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 Kazuya Yamamura's research lab specializes in advanced precision machining and surface engineering for advanced ceramics and wide-bandgap semiconductors, particularly 4H-SiC. The lab focuses on developing innovative hybrid finishing techniques that combine plasma, ultrasonic, and electrochemical processes to achieve ultra-smooth, damage-free surfaces with nanoscale precision. Key research directions include plasma-assisted polishing, ultrasonic-assisted electrochemical mechanical polishing (UAECMP), and hybrid figuring processes for optical and functional surfaces. The lab's work targets high-performance applications in extreme environments, such as in synchrotron optics and power electronics.
Professor Masaaki Fujii's research lab specializes in the structural and dynamic characterization of weakly bound molecular clusters and biomolecular systems using advanced vibrational spectroscopy techniques. The lab focuses on understanding non-covalent interactions—such as hydrogen bonding and π-interactions—in isolated, cold molecules, particularly in phenol and amide derivatives solvated by rare gas atoms or in their intrinsic conformers. By employing state-of-the-art methods including electron impact infrared photodissociation, time-resolved UV–UV–IR spectroscopy, and difference frequency generation-based mid-IR sources, the lab investigates electronic and vibrational properties at the molecular level with high precision. Their work provides fundamental insights into molecular recognition, isomerism, and reaction mechanisms in isolated environments relevant to atmospheric chemistry and biological systems.
Professor Hideaki Oikawa's research lab specializes in the enzymology and biosynthesis of complex natural products, with a focus on understanding the enzymatic mechanisms underlying the formation of structurally intricate molecules in fungi. The lab investigates Diels-Alderase enzymes, ribosomally synthesized and post-translationally modified peptides (RiPPs), and terpene biosynthetic pathways, employing a combination of genomics, gene inactivation, heterologous expression, and biochemical characterization. Their work uncovers novel enzymatic transformations, including unique macrocyclizations, oxidative rearrangements, and stereoselective cycloadditions, providing fundamental insights into natural product diversity and biocatalysis.
Professor Isao Yokota's research lab specializes in virology and molecular diagnostics, with a primary focus on the development and evaluation of non-invasive sampling methods for SARS-CoV-2 detection. The lab investigates the accuracy and reliability of self-collected saliva specimens as an alternative to nasopharyngeal swabs, particularly in asymptomatic individuals, to support large-scale screening and outbreak control. Their work emphasizes the clinical utility of saliva-based PCR testing, viral load comparison between specimen types, and the optimization of diagnostic strategies for public health applications.
Professor Sung Ok Han's research lab specializes in metabolic engineering and synthetic biology, focusing on the development of microbial cell factories for sustainable production of biofuels, bioproducts, and industrial enzymes. The lab engineers industrially relevant microorganisms such as *Saccharomyces cerevisiae*, *Bacillus subtilis*, and *Clostridium cellulovorans* to enhance the production of valuable compounds like ethanol, fatty acid ethyl esters (FAEEs), surfactin, and cellulolytic enzymes. Key research directions include optimizing carbon metabolism, regulating gene expression in response to diverse substrates, and improving enzyme secretion and synergy for efficient biomass conversion.
Professor Pil Seok Chae's research lab specializes in the design and development of novel synthetic amphiphiles, particularly for the stabilization and solubilization of integral membrane proteins (IMPs) in aqueous environments. The lab focuses on creating non-traditional, steroidal-based amphiphiles—such as glyco-diosgenin (GDN) and GNG amphiphiles—that enhance protein stability and enable high-resolution structural studies. Their work addresses key challenges in membrane protein biochemistry, including maintaining native conformation and facilitating crystallization for structural biology. The lab also explores catalytic systems for peptide backbone cleavage, demonstrating a broader interest in biomolecular engineering and synthetic methodology.
Professor Youngsub Lim's research lab specializes in sustainable energy systems and carbon management technologies, with a strong focus on carbon capture, utilization, and storage (CCUS) for industrial and maritime applications. The lab investigates advanced process intensification techniques—such as supercritical biodiesel production and combined reforming processes—for improving energy efficiency and reducing greenhouse gas emissions. Key research directions include the techno-economic and environmental evaluation of carbon capture systems, particularly for low-load shipboard operations, and the development of optimized designs for CO2 mitigation in power and shipping sectors. The lab also explores innovative process integration strategies to enhance sustainability across the energy lifecycle.
Professor Lin Wang's research lab specializes in event-based vision and neuromorphic computing, focusing on leveraging the unique advantages of event cameras—such as high dynamic range, low latency, and motion-blur-free operation—for advanced computer vision and image processing tasks. The lab develops deep learning methods to reconstruct high-resolution, realistic intensity images from sparse and asynchronous event streams, even in the absence of ground truth data or paired supervision. Key research directions include self-supervised and distillation-based learning for event-based representation learning, super-resolution reconstruction, and high dynamic range imaging using deep neural networks.
Professor Seok Jong Chung's research lab focuses on understanding the neurobiological mechanisms underlying cognitive and motor progression in Parkinson's disease (PD). The lab investigates neuroimaging and neurocognitive markers—such as basal ganglia perivascular spaces, cortical atrophy, and cognitive reserve—that predict dementia conversion and motor disability in early-stage PD. Using advanced neuroimaging techniques and longitudinal analyses, the lab aims to identify individualized prognostic profiles to improve early diagnosis and personalized management of PD. Their work emphasizes the role of brain reserve and neurodegenerative patterns in shaping clinical outcomes.
Professor Do Hyun Ryu's research lab specializes in the development and application of chiral oxazaborolidine- and oxazaborolidinium-based catalysts for asymmetric synthesis. The lab focuses on designing highly enantioselective transition-metal-free catalytic systems, particularly for Diels-Alder reactions, cyanosilylation, and Morita-Baylis-Hillman-type transformations. Key advances include the rational design of superactive chiral Lewis acids through triflimide or triflic acid activation, enabling predictable facial selectivity and high enantioselectivity across diverse substrates. The lab emphasizes mechanistic understanding, incorporating non-covalent interactions such as hydrogen bonding and π,π-stacking to control stereochemistry.
Professor Bongyoung Kim's research lab specializes in infectious diseases, antimicrobial stewardship, and the epidemiology of bacterial pathogens, with a strong focus on antibiotic resistance and clinical microbiology. The lab investigates the impact of antimicrobial stewardship programs (ASPs) in hospital settings, particularly in Korean healthcare systems, and evaluates biomarkers such as the TyG index for predicting insulin resistance and diabetes. Research also includes genomic analysis of pathogenic *E. coli* isolates and the epidemiology of catheter-related bloodstream infections. The lab integrates clinical, microbiological, and epidemiological approaches to improve patient outcomes and infection control.
Professor Hyeongtag Jeon's research lab specializes in the atomic-scale synthesis, characterization, and application of advanced thin films and 2D materials for next-generation nanoelectronics and optoelectronics. The lab focuses on atomic layer deposition (ALD) and atomic layer CVD for precise control of film composition, structure, and interface properties, with key research directions in functional chalcogenides (e.g., SnS, SnS₂), transition metal silicides (e.g., TiSi₂), nitrides (e.g., TiN), and resistive switching oxides (e.g., TaOₓ). The lab emphasizes the development of high-quality, reproducible thin films for flexible, low-power, and high-performance electronic devices.
Professor Jin-Wu Nam's research lab specializes in noncoding RNA biology, with a focus on long noncoding RNAs (lncRNAs) and their functional roles in development, disease, and immune regulation. The lab integrates computational genomics, single-cell RNA sequencing, and high-throughput experimental approaches to uncover the regulatory mechanisms of lncRNAs, including their potential to encode functional micropeptides. A key research direction involves dissecting cell type-specific lncRNA functions in complex microenvironments such as the tumor immune microenvironment and invertebrate systems like *C. elegans*. The lab also contributes to genome and transcriptome resource development, particularly for agriculturally and evolutionarily significant species like the domestic chicken.
Professor Youngmi Lee's research lab specializes in the development of advanced electrochemical and optical microsensor technologies for real-time, in situ detection of biologically and environmentally relevant species such as nitric oxide, carbon monoxide, and hydrogen. The lab focuses on designing novel nanomaterials—particularly platinum-based and hybrid nanocomposites—to enhance sensor sensitivity, selectivity, and stability. A key research direction involves integrating scanning electrochemical microscopy (SECM) with optical microscopy (OM) to enable correlative electrochemical and topographical imaging at the micro- and nanoscale. The lab also explores electrocatalysts for sustainable energy applications, such as hydrogen evolution reaction (HER) catalysts based on iridium and iridium oxide nanostructures.
Professor Masaru Watanabe's research lab focuses on catalytic conversion of biomass-derived sugars into valuable platform chemicals, particularly 5-hydroxymethylfurfural (5-HMF), using innovative reaction systems such as microwave heating and supercritical fluids. The lab also explores the application of advanced analytical techniques like droplet digital PCR (ddPCR) in oncology, especially in detecting low-frequency EGFR mutations in non-small cell lung cancer (NSCLC). A key emphasis is placed on developing sustainable and efficient catalytic processes using solid acid catalysts, with a strong focus on reaction media optimization and catalyst stability. Additionally, the lab investigates molecular mechanisms in plant development, particularly the role of receptor-like kinase genes such as ACR4 in epidermal cell fate determination in Arabidopsis.
Professor Hiroyuki Tsutsui's research lab focuses on the pathophysiological mechanisms underlying cardiac remodeling and heart failure, with a central emphasis on oxidative stress, mitochondrial dysfunction, and cytoskeletal abnormalities in cardiomyocytes. The lab investigates how reactive oxygen species (ROS) overproduction—particularly from mitochondrial sources—contributes to cellular damage, contractile dysfunction, and the progression from compensatory hypertrophy to overt heart failure. Key research directions include the role of microtubule network remodeling in impaired myocardial contractility and the therapeutic potential of beta-blockade in improving intrinsic myocardial function in cardiomyopathies.
Professor Kento Takaya's research lab focuses on the molecular mechanisms underlying skin aging and wound healing, with a particular emphasis on cellular senescence, fibroblast biology, and regenerative processes. The lab investigates novel therapeutic strategies—such as senolytic agents, natural compounds like *Cistanche deserticola* polysaccharide, and targeted antibody-drug conjugates—aimed at eliminating senescent cells and restoring skin homeostasis. A key direction involves identifying and validating specific surface markers, such as apolipoprotein D and cathepsin F, to enable precision targeting of senescent cells in aging and fibrotic skin. The lab also explores the developmental switch from scarless fetal regeneration to fibrotic adult wound healing, highlighting the roles of growth factors, extracellular matrix interactions, and cytoskeletal dynamics.
Professor Kyoung-Bok Min's research lab focuses on environmental health and toxicology, with a primary emphasis on the impacts of trace metals (such as lead and cadmium) and air pollutants on human health. The lab investigates the associations between environmental exposures and reproductive health, cardiovascular function, liver enzyme levels, bone mineral density, and quality of life in aging populations. Using large-scale national survey data, the lab employs epidemiological and biostatistical approaches to identify biomarkers and risk factors linked to chronic disease outcomes.
Professor Nam Hoon Kim's research lab focuses on metabolic and cardiovascular health, with a strong emphasis on understanding and managing metabolic syndrome, type 2 diabetes, and their associated complications. The lab investigates novel therapeutic strategies—particularly fibrate and SGLT2 inhibitor therapies—aimed at reducing cardiovascular and renal risks in high-risk populations. It also explores the interplay between lifestyle factors such as sleep duration and obstructive sleep apnea with body composition and visceral obesity, highlighting integrative approaches to metabolic health. The lab combines clinical trials, real-world evidence, and mechanistic insights to advance precision medicine in metabolic and renal diseases.
Professor Joonho Ko's research lab specializes in sustainable urban mobility and transportation systems, focusing on the adoption of alternative fuel vehicles, electric vehicle infrastructure, and shared mobility solutions. The lab investigates consumer behavior, route choice modeling, and optimal location strategies for refueling and battery exchange stations using advanced statistical and spatial analysis methods. Research integrates real-world survey data, GPS speed profiles, and optimization models to address urban congestion, emissions reduction, and energy transition challenges.
