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 Zhihang Zhong's research lab specializes in computer vision and multimedia processing, with a focus on real-world video restoration and understanding. The lab develops learning-based methods for challenging problems such as joint rolling shutter correction and deblurring, blur temporal super-resolution, and fine-grained action recognition in healthcare settings. A key emphasis is on building realistic datasets and scalable deep learning models that generalize well to real-world dynamic scenes and complex user intentions.
Professor Takeji Hashimoto's research lab specializes in the fundamental physics and dynamics of polymer self-assembly, with a focus on phase behavior, microphase separation, and kinetics in block copolymers and polymer blends. The lab employs advanced light scattering techniques to investigate the formation and evolution of nanostructured domains, particularly in systems such as styrene-isoprene block copolymers and polystyrene/poly(vinyl methyl ether) mixtures. Key research directions include the molecular weight effects on microdomain morphology, dynamic scaling laws during spinodal decomposition, and the influence of chain entanglements on phase separation kinetics. The work bridges polymer physics with soft matter science, emphasizing universal principles in self-organization of long-chain molecules.
Professor Sinya Aoki's research lab specializes in lattice quantum chromodynamics (QCD), focusing on precision calculations of hadron properties, quark masses, and decay constants using numerical simulations on the lattice. The lab is particularly known for its pioneering work on simulations at the physical point in $2+1$ flavor QCD, employing improved fermion actions and advanced algorithms such as domain-decomposed HMC and reweighting techniques to achieve high accuracy. Their research also explores phase structures in lattice field theories and the scaling behavior of chiral symmetry, contributing significantly to our understanding of strong interactions and hadron spectroscopy. The lab's work bridges theoretical particle physics and numerical hadron physics, providing essential inputs for both phenomenology and the Standard Model tests.
Professor Yoshikuni Teramoto's research lab specializes in the development of sustainable, functional materials based on cellulose and other structural polysaccharides. The lab focuses on chemical modification, graft copolymerization, and thermoplastic processing of cellulose derivatives to create biodegradable polymers with tailored thermal, mechanical, and degradation properties. Key research directions include the design of cellulose-based nanocomposites, enzymatic degradation behavior of modified polysaccharides, and the synthesis of biobased thermoplastics using green chemistry approaches such as acid-free processing and controlled polymerization. The lab aims to advance next-generation biomaterials for applications in packaging, biomedicine, and environmental technology.
Professor Taiho Kambe's research lab focuses on the molecular mechanisms underlying cellular zinc homeostasis, with a central emphasis on zinc transporters (ZnT and ZIP families) and their roles in regulating zinc distribution, signaling, and enzyme activation. The lab investigates how zinc dynamics influence cellular physiology, development, and disease, particularly through the function of transporters like ZnT-5, ZnT-6, and ZnT-7 in organelles such as the Golgi and secretory vesicles. Their work integrates molecular biology, cell biology, and biochemistry to elucidate the physiological and pathological implications of zinc metabolism in human health and disease.
Professor Naoya Oishi's research lab specializes in neuroimaging and computational neuroscience, focusing on the early detection and prediction of neurodegenerative diseases such as Parkinson’s disease and Alzheimer’s disease. The lab employs advanced neuroimaging techniques—including MRI, diffusion tensor imaging, and perfusion imaging—combined with machine learning and deep learning algorithms to identify biomarkers for disease progression and clinical outcomes. Key research directions include understanding the neural basis of nonpsychotic visual hallucinations in Parkinson’s disease, predicting outcomes in acute ischemic stroke with large vessel occlusion, and developing imaging-based classifiers for glioma grading and mild cognitive impairment conversion to dementia.
Professor Kazuhiro Iwaï's research lab focuses on the molecular mechanisms underlying cellular signaling, protein degradation, and post-translational modifications, particularly ubiquitination and its role in disease pathogenesis. The lab investigates the regulation of key tumor suppressors like pVHL and iron regulatory protein 2 (IRP2), exploring how oxidative stress and iron homeostasis intersect with ubiquitin ligase systems. A central theme is the identification and functional characterization of E3 ubiquitin ligases, such as the VBC-CUL-2 and LUBAC complexes, in controlling NF-κB signaling, apoptosis, and cancer progression. The lab also examines adhesion molecules and cell surface receptors in tumor-endothelial interactions, contributing to understanding metastasis and inflammation.
Professor Kota Iwahori's research lab focuses on cancer immunotherapy and molecular targeted therapy, particularly in aggressive malignancies such as malignant pleural mesothelioma (MPM) and non-small cell lung cancer (NSCLC). The lab investigates tumor-suppressive signaling molecules like SOCS1 and SOCS3 to modulate key oncogenic pathways (e.g., JAK/STAT, NF-κB), aiming to enhance antitumor immune responses and improve therapeutic efficacy. A central theme is the development of predictive biomarkers—especially peripheral T cell cytotoxicity—for immunotherapy response, with a strong emphasis on translating basic immunological findings into clinical diagnostics and personalized treatment strategies. The lab also explores repurposed drugs, such as tetracyclines, to boost T-cell immunity via signaling pathways like Zap70, highlighting a translational approach to novel immunotherapeutic combinations.
Professor Martin Vácha's research lab specializes in the photophysics and nanoscale optical characterization of functional organic and hybrid materials, with a focus on single-molecule spectroscopy, exciton dynamics, and the design of optoelectronic materials. Key research directions include understanding exciton migration and emission in conjugated polymers, probing non-radiative decay pathways in organic semiconductors for persistent room-temperature phosphorescence, and investigating the influence of nanoenvironment on the optical properties of perovskite nanocrystals and fluorescent molecules. The lab employs advanced superresolution and polarization microscopy techniques to achieve nanometre-scale spatial resolution and quantitative orientation measurements of molecular transition dipoles.
Professor Shimpei Tokuda's research lab specializes in the electrochemical and corrosion behavior of stainless steels, with a particular focus on pitting and intergranular corrosion mechanisms under applied stress. The lab investigates the role of microstructural features—such as MnS and CrS inclusions, grain boundary sensitization, and oxide/oxysulfide transformations—on localized corrosion initiation and propagation. Using advanced techniques including potentiodynamic polarization, immersion testing, and XAFS analysis, the lab elucidates how stress, chloride environments, and heat treatment influence pitting potential, dissolution kinetics, and passive film stability. Their work provides critical insights into the initiation mechanisms of stress corrosion cracking in welded stainless steel components.
Professor Ryotaro Matsuda's research lab specializes in the design and synthesis of functional porous coordination polymers (PCPs) and metal-organic frameworks (MOFs), with a focus on their structural flexibility, guest-induced framework transformations, and applications in gas separation, catalysis, and proton conduction. The lab explores how dynamic structural responses—such as pore contraction or framework rearrangement—can be harnessed for selective adsorption of small molecules like CO and benzene, as well as for enhancing catalytic and transport properties. A key research direction involves engineering metal sites and functional groups (e.g., sulfonic acid) to achieve high selectivity and activity under mild conditions, including low humidity environments. The lab combines advanced in situ characterization techniques, such as synchrotron X-ray powder diffraction, with precise control over framework topology and interpenetration to tailor materials for sustainable chemical processes and energy-related applications.
Professor Hosei Nagano's research lab specializes in advanced thermal management systems, focusing on loop heat pipes (LHPs) and innovative thermal control technologies for aerospace and electric vehicle applications. The lab develops passive, lightweight, and adaptive thermal devices such as reversible thermal panels and miniature loop heat pipes with novel wick materials like PTFE and graphite sheets. Key research directions include capillary-driven heat transfer, thermal performance optimization under varying environmental conditions, and the application of high-conductivity anisotropic materials in extreme thermal environments. The lab emphasizes experimental validation combined with advanced transient modeling to support space and terrestrial energy systems.
Professor Y. Ishibashi's research lab focuses on the molecular mechanisms underlying seed germination and dormancy in plants, with a central emphasis on reactive oxygen species (ROS) as key signaling molecules. The lab investigates the roles of ROS, particularly hydrogen peroxide and superoxide, in regulating hormone signaling pathways involving gibberellins and abscisic acid, as well as their interplay with NADPH oxidases in ROS production. Research also explores how environmental stresses, such as high temperature during seed development, affect seed quality by altering the accumulation of storage compounds like lipids and proteins in crops such as barley and soybean. The lab integrates physiological, biochemical, and molecular approaches to understand ROS-mediated regulation in plant development and stress adaptation.
Professor Shigeto Okada's research lab specializes in the development and characterization of advanced materials for energy storage applications, with a strong focus on solid-state batteries and multivalent ion batteries. The lab investigates novel electrode materials such as transition metal phosphates, chalcogenides, and tin-sulfide compounds, emphasizing high reversibility, structural stability, and interfacial compatibility in all-solid-state systems. Key research directions include the design of NASICON-type catholytes, optimization of solid electrolytes like Li1.5Al0.5Ge1.5(PO4)3, and understanding electronic and structural transitions in materials such as ZrTe5. The lab combines experimental synthesis with detailed physical characterization to advance next-generation battery technologies.
Professor Hayato Yamana's research lab specializes in health informatics and pharmacoepidemiology, focusing on the validation and utilization of large-scale healthcare databases for clinical research. The lab investigates disease identification and risk prediction using administrative and claims data, with particular emphasis on improving the accuracy of diagnoses and procedures in population-based studies. Key research directions include the application of procedure-based methods for identifying severe conditions such as sepsis and DIC, exploring immune-mediated associations in gynecological and autoimmune diseases, and analyzing real-world patterns of traditional Japanese Kampo medicine use within national health insurance systems. The lab also contributes to the development of robust, data-driven approaches for risk adjustment and health outcomes research in Japan and beyond.
Professor Samir Khan's research lab focuses on the challenges of fault diagnosis and maintenance in complex engineered systems, particularly in aerospace and electromechanical applications. The lab investigates persistent issues such as No-Fault Found (NFF) events, diagnostic granularity, and the impact of system complexity on troubleshooting reliability. It also explores advanced control methodologies, including non-uniform sampling and inverse probability weighting techniques, to improve system diagnostics and decision-making under uncertainty. The lab emphasizes industry-university collaboration to standardize terminology, optimize maintenance practices, and enhance diagnostic capabilities through sensor integration and data-driven approaches.
Professor Takuya Nomoto's research lab specializes in quantum materials physics, focusing on strongly correlated electron systems, unconventional superconductivity, and topological quantum phenomena. The lab employs first-principles electronic structure calculations and group-theoretical methods to uncover the microscopic origins of complex magnetic and superconducting orders, particularly in rare-earth and actinide-based compounds. Key research directions include the emergence of multipole superconductivity, line and point nodes in unconventional superconductors, and the interplay between magnetism, spin-orbit coupling, and topology in non-symmorphic systems. The lab also investigates quantum criticality and its impact on electromagnetic responses such as the magnetic penetration depth.
Professor Syed Tahir Ata-Ul-Karim's research lab specializes in sustainable crop management, with a primary focus on precision nitrogen (N) nutrition in rice and wheat under changing climatic conditions. The lab investigates non-destructive diagnostic tools—such as chlorophyll meters and nitrogen dilution curves—to optimize fertilizer use and improve crop productivity in intensive cropping systems. Research spans both Japonica and Indica rice ecotypes, emphasizing ecotype-specific and universal models for nitrogen status assessment. The lab also examines the interactive effects of climate change and irrigation practices on crop performance, aiming to support climate-resilient agriculture.
Professor Naoki Kondo's research lab focuses on the social determinants of health, particularly the impact of income inequality and socioeconomic disparities on population health outcomes. The lab investigates health inequalities across different life stages, with a strong emphasis on aging populations, using large-scale epidemiological data and multilevel analyses. Key research directions include the contextual effects of income inequality at national and regional levels, the role of relative deprivation in disability and mortality, and the pathways linking socioeconomic conditions to dietary behaviors and self-rated health. The lab also explores temporal dynamics such as lag, threshold, and period effects in the relationship between inequality and health.
Professor Kazumitsu Ueda's research lab focuses on molecular mechanisms underlying multidrug resistance in cancer, with a central emphasis on the MDR1 gene and its encoded P-glycoprotein, an ATP-binding cassette (ABC) transporter. The lab investigates the regulation of MDR1 gene expression, the structure-function relationships of P-glycoprotein in drug transport and resistance, and the role of ABC transporters in physiological processes such as hormone transport and insulin secretion. Their work also extends to the characterization of novel amyloid peptides in Alzheimer’s disease, linking protein misfolding and aggregation to neurodegenerative pathology. The lab employs molecular cloning, functional expression systems, and biochemical analyses to dissect transporter biology and disease mechanisms.
