Research labs at Japan's QS Top 10 universities including Tokyo, Kyoto, and Osaka.
Professor Yoshinori Kondo's research lab specializes in transition-metal-catalyzed organic transformations, with a strong focus on the development of novel reagents and catalytic systems for selective C–H functionalization and C–X bond formation. Key research directions include the design of highly chemoselective bases such as TMP–zincate for directed ortho metalation, the application of at-complexes in metalation chemistry, and the exploration of palladium- and copper-catalyzed reactions in aqueous media for the synthesis of phenols and azole derivatives. The lab also investigates regioselective arylation of nitrogen heterocycles and the use of innovative ligands and CO sources in carbonylative coupling reactions.
Professor Kai Wu's research lab specializes in computational neuroscience and brain network analysis, focusing on the topological organization of structural and functional brain networks across the lifespan. The lab investigates how brain network properties—such as small-world organization, modularity, and nodal efficiency—evolve with age, and how they are influenced by biological factors like sex and IQ, as well as clinical conditions such as schizophrenia. Using advanced neuroimaging techniques (e.g., MRI, fMRI) combined with graph theory and machine learning, the lab explores both typical brain development and neuropsychiatric disorders with a strong emphasis on individual-level prediction and network-level mechanisms. The research also extends to psychological and social factors, such as parental education anxiety and family functioning, in relation to adolescent mental health.
Professor Atsushi Hozawa's research lab specializes in cardiovascular epidemiology and preventive medicine, with a focus on understanding the impact of lifestyle factors, genetic predispositions, and environmental exposures on cardiovascular disease (CVD) risk. The lab investigates the interplay between biomarkers such as serum carotenoids, blood pressure, and metabolic profiles in diverse populations, particularly in relation to inflammation, oxidative stress, and insulin resistance. Utilizing large-scale longitudinal cohorts with comprehensive omics data—including genomics, metabolomics, and disaster exposure—his team aims to develop personalized prevention strategies for CVD and metabolic diseases. The lab also explores the clinical significance of home blood pressure monitoring and pulse pressure in predicting long-term cardiovascular outcomes.
Professor Sho Ohata's research lab specializes in atmospheric aerosol science, with a focus on the microphysical properties, aging processes, and climate impacts of black carbon and accumulation-mode aerosols. The lab employs advanced single-particle and in-situ measurement techniques—such as the single-particle soot photometer (SP2) and aerosol mass spectrometry—to investigate aerosol mixing states, hygroscopicity, wet removal mechanisms, and the accuracy of ground-based BC monitoring instruments. Their work spans field campaigns in the Arctic and East Asia, emphasizing the role of aerosols in regional and global climate systems.
Professor Naoya Nishi's research lab specializes in interfacial science and electrochemistry at the molecular level, focusing on ionic liquids, self-assembled monolayers, and electrode interfaces. The lab investigates the structural dynamics, relaxation processes, and ion transport phenomena at liquid-liquid and liquid-solid interfaces using advanced spectroscopic and electroanalytical techniques such as sum frequency generation spectroscopy, surface plasmon resonance, and x-ray reflectivity. A central theme is understanding the behavior of ions and molecules at confined interfaces, particularly in fluorine-free and hydrophobic ionic liquids, with applications in energy conversion, separation science, and electrochemical sensing.
Professor Takuya Kubo's research lab specializes in the development of advanced functional materials for biomedical and analytical applications, with a focus on stimuli-responsive drug delivery systems, molecularly imprinted polymers (MIPs) for selective recognition of biomolecules, and novel surface modification techniques for enhanced immobilization and separation. The lab pioneers innovative approaches using magnetic nanoparticles, C60-fullerene modified materials, and photocoupling agents to enable precise control over molecular interactions and transport. Key research directions include smart drug delivery, protein separation, and high-efficiency surface functionalization for nanomaterials and analytical devices.
Professor Takayoshi Shimizu's research lab specializes in spinal surgery and spinal biomechanics, with a focus on improving clinical outcomes through innovative implant design and surgical techniques. The lab investigates bioactive spinal implants—particularly TiO2-coated PEEK—aiming to enhance spinal fusion rates and bone integration. It also explores spinal sagittal realignment and the role of lower extremity compensation in patients with adult spinal deformity, using advanced radiographic parameters to guide preoperative planning. The lab's work bridges biomaterials science and clinical spine surgery, aiming to optimize long-term patient outcomes.
Professor Yuta Murakami's research lab specializes in nonequilibrium quantum many-body physics, focusing on ultrafast dynamics and quantum phase transitions in strongly correlated electron systems. The lab investigates light-induced quantum phenomena such as high-harmonic generation, photo-induced superconductivity, and excitonic insulator dynamics using advanced theoretical frameworks like nonequilibrium dynamical mean-field theory, Floquet theory, and time-dependent mean-field approaches. Key research directions include the role of electron-phonon coupling, electron correlation effects, and nonthermal quantum states in driving novel ordered phases. The lab also explores the interplay between light, electron correlations, and lattice degrees of freedom in low-dimensional quantum materials.
Professor Yoshiaki Kawagoe's research lab specializes in multiscale materials modeling and simulation, focusing on the thermomechanical behavior and performance of advanced composite materials. The lab investigates molecular-scale transport phenomena—such as heat conduction and gas flow—in nanostructured and porous materials, using molecular dynamics and kinetic simulations. Key research directions include the development of predictive multiscale models for composite manufacturing processes, failure mechanisms in carbon-fiber-reinforced plastics, and the design of functional nanomembranes with anisotropic thermal properties. The lab bridges quantum chemistry, molecular dynamics, and continuum mechanics to enable accurate simulation of real-world engineering behaviors from atomic to macroscopic scales.
Professor Takehito Seki's research lab specializes in advanced electron microscopy techniques to investigate atomic-scale structures and dynamic phenomena in functional materials. The lab focuses on developing and applying cutting-edge scanning transmission electron microscopy (STEM) methods—such as optimum bright-field STEM, differential-phase-contrast STEM, and pixelated detector imaging—to visualize local atomic arrangements, electromagnetic fields, and atomic vibrations with atomic resolution. Their work spans complex materials including zeolites, grain boundaries, quasicrystals, and thermoelectric clathrates, aiming to uncover fundamental structure-property relationships at the nanoscale.
Professor Kenjiro Hanaoka's research lab specializes in the development of advanced luminescent and fluorescent probes for biological imaging, with a strong focus on detecting biologically relevant metal ions such as zinc (Zn²⁺) and monitoring physiological conditions like hypoxia. The lab employs lanthanide complexes (e.g., Eu³⁺, Tb³⁺) and functionalized xanthene dyes (e.g., rhodamine, Si-rhodamine) to create highly sensitive, selective, and long-lived luminescent sensors. Key innovations include time-resolved luminescence microscopy (TRLLM) for background-free imaging and 'off-on' fluorescent probes based on internal charge transfer (ICT) and photoinduced electron transfer (PET) mechanisms. The lab's work bridges inorganic chemistry, materials science, and cell biology to enable real-time, high-contrast visualization of dynamic biological processes in living systems.
Professor Masako Kataoka's research lab specializes in clinical and diagnostic MRI applications, focusing on improving image quality and diagnostic accuracy in women's health and oncology. Her team investigates advanced MRI techniques for breast, pelvic, and renal imaging, with an emphasis on optimizing sequences for better tissue characterization and reducing scan time without compromising diagnostic value. Key research directions include high-resolution pelvic MRI for dysmenorrhea, kidney imaging with respiratory triggering, and efficient post-contrast imaging in head and neck tumors.
Professor Manabu Muto's research lab specializes in gastrointestinal and head and neck oncology, with a primary focus on the early detection and endoscopic diagnosis of superficial squamous cell carcinomas in the upper aerodigestive tract and esophagus. The lab pioneers the use of advanced endoscopic imaging technologies such as narrow-band imaging (NBI) and magnifying narrow-band imaging (M-NBI) to enhance visualization of microvascular and microsurface structures for precise diagnosis. Additionally, the lab investigates the role of microbial metabolism—particularly acetaldehyde production by oral bacteria like *Neisseria*—in the pathogenesis of upper aerodigestive tract cancers, linking microbiological and genetic factors (e.g., ADH3 and ALDH2 polymorphisms) to cancer risk. Their work aims to improve screening strategies and preventive interventions for high-risk populations.
Professor Binh Quang Nguyen's research lab specializes in hydrological and environmental modeling, with a strong focus on the impacts of climate change, human infrastructure, and land use changes on river systems in Southeast Asia—particularly in Vietnam’s tropical and highland basins. The lab employs advanced hydrological models such as SWAT to assess streamflow dynamics, sediment budgets, and morphological changes under various scenarios, including climate change projections and hydraulic infrastructure development. Research directions include flood and drought risk assessment, water resource management, and the sustainability of reservoir and dam operations in complex river basins.
Professor Chi Xu's research lab specializes in gait-based biometrics, focusing on advanced computer vision and deep learning techniques for gait recognition, age estimation, and gender classification under real-world challenges such as view variations, occlusion, and aging effects. The lab develops unified, real-time frameworks that leverage single-image input and gait cycle reconstruction to enable efficient and accurate analysis without requiring full gait cycles. Key research directions include modeling the aging process in gait features, handling partial occlusions, and improving robustness through attention mechanisms and spatial transformation networks.
Professor Wei Gao's research lab specializes in industrial control system security, focusing on identifying and mitigating cyber threats such as command injection, data injection, and denial-of-service attacks in critical infrastructure networks. The lab develops advanced intrusion detection systems using both standalone and state-based rules to enhance the resilience of SCADA and I/O control protocols like MODBUS, DNP3, and EtherNET/IP. It also explores innovative signal processing techniques, including the combined 3-point method, for high-precision profile measurement with error compensation in scanning systems. The lab's work bridges cybersecurity and precision engineering to ensure the safety, reliability, and integrity of industrial automation systems.
Professor Soichiro Ogi's research lab specializes in the kinetic and thermodynamic control of supramolecular polymerization, focusing on the self-assembly of π-conjugated molecules such as perylene bisimides and chlorin-based dyes into functional nanostructures. The lab explores how molecular design—particularly through hydrogen bonding, metal coordination, and steric effects—governs the formation of one-dimensional nanofibers, J- and H-aggregates, and metastable assemblies with unique optical properties. A central theme is the manipulation of nucleation and growth processes to achieve time-resolved control over supramolecular architecture, with applications in light-harvesting systems and stimuli-responsive materials. The lab also investigates the interplay between molecular folding, aggregation, and supramolecular polymerization using fluorescent probes and advanced spectroscopic techniques.
Professor Toshiaki Nakano's research lab focuses on translational and clinical aspects of chronic kidney disease (CKD), with a particular emphasis on the molecular mechanisms underlying vascular inflammation, fibrosis, and cardiac complications in renal disease. The lab investigates key signaling pathways such as OATP2B1/Dll4-Notch and FGF23/FGFR4 in immune and cardiovascular cells, aiming to identify novel therapeutic targets. Additionally, the lab explores biomarkers and histological classifications—such as the Col-class in FSGS—for improved renal prognosis prediction and personalized treatment strategies in kidney disease.
Professor Takeshi Wada's research lab specializes in the pathophysiology of critical illness, with a primary focus on coagulopathies, systemic inflammatory responses, and microcirculatory dysfunction in conditions such as acute lung injury/acute respiratory distress syndrome (ALI/ARDS), post-cardiac arrest syndrome (PCAS), and disseminated intravascular coagulation (DIC). The lab investigates biomarkers like sVEGFR2 and Ang-2 for predicting outcomes in critical illness, and explores the interplay between coagulation, fibrinolysis, and inflammation—particularly in the context of sepsis, trauma, and COVID-19. A central theme is understanding how dysregulated hemostasis and endothelial injury contribute to organ failure and mortality in critically ill patients.
Professor Chung-Yuen Hui's research lab specializes in the mechanics of soft materials, with a focus on elastomers, hydrogels, and polymer glasses. The lab investigates deformation, fracture, and interfacial mechanics in soft and viscoelastic materials, particularly under large deformations and under conditions of high adhesion or swelling. Key research directions include fracture toughness, crack blunting, fibrillar adhesion, and case-II diffusion in polymers, with strong integration of theoretical modeling, finite element analysis, and experimental validation.
