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 Byung-Ju Yi's research lab specializes in the design, analysis, and control of advanced mechatronic systems with a focus on compliant mechanisms, parallel kinematics, and robotic actuation. The lab develops high-precision micro-positioning and micro-manipulation systems using flexure hinges and parallel kinematic architectures, emphasizing accurate kinematic modeling, stiffness analysis, and active compliance control. Research also extends to medical robotics, particularly in vascular interventional robotics and pneumatic-driven grippers, aiming to improve surgical precision and reduce radiation exposure. Additionally, the lab investigates redundant actuation and singularity-free control in mobile and parallel robots for enhanced dexterity and stability.
Professor Kyoung Taek Kim's research lab specializes in the design and synthesis of advanced block copolymers to create functional soft nanostructures with stimuli-responsive behavior. The lab focuses on developing smart nanocarriers, nanoreactors, and polymersomes that can dynamically change shape, permeability, or solubility in response to environmental triggers such as pH, sugars, or temperature. By leveraging the unique phase behavior of block copolymers—especially those with glassy or helical segments—the lab achieves precise control over nanostructure morphology and stability, enabling applications in drug delivery and catalysis.
Professor Hoon Lee's research lab specializes in next-generation wireless communication systems with a focus on energy-efficient and secure transmission technologies. The lab investigates advanced topics such as simultaneous wireless information and power transfer (SWIPT), UAV-enabled communications, and wireless powered communication networks, particularly in multiuser and MIMO scenarios. Key research directions include optimizing spectral and energy efficiency through joint resource allocation, beamforming, and intelligent signal processing techniques, often integrating emerging technologies like deep learning for signal design and system optimization.
Professor Junyang Jung's research lab focuses on the molecular mechanisms underlying cellular homeostasis, with a central emphasis on hydrogen sulfide (H₂S) as a key gasotransmitter in neuroprotection and age-related diseases. The lab investigates the roles of H₂S in regulating oxidative stress, mitochondrial quality control through mitophagy, and nerve degeneration processes such as Wallerian degeneration. Additionally, the lab explores the design and photophysical properties of fluorescent dyes for biomedical imaging, particularly in aqueous environments. These interdisciplinary efforts bridge redox biology, neuroscience, and molecular imaging.
Professor Hongyoon Choi's research lab specializes in translational biomedical imaging and molecular neuroscience, focusing on the development of advanced imaging technologies and computational models to understand neurodegenerative diseases, particularly Alzheimer’s disease. The lab integrates molecular imaging, deep learning, and systems biology to explore disease mechanisms, including amyloid pathology, microglial metabolism, and extracellular vesicle dynamics. A key focus is on creating non-invasive imaging biomarkers—such as those derived from PET and MRI—for early detection, disease progression monitoring, and therapeutic evaluation.
Professor Tae Kyoung Lee's research lab specializes in social and behavioral sciences, with a focus on health communication, media effects, and citizen science. The lab investigates how individuals perceive and respond to health-related information across media platforms, including television dramas, social media, and personal health narratives. It also explores the psychological and social mechanisms underlying information sharing, perceived bias, and public engagement in science and health initiatives. Additionally, the lab examines bioactive compounds in natural resources, such as pinecones, for potential therapeutic applications.
Professor Jong Hoon Chung's research lab specializes in biomaterials and regenerative medicine, focusing on the development of advanced nanomaterials for tissue engineering and drug/gene delivery. The lab explores nanotopographic substrates—such as graphene oxide, bacterial cellulose, and chitosan-based scaffolds—to regulate stem cell behavior and enhance tissue regeneration. Key research directions include designing smart biomaterial platforms for wound healing, particularly in chronic tympanic membrane repair, and optimizing photobiomodulation and gene delivery systems using biocompatible polymers. The lab integrates materials science, cell biology, and biomedical engineering to create innovative solutions for clinical challenges in regenerative therapy.
Professor J.-G. Park's research lab specializes in experimental condensed matter physics and cancer pharmacology, with a strong focus on understanding quantum phenomena in quantum materials and optimizing cancer chemotherapy through molecular mechanisms. The lab investigates magnetic excitations and electronic structures in heavy fermion and rare-earth compounds—such as URu₂Si₂ and CeNiSn—using high-energy inelastic neutron scattering, aiming to uncover the origins of unconventional quantum behavior. In parallel, the lab explores the biological mechanisms of anticancer drug efficacy, particularly the role of leucovorin in enhancing fluoropyrimidine-based chemotherapy in colorectal and gastric cancer cell lines, with translational implications for clinical treatment strategies. These dual research directions reflect a unique integration of advanced physical techniques and biomedical applications.
Professor Jong Wook Chang's research lab specializes in regenerative medicine and cancer biology, with a focus on mesenchymal stem cells (MSCs) and their paracrine mechanisms in disease modulation. The lab investigates the therapeutic potential of MSCs—particularly from umbilical cord blood, adipose, bone marrow, and Wharton’s jelly—against neurodegenerative diseases like Alzheimer’s, emphasizing their secretome and neuroprotective factors such as galectin-3. Additionally, the lab explores cancer biomarkers, including peroxiredoxin-I and endorepellin, for early detection and immune response profiling in non-small cell lung and breast cancers.
Professor Francis Sahngun Nahm's research lab specializes in clinical and interventional pain management, with a focus on diagnostic imaging, minimally invasive spinal interventions, and the optimization of pain treatment techniques. The lab investigates the physiological and diagnostic aspects of pain syndromes such as complex regional pain syndrome (CRPS), utilizing advanced imaging modalities like infrared thermography and fluoroscopic guidance to improve diagnostic accuracy and intervention safety. Research also emphasizes statistical methodology in medical research, particularly the application of ROC curve analysis, effect size estimation, and the limitations of P-values to enhance evidence-based clinical decision-making.
Professor Gi Dae Park's research lab specializes in the design and synthesis of advanced nanomaterials for next-generation energy storage applications, with a primary focus on sodium-ion and other post-lithium-ion batteries. The lab develops novel composite anode materials—particularly metal selenides, oxides, and their heterostructures—using scalable spray pyrolysis and thermally driven transformation processes such as the Kirkendall effect. Key research directions include controlling nanostructure evolution, enhancing electrochemical performance through carbon matrix integration (e.g., rGO and CNTs), and enabling unique hollow or yolk–shell architectures for improved volume stability and ion diffusion.
Professor Ki Yong Ann's research lab specializes in advanced construction materials, with a primary focus on enhancing the durability and performance of concrete through innovative cementitious systems and surface treatments. Key research directions include the development and characterization of magnesium phosphate cement (MPC) for rapid-hardening applications, the influence of cement composition—particularly C3A content—on chloride transport and corrosion resistance, and the application of hydrophobic silane-based coatings to mitigate ionic penetration in concrete pavements. The lab employs advanced testing methods such as electrochemical impedance spectroscopy, X-ray diffraction, and mercury intrusion porosimetry to understand microstructural and transport properties at the pore level.
Professor Shangguo Liu's research lab specializes in the design and development of advanced noble-metal-based electrocatalysts for sustainable energy conversion, with a strong focus on water splitting reactions—particularly the hydrogen evolution reaction (HER) and oxygen evolution reaction (OER). The lab pioneers innovative strategies to enhance catalytic activity, stability, and mass activity across varying pH environments, including acidic, alkaline, and neutral media, by engineering atomic-scale structures such as single-atom and nanocluster catalysts, oxygen vacancies, and tailored support materials. Key research directions include optimizing surface electronic structures and interfacial interactions through doping, defect engineering, and phase control in transition metal oxides and chalcogenides.
Professor Hamza Kurt's research lab specializes in photonic crystals and integrated optics, focusing on designing novel photonic structures for advanced optical devices. Key research directions include graded-index photonic crystals for beam focusing and guiding, chiral and asymmetric waveguides for optical diode behavior, and engineered photonic crystal sensors for terahertz and biochemical detection. The lab combines numerical simulations with experimental validation to explore slow light effects, bandgap engineering, and compact optical components with enhanced functionality.
Professor Hamza Kurt's research lab specializes in the inverse design of nanophotonic devices using advanced optimization techniques and artificial intelligence. The lab focuses on creating ultra-compact, high-performance photonic components with tailored functionalities such as broadband focusing, polarization insensitivity, and non-reciprocal light control. By integrating generative models with electromagnetic simulations, the lab accelerates the discovery of novel nanostructures while minimizing reliance on computationally expensive simulations. Key research directions include multi-objective device design, self-training simulation frameworks, and the development of reconfigurable and efficient on-chip photonic systems.
Professor Sang J. Chung's research lab specializes in the development of advanced nanomaterials and bioactive molecules for biomedical applications, with a strong focus on drug delivery, enzyme inhibition, and biosensing. The lab explores stimuli-responsive polymeric nanoparticles for controlled and theranostic drug delivery, investigates small molecule inhibitors targeting key metabolic and signaling enzymes such as cytidine deaminase and protein tyrosine phosphatases, and develops novel nanomaterial-based platforms for ultrasensitive detection of biologically relevant molecules like hydrogen peroxide. A central theme is the design of smart, eco-friendly nanomaterials with enzyme-mimicking activities for point-of-care diagnostics and therapeutic intervention.
Professor Jieun Oh's research lab focuses on interdisciplinary health and food science, integrating nutritional science, consumer behavior, and public health policy. The lab investigates dietary behaviors across the lifespan—from adolescents to older adults—while exploring food product development for special populations, such as those with autism spectrum disorder or age-related dietary challenges. It also examines the impact of digital transformation and policy discourse on children's dietary safety, and applies innovative surgical techniques to improve postoperative outcomes in dermatologic care. The lab emphasizes evidence-based solutions that bridge individual health needs with societal and environmental factors.
Professor Young-Tae Jeon's research lab focuses on critical care medicine, perioperative medicine, and immunomodulation in surgical and intensive care settings. The lab investigates clinical predictors of mortality in elderly and critically ill patients, including biomarkers like C-reactive protein and electrolyte imbalances, as well as the impact of pharmacological agents such as clonidine and lidocaine on immune responses and postoperative outcomes. The lab also explores the immunomodulatory effects of anesthetics and statins in the context of infectious diseases like COVID-19, emphasizing translational research that bridges basic immunology with clinical practice.
Professor Gyoonhee Han's research lab specializes in synthetic organic chemistry with a focus on the development of innovative strategies for the enantioselective synthesis of complex natural products, particularly alkaloids. The lab emphasizes the use of transition metal catalysis, radical chemistry, and stereoselective transformations to construct challenging molecular architectures found in biologically active compounds. Recent work also extends into glycobiology, exploring the evolutionary dynamics of viral glycosylation patterns in influenza hemagglutinin and neuraminidase. The integration of methodology development with total synthesis and biological relevance defines the lab’s interdisciplinary approach.
Professor Min Wook Lee's research lab specializes in the design and fabrication of advanced functional materials with a focus on self-healing systems, nanofiber-based coatings, and surface engineering for sustainable applications. The lab develops smart, multifunctional materials such as superhydrophobic-superoleophilic membranes and core-shell nanofibers that enable efficient water-oil separation and autonomous damage repair. Key research directions include stimuli-responsive materials, scalable fiber fabrication techniques (e.g., electrospinning and solution blowing), and hierarchical coatings for corrosion protection and structural durability. The lab integrates materials science, surface chemistry, and mechanical engineering to address real-world challenges in aerospace, environmental remediation, and industrial protection.
