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 Kyu-Man Han's research lab focuses on the neurobiological and neuroimaging mechanisms underlying mood disorders, particularly major depressive disorder (MDD) and bipolar disorder (BD). The lab investigates the interplay between genetic factors, epigenetic modifications such as DNA methylation, and systemic inflammation in shaping brain structure and function. Using advanced neuroimaging techniques like structural MRI and functional connectivity analysis, the lab explores how peripheral and central inflammatory processes contribute to neural circuit dysfunction and neuroprogression in mood disorders. A key focus is identifying biomarkers and understanding the pathophysiological roles of genes like FKBP5 and neuroinflammatory pathways in psychiatric illness.
Professor Sang‐Heon Kim's research lab specializes in pharmacogenomics and translational biomedical research, focusing on identifying genetic markers associated with drug-induced adverse reactions, particularly severe cutaneous adverse reactions (SCARs) and hepatotoxicity from anti-tuberculosis drugs. The lab investigates the role of human leukocyte antigen (HLA) and metabolic enzyme gene variants (e.g., NAT2, PTGERs) in shaping individual susceptibility to drug toxicity. Additionally, the lab explores host factors influencing vaccine immunogenicity and develops biomaterials for tissue engineering applications, particularly through receptor-targeted synthetic matrices to regulate cell behavior.
Professor Yong-Jae Moon's research lab specializes in solar physics, with a primary focus on the magnetic dynamics of the Sun, particularly the generation, transport, and evolution of magnetic helicity in active regions. The lab investigates the physical mechanisms behind solar flares, coronal mass ejections (CMEs), and sympathetic flare events using high-cadence magnetograms and multi-wavelength observations from SOHO and SDO. A key research direction involves applying machine learning techniques, such as Convolutional Neural Networks (CNNs), to predict solar flare occurrences from magnetogram data. The lab also explores the force-free nature of solar magnetic fields and the role of photospheric motions in driving eruptive space weather events.
Professor Bright Walker's research lab focuses on the development and optimization of solution-processable organic and hybrid semiconductors for next-generation optoelectronic devices, with a strong emphasis on organic solar cells and perovskite-based photovoltaics. The lab investigates molecular design principles for small-molecule donors, fullerene and non-fullerene acceptors, and solvent engineering to achieve high-performance bulk heterojunction films with improved morphology and reproducibility. A key direction involves tuning electronic and solubility properties through molecular architecture and halide composition control in perovskite materials to enhance device efficiency and stability.
Professor Jeewoo Lim's research lab specializes in the development of advanced sulfur-based polymers and high-refractive-index materials for optoelectronic and energy storage applications. The lab focuses on innovative chemical processes such as inverse vulcanization and sulfur chemical vapor deposition (sCVD) to transform elemental sulfur—a low-cost, abundant byproduct—into functional materials with tunable optical, thermal, and mechanical properties. Key research directions include the design of high-refractive-index polymers for optical devices, sulfur-rich materials for secondary batteries, and thermally stable, processable polymers for flexible electronics.
Professor Eun Kyoung Seo's research lab specializes in natural product chemistry and neuropharmacology, focusing on the isolation, structural elucidation, and biological evaluation of bioactive compounds from medicinal plants. The lab investigates the neuroprotective and anticancer properties of natural molecules, particularly resveratrol derivatives, xanthones, and phenylbutenoids, with an emphasis on their mechanisms in treating neurodegenerative diseases and cancer. The research also integrates advanced analytical techniques such as NMR, FT-IR, and bioassay-guided fractionation to bridge natural product discovery with therapeutic applications.
Professor Seiichiro Tsutsumi's research lab specializes in advanced constitutive modeling of material behavior under cyclic and non-proportional loading conditions, with a focus on cyclic plasticity and fatigue phenomena. The lab develops unconventional plasticity models—particularly extensions of the subloading surface approach—to accurately capture plastic deformation within the yield surface, even under low-stress cyclic loading. Their work addresses limitations in traditional elastoplastic models by incorporating internal variables and smooth elastic-plastic transitions, enabling improved simulation of ratcheting and hysteretic behavior in high-cycle fatigue. Additionally, the lab explores 3D face recognition using combined 3D and gray-scale imaging for robust facial identification under varying orientations.
Professor Jian Pang's research lab specializes in high-frequency integrated circuits and millimeter-wave systems for next-generation wireless communications, with a strong focus on 5G and beyond. The lab develops advanced CMOS-based transceivers, phased-array beamformers, and MIMO systems operating at 28 GHz and 60 GHz, emphasizing area efficiency, low power consumption, and high performance. Key innovations include novel beamforming architectures, calibration techniques for I/Q imbalance and LO feedthrough, and analog cancellation for cross-polarization isolation. The lab also explores fundamental physics in laser-driven electron acceleration, demonstrating interdisciplinary research spanning wireless communications and photonics.
Professor Mingwei Chen's research lab specializes in the design, synthesis, and application of advanced nanomaterials for energy and catalysis. The lab focuses on developing novel nanostructured materials—such as nanoporous graphene, doped 2D materials, and metallic glasses—engineered at the atomic and nanoscale to achieve exceptional performance in electrochemical energy conversion and storage. Key research directions include single-atom and co-doped catalysts for hydrogen evolution and oxygen reduction reactions, solar steam generation using 3D graphene architectures, and understanding deformation mechanisms in nanocrystalline and amorphous metals. The lab combines advanced characterization techniques with theoretical modeling to uncover structure-property relationships at the atomic level.
Professor Seung-Yeop Kwak's research lab specializes in the design and fabrication of advanced functional materials for environmental and energy applications. Key research directions include the development of novel thin-film composite membranes for water purification, with a focus on enhancing permeability and anti-fouling properties through nanomaterial integration. The lab also pioneers the synthesis of mesoporous and quantum-sized materials—such as TiO₂, hematite, magnetite, and carbon quantum dots—for efficient photocatalytic degradation of pollutants and improved performance in separation processes. Additionally, the group explores sustainable polymer additives, exemplified by phthalate-free plasticizers for flexible PVC, reflecting a commitment to green chemistry and materials innovation.
Professor Young Min Rhee's research lab specializes in theoretical and computational chemistry, with a focus on quantum chemical methods for excited states and nonadiabatic processes. The lab develops advanced electronic structure methods—such as SCS-CIS(D) and SOS-CIS(D)—to improve the accuracy of excited-state calculations, particularly for systems with strong electron correlation and spin-fluctuation effects. A key research direction involves understanding reverse intersystem crossing (RISC) dynamics in thermally activated delayed fluorescence (TADF) materials, aiming to enable rational design of high-efficiency organic light-emitting diodes (OLEDs). The lab also investigates the role of solvent, especially water, in biomolecular processes like protein folding, using explicit-solvent molecular dynamics simulations to probe the microscopic origins of hydration and hydrophobic effects.
Professor Danbee Kang's research lab focuses on the psychosocial and metabolic factors influencing long-term health outcomes in chronic disease survivors, particularly in oncology and metabolic health. The lab investigates the psychological impact of treatment-related sequelae—such as chemotherapy-induced alopecia—and explores how stress, hope, and life purpose affect quality of life and disease progression. A key research direction involves understanding the role of perceived stress in the development of non-alcoholic fatty liver disease (NAFLD) among apparently healthy populations. The lab integrates epidemiological, psychological, and clinical data to inform patient-centered interventions and improve long-term well-being.
Professor Hoo-Jeong Lee's research lab specializes in the development and characterization of advanced functional thin films and nanostructured materials for microscale and nanoscale applications. The lab focuses on understanding the structure-property relationships in materials such as NiTi shape memory alloys, aluminum-based alloys, and graphene-supported electrocatalysts, with an emphasis on in situ microscopy and mechanical testing at the micro/nano scale. Key research directions include phase transformation kinetics, grain growth dynamics, and the design of high-performance electrocatalysts for sustainable energy applications.
Professor Kiyoto Kamagata's research lab specializes in the biophysics of biomolecular phase separation, focusing on the formation, dynamics, and functional roles of liquid-liquid phase-separated droplets in cellular organization and regulation. The lab investigates how tumor suppressor proteins like p53 and FUS form dynamic, membraneless compartments that recruit specific proteins and modulate their mobility, using advanced single-molecule fluorescence microscopy and biophysical techniques. A central theme is understanding the molecular determinants—such as electrostatic interactions, disordered domains, and amino acid composition—that govern droplet formation, guest protein recruitment, and intersegmental transfer in DNA target search. The lab also explores the design principles of peptides that regulate phase separation and aggregation, with implications for neurodegenerative diseases and drug discovery.
Professor Đình Hòa Nguyễn's research lab specializes in smart grid technologies, distributed energy systems, and intelligent control for sustainable energy management. The lab focuses on developing advanced optimization and control strategies for renewable energy integration, electric vehicle charging systems, and battery energy storage, with an emphasis on real-time coordination, peer-to-peer energy trading, and robust consensus algorithms. Research also spans machine learning applications in materials chemistry and dynamic wireless power transfer for aerial and ground electric vehicles.
Professor Tetsuya Ōsaka's research lab specializes in advanced energy storage materials and systems, with a strong focus on lithium-ion batteries, electrochemical characterization, and sustainable electrocatalysts. The lab develops innovative materials such as nitrogen-doped carbon nanocapsules for oxygen reduction reactions and explores novel electrolyte systems for electric double-layer capacitors. Key research directions include in-situ diagnostics using electrochemical impedance spectroscopy and high-speed X-ray imaging to evaluate battery safety and failure mechanisms. The lab also investigates electrodeposition processes for functional magnetic alloys, emphasizing surface adsorption mechanisms and material performance optimization.
Professor Youjae Yi's research lab specializes in consumer behavior, with a focus on how contextual factors, cognitive and emotional priming, and social influences shape consumer evaluations and decision-making. The lab investigates the role of expectations, loyalty, prior knowledge, and interpersonal dynamics—particularly the influence of other customers—in determining brand attitudes and repurchase intentions. Key research directions include the impact of ad context on interpretation of ambiguous product information, the mediating role of adjusted expectations, and the effects of social information and identity on customer citizenship behavior.
Professor Chang Yun Son's research lab specializes in computational and molecular-level studies of ion transport, electrostatic interactions, and interfacial phenomena in complex electrolyte systems, with a focus on energy storage materials such as solid-state and high-concentration liquid electrolytes, ionic liquids, and charged block copolymers. The lab develops advanced atomistic and polarizable molecular dynamics models to understand and predict ion dynamics, phase behavior, and interfacial structuring in confined and heterogeneous environments relevant to batteries and bioelectrochemical systems. A key emphasis is placed on bridging simulation methodologies with experimental validation to guide the design of next-generation electrolytes with enhanced ionic conductivity and stability.
Professor Sung Oh Cho's research lab specializes in the design, synthesis, and application of advanced nanomaterials for energy and environmental technologies. Key research directions include plasmonic photocatalysts for solar energy conversion, quantum dot-sensitized photoelectrodes for solar fuel generation, and nanostructured materials for hydrogen storage and superhydrophobic surfaces. The lab employs innovative fabrication techniques such as sonochemistry, electron beam irradiation, and solution-based deposition to create functional nanoarchitectures with tunable optical, electronic, and surface properties.
Professor Ho Lee's research lab specializes in medical imaging, computational modeling, and energy systems, with a focus on advancing diagnostic technologies and energy recovery. The lab develops innovative deep learning and signal processing techniques for medical image analysis—particularly in chest X-ray and cone-beam CT—enabling low-dose, high-accuracy imaging for disease detection. It also explores laser-tissue interactions for ophthalmic therapies and designs efficient thermodynamic cycles for recovering low-grade heat and cold energy. The integration of AI, imaging science, and sustainable energy systems defines the lab’s interdisciplinary approach.
