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 Mitsuru Akashi's research lab specializes in advanced biomaterials and tissue engineering, focusing on the development of nanoscale films and 3D micro-tissue systems for regenerative medicine and drug screening. The lab pioneers layer-by-layer (LbL) assembly techniques to fabricate biocompatible, functionalized surfaces that guide cell organization and tissue formation, enabling the creation of thick, layered, and vascularized tissues. A key innovation lies in the integration of endothelial cells within engineered tissue constructs to mimic physiological microenvironments, supporting high-throughput, human-relevant disease modeling and personalized medicine applications. The lab also explores stimuli-responsive nanogels and core-corona nanoparticles for biomedical delivery and diagnostic applications.
Professor Bowen Wang's research lab focuses on advancing explainable artificial intelligence (XAI) and few-shot learning for vision tasks, with an emphasis on interpretability, model transparency, and real-world applicability in risk-sensitive domains. The lab develops novel deep learning frameworks that integrate self-supervision, attention mechanisms, and concept-based explanations to improve model understanding without relying on explicit annotations. Key research directions include interpretable representation learning, temporal modeling in video understanding, and socio-technical systems for rural governance and elderly care. The lab also explores the intersection of AI with societal challenges, such as rural environmental governance and health promotion in aging populations.
Professor Yasuhiro Fukushima's research lab specializes in sustainable chemical engineering and environmental systems, focusing on carbon dioxide utilization, waste recycling, and low-carbon energy systems. The lab develops innovative processes for direct CO₂ conversion to dimethyl carbonate (DMC) and advanced dechlorination techniques for polyvinyl chloride (PVC) waste, aiming to close chlorine and chemical cycles. It also conducts life-cycle assessments and system simulations to evaluate environmental impacts and optimize energy system transitions, particularly in post-disaster and energy-scarce contexts such as in eastern Japan. The lab emphasizes technology integration, policy alignment, and capacity building for future sustainability challenges.
Professor Yuta Chiba's research lab focuses on the molecular and cellular mechanisms underlying tooth development, with a particular emphasis on dental epithelial stem cells, tight junction proteins, transcription factors, and cytoskeletal proteins such as keratins. The lab employs advanced single-cell RNA sequencing and genetic mouse models to dissect cell heterogeneity, gene regulatory networks, and signaling pathways critical for enamel formation and tooth morphogenesis. Their work bridges developmental biology and translational dentistry, aiming to understand the genetic basis of enamel defects and craniofacial disorders.
Professor Yuhuai Liu's research lab specializes in III-nitride semiconductor materials and devices, with a focus on monolithic integration of optoelectronic components for advanced light communication and solid-state lighting. The lab develops innovative platforms—such as III-nitride-on-silicon and sputtered hexagonal boron nitride films—enabling high-performance, full-duplex optical systems, UV LEDs, and nanowire lasers. Key research directions include epitaxial growth of high-quality AlN and AlGaN, device engineering for visible and deep ultraviolet light emission, and scalable fabrication techniques for photonic integrated circuits. The lab also explores novel material transfer and exfoliation methods to enhance device performance and process compatibility.
Professor Edward Vickers' research spans critical studies in education, particularly focusing on postcolonial dynamics in comparative and international education, the construction of national and regional identities in China and Hong Kong, and the role of museums in shaping patriotic and civic education. His work also extends into clinical and pharmacological research, especially on local anesthetics and neuropathic pain management in oral and maxillofacial contexts. The lab integrates historical, sociological, and medical research to explore power, identity, and health policy in East Asian societies.
Professor Edgar Simulundu's research lab specializes in the molecular epidemiology and virology of emerging and re-emerging animal and zoonotic diseases, with a strong focus on African swine fever virus (ASFV), avian influenza viruses (AIV), West Nile virus (WNV), and SARS-CoV-2 in the African context. The lab employs molecular virology, phylogenetic analysis, and surveillance strategies to understand viral evolution, transmission dynamics, and cross-species spread, particularly in wildlife, domestic animals, and humans. Their work contributes critical insights into disease control and preparedness in Zambia and the broader African region.
Professor Motomu Sakai's research lab specializes in the development and application of advanced inorganic zeolite membranes for sustainable separation and conversion processes. The lab focuses on designing high-performance membranes for gas separation—particularly olefin/paraffin and CO₂ conversion—using silver-exchanged X-type and ZSM-5 zeolites. A key research direction involves leveraging molecular sieving, adsorption selectivity, and electrostatic effects in forward osmosis and membrane reactors to address environmental challenges such as heavy metal removal and carbon dioxide utilization. The lab also explores membrane synthesis via seed-mediated hydrothermal methods without organic structure-directing agents, emphasizing membrane stability and scalability.
Professor Kazuhiko Ishihara's research lab specializes in the development of biomimetic polymers inspired by cell membranes, with a primary focus on phospholipid-like polymers containing the 2-methacryloyloxyethyl phosphorylcholine (MPC) unit. The lab investigates the fundamental mechanisms underlying the exceptional antithrombogenic and antifouling properties of these materials, particularly their ability to minimize protein adsorption and platelet adhesion in blood-contacting applications. Key research directions include surface engineering of medical devices, long-term hemocompatibility, and the design of biointerfaces that mimic the natural biocompatibility of cell membranes. The lab's work has significantly advanced the field of blood-compatible materials for implantable devices and artificial organs.
Professor Shuichi Asakawa's research lab specializes in molecular microbiology and mitochondrial genomics, focusing on the genetic characterization of pathogenic bacteria such as *Aeromonas* species in aquatic environments and the evolutionary genomics of mitochondrial DNA in echinoderms. The lab employs molecular techniques like gene sequencing, PCR-RFLP, and fingerprinting to study microbial diversity, pathogenicity, and genome organization. Their work contributes to understanding bacterial taxonomy, host-pathogen interactions in freshwater fish, and the conservation of mitochondrial gene arrangements across animal lineages.
Professor Teruyasu Mizoguchi's research lab specializes in theoretical and computational materials science, focusing on the electronic and magnetic properties of advanced functional materials. The lab employs first-principles quantum mechanical methods—particularly plane-wave pseudopotential and molecular orbital approaches—to investigate core-level spectroscopies such as XANES and ELNES, with a strong emphasis on understanding chemical shifts, electronic structure, and local bonding environments in wide-bandgap semiconductors, oxides, nitrides, and amorphous magnetic alloys. Key research directions include the role of core holes in spectral features, magnetic anisotropy in disordered systems, and the electronic origins of spin-glass behavior in rare-earth transition-metal alloys. The lab’s work bridges fundamental quantum calculations with experimental spectroscopic data, enabling accurate interpretation and prediction of material behavior at the atomic scale.
Professor Mitsuru Takenaka's research lab specializes in advanced photonic devices and integrated optics, focusing on novel semiconductor materials and nanostructured waveguide platforms for next-generation optical communication and signal processing. Key research directions include all-optical logic devices such as bistable laser diodes and optical flip-flops, high-performance germanium photodetectors with low dark current, and ultra-compact photonic integrated circuits using high-index-contrast waveguides and III-V/Si hybrid integration. The lab emphasizes innovative fabrication techniques—such as gas-phase doping and atomic layer deposition—to achieve low-loss, high-efficiency, and scalable photonic components.
Professor Makoto Aihara's research lab focuses on the molecular and physiological mechanisms underlying intraocular pressure (IOP) regulation and glaucomatous optic neuropathy. The lab investigates the role of extracellular signaling molecules—particularly the autotaxin (ATX)-lysophosphatidic acid (LPA) pathway—in IOP homeostasis and glaucoma pathogenesis, using genetically engineered mouse models. They also explore the therapeutic potential of ocular drugs, such as prostaglandin analogues, in modulating IOP and adipogenesis in ocular tissues. The lab employs translational mouse models to study aqueous humor dynamics, collagen metabolism, and drug responses, aiming to uncover novel targets for glaucoma treatment.
Professor Masaki Sekino's research lab specializes in biomedical engineering and neurotechnology, focusing on the development of advanced magnetic and electronic systems for neurological applications. Key research directions include magnetic nanoparticle-based sentinel lymph node detection for cancer diagnostics, flexible organic electronic devices for neural stimulation, and computational modeling of transcranial magnetic stimulation (TMS) and electroconvulsive therapy (ECT) to optimize brain stimulation techniques. The lab also investigates tissue conductivity mapping using diffusion-weighted MRI to understand brain anisotropy and improve neuromodulation precision.
Professor Nobukatsu Sawamoto's research lab focuses on the neural mechanisms underlying Parkinson's disease, with a particular emphasis on understanding the role of dopaminergic dysfunction in both motor and cognitive symptoms. The lab investigates brain circuitry alterations using advanced neuroimaging techniques such as PET and SPECT to map dopamine dynamics and structural changes in the basal ganglia. A key research direction involves developing and evaluating stem cell-based therapies, particularly induced pluripotent stem cell (iPS)-derived dopaminergic progenitor transplantation, to treat Parkinson's disease safely and effectively. The lab also explores biomarkers for early detection and staging of disease progression, aiming to improve clinical outcomes through precision medicine approaches.
Professor Sadra Karımzadeh's research lab specializes in geospatial remote sensing, with a focus on using synthetic aperture radar (SAR) data to monitor and assess natural hazards, infrastructure damage, and land deformation. The lab integrates advanced radar techniques—such as InSAR, coherence analysis, and interferometric time series—with machine learning and field validation to study earthquakes, subsidence, and road conditions. Key research directions include seismic damage assessment, urban subsidence monitoring, and the development of robust SAR-based models for disaster response and risk mitigation.
Professor Alvin C. G. Varquez's research lab specializes in urban climate modeling, focusing on the impacts of urbanization and anthropogenic heat on local and regional climate dynamics. The lab integrates high-resolution geospatial data, numerical weather prediction models, and socio-economic projections to study urban heat island effects, future urban climate scenarios, and heat-related health risks in rapidly growing megacities. Key research directions include downscaling climate models for urban areas, developing spatially explicit anthropogenic heat emission datasets, and improving urban surface parameterization in weather and climate models. The lab also emphasizes sustainable urban planning through advanced urban growth modeling and remote sensing integration.
Professor Shintaro Sato's research lab specializes in electrohydrodynamic (EHD) phenomena and plasma-based flow control, with a focus on dielectric-barrier-discharge (DBD) plasma actuators for active aerodynamic control. The lab investigates fundamental mechanisms of ionic wind generation, surface charge dynamics, and electric potential distribution to enhance actuator performance. Advanced simulation techniques, including reduced-order modeling and plasma fluid modeling, are employed to enable efficient and accurate prediction of unsteady plasma flows. The research also extends to nanoscale interactions, such as nanoparticle-surface collisions, using molecular dynamics simulations to understand energy dissipation mechanisms at the nanoscale.
Professor Yuta Nakayasu's research lab specializes in the development of sustainable carbon-based nanomaterials and transition metal dichalcogenides for advanced energy applications. The lab focuses on converting biomass-derived waste materials—such as wood sawdust and rice husks—into high-performance carbon materials for sodium-ion batteries, supercapacitors, and environmental applications. A key research direction involves the controlled synthesis of 2D materials like MoS₂ and their solid solutions using supercritical hydrothermal methods to tailor layer thickness, phase structure, and catalytic properties. The lab emphasizes green synthesis techniques and the valorization of renewable and abundant resources for next-generation energy storage and conversion technologies.
Professor Kiyoshi Miyata's research lab specializes in the fundamental photophysics and dynamics of advanced optoelectronic materials, with a focus on lead halide perovskites, singlet fission, thermally activated delayed fluorescence (TADF), and lanthanide-based luminescent systems. The lab employs ultrafast spectroscopy and time-resolved techniques to unravel the mechanisms behind defect tolerance, large polaron formation, coherent carrier transport, and energy transfer processes at the molecular level. Their work bridges electronic structure, lattice dynamics, and excited-state phenomena to guide the rational design of next-generation materials for solar energy conversion, lighting, and quantum technologies.
