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 Wei Wang's research lab specializes in sustainable construction materials and structural performance under extreme conditions. The lab focuses on alkali-activated materials (AAMs) with an emphasis on using industrial by-products like fly ash and alternative aggregates such as desert sand, aiming to enhance durability and reduce environmental impact. Key research directions include the bond behavior of corroded reinforcement in concrete, the long-term performance of concrete under fire exposure, and the transport of chlorides through concrete interfaces in marine environments. The lab integrates experimental testing with advanced characterization techniques to develop resilient, low-carbon construction solutions.
Professor Kenzui Taniue's research lab focuses on the molecular mechanisms underlying cancer development, with a particular emphasis on non-coding RNAs, especially long noncoding RNAs (lncRNAs), and their roles in tumorigenesis and signaling pathways such as Wnt/β-catenin. The lab investigates how lncRNAs regulate gene expression through interactions with transcription factors and chromatin modifiers, and explores the functional significance of fusion RNAs and extracellular vesicle-associated lncRNAs in cancer diagnostics. A key direction involves identifying lncRNA-based regulatory networks that drive colorectal cancer progression and liquid biopsy applications.
Professor Keigo Kamata's research lab specializes in the design and application of polyoxometalate-based catalysts for sustainable oxidation processes. The lab focuses on developing highly selective and efficient heterogeneous and homogeneous catalysts—particularly Keggin-type and lacunary polyoxometalates—functionalized with transition metals such as copper, tungsten, and vanadium for selective oxidation of organic substrates. Key research directions include epoxidation of olefins and allylic alcohols, oxidative coupling of alkynes, and regioselective hydroxylation of arenes using hydrogen peroxide as a green oxidant. The lab also explores novel metal-containing polyoxometalate clusters, such as selenium-doped tungsten species, to expand catalytic functionality and activity.
Professor Mohamed Elsamadony's research lab specializes in sustainable bioprocesses for renewable energy production, with a primary focus on enhancing hydrogen and methane generation from organic wastes through advanced biological and chemical interventions. The lab investigates the role of nanomaterials, microbial consortia, and natural enzymes in improving electron transfer mechanisms, substrate degradation, and process efficiency in anaerobic digestion and dark fermentation. Key research directions include optimizing mixed culture systems, applying metal-based nanomaterials to stimulate direct interspecies electron transfer (DIET), and utilizing enzymatic pretreatment—particularly from *Carica papaya*—to upgrade recalcitrant waste streams like waste activated sludge and organic fraction of municipal solid waste. The overarching goal is to develop cost-effective, eco-friendly solutions for energy recovery and waste valorization.
Professor Minjung Lee's research lab specializes in public health behavior, health communication, and health emergency preparedness, with a focus on understanding individual and population-level responses to infectious disease outbreaks. The lab investigates the role of social determinants, risk perception, vaccine hesitancy, and digital communication strategies—particularly mobile alerts and media—during public health emergencies such as COVID-19 and MERS. A central theme is the development of person-centered, equitable public health interventions that enhance knowledge, efficacy beliefs, and timely preventive behaviors.
Professor Yong Keun Chang's research lab specializes in microbial biotechnology and synthetic biology, focusing on the metabolic engineering of microalgae and bacteria for sustainable production of biofuels, bioplastics, and high-value chemicals. The lab develops advanced bioprocesses using engineered microorganisms—such as *Nannochloropsis* species and *Nocardia*/*Gordonia* strains—to enhance lactic acid and lipid production, as well as to enable efficient biodesulfurization of fossil fuels. A key emphasis is placed on optimizing bioreactor systems, including membrane cell-recycle and immobilized cell reactors, to achieve high productivity and stability. The lab also contributes to systems biology through the development of comprehensive omics databases like NanDeSyn for functional genomics and strain improvement.
Professor Sung-Joo Hwang's research lab specializes in advanced drug delivery systems, focusing on enhancing the solubility, stability, and bioavailability of poorly water-soluble drugs. The lab develops innovative formulations using supercritical fluid technology, cocrystallization, and nanoparticle/liposomal systems to improve therapeutic outcomes. Key research directions include the design of sustained-release liposomal depots, cocrystal engineering, and nanoscale delivery systems for targeted cancer and ocular therapies. The lab emphasizes translational applications, particularly in oncology and ophthalmology, leveraging green chemistry and scalable processes.
Professor Taeyeon Kim's research lab specializes in indoor environmental quality, with a focus on human-biometabolic interactions, thermal comfort, and airborne particle pollution in residential buildings. The lab investigates dynamic human factors—such as clothing insulation and metabolic rate—using advanced sensing and modeling techniques, including infrared thermography and thermoregulation models. Research also emphasizes real-world applications of HVAC control strategies to improve energy efficiency and occupant health, particularly in response to changing indoor air quality and climate conditions. The lab integrates field measurements, environmental chamber experiments, and human surveys to develop data-driven, occupant-centric solutions for sustainable indoor environments.
Professor Seong Hee Kang's research lab focuses on metabolic liver diseases, particularly the pathophysiology and clinical management of cirrhosis and fatty liver disease. The lab investigates sarcopenia as a key prognostic marker in cirrhotic patients and explores the impact of metabolic dysfunction on liver outcomes. It also examines emerging therapies such as rifaximin and mesenchymal stem cell transplantation for improving survival and reducing complications in chronic liver disease. The lab emphasizes the shift from NAFLD to MAFLD terminology to better reflect the metabolic underpinnings of fatty liver disease.
Professor Shunsuke Yagi's research lab specializes in the development and fundamental understanding of advanced functional materials for sustainable energy conversion and storage. The lab focuses on designing and optimizing oxide-based catalysts—particularly perovskites and Prussian blue analogs—for key electrochemical reactions such as the oxygen evolution reaction (OER) and oxygen reduction reaction (ORR). A central theme is the rational design of materials through precise control of electronic structure, crystallographic site occupancy, and interfacial engineering to enhance both activity and stability. The lab also investigates ion insertion mechanisms in metal-organic frameworks and electrochemical corrosion behavior to support durable and cost-effective energy devices.
Professor Michitaka Notoguchi's research lab focuses on systemic long-distance signaling in plants, particularly the molecular mechanisms underlying phloem transport and grafting compatibility. The lab investigates mobile signals—such as proteins, mRNAs, and small RNAs—involved in developmental coordination and environmental responses, with a strong emphasis on identifying and functionally characterizing phloem-mobile transcripts. Using innovative grafting systems, especially with *Nicotiana* as a compatible scion, the lab uncovers key factors like β-1,4-glucanases that facilitate cell wall remodeling and graft adhesion, linking structural adaptation to systemic signaling. Their work bridges plant vascular biology, systemic signaling, and biotechnological applications in crop improvement.
Professor Yong Beom Cho's research lab specializes in regenerative medicine and gastrointestinal oncology, with a primary focus on adipose-derived stem cell (ASC) therapy for Crohn's disease-related fistulas and colorectal cancer (CRC) metastasis. The lab investigates molecular mechanisms underlying cancer progression, particularly the role of microRNAs like miRNA-17-5p in regulating metastasis-related proteins such as vimentin, and explores targeted therapeutic strategies, including the repurposing of statins for K-RAS-mutant CRC. The lab also contributes to surgical oncology by optimizing tumor localization techniques for laparoscopic colorectal surgery.
Professor Daeil Kwon's research lab specializes in prognostics and health management (PHM) of electronic systems, with a strong focus on condition monitoring and reliability assessment of electronic interconnects. The lab develops advanced sensing and diagnostic techniques—such as RF impedance monitoring, time-domain reflectometry (TDR), and skin-effect-based methods—to detect early-stage degradation in solder joints and other critical components under mechanical and thermal stress. Their work bridges traditional manufacturing processes like welding and additive manufacturing with modern PHM frameworks, enabling real-time health assessment and remaining useful life prediction using data-driven models like Gaussian process regression. The lab's research is highly application-driven, targeting high-frequency electronics, smart manufacturing, and infrastructure health monitoring.
Professor Tomonori Tamura's research lab specializes in chemical biology, focusing on the development of innovative chemical tools for selective protein modification and labeling in live cells. The lab pioneers bioorthogonal and ligand-directed chemistry strategies—such as ligand-directed tosyl (LDT) and N-acyl-N-alkyl sulfonamide (NASA) chemistry—to enable site-specific labeling of native proteins with synthetic probes, including fluorescent dyes and warheads. These methods allow real-time visualization and functional analysis of endogenous proteins, particularly in the context of protein-protein interactions and signaling pathways. The lab's work bridges synthetic chemistry, protein engineering, and cell biology to advance both fundamental biological understanding and therapeutic applications.
Professor Do Yup Lee's research lab focuses on the molecular mechanisms linking metabolic dysregulation, gut microbiota, and chronic diseases, particularly nonalcoholic fatty liver disease (NAFLD). The lab employs multi-omics approaches—metabolomics, proteomics, and metagenomics—to dissect the gut-liver axis and identify microbial and metabolic targets for disease intervention. A central theme is understanding how stress, nutrient shifts, and genetic mutations (e.g., trinucleotide repeat expansions) disrupt homeostasis and contribute to disease pathogenesis. The lab also explores probiotic modulation and host-microbe interactions to develop precision therapeutic strategies.
Professor Daejun Chang's research lab specializes in maritime energy systems, with a focus on the thermodynamic, economic, and environmental optimization of liquefied hydrogen and natural gas propulsion and fuel supply systems for ships. The lab investigates innovative solutions for boil-off gas management, including re-liquefaction and fuel cell utilization, to enhance energy efficiency and reduce emissions. Key research directions include life-cycle cost analysis, energy efficiency design indices, and the development of sustainable propulsion strategies for zero-emission shipping.
Professor Jin Sung Kim's research lab specializes in advanced nanoelectronics and biomedical imaging technologies, focusing on the development of two-dimensional semiconductor devices such as black phosphorus field-effect transistors for next-generation flexible and transparent electronics. The lab also pioneers AI-driven medical image reconstruction and synthetic imaging techniques, particularly in generating synthetic CT images from MRI data to enable MRI-only radiotherapy workflows. Their work bridges nanomaterials engineering with clinical applications, emphasizing device performance optimization and diagnostic image enhancement. The lab's interdisciplinary approach integrates materials science, semiconductor physics, and artificial intelligence to address challenges in both electronic devices and medical imaging.
Professor Ho Jeong Kwon's research lab specializes in the identification and characterization of bioactive natural products and their molecular targets, with a focus on epigenetic regulation, autophagy modulation, and cellular oxygen sensing. The lab investigates small molecules such as depudecin, FK228, radicicol, and terpestacin to elucidate their mechanisms in cancer biology, including histone deacetylase inhibition, anti-angiogenesis, and hypoxia-inducible factor regulation. A key direction involves repurposing existing drugs—like sertraline—as autophagy modulators through novel molecular targets, such as VDAC1, to explore therapeutic applications in neurodegenerative and metabolic diseases.
Professor Hakseung Shin's research lab specializes in service innovation and customer experience in hospitality and tourism, with a strong focus on digital transformation, online engagement, and value co-creation. The lab explores emerging trends such as service robotics, workcation experiences, and non-transactional values in online brand communities, integrating behavioral science and digital platform dynamics. Key research directions include the role of personalization, empowerment, and emotional experiences in shaping customer engagement and value creation. The lab employs mixed-methods approaches, combining qualitative netnography, experimental designs, and scale development to build theory-driven, empirically grounded insights.
Professor Shiroh Futaki's research lab specializes in the development and mechanistic understanding of cell-penetrating peptides (CPPs), particularly arginine-rich peptides derived from viral proteins such as HIV-1 Tat and Flock House virus. The lab investigates the molecular mechanisms underlying cellular uptake, focusing on endocytic pathways like macropinocytosis and the potential for direct membrane translocation. A central theme is optimizing peptide-based delivery systems for efficient intracellular delivery of proteins, nucleic acids, and other macromolecules, with applications in cell biology, drug delivery, and therapeutic innovation. The lab also explores structural modifications—such as N-terminal lipidation and D-amino acid substitution—to enhance transfection efficiency and stability.
