ソウル大学、KAIST、延世大学など韓国QSトップ10大学の研究室情報です。
Professor Jae Hyup Lee's research lab specializes in spinal biomaterials and orthopedic regenerative medicine, focusing on the development and evaluation of advanced bone graft substitutes, bioactive ceramics, and implant coatings to enhance spinal fusion outcomes. The lab investigates the biological and mechanical interactions between implants—such as PEEK and calcium phosphate-based materials—and host bone, with particular emphasis on improving osseointegration, reducing complications like cage subsidence, and optimizing fusion in osteoporotic or compromised bone. Key research directions include biomimetic materials, surface engineering of spinal implants, and the impact of patient-related factors (e.g., smoking, bone mineral density) on spinal fusion success.
Professor Yoo Eun Jeong's research lab specializes in the development of innovative transition metal-catalyzed C–H functionalization and cycloaddition reactions for the efficient synthesis of nitrogen-containing heterocycles and complex amine derivatives. The lab focuses on designing selective, atom-economical transformations using Pd, Cu, and Rh catalysts to enable direct functionalization of C–H bonds and the generation of reactive intermediates such as 1,3-dipoles and azomethine ylides. Key research directions include the catalytic synthesis of triazoles, succinimides, and diazepines through novel disconnections and mechanistic pathways, with an emphasis on practicality and functional group tolerance. The lab integrates experimental and computational studies to elucidate reaction mechanisms and guide catalyst design.
Professor Hyeonwoo Kim's research lab focuses on musculoskeletal disorders, particularly in pediatric and geriatric populations, with an emphasis on spinal deformities, congenital bone disorders, and age-related conditions such as osteoporosis and dysphagia. The lab investigates innovative treatments for complex orthopedic conditions, including pseudarthrosis and dystrophic scoliosis, through surgical techniques and biomaterials. It also explores emerging technologies like 3D food printing to improve nutritional intake and quality of life in elderly patients with swallowing difficulties. The lab integrates clinical imaging, biomechanical analysis, and translational research to develop personalized and effective therapeutic strategies.
Professor Dongil Kim's research lab specializes in psychological and educational assessment, focusing on digital media addiction—particularly smartphone and internet gaming addiction—among youth and young adults. The lab investigates the psychological, cognitive, and behavioral dimensions of technology use, with an emphasis on developmental differences, personality correlates, and the impact of game genre. Additionally, the lab explores core competencies in higher education, learning disabilities, and the effectiveness of learning strategies across diverse student populations.
Professor Sang Hee Shim's research lab specializes in developing advanced optical techniques for probing molecular structures and dynamics with ultra-high temporal and spatial resolution. The lab focuses on cutting-edge applications of 2D infrared and visible spectroscopy, particularly using programmable mid-infrared pulse shaping to study fast molecular processes in complex biological environments such as membranes and amyloid-forming proteins. A key innovation is the development of germanium acousto-optic modulators for direct, high-fidelity shaping of femtosecond mid-IR pulses, enabling phase-sensitive, high-resolution spectroscopy. The lab also pioneers super-resolution fluorescence imaging using photoswitchable membrane probes to visualize dynamic organelle structures in live cells at nanoscale resolution.
Professor Kyubo Kim's research lab specializes in translational oncology and radiation oncology, focusing on improving outcomes for patients with rare and aggressive solid tumors such as malignant phyllodes tumor of the breast, esophageal and head & neck cancers, and thyroid cancer. The lab integrates population-based data, molecular profiling, and advanced radiotherapy techniques to identify prognostic factors, optimize treatment strategies, and evaluate the role of adjuvant therapies like chemoradiotherapy and intensity-modulated radiation therapy. A key focus is on understanding biological mechanisms underlying tumor progression and treatment response, particularly in relation to immune regulation and secretory pathways in the tumor microenvironment.
Professor Taehong Cho's research lab specializes in the phonetics-prosody interface, focusing on how prosodic structure—such as accent, prosodic boundaries, and morphological structure—influences the articulatory and acoustic realization of speech. The lab investigates the dynamic interplay between phonological organization and motor control, using advanced articulatory measurement techniques like EMA (Electromagnetic Articulography) and EPG (Electropalatography) to examine gesture timing, coarticulation, and prosodic strengthening across languages. Key research directions include the phonetic realization of vowel and consonant contrasts, the role of prosody in shaping articulatory timing and spatial configuration, and cross-linguistic variation in voicing and nasalization. The lab's work bridges phonetics, phonology, and motor control, with a strong emphasis on empirical data from diverse languages and speech production systems.
Professor Sang Sun Yoon's research lab focuses on microbial pathogenesis, particularly the mechanisms underlying chronic infections caused by *Pseudomonas aeruginosa* in cystic fibrosis patients. The lab investigates biofilm formation, antibiotic resistance, and the role of anaerobic metabolism in promoting persistent infections. A central theme is the identification of novel therapeutic strategies targeting resilient bacterial phenotypes, such as mucoid and antibiotic-resistant strains, using endogenous antimicrobial agents like nitrous acid (HNO₂). The lab also explores microbial metabolism and host-pathogen interactions in disease contexts, including *Vibrio cholerae* biotype displacement and amyloid-β clearance in Alzheimer’s disease.
Professor Jihyun Baek's research lab focuses on the neurobiological and clinical aspects of mood and anxiety disorders, with a particular emphasis on identifying biobehavioral markers, such as inflammatory markers, EEG patterns, and impulsivity, in mood-disordered populations. The lab investigates the mechanisms and management of treatment-related side effects—like lithium-induced tremor and antipsychotic-induced dyskinesias—while also exploring the role of circadian rhythms and sleep-wake cycle disruptions in bipolar disorder. Additionally, the lab examines the potential of complementary and alternative treatments, such as herbal medicines and Korean Red Ginseng, for anxiety, insomnia, and cognitive symptoms in psychiatric populations.
Professor Solmoi Park's research lab specializes in sustainable construction materials, with a primary focus on alkali-activated materials (AAMs) such as fly ash- and slag-based cements. The lab investigates the hydration, carbonation, and long-term durability of these materials under CO₂-rich environments, aiming to enhance CO₂ sequestration and reduce the carbon footprint of concrete. Key research directions include the role of activators, phase evolution, and the impact of supplementary materials like MgO and fly ash on carbonation kinetics and binding capacity.
Professor Dong-Young Kim's research lab specializes in structural biology and bioinformatics, with a focus on understanding the molecular mechanisms of heat-shock proteins, particularly HtrA family proteases and ClpX chaperones. The lab investigates the structural and functional dynamics of ATP-independent and ATP-dependent protease-chaperone systems, emphasizing their roles in protein quality control and cellular homeostasis. In parallel, the lab explores hardware-efficient deep learning accelerators by leveraging inherent sparsity in convolutional neural networks, aiming to optimize performance and energy efficiency in AI workloads across diverse computing platforms.
Professor Jae-Jin Song's research lab specializes in neuromodulation and neuroimaging, focusing on the neural mechanisms underlying tinnitus, Parkinson’s disease, neuropathic pain, and depression. The lab employs advanced neurophysiological techniques such as EEG, PET, and tDCS to investigate brain network dysregulation, particularly thalamocortical dysrhythmia and the role of the rostral anterior cingulate cortex in tinnitus perception. A key focus is translating neurophysiological findings into clinical applications through neuromodulatory interventions and personalized treatment strategies.
Professor Ming Zeng's research lab focuses on sustainable energy systems, with a strong emphasis on renewable energy integration, smart grid technologies, and energy policy. The lab investigates innovative solutions such as virtual power plants, vehicle-to-grid systems, and demand response management to enhance grid stability and efficiency. It also explores the legal and economic frameworks needed to support China’s transition to low-carbon energy systems, particularly in wind and solar energy development. The research integrates technical, economic, and institutional perspectives to address challenges in energy transition and environmental sustainability.
Professor Han-Jin Jo's research lab focuses on the molecular mechanisms underlying cancer progression and neurogenic bladder dysfunction, with a strong emphasis on identifying natural compounds and bioactive molecules that modulate cellular signaling pathways. The lab investigates the chemopreventive and anti-tumor effects of dietary phytochemicals—such as flavonoids (e.g., kaempferol), conjugated linoleic acid (CLA) isomers, and indole derivatives (e.g., DIM)—in various cancer models, including colon, breast, and prostate cancer. Additionally, the lab explores neurological mechanisms of urinary retention, particularly in the context of brainstem infarction, linking structural brain lesions to urodynamic dysfunction. The research integrates in vitro, in vivo, and clinical studies to translate molecular findings into potential therapeutic strategies.
Professor Soo Min Hwang's research lab specializes in the development of advanced functional materials for sustainable energy technologies, with a strong focus on energy storage and conversion systems. The lab explores innovative materials such as nanostructured oxides, chalcogenides, and conductive coatings for applications in lithium-ion and seawater batteries, as well as electrocatalysts for metal–air and flow battery systems. Key research directions include designing high-performance, high-loading electrode materials, engineering porous and hollow nanostructures for enhanced ion and electron transport, and optimizing dielectric films for electronic applications. The lab emphasizes materials synthesis, structural control, and electrochemical performance evaluation to enable practical, scalable energy solutions.
Professor Byeong U. Park's research lab specializes in statistical methodology for high-dimensional and semiparametric models, with a strong focus on nonparametric and semiparametric inference in econometrics and data science. Key research directions include bandwidth selection in kernel density estimation, varying coefficient models, stochastic frontier analysis with panel data, and inference in factor models with estimated factors. The lab emphasizes methodological innovation with rigorous asymptotic theory and practical applications in productivity analysis, efficiency measurement, and high-dimensional regression.
Professor Kyung-ah Lee's research lab specializes in translational biomedical research with a focus on clinical biomarkers, cancer genomics, and hematological disorders. The lab investigates novel diagnostic tools such as the delta neutrophil index for sepsis, exosomal nucleic acids for non-small cell lung cancer resistance, and genetic polymorphisms like GSTM1/GSTT1 deletions in aplastic anemia. A key research direction involves developing and validating clinical assessment tools, such as the简易 University Adjustment Scale, to support mental health and student well-being in academic settings. The lab integrates molecular diagnostics, clinical data analysis, and psychosocial assessment to improve patient outcomes and early disease detection.
Professor Sung-Rim Han's research lab focuses on the immunomodulatory effects of micronutrients, particularly vitamin E, in aging and infectious diseases. The lab investigates how vitamin E and other antioxidants influence immune cell function, cytokine regulation, and oxidative stress in aged individuals, with a strong emphasis on T cell responses and antiviral immunity. Key research directions include the molecular mechanisms underlying age-related immune decline and the potential of nutritional interventions to restore immune competence. The lab also explores the comparative efficacy of various antioxidants in improving outcomes during influenza infection in aged mouse models.
Professor Ja Young Choi's research lab specializes in medical imaging and rehabilitation technologies, focusing on improving diagnostic accuracy and therapeutic outcomes in neurological and musculoskeletal disorders. The lab investigates advanced imaging techniques such as FDG-PET, MRI, and DTI to enhance the detection and characterization of diseases like esophageal cancer and ependymomas, while also developing innovative virtual reality-based rehabilitation systems for pediatric brain injury. A key focus is on optimizing imaging protocols and reducing artifacts in CT and MRI to improve clinical decision-making. The lab also contributes to the development of standardized MRI classification systems for musculoskeletal pathologies, particularly in the knee and spinal cord.
Professor Ryong-Yong Kim's research lab specializes in power electronics, energy harvesting, and biomedical microsystems. The lab focuses on developing advanced power conversion systems for renewable energy sources—particularly thermoelectric generators—through innovative maximum power point tracking and multi-mode dc-dc conversion topologies. It also explores cutting-edge neuroelectronic interfaces and ophthalmic imaging techniques, integrating microfabrication, nanomaterials, and real-time control systems for medical and energy applications. The lab emphasizes both theoretical modeling and hardware validation, with strong emphasis on system stability, efficiency, and biocompatibility.
