Explore research labs at leading universities worldwide — research fields and key papers at a glance.
Professor Fumihiko Tanaka's research lab specializes in food engineering and thermal processing, focusing on the dielectric properties of agricultural and marine products, particularly under varying temperature and frequency conditions. The lab investigates the effects of thermal treatments—such as pre-heating and high-temperature blanching—on enzyme inactivation and physicochemical changes in foods like shrimp and sweet potatoes. Key research directions include optimizing processing parameters to enhance food quality, safety, and shelf life through precise control of temperature and energy input. The lab also explores penetration depth and energy efficiency in microwave and radiofrequency heating applications.
Professor Masaki Kobayashi's research lab focuses on molecular mechanisms underlying nutrient transport and metabolic regulation in prokaryotes, particularly cyanobacteria, with a strong emphasis on nitrogen assimilation and its posttranslational control. The lab investigates ATP-binding cassette (ABC) transporters, especially those involved in nitrate and nitrite uptake, and explores how these systems are regulated by environmental signals such as ammonium. Additionally, the lab examines drug transporters, including organic anion transporters like OAT3, to understand drug-drug interactions in clinical settings, particularly in cancer chemotherapy. Their work bridges microbial physiology with translational pharmacology, contributing to both fundamental biology and clinical applications.
Professor Kota Kodama's research lab focuses on the intersection of health, technology, and workplace safety, with a strong emphasis on digital health solutions and occupational well-being. The lab investigates mobile health (mHealth) adoption among youth, the societal and regulatory aspects of emerging biotechnologies like genetically edited food, and the psychological and physiological factors affecting construction workers' health and productivity. Using mixed-methods approaches including surveys, wearable sensor data, and bibliometric analysis, the lab aims to develop science-based, practical solutions for improving health outcomes in high-risk work environments and advancing technology acceptance in society.
Professor Yong Jeong's research lab specializes in neuroimaging and brain network analysis, focusing on the functional and metabolic alterations in neurodegenerative diseases such as frontotemporal dementia (FTD), Alzheimer’s disease, and subcortical vascular dementia (SVaD). The lab employs advanced neuroimaging techniques—including (18)F-FDG PET and resting-state fMRI—to investigate disease-specific patterns of hypometabolism, default mode network (DMN) disruption, and individualized brain connectivity. A key methodological innovation in the lab is the development of subject-specific region-of-interest (ROI) approaches to improve the accuracy of functional connectivity analysis. The lab also contributes to preclinical modeling by creating translational mouse models of SVaD to study the pathophysiology of chronic cerebral hypoperfusion and white matter damage.
Professor Dongwoo Chae's research lab specializes in applying advanced computational and statistical methodologies—particularly machine learning, mathematical modeling, and item response theory—to clinical challenges in anesthesiology, critical care, and chronic disease management. The lab focuses on developing predictive models for perioperative complications, optimizing treatment strategies in complex conditions like liver transplantation and Parkinson’s disease, and advancing personalized medicine through data-driven approaches. Key research directions include hemorrhage prediction in surgery, phage therapy dynamics, and longitudinal modeling of neurological and pharmacological outcomes.
Professor Kyungae Jo's research lab specializes in the pharmacological and biological evaluation of natural products, with a focus on their applications in skin health, sleep regulation, and gut microbiome modulation. The lab investigates bioactive compounds from botanicals such as *Vaccinium uliginosum*, lotus leaf, jujube, and deer antler to understand their mechanisms in photoprotection, sleep promotion, and prebiotic effects. Using in vitro and in vivo models—including mice, rats, and *Drosophila*—the lab integrates biochemical, histological, and molecular analyses to validate the therapeutic potential of natural extracts.
Professor Wooram Park's research lab specializes in the development of advanced nanomaterials and smart delivery systems for biomedical applications, with a strong focus on cancer therapy and diagnostic technologies. The lab integrates principles from nanotechnology, materials science, and biomedical engineering to design stimuli-responsive nanoparticles, nanozymes, and smart photosensitizers that enhance therapeutic precision and reduce side effects. Key research directions include nanomedicine for immunotherapy and photodynamic therapy, nonholonomic motion planning for medical needle guidance, and stochastic modeling of nanoscale systems using Fokker-Planck equations on Lie groups. The lab aims to bridge fundamental science with clinical translation to address critical challenges in cancer treatment and minimally invasive interventions.
Professor Seung Tae Kim's research lab specializes in translational oncology, focusing on identifying molecular biomarkers and immune microenvironment characteristics that predict therapeutic response and prognosis in gastrointestinal and neuroendocrine cancers. The lab investigates genomic alterations such as KRAS, c-MET, and PD-L1 expression, as well as circulating tumor DNA, to guide precision medicine approaches. A central theme is understanding the tumor immune microenvironment, including regulatory T-cell infiltration and immune checkpoint expression, to improve outcomes in patients with advanced or metastatic cancers.
Professor Kyung-Young Jhang's research lab specializes in ultrasonic nondestructive evaluation and characterization of materials, with a strong focus on nonlinear ultrasonics for assessing material degradation and microstructural changes. The lab investigates the application of advanced ultrasonic techniques—such as bispectral analysis, laser-ultrasonics, and surface wave measurements—to evaluate plastic deformation, porosity, grain structure, and aging effects in metals, including steels, additively manufactured components, and reactor materials. Their work bridges fundamental ultrasonic physics with practical industrial applications, particularly in nuclear energy, semiconductors, and advanced manufacturing.
Professor Vivek Kumar Gaur's research lab specializes in sustainable biotechnology, focusing on the development of eco-friendly solutions for environmental pollution using microbial and plant-based systems. The lab explores biosurfactant production from agricultural waste, such as corncob and pineapple waste, to create cost-effective and stable bioproducts for industrial and environmental applications. A key focus is on harnessing omics technologies—metabolomics and genomics—to identify and optimize high-yielding biosurfactant-producing microbes. The lab also investigates the bioremediation of heavy metal-contaminated environments through microbial and phytoremediation strategies.
Professor Max Hirschberger's research lab specializes in quantum magnetism and topological quantum phenomena in frustrated and correlated electron systems. The group investigates emergent spin textures such as skyrmions and spin liquids in non-centrosymmetric and centrosymmetric materials, with a focus on understanding the interplay between electronic structure, magnetic order, and topological responses. Key experimental techniques include thermal and electrical transport measurements, specific heat, and neutron scattering to probe exotic quantum phases and their response to external fields and doping.
Professor Haruhiko Miyata's research lab focuses on the molecular mechanisms underlying male fertility, with a central emphasis on the role of calcium-regulated signaling pathways and cytoskeletal dynamics in spermatogenesis and sperm function. The lab investigates key proteins such as sperm-specific calcineurin and kinesin family members, exploring their roles in sperm motility, structural integrity, and the acrosome reaction. Using advanced genetic engineering techniques like CRISPR/Cas9 and gene-targeted mouse models, the lab identifies and characterizes novel regulators of male reproductive health, aiming to uncover targets for reversible male contraception and treatments for infertility.
Professor Hiroshi Kondoh's research lab focuses on the intersection of metabolism, cellular aging, and stem cell biology, with a central theme linking glycolytic metabolism to cellular lifespan and proliferative potential. The lab investigates how metabolic reprogramming—particularly enhanced glycolytic flux and reduced oxidative stress—contributes to the immortality of embryonic stem cells and the suppression of senescence in primary cells. Using metabolomics and functional genomics, the lab uncovers novel metabolic regulators and pathways that influence aging, stress resistance, and longevity, with implications for regenerative medicine and age-related diseases. Their work also explores conserved metabolic signatures across species, from yeast to humans, to identify evolutionarily shared mechanisms of metabolic health and longevity.
Professor Shunichi Takeda's research lab focuses on the molecular mechanisms underlying DNA repair, particularly base excision repair (BER) in mammalian cells. The lab investigates the roles of key proteins such as XRCC1 and PARP1 in maintaining genomic stability and preventing pathological DNA damage accumulation. A central theme is understanding how protein interactions and post-translational modifications regulate repair fidelity and how their dysfunction leads to disease. The lab also explores the therapeutic implications of PARP inhibition in cancer and genetic disorders.
Professor Nobuyuki Matubayasi's research lab specializes in theoretical and computational physical chemistry, focusing on the thermodynamics and molecular structure of solutions, particularly water and hydrophobic solvation. The lab investigates hydrogen bonding networks in water under extreme conditions, such as supercritical states, using nuclear magnetic resonance (NMR) and statistical mechanics. A central theme is the development of advanced integral equation theories and energy-based representations to describe solvation free energies and solvent distributions around solutes, including flexible and hydrophobic molecules. The lab also pioneers methods to connect molecular-level interactions with macroscopic thermodynamic properties through functional expansions and computer simulations.
Professor Wan-Ting Chiu's research lab specializes in the design, synthesis, and application of advanced electroactive nanomaterials for energy conversion and biomedical sensing. The lab focuses on developing conductive, flexible, and biocompatible materials—such as metal-silk composites and transition metal-based electrocatalysts—for wearable medical devices and clean energy technologies. Key research directions include non-enzymatic glucose sensing, electrocatalysis for fuel cells, and functional materials for thermoelectric and actuator applications. The lab emphasizes innovative fabrication techniques, such as supercritical CO₂-assisted plating and spark plasma sintering, to enhance material performance and stability.
Professor Md. Rajib Arefin's research lab specializes in the interdisciplinary study of social and evolutionary dynamics, particularly focusing on cooperation, vaccination behavior, and decision-making in complex systems. The lab employs mathematical modeling and evolutionary game theory to explore how individual strategies—such as imitation, aspiration, or vaccination—interact with collective outcomes in scenarios ranging from disease control to environmental and public health dilemmas. A central theme is understanding the tension between self-interest and long-term societal welfare in both biological and socioeconomic contexts.
Professor Yuhyung Shin's research lab specializes in organizational behavior and industrial-organizational psychology, focusing on the psychological and motivational mechanisms that influence employee performance, engagement, and well-being in dynamic work environments. The lab investigates key constructs such as job crafting, work engagement, virtual work, regulatory fit, job insecurity, and team-level affect and culture, with an emphasis on how individual and group-level processes shape organizational outcomes. Drawing on theoretical frameworks like self-determination theory and the person-environment fit model, the lab explores how individual differences and contextual factors interact to influence motivation, creativity, and citizenship behaviors in diverse organizational settings, particularly in South Korea and increasingly in global contexts. The research often employs multi-level, longitudinal, and cross-sectional survey designs to test complex mediating and moderating relationships in real-world work environments.
Professor Chang Young Lee's research lab specializes in the development of advanced nanomaterial-based sensors and electronic systems, focusing on carbon nanotubes, graphene, and liquid-metal composites for applications in ultra-sensitive chemical and biological detection. The lab explores fundamental signal transduction mechanisms in nanoscale systems, including stochastic resonance, charge transfer, and adsorption dynamics, to enable high-resolution, reversible, and scalable sensing. A key focus is on creating stretchable and 3D-integrated electronic interconnections for soft and wearable devices, merging materials science with microfabrication and molecular sensing. The lab also investigates the integration of nanomaterials with microfluidic and micro-GC platforms to achieve single-molecule-level detection with minimal footprint and high speed.
Professor Jinseok Lee's research lab specializes in biomedical signal processing and machine learning for healthcare applications, focusing on the development of low-cost, non-invasive, and real-time diagnostic systems. The lab explores innovative uses of consumer-grade devices—such as smartphones and wearable sensors—for detecting cardiac arrhythmias, respiratory diseases, and sleep disorders. Key research directions include ECG and photoplethysmography (PPG) signal analysis, artifact detection, and deep learning-based disease classification using medical imaging and physiological signals.
