首尔大学、KAIST、延世大学等韩国QS前10名大学的研究室信息。
Professor Daehoon Kim's research lab focuses on cardiovascular and cerebrovascular diseases, with a strong emphasis on atrial fibrillation (AF) and its long-term complications, including dementia and cognitive decline. The lab investigates the impact of rhythm and rate control strategies, anticoagulant adherence, and comorbid conditions such as hypertension on clinical outcomes in AF patients. Using large-scale national databases, the lab explores mechanisms linking AF to neurocognitive impairment and identifies modifiable risk factors, particularly in midlife populations. The research also extends into molecular mechanisms of epigenetic regulators like CARM1, linking cellular signaling to disease pathogenesis.
Professor Chul Hwan Park's research lab specializes in advanced medical imaging and surgical reconstruction, with a focus on improving diagnostic accuracy in cardiovascular and pulmonary diseases through computed tomography and cardiac MRI. The lab also pioneers innovative microsurgical techniques, particularly in facial and auricular reconstruction using free flaps, emphasizing anatomical precision and aesthetic outcomes. A key research direction involves optimizing imaging protocols for accurate size matching in lung transplantation using CT-derived lung volume as a surrogate marker. The lab integrates clinical radiology, surgical anatomy, and patient-centered outcomes to enhance diagnostic and therapeutic strategies in cardiothoracic and maxillofacial surgery.
Professor SiHyun Cho's research lab focuses on identifying and validating novel biomarkers for endometriosis, with a particular emphasis on urinary and serum proteins such as VDBP, sFlt-1, osteopontin, and COX-2. The lab investigates the molecular and immunological mechanisms underlying endometriosis pathogenesis, especially the roles of angiogenesis, inflammation, and immune modulation in different disease stages. Their work also explores therapeutic strategies, including the use of hormonal intrauterine devices for postoperative recurrence prevention. The lab integrates clinical observations with molecular biology to advance non-invasive diagnostics and targeted therapies for endometriosis.
Professor Sei-Young Lee's research lab specializes in bioinspired materials and biomedical engineering, focusing on the design and application of nano- and micro-particles for targeted drug delivery, particularly in intravascular and pulmonary systems. The lab investigates the hydrodynamic behavior of non-spherical particles, the role of biomolecules in vascular permeability and inflammation, and the development of biomimetic surfaces to enhance medical device integration and reduce infection. A key focus is on understanding cellular and molecular mechanisms in cancer progression, including perineural invasion and radioresistance in oral squamous cell carcinoma.
Professor Hae-Seok Lee's research lab specializes in the development of advanced nanomaterials and hybrid heterostructures for next-generation energy conversion and storage applications. The lab focuses on designing flexible, lightweight, and high-performance electrodes for transparent conducting oxides, perovskite and organic solar cells, and supercapacitors, with an emphasis on scalable fabrication techniques such as sputtering, electrospinning, and atomic layer deposition. Key research directions include enhancing optical transparency, electrical conductivity, and environmental stability through innovative nanostructuring and interface engineering. The lab also explores the integration of transition metal oxides, carbon nanotubes, and metal-organic frameworks into functional devices for sustainable energy technologies.
Professor Jin Hyup Lee's research lab focuses on the molecular mechanisms underlying cellular redox regulation, circadian rhythm, and oxidative stress-induced cell death. The lab investigates the roles of key metabolic enzymes such as NADP+-dependent isocitrate dehydrogenase (IDPm) in maintaining mitochondrial and cellular redox homeostasis, particularly under conditions of oxidative stress and genotoxic damage. Additionally, the lab explores the interplay between the circadian clock, especially cryptochrome (CRY) proteins, and tumor suppression pathways, revealing how circadian disruption influences apoptosis and cancer development. Their work integrates redox biology, metabolism, and circadian molecular mechanisms to uncover novel therapeutic targets for cancer and degenerative diseases.
Professor Stephen Appleby's research lab specializes in theoretical and phenomenological gravity, focusing on modified gravity theories as alternatives to general relativity with a cosmological constant. The lab investigates $F(R)$ gravity, Galileon models, and Horndeski-type scalar-tensor theories to understand cosmic acceleration, dark energy, and the viability of these frameworks under cosmological and astrophysical constraints. Key research directions include the stability and consistency of modified gravity models, their behavior in early and late-time cosmology, and the impact of anisotropy and inhomogeneity on observational tests. The lab employs advanced cosmological simulations, statistical analysis of supernova and CMB data, and analytical methods to probe the nature of gravity and dark energy across cosmic time.
Professor Evgenij Zubko's research lab specializes in computational electromagnetic scattering and polarimetry of complex, irregularly shaped particles relevant to astrophysical and planetary science. The lab focuses on developing and validating numerical methods—such as the discrete dipole approximation (DDA) and superposition T-matrix method—for modeling light scattering by agglomerated, porous, and fractal-like dust particles. Key research directions include understanding the photopolarimetric signatures of cometary dust, interpreting in situ measurements from space missions (e.g., Stardust), and refining models of interplanetary and cometary dust morphology and composition. The lab also investigates the limitations and accuracy of scattering theories under various physical conditions, particularly for particles with high aspect ratios or strong absorption.
Professor Jin-Byung Park's research lab specializes in synthetic biology and systems metabolic engineering, focusing on the sustainable production of high-value chemicals from renewable feedstocks such as fatty acids and plant oils. The lab develops innovative whole-cell biocatalysts using engineered enzymes and microbial hosts—particularly *Escherichia coli* and *Saccharomyces cerevisiae*—to enable multi-step cascades for the synthesis of dicarboxylic acids, hydroxy- and aminocarboxylic acids, epoxides, and long-chain amines. A central theme is the optimization of enzyme stability and catalytic efficiency to enhance productivity and scalability in biotransformations.
Professor Myoungsu Shin's research lab specializes in advanced concrete materials and structural engineering, with a focus on improving the seismic performance of reinforced concrete structures through innovative analysis methods and smart materials. The lab investigates the behavior of beam-column joints under cyclic loading, develops conductive cement composites for self-healing and accelerated curing applications, and explores practical finite element modeling techniques for real-world structural systems. A key emphasis is placed on bridging the gap between laboratory research and field application, particularly in enhancing durability and sustainability of infrastructure.
Professor Seong Jin Jo's research lab specializes in regenerative medicine and dermatological therapeutics, with a focus on stem cell biology, fibroblast maturation, and tissue repair mechanisms. The lab investigates clinical applications of mesenchymal stem cell-derived conditioned media and phototherapy safety in diverse skin types, while also exploring innovative approaches in telemedicine for dermatological diagnosis. Additionally, the lab examines the biochemical and functional changes in traditional fermented foods, such as soybean paste, over extended aging periods, linking these to bioactive compounds like GABA and isoflavones. The integration of molecular biology, clinical dermatology, and biophysical material science defines the lab’s interdisciplinary approach.
Professor Naomichi Yamamoto's research lab specializes in indoor and outdoor fungal ecology, focusing on the dynamics, diversity, and health impacts of airborne and dust-associated fungi. The lab employs advanced molecular techniques such as quantitative PCR, high-throughput sequencing, and tracer gas measurements to investigate fungal exposure in residential, school, and urban environments. Key research directions include understanding size-resolved fungal communities, source apportionment of indoor allergens, and the role of ventilation and building characteristics in modulating human exposure. The lab also develops and validates novel sampling and detection methods for fungal pathogens and allergens in environmental media.
Professor Chung-Hwi Yi's research lab specializes in biomechanics and neuromuscular control, focusing on postural stability, musculoskeletal health, and the effects of external loads and interventions on movement and muscle activity. The lab investigates how factors such as backpack design, taping, and posture influence spinal and lower limb function, particularly in children and young adults. Key research directions include the impact of load distribution on neck and back posture, the role of neuromuscular control in injury prevention, and the optimization of therapeutic techniques like taping and exercise. The lab employs surface EMG, motion analysis, and force plate measurements to evaluate physiological responses during dynamic tasks such as walking and landing.
Professor Changsik Song's research lab specializes in advanced materials chemistry, with a focus on sustainable polymer design, energy storage materials, and functional molecular systems. The lab develops biomass-derived and recyclable polymers, including network polyurethanes with dynamic covalent bonds for self-healing and shape-memory applications, and designs high-performance polymer electrolytes for next-generation lithium-ion batteries. Additionally, the lab investigates electron spin systems and dynamic nuclear polarization for enhanced NMR techniques, as well as functional organic materials such as emissive π-dimers and conductive hydrogels for optoelectronic and sensing applications.
Professor Jisoo Lee's research lab focuses on immunology and cancer biology, with a particular emphasis on understanding the development and function of B cell subsets, especially pre-naive and CD5+ B cells, in human immunity and disease. The lab also investigates the therapeutic potential of natural compounds—such as walnut phenolic extracts and their bioactive components—against cancer stem cells, aiming to overcome chemotherapy resistance. Additionally, the lab addresses health disparities in autoimmune diseases, particularly systemic lupus erythematosus (SLE), among women of childbearing age. These interdisciplinary efforts integrate immunophenotyping, in vitro differentiation assays, and functional screening of natural products to identify novel therapeutic strategies.
Professor Jae-Sung Rieh's research lab specializes in advanced semiconductor devices, with a primary focus on silicon-germanium heterojunction bipolar transistors (SiGe HBTs) for high-speed and terahertz applications. The lab investigates device scaling, thermal management, and reliability in nanoscale transistors, emphasizing the simultaneous optimization of high-frequency performance (fT and fmax), noise characteristics, and thermal resistance. Key research directions include the development of analytical and simulation models for thermal behavior, structural design for improved heat dissipation, and the integration of SiGe HBTs into broadband communication systems. The lab's work bridges fundamental device physics with practical applications in next-generation RF, mixed-signal, and terahertz electronics.
Professor Kyoung Doo Song's research lab specializes in interventional radiology and medical imaging, with a primary focus on image-guided ablation therapies for hepatocellular carcinoma (HCC). The lab investigates the technical feasibility and long-term outcomes of percutaneous radiofrequency ablation (RFA) and cryoablation, particularly for small and recurrent HCCs, using advanced fusion imaging techniques that combine ultrasound with MRI or CT. Research also extends to the characterization of renal masses using dual-energy CT and the differentiation of benign from malignant pulmonary lesions using PET/CT. The lab emphasizes improving diagnostic accuracy and therapeutic precision through innovative imaging integration and image-guided interventions.
Professor Hyungsuk Kim's research lab focuses on translational and molecular mechanisms underlying musculoskeletal disorders, particularly degenerative spinal conditions and chronic pain. The lab investigates spinal deformity correction, especially sagittal decompensation and lumbosacral fixation, alongside the molecular transcriptomic transitions from acute to chronic low back pain. Additional research explores the pathophysiology of diabetic nephropathy and the therapeutic potential of natural compounds like garlic phytocompounds in cancer. The lab integrates clinical outcomes with molecular biology and bioinformatics to identify novel therapeutic targets and biomarkers.
Professor Seung Yong Hwang's research lab focuses on environmental health and molecular toxicology, investigating the biological impacts of environmental exposures—particularly volatile organic compounds (VOCs) and industrial pollutants—on human health. The lab employs high-throughput 'omics' technologies, including microarray analysis, epigenetic profiling (DNA methylation), and lncRNA expression analysis, to understand molecular mechanisms underlying disease susceptibility. A key research direction involves identifying biomarkers and genetic responses associated with combined chemical exposures, especially in occupational and environmental settings. The lab also explores the role of endogenous signaling molecules, such as type I interferons, in immune and hematopoietic regulation.
Professor Sungyoung Choi's research lab specializes in microfluidic technologies for label-free, non-invasive cell and particle manipulation, with a focus on hydrodynamic and dielectrophoretic principles. The lab develops innovative microdevices that exploit hydrophoretic forces—generated by structured microchannels and obstacles—to achieve high-throughput, sheathless focusing, separation, and sizing of microparticles, blood cells, and platelets with minimal shear stress. A key research direction involves leveraging intrinsic physical differences such as size and dielectric properties for cell cycle synchronization and rare cell sorting, enabling applications in clinical diagnostics and regenerative medicine. The lab emphasizes simplicity, scalability, and physiological compatibility in its microfluidic platform designs.
