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 Madhumita Patel's research lab specializes in advanced biomaterials and sustainable technologies, focusing on the development of bio-based polymers, nanomaterials, and tissue engineering scaffolds for biomedical and environmental applications. Her team explores the use of natural compounds like rice bran oil phytoceuticals, chitosan, and graphene-based composites to create functional materials for drug delivery, neural regeneration, and active food packaging. The lab also investigates catalytic systems for green hydrogen production, emphasizing sustainable energy solutions. Overall, the research integrates materials science, biomedicine, and environmental sustainability.
Professor Dong-Hwee Kim's research lab specializes in cellular mechanobiology, focusing on how physical forces and mechanical cues from the extracellular environment regulate cell behavior, particularly in migration, nuclear morphology, and stem cell differentiation. The lab investigates the role of cytoskeletal structures—such as focal adhesions, the perinuclear actin cap, and the nucleus—under mechanical stress, integrating quantitative live-cell imaging, biophysical modeling, and engineered microenvironments. A central theme is understanding how cells sense and transduce mechanical signals through molecular complexes like the LINC complex and focal adhesion proteins to control motility and fate decisions.
Professor Yin Long's research lab specializes in urban sustainability, with a focus on urban livability, city-level carbon emissions, and the integration of open-source data for environmental and climate policy analysis. The lab investigates the drivers of regional and sectoral carbon emissions, particularly in response to socio-economic shocks such as financial crises and natural disasters, using high-resolution data and consumption-based accounting. It also develops innovative frameworks to assess urban livability in rapidly urbanizing cities like Shanghai by leveraging diverse open data sources. The lab's work bridges data science, urban planning, and climate change mitigation to support evidence-based policy making.
Professor Cristian Mejía's research lab specializes in computational social science and data-driven innovation studies, focusing on the analysis of scientific literature, technological trends, and socio-technical systems. The lab employs advanced methods such as network analysis, text mining, and citation network modeling to explore topics including bibliometrics, social robotics, creativity research, employee well-being and innovativeness, and environmental sustainability in business. A central theme across the lab’s work is understanding the dynamics of knowledge production and systemic impacts in science, technology, and sustainability. The lab also investigates the role of financial networks in carbon footprint allocation and the evolution of innovation ecosystems.
Professor Satoru Tsuchikawa's research lab specializes in the application of near-infrared (NIR) spectroscopy, particularly Fourier transform NIR (FT-NIR), to investigate the molecular and structural properties of wood and paper materials. The lab focuses on understanding the relationship between wood's microstructure—such as cellulose microfibril arrangement and amorphous regions—and its physical and chemical behaviors, including diffusion processes and aging degradation. Key research directions include non-destructive analysis of wood for quality control in the paper industry, characterization of archaeological wood at the macromolecular level, and the development of online process monitoring techniques for pulp and paper production.
Professor Mikio Nakazono's research lab focuses on plant stress responses, particularly under hypoxic and flooding conditions. The lab investigates molecular and physiological mechanisms enabling plants to survive oxygen deprivation, with key research directions including aerenchyma formation, radial oxygen loss barriers, suberin deposition in root tissues, and the role of enzymes like aldehyde dehydrogenase (ALDH) in detoxifying harmful metabolites such as acetaldehyde. The lab combines molecular genetics, cell biology, and physiological modeling to understand how plants adapt to waterlogged soils, with a strong emphasis on rice and related monocots like maize and teosinte.
Professor Hideki Sudo's research lab focuses on the molecular mechanisms underlying intervertebral disc degeneration (IVDD), with a central emphasis on regulating cell death pathways such as apoptosis, necroptosis, pyroptosis, and ferroptosis. The lab investigates therapeutic strategies to enhance disc cell survival, including gene therapy (e.g., Bcl-2 overexpression) and biomaterial-based interventions like UPAL gels for post-discectomy repair. Their work bridges basic cell biology with translational applications, aiming to develop novel regenerative treatments for spinal disorders.
Professor Zen Maeno's research lab specializes in the design and characterization of advanced functional materials for sustainable energy and environmental applications. The lab focuses on single-atom and cluster-based catalysts supported on zeolites and metal oxides, with particular emphasis on understanding the atomic-scale structure and reactivity of metal species in confined environments. Key research directions include the development of materials for CO2 capture and conversion, methane activation, and selective hydrogenation reactions, using a combination of in situ spectroscopy, X-ray absorption spectroscopy, and theoretical calculations. The lab also explores chemical looping processes and the stabilization of highly dispersed or atomic metal species for enhanced catalytic performance.
Professor Seunggeun Lee's research lab specializes in statistical genetics and computational biology, focusing on developing advanced statistical methods for large-scale genomic data analysis. The lab pioneers scalable and accurate methods for rare variant association testing, polygenic risk score prediction across diverse ancestries, and multivariate genetic analysis, with an emphasis on improving type I error control and statistical power. Key research directions include the development of generalized mixed models, bias-corrected principal component prediction, and transfer learning approaches for cross-ancestry genetic prediction. The lab's work is driven by the need to enhance the reliability and applicability of genetic association studies in biobank-scale data.
Professor Sunyoung Lee's research lab focuses on the molecular and cellular mechanisms underlying cancer progression, angiogenesis, and tumor microenvironment regulation. Key research directions include the extracellular regulation of growth factors such as VEGF by metalloproteinases, the role of cancer-associated genes like FAM83A in therapy resistance, and the biomechanical interactions between vascular cells and their microenvironment. The lab integrates advanced imaging techniques—such as atomic force microscopy and functionalized force imaging—to study receptor-ligand interactions and mechanical properties of cells at the nanoscale.
Professor Hemin Zhang's research lab specializes in the design and synthesis of advanced functional nanomaterials for sustainable energy applications, with a primary focus on photoelectrochemical water splitting and green ammonia production. The lab develops innovative nanostructured photoanodes and photocathodes—such as doped hematite, TiO₂, and silicon nanowire arrays—using advanced fabrication techniques like hybrid microwave annealing and laser ablation to enhance charge separation, light absorption, and catalytic efficiency. A key research direction involves creating core–shell heterostructures and codoped systems to simultaneously improve electrical conductivity, reduce recombination, and preserve favorable morphological features for efficient solar fuel generation. The lab also contributes to conservation science by applying advanced imaging techniques to study reproductive biology in endangered species, demonstrating interdisciplinary impact beyond materials science.
Professor Yunwu Ma's research lab specializes in advanced joining technologies for lightweight materials, with a focus on resistance spot welding, self-piercing riveting (SPR), and friction self-piercing riveting (F-SPR) of high-strength and dissimilar metals such as aluminum alloys, magnesium alloys, and ultra-high-strength steels. The lab investigates the microstructural evolution, mechanical behavior, and fracture mechanisms in welded and riveted joints, particularly under challenges like liquid metal embrittlement and cracking in ductile materials. Using a combination of experimental testing, miniature mechanical characterization, and finite element simulation, the lab aims to develop reliable, high-performance joining processes for automotive lightweighting and structural integrity.
Professor Koji Yonekura's research lab specializes in advanced structural biology and electron microscopy, focusing on the atomic-level architecture of biological macromolecules and nanomaterials. The lab develops cutting-edge electron microscopy techniques—such as cryo-EM, electron crystallography, and phase plate imaging—to study complex systems like bacterial flagella, membrane proteins, and photosynthetic reaction centers. A central theme is the refinement of structural models using electron scattering factors and electrostatic parameterization, enabling high-resolution visualization of charged residues and metal ions. The lab also explores the self-assembly of novel carbon-based nanomaterials, including curved nanographenes, to understand their unique supramolecular structures and functions.
Professor Heejun Yang's research lab specializes in nanoscale electronic and optoelectronic devices for next-generation computing and neuromorphic systems. The lab focuses on designing 2D material-based heterostructures—particularly graphene and transition metal dichalcogenides (TMDs)—to achieve tunable electronic, optical, and synaptic functionalities. Key research directions include graphene-based barristors, in-sensor reservoir computing, and Joule heating-induced synaptic devices that emulate biological plasticity with ultra-low energy consumption. The lab also explores atomically precise engineering of 2D materials for efficient electrocatalysis and quantum transport phenomena at nanoscale interfaces.
Professor Jaehoon Lim's research lab specializes in the development of high-performance, solution-processed quantum dot-based optoelectronic devices, with a primary focus on quantum dot light-emitting diodes (QLEDs) for next-generation displays and solid-state lighting. The lab pioneers advanced materials design—particularly core/shell heterostructured InP and CdSe-based quantum dots—with precise control over composition gradients, shell engineering, and surface passivation to achieve high photoluminescence quantum yield, exceptional stability, and efficient charge injection. Key research directions include enhancing device efficiency and brightness under high current density, mitigating non-radiative Auger recombination, and developing robust, environmentally benign QLED architectures using non-toxic materials and scalable printing techniques. The lab also explores innovative device architectures, such as top-emission and Si-substrate integrated QLEDs, to expand practical applications beyond conventional limits.
Professor Takayuki Yamada's research lab specializes in advanced computational methods and intelligent systems for engineering design and optimization. The lab focuses on topology optimization using level set methods for thermal, electromagnetic, and mechanical systems, with applications in heat transfer, dielectric cloaking, and piezoelectric devices. It also conducts pioneering work in neural network-based control and system identification, particularly for nonlinear plants and adaptive control systems. The integration of numerical simulation, optimization, and intelligent algorithms defines the lab’s interdisciplinary approach to next-generation engineering solutions.
Professor Masashi Mamada's research lab specializes in the design and synthesis of advanced organic semiconductors for optoelectronic applications, with a strong focus on organoboron compounds, thermally activated delayed fluorescence (TADF) materials, and n-type organic semiconductors. The lab explores innovative molecular architectures—such as those based on excited-state intramolecular proton transfer (ESIPT) and exciplex systems—to achieve high photoluminescence quantum yields and efficient charge transport. Key research directions include the development of solution-processable, high-mobility n-channel transistors and green synthetic methodologies for functional organic materials.
Professor Ryo Ohmura's research lab specializes in experimental clathrate hydrate science, focusing on the nucleation, growth, and structural characterization of gas hydrates under controlled high-pressure and low-temperature conditions. The lab investigates the influence of thermodynamic driving forces, thermal history, and guest molecule identity on hydrate formation dynamics, with particular emphasis on morphology evolution and the memory effect in hydrate systems. Their work spans structure-I, structure-II, and structure-H hydrates, using advanced techniques such as in situ video observation, powder X-ray diffraction, and high-pressure visual cells to probe hydrate behavior in bulk and porous media.
Professor Kwanyong Seo's research lab specializes in the design, synthesis, and characterization of advanced nanomaterials for next-generation energy and electronic applications. The lab focuses on vertically aligned silicon and transition metal silicide nanowires, exploring their unique optical, magnetic, and electronic properties for use in transparent photovoltaics, stretchable electronics, and monolithic energy devices. Key research directions include the development of high-performance, flexible, and transparent energy systems through innovative nanomaterial integration and fundamental understanding of nanoscale phenomena such as guided modes, strain effects, and surface spin ordering. The lab combines experimental synthesis with advanced simulations to bridge materials science with practical device applications.
Professor Shun Kohsaka's research lab specializes in cardiovascular medicine, with a focus on acute coronary syndromes, heart failure, and right ventricular infarction. The lab investigates hemodynamic and inflammatory mechanisms underlying cardiogenic shock and stroke risk, particularly in the context of systemic inflammation and biomarker-guided risk stratification. Using non-invasive imaging and objective biomarkers such as BNP and ECG-LAA, the lab aims to refine risk prediction models and improve clinical decision-making in acute cardiac conditions. Their work bridges clinical cardiology with advanced diagnostic imaging and personalized risk assessment.
