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 Hye Sun Gwak's research lab specializes in pharmaceutical and clinical pharmacology, with a focus on optimizing drug delivery systems and understanding genetic influences on drug response. The lab investigates transdermal drug permeation using various vehicles and penetration enhancers, particularly for medications like ondansetron and rosuvastatin. It also explores the clinical implications of pharmacogenomics, such as the ABCG2 421C>A polymorphism's impact on rosuvastatin pharmacokinetics, and examines the relationship between mental health factors—like anxiety and smartphone addiction—and adolescent health outcomes. The lab integrates preclinical studies with large-scale epidemiological data to support personalized medicine and public health interventions.
Professor Kyoungdoug Min's research lab specializes in internal combustion engine combustion, with a focus on emissions control, knock phenomena, and fuel efficiency. The lab investigates fundamental combustion processes, including crevice flow effects on hydrocarbon emissions, in-cylinder pressure analysis for knock detection, and advanced modeling of diesel engine combustion. Research also extends to polymer electrolyte membrane (PEM) fuel cells, particularly resistance separation in fuel cell performance using electrochemical impedance spectroscopy and polarization curves.
Professor Kyeong Kyu Kim's research lab focuses on molecular microbiology, structural biology, and bioinorganic hybrid systems, with a strong emphasis on understanding virulence mechanisms in pathogenic bacteria such as *Pseudomonas aeruginosa*, the role of key regulatory proteins like eIF-5A and USP4 in cellular signaling and disease, and the structural basis of receptor-ligand interactions in immune and bone metabolism. The lab also pioneers innovative bioinorganic integration strategies, developing multifunctional nanomaterials by combining enzymes with inorganic nanoparticles for advanced catalytic applications. These interdisciplinary efforts bridge structural biology, pathogenesis, and nanotechnology to address challenges in infectious diseases and sustainable synthesis.
Professor Ji Won Suk's research lab specializes in the fundamental and applied science of two-dimensional nanomaterials, particularly graphene and graphene oxide, with a focus on their mechanical, electrical, and thermal properties. The lab develops advanced transfer techniques for large-area graphene, investigates the mechanics of ultrathin 2D membranes using atomic force microscopy and modeling, and explores applications in flexible and transparent electronics, such as graphene-based loudspeakers and high-performance field-effect transistors. A key emphasis is placed on minimizing contamination—especially polymer residues—during fabrication to preserve intrinsic material properties and enable next-generation nanoelectromechanical systems and devices.
Professor Jin-Kyung Kim's research lab specializes in advanced structural materials, focusing on the design and strengthening mechanisms of lightweight alloys such as magnesium and high-manganese steels. The lab investigates atomic-scale phase transformations, including the formation of long-period stacking ordered (LPSO) structures in Mg alloys and twinning-induced plasticity (TWIP) in high-strength steels, aiming to enhance strength without sacrificing ductility. Additionally, the lab explores bioinspired functional materials, exemplified by the development of silanediol-based arginase inhibitors with tailored stability and reactivity. The research integrates materials synthesis, advanced characterization, and theoretical modeling to enable next-generation engineering materials for automotive and biomedical applications.
Professor Satoru Hayami's research lab specializes in theoretical condensed matter physics, focusing on emergent quantum phenomena in quantum materials. The lab explores exotic magnetic orders, multiferroics, and topological electronic structures—particularly in spin-orbit-coupling-free systems—where symmetry-protected multipole orders and nontrivial spin textures drive novel transport and response phenomena. Key directions include the microscopic design of spin-split and nonreciprocal band structures, the emergence of toroidal and higher-rank multipoles, and the role of spin-charge coupling in itinerant magnets. The lab develops unified theoretical frameworks to describe and predict nontrivial responses such as antisymmetric magneto-electric effects and skyrmion-bubble phase transitions.
Professor Ataru Tanikawa's research lab specializes in theoretical astrophysics, focusing on the formation, evolution, and gravitational wave detection of compact binary systems—particularly binary black holes and white dwarfs—across diverse stellar populations. The lab employs advanced numerical simulations, including binary population synthesis, N-body, and smoothed particle hydrodynamics (SPH), to explore the dynamical and evolutionary pathways of these systems in environments ranging from primordial Population III stars to globular clusters. A central theme is understanding the origin of gravitational wave events like GW190521, especially those involving black holes in the pair-instability mass gap, and assessing the viability of various explosion mechanisms in double-degenerate systems as sources of Type Ia supernovae.
Professor Takashi Kaito's research lab specializes in musculoskeletal and inflammatory bone diseases, with a focus on the cellular and molecular mechanisms underlying osteoclast differentiation, bone destruction in arthritis, and spinal disorders. The lab investigates key signaling pathways such as the IL-23/IL-17 axis in spondyloarthritis, the role of STAMP family proteins in osteoclast multinucleation, and surgical complications in spinal surgery, particularly dural tears and adjacent segment disease. Their work bridges basic science and clinical applications, aiming to uncover novel therapeutic targets for osteoporosis, inflammatory arthritis, and degenerative spinal conditions.
Professor Sukjoon Hong's research lab specializes in the development of advanced functional materials and devices for next-generation wearable and flexible electronics. The lab focuses on transparent and stretchable conductors, particularly using silver nanowires and liquid metal-based materials, to enable high-performance, biocompatible, and mechanically robust electronic systems. Key research directions include stretchable heaters, patterned transparent conductors via laser processing, and energy storage devices with conducting polymers and nanowire architectures. The lab emphasizes scalable, low-cost fabrication techniques such as laser sintering and ablation, enabling precise, maskless patterning without high-temperature or vacuum processes.
Professor YongKeun Park's research lab specializes in developing advanced optical imaging techniques to study the biophysical properties of living cells, with a primary focus on red blood cells. The lab pioneers noninvasive, quantitative phase imaging and interferometric methods to probe intrinsic cellular features such as refractive index, membrane fluctuations, and mechanical dynamics at nanoscale resolution. Key research directions include understanding the role of spectrin cytoskeleton and ATP in regulating red blood cell mechanics and morphology, as well as applying these optical tools for label-free, real-time monitoring of cellular physiology and pathology. The lab also develops innovative imaging systems—such as DPF microscopy and DMD-based illumination—for high-precision, multimodal live-cell analysis.
Professor Sung-Hoon Kim's research lab specializes in molecular oncology and cancer pharmacology, focusing on the anticancer mechanisms of natural compounds and nanomaterials in colorectal and other cancers. The lab investigates how phytochemicals such as kaempferol, ursolic acid, beta-sitosterol, and decursin induce apoptosis, cell cycle arrest, and endoplasmic reticulum stress through ROS-dependent signaling pathways involving MAPK, p53, STAT3, and AMPK. A key research direction involves enhancing the therapeutic efficacy of natural compounds by overcoming poor bioavailability through advanced drug delivery systems, including biocompatible nanoparticles. The lab also explores the regulation of cancer-related genes, such as MUC2, in response to environmental factors like bile acids.
Professor Hiroaki Miyata's research lab focuses on public health and mental health in the context of serious illnesses and pandemics, with an emphasis on patient-centered communication, end-of-life care, and psychosocial support. The lab investigates how individuals perceive and respond to critical health information, particularly cancer diagnoses and the psychological impact of infectious disease outbreaks such as COVID-19. Using large-scale survey data and digital tools like chatbots, the lab aims to inform health policy and improve mental health interventions for patients and their close contacts. A central theme is the development of tailored, empathetic, and culturally appropriate support systems in healthcare settings.
Professor Seung-Baik Kang's research lab specializes in orthopedic biomaterials and regenerative medicine, focusing on the development and evaluation of advanced implant materials such as porous titanium-nickel shape memory alloys for bone regeneration and orthopedic applications. The lab investigates disease-modifying osteoarthritis drugs (DMOADs) targeting key pathological pathways including inflammation, cartilage degradation, and pain signaling. It also explores novel nutraceutical formulations, such as FlexPro MD®, to provide non-pharmacological alternatives for managing osteoarthritis symptoms. The lab integrates preclinical and clinical research to translate innovative solutions for musculoskeletal disorders, particularly in pediatric and adult patients with bone defects or joint degeneration.
Professor Kyoung Heon Kim's research lab specializes in the discovery and application of bioactive compounds from natural sources, particularly marine algae and microbial enzymes. The lab focuses on enzymatic conversion of biopolymers such as cellulose and poly(ethylene terephthalate) (PET) into valuable products, emphasizing sustainable biocatalysis and circular economy approaches. Key research directions include the identification and functional characterization of novel enzymes like expansin-like proteins and agarases, as well as the development of biocompatible processes for producing high-value cosmetics and biodegradable materials.
Professor Seungho Yu's research lab specializes in computational materials science with a focus on solid-state ionics and energy storage materials. The lab investigates the atomic-scale mechanisms governing ionic conductivity, interfacial stability, and defect engineering in solid electrolytes—particularly garnet-type LLZO and chalcogenide-based argyrodites—for all-solid-state batteries. Key research directions include understanding grain boundary effects, elastic softening at nanoscale interfaces, and designing high-conductivity, stable electrolytes through first-principles calculations and molecular dynamics simulations. The lab also explores novel materials such as lithium halides and low-melting-point liquid metal alloys for advanced electrochemical applications.
Professor Mineto Ota's research lab specializes in immunogenomics and systems immunology, focusing on the genetic and cellular mechanisms underlying autoimmune diseases and aging-related immune dysfunction. The lab integrates multi-omics technologies—genomics, transcriptomics, and B cell receptor repertoire analysis—to dissect T and B cell pathophysiology in conditions such as rheumatoid arthritis-associated interstitial lung disease and systemic lupus erythematosus. A key focus is identifying novel immune cell subsets, like age-associated T<sub>H</sub>A cells, and translating these findings into clinical insights for prognosis and treatment response prediction.
Professor Heejung Yu's research lab specializes in next-generation wireless communication systems, with a strong focus on 5G and beyond technologies, including ultra-reliable low-latency communications (URLLC), massive machine-type communications (mMTC), and enhanced mobile broadband (eMBB). The lab investigates key enablers for the Internet of Things (IoT), such as interference alignment, spectral efficiency, and network coexistence, while also advancing intelligent human-machine interaction through speech emotion recognition using deep learning. A central theme across the research is the development of reliable, efficient, and secure communication frameworks to support future smart societies and ubiquitous connectivity.
Professor Jaekyun Kim's research lab specializes in advanced semiconductor materials and thin-film devices, with a focus on enhancing the performance and reliability of optoelectronic and energy storage systems. Key research directions include optimizing InGaN-based light-emitting diodes through nanostructure engineering—particularly V-pits and quantum wells—to improve luminescence efficiency and reduce leakage currents. The lab also develops novel ion gel polymer electrolytes (IGPEs) for flexible, all-solid-state energy storage devices, emphasizing high ionic conductivity, mechanical robustness, and stability. Additionally, the group explores solution-processed amorphous oxide semiconductors for low-cost, high-performance thin-film transistors in next-generation displays.
Professor Choong Seon Hong's research lab specializes in healthcare informatics and intelligent systems, focusing on the development of context-aware monitoring frameworks and QoS-aware routing protocols for wireless body sensor networks. The lab integrates human-computer interaction, health behavior analysis, and advanced networking to improve patient wellness and clinical decision-making. Research also extends to technology adoption in healthcare organizations, particularly in emerging economies, using theoretical models to understand HRIS implementation challenges.
Professor Yasunari Tamai's research lab specializes in the fundamental photophysics and dynamics of charge and exciton processes in organic semiconductors, with a strong focus on organic photovoltaics (OPVs). The lab employs advanced time-resolved spectroscopic techniques—particularly transient absorption spectroscopy and electroabsorption—to investigate exciton diffusion, charge separation, and recombination mechanisms in materials such as P3HT and non-fullerene acceptors. Their work aims to uncover the structure-property relationships that govern device efficiency and stability, particularly in relation to interfacial dynamics and degradation pathways under operational conditions. The lab also contributes to the methodological development and proper interpretation of transient absorption data in the context of solar energy conversion research.
