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 Naoya Kitajima's research lab specializes in theoretical particle physics and cosmology, focusing on axion and axion-like particle phenomenology, dark matter production mechanisms, and the generation of gravitational waves from cosmological phase transitions. The lab investigates non-perturbative dynamics such as tachyonic instabilities and resonance phenomena, using advanced lattice simulations to model the non-linear evolution of scalar fields in the early universe. Key research directions include the origin of dark photons as dark matter, domain wall collapse as a source of stochastic gravitational waves, and the cosmological implications of axion-like particles for cosmic birefringence and multi-band gravitational wave detection.
Professor Chul-Moon Yoo's research lab specializes in theoretical and numerical relativity, focusing on cosmological models, primordial black hole formation, and the effects of inhomogeneities in the universe. The lab investigates non-Gaussianity in primordial density perturbations, black hole lattice models, and alternative cosmologies such as Lemaître-Tolman-Bondi spacetimes to explore dark energy alternatives. Using numerical relativity and analytical methods, the lab examines gravitational lensing signatures, particularly for exotic objects like Ellis wormholes, and the global dynamics of inhomogeneous universes.
Professor Kazuhide Sato's research lab specializes in developing and applying near-infrared photoimmunotherapy (NIR-PIT) for targeted cancer treatment. The lab focuses on designing antibody-photosensitizer conjugates that enable precise tumor ablation upon light activation, minimizing systemic toxicity. Key research directions include understanding the photochemical mechanisms underlying cellular disruption, such as ligand release and membrane permeabilization, and exploring immune modulation by selectively depleting regulatory T cells (Tregs) within the tumor microenvironment. The lab also investigates the application of NIR-PIT in challenging metastatic settings, including pleural and peritoneal dissemination of lung and ovarian cancers.
Professor Takayoshi Nakamura's research lab specializes in molecular materials science, focusing on the design and synthesis of functional molecular architectures with tailored electronic, magnetic, and dynamic properties. Key research directions include the development of conductive organic thin films using Langmuir–Blodgett techniques, the construction of supramolecular systems for controlled molecular rotation, and the creation of novel metal–organic complexes with unique spin and charge transfer characteristics. The lab also explores the interplay between molecular motion and electronic/magnetic properties, aiming to bridge molecular-scale phenomena with macroscopic functionality.
Professor Jun Terao's research lab specializes in the development of transition metal-catalyzed cross-coupling reactions, with a focus on nickel- and copper-catalyzed transformations for efficient carbon-carbon bond formation. The lab pioneers novel methodologies using earth-abundant metals, particularly Ni and Cu, to enable challenging alkyl-alkyl and alkyl-aryl couplings under mild conditions, often employing unconventional additives like dienes and tetraenes to enhance reactivity and selectivity. A key direction involves expanding the scope of cross-coupling to include less reactive substrates such as alkyl fluorides, mesylates, and tosylates, while also exploring the design of π-conjugated polymers with enhanced charge transport properties through strategic molecular engineering. The lab emphasizes mechanistic understanding and practical applications in synthetic organic chemistry and materials science.
Professor Xuan Song's research lab specializes in disaster resilience and human mobility modeling, focusing on leveraging big data and artificial intelligence to understand and predict human behavior during natural disasters. The lab integrates GPS trajectory data, remote sensing imagery, and deep learning techniques to advance landslide susceptibility mapping, emergency evacuation pattern analysis, and urban transportation simulation. Key research directions include intelligent disaster response systems, large-scale human mobility prediction, and AI-driven infrastructure monitoring, particularly in the context of earthquakes and nuclear accidents in Japan. The lab also develops advanced deep learning models for industrial applications such as steel surface defect detection.
Professor Alok Sharma's research lab specializes in computational biology and bioinformatics, focusing on leveraging deep learning and machine learning to decode complex biological data. The lab develops innovative computational frameworks—such as DeepInsight and OPTICAL—that transform genomic and neurophysiological data into structured formats amenable to analysis by convolutional and recurrent neural networks. Their work bridges omics data integration, brain-computer interface development, and microbial metabolite discovery, emphasizing real-time, accurate classification and predictive modeling. The lab’s interdisciplinary approach integrates computational neuroscience, systems biology, and bioprospecting for agricultural biotechnology.
Professor Shintaro Yagi's research lab specializes in liver transplantation and graft regeneration, with a focus on hemodynamic factors, portal venous pressure, and graft function in living-donor liver transplantation (LDLT). The lab investigates the impact of portal hypertension, graft volume, and donor age on post-transplant outcomes, particularly in pediatric and adult recipients. Key research directions include optimizing graft size through graft-to-recipient weight ratio (GRWR), understanding growth factor dynamics (e.g., HGF, VEGF), and improving long-term survival through hemodynamic and physiological monitoring. The lab also explores prognostic factors in reduced and hyper-reduced left lateral segment grafts, especially in pediatric patients.
Professor Yohei Yamaguchi's research lab specializes in urban-scale energy systems and building energy modeling, with a focus on decarbonizing commercial and residential building stocks through advanced simulation and spatial analysis. The lab develops innovative hybrid models—integrating GIS, physical-based building energy simulations, and stochastic behavioral modeling—to quantify energy demand, photovoltaic potential, and mitigation potential across multiple spatial and temporal scales. Key research directions include building-integrated photovoltaics (BIPV), occupant behavior modeling, and urban-scale energy and climate impact assessment. The lab emphasizes data-driven, high-resolution modeling to support urban planning and policy-making for carbon neutrality and sustainable infrastructure.
Professor Shin Sugiyama's research lab specializes in glaciology and cryospheric sciences, focusing on the dynamics of glaciers and ice caps in response to climate change. The lab investigates ice-ocean and ice-lake interactions, particularly in high-latitude and high-altitude regions such as Greenland, the Alps, and the Southern Patagonia Icefield. Key research directions include calving processes, basal hydrology, ice flow variability, and mass balance changes in response to surface melt and subglacial water pressure. The lab combines field observations, satellite remote sensing, and geophysical measurements to understand the mechanisms driving rapid glacier retreat and thinning.
Professor Sameh Eltaybani’s research lab focuses on improving patient safety and quality of care in critical and long-term care settings, with a strong emphasis on nursing practice, organizational systems, and cultural contexts in healthcare. The lab investigates nursing errors, staff burnout, and care quality in intensive and long-term care units, while also exploring e-learning implementation and palliative care integration in resource-limited and culturally diverse environments such as Egypt and the broader Arab world. A central theme is the development of context-specific, low-cost, and sustainable interventions to strengthen healthcare systems through education, policy reform, and workforce well-being.
Professor Seiya Yamayoshi's research lab specializes in virology and host-pathogen interactions, with a focus on understanding the molecular mechanisms of viral entry, replication, and host responses. The lab investigates emerging and re-emerging viruses such as SARS-CoV-2, enteroviruses (including EV71 and CVA16), and avian influenza A(H7N9), particularly through the identification of viral receptors and host factors involved in infection. They employ a combination of virological, molecular biological, and -omics approaches—including RT-qPCR, transcriptome analysis, and structural virology—to dissect viral pathogenesis and develop diagnostic and therapeutic strategies. A key theme is the discovery of novel viral proteins and regulatory mechanisms, such as viral mRNA splicing, which expand our understanding of viral gene expression and host adaptation.
Professor Akinori Hata's research lab specializes in low-dose and functional chest CT imaging, focusing on the early detection, characterization, and clinical management of interstitial lung abnormalities (ILAs). The lab investigates advanced image reconstruction techniques—such as deep learning-based denoising and iterative reconstruction—to improve image quality and diagnostic accuracy in ultra-low-dose CT. A key research direction involves the application of dynamic X-ray (DXR) for functional assessment of lung physiology, including ventilation and diaphragmatic motion. The lab also explores quantitative imaging biomarkers, such as the traction bronchiectasis/bronchiolectasis index, to predict disease progression and mortality in interstitial lung diseases.
Professor Manabu Kodama's research lab specializes in advanced characterization and optimization of materials for next-generation all-solid-state lithium-ion batteries, with a strong focus on three-dimensional microstructural analysis using synchrotron radiation X-ray computed tomography (nano-CT) combined with deep learning. The lab investigates the mechanical and electrochemical behavior of solid electrolytes and electrode materials under high pressure, aiming to understand and control interfacial phenomena such as void formation, particle contact, and lithium dendrite growth. A key research direction involves developing high-resolution, non-destructive imaging techniques and simulation models—such as pseudo-2D battery modeling—enabling accurate, low-cost analysis of complex electrode architectures for improved battery performance.
Professor Hiroshi Abe's research lab specializes in the development of innovative chemical and biochemical probes for molecular detection and imaging, with a strong focus on oligonucleotide-based sensing strategies. The lab pioneers advanced fluorescence probe technologies, including FRET-based systems and reduction-activated fluorogens, for highly sensitive and specific detection of nucleic acids in live cells. Key research directions include designing conformationally restricted carbohydrate derivatives for stereoselective radical reactions and engineering functional RNA molecules for efficient translation in cell-free systems. The lab integrates synthetic chemistry, chemical biology, and molecular imaging to create tools for real-time monitoring of biological processes at the molecular level.
Professor Yoko Ozawa's research lab focuses on the molecular mechanisms underlying retinal degeneration and neuroprotection in ocular diseases, particularly age-related macular degeneration (AMD) and diabetic retinopathy. The lab investigates the roles of oxidative stress, inflammation, and metabolic stress in retinal tissue damage, with a strong emphasis on the protective functions of nutraceuticals like lutein and endogenous antioxidant systems. Key research directions include the regulation of rhodopsin expression by signaling molecules such as SOCS3, the impact of blue light and the visual cycle on retinal pigment epithelium (RPE) health, and the early neural dysfunction in diabetic retinopathy prior to vascular pathology. The lab integrates molecular biology, animal models, and clinical insights to identify novel therapeutic targets for preventing vision loss.
Professor Karim I. Abdrabo's research lab focuses on urban resilience, flood risk assessment, and sustainable urban planning in the context of rapid urbanization and climate change. The lab specializes in developing integrated tools such as flood vulnerability indices and densification potential mapping using GIS and spatial analysis to support evidence-based decision-making. Research directions emphasize the integration of flood risk management with urban and spatial planning, particularly in vulnerable urban centers like those in Egypt, to enhance city resilience and competitiveness.
Professor Kohju Ikago's research lab specializes in seismic protection of civil structures, with a primary focus on innovative vibration control systems for low-frequency buildings. The lab develops advanced passive and semi-active control devices such as the tuned viscous mass damper (TVMD), which leverages mechanical components like ball-screw mechanisms and inerters to enhance energy dissipation. A key research direction involves optimizing damping systems—particularly rate-independent linear damping (RILD)—to effectively mitigate excessive displacements during strong earthquakes. The lab also emphasizes practical design methodologies for multi-degree-of-freedom structures, integrating dynamic analysis with numerical optimization.
Professor Huixin Liu's research lab specializes in upper atmospheric and space physics, focusing on the coupling processes between the Earth's ionosphere and thermosphere. The lab investigates thermospheric mass density, wind dynamics, and electron density variations under the influence of solar activity and geomagnetic disturbances. Using high-precision satellite data—primarily from the CHAMP mission—the lab uncovers global-scale patterns such as the equatorial mass density anomaly, ionospheric storm effects, and longitudinal wave-4 structures. Their work emphasizes the role of solar forcing, magnetic field configuration, and seasonal/hemispheric asymmetries in shaping the near-Earth space environment.
Professor Zhe Wang's research lab specializes in atmospheric chemistry and air quality modeling, focusing on the sources, transformations, and impacts of fine particulate matter (PM2.5), trace gases, and secondary aerosols in East Asia. The lab investigates the roles of organic and elemental carbon, black carbon, ammonia, and heterogeneous reactions in haze formation and climate interactions. Using advanced observational techniques and chemical transport models (CTMs), the lab conducts multi-scale studies on pollution dynamics, emission controls, and regional transport during severe pollution episodes. Their work supports evidence-based air quality policy and improves the accuracy of atmospheric modeling systems.
