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 Hitoshi Murayama's research lab focuses on theoretical particle physics and cosmology, exploring physics beyond the Standard Model through minimal and phenomenologically viable extensions. Key research directions include baryogenesis, leptogenesis, dark matter, and inflationary cosmology, with a strong emphasis on connecting fundamental particle physics with cosmological observations. The lab develops models that unify dark energy, dark matter, neutrino masses, and baryon asymmetry within a minimal framework, often using supersymmetry and supergravity to address these puzzles. Recent work centers on right-handed sneutrino-driven chaotic inflation and the role of supersymmetric particles in generating the observed matter-antimatter asymmetry.
Professor Takashi Yoshida's research lab specializes in aquatic virology, focusing on the ecology, genomics, and host interactions of cyanophages—viruses that infect cyanobacteria. The lab investigates the role of these phages in regulating harmful algal blooms, particularly those caused by toxic Microcystis aeruginosa, using a combination of virological, molecular, and environmental omics approaches. Key research directions include the isolation and characterization of novel freshwater cyanomyoviruses, understanding viral dynamics in natural aquatic systems, and exploring how phage-host interactions influence microbial community structure and toxin production. The lab also contributes to environmental viromics, linking viral activity to microbial function through metagenomic and metatranscriptomic analyses.
Professor Momoko Nishikori's research lab focuses on the molecular mechanisms underlying lymphoid malignancies, particularly anaplastic large cell lymphoma (ALCL) and Hodgkin lymphoma (HL). The lab investigates key signaling pathways such as ERK and NF-κB, as well as epigenetic regulators like EZH2, to understand their roles in lymphoma pathogenesis and immune evasion. A central theme is the identification of molecular markers and therapeutic targets—such as BCL3, CD30, and CCL17—that influence tumor survival, apoptosis, and microenvironment interactions. The lab also explores the immunological features of primary central nervous system lymphoma (PCNSL), linking regulatory B-cell markers like Tim-1 to disease origin and progression.
Professor Akito Daido's research lab specializes in topological quantum materials, with a focus on unconventional superconductivity, symmetry-protected topological phases, and emergent quantum phenomena in low-dimensional systems. The lab explores the interplay between topology, superconductivity, and broken symmetries—particularly noncentrosymmetric and nonsymmorphic crystalline systems—aiming to uncover new states of matter such as Z₄ topological superconductors and paramagnetically induced gapful topological superconductors. A central theme is the theoretical development of bulk-boundary correspondence and chiral surface responses, including novel surface states like Möbius strips and Majorana edge modes.
Professor Yoshiki Chujo's research lab specializes in the design and synthesis of advanced functional materials based on unique molecular building blocks such as polyhedral oligomeric silsesquioxanes (POSS), o-carboranes, and organoboron complexes. The lab focuses on creating hybrid organic-inorganic materials with tunable optical, electronic, and structural properties through molecular-level engineering. Key research directions include aggregation-induced emission (AIE), intramolecular charge transfer (ICT), and stimuli-responsive behavior in solid and solution states, with applications in optoelectronics and smart materials. The group employs a bottom-up approach to construct hierarchical and functional architectures with precise control over molecular and supramolecular organization.
Professor Verdad C. Agulto's research lab specializes in the development and application of terahertz (THz) spectroscopy techniques for nondestructive, contact-free characterization of advanced semiconductors and functional materials. The lab focuses on probing electrical and optical properties—such as carrier density, resistivity, and dielectric response—in wide-bandgap semiconductors like GaN, β-Ga₂O₃, and SiC, as well as biologically relevant materials including hydroxyapatite and calcium oxalate. A key research direction involves utilizing THz time-domain spectroscopy (THz-TDS) and THz time-domain ellipsometry (THz-TDE) for quantitative, wafer-scale mapping of material properties essential for next-generation power and optoelectronic devices. The lab also explores nonlinear THz phenomena, such as third harmonic generation, to advance ultrafast material diagnostics in the terahertz frequency range.
Professor Yoshihiko Tomofuji's research lab specializes in host-microbiome interactions, with a focus on the gut virome and its role in autoimmune diseases and host immunity. The lab integrates multi-omics approaches—metagenomics, metabolomics, and single-cell genomics—to uncover population-specific microbial and viral genomes and their functional impacts on human health and disease. A key emphasis is placed on understanding the genetic and metabolic underpinnings of complex diseases such as systemic lupus erythematosus (SLE) and type 2 diabetes, as well as ethical implications of human DNA in stool metagenomic data. The lab also pioneers computational methods like scLinaX to study X-chromosome inactivation dynamics in immune cells.
Professor Yuzuru Miyazaki's research lab specializes in the synthesis, structural characterization, and thermoelectric properties of complex oxide and silicide materials, particularly composite crystals with modulated structures. The lab focuses on understanding the interplay between crystallographic complexity—such as incommensurate superstructures and misfit layers—and their impact on electronic and thermal transport properties. Key research directions include the development of high-performance thermoelectric materials through cation substitution and nanostructuring, with an emphasis on optimizing the figure of merit (ZT) in materials like Ca₃Co₄O₉ and higher manganese silicides (HMS).
Professor Motoyuki Murashima's research lab specializes in advanced surface engineering and functional materials, focusing on enhancing the performance and durability of engineering components through innovative surface treatments. The lab explores nanotexturing, diamond-like carbon (DLC) coatings, and electric field-assisted surface modifications to control adhesion, friction, and wear in high-precision manufacturing processes. Key applications include ceramic and thermoplastic composite forming, where surface energy control and active morphing surfaces improve productivity and part quality. The lab also investigates novel lubrication strategies, such as two-phase lubricants, to achieve superior tribological performance under varying environmental conditions.
Professor Yasuko Tatewaki's research lab focuses on the intersection of neurodegenerative diseases, metabolic dysfunction, and neuroimaging, with a particular emphasis on Alzheimer’s disease (AD), type 2 diabetes mellitus (T2DM), and their shared pathological mechanisms. The lab investigates the role of insulin resistance, specialized pro-resolving lipid mediators (SPMs), and cerebral metabolism in neurodegeneration, while also exploring structural brain changes in glaucoma and rare neurological conditions such as osmotic myelinolysis using advanced MRI techniques. A key focus is on identifying early biomarkers through neuroimaging and morphometric analysis to improve prediction and intervention strategies for age-related neurological disorders.
Professor T. Harada's research lab specializes in the development and characterization of advanced oxide heterostructures, with a focus on epitaxial thin films of metallic delafossites such as PdCoO₂ and complex perovskites like Pr₀.₇Ca₀.₃MnO₃. The lab investigates fundamental electronic phenomena including resistance switching, spin-polarized transport, and Schottky barrier formation at oxide interfaces, aiming to enable high-performance electronic and spintronic devices. Key research directions include engineering surface polarity and interfacial charge dynamics in oxide heterostructures for applications in high-temperature electronics, high-frequency rectifiers, and next-generation spintronic devices.
Professor Mitsuhiro Kubota's research lab specializes in advanced thermochemical energy storage materials, focusing on high-temperature heat storage systems using reversible chemical reactions such as CaO/CaCO3 and metal oxide spinel/delafossite couples. The lab explores low-pressure, high-efficiency heat storage through reaction kinetics and phase stability, as well as hybrid inorganic-organic phase change materials (PCMs) for low-temperature applications like domestic water heating. A key emphasis is placed on developing safe, stable, and high-capacity materials for hydrogen and thermal energy storage, including ammonia-based systems and salt hydrate composites. The research integrates materials synthesis, thermodynamic analysis, and thermal cycling stability to enable practical energy storage solutions.
Professor Kimi Akita's research lab specializes in the typology and cognitive foundations of sound symbolism, with a focus on ideophones, mimetics, and expressives across diverse languages. The lab investigates the interplay between phonological form, semantic expressiveness, and grammatical integration, exploring how iconicity shapes lexical structure, acquisition, and multimodal communication. Key research directions include the iconicity hierarchy, the evolution of sound-symbolic words from primary to emergent iconicity, and the role of prosody and gesture in expressive communication.
Professor Morten Thaysen-Andersen's research lab specializes in advanced glycoproteomics and glycomics, focusing on the systematic characterization of site-specific N-glycosylation in human biology and disease. The lab develops and applies cutting-edge mass spectrometry-based technologies to decode the structural and quantitative complexity of the N-glycoproteome, particularly in cancer and inflammatory conditions. Key research directions include the discovery and functional annotation of underappreciated glycan structures—such as paucimannosidic glycans—and their roles in disease progression, host-pathogen interactions, and immune responses. The lab integrates quantitative glycoproteomics with systems biology to uncover molecular mechanisms underlying glycosylation regulation and to identify novel glycan-based biomarkers for cancer and inflammatory diseases.
Professor Ken’ichiro Matsumoto’s research lab specializes in metabolic engineering and synthetic biology for the sustainable production of biodegradable polyesters, particularly polyhydroxyalkanoates (PHAs). The lab focuses on enzyme engineering—especially of PHA synthases and key biosynthetic enzymes—through directed evolution and protein domain shuffling to enhance catalytic efficiency and tailor monomer specificity. Their work enables the efficient biosynthesis of P(3HB), PHA copolymers, and novel polyesters like P((R)-2HB) from inexpensive carbon sources, advancing green polymer technologies.
Professor So Noguchi's research lab specializes in the design, analysis, and optimization of high-temperature superconducting (HTS) magnets, with a strong focus on the no-insulation (NI) winding technique for REBCO coils. The lab investigates electromagnetic, thermal, and mechanical behaviors during quench events, aiming to ensure the stability and safety of HTS magnets in high-field applications such as NMR and MRI. Key research directions include the development of advanced simulation methods—such as coupled equivalent circuit and finite element modeling—and the application of optimization algorithms like simulated annealing for efficient magnet design.
Professor Norikazu Hirose's research lab specializes in sports biomechanics and neuromuscular physiology, focusing on the biomechanical and physiological factors influencing athletic performance and injury prevention in young athletes. Key research directions include the effects of maturation and body size on youth soccer performance, electromyographic (EMG) analysis of lower-limb muscles during resistance exercises, and the role of eccentric strength and neuromuscular control in vertical jumping and change-of-direction speed. The lab also investigates practical interventions—such as short re-warm-up protocols and Nordic hamstring exercise modifications—to enhance intermittent sprint performance and reduce injury risk in team sports.
Professor Yoshinobu Fudamoto's research lab specializes in high-redshift galaxy evolution, with a focus on dust attenuation, infrared spectral energy distributions, and the physical properties of star-forming galaxies in the early Universe. Using state-of-the-art submillimeter and millimeter observations from ALMA and other facilities, the lab investigates the dust content, star formation rates, and interstellar medium conditions in galaxies at z ≳ 3, particularly through far-IR continuum and [C II] line studies. The lab emphasizes large-scale surveys and stacking analyses to probe the average properties of massive, dusty star-forming galaxies when the Universe was less than 1.5 billion years old.
Professor Masaru Kogure's research lab specializes in atmospheric and aeronomical sciences, focusing on gravity wave dynamics, atmospheric tides, and thermospheric responses to climate change. The lab investigates wave-atmosphere interactions using ground-based lidar, satellite observations (e.g., AIRS, CIPS, VIIRS), and high-resolution numerical modeling (e.g., GAIA, MERRA-2, GEOS-5 FP). Key research directions include the modulation of gravity waves by large-scale wind systems such as the polar night jet, stratospheric sudden warming events, and the impact of climate forcings like ENSO and CO₂ doubling on the upper atmosphere. The lab also explores wave-induced energy and momentum transport in the mesosphere, lower thermosphere, and thermosphere, contributing to improved understanding of atmospheric coupling processes.
Professor Shinji Miwa's research lab specializes in spintronics and quantum materials, focusing on electric-field control of magnetism, molecular spintronics, and nanoscale magnetic phenomena. The lab investigates voltage-controlled magnetic anisotropy (VCMA), spin-polarized transport in molecular systems, and magnetoresistance effects in hybrid nanostructures such as Fe|MgO tunnel junctions and C60–Co nanocomposites. A key research direction is the development of ultralow-power spintronic devices through atomic-scale control of electron spin and charge at interfaces, with a strong emphasis on room-temperature operation and advanced spectroscopic characterization techniques.
