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 Jeongil Son's research lab focuses on the interplay between metabolic disorders, liver disease, and gastrointestinal malignancies, with a particular emphasis on non-alcoholic fatty liver disease (NAFLD), insulin resistance, and their systemic implications. The lab investigates the roles of obesity, sarcopenia, systemic inflammation, and metabolic syndrome in the development of colorectal neoplasms and liver dysfunction. Using large-scale population-based cross-sectional studies and clinical imaging, the lab aims to identify independent risk factors and pathophysiological mechanisms linking metabolic health to gastrointestinal and hepatic diseases. The research also explores the clinical significance of incidental adrenal masses and their association with systemic conditions such as paroxysmal hypertension and hormonal excess.
Professor Moonjung Park's research lab specializes in advanced materials for energy conversion and storage, with a strong focus on polymer-based systems for lithium batteries, proton-conducting membranes, and soft electroactive actuators. The lab pioneers innovative molecular design and nanostructure engineering to enhance ion transport, conductivity, and electrochemical performance in sustainable energy devices. Key research directions include the development of sulfur-rich cathodes, block copolymer electrolytes with controlled nanophase separation, and single-ion conductive polymers for high-performance actuators.
Professor Jin Sung Park's research lab focuses on the molecular mechanisms underlying neurodegenerative diseases, particularly Parkinson’s disease (PD), with a central emphasis on lysosomal and mitochondrial dysfunction. The lab investigates the roles of Parkinson’s-associated genes such as ATP13A2 (PARK9) in cellular homeostasis, ion regulation, and organelle dynamics, using patient-derived stem cell models and advanced cellular imaging. Their work also extends to understanding the pathophysiology of rare genetic forms of parkinsonism, such as Kufor-Rakeb syndrome, and explores translational opportunities for novel therapeutic targets. Additionally, the lab contributes to population-level epidemiological studies on inflammatory and neurological conditions, including ankylosing spondylitis and its comorbidities.
Professor Chan-Hwa Jung's research lab specializes in the design and application of advanced nanomaterials for environmental monitoring, energy storage, and biomedical sensing. The lab focuses on developing functional 2D materials such as MXenes and graphene-based systems for enhanced surface-enhanced Raman spectroscopy (SERS) and electrochemical sensing, as well as exploring nanostructured metal alloys like Au-Cu and Pd foams for catalytic and electrochemical applications. A key research direction involves understanding the structure-property relationships of surface-functionalized nanomaterials to optimize their performance in real-world applications.
Professor Sae-Hee Cho's research lab specializes in advanced materials for next-generation optoelectronic and energy conversion devices, with a strong focus on solution-processed nanomaterials and hybrid heterostructures. Key research directions include the design and integration of low-dimensional materials—such as ZnO nanocrystals, MXenes, graphene, and π-conjugated nanowires—into flexible and efficient organic photovoltaics and multivalued logic devices. The lab also investigates interfacial engineering and molecular-level interactions in aqueous zinc-ion batteries, leveraging stereochemical effects and dynamic solvation environments to enhance ion transport and electrode stability. Their work bridges fundamental materials science with practical device applications, emphasizing scalable, low-temperature processing techniques.
Professor Donglip Kim's research lab specializes in advanced nanomaterials and functional devices for sustainable energy and biomedical applications. Key research directions include transparent and flexible radiative cooling materials, high-efficiency thin-film solar cells using silicon microwires and transfer printing techniques, and innovative ocular drug delivery systems based on biodegradable silicon nanoneedles and smart contact lenses. The lab also investigates fluidic and ionic transport in silicon nanowire field-effect transistors for biosensing applications and explores biocatalytic methanol production using immobilized methanotrophs for carbon utilization.
Professor Jae Woong Jung's research lab specializes in the development of advanced materials for next-generation optoelectronic devices, with a primary focus on perovskite solar cells and all-polymer solar cells. The lab emphasizes solution-processable, low-temperature fabrication techniques to enable scalable and cost-effective manufacturing of high-efficiency photovoltaics. Key research directions include the design of novel hole-transporting layers, fluorinated n-type conjugated polymers, and low-bandgap polymers with enhanced charge transport and broad light absorption. The lab also investigates interfacial engineering and film morphology control to improve device performance and stability.
Professor Soon Hyeok Hong's research lab specializes in the development and mechanistic understanding of transition metal-catalyzed transformations, with a strong focus on ruthenium-catalyzed olefin metathesis and direct amide synthesis. The lab investigates catalyst design, decomposition pathways, and reaction mechanisms to enhance selectivity, activity, and functional group tolerance in synthetic processes. Key research directions include the development of water-soluble and stable catalysts for sustainable synthesis, as well as the exploration of novel catalytic cycles involving key intermediates such as Ru hydrides and methylphosphonium salts. The lab also addresses challenges in catalyzing reactions with sterically hindered or less basic substrates, aiming to expand the scope of atom-economical transformations.
Professor Daeshik Kang's research lab specializes in the development of advanced functional materials and micro/nano-scale devices for soft robotics, wearable electronics, and bio-integrated systems. The lab focuses on creating mechanically compliant, highly sensitive, and durable sensors and actuators using novel materials such as shape memory polymers, silver nanowires, and self-healing polymers. Key research directions include crack-based strain sensors with enhanced durability, lightweight and high-power artificial muscle actuators, and miniaturized optical and tactile sensing systems for robotics and biomedical applications.
Professor Sung-eun Kim's research lab specializes in biomedical nanotechnology and gastroenterological disease mechanisms, with a focus on developing novel nanomaterials for diagnostic and therapeutic applications in gastrointestinal disorders. The lab integrates synthetic biology, protein engineering, and nanomaterials to design multifunctional nanoparticles—such as fluorescent ferritin nanoparticles and plasmonic gold nanoparticle assemblies—for imaging, drug delivery, and disease monitoring. Additionally, the lab investigates molecular and hormonal factors in colorectal carcinogenesis, particularly the role of adiponectin and its receptors in the normal-adenoma-carcinoma sequence.
Professor Seog Bae Oh's research lab specializes in neurobiology and pain mechanisms, with a focus on sensory neuron signaling, glial cell activation in neuropathic pain, and the role of immune cells such as NK cells in peripheral nerve injury. The lab investigates ion channels—including TRPV1 and voltage-gated sodium channels—as key mediators of pain sensation, particularly in orofacial and peripheral neuropathic pain models. Using a combination of electrophysiology, immunohistochemistry, and genetic approaches, the lab explores endogenous and exogenous modulators of pain, including chemokines, lipid mediators, and natural compounds like eugenol. Their work bridges molecular mechanisms with translational applications in dental and chronic pain.
Professor Eunseon Kim's research lab focuses on translational biomedical research with a strong emphasis on gastrointestinal diseases, metabolic disorders, and neuroprotective strategies. The lab investigates the pathogenesis and early diagnosis of gastrointestinal conditions using advanced technologies such as explainable artificial intelligence and proteomics, while also exploring novel therapeutic approaches for acute kidney injury and stroke. A key focus is on developing targeted drug delivery systems, such as LRP-1-targeted polymersomes, to enhance treatment efficacy and reduce side effects. The lab integrates clinical data with molecular and cellular research to address major health challenges, including obesity-related metabolic diseases and complications of endoscopic procedures.
Professor Yong Kwon Kim's research lab specializes in advanced materials science with a focus on quantum materials, superconductivity, and functional nanomaterials. The lab investigates high-temperature superconductivity in oxide systems such as cuprates and iron-based superconductors, exploring the role of electron doping, electronic correlations, and interfacial effects in enhancing superconducting transition temperatures. It also develops novel fluorescent and responsive hydrogel systems for biosensing applications, particularly glucose detection, and designs innovative fabrication techniques for nanoscale patterning and device integration. The lab bridges fundamental electronic structure studies with practical applications in energy, sensing, and nanoelectronics.
Professor Sung-Ho Eom's research lab specializes in the design and application of advanced nanomaterials for biomedical and therapeutic applications, with a strong focus on nanomedicine and targeted drug delivery. The lab develops functional nanocomposites—such as gold nanoparticles, protein-based nanoparticles, and bioconjugated assemblies—engineered for enhanced photothermal therapy, gene silencing, and cancer targeting. Key research directions include the synthesis of stimuli-responsive nanocarriers, surface engineering for immune evasion, and the integration of biomolecules (e.g., antibodies, siRNA, PEG) to improve targeting and biocompatibility. The lab also investigates the physicochemical properties governing nanomaterial behavior in biological systems, aiming to balance therapeutic efficacy with safety and biodegradability.
Professor Young-Suk Kim's research lab focuses on the cognitive and linguistic foundations of early reading development, particularly in diverse and high-poverty populations. The lab investigates how oral language skills—such as listening comprehension, vocabulary, and syntactic knowledge—interact with executive functions like working memory, inhibitory control, and theory of mind to predict reading outcomes. Longitudinal and structural equation modeling approaches are commonly used to examine growth trajectories in foundational literacy skills and their impact on reading comprehension across early grades. The lab also explores individual differences in reading fluency, including oral and silent reading, and their differential relations to reading comprehension based on reader proficiency.
Professor Ji Yeoun Lee's research lab focuses on developmental neuroscience and pediatric health, with a strong emphasis on early childhood language development, neurocognitive outcomes in pediatric cerebrovascular diseases such as moyamoya disease, and postoperative complications in pediatric and adult surgical populations. The lab investigates the interplay between family environment, parental behaviors, and child language acquisition, while also exploring the biological mechanisms underlying cerebrovascular disorders and their impact on cognitive function. A key direction involves identifying genetic and cellular factors—such as endothelial progenitor cell dysfunction—in the pathogenesis of moyamoya disease.
Professor Jung Kim's research lab specializes in bio-integrated sensing and human-machine interaction, focusing on developing advanced biomimetic materials and wearable technologies for healthcare and robotics. Key research directions include stretchable and biocompatible sensors (e.g., hydrogel-elastomer hybrids and microneedle patches) for long-term electrophysiological monitoring, haptic communication in virtual environments, and mechanical cell lysis using nanostructured microfluidic devices. The lab also explores artificial immune systems for cybersecurity and non-invasive force estimation using surface EMG, emphasizing real-world applicability in rehabilitation and human-robot interaction.
Professor In-Sik Nam's research lab specializes in catalytic materials and reaction engineering for automotive exhaust emission control, with a primary focus on selective catalytic reduction (SCR) of nitrogen oxides (NOx) and urea-based SCR processes. The lab investigates the thermal and catalytic decomposition of urea, the deactivation mechanisms of three-way catalysts (TWCs), and the development of kinetic models for monolith reactors used in heavy-duty diesel engines. Their work integrates fundamental kinetic studies with practical applications, emphasizing catalyst durability, metal sintering kinetics, and performance prediction under real-world driving conditions. The lab aims to design efficient, durable, and commercially viable catalytic systems for sustainable transportation technologies.
Professor Sung-Lae Jo's research lab focuses on regenerative neuroscience and neurorepair strategies, particularly in the context of neurological disorders such as Huntington’s disease, spinal cord injury, and hypoxic-ischemic brain injury. The lab investigates endogenous neural repair mechanisms, including the stimulation of neurogenesis from subependymal progenitor cells using growth factors like BDNF and modulators such as Noggin, as well as the synergistic effects of cell transplantation and environmental enrichment. A key focus is enhancing functional recovery through combinatorial approaches involving stem cell therapy, neurotrophic factor delivery, and behavioral/environmental interventions. The lab also explores the role of angiogenesis and neuroplasticity in long-term recovery outcomes.
Professor Kyung Mi Woo's research lab specializes in tissue engineering and regenerative medicine, focusing on the development of biomimetic nanofibrous scaffolds for enhanced tissue regeneration. The lab investigates how nanostructured materials, particularly poly(l-lactic acid) and poly(ε-caprolactone) based electrospun matrices, influence cell behavior, including stem cell differentiation and wound healing. A key research direction involves optimizing scaffold architecture to improve protein adsorption, cell adhesion, and functional tissue formation, especially in bone and diabetic wound repair. The lab also explores molecular mechanisms underlying cellular responses to nanotopographical cues, aiming to translate in vitro findings into effective clinical therapies.
