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 Hideaki Ishii's research lab specializes in networked control systems, distributed algorithms, and stochastic optimization, with a focus on stabilizing systems under limited communication resources. The lab investigates innovative control strategies—such as dwell-time switching and probabilistic algorithms—for linear and nonlinear systems that lack a single quadratic Lyapunov function, addressing nonconvexity challenges in system design. A significant part of the research is dedicated to distributed computation of PageRank-like metrics, drawing connections to multi-agent consensus problems and enabling scalable, decentralized solutions for large-scale networks. The lab also explores the theoretical foundations of information exchange in control and web ranking systems, emphasizing robustness, convergence, and practical implementation under data rate constraints.
Professor Motomu Tanaka's research lab specializes in the development and characterization of biomimetic membrane systems, focusing on bacterial outer membranes and native cell membranes. The lab investigates the structural and mechanical properties of lipid and lipopolysaccharide monolayers using advanced techniques such as X-ray reflectivity, interfacial rheology, and fluorescence labeling. A key research direction involves understanding ion-induced membrane reorganization—particularly calcium-mediated transitions in LPS layers—and designing functional supported membrane platforms that preserve protein orientation and function. The lab also explores bioadhesion mechanisms, especially enhancing receptor-ligand interactions in polymer-spacer-supported membranes for biomedical applications.
Professor Daisuke Kan's research lab specializes in the design, synthesis, and characterization of complex oxide materials with tailored electronic, magnetic, and structural properties. The lab focuses on strain engineering, chemical doping, and defect control in perovskite oxides such as BiFeO₃ and SrRuO₃ to achieve novel functionalities like continuous polarization rotation, enhanced electromechanical responses, and exotic transport phenomena. Key research directions include the interplay between crystal structure, electronic states, and emergent properties in oxide heterostructures and thin films.
Professor Tatsuo Shioda's research lab focuses on viral pathogenesis, particularly the molecular mechanisms underlying HIV-1 tropism, host restriction factors, and viral entry. The lab investigates host-virus interactions, including the role of chemokine receptors, CD26/DPPIV, and TRIM family proteins such as TRIM5alpha in blocking HIV-1 infection. Key research directions include viral genome organization, host range determinants, and the immunological impact of host restriction factors on disease progression.
Professor Shin Takayama's research lab focuses on integrative and traditional medicine, particularly Kampo and traditional Chinese medicine (TCM), in the context of aging and chronic disease management. The lab investigates the physiological and hemodynamic effects of acupuncture, moxibustion, and herbal medicines such as Daikenchuto using advanced imaging techniques like Color Doppler Imaging and quantitative thermal control devices. Research directions emphasize evidence-based evaluation of traditional therapies for geriatric conditions including frailty, post-stroke constipation, and viral infections like COVID-19, with a strong emphasis on clinical applicability and safety in elderly populations. The lab also contributes to clinical practice guidelines by integrating traditional medicine into modern geriatric care frameworks.
Professor Hongsheng Wang's research lab specializes in advanced materials and sustainable energy technologies, with a strong focus on energy storage materials such as antiferroelectric ceramics and nanocomposites for high-performance capacitors. The lab also explores low-carbon energy systems, including hydrogen production via methane reforming with carbon capture and storage (CCUS), solar-driven thermochemical processes for solar fuel generation, and integration of photovoltaics with green hydrogen or carbon capture. Innovative materials design, including rare earth coordination polymers and exfoliated nanocomposites, further supports their work in functional materials for energy and environmental applications. The lab emphasizes the development of technologies that enable carbon neutrality and improve energy efficiency through materials innovation and system integration.
Professor Hiroki Nakamura's research spans multiple interdisciplinary fields, focusing on human-machine interaction, environmental science, international investment dynamics, and social entrepreneurship. His work in haptic feedback systems explores adaptive driver assistance technologies by modeling individual neuromuscular responses, while his environmental research investigates diatom assemblages as indicators of past sea-ice conditions in the Sea of Okhotsk. He also examines regional economic patterns, particularly foreign direct investment in the Baltic Sea Region, and investigates social innovation and food waste reduction through incentive models and spatial analytics. His research integrates engineering, ecology, economics, and social science to address real-world challenges with data-driven and adaptive solutions.
Professor Genji Kurisu's research lab specializes in structural biology and bioinorganic chemistry, focusing on the molecular architecture and catalytic mechanisms of metalloenzymes involved in energy conversion and redox metabolism. The lab employs advanced techniques such as X-ray crystallography and cryo-electron microscopy to study complex biological systems, including photosynthetic reaction centers, hydrogenases, cytochrome complexes, and copper-containing enzymes. Their work bridges fundamental enzymology with applications in renewable energy and biocatalysis, particularly in understanding electron transfer, proton pumping, and metal cluster function in biological systems. A central theme is the structural basis of enzyme maturation, activation, and electron transfer in metalloenzymes with medical and biotechnological relevance.
Professor Mio Kondo's research lab specializes in the design and development of sustainable molecular catalysts for energy conversion and environmental remediation. The lab focuses on creating earth-abundant, first-row transition metal-based catalysts for critical reactions such as water oxidation and CO₂ reduction, aiming to replace noble metals in artificial photosynthesis and solar fuel production. A key direction involves the integration of molecular complexes into porous frameworks and functional surfaces to enhance activity, selectivity, and stability. The lab also explores supramolecular and coordination engineering strategies to control molecular architecture and electronic properties for advanced photocatalytic and electrocatalytic applications.
Professor Takuji Ishikawa's research lab specializes in the fluid dynamics and collective behavior of swimming micro-organisms, focusing on hydrodynamic interactions in suspensions of self-propelled particles. The lab employs analytical and numerical methods—such as the squirmer model and modified Stokesian dynamics—to investigate how low-Reynolds-number swimming leads to coherent structures like aggregation, band formation, and mesoscale motion. Their work bridges theoretical modeling with experimental validation, particularly in bioconvection and confined microfluidic environments. The research emphasizes the role of purely hydrodynamic forces in shaping collective dynamics, with applications in biological flows and active matter physics.
Professor Tsukasa Torimoto's research lab specializes in the design and synthesis of advanced nanomaterials for sustainable energy and environmental applications. Key research directions include the development of ionic liquid-based systems for stabilizing and templating noble metal and semiconductor nanoparticles, the engineering of plasmonic and heterostructured nanomaterials for enhanced photocatalytic activity, and the creation of core–shell and composite photocatalysts for efficient solar energy conversion and pollutant degradation. The lab also investigates the fundamental mechanisms of interfacial electron transfer and surface plasmon resonance effects in nanostructured materials to optimize their performance in catalysis and energy conversion processes.
Professor Gavin R. McCormack's research lab focuses on the interplay between the built environment, neighborhood characteristics, and physical activity across the lifespan. The lab investigates how perceived and objective environmental attributes—such as proximity to destinations, walkability, and park accessibility—influence physical activity and sedentary behaviors, particularly in children, older adults, and working populations. A key emphasis is placed on context-specific environmental influences, seasonal variations in activity, and the role of psychosocial factors like parental anxiety during public health emergencies. The lab also explores equity in urban design, advocating for community-engaged planning to create activity-friendly environments that meet diverse population needs.
Professor Kaori Sugihara's research lab specializes in supramolecular chemistry and biomimetic materials, with a focus on anion transport, mechanochromic polymers, and lipid membrane systems. The lab investigates the role of non-covalent interactions—such as pnictogen, chalcogen, and halogen bonding—in designing functional molecular assemblies that mimic biological ion channels. Recent work emphasizes the development of stimuli-responsive materials, particularly polydiacetylenes, for biosensing applications, with a strong emphasis on nanoscale mechanical and electrical characterization. The lab also explores plant stress responses at the molecular level, linking protein expression to environmental challenges like salinity.
Professor Tatsuo Hasegawa's research lab specializes in the development and characterization of organic semiconductors, with a focus on molecular design, thin-film fabrication, and field-effect transistor (OFET) devices. The lab explores novel organic semiconductors—particularly charge-transfer complexes and π-conjugated materials—aiming to achieve high-performance, single-crystalline, and ultrathin films with precise control over molecular alignment and morphology. A key innovation involves using geometrical frustration and meniscus control in solution processing to enable wafer-scale, single-molecular-layer organic semiconductor films with exceptional uniformity and electronic properties. The lab's work bridges fundamental materials science with practical applications in flexible and transparent electronics.
Professor Ken-ichiro Kamei's research lab specializes in the development of advanced microfluidic platforms and supramolecular nanomaterials for biomedical and materials science applications. The lab focuses on creating dynamic 3D microenvironments to study human pluripotent stem cells (hPSCs) with high spatiotemporal resolution, enabling quantitative analysis of pluripotency and differentiation. Additionally, the lab investigates functional nanomaterials, particularly cyclodextrin-based supramolecular nanoparticles, for targeted drug delivery and in vivo biodistribution studies. The integration of microfluidics, stem cell biology, and materials chemistry defines the lab’s interdisciplinary approach to regenerative medicine and nanomedicine.
Professor Yoichi Shiota's research lab specializes in spintronics and nanomagnetic devices, focusing on voltage-controlled magnetic phenomena, spin wave dynamics, and ultra-low power magnetization switching. The lab investigates fundamental mechanisms of magnon-magnon coupling, nonreciprocal spin wave propagation, and voltage-induced perpendicular magnetic anisotropy in synthetic antiferromagnets and magnetic tunnel junctions. Their work aims to enable energy-efficient, high-speed spintronic devices through precise control of magnetic states using electric fields and spin-wave engineering. Key achievements include demonstrating sub-nanosecond switching with extremely low error rates and giant nonreciprocal frequency shifts for logic applications.
Professor Masaharu Somiya's research lab focuses on extracellular vesicles (EVs) as natural nanocarriers for intercellular communication and drug delivery. The lab specializes in developing innovative methods for isolating and engineering EVs—particularly bovine milk-derived EVs—for scalable, safe, and efficient therapeutic applications. Key research directions include understanding the mechanisms of EV uptake, membrane fusion, and cytoplasmic cargo release using advanced quantitative assays such as the NanoBiT system, and designing virus-inspired nanocarriers to enhance endosomal escape and targeting efficiency. The lab also addresses critical challenges in EV-based therapeutics, including large-scale production, drug loading, and biocompatibility assessment.
Professor Daniel Orejón's research lab specializes in advanced interfacial phenomena, focusing on liquid–solid interactions, wetting dynamics, and their applications in sustainable energy and water purification. The lab investigates the fundamental behavior of droplets on structured surfaces, including evaporation, condensation, and electrowetting, with an emphasis on designing durable, nonwetting, and superhydrophilic surfaces for real-world applications. Key research directions include solar-driven water evaporation, anti-icing, self-cleaning, and corrosion-resistant materials, often leveraging nanomaterials such as graphene oxide and titanium dioxide nanoparticles to enhance performance and stability.
Professor Takashi Hirano's research lab specializes in tropical ecosystem biogeochemistry, with a primary focus on carbon cycle dynamics in tropical peatlands and forested wetlands. The lab investigates the impacts of land-use change, fire, and climate variability—particularly El Niño events—on peat decomposition, greenhouse gas emissions (CO₂ and CH₄), and the transition of peatlands from carbon sinks to sources. Using field measurements, eddy covariance techniques, and long-term monitoring, the lab aims to quantify ecosystem-scale fluxes and improve understanding of carbon balance under environmental stress. Their work contributes critical data for climate modeling and sustainable land management in Southeast Asia, especially in Indonesia’s peatland regions.
Professor Kiyoto Kasai's research lab specializes in neuropsychiatry and neuroimaging, focusing on the structural and functional brain abnormalities underlying schizophrenia and other psychoses. The lab investigates progressive gray matter volume loss in specific cortical and subcortical regions—particularly in the left superior temporal gyrus, Heschl's gyrus, and temporolimbic networks—using large-scale, multisite MRI studies. A central theme is distinguishing neurodevelopmental versus post-onset pathological processes in schizophrenia by comparing patients with first-episode psychosis to those with affective psychosis and healthy controls. The lab also explores early-stage auditory processing deficits, highlighting disruptions in frontotemporal networks even during preattentive detection of speech sounds.
