Explore research labs at leading universities worldwide — research fields and key papers at a glance.
Professor Chul Jeong's research lab focuses on tourism behavior, consumer psychology, and sustainable practices within the tourism and hospitality industries. Key research directions include tourist motivation, destination image formation, hedonic and eudaimonic experiences, trust and loyalty in service contexts, and food waste reduction in restaurants. The lab employs mixed-methodological approaches, combining experimental designs, surveys, and theoretical models such as the Norm Activation Model to explore behavioral intentions and psychological drivers in tourism and service settings.
Professor Hyeonjong Yang's research lab specializes in advanced wireless communication systems, with a focus on interference management, massive MIMO, and physical layer network coding in multi-user and multi-relay scenarios. The lab develops innovative signal processing techniques such as opportunistic interference alignment, lattice coding, and precoding schemes to enhance spectral efficiency and degrees of freedom in interference-limited cellular networks. Key research directions include user scheduling, limited feedback strategies, and practical implementations of advanced MIMO techniques for next-generation wireless systems.
Professor Hyeon-Wook Cho's research lab specializes in geotechnical and environmental engineering, focusing on the hydraulic, mechanical, and geochemical behavior of particulate materials such as soils, sands, and fly ash. The lab investigates particle-scale interactions, including the effects of nanoparticle coatings on soil stiffness, clogging mechanisms in porous media, and the influence of geochemical conditions on particle transport and deposition. A key research direction involves developing predictive models for hydraulic conductivity, porosity, and critical shear stress in mixed-grain soils and coarse-grained sediments, with applications in environmental protection, infrastructure sustainability, and resource recovery from industrial by-products like fly ash. The lab also explores low-cost, in-situ characterization techniques for assessing soil and ash properties, particularly carbon content and void ratio, to support safe reuse and long-term stability of engineered systems.
Professor Hong Joo Lee's research lab specializes in data-driven decision making and intelligent systems, with a focus on process mining, social network analysis, and customer behavior modeling in digital and social commerce environments. The lab investigates complex interaction patterns in online gaming clans, customer repurchase intentions in the athleisure fashion market, and the integration of ubiquitous technologies in business innovation. It also explores advanced machine learning techniques, particularly ensemble methods and uncertainty estimation in deep learning for segmentation tasks.
Professor Yong-Koo Lee's research lab specializes in cardiovascular and metabolic diseases, with a focus on atrial fibrillation, insulin resistance, and vascular risk factors in Asian populations. The lab investigates the pathophysiology of cardiac arrhythmias, including novel non-invasive monitoring techniques such as impulse-radio ultra-wideband radar for heart rate and rhythm assessment. Additional research directions include the impact of body composition—particularly body mass index and waist circumference—on outcomes after percutaneous coronary intervention, as well as the identification of rare clinical manifestations like pseudohyperphosphatemia in multiple myeloma. The lab integrates clinical epidemiology with advanced diagnostic methods to improve risk prediction and patient outcomes in cardiovascular disease.
Professor Hong Won-Kee's research lab specializes in advanced composite structural systems, focusing on innovative connections and hybrid construction methods for high-rise and precast concrete buildings. The lab investigates modularized hybrid systems, precast concrete joints, and steel-concrete composite beams that enhance ductility, load-carrying capacity, and constructability. Key research directions include dry mechanical connections for moment-resisting frames, carbon-fiber-confined concrete columns, and wide-flange steel beams with precast concrete encasement to reduce floor-to-floor height and improve structural performance.
Professor Jae-Gu Jo's research lab focuses on toxicological and molecular mechanisms underlying environmental and clinical health effects, with a strong emphasis on nanomaterial toxicity, respiratory and otological diseases, and head and neck pathology. The lab investigates the developmental and acute toxicity of nanoparticles such as silver nanoparticles in model organisms like medaka, explores the impact of cigarette smoke on tissue remodeling through MMP/TIMP regulation in nasal fibroblasts, and examines molecular markers in diseases such as cholesteatoma and schwannoma. The lab integrates molecular biology, histopathology, and clinical correlations to identify biomarkers and pathogenic mechanisms in chronic inflammatory and neoplastic conditions.
Professor Soo-Ah Kim's research lab specializes in clinical and translational metabolomics, focusing on identifying metabolic biomarkers for inflammatory and rheumatic diseases such as rheumatoid arthritis. The lab employs advanced metabolite profiling techniques, including GC/TOF MS, to uncover distinctive metabolic patterns in biological fluids like synovial fluid. Additionally, the lab investigates optimized metabolome sampling and sample preparation protocols for accurate metabolomics data, particularly in model systems like *Saccharomyces cerevisiae*. The integration of metabolomics with medical imaging—especially in oncology and renal disease—demonstrates the lab’s interdisciplinary approach to improving diagnostic accuracy and patient outcomes.
Professor Jun Eun Park's research lab focuses on translational and molecular oncology, with a strong emphasis on understanding the pathogenesis and treatment of pediatric cancers, including medulloblastoma, Wilms tumor, and acute lymphoblastic leukemia. The lab investigates genetic and molecular markers such as 1p/16q loss of heterozygosity in Wilms tumor and chromosomal translocations in B-cell precursor ALL, aiming to improve risk stratification and therapeutic outcomes. Additionally, the lab explores the protective mechanisms of natural compounds like Cordyceps militaris extract and hispidin against oxidative stress in cellular models, highlighting a dual interest in both cancer biology and cytoprotective agents. The integration of molecular diagnostics, preclinical models, and clinical data underscores the lab’s commitment to precision medicine in pediatric oncology.
Professor Jung Ho Bae's research lab specializes in health informatics, medical data analytics, and computational modeling with a focus on improving clinical decision-making and healthcare outcomes. The lab develops advanced natural language processing and computer-aided detection systems for colonoscopy, aiming to enhance the accuracy of diagnosing colorectal diseases such as Crohn’s disease and sessile serrated lesions. It also investigates the impact of social responsibility initiatives on corporate performance, integrating quantitative financial analysis with strategic management insights. Additionally, the lab explores model-driven software engineering techniques to manage complex metamodels in system design and development.
Professor Eunju Ko's research lab specializes in consumer behavior, brand management, and digital marketing within the fashion and apparel industry. Her work focuses on understanding how brand personality, online communities, and emerging technologies such as QR and smart clothing influence consumer attitudes, loyalty, and purchasing behavior. The lab explores the intersection of psychology, technology, and fashion, particularly in digital environments, to develop data-driven marketing strategies for sustainable brand engagement.
Professor Cheon Sang-Mo's research lab specializes in topological quantum phenomena, strongly correlated electron systems, and nanoscale electronic device engineering. The lab explores emergent quantum states in low-dimensional materials—particularly charge density wave systems, Mott insulators, and topological edge states—focusing on their unique electronic, optical, and mechanical responses. Key research directions include the manipulation of topological solitons, chiral transport, and the design of multifunctional electronic skins and photonic devices with topologically protected states.
Professor Do Hyung Kang's research lab specializes in sustainable energy conversion and environmental remediation, focusing on catalytic processes for carbon dioxide utilization, hydrogen production, and pollutant removal. Key research directions include chemical looping technologies for syngas and hydrogen generation, methane pyrolysis for carbon- and CO₂-free hydrogen, and the development of advanced functional materials such as molten salts, perovskites, and tin disulfide for energy and environmental applications. The lab integrates experimental and computational approaches to design efficient, stable, and scalable catalysts and materials for clean energy systems.
Professor Yun Shin Kim's research lab specializes in environmental health and indoor air quality, with a focus on assessing airborne pollutants and their impacts on human health—particularly in vulnerable populations such as children and the elderly. The lab investigates atmospheric radon as a tracer for long-range air pollution transport and conducts field studies on indoor air quality in public facilities like kindergartens and residential buildings. Key research directions include monitoring criteria pollutants (PM10, PM2.5, CO2, formaldehyde, VOCs), evaluating air cleaning technologies, and analyzing health risk probabilities associated with indoor air exposure. The lab combines field measurements with environmental monitoring techniques to support public health policy and pollution mitigation strategies.
Professor Sae-Young Park's research lab focuses on stem cell biology and regenerative medicine, with a particular emphasis on identifying and characterizing multipotent stem cells from accessible human tissues such as tonsils and placenta. The lab investigates the mechanisms underlying the differentiation of these stem cells—especially mesenchymal stem cells—into functional myogenic cells for skeletal muscle regeneration. Key research directions include optimizing cryopreservation techniques for human embryos and zygotes, and exploring the immunological responses to vaccines in aging populations, particularly in relation to pneumococcal polysaccharide vaccines. The lab integrates in vitro differentiation studies with in vivo transplantation models to evaluate therapeutic potential.
Professor Sungil Kim's research lab specializes in neuroimaging and brain structure-function relationships, focusing on psychiatric and neurological disorders such as obsessive-compulsive disorder, juvenile myoclonic epilepsy, and schizophrenia. The lab employs advanced neuroimaging techniques—including voxel-based morphometry, fractal analysis of EEG dynamics, and 3D shape modeling of brain structures—to investigate regional brain abnormalities, structural biomarkers, and neural circuitry disruptions. A key emphasis is placed on developing population-specific brain templates and applying quantitative imaging methods to understand the neurobiological underpinnings of mental and neurological diseases.
Professor Minsung Kang's research lab specializes in integrated water resources management, with a focus on reservoir hydrology, water quality assessment, and sustainable irrigation practices. The lab develops advanced modeling frameworks to estimate reservoir water balance using limited data, emphasizing practical applications in flood control, irrigation efficiency, and pollution mitigation. Research also extends to estuarine reservoirs, where the team evaluates the effectiveness of water quality management and wastewater reuse in agricultural systems.
Professor Ji Hyung Kim's research lab focuses on the immunological functions and regulatory mechanisms of innate-like T cells, particularly invariant natural killer T (iNKT) cells, in immune homeostasis and disease. The lab investigates how iNKT cells modulate inflammatory responses in conditions such as graft-versus-host disease, acute lung injury, and cancer through interactions with antigen-presenting cells and signaling pathways like Wnt/β-catenin and Notch. A central theme is the metabolic reprogramming of immune cells, especially macrophages and iNKT cells, and how redox regulation and metabolic shifts influence their inflammatory functions. The lab also explores natural compounds as potential immunomodulators, particularly in targeting transcription factors such as LEF1 in melanoma.
Professor Hong Geun Lee's research lab specializes in the development of innovative transition-metal-catalyzed methodologies for selective C–X (X = F, CN, B, etc.) and C–N bond formations, with a strong emphasis on mechanism-driven reaction design. The lab focuses on challenging transformations involving sp³-hybridized carbon centers, heteroaryl substrates, and bioactive molecules, particularly in the context of late-stage functionalization and radiolabeling for pharmaceutical applications. Their work integrates electrochemical strategies, novel ligand design, and mild, selective conditions to enable efficient and sustainable synthesis.
Professor Eun-young Kim's research lab specializes in medical imaging and diagnostic radiology, with a focus on improving the accuracy of cancer detection and characterization using advanced cross-sectional imaging techniques such as multidetector CT, MRI, and contrast-enhanced mammography. The lab investigates the role of breast density changes, thyroid function within the normal range, and innovative image-guided interventions—such as marker-clip placement in axillary lymph nodes—in optimizing breast cancer diagnosis, staging, and treatment planning. A key emphasis is on leveraging imaging biomarkers to guide clinical decision-making and reduce unnecessary surgical interventions.
