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 Hiroki Nara's research lab specializes in the design and development of advanced nanostructured materials for energy storage and conversion, with a strong focus on lithium-ion batteries and electrocatalysts for the oxygen reduction reaction (ORR). The lab emphasizes rational nanoarchitecture engineering—particularly in porous carbons and silicon-based anodes—to enhance ion and electron transport, improve interfacial stability, and achieve exceptional cyclability and rate performance. A key methodology in the lab is electrochemical impedance spectroscopy (EIS), which is systematically applied to diagnose and optimize electrode interfaces and reaction mechanisms in high-power battery systems.
Professor Ryuichi Shibasaki's research lab specializes in maritime transport economics and global trade network analysis, focusing on the impact of infrastructure developments—such as the Northern Sea Route and Panama Canal expansion—on international shipping patterns and trade flows. The lab employs advanced data analytics, including AIS (Automatic Identification System) data and spatial general equilibrium modeling, to estimate global cargo movements, particularly for liquefied natural gas (LNG) and dry bulk commodities. A key research direction involves assessing the market potential of emerging maritime gateways, such as Gwadar Port in Pakistan, for landlocked regions like Central Asia. The lab also develops forecasting systems to support policy analysis on trade liberalization and transport efficiency in the Asia-Pacific region.
Professor Kohei Miyazono's research lab focuses on the molecular mechanisms of signaling by the transforming growth factor-beta (TGF-β) superfamily, with particular emphasis on bone morphogenetic proteins (BMPs) and their roles in development, tissue homeostasis, and disease. The lab investigates receptor-activated Smad signaling pathways, including the regulation of R-Smads and co-Smad complexes, as well as the intricate positive and negative feedback mechanisms that fine-tune TGF-β and BMP signaling. A key area of interest is the functional interplay between Smad transcription factors and other transcriptional regulators, such as PEBP2/CBF, in processes like osteogenesis and hematopoiesis. The lab also explores the pathophysiological implications of dysregulated TGF-β/BMP signaling in fibrosis, cancer, and vascular disorders.
Professor Eri Tatsumi's research lab specializes in planetary science, with a focus on the surface composition, photometric properties, and thermal evolution of primitive asteroids. The lab investigates carbonaceous and primitive near-Earth asteroids using remote-sensing data from space missions such as Hayabusa2 and OSIRIS-REx, emphasizing the identification of hydrated minerals, organics, and exogenic materials. By combining telescopic observations with in-situ measurements, the lab aims to understand the processes of space weathering and the preservation of pristine materials from the early inner solar system. Their work contributes to unraveling the origins of primitive bodies and the delivery of water and organics to Earth.
Professor Jun Takeya's research lab specializes in the development of high-performance organic semiconductors and field-effect transistors, focusing on molecular design, crystal engineering, and interface optimization to achieve exceptional carrier mobility. The lab pioneers the synthesis of novel organic semiconductors—such as N-shaped and V-shaped molecules—engineered for high mobility, thermal stability, and solution processability. Key research directions include the growth of wafer-scale single crystals, the integration of high-mobility organic semiconductors with charge-transport enhancers (e.g., F4-TCNQ), and the fundamental understanding of carrier transport mechanisms in organic field-effect transistors via advanced electrical characterization. The lab’s work bridges molecular design with device physics to enable next-generation flexible and high-speed organic electronics.
Professor Yue Mu's research lab specializes in intelligent agricultural systems and plant phenomics, focusing on the development of advanced computer vision, LiDAR, and deep learning techniques for automated monitoring and analysis of crops. The lab emphasizes non-destructive, high-precision phenotyping of fruits, trees, and rice panicles under real-world field conditions, with applications in yield prediction, orchard management, and crop optimization. Key research directions include 3D canopy reconstruction, object detection and segmentation in complex natural environments, and multi-sensor fusion for autonomous navigation in agriculture.
Professor Kouji H. Harada's research lab specializes in environmental and analytical toxicology, focusing on the fate, exposure, and health impacts of persistent organic pollutants and radionuclides in human populations. The lab investigates the environmental behavior and human dietary exposure to chemicals such as perfluorochemicals (PFOS, PFOA), neonicotinoid pesticides, short-chain chlorinated paraffins, and radiocesium following nuclear accidents. Using advanced analytical techniques and human biomonitoring, the lab assesses temporal trends, metabolic kinetics, and internal exposure levels to support risk assessment and public health policy. Their work bridges environmental chemistry, toxicology, and epidemiology to understand long-term health implications of chemical and radiation exposure.
Professor Masahiro Shirakawa's research lab specializes in molecular and structural biology, focusing on post-translational modifications such as ubiquitination and SUMOylation, and their roles in regulating cellular signaling and protein homeostasis. The lab employs advanced biophysical techniques—including NMR spectroscopy, electron spin resonance, and molecular dynamics simulations—to investigate the molecular mechanisms of protein-protein interactions, particularly those involving ubiquitin-binding domains and SUMO-interacting motifs. A key focus is also on developing novel nanoscale biosensors, such as fluorescent nanodiamonds functionalized for real-time, high-resolution detection of intracellular pH and metabolites like ATP. The lab integrates structural biology with functional biochemistry to uncover the physicochemical principles underlying protein regulation and signaling in health and disease.
Professor Shuh Narumiya's research lab focuses on the molecular mechanisms of G protein-coupled receptor (GPCR) signaling, particularly in the context of prostanoid and lipid mediator biology. The lab investigates the roles of prostanoid receptors—such as EP and DP subtypes—and their downstream effectors in inflammation, immune responses, and cytoskeletal dynamics. Key research directions include the signaling pathways mediated by Rho GTPase effectors like ROCK and mDia in cell motility, morphogenesis, and disease pathogenesis. The lab also explores the functional specialization of receptor subtypes through gene-targeting approaches in mouse models, revealing distinct physiological and pathological roles of individual receptors.
Professor Michio Kadota's research lab specializes in the development of advanced surface acoustic wave (SAW) and Lamb wave devices for high-frequency, miniaturized, and high-performance wireless communication systems. The lab focuses on innovative substrate materials—such as LiNbO₃ thin films, ZnO/glass, and tailored piezoelectric heterostructures—to achieve excellent temperature stability, high electromechanical coupling, and wide bandwidth. Key research directions include the design and fabrication of compact, high-frequency SAW duplexers, tunable filters, and resonators for 4G/5G mobile communications and cognitive radio systems, with an emphasis on miniaturization and performance optimization through novel device structures and advanced thin-film deposition techniques.
Professor Shigeo Godo's research lab focuses on vascular endothelial function and its role in cardiovascular diseases, particularly the pathophysiological mechanisms underlying endothelial dysfunction. The lab investigates the dual roles of reactive oxygen species (ROS), such as hydrogen peroxide, as signaling molecules and mediators of vascular damage, with a special emphasis on nitric oxide (NO) and endothelium-dependent hyperpolarization (EDH) pathways. Research also explores the interplay between inflammation, microvascular dysfunction, and vulnerable plaque formation in non-obstructive coronary artery disease, highlighting novel mechanisms linking systemic inflammation to coronary microvascular disease.
Professor Taku Sugiyama's research lab specializes in advancing surgical innovation through the integration of biomedical engineering, regenerative medicine, and cutting-edge digital technologies. The lab focuses on optimizing surgical performance via real-time force sensing in microsurgery, enhancing surgical planning with immersive 3D virtual reality for complex neurovascular cases, and developing clinically translatable stem cell therapies using human bone marrow-derived mesenchymal stem cells. A key emphasis is placed on translating laboratory findings into clinical applications, particularly in cerebrovascular diseases and stroke recovery.
Professor Ilhwan Park's research lab specializes in sustainable mineral processing and environmental remediation, focusing on developing eco-friendly technologies for the selective separation of valuable metals and the suppression of toxic element release. The lab investigates advanced flotation techniques, microencapsulation strategies, and leaching processes to improve recovery efficiency while minimizing environmental impact, particularly in porphyry copper-molybdenum deposits and electronic waste recycling. Key research directions include the design of non-toxic depressants, the formation of protective mineral coatings (e.g., Fe(III)PO₄, Al-oxyhydroxide), and the electrochemical behavior of sulfide minerals under controlled conditions.
Professor Shoichi Koyama's research lab specializes in advanced acoustic signal processing and sound field control, focusing on the mathematical modeling, estimation, and reproduction of three-dimensional sound fields in complex environments. The lab develops innovative methods for wave field reconstruction, active noise control, and spatial sound field modeling using array signal processing, with particular emphasis on optimal sensor and source placement, high-resolution impulse response datasets, and kernel-based interpolation techniques. Their work bridges theoretical acoustics with practical applications in audio engineering, hearing aids, and immersive audio systems.
Professor Ryuichiro Sato's research lab focuses on cellular and molecular mechanisms underlying lipid metabolism, lipoprotein assembly, and energy homeostasis. Key research directions include the regulation of apolipoprotein B metabolism, the role of nuclear receptors and transcription factors such as SREBPs and HNF-4 in lipid and cholesterol homeostasis, and the emerging functions of G protein-coupled receptors like TGR5 in metabolic tissues. The lab employs genetic, cell biological, and biochemical approaches to dissect intracellular protein trafficking, post-translational modifications (e.g., sumoylation), and signaling pathways in liver and muscle cells.
Professor Minh Anh Truong's research lab specializes in the design and synthesis of advanced organic semiconducting materials for optoelectronic applications, with a strong focus on perovskite solar cells. The lab develops novel π-conjugated molecules—particularly hole-transporting materials and monolayer architectures—engineered for enhanced charge transport, stability, and interface compatibility. Key research directions include molecular engineering of triazatruxene, azulene, and ladder-type heterocycles to optimize energy level alignment, film morphology, and optical transparency in the near-UV region. The lab also investigates molecular orientation control and anchoring strategies for transparent conductive oxide interfaces to improve device performance and durability.
Professor Yasuhiro Kajihara's research lab specializes in the chemical synthesis and structural analysis of complex glycans and glycoproteins, with a focus on sialylated oligosaccharides and their biological functions. The lab develops innovative solid-phase synthesis methods and chemoselective ligation techniques to produce homogeneous glycoforms of biologically important proteins such as erythropoietin, enabling detailed structure-function studies. A central theme is the precise construction of glycoproteins with defined glycosylation patterns to unravel the roles of sialic acid in protein stability, solubility, and biological activity.
Professor Hao Yu's research lab specializes in the mechanics of materials and advanced structural materials for extreme environments, with a strong focus on elastic field solutions for inclusions and defects in anisotropic and bimaterial solids. The lab develops analytical and computational methods to understand the behavior of materials with microstructural features such as inclusions, dislocations, and oxide dispersions, particularly in transversely isotropic and functionally graded systems. A key research direction involves designing and optimizing oxide dispersion strengthened (ODS) ferritic and copper alloys for high-temperature and radiation-resistant applications in next-generation nuclear reactors and fusion energy systems.
Professor Junji Yuhara's research lab specializes in the epitaxial growth and atomic-scale characterization of novel two-dimensional (2D) elemental materials, particularly post-graphene Group 14 elements such as silicene, germanene, stanene, and plumbene. The lab pioneers advanced synthesis techniques—especially atomic segregation epitaxy and molecular beam epitaxy—to create large-area, highly ordered 2D sheets with tailored electronic properties, including topological insulating behavior. By combining scanning tunneling microscopy, synchrotron-based spectroscopy, and first-principles calculations, the lab explores the structural, electronic, and topological features of these materials, aiming to bridge fundamental physics with next-generation nanoelectronics.
Professor Shigenobu Kainuma's research lab specializes in the durability and long-term performance of steel structures under various environmental conditions, with a focus on atmospheric and interface corrosion. The lab investigates corrosion mechanisms, particularly in complex environments such as steel-concrete boundaries and exposed atmospheric conditions, using advanced monitoring techniques like ACM-type corrosion sensors and statistical modeling. Key research directions include the prediction of time-dependent corrosion behavior, evaluation of surface characteristics after abrasive blasting, and the development of practical methods for estimating corrosion depth without removing corrosion products. The lab also emphasizes the application of spatial statistics and machine learning techniques to simulate and predict corrosion progression across different sites and environments.
