世界の主要大学の研究室を探索 — 研究分野と主要論文を一目で確認できます。
Professor Joowon Lee's research lab specializes in advanced materials and energy conversion technologies, with a strong focus on photoelectrochemical systems for sustainable energy applications. The lab investigates 1D nanostructured photoelectrodes and up-conversion materials to enhance solar-driven water splitting for hydrogen production. In parallel, the lab explores bioactive compounds such as glabridin for metabolic disorder treatment, demonstrating a multidisciplinary approach bridging materials science and biomedical applications. The integration of behavioral analytics in mobile advertising further reflects the lab’s interest in human-centered technology applications.
Professor Byung-In Moon's research lab specializes in translational biomedical engineering and oncology, focusing on the development of advanced microfluidic technologies for the isolation and analysis of circulating exosomes in cancer. The lab investigates the molecular and clinical significance of biomarkers such as Annexin A1 (ANXA1) and BRCA1/BRCA2 in breast cancer, exploring their dual roles in tumorigenesis and prognosis. Additionally, the lab is actively engaged in improving cancer survivorship through behavioral interventions, including web-based programs and health coaching to enhance physical activity, weight management, and psychological well-being. Their work bridges nanotechnology, immunology, and clinical oncology to advance precision medicine and early cancer detection.
Professor Lee Sang-hyub's research lab specializes in medicinal chemistry and translational oncology, focusing on the development of novel anticancer agents with improved pharmacological profiles. The lab investigates semisynthetic analogues of clinically relevant drugs such as mitomycin C and porfiromycin, aiming to enhance efficacy and reduce toxicity through strategic structural modifications. A key research direction involves designing prodrugs with redox-active functional groups—such as disulfide linkages—that enable targeted activation in tumor microenvironments. The lab also contributes to urological oncology research, particularly in optimizing surgical outcomes and understanding postoperative complications in renal and urothelial cancers.
Professor Jihong Lee's research lab specializes in intelligent control systems, robotics, and real-time motion analysis, with a focus on developing advanced control algorithms for complex dynamical systems. The lab explores fuzzy logic and neural network-based optimization for robust control in high-order and multi-robot systems, emphasizing stability, safety, and real-time performance. It also investigates geometric and mathematical frameworks for evaluating robotic dexterity and motion planning, including manipulability analysis and l∞-norm optimization. Additionally, the lab develops low-cost, practical motion capture systems using inertial sensors for human and robotic motion tracking.
Professor Jun-Sang Lee's research lab specializes in multiscale modeling and simulation of complex interfacial phenomena in energy materials, biological systems, and soft matter. The lab focuses on understanding dynamic processes at the nanoscale, including lithium dendrite growth in batteries, stomatal regulation in CAM plants, emulsion rheology, protein-ligand interactions, and nanoscale friction. By combining molecular dynamics simulations with experimental validation, the lab aims to uncover fundamental mechanisms governing interfacial dynamics and material behavior under extreme conditions. Their work bridges theoretical modeling with practical applications in energy storage, biotechnology, and biomedical engineering.
Professor Ha-Neul Kim's research lab specializes in advanced functional materials and flexible electronics, with a strong focus on next-generation electronic skins, soft and stretchable sensors, and liquid metal-based electronics. The lab pioneers ultraflexible, transparent, and highly sensitive pressure-sensing systems for real-time, high-resolution imaging of mechanical stimuli, while also exploring novel fabrication techniques such as meniscus-guided printing for stable, high-resolution liquid metal patterns on soft substrates. Their work spans fundamental material design—such as cellulose/nanowire hybrids and 2D materials like MoS₂—toward applied technologies in human-machine interfaces, wearable health monitoring, and intelligent action recognition systems.
Professor JongMun Baek's research lab specializes in software engineering with a focus on cost-effective software testing, quality of service (QoS) prediction in web services, and software cost estimation models. The lab explores innovative approaches to test case prioritization using historical data, addresses challenges like the cold start problem in service QoS prediction, and develops systematic methodologies for agile and product-line software development cost estimation. Their work emphasizes practical, scalable solutions that enhance software quality, productivity, and maintainability in evolving software systems.
Professor Min-Sup Sim's research lab specializes in microbial biogeochemistry, with a focus on sulfur isotope dynamics in microbial metabolisms and their applications in understanding Earth's biogeochemical evolution. The lab investigates the isotopic fractionation patterns during microbial sulfate reduction, particularly how physiological and environmental factors—such as iron and nitrogen availability—affect sulfur isotope signatures. Using both modern microbial cultures and geological archives, the lab deciphers the links between microbial physiology, metabolic pathways, and the sulfur isotope record over geological time.
Professor Ja-ho Koo's research lab specializes in atmospheric chemistry and air quality, focusing on tropospheric ozone depletion events, aerosol pollution, and the transport of air pollutants in the Arctic and Southern Hemisphere. The lab integrates satellite remote sensing, in situ measurements, and advanced modeling techniques—including multiple linear regression, machine learning, and chemical transport models—to understand the impacts of anthropogenic emissions and climate variability on air quality and atmospheric composition. Key research directions include the role of halogen chemistry in Arctic ozone depletion, long-range transport of pollutants, and the climatological trends of trace gases and aerosols in polar regions. The lab also investigates the interplay between meteorological patterns and air pollution events, particularly in sensitive high-latitude environments.
Professor In Gwun Jang's research lab specializes in computational biomechanics and bio-inspired design, focusing on advanced simulation techniques for bone remodeling, implant design, and medical imaging. The lab develops innovative topology optimization methods to create efficient, patient-specific structures—such as non-pneumatic tires and trabecular bone microstructures—by integrating medical imaging, finite element analysis, and mechanical optimization. A key research direction involves enhancing computational efficiency and accuracy in subject-specific modeling through localized finite element analysis and regression-based Hounsfield unit conversion for bone mineral density estimation. The lab also pioneers design space optimization to dynamically evolve structural layouts during simulation, pushing the boundaries of traditional topology optimization.
Professor Sang Eun Yoon's research lab focuses on advancing precision oncology through the integration of molecular diagnostics, liquid biopsies, and microbiome analysis in hematologic malignancies and solid tumors. The lab investigates the role of the gut microbiome in lymphomagenesis and treatment response, particularly in diffuse large B-cell lymphoma, while also exploring circulating tumor DNA (ctDNA) as a noninvasive tool for monitoring primary central nervous system lymphoma and metastatic colorectal cancer. A key focus is on improving risk stratification and therapeutic decision-making using molecular and clinical biomarkers, including tumor laterality and KRAS status in colorectal cancer.
Professor Jae-hwan Choi's research lab specializes in neurological disorders, with a focus on cerebrovascular diseases, hereditary ataxias, and inflammatory myopathies. The lab employs advanced neuroimaging, genetic analysis, and immunohistochemical techniques to investigate the pathophysiology and diagnosis of acute vestibular syndromes, episodic ataxia, and autoimmune myopathies. A key emphasis is on improving clinical diagnosis through bedside neurologic examinations and molecular diagnostics, particularly in stroke and rare neurological conditions.
Professor Jae-Woo Jo's research lab specializes in orthopedic trauma and regenerative medicine, focusing on innovative surgical techniques and biomaterials for complex bone fractures and impaired bone healing. The lab investigates advanced fixation methods such as modified surgical approaches and miniplate-augmented tension-band wiring for patellar and tibial plateau fractures, aiming to improve fracture union and functional recovery. Additionally, the lab develops bioactive nanocomplexes—like tannic acid-alendronate systems—to enhance osteoblast function, reduce inflammation, and accelerate bone regeneration, particularly in conditions like bisphosphonate-associated subtrochanteric fractures. The research integrates clinical outcomes with in vitro biomaterials testing to bridge translational gaps in orthopedic care.
Professor Yong Joo Kim's research lab focuses on pediatric immunology, with a central emphasis on the role of human breast milk in shaping infant immunity and preventing immune-related diseases. The lab investigates the bioactive components of colostrum and human milk, including immunomodulatory factors, antibodies, and microRNAs, to understand their protective effects against allergies, asthma, autoimmune disorders, and inflammatory bowel disease. Additionally, the lab conducts clinical studies on hepatitis B vaccination responses in infants, analyzing anti-HBs seropositivity, waning immunity, and booster efficacy, highlighting the importance of long-term immunity monitoring. The lab also contributes to improving clinical education and practice in human milk feeding to enhance breastfeeding support in healthcare settings.
Professor Yumi Lee's research lab focuses on environmental health and chronic disease epidemiology, with a central emphasis on the role of persistent organic pollutants (POPs) in metabolic and cardiovascular diseases. The lab investigates how low-dose exposure to lipophilic environmental toxins—such as organochlorine pesticides and polychlorinated biphenyls—impacts insulin secretion, beta-cell function, and obesity-related pathophysiology. Additionally, the lab explores public health adaptation strategies in vulnerable coastal communities facing climate change, particularly sea level rise. These interdisciplinary efforts bridge environmental toxicology, metabolic disease mechanisms, and health policy.
Professor Gihyo Hong's research lab specializes in molecular diagnostics and virology, with a focus on emerging infectious diseases such as SARS-CoV-2 and MERS-CoV. The lab investigates viral pathogenesis, host immune responses, and diagnostic accuracy through advanced molecular techniques like real-time RT-PCR and next-generation sequencing. Key research directions include viral load quantification, serological response kinetics, and the development of quality assurance tools for molecular testing in public health emergencies.
Professor Hyun-Soo Cho's research lab focuses on understanding the molecular and cellular mechanisms underlying hematological malignancies, lymphatic system development, and immune regulation in cancer. The lab investigates key signaling pathways such as Hippo/YAP/TAZ in lymphatic endothelial cell biology, explores the role of innate immune cells—particularly NK cell subsets—in anti-tumor immunity, and examines immune checkpoint molecules like PD-1/PD-L1 in primary central nervous system lymphoma. Additionally, the lab studies mechanisms of treatment resistance in acute myeloid leukemia and evaluates therapeutic strategies targeting apoptosis regulators and inflammatory pathways in bone and tooth repair.
Professor Hyuk Choi's research lab focuses on the interplay between nanoscale material properties and biological microenvironments, with a strong emphasis on magnetic nanostructures and their applications in biomedicine. The lab investigates how atomic-scale surface features—such as steps on single-crystal substrates—affect magnetic anisotropy and phase transitions in ultrathin films, while also exploring the role of mechanical and biochemical cues in intervertebral disc degeneration. A key direction involves developing advanced microfluidic platforms and optical techniques to study cellular interactions, inflammation, and circulating tumor cell separation. The lab integrates materials science, biophysics, and regenerative medicine to address challenges in neurodegenerative diseases, cancer diagnostics, and tissue engineering.
Professor Hyung Kim's research lab investigates the neural mechanisms underlying value-based decision-making, habit formation, and memory within the basal ganglia, with a focus on how distinct subregions of the striatum—particularly the caudate nucleus and tail of the striatum—encode and maintain long-term and flexible value memories. The lab combines non-human primate electrophysiology, fMRI in humans, and tract-tracing techniques to map functional and anatomical specializations across basal ganglia circuits. A central theme is understanding how dopamine signals and topographically organized inputs differentially support learning, memory retention, and automatic behavioral control.
Professor Chul-Hee Lee's research lab specializes in video and image quality assessment, with a strong focus on modeling human visual perception for objective quality measurement. The lab develops advanced signal processing techniques—such as wavelet transforms, edge-aware analysis, and spatiotemporal frequency modeling—to create accurate, perceptually aligned video quality metrics. Key research directions include objective video quality assessment, image resizing with perceptual fidelity, and robust moving object detection in complex video environments. The lab also contributes to standardization efforts through subjective testing methodologies and their integration with objective models.
