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 Insuk Lee's research lab specializes in computational systems biology and functional genomics, focusing on constructing and refining large-scale gene networks to decipher complex biological regulatory mechanisms. The lab develops integrative computational frameworks that combine diverse 'omics' data—such as gene expression, protein interactions, and functional annotations—using Bayesian and probabilistic models to predict functional linkages between genes. Their work has led to the creation of high-accuracy, species-specific functional networks like HumanNet, RiceNet, and YeastNet, which are instrumental in identifying disease-related genes, understanding regulatory circuits, and supporting translational research in human disease and crop improvement. The lab emphasizes data integration, network inference, and the application of network-based approaches to systems biology and precision medicine.
Professor Jungwoo Oh's research lab specializes in the design and synthesis of advanced nanomaterials for energy conversion and electronic applications. The lab focuses on developing 3D carbon-based aerogels, transition metal oxide–graphene composites, and group IV semiconductors (like Ge) for high-performance supercapacitors, electrocatalysts, and high-speed transistors. Key research directions include enhancing electrical conductivity and catalytic activity through nitrogen doping and heterostructure engineering, as well as integrating flexible, free-standing electrodes for sustainable energy technologies.
Professor Jang-Yeon Kwon's research lab specializes in advanced 2D materials and oxide semiconductor devices, focusing on their application in next-generation optoelectronic and energy conversion technologies. The lab investigates the fundamental behaviors of materials such as Hf–In–Zn–O (HIZO), WSe₂/MoS₂ heterojunctions, and transparent conductive oxides to enhance device performance, stability, and transparency. Key research directions include the development of highly sensitive tactile sensors, transparent thin-film solar cells, and the mitigation of light- and bias-induced instability in oxide transistors through interface engineering and surface passivation. The lab also explores the growth mechanisms and agglomeration dynamics of metal films (e.g., Cu, Au) for advanced nanofabrication processes.
Professor Sejung Yang's research lab specializes in advanced imaging and signal processing techniques for biomedical and materials science applications. The lab focuses on developing innovative algorithms for noise reduction in low-light imaging, particularly in fluorescence microscopy and positron-based spectroscopy, where signal-dependent Poisson noise poses significant challenges. Key research directions include image enhancement with hue preservation, cell migration tracking using phase contrast microscopy, and the application of deep learning to analyze specialized cellular structures such as goblet cells in ocular surface health. The lab also pioneers high-resolution spectroscopic techniques, such as positron-annihilation-induced Auger electron spectroscopy, for surface-sensitive materials characterization.
Professor Sang-Yup Lee's research lab specializes in the design and synthesis of advanced functional nanomaterials for energy, environmental, and biomedical applications. Key research directions include the development of one-dimensional nanostructures such as metal–organic frameworks (MOFs), nanocables, and carbon nanorods for electrochemical and catalytic applications, as well as stimuli-responsive nanomaterials for targeted cancer therapy. The lab also investigates fundamental aspects of metal–support interactions and single-atom catalysts to enhance catalytic efficiency and stability. Recent work emphasizes biomimetic catalysts and pH-responsive self-assembled systems for selective therapeutic delivery and environmental remediation.
Professor M. James Jee's research lab specializes in observational cosmology and galaxy cluster physics, with a primary focus on weak gravitational lensing to map dark matter distributions and study the mass assembly of high-redshift galaxy clusters. The lab leverages high-resolution Hubble Space Telescope data—particularly from the Advanced Camera for Surveys (ACS) and Wide Field Planetary Camera 2—to investigate complex cluster morphologies, PSF characterization, and the interplay between dark matter, galaxies, and hot X-ray emitting plasma. A key strength lies in developing advanced PSF modeling techniques, such as principal component analysis, to enable precise weak lensing measurements in crowded and complex fields.
Professor Ki Yong Lee's research lab specializes in natural product chemistry and neuropharmacology, focusing on the isolation, characterization, and biological evaluation of bioactive compounds from medicinal plants. The lab investigates neuroprotective and anti-neurodegenerative effects of plant-derived compounds, particularly in models of stroke, neurotoxicity, and memory impairment. Key research directions include identifying natural molecules that protect against oxidative stress, mitochondrial dysfunction, and neuronal damage, with an emphasis on developing novel therapeutic agents for neurological disorders.
Professor Woong Sun's research lab specializes in neurobiology and cellular mechanisms underlying neuronal development, survival, and degeneration. The lab investigates programmed cell death in adult neurogenesis, particularly the role of Bax in regulating neuronal apoptosis in the hippocampus, and explores neuroprotective strategies in neurodegenerative diseases such as ALS. Using transgenic mouse models and molecular analyses, the lab examines how growth factors like HGF modulate neuronal survival and glial function. Additionally, the lab contributes to understanding the biophysical basis of seed longevity through glass transition dynamics, linking cellular stability to long-term viability.
Professor Jung-Wook Cho's research lab specializes in the thermophysical properties and processing behavior of mold fluxes in continuous steel casting, with a focus on heat transfer, rheology, and structural evolution of molten and solidifying slag films. The lab investigates interfacial thermal resistance, radiative and conductive heat transfer mechanisms, and the non-Newtonian rheological behavior of molten fluxes, particularly under high-temperature conditions relevant to advanced high-strength steel (AHSS) casting. Using advanced characterization techniques such as Raman spectroscopy, FTIR, and 27Al MAS NMR, the lab explores the relationship between molecular structure and macroscopic properties like viscosity and crystallization kinetics.
Professor Jinyoung Youn's research lab focuses on advancing the understanding and management of Parkinson's disease (PD) through innovative biomedical technologies and biomarker discovery. The lab specializes in developing wearable device-based systems for real-time monitoring of motor fluctuations and medication states ('On'/'Off' states) in PD patients, aiming to improve clinical decision-making and quality of life. Additionally, the lab investigates autophagy-related and neurodegeneration-related biomarkers in cerebrospinal fluid to identify early diagnostic and prognostic indicators. The research also explores fall mechanisms in PD, particularly through directional analysis of recurrent falls, to inform targeted prevention strategies.
Professor Kaori Sugihara's research lab specializes in supramolecular chemistry and biomimetic materials, with a focus on anion transport, mechanochromic polymers, and lipid membrane systems. The lab investigates the role of non-covalent interactions—such as pnictogen, chalcogen, and halogen bonding—in designing functional molecular assemblies that mimic biological ion channels. Recent work emphasizes the development of stimuli-responsive materials, particularly polydiacetylenes, for biosensing applications, with a strong emphasis on nanoscale mechanical and electrical characterization. The lab also explores plant stress responses at the molecular level, linking protein expression to environmental challenges like salinity.
Professor Tatsuo Hasegawa's research lab specializes in the development and characterization of organic semiconductors, with a focus on molecular design, thin-film fabrication, and field-effect transistor (OFET) devices. The lab explores novel organic semiconductors—particularly charge-transfer complexes and π-conjugated materials—aiming to achieve high-performance, single-crystalline, and ultrathin films with precise control over molecular alignment and morphology. A key innovation involves using geometrical frustration and meniscus control in solution processing to enable wafer-scale, single-molecular-layer organic semiconductor films with exceptional uniformity and electronic properties. The lab's work bridges fundamental materials science with practical applications in flexible and transparent electronics.
Professor Ken-ichiro Kamei's research lab specializes in the development of advanced microfluidic platforms and supramolecular nanomaterials for biomedical and materials science applications. The lab focuses on creating dynamic 3D microenvironments to study human pluripotent stem cells (hPSCs) with high spatiotemporal resolution, enabling quantitative analysis of pluripotency and differentiation. Additionally, the lab investigates functional nanomaterials, particularly cyclodextrin-based supramolecular nanoparticles, for targeted drug delivery and in vivo biodistribution studies. The integration of microfluidics, stem cell biology, and materials chemistry defines the lab’s interdisciplinary approach to regenerative medicine and nanomedicine.
Professor Yoichi Shiota's research lab specializes in spintronics and nanomagnetic devices, focusing on voltage-controlled magnetic phenomena, spin wave dynamics, and ultra-low power magnetization switching. The lab investigates fundamental mechanisms of magnon-magnon coupling, nonreciprocal spin wave propagation, and voltage-induced perpendicular magnetic anisotropy in synthetic antiferromagnets and magnetic tunnel junctions. Their work aims to enable energy-efficient, high-speed spintronic devices through precise control of magnetic states using electric fields and spin-wave engineering. Key achievements include demonstrating sub-nanosecond switching with extremely low error rates and giant nonreciprocal frequency shifts for logic applications.
Professor Masaharu Somiya's research lab focuses on extracellular vesicles (EVs) as natural nanocarriers for intercellular communication and drug delivery. The lab specializes in developing innovative methods for isolating and engineering EVs—particularly bovine milk-derived EVs—for scalable, safe, and efficient therapeutic applications. Key research directions include understanding the mechanisms of EV uptake, membrane fusion, and cytoplasmic cargo release using advanced quantitative assays such as the NanoBiT system, and designing virus-inspired nanocarriers to enhance endosomal escape and targeting efficiency. The lab also addresses critical challenges in EV-based therapeutics, including large-scale production, drug loading, and biocompatibility assessment.
Professor Daniel Orejón's research lab specializes in advanced interfacial phenomena, focusing on liquid–solid interactions, wetting dynamics, and their applications in sustainable energy and water purification. The lab investigates the fundamental behavior of droplets on structured surfaces, including evaporation, condensation, and electrowetting, with an emphasis on designing durable, nonwetting, and superhydrophilic surfaces for real-world applications. Key research directions include solar-driven water evaporation, anti-icing, self-cleaning, and corrosion-resistant materials, often leveraging nanomaterials such as graphene oxide and titanium dioxide nanoparticles to enhance performance and stability.
Professor Takashi Hirano's research lab specializes in tropical ecosystem biogeochemistry, with a primary focus on carbon cycle dynamics in tropical peatlands and forested wetlands. The lab investigates the impacts of land-use change, fire, and climate variability—particularly El Niño events—on peat decomposition, greenhouse gas emissions (CO₂ and CH₄), and the transition of peatlands from carbon sinks to sources. Using field measurements, eddy covariance techniques, and long-term monitoring, the lab aims to quantify ecosystem-scale fluxes and improve understanding of carbon balance under environmental stress. Their work contributes critical data for climate modeling and sustainable land management in Southeast Asia, especially in Indonesia’s peatland regions.
Professor Jong-Sub Lee's research lab specializes in geomechanics and soil dynamics, focusing on the mechanical behavior of granular materials under various conditions. The lab investigates the influence of particle characteristics—such as shape, size, and mineral composition—on soil stiffness, damping, and wave propagation. Key research directions include wave-based soil characterization, soil-structure interaction, and non-destructive evaluation of ground improvement and grouting quality using ultrasonic and electromagnetic methods. The lab combines experimental testing, advanced instrumentation (e.g., TDR, pressure plate extractors), and discrete element modeling to understand micro-mechanical mechanisms in complex soil mixtures.
Professor Man-Seong Park's research lab focuses on viral pathogenesis, host-virus interactions, and the development of novel vaccines and antiviral strategies, particularly against avian influenza and Newcastle disease virus (NDV). The lab employs reverse genetics and host immune modulation studies to understand viral immune evasion mechanisms, such as interferon antagonism by viral proteins like NDV V protein. A key research direction involves designing dual-purpose vaccines that confer protection against multiple avian pathogens, including NDV and influenza. The lab also explores innate immune effectors, such as human defensins, as potential broad-spectrum antiviral agents.
Professor Geun Young Yeom's research lab specializes in advanced nanomaterials and atomic-scale processing techniques for next-generation semiconductor and energy devices. The lab focuses on atomic layer etching (ALE), transition metal dichalcogenides (e.g., MoS₂), and 2D materials such as graphene, with applications in high-performance electronics and renewable energy. Key research directions include precise thickness control of 2D materials, plasma-based doping and surface engineering, and the development of novel electrode materials for dye-sensitized solar cells. The lab emphasizes low-damage, high-precision fabrication processes for sub-10 nm device integration.
