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 Takeaki Iwamoto's research lab specializes in the synthesis, characterization, and reactivity of low-valent main-group compounds, with a focus on group 14 elements (Si, Ge, Sn). The lab explores the formation and stabilization of unusual multiple bonds—such as Si=Si, Si=Ch (Ch = S, Se, Te), Ge=Ge, and Si=Ge—using steric protection and electronic tuning. Key research directions include the structural and electronic analysis of multiply bonded species via X-ray crystallography, spectroscopy, and computational methods, as well as the investigation of unique reactivity patterns, including radical addition and intramolecular charge transfer in organosilicon and organogermanium systems. The lab also develops novel silylenes and germylenes with tailored electronic properties for use in small-molecule activation and catalysis.
Professor Bo Kyung Koo's research lab focuses on metabolic liver diseases, particularly non-alcoholic fatty liver disease (NAFLD) and its complications, with an emphasis on identifying novel biomarkers and genetic determinants of fibrosis and disease progression. The lab investigates the interplay between metabolic syndrome components—such as insulin resistance, sarcopenia, and diabetes—and liver and muscle health, aiming to improve risk stratification and early intervention strategies. A key focus is on understanding the roles of genetic variants (e.g., PNPLA3, TM6SF2, KCNJ11) and circulating factors (e.g., GDF15) in disease susceptibility and outcomes.
Professor Hyun Wook Jung's research lab specializes in the design, synthesis, and characterization of advanced polymeric materials, with a focus on hydrogels, electrospun nanofibers, and functional coatings. The lab investigates crosslinking dynamics, gelation mechanisms, and stimuli-responsive behaviors in poly(ethylene glycol)-based hydrogels, as well as the development of novel crosslinkers for low-temperature curing applications. Key research directions include the control of polymer network structures through UV and thermal polymerization, the engineering of nanofibrous architectures using electrospinning, and the optimization of material properties for biomedical and industrial applications. The lab combines advanced analytical techniques such as rheology, FT-IR spectroscopy, and thermal analysis to understand structure-property relationships in soft materials.
Professor Jun-Seok Lee's research lab specializes in the development of novel fluorescent probes and chemosensors for biomedical imaging and target identification. The lab focuses on diversity-oriented fluorescence library screening, molecular aggregate engineering, and affinity-based probe design to enable unbiased discovery of probes for biologically relevant molecules. Key research directions include the rational design of BODIPY-based fluorophores for selective sensing of hormones like glucagon, the exploration of supramolecular photophysics in molecular aggregates, and the application of bioorthogonal chemistry for chemoproteomic studies. The lab integrates synthetic chemistry, fluorescence spectroscopy, and cell-based imaging to advance tools for live-cell imaging and drug target discovery.
Professor Enrico Zio's research lab specializes in reliability, risk, and safety engineering with a focus on complex systems, particularly in the context of interconnected infrastructures. The lab develops advanced modeling and simulation techniques to analyze failure propagation, interdependencies, and system resilience under uncertainty. Research directions include fault and event tree analysis, reliability assessment of complex systems, and the integration of data-driven methods with probabilistic risk assessment. The lab also explores the impact of digitalization and big data on improving system safety and decision-making in critical infrastructures.
Professor Eli Zysman-Colman's research lab specializes in the design and development of advanced organic semiconductors for optoelectronic applications, with a primary focus on thermally activated delayed fluorescence (TADF) materials. The lab explores novel TADF emitters and hosts—particularly multiresonant TADF (MR-TADF) compounds—aimed at achieving high-efficiency, narrowband, deep-blue organic light-emitting diodes (OLEDs). A key research direction involves mitigating aggregation-caused quenching through innovative molecular engineering, while also investigating the emerging application of TADF materials in visible-light photocatalysis. The lab combines synthetic chemistry, photophysical characterization, and device engineering to advance low-cost, metal-free organic optoelectronics.
Professor Teppei Shimamura's research lab specializes in computational systems biology and bioinformatics, focusing on deciphering complex molecular networks in cancer using multi-omics data. The lab develops advanced statistical and deep generative models to infer patient-specific gene regulatory networks, understand tumor microenvironment dynamics, and uncover metabolic adaptations in aggressive cancers. Key research directions include single-cell multi-omics integration, spatial transcriptomics, and systems-level analysis of cancer progression and therapy resistance. The lab combines machine learning, statistical modeling, and multi-omics data to drive precision oncology and identify novel therapeutic targets.
Professor Kimihito Ito's research lab specializes in computational epidemiology and viral evolution, focusing on modeling the transmission dynamics and evolutionary trajectories of emerging infectious diseases such as SARS-CoV-2 and influenza A virus. The lab employs mathematical modeling, genomic data analysis, and statistical inference to estimate key epidemiological parameters like effective reproduction numbers and generation times, particularly for new viral variants. A central theme is understanding how viral variants with increased transmissibility, such as Omicron and Delta, outcompete previous strains under real-world conditions. The lab also contributes to bioinformatics methods for accurate microbial detection in environmental and clinical samples.
Professor Zhongping Li's research lab specializes in the design, synthesis, and functionalization of covalent organic frameworks (COFs) for advanced energy and environmental applications. The lab focuses on developing stable, porous, and tunable COFs with enhanced optical, electrochemical, and adsorption properties through strategic molecular engineering. Key research directions include improving luminescence efficiency in COFs via targeted chemical modifications, enabling high-capacity lithium-ion storage, and enhancing perovskite solar cell stability through COF integration. The lab also explores COFs for radioactive iodine capture, emphasizing their chemical robustness and selective interactions in harsh environments.
Professor Ramchandra Pode's research lab specializes in the development of advanced optoelectronic materials and devices, with a primary focus on organic light-emitting diodes (OLEDs), particularly top-emitting configurations for flat-panel displays. The lab investigates transparent conducting electrodes, rare-earth doped phosphors for efficient luminescence, and radiation-resistant materials to enhance device stability under harsh environmental conditions such as UV exposure. Key research directions include energy transfer mechanisms in phosphors, low-cost synthesis techniques like combustion synthesis, and the integration of novel electron transport layers to improve device performance and longevity.
Professor Il Keun Kwon's research lab specializes in biomedical microengineering and functional nanomaterials, with a focus on developing advanced microfluidic devices and electrospun nanofibrous scaffolds for tissue engineering and point-of-care diagnostics. The lab integrates microfluidic chip design, chaotic mixing mechanisms, and functionalized nanomaterials to enable efficient cell infiltration, blood typing, and targeted cancer theranostics. Key research directions include the fabrication of mechanically robust artificial blood vessels, smart drug delivery systems, and high-performance biosensors using biocompatible polymers and graphene quantum dots.
Professor Kyung Hyun Ahn's research lab specializes in the rheology and processing of complex suspensions and nanocomposites, with a strong focus on energy storage materials such as high-nickel NMC-based battery electrodes. The lab investigates the dispersion behavior, structural evolution, and stability of electrode slurries under various mixing and storage conditions, aiming to optimize coating processes and enhance battery performance. Key research directions include the role of binders like PVDF in slurry rheology, the kinetics of nanoclay dispersion in polymer blends, and the mechanical effects of shear stress on biological cells and materials. The lab combines advanced rheological measurements with microstructural characterization to address industrial challenges in battery manufacturing and polymer nanocomposite development.
Professor Eun-Hee Shin's research lab focuses on host-pathogen interactions, particularly in parasitic and infectious diseases, with a strong emphasis on immunological mechanisms underlying host defense. The lab investigates the roles of immune cells such as eosinophils in combating helminth infections, explores host-directed therapies to overcome drug resistance in cancer, and examines the pathogenesis and diagnosis of bacterial and parasitic infections in endemic regions. Their work integrates molecular parasitology, immunology, and translational medicine to develop novel therapeutic and diagnostic strategies.
Professor Choongsik Bae's research lab specializes in advanced internal combustion engine technologies, focusing on improving engine efficiency and reducing emissions through innovative injection strategies. The lab investigates direct water and fuel injection systems, particularly in high-compression gasoline and diesel engines, to mitigate knocking and enhance performance. Utilizing optical imaging and high-pressure injection techniques, the lab explores nozzle geometry and spray dynamics to optimize injector design and combustion processes. Their work bridges fundamental fluid dynamics with practical engine applications, aiming for cleaner and more efficient transportation technologies.
Professor Sungha Park's research lab focuses on cardiovascular disease mechanisms, particularly the role of arterial stiffness, inflammation, and hemodynamic responses to environmental factors such as cold temperatures. The lab investigates molecular pathways involving angiotensin II, oxidative stress, and extracellular matrix remodeling, with an emphasis on the interplay between fibrosis, cytokine activation, and vascular pathology. Additionally, the lab applies statistical methods to survival analysis, developing advanced goodness-of-fit tests for censored data using entropy-based approaches. These interdisciplinary efforts bridge clinical cardiovascular research with biostatistical methodology.
Professor Chang Won Yoon's research lab specializes in the development of advanced nanomaterials and heterogeneous catalysts for sustainable energy applications, with a primary focus on chemical hydrogen storage and hydrogen release. The lab investigates novel materials such as Pd nanoparticles supported on carbon nitride and mesoporous silica, as well as borane-based compounds like ammonia triborane, to enable efficient, ambient-temperature hydrogen generation from formic acid and other hydrogen carriers. Key research directions include understanding the role of metal-support interactions, surface basicity, and molecular-level catalytic mechanisms through experimental and DFT computational studies. The lab also explores the stability and reactivity of borane derivatives in aqueous and biphasic systems for safe and controllable hydrogen delivery.
Professor Steve Granick's research lab focuses on the fundamental physics and materials science of soft matter, particularly at interfaces and under extreme confinement. Key research directions include the behavior of liquids in nanoconfined geometries, the self-assembly and dynamics of active and Janus particles, and the interfacial properties of macromolecules at solid-liquid interfaces. The lab integrates advanced experimental techniques with theoretical and computational modeling to explore collective phenomena, non-equilibrium dynamics, and emergent behaviors in soft materials.
Professor Woojin Kim's research lab specializes in neurobiological mechanisms underlying chronic and neuropathic pain, with a focus on understanding central and peripheral sensitization processes following nerve injury or chemotherapy-induced neuropathy. The lab investigates the role of neural plasticity in the pain matrix, including spinal cord and cortical changes, and explores non-opioid and complementary therapeutic strategies such as acupuncture, bee venom acupuncture, and pharmacological agents like duloxetine. A key research direction involves elucidating the involvement of glial cells and monoaminergic systems (serotonin and norepinephrine) in pain modulation and treatment response. The lab integrates preclinical animal models with translational insights to develop novel, mechanism-based interventions for chronic pain.
Professor Mirza Hasanuzzaman's research lab specializes in plant abiotic stress biology, focusing on the molecular and physiological mechanisms underlying plant responses to environmental stresses such as high temperature, salinity, drought, and oxidative stress. The lab investigates the role of reactive oxygen species (ROS) as signaling molecules and damaging agents, emphasizing the regulation of antioxidant defense systems—particularly the Ascorbate-Glutathione pathway—and the involvement of key nutrients like potassium in stress tolerance. A central theme is enhancing crop resilience through understanding ion homeostasis, osmotic regulation, and redox signaling under climate change conditions.
Professor Hirotaka Koga's research lab specializes in the development of sustainable, high-performance nanomaterials and functional composites based on cellulose nanomaterials. The lab focuses on creating transparent, conductive, and flexible materials for applications in electronics, energy storage, and electromagnetic shielding by integrating carbon-based nanomaterials such as carbon nanotubes, graphene, and silver nanowires with cellulose nanofibrils or nanopaper. Key research directions include enhancing the dielectric and microwave absorption properties of cellulose-based composites, enabling their use in wearable devices and environmental protection technologies. The lab emphasizes green, scalable fabrication methods that combine traditional papermaking with advanced nanotechnology.
