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 Seita Kayukawa's research lab specializes in developing intelligent assistive technologies for people with visual impairments, focusing on autonomous navigation, real-time pedestrian interaction, and seamless integration into public environments. The lab explores multimodal human-robot interaction, combining audio, tactile, and visual sensing to enhance mobility and independence in complex, crowded spaces. Key research directions include real-time collision prediction, context-aware guidance systems, and user-centered design for inclusive public infrastructure. The lab emphasizes practical deployment through real-world evaluations in museums, stations, and urban settings.
Professor Osamu Sandanbata's research lab specializes in volcanic and tsunami hazard analysis, focusing on the seismic and geodetic mechanisms underlying submarine volcanic activity and associated tsunamis. The lab investigates complex source processes such as ring-faulting, trapdoor faulting, and magma-driven deformation using long-period seismic data, tsunami waveforms, and ocean-bottom pressure gauge observations. A key research direction involves quantifying the role of volcanic overpressure, fault geometry, and Earth's elastic and gravitational responses in generating moderate but hazardous tsunamis. The lab also explores the influence of physical factors like seawater compressibility and ocean stratification on tsunami propagation, particularly for long-period and trans-oceanic waves.
Professor Yoonhee Kim's research lab focuses on environmental health and climate-related health impacts, with a strong emphasis on the effects of extreme temperatures and air pollution on mental health outcomes such as suicide. The lab conducts epidemiological and environmental modeling studies to understand the relationships between climate variables—like ambient temperature and precipitation—and public health risks, particularly in vulnerable populations. They also develop predictive models for climate-sensitive diseases, such as malaria, using long-term meteorological and disease surveillance data. Their work integrates environmental science, public health, and hydrological modeling to support early warning systems and health policy interventions.
Professor Kozo Okazaki's research lab specializes in strongly correlated electron systems, focusing on unconventional superconductivity, metal-insulator transitions, and photo-induced quantum phase transitions. Using advanced spectroscopic techniques such as ultra-high-resolution angle-resolved photoemission spectroscopy (ARPES), time- and angle-resolved ARPES, and optical and Raman spectroscopy, the lab investigates the electronic structure, pairing symmetries, and dynamic correlations in quantum materials like iron-based superconductors, VO₂, and transition metal chalcogenides. The lab aims to uncover the interplay between electronic, magnetic, and lattice degrees of freedom in driving emergent quantum phenomena.
Professor Md. Rezuanul Islam's research lab focuses on environmental microbiology, particularly the isolation and characterization of plant growth-promoting and antagonistic bacteria for sustainable agriculture and environmental remediation. The lab investigates microbial solutions for soil-borne pathogens, heavy metal (e.g., arsenic) contamination, and waterlogging hazards in urban and coastal ecosystems. Research also extends to tropical cyclone-induced storm surge modeling, integrating environmental data and geospatial analysis to improve disaster risk assessment. The lab emphasizes interdisciplinary approaches combining microbiology, environmental engineering, and geographic information systems (GIS) to address pressing ecological and public health challenges in South and East Asia.
Professor Akio Takemura's research lab specializes in polymer science and materials engineering, focusing on the development and characterization of advanced biopolymer-based nanocomposites and functional materials. Key research directions include the purification and analysis of alginates for biomedical and industrial applications, the fabrication of cellulose nanofiber-reinforced polymer composites for enhanced thermal and mechanical properties, and the design of stimuli-responsive hydrogels through solvent-induced structural modification. The lab also investigates sustainable materials using agricultural waste-derived fillers in polyurethane foams and explores the mechanical and adhesive properties of epoxy-based systems modified with rubber tougheners.
Professor Heecheol Kim's research lab specializes in deep imitation learning for complex robotic manipulation, focusing on enabling robots to learn dexterous, visuomotor skills from human demonstrations. The lab explores goal-conditioned and memory-augmented learning to handle long-horizon tasks, while integrating human gaze and dual-resolution vision to improve precision in fine manipulation. Key research directions include force feedback learning without dedicated hardware, multi-task and dual-arm manipulation, and overcoming visual distractions through gaze-guided attention mechanisms.
Professor Yasutaka Anraku's research lab specializes in the design and fabrication of advanced supramolecular nanocarriers for targeted drug delivery, particularly across the blood-brain barrier. The lab focuses on developing stimuli-responsive, self-assembled nanosystems—such as polyion complex vesicles (nano-PICsomes) and polymeric nanomicelles—that enable efficient brain delivery of therapeutic agents like antibodies and bioactive molecules. By leveraging biological recognition mechanisms, such as glucose transporter-1 (GLUT1) targeting, the lab achieves enhanced brain accumulation and therapeutic efficacy in neurological disorders. Their work emphasizes the precise control of supramolecular self-assembly to create monodisperse, functional nanocarriers with tunable size, stability, and responsiveness.
Professor Ryunosuke Saiki's research lab specializes in the molecular mechanisms underlying hematological malignancies, with a focus on clonal hematopoiesis (CH), copy number alterations (CNAs), and somatic mutations in aging and cancer. The lab integrates next-generation sequencing and array-based technologies to comprehensively map genetic lesions—both single-nucleotide variants/indels and CNAs—in myeloid neoplasms, including acute myeloid leukemia and myelodysplastic syndromes. A central theme is understanding how age-related clonal hematopoiesis, particularly involving TP53 and other tumor suppressor genes, contributes to leukemogenesis and comorbid conditions such as cardiovascular disease and severe infections like COVID-19. The lab also develops high-resolution, multi-omics platforms to detect and analyze CNAs and mutations simultaneously, enabling deeper insights into disease pathogenesis and clinical phenotypes.
Professor Joe Suzuki's research lab specializes in statistical machine learning, with a focus on Bayesian networks, model selection, and information-theoretic principles such as the Minimum Description Length (MDL) and Bayesian estimation. The lab develops theoretically grounded algorithms for learning probabilistic graphical models, particularly for both discrete and continuous variables, emphasizing consistency, efficiency, and robustness in data-driven inference. A key direction involves constructing nonparametric estimators for mutual information and conditional probabilities without assuming parametric forms, enabling applications to diverse data types.
Professor Takafumi Kato's research lab specializes in the neurophysiological mechanisms underlying sleep-related orofacial movements, with a primary focus on sleep bruxism (SB). The lab investigates the interplay between cortical and autonomic nervous system activity, micro-arousals, and rhythmic masticatory muscle activity (RMMA) during sleep. Using polysomnography, electromyography (EMG), and audiovisual recordings, the lab explores the role of sensory inputs, sleep position, and myoclonic-like bursts in SB pathogenesis. Their work bridges sleep medicine, dentistry, and neuroscience to understand the clinical implications of nocturnal jaw muscle activity.
Professor Akemi Tomoda's research lab specializes in neurodevelopmental and neuroepigenetic mechanisms underlying the long-term impact of early-life adversity, particularly childhood trauma and domestic violence, on brain structure and function. The lab employs advanced neuroimaging techniques, such as high-resolution MRI and eye-tracking, alongside molecular assessments like salivary oxytocin and DNA methylation analysis to explore how environmental stressors shape neurobiological and psychiatric outcomes. A key focus is on identifying biomarkers and resilience factors related to trauma exposure, especially during critical developmental windows, with translational applications in child and adolescent mental health. The lab also pioneers the use of peripheral tissues as proxies for brain epigenetic profiles to overcome limitations in human brain research.
Professor Junji Kozawa's research lab focuses on the pathophysiological role of ectopic fat deposition—particularly in the pancreas, liver, muscle, and heart—in the development and progression of type 2 diabetes and its complications. The lab investigates how pancreatic fat accumulation, islet inflammation, and β-cell dysfunction contribute to impaired insulin secretion and glucose intolerance. Using clinical and metabolic assessments, including F-CPR, U-CPR, and imaging techniques, the lab explores the dynamic changes in islet cell populations and endocrine function over time in diabetic patients. Their work highlights the interplay between ectopic fat, insulin resistance, and organ-specific dysfunction, aiming to identify early biomarkers and therapeutic targets for diabetes management.
Professor Tomoyuki Miyamoto's research lab specializes in advanced optoelectronic devices and materials, with a focus on semiconductor heterostructures, particularly GaInNAs-based quantum wells for long-wavelength lasers and high-performance terahertz systems. The lab explores innovative growth techniques such as chemical beam epitaxy for nitride-containing semiconductors and develops compact, high-resolution terahertz imaging systems using resonant tunneling diodes. A key research direction involves advancing wireless power transmission technologies, especially optical wireless power transfer, to enable flexible and maintenance-free power delivery for next-generation electronic systems. The lab also investigates beam-shaping optics and tolerant photodetection systems for robust integration in real-world applications.
Professor Taichi Kosugi's research lab specializes in theoretical and computational quantum physics, with a focus on strongly correlated electron systems, quantum materials, and quantum algorithms. The lab investigates the electronic structure and superconducting mechanisms in novel aromatic organic superconductors such as alkali-doped picene and coronene, using first-principles calculations to uncover the role of molecular orbitals and crystal geometry. A key direction involves developing quantum computing techniques—particularly probabilistic state preparation and quantum circuits—for simulating quantum many-body systems, including Green's functions and real-time evolution. The lab also explores fundamental quantum dynamics on curved surfaces, extending the Pauli equation to curved geometries to study relativistic effects like the Rashba splitting.
Professor Dongyuan Li's research lab specializes in computational biology, network science, and machine learning with a focus on understanding complex biological systems through advanced data-driven methods. The lab develops innovative algorithms for dynamic network analysis—particularly in cancer progression—integrating temporal data and multi-omics information to uncover evolving biological modules. They also pioneer graph-based deep learning techniques for multimodal data fusion, especially in emotion recognition and drug discovery. Their work bridges computational methodology with translational biomedical applications, including cancer therapy and dye design for solar energy conversion.
Professor Yoshihiro Hagiwara's research lab specializes in musculoskeletal biology and orthopedic biomechanics, focusing on joint contracture, cartilage degeneration, and soft tissue fibrosis following immobilization. The lab investigates molecular and structural changes in articular cartilage, joint capsules, and connective tissues using animal models and advanced imaging techniques such as ultrasound elastography. Key research directions include the pathophysiology of frozen shoulder, the role of growth factors like TGF-β1 and CTGF in fibrosis, and the impact of splicing mutations in muscular dystrophy. The lab also develops and evaluates arthroscopic surgical techniques to restore joint mobility.
Professor Yasuto Kunii's research lab focuses on the neurobiological and psychosocial impacts of major disasters, particularly on mental health outcomes such as schizophrenia and bipolar disorder. The lab investigates molecular mechanisms underlying psychiatric disorders, with a strong emphasis on neurotransmitter systems (e.g., nAChRs, dopamine signaling), phosphoinositide metabolism, and stress-related pathophysiology. It also explores the long-term psychological consequences of large-scale disasters, integrating clinical neuroscience with public health approaches to improve post-disaster mental health interventions.
Professor Satoshi Yasuda's research lab specializes in clinical cardiovascular medicine, with a focus on optimizing antithrombotic therapy in patients with atrial fibrillation and coronary artery disease. The lab conducts large-scale, evidence-based clinical trials to evaluate the efficacy and safety of novel anticoagulants, such as rivaroxaban, in real-world settings. Utilizing nationwide administrative databases like JROAD-DPC, the lab also investigates heart failure management and healthcare quality in Japan’s aging population. Their work bridges clinical practice and health policy to improve patient outcomes and guide evidence-based treatment strategies.
Professor Ming Che's research lab specializes in integrated terahertz photonics and optoelectronic devices, focusing on the development of monolithic InP-based photonic integrated circuits for high-frequency terahertz wave generation, beam steering, and signal processing. The lab pioneers advanced optical phased array technologies using thermo-optic phase control and photomixing techniques to achieve continuous beam steering at 300 GHz. Key research directions include the design and fabrication of uni-traveling-carrier photodiodes (UTC-PDs) with integrated antennas, ultrafast THz pulse generation, and efficient photonic signal processing using silicon and III-V semiconductor platforms. The lab also explores hardware-accelerated algorithms for real-time image processing, particularly in biomedical and human-computer interaction applications such as eye-tracking systems.
