Explore research labs at leading universities worldwide — research fields and key papers at a glance.
Professor Jee-Heon Jeong's research lab specializes in regenerative medicine and cellular therapy, with a primary focus on enhancing the therapeutic efficacy of mesenchymal stromal cells (MSCs). The lab investigates the molecular mechanisms underlying the improved survival and anti-inflammatory properties of 3D-cultured MSCs, particularly through the regulation of autophagy and reactive oxygen species (ROS) homeostasis. By exploring the role of the tumor microenvironment and cellular stress responses, the lab aims to develop advanced cell-based therapies for inflammatory and degenerative diseases. Their work bridges stem cell biology, cellular metabolism, and translational medicine to improve clinical outcomes in regenerative therapy.
Professor Mina Rho's research lab specializes in computational biology and bioinformatics, focusing on advancing methods for analyzing complex microbial communities through metagenomic and metatranscriptomic data. The lab develops innovative computational tools to identify genes, CRISPR systems, viral sequences, and antibiotic resistance elements in environmental and host-associated microbiomes. Key research directions include de novo gene prediction, viral discovery using deep learning, and understanding the functional dynamics and resistome diversity in microbial ecosystems.
Professor Ju-Young Kim's research lab specializes in the design, synthesis, and mechanical characterization of advanced functional materials, with a focus on enhancing the ductility and strength of metallic glasses and semiconductors through nanostructuring and hybrid architectures. The lab explores size-dependent mechanical behaviors in nanoscale materials, particularly the 'smaller is stronger' phenomenon in nanopillars, and develops stretchable, flexible, and robust electronic systems using novel substrates and interconnects. Key research directions include the integration of metallic glasses with ductile metals or polymers to achieve high strength and large plasticity, as well as the mechanical reliability of perovskite and chalcogenide thin films for next-generation flexible and wearable electronics.
Professor Shun Watanabe's research lab specializes in organic semiconductors and advanced optoelectronic materials, focusing on molecular doping strategies to achieve high carrier concentrations and enhanced charge transport. The lab explores innovative thin-film fabrication techniques such as Langmuir-Blodgett and Langmuir-Schaefer methods to manipulate nanoscale molecular assemblies with precision. A key research direction involves understanding the fundamental correlation between charge transport and thermoelectric properties in semicrystalline π-conjugated polymers, particularly under molecular doping. The lab also investigates ultrafast laser systems, including high-power XeCl and KrF lasers, with applications in multiphoton processes and pulse compression dynamics.
Professor Shin-ichi Arimura's research lab focuses on mitochondrial dynamics and genome regulation in plants, with a particular emphasis on the molecular mechanisms underlying mitochondrial fission, fusion, and genome maintenance. The lab investigates dynamin-related proteins and their roles in organelle division, especially in higher plants like Arabidopsis thaliana, and explores the evolutionary divergence of mitochondrial dynamics machinery compared to animals and fungi. A key innovation in the lab is the development and application of mitochondria-targeted TALENs (mitoTALENs) for precise, heritable genome editing in plant mitochondria, enabling functional dissection of mitochondrial genes. The lab also examines the dynamic nature of plant mitochondrial genomes and their adaptation to cellular demands.
Professor Tiao Wang's research lab focuses on interdisciplinary studies at the intersection of biomedical engineering, microfluidics, and materials science. Key research directions include the development of microfluidic systems for precise microparticle manipulation in viscoelastic fluids, with applications in diagnostics and biomedicine, and the mechanical behavior of reinforced concrete structures, particularly the influence of flexural deformation on shear crack propagation. The lab also explores the antiviral properties of traditional Chinese medicine formulations, such as Gangting, using in vitro cell culture models. These diverse research areas reflect a strong emphasis on both fundamental mechanisms and practical applications in health and civil engineering.
Professor Kazufumi Takahashi's research lab specializes in theoretical high-energy physics and gravitational physics, focusing on higher-derivative scalar-tensor theories, particularly degenerate higher-order scalar-tensor (DHOST) theories and their extensions. The lab investigates the mathematical structure and physical consistency of these theories, including ghost-free conditions, invertible field transformations, and disformal generalizations, with applications to black hole solutions, cosmological perturbations, and gravitational wave propagation. A central theme is the stability and physical viability of black holes with scalar hair, especially in shift- and reflection-symmetric theories, and the treatment of 'shadowy' or non-propagating modes in unitary gauge formulations.
Professor Noriyuki Kadoya's research lab specializes in medical physics and radiation oncology, focusing on advancing image-guided radiotherapy through innovative computational and imaging techniques. The lab develops and evaluates deep learning models for patient-specific treatment planning quality assurance, particularly in prostate and thoracic cancer treatments. A key research direction involves improving the accuracy and reliability of deformable image registration (DIR) for 4D CT and cone-beam CT, using both clinical data and custom 3D-printed phantoms to quantify spatial errors and optimize registration parameters. The lab also explores hybrid DIR methods that combine intensity-based and anatomical information to enhance soft-tissue registration in the pelvic region.
Professor Hidetaka Akita's research lab specializes in the development of advanced lipid-based nanocarriers for targeted gene delivery, with a focus on stimuli-responsive nanoparticles that exploit the unique intracellular environments of target cells. The lab designs smart lipid-like materials—such as ssPalm—that respond to both acidic pH (endosomes/lysosomes) and high reducing potential (cytosol) to enhance endosomal escape and nuclear delivery of plasmid DNA. Their work spans from fundamental material design to preclinical applications, particularly in challenging cancers like renal cell carcinoma, where conventional therapies often fail. The lab integrates innovative imaging and quantification techniques, such as CIDIQ, to precisely evaluate nuclear delivery efficiency and transgene expression.
Professor Jae Yong Han's research lab specializes in avian developmental biology and reproductive biotechnology, with a focus on primordial germ cells (PGCs) and their applications in transgenic animal production. The lab investigates germ cell specification, epigenetic regulation—particularly DNA methylation in PGCs—and the development of molecular markers for PGC identification. Utilizing CRISPR/Cas9 genome editing in PGCs, the lab pioneers the generation of genetically modified chicken models for biomedical and agricultural research.
Professor Gyu-Chul Yi's research lab specializes in the epitaxial growth, nanostructure engineering, and optoelectronic device integration of III-nitride semiconductors, particularly GaN and ZnO. The lab focuses on developing advanced nanostructured materials—such as nanorods, nanowires, and microdisks—through techniques like metal-organic vapor-phase epitaxy (MOVPE) and epitaxial lateral overgrowth (ELOG) to enable high-performance devices. Key research directions include flexible and micro-scale light-emitting diodes (LEDs), piezoresistive sensors based on silicon nanorods, and defect engineering in doped GaN for enhanced electronic and photonic applications. The lab emphasizes scalable, device-compatible fabrication methods for next-generation optoelectronics and nanosensors.
Professor Eun Jin Lee's research lab specializes in plant biochemistry and postharvest physiology, focusing on the bioactive compounds in fruits and vegetables, including betalains, phenolics, and phytohormones. The lab investigates the metabolic changes during fruit ripening, the impact of postharvest treatments like 1-MCP and ethylene on quality and shelf life, and the anticancer properties of plant extracts. A key emphasis is on developing analytical methods for efficient quantification of bioactive compounds such as protodioscin and rutin in asparagus and other crops.
Professor Myung Joon Han's research lab specializes in theoretical and computational materials science, focusing on strongly correlated electron systems in complex oxides. The lab employs advanced first-principles methods such as density functional theory (DFT), dynamical mean-field theory (DMFT), and LDA+U to investigate electronic structure, magnetism, and electron correlation effects in transition metal oxides, including iron-based superconductors, multiferroics, and oxide heterostructures. A central theme is understanding how electronic properties—such as orbital occupancy, magnetic interactions, and electronic phase transitions—can be controlled through doping, strain, interface engineering, and atomic site disorder. The lab also explores the interplay between electron correlation, charge transfer, and orbital polarization in complex oxide superlattices and heterostructures.
Professor Jin Taek Chung's research lab specializes in turbomachinery aerodynamics, with a primary focus on secondary flow control and film cooling enhancement in gas turbines. The lab investigates vortex dynamics—particularly horseshoe and passage vortices—within turbine passages and develops innovative flow management techniques such as boundary layer fences to mitigate flow losses and improve cooling effectiveness. Their work is highly relevant to advanced turbine design, emphasizing performance optimization under realistic engine conditions, including high freestream turbulence. The lab combines experimental flow visualization, wind tunnel testing, and computational analysis to advance fundamental understanding and practical applications in gas turbine technology.
Professor Doo-Sik Kong's research lab specializes in neurosurgical oncology and spinal surgery, with a focus on improving diagnostic accuracy and treatment outcomes for brain tumors and spinal disorders. The lab investigates advanced imaging techniques such as perfusion MRI for predicting pseudoprogression in glioblastoma, evaluates radiosurgical and fractionated radiotherapy for pituitary adenomas, and explores minimally invasive surgical approaches like endoscopic endonasal surgery for skull base tumors. The lab also examines innovative spinal implants and immunotherapies to enhance functional recovery and disease control in neurological patients.
Professor Jong-Hoon Kim's research lab specializes in identifying and characterizing the molecular mechanisms of natural compounds with anti-inflammatory, antioxidant, and cytoprotective properties. The lab focuses on elucidating the signaling pathways—such as NF-κB, MAPK, PI3K/Akt, and Nrf2—involved in the protective effects of phytochemicals like kaempferol, quercetin derivatives, rhein, trigonelline, and IGF-1 in models of inflammation, oxidative stress, and tissue injury. Key research directions include gastroprotection, skin protection, and chondroprotection, with an emphasis on targeting key inflammatory mediators and endogenous antioxidant systems. The lab integrates biochemical, molecular biological, and in vivo disease models to translate natural compound activities into potential therapeutic applications.
Professor Chandan Biswas's research lab specializes in nanomaterials and 2D materials, with a focus on carbon-based nanomaterials such as graphene and carbon nanotubes. The lab investigates their electronic, optoelectronic, and spintronic properties, emphasizing device applications like high-performance field-effect transistors, p-n junction diodes, and spin valves. Key research directions include carrier transport engineering, defect and substrate effects, and hybrid doping strategies for transparent conductive films.
Professor Young-Beom Kim's research lab specializes in advanced materials for energy conversion and storage, with a strong focus on solid-state energy devices. The lab develops novel thin-film deposition and sintering techniques—such as atomic layer deposition (ALD), flash-light sintering, and intense pulsed light processing—to engineer high-performance, nanostructured functional oxides. Key research directions include optimizing catalytic and protective layers for solid oxide fuel cells, all-solid-state batteries, and water electrolyzers, with an emphasis on enhancing interfacial stability, ionic conductivity, and electrochemical activity at low temperatures and minimal noble metal usage. The lab also investigates perovskite-based materials, particularly for bifunctional electrocatalysis and interface engineering in next-generation energy systems.
Professor Yoonjae Nam's research lab specializes in tourism behavior, digital media, and cultural tourism, with a strong focus on the impact of digital technologies—such as social networking sites, virtual reality, and user-generated content—on tourist motivations, satisfaction, and destination perceptions. The lab investigates how digital platforms and emerging technologies shape tourist movement patterns, cultural engagement, and sustainable tourism practices. It also explores the role of popular culture, such as K-pop, in influencing national image and international tourism intentions.
Professor Mikio Ishiwatari's research lab specializes in integrated disaster risk reduction and climate change adaptation, with a strong focus on strengthening governance, coordination, and community-based resilience. The lab explores innovative solutions such as drone technology in emergency response and promotes science-based, collaborative approaches to manage dual hazards like floods and pandemics. Research emphasizes sustainable investment in flood protection and the integration of local knowledge with scientific data to enhance human security.
