Research labs at Korea's QS Top 10 universities including SNU, KAIST, and Yonsei.
Professor Heeyeop Chae's research lab specializes in the development of advanced nanomaterials and optoelectronic devices, with a primary focus on quantum dot-based light-emitting diodes (QLEDs) and flexible energy storage systems. The lab explores solution-processed semiconductor nanostructures, particularly InP-based quantum dots, for high-efficiency and stable optoelectronic applications, while also advancing device architectures through innovative charge transport engineering. Additionally, the lab investigates 3D graphene-based nanostructures for next-generation flexible supercapacitors with exceptional mechanical robustness and electrochemical performance. Their work bridges materials synthesis, device physics, and practical applications in sustainable lighting and wearable electronics.
Professor Hyoungshick Kim's research lab specializes in network science and cybersecurity, focusing on dynamic and resilient network systems. The lab investigates models for information diffusion, anomaly detection in industrial and IoT environments, and secure authentication frameworks for emerging technologies like drones and the Internet of Drones. A central theme is developing lightweight, efficient, and scalable solutions for real-world deployment under security and performance constraints. The lab also explores strategic network attacks and defenses with cost-aware models to enhance system resilience.
Professor Kihyung Lee's research lab specializes in advanced internal combustion engine technologies, focusing on low-emission and high-efficiency combustion systems. Key research directions include two-stage and controlled autoignition (CAI/HCCI) combustion, high-pressure fuel injection systems, and spray dynamics in direct-injection engines. The lab investigates fundamental spray characteristics, such as droplet size, velocity, and impingement behavior on hot surfaces, to optimize combustion and reduce NOx and soot emissions. The work also addresses real-world driving cycle impacts on fuel efficiency and emissions, particularly under WLTP conditions.
Professor Youngmoon Lee's research lab specializes in intelligent systems and embedded technologies with a focus on real-time resource and thermal management in high-performance computing environments, particularly in automotive and healthcare applications. The lab develops advanced deep learning and IoT-based solutions for early disease detection, including monkeypox and pulmonary embolism, leveraging sensor data and edge intelligence. It also investigates environmental monitoring using satellite data for disaster assessment, such as drought and flood analysis. The lab emphasizes the integration of AI, edge computing, and secure communication in critical infrastructure and medical systems.
Professor Jinhee Kim's research lab specializes in transportation behavior, choice modeling, and sustainable mobility, with a strong focus on understanding how social networks, personal attitudes, and contextual factors influence travel decisions. The lab develops advanced econometric models—particularly hybrid and latent class models—to capture individual heterogeneity and nonlinear utility structures in mode choice and car-sharing behavior. Research also emphasizes stakeholder uncertainty and cultural influences in transportation planning, especially in urban contexts like Seoul, where eco-friendly transit systems are being developed. The lab integrates behavioral theory with empirical data to support evidence-based policy design.
Professor Jinkee Hong's research lab specializes in the design and fabrication of advanced functional nanomaterials and multilayer thin films using layer-by-layer (LbL) assembly techniques. The lab focuses on developing smart, stimuli-responsive coatings for biomedical applications—particularly controlled drug delivery systems with sequential or programmable release of therapeutics—while also exploring applications in energy storage, microwave absorption, and nanodevices. Key innovations include the use of graphene-based materials (e.g., GO, rGO) and inorganic nanoparticles (e.g., ferrite) to engineer films with tunable electrical, mechanical, and degradation properties. The lab integrates materials science, nanotechnology, and biomedicine to create multifunctional platforms for healthcare and defense technologies.
Professor Jae W. Hahn's research lab specializes in advanced photonic and plasmonic materials for stealth technology, sensing, and nanofabrication. The lab focuses on designing multispectral and multiband electromagnetic absorbers, plasmonic resonators, and metasurfaces for infrared stealth and camouflage applications. It also develops cutting-edge optical sensing systems, such as cavity ringdown spectroscopy with novel laser coupling techniques, and explores the fundamental limits of plasmonic lithography for nanoscale patterning. The integration of materials science, nanophotonics, and biomedical applications—particularly in pharmacokinetics under extracorporeal membrane oxygenation—demonstrates the lab’s interdisciplinary approach.
Professor Minah Seo's research lab specializes in terahertz (THz) science and nanophotonics, focusing on the design and application of functional metamaterials and 2D nanomaterials for ultra-sensitive sensing, dynamic control of electromagnetic waves, and advanced THz imaging. The lab pioneers the integration of materials like VO₂, MXene, and graphene with nanostructured resonators to achieve unprecedented control over THz wave manipulation, including dynamic tuning, field enhancement, and shielding. Key research directions include label-free biomolecular detection, real-time monitoring of trace hormones, and sub-wavelength characterization of light flow in plasmonic and metamaterial systems. The lab's work bridges fundamental nanophotonics with practical applications in medical diagnostics, environmental sensing, and next-generation electronics.
Professor Ji Yun Noh's research lab specializes in infectious disease epidemiology, with a focus on respiratory viruses including influenza and SARS-CoV-2. The lab investigates the impact of public health interventions—such as social distancing and infection control measures—on viral transmission dynamics and epidemic patterns. It also conducts serosurveillance to assess population-level immunity and disease burden, contributing critical insights for pandemic preparedness and hospital infection control strategies.
Professor Ki-Chul Sung's research lab focuses on cardiovascular and metabolic epidemiology, with a strong emphasis on identifying early biomarkers and modifiable risk factors for cardiovascular disease (CVD) and metabolic disorders in Asian populations. The lab investigates the role of low-grade inflammation, iron metabolism, adiposity markers, and lifestyle factors such as physical activity and alcohol intake in predicting subclinical atherosclerosis, insulin resistance, and long-term CVD outcomes. A key focus is adapting Western-derived risk thresholds—such as C-reactive protein and albuminuria levels—to better reflect the true risk in East Asian populations, where baseline levels often differ. The lab integrates clinical, metabolic, and imaging data to improve risk prediction and early intervention strategies in chronic disease prevention.
Professor Yeon-Ju Kim's research lab specializes in the development and application of biogenic nanoparticles using natural plant extracts, with a focus on sustainable and eco-friendly synthesis methods. The lab investigates the biomedical and cosmetic potential of plant-capped nanoparticles, particularly those derived from *Dendropanax morbifera* and *Panax ginseng*, exploring their antioxidant, anti-inflammatory, and multifunctional properties. Additionally, the lab examines the role of beneficial microbes in enhancing plant stress tolerance, particularly under salinity stress, contributing to agricultural sustainability. The integration of natural products with nanotechnology and environmental health is a central theme in their interdisciplinary research.
Professor Yong Jeong's research lab specializes in neuroimaging and brain network analysis, focusing on the functional and metabolic alterations in neurodegenerative diseases such as frontotemporal dementia (FTD), Alzheimer’s disease, and subcortical vascular dementia (SVaD). The lab employs advanced neuroimaging techniques—including (18)F-FDG PET and resting-state fMRI—to investigate disease-specific patterns of hypometabolism, default mode network (DMN) disruption, and individualized brain connectivity. A key methodological innovation in the lab is the development of subject-specific region-of-interest (ROI) approaches to improve the accuracy of functional connectivity analysis. The lab also contributes to preclinical modeling by creating translational mouse models of SVaD to study the pathophysiology of chronic cerebral hypoperfusion and white matter damage.
Professor Dongwoo Chae's research lab specializes in applying advanced computational and statistical methodologies—particularly machine learning, mathematical modeling, and item response theory—to clinical challenges in anesthesiology, critical care, and chronic disease management. The lab focuses on developing predictive models for perioperative complications, optimizing treatment strategies in complex conditions like liver transplantation and Parkinson’s disease, and advancing personalized medicine through data-driven approaches. Key research directions include hemorrhage prediction in surgery, phage therapy dynamics, and longitudinal modeling of neurological and pharmacological outcomes.
Professor Kyungae Jo's research lab specializes in the pharmacological and biological evaluation of natural products, with a focus on their applications in skin health, sleep regulation, and gut microbiome modulation. The lab investigates bioactive compounds from botanicals such as *Vaccinium uliginosum*, lotus leaf, jujube, and deer antler to understand their mechanisms in photoprotection, sleep promotion, and prebiotic effects. Using in vitro and in vivo models—including mice, rats, and *Drosophila*—the lab integrates biochemical, histological, and molecular analyses to validate the therapeutic potential of natural extracts.
Professor Wooram Park's research lab specializes in the development of advanced nanomaterials and smart delivery systems for biomedical applications, with a strong focus on cancer therapy and diagnostic technologies. The lab integrates principles from nanotechnology, materials science, and biomedical engineering to design stimuli-responsive nanoparticles, nanozymes, and smart photosensitizers that enhance therapeutic precision and reduce side effects. Key research directions include nanomedicine for immunotherapy and photodynamic therapy, nonholonomic motion planning for medical needle guidance, and stochastic modeling of nanoscale systems using Fokker-Planck equations on Lie groups. The lab aims to bridge fundamental science with clinical translation to address critical challenges in cancer treatment and minimally invasive interventions.
Professor Seung Tae Kim's research lab specializes in translational oncology, focusing on identifying molecular biomarkers and immune microenvironment characteristics that predict therapeutic response and prognosis in gastrointestinal and neuroendocrine cancers. The lab investigates genomic alterations such as KRAS, c-MET, and PD-L1 expression, as well as circulating tumor DNA, to guide precision medicine approaches. A central theme is understanding the tumor immune microenvironment, including regulatory T-cell infiltration and immune checkpoint expression, to improve outcomes in patients with advanced or metastatic cancers.
Professor Kyung-Young Jhang's research lab specializes in ultrasonic nondestructive evaluation and characterization of materials, with a strong focus on nonlinear ultrasonics for assessing material degradation and microstructural changes. The lab investigates the application of advanced ultrasonic techniques—such as bispectral analysis, laser-ultrasonics, and surface wave measurements—to evaluate plastic deformation, porosity, grain structure, and aging effects in metals, including steels, additively manufactured components, and reactor materials. Their work bridges fundamental ultrasonic physics with practical industrial applications, particularly in nuclear energy, semiconductors, and advanced manufacturing.
Professor Vivek Kumar Gaur's research lab specializes in sustainable biotechnology, focusing on the development of eco-friendly solutions for environmental pollution using microbial and plant-based systems. The lab explores biosurfactant production from agricultural waste, such as corncob and pineapple waste, to create cost-effective and stable bioproducts for industrial and environmental applications. A key focus is on harnessing omics technologies—metabolomics and genomics—to identify and optimize high-yielding biosurfactant-producing microbes. The lab also investigates the bioremediation of heavy metal-contaminated environments through microbial and phytoremediation strategies.
Professor Yuhyung Shin's research lab specializes in organizational behavior and industrial-organizational psychology, focusing on the psychological and motivational mechanisms that influence employee performance, engagement, and well-being in dynamic work environments. The lab investigates key constructs such as job crafting, work engagement, virtual work, regulatory fit, job insecurity, and team-level affect and culture, with an emphasis on how individual and group-level processes shape organizational outcomes. Drawing on theoretical frameworks like self-determination theory and the person-environment fit model, the lab explores how individual differences and contextual factors interact to influence motivation, creativity, and citizenship behaviors in diverse organizational settings, particularly in South Korea and increasingly in global contexts. The research often employs multi-level, longitudinal, and cross-sectional survey designs to test complex mediating and moderating relationships in real-world work environments.
Professor Chang Young Lee's research lab specializes in the development of advanced nanomaterial-based sensors and electronic systems, focusing on carbon nanotubes, graphene, and liquid-metal composites for applications in ultra-sensitive chemical and biological detection. The lab explores fundamental signal transduction mechanisms in nanoscale systems, including stochastic resonance, charge transfer, and adsorption dynamics, to enable high-resolution, reversible, and scalable sensing. A key focus is on creating stretchable and 3D-integrated electronic interconnections for soft and wearable devices, merging materials science with microfabrication and molecular sensing. The lab also investigates the integration of nanomaterials with microfluidic and micro-GC platforms to achieve single-molecule-level detection with minimal footprint and high speed.
