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 Donyoung Kim's research lab specializes in DNA nanotechnology and biomolecular engineering, focusing on the rational design and computational modeling of DNA-based nanostructures. The lab develops predictive simulation frameworks to control the 3D shape, mechanical flexibility, and phase behavior of DNA origami and synthetic biomolecular condensates. By integrating multiscale modeling with experimental validation, the lab enables precise engineering of nanostructures for applications in synthetic biology, nanomaterials, and biomedicine. A key focus is on creating reusable, modular, and tunable DNA nanoarchitectures with programmable mechanical and dynamic properties.
Professor Hwang Jae-Yeon's research lab focuses on biomedical engineering and reproductive health, with a strong emphasis on understanding and addressing male infertility through molecular and physiological mechanisms. The lab investigates sperm motility disorders, particularly asthenoteratozoospermia and its genetic underpinnings, including novel variants in genes like DNAH2 and the role of calcium signaling nanodomains via CatSper channels. Additionally, the lab develops real-time health monitoring technologies, such as wearable fall detection systems using inertial sensors and Bluetooth, highlighting a translational approach to elderly healthcare. The integration of clinical physiology, molecular genetics, and biomedical device innovation defines the lab’s multidisciplinary research direction.
Professor Juhann Kim's research lab specializes in advanced thin film materials and their applications in biomedical and electronic technologies. The lab focuses on the development and characterization of functional thin films such as silicon nitride and carbon nitride for use in microelectronics, biocompatible coatings, and regenerative medicine. A key research direction involves understanding the biological responses of intervertebral disc cells under hypoxic and inflammatory conditions, with potential applications in disc regeneration. The lab also explores innovative ultrasound imaging techniques using digital beamforming for improved medical diagnostics.
Professor Youngho Eom's research lab specializes in the design and development of advanced functional materials with a focus on self-healing polymers, sustainable biodegradable polymers, and printable inorganic and conductive inks for next-generation applications. The lab pioneers innovative strategies to enhance mechanical performance, processability, and environmental sustainability in materials, particularly through molecular engineering, nanocomposite design, and scalable fabrication techniques such as 3D printing and continuous spinning. Key research directions include creating high-strength, self-healing elastomers, biodegradable polyesters with tunable degradation, and all-inorganic inks for high-performance wearable and electronic devices.
Professor Lee Min-young's research lab specializes in nanomedicine and infectious disease diagnostics, with a focus on developing targeted drug delivery systems using gold nanoparticles and biocompatible polymers like hyaluronic acid. The lab investigates host-pathogen interactions, particularly in urogenital infections caused by mycoplasmas and ureaplasmas, and explores inflammatory biomarkers such as mean platelet volume in infectious diseases like tuberculosis. Additionally, the lab contributes to medical imaging optimization and diagnostic methodologies, including fine-needle aspiration cytology and radiation dose reference levels in interventional radiology.
Professor Sinyoung Kim's research lab specializes in regenerative medicine and translational biomedicine, with a focus on stem cell-derived exosomes for tissue repair and regeneration. The lab investigates the molecular mechanisms underlying the anti-inflammatory and pro-angiogenic effects of mesenchymal stem cell-derived exosomes, particularly through microRNA-mediated regulation. Additionally, the lab explores in vitro generation of clinical-grade red blood cells from hematopoietic stem cells and develops advanced diagnostic tools for infectious diseases such as hepatitis C. The integration of stem cell biology, molecular therapeutics, and biomedical device innovation defines the lab’s interdisciplinary approach.
Professor Kangwoo Cho's research lab specializes in electrochemical materials and processes for sustainable energy and environmental applications. The lab focuses on developing advanced electrocatalysts—particularly based on transition metal oxides and doped semiconductors—for efficient water splitting and oxygen evolution reactions (OER), with an emphasis on lowering overpotentials and enhancing stability. A key research direction involves the generation and utilization of reactive chlorine species (RCS) in electrochemical systems for simultaneous wastewater treatment and hydrogen production. The lab integrates in situ characterization techniques like X-ray absorption spectroscopy to probe electronic and structural changes during electrocatalytic reactions.
Professor Jin-kyu Lee's research lab focuses on translational biomedical research with a strong emphasis on orthopedic surgery, particularly total knee arthroplasty (TKA) in younger and rheumatoid arthritis patients, exploring long-term outcomes and preoperative interventions. The lab also investigates molecular mechanisms underlying congenital muscular dystrophies, especially the role of glycosylation enzymes like GnT-Vb in neural development and disease. Additionally, the lab explores patient-centered health technologies, such as virtual reality for anxiety reduction in surgical patients and the impact of public emergencies on e-government service adoption. These diverse yet interconnected research directions reflect a commitment to improving clinical outcomes through molecular biology, clinical innovation, and health systems research.
Professor Kyung-Sik Shin's research lab specializes in data-driven decision making and intelligent systems, with a focus on leveraging big data, machine learning, and text mining to address real-world challenges in finance, organizational behavior, and electronic system design. The lab explores advanced analytics for financial market prediction using deep learning and sentiment analysis, investigates the dynamics of knowledge sharing in virtual teams through social network and transactive memory system (TMS) theories, and develops optimization techniques for low-power VLSI circuit design. The research integrates computational intelligence with practical applications in business, finance, and engineering.
Professor Jong-seo Kim's research lab specializes in developing innovative proximity-labeling and proteomic technologies to map subcellular proteomes with high spatial and temporal resolution. The lab focuses on understanding the molecular organization of cellular compartments—particularly the mitochondria-associated membrane (MAM), inner mitochondrial membrane (IMM), and mitochondrial matrix—through advanced techniques like Contact-ID, pRBS-ID, and matrix-targeted ascorbate peroxidase systems. Their work bridges cell biology and systems biology by identifying key proteins and their interactions in mitochondrial physiology, RNA-protein interactions, and disease mechanisms, particularly in metabolic and inflammatory diseases such as ankylosing spondylitis and cancer. The lab integrates chemical biology, mass spectrometry, and in vivo models to uncover novel regulatory mechanisms and therapeutic targets.
Professor Yunmo Sung's research lab specializes in the synthesis, characterization, and application of advanced nanomaterials, with a strong focus on semiconductor and oxide-based nanostructures for energy and environmental applications. Key research directions include the rational design of heterostructured nanomaterials—such as TiO₂, ZnO, and CdS-based systems—through controlled synthesis techniques like chemical vapor deposition and hydrolysis methods. The lab also investigates fundamental mechanisms of nanocrystal growth, solid-solution formation, and doping processes to tailor electronic and optical properties. Their work emphasizes developing functional nanomaterials for photocatalysis, solar energy conversion, and energy storage technologies.
Professor Pilnam Kim's research lab specializes in developing advanced biomimetic microfluidic and 3D in vitro models to study complex cellular behaviors in disease microenvironments, particularly in glioblastoma multiforme (GBM). The lab focuses on engineering physiologically relevant extracellular matrix (ECM) microenvironments using patient-derived decellularized tissues and soft lithography techniques to investigate tumor invasion, metastasis, and cell-microenvironment interactions. A key direction involves designing functional microfluidic devices with PEG-based channels and ion-selective nanoporous junctions for precise control of ionic gradients and dynamic cellular assays. The lab also explores the role of stromal cells, such as mesenchymal stem-like cells, in promoting cancer progression through secreted signaling molecules like C5a.
Professor Eo-soo Kim's research lab focuses on the intersection of neuropsychiatry, metabolic health, and neurocognitive function, with a strong emphasis on understanding and mitigating cognitive and metabolic side effects associated with psychiatric treatments. The lab investigates the neural mechanisms underlying cognitive decline in conditions such as atrial fibrillation and Wernicke’s encephalopathy, while also exploring pharmacological interventions—like metformin and alpha-lipoic acid—to improve cognitive outcomes and metabolic parameters in psychiatric and neurodegenerative disorders. A key research direction involves evaluating the translational potential of metabolic modulators in neuroprotection and cognitive preservation.
Professor Jungmin Lee's research spans behavioral economics, labor economics, health economics, and medical imaging applications. His work explores risk preferences in decision-making under uncertainty, the labor market impacts of minimum wage policies, and cultural influences on demographic outcomes such as fertility and sex ratios. He also contributes to medical diagnostics through research on contrast-enhanced MRI and pharmacological responses in parasitic diseases. His interdisciplinary approach integrates econometric analysis with real-world policy evaluation and clinical insights.
Professor Tae-seob Shin's research lab specializes in technology integration in education, with a strong focus on Technological Pedagogical Content Knowledge (TPACK) and innovative teacher professional development models. The lab explores how preservice and in-service teachers can effectively leverage technology through frameworks like Learning Technology by Design (LT/D) and the deep-play model. Research also extends to social-emotional learning in early childhood, particularly through arts-based interventions, and examines psychological factors influencing student motivation and anxiety in educational contexts.
Professor Kyung-Ae Park's research lab specializes in ocean-atmosphere interactions, with a focus on sea surface temperature (SST) variability, oceanic frontal systems, and their impacts on atmospheric boundary layer dynamics and surface winds. The lab employs satellite remote sensing data—particularly from scatterometers and infrared sensors—to investigate how features such as Gulf Stream rings and the Subpolar Front in the East Sea influence wind patterns, boundary layer stability, and climate-related trends. Research also examines long-term SST trends and extreme temperature events, contributing to understanding climate change impacts in marginal seas.
Professor Yong-Ju Kim's research lab specializes in the design and self-assembly of functional nanostructures with a focus on toroidal and 2D chiral architectures, dynamic nanopores, and stimuli-responsive materials. The lab integrates supramolecular chemistry, materials science, and data-driven methodologies to develop advanced materials for applications in molecular transport, chiroptical devices, and catalysis. Key research directions include the rational construction of self-assembled nanostructures with precise control over morphology, dynamics, and function, as well as leveraging machine learning to decode structure-property relationships in complex microstructures.
Professor Nam-Hyun Jung's research lab focuses on environmental toxicology, nanomaterials, and sustainable remediation technologies. The lab investigates the fate, bioavailability, and toxicity of organic pollutants and nanoparticles in environmental matrices, with an emphasis on sequestration mechanisms in soils and the role of particle morphology in cytotoxicity. Additionally, the lab explores bio-based solutions for environmental challenges, such as self-healing concrete using bacterial carriers and natural compounds for antiviral and anti-inflammatory applications. These interdisciplinary efforts aim to address environmental contamination and human health risks through innovative, nature-inspired solutions.
Professor Hee Tae Kim's research lab focuses on translational biomedical research, particularly in neurodegenerative diseases, autoimmune disorders, and molecular mechanisms of cancer prevention. The lab investigates Parkinson’s disease using biomarkers from nasal fluid, explores autonomic dysfunction in Parkinson’s and SWEDDs patients via ambulatory monitoring, and examines retinoid signaling pathways in breast cancer chemoprevention. Additionally, the lab contributes to understanding rare autoimmune co-morbidities and the neural pathways underlying dizziness, reflecting a multidisciplinary approach integrating clinical neurology, molecular biology, and immunology.
Professor Young Seok Cho's research lab focuses on molecular oncology and translational medicine, with a primary emphasis on the genetic and epigenetic mechanisms underlying papillary thyroid cancer (PTC). The lab investigates oncogenic drivers such as BRAF V600E mutation and long non-coding RNAs like FAL1, exploring their roles in tumor progression, angiogenesis (via VEGF), and clinical outcomes. Additionally, the lab examines molecular biomarkers and therapeutic agents, including natural compounds like genipin, for their potential in cancer prevention and treatment. The integration of molecular diagnostics, such as pyrosequencing for mutation detection, further supports their mission to improve risk stratification and personalized therapy in thyroid cancer.
