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 Jungchul Lee's research lab specializes in nanomechanical sensing, nanomaterials synthesis, and advanced micro/nanofabrication for applications in biomedicine, energy, and environmental technologies. The lab develops high-sensitivity resonant sensors—such as suspended nanochannel and microchannel resonators—for ultra-precise mass detection in liquids, enabling single-cell and nanoparticle weighing. It also focuses on the synthesis of functional nanostructures like TiO2 and CdS heterostructures for photocatalysis and photovoltaics, as well as on optimizing materials like PDMS for radiative cooling through nanostructuring. The integration of nanomechanical systems with electronic readout and thermal control is a key theme across their work.
Professor Hoseong Lee's research lab specializes in advanced control systems and sustainable energy technologies. The lab focuses on developing robust motion control systems for high-precision industrial applications, integrating friction compensation, disturbance observers, and feedforward control for enhanced performance. In parallel, the lab investigates environmental sustainability in residential heating and cooling systems, particularly through life cycle climate performance (LCCP) analysis of vapor compression cycles using low-GWP refrigerants. These efforts aim to reduce environmental impacts across the entire product lifecycle.
Professor Minsung Kim's research lab specializes in advanced materials for sustainable energy and next-generation electronics, with a focus on catalysis for carbon dioxide utilization, spintronic materials, and flexible and transparent electronic devices. The lab develops innovative catalysts—such as NiFe-based systems—for converting greenhouse gases like CH₄ and CO₂ into valuable synthesis gas, while also exploring 3D Rashba systems in hybrid perovskites for electrically tunable spintronics. Another key direction involves designing transparent, flexible, and wearable electronic systems using graphene and carbon nanotubes for integrated logic, memory, and display applications. The lab combines experimental synthesis with advanced theoretical modeling to enable smart, sustainable, and multifunctional materials.
Professor Min Chul Kim's research lab specializes in advanced materials and biomedical technologies, with a strong focus on developing novel nanomaterials for energy storage and catalytic applications, as well as designing innovative vaccines and therapeutic strategies for infectious diseases and cancer. The lab integrates materials science, virology, and translational medicine, exemplified by work on virus-like particle vaccines, vanadium-doped cathode materials for high-performance batteries, and nanodiamond-gold composites for oxidative catalysis. Current research also extends into clinical applications, including extracorporeal membrane oxygenation strategies for cardiac support and natural compounds like quercetin for cancer therapy.
Professor Sangsig Kim's research lab specializes in the development of advanced nanomaterials and flexible electronic devices, with a focus on 2D materials like MoS2, silicon nanowires, and graphene-based heterostructures. The lab explores novel fabrication techniques for high-performance optoelectronic and energy storage devices, including phototransistors, supercapacitors, and resistive memory, with an emphasis on flexibility, scalability, and integration on plastic substrates. Key research directions include enhancing device performance through nanostructuring, doping, and hybrid material engineering for next-generation flexible and wearable electronics.
Professor Jung Hwan Park's research lab focuses on translational biomedical engineering and clinical nephrology, with a strong emphasis on chronic kidney disease (CKD) pathophysiology, bioimpedance-based fluid status monitoring in dialysis patients, and molecular mechanisms underlying renal and liver cancers. The lab integrates experimental biology, microfluidic technology for point-of-care diagnostics, and clinical imaging to develop innovative solutions for disease detection, monitoring, and prognosis. Key research directions include the role of uric acid in CKD progression, wireless thermal lysis systems for nucleic acid extraction, and immunohistochemical biomarkers such as ARID1A in clear cell renal cell carcinoma.
Professor Hyunggeon Lee's research lab focuses on molecular mechanisms underlying angiogenesis and ocular surface pathophysiology, with a particular emphasis on signaling pathways involving pseudokinases like PTK7 and growth factors such as VEGF-A and IGF-1. The lab investigates protein interactions in vascular and ocular epithelial cells, utilizing advanced techniques like surface plasmon resonance, mass spectrometry-based proteomics, and in vivo/in vitro models to elucidate disease mechanisms in conditions such as dry eye disease and corneal disorders. Additional research explores therapeutic interventions, including topical TNF-α blockers and chemical reaction engineering for chlorine dioxide generation. The lab integrates molecular biology, proteomics, and translational ophthalmology to identify novel therapeutic targets and biomarkers.
Professor Jin-Goo Kim's research lab specializes in performance-based seismic design and seismic retrofitting of steel and reinforced concrete structures, with a strong focus on enhancing structural resilience against progressive collapse and seismic hazards. The lab investigates advanced energy-dissipating systems such as viscoelastic and viscous dampers, buckling-restrained braces, and friction dampers, integrating them into innovative lateral load-resisting systems like diagrid and braced frames. Emphasis is placed on optimizing damper and brace configurations through advanced analysis and optimization techniques, including gradient-based algorithms and capacity spectrum methods, to achieve target performance levels efficiently. The lab also develops and validates innovative retrofit systems, particularly for vulnerable soft-first-story RC structures, using both analytical and experimental validation.
Professor Jihee Kim's research lab specializes in regenerative medicine and dermatological therapeutics, with a focus on skin aging, scarring, and hair loss. The lab investigates biological mechanisms underlying cutaneous fibrosis, melasma, and androgenetic alopecia, employing advanced therapies such as growth factor-conditioned media, fractional lasers, and anti-fibrotic agents. Key research directions include the molecular role of mediators like HMGB1 in fibroblast activation and the development of combination treatments using antioxidants, cryotherapy, and biologics for improved skin rejuvenation outcomes.
Professor Moon Ho Park's research lab specializes in clinical and translational neuroscience, with a focus on neurological disorders, cognitive aging, and pain management. Key research directions include the pathophysiology of stroke and movement disorders—particularly Parkinson’s disease and restless legs syndrome—using neuroimaging techniques like transcranial brain sonography. The lab also investigates perioperative pain control, especially the efficacy of peripheral nerve blocks in thoracic surgery, and explores cognitive dysfunction as a predictor of mortality in the elderly. These studies integrate clinical anesthesiology, neurology, and geriatric health outcomes.
Professor SeungNam Cha's research lab specializes in the development and fundamental understanding of two-dimensional (2D) nanomaterials and nanostructured devices for next-generation flexible, wearable, and self-powered electronics. The lab focuses on advancing energy conversion and storage technologies through innovative materials design, including piezoelectric nanowires, hierarchical nanostructured electrodes for supercapacitors, and van der Waals heterostructures. Key research directions include strain engineering of 2D semiconductor devices, large-scale synthesis of high-quality monolayer transition metal dichalcogenides, and the integration of these materials into flexible and fiber-based platforms for sustainable energy applications.
Professor Nam-Hyuk Cho's research lab focuses on the molecular pathogenesis, epidemiology, and vaccine development of scrub typhus, a neglected tropical disease caused by *Orientia tsutsugamushi*. The lab investigates the genetic diversity and evolution of the pathogen, particularly through studies of the tsa56 gene, to improve diagnostics and vaccine design. It also explores host-pathogen interactions, especially the role of innate immune responses in inflammation and chemokine regulation during infection. In addition, the lab contributes to the development of novel biomedical solutions, including ZnO-based nanocomposites for vaccine adjuvants, merging microbiology with nanotechnology for translational applications.
Professor Kyung Hyun Min's research lab specializes in the development of advanced biomimetic nanomaterials for cancer theranostics and regenerative medicine. The lab focuses on designing hybrid nanostructures using biomineralization principles—such as calcium carbonate and gold nanorods—enabling simultaneous imaging (ultrasound, photoacoustic) and targeted therapy (chemo-, gene-, and photothermal therapy). Key research directions include stimuli-responsive drug delivery, 3D bioprinting of extracellular matrix-based grafts, and minimizing adverse effects of short-term steroid use in clinical settings. The lab integrates materials science, nanotechnology, and translational medicine to create smart, multifunctional platforms for precision oncology and tissue engineering.
Professor Ja-Hyun Baek's research lab focuses on the neurobiological mechanisms of dopamine signaling, particularly within the mesolimbic pathway, and its critical role in regulating reward-related behaviors, motivation, and energy homeostasis. The lab investigates how dopamine neurotransmission influences addiction, obesity, and stress-related disorders, with a strong emphasis on the molecular and cellular functions of dopamine D2 receptors and their signaling pathways. Using advanced techniques such as optogenetics, DREADDs, and genetic manipulation, the lab explores circuit-specific neural mechanisms underlying complex behaviors and metabolic regulation.
Professor Kwang Soo Kim's research lab focuses on biomedical and agricultural biotechnology, with a strong emphasis on stem cell biology, gene delivery systems, and disease modeling. The lab investigates the optimization of lentiviral vectors for stable gene expression in embryonic stem cells and develops cell sorting strategies—such as FACS using lineage-specific promoters—to generate pure populations of functional neurons for regenerative medicine. Additionally, the lab applies advanced modeling techniques, including fuzzy logic and classification and regression trees, to predict plant disease development (e.g., soybean rust and leaf wetness duration) using meteorological and biological data, supporting precision agriculture and disease management. These interdisciplinary efforts bridge regenerative medicine and agricultural systems biology to address both human health and food security challenges.
Professor Jae-Hung Han's research lab specializes in bio-inspired aerospace systems, with a primary focus on flapping-wing micro air vehicles (FWAVs) and smart composite structures. The lab integrates principles from animal flight—particularly birds and insects—into the design of agile, efficient, and maneuverable aerial vehicles. Key research directions include the development of smart materials (e.g., macro-fiber composites) for active wing control, advanced vibration suppression in lightweight structures using piezoelectric sensors and actuators, and the creation of quasi-steady aerodynamic models for flapping flight at low Reynolds numbers. The lab combines analytical modeling, numerical simulation, and experimental validation to advance both fundamental understanding and engineering applications in bio-mimetic flight and structural dynamics.
Professor Ha-Myeong Jeong's research lab specializes in experimental petrology and mineral physics, focusing on the deformation mechanisms and crystallographic preferred orientations (CPO/LPO) of mantle minerals under high-pressure and high-temperature conditions. The lab investigates how water and other volatiles influence the rheology and seismic anisotropy of the Earth's upper mantle, particularly in tectonically active regions such as subduction zones and collision belts. Key research directions include the genesis of seismic anisotropy, the role of hydrous phases in mantle deformation, and the microstructural evolution of peridotites and amphibolites during shear deformation. The lab employs advanced techniques such as electron backscatter diffraction (EBSD), triaxial and multi-anvil deformation experiments, and high-precision mineral chemistry analysis to unravel the dynamics of the lithosphere and asthenosphere.
Professor Ji Young Park's research lab focuses on the role of adipose tissue and its secretory products in cancer progression and metabolic disease. The lab investigates how obesity-related changes in the tumor microenvironment—particularly through adipokines, extracellular matrix components like collagen VI, and metabolically active enzymes such as glucose-6-phosphate dehydrogenase (G6PD)—contribute to tumor growth, fibrosis, inflammation, and insulin resistance. Key research directions include the molecular mechanisms linking obesity, chronic inflammation, and cancer, with a strong emphasis on endotrophin as a key mediator in breast and lung carcinogenesis.
Professor Min Ha Choi's research lab specializes in land-atmosphere interactions, with a focus on hydrological and meteorological processes in urban and agricultural environments. Key research directions include urban heat island dynamics, soil moisture variability across multiple spatial scales, and the accurate estimation of evapotranspiration and radiation fluxes using remote sensing and land surface models. The lab integrates field observations, satellite data, and modeling frameworks such as CLM and SEBS to assess water and energy cycles under climate and land-use change.
Professor Jee Yun Ahn's research lab focuses on the intersection of ophthalmology and neurodegenerative diseases, particularly Parkinson’s disease (PD). The lab investigates retinal changes as early biomarkers of neurodegeneration, with a strong emphasis on optical coherence tomography (OCT) to assess retinal layer thickness and its correlation with disease progression and dopamine transporter availability. Additional research explores drug-induced ocular toxicity, such as vortex keratopathy from targeted cancer therapies, and surgical outcomes in patients with ocular motility disorders. The lab integrates clinical ophthalmic imaging with neuroimaging and functional assessments to identify non-invasive markers for early neurological disease detection.
