世界の主要大学の研究室を探索 — 研究分野と主要論文を一目で確認できます。
Professor Hyun Joo Shin's research lab specializes in medical imaging and artificial intelligence applications in diagnostic radiology, with a focus on improving image interpretation accuracy and efficiency. The lab investigates the integration of AI in pediatric and adult chest radiography, explores biomarkers like lipocalin-2 in neurodegenerative processes, and develops radiation dose reduction techniques in medical imaging. Key research directions include AI-assisted lesion detection, neuroimaging in epilepsy-related brain injury, and advanced MRI techniques for pediatric liver and biliary system disorders.
Professor Chan-Woo Lee's research lab specializes in the development of advanced functional materials for energy conversion and storage applications. The lab focuses on designing and engineering novel oxide-based materials—particularly perovskites, transition metal oxides, and nanostructured composites—for applications in resistive memory devices, protonic ceramic electrochemical cells, and rechargeable batteries. Key research directions include enhancing electrochemical kinetics through nanostructuring, doping, and heterostructuring, with an emphasis on improving charge transport, stability, and catalytic activity at lower operating temperatures. The lab combines materials synthesis, thin-film fabrication, and advanced characterization techniques to address fundamental challenges in energy materials.
Professor Chin-Wook Chung's research lab specializes in fundamental plasma physics and low-temperature plasma science, with a focus on electron energy distribution functions (EEDFs), electron heating mechanisms, and plasma-surface interactions in various discharge configurations such as inductively coupled plasmas (ICP), magnetized inductively coupled plasmas (MICP), and capacitive coupled plasmas (CCP). The lab investigates the effects of external parameters—such as pressure, magnetic fields, radiofrequency power, and bias voltage—on plasma characteristics, particularly electron dynamics and energy distribution, aiming to enable atomic-scale precision in semiconductor manufacturing. Their work also explores ultralow electron temperature plasmas for damage-free etching and deposition, critical for sub-5 nm node device fabrication.
Professor Elias Kaiser's research lab focuses on understanding the dynamic regulation of photosynthesis in response to fluctuating light and environmental conditions, with an emphasis on the mechanistic processes underlying rapid photosynthetic responses and long-term acclimation. The lab investigates how plants optimize carbon assimilation under variable irradiance, particularly in agricultural and greenhouse settings, and explores the roles of electron transport, non-photochemical quenching, and stomatal dynamics. A key aim is to identify targets for improving crop productivity through biotechnological enhancement of photosynthetic efficiency under real-world conditions. The lab integrates physiological, biochemical, and systems-level approaches to bridge gaps between short-term photosynthetic dynamics and long-term plant performance.
Professor Seung-Kyun Lee's research lab specializes in advanced magnetic sensing and imaging technologies, with a focus on developing ultra-sensitive magnetometers and SQUID-based systems for biomedical and materials applications. Key research directions include tunable atomic magnetometers for nuclear quadrupole resonance detection of explosives, high-sensitivity SQUID gradiometers for biosensing, and novel MRI techniques using prepolarization and field-cycling to enable quantitative tissue contrast. The lab also investigates magnetic shielding noise and electrical properties tomography in MRI, aiming to enhance signal fidelity and diagnostic capability in precision measurements.
Professor Seung Hee Lee's research lab focuses on molecular mechanisms underlying metabolic diseases, particularly type 2 diabetes and hepatic steatosis, with a strong emphasis on transcriptional regulation by key factors such as HNF4α and TCF7L2. The lab investigates signaling pathways—including Wnt and bHLH/Id3—involved in pancreatic islet dysfunction and pancreatic ductal adenocarcinoma pathogenesis, integrating molecular biology with translational approaches using human tissues and animal models. A central theme is the identification of novel therapeutic targets and small molecule modulators to restore metabolic homeostasis.
Professor Kang-Seuk Choi's research lab specializes in veterinary virology and emerging infectious diseases, with a focus on avian and ruminant viral pathogens. The lab investigates the molecular epidemiology, pathogenesis, and immunodiagnosis of economically important viruses such as fowl adenoviruses, peste des petits ruminants virus (PPRv), Newcastle disease virus (NDV), and avian paramyxoviruses. Key research directions include the development of rapid diagnostic assays, epitope mapping of viral antigens, and the application of reverse genetics and viral vector systems for vaccine development. The lab also contributes to One Health initiatives through surveillance and characterization of zoonotic and wildlife-associated viruses.
Professor Cheol-Min Park's research lab specializes in the development of innovative transition-metal-catalyzed methodologies for the efficient synthesis of nitrogen-containing heterocycles, with a focus on isoquinolones, pyridones, and furans. The lab emphasizes atom-economical, regioselective transformations under mild conditions, often avoiding external oxidants through catalyst-controlled processes. Key advances include intramolecular annulation strategies, carbenoid-mediated cycloadditions, and tailored Heck-type cross-couplings for complex heterocyclic scaffolds relevant to medicinal chemistry and drug discovery.
Professor Tae Wha Lee's research lab focuses on advancing healthcare delivery systems and sustainable manufacturing technologies. The lab investigates nursing workforce policies, patient-centered care models, and evidence-based interventions to improve healthcare outcomes and hospital performance. In parallel, the lab explores innovative ultrasonic welding techniques for composite materials, particularly eliminating the need for energy directors to reduce manufacturing costs and enhance process efficiency. The integration of biomedical research with materials engineering reflects the lab’s interdisciplinary approach to solving real-world challenges in healthcare and advanced manufacturing.
Professor Young-Hoon Kim's research lab specializes in advanced functional materials and their applications in energy conversion and environmental sustainability, with a strong focus on nanomaterials for electrochromic devices and energy harvesting. The lab explores innovative solutions in transparent conductive oxides, organic electronics, and triboelectric nanogenerators, aiming to enhance device efficiency, durability, and low-power operation. Additionally, the lab investigates cross-cultural psychological dynamics, particularly regarding social perception, emotion regulation, and attitudes toward neurodiversity, integrating social science with engineering research. This interdisciplinary approach bridges materials science and social cognition to address real-world challenges in energy and human well-being.
Professor Seong Wook Yang's research lab specializes in the development of novel nanomaterial-based biosensors, with a strong focus on DNA-silver nanoclusters (DNA/AgNCs) for sensitive and selective detection of microRNAs—key biomarkers in disease diagnosis and developmental regulation. The lab explores the fundamental principles of DNA-nanomaterial interactions, particularly how DNA secondary structures influence the formation and optical properties of AgNCs, enabling applications in multiplexed diagnostics and live-cell imaging. Additionally, the lab investigates molecular mechanisms in plant stress responses, especially the roles of phytochromes and ubiquitin-proteasome systems in regulating developmental plasticity under environmental stress. These interdisciplinary efforts bridge nanotechnology, molecular biology, and plant systems biology to create innovative tools for biomedical and agricultural biotechnology.
Professor Seung Hwan Moon's research lab specializes in nuclear medicine and molecular imaging, with a primary focus on utilizing (18)F-fluorodeoxyglucose (FDG) positron emission tomography (PET/CT) to improve cancer prognosis, staging, and treatment planning. The lab investigates metabolic parameters such as total lesion glycolysis (TLG) and standardized uptake value (SUV) to predict survival outcomes and treatment response in various malignancies, including nasopharyngeal carcinoma, squamous cell carcinoma of the tonsil, and NK/T-cell lymphoma. Additionally, the lab explores the metabolic link between systemic diseases like nonalcoholic fatty liver disease (NAFLD) and subclinical vascular inflammation, highlighting the broader implications of FDG-PET in metabolic and cardiovascular risk assessment.
Professor Jaehong Park's research lab specializes in advanced materials and nanoscale electronic systems, with a focus on carbon nanomaterials, organic semiconductors, and novel fabrication techniques for next-generation optoelectronic and electronic devices. The lab investigates fundamental charge carrier dynamics in single-walled carbon nanotubes, including excitonic and free-carrier generation, using ultrafast spectroscopy and contactless conductivity measurements. It also develops innovative methods for printing and doping organic and hybrid conductive materials, such as ac voltage-assisted EHD jet printing and quantitative AC Hall-effect characterization of doped conjugated polymers. The overarching goal is to enable high-performance, flexible, and transparent electronics through precise control of electronic properties at the nanoscale.
Professor Yong Hwan Kim's research lab specializes in computational fluid dynamics and environmental biotechnology, focusing on advanced numerical methods for ship hydrodynamics and hydroelasticity, as well as enzyme engineering for environmental detoxification. The lab develops innovative simulation tools—such as the WISH and SPH-based programs—for predicting ship motions, wave loads, and free-surface flows with high accuracy. Additionally, the lab applies molecular docking and protein engineering to enhance enzyme efficiency for degrading toxic organophosphates, contributing to environmental remediation. The integration of computational modeling with experimental validation underpins the lab’s interdisciplinary approach to solving complex engineering and environmental challenges.
Professor Kyoungah Cho's research lab specializes in advanced thermoelectric materials and devices, focusing on the development of flexible, high-performance thin-film thermoelectrics using nanomaterials such as chalcogenide nanocrystals, silicon nanowires, and MXenes. The lab explores innovative fabrication techniques—like solution processing and top-down nanofabrication—to optimize thermoelectric efficiency, with an emphasis on enhancing the figure of merit (ZT) and scalability for wearable and portable energy harvesting. Additionally, the lab integrates machine learning to predict and improve the performance of hybrid energy devices combining photovoltaics and thermoelectrics.
Professor Se Ik Kim's research lab focuses on advancing ovarian cancer (OC) precision medicine through integrative biomedical research. The lab investigates the impact of genetic factors—such as BRCA1/2 mutations—on prognosis and treatment response in high-grade serous ovarian carcinoma (HGSOC), while also exploring the role of host-related factors like sarcopenia, body composition, and underweight status in survival outcomes. A key direction involves developing non-invasive diagnostic models using metagenomic data from serum microbial extracellular vesicles to distinguish ovarian cancer from benign tumors. The lab further examines patient-reported outcomes, including sexual health and quality of life, to support holistic survivorship care.
Professor Eun-Ji Won's research lab specializes in environmental isotope biogeochemistry, focusing on stable isotope applications to trace nutrient and pollutant dynamics in marine and terrestrial ecosystems. The lab employs compound-specific isotope analysis—particularly nitrogen and carbon isotopes in amino acids and bulk tissues—to reconstruct food web structures, assess trophic magnification of persistent organic pollutants, and evaluate the ecological impacts of pesticides and seafood fraud. A key research direction involves developing and applying advanced isotope techniques for environmental source tracking, pollution risk assessment, and biodiversity monitoring.
Professor Jin Whan Cho's research lab specializes in the clinical and neuroimaging characterization of neurodegenerative ataxias and parkinsonian syndromes, with a focus on differentiating challenging movement disorders such as spinocerebellar ataxias, multiple system atrophy, and Parkinson’s disease. The lab employs advanced ophthalmologic assessments, brain MRI, and comprehensive clinical phenotyping to identify early diagnostic biomarkers, particularly non-motor symptoms and imaging signs like the hot cross bun sign. Research also emphasizes caregiver burden in dementia subtypes and the neural correlates of gait disturbances, such as freezing of gait, using neuroanatomical mapping. The lab's work bridges clinical neurology and neuroimaging to improve early diagnosis and patient management in atypical parkinsonism and cerebellar ataxias.
Professor Kyung In Woo's research lab specializes in orbital and ocular oncology, with a focus on rare orbital tumors, including lacrimal gland carcinoma and solitary fibrous tumors of the lacrimal sac. The lab investigates the pathogenesis of inflammatory and neoplastic conditions of the orbit, particularly those involving immune-mediated mechanisms and cytokine pathways. It also explores innovative, minimally invasive surgical techniques such as transcanalicular laser-assisted revision for lacrimal drainage disorders.
Professor Do-Nyun Kim's research lab specializes in DNA nanotechnology and computational biophysics, focusing on the design, simulation, and application of DNA-based nanostructures. The lab develops advanced multiscale modeling frameworks to predict the 3D shape, mechanical flexibility, and dynamic properties of DNA origami with atomic-level accuracy, enabling precise control over nanoscale mechanics. Key research directions include engineering mechanical stiffness through programmed defects, designing auxetic nanostructures for tunable mechanical responses, and leveraging DNA nanostructures as cryoprotectants for biomedical applications. The lab bridges computational modeling with experimental validation to advance functional nanomaterials for biomedicine and materials science.
