularly reinforcement learning and hierarchical Bayesian models—to analyze behavioral data and link them to individual differences in cognition, personality, and neural function. A central theme is the disentanglement of learning dynamics from behavioral biases such as choice perseverance, aiming to uncover the true mechanisms of reinforcement learning in the brain.
Professor Masayuki Kondo's research lab focuses on carbon cycle dynamics, particularly the quantification and understanding of terrestrial carbon uptake and fluxes using integrated top-down and bottom-up approaches. The lab specializes in atmospheric inversion systems, biosphere modeling, and data-driven upscaling techniques to estimate regional carbon budgets and assess the impacts of climate variability and CO₂ fertilization on ecosystem productivity. Their work bridges atmospheric observations, remote sensing, and process-based models to improve the accuracy of carbon cycle assessments and support climate mitigation strategies.
Professor Masanori Nagao's research lab specializes in the design and synthesis of functional polymers for biomedical applications, with a focus on glycopolymers that mimic natural glycoconjugates to interact with biological targets. The lab employs controlled polymerization techniques such as reversible addition-fragmentation chain transfer (RAFT) polymerization to precisely engineer polymer architecture, molecular weight, and sugar density for enhanced interactions with viral proteins like influenza hemagglutinin. Key research directions include the development of multivalent glyco-ligands with tailored topologies—such as star-shaped and triblock copolymers—for improved binding affinity and cryoprotective 3D cell culture scaffolds. The lab also investigates the dynamic properties of glycopolymers, linking molecular mobility and monomer structure to biological recognition efficiency.
Professor Nguyễn Đăng Khoa's research lab specializes in computational fluid dynamics and respiratory health, focusing on the transport and deposition of airborne particles, including virus-laden droplets during coughing and hazardous fibers like man-made vitreous fibers (MMVFs) in the human respiratory tract. The lab develops advanced numerical models—such as the Eulerian Wall Film (EWF) and Discrete Phase Model (DPM)—to simulate respiratory flows and assess health risks related to airborne transmission and environmental pollutants. It also investigates the role of urban vegetation in mitigating air pollution, particularly PM2.5, using ecological modeling tools like i-Tree Eco. The research integrates physiology, environmental science, and public health to address real-world challenges in disease transmission and urban air quality.
Professor Tomonori Kitashima's research lab specializes in computational materials science and additive manufacturing, with a focus on microstructure design and control in advanced metallic alloys. The lab investigates phase transformations, solidification processes, and defect engineering in multicomponent and pure metals using advanced simulation techniques such as the phase-field method and CALPHAD, particularly for applications in aerospace and energy systems. A key research direction involves optimizing laser-based additive manufacturing processes—such as selective laser melting and laser powder bed fusion—using tailored beam profiles (e.g., flat-top) to achieve single-crystal-like microstructures with controlled texture and reduced grain boundaries.
Professor Tomonori Somamoto's research lab specializes in fish immunology and molecular pathology, focusing on the evolutionary immunology of teleost fish and the development of diagnostic tools for aquatic animal diseases. The lab investigates conserved immune receptors such as the CD2 family in fish to understand the evolution of immune system components across vertebrates. It also develops monoclonal antibodies for the precise detection and diagnosis of emerging fish pathogens, such as atypical Aeromonas salmonicida in koi carp. The lab's work bridges fundamental immunology with applied aquaculture health management.
Professor Takeshi Uchiumi's research lab focuses on molecular mechanisms underlying drug resistance, cellular transport, and gene regulation in human diseases, particularly cancer and hereditary disorders. The lab investigates ABC transporters such as MDR1 and MRP2, exploring their regulation, trafficking, and role in multidrug resistance and Dubin-Johnson syndrome. Additionally, the lab examines key regulatory proteins like YB-1 and PLK in cell cycle control and development, as well as mitochondrial GTP-binding proteins like ERAL1 in translation and organelle function. Their work integrates molecular biology, cell biology, and genetics to understand disease pathogenesis and identify potential therapeutic targets.
Professor Mohamed Aboualalaa's research lab specializes in advanced wireless communication and energy harvesting technologies, with a strong focus on millimeter-wave (mm-wave) antennas, rectennas for Internet-of-Things (IoT) applications, and near-field wireless power transfer systems. The lab develops compact, dual-band, and multi-band antennas integrated with efficient rectifying circuits to enable simultaneous data communication and energy scavenging. Key research directions include MIMO-enabled mm-wave systems, metasurface-assisted power transfer, and high-efficiency rectenna designs for sustainable IoT and 5G networks.
Professor Fumito Tani's research lab specializes in the design and synthesis of functional supramolecular architectures, particularly focusing on porphyrin-based nanostructures and fullerenes. Key research directions include the construction of self-assembled nanotubes and host-guest systems through noncovalent interactions such as hydrogen bonding and π–π interactions, with applications in molecular recognition, electron transfer, and energy conversion. The lab also explores electronic properties of extended π-conjugated systems and the folding behavior of proteins, integrating structural, electrochemical, and spectroscopic analyses to understand dynamic molecular processes at the nanoscale.
Professor Yoshihiro Tsujimoto's research lab specializes in the design, synthesis, and structural characterization of complex oxide and oxyhalide materials with tailored electronic and magnetic properties. The lab focuses on novel perovskite-related structures, including layered Ruddlesden-Popper, Dion-Jacobson, and Aurivillius phases, as well as oxysulfides and oxyfluorides, with an emphasis on anion ordering, crystal engineering, and functional properties such as nonlinear optics and magnetism. Their work often involves high-pressure and high-temperature synthesis techniques to stabilize metastable phases with unique structural and electronic features.
Professor Takeshi Umazume's research lab specializes in maternal-fetal medicine and perinatal health, focusing on pregnancy complications, fetal well-being, and maternal physiological adaptations during pregnancy. Key research directions include the pathophysiology of pregnancy-related disorders such as preeclampsia and intrauterine fetal death, the role of biomarkers in predicting anemia and cardiac stress, and the integration of telemedicine into prenatal care to enhance access and safety—particularly during public health challenges like the COVID-19 pandemic. The lab also investigates fetal-maternal blood cell trafficking and longitudinal changes in maternal hematological and cardiac parameters across gestation.
