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 Minjung Kim's research lab focuses on consumer behavior in digital and online retail environments, with a particular emphasis on how information presentation formats—such as visual and verbal cues—affect consumer attitudes, decision-making, and purchase intentions. The lab investigates online service quality, stockout management, and the role of emotional responses in e-commerce, drawing on experimental and content analysis methods to evaluate retailer performance and consumer experiences. A key focus is on improving online shopping experiences through effective information design and responsive service strategies, especially in fashion and apparel retail contexts. The lab also explores broader sociocultural dimensions of consumer behavior, including marriage migration and identity, through a critical, postcolonial feminist lens.
Professor Yonsang Kim's research lab specializes in advanced energy conversion and flexible electronics, focusing on solution-processed, low-temperature fabrication of high-performance optoelectronic and piezoelectric devices. The lab pioneers innovative approaches in sustainable energy harvesting, including water motion-driven transducers, evaporation-induced electricity generation, and flexible nanogenerators based on doped oxide semiconductors. Core research directions include the development of alkali-metal-doped transparent oxide thin-film transistors and soft lithography techniques for 3D microstructures, all aimed at enabling next-generation wearable and flexible electronics.
Professor Min Ah Lee's research lab specializes in advancing next-generation energy storage technologies, with a primary focus on sustainable and high-performance batteries. The lab develops innovative materials and chemical strategies—such as molecularly engineered prelithiation, nano-hybrid organic electrodes, and multi-electron redox molecules—for enhancing the efficiency, energy density, and cycle life of lithium-ion and aqueous batteries. Key research directions include the design of tunable organic catholytes, such as flavins and phenazines, and the engineering of stable metal anodes, including silicon-based and zinc-based systems. The lab emphasizes molecular-level control of electrochemical processes through rational materials design and advanced characterization.
Professor Ho Yeon Lee's research lab specializes in quantitative medical imaging and radiomics, focusing on the non-invasive prediction of lung cancer phenotypes and genetic profiles using advanced CT imaging. The lab investigates the radiologic features of ground-glass nodules and part-solid lung adenocarcinomas to differentiate pre-invasive, minimally invasive, and invasive subtypes, with a strong emphasis on clinical outcomes and survival prediction. Key research directions include the development of imaging biomarkers for ALK, ROS1, and RET fusion-positive lung adenocarcinomas, as well as the longitudinal assessment of interstitial lung diseases such as fibrotic IIP using serial CT. The lab integrates radiologic, pathological, and genetic data to improve precision diagnosis and treatment planning in thoracic oncology.
Professor Dong Soo Han's research lab specializes in gastrointestinal mucosal immunology, host-microbe interactions, and the pathogenesis of gastrointestinal diseases, with a focus on gastric and intestinal carcinogenesis. The lab investigates the role of specific microbial communities—particularly *Helicobacter pylori* and adherent-invasive *E. coli*—in chronic inflammation and cancer development, as well as the therapeutic potential of growth factors like KGF-2 in mucosal repair. They also explore novel endoscopic screening tools and bowel preparation protocols to improve diagnostic accuracy and patient compliance in colorectal cancer screening.
Professor Dongyoung Lee's research lab specializes in aging-related neurodegenerative diseases, with a primary focus on Alzheimer’s disease (AD). The lab investigates biomarkers—particularly plasma tau and amyloid-β—using multimodal neuroimaging (e.g., PET and MRI) to understand in vivo brain pathology and its clinical correlates. Key research directions include identifying neuroimaging subtypes of AD based on regional atrophy patterns, exploring modifiable factors such as coffee intake in relation to AD pathologies, and examining microstructural changes in brain networks like the corpus callosum in aging and mild cognitive impairment. The lab integrates clinical, neuroimaging, and biomarker data to advance early detection and personalized understanding of neurodegenerative progression.
Professor Jun-Yeong Lee's research lab specializes in advanced materials for sustainable energy technologies, with a strong focus on energy storage and conversion systems. Key research directions include the development of all-lignin-based flexible supercapacitors, sodium-ion batteries and capacitors using sustainable carbon materials, and electrochemical sensors for environmental and biomedical applications. The lab also explores innovative nanomaterials and interface engineering to enhance electrocatalytic performance in water splitting for green hydrogen production.
Professor Hanchul Ha's research lab focuses on structural and molecular mechanisms underlying key biological processes in human health and disease, with a strong emphasis on signal transduction pathways, viral immune evasion, and bacterial efflux systems. The lab investigates the molecular basis of Wnt/β-catenin signaling, SARS-CoV-2 pathogenesis, and tripartite efflux pumps in Gram-negative bacteria, combining structural biology, biochemistry, and functional assays to uncover therapeutic targets. Recent work also explores natural compounds as modulators of disease-relevant enzymes and neuroprotective agents in neurodegenerative models.
Professor Jung-Hwan Lee's research lab specializes in the development of advanced biomaterials and nanotherapeutics for regenerative medicine and tissue repair. The lab focuses on designing multifunctional nanomaterials—such as mesoporous bioactive nanoparticles, cerium oxide nanoparticles, and functionalized carbon nanotubes—that combine antibacterial, osteo/odontogenic, and angiogenic properties to address challenging clinical conditions like dental pulp infection, bone regeneration, and critical limb ischemia. By integrating materials science with cell biology and clinical needs, the lab aims to create smart, bioactive systems that actively guide tissue repair through tailored biochemical and biophysical cues. Their work emphasizes the translation of nanomaterials into practical therapeutic solutions with enhanced biocompatibility and functionality.
Professor Yun Tae Jin's research lab focuses on mitochondrial iron metabolism, particularly the molecular mechanisms underlying iron-sulfur cluster biogenesis and heme biosynthesis. The lab investigates the role of frataxin and other iron-handling proteins in regulating cellular iron homeostasis, with implications for neurodegenerative diseases and cancer. Using integrative approaches combining structural biology, biochemistry, and in vivo models such as zebrafish, the lab explores novel therapeutic targets for pigment disorders and iron-related pathologies. Recent work also extends into neuroimaging applications for distinguishing tumor progression from treatment-related changes in glioblastoma.
Professor Yunbae Kang's research lab specializes in computational thermodynamics and materials modeling, with a focus on oxide inclusions, slag-metallurgy interactions, and phase equilibria in complex multicomponent steelmaking systems. The lab employs advanced CALPHAD-based thermodynamic modeling and high-temperature experimental techniques to understand and control inclusions and precipitates in steels, particularly in relation to microstructure development and casting performance. Key research directions include the formation mechanisms of Mn-depleted zones, dissolution behavior of silica in slags, and the stability of complex oxides in ultra-low carbon steels.
Professor Du Yeol Ryu's research lab specializes in the design and fabrication of advanced nanostructured materials through controlled self-assembly of block copolymers and supramolecular systems. The lab focuses on directing the hierarchical organization of soft materials at the nanoscale, particularly using hybrid block copolymers and interfacial engineering to achieve precise control over morphology, orientation, and surface properties. Key research directions include the development of large-scale, defect-free nanostructures for applications in nanofabrication, ultrafiltration membranes, and functional coatings.
Professor Byungha Shin's research lab specializes in advanced optoelectronic materials and devices, with a primary focus on next-generation solar cells, including kesterite-type CIGS and perovskite/silicon tandem solar cells, as well as high-performance photodetectors. The lab emphasizes materials engineering for enhanced efficiency and stability, leveraging techniques such as atomic layer deposition, defect passivation, and 2D perovskite heterostructures. Key research directions include bandgap engineering, interface defect control, and novel heterostructures for energy conversion and photodetection applications.
Professor Seung-Hee Lee's research lab specializes in advanced materials and biomedical technologies, focusing on nanomaterials for energy and environmental applications, transdermal drug delivery systems, and neuromodulation in the central nervous system. The lab develops functional nanocomposites—such as Nb₃O₇(OH) and indium aluminum oxide films—using atomic layer deposition and other precision synthesis techniques for photocatalytic and electronic applications. It also pioneers innovative drug delivery platforms, including patchless microneedle systems, and investigates molecular mechanisms underlying metabolic and neurological regulation, such as vitamin D signaling in lipid metabolism and cortical neuromodulation. The integration of materials science, biomedicine, and neurobiology defines the lab’s interdisciplinary approach.
Professor Byung-Tae Kim's research lab specializes in nuclear medicine and molecular imaging, with a focus on the clinical application of PET/CT and SPECT/CT in oncology, infectious diseases, and musculoskeletal disorders. The lab investigates metabolic imaging parameters for improved cancer staging, prognosis prediction, and differentiation of malignancy from benign conditions such as tuberculosis or parasitic infections. Additionally, the lab explores occupational health impacts in healthcare professionals, particularly musculoskeletal disorders among dental hygienists, through imaging and ergonomic assessments.
Professor Kyungtae Kim's research lab specializes in advanced materials and smart systems, focusing on the synthesis and characterization of functional polymers, block copolymers, and polyimides with tailored thermal, electrical, and structural properties. The lab investigates complex self-assembly behaviors in soft matter, particularly the role of processing history in determining metastable and quasicrystalline states in diblock copolymers, as well as the development of high-performance electronic and memory materials. Additionally, the lab applies computational and signal processing techniques to problems in materials recognition and kernel security testing, demonstrating a multidisciplinary approach bridging materials science, polymer physics, and computational engineering. The research emphasizes both fundamental understanding and practical applications in energy-efficient electronics, precision motion systems, and secure computing systems.
Professor Donghee Son's research lab specializes in the design, synthesis, and application of advanced nanomaterials for next-generation electronic and biomedical devices. The lab focuses on colloidal nanocrystal synthesis—particularly perovskite and transition metal dichalcogenide nanomaterials—with an emphasis on precise size control, doping strategies, and defect engineering. Key research directions include the development of functional nanomaterials for flexible and wearable electronics, implantable bioelectronics, and quantum dot-based optoelectronic systems. The lab also explores fundamental mechanisms of nanoscale processes such as cation exchange and nucleation dynamics to enable rational materials design.
Professor Hyun Ki Kim's research lab specializes in translational oncology and molecular imaging, focusing on the development and application of patient-derived tumor models—particularly organoids—for personalized cancer therapy. The lab investigates molecular mechanisms underlying cancer progression, especially in lung and gastric adenocarcinomas, with an emphasis on microsatellite instability, epigenetic alterations, and tumor microenvironment interactions. It also pioneers advanced imaging technologies, such as SPECT with CZT detectors and diffusion-weighted MRI, to non-invasively monitor therapeutic responses in preclinical models.
Professor Woo-Young Lee's research lab specializes in the design and fabrication of advanced nanomaterials for energy and sensing applications, with a strong focus on palladium-based nanostructures for high-performance hydrogen sensors. The lab explores low-dimensional Pd nanostructures such as thin films, nanowires, and nanogap devices, leveraging nanofabrication techniques like elastomeric substrate stretching and sputtering to enhance sensitivity, response time, and reversibility. In addition, the lab investigates functional oxide and hybrid nanostructures—such as Fe₂O₃/SnO₂/rGO composites and Bi-Te core/shell nanowires—for applications in lithium-ion batteries and thermoelectric materials, emphasizing interface engineering to optimize electrical and thermal transport properties.
Professor Seung Yong Han's research lab specializes in the development of flexible, stretchable, and skin-like electronic systems with a focus on nanomaterial-based conductive networks, wireless powering, and advanced sensing. The lab pioneers innovative fabrication techniques such as plasmonic laser nanowelding and nanorecycling to enable low-temperature, ambient-condition processing of metal nanowires for high-performance electrodes. Key research directions include wearable biomedical sensors, energy-efficient electronics, and the integration of artificial intelligence for motion and physiological signal recognition. The lab also explores mechanically robust nanocomposite elastomers for durable, multifunctional skin-electronics capable of thermotherapeutic and electrophysiological monitoring.
