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 Kazuyuki Uchida's research lab specializes in veterinary neuropathology and comparative pathology, focusing on the diagnosis, pathology, and molecular characterization of neoplastic and degenerative diseases in dogs. Key research directions include the histopathological and immunohistochemical analysis of peripheral nerve sheath tumors, amyloid angiopathy, and cerebral amyloidosis, with particular emphasis on age-related neurological disorders in companion animals. The lab also investigates antifungal agents with potential therapeutic applications in veterinary medicine, especially against drug-resistant fungal pathogens. These studies contribute significantly to understanding the pathogenesis of neurological diseases in dogs and improving diagnostic and therapeutic strategies in veterinary oncology and neurology.
Professor Yoshiko Ogata's research lab specializes in mathematical physics and quantum many-body systems, with a focus on quantum spin chains and two-dimensional quantum spin systems. The lab investigates nonequilibrium dynamics, quantum phase transitions, and topological phases, particularly symmetry-protected topological order in quantum systems. Key interests include the algebraic structures underlying gapped ground states, such as braided C*-tensor categories, and the application of operator algebra methods to statistical mechanics and large deviation theory.
Professor Sara Badr's research lab specializes in the development of advanced modeling and control strategies for biopharmaceutical manufacturing, with a focus on monoclonal antibody (mAb) production. The lab integrates mechanistic, data-driven, and hybrid modeling approaches to capture complex cell metabolism, process dynamics, and impurity formation across cultivation phases. Key research directions include kinetic modeling of metabolic shifts (e.g., lactate production/consumption), long-term equipment condition monitoring in aseptic filling lines, and system-wide process optimization under variability and uncertainty. The lab emphasizes model robustness, data quality, and early integration of plant-wide models to accelerate process development and improve manufacturing efficiency.
Professor Takanori Takebe's research lab specializes in regenerative medicine and organoid technology, focusing on the engineering of complex, functional human tissues from stem cells. The lab pioneers scalable and reproducible methods to generate organoids—particularly liver and gut organoids—by mimicking embryonic development and enhancing vascular integration. A central theme is the development of innovative 3D culture systems, such as omni-well arrays and self-condensation platforms, to enable high-throughput production and in vivo functionality of organoids. The lab also advances applications in drug toxicity screening and precision medicine through patient-derived organoid models.
Professor Wenshuai Li's research lab specializes in geochemical and analytical techniques, focusing on the development of advanced methods for precise isotope ratio measurements. The lab emphasizes lithium isotope analysis using multi-collector and single-collector ICP-MS, with innovations in sample purification through dual-column systems. It also explores the speciation and local electronic structure of elements like potassium and calcium using XANES spectroscopy, particularly in complex geological materials. The overarching goal is to improve the accuracy of isotope geochemistry for tracing geological processes such as weathering and fluid-rock interactions.
Professor Takuya Sasatani's research lab specializes in advancing wireless power transfer (WPT) technologies for scalable, efficient, and ubiquitous energy delivery. The lab focuses on quasistatic cavity resonance (QSCR) systems to enable three-dimensional, room-scale wireless power transfer without line-of-sight constraints, addressing key challenges such as null zones, efficiency uniformity, and system adaptability. Core research directions include dynamic impedance tuning, resonator design for pole-independent operation, and circuit-level modeling to bridge theoretical concepts with practical engineering applications. The lab aims to enable seamless, safe, and high-efficiency power delivery for IoT devices, smart environments, and next-generation wireless systems.
Professor Shunsuke Kitou's research lab specializes in the experimental investigation of electronic and electronic-structure phenomena in quantum materials, with a focus on charge order, electron correlation, and orbital degrees of freedom in low-dimensional systems. The lab employs advanced synchrotron X-ray diffraction techniques—particularly core differential Fourier synthesis (CDFS)—to directly visualize valence electron densities and unravel complex electronic states such as charge-transfer transitions, Wigner crystallization, and ligand-hole distributions. Their work bridges quantum chemistry and solid-state physics, providing real-space insights into frontier orbitals, Dirac cones, and unconventional superconductivity in organic conductors and transition-metal oxides. The lab's research is deeply rooted in understanding emergent quantum phenomena through precise crystallographic and electronic structure analysis.
Professor Kou Okuro's research lab specializes in the design and application of molecular glues based on multivalent interactions, particularly leveraging guanidinium ion-mediated salt-bridge formations to achieve selective and strong adhesion to biomolecules. The lab focuses on developing stimuli-responsive molecular systems for precise spatiotemporal control of biomolecular functions, including enzyme activity modulation, protein delivery, and regulation of protein-protein interactions. Key applications span drug delivery, cancer therapy, and RNA interference, with an emphasis on using smart polymers and dendrimers responsive to biological triggers such as ATP or light.
Professor Hiroyuki Ishiura's research lab focuses on the immunological and genetic underpinnings of neurological disorders, particularly autoimmune encephalitis and amyotrophic lateral sclerosis (ALS). The lab investigates autoantibody-mediated encephalitis, including anti-NMDA receptor encephalitis, with an emphasis on clinical phenotypes, treatment responses, and the role of underlying tumors. Additionally, the lab explores the genetic basis of neurodegenerative diseases, notably the G4C2 repeat expansion in the C9ORF72 gene, which contributes to the high prevalence of ALS in specific populations such as those from the Kii Peninsula in Japan. The lab also evaluates novel immunotherapies, such as rituximab, for central nervous system-predominant autoimmune disorders.
Professor Gjergj Dodbiba's research lab specializes in advanced materials processing and sustainable resource recovery, with a strong focus on innovative separation technologies for plastics and valuable elements from industrial by-products. The lab investigates triboelectrostatic and dry mechanical separation techniques—such as air table and tribo-cyclone systems—for efficient recycling of plastic waste and recovery of rare earth elements from coal fly ash. Their work emphasizes environmentally friendly, cost-effective solutions for circular economy applications, including the synthesis of biocompatible hydroxyapatite for biomedical uses. The research integrates principles from mineral processing, electrostatics, and materials chemistry to address pressing environmental and industrial challenges.
Professor Gosuke Hayashi's research lab specializes in chemical biology and synthetic biology, focusing on the design and application of artificial RNA-ligand systems for precise control of gene expression. The lab develops photoresponsive molecular tools—such as azobenzene-containing peptides and RNA aptamers—that enable reversible, light-controlled interactions with high spatiotemporal precision. They also pioneer innovative chemical methods for analyzing and manipulating epigenetic marks, including 5-hydroxymethylcytosine, and advance total chemical protein synthesis to study posttranslational modifications. Their work bridges synthetic chemistry, structural biology, and functional genomics to create dynamic biological systems with applications in biotechnology and medicine.
Professor Sameh A. Kantoush's research lab specializes in sediment dynamics, reservoir management, and sustainable water resources in river basins, with a focus on mitigating sedimentation impacts in reservoirs and dams. The lab investigates flow and deposition processes in shallow and alpine reservoirs, emphasizing hydraulic flushing, sediment bypass systems, and the long-term sustainability of water infrastructure. Research also extends to transboundary river systems, such as the Mekong River, where the lab analyzes the combined effects of climate extremes, upstream dam development, and sea level rise on deltaic regions. The lab combines physical modeling, field measurements, and numerical simulations to develop adaptive management strategies for resilient water systems.
Professor Koji Inoue's research lab specializes in human-robot interaction, focusing on developing socially intelligent android robots that exhibit natural, empathetic, and context-aware behaviors. The lab explores affective computing, dialogue systems, and emotional decision-making in robots, aiming to create autonomous systems that can engage in meaningful, human-like conversations. Key research directions include listener response generation, empathetic dialogue, and interactive applications such as job interview training and elderly care.
Professor Yoshihiro Sasaki's research lab specializes in the design and application of functional nanogels and hybrid nanomaterials for advanced biomedical technologies. The lab focuses on developing smart nanogels with chaperone-like functions to prevent protein aggregation and support correct folding, particularly in cell-free protein synthesis and drug delivery systems. Key research directions include magnetically guided delivery using magnetic nanogel carriers, exosome-mimetic nanocarriers for efficient cellular uptake, and nanosensory devices for detecting biologically relevant amines. The lab integrates principles from biomimetics, supramolecular chemistry, and materials science to create innovative solutions for regenerative medicine, targeted therapy, and diagnostics.
Professor Manabu Arikawa's research lab specializes in advanced optical communication systems and quantum optics, focusing on high-capacity optical transmission, mode-division multiplexing in few-mode and multi-core fibers, and the mitigation of signal impairments using machine learning-based signal processing. The lab also pioneers quantum memory technologies using cold atoms for continuous-variable quantum information, enabling high-fidelity storage and retrieval of squeezed light. Their work bridges classical optical fiber communications with quantum photonics, emphasizing real-world performance under practical impairments such as mode-dependent loss and IQ imbalance.
Professor Hirotaka Iijima's research lab focuses on the pathophysiology of knee osteoarthritis, with a particular emphasis on the interplay between biomechanical, cellular, and epigenetic factors in cartilage aging and joint degeneration. The lab investigates mechanotransduction pathways, such as matrix stiffness-induced epigenetic regulation of Klotho in chondrocytes, and explores regenerative strategies like mesenchymal stem cell therapy combined with rehabilitation. They also examine modifiable clinical factors—such as foot posture, malalignment, and psychological comorbidities—that influence knee pain and function in OA patients. The lab integrates molecular biology, clinical orthopedics, and rehabilitation science to develop personalized, mechanism-based interventions for knee osteoarthritis.
Professor Mengqi Jiang's research lab specializes in aquatic environmental pollution control, with a focus on nutrient dynamics, algal-bacterial and algal-fungal symbiotic systems, and eutrophication mechanisms in freshwater and coastal ecosystems. The lab investigates the sources, transformation, and impacts of pollutants such as organic matter, nitrogen, and phosphorus, employing advanced modeling, isotopic tracing, and biochemical analysis. Key research directions include developing black-odor water evaluation models, enhancing nutrient removal in wastewater using microbial symbioses, and assessing the role of enzymatically hydrolyzable phosphorus in algal bloom formation.
Professor Tsuyoshi Koga's research lab specializes in soft matter physics and polymer science, focusing on the self-assembly, dynamics, and rheology of complex fluids and associative networks. The lab investigates the microstructure and macroscopic behavior of telechelic polymers, amphiphilic copolymers, and micellar systems under varying conditions such as temperature, concentration, and shear flow. Key research directions include the development of thermoresponsive gels, transient network theory, and the role of hydrodynamic interactions in phase separation and ordering processes.
Professor Bruno Ribeiro's research lab focuses on sustainable construction materials, with a strong emphasis on the valorization of sugarcane residues—such as bagasse fiber and ash—for use in concrete and mortar. The lab investigates the mechanical performance, thermal behavior, and environmental impact of these bio-based materials, aiming to reduce reliance on natural aggregates and mitigate industrial waste. Additionally, the lab explores advanced materials like basalt fiber-reinforced polymer (BFRP) bars and compacted graphite iron alloys, combining experimental testing with numerical simulations to enhance structural durability and sustainability.
Professor Huan Liu's research lab specializes in interdisciplinary environmental and infrastructure systems research, focusing on ecosystem service dynamics, landscape ecological risk assessment, and societal impacts of infrastructure disruptions. The lab employs advanced geospatial modeling techniques such as PCA-MGWR, Geodetector, and production function modeling to analyze spatiotemporal patterns and driving factors of ecosystem services and disaster resilience. Research also emphasizes practical applications in ecological management, post-disaster recovery, and power system optimization, particularly in regions with high environmental and socio-economic complexity like the Sichuan Basin and Ulan Buh Desert.
