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 Yoshiyuki Ueda's research lab specializes in cognitive neuroscience and cross-cultural psychology, focusing on the neural mechanisms underlying mindfulness meditation, attentional control, and social perception. The lab investigates how cultural background shapes visual attention and scene perception, particularly through oculomotor behavior and environmental influences. It also explores the bidirectional relationship between facial expressions and emotional experience, using high-resolution facial databases and behavioral experiments to examine emotion recognition and social dominance perception. A key focus is on understanding how brain networks—particularly the default mode network and striatal connectivity—are modulated by meditation and attentional states.
Professor Sophal Try's research lab specializes in hydrological modeling and climate change impact assessment in the Mekong River Basin, focusing on flood dynamics, precipitation variability, and the interplay between climate change and human interventions such as dam construction. The lab employs advanced modeling frameworks like the Rainfall-Runoff-Inundation (RRI) model combined with satellite and gridded climate data to simulate and predict flood hazards and river flow changes under future climate scenarios. Key research directions include evaluating climate model performance (e.g., CMIP6), improving flood forecasting accuracy, and assessing socioeconomic and ecological risks in vulnerable regions like the Lower Mekong Basin and the Cambodian floodplains.
Professor Manabu Ihara's research lab specializes in advanced materials for energy conversion and storage, with a strong focus on dye-sensitized and perovskite solar cells, solid oxide fuel cells, and diamond film deposition. The lab investigates fundamental mechanisms governing charge transfer, surface reactions, and nanostructure control to enhance device efficiency and stability. Key research directions include optimizing light absorption in dye-sensitized solar cells using plasmonic silver islands, controlling perovskite film morphology via substrate engineering, and developing novel direct carbon fuel cells for portable power applications. The lab also explores low-temperature diamond film growth for advanced electronic and protective coatings using plasma and filament-assisted CVD methods.
Professor Kohtaro Osakada's research lab specializes in organometallic chemistry and catalysis, with a strong focus on transition-metal complexes for sustainable polymerization and carbon-carbon bond formation. The lab investigates nickel, palladium, gold, and ruthenium complexes that enable selective transformations such as ethylene copolymerization, carboxylation of haloarenes, and alkyne cross-coupling reactions. A key theme is the design of molecular structures—especially metal-metal interactions and ligand frameworks—that control reactivity and selectivity. The lab also explores the synthesis of complex organic architectures, such as cycloparaphenylenes, through tailored metal-ligand interactions.
Professor Shintaro Sato's research lab specializes in sport and tourism management, with a strong focus on consumer behavior, reputation management, and the psychological impacts of major sporting events. The lab investigates how athletes, brands, and destinations respond to crises—such as athlete scandals or event cancellations—while also exploring factors that influence tourist loyalty, psychological well-being, and public perception. Key research directions include reputational risk in sport branding, the role of consumer involvement and knowledge in crisis response, and the long-term effects of mega-events on local communities. The lab employs experimental and longitudinal methodologies to provide actionable insights for sport organizations, tourism destinations, and brand managers.
Professor Yosuke Higuchi's research lab specializes in end-to-end automatic speech recognition (ASR), with a strong focus on improving inference efficiency and model performance through non-autoregressive architectures, semi-supervised learning, and advanced neural network designs. The lab explores innovative frameworks such as Mask CTC and BERT-CTC that enhance speed and accuracy by leveraging self-attention mechanisms, contextual modeling, and pseudo-labeling techniques. Key research directions include optimizing sequence modeling for real-time ASR, reducing data dependency through semi-supervised learning, and bridging the performance gap between non-autoregressive and autoregressive models. The lab's work is deeply rooted in practical deployment, aiming to make ASR systems faster, more efficient, and scalable for real-world applications.
Professor Hideki Taniguchi's research lab specializes in stem cell biology and regenerative medicine, with a focus on hepatic and cartilage stem/progenitor cells, organoid technology, and in vitro differentiation of pluripotent stem cells. The lab investigates cancer stem cells in hepatocellular carcinoma, explores the role of vimentin as a marker for undifferentiated and proliferative liver cells, and develops patient-specific organoids for liver disease modeling and therapy. A key direction involves the generation of functional liver organoids from human induced pluripotent stem cells (hiPSCs) to address donor organ shortages and support regenerative treatments for acute and chronic liver failure.
Professor Hideo Shindou's research lab focuses on the molecular mechanisms underlying glycerophospholipid metabolism, particularly the enzymatic regulation of phospholipid diversity and remodeling in cellular membranes. The lab investigates key enzymes such as lysophospholipid acyltransferases (LPLATs) and glycerol-3-phosphate acyltransferases (GPATs), which control the asymmetric distribution and functional specialization of polyunsaturated fatty acids like DHA and arachidonic acid in phospholipids. A central theme is the role of these lipids in physiological and pathological processes, including retinal function and inflammation, with a strong emphasis on lipid mediators such as platelet-activating factor (PAF). The lab employs advanced lipidomics, imaging mass spectrometry, and genetic models to dissect the in vivo functions of lipid-modifying enzymes.
Professor Yoshinobu Takakura's research lab specializes in advanced drug delivery systems, with a focus on macromolecular prodrugs and hydrodynamics-based gene transfer. The lab investigates innovative strategies for targeted lymphatic delivery using polymeric prodrugs, such as dextran-conjugated mitomycin C, to enhance drug retention and therapeutic efficacy. Another key research direction involves understanding the mechanisms of non-viral gene delivery, particularly the cytosolic delivery of plasmid DNA through transient membrane permeabilization. The lab's work bridges pharmaceutical sciences and translational medicine, aiming to improve the precision and safety of drug and gene therapies.
Professor Kōichi Yamamoto's research lab focuses on the pathophysiological roles of the renin-angiotensin system (RAS), particularly angiotensin-converting enzyme 2 (ACE2) and its ligand angiotensin 1-7, in cardiovascular and metabolic diseases. The lab investigates how RAS components modulate cardiac function under stress conditions such as pressure overload, as well as their influence on insulin resistance and inflammation in adipose tissue and the gut. Additional research explores the interplay between oxidized LDL, LOX-1, and angiotensin II type 1 receptor signaling in vascular dysfunction, and the role of aging-related factors like PAI-1 in thrombotic disease. The lab integrates molecular biology, animal models, and cellular signaling to uncover novel therapeutic targets in cardiovascular and metabolic disorders.
Professor Mir Sayed Shah Danish's research lab focuses on sustainable energy systems and environmental remediation through advanced materials and intelligent technologies. The lab specializes in developing green-synthesized nanomaterials for water purification and photocatalytic pollutant degradation, while also pioneering AI-driven policy frameworks and smart control systems for energy transition. Key research directions include sustainable nanotechnology, voltage stability in power systems, and decarbonization strategies aligned with circular economy principles. The lab integrates environmental science, materials engineering, and artificial intelligence to address global challenges in energy sustainability and pollution control.
Professor Tetsuya Inagaki's research lab specializes in the advanced characterization and analysis of natural materials, particularly wood and plant-based systems, using spectroscopic and imaging techniques. The lab focuses on understanding the molecular and structural changes in wood due to aging, hydrothermal treatment, and moisture content variations, employing methods such as near-infrared spectroscopy, terahertz time-domain spectroscopy, and X-ray diffraction. A key research direction involves the development of non-destructive analytical models to assess wood quality, crystallinity, and water dynamics, with applications in cultural heritage preservation and sustainable materials science. The lab also explores functional polymers, including ferrocene-containing siloxanes, for potential electrochemical applications.
Professor Hirotaka Ejima's research lab specializes in the design and engineering of sustainable, bio-inspired materials using natural polymers and nanomaterials. The lab focuses on developing innovative, aqueous-based strategies for creating functional thin films, particles, and porous architectures through coordination-driven self-assembly and biomineralization. Key research directions include the fabrication of hybrid materials combining cellulose nanocrystals, metal–organic frameworks (MOFs), and polyphenols for applications in drug delivery, biosensing, and environmental remediation. The lab also pioneers methods for surface engineering of extracellular vesicles and stimuli-responsive biomaterials with tailored functionalities.
Professor Katsumi Matsuzaki's research lab specializes in membrane biophysics, focusing on the molecular mechanisms of antimicrobial peptides and their interactions with lipid membranes. The lab investigates how peptides such as magainin 2 selectively permeabilize bacterial membranes while sparing mammalian cells, with particular emphasis on lipid composition, membrane curvature, and transmembrane potential. They also explore the role of membrane components like cholesterol and gangliosides in protein-lipid interactions, particularly in the context of neurodegenerative diseases such as Alzheimer’s. Using advanced fluorescence spectroscopy and energy transfer techniques, the lab elucidates dynamic processes like lipid flip-flop, pore formation, and peptide translocation across bilayers.
Professor Minoru Takata's research lab focuses on the molecular mechanisms underlying DNA repair, genomic stability, and hematopoietic stem cell maintenance, with a particular emphasis on homologous recombination, Fanconi anemia pathway, and the roles of key proteins such as Rad51 paralogs and Btk in genome integrity and immune cell development. The lab uses the chicken DT40 cell line as a powerful model system to dissect DNA repair pathways and signaling in B lymphocytes, while also investigating the pathophysiological consequences of defective DNA repair and aldehyde detoxification in aging and leukemia. Their work bridges basic DNA repair mechanisms with human diseases, including cancer predisposition and immunodeficiency disorders.
Professor Mitsuhiro Arisawa's research lab specializes in the development of transition metal-catalyzed transformations for complex molecule synthesis, with a focus on ruthenium and palladium catalysis. Key research directions include the design of highly selective catalysts for olefin isomerization and cycloisomerization, enabling efficient synthesis of nitrogen-containing heterocycles such as indoles—important scaffolds in bioactive natural products. The lab also pioneers innovative methods for C(sp³)–H bond functionalization using recyclable, low-leaching palladium nanocatalysts, particularly with directing group strategies. These efforts contribute significantly to diversity-oriented synthesis and sustainable catalytic processes.
Professor Changzeng Fu's research lab specializes in human-robot interaction, with a focus on enhancing social robots' ability to foster long-term engagement and emotional connection. The lab explores experience-based dialogue systems, empathetic robot communication, and multimodal emotion recognition to enable robots to perceive, express, and respond to human emotions naturally. Key research directions include affective computing, speech emotion synthesis, and cross-lingual emotion recognition using deep learning models such as CNN-BiLSTM with attention and graph-based fusion techniques.
Professor Jun Kikuchi's research lab specializes in plant metabolomics, focusing on the dynamic analysis of metabolic pathways using advanced nuclear magnetic resonance (NMR) techniques. The lab employs stable isotope labeling—particularly 13C and 15N—combined with multidimensional hetero-nuclear NMR to trace the real-time movement of carbon and nitrogen in living plants. Key research directions include understanding stress responses, such as ethanol stress in Arabidopsis thaliana, and monitoring metabolic reprogramming during seed germination. The lab pioneers non-invasive, in vivo metabolic profiling to uncover the molecular mechanisms underlying plant development and stress adaptation.
Professor Kengo Shimanoe's research lab specializes in the development of advanced functional materials for energy and environmental applications. The lab focuses on designing and synthesizing novel oxide-based materials, particularly perovskite-type oxides and composite nanomaterials, for applications in oxygen separation, gas sensing, and clean energy conversion. Key research directions include the fabrication of asymmetric membranes for high-efficiency oxygen permeation and the engineering of nanostructured metal oxides for highly sensitive and selective detection of toxic gases such as carbon monoxide. The lab combines materials synthesis, structural characterization, and performance evaluation to address challenges in sustainable energy and environmental monitoring.
Professor Rafiqul Islam's research lab focuses on biomedical and public health research, with a strong emphasis on teledentistry, pulp capping therapies, and orthodontic/orofacial morphology. The lab investigates clinical applications of dental biomaterials—particularly MTAPPL—for direct pulp capping, aiming to promote pulp healing and mineralized tissue formation. Additionally, the lab contributes to epidemiological modeling, notably studying the transmission dynamics of infectious diseases such as novel influenza A (H1N1) in low-resource settings. The integration of clinical dentistry with public health modeling defines the lab’s interdisciplinary approach.
