首尔大学、KAIST、延世大学等韩国QS前10名大学的研究室信息。
Professor Seung Pil Pack's research lab focuses on developing bioinspired and biocompatible materials for biomedical and environmental applications. Key research directions include the design and functionalization of antimicrobial peptides, calcium-based biomaterials for tissue engineering, diatom-derived biosilica for drug delivery and sensing, and enzyme-based bioremediation strategies. The lab integrates principles from materials science, biochemistry, and nanotechnology to create sustainable solutions for healthcare and environmental challenges.
Professor Seung Pil Pack's research lab specializes in advanced biomaterials and nanotechnology for biomedical applications, with a focus on developing bioactive materials that mimic natural tissues. The lab explores innovative strategies for rapid bioactive coating of scaffolds, functionalized biochar for therapeutic applications, and the design of smart nanocarriers using AI-driven predictive modeling. Key research directions include the synthesis of tailored calcium carbonate and apatite-based materials for regenerative medicine, as well as the development of next-generation 2D material-based biosensors for personalized healthcare. The lab integrates materials science, biomedicine, and data science to address challenges in tissue engineering, drug delivery, and disease diagnostics.
Professor Minkwan Kim's research lab specializes in advanced energy storage materials and interfacial engineering, with a primary focus on aqueous zinc-ion batteries (AZIBs) and lithium metal batteries (LMBs). The lab investigates fundamental mechanisms governing metal anode stability, including zinc dendrite suppression and lithium corrosion mitigation, through innovative electrolyte design and additive engineering. Key research directions include surface overpotential modulation, hydration shell rigidity, and solid electrolyte interphase (SEI) stabilization using molecular-level additives. The lab also explores magnetic nanostructures, particularly 3D-vortex-structured nanoparticles, to understand their self-assembly behavior driven by exchange and dipolar interactions.
Professor Young Kyung Yoon's research lab specializes in antimicrobial stewardship, infectious disease management, and antibiotic resistance prevention. The lab focuses on optimizing antibiotic use through evidence-based guidelines, evaluating treatment outcomes for resistant infections such as MRSA and carbapenem-resistant organisms, and analyzing national antibiotic consumption patterns. Their work integrates clinical research with public health policy to improve patient outcomes and reduce antimicrobial resistance in healthcare settings.
Professor Hoon Kim's research lab specializes in quantum materials and advanced functional oxides, focusing on emergent quantum phenomena such as spin-orbit entanglement, unconventional magnetism, and topological states. The lab explores novel materials like iridates and vanadium dioxide to uncover exotic phases such as spin nematic order and Mott insulating behavior, often combining advanced nanoscale characterization techniques with thin-film synthesis. Key research directions include designing next-generation energy materials—particularly for lithium-sulfur batteries—and probing vortex dynamics in superconducting heterostructures to understand quantum coherence and interactions.
Professor Soomin Ahn's research lab specializes in molecular pathology and biomarker discovery in gastrointestinal, thyroid, and neuroendocrine neoplasms. The lab focuses on identifying predictive and prognostic biomarkers—particularly PD-L1 and HER2—across various cancers to guide precision oncology and immunotherapy strategies. Key research directions include the clinicopathological correlation of immune checkpoint expression, tumor heterogeneity, and molecular alterations such as TERT promoter mutations and BRAF status in thyroid and biliary tract cancers.
Professor Geun Young Yun's research lab focuses on urban climate resilience, particularly the impacts of urban heat islands (UHI) and extreme heat events on urban microclimates and building energy performance. The lab investigates synergies between heat waves and UHI effects, occupant behavior in naturally ventilated buildings, and the empirical assessment of UHI-driven energy consumption. It also explores passive and nature-based cooling strategies—such as urban tree planting and phase change materials (PCMs)—to mitigate urban overheating and enhance energy efficiency in buildings under future climate conditions.
Professor Kyoung-Bok Min's research lab focuses on environmental health and toxicology, with a primary emphasis on the impacts of trace metals (such as lead and cadmium) and air pollutants on human health. The lab investigates the associations between environmental exposures and reproductive health, cardiovascular function, liver enzyme levels, bone mineral density, and quality of life in aging populations. Using large-scale national survey data, the lab employs epidemiological and biostatistical approaches to identify biomarkers and risk factors linked to chronic disease outcomes.
Professor Dong Jun Kim's research lab specializes in advanced energy storage materials, with a strong focus on organic and solid-state batteries for sustainable and cost-effective energy solutions. The lab explores redox-active organic molecules, nanostructured hosts for alkali metal anodes, and high-conductivity solid electrolytes to address critical challenges such as voltage control, dendrite suppression, and ionic conductivity. Their work bridges molecular design, materials synthesis, and device engineering, emphasizing scalability and practical application in next-generation rechargeable batteries.
Professor Soung Min Kim's research lab specializes in advanced regenerative medicine and craniofacial surgery, focusing on nerve regeneration, oral and maxillofacial pathology, and the development of personalized prosthetic solutions. The lab investigates innovative biomaterials and 3D tissue engineering techniques—such as 3D Schwann cell culture and artificial nerve conduits—for peripheral nerve repair, while also advancing clinical management of complex conditions like odontogenic maxillary sinusitis, chronic recurrent multifocal osteomyelitis (CRMO), and craniofacial tumors. The integration of 3D imaging, digital fabrication, and microsurgical techniques enables the lab to develop accurate, cost-effective, and patient-specific facial prostheses and surgical strategies.
Professor Yang Won Min's research lab specializes in gastrointestinal diseases, with a focus on advanced endoscopic therapies, liver cirrhosis complications, and gastrointestinal malignancies. The lab investigates the impact of medical interventions—such as proton pump inhibitors, endoscopic resection techniques (including ESD), and interventional radiology—on patient outcomes in conditions like spontaneous bacterial peritonitis, lower GI bleeding, and esophageal anastomotic leaks. The lab also explores nutritional interventions, such as probiotic-enriched yogurt, for functional gastrointestinal disorders like IBS. Through clinical and translational research, the lab aims to optimize treatment strategies in digestive diseases, particularly in early gastric cancer and hepatocellular carcinoma.
Professor Jaewoo Lee's research lab specializes in advanced materials for environmental and biomedical applications, with a primary focus on developing functional hydrogels and mixed matrix membranes for water purification and regenerative medicine. The lab investigates sustainable and high-performance materials—such as gellan gum, carrageenan, and polyvinyl alcohol—engineered for enhanced adsorption, mechanical stability, and biocompatibility in applications ranging from dye removal and desalination to retinal pigment epithelium (RPE) cell delivery. A key research direction involves optimizing membrane structures and material compositions to improve selectivity, efficiency, and energy sustainability in water treatment processes.
Professor Jinkee Lee's research lab specializes in advanced fluidic systems and functional surfaces, focusing on biomimetic materials, microfluidics, and interfacial phenomena. The lab develops innovative surfaces such as self-healing, icephobic, and slippery liquid-infused systems for enhanced performance in liquid transport, energy conversion, and biopolymer analysis. Key research directions include scalable fabrication of directional liquid-transport surfaces, fundamental understanding of ion-induced hydraulic regulation in plant xylem, and optimization of microfluidic fuel cells through flow and geometry control. The lab integrates experimental, theoretical, and microfabrication approaches to address challenges in sustainability, efficiency, and scalability.
Professor Kee-Joon Lee's research lab specializes in non-surgical orthodontic treatment modalities for skeletal discrepancies, particularly focusing on maxillary expansion using miniscrew-assisted rapid palatal expansion (MARPE). The lab investigates the biomechanics, skeletal and dental responses, and long-term stability of dental and skeletal changes following expansion, with an emphasis on minimizing relapse and preserving periodontal health. Their work also explores the biological modulation of bone remodeling through targeted molecular interventions, such as RANKL injection, to enhance tooth movement efficiency. The lab integrates clinical trials with translational research to develop effective, minimally invasive alternatives to orthognathic surgery.
Professor Seung-Won Jung's research lab specializes in image and video processing with a strong focus on leveraging human visual system (HVS) characteristics to develop intelligent, perceptually optimized algorithms. Key research directions include dehazing, reversible data hiding, depth map enhancement, and stereo image processing, all aimed at improving visual quality while minimizing perceptible distortion. The lab emphasizes adaptive and energy-minimization frameworks that integrate psychovisual models such as JND (just-noticeable difference) and JNDD (just-noticeable depth difference) for efficient and natural-looking image enhancement. Their work bridges computer vision, signal processing, and human perception to create practical solutions for real-world imaging challenges.
Professor Sang Ho Lim's research lab specializes in the development and characterization of advanced magnetic materials, with a focus on nanocrystalline and amorphous alloys for soft and magnetostrictive applications. The lab investigates the effects of elemental doping and processing parameters—such as melt-spinning conditions and magnetic field-assisted sputtering—on magnetic and structural properties, aiming to optimize materials for high-performance sensors, actuators, and biomedical devices. A key research direction involves enhancing magnetostrictive performance in rare-earth transition metal thin films and ribbons for use in precision microsystems and medical interventions.
Professor Won Kyong Cho's research lab specializes in plant virology, molecular plant pathology, and functional plant proteomics, with a focus on understanding virus-host interactions in economically important crops such as rice and chrysanthemum. The lab investigates persistent and circulative plant viruses like Rice stripe virus (RSV) and viroids, employing genomics, transcriptomics, and proteomics to dissect viral pathogenesis and host resistance mechanisms. Additionally, the lab explores bioactive natural products from plants—such as maple leaf extracts and edelweiss callus culture—for their anti-inflammatory, antioxidant, and cytoprotective properties in cellular and in vivo models. The integration of omics technologies and translational plant biotechnology defines the lab’s interdisciplinary approach to crop protection and functional plant-derived therapeutics.
Professor Namkee Park's research lab specializes in understanding the social and psychological dimensions of digital technology adoption and use in educational, interpersonal, and public health contexts. The lab focuses on how individuals perceive, adopt, and are influenced by emerging communication technologies, integrating theories such as the Technology Acceptance Model (TAM), uses and gratifications, and media richness theory. Key research directions include technology acceptance, social media use and well-being, and the role of multi-channel communication in crisis situations. The lab employs quantitative survey methods to explore the interplay between user motivations, perceived attributes of technology, and behavioral outcomes.
Professor Eunji Cheong's research lab focuses on the intersection of neuroscience, stem cell biology, and bioengineering, with a central emphasis on understanding the biophysical and molecular mechanisms underlying neuronal excitability, synaptic transmission, and neural circuit function. The lab investigates ion channel dynamics—particularly T-type calcium channels and their role in thalamocortical oscillations and absence epilepsy—while also developing advanced nanomaterial platforms to guide stem cell differentiation and study intracellular dynamics in real time. Using innovative techniques such as plasmonic nanohole arrays and electroconductive nanopatterned substrates, the lab explores how physical cues influence neural development and function at the cellular and subcellular levels. A key translational focus is on decoupling immunosuppressive and antifungal activities in FK506 analogues for novel antifungal drug development.
Professor Jae Myun Lee's research lab focuses on viral pathogenesis, particularly the molecular mechanisms of Epstein-Barr virus (EBV) and its interactions with host cell signaling pathways. The lab investigates viral oncoproteins like EBNA2 and their roles in B-cell immortalization, apoptosis evasion, and immune evasion, with a strong emphasis on host-virus interactions involving transcription factors such as Nur77. Additionally, the lab explores vaccine development, including microneedle-based delivery systems for viral vaccines, and examines host genetic factors influencing drug response, particularly in antidepressant therapy via MRP1 polymorphisms. The research integrates virology, immunology, and translational medicine to uncover novel therapeutic targets and strategies.
