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 Misato Ohtani's research lab focuses on the molecular and genetic mechanisms underlying cell wall development and vascular cell differentiation in plants, with a particular emphasis on the transcriptional regulation of secondary cell wall formation and xylem vessel development. The lab investigates key transcription factors, such as NAC and VND family proteins, and their roles in wood formation and stress responses, using model systems like Arabidopsis and poplar. They also explore post-translational modifications, including S-nitrosylation, and signaling pathways involving SnRK2 kinases in abiotic stress adaptation. Their work bridges developmental biology and plant biotechnology, aiming to enhance understanding of plant cell fate determination and biomass production.
Professor Ziyang Wang's research lab specializes in energy efficiency and sustainable building systems, with a focus on real-time thermal comfort modeling, intelligent HVAC control, and energy optimization in residential and commercial buildings. The lab also investigates vehicle energy consumption and CO2 emissions prediction, particularly through advanced driving behavior analysis, and develops innovative machine learning models—such as CNN-LSTM—for day-ahead electricity price forecasting in renewable energy-integrated power systems. A key research direction involves improving energy conservation through dynamic assessment of thermal sensation trends and adaptive ventilation strategies in indoor environments.
Professor Sylvain Chambon's research lab focuses on advancing organic photovoltaics (OPV) by addressing key challenges in device stability, morphology control, and sustainable processing. The lab investigates photoaging and thermal degradation mechanisms in conjugated polymers like MDMO-PPV, with an emphasis on understanding and mitigating oxidative degradation pathways. A central theme is the development of environmentally friendly fabrication methods, including solvent engineering and nanoparticle-based active layers, to replace toxic chlorinated solvents. The lab also explores nanostructured materials such as core–shell nanoparticles to optimize exciton diffusion and charge separation in bulk heterojunction solar cells.
Professor Taku Goto's research lab specializes in advanced functional materials and theoretical physics, with a strong focus on nanocomposite materials for thermal management and quantum field theory. The lab develops thermally conductive, flexible elastomers using slide-ring polymers and plasma-modified boron nitride, aiming to enhance thermal conductivity and mechanical properties for next-generation electronic insulation. In parallel, the lab explores fundamental theoretical frameworks in quantum mechanics and hadron physics, particularly through bi-local field models and alternative formulations of quantum theory where time is treated as a dynamical variable. The integration of materials science and theoretical physics defines the lab’s interdisciplinary approach.
Professor Tetsuya Uda's research lab specializes in advanced materials and processes for sustainable energy conversion and rare earth element recovery. The lab focuses on solid-state ionics, particularly proton-conducting electrolytes like CsH2PO4 and Y-doped BaZrO3, for high-performance fuel cells operating at intermediate temperatures. A key direction involves developing efficient recycling methods for rare earth-bearing waste, such as neodymium magnet sludge, through innovative chlorination and vacuum distillation techniques. The lab also explores catalytic reforming strategies to enable direct alcohol fuel cells using non-hydrogen fuels.
Professor Ryozo Noguchi's research lab specializes in sustainable bioenergy and environmental engineering, focusing on the development of eco-friendly biomass-based energy systems. Key research directions include microalgae-derived bio-oil production using waste streams like municipal wastewater and flue gas, life cycle assessment of agricultural and industrial by-products such as palm oil mill effluent and rice husk, and the integration of circular economy principles in biofuel production. The lab emphasizes energy–environment–economy nexus analysis, aiming to optimize renewable energy systems for real-world scalability and environmental sustainability.
Professor Ryo Yamada's research lab specializes in systems biology and functional genomics, focusing on the genetic and molecular mechanisms underlying human disease susceptibility. The lab investigates expression quantitative trait loci (eQTLs) and post-translational modifications—particularly citrullination mediated by PADI4—to uncover how genetic variants and protein modifications contribute to complex diseases like rheumatoid arthritis. By integrating high-throughput omics data with statistical and computational approaches, the lab aims to decode the regulatory networks linking genetic variation to phenotypic outcomes. Their work bridges population genetics, molecular pathology, and systems-level data analysis to identify disease mechanisms and potential therapeutic targets.
Professor Keiji Shimoda's research lab specializes in the atomic- and molecular-level characterization of complex oxide and silicate materials using advanced solid-state nuclear magnetic resonance (NMR) spectroscopy, particularly multi-quantum magic-angle spinning (MQMAS) techniques. The lab focuses on understanding the local coordination environments of cations—especially divalent ions like Mg²⁺ and transition metals—within disordered and amorphous structures such as silicate glasses, slags, and cathode materials. Their work combines experimental NMR with molecular dynamics simulations to unravel structural distortions, coordination changes, and reaction mechanisms in materials relevant to geoscience, energy storage, and industrial processing. The lab also investigates hydrogen storage materials and electrochemical behavior in layered oxide cathodes using techniques like HAX-PES and solid-state NMR.
Professor Takeshi Furuichi's research lab focuses on the behavioral ecology, social structure, and conservation of bonobos and chimpanzees, with an emphasis on comparative primatology. The lab investigates key differences in ranging patterns, social bonding, tool use, and nesting behavior between bonobos and chimpanzees, particularly in wild populations in the Democratic Republic of the Congo. Using long-term field studies and molecular genetics, the lab explores the evolutionary and ecological drivers of primate behavior and social organization. The research also contributes to conservation strategies by analyzing habitat use and genetic diversity across bonobo populations.
Professor Gregory J. P. Perry's research lab specializes in the development of sustainable and atom-economical methods for organic synthesis, with a focus on transition-metal-free and copper-catalyzed transformations. Key research directions include the functionalization of abundant feedstocks such as 1,3-dienes and benzoic acids via decarboxylative cross-coupling, the use of sulfur(IV) compounds for biaryl synthesis, and the innovative activation of sulfonamides and carboxylates for complex molecule construction. The lab emphasizes mild, scalable, and selective methodologies that avoid precious metals and harsh conditions, aligning with green chemistry principles.
Professor Yihong Zhang's research lab specializes in advanced sensing and detection technologies, with a focus on lightweight and real-time object detection for unmanned aerial vehicles (UAVs), particularly in challenging environmental conditions such as fog, low light, and glare. The lab also investigates biomedical modeling, including fractional-order dynamics of viral co-infections and immune responses, and develops innovative optical systems for sub-diffraction-limited beam shaping using nonlinear crystals. Their work bridges computational intelligence, biomedical engineering, and photonics, with applications in autonomous systems, public health, and precision imaging.
Professor Akira Onoda's research lab specializes in bioinorganic and biomimetic chemistry, focusing on the design and synthesis of artificial metalloenzymes and hybrid catalysts by integrating synthetic metal complexes into protein scaffolds. The lab develops functional protein–metal assemblies for applications in sustainable energy conversion, such as photocatalytic hydrogen evolution and selective organic synthesis. A central theme is the precise control of substrate binding and electron transfer through engineered protein cavities and non-covalent interactions, including hydrogen bonding and π–π interactions. The lab also employs advanced spectroscopic and imaging techniques to study dynamic processes in these hybrid systems at the molecular level.
Professor Riccardo Fincato's research lab specializes in computational mechanics and materials modeling, with a focus on elastoplasticity, ductile damage, and fatigue failure in metallic materials. The lab develops advanced constitutive models—such as the subloading surface and Fatigue SS (FSS) models—within the framework of continuum damage mechanics to accurately predict material behavior under cyclic and multiaxial loading. Key research directions include the coupling of plasticity and damage evolution, the influence of stress triaxiality and Lode angle on ductile fracture, and the efficient numerical implementation of return mapping algorithms for finite element analysis. The lab combines experimental testing with advanced numerical simulations to calibrate and validate models for real engineering applications.
Professor Shiroh Iwanaga's research lab specializes in molecular parasitology and host-pathogen interactions, with a focus on understanding the innate immune mechanisms in invertebrates and the molecular regulation of malaria parasite development. The lab investigates novel anticoagulant and immunomodulatory molecules from ticks and other arthropods, exploring their potential as therapeutic leads. Additionally, the lab develops advanced molecular tools, such as Plasmodium artificial chromosomes, to study gene regulation and chromosome dynamics in malaria parasites. These interdisciplinary efforts bridge parasitology, structural biology, and biotechnology to address infectious diseases.
Professor Hiroyuki Yoshida's research lab specializes in functional soft materials, with a focus on liquid crystals, nanomaterials, and their applications in advanced optical and separation technologies. The lab investigates the stabilization and manipulation of cholesteric blue phases and topological defects in liquid crystals using nanoparticles and patterned substrates, enabling novel photonic devices. Another key direction involves the development of chitosan-based porous materials for efficient adsorption of dyes and biomolecules, emphasizing sustainable and cost-effective solutions. The lab also explores tunable photonic devices, such as lasing systems and electro-optic devices, through nanostructured liquid crystal architectures.
Professor Masaru Kondo's research lab specializes in the development of asymmetric catalysis, with a focus on enantioselective transformations of nitrile and imine derivatives. The lab pioneers novel catalytic systems—particularly chiral Pd(II) and bis(imidazoline) catalysts—for the efficient synthesis of enantiopure β-aminonitriles, α,α-diaminonitriles, and functionalized vinylidene-aminonitriles. Recent work also explores stimuli-responsive chiral catalysts, such as azo-crown ether-based photoswitchable phase-transfer catalysts, enabling light-controlled reactivity and selectivity. The lab's research bridges fundamental catalysis with applications in pharmaceutical synthesis and sustainable methodology development.
Professor Atsushi Kasai's research lab focuses on the molecular and cellular mechanisms underlying neurovascular development and stress responses, with a central emphasis on the apelin/APJ signaling pathway in ocular and neural systems. The lab investigates the roles of apelin in angiogenesis, neuroprotection, and anxiety-related behaviors, particularly under hypoxic conditions, using advanced genetic and imaging techniques in mouse models. Additionally, the lab explores systemic RNA silencing in plants, examining the long-distance transport of siRNA signals and their roles in antiviral defense and gene regulation. These interdisciplinary studies bridge neuroscience, vascular biology, and plant molecular biology.
Professor Nobuhiko Nishiyama's research lab specializes in advanced photonic integration technologies, focusing on the development of high-performance vertical-cavity surface-emitting lasers (VCSELs) and InP-based thin-film membrane platforms. The lab pioneers novel materials and nanostructures—such as AlGaInAs DBRs, oxide-confined VCSELs, and heterogeneously integrated InP/Si hybrid substrates—to enable ultracompact, energy-efficient, and high-speed photonic devices. Key research directions include monolithic integration of active and passive components, polarization control in VCSELs, and room-temperature heterogeneous bonding for silicon photonics. The lab's work aims to overcome bottlenecks in datacom, telecom, and optical interconnects by advancing materials growth, device design, and integration techniques.
Professor Yuki Terazawa's research lab specializes in seismic performance enhancement of high-rise and complex structural systems through innovative damping and isolation technologies. The lab focuses on computational seismic design methods, particularly generalized response spectrum analysis and optimization techniques for structures with non-proportional damping, such as buckling-restrained braces and damped outrigger systems. Key research directions include the development of efficient design frameworks for supertall buildings, base-isolated systems, and retrofitted structures, integrating advanced numerical analysis and machine learning for performance prediction. The lab also investigates damage mechanisms in steel space frames and RC wall systems under seismic excitation, aiming to improve aseismic design practices.
Professor Yoshiaki Shoji's research lab specializes in the design and synthesis of electron-deficient boron-containing compounds, focusing on novel bonding motifs, such as B-B σ-bonds and hydrogen-bridged diboranes, that challenge traditional concepts of boron chemistry. The lab explores the unique photophysical properties of organoboron compounds, including room-temperature phosphorescence in arylboronic esters, and develops advanced supramolecular systems for selective fullerene separation. Their work also spans the creation of highly ordered organic thin films using molecular architecture, such as triptycene-based 2D packing, for next-generation optoelectronic materials. These efforts integrate physical organic chemistry, materials science, and structural characterization to advance functional boron-based materials.
