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 Sug-Bong Choe's research lab specializes in the dynamic behavior of magnetic nanostructures, with a focus on magnetization reversal mechanisms in thin films and multilayers. The lab employs advanced time-resolved magneto-optical imaging techniques to investigate fundamental processes such as domain wall motion, nucleation, and vortex core dynamics at the nanoscale. Their work reveals how intrinsic material properties—such as chirality, coercivity distribution, and activation volumes—govern magnetic switching behavior under ultrafast and local field excitation.
Professor Junhong Park's research lab specializes in dynamic structural health monitoring, smart materials, and vibration-based diagnostics using advanced signal processing and artificial intelligence. The lab focuses on developing innovative methods to assess structural integrity through vibration analysis, particularly in flexible electronics, mechanical assemblies, and automotive systems. Key research directions include the characterization of printed conductive films, real-world emission monitoring in vehicles, and AI-driven diagnostic tools for medical and mechanical applications.
Professor Sang Beom Jun's research lab specializes in neuroengineering and biomedical optics, focusing on developing advanced neuromodulation techniques using light-responsive nanomaterials and smart biomaterials. The lab explores optogenetic and photothermal stimulation strategies—particularly using gold nanorods and plasmonic effects—for precise, minimally invasive activation of neural and glial cells. A key research direction involves designing implantable neural interfaces, such as shape-memory alloy-based cochlear electrodes, to enhance neural stimulation efficiency and spatial resolution. The lab also investigates functional hydrogels for controlled delivery of neurotrophic factors and the study of neuronal and astrocytic signaling in physiologically relevant environments.
Professor Dong-Kun Lee's research lab focuses on interdisciplinary environmental and biomedical research, integrating computational modeling, molecular biology, and remote sensing to address critical challenges in climate resilience and human health. The lab investigates the impact of climate change on coastal and urban flooding risks using machine learning and geospatial analysis, while also exploring molecular mechanisms underlying androgen signaling, thermoregulation in neural circuits, and adipogenesis regulation. A key strength lies in combining advanced biological techniques—such as single-cell RT-PCR and transgenic mouse models—with data-driven approaches to uncover regulatory pathways in disease and metabolism.
Professor Young Joo Suh's research lab specializes in diagnostic radiology and medical imaging, with a focus on cardiovascular and oncologic imaging in the context of systemic diseases such as COVID-19 and breast cancer. The lab investigates the diagnostic accuracy of imaging biomarkers—particularly D-dimer and MRI findings—for conditions like pulmonary embolism, cardiac involvement in post-COVID syndrome, and breast cancer detection. Key research directions include optimizing imaging protocols for early diagnosis, evaluating contrast agent safety, and improving the characterization of liver and breast lesions using advanced MRI and ultrasound-guided biopsy techniques. The lab integrates clinical imaging with patient outcomes to enhance diagnostic precision and guide personalized patient management.
Professor Jong-Ho Park's research lab specializes in advanced control systems and optimization methods for unmanned aerial vehicles (UAVs), with a strong focus on autonomous navigation, collision avoidance, and terrain analysis using stereo vision and depth sensing. The lab also conducts cutting-edge research in numerical analysis and domain decomposition methods for solving complex convex optimization and variational inequality problems, particularly in nonlinear and nonsmooth settings. Additionally, the lab explores sustainable agricultural applications through the development and evaluation of natural plant-based extracts as eco-friendly pest control agents. The integration of control theory, computational mathematics, and real-world applications in robotics and agriculture defines the lab’s interdisciplinary approach.
Professor Seung S. Lee's research lab specializes in micro- and nanoscale devices for energy and environmental applications, with a focus on piezoelectric and thermoelectric microsensors, hydrogen sensing technologies, and smart thermal management systems. The lab develops advanced microfabricated sensors—such as micromachined piezoelectric cantilevers and catalytic thermoelectric hydrogen sensors—using innovative materials like ZnO, CoSb3, and transparent conductive films. Key research directions include enhancing sensor sensitivity and reliability through novel fabrication techniques, including multilayer flat cantilever structures and single-step deposition on textured substrates. The lab also explores energy-efficient, aesthetically integrated heating solutions for aquatic environments, emphasizing thermal uniformity and system efficiency.
Professor Sang Ki Park's research lab focuses on cellular signaling mechanisms underlying neurological and psychiatric disorders, with a central emphasis on the mitochondria-associated ER membrane (MAM) as a key signaling hub regulating calcium homeostasis, mitochondrial function, and cellular stress responses. The lab employs innovative proximity labeling techniques like Contact-ID to map subcellular proteomes and investigates signaling molecules such as DISC1, PKA-RII, and Ndel1 in neurodevelopment and neuronal function. They also develop advanced fluorescent probes to visualize reactive oxygen species in neuroinflammatory conditions, linking oxidative stress to brain disorders. Their work bridges cell biology, neuroscience, and chemical biology to uncover molecular mechanisms in mental illness and neurodegeneration.
Professor Dongwhan Lee's research lab specializes in bioinorganic chemistry, focusing on the synthesis and characterization of synthetic models for non-heme diiron enzymes, particularly ribonucleotide reductase and soluble methane monooxygenase. The lab investigates the electronic and magnetic properties of diiron complexes, with an emphasis on understanding the activation of dioxygen and the formation of high-valent iron-oxo intermediates relevant to enzymatic catalysis. Their work combines molecular synthesis, spectroscopic techniques (such as Mössbauer and EPR), and structural analysis to mimic and probe the reactivity of biological iron centers.
Professor Kyomin Jung's research lab specializes in algorithmic and probabilistic methods for large-scale networked systems, with a focus on influence maximization in social networks, distributed computing, and stochastic optimization. The lab develops efficient, scalable, and robust algorithms for problems ranging from emotion classification in natural language processing to throughput-optimal scheduling in wireless networks and fast convergence in distributed averaging. Key themes include the integration of theoretical rigor with practical performance, leveraging graph structures, Markov chains, and variational methods to solve real-world challenges in networked systems and machine learning.
Professor Sangyeon Pak's research lab specializes in two-dimensional (2D) materials, particularly transition metal dichalcogenides like monolayer MoS₂, focusing on their electronic, optoelectronic, and mechanical properties. The lab explores strain engineering, contact modulation, heterojunction design, and defect engineering to optimize device performance in flexible and high-performance field-effect transistors, photodetectors, and heterostructures. Key research directions include understanding and controlling interfacial interactions, carrier dynamics, and built-in potential in 2D heterostructures for next-generation nanoelectronics and optoelectronics.
Professor Sun Och Yoon's research lab focuses on molecular oncology and cancer biology, with a strong emphasis on understanding the pathogenesis, prognostic markers, and therapeutic targets in hematologic and gastrointestinal malignancies. The lab investigates non-coding RNAs, such as microRNAs and long non-coding RNAs (e.g., HOTAIR), in tumor progression, metastasis, and treatment resistance, particularly in diffuse large B-cell lymphoma (DLBCL) and gastric cancer. It also explores the tumor microenvironment, especially the role of residual disease and stromal signaling post-surgery, to identify early relapse predictors. Additionally, the lab examines the impact of lifestyle and nutraceutical interventions—like soy isoflavones and exercise—on metabolic and oxidative stress markers in cancer-preventive contexts.
Professor Eun-Hee Shin's research lab focuses on host-pathogen interactions, particularly in parasitic and infectious diseases, with a strong emphasis on immunological mechanisms underlying host defense. The lab investigates the roles of immune cells such as eosinophils in combating helminth infections, explores host-directed therapies to overcome drug resistance in cancer, and examines the pathogenesis and diagnosis of bacterial and parasitic infections in endemic regions. Their work integrates molecular parasitology, immunology, and translational medicine to develop novel therapeutic and diagnostic strategies.
Professor Chang-Sik Oh's research lab focuses on plant-microbe interactions, particularly the molecular mechanisms underlying bacterial pathogenesis in plants and the plant immune response. The lab investigates virulence factors in bacterial pathogens such as *Erwinia amylovora*, including type III secretion systems and harpin proteins, as well as host factors that modulate disease development. A central theme is the regulation of programmed cell death (PCD) in plants, with a focus on signaling components like MAPKKKs and 14-3-3 proteins in disease resistance. The lab employs molecular genetics, yeast two-hybrid screening, and functional genomics to dissect host-pathogen interactions and identify key players in plant immunity and pathogenicity.
Professor In-Hwan Kim's research lab specializes in lipid science and biocatalysis, focusing on the modification and valorization of natural lipids for nutraceutical and functional food applications. The lab investigates the compositional changes of bioactive lipids—such as tocopherols, tocotrienols, phytosterols, and γ-oryzanol—during processing, particularly in rice and other cereal milling fractions. A key research direction involves the use of immobilized lipases in structured lipid synthesis via acidolysis and interesterification, employing both conventional solvents and green media like supercritical CO₂. The lab also explores the stability and functional properties of lipid components under various thermal and chemical conditions.
Professor Seunghoon Lee's research lab specializes in high-frequency wireless communication systems, with a focus on millimeter-wave and terahertz (THz) band transceivers, integrated RF/IF circuits, and advanced signal processing techniques for next-generation wireless systems. The lab develops low-power, high-performance transmitters and oscillators using advanced CMOS processes, emphasizing beamforming, I/Q calibration, and signal integrity in wideband and multi-functional systems. Recent work also extends into wireless machine learning, particularly federated learning over wireless channels, where statistical signal processing and optimization are applied to improve communication efficiency and system robustness. The lab's research bridges integrated circuit design, wireless communication, and intelligent signal processing for emerging applications in 6G, radar-communications integration, and terahertz connectivity.
Professor Woonggyu Jung's research lab specializes in developing advanced optical imaging and sensing technologies for biomedical applications. The lab focuses on miniaturized, portable, and endoscopic optical coherence tomography (OCT) systems, as well as novel fiber-optic and MEMS-based probes for high-resolution, real-time tissue diagnostics. Key research directions include point-of-care diagnostics, multiphoton microscopy integration, and noninvasive 3D optical biopsy using endoscopic OCT. The lab also explores sensitive optical sensors based on thermooptic effects in polymer waveguides for biomedical monitoring.
Professor Seung Yong Hwang's research lab focuses on environmental health and molecular toxicology, investigating the biological impacts of environmental exposures—particularly volatile organic compounds (VOCs) and industrial pollutants—on human health. The lab employs high-throughput 'omics' technologies, including microarray analysis, epigenetic profiling (DNA methylation), and lncRNA expression analysis, to understand molecular mechanisms underlying disease susceptibility. A key research direction involves identifying biomarkers and genetic responses associated with combined chemical exposures, especially in occupational and environmental settings. The lab also explores the role of endogenous signaling molecules, such as type I interferons, in immune and hematopoietic regulation.
Professor Joo-Cheol Park's research lab focuses on the molecular and cellular mechanisms underlying tooth and bone development, with a central emphasis on the transcription factor nuclear factor I-C (NFI-C). The lab investigates NFI-C's role in regulating odontoblast differentiation, dentin and cementum formation, and postnatal bone homeostasis. Key research directions include the interplay between NFI-C and TGF-β1 signaling, extracellular matrix regulation, and lineage commitment in mesenchymal stromal cells. The lab also explores stage-specific functions of odontogenic proteins such as ODAM and APin in amelogenesis and mineralized tissue formation.
Professor Hyeoneui Kim's research lab focuses on health informatics, human-computer interaction, and ethical AI, with a strong emphasis on improving patient-centered care through technology. The lab investigates readability and usability of health information, develops patient-informed tools such as pictographs and tiered consent systems, and explores the psychological and organizational factors affecting workforce well-being, including burnout and presenteeism. A key focus is on creating explainable AI (XAI) frameworks that are both standardized and stakeholder-sensitive, ensuring transparency and trust in AI applications across healthcare and organizational settings.
