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 Naoto Koshizaki's research lab specializes in the design, synthesis, and application of advanced nanomaterials using pulsed laser deposition (PLD) and laser-based processing techniques. The lab focuses on creating hierarchical nanostructures such as TiO₂, Co₃O₄, ZnO, and carbon quantum dots with tailored optical, surface, and catalytic properties. Key research directions include the development of stimuli-responsive surfaces—particularly superhydrophilic and switchable wettability materials—alongside applications in sensing, gas detection, and optoelectronics.
Professor Ichigaku Takigawa's research lab specializes in the application of machine learning and data science to accelerate materials discovery, particularly in heterogeneous and homogeneous catalysis. The lab focuses on developing predictive models for adsorption energies, d-band centers, and catalytic performance using elemental descriptors and advanced regression techniques. A key research direction involves overcoming data limitations in catalytic literature by leveraging elemental features rather than direct composition inputs, enabling discovery in underrepresented reaction systems such as methane activation and oxidative coupling of methane. The lab also explores fundamental aspects of machine learning, including sparse optimization and source separation, to enhance model interpretability and reliability in materials science.
Professor Kenji Sudo's research lab focuses on virology, particularly antiviral drug development targeting herpes simplex virus and respiratory syncytial virus, with an emphasis on identifying and optimizing natural compound derivatives for therapeutic use. The lab also investigates marine ecosystem dynamics, including seagrass distribution and kelp forest responses to climate change, highlighting coastal environmental conservation. Additionally, the lab explores neurological disorders such as syringomyelia, with a focus on autonomic dysfunction including dyshidrosis (abnormal sweating). These diverse research directions reflect a strong commitment to translational biomedical and environmental science.
Professor Eisuke Ota's research lab specializes in the development of innovative photochemical and transition-metal-catalyzed transformations for the selective and sustainable synthesis of complex organic molecules. The lab focuses on leveraging photoredox catalysis, zirconocene chemistry, and radical mechanisms to enable challenging bond-forming and bond-cleaving processes under mild conditions. Key research directions include the redox-neutral isomerization of alcohols, reductive ring opening of epoxides and oxetanes, and the activation of inert C–X bonds (e.g., C–Cl, C–O) for synthetic applications. The group also advances tools for chemical biology, such as stable photoreactive probes for protein labeling.
Professor Naoki Yamamoto's research lab specializes in quantum control and estimation, focusing on the design and analysis of feedback strategies to protect and enhance quantum states against decoherence. The lab investigates robust quantum filtering and observer design for linear quantum systems under parametric uncertainties, with applications in quantum networks and quantum memory. A key focus is on developing practical quantum technologies such as quantum state transfer, entanglement preservation, and variational quantum algorithms for quantum chemistry. The lab bridges theoretical quantum control with real-world implementation challenges, including detector noise and hardware limitations in current quantum devices.
Professor Yuji Nagasaka's research lab specializes in the development and characterization of advanced thermal materials and measurement techniques for extreme environments, with a focus on space and high-performance engineering applications. The lab conducts precise thermophysical property measurements—particularly thermal conductivity, diffusivity, and effusivity—using advanced methods such as the transient hot-wire technique and photothermal radiometry. Research spans functional materials like variable emissivity coatings and functionally graded materials (FGMs), as well as aqueous electrolyte solutions under high pressure and temperature. The lab emphasizes accurate, absolute measurements to support the design of reliable thermal control systems for aerospace and energy applications.
Professor Samir Kumar's research lab specializes in the design and fabrication of advanced nanomaterials for sensing and environmental applications, with a strong focus on surface-enhanced spectroscopy techniques such as SERS (Surface-Enhanced Raman Scattering) and SEFS (Surface-Enhanced Fluorescence Spectroscopy). The lab develops novel nanostructured substrates—particularly silver nanorod and titanium dioxide nanorod arrays—using glancing angle deposition (GLAD) to create high-density 'hot spots' for enhanced molecular detection. Research directions include improving substrate sensitivity, reusability, and stability through surface engineering, such as superhydrophobic coatings, and exploring applications in biosensing, photocatalysis, and trace chemical detection.
Professor Changhee Lee's research lab specializes in advanced energy storage systems, with a primary focus on aqueous and multivalent ion batteries, particularly calcium-ion and aqueous lithium-ion batteries. The lab investigates fundamental electrochemical mechanisms, including intercalation behavior, solid-electrolyte interphase (SEI) and cathode-electrolyte interphase (CEI) formation, and electrolyte engineering to enhance cyclability and capacity retention. Key innovations include the development of superconcentrated aqueous electrolytes and hybrid solvent systems that suppress side reactions and stabilize electrode materials such as copper hexacyanoferrate and LiNiO₂.
Professor Mineo Kurokawa's research lab focuses on the molecular mechanisms underlying hematopoietic stem cell regulation and leukemogenesis, with a particular emphasis on transcriptional regulation, epigenetic modifications, and signal transduction in hematopoietic malignancies. The lab investigates how oncogenic fusion proteins such as AML1/Evi-1 disrupt tumor suppressor pathways like TGF-β signaling, and explores the non-canonical, DNA methylation-independent functions of leukemia-associated mutations such as DNMT3A R882H in stem cell self-renewal and differentiation block. Key research directions include the post-translational regulation of transcription factors like AML1 (RUNX1), their interactions with co-regulators such as mSin3A, and the epigenetic and signaling networks that drive leukemic transformation.
Professor Yoshitaka Taguchi's research lab specializes in advanced photonic technologies and quantum optics, focusing on quantum-enhanced optical measurements, programmable photonic devices, and integrated optical modulators. The lab explores quantum-limited sensing using squeezed light and entangled states to surpass classical noise limits, while also developing robust and reconfigurable photonic architectures such as multiplane light converters and Ge/Si-based mid-infrared modulators. Their work bridges fundamental quantum optics with practical applications in ultra-sensitive detection, optical communications, and quantum information processing.
Professor Takeshi Imamura's research lab specializes in planetary atmospheric science, with a focus on understanding the dynamics, chemistry, and cloud systems of Venus and other planetary atmospheres. The lab employs advanced numerical modeling, radio occultation techniques, and analysis of space mission data—particularly from the Akatsuki mission—to investigate superrotation, atmospheric circulation, and the vertical distribution of trace gases and aerosols. Key research directions include the role of planetary-scale waves in momentum transport, the microphysics of sulfuric acid clouds, and the global circulation of condensable gases in thick, cloudy atmospheres.
Professor Kuniaki Konishi's research lab specializes in nanophotonics and metamaterials, focusing on the design and characterization of chiral and asymmetric nanostructures for advanced polarization control of light. The lab explores fundamental mechanisms behind circular polarization, second-harmonic generation, and extraordinary optical activity in planar photonic crystals and plasmonic systems, with applications in quantum optics, biomolecular dynamics, and integrated photonics. Key research directions include symmetry-driven optical phenomena, vacuum field anisotropy, and the development of compact, solid-state sources for coherent circularly polarized light in the vacuum ultraviolet range.
Professor Naota Hanasaki's research lab specializes in integrated global hydrological modeling, focusing on the interactions between human activities and the terrestrial water cycle. The lab develops advanced water resources models to assess water availability, use, and scarcity under changing climate and socio-economic conditions, with particular attention to agricultural water use, reservoir operations, and groundwater dynamics. Their work integrates land surface processes, river routing, crop growth, and anthropogenic water withdrawals to support sustainable water management and policy planning. The lab also contributes to global assessments under Shared Socio-economic Pathways (SSPs), linking water resources to future development scenarios.
Professor Hirofumi Shoda's research lab focuses on the immunological mechanisms underlying autoimmune and inflammatory diseases, particularly rheumatoid arthritis (RA) and vasculitides. The lab investigates key cytokines such as IL-32 and its interplay with TNF-alpha, explores novel autoantigens like CitBiP, and examines T cell subset imbalances—especially Th17 and BiP-reactive T cells—in disease pathogenesis. A central theme is the identification of immune cell subsets and molecular targets that could lead to novel therapeutic strategies, particularly in B-cell and T-cell directed therapies.
Professor Kazuki Komatsu's research lab specializes in high-pressure crystallography and neutron scattering, focusing on the structural characterization of hydrogen-bonded materials such as ice polymorphs, hydroxides, and hydrated salts. The lab develops advanced high-pressure and high-temperature experimental techniques—particularly for neutron diffraction—enabling precise determination of hydrogen positions and symmetry breaking due to hydrogen ordering. Their work bridges materials chemistry, mineralogy, and condensed matter physics, with a strong emphasis on understanding the role of hydrogen dynamics and ordering in complex hydrous systems under extreme conditions. The lab also pioneers innovative pressure-temperature control systems for in-situ studies, enhancing the reliability and scope of neutron scattering experiments in the 0–10 GPa and 77–473 K range.
Professor Masashi Fukayama's research lab focuses on the molecular and pathological mechanisms underlying gastrointestinal and soft tissue neoplasms, with a particular emphasis on Epstein-Barr virus (EBV)-associated gastric cancer, gastrointestinal stromal tumors (GISTs) in neurofibromatosis type 1, and the role of oncofetal markers such as SALL4 and AFP in gastric carcinogenesis. The lab integrates histopathology, immunohistochemistry, and molecular genetics to identify diagnostic and prognostic biomarkers, especially in rare and aggressive tumor subtypes. Their work contributes to early detection, risk stratification, and the development of targeted therapies for gastrointestinal malignancies.
Professor Takashi Taniguchi's research lab specializes in theoretical and computational soft matter physics, focusing on the interplay between phase separation, membrane morphology, and viscoelastic dynamics in biological and polymeric systems. The lab investigates shape instabilities in vesicles due to intramembrane phase separation, the formation of bicontinuous and sponge-like network structures in polymer solutions, and the role of curvature-coupling in amphiphilic membranes. Their work combines mathematical modeling, numerical simulations, and statistical mechanics to understand non-equilibrium dynamics and self-organization in complex fluids and biomembranes.
Professor Yoshinari Sawama's research lab specializes in sustainable and selective catalytic transformations, with a strong focus on hydrogenation, deuterium labeling, and dehydrogenation reactions using heterogeneous transition metal catalysts. The lab develops innovative, green methodologies—particularly using Pd/C, Pt/C, and Rh/C catalysts—enabling efficient H–D exchange, alcohol dehydrogenation, and in-situ hydrogen generation under mild, safe, and environmentally friendly conditions. A key theme is the design of catalytic systems that operate without external hydrogen gas, leveraging solvents or organic substrates as hydrogen donors, thereby enhancing safety and atom economy.
Professor Kazuki Nakanishi's research lab specializes in the design and synthesis of advanced porous materials, particularly hierarchical macro/mesoporous metal oxides and metalloxane polymers via sol-gel processes. The lab focuses on controlling phase separation and sol-gel transition dynamics to fabricate materials with tailored porous architectures for applications in high-performance separation technologies, such as HPLC. A key research direction involves using structure-directing agents and polymer additives to achieve spontaneous, self-organized formation of co-continuous pore networks with precise control over pore size and connectivity. The lab also explores the biomedical potential of bioactive molecules, such as L-arginine, in modulating cellular responses during reperfusion injury, demonstrating a multidisciplinary approach bridging materials science and biomedicine.
Professor Ming-Shui Yao's research lab specializes in the design, synthesis, and application of advanced functional materials, particularly metal-organic frameworks (MOFs) and conductive MOFs, for sensing and electronic devices. The lab focuses on developing novel heterostructured and core-sheath nanoarchitectures—such as ZnO@ZIF and MOF-on-MOF thin films—to enhance performance in volatile organic compound (VOC) and ammonia gas sensing. A key research direction involves the controlled fabrication of high-quality, highly oriented thin films of electronically conductive MOFs (EC-MOFs), enabling high-performance chemiresistive sensors operating at room temperature. The lab also integrates emerging technologies like artificial olfaction (e-nose) systems with machine learning algorithms to advance applications in environmental monitoring, healthcare diagnostics, and food safety.
