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 Aki Kitaori's research lab specializes in quantum spintronics and emergent electromagnetic phenomena in quantum materials, with a focus on helimagnetic and chiral systems. The lab investigates current-driven spin dynamics, emergent electromagnetic induction (EEMI), and nonreciprocal transport effects such as the electrical magnetochiral effect, aiming to develop nanoscale inductor elements for next-generation electronics. Using advanced techniques like small-angle neutron scattering and single-crystal growth, the group explores the interplay between spin textures, lattice chirality, and electronic responses in materials like YMn₆Sn₆ and Tb₅Sb₃, targeting room-temperature operation and quantum-scale device integration. Their work bridges fundamental quantum phenomena with practical applications in miniaturized electronic components.
Professor Yusuke Kumakoshi's research lab focuses on urban sustainability and smart city planning, with a strong emphasis on the integration of geospatial data, remote sensing, and artificial intelligence to analyze urban environments. Key research directions include the development of robust metrics for urban greenery (such as standardized Green View Index), the impact assessment of shared autonomous vehicles on local traffic and land use, and the application of deep learning to quantify urban aesthetics and disorder in streetscapes. The lab also investigates the interplay between urban function diversity and density to inform evidence-based urban planning strategies.
Professor Michiharu Sakamoto's research lab specializes in regenerative medicine and wound healing, with a focus on developing innovative skin substitutes and advanced wound repair strategies. The lab investigates biological materials such as human collagen, silk-elastin sponges, and Genocel for their potential in treating chronic skin ulcers and burns. A key research direction involves tissue engineering techniques, including high hydrostatic pressurization for nevus tissue reutilization and automated burn wound modeling for preclinical testing.
Professor Miho Inoue-Murayama's research lab focuses on the genetic and neurobiological bases of animal behavior, with a particular emphasis on comparative genetics and neuroendocrinology in non-human primates, birds, and domesticated animals such as dogs and quail. The lab investigates how genetic polymorphisms in neurotransmitter-related genes—such as those encoding dopamine receptors, serotonin synthesis enzymes (TPH2), and oxytocin/vasopressin receptors—relate to personality traits, stress responses, and social behavior. By integrating molecular genetics, behavioral assessments, and physiological markers like hair cortisol, the lab aims to uncover evolutionary and mechanistic insights into the genetic architecture of complex behaviors across species.
Professor Yuji Nakamoto's research lab specializes in molecular imaging, particularly positron emission tomography (PET) using fluorodeoxyglucose (FDG) and other radiotracers. The lab focuses on optimizing PET/CT imaging protocols, improving quantitative accuracy in PET analysis, and enhancing the detection and differentiation of malignant and benign lesions in various cancers, including pancreatic and ovarian malignancies. Their work also investigates technical challenges such as attenuation correction methods and the impact of contrast agents on PET image quantification. The lab's research contributes significantly to improving diagnostic accuracy and patient follow-up strategies in oncology.
Professor Kim Hyeon-Deuk's research lab specializes in theoretical and computational materials science, focusing on nonequilibrium quantum dynamics in semiconductor nanomaterials. The lab employs advanced ab initio methods—particularly time-domain density functional theory and non-adiabatic molecular dynamics—to investigate fundamental processes such as multiple exciton generation and recombination, phonon-assisted relaxation, and Auger-mediated charge transfer in quantum dots. Their work uniquely integrates atomic-scale dynamics, electron-phonon coupling, and electronic structure effects, providing deep insights into energy loss mechanisms and efficiency limits in nanoscale optoelectronic and photovoltaic systems. The lab’s research bridges quantum mechanics with practical device physics, aiming to guide the design of next-generation nanomaterials for solar energy conversion and nanophotonics.
Professor Reo Kai's research lab specializes in computational combustion and turbulent flame modeling, with a focus on developing advanced combustion simulation methods for clean and efficient energy systems. The lab investigates flame-turbulence interactions, preferential diffusion, flame stretch, and heat loss effects using high-fidelity numerical simulations, including large-eddy simulations (LES), direct numerical simulations (DNS), and flamelet-based models such as FGM-PD and UFPV. Key applications include lean premixed H2/air and methane-air flames, hydrogen and ammonia combustion, and hypergolic propellant combustion for aerospace propulsion.
Professor Jiawei Xu's research lab specializes in geotechnical earthquake engineering and unsaturated soil mechanics, focusing on the dynamic response and stability of slopes under combined hazards such as earthquakes and rainfall. The lab investigates post-earthquake slope failure mechanisms, seepage-deformation coupling in unsaturated soils, and the impact of shaking-induced damage on permeability and strength reduction. Advanced experimental techniques like centrifuge modeling and numerical simulations using finite element methods are central to their work.
Professor Kazumune Hashimoto's research lab specializes in advanced control methodologies for networked and distributed control systems, with a strong focus on reducing communication and energy consumption while ensuring stability and constraint satisfaction. The lab develops innovative self-triggered and event-triggered control strategies for nonlinear and uncertain systems, integrating machine learning techniques such as Gaussian process regression and reinforcement learning for online system identification and controller design. Key research directions include robust model predictive control, distributed state and fault estimation using sparse optimization, and the application of set-invariance and compressive sampling principles to enhance system reliability and performance. The lab emphasizes practical implementation and theoretical rigor, validated through comprehensive simulations and real-time control frameworks.
Professor Hisham Ahmed Imad's research lab specializes in tropical virology, with a primary focus on arboviral infections such as dengue and chikungunya. The lab investigates the immunopathogenesis of these infections, particularly the role of host immune mediators in disease severity and chronic sequelae. Research directions include longitudinal studies on cytokine dynamics during acute infection, clinical characterization of outbreaks, and the long-term musculoskeletal and systemic manifestations of post-chikungunya arthritis. The lab also contributes to diagnostic and epidemiological understanding of re-emerging arboviruses in Southeast Asia.
Professor Ahmad Jafar Arifi's research lab specializes in theoretical particle physics, focusing on the spectroscopy and decay dynamics of heavy and light baryons, mesons, and their excited resonances within the framework of constituent quark models and light-front quark models. The lab investigates relativistic corrections, spin-parity quantum numbers, and internal quark structures to explain experimental decay widths and mass spectra, particularly for Roper-like resonances in the charmed, bottom, and multistrange baryon sectors. A key emphasis is placed on resolving theoretical ambiguities in current matrix elements and ensuring consistency in light-front formulations through the Bakamjian-Thomas construction.
Professor Shuhei Ichikawa's research lab specializes in the development of advanced nitride-based semiconductor materials and devices for next-generation optoelectronic applications. The lab focuses on enhancing the performance of ultraviolet, visible, and near-infrared light emitters through innovative epitaxial growth techniques, defect engineering, and nanophotonic structures. Key research directions include the design of high-efficiency deep-ultraviolet and red-emitting LEDs using semipolar and non-polar GaN/AlGaN quantum wells, rare-earth-doped III-nitrides for stable near-infrared emission, and photonic crystal nanocavities for enhanced light extraction and emission control. The lab also investigates defect-related nonradiative recombination mechanisms in wide-bandgap semiconductors to improve internal quantum efficiency.
Professor Tatsuaki Kimura's research lab specializes in intelligent network management and wireless communication systems, focusing on proactive failure detection, dynamic deployment of aerial base stations (UAV-BSs), and efficient vehicular communications. The lab develops advanced log analysis techniques and distributed algorithms to enhance network reliability and service quality in large-scale and dynamic environments. Key research directions include 3D deployment optimization for unmanned aerial vehicles, crowd density-aware network adaptation, and performance analysis of cellular-assisted V2X communications.
Professor Ryoichi Imamura's research lab specializes in renal ischemia-reperfusion injury and its implications in kidney transplantation, with a focus on developing novel therapeutic strategies to improve graft and patient outcomes. The lab investigates molecular mechanisms such as p53 activation and oxidative stress, and explores protective agents including modified erythropoietin (CEPO), molecular hydrogen (H₂) generated from nano-silicon, and other cytoprotective molecules. Their work bridges basic science and translational medicine, aiming to enhance renal function and reduce long-term complications such as cancer post-transplantation. The lab also emphasizes innovative delivery methods and biomaterials for sustained therapeutic effects.
Professor Akito Nakagawa's research lab focuses on the pathophysiology and clinical outcomes of heart failure with preserved ejection fraction (HFpEF), with a particular emphasis on right ventricular and pulmonary vascular dysfunction. The lab investigates molecular mechanisms such as Wnt/β-catenin signaling in endothelial cells and their impact on cardiac function, as well as hemodynamic markers like pulmonary arterial capacitance and right ventricular-pulmonary artery uncoupling. Using prospective, multicenter observational studies, the lab aims to identify prognostic biomarkers and clinical phenotypes to guide personalized management in elderly HFpEF patients. Their work bridges basic vascular biology with clinical cardiology to improve outcomes in this high-risk population.
Professor Masanori Yamamoto's research lab specializes in molecular artificial photosynthesis, focusing on the design and synthesis of functional molecular systems for efficient solar energy conversion. Key research directions include the development of covalently linked dyads and pentads incorporating porphyrins, ruthenium complexes, and fullerenes to achieve long-lived charge separation and visible-light-driven water oxidation. The lab also explores luminescent rare-earth complexes for advanced sensing applications, particularly thermosensitive materials based on energy transfer processes. Additionally, the group investigates durable nanostructured materials for next-generation energy storage, such as all-solid-state lithium-sulfur batteries.
Professor Jiazhen Wu's research lab focuses on the design, synthesis, and characterization of advanced functional materials with exotic electronic and magnetic properties. Key research directions include magnetic topological insulators and van der Waals heterostructures for quantum spintronics, intermetallic electrides for sustainable catalysis—particularly ammonia synthesis—and the development of single-phase catalysts that combine electride character with transition metal functionality. The lab integrates advanced experimental techniques with first-principles calculations to explore structure-property relationships in quantum materials and catalytic systems.
Professor Takashi Hirasawa's research lab focuses on microbial physiology and systems biology, particularly in *Corynebacterium glutamicum*, a key industrial microorganism. The lab investigates metabolic engineering and adaptive laboratory evolution (ALE) to enhance microbial cell factories for efficient amino acid production. By integrating multi-omics approaches—genomics, transcriptomics, proteomics, and metabolomics—the lab uncovers molecular mechanisms underlying stress tolerance, metabolic regulation, and industrial trait improvement. Their work bridges fundamental microbiology with biotechnological applications, aiming to optimize microbial strains for sustainable bioproduction.
Professor Hiroya Abe's research lab specializes in advanced electrochemical sensing, nanomaterials for energy applications, and interfacial science. The lab develops innovative sensor systems such as the Bio-LSI for real-time, high-resolution imaging of neurotransmitter dynamics in 3D cell models, while also pioneering Pt-free electrocatalysts based on molecular metal complexes for sustainable energy conversion. Their work extends to functional thin films and microneedle technologies for controlled drug delivery, leveraging electrokinetic phenomena and surface engineering. The lab integrates materials science, electrochemistry, and biointerfaces to address challenges in biomedical diagnostics and clean energy technologies.
Professor Shinichi Yamashita's research lab focuses on translational oncology and metabolic disease, with a strong emphasis on identifying novel biomarkers and therapeutic targets in cancer. The lab investigates molecular mechanisms underlying prostate and breast cancer progression, particularly the role of androgen receptor variants and survivin in treatment resistance and recurrence. It also explores metabolic dysregulation, such as uric acid metabolism in obesity, and evaluates minimally invasive surgical techniques for early-stage lung cancer. The lab integrates clinical data with molecular pathology to improve patient stratification and therapeutic outcomes.
