探索全球顶尖大学的研究室——研究领域与主要论文一览无余。
Professor Nobuaki Hoshino's research lab specializes in statistical methodology and its applications in medical and ecological sciences. The lab focuses on developing advanced statistical models for risk prediction in colorectal cancer, improving surgical outcomes through innovative sampling techniques in clinical trials, and applying statistical mechanics to microdata disclosure risk assessment. A key strength lies in bridging theoretical statistics with practical healthcare applications, particularly in surgical decision-making and patient outcome prediction.
Professor Noritaka Sako's research lab specializes in thermal management and fluid dynamics in propulsion systems, with a primary focus on liquid film cooling in bipropellant rocket thrusters. The lab investigates the transient behavior of liquid films formed by wall-impinging jets, particularly under pulsed operation conditions, to mitigate heat soak-back and enhance thruster durability. Using high-speed imaging and infrared thermography, the lab analyzes film spreading, boiling-induced atomization, and heat transfer characteristics to optimize cooling efficiency and prevent thermal hazards. Their work bridges fundamental fluid dynamics with practical space propulsion applications, emphasizing performance enhancement and safety in reusable thrusters.
Professor Goichi Beck's research lab focuses on the molecular and pathological mechanisms underlying neurodegenerative disorders, particularly Parkinson’s disease and neuroaxonal dystrophies. The lab investigates key players such as iPLA2β, TDP-43, and ΔFosB in neuronal degeneration, iron homeostasis, and dyskinesia pathogenesis. Using transgenic and knockout animal models, as well as human cell lines, the lab explores therapeutic targets related to phospholipid metabolism, cyclic nucleotide signaling, and early biomarkers in the gastrointestinal tract. Their work bridges basic neurobiology with translational applications for Parkinson’s disease and related disorders.
Professor Takahito Fujimori's research lab specializes in spinal surgery and spinal deformity, with a focus on improving surgical outcomes in degenerative spinal conditions. The lab investigates the clinical and radiographic results of various spinal fusion techniques—such as transforaminal lumbar interbody fusion (TLIF) and posterolateral fusion (PLF)—to optimize patient recovery and spinal stability. A key research direction involves evaluating the impact of surgical approaches on muscle preservation and postoperative pain, particularly in cervical and lumbar spine surgeries. The lab also examines radiological changes and functional outcomes to guide evidence-based spinal surgical practices.
Professor Masataka Kikuchi's research lab focuses on unraveling the molecular and genetic mechanisms underlying neurodegenerative diseases, particularly Alzheimer's disease (AD), through integrative 'omics' approaches. The lab specializes in systems biology, analyzing protein interaction networks, gene expression profiles, and non-coding genetic variants to understand disease progression and identify key regulatory nodes. A central theme is the identification of disease subtypes and endophenotypes using advanced computational models, such as heterogeneous mixture learning, to improve early diagnosis and personalized prediction. The lab also investigates the polygenic architecture of AD across diverse populations, including non-European ancestries, to enhance the translational relevance of genetic risk scores.
Professor Ying-Feng Hsu's research lab focuses on intelligent cybersecurity and energy-efficient data center management, with a strong emphasis on leveraging machine learning and reinforcement learning for real-world network security and system optimization. The lab specializes in anomaly-based network intrusion detection, automated cloud storage tiering using data temperature prediction, and energy-aware workload allocation in data centers to reduce power consumption. Their work bridges the gap between theoretical machine learning models and practical deployment in real campus and cloud network environments.
Professor Akatsuki Saito's research lab focuses on the virological mechanisms of emerging viral pathogens, particularly SARS-CoV-2 variants and HIV-1. The lab investigates viral entry, fusogenicity, receptor interactions (e.g., ACE2 and host factors like CPSF6), and the impact of viral mutations on pathogenicity, immune evasion, and antiviral drug sensitivity. A central theme is understanding how structural and functional changes in viral proteins—especially the spike and capsid—drive transmission, immune escape, and therapeutic resistance.
Professor Toshinori Fujie's research lab specializes in the development of flexible, biocompatible, and functional polymeric nanomaterials for advanced biomedical applications. The lab focuses on creating freestanding ultrathin polymer nanosheets and nanomembranes with tunable mechanical, electrical, and biological properties, enabling their use in wearable and implantable devices. Key research directions include cell-material interactions, epidermal sensors, and wireless implantable systems for localized therapeutic energy delivery, such as induction heating. The lab integrates techniques like inkjet printing, roll-to-roll processing, and biomimetic design to engineer next-generation bio-integrated electronics.
Professor Kazuya Kanemoto's research lab specializes in the development of novel, mild, and odorless transition-metal-catalyzed methods for the efficient synthesis of organosulfur compounds. The lab focuses on innovative transformations involving thiosulfonates, boron reagents, and sulfur-transfer reagents to access diverse sulfur-containing heterocycles, disulfides, and functionalized aryl sulfides. A key theme is the design of selective and orthogonal disulfurating agents for the divergent synthesis of unsymmetrical disulfides, with applications in drug discovery and materials science. The group also explores aryne and 1,3-dipolar cycloaddition strategies for constructing complex nitrogen- and sulfur-containing heterocycles with high stereoselectivity.
Professor Takumi Kosaba's research lab specializes in the development and evaluation of surface treatments to enhance the corrosion resistance of aluminum alloys, particularly in multimaterial systems such as aluminum-steel joints used in automotive applications. The lab focuses on understanding and mitigating galvanic corrosion mechanisms in chloride-containing environments, with particular attention to the role of intermetallic particles (e.g., Al6(Fe,Mn)) and surface films in initiating localized corrosion. Key research directions include chemical conversion treatments (e.g., Na2MoO4, KMnO4–NaF) that modify interfacial electrochemistry and improve the durability of lightweight structural materials.
Professor Akindele Abimibayo Adeoya's research lab focuses on public health nutrition, with a strong emphasis on child and adolescent nutritional well-being in vulnerable contexts such as disasters, school environments, and multicultural settings. The lab investigates disaster preparedness nutrition education, school meal systems, and health literacy, particularly among children and international students. Key research directions include improving nutritional knowledge and behavior through student-centered interventions, enhancing health outcomes in crisis situations, and promoting sustainable health practices across diverse populations.
Professor Gaël Sebald's research lab specializes in advanced energy harvesting technologies, focusing on pyroelectric and electrocaloric effects in ferroelectric and relaxor materials for small-power applications. The lab explores innovative cycles—such as the Ericsson cycle—to dramatically enhance energy conversion efficiency beyond conventional direct harvesting methods. A key research direction involves designing nonlinear mechanical and electrostatic systems to broaden bandwidth and improve performance in microgenerators. The lab also investigates the fundamental coupling between thermal, electrical, and mechanical responses in functional materials, particularly single crystals and ceramics based on PMN-PT solid solutions.
Professor Yu Yamauchi's research lab specializes in the development of flexible, continuum robots for applications in disaster response, medical care, and confined-space exploration. The lab focuses on innovative actuation methods—particularly jet-based and fluid-driven systems—that enable large deformations and precise control in complex environments. Key research directions include multi-sensor integration for enhanced environmental perception, passive mechanical designs for force directionality, and low-cost, non-invasive monitoring systems for elderly care. The lab also explores bio-inspired robotics, such as 'hairy' snake-like robots with self-propelling mechanisms, to improve mobility and operability in challenging conditions.
Professor Yutaka Ohno's research lab specializes in the fundamental optical and electronic properties of carbon nanotubes, with a focus on chirality-specific characterization, dielectric environment effects, and device integration. The lab employs advanced spectroscopic techniques—such as photoluminescence, excitation spectroscopy, and micro-photocurrent measurements—to investigate how electronic transitions in individual single-walled carbon nanotubes are influenced by their local environment and electrical gating. A key research direction involves the development of position-controlled carbon nanotube field-effect transistors for high-precision optical and electronic sensing, including applications in flexible and biocompatible sensors. The lab also pioneers scalable fabrication methods, such as dry transfer of CNT films, for next-generation wearable and implantable biomedical devices.
Professor Yoji Ishizu's research lab focuses on autoimmune and fibrotic diseases, particularly immunoglobulin G4-related disease (IgG4-RD) with a special emphasis on its hepatic manifestations. The lab investigates the clinical and pathological features of IgG4-related autoimmune hepatitis (AIH) and IgG4-hepatopathy, exploring their overlap with systemic IgG4-RD and associated conditions such as autoimmune pancreatitis. Research also extends to the immunological and hematological effects of antiviral therapy, particularly in hepatitis C virus (HCV)-related disorders, including changes in platelet counts linked to immune modulation and hypersplenism. The lab aims to clarify the pathogenesis and clinical course of these complex immune-mediated conditions.
Professor Nobuyuki Kawai's research lab specializes in organic synthesis and stereoselective transformations, with a focus on developing novel catalytic methods for constructing complex heterocyclic frameworks—particularly tetrahydropyrans—through palladium-catalyzed reactions. The lab investigates stereospecific cyclizations involving chiral allylic alcohols, emphasizing 1,3-chirality transfer and diastereoselective control under mild conditions. In parallel, the lab explores cognitive and social behaviors in primates, particularly reciprocity and social facilitation, using behavioral experiments and neurophysiological tools such as fNIRS to examine age-related changes in executive functions and social cognition. These interdisciplinary efforts bridge synthetic chemistry with behavioral neuroscience, aiming to understand both molecular and cognitive mechanisms of selectivity and social interaction.
Professor Hideki Kasuya's research lab specializes in oncolytic virotherapy and molecular oncology, focusing on the development and application of oncolytic viruses—particularly HF10 and other herpes simplex virus-based vectors—for the treatment of solid tumors. The lab investigates the genetic mechanisms underlying viral selectivity and cytotoxicity, as well as the synergistic effects of combining oncolytic viruses with immune checkpoint inhibitors or targeted therapies like bevacizumab. A key emphasis is on translational research, advancing preclinical findings into clinical applications for cancers such as melanoma, glioma, and pancreatic cancer.
Professor Kosuke Aoki's research lab focuses on the molecular and mathematical modeling of low-grade gliomas, with an emphasis on understanding the genetic and epigenetic drivers of tumor progression and treatment response. The lab integrates genomics, liquid biopsy technologies—particularly urine-based biomarker discovery—and computational modeling to improve early detection and personalized treatment strategies for central nervous system tumors. A key focus is on IDH-mutant gliomas and the impact of chromosomal alterations such as 1p/19q codeletion on patient outcomes.
Professor Yukihiro Tashiro's research lab focuses on sustainable biofuel production, particularly butanol via acetone-butanol-ethanol (ABE) fermentation, with an emphasis on overcoming challenges like product inhibition and low yield through molecular biology and fermentation engineering. The lab also investigates the gelation mechanisms of food proteins, such as surimi, using advanced analytical techniques like proton spin-spin relaxation (¹H T₂) and differential scanning calorimetry to understand protein denaturation and aggregation. Their work bridges biotechnology and food science, aiming to develop cost-effective, eco-friendly processes for industrial applications. The lab is actively exploring alternative substrates to replace edible glucose in biofuel production, promoting sustainability.
Professor Masanori Fujii's research lab specializes in orthopedic biomechanics and hip joint pathology, with a primary focus on developmental dysplasia of the hip (DDH). The lab investigates the morphological and structural abnormalities of the pelvis and acetabulum, emphasizing the role of acetabular retroversion and anterosuperior joint damage in early-onset osteoarthritis. Using clinical, radiological, and arthroscopic analyses, the lab explores the progression of intra-articular lesions and their impact on surgical outcomes, particularly following periacetabular osteotomy. Their work bridges clinical orthopedics with biomechanical principles to improve early diagnosis and long-term joint preservation strategies.
