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 Tae Hee Oh's research lab focuses on neurotrophic factors and their role in neuromuscular regulation, particularly the molecular mechanisms underlying muscle maintenance and acetylcholinesterase regulation. The lab investigates trophic proteins such as sciatin, isolated from peripheral nerves, to understand their influence on muscle function and survival in both embryonic and denervated adult muscle cultures. The research also extends into clinical applications, including the evaluation of surgical outcomes in cardiac valve surgery and minimally invasive surgical techniques, reflecting a translational approach from basic neurobiology to clinical surgery. The lab integrates cell biology, immunohistochemistry, and clinical data analysis to explore nerve-muscle interactions and surgical innovation.
Professor Dae-Hyun Jung's research lab specializes in the development of intelligent monitoring and control systems for sustainable agriculture and animal welfare, integrating artificial intelligence, sensor technologies, and biomedical imaging. The lab focuses on applying deep learning and signal processing to analyze livestock behavior, optimize hydroponic nutrient management, and enable early detection of plant diseases through hyperspectral imaging. Additionally, the lab explores neurobiological mechanisms underlying human decision-making, particularly in social contexts, using fMRI. Their work bridges agricultural technology, environmental monitoring, and computational neuroscience to support efficient, data-driven solutions in food production and health sciences.
Professor Jae Gun Kwak's research lab specializes in pediatric and congenital cardiac surgery, with a primary focus on the long-term outcomes and durability of bioprosthetic valves in the pulmonary position, particularly in patients with Tetralogy of Fallot. The lab investigates hemodynamic performance, imaging-based assessment (including cardiac MRI), and surgical strategies to optimize prosthesis selection based on patient age and valve size. Additional research directions include neuroprotection during complex cardiac procedures, such as unilateral cerebral perfusion in aortic arch reconstruction, and surgical management of infective endocarditis and arrhythmias in patients with complex congenital heart disease.
Professor Geon-Young Park's research lab specializes in cerebrovascular interventions, focusing on the endovascular and microsurgical management of cerebral aneurysms and carotid artery disease. The lab investigates stent and flow-diverter technologies, particularly in complex cases such as recurrent aneurysms after prior coiling or in patients with prior radiosurgery. Key research directions include optimizing stent design to reduce embolic complications, evaluating antiplatelet therapy efficacy (e.g., ticagrelor vs. clopidogrel), and identifying morphological predictors of aneurysm rupture using advanced 3D angiographic imaging.
Professor Young Jae Cho's research lab focuses on respiratory and critical care medicine, with a strong emphasis on lung cancer, sleep apnea, and pulmonary diseases such as non-tuberculous mycobacterial disease (NTM-PD). The lab investigates clinical epidemiology, genetic susceptibility, and diagnostic strategies in non-small cell lung cancer, particularly in never-smokers, while also exploring the impact of obstructive sleep apnea on respiratory and systemic outcomes. Additionally, the lab examines hemostatic complications in critically ill patients with liver cirrhosis and evaluates diagnostic and therapeutic approaches for ground-glass nodules. Their work integrates clinical data, genetic analysis, and health informatics to improve patient stratification and outcomes.
Professor Yosep Han's research lab specializes in theoretical computer science and formal language theory, with a focus on automata theory, regular languages, and their structural properties. The lab investigates state complexity, determinism, and minimization in finite automata, particularly for special language classes such as prefix-free, infix-free, and finite languages. It also explores algorithmic problems like primality testing and decomposition of regular languages, with an emphasis on polynomial-time solutions. Additionally, the lab contributes to applied areas such as personalized recommendation systems in IoT environments, blending theoretical foundations with practical applications.
Professor Tae Hyung Kim's research lab specializes in advanced oxide semiconductor devices and flexible/biocompatible electronics, focusing on high-performance thin-film transistors (TFTs) for next-generation displays and implantable bioelectronics. The lab develops novel materials and fabrication techniques—such as selenium capping layers, oxygen scavenger layers, and carrier-induced interlayers—to enhance the stability, responsivity, and low-temperature processability of amorphous IGZO and ITO-based TFTs. A key research direction involves creating biodegradable and biocompatible neuromorphic devices using hyaluronic acid for safe, implantable neural interfaces. The lab also pioneers innovative printing and patterning methods, including EHD jet printing, for low-cost, flexible, and high-precision optoelectronic and display applications.
Professor Jemin Kim's research lab specializes in regenerative medicine and dermatological therapeutics, focusing on innovative biological and device-based treatments for skin aging, hair loss, and scarring. The lab investigates the therapeutic potential of stem cell-derived conditioned media, collagen peptides, and advanced energy-based devices such as fractional microneedle radiofrequency and fractional lasers for skin rejuvenation and disease management. A key emphasis is placed on developing AI-driven diagnostic tools to objectively assess scar severity, enhancing clinical decision-making. The lab also explores the gut–brain axis in relation to chronic conditions like migraine, particularly in the context of gastrointestinal and skin disorders.
Professor Min Jeong Lee's research lab specializes in the immunomodulatory and antioxidative effects of probiotic bacteria and carotenoids, with a focus on their roles in preventing allergic diseases and protecting against UV-induced skin damage. The lab investigates how specific strains of Lactobacillus, such as L. brevis HY7401 and L. casei KCTC 3260, can regulate immune responses and reduce allergic sensitization through Th1/Th2 balance modulation. Additionally, the lab explores the photoprotective potential of natural carotenoids, particularly alpha- and beta-carotene, in mitigating UVA and UVB radiation-induced skin inflammation and carcinogenesis. The research integrates microbiology, immunology, and nutritional science to develop functional foods and oral supplements for disease prevention.
Professor Gyuri Kim's research lab focuses on the development of bioactive natural compounds and functional biomaterials for dermatological and cardiovascular applications. The lab investigates natural products with anti-pigmentary and skin-protective properties, particularly in the context of melanogenesis regulation and skin barrier integrity. It also explores the biological effects of emerging technologies, such as 5G electromagnetic radiation, on skin physiology and pigmentation. Additionally, the lab contributes to cardiac safety assessment in drug development through the evaluation of biomarkers and diagnostic platforms.
Professor Don Il Ham's research lab specializes in retinal and choroidal diseases, with a focus on the pathogenesis, imaging, and immunological mechanisms of age-related macular degeneration (AMD), uveitis, and Vogt-Koyanagi-Harada (VKH) disease. The lab employs advanced imaging techniques such as ultra-widefield angiography and OCT (including EDI-OCT) to study structural and functional changes in the retina and choroid, particularly in relation to disease progression and visual prognosis. A key area of investigation involves the role of autoimmunity in ocular diseases, using animal models to explore antigen-specific tolerance and uveitogenicity of retinal proteins such as RPE65. The lab also develops and evaluates experimental models of retinal ischemia and neovascularization, particularly in albino rat models of retinal vein occlusion. These studies aim to improve diagnostic accuracy and inform therapeutic strategies for retinal vascular and degenerative disorders.
Professor Moon Suk Bang's research lab specializes in pediatric neuromuscular and musculoskeletal rehabilitation, with a focus on cerebral palsy, muscular dystrophy, and spasticity management. The lab investigates the pathophysiology of movement disorders, evaluates novel therapeutic interventions such as botulinum toxin and electrical stimulation, and develops rehabilitation robotics tailored to upper and lower limb function. Key research directions include optimizing treatment outcomes through biomechanical assessment, molecular analysis of muscle apoptosis, and the design of patient-specific rehabilitation technologies.
Professor Sungm Cho's research lab specializes in advanced optoelectronic materials and devices, with a strong focus on organic and hybrid semiconductors for sustainable energy and next-generation lighting. Key research directions include the development of transparent and mesoporous photoelectrodes for solar water splitting, graphene-based encapsulation for flexible organic electronics, and high-efficiency polymer solar cells and white light-emitting diodes through nanostructured charge transport layers. The lab also investigates fundamental electron transport phenomena in semiconductors, particularly impact ionization and scattering mechanisms, to guide the design of high-performance electronic devices.
Professor Woochul Song's research lab focuses on bioinspired materials design, particularly in developing synthetic membranes and artificial water channels that mimic the exceptional transport properties of biological systems such as aquaporins. The lab explores the fundamental principles of molecular transport in nano- and micro-scale systems, with an emphasis on overcoming permeability-selectivity trade-offs in polymer membranes through precise molecular engineering. Research spans molecular dynamics simulations, materials synthesis, and the fabrication of hierarchical nanostructures using block copolymers and plasmonic nanocomposites for advanced separation and energy applications.
Professor H. S. Jung's research lab specializes in the design, synthesis, and application of advanced nanomaterials for energy and electronic devices. Key research directions include the development of nanostructured photocathodes for photoelectrochemical water splitting, templated self-assembly of block copolymers for nanoscale patterning, and the fabrication of high-performance thermoelectric and field-effect nanowire/nanoribbon devices. The lab also focuses on electrochemical synthesis of functional materials, such as Ni-P alloys for hydrogen evolution catalysis and porous SiO₂/Si films for flexible, capacitive humidity sensing.
Professor Haewook Han's research lab specializes in terahertz science and technology, with a focus on the development of novel photonic materials and nano-optical techniques for ultrafast terahertz wave manipulation. The lab investigates guided-wave terahertz propagation in engineered photonic crystal fibers, particularly using biocompatible and sustainable materials like high-density polyethylene and cellulose nanocrystals. A key research direction involves advancing broadband terahertz near-field microscopy with nanoscale resolution, enabling quantitative, high-sensitivity imaging of subsurface nanostructures and biomolecular systems. The lab also explores tunable liquid crystal-based devices for reconfigurable terahertz optics, emphasizing low loss and high birefringence for next-generation terahertz applications.
Professor Hyungrok Do's research lab specializes in high-speed optical diagnostics, hypersonic propulsion, and advanced optical communication systems. The lab investigates fundamental fluid dynamics and combustion phenomena in scramjet engines under extreme flight conditions, focusing on flame stabilization, inlet unstart mechanisms, and plasma-based sensing. It also develops high-bandwidth optical transceivers for next-generation data center interconnects, addressing challenges in high-speed modulation and signal integrity. Additionally, the lab explores fairness in machine learning for predictive modeling, particularly in mitigating bias in data-driven decision systems.
Professor Jihye Lee's research lab focuses on molecular mechanisms underlying inflammatory and immune responses in transplantation rejection, neurodegenerative pain conditions, and antiviral defense. The lab investigates key signaling pathways such as the IL-6 amplifier in NF-κB/STAT3 activation, exploring their roles in chronic allograft rejection and autoimmune pathology. Additionally, the lab examines neuroprotective mechanisms of serotonin receptor modulation in chemotherapy-induced neuropathy and evaluates natural compounds—particularly bioactive fractions from black raspberry seeds—for antiviral activity. A recurring theme is the translation of molecular insights into clinical applications for inflammatory diseases and peripheral neuropathy.
Professor Hee-Jin Park's research lab specializes in computational and systems biology, with a focus on integrative 'omics' data analysis—particularly proteogenomics and financial accounting informatics. The lab develops advanced bioinformatics pipelines for accurate protein identification using customized, compact databases derived from RNA-seq and exome data, emphasizing efficient and sensitive search strategies that reduce computational overhead without sacrificing accuracy. In parallel, the lab investigates the economic implications of financial reporting transparency, earnings quality, and market efficiency, especially in the context of accounting standard changes and information asymmetry. These dual research directions reflect a strong commitment to both biological data innovation and financial information utility.
Professor Hwangjun Song's research lab specializes in video coding and adaptive streaming technologies, with a strong focus on rate control algorithms, low-bit-rate video compression, and quality-of-service optimization in dynamic network environments. The lab develops innovative solutions for efficient video transmission over variable-bandwidth channels, particularly through frame rate adaptation, hybrid coding techniques (e.g., DCT/wavelet), and congestion-aware adaptive streaming in SDN-enabled networks. Their work emphasizes perceptual video quality and computational efficiency, especially in challenging low-bit-rate and high-latency communication scenarios.
