ソウル大学、KAIST、延世大学など韓国QSトップ10大学の研究室情報です。
Professor Haeseong Jang's research lab specializes in the design and development of advanced electrocatalysts for sustainable energy conversion and storage, with a strong focus on optimizing electronic structures for enhanced electrochemical performance. The lab primarily investigates heterogeneous catalysts—particularly based on ruthenium and transition metal phosphides—for applications in hydrogen evolution and oxygen evolution reactions under both alkaline and acidic conditions. By integrating advanced characterization techniques with first-principles calculations, the group explores the role of built-in electric fields, electronic asymmetry, and heterophase interfaces in improving catalytic activity and stability. Their work aims to overcome key limitations in electrocatalysts, such as poor durability and sluggish kinetics, through rational nanostructure engineering.
Professor Hong-Sub Lee's research lab specializes in advanced resistive switching materials and devices for next-generation neuromorphic computing and non-volatile memory applications. The lab focuses on designing and fabricating high-performance memristors and memtransistors using oxide semiconductors, perovskite manganites, and 2D materials, with an emphasis on gate tunability, reliability, and scalability. Key research directions include atomic layer deposition of doped oxide thin films, understanding the role of ionic migration and electronic correlations in resistive switching, and developing novel heterostructures to suppress crosstalk and enhance device performance. The lab also investigates the fundamental mechanisms of resistive switching through advanced spectroscopic and microstructural characterization techniques.
Professor Won Gu Lee's research lab specializes in micro- and nanoscale engineering for biomedical applications, focusing on lab-on-a-chip systems, microfluidic devices, and advanced cell culture platforms. The lab develops innovative tools for single-cell analysis, controlled drug and nanoparticle delivery, and long-term stem cell culture using novel microfabrication techniques. Recent work also explores the integration of metaverse technologies and wearable extended reality systems for next-generation digital healthcare solutions. The lab's interdisciplinary approach bridges bioengineering, materials science, and clinical applications to address challenges in regenerative medicine, cancer diagnostics, and personalized therapy.
Professor Ho-Jin Lee's research lab specializes in clinical and translational research spanning pain medicine, orthopedic surgery, and anesthetic techniques. The lab focuses on improving surgical outcomes by minimizing complications such as joint stiffness, nerve injury, and patient dissatisfaction, particularly in foot and ankle deformities and thoracic surgery. It also investigates neuropsychological comorbidities in chronic pain patients and advances in anesthetic recovery through novel drug combinations. Additionally, the lab contributes to oceanographic modeling, simulating regional water mass circulation in the East Sea/Japan Sea using advanced ocean models.
Professor Ho-Kyung Kim's research lab specializes in structural dynamics and wind engineering, with a focus on the dynamic performance and serviceability of long-span bridges under environmental loads. The lab investigates vortex-induced vibrations (VIV), buffeting response, and crosswind stability of cable-supported bridges, integrating experimental wind tunnel testing, operational modal analysis, and probabilistic assessment methods. Key research directions include the identification of modal damping ratios from ambient vibration data, the development of advanced vibration mitigation strategies such as multiple tuned mass dampers (MTMD), and the evaluation of vehicle safety under extreme wind conditions. The lab emphasizes practical applications through case studies on real-world bridges, particularly in challenging environments like sea-crossing and high-wind regions.
Professor In-Suk Choi's research lab specializes in the development of stretchable and flexible electronic systems with a focus on mechanical reliability and electrical performance under dynamic deformation. The lab pioneers innovative material design and structural engineering strategies—such as patterned substrates, nanohole integration, and computational wrapping techniques—to enable conformal electronics on complex curved surfaces and to enhance the fatigue resistance of electrodes and batteries. Their work bridges materials science, mechanical engineering, and device physics, emphasizing intrinsic material compatibility and geometric design for next-generation wearable and implantable electronics.
Professor Jong-In Han's research lab specializes in microbial genomics and environmental biotechnology, focusing on the genetic and metabolic mechanisms underlying the adaptability of environmentally versatile bacteria such as *Variovorax paradoxus*. The lab investigates microbial metabolism, particularly the biodegradation of environmental pollutants and the molecular basis of symbiotic interactions with plants and other microbes. A central theme is understanding how microbial genomes encode metabolic diversity to support survival in dynamic environments, with applications in bioremediation and sustainable agriculture. The lab integrates genomics, bioinformatics, and molecular microbiology to explore microbial evolution and functional adaptation.
Professor Young Joon Seo's research lab specializes in auditory and vestibular disorders, with a focus on the pathophysiology of hearing impairment in chronic kidney disease (CKD) and obstructive sleep apnea-hypoxia (OSAS). The lab investigates mitochondrial dysfunction as a potential mechanism linking systemic diseases to hearing loss, and develops advanced animal models—particularly for Meniere’s disease and endolymphatic hydrops—to study disease mechanisms and test novel therapeutic strategies. The lab also pioneers clinical applications of bone-conduction auditory brainstem response (BC-ABR) and image-guided surgical techniques for hearing implant systems.
Professor Jee In Kang's research lab focuses on the neurobiological and genetic underpinnings of psychiatric disorders, particularly post-traumatic stress disorder (PTSD) and treatment-resistant mental illnesses such as obsessive-compulsive disorder. The lab investigates epigenetic mechanisms—such as DNA methylation of genes like BDNF—and genetic polymorphisms (e.g., COMT and BDNF) that influence resilience and treatment response. Using neurostimulation techniques like rTMS and integrating clinical, psychological, and molecular approaches, the lab aims to identify biomarkers and develop personalized interventions for mental health conditions.
Professor Jeongdong Kim's research lab specializes in sustainable energy systems and advanced materials for environmental remediation and resource recovery. The lab focuses on innovative processes such as autothermal reforming with integrated cold energy utilization, carbon-free lithium-ion battery recycling using hydrogen roasting and CO2 capture, and biocatalytic conversion of waste biomass using engineered enzymes. Key research directions include energy-efficient hydrogen production, circular economy approaches in battery recycling, and microbial enzyme applications for degrading recalcitrant organic wastes like keratin and xylan. The lab integrates chemical engineering, biotechnology, and environmental systems to develop low-carbon, resource-efficient technologies.
Professor Young Woo Sohn's research lab focuses on the psychological and organizational dynamics influencing employee well-being, work engagement, and performance, with a particular emphasis on the role of calling, workaholism, and leadership in shaping work-related outcomes. The lab investigates how individual differences—such as working memory capacity, passion types (harmonious and obsessive), and perceived calling—impact job performance, emotional exhaustion, and organizational commitment. Drawing on theoretical frameworks like the Job Demands-Resources (JD-R) model, Conservation of Resources (COR) theory, and the Dualistic Model of Passion (DMP), the lab explores both individual and interpersonal processes in the workplace, especially the spillover effects of leaders’ work attitudes on followers. The research also examines the cognitive and emotional mechanisms underlying effective leadership and sustainable work behavior in organizational settings.
Professor Dong June Ahn's research lab specializes in the design and application of functional nanomaterials, with a primary focus on polydiacetylene-based sensors, plasmonic gold colloids, and biomimetic mineralization. The lab develops label-free, responsive sensing systems using the unique fluorogenic and colorimetric properties of polydiacetylenes for biosensing and environmental monitoring. It also explores bioinspired materials, such as antifreeze protein-mimetic gold colloids and organic-inorganic hybrid interfaces, to advance applications in cryoprotection and biomineralization. A key theme across the research is the precise control of molecular architecture and interfacial interactions to achieve smart, responsive materials.
Professor Wonjun Ko's research lab specializes in advancing brain-computer interface (BCI) systems through deep learning and signal processing techniques, with a strong focus on electroencephalography (EEG) signal analysis. The lab explores innovative deep neural network architectures—particularly convolutional and reinforcement learning-based models—that enhance feature representation, classification accuracy, and interpretability of EEG data. Key research directions include semi-supervised and adversarial learning for data-efficient BCI, real-time driver fatigue detection, and neurophysiologically interpretable models for motor imagery classification. The lab emphasizes practical applications in human-computer interaction, traffic safety, and personalized BCI systems with minimal calibration requirements.
Professor Eui-Joon Kil's research lab specializes in plant virology, with a primary focus on begomoviruses and nanoviruses that cause significant economic damage to major crops such as tomatoes, cucurbits, and legumes. The lab investigates viral transmission mechanisms, including whitefly and seed-borne transmission, host range expansion, and the emergence of new viral strains in novel geographical regions. A key direction involves the molecular characterization and infectious clone construction of emerging viruses to understand their pathogenicity and develop resistance strategies.
Professor Mun-Taek Choi's research lab specializes in intelligent robotics and human-robot interaction, focusing on robust person tracking, trajectory prediction, and autonomous navigation in dynamic environments. The lab develops advanced deep learning and sensor fusion frameworks—integrating LIDAR, RGB-D cameras, and wearable sensors—for real-time human motion analysis, gait classification, and affective state detection in aging populations. Key research directions include robot following under occlusion and illumination changes, spacecraft attitude control under uncertainty, and machine learning for geriatric mental health monitoring using low-cost wearable devices. The lab emphasizes real-world applicability through robust, generalizable models that integrate multimodal data and online learning.
Professor Youngjoo Kwon's research lab focuses on the molecular mechanisms underlying cancer progression and metabolic diseases, with a particular emphasis on the tumor microenvironment, inflammation resolution, and the role of bioactive dietary components. The lab investigates how endogenous and exogenous factors—such as omega-3 fatty acids, capsaicinoids, N-acetylcysteine, and environmental endocrine disruptors like BPA—affect cellular signaling, oxidative stress, and immune modulation in cancer and metabolic disorders. Using advanced 3D cell culture models and imaging techniques, the lab explores tumor cell invasion, ECM remodeling, and stromal interactions to identify novel therapeutic targets. Their work bridges nutritional biochemistry, cancer biology, and systems physiology to develop precision interventions for aggressive cancers and chronic inflammatory conditions.
Professor Jean Bouffard's research lab specializes in the design and synthesis of novel fluorescent probes and functional organic molecules for bioimaging and sensing applications. The lab focuses on developing turn-on probes for biologically relevant species such as thiols and reactive oxygen species (ROS), leveraging unique photophysical properties like excimer formation and ratiometric fluorescence. A key direction involves engineering stable, electron-donating ligands—particularly N-heterocyclic carbene (NHC) boranes and mesoionic carbenes—for use in transition metal catalysis and sensing. The group also investigates structure-property relationships in emissive dyes, including BODIPY derivatives and pyrene analogs, to enable advanced optical imaging in the visible to far-red region with high sensitivity and low photodamage.
Professor Byeong Chun Lee's research lab focuses on reproductive biology and regenerative medicine, with a primary emphasis on improving in vitro embryo production and oocyte maturation in livestock, particularly pigs. The lab investigates key regulatory mechanisms involving melatonin, kisspeptin, and signaling pathways such as Nrf2/ARE and Sonic hedgehog, aiming to mitigate oxidative stress and enhance developmental competence. A central theme is the role of paracrine communication, extracellular vesicles, and metabolic regulation—especially lipid metabolism—in supporting embryonic development. The lab also explores stem cell-based therapies, particularly mesenchymal stem cells, for treating age-related infertility and ovarian dysfunction.
Professor Hyun Myung's research lab specializes in intelligent sensing and autonomous systems for civil infrastructure and robotics applications. The lab focuses on developing low-cost, robust sensing solutions—such as structured light systems and RGB-D SLAM—for structural health monitoring and autonomous inspection in challenging environments. Key research directions include real-time human pose estimation using depth sensors, GPS-denied navigation for UAVs in confined spaces like bridges, and hybrid optimization techniques for complex engineering problems. The lab emphasizes practical, embedded solutions that enable real-time operation on low-cost hardware platforms.
Professor Jin-Hyun Kim's research lab specializes in sustainable chemical synthesis through the integration of photobiocatalysis, artificial photosynthesis, and advanced nanomaterials. The lab focuses on developing light-driven systems that enable efficient and selective redox transformations, particularly using redox enzymes like Old Yellow Enzyme (OYE) coupled with renewable cofactor regeneration via semiconductor nanomaterials such as N-doped carbon nanodots and metal oxide heterostructures. A key research direction involves the design of bias-free photoelectrochemical systems for the valorization of abundant biomass (e.g., lignin) and CO₂ conversion into valuable chemicals like formate and chiral compounds. The lab also explores the multifunctional roles of biological redox cofactors like NAD⁺ as molecular photocatalysts, expanding their utility beyond cellular metabolism.
