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 Sugumi Kanno's research lab specializes in theoretical high-energy physics and quantum gravity, focusing on inflationary cosmology, modified gravity theories, and brane world scenarios. The lab explores novel inflationary mechanisms involving vector fields, Lorentz violation, and anisotropic spacetime, as well as the low-energy effective dynamics of higher-dimensional gravity using nonlinear perturbation methods and holographic duality. A central theme is the interplay between gravity, quantum fields, and cosmological observables such as primordial gravitational waves and curvature perturbations.
Professor Masahiko Fujihara's research lab specializes in peripheral vascular interventions, with a strong focus on endovascular therapy for peripheral artery disease, particularly in challenging anatomical regions such as the superficial femoral artery (SFA) and below-the-knee (BTK) vessels. The lab investigates the role of advanced imaging modalities—especially intravascular ultrasound (IVUS) and CO2 angiography—in optimizing procedural outcomes, enhancing lesion characterization, and reducing complications such as dissection and contrast-induced nephropathy. Key research directions include the impact of vascular calcification patterns on treatment efficacy, the utility of biomarkers like the EPA-AA ratio in assessing atherosclerotic burden, and the long-term outcomes of renal artery stenting in Japanese patients with arterial hypertension or chronic kidney disease.
Professor Hajime Miki's research lab specializes in hydrometallurgy and mineral processing, with a focus on the selective separation and recovery of valuable metals from complex sulfide ores, particularly copper–molybdenum ores. The lab investigates fundamental surface chemistry, electrochemical behavior, and reagent mechanisms in flotation and leaching processes, aiming to develop environmentally safer and more efficient methods for mineral processing. Key research directions include the development of alternative depressants to replace toxic reagents like NaHS, the application of electrochemical techniques to control mineral surface properties, and the use of novel lixiviants such as chloride and sulfite-based systems for selective metal extraction.
Professor Shin-ichiro Noro's research lab specializes in the design and synthesis of metal–organic frameworks (MOFs) and porous coordination polymers with tailored porosity and functionality. The lab focuses on creating robust, microporous 3D networks using strategic combinations of metal ions, organic ligands, and anionic frameworks to achieve exceptional gas adsorption capacities—particularly for methane—while exploring the role of fluorine and electronegative ligands in enabling structural flexibility and selective guest interactions. Their work also emphasizes structural transformation, guest coordination, and the development of stimuli-responsive materials for advanced applications in gas storage and separation.
Professor Kenji Hirata's research lab specializes in molecular imaging, particularly positron emission tomography (PET), with a focus on improving cancer diagnosis, treatment monitoring, and prognosis prediction. The lab investigates quantitative PET biomarkers using radiotracers such as ¹⁸F-FDG and ¹⁸F-fluoromisonidazole (FMISO) to assess tumor metabolism, hypoxia, and treatment response. A key research direction involves developing semi-automated methods for robust and reproducible tumor volume and uptake measurement, reducing observer variability and enhancing clinical utility. The lab's work aims to translate advanced PET imaging techniques into practical tools for personalized oncology.
Professor Masahiro Kajihara's research lab focuses on emerging and re-emerging zoonotic viral diseases, with a particular emphasis on filoviruses such as Marburg and Ebola viruses, as well as other high-consequence pathogens like Crimean-Congo hemorrhagic fever virus (CCHVF) and highly pathogenic avian influenza viruses. The lab investigates viral pathogenesis, host-virus interactions, and immune evasion mechanisms, with a strong focus on identifying and characterizing host factors and viral determinants that influence disease severity and transmission. A key direction involves understanding the role of host immune responses—especially antibodies—in viral control and protection, including non-neutralizing antibody functions that modulate viral release and spread.
Professor Takayuki Homma's research lab specializes in electrochemical materials science and surface engineering, focusing on the development of advanced functional materials for sustainable energy applications. Key research directions include electrochemical fabrication of nanostructured semiconductors for solar cells, bubble dynamics and surface engineering in electrochemical energy conversion (e.g., hydrogen evolution reaction), and innovative surface modification techniques for multifunctional glass and electrodes. The lab also explores in situ analytical methods such as surface-enhanced Raman spectroscopy to probe interfacial phenomena in electrochemical systems.
Professor Yoshifumi Kasuga's research lab specializes in maternal-fetal medicine and reproductive epigenetics, focusing on the interplay between gestational diabetes mellitus (GDM), genetic susceptibility, and long-term metabolic outcomes in mothers and offspring. The lab investigates epigenetic modifications—particularly DNA methylation—associated with fetal programming, neonatal hypoglycemia, and postpartum glucose intolerance in Japanese populations. A key research direction involves translating genetic and epigenetic findings into clinical strategies for early diagnosis and risk prediction, especially in the context of public health challenges such as the COVID-19 pandemic. The lab also explores how perinatal metabolic environments influence developmental origins of health and disease (DOHaD).
Professor Keitaro Shimozaki's research lab specializes in translational oncology, focusing on immune checkpoint inhibitors and targeted therapies in gastrointestinal and other solid tumors. The lab investigates biomarkers such as microsatellite instability (MSI-H) and HER2 expression levels—including HER2-low and HER2-ultralow subtypes—to refine patient selection and improve therapeutic outcomes. A key focus is understanding the clinical implications of immune-related adverse events (irAEs), including their predictive risk factors and prognostic significance, to optimize immunotherapy safety and efficacy. The lab also contributes to real-world evidence in advanced gastric cancer, particularly in the context of novel agents like zolbetuximab for claudin18.2-positive disease.
Professor Toru Takebayashi's research lab focuses on epidemiological studies investigating the health effects of environmental and lifestyle factors, particularly the potential risks associated with mobile phone use and brain tumours. The lab employs advanced exposure assessment methods, such as SAR modeling, to explore the relationship between radiofrequency radiation and neurological diseases. Additionally, the lab examines the metabolic impacts of physical activity, linking lifestyle behaviors to biomarkers of metabolic health and chronic disease risk. Their work bridges environmental exposure science with preventive medicine, aiming to inform public health policy.
Professor Kenichiro Kinouchi's research lab focuses on the multifaceted roles of the (pro)renin receptor (P)RR/ATP6AP2 in cellular physiology and disease pathogenesis. The lab investigates its dual functions in regulating vacuolar H+-ATPase (V-ATPase) activity—essential for vesicular acidification and cellular homeostasis—and in modulating the renin-angiotensin system, with implications in hypertension, fibrosis, and metabolic disorders. Key research directions include the molecular mechanisms of V-ATPase biogenesis, the impact of fasting on circadian clock regulation, and the therapeutic potential of drugs like telmisartan in cardiovascular and renal protection. The lab also explores novel signaling crosstalk, such as the interaction between (P)RR and Wnt signaling pathways via V-ATPase.
Professor Shin-ichi Ito's research lab specializes in marine ecosystem dynamics, focusing on the ecological responses of pelagic fish—particularly Pacific saury and chub mackerel—to environmental changes. The lab integrates bioenergetics modeling, ecosystem modeling, and environmental DNA (eDNA) techniques to understand fish population dynamics, trophic interactions, and climate change impacts in the northwestern Pacific. A key focus is on linking oceanographic conditions, such as sea surface temperature and water mass transitions, to fish growth, recruitment, and distribution using both observational data and predictive models.
Professor Sadaf Taimur's research lab specializes in transformative learning and sustainability education in higher education, with a focus on innovative pedagogies such as Design Thinking and digital transformative pedagogy. The lab explores how experiential and hybrid learning models can foster critical reflection, perspective transformation, and sustainable civic engagement among students. Research also extends to virtual education challenges and non-formal learning in youth development, particularly in contexts like Pakistan and during global disruptions such as the COVID-19 pandemic.
Professor Soichi Inagaki's research lab focuses on plant developmental biology and epigenetics, with a central emphasis on the molecular mechanisms regulating cell division, differentiation, and genome stability in *Arabidopsis thaliana*. The lab investigates key genes such as *TEBICHI* (TEB), which links DNA damage response, cell cycle control, and meristem development, and explores the epigenetic regulation of histone modifications—particularly H3K4 methylation—and their roles in transcriptional control. Additionally, the lab contributes to functional genomics through innovative methods for T-DNA insertion site mapping and studies the epigenetic dynamics of transposable elements in gene silencing and genome integrity. The integration of molecular genetics, genomics, and biophysical techniques underpins the lab’s interdisciplinary approach to understanding plant development and genome regulation.
Professor Tsuyoshi Furushima's research lab specializes in the fundamental mechanisms of deformation and microstructural evolution in metallic materials, particularly focusing on polycrystalline metals and biodegradable magnesium alloys. The lab investigates deformation incompatibility at grain boundaries, the role of crystallographic orientation, and dynamic recrystallization during advanced forming processes such as dieless drawing. Using multiscale experimental and numerical approaches—including digital image correlation, finite element modeling, and in-situ observation—the lab aims to control microstructure and mechanical properties for next-generation biomedical and structural applications.
Professor Yasuhiro Hagiwara's research lab specializes in health-related quality of life (HRQoL) measurement and statistical methodology in oncology and epidemiology. The lab focuses on developing and validating statistical models—such as mapping algorithms, modified Poisson regression, and risk difference estimation—for improving the analysis of clinical trial data and health outcomes. Key research directions include enhancing the validity of causal inference in trials with subsequent treatments, optimizing HRQoL assessment in cancer care, and addressing methodological challenges in binary outcome regression with small event counts. The lab's work bridges clinical oncology, biostatistics, and health economics to support evidence-based decision-making in healthcare.
Professor Yuki Noguchi's research lab specializes in computational design and optimization of acoustic and elastic metamaterials, with a focus on advanced topology optimization techniques such as the level set method. The lab investigates wave manipulation in acoustic-elastic coupled systems, including the conversion of acoustic waves into elastic waves and the creation of subwavelength bandgaps for low-frequency sound insulation. Additionally, the lab explores applications in biomedical engineering, particularly in understanding the pharmacokinetics of therapeutic antibodies in the central nervous system. Their work bridges fundamental materials science with practical applications in acoustics, electronics, and drug delivery.
Professor Vũ Đức Cảnh's research lab specializes in environmental virology and water safety, focusing on the development and application of advanced molecular techniques to assess the infectivity and removal of pathogenic viruses in water. The lab investigates capsid integrity-based qPCR methods—such as EMA, PMA, and CDDP—to distinguish between intact (potentially infectious) and inactivated viral particles in diverse water matrices, including wastewater, surface water, and drinking water. A key research direction involves improving virus concentration and detection methods to overcome interference from natural organic matter, such as humic acids, and evaluating the performance of novel adsorbents like porous carbons for virus removal. The lab also contributes to risk assessment of waterborne viral pathogens through innovative molecular and physicochemical approaches.
Professor M. Tanaka's research lab specializes in quantum condensed matter physics, with a focus on topological quantum materials, low-dimensional electron systems, and correlated electron phenomena. The lab investigates emergent quantum states such as quantum Hall effects, Weyl semimetals, and spin-charge separation in two-dimensional and heterostructured systems. Key research directions include the synthesis and characterization of novel quantum materials like Co₃Sn₂S₂ and Mn₃Si₂Te₆, as well as the exploration of symmetry-breaking phenomena and unconventional magnetoresistance. The lab also develops advanced spintronic devices, such as spin MOSFETs, to probe and exploit quantum transport in correlated and topological systems.
Professor Atsushi Kitada's research lab specializes in the development of novel electrochemical systems and advanced functional materials, with a strong focus on energy storage and conversion technologies. Key research directions include the design of low-volatility, halide-free electrolytes for room-temperature electrodeposition of aluminum and magnesium, the synthesis of conductive oxide monoliths with tailored porosity for electrochemical applications, and the exploration of quantum magnetic phenomena in low-dimensional materials. The lab integrates materials synthesis, electrochemistry, and physical characterization to advance sustainable energy solutions and fundamental understanding of ion transport and magnetic excitations.
