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 Moon Nyeo Park's research lab focuses on the molecular mechanisms of cancer and liver diseases, with a particular emphasis on mitochondrial dysfunction, oxidative stress, and the regulatory roles of microRNAs and exosomes in the tumor microenvironment. The lab investigates natural product-derived compounds—especially herbal formulations like BK002—for their multi-targeted anti-cancer and hepatoprotective effects, aiming to overcome drug resistance in aggressive cancers such as glioblastoma and castration-resistant prostate cancer. By integrating systems biology and translational research, the lab explores how natural compounds modulate key signaling pathways, miRNA expression, and redox homeostasis to suppress tumor progression and metastasis.
Professor Sang-Yeop Chung's research lab specializes in advanced cement-based materials, with a strong focus on sustainable construction materials and lightweight concrete systems. The lab investigates the microstructural characteristics, pore distribution, and mechanical properties of foamed and lightweight aggregate concretes, emphasizing the role of supplementary materials such as recycled glass, nanosilica, and fly ash. Using advanced imaging techniques like micro-computed tomography and automated air void analysis, the lab aims to optimize material performance for thermal insulation, durability, and energy efficiency in building applications.
Professor Jung-Joon Sung's research lab specializes in neuroimmunology and neurodegenerative diseases, with a primary focus on motor neuron disorders such as amyotrophic lateral sclerosis (ALS) and inflammatory demyelinating polyneuropathies like Guillain-Barré syndrome (GBS) and chronic inflammatory demyelinating polyneuropathy (CIDP). The lab investigates the pathophysiology of these conditions using advanced electrophysiological and imaging techniques, with particular emphasis on identifying early prognostic biomarkers and optimizing treatment timing. Recent work includes deep learning-based radiological phenotyping and quantitative vocal analysis to detect subclinical disease progression.
Professor Jung-Joon Sung's research lab focuses on the pathophysiological mechanisms underlying neurodegenerative diseases, particularly amyotrophic lateral sclerosis (ALS) and neuromyelitis optica (NMO). The lab investigates metabolic alterations such as hypolipidemia and homocysteine toxicity in motor neuron degeneration, explores the role of hypoxia and oxidative stress in disease progression, and develops non-invasive diagnostic tools like capnography and electrophysiological markers (e.g., SIMUNIX) for early detection and management. The lab also evaluates therapeutic strategies, including non-invasive ventilation and disease-modifying treatments, to improve patient outcomes.
Professor Jongsoo Lee's research lab specializes in advanced simulation-driven design optimization, with a focus on multidisciplinary engineering systems involving structural mechanics, materials behavior, and nuclear energy applications. The lab develops and applies meta-modeling techniques—such as Kriging and surrogate modeling—combined with evolutionary algorithms like genetic and micro-genetic algorithms to solve complex, constrained optimization problems in aerospace, automotive, and nuclear engineering. Research emphasizes improving computational efficiency, constraint feasibility, and reliability in design under uncertainty, particularly for high-performance materials and components under extreme conditions. The lab also integrates statistical and probabilistic methods to model material fatigue, viscoplasticity, and system-level performance in safety-critical applications.
Professor Joon Heo's research lab specializes in advanced remote sensing, 3D modeling, and intelligent systems for environmental and urban applications. The lab focuses on radiometric normalization of multispectral imagery, automated 3D reconstruction from laser scanning data, and atmospheric correction for accurate surface reflectance estimation. It also develops energy-efficient control systems for smart environments using wireless sensor networks. The lab integrates geometric modeling, point cloud processing, and signal analysis to solve real-world challenges in infrastructure monitoring, building information modeling (BIM), and sustainable energy management.
Professor Jaehun Jung's research lab specializes in health informatics, temporal knowledge reasoning, and large language model optimization. The lab focuses on leveraging knowledge graphs—particularly temporal and dynamic variants—for improved medical decision-making and clinical reasoning, with applications in public health outcomes such as post-COVID complications and statin therapy in dialysis patients. A key research direction involves enhancing the reasoning capabilities of pre-trained language models through structured explanation generation and logical consistency, using techniques like Maieutic Prompting. The lab also explores efficient, context-aware knowledge retrieval in dialogue systems via attention-driven path traversal over knowledge graphs.
Professor Tae Hyun Sung's research lab specializes in advanced functional materials and smart sensing technologies, with a focus on laser additive manufacturing of high-performance coatings and flexible piezoelectric sensors. The lab investigates the microstructural evolution and mechanical properties of laser-clad Ti-based coatings, emphasizing in-situ phase synthesis and solidification dynamics for enhanced durability. Simultaneously, the lab pioneers next-generation wearable sensors using 2D materials like tungsten disulfide (WS2) to harvest energy from human motion, targeting applications in self-powered health monitoring systems. The integration of materials science, additive manufacturing, and energy harvesting defines the lab’s multidisciplinary approach.
Professor Daekee Lee's research lab focuses on the molecular mechanisms underlying signal transduction in cancer and inflammatory diseases, with a particular emphasis on the EGFR/ERBB family of receptor tyrosine kinases, metallothionein regulation, and NADPH oxidase-mediated redox signaling. The lab investigates how dysregulation of these pathways contributes to tumorigenesis, therapy resistance, and tissue injury, using genetically engineered mouse models and molecular cell biology approaches. Key research directions include the role of ERBB3 in colorectal cancer progression, the regulation of oxidative stress through Nox1/NoxO1 signaling, and the function of growth factors like epiregulin in development and disease. The lab integrates in vivo models with biochemical and genomic analyses to uncover novel therapeutic targets in cancer and inflammatory disorders.
Professor Jinho Ahn's research lab specializes in advanced materials and thin film technologies for next-generation electronic and energy applications. The lab focuses on atomic layer deposition (ALD)-based materials engineering, particularly for high-k dielectrics, resistive switching oxides, and core-shell nanostructures. Key research directions include the development of nitrogen-doped oxides for reliable MOSFET gate dielectrics, plasmonically enhanced photocatalysts using metal-semiconductor heterostructures, and stable cathode materials for lithium-ion batteries with suppressed cation migration. The lab integrates fundamental materials characterization with device-level performance evaluation to enable durable, high-performance electronic and energy storage systems.
Professor Jinho Ahn's research lab specializes in advanced materials characterization and nanoscale device development, with a focus on nanomaterials for next-generation electronics and energy applications. The lab investigates functional materials such as 2D semiconductors, high-κ dielectrics, and advanced metallic alloys using cutting-edge techniques like scattering-type scanning near-field optical microscopy (s-SNOM) and microwave annealing. Key research directions include optoelectronic memory devices, extreme ultraviolet lithography, superplastic deformation in nanocrystalline metals, and high-performance stainless steels for harsh environments. The lab bridges fundamental materials science with practical applications in semiconductor technology, energy storage, and structural materials.
Professor Jae Seung Kang's research lab focuses on the multifaceted roles of vitamin C (sodium ascorbate) and natural compounds like red ginseng in modulating immune responses, cancer progression, and neurodegenerative diseases. The lab investigates the mechanisms by which these compounds influence immune cell activation, tumor cell apoptosis, iron metabolism in melanoma, and inhibition of key enzymes such as BACE1 involved in Alzheimer’s disease. A central theme is the context-dependent biological effects of vitamin C, particularly its dual role in promoting cell death in cancer cells while protecting against inflammation-induced organ damage. The lab also explores the regulation of angiogenesis through VEGF modulation, highlighting the therapeutic potential of micronutrients in chronic disease prevention and treatment.
Professor Kyung Ju Lee's research lab focuses on interdisciplinary environmental and health sciences, integrating molecular biology, public health, and environmental medicine. The lab investigates the impact of environmental factors—such as urban greenery, air quality, and forest types—on maternal and metabolic health outcomes, as well as the role of molecular pathways (e.g., COX-2, IDO, and Tregs) in immune regulation and cancer tolerance. It also explores biophysical and psychological responses to natural environments, particularly in chronic disease populations, and develops innovative, nature-based interventions for mental well-being during public health crises like the COVID-19 pandemic. The lab emphasizes translational research that bridges environmental sustainability with preventive healthcare strategies.
Professor Sang Hag Lee's research lab specializes in otorhinolaryngology and sleep medicine, focusing on the anatomical and molecular mechanisms underlying upper airway disorders, particularly obstructive sleep apnea (OSA). The lab investigates structural changes in the upper airway associated with breathing patterns—such as open-mouth breathing—and their impact on OSA severity and treatment outcomes. Additionally, the lab explores the role of innate immune molecules, including defensins and surfactant protein-A, in chronic rhinosinusitis and mucosal immunity, aiming to identify novel therapeutic targets. Their work integrates clinical polysomnography, histopathological analysis, and molecular biology techniques to advance understanding of airway physiology and disease.
Professor Tea-Sung Jun's research lab specializes in the micro-mechanical behavior and deformation mechanisms of advanced light metal alloys, particularly titanium and magnesium alloys. The lab focuses on understanding strain rate sensitivity, local plasticity, and superplasticity at the microscale through in-situ mechanical testing, electron backscatter diffraction (EBSD), and nanoindentation. Key research directions include the role of microstructure—such as grain orientation, texture, and phase morphology—in determining mechanical properties under varying strain rates and temperatures, with applications in high-performance aerospace and structural materials.
Professor Hyun Ho Han's research lab focuses on translational cancer biology, particularly in prostate and breast cancers, with an emphasis on understanding tumor heterogeneity, therapy resistance, and metastatic progression. The lab integrates multi-omics approaches—including genomics, transcriptomics, and bioinformatics—across patient-derived models such as PDXs, organoids, and cell lines to identify intrinsic subtypes and molecular drivers of disease evolution. A key research direction involves investigating lineage plasticity in castration-resistant prostate cancer and the role of the tumor microenvironment, especially the bone marrow vascular niche, in maintaining or awakening dormant tumor cells in breast cancer. The lab also explores clinical implications, such as biomarker development (e.g., PSA/PAP ratio) and personalized treatment strategies.
Professor Kitae Jang's research lab specializes in transportation systems engineering with a focus on traffic safety, urban mobility, and intelligent transportation systems. The lab investigates macroscopic traffic dynamics, pedestrian and vehicle crash patterns, signal control optimization, and the impact of environmental conditions—such as rainfall—on driving behavior. Key research directions include the development of macroscopic fundamental diagrams, safety analysis in high-occupancy vehicle facilities, and signal timing strategies to mitigate congestion and spillback in oversaturated networks.
Professor Dongryul Oh's research lab specializes in radiation oncology and cancer survivorship, focusing on the long-term complications of radiotherapy, particularly radiation-induced insufficiency fractures and radiation proctitis. The lab investigates dosimetric predictors, sarcopenia, and prognostic factors in patients with gynecological and pelvic malignancies, aiming to improve treatment outcomes and quality of life. Their work integrates medical imaging, radiation biology, and clinical oncology to refine radiotherapy strategies and identify high-risk patients.
Professor Euitae Kim's research lab specializes in molecular imaging and pharmacological neuroimaging, focusing on the neurobiological mechanisms underlying schizophrenia and other CNS disorders. The lab develops and validates advanced PET imaging techniques—such as partial volume correction methods like SFS-RR—to improve the accuracy of measuring dopamine synthesis capacity and receptor occupancy. By integrating pharmacokinetic-pharmacodynamic (PK-PD) modeling with molecular imaging, the lab investigates how antipsychotic dosing and treatment timing influence brain function and clinical outcomes, particularly in early-stage schizophrenia. The research emphasizes translational applications, aiming to support early diagnosis, personalized treatment, and improved therapeutic strategies.
Professor Panki Kim's research focuses on stochastic processes, particularly Lévy processes and subordinate Brownian motions, with a strong emphasis on potential theory and the analysis of transition densities and heat kernels. His work centers on deriving sharp two-sided estimates for Green functions and transition densities of non-local operators, especially in irregular or bounded domains such as C¹,¹ and κ-fat sets. He investigates processes with general Lévy measures and generators involving Bernstein functions, extending classical results to broader classes of purely discontinuous and non-diffusive processes. His research bridges probability theory, harmonic analysis, and partial differential equations, particularly in the context of stable and relativistic processes.
