Research labs at Korea's QS Top 10 universities including SNU, KAIST, and Yonsei.
Professor Chi Heon Kim's research lab specializes in minimally invasive spinal surgery, with a focus on endoscopic and percutaneous techniques for spinal disorders. The lab investigates innovative approaches such as full-endoscopic decompression for lumbar spinal stenosis, percutaneous endoscopic interlaminar discectomy for complex disc herniations, and posterior percutaneous endoscopic cervical discectomy. Research also extends to comparative outcomes of minimally invasive versus open spinal fusion, emphasizing clinical efficacy, fusion rates, and long-term patient outcomes.
Professor Hyow-Jae Yoon's research lab specializes in the design and application of advanced functional materials at the nanoscale, with a strong focus on interfacial engineering for energy conversion and catalysis. The lab explores self-assembled monolayers, liquid metals, and supramolecular systems to enhance device performance in perovskite solar cells, electrocatalysis, and triboelectric energy harvesting. Key research directions include molecular-level control of surface and interfacial properties through chemical functionalization, allosteric regulation of catalysts, and the development of novel molecular rectifiers and responsive materials. The lab integrates synthetic chemistry, surface science, and nanofabrication to create smart, adaptive materials for sustainable energy technologies.
Professor Sun-Hwa Ha's research lab specializes in plant metabolic engineering, with a primary focus on the biosynthesis and regulation of carotenoids and anthocyanins in horticultural and crop plants. The lab employs advanced genetic and molecular tools—including transgene expression systems, genome editing (especially CRISPR), and subcellular targeting strategies—to manipulate biosynthetic pathways for nutritional enhancement and crop improvement. Key research directions include optimizing metabolic flux in plastids, particularly through plastoglobule-targeted protein engineering, and developing biofortified crops such as rice, soybean, and pepper with elevated levels of health-promoting pigments.
Professor Nam Il Kim's research lab specializes in computer vision and multi-spectral imaging systems, with a focus on advanced camera calibration techniques for visible and thermal imaging. The lab develops innovative calibration solutions that enhance the accuracy and reliability of stereo and split-view camera systems, particularly for automotive applications such as Advanced Driver Assistance Systems (ADAS). Their work emphasizes practical, cost-effective, and thermally stable calibration patterns that maintain uniform radiance, enabling robust performance in real-world conditions. The lab also explores integration methods for single- and multi-spectral imaging systems in dynamic environments.
Professor Young Chan Kim's research lab specializes in cutting-edge optical imaging and spectroscopy techniques to investigate the physical and functional properties of biological systems at the single-cell level. The lab focuses on developing high-speed, quantitative, and multi-parameter imaging methods—such as optical holographic microtomography, polarization holographic microscopy, and terahertz time-domain spectroscopy—to simultaneously measure morphological, chemical, and mechanical properties of cells, particularly human red blood cells. Their work bridges biophysics, biomedical optics, and quantum biology, aiming to uncover fundamental principles underlying cellular behavior and disease mechanisms.
Professor Youngso Shin's research lab specializes in low-power and energy-efficient design for real-time embedded systems and VLSI circuits. The lab focuses on power optimization techniques across multiple levels, including dynamic voltage and frequency scaling, power gating, bus coding, and scheduling algorithms for programmable processors. Their work spans from system-level software mechanisms to circuit-level design, with strong emphasis on practical implementation and integration into standard-cell designs. The lab also explores biomedical applications of advanced materials and regenerative therapies, particularly in orthopedic treatments for knee osteoarthritis.
Professor Donggyu Jin's research lab specializes in the genetic and molecular mechanisms underlying lysosomal storage disorders, with a focus on mucolipidosis and Hunter syndrome (Mucopolysaccharidosis II). The lab investigates disease-causing mutations in key enzymes and associated genes, such as GNPTA, GNPTAG, and IDS, using molecular genetics and functional studies. They also explore clinical manifestations, including neurological and musculoskeletal complications like carpal tunnel syndrome, and evaluate therapeutic interventions such as enzyme replacement therapy. Their work bridges clinical genetics with structural biology, often integrating molecular diagnostics and 3D protein modeling to understand disease pathology.
Professor Je Min Hwangbo's research lab specializes in robotics, with a focus on legged locomotion, reinforcement learning for dynamic control, and real-world deployment of agile robotic systems. The lab develops advanced quadruped robots like ANYmal, emphasizing torque-controlled, compliant actuation for robustness in dynamic and unstructured environments. Key research directions include contact-rich simulation, exteroceptive perception for terrain adaptation, and efficient learning-based control policies that enable autonomous operation in real-world scenarios.
Professor Sang-kyung Lee's research lab specializes in developing advanced nanotherapeutic strategies for challenging diseases, with a strong focus on targeted drug delivery to the brain and immune-modulating therapies. The lab pioneers innovative approaches such as intranasal delivery of nanoparticles, RNA interference, and gene-silencing technologies to treat neurological disorders—including glioblastoma and ischemic stroke—and metabolic diseases like obesity-related inflammation. By leveraging ligand-conjugated nanocarriers (e.g., RGD, RVG peptides) and stimuli-responsive polymers, the lab enhances drug specificity, brain penetration, and cellular delivery efficiency. Their work bridges nanomedicine, neuroscience, and molecular therapeutics to overcome biological barriers in treating cancer and neurodegenerative conditions.
Professor Hangjung Zo's research lab focuses on digital transformation, information systems, and technology adoption with a strong emphasis on sustainability, e-government, and innovation in developing countries. The lab investigates how digital technologies—such as AI, big data, and e-services—influence public service delivery, environmental sustainability, and user behavior in emerging economies. Key research directions include the psychological and structural factors affecting technology acceptance, privacy concerns in data collection, and the efficiency of national innovation systems. The lab employs mixed-methods and quantitative approaches, including structural equation modeling and survey-based analysis, to address real-world challenges in digital governance and sustainable development.
Professor You Sun Kim's research lab focuses on inflammatory bowel diseases, particularly Crohn's disease and ulcerative colitis, with an emphasis on understanding their genetic, immunological, and microbiological underpinnings. The lab investigates the role of host-microbe interactions, immune dysregulation, and viral co-infections—such as cytomegalovirus—in disease pathogenesis and treatment response. Key research directions include identifying novel genetic risk variants through targeted sequencing, elucidating the gut-liver axis in primary sclerosing cholangitis–inflammatory bowel disease (PSC-IBD), and improving diagnostic and endoscopic outcomes in intestinal disorders. The lab also explores the impact of environmental factors like lipopolysaccharide on immune priming and Th1/Th17 polarization in airway inflammation.
Professor Kwangwoo Kim's research lab specializes in the genetic and immunological mechanisms underlying autoimmune diseases, particularly rheumatoid arthritis (RA) and systemic lupus erythematosus (SLE). The lab focuses on identifying gene-environment interactions, such as the interplay between HLA polymorphisms and smoking in RA pathogenesis, using advanced genomic imputation and statistical modeling. Additionally, the lab explores the clinical and engineering applications of predictive control systems in building energy efficiency, particularly in radiant floor heating. A secondary but significant research direction involves the mechanical performance of construction materials, especially warm-mix asphalt under extreme temperature conditions.
Professor Jihye Kim's research lab specializes in the molecular mechanisms of natural products, particularly ginseng and its bioactive compounds, with a focus on their anti-inflammatory, anticancer, and neuroprotective effects. The lab investigates the pharmacological properties of ginsenosides and ginseng-derived exosome-like nanoparticles (GrDENs), exploring their roles in skin protection, immune modulation, and disease prevention. Recent work also delves into the epigenetic regulation of inflammation and cancer through protein arginine methyltransferases (PRMTs) and microRNA interactions. The lab integrates in vitro, in vivo, and omics-based approaches to translate natural product discoveries into clinical applications.
Professor Hong Ju Kim's research lab specializes in interventional endoscopy and minimally invasive treatments for gastrointestinal and liver diseases, with a strong focus on endoscopic therapies for gastric variceal hemorrhage and gastroesophageal reflux disease. The lab investigates advanced endoscopic techniques such as N-butyl-2-cyanoacrylate injection and balloon-occluded retrograde transvenous obliteration, as well as endoscopic stapling devices for long-term management of chronic conditions. Additionally, the lab explores biomarkers like CA19-9 and CEA to predict surgical outcomes in pancreatic cancer, emphasizing personalized treatment strategies. The research integrates clinical outcomes with long-term safety and efficacy assessments, aiming to optimize patient care through evidence-based endoscopic interventions.
Professor Myung-Kon Ko's research lab focuses on the epigenetic regulation of hematopoiesis and leukemogenesis, with a central emphasis on the TET family of dioxygenases and their role in DNA demethylation and epigenetic control. The lab investigates how TET2 dysfunction leads to aberrant hematopoietic stem cell self-renewal, impaired lineage differentiation, and the development of myeloid malignancies such as leukemia. Using genetically engineered mouse models and molecular profiling, the lab explores the functional consequences of TET loss-of-function in hematopoietic stem and progenitor cells, linking epigenetic alterations to disease pathogenesis. The research also extends to chromatin remodeling complexes, such as the BAF complex, in lymphoid lineage commitment and gene regulation during lymphopoiesis.
Professor Bumki Min's research lab specializes in nanophotonics and active metamaterials, focusing on the design and experimental realization of tunable terahertz and optical devices using hybrid 2D materials—particularly graphene—combined with engineered metasurfaces and microcavities. The lab pioneers electrically controlled slow light, polarization manipulation, and beam steering in the terahertz and near-infrared regimes, enabling dynamic, low-power operation without optical pumping. Key research directions include active control of light via gate-tunable graphene, enhanced light-matter interactions in high-Q microresonators, and the integration of metasurfaces with tunable optical responses for reconfigurable photonic devices.
Professor Wonki Min's research lab specializes in advanced metamaterials and 2D material-based photonic devices, focusing on actively tunable terahertz and optical systems. The lab pioneers electrically controlled functionalities in metasurfaces and metamaterials using graphene and ferroelectric materials, enabling dynamic manipulation of light properties such as group delay, polarization, phase, and refractive angle. Key research directions include reconfigurable slow light, active polarization control, and nonvolatile memory metamaterials for next-generation integrated photonic circuits and sensing applications. The lab emphasizes hybrid integration of 2D materials with artificial subwavelength structures to achieve compact, energy-efficient, and tunable devices beyond conventional passive limits.
Professor Sun-Mi Park's research lab focuses on the molecular mechanisms underlying cancer progression, with a central emphasis on microRNAs (miRNAs) as key regulators of epithelial-to-mesenchymal transition (EMT), tumor cell plasticity, and oncogene expression. The lab investigates the functional roles of miRNA families such as miR-200 and let-7 in maintaining epithelial identity, suppressing metastasis, and targeting oncofetal genes like HMGA2 and RAS. Using large-scale cancer cell line models (e.g., NCI60) and primary patient samples, the lab explores miRNA-mediated post-transcriptional regulation in tumorigenesis and telomere maintenance, including the identification of novel regulatory proteins like MKRN1 in hTERT degradation. The research integrates functional genomics, bioinformatics, and molecular oncology to uncover therapeutic targets in cancer.
Professor Sung Tae Kim's research lab specializes in nanomaterials and their biomedical applications, with a strong focus on surface engineering of nanoparticles to optimize their interactions with biological systems. The lab investigates the role of surface properties—such as charge, hydrophobicity, and molecular interactions—in determining the behavior of nanomaterials in vitro, in vivo, and in environmental settings. Key research directions include the development of functional nanocarriers for therapeutic delivery (e.g., siRNA using dendronized gold nanoparticles) and the study of nanomaterial impacts on physiological systems, including cardiovascular and reproductive health. The lab also explores advanced soft materials, such as cholesteric liquid single-crystal elastomers, for potential applications in responsive and adaptive technologies.
Professor Ho Jin Song's research lab specializes in terahertz (THz) wireless communications and high-frequency electronic devices, focusing on enabling ultra-broadband data transmission for next-generation 6G networks. The lab develops advanced semiconductor devices such as uni-travelling carrier photodiodes and high-electron-mobility transistors, along with integrated circuits for THz signal generation, modulation, and detection. Key research directions include high-speed wireless transmission (beyond 100 Gbps), low-power THz transceivers, and robust packaging solutions for high-frequency systems. The lab also explores photonic and electronic integration techniques to overcome bandwidth and signal integrity challenges at terahertz frequencies.
