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 Ki-Young Lee's research lab focuses on signal transduction pathways in innate and adaptive immunity, with a particular emphasis on redox regulation, oxidative stress, and the molecular mechanisms underlying inflammatory and immune responses. The lab investigates key signaling hubs such as NF-κB, ASK1, and TLR4, exploring their regulation by redox-sensitive proteins like peroxiredoxin-1 and multifunctional adaptors such as ECSIT. Using advanced biochemical, structural, and cell biological approaches—including NMR spectroscopy and nanodisc systems—the lab uncovers the structural and functional basis of protein interactions in immune activation and disease pathogenesis.
Professor Fakhar ud Din's research lab specializes in advanced drug delivery systems, with a primary focus on nanotechnology-based formulations for targeted cancer therapy. The lab develops innovative nanocarriers such as niosomes, solid lipid nanoparticles (SLNs), and nanogels to enhance drug solubility, bioavailability, and site-specific delivery while minimizing systemic toxicity. Key research directions include thermosensitive and stimuli-responsive nanocarrier systems for rectal and intravenous administration, aiming to improve therapeutic efficacy and reduce side effects in oncology. The lab also explores novel polymeric and surfactant-based systems for effective delivery of both hydrophilic and hydrophobic anticancer agents.
Professor Jae-il Jang's research lab specializes in the nanomechanical characterization of advanced materials, with a focus on understanding the structure-property relationships in nanoscale systems. The lab employs advanced techniques such as nanoindentation and atomic force microscopy to investigate mechanical behavior, phase transformations, and deformation mechanisms in semiconductors like silicon and germanium, as well as in nanowires and single crystals. Their work bridges materials science, solid mechanics, and surface characterization, aiming to provide precise, reliable mechanical property measurements at the nanoscale. The lab also emphasizes the correlation between mechanical responses and underlying atomic-level structures and intermolecular interactions.
Professor Jin-Gyun Kim's research lab specializes in advanced structural dynamics and mechanical reliability, focusing on component mode synthesis methods for efficient and accurate model reduction in finite element analysis. The lab develops innovative techniques to enhance traditional methods like Craig–Bampton and flexibility-based component mode synthesis, with an emphasis on improving accuracy while minimizing computational cost. Research also extends to materials science, particularly the electrochemical behavior and corrosion properties of magnesium-based sacrificial anodes for marine and aerospace applications. The lab integrates computational mechanics with experimental validation to support the design of high-performance engineering systems.
Professor Wook Park's research lab specializes in developing advanced anti-counterfeiting technologies and secure authentication systems using novel nanomaterials and physical unclonable functions (PUFs). The lab focuses on creating highly unique, irreproducible micro- and nanostructures—such as wrinkle-based codes, QR-coded microtaggants, and chaotic phosphorescent patterns—enabling robust product authentication in pharmaceuticals, IoT devices, and high-security labeling. By integrating optical decoding, DNA-based data storage, and self-organized 3D microstructures, the lab pioneers smart, scalable, and tamper-resistant security solutions for real-world applications.
Professor Hyungmin Park's research lab specializes in fluid dynamics and experimental hydrodynamics, with a strong focus on drag reduction mechanisms in both laminar and turbulent flows. The lab investigates superhydrophobic surfaces, passive flow control devices, and bio-inspired morphologies—such as those found in flying fish and bubble dynamics—to develop energy-efficient solutions for marine and aerospace applications. Key research directions include skin-friction and form-drag reduction, wake manipulation using micro-scale tabs, and the behavior of deformable bubbles in confined flows.
Professor Sang-Gyu Kim's research lab focuses on plant molecular biology and chronobiology, with a central emphasis on understanding how plants perceive and respond to environmental cues through circadian rhythms and hormonal signaling. The lab investigates the genetic and molecular mechanisms underlying stress responses—particularly to abiotic (e.g., salt stress) and biotic factors (e.g., herbivory) —using advanced omics technologies such as single-cell RNA sequencing and LC-MS metabolomics. A key research direction involves dissecting the role of transcription factors and circadian clock components in regulating defense responses and floral volatiles in wild tobacco (*Nicotiana attenuata*), a model system for ecological plant-insect interactions. The lab also pioneers high-throughput genome editing tools, such as CRISPR-Cas9, to functionally validate gene roles in plant development and stress adaptation.
Professor Ui-Won Jung's research lab specializes in oral and maxillofacial regenerative medicine, focusing on tissue engineering, biomaterials, and advanced drug delivery systems for dental and craniofacial applications. Key research directions include the development of dissolving microneedles for local anesthetic delivery, bioactive coatings for dental implants, and growth factor-mediated bone regeneration using synthetic bone graft substitutes. The lab integrates clinical dentistry with materials science and translational research to improve outcomes in implant therapy and soft tissue management.
Professor Chang Hyuck Choi's research lab specializes in the design and development of advanced electrocatalysts for sustainable energy conversion, with a primary focus on oxygen reduction reactions (ORR) and hydrogen peroxide production. The lab explores atomically dispersed metal catalysts, particularly Pt and Fe-N-C systems, supported on functionalized carbon materials such as N-doped, B- and P-codoped, or sulfur-doped carbons to enhance activity, stability, and selectivity. Key research directions include understanding degradation mechanisms of non-precious metal catalysts and engineering carbon nanostructures to optimize electronic and surface properties for electrochemical applications.
Professor Hyun Woo Kim's research lab specializes in ecohydrology, aquatic ecology, and animal physiology, with a focus on understanding the impacts of environmental changes on ecosystems and animal health. The lab investigates hydrological responses to land-use change in coastal watersheds, the physiological resilience of livestock and poultry under stress, and the ecology and population dynamics of marine mammals and crustaceans. Research spans from molecular-level studies on nutrient protection in intestinal cells to ecosystem-scale modeling of watershed systems and phylogenetic analysis of marine species.
Professor Doyoung Byun's research lab specializes in advanced micro- and nanofabrication techniques, with a focus on functional materials and their applications in flexible electronics, fluidic devices, and energy-efficient systems. The lab pioneers hybrid manufacturing methods—such as electrohydrodynamic (EHD) jet printing combined with 3D printing and traditional microfabrication—to create high-resolution, transparent, and flexible conductive films, strain sensors, and microfluidic systems. Key research directions include the development of superhydrophobic surfaces for enhanced fluidic performance, alignment of silver nanowires for high-performance transparent electrodes, and the integration of carbon-based materials and Ag-grid hybrids for next-generation optoelectronic devices. The lab also applies computational fluid dynamics to understand biological fluid dynamics, such as beetle wing aerodynamics, to inspire bio-inspired engineering designs.
Professor Chul-Won Ha's research lab specializes in regenerative medicine, with a primary focus on articular cartilage repair using stem cell-based therapies. The lab investigates the chondrogenic potential of allogeneic human umbilical cord blood-derived mesenchymal stem cells (hUCB-MSCs), particularly when combined with hyaluronic acid hydrogel scaffolds for enhanced cartilage regeneration. Their work spans preclinical studies in large animal models to clinical translation, including phase I/II trials for osteoarthritis patients with severe cartilage defects. The lab also explores gene-engineered cell therapies using growth factors like TGF-β to promote endogenous cartilage repair.
Professor Seunghyeon Wang's research lab specializes in intelligent construction site monitoring using advanced computer vision and deep learning techniques. The lab focuses on developing automated, real-time object detection systems for safety compliance, including PPE and heavy equipment monitoring, as well as structural rebar inspection using UAV-based imaging. Key research directions include the optimization of deep learning models—particularly YOLOv10 and transformer-based architectures—through data augmentation and model architecture innovation to enhance accuracy and inference speed under real-world site conditions.
Professor Chong Rae Park's research lab specializes in the design and development of advanced nanomaterials for sustainable energy applications, with a primary focus on energy storage and hydrogen storage technologies. The lab explores innovative materials such as metal-organic frameworks (MOFs), graphene-based composites, and hybrid nanotubes to enhance the performance of lithium-sulfur batteries, supercapacitors, and hydrogen adsorption systems. Key research directions include improving moisture stability of functional materials, developing bifunctional separators, and engineering porous carbon and 1D nanostructures for high-efficiency energy devices. The lab emphasizes environmentally friendly synthesis methods and practical scalability for real-world applications.
Professor Jong-Seo Kim's research lab specializes in innovative mass spectrometry-based proteomics and bioanalytical chemistry, focusing on improving the accuracy and specificity of protein identification and post-translational modification analysis. Key research directions include developing novel isotopic labeling strategies—such as 13C-based diethylation—for quantitative proteomics, advancing enrichment techniques for N-terminal peptides and disulfide-bonded peptides, and investigating fragmentation artifacts in shotgun proteomics. The lab also explores applications in clinical proteomics and soft tissue augmentation using stabilized hyaluronic acid, bridging analytical innovation with biomedical applications.
Professor Heon Yung Gee's research lab specializes in the genetic basis of pediatric kidney diseases, with a primary focus on identifying monogenic causes of steroid-resistant nephrotic syndrome (SRNS) and other inherited renal disorders. The lab employs advanced genomic technologies such as whole-exome sequencing, homozygosity mapping, and targeted gene panels to uncover disease-causing mutations in podocyte and tubular cell-related genes. Key research directions include functional characterization of novel genes like ARHGDIA, KANK1/2/4, and FAT1, and elucidating their roles in glomerular filtration barrier integrity and cytoskeletal regulation. The lab also investigates the translational potential of genetic diagnosis for early intervention and personalized treatment in children with nephrotic syndrome and nephrolithiasis.
Professor Byoung Koun Min's research lab focuses on the design and mechanistic understanding of heterogeneous nanocatalysts for sustainable energy and chemical transformation. The lab specializes in gold-based and copper-based nanomaterials for low-temperature catalytic oxidation and electrochemical CO₂ reduction, with a strong emphasis on structure–activity relationships and dynamic morphological evolution during reactions. Key research directions include the development of stable, highly active nanocatalysts for green chemistry applications such as CO oxidation, C₂+ product formation from CO₂, and selective oxidation of biomass-derived intermediates like HMF to FDCA.
Professor Hee Cheul Choi's research lab specializes in the synthesis, characterization, and application of advanced two-dimensional nanomaterials and nanostructured hybrid systems. The lab focuses on catalyst-free and templated growth of carbon nanotubes, graphene, and transition metal dichalcogenides like MoS2, with precise control over morphology, thickness, and spatial patterning. Key research directions include the development of monodisperse nanomaterials for high-performance energy storage and electronic devices, leveraging chemical vapor deposition and molecular-level engineering. The lab also explores functional nanomaterials for lithium-ion batteries and field-effect transistors, emphasizing scalability and device integration.
Professor Dongmok Whang's research lab specializes in the development and application of two-dimensional materials and nanostructured semiconductors for next-generation electronic and energy conversion devices. The lab focuses on scalable fabrication techniques, defect engineering, and advanced heterostructure integration to enhance the electrical and optoelectronic properties of materials like MoS₂, graphene, and transition metal dichalcogenides. Key research directions include solution-based processing of 2D materials, high-performance flexible transparent electrodes, and CMOS-compatible nanowire transistors for advanced logic and sensing applications.
Professor Sang Min Won's research lab specializes in the development of advanced, biocompatible electronic systems for long-term interfacing with biological tissues, with a focus on neural and sensory interfaces. The lab pioneers flexible, ultrathin, and implantable devices that enable high-resolution recording and stimulation of neural activity, as well as multimodal sensing of mechanical and thermal stimuli. Key research directions include bioresorbable electronics, high-density neural interfaces, and microelectromechanical systems (MEMS) for biomedical applications.
