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 Kenji Tajima's research lab specializes in advanced materials and biopolymer engineering, focusing on the development of functional nanomaterials and sustainable biodegradable polymers. Key research directions include the design of all-optical switches using novel nonlinear optical materials for ultrafast photonic applications, surface modification of nanocellulose for enhanced hydrophobicity and material performance, and the enzymatic synthesis of tailored polyhydroxyalkanoates (PHAs) such as lactate-co-hydroxybutyrate copolymers via innovative two-phase reaction systems. The lab integrates spectroscopic characterization, molecular dynamics analysis, and biocatalysis to advance materials for optoelectronics and green chemistry.
Professor Shinji Fukuda's research lab focuses on the gut microbiota and its role in human metabolic and immune health, with a particular emphasis on the gut-metabolite-host axis. The lab investigates how specific gut bacteria and their metabolites influence conditions such as type 2 diabetes, cardiorenal syndrome, and infectious diseases. Using multi-omics approaches—including genomics, metabolomics, and microbiome analysis—the lab uncovers mechanisms by which probiotics, prebiotics, and mineral water consumption modulate host physiology and disease outcomes. The research also extends to developing rapid molecular diagnostics, such as RT-LAMP assays for norovirus detection, highlighting translational applications in infectious disease control.
Professor Sunghyouk Park's research lab specializes in metabolomics and bioanalytical chemistry, focusing on the discovery of noninvasive metabolic biomarkers for early cancer detection using advanced NMR and mass spectrometry techniques. The lab develops real-time metabolic monitoring methods in live cells, particularly leveraging isotopic labeling and heteronuclear NMR to study cancer cell metabolism and redox dynamics. Key research directions include urine and tissue-based metabolomic profiling for gastric, bladder, and breast cancers, as well as investigating metabolic reprogramming and drug resistance mechanisms in glioblastoma. The lab also explores the structural and dynamic properties of cytoskeletal proteins using solution NMR, linking molecular structure to biological function.
Professor Pyoeng Gyun Choe's research lab specializes in virology and immunology, with a primary focus on understanding the kinetics and durability of humoral immune responses to emerging coronaviruses, including MERS-CoV and SARS-CoV-2. The lab investigates neutralizing and spike protein-specific antibody responses in diverse patient cohorts—ranging from asymptomatic to severely ill individuals—providing critical insights into seropositivity, waning immunity, and the reliability of serologic testing. Their work contributes significantly to pandemic preparedness, vaccine evaluation, and serological surveillance strategies. The lab also explores the correlation between viral load, disease severity, and antibody titers, enhancing our understanding of immune correlates of protection.
Professor Su Cheong Yeom's research lab specializes in advanced gene editing and therapeutic genome engineering, with a focus on developing novel strategies for monogenic and neurological disorders. The lab integrates CRISPR/Cas9 technology, lipid nanoparticles (LNPs), and adeno-associated viruses (AAVs) to achieve precise gene knock-in and regulation, particularly in liver and neuronal tissues. Key research directions include enhancing homology-directed repair efficiency, optimizing in vivo genome editing for stable therapeutic expression, and modeling human diseases using genetically engineered animal models. The lab also explores immune modulation and regenerative mechanisms in the context of gene therapy and autoimmune conditions.
Professor Ji Ye Jung's research lab focuses on clinical and translational studies in infectious diseases, respiratory medicine, and gastrointestinal oncology. The lab investigates antimicrobial resistance in critically ill patients, optimizes antibiotic use in healthcare-associated pathogens, and explores innovative dermatological treatments for acne. Additionally, the lab examines environmental toxicants' impact on lung function and investigates rare malignancies such as hepatoid carcinoma of the pancreas, emphasizing diagnostic biomarkers and clinical outcomes.
Professor Revannath Dnyandeo Nikam's research lab specializes in advanced nanomaterials and 2D materials for next-generation electronic and energy devices. The lab focuses on designing atomically thin materials—such as MoS₂, MoO₂, hBN, and solid electrolytes—for applications in electrochemical transistors, neuromorphic computing, and energy conversion. Key research directions include engineering ionic transport at the atomic scale, developing stable and linear synaptic devices for artificial intelligence hardware, and exploiting atomic defects and 2D heterostructures to achieve precise conductance control. The lab integrates advanced synthesis, in situ characterization, and device physics to enable ultra-low-power, non-volatile memory and logic systems.
Professor Jun-Dong Cho's research lab specializes in interdisciplinary research at the intersection of human-computer interaction, accessible design, and electronic system integration. The lab focuses on developing multimodal, interactive technologies to enhance accessibility in cultural and educational environments—particularly for blind and visually impaired users—through tactile and audio interfaces for visual art experiences. Concurrently, the lab conducts advanced research in VLSI design, including multilayer packaging, routing optimization, and buffer distribution for high-performance integrated circuits. These efforts are unified by a common goal of improving system performance, minimizing signal interference, and enabling more intuitive and inclusive human interaction with complex technologies.
Professor Ok-Nam Bae's research lab focuses on the pathophysiology of cerebrovascular and microvascular complications in diabetes, with a particular emphasis on the role of metabolic stress, oxidative stress, and advanced glycation end products such as methylglyoxal in endothelial dysfunction. The lab investigates endogenous protective molecules like carnosine for their neurovascular protective effects, especially in ischemic stroke and diabetic microangiopathy. A key research direction involves identifying novel biomarkers—such as VEGF—for early detection of dermal and vascular toxicity, supporting safer development of pharmaceuticals and cosmetics. The lab integrates molecular mechanisms with translational applications, aiming to bridge basic science with clinical and pharmaceutical innovation.
Professor Hyeung-Jin Jang's research lab focuses on molecular mechanisms underlying metabolic and inflammatory diseases, with a central emphasis on gut-brain axis signaling, incretin hormone regulation, and targeted cancer therapeutics. The lab investigates the role of taste receptors in enteroendocrine L-cells to understand how dietary nutrients like glucose stimulate GLP-1 secretion, offering insights into novel, safer alternatives to GLP-1 mimetic drugs. Additionally, the lab develops advanced nanotherapeutics—particularly biodegradable porous silicon nanoparticles—for targeted delivery of anti-miRNA agents in ovarian cancer and explores natural compounds like ginsenosides for their anti-inflammatory effects in lung and epithelial tissues via NF-κB modulation.
Professor Yukako Fujishiro's research lab specializes in topological quantum materials and emergent electromagnetic phenomena in quantum materials, with a focus on chiral magnets and spin textures such as magnetic skyrmions and hedgehogs. The lab investigates the interplay between electron correlation, spin topology, and transport properties, particularly through advanced experimental techniques like neutron scattering, Lorentz microscopy, and high-field transport measurements. Key research directions include the manipulation of topological spin textures, the origin of giant anomalous Hall effects, and the discovery of novel quantum phases under extreme conditions such as high pressure and magnetic fields. The lab also explores new materials platforms, including transition metal silicides and thin films, for spintronics and topological quantum devices.
Professor Tomoya Higo's research lab specializes in quantum magnetism and functional oxide materials, with a focus on antiferromagnets, spintronic materials, and topological quantum phenomena. The lab investigates complex magnetic orderings such as frustrated magnetism in pyrochlore and chiral antiferromagnets, aiming to exploit their unique electrical and magnetic responses for next-generation spintronic devices. Key research directions include engineering magnetic anisotropy, achieving electrical control of magnetic states, and exploring materials like Mn3Sn and NiS2 for applications in memory and sensing technologies.
Professor Akira Kakugo's research lab specializes in the design and engineering of biomimetic molecular machines and active self-assembly systems using biological motor proteins and synthetic nanostructures. The lab focuses on harnessing the energy-transducing capabilities of molecular motors—such as myosin, kinesin, and dynein—combined with programmable DNA nanostructures and cytoskeletal filaments to create dynamic, self-organizing systems capable of performing mechanical work at the nanoscale. Key research directions include the development of artificial microrobots, active materials, and nanodevices that mimic biological functions such as directed transport, collective motion, and reversible contraction.
Professor Yoshihiro Izumi's research lab specializes in systems biology and metabolomics, focusing on lipid metabolism, extracellular vesicles (EVs), and xenobiotic metabolism in disease contexts such as cancer and liver metabolism. The lab employs advanced analytical techniques—including supercritical fluid chromatography, high-resolution mass spectrometry, and stable isotope labeling—to uncover metabolic dynamics and molecular mechanisms underlying disease progression. Key research directions include the lipidomic profiling of cancer-derived EVs, metabolic kinetics of medium-chain fatty acids, and comprehensive metabolite identification for drug safety and efficacy. The lab also contributes to clinical translational research, particularly in early detection of pancreatic cancer through endoscopic ultrasound and pathological correlation.
Professor Gaku Tsuji's research lab focuses on the molecular mechanisms underlying atopic dermatitis and psoriasis, with a central emphasis on the role of the aryl hydrocarbon receptor (AHR) in skin barrier function, immune regulation, and inflammation. The lab investigates how AHR ligands—endogenous (e.g., FICZ) and exogenous (e.g., tapinarof, Glyteer)—modulate keratinocyte differentiation, cytokine production (such as IL-1β, IL-24, and IL-31), and dendritic cell function to influence Th2-driven inflammation and pruritus. Key research directions include the genetic and molecular interplay between filaggrin, OVOL1, and AHR in epidermal homeostasis, as well as the therapeutic potential of AHR modulators in inflammatory skin diseases and photo-aging.
Professor Kyoko Hida's research lab focuses on the molecular and cellular mechanisms underlying tumor angiogenesis and the unique properties of tumor endothelial cells (TECs). The lab investigates how TECs differ genetically and functionally from normal endothelial cells, particularly in terms of angiogenic activity, drug resistance, and stem-like characteristics. A central theme is understanding the role of specific molecules—such as CXCR7 and VEGF signaling—in promoting tumor vascularization and therapy resistance, with the goal of developing more effective anti-angiogenic therapies.
Professor Shota Kikuchi's research lab specializes in flavor physics and string theory phenomenology, focusing on modular symmetry as a framework to explain the hierarchical structures of fermion masses and mixing angles in the Standard Model. The lab investigates modular forms on toroidal and orbifold compactifications with magnetic fluxes, exploring how residual symmetries and fixed points of the modular group lead to natural quark and lepton mass hierarchies without fine-tuning. A central theme is the construction of realistic flavor models—particularly using $A_4 imes A_4 imes A_4$ and $ ilde{ m extbackslash{}Gamma}_N$ groups—where mass matrices emerge from modular forms at specific moduli values such as $ au = iar{ extbackslash}infty$ or $ au = ho$. The lab also studies the embedding of these models into higher-dimensional theories, where wave functions in extra dimensions are constrained to transform as modular forms.
Professor Jongho Heo's research lab focuses on environmental health, epidemiology, and health policy, with a strong emphasis on air pollution, infectious disease transmission, and health system inequities. The lab employs advanced statistical methods such as age-period-cohort analysis and multivariate modeling to investigate long-term health trends, risk factors for behavioral health issues like Internet addiction, and the socioeconomic determinants of health outcomes. Research also addresses public health challenges such as vaccine hesitancy and the impact of healthcare financing on access and efficiency in South Korea. The lab integrates environmental monitoring, population surveys, and health data analytics to inform evidence-based health policy.
Professor Min-Hwi Kim's research lab specializes in next-generation neuromorphic computing and energy-efficient electronics, focusing on the development of organic and oxide-based resistive memory devices for artificial synapses. The lab pioneers innovative strategies to control conductive filament formation in memristors—particularly through polymer engineering and ion-migration confinement—enabling reliable, multilevel, and flexible synaptic devices. Their work spans from fundamental device physics to practical integration in spiking neural networks and sustainable smart communities, emphasizing low-power, scalable solutions for brain-inspired computing and energy systems.
Professor Jung-Ryul Lee's research lab specializes in advanced structural health monitoring and non-destructive evaluation (NDE) technologies, with a focus on ultrasonic sensing, fiber optic sensors (particularly fiber Bragg gratings), and smart materials for aerospace and aviation applications. The lab develops innovative diagnostic systems for real-time detection of structural defects—such as disbonding, delamination, and blade damage—using ultrasonic wave propagation, optical fiber sensors, and machine learning-based image analysis. Their work bridges electromechanical sensing, materials integrity assessment, and intelligent monitoring systems for critical aeronautical components.
