探索全球顶尖大学的研究室——研究领域与主要论文一览无余。
Professor Jae Sung Ko's research lab specializes in pediatric gastroenterology and hepatology, with a focus on inflammatory and genetic liver diseases, intestinal barrier function, and the role of gut microbiota in gastrointestinal disorders. The lab investigates autoimmune hepatitis, fibropolycystic liver diseases, and rare enteric disorders such as tufting enteropathy, integrating clinical, genetic, and molecular approaches. Key research directions include understanding disease pathogenesis, identifying genetic mutations, and evaluating host-microbe interactions, particularly using probiotics like *Lactobacillus plantarum* to modulate intestinal inflammation. The lab also conducts population-based epidemiological studies to assess trends in liver disease prevalence among adolescents and children.
Professor Jong Kyun Lee's research lab specializes in biliary and pancreaticobiliary diseases, with a focus on the diagnosis, classification, and clinical management of biliary tract neoplasms such as cholangiocarcinoma, intraductal papillary neoplasms (IPN-B), and autoimmune pancreatitis (AIP). The lab employs clinical, pathological, and biochemical approaches to identify specific biomarkers—particularly bile acid profiles—for early and accurate differentiation of malignant from benign biliary conditions. Their work also emphasizes prognostic factors and risk stratification in gastrointestinal polyps and pancreaticobiliary cancers.
Professor Jong-Sik Shin's research lab specializes in enzymatic biocatalysis and synthetic biology, with a focus on engineering transaminases and DNA-based molecular machines for sustainable synthesis and nanoscale applications. The lab investigates the structure-function relationships of enzymes such as omega-transaminases and amine:pyruvate aminotransferases to enhance their enantioselectivity, stability, and catalytic efficiency for the asymmetric synthesis of chiral amines. A key research direction involves overcoming kinetic and thermodynamic limitations in biotransformations through innovative strategies like two-phase systems and kinetic modeling. The lab also pioneers the development of DNA-based molecular walkers for programmable nanomotion, integrating synthetic biology with real-time fluorescence monitoring.
Professor Ock Chae Kwon's research lab specializes in fundamental combustion science, with a focus on laminar premixed flame dynamics, flame stability, and the effects of stretch on flame propagation. The lab conducts detailed experimental investigations on unstretched laminar burning velocities and flame response to stretch (Markstein numbers) in various hydrocarbon-air mixtures under controlled conditions. Their work contributes significantly to the understanding of flame behavior in internal combustion engines and industrial burners, particularly under variable pressure, equivalence ratio, and oxygen concentration. The research also explores the flammability limits and combustion characteristics of alternative fuels such as alcohols and hydrocarbons.
Professor Youngmin Ko's research lab specializes in advancing next-generation energy storage technologies, with a primary focus on lithium–oxygen (Li–O₂) batteries. The lab investigates fundamental electrochemical mechanisms, particularly the role of redox mediators and catalysts in enabling efficient oxygen reduction and evolution reactions. Key research directions include designing non-shuttling redox mediators through polymer anchoring strategies, mimicking biological electron transfer for improved reaction kinetics, and developing stable electrolyte systems to mitigate side reactions at high-capacity silicon anodes. The lab integrates materials chemistry, electrokinetics, and interfacial engineering to overcome critical challenges such as high polarization, poor cyclability, and electrolyte decomposition.
Professor Dae Chul Jung's research lab specializes in diagnostic medical imaging, with a focus on renal and urological disorders, penile hemodynamics, and abdominal tumor characterization using advanced cross-sectional imaging techniques. The lab emphasizes the application of computed tomography (CT), ultrasonography, and magnetic resonance imaging (MRI) to improve the diagnosis and classification of renal masses, erectile dysfunction, and ovarian tumors. Innovative approaches such as dual-energy CT, virtual monochromatic imaging, and machine learning-based texture analysis are central to enhancing image accuracy and tissue differentiation.
Professor Hyun Kyung Kim's research lab focuses on the interplay between inflammation, coagulation, and cancer, particularly exploring how cellular components such as microparticles, neutrophil extracellular traps (NETs), histones, and chemokine receptors contribute to thrombotic disorders and cancer progression. The lab investigates the molecular mechanisms underlying hypercoagulability in cancer-associated conditions like hepatocellular carcinoma and disseminated intravascular coagulation (DIC), with a strong emphasis on identifying novel therapeutic targets. Key research directions include the role of NETs in thrombosis, the impact of damage-associated molecular patterns (DAMPs) like histones on endothelial function, and the regulation of immune cell trafficking via chemokine receptors such as CXCR4.
Professor Young Chai Ko's research lab specializes in wireless communication systems, with a focus on advanced diversity combining techniques, adaptive modulation, and power allocation in fading channels. The lab investigates performance optimization of cooperative diversity, space-time coding, and feedback-based transmission strategies under practical constraints such as channel estimation errors, feedback delay, and channel correlation. Key research directions include the design and analysis of energy- and spectral-efficient transceiver systems using statistical channel models like Nakagami-m and Rayleigh fading.
Professor Seung Hwan Lee's research lab specializes in translational pharmacology with a focus on neuroimmune interactions in chronic pain and acid-related gastrointestinal disorders. The lab investigates the role of glial and immune cells in neuropathic and inflammatory pain, particularly in orofacial and spinal pathways, while also advancing novel acid-suppressive therapies such as potassium-competitive acid blockers (P-CABs) for gastroesophageal reflux disease. A key research direction involves understanding the impact of genetic polymorphisms—especially CYP2C19—on drug response and pharmacokinetics of agents like voriconazole and P-CABs. The lab integrates preclinical models with clinical pharmacology studies to develop targeted, personalized treatments.
Professor Young Ah Lee's research lab focuses on pediatric endocrine oncology and developmental health, with a strong emphasis on understanding the molecular genetics of pediatric thyroid cancers—particularly papillary and follicular thyroid cancer—and their distinct biological behaviors compared to adult-onset disease. The lab investigates genetic drivers such as fusion oncogenes and point mutations, as well as environmental influences like early-life exposure to perfluoroalkyl substances (PFAS) and vitamin D deficiency, which may impact pediatric thyroid cancer risk and long-term outcomes. The lab also explores neuroendocrine complications, such as obesity in pediatric craniopharyngioma, linking tumor location and hypothalamic damage to metabolic dysregulation.
Professor Won-Jung Kim's research lab specializes in the fluid mechanics and physical principles underlying biological and biomimetic systems, with a focus on how organisms and materials interact with fluids and interfaces. The lab investigates diverse phenomena—from nectar feeding strategies in animals to the self-burial mechanisms of plant seeds and microparticle removal in industrial cleaning processes—using a combination of experimental, theoretical, and imaging approaches. A central theme is the role of interfacial forces, capillarity, and viscoelasticity in nature-inspired design and microfluidic applications. The lab also explores surface engineering of nanomaterials to enhance their optical and functional properties.
Professor Ho Lee's research lab specializes in biomedical imaging, medical image analysis, and computational biology, with a focus on developing advanced machine learning and signal processing techniques for medical diagnosis and treatment. The lab applies deep learning and lidar-based systems to improve early detection of diseases such as COVID-19 and to enhance medical imaging with reduced radiation dose. Additionally, the lab investigates molecular mechanisms in cancer biology and retinal therapies, integrating optical feedback systems with cellular-level analysis for precision medicine applications.
Professor Duck Hyun Han's research lab specializes in urological interventions and minimally invasive treatments for genitourinary diseases, with a strong focus on renal stone disease, ureteral obstruction, and erectile dysfunction. The lab investigates innovative endourological techniques such as retrograde intrarenal surgery (RIRS), percutaneous nephrolithotomy (PCNL), and novel stent technologies to improve outcomes in both malignant and benign urological conditions. A key research direction involves understanding the cellular and molecular mechanisms of smooth muscle relaxation in the corpus cavernosum, particularly the role of ion channels and hormonal modulation in erectile function.
Professor Sung Sam Paik's research lab specializes in translational pathology and molecular oncology, with a focus on identifying novel biomarkers and tumor suppressor molecules in gastrointestinal and soft tissue neoplasms. The lab investigates the clinicopathological significance of cell surface markers such as CD47, CADM4, and CD markers in colorectal adenocarcinoma and other malignancies, aiming to correlate their expression with tumor behavior, progression, and patient outcomes. Key research directions include the immunohistochemical characterization of rare tumors—such as microcystic meningioma and tracheal pleomorphic adenoma—and the role of adhesion molecules and immune-related proteins in tumorigenesis and metastasis.
Professor Chunggi Baig's research lab specializes in bioinspired materials and soft electronics, focusing on the design of hierarchical and gradient-structured polymers that mimic the mechanical and functional properties of biological tissues. The lab integrates molecular dynamics simulations with experimental fabrication to develop advanced electronic skins (e-skins) with high sensitivity, stretchability, and multifunctionality—particularly for tactile sensing and force-responsive applications. Key research directions include stress and electron transfer modulation in gradient materials, mechanochromic responses in porous architectures, and the fundamental rheo-optical behavior of polymeric melts at the molecular level. The lab bridges molecular-scale simulations with macroscopic device performance to enable next-generation wearable and soft robotics technologies.
Professor K. D. Kim's research lab specializes in translational oncology and biomedical data science, focusing on gynecological cancers such as cervical and ovarian cancer. The lab investigates prognostic factors like perineural invasion and metastatic patterns, explores molecular markers for survival prediction, and evaluates natural compounds for anticancer effects. Additionally, the lab pioneers the application of Common Data Models (CDM) and electronic health records for healthcare process mining, integrating clinical data with systems biology approaches. Their work bridges clinical oncology, molecular pathology, and health informatics to improve cancer diagnosis, treatment, and healthcare system optimization.
Professor Ju Hong Min's research lab specializes in neuroimmunology and neurodegenerative diseases, with a primary focus on neuromyelitis optica spectrum disorder (NMOSD), amyotrophic lateral sclerosis (ALS), and related conditions. The lab investigates the clinical, radiological, and immunological features of NMOSD, particularly in late-onset and atypical presentations, while also exploring biomarkers, disease progression, and patient-reported outcomes such as fatigue and quality of life. Additional research includes evaluating therapeutic interventions, such as fingolimod and ursodeoxycholic acid, and applying advanced neuroimaging techniques like diffusion tensor imaging to understand white matter network alterations in neurological disorders.
Professor Jieun Choi's research lab focuses on the role of neuroinflammation and immune mechanisms in pediatric neurological disorders, particularly epilepsy and central nervous system (CNS) autoimmune diseases. The lab investigates inflammatory biomarkers, including cytokines and α-synuclein, in serum and exosomes to understand their correlation with neurodegeneration and disease severity. A key research direction involves exploring the pathogenic mechanisms of intractable childhood epilepsy, febrile seizures, and post-infectious neuroinflammatory conditions, with translational emphasis on identifying noninvasive biomarkers and evaluating anti-inflammatory therapies. The lab also examines the impact of emerging viral variants, such as SARS-CoV-2, on pediatric neurological outcomes.
Professor Sang-il Seo's research lab specializes in diagnostic radiology and medical imaging, with a focus on improving the accuracy of non-invasive diagnosis for head and neck pathologies. The lab investigates advanced ultrasound techniques such as shear wave elastography (SWE) to differentiate malignant lymphadenopathy, including metastatic and lymphomatous nodes, and explores the role of MRI in characterizing soft-tissue tumors like synovial sarcoma. The team also investigates rare but clinically significant conditions, such as intracranial hypotension following chiropractic manipulation, emphasizing radiological recognition and diagnostic awareness.
Professor TaeWon Seo's research lab specializes in the design and control of advanced mobile robots, with a focus on climbing robots, service robots, and underwater robots. The lab develops innovative mechanisms—such as underactuated modular systems, compliant joints, and active tails—to enable high-speed, high-payload climbing and seamless transitions across complex environments. Key research directions include biomimetic adhesion using dry elastomer materials, dynamic motion control via switching control strategies (e.g., PD-SMC), and enhancing robot mobility in challenging terrains like walls and stairs. The lab emphasizes practical applications in industrial inspection, indoor service, and underwater exploration.
