Explore research labs at leading universities worldwide — research fields and key papers at a glance.
Professor Takeshi Ueki's research lab specializes in polymer science and materials chemistry, focusing on the development of advanced functional materials using ionic liquids as unique solvents and processing media. The lab explores stimuli-responsive polymers, ion-conducting gels, and ultrahigh-molecular-weight polymer systems, emphasizing sustainable and innovative fabrication methods. Key research directions include thermoresponsive phase behavior, self-healing and stretchable polymer gels, and the rational design of ion gels for energy and electronic applications.
Professor Sue K. Park's research lab focuses on epidemiological studies investigating the interplay between environmental exposures, lifestyle factors, and chronic disease risk, particularly cancer and metabolic disorders. Key research directions include the impact of endogenous hormones and early-life exposures on breast cancer development, the role of lifestyle and genetic factors in prostate cancer disparities, and the associations between vitamin D, serum lipids, glucose, and colorectal adenomatous polyps. The lab emphasizes interdisciplinary approaches, integrating biological sampling with population-based studies to uncover modifiable risk factors and biological mechanisms underlying cancer and diabetes.
Professor Sungzoon Cho's research lab specializes in data science and machine learning with a focus on real-world applications in cybersecurity, customer behavior modeling, and industrial data analytics. The lab develops advanced predictive models that address critical challenges such as missing data in production systems, secure user authentication through biometric-like keystroke dynamics, and response modeling in marketing with limited labeled data. Their work emphasizes robust, practical solutions for incomplete, imbalanced, or noisy data commonly found in industrial and web-based environments. The lab integrates statistical learning, neural networks, and data mining techniques to build reliable and deployable systems for real-world deployment.
Professor Agani Afaya's research lab focuses on maternal and child health, with a strong emphasis on neonatal sepsis, antenatal care utilization, and breast cancer awareness in low-resource settings, particularly in Ghana. The lab investigates risk factors, health system challenges, and socio-cultural barriers affecting maternal and child health outcomes, aiming to inform policy and improve clinical practices. Research directions include improving medication safety reporting, enhancing preventive healthcare access, and developing culturally sensitive health education strategies. The lab’s work is deeply rooted in public health interventions tailored to sub-Saharan African contexts.
Professor Eunji Cheong's research lab focuses on the intersection of neuroscience, stem cell biology, and bioengineering, with a central emphasis on understanding the biophysical and molecular mechanisms underlying neuronal excitability, synaptic transmission, and neural circuit function. The lab investigates ion channel dynamics—particularly T-type calcium channels and their role in thalamocortical oscillations and absence epilepsy—while also developing advanced nanomaterial platforms to guide stem cell differentiation and study intracellular dynamics in real time. Using innovative techniques such as plasmonic nanohole arrays and electroconductive nanopatterned substrates, the lab explores how physical cues influence neural development and function at the cellular and subcellular levels. A key translational focus is on decoupling immunosuppressive and antifungal activities in FK506 analogues for novel antifungal drug development.
Professor Su Hong Park's research lab specializes in the design and synthesis of advanced organic semiconductors for optoelectronic applications, with a primary focus on next-generation organic light-emitting diodes (OLEDs) and polymer solar cells (PSCs). The lab develops novel emitters and electron-transport materials featuring unique molecular architectures—such as organoboron cores, carbazole derivatives, and fluorinated heterocycles—to achieve high efficiency, deep-blue emission, and enhanced stability. A key research direction involves engineering solution-processable materials with improved solubility and phase morphology control, particularly through block copolymers and random terpolymers, enabling high-performance, low-cost devices. The lab also emphasizes the development of fullerene-free, non-halogenated solvent-compatible materials for sustainable and scalable photovoltaic technologies.
Professor Young Hwa Jung's research lab specializes in advanced materials for sustainable energy storage, with a primary focus on sodium-ion batteries and aqueous battery systems. The lab investigates novel cathode materials such as NASICON-type phosphates, layered oxides, iron-based pyrophosphates, and manganese hexacyanomanganates, emphasizing structural stability, high-rate performance, and cost-effectiveness. A key research direction involves understanding and mitigating detrimental phase transitions and Jahn-Teller distortions through advanced characterization techniques like in situ XRD and XANES. The lab also explores two-dimensional transition metal dichalcogenides, particularly superconducting and topological phases in chalcogen-deficient systems, aiming to bridge materials synthesis with quantum electronic phenomena.
Professor Thathan Premkumar's research lab specializes in the design, synthesis, and application of functional nanomaterials with a focus on sustainable and green chemistry approaches. The lab develops innovative, eco-friendly methods for synthesizing nanoparticles—such as gold, silver, and copper oxide—using biocompatible agents, surfactants, or mechanochemical techniques under mild, solvent-free, or aqueous conditions. Key research directions include the controlled synthesis of nanomaterials with tailored size, shape, and surface properties for biomedical applications, particularly in cancer therapy, and the development of biomass-derived polymers like polyurethanes for advanced materials. The lab emphasizes green synthesis, supramolecular templating, and applications in nanomedicine and sustainable materials.
Professor Taejoon Kang's research lab specializes in the development of advanced nanomaterials and plasmonic platforms for highly sensitive biosensing and environmental monitoring. The lab focuses on surface-enhanced Raman scattering (SERS)-based detection systems, integrating nanomaterials such as gold nanowires, nanopopcorn, and metal-organic frameworks (MOFs) for applications in infectious disease diagnostics, antimicrobial resistance detection, and cancer biomarker identification. Key research directions include the design of multiplexed, quantitative, and field-deployable sensors for clinical and food safety applications.
Professor Yunseok Choi's research lab specializes in advanced energy storage systems and thermal management technologies, with a strong focus on lithium-ion batteries, rechargeable seawater batteries, and fire-safe battery designs. The lab develops cutting-edge machine learning and deep learning models—such as D-GELS—for accurate state-of-health (SOH) prediction across diverse battery chemistries and operating conditions. It also investigates thermal enhancement using metal foams for high-power electronics cooling and pioneers innovative fire suppression strategies through Water-in-Battery (WiB) concepts. The lab bridges materials science, electrochemistry, and data-driven modeling to enable safer, smarter, and more sustainable energy solutions.
Professor Ruchir Priyadarshi's research lab specializes in developing sustainable, biodegradable packaging solutions using biopolymers enhanced with natural and nanomaterial-based functional additives. The lab focuses on creating intelligent, pH-responsive, and active food packaging systems that incorporate natural colorants and nanomaterials such as sulfur quantum dots and silver nanoparticles for real-time quality monitoring and extended shelf life of perishable foods. Key research directions include the synthesis and characterization of eco-friendly nanofillers, antimicrobial and antioxidant functionalization of biopolymer films, and the application of these advanced materials in preserving fruits, meat, seafood, and dairy products.
Professor SeungJin Bae's research lab specializes in health technology assessment, regenerative medicine, and biosimilar therapeutics, with a strong focus on health policy, cost-effectiveness, and real-world outcomes in advanced medical treatments. The lab investigates the implementation challenges and policy implications of innovative therapies such as CAR T-cell therapy, biosimilar infliximab, and advanced regenerative medicine under Korea’s ARMAB legislation. Research also extends to clinical epidemiology, including rare conditions like chromonychia and PPU, emphasizing patient-specific factors such as age, comorbidities, and adverse event profiles. The lab bridges clinical science with health economics and regulatory policy to support safe, effective, and sustainable adoption of cutting-edge medical technologies.
Professor Jin Hur's research lab specializes in renewable energy integration, with a primary focus on improving the reliability and stability of power systems through advanced forecasting techniques. The lab develops machine learning and statistical models for short-term and day-ahead forecasting of wind and solar power, addressing the inherent variability and uncertainty of renewable energy sources. Emphasis is placed on ensemble methods, probabilistic modeling, and spatial-temporal data analysis to enhance grid integration and operational efficiency.
Professor Ji-Hyung Park's research lab specializes in watershed biogeochemistry, focusing on the impacts of climate change, land use, and anthropogenic stressors on carbon and nutrient dynamics in river systems. The lab investigates biogeochemical cycles in forested and urbanized watersheds, with particular emphasis on dissolved organic matter, greenhouse gas emissions (CO₂, CH₄, N₂O), and hydroclimatic controls during monsoon and snowmelt periods. Using field measurements, isotopic tracers, and optical properties of dissolved organic matter, the lab advances understanding of how environmental changes alter water quality and ecosystem function in Asian and North American river systems.
Professor Kimitaka Nakazawa's research spans experimental particle physics, neuromuscular physiology, and biomedical engineering. His lab investigates hypernuclear systems using nuclear emulsions to explore fundamental hadronic interactions, while also studying human motor control through electromyographic analysis of reflex responses during locomotion. Additionally, the lab develops innovative extracorporeal liver support systems using bioengineered hepatocyte spheroids for clinical applications in liver failure. These diverse research directions reflect a strong focus on bridging fundamental science with translational medical technologies.
Professor Yukiyasu Kamitani's research lab specializes in decoding the neural basis of human perception, imagery, and emotion using functional magnetic resonance imaging (fMRI) and deep learning. The lab focuses on translating brain activity patterns into meaningful representations of visual objects, mental imagery, and emotional experiences by leveraging hierarchical deep neural network (DNN) models as proxies for brain function. A central theme is the development of advanced machine learning techniques to decode and reconstruct internal mental states from fMRI data, particularly during wakeful states and sleep. The lab also investigates how brain representations align with artificial neural networks, aiming to uncover brain-like processing hierarchies in both biological and artificial systems.
Professor Hitoshi Hashimoto's research lab focuses on the neurobiological functions of pituitary adenylate cyclase-activating polypeptide (PACAP), a highly conserved neuropeptide involved in stress response, behavior, and neuroendocrine regulation. The lab investigates PACAP's roles in the central nervous system using genetically modified mouse models, particularly PACAP-deficient mice, to explore its impact on mood disorders, anxiety, learning, and circadian rhythms. Key research directions include the neurochemical and behavioral consequences of PACAP signaling, especially its interaction with serotonin 5-HT2 receptors and the hypothalamic-pituitary-adrenal (HPA) axis. The lab also examines PACAP receptor distribution and function in brain regions critical for sensory processing, emotion, and homeostasis.
Professor Tiantian Zhang's research lab specializes in topological quantum materials, with a focus on identifying and characterizing exotic quasiparticle states in both fermionic and bosonic systems. The lab combines first-principles calculations, advanced spectroscopic techniques such as ARPES and inelastic x-ray scattering, and symmetry-based theoretical analysis to explore topological nodal points, lines, and surfaces in electronic and phononic bands. A key theme is the discovery of novel topological invariants and their interplay with crystal symmetries, including the emergence of higher-order Weyl and Dirac nodes, as well as symmetry-protected helical nodal lines in phonons. The lab also investigates the functional roles of epigenetic marks in chromatin regulation, revealing that H3K27ac, while a marker of active enhancers, is not sufficient to drive transcriptional activity.
Professor Nobuyuki Uozumi's research lab focuses on plant ion transport mechanisms, particularly the molecular and cellular functions of ion channels and transporters involved in potassium and sodium homeostasis. The lab investigates membrane trafficking, subcellular targeting, and post-translational modifications—such as N-myristoylation and S-acylation—that regulate the localization and activity of signaling proteins in plants. Using a combination of molecular biology, electrophysiology, and heterologous expression systems, the lab elucidates the roles of transporters like AtHKT1 and KAT1 in stress tolerance and nutrient uptake.
Professor Masaharu Shiratani's research lab specializes in plasma science and engineering, with a focus on non-thermal plasma applications in agriculture, nanoparticle growth dynamics in reactive plasmas, and the development of plasma-based nano-fabrication systems. The lab investigates the effects of plasma and plasma-treated water on seed germination and plant growth, while also conducting fundamental studies on the formation, size distribution, and transport of nanoscale particles in silane and helium-diluted silane plasmas. A key innovation from the lab is the concept of a 'nano-factory in plasma,' where plasma is used to synthesize, transport, and assemble nanoblocks into ordered structures on substrates, enabling precise control over nanomaterial synthesis. The lab combines advanced optical diagnostics, such as laser-light scattering and electron microscopy, to understand and manipulate nanoscale processes in real time.
