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 Pyeongjae Park's research lab specializes in quantum magnetism and topological quantum materials, focusing on the interplay between strong electron correlations, electronic topology, and emergent quantum phenomena in low-dimensional systems. The lab investigates novel magnetic ground states—such as noncollinear, triple-Q, and spin-liquid-like orders—in frustrated lattices including honeycomb and triangular structures, with a particular emphasis on transition metal oxides and chalcogenides. Using advanced experimental techniques like inelastic neutron scattering, quantum transport, and high-resolution spectroscopy, the lab explores how spin-orbit coupling, electronic correlations, and lattice geometry give rise to exotic states such as Weyl fermions, anomalous Hall effects, and topological spin textures. The work bridges fundamental many-body physics with the discovery of new quantum materials with potential applications in spintronics and quantum computing.
Professor Heung Soo Kim's research lab specializes in advanced functional materials and smart systems, with a focus on piezoelectric and electroactive materials for energy harvesting, sensing, and actuation. The lab develops novel thin films, including PZT-based and lead-free piezoelectric films, cellulose-based electroactive paper (EAPap), and hybrid nanocomposites for sustainable electromechanical applications. Research also spans structural health monitoring using AI-driven data analytics and prognostics for mechanical components like RV reducers, integrating smart materials with digital transformation. The lab emphasizes multifunctional, lightweight, and biodegradable materials for next-generation bioelectronics, supercapacitors, and structural health monitoring systems.
Professor Daniel S. Thoma's research lab specializes in periodontal and implant dentistry, focusing on soft tissue augmentation, peri-implant health, and clinical outcomes of various grafting techniques. The lab investigates the efficacy of autogenous and alternative graft materials—such as connective tissue grafts (SCTG), free gingival grafts (FGG), and xenografts—in enhancing keratinized mucosa, mucosal thickness, and long-term implant stability. Key research directions include comparative evaluations of surgical techniques, patient-reported outcomes, and long-term survival rates of dental implants, particularly in challenging anatomical sites like the posterior maxilla with sinus augmentation. The lab emphasizes evidence-based clinical decision-making, aiming to optimize both functional and aesthetic outcomes in implant and periodontal therapy.
Professor John Hoon Rim's research lab specializes in clinical and translational genomics, focusing on the genetic basis of inherited disorders, particularly inherited sensory neuropathies and hearing loss. The lab employs next-generation sequencing (NGS) and bioinformatics to enable early molecular diagnosis and personalized management in pediatric and adult-onset sensory disorders. A key emphasis is placed on optimizing diagnostic yield through standardized, team-based approaches and exploring novel therapeutic targets, such as KCNQ4 potassium channels, for hearing loss. The lab also investigates metabolic and infectious disease biomarkers, including LDL cholesterol estimation and antimicrobial resistance in pathogens like *Acinetobacter baumannii*.
Professor Kwang Yeon Hwang's research lab specializes in structural biology and biochemistry, focusing on the molecular mechanisms of enzymes and host-pathogen interactions. The lab investigates the structural and functional properties of key biological molecules, including exosomes, creatine kinase, fatty acid synthase, α-amylases, methionine sulphoxide reductases, and bacterial effector proteins such as RavZ. Their work combines X-ray crystallography, bioorthogonal labeling techniques, and biochemical analysis to elucidate protein dynamics, enzyme mechanisms, and host-pathogen interplay at the atomic level.
Professor Je-Min Choi's research lab focuses on immunoregulation and molecular mechanisms underlying T cell differentiation and function, with a particular emphasis on transcription factors such as NFAT, Foxp3, and PPARγ, and immune checkpoint molecules like CTLA-4. The lab investigates how these regulators control T helper cell subset development (Th1, Th2, Th17, Tfh, Treg) and their roles in autoimmune and allergic diseases. Using innovative protein transduction technologies and small molecule modulators, the lab develops novel therapeutic strategies targeting immune tolerance and inflammation.
Professor Joonkoo Lee's research lab specializes in global value chain (GVC) analysis, focusing on the governance structures, upgrading dynamics, and socio-economic impacts of global production systems. The lab investigates how multinational enterprises, lead firms, and institutional frameworks shape development trajectories in emerging economies, particularly in relation to smallholder agriculture, mobile phone manufacturing, and platform-based industrial systems. It also explores the transformative effects of the Fourth Industrial Revolution on cross-sectoral innovation and value creation. The lab’s work bridges economic development, industrial policy, and social equity in globalized production networks.
Professor Im Doo Jung's research lab specializes in advanced functional materials and additive manufacturing, with a strong focus on sustainable energy technologies and smart materials for next-generation electronics. The lab develops innovative solutions in energy harvesting—particularly electrochemical kinetic energy harvesting and electrochromic displays—while advancing 3D printing techniques like direct-ink writing and laser-based additive manufacturing for high-performance materials such as perovskite composites and tool steels. Key research directions include intelligent process optimization using artificial intelligence, distributed sensing for structural health monitoring, and novel fabrication strategies for micro-patterned electroactive materials.
Professor Cheon-Seok Park's research lab specializes in structural and biochemical enzymology, focusing on carbohydrate-active enzymes such as amylomaltase. The lab investigates the molecular mechanisms underlying enzyme function, particularly the conformational dynamics and catalytic activities of glycosyltransferases in thermophilic microorganisms. By combining X-ray crystallography with kinetic and mutagenesis studies, the lab aims to elucidate structure-function relationships that govern substrate specificity and catalytic efficiency. Their work contributes to the broader understanding of glycogen metabolism and has implications for industrial biotechnology and enzyme engineering.
Professor Moo Kyun Park's research lab specializes in otorhinolaryngology and head and neck surgery, with a strong focus on otology and audiological sciences. The lab investigates the pathogenesis and clinical management of chronic otitis media (COM), idiopathic sudden sensorineural hearing loss, and the impact of lifestyle factors—such as coffee consumption—on hearing and tinnitus. It also explores innovative diagnostic technologies, including wearable breath sensors for real-time health monitoring, particularly in respiratory and systemic conditions.
Professor Ho-Young Lee's research lab focuses on molecular mechanisms underlying gene regulation, particularly in the context of non-coding RNAs and their roles in cancer biology. The lab investigates the functions of RNA-binding proteins—such as TRBP and Dicer—in microRNA biogenesis and isoform diversity (isomiRs), as well as their implications in lung carcinogenesis. Additionally, the lab explores signaling pathways involving IGFs, IGFBP-3, Akt, and JNK in non-small cell lung cancer, aiming to identify therapeutic targets. The lab also develops innovative RNA-protein interaction isolation technologies using CRISPR-Csy4 systems for functional genomics.
Professor Chungyoon Chun's research lab specializes in indoor environmental quality, with a primary focus on thermal comfort, sleep environments, and their physiological and psychological impacts across different age groups and living conditions. The lab investigates how factors such as temperature, humidity, air quality, and building materials affect human health and well-being, particularly in residential settings. Key research directions include thermal sensation prediction in elderly populations, sleep quality in relation to bedroom environments, and behavioral responses to climate control in homes and vehicles.
Professor Muhammad Nasir Bashir's research lab specializes in sustainable materials and advanced energy systems, focusing on eco-friendly natural fiber composites, metal matrix nanocomposites via friction stir processing, and innovative energy solutions such as HHO-based combustion enhancement in internal combustion engines. The lab also investigates power quality improvement through active power filters and explores thermofluid dynamics in nanofluid systems for efficient heat transfer. These interdisciplinary efforts align with global sustainability goals, emphasizing renewable materials, energy efficiency, and reduced environmental impact.
Professor Gregory A. Porumbescu's research lab focuses on the intersection of digital governance, transparency, and citizen trust in public institutions. His work explores how e-government platforms, social media, and computer-mediated transparency influence citizens’ perceptions of government trustworthiness, performance, and responsiveness. The lab emphasizes empirical investigations into the role of information access and communication technologies in shaping civic engagement and policy compliance. A central theme is understanding the paradoxes and inequalities that may emerge when governments adopt digital tools to enhance openness and inclusion.
Professor Hyoung Won Baac's research lab specializes in advanced optoacoustic technologies, focusing on the development of carbon nanotube (CNT)-based nanocomposites for high-frequency, high-amplitude ultrasound generation. The lab explores novel materials and nanostructures—particularly CNT-polymer composites—engineered for exceptional thermal, optical, and mechanical performance in both diagnostic and therapeutic ultrasound applications. Key research directions include laser-induced ultrasound for non-invasive tissue manipulation, high-resolution imaging, and precise cell cluster fractionation using focused ultrasound, supported by high-speed imaging and optoacoustic modeling. The lab also investigates transparent conductive electrodes based on CNTs and graphene for next-generation optoelectronic devices, especially in semitransparent solar cells.
Professor Hee Jae Huh's research lab specializes in molecular diagnostics and antimicrobial resistance in non-tuberculous mycobacteria (NTM), with a focus on developing and evaluating rapid molecular assays for accurate species identification and drug resistance detection. The lab investigates genetic markers associated with resistance to key anti-mycobacterial drugs such as clarithromycin and amikacin, particularly in *Mycobacterium avium* complex and *M. abscessus* subspecies. Their work bridges clinical microbiology and molecular genetics to improve patient management through timely and precise diagnostic tools. The lab also contributes to the standardization of molecular testing methods for NTM infections.
Professor Moon Soo Bak's research lab specializes in plasma science and engineering, focusing on the development and application of non-thermal plasma technologies for environmental, biomedical, and energy-related challenges. Key research directions include plasma-based sterilization of medical devices—particularly face masks—using ozone and pulsed discharges, as well as the fundamental study of plasma dynamics and energy transfer in atmospheric pressure air and nitrogen. The lab also investigates plasma-assisted gas conversion, such as CO₂ reforming into CO, and the use of ultrafast laser-plasma interactions for advanced diagnostics and material processing. Their work combines experimental diagnostics, kinetic modeling, and innovative plasma source design to enable practical, safe, and efficient solutions.
Professor Jaehoon Oh's research lab specializes in medical AI and intelligent healthcare systems, focusing on leveraging machine learning and deep learning for clinical decision support, particularly in critical care and emergency medicine. The lab investigates personalized and federated learning approaches to address data heterogeneity in healthcare while ensuring model generalization and performance. Key research directions include smartwatch-based feedback systems for cardiopulmonary resuscitation (CPR), smartphone applications for CPR training and real-life emergency response, and deep learning models for early diagnosis of life-threatening conditions such as acute thoracic aortic dissection using routine imaging like chest X-rays. The lab emphasizes practical, real-world applications of AI to improve patient outcomes in time-sensitive medical scenarios.
Professor Hong Gi Kim's research lab specializes in sustainable cementitious materials and concrete technology, focusing on enhancing the durability, mechanical performance, and environmental sustainability of concrete through innovative supplementary cementitious materials and nanomaterials. The lab investigates the use of industrial by-products such as silica fume, steel slag, wheat straw ash, and light-burnt dolomite as eco-friendly alternatives to ordinary Portland cement, while also exploring nano-additives like TiO₂ and SiO₂ to improve resistance to environmental degradation. A key research direction involves optimizing hydration kinetics and microstructure development to mitigate autogenous shrinkage and enhance long-term performance in high-strength and underwater concretes.
Professor Hongdoo Kim's research lab specializes in advanced materials development for electronic and biomedical applications, with a strong focus on solution-processed thin-film transistors, dielectric materials, and functional polymers. Key research directions include low-temperature fabrication of high-performance oxide semiconductors—particularly zinc oxide (ZnO) TFTs—using UV-assisted thermal annealing, and the design of novel dielectrics such as ZrO₂ and Al₂O₃ for flexible and plastic electronics. The lab also explores polymer-based materials for bioelectronic applications, including dry electrodes for long-term biosignal monitoring, emphasizing material compatibility, mechanical flexibility, and electrical performance. Additionally, the group investigates molecular-level interactions in polyurethanes and blocked isocyanates for industrial and specialty chemical applications.
