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 Mugahed A. Al–antari's research lab specializes in advancing artificial intelligence and deep learning for medical image analysis, with a strong focus on computer-aided diagnosis (CAD) systems. The lab develops hybrid AI frameworks that integrate convolutional neural networks, vision transformers, and self-attention mechanisms to improve early detection of diseases such as breast cancer, pneumonia, and COVID-19. Their work emphasizes explainable AI, feature fusion, and transfer learning to enhance diagnostic accuracy and clinical usability. The lab also extends its expertise to agricultural AI, applying similar deep learning techniques to detect crop diseases like potato leaf infections.
Professor Youn Suk Lee's research lab specializes in developing sustainable, active, and intelligent packaging systems using biopolymers, natural antioxidants, and functional nanomaterials. The lab focuses on creating eco-friendly, oxygen-scavenging, and antimicrobial packaging films with enhanced barrier and mechanical properties for extended food shelf life. Key research directions include the integration of bioactive compounds—such as phenolic acids, tocopherols, and carbon quantum dots—into polymeric matrices to improve food safety and quality while minimizing environmental impact.
Professor Sung-Gyoo Park's research lab focuses on viral immunology and host-pathogen interactions, with a central emphasis on hepatitis B virus (HBV) replication mechanisms and host chaperone systems. The lab investigates the roles of molecular chaperones such as Hsp60 and Hsp90 in the maturation and function of HBV polymerase, as well as the regulation of viral replication. Additionally, the lab explores myeloid-derived suppressor cells (MDSCs) in immune regulation, particularly their interactions with T and B cells in inflammatory and neoplastic environments. The research integrates molecular virology, immunology, and cancer biology to identify novel therapeutic targets for chronic viral infections and cancer.
Professor Han Min Woo's research lab specializes in synthetic biology and metabolic engineering of cyanobacteria to develop biosolar cell factories for sustainable production of high-value chemicals from CO2 and sunlight. The lab focuses on designing and optimizing genetic tools—such as CRISPRi-dCas12a systems and SyneBrick vectors—for precise gene regulation and modular pathway construction in *Synechococcus elongatus* PCC 7942. Key research directions include the photosynthetic biosynthesis of isoprenoids (e.g., amorpha-4,11-diene, squalene, and acetone) and the systemic engineering of metabolic pathways to enhance yield and product specificity. The lab also pioneers automation-integrated synthetic biology workflows, such as RoboMoClo, to accelerate high-throughput strain development for industrial biotechnology applications.
Professor H.J. Lee's research lab specializes in urological minimally invasive therapies, with a strong focus on laser surgery for benign prostatic hyperplasia (BPH) and prostate cancer. The lab investigates innovative laser technologies—such as HoLEP and thulium fiber laser—aiming to optimize surgical outcomes, reduce complications like incontinence and stone formation, and improve patient safety. Additionally, the lab conducts real-world clinical studies on systemic therapies for metastatic prostate cancer, emphasizing long-term renal function monitoring and treatment efficacy. Their work bridges advanced instrumentation with patient-centered outcomes in urologic oncology and reconstructive urology.
Professor Eenjun Hwang's research lab specializes in intelligent energy systems and data-driven forecasting for sustainable power management. The lab focuses on developing advanced machine learning and deep learning models—particularly recurrent neural networks and transfer learning techniques—for short-term and monthly electric load forecasting, with an emphasis on handling real-world data challenges such as missing values and limited datasets. Key research directions include smart grid optimization, energy consumption prediction, and habitat suitability modeling using ensemble learning, reflecting a strong interdisciplinary approach bridging energy informatics and environmental sustainability.
Professor Belinda Lee's research lab focuses on translational cancer research, with a strong emphasis on understanding the biological and mechanical properties of cancer microenvironments, particularly in aggressive malignancies like pancreatic and melanoma. The lab investigates molecular pathways driving tumorigenesis—such as the RB and RAS/RAF/MEK/ERK signaling axes—and explores the role of tumor stroma and extracellular matrix rheology in disease progression. It also contributes to the development of comprehensive, multi-site cancer registries to support precision oncology through robust data collection and analysis.
Professor Byung-Mo Oh's research lab specializes in neuromuscular and neurorehabilitation sciences, with a primary focus on dysphagia (swallowing disorders) and their underlying neural mechanisms. The lab investigates motor control and cortical reorganization in swallowing through advanced imaging techniques such as videofluoroscopy and corticobulbar mapping. Key research directions include the effects of therapeutic interventions—like effortful swallowing and electrical stimulation—on swallowing function and associated brain plasticity. The lab also conducts population-level epidemiological studies on traumatic brain injury (TBI) to understand long-term health trends and outcomes in South Korea.
Professor Hyung-Min Lee's research lab specializes in low-power, high-efficiency integrated circuits for implantable and wireless biomedical systems, with a focus on inductive power transfer and neurostimulation. The lab develops advanced active rectifiers, voltage doublers, and switched-capacitor-based stimulators using CMOS technology to enable reliable, energy-efficient operation in implantable medical devices such as deep brain stimulators. Key innovations include adaptive topology reconfiguration, offset-controlled high-speed comparators, and closed-loop control for improved power conversion efficiency and tissue safety. The lab's work bridges microelectronics and neuroscience, targeting next-generation neuromodulation systems with enhanced performance and biocompatibility.
Professor Ajahar Khan's research lab specializes in the development of advanced functional materials, particularly focusing on sustainable and biocompatible nanomaterials for biomedical and smart device applications. The lab explores the synthesis and application of carbon-based nanomaterials—such as carbon dots, carbon nanotubes, and conductive polymers—integrated into biopolymer matrices to create multifunctional films and actuators. Key research directions include enhancing mechanical, electrical, and antimicrobial properties for use in food packaging, tissue engineering, and soft robotics. The lab also emphasizes environmentally friendly fabrication techniques and surface modification strategies to improve dispersion and performance of nanomaterials.
Professor Yoon Suk Jung's research lab specializes in gastrointestinal diseases, with a focus on inflammatory bowel disease (IBD), *Helicobacter pylori* eradication, and colorectal neoplasms. The lab investigates novel therapeutic strategies, such as vonoprazan-based therapies for *H. pylori* and 5-ASA/sulfasalazine for intestinal Behçet’s disease, while also exploring prognostic factors and risk stratification in complex gastrointestinal conditions. Their work integrates endoscopic techniques, including chromoendoscopy and cold biopsy forceps (CBP) resection, to improve early detection and management of small polyps and ulcers.
Professor Hyungsuk Lee's research lab specializes in the mechanical characterization of biological systems and functional materials at the micro- and nanoscale. The lab investigates the interplay between cellular structures—such as the cytoskeleton, chromatin, and nuclear envelope—and their mechanical properties, particularly in cardiac myocytes and extracellular matrices like collagen. Using advanced techniques including optical tweezers, microfluidic devices, and computational modeling, the lab explores viscoelastic behavior, force-induced molecular transitions, and the design of protective coatings for miniaturized devices. A central theme is linking molecular-scale mechanics to macroscopic cellular and material responses.
Professor Seong Su Kim's research lab specializes in the design and synthesis of advanced functional materials, with a primary focus on mesoporous silica and polymer-based nanomaterials. The lab explores supramolecular assembly strategies to create materials with hierarchical structures, exceptional thermal and hydrothermal stability, and tailored porosity for applications in catalysis, adsorption, and separation. A key research direction involves enhancing the piezoelectric and mechanical properties of electrospun and wet-spun polymer fibers, particularly PVDF, through process optimization and novel fabrication techniques such as microwave treatment. The lab also investigates high-strength electrospun nanofibers for structural and functional composite applications.
Professor Beom Jin Lim's research lab focuses on the pathophysiology of kidney and liver fibrosis, with a particular emphasis on molecular mechanisms underlying glomerular diseases such as focal segmental glomerulosclerosis (FSGS) and IgA nephropathy. The lab investigates the role of podocyte injury, inflammatory signaling pathways (e.g., TLR4/MAPK/MCP-1), and metabolic regulators like SGLT2 in renal injury and fibrosis. Additionally, the lab explores the crosstalk between liver cells and hepatic stellate cells in fibrosis, especially through PDGFRα signaling. Recent work also includes the application of artificial intelligence to predict biomarkers like MSI/dMMR in cancer using histopathological features.
Professor Changheui Jang's research lab specializes in advanced materials development with a focus on high-temperature oxidation resistance and functional coatings. The lab investigates high-strength FeCrAl alloys for use in advanced energy systems, particularly under supercritical CO₂ environments, emphasizing oxide scale formation and microstructural evolution. Another key research direction involves electrodeposition of chromium and nickel-based coatings, aiming to enhance their corrosion and wear resistance through fundamental understanding of deposition mechanisms and microstructure control. The lab integrates materials characterization, thermodynamics, and surface engineering to develop durable, high-performance materials for energy and industrial applications.
Professor Kyungtae Kang's research lab specializes in the intersection of nanomaterials, biochemistry, and neurobiology, focusing on how nanoscale topographical cues influence neuronal development and function. The lab investigates the design and application of functional nanomaterials—particularly nanozymes and polydopamine-coated electrodes—for biomedical and biotechnological applications. A central theme is the development of bioorthogonal chemistry tools and stimuli-responsive nanomaterials to probe and manipulate biological systems with high spatiotemporal precision. The lab also explores the intrinsic enzymatic activities of inorganic nanoparticles, aiming to overcome limitations of natural enzymes in therapeutic and diagnostic contexts.
Professor Kwang-Hyeon Chang's research lab specializes in freshwater ecology, with a focus on predator-prey interactions, zooplankton community dynamics, and the ecological and evolutionary responses of aquatic invertebrates to biotic and abiotic factors. The lab investigates how invertebrate predators such as copepods and Leptodora influence zooplankton populations through selective predation and morphological plasticity, particularly in seasonal and eutrophic environments. Key research directions include the mechanisms of anti-predator adaptations, such as cyclomorphosis in Bosmina species, and the role of chemical signaling (e.g., nitric oxide) in regulating physiological and ecological processes in aquatic systems. The lab employs mesocosm experiments, field observations, and laboratory assays to understand ecosystem-level impacts of predation and environmental change.
Professor Myung-Ki Kim's research lab specializes in nanophotonics, plasmonics, and 2D materials, with a focus on designing and fabricating ultra-small, high-performance nanodevices for extreme light confinement, nonlinear optics, and electromagnetic interference (EMI) shielding. The lab pioneers advanced plasmonic nanoantennas with sub-10 nm gaps to achieve unprecedented field enhancement and single-particle detection, while also exploring the unique electromagnetic properties of MXenes—especially Ti₃C₂Tₓ—for applications in nonlinear optics, sensing, and high-frequency EMI shielding. Their work bridges fundamental nanoscale physics with practical device integration, emphasizing solution-processable, ultrathin, and stable materials for next-generation optoelectronic and communication technologies.
Professor Jong-Won Oh's research lab focuses on viral molecular biology and host-virus interactions, with a central emphasis on hepatitis C virus (HCV) and coronaviruses. The lab investigates the molecular mechanisms of viral replication, particularly the functions of viral enzymes such as the RNA-dependent RNA polymerase (NS5B) and regulatory proteins like the HCV core and nucleocapsid proteins. A key research direction involves understanding the role of host non-coding RNAs, including miR-122 and tRNA-derived fragments (tRFs), in viral pathogenesis and cellular regulation. The lab also develops novel molecular tools, such as high-affinity RNA aptamers, for viral detection and therapeutic targeting.
Professor Jejoong Yoo's research lab specializes in computational biophysics, focusing on the atomic-scale simulation of biomolecular systems, particularly nucleic acids and their interactions with ions and polycations. The lab develops and refines all-atom molecular dynamics (MD) force fields to accurately model electrostatic and van der Waals interactions, addressing artifacts in simulations of DNA condensation, nucleic acid assemblies, and DNA origami. A central theme is the quantitative characterization of ion atmospheres and the physical mechanisms underlying DNA self-assembly and compaction under physiological conditions.
