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 Dipjyoti Das's research lab specializes in the development and optimization of ferroelectric hafnium-zirconium oxide (HZO) based devices for next-generation semiconductor technologies. The lab focuses on enhancing ferroelectric properties—such as remanent polarization and energy storage density—through advanced processing techniques like high-pressure post-metallization annealing (HPPMA) and dielectric interlayer engineering. Key research directions include CMOS-compatible ferroelectric capacitors, ferroelectric field-effect transistors (FEFETs), and energy storage capacitors (ESCs) with ultra-thin equivalent oxide thickness (EOT) for applications in ultra-low-power memory and in-memory computing.
Professor Hongjoo Woo's research lab specializes in consumer behavior, corporate social responsibility (CSR), and sustainable fashion marketing. The lab investigates how consumers perceive and respond to CSR initiatives, subscription-based fashion and beauty services, and the role of cultural factors in shaping brand equity and consumer attitudes. Key research directions include the impact of CSR on brand image, cross-cultural brand halo effects, and crisis communication strategies in the global fashion industry.
Professor Sang-il Kim's research lab specializes in advanced thermoelectric materials, focusing on band engineering, nanostructuring, and defect engineering to enhance the thermoelectric figure of merit (zT). The lab investigates electronic and thermal transport phenomena in bismuth antimony telluride (Bi-Sb-Te) alloys and other chalcogenide systems, with particular emphasis on achieving high-performance thin films and bulk materials through cation doping, epitaxial growth, and heterostructure integration. Their work bridges fundamental electronic structure theory with practical device applications, aiming to improve energy conversion efficiency for solid-state cooling and power generation.
Professor Kuo Li's research lab specializes in distributed control of nonlinear multiagent systems under challenging conditions such as uncertain dynamics, time-varying delays, switching topologies, partial state availability, and stochastic disturbances. The lab focuses on developing advanced output-feedback control strategies, finite-time and predefined-time observers, and robust consensus algorithms for leader-following and containment control. Key innovations include dynamic compensators, high-gain observers, and switched observer designs that ensure fast, accurate, and reliable coordination under non-ideal sensing and communication environments.
Professor Byoung Hun Lee's research lab specializes in advanced semiconductor materials and devices, with a primary focus on high-κ dielectrics, ultra-thin oxide films, and novel gate stack architectures for next-generation CMOS transistors. The lab investigates the physical, electrical, and reliability properties of materials such as HfO₂ and TiO₂, emphasizing atomic-scale interface engineering, dielectric scaling, and thermal stability. It also explores emerging applications in flexible and transparent electronics, including graphene-based transparent electrodes for organic solar cells and high-performance photodetectors using graphene-silicon heterojunctions. The lab’s work bridges fundamental materials science with practical device integration for energy-efficient and high-performance electronics.
Professor Ji Hye Min's research lab specializes in abdominal and musculoskeletal radiology, with a primary focus on improving the diagnostic accuracy and prognostic prediction of liver and spinal disorders using advanced medical imaging techniques. The lab emphasizes the application of magnetic resonance imaging (MRI), particularly gadoxetic acid-enhanced MRI and BOLD MRI, for the early detection, characterization, and treatment planning of hepatocellular carcinoma (HCC) and other abdominal malignancies. Research also extends to evaluating imaging biomarkers for microvascular invasion, tumor recurrence, and spinal muscle atrophy in relation to radiculopathy, aiming to enhance personalized treatment strategies. The lab integrates radiological assessment with clinical-pathological outcomes to improve patient management and prognosis prediction.
Professor Chang-Sung Seok's research lab specializes in advanced materials engineering with a focus on high-performance alloys, polymers, and ceramics for extreme service environments. The lab investigates the microstructural evolution, mechanical behavior, and long-term degradation mechanisms of materials such as superalloys, rubber composites, and heat-resistant steels under high-temperature and aging conditions. Key research directions include creep resistance, thermal barrier coatings, aging-induced property changes, and the development of reliable life prediction models for critical industrial components.
Professor Haejoon Jung's research lab specializes in advanced wireless communication systems, with a focus on 5G and beyond networks, physical-layer security, and energy-efficient wireless sensor networks. The lab explores innovative techniques such as New Radio in Unlicensed spectrum (NR-U), cooperative beamforming, and over-the-air computation to enable high-speed, low-latency, and secure communications for Industry 4.0 and IoT applications. Key research directions include intelligent spectrum sharing, wireless power and data transfer, and UAV-assisted networks for ubiquitous sensing and reliable data aggregation.
Professor Sung Jong Yoo's research lab specializes in the design and development of advanced nanomaterials for sustainable energy conversion and storage applications. The lab focuses on electrocatalysts for fuel cells and nitrogen reduction reactions, with particular emphasis on improving durability, activity, and stability through innovative materials engineering. Key research directions include the synthesis of defect-engineered and single-atom catalysts using biomass-derived precursors, the development of novel flow-field architectures for enhanced water management in proton-exchange membrane fuel cells, and the creation of regenerative electrochemical systems for sustainable ammonia production. The lab integrates materials synthesis, electrochemistry, and advanced characterization to address critical challenges in clean energy technologies.
Professor Yangha Kim's research lab focuses on the molecular mechanisms underlying obesity, metabolic dysfunction, and related chronic diseases, with a particular emphasis on the roles of micronutrients (such as vitamin D) and bioactive phytochemicals (including rutin, EGCG, capsaicin, and ginsenoside Rg3) in regulating adipocyte metabolism, mitochondrial function, and hepatic lipid homeostasis. The lab investigates how these compounds modulate key signaling pathways—such as SIRT1, PGC-1α, AMPK, and lipolytic enzymes (e.g., HSL, CPT1α, UCP2)—to improve metabolic health and combat obesity-associated inflammation and dyslipidemia. Their work bridges nutritional biochemistry with cellular and molecular physiology, aiming to identify natural compounds as potential therapeutic agents for metabolic syndrome and cardiovascular disease.
Professor Ya-Lun Ho's research lab specializes in nanophotonics and optoelectronics, focusing on the development of advanced photonic devices using solution-processable materials such as perovskite quantum dots and halide perovskites. The lab explores novel concepts like bound states in the continuum (BICs), plasmonic nanolasers, and hot-carrier dynamics to enable compact, high-performance, and chip-integrated light sources and detectors. Key research directions include lithographic integration of perovskites, subwavelength light confinement, and high-sensitivity biosensing through engineered optical resonances. The lab also advances materials engineering for low-loss, high-quality thin films essential for next-generation optoelectronic applications.
Professor Kensuke Miyake's research lab focuses on the molecular mechanisms underlying hematopoietic cell-stromal cell interactions in the bone marrow microenvironment, with a central emphasis on cell adhesion molecules and their roles in lymphopoiesis and myelopoiesis. The lab has made seminal contributions to identifying key adhesion molecules such as CD44/Pgp-1 and VLA-4 (integrin α4β1), and their ligands like hyaluronate and VCAM-1, which regulate lymphoid development and leukocyte trafficking. Using monoclonal antibody-based screening and functional assays, the lab elucidates how these interactions support hematopoietic stem and progenitor cell maintenance and differentiation. The work also extends to understanding the role of innate immune cells, such as basophils, in Th2 immune responses through antigen presentation and cytokine production.
Professor Yang Li's research lab specializes in computational modeling and simulation of biological systems, with a strong focus on organoid technologies, non-rigid 3D shape analysis, and medical imaging. The lab develops advanced deep learning and optimization techniques for 3D point cloud registration, motion estimation in deformable scenes, and the in vitro modeling of human organs—particularly the liver and brain—by integrating stem cell-derived tissues and immune cells. Key research directions include creating functional human organoids for disease modeling, improving non-rigid tracking and reconstruction in dynamic environments, and advancing data-driven methods for incomplete or occluded 3D geometry. The lab bridges computer science, biomedical engineering, and stem cell biology to develop next-generation in vitro models and intelligent algorithms for healthcare applications.
Professor Kenjiro Sawada's research lab focuses on identifying molecular mechanisms driving ovarian cancer progression and metastasis, with a particular emphasis on cell adhesion molecules, growth factor receptors, microRNAs, and signaling pathways such as c-Met, IL-6R, and Rho/ROCK. The lab investigates potential therapeutic targets, including integrins, CD47, and the mevalonate pathway, aiming to develop novel targeted therapies and biomarkers for early diagnosis and personalized treatment. Their work integrates in vitro, in vivo, and clinical validation approaches to translate molecular insights into improved patient outcomes.
Professor Jiaxin Zhang's research lab specializes in urban digital transformation, focusing on the integration of artificial intelligence, remote sensing, and geospatial technologies to address challenges in urban planning, architectural heritage conservation, and smart city development. The lab pioneers AI-driven solutions for urban façade analysis, habitat quality assessment, and building information modeling, with an emphasis on scalable, data-driven methodologies using deep learning, synthetic data, and digital twins. Key research directions include intelligent urban morphology analysis, automated building façade reconstruction, and AI agents for architectural decision-making.
Professor Byung-Gee Kim's research lab specializes in enzymatic biocatalysis, particularly focusing on omega-transaminases for the sustainable synthesis of chiral amines—key building blocks in pharmaceuticals and fine chemicals. The lab develops kinetic models and innovative reactor systems, such as enzyme-membrane reactors and two-phase systems, to overcome challenges like product inhibition and thermodynamic limitations. They also explore microbial metabolism and metabolic modeling, exemplified by the reconstruction of a high-quality genome-scale metabolic model for *Streptomyces coelicolor* to enable metabolic engineering of industrially relevant bacteria.
Professor Yun Seog Lee's research lab specializes in developing high-performance, earth-abundant chalcogenide and oxide semiconductors for thin-film photovoltaic applications. The lab focuses on interface engineering, defect passivation, and band alignment optimization to enhance carrier collection and device efficiency in CZTSSe and Cu2O-based solar cells. Key research directions include atomic layer deposition of functional oxide layers, tunable doping strategies (e.g., nitrogen-doped Cu2O), and microstructure control via advanced deposition techniques such as thermal co-evaporation and sputtering. The lab’s work emphasizes sustainable photovoltaic materials with potential for low-cost, high-efficiency solar energy conversion.
Professor Nam-Chul Ha's research lab focuses on the structural and molecular mechanisms of membrane protein complexes, particularly tripartite efflux pumps in Gram-negative bacteria, with an emphasis on their roles in antibiotic resistance and pathogenicity. The lab investigates the assembly and function of transport systems such as AcrAB-TolC, MacAB-TolC, and HlyT, using a combination of structural biology, biochemistry, and functional genetics. A key research direction involves understanding the role of conserved tip regions in membrane fusion proteins (MFPs) in mediating interactions with outer membrane factors and transporters. The lab also explores host-pathogen interactions, including viral immune evasion mechanisms, as seen in studies on SARS-CoV-2 Nsp15.
Professor Jun-Ho Choi's research lab specializes in the analysis of complex networks and human-computer interaction, with a focus on understanding global communication structures, media credibility, and human activity recognition. The lab investigates the structural similarities between large-scale networks—such as the Internet backbone and air transport systems—using advanced network analysis techniques. It also explores psychological and behavioral aspects in virtual environments, particularly through multimodal sensing and real-time monitoring of human interactions in virtual meetings. Additionally, the lab develops cutting-edge deep learning models for multimodal human activity recognition, emphasizing confidence-based fusion of sensor data for improved accuracy.
Professor Donghwan Kim's research lab specializes in advanced energy materials, with a primary focus on perovskite-based optoelectronic devices and electrocatalysts for sustainable energy applications. The lab investigates high-efficiency perovskite solar cells, including tandem architectures and large-area module development, aiming to bridge the gap between laboratory-scale performance and industrial scalability. Additionally, the lab explores nanostructured catalysts—particularly NiO-decorated silicon nanowires with carbon coatings—for enhanced electrocatalytic activity in water splitting and related energy conversion processes. Their work emphasizes material design, interface engineering, and performance optimization for practical renewable energy solutions.
