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 Masahiro Minowa's research lab specializes in glaciology and cryospheric sciences, focusing on the dynamics of calving glaciers and ice shelves, particularly in polar and high-altitude regions. The lab employs advanced remote sensing, field observations, and geophysical monitoring—such as pressure sensors and GPS—to study calving processes, frontal ablation, and ice mass loss with high temporal and spatial resolution. Key research directions include understanding the role of ocean tides, air temperature, and ice flow in driving calving events and frontal retreat, as well as reconstructing past dust deposition in ice cores to infer climate and environmental changes. The lab’s work contributes critical insights into glacier mass balance and sea-level rise projections under climate change.
Professor Hiroshi Kida's research lab specializes in influenza virology, with a focus on the ecology, transmission, and molecular mechanisms of avian influenza viruses in natural hosts such as ducks and pigs. The lab investigates viral adaptation, host range, and the potential for genetic reassortment that could lead to pandemic strains, particularly examining how avian influenza viruses interact with mammalian hosts. Their work combines experimental virology, virological surveillance, and immunological analysis to understand the zoonotic potential of influenza A viruses.
Professor Qiang Wang's research lab focuses on the intersection of digital health technologies and sustainable development, with a strong emphasis on leveraging digital innovations to address global public health challenges such as the COVID-19 pandemic. The lab also investigates the environmental implications of international trade, particularly the impacts of trade openness, diversification, and direction on carbon emissions. Research directions include digital healthcare systems, big data analytics in public health, and sustainable trade policies for climate resilience. The lab integrates data science, policy analysis, and environmental economics to support evidence-based decision-making.
Professor Toshifumi Nomura's research lab specializes in the genetic and molecular mechanisms underlying inherited skin disorders, with a focus on ichthyoses, keratodermas, and other epidermal differentiation diseases. The lab investigates disease-causing mutations in genes such as *TGM1*, *LOR*, *SERPINB7*, and *AAGAB*, and explores novel genetic phenomena like revertant mosaicism and copy-neutral loss-of-heterozygosity as endogenous corrective mechanisms. Their work integrates clinical dermatology with molecular genetics, utilizing next-generation sequencing and functional genomics to uncover pathogenic mechanisms and identify potential therapeutic targets. The lab also evaluates innovative treatments, such as pulsed dye laser therapy, for rare and therapy-resistant skin conditions.
Professor Jinglu Hu's research lab specializes in intelligent modeling, system identification, and control for nonlinear and complex systems, with a strong focus on hybrid modeling techniques that combine linear structures with nonlinear learning components. The lab develops advanced data-driven models—such as quasi-ARMAX and neurofuzzy systems—tailored for applications in renewable energy (e.g., wind turbines), brain-computer interfaces (BCIs), and signal processing. Key innovations include the integration of deep learning, graph neural networks, and stochastic optimization (e.g., PSO) to enhance model accuracy, stability, and real-time performance. The lab also emphasizes feature selection and signal representation techniques to improve decoding in EEG-based systems and other high-dimensional data applications.
Professor Takuya Taniguchi's research lab specializes in stimuli-responsive functional materials, with a focus on molecular crystals that exhibit unique mechanical motions such as walking, rolling, and bending under external stimuli like light, heat, and pressure. The lab explores photo- and thermally induced phase transitions, particularly single-crystal-to-single-crystal transformations, to achieve controllable actuation and superelastic behavior in soft, crystalline materials. A central theme is the design and characterization of photomechanical crystals for applications in soft robotics, artificial muscles, and smart materials, using advanced techniques including machine learning for structure-property prediction. The lab also investigates the fundamental relationship between molecular structure, crystal architecture, and macroscopic motion through both experimental and computational approaches.
Professor Hung Vo Thanh's research lab specializes in advanced modeling and machine learning applications for sustainable energy and carbon management. The lab focuses on enhancing carbon capture, utilization, and storage (CCUS) through innovative geological modeling, predictive analytics, and artificial intelligence. Key research directions include 3D subsurface modeling under uncertainty, CO₂ storage capacity assessment in onshore and offshore reservoirs, and optimizing gas storage and hydrogen adsorption in porous materials. The lab integrates machine learning with reservoir simulation and geostatistical techniques to improve the accuracy and efficiency of energy resource evaluation.
Professor K. Shiba's research lab specializes in advanced materials development for fusion energy applications and high-performance 3D integrated electronics. The lab focuses on enhancing the toughness and irradiation resistance of reduced activation ferritic/martensitic steels, such as F82H mod3, for use in fusion reactor environments. Concurrently, the lab pioneers low-power, high-bandwidth wireless interconnect technologies using inductive coupling for 3D-stacked memory systems, enabling energy-efficient, large-capacity SRAM designs for next-generation computing accelerators. These interdisciplinary efforts bridge materials science and microelectronics to address critical challenges in energy and information technology.
Professor Zicong Xu's research lab specializes in quantum-enhanced optical microscopy and sensing, with a focus on advancing molecular vibrational imaging through quantum optics techniques. The lab pioneers quantum-enhanced stimulated Raman scattering (QE-SRS) microscopy, leveraging squeezed light and balanced detection to achieve sub-shot-noise-limited sensitivity for biomedical applications. Key research directions include dual-polarization quantum detection for enhanced symmetry-sensitive vibrational spectroscopy and the development of ultra-compact, high-precision temperature sensors using CMOS technology. The lab bridges quantum optics, laser science, and biomedical imaging to push the frontiers of sensitivity and resolution in molecular diagnostics.
Professor Osamu Shimizu's research lab specializes in advanced magnetic materials and wireless power transfer technologies, with a focus on enhancing energy efficiency and sustainability in electric transportation and data storage. The lab investigates soft magnetic materials such as FeZrN systems for high-performance applications, explores nanocrystalline effects to improve magnetic properties, and develops innovative dynamic wireless power transfer (DWPT) systems—particularly in-wheel motor designs—for electric vehicles. Additionally, the lab examines the archival stability of magnetic recording media, comparing barium ferrite and metal particulate systems for future high-capacity, durable data storage solutions.
Professor Kōji Shimizu's research lab specializes in natural product chemistry and pharmacology, with a focus on the metabolic transformation and structural elucidation of saikosaponins—bioactive triterpenoid saponins from Bupleuri Radix. The lab investigates the in vitro and in vivo metabolism of these compounds using biological fluids and microbial systems, aiming to understand their metabolic pathways and excretion profiles. Additionally, the lab explores the pharmacological interactions of traditional Chinese herbal formulas, such as Shosaikoto, particularly in combination with synthetic drugs like prednisolone, to enhance anti-inflammatory effects. The lab also engages in genetic studies, particularly on globin gene disorders in neonatal populations, and applies computational methods to study alloy systems for energy storage applications.
Professor Michael J. Miller's research lab focuses on the life history, ecology, and conservation of anguillid eels, with particular emphasis on larval biology, oceanographic dispersal, and the impacts of environmental change on eel populations. The lab investigates larval feeding ecology using stable isotope analysis, tracks spawning areas through large-scale oceanographic surveys, and examines the combined effects of anthropogenic stressors and climate variability on eel recruitment. A central theme is understanding the complex interplay between ocean currents, larval survival, and population declines in both European and American eel species.
Professor Fumiya Akashi's research lab specializes in statistical inference for time series with non-elliptical and heavy-tailed distributions, focusing on robust and nonparametric methods under weak moment conditions. The lab develops advanced empirical likelihood and self-normalized techniques for change-point detection, M-estimation, and time-varying parameter models in the presence of long-range dependence or infinite variance. Key research directions include asymptotic theory for dependent and heavy-tailed data, semiparametric inference, and the construction of confidence regions without requiring knowledge of tail indices or dependence parameters. The lab emphasizes methodological innovation for real-world data with complex dependence and heavy-tailed behavior.
Professor Haruhiko Jimbo's research lab focuses on the molecular mechanisms underlying photosynthetic stress responses and membrane lipid dynamics in cyanobacteria, particularly under environmental stressors such as strong light and nutrient limitation. The lab investigates how reactive oxygen species, lipid metabolism, and protein repair systems—especially the role of translation factor EF-Tu and lipases—regulate the stability and repair of photosystem II (PSII). A central theme is the interplay between lipid remodeling, free fatty acid accumulation, and photoinhibition, with implications for sustainable bioenergy production. The lab also explores how cyanobacteria adapt their membrane composition to optimize photosynthetic efficiency under fluctuating CO₂ and light conditions.
Professor Daiju Narita's research lab specializes in the economic assessment of climate change impacts and mitigation technologies, with a focus on air pollution, ocean acidification, and extreme weather events. The lab conducts integrated assessment modeling using frameworks like FUND to quantify the economic consequences of environmental changes and evaluate policy-relevant adaptation and mitigation strategies. Research spans regional case studies—such as PM2.5 in Bangkok and storm damage in the tropics—alongside global and sub-national analyses of climate risks to marine ecosystems and infrastructure. The lab emphasizes the integration of scientific data with economic modeling to support climate finance and policy decision-making.
Professor Kazuo Shin-ya's research lab specializes in natural product discovery and biosynthesis, with a focus on bioactive compounds from actinobacteria—particularly Streptomyces species—found in diverse environments such as marine sponges. The lab investigates the genetics and evolution of giant modular polyketide synthase (PKS) gene clusters to reprogram biosynthetic pathways for novel compound production. Their work combines genomics, bioinformatics, and heterologous expression to elucidate the stereochemistry and function of complex natural products, including telomerase inhibitors like telomestatin. The lab also explores the ecological and evolutionary basis of microbial diversity to uncover new sources of clinically relevant compounds.
Professor Naomi Berman’s research lab focuses on the intersection of education, digital literacy, and social inclusion in contemporary higher education and youth development. Her work explores informal learning environments, the impact of media and technology on identity formation, and the role of civic engagement in fostering youth leadership. The lab investigates how institutional spaces, digital media literacy, and social constructs such as isolation and deviance shape educational experiences and personal agency.
Professor Ryosuke Nakamura's research lab specializes in planetary science and astronomical spectroscopy, focusing on the surface composition and physical properties of trans-Neptunian objects, particularly Pluto and its moon Charon. Using advanced near-infrared spectroscopy from ground-based telescopes, the lab investigates the distribution and abundance of ices—such as nitrogen, methane, and carbon monoxide—on distant solar system bodies. The lab also explores the seasonal and spatial variations in these ices, contributing to our understanding of the surface evolution and surface-atmosphere interactions in the outer solar system. Their work combines observational astronomy with data analysis to reveal insights into the formation and dynamics of icy bodies in the Kuiper Belt.
Professor Misao Fujita's research lab focuses on bioethics, regenerative medicine regulation, and transplant ethics, with a strong emphasis on patient safety, ethical decision-making in living donation, and the development of robust regulatory frameworks for regenerative therapies. The lab investigates the socio-ethical dimensions of medical innovation, particularly in Japan, addressing challenges in organ transplantation, stem cell therapies, and the oversight of regenerative medicine products. Their work highlights systemic risks in regulatory oversight and advocates for independent, transparent, and ethically sound review processes.
Professor Akihito Uji's research lab specializes in ophthalmic imaging, particularly optical coherence tomography angiography (OCTA), with a focus on enhancing image quality and resolving microvascular structures in the retina and choroid. The lab investigates advanced imaging techniques such as multiple en face averaging and deep learning-based denoising to improve visualization of capillary networks and detect subtle pathological changes. Their work also extends to understanding retinal hemodynamics and structural alterations in diseases like diabetic macular edema and diffuse scleritis using high-resolution OCT imaging.
