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 Sastia Prama Putri's research lab specializes in metabolomics, with a focus on understanding metabolic changes in plants and fungi during development, fermentation, and postharvest processes. Her work integrates analytical chemistry techniques—particularly GC-MS-based metabolite profiling—to explore how raw materials, microbial starters, and environmental factors influence the metabolite composition of food products like tempe and pineapple. The lab also investigates bioactive compounds from fungi with potential applications in agriculture and food preservation. Current research directions include improving food quality and shelf life through natural postharvest interventions such as chitosan coatings and low-temperature storage.
Professor Naoya Tanabe's research lab specializes in advanced medical imaging and structural analysis of the lungs in chronic obstructive pulmonary disease (COPD). The lab focuses on understanding small airway pathology and emphysema progression using multimodal imaging techniques such as multidetector CT, micro-CT, and histology. Key research directions include the fractal characterization of lung structure, airway-lung interaction, and the clinical implications of emphysema distribution and airway remodeling. The lab aims to identify novel CT biomarkers—such as airway volume percentage (AWV%)—to improve disease prediction and personalized management of COPD.
Professor Ganesh N. Pandian's research lab specializes in the development of synthetic epigenetic tools for precise gene regulation, focusing on designing small molecules and polyamide conjugates that target specific DNA sequences to modulate chromatin structure and activate pluripotency genes. The lab integrates chemical biology, epigenetics, and synthetic biology to create artificial genetic switches with applications in regenerative medicine and stem cell reprogramming. Recent work emphasizes the use of pyrrole-imidazole polyamides (PIPs) conjugated with histone deacetylase inhibitors like SAHA to achieve targeted transcriptional activation in mammalian cells.
Professor Koji Fujita's research lab specializes in glaciology and cryospheric sciences, focusing on the dynamics, mass balance, and environmental impacts of glaciers in high-altitude and high-latitude regions such as the Tibetan Plateau, the Himalayas, and Greenland. The lab employs advanced modeling techniques—particularly energy-balance and surface mass balance models—combined with remote sensing and field observations to study glacier retreat, glacial lake outburst floods (GLOFs), and the effects of climate change on ice sheets and mountain glaciers. A key focus is improving the accuracy of glacier and ice sheet modeling through intercomparison projects and high-resolution digital elevation models (DEMs).
Professor Masaru Ishii's research lab focuses on molecular and cellular mechanisms underlying immune regulation, bone metabolism, and neuroglial signaling. Key research directions include the role of vitamin D in immune modulation and inflammatory diseases, the function of sphingosine-1-phosphate receptors in osteoclast precursor migration, and the regulation of potassium channels in retinal glial cells. The lab also investigates ion channel and membrane protein functions in cellular fusion processes, particularly involving tetraspanin CD9 in osteoclastogenesis.
Professor Tsuyoshi Michinobu's research lab specializes in the design and synthesis of advanced organic semiconductors and donor-acceptor chromophores for next-generation electronic and optoelectronic applications. The lab focuses on developing novel π-conjugated materials—particularly based on tetracyanobutadiene, benzothiadiazole, and naphthalenediimide derivatives—through innovative reactions like [2+2] cycloaddition-retroelectrocyclization to achieve high charge mobility and strong intramolecular charge-transfer properties. A key research direction involves engineering molecular and polymeric architectures with tailored electronic, optical, and redox properties for use in organic field-effect transistors, nonlinear optics, and chiral sensing systems. The lab also explores functional materials at interfaces, such as monolayers for enantioselective recognition, demonstrating a multidisciplinary approach bridging organic synthesis, materials science, and device physics.
Professor Ikjin Lee's research lab specializes in reliability-based design optimization (RBDO), with a strong focus on advanced reliability analysis methods such as the first-order and second-order reliability methods (FORM/SORM), stochastic sensitivity analysis, and surrogate modeling. The lab develops innovative numerical and analytical techniques to improve the accuracy and efficiency of structural and mechanical system reliability assessment, particularly in the presence of correlated random variables and nonlinear performance functions. Key applications include vehicle dynamics-based design optimization for transportation infrastructure, such as roadway exit ramps and interchanges, with emphasis on safety-critical failure modes like rollover and sideslip.
Professor Young Jin's research lab specializes in the design and development of advanced non-precious metal electrocatalysts for sustainable energy conversion and storage applications. The lab focuses on understanding and engineering active sites in nitrogen- and metal-doped carbon materials, such as Fe-N/C, Co-N/C, and heteroatom-doped carbon nanocarbons, to enhance their performance in key reactions like the oxygen reduction reaction (ORR), oxygen evolution reaction (OER), and hydrogen evolution reaction (HER). By employing innovative synthesis strategies—such as silica-protective layer methods and templated mesoporous structures—the lab aims to maximize catalytic activity, selectivity, and stability while minimizing reliance on noble metals. Their work also extends to CO2 electroreduction, targeting efficient and selective conversion of CO2 into valuable chemicals and fuels.
Professor Tatsuro Misu's research lab specializes in neuroimmunology, focusing on the pathogenesis and clinical features of demyelinating disorders such as neuromyelitis optica spectrum disorder (NMOSD) and optic-spinal multiple sclerosis. The lab investigates autoimmune mechanisms targeting astrocytes—particularly aquaporin-4 and myelin oligodendrocyte glycoprotein—using immunohistopathological, neuroimaging, and biomarker approaches. A central theme is understanding the role of astrocytopathy and humoral immunity in disease progression and distinguishing NMOSD from multiple sclerosis through clinical, radiological, and serological markers.
Professor Alexandre Varnek's research lab specializes in computational cheminformatics and machine learning, focusing on the development and application of advanced data-driven methods for molecular design, virtual screening, and structure-property relationship modeling. The lab pioneers innovative approaches in chemoinformatics, including the use of fuzzy pharmacophores, autoencoders, and Generative Topographic Mapping (GTM) to explore molecular latent spaces and generate novel compounds with desired properties. Key research directions include QSAR/QSPR modeling, ADME/Tox prediction, and the integration of statistical learning with molecular descriptor theory to improve predictive performance and interpretability in drug discovery.
Professor Ji Young Hyun's research lab specializes in glycobiology and glycomedicine, focusing on the molecular mechanisms of glycan-protein interactions and their roles in health and disease. The lab develops advanced glycoanalytical tools such as glycan microarrays and fluorescent probes to study glycosidase activities and glycan-binding proteins, with applications in disease diagnosis and drug discovery. A key research direction involves designing targeted theranostic agents using near-infrared (NIR) fluorophores for cancer imaging and therapy, aiming to improve tumor selectivity and reduce off-target effects. The lab also pioneers innovative biosensors and assay platforms for profiling glycan-modifying enzymes and evaluating enzyme inhibitors.
Professor Volodymyr Takhistov's research lab focuses on fundamental astrophysics and particle physics, exploring primordial black holes as dark matter candidates and their cosmological implications. The lab investigates gravitational wave signatures from black hole–star binary systems, particularly those formed through the capture of primordial black holes by neutron stars or white dwarfs. It also studies high-energy phenomena such as Hawking radiation from evaporating black holes and their impact on cosmic environments, as well as signatures of millicharged dark matter and nucleon decay in large underground detectors. The work bridges theoretical particle physics, cosmology, and observational astrophysics, with a strong emphasis on testable predictions for current and future experiments like LIGO, LISA, Super-Kamiokande, and IceCube.
Professor Teruo Miyazawa's research lab specializes in bioactive compounds and lipid oxidation, with a focus on the bioavailability and physiological effects of dietary antioxidants such as anthocyanins and tea catechins. The lab develops advanced analytical techniques—particularly chemiluminescence-HPLC methods—for the sensitive detection of lipid hydroperoxides and antioxidant metabolites in biological systems. Their work bridges nutritional science, analytical chemistry, and biomedical research, emphasizing the role of phytochemicals in preventing oxidative stress and related diseases. The lab also explores functional foods like microgreens and surfactant-coated nanoparticles for applications in nanomedicine and nutraceuticals.
Professor Dong Hee Son's research lab specializes in the synthesis, characterization, and fundamental understanding of perovskite nanocrystals, with a focus on cesium lead halide (CsPbX₃) systems. The lab explores size-controlled synthesis, cation exchange dynamics, doping strategies, and the role of lattice distortions in tuning optoelectronic properties. Key research directions include achieving precise quantum dot size control via thermodynamic equilibrium, engineering excitonic transitions through polaron formation, and developing robust methods for doping and shape evolution in nanocrystals.
Professor Jungsoon Choi's research lab specializes in spatial and environmental health analytics, focusing on the intersection of epidemiology, environmental factors, and statistical modeling. The lab investigates the spatio-temporal dynamics of disease spread, particularly infectious diseases like COVID-19 and chronic conditions such as cardiovascular diseases, by integrating geographic information systems (GIS), Bayesian hierarchical models, and advanced luminescence techniques. Key research directions include developing innovative statistical models for identifying spatial clusters with homogeneous health risk patterns and examining the impact of built and environmental factors on public health outcomes. The lab also contributes to environmental science through detailed analysis of luminescence signals in quartz for dating and environmental reconstruction.
Professor Jihye Kim's research lab focuses on the epidemiological and nutritional determinants of metabolic and mental health outcomes in the Korean population. The lab investigates the role of dietary patterns—particularly the quality of plant-based foods, caffeine intake, and dairy consumption—in the development of metabolic syndrome and related conditions. Additionally, the lab explores the impact of lifestyle factors such as sleep duration on hypertension and long-term health outcomes, including cancer recurrence. Their work combines large-scale population-based data with systematic reviews and meta-analyses to inform public health strategies.
Professor Simon Weonsang Ro's research lab focuses on the molecular mechanisms underlying hepatocellular carcinoma (HCC) pathogenesis, with a particular emphasis on dysregulated signaling pathways such as MAPK/ERK, EGFR/PI3K/AKT/mTOR, and JAK/STAT. The lab employs advanced transgenic mouse models and in vitro systems to dissect oncogenic cooperation and tumor-promoting microenvironments driven by genetic alterations and chronic liver injury. A growing interest in the toxicological impact of micro- and nanoplastics on liver health further expands the lab’s scope into environmental carcinogenesis. The research integrates molecular oncology, signal transduction, and translational preclinical models to identify novel therapeutic targets for HCC.
Professor Nobuhiro Moteki's research lab specializes in atmospheric aerosol science, focusing on the physical and optical properties of black carbon (BC) and other anthropogenic particles. The lab employs advanced single-particle instrumentation, such as the Single Particle Soot Photometer (SP2), to investigate the mixing state, size distribution, and atmospheric aging of BC and related particles. Key research directions include the quantification of black carbon and brown carbon in urban and regional plumes, the role of anthropogenic iron oxides in atmospheric radiation forcing, and the size-dependent removal of aerosols in the atmosphere. The lab’s work bridges laboratory experiments, field measurements, and theoretical modeling to improve understanding of climate-relevant aerosol processes.
Professor Shunsuke Murai's research lab specializes in nanophotonics and optoelectronic materials, focusing on the design and application of hybrid plasmonic-photonic systems, bound states in the continuum (BICs), and advanced phosphor materials for next-generation lighting and photonic devices. The lab explores the coupling of localized surface plasmons with guided and diffracted optical modes, as well as the engineering of dielectric nanostructures for high-quality optical resonances. A key direction involves developing efficient, warm-white light-emitting phosphors using glass-ceramic host materials with precise rare-earth ion doping for high color quality and thermal stability. The lab also investigates fundamental light-matter interactions in subwavelength nanostructures, aiming to enable compact, high-performance photonic components.
Professor Hyung Jin Sung's research lab specializes in microfluidics, acoustofluidics, and computational fluid dynamics, focusing on the development of advanced microscale fluidic systems and smart materials for biomedical and optoelectronic applications. The lab pioneers innovative surface acoustic wave (SAW)-based technologies for precise manipulation of microparticles, cells, and droplets in lab-on-a-chip devices, enabling efficient, label-free separation and concentration. It also develops low-temperature, scalable fabrication methods for flexible, transparent conductive electrodes using silver nanowires and conductive polymers, supporting next-generation optoelectronic devices. Additionally, the lab employs high-fidelity numerical simulations to model complex fluid-structure interactions, such as flag flapping and acoustic streaming in microdroplets.
