Research labs at Korea's QS Top 10 universities including SNU, KAIST, and Yonsei.
Professor Kyu-Jin Cho's research lab specializes in soft robotics, with a focus on bio-inspired design, adaptive morphing mechanisms, and fully soft robotic systems. The lab develops wearable soft robots—such as the Exo-Glove Poly series—for medical rehabilitation, particularly for individuals with spinal cord injuries, emphasizing compliance, compactness, and user adaptability. Key research directions include novel actuation strategies using shape memory alloys, origami-inspired mechanisms, and skin-like electronic systems that enable wireless, fully soft actuation. The lab also explores dual-mode morphing and bistable structures inspired by nature, such as the Venus flytrap, to achieve fast, energy-efficient motion in soft robots.
Professor Sun Kyong Lee's research lab focuses on communication dynamics in digital and intergroup contexts, with a strong emphasis on misinformation, social media use, and interpersonal communication in immigrant and minority communities. Key research directions include the spread and impact of health-related misinformation (particularly around vaccines), the role of media affordances in organizational and identity socialization, and the influence of mobile communication on social network formation and solidarity among marginalized groups. The lab also investigates trust and emotional engagement in human-machine interactions, especially with virtual agents, and explores how structural and demographic factors shape social support networks in ethnic and immigrant communities.
Professor Sung Joong Kim's research lab specializes in advanced thermal fluids and energy systems, with a strong focus on nanofluid-based heat transfer enhancement, particularly in boiling heat transfer and flow boiling applications. The lab investigates the mechanisms behind critical heat flux (CHF) improvement using various nanoparticles such as alumina, zirconia, and diamond at low concentrations, linking surface morphology and wettability changes to performance gains. Additionally, the lab explores innovative applications in biomedical engineering, including implantable retinal stimulation systems, and applies machine learning to accelerate computational fluid dynamics (CFD) simulations for complex chemically reacting flows.
Professor Yongbin Hua's research lab specializes in the design, synthesis, and characterization of rare-earth and transition metal ion-doped perovskite and double-perovskite phosphors for advanced optoelectronic applications. The lab focuses on developing phosphors with high photoluminescence quantum yields, excellent thermal stability, and tunable emission colors for use in white light-emitting diodes (WLEDs) and optical temperature sensing. Key research directions include exploring energy transfer mechanisms, crystal field effects, and charge transfer processes to optimize luminescent performance. The lab also investigates materials compatible with plant photosynthesis, such as deep-red emitting phosphors for agricultural lighting.
Professor Eun Joo Song's research lab focuses on molecular mechanisms underlying post-transcriptional gene regulation, particularly through microRNAs and ubiquitin signaling pathways. The lab investigates the roles of non-coding RNAs, such as miR-195, miR-497, and miR-27a, in regulating key signaling pathways like TGF-β in cancer and in disease contexts such as diabetic wound healing. Additionally, the lab explores the dynamic regulation of RNA processing machinery, including the spliceosome and its ubiquitination-dependent control, to understand its implications in human diseases. The integration of molecular diagnostics and therapeutic strategies using miRNAs and small molecule sensors further defines the lab’s translational research direction.
Professor GwangPyo Ko's research lab specializes in microbial ecology, with a focus on the host-microbiota interactions in human health and disease. The lab investigates the roles of specific microbial communities—particularly in the vaginal and gastrointestinal tracts—in influencing susceptibility to infections such as HPV, candidiasis, and viral pathogens. Using molecular techniques like 16S rRNA gene sequencing, RT-PCR, and virological assays, the lab explores microbial dynamics, antimicrobial mechanisms, and environmental factors affecting pathogen survival. Additionally, the lab evaluates physical and chemical interventions, such as UV germicidal irradiation and disinfection strategies, to control airborne and surface-borne pathogens.
Professor Yong-Hwa Park's research lab specializes in microelectromechanical systems (MEMS) and micro-opto-electromechanical systems (MOEMS), with a strong focus on energy loss mechanisms in resonant devices, particularly anchor loss in MEMS resonators. The lab develops advanced computational multiphysics models to predict Q-factor and design sensitivity, integrating beam dynamics, substrate wave propagation, and electrostatic actuation. In parallel, the lab explores biomedical applications, including AI-driven cough detection using sound cameras and robot-assisted gait training for stroke rehabilitation. The research also extends into bio-inspired bioprocessing, such as mycelial penicillin fermentation using carrier-supported growth. These diverse yet interconnected areas reflect a core mission of designing high-performance, miniaturized, and intelligent microsystems for healthcare and sensing applications.
Professor Hoeil Chung's research lab specializes in advanced spectroscopic techniques and nanomaterials for analytical and environmental applications. The lab focuses on developing and optimizing near-infrared (NIR) and Raman spectroscopy for real-time, non-invasive monitoring in complex systems such as bioreactors, petroleum products, and pharmaceuticals. A key research direction involves designing functional nanomaterials—particularly graphene-based and gold nanoparticle-embedded hydrogels—for enhanced sensing performance, including selective doping and surface-enhanced Raman scattering (SERS). The lab also emphasizes improving spectral reliability and sample representation through innovative optical and material engineering strategies.
Professor In-Ho Jung's research lab specializes in computational thermodynamics and materials modeling, focusing on the thermodynamic behavior of complex oxide and metal systems relevant to high-temperature metallurgical processes. The lab develops advanced thermodynamic databases and models—such as the Modified Quasichemical Model—for molten slags, steel, inclusions, and refractories, enabling accurate prediction of phase equilibria in multi-component systems. Their work supports industrial applications in steelmaking, particularly in optimizing deoxidation processes and understanding inclusion formation. The lab emphasizes the integration of experimental data with computational tools to enable predictive simulations under realistic processing conditions.
Professor Hyewon Youn's research lab specializes in the development of advanced nanocarriers and imaging technologies for precision medicine, with a focus on lipid nanoparticles (LNPs) and exosomes as delivery systems for RNA therapeutics and gene therapy. The lab integrates molecular imaging techniques—such as PET, optical imaging, and multimodal in vivo imaging—to track the biodistribution and therapeutic efficacy of these nanocarriers in preclinical models of cancer and genetic diseases. A key research direction involves optimizing the delivery and targeting of nucleic acid-based therapeutics while minimizing off-target effects and immune activation. The lab also investigates metabolic targets, such as hexokinase-II, to enhance the efficacy of cancer therapies in hepatocellular carcinoma.
Professor Gregory I. Peterson's research lab specializes in the design and development of smart, stimuli-responsive polymers and advanced manufacturing techniques for biomedical and functional materials. Key research directions include the creation of photo- and mechanochromic polymers, self-immolative polymers (SIPs) for amplified molecular responses, and biodegradable shape memory polymers for minimally invasive medical applications. The lab also pioneers innovative additive manufacturing strategies—such as vat photopolymerization with spatially controlled cross-linking and 3D printing of functionalized polymers—enabling precise control over material properties and performance. These efforts integrate polymer synthesis, materials characterization, and advanced fabrication to address challenges in healthcare and responsive materials engineering.
Professor Mi Seon Han's research lab specializes in pediatric infectious diseases, with a focus on viral and bacterial pathogenesis in children. The lab investigates the virological and immunological aspects of SARS-CoV-2 infection, particularly in pediatric populations, including viral persistence in feces and saliva, asymptomatic transmission, and immune responses. It also explores antimicrobial resistance mechanisms in pediatric bloodstream infections, such as piperacillin-tazobactam resistance in *Klebsiella pneumoniae*. The lab integrates clinical virology, microbiology, and molecular diagnostics to inform public health strategies and vaccine development.
Professor Sung Soo Kim's research lab specializes in regenerative medicine and neuroprotection, with a focus on cell-based therapies and neurotrophic factors for pediatric neurological disorders such as cerebral palsy. The lab investigates the synergistic effects of allogeneic umbilical cord blood and recombinant human erythropoietin (rhEPO) to enhance neural repair and functional recovery. Additional research interests include ocular imaging, particularly subfoveal choroidal thickness measured via enhanced depth imaging optical coherence tomography, and its relationship with ocular perfusion and refractive status in various populations. The lab integrates clinical trials with advanced imaging techniques to translate findings into practical therapeutic strategies.
Professor Kwan Soo Ko's research lab specializes in microbial genomics and molecular epidemiology, focusing on the population structure, evolutionary dynamics, and antimicrobial resistance mechanisms of pathogenic bacteria such as *Acinetobacter baumannii*, *Staphylococcus aureus*, and *Bacillus* species. The lab employs molecular typing techniques like multilocus sequence typing (MLST) and gene sequencing to investigate genetic diversity, horizontal gene transfer, and the emergence of multidrug-resistant strains. A key research direction involves developing molecular differentiation methods for accurate pathogen identification and guiding effective antimicrobial therapy.
Professor Jang Wook Choi's research lab specializes in advanced materials and electrolyte engineering for next-generation batteries, with a strong focus on lithium-ion and lithium-metal batteries. The lab develops innovative solutions such as polydopamine-functionalized separators, silicon-based anodes with graphene encapsulation, and novel fluorinated ether electrolytes to enhance energy density, cycle life, and safety. Key research directions include interface engineering, dendrite suppression, and designing multifunctional materials that simultaneously improve ionic conductivity, mechanical stability, and electrochemical performance. The lab bridges fundamental materials science with practical battery applications, targeting scalable and commercially viable energy storage technologies.
Professor Chang Moo Kang's research lab specializes in pancreatic and biliary tract diseases, with a strong focus on surgical oncology, minimally invasive and robotic surgery, and the pathological and clinical characterization of rare pancreatic and biliary tumors such as solid pseudopapillary tumors (SPTs) and choledochal cysts. The lab emphasizes standardized pathological reporting, long-term survival outcomes, and the physiological and metabolic consequences of major pancreatic and biliary surgeries, including pancreaticoduodenectomy and distal pancreatectomy. Recent work also explores the application of robotic-assisted techniques in complex hepatobiliary and pancreatic procedures.
Professor Youngcheol Kang's research lab focuses on enhancing safety, sustainability, and performance in the construction industry through technology-driven solutions. Key research directions include fall accident prevention, green building implementation, and the integration of information technology and the Internet of Things (IoT) for improved project and site safety. The lab emphasizes data-driven analysis, performance measurement, and pre-project planning to address systemic challenges in construction management.
Professor Kai-Kit Wong's research lab specializes in advanced wireless communication systems, with a strong focus on innovative antenna technologies and spectral efficiency enhancement for next-generation mobile networks. The lab explores fluid antenna systems (FAS) that enable dynamic spatial reconfiguration to improve system reliability and capacity, particularly in challenging propagation environments. Research also extends to 6G mobile communications, emphasizing high energy and spectral efficiency, robust signal processing, and reliable performance over fading channels. The lab combines theoretical analysis with practical system design to address fundamental limits in wireless connectivity.
Professor Ji-Hun Seo's research lab specializes in stimuli-responsive soft materials, with a focus on supramolecular polymers, dynamic polymer networks, and functional biomaterials. The lab develops advanced materials such as polyrotaxane-based systems, conductive elastomers, and polymer electrolytes that exhibit tunable mechanical properties, reversible responsiveness, and enhanced performance in biomedical and energy applications. Key research directions include designing dynamic interfaces for cell-material interactions, creating stretchable ionic conductors, and engineering smart elastomers and solid electrolytes through supramolecular architecture.
Professor Sang J. Chung's research lab specializes in the development of advanced nanomaterials and bioactive molecules for biomedical applications, with a strong focus on drug delivery, enzyme inhibition, and biosensing. The lab explores stimuli-responsive polymeric nanoparticles for controlled and theranostic drug delivery, investigates small molecule inhibitors targeting key metabolic and signaling enzymes such as cytidine deaminase and protein tyrosine phosphatases, and develops novel nanomaterial-based platforms for ultrasensitive detection of biologically relevant molecules like hydrogen peroxide. A central theme is the design of smart, eco-friendly nanomaterials with enzyme-mimicking activities for point-of-care diagnostics and therapeutic intervention.
