Explore research labs at leading universities worldwide — research fields and key papers at a glance.
Professor Seok Su Sohn's research lab specializes in the development of advanced high-strength and ductile structural materials, with a focus on medium- and high-entropy alloys, ultra-high-strength steels, and transformation-induced plasticity (TRIP) steels. The lab explores the role of severe lattice distortion and microstructural engineering to achieve exceptional mechanical properties, particularly near-1 GPa yield strength combined with high ductility. Key research directions include designing novel Fe-Mn-Al-C-based steels through controlled cold rolling and annealing processes, leveraging non-recrystallization and TRIP effects for enhanced formability and strength. The lab aims to address critical challenges in automotive and structural applications by enabling energy-efficient, safe, and crash-resistant materials.
Professor Masahiro Miura's research lab specializes in transition-metal-catalyzed C–H bond activation and functionalization, with a focus on developing regioselective and efficient methods for constructing complex aromatic and heteroaromatic frameworks. His group explores rhodium-, palladium-, and copper-catalyzed transformations involving alkenes, alkynes, and nitrogen/oxygen-containing substrates to synthesize valuable scaffolds such as indenones, isoquinolines, benzophenanthridines, and azetidinones. The lab emphasizes mechanistic insights into substrate coordination and C–H activation, enabling the synthesis of medicinally relevant heterocycles with high selectivity and atom economy. Recent work also extends to asymmetric hydroamination and intermolecular coupling reactions, highlighting the development of enantioselective catalytic systems using chiral ligands.
Professor Maria-Magdalena Titirici's research lab specializes in the sustainable synthesis of advanced carbon-based materials from biomass and renewable precursors using environmentally friendly processes such as hydrothermal carbonization (HTC). The lab focuses on developing functional nanostructured carbons for applications in energy storage (e.g., sodium-ion batteries, supercapacitors) and environmental remediation (e.g., water purification, carbon capture). A key research direction involves tailoring the microstructure and surface functionality of carbon materials to enhance their electrochemical and adsorption performance while ensuring low environmental impact across the entire life cycle. The lab also explores scalable production methods and the fundamental mechanisms of carbon formation to support real-world commercialization of green materials.
Professor Yasser Zare's research lab specializes in the development and characterization of advanced polymer nanocomposites, with a focus on enhancing mechanical, thermal, and electrical properties through nanofillers such as clay, carbon nanotubes, and calcium carbonate. The lab investigates flame retardancy in textile and polymer systems, aiming to improve fire safety in engineering and industrial applications. A key research direction involves modeling and predicting the electrical conductivity and interfacial behavior in nanocomposites using theoretical frameworks and experimental validation. The lab also employs advanced analytical techniques like XRD, SEM, AFM, and response surface methodology to optimize material performance.
Professor Atsushi Wakamiya's research lab specializes in the molecular design and synthesis of boron-containing π-conjugated materials for optoelectronic applications. The lab focuses on leveraging the unique electronic and structural properties of boron—particularly its vacant p-orbital and Lewis acidity—to develop advanced semiconductors and emissive materials with tailored photophysical and charge-transport properties. Key research directions include the development of high-efficiency perovskite solar cells, especially lead-free tin-based and mixed tin-lead perovskites, through innovative film processing techniques and interfacial engineering. The lab also explores intramolecular charge-transfer systems and π-stacking architectures to achieve strong solid-state fluorescence and high electron mobility in organic semiconductors.
Professor Youngkook Kwon's research lab specializes in electrocatalysis for sustainable energy conversion, focusing on the selective oxidation of renewable organic molecules such as glycerol, furfural, and alcohols on noble metal and gold-based electrocatalysts. The lab employs advanced in situ and online analytical techniques—such as in situ FTIR, online HPLC, and electrochemical mass spectrometry—to elucidate reaction mechanisms and identify key intermediates and selectivity-determining surface sites. A central theme is the rational design of electrocatalysts through surface modification (e.g., bismuth adatoms on platinum) to enhance activity and selectivity for high-value chemicals.
Professor Jonghun Yoon's research lab specializes in advanced optical materials and smart manufacturing technologies. The lab focuses on the optical and luminescent properties of rare-earth-doped glasses, particularly for applications in fiber optics, solid-state lasers, and optical amplifiers. Additionally, the lab develops innovative real-time monitoring and predictive modeling techniques for industrial processes, such as weld pool analysis and springback prediction in precision-formed tubular components. These interdisciplinary efforts bridge materials science, photonics, and advanced manufacturing.
Professor Jiwon Chang's research lab specializes in the electronic properties and device applications of two-dimensional and topological materials, with a focus on quantum transport phenomena, heterostructure engineering, and nanoscale field-effect transistors. The lab employs advanced first-principles and atomistic simulations to explore novel semiconductor and topological insulator-based devices, including TFETs, MOSFETs, and heterostructures with thickness-dependent phase transitions. Key research directions include the design of low-power, high-performance transistors using materials like monolayer MoS₂, antimonene, and PdSe₂, as well as the fundamental understanding of surface states and band gap engineering in 2D and 3D topological insulators. The lab also develops compact models for short-channel devices to bridge quantum simulations with practical device design.
Professor Hyo-Jin Byon's research lab specializes in pediatric and experimental anesthesiology, with a focus on optimizing anesthetic techniques and managing hemodynamic stability in pediatric and adult patients. The lab investigates pharmacological agents—such as dexmedetomidine, midazolam, and lidocaine—to improve perioperative outcomes, including postoperative nausea and vomiting, pain control, and airway protection. Additionally, the lab conducts hemodynamic and vascular studies using *in vitro* models to understand drug interactions and vascular responses, particularly in critical care and surgical settings. The integration of clinical anesthesiology with translational research on vascular dynamics and respiratory physiology defines the lab’s interdisciplinary approach.
Professor Sangjun Im's research lab specializes in watershed hydrology, water quality modeling, and environmental impact assessment, with a focus on understanding the effects of land use and land cover changes on hydrological processes and nonpoint source pollution. The lab employs advanced models such as HSPF and SWAT to simulate runoff, sediment yield, and fecal coliform transport in urbanizing and developing watersheds. It also investigates the role of forest floor litter in rainfall interception and soil erosion control, particularly in regions undergoing deforestation and environmental degradation. The lab integrates remote sensing, GIS, and field monitoring to assess environmental change and support sustainable land management.
Professor Yasushi Sekine's research lab specializes in catalytic materials and energy conversion technologies, with a strong focus on sustainable energy solutions. Key research directions include the development of advanced catalysts for hydrogen storage and transportation using liquid organic hydrogen carriers (LOHCs), such as methylcyclohexane and dibenzyltoluene, and the design of efficient electrocatalysts for low-temperature ammonia synthesis. The lab also investigates electric field-assisted catalysis to enable low-temperature hydrogen production and syngas generation, emphasizing surface proton dynamics and reaction mechanisms. Additionally, the group explores fundamental aspects of molecular transport and gene expression in biological systems, reflecting a multidisciplinary approach to materials science and energy technology.
Professor Geehyun Kim's research lab specializes in advanced radiation detection and imaging technologies, with a focus on gamma-ray and neutron detection using novel scintillator materials and innovative imaging techniques such as coded-aperture imaging and rotational modulation collimators. The lab develops cutting-edge methods for accurate image reconstruction, noise reduction, and particle discrimination, particularly through the use of silicon photomultipliers and pulse shape discrimination. Research also extends to environmental monitoring, including atmospheric deposition of nitrogen species, linking atmospheric science with environmental and climate studies. The lab integrates experimental and simulation-based approaches, emphasizing applications in nuclear security, energy, and environmental safety.
Professor Suk-Yoon Hong's research lab specializes in vibro-acoustics and structural dynamics, focusing on energy flow modeling, wave propagation, and vibration control in complex beam and plate structures. The lab develops advanced analytical and numerical methods—such as Energy Flow Analysis (EFA), Energy Flow Boundary Element Method (EFBEM), and deep reinforcement learning-based optimization—for predicting and controlling structural vibrations in the medium-to-high frequency range. Key research directions include wave transmission in coupled Timoshenko beams, energy-based modeling of orthotropic and isotropic plates, and the application of machine learning to optimize submarine hull designs for stealth performance.
Professor Chong-Su Kim's research lab specializes in gut-brain axis mechanisms, focusing on how gut microbiota and their metabolites influence brain function and mental health in aging and psychological stress. The lab investigates the roles of probiotics, dietary fiber, and microbial metabolites—particularly indole-3-propionic acid (IPA)—in modulating neuroinflammation, cognition, and mood disorders such as depression and anxiety. Using integrative approaches including 16S rRNA sequencing, clinical trials, and systems biology, the lab aims to identify microbiome-based interventions for promoting brain health in older adults and vulnerable populations. Their work bridges microbiology, neuroscience, and nutrition science to develop evidence-based strategies for mental well-being.
Professor Ryuhei Nakamura's research lab specializes in the development and mechanistic understanding of advanced materials for sustainable energy conversion, with a primary focus on photocatalysis and electrocatalysis for water splitting and hydrogen production. The lab investigates surface reaction mechanisms of oxygen evolution and reduction reactions using in situ spectroscopic techniques such as multiple internal reflection infrared spectroscopy and photoluminescence, aiming to design highly active and stable catalysts. Key research directions include nitrogen-doped titania for visible-light photocatalysis, atomically dispersed iridium oxides for proton exchange membrane electrolysis, and acid-stable 3d-metal oxides like γ-MnO₂ for durable oxygen evolution. The lab also explores bio-inspired electron transfer systems, integrating biological components with inorganic semiconductors for efficient energy conversion.
Professor Hayong Shin's research lab specializes in advanced manufacturing systems, computational modeling, and simulation methodologies with a focus on optimizing complex industrial processes. The lab develops innovative scheduling and dispatching strategies—particularly predictive and learning-based approaches—for semiconductor fabrication (fab) and re-entrant flow shops, integrating real-time data and machine learning to improve efficiency. It also conducts foundational research in agent-based modeling, grid generation for computational fluid dynamics (CFD), and combat modeling using approximation techniques for dynamic system simulation. The lab bridges theoretical modeling with practical applications in manufacturing, transportation, and defense systems.
Professor Seok Joon Kwon's research lab specializes in the design and engineering of advanced nanomaterials for energy conversion and storage, with a strong focus on perovskite semiconductors, 2D materials like graphene, and nanostructured functional materials. The lab investigates fundamental mechanisms governing material stability, ion storage kinetics, and light-matter interactions, aiming to develop high-performance, scalable solutions for next-generation batteries, solar-thermal systems, and secure hardware authentication. Their work bridges molecular-level synthesis with macro-scale device integration, emphasizing structural control and multifunctionality.
Professor Dongmin Choi's research lab specializes in power electronics and electrical energy conversion systems, with a strong focus on high-efficiency DC/DC converters, particularly dual-active-bridge (DAB) topologies. The lab explores innovative modulation techniques, advanced magnetic component design (such as coupled inductors), and intelligent control strategies for power conversion systems used in renewable energy, electric vehicles, and data center infrastructure. Research also extends to system-level integration and reliability, including secure container orchestration in cloud computing environments, reflecting a multidisciplinary approach to energy and system safety.
Professor Jae Wook Jung's research lab specializes in comparative immunology and translational medicine, with a focus on understanding the adaptive immune system in teleost fish and its evolutionary parallels to mammalian immunity. The lab develops monoclonal antibodies and molecular tools to characterize T cell subsets—such as CD4 and CD8 T lymphocytes—in fish models like olive flounder, advancing insights into fish immune responses to viral infections. Additionally, the lab explores innate immune mechanisms in jawless vertebrates, particularly the variable lymphocyte receptors (VLRs) in hagfish and lamprey, with applications in recombinant antibody technology. The lab also contributes to clinical research, particularly in neurovascular and cardiovascular interventions, including endovascular thrombectomy outcomes and sedation strategies during percutaneous ASD closure procedures.
Professor Masaaki Kitajima's research lab specializes in environmental virology and wastewater-based epidemiology, focusing on the detection, quantification, and monitoring of human pathogenic viruses in environmental matrices such as wastewater, surface water, and fecal samples. The lab develops advanced molecular techniques—particularly RT-qPCR and digital PCR methods—to track viral contamination and assess public health risks associated with enteric viruses like SARS-CoV-2, Aichi virus, norovirus, and Pepper mild mottle virus. A key research direction involves using environmental viruses as indicators of human fecal pollution and as tools for early warning of infectious disease outbreaks, particularly in urban water systems and during pandemics. The lab also investigates the environmental persistence and global distribution of these viruses to support sustainable water management and public health surveillance.
