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 Sheng Li's research lab specializes in polymer science and materials engineering, focusing on the design, synthesis, and characterization of advanced polymeric materials with tailored microstructures and functionalities. Key research directions include the development of biobased and biodegradable polymers for sustainable packaging, the fundamental understanding of crystallization and phase behavior in block copolymers using advanced X-ray scattering techniques, and the engineering of micronozzle devices for microfluidic applications. The lab also investigates stimuli-responsive and self-assembled materials for energy and environmental applications, such as CO2-enhanced oil recovery and water-resistant biopolymer coatings.
Professor Young-Min Hyeon's research lab focuses on the dynamic regulation of immune cell trafficking, particularly the molecular and cellular mechanisms underlying leukocyte extravasation and recruitment during inflammation and infection. The lab employs advanced imaging techniques such as two-photon intravital microscopy and genetically engineered mouse models to dissect the roles of chemokines, integrins, and cellular interactions in guiding neutrophils and T cells to sites of infection or injury. A central theme is understanding how innate immune cells like neutrophils create chemotactic trails—such as CXCL12— that orchestrate adaptive immune responses. The lab also develops innovative fluorescent probes for real-time detection of environmental and biological threats, including toxic chemicals like hydrazine.
Professor Jun Hong Park's research lab specializes in advanced materials and intelligent systems, focusing on the development of flexible and wearable electronic devices, structural health monitoring using deep learning, and environmental monitoring of vehicle emissions. The lab integrates nanofabrication techniques with AI-driven diagnostics to enable non-invasive medical screening and real-time condition monitoring of mechanical and structural systems. Key research directions include inkjet-printed conductive films for flexible electronics, AI-based analysis of physiological sounds (e.g., cough for pneumonia detection), and emission control technologies for sustainable transportation.
Professor Park Chan's research lab specializes in advanced functional materials for energy applications, with a strong focus on thermoelectrics, superconductors, and smart window technologies. The lab investigates the structural and electronic origins of superconductivity in cuprates, explores defect engineering to enhance thermoelectric performance in materials like BiCuOTe and SnSe-based solid solutions, and develops multifunctional oxide films for energy-efficient smart windows. Key research directions include materials design for high ZT thermoelectrics, optimization of VO2-based multilayer films for dynamic thermal regulation, and integration of sensing and navigation algorithms for wearable and smart systems.
Professor Joon Ho Moon's research lab specializes in clinical and translational research focused on metabolic liver diseases, particularly metabolic dysfunction-associated steatotic liver disease (MASLD), and its systemic implications such as cardiovascular disease. The lab also investigates postpartum diabetes risk in women with gestational diabetes, leveraging genetic and clinical factors for early prediction. Additionally, the lab applies advanced imaging techniques—such as PET/CT, MRI, and dual-source CT— to improve risk stratification and diagnostic accuracy in hematologic malignancies (e.g., multiple myeloma) and post-transplant complications like graft-versus-host disease. Their work emphasizes integrating imaging biomarkers with clinical staging systems to enhance prognostic models and patient outcomes.
Professor Young-Ju Seo's research lab specializes in diagnostic radiology and medical imaging, focusing on the application of advanced imaging techniques—such as diffusion-weighted MRI, radiomics, and gadoxetic acid-enhanced MRI—to improve the non-invasive prediction of tumor characteristics in hepatocellular carcinoma and lung adenocarcinoma. The lab emphasizes quantitative imaging biomarkers, including apparent diffusion coefficients and radiomic features, to predict pathological features like microvascular invasion and PD-L1 expression. They also investigate complications related to contrast media and optimize biopsy techniques for breast cancer to reduce diagnostic underestimation. Their work bridges radiological imaging with clinical oncology to enhance precision diagnosis and treatment planning.
Professor Chan-hyuk Park's research lab specializes in membrane science and environmental engineering, focusing on the removal and fate of microplastics and organic pollutants in water treatment systems. The lab investigates membrane fouling mechanisms, particularly the impact of feed water chemistry and organic characteristics on fouling indices like SDI, and develops advanced filtration technologies for improved microplastic and contaminant retention. Their work bridges fundamental membrane behavior with practical applications in wastewater and drinking water treatment.
Professor Gyomin Jeong's research lab specializes in algorithmic and probabilistic methods for large-scale networked systems, with a focus on influence maximization in social networks, distributed optimization and estimation, and stochastic modeling of communication networks. The lab develops efficient, scalable, and robust algorithms—such as IRIE for influence propagation and novel Markov chain-based methods for fast convergence in distributed averaging—while emphasizing theoretical rigor and practical performance. Research spans network science, machine learning for emotion classification, and stochastic loss networks, often bridging theory with real-world applications in wireless communications and social media. The lab also explores attention-based models and variational techniques to improve accuracy and convergence in complex systems.
Professor Hyung-Geun Park's research lab specializes in the development of innovative organocatalysts, particularly cinchona alkaloid-derived phase-transfer catalysts, for enantioselective synthesis. The lab focuses on designing efficient, mild, and scalable catalytic systems to construct chiral centers—especially quaternary carbon centers—enabling the synthesis of enantiopure α-amino acids and other biologically relevant compounds. Their work emphasizes the structure-activity relationship of catalysts, including electronic and steric effects, to achieve high enantioselectivity and turnover in asymmetric transformations. The lab's research bridges academic innovation with industrial applicability, targeting practical and sustainable synthetic methodologies.
Professor Ingie Hong's research lab specializes in advanced biomedical imaging, system-on-chip (SoC) design for low-power applications, and the neurobiological mechanisms underlying memory and neurodegenerative diseases. The lab integrates cutting-edge technologies in positron emission tomography (PET) for high-resolution brain imaging, develops energy-efficient hardware architectures with dynamic voltage scaling for real-time embedded systems, and investigates synaptic plasticity and protein dynamics in Alzheimer’s disease using proteomic and electrophysiological approaches. A key focus is on understanding the molecular basis of memory reconsolidation and neurodegeneration through innovative experimental and computational methods.
Professor Duck-Soo Kim's research lab specializes in computational and experimental studies at the intersection of nanophotonics, materials science, and advanced manufacturing. The lab focuses on understanding light-matter interactions in plasmonic nanostructures, particularly through high-resolution near-field optical imaging and electrodynamics simulations. It also develops innovative computational methods for protein-ligand docking, 3D printing optimization, and electromagnetic field modeling in industrial processes. Additionally, the lab pioneers geometric algorithms for proximity analysis in particle systems and designs high-performance digital circuits for precision frequency synthesis.
Professor Yu-Mi Yoo's research lab focuses on ophthalmic biophotonics and clinical ophthalmology, with a primary emphasis on intraocular lens (IOL) performance evaluation under real-world optical conditions. The lab investigates image quality, chromatic aberration, and visual outcomes of advanced IOLs—particularly extended depth-of-focus and refractive designs—using in vitro optical metrology. Additionally, the lab contributes to clinical research on sexual health in gynecologic cancer survivors and the epidemiology of infectious diseases such as nontuberculous mycobacteria (NTM) and healthcare-associated infections, including hospital-acquired ventriculitis (HVO).
Professor Sok-Bong Choi's research lab specializes in the dynamic behavior of nanoscale magnetic systems, with a focus on magnetization reversal mechanisms in thin films and nanostructures. The lab employs advanced time-resolved magneto-optical imaging techniques to investigate fundamental processes such as domain wall motion, nucleation, and vortex core dynamics at the nanoscale. Their work uniquely combines experimental real-time domain imaging with theoretical modeling to uncover the role of intrinsic material parameters—such as chirality, coercivity distribution, and activation volumes—in determining magnetic switching behavior. The lab also develops innovative instrumentation, including full-field magneto-optical microscope magnetometers, to enable high-throughput, spatially resolved magnetic characterization.
Professor Hwang Jung-Won's research lab specializes in clinical anesthesiology and critical care, focusing on optimizing sedation strategies during diagnostic procedures such as fiberoptic bronchoscopy. The lab investigates prognostic biomarkers—particularly inflammatory markers like C-reactive protein and albumin—for predicting outcomes in postoperative and critically ill patients. Additionally, the lab explores neuroprotective mechanisms of anesthetic agents, such as sevoflurane postconditioning, in models of cerebral ischemia, with a focus on anti-inflammatory pathways. The research also extends to dental biomaterials, evaluating the mechanical performance of all-ceramic crowns in restorative dentistry.
Professor Sung-chan Park's research lab specializes in theoretical high-energy physics and cosmology, focusing on fundamental physics beyond the Standard Model. Key research directions include axion and axino phenomenology, dark matter and dark energy models, extra dimensions, and modified gravity theories such as f(R) gravity. The lab also investigates anomalies in cosmic ray data and direct detection experiments like XENON1T, exploring new gauge symmetries and leptonic forces to explain current astrophysical observations. Recent work integrates quantum gravity constraints, such as the de Sitter derivative conjecture, with inflationary models to test their consistency with cosmological data.
Professor Jerald Yoo's research lab specializes in the design of ultra-low power, wearable, and implantable biomedical systems for continuous health monitoring and neurological disorder management. The lab focuses on developing miniaturized, energy-efficient sensor systems—particularly for electroencephalography (EEG) and electrocardiography (ECG)—that integrate on-chip signal processing, machine learning, and energy harvesting. Key research directions include body sensor networks (BSNs), self-powered wearable sensors, and intelligent neural interfaces with on-device classification to reduce data transmission and power consumption.
Professor Kyung Hoon Min's research lab focuses on respiratory medicine and inflammatory lung diseases, with a particular emphasis on the immunological and molecular mechanisms underlying asthma, chronic obstructive pulmonary disease (COPD), and eosinophilic pneumonia. The lab investigates key inflammatory mediators such as VEGF, MMP-9, IL-33, and eosinophils to understand their roles in airway inflammation, remodeling, and disease exacerbation. Current research also explores biomarkers for bacterial infection in AECOPD and the pathophysiological overlap between viral infections (e.g., H1N1) and acute eosinophilic pneumonia.
Professor Woo-Kyu Jung's research lab specializes in developing advanced optical imaging and sensing technologies for biomedical applications. The lab focuses on miniaturized, portable, and endoscopic optical coherence tomography (OCT) systems, as well as novel fiber-optic and MEMS-based probes for high-resolution, real-time tissue imaging. Key research directions include point-of-care diagnostics, multiphoton microscopy integration, and noninvasive optical biopsy using 3D OCT. The lab also explores thermally sensitive optical sensors based on polymer waveguides for biomedical sensing applications.
Professor Daejoon Kim's research lab specializes in thoracic surgery and oncology, with a strong focus on improving outcomes in esophageal and lung cancer through advanced surgical techniques, personalized treatment strategies, and translational research. The lab investigates the impact of neoadjuvant therapies—particularly immunotherapy combined with chemoradiation—on surgical feasibility and patient outcomes, while also exploring imaging biomarkers for nodal staging. Additionally, the lab examines surgical innovations such as endoscopic stapler technologies and enhanced recovery protocols to optimize perioperative care and reduce complications.
Professor Kyungmin Lee's research lab focuses on molecular mechanisms underlying cancer progression and therapeutic resistance, particularly in breast cancer subtypes such as triple-negative and estrogen receptor-positive breast cancers. The lab investigates key oncogenic drivers like MYC, PRR11, and ECM1, as well as signaling pathways involving NF-κB, STING, and PI3K, to uncover targets for immunotherapy and precision medicine. Additionally, the lab explores biomaterials for biomedical applications, including functionalized titanium coatings for orthopedic and dental implants through plasma electrolytic oxidation. These interdisciplinary efforts bridge cancer biology, immunology, and materials science to develop novel therapeutic strategies and advanced biomaterials.
