Research labs at Japan's QS Top 10 universities including Tokyo, Kyoto, and Osaka.
Professor Taro Q.P. Uyeda's research lab focuses on the molecular mechanisms underlying cellular motility, particularly the biomechanics and regulation of myosin motors in cytoskeletal dynamics. The lab investigates how motor proteins such as myosin II, kinesin, and dynein generate force and movement, with a strong emphasis on structural-functional relationships in the myosin head and neck domains. Using Dictyostelium discoideium as a model system, the lab combines live-cell imaging, genetic manipulation, and biochemical analysis to study motility in development, cytokinesis, and chemotaxis. Recent work also explores the role of signaling lipids like PIP3 in regulating cell polarity and motility patterns.
Professor Xuheng Ding's research lab specializes in observational astrophysics and cosmology, with a focus on using strong gravitational lensing and advanced imaging techniques to study the co-evolution of supermassive black holes and their host galaxies. The lab leverages cutting-edge space telescopes such as the Hubble Space Telescope and James Webb Space Telescope to resolve faint host galaxies of high-redshift quasars and AGNs, enabling precise measurements of black hole masses and host properties. A key research direction involves developing robust lens modeling techniques to improve the accuracy of Hubble constant (H₀) measurements using gravitational time delays and standard sirens from gravitational wave sources.
Professor Yosuke Kurashima's research lab focuses on the immunological crosstalk between the pancreas and intestinal mucosa, particularly in the context of inflammatory and allergic diseases. The lab investigates the roles of innate immune cells—especially mast cells and their receptors (e.g., P2X7 and S1P1)—in regulating intestinal inflammation, barrier integrity, and immune homeostasis. A central theme is understanding how tissue-specific factors, such as pancreatic glycoprotein 2 (GP2), contribute to mucosal defense against pathobionts and maintain gut immune tolerance. The lab also explores therapeutic strategies targeting these pathways for conditions like inflammatory bowel disease (IBD) and food allergy.
Professor Kazunari Matsuda's research lab specializes in the fundamental and applied physics of low-dimensional nanomaterials, with a focus on 2D materials, quantum dots, and carbon-based nanostructures. The lab investigates excitonic phenomena, plasmonic effects, and heterostructure engineering in these systems to enable advanced optoelectronic and photovoltaic devices. Key research directions include wave function imaging in quantum dots, heterojunction design for solar cells, and the role of quantum confinement and electron-phonon interactions in nanoscale semiconductors. The lab combines advanced spectroscopic techniques with nanofabrication to explore and tailor the optical and electronic properties of nanomaterials for next-generation quantum and energy devices.
Professor Naoshi Sugimoto's research lab specializes in regenerative medicine and immunology, with a focus on induced pluripotent stem cell (iPSC)-derived blood cells, particularly platelets. The lab develops clinically applicable methods for ex vivo production of universal platelet products by genetic engineering to overcome immune incompatibility, including HLA-I deficiency and human platelet antigen mismatches. They also investigate innate immune sensing mechanisms, such as cytosolic nucleic acid recognition, and explore the immunomodulatory functions of regulatory T cells (Tregs) through Foxp3-regulated molecular networks. Their work bridges stem cell biology, immunology, and translational medicine to address challenges in transfusion medicine and autoimmune disorders.
Professor Jaime Gómez Rivas's research lab specializes in nanophotonics and plasmonics, focusing on the manipulation of light at subwavelength scales using structured materials. The lab explores surface plasmon polaritons in semiconductors and metasurfaces, particularly in the terahertz frequency range, to enable active control of light propagation. Key research directions include extraordinary optical transmission, bound states in the continuum (BICs), and the integration of tunable plasmonic devices for applications in sensing, lasing, and energy-efficient lighting.
Professor Takahisa Furukawa's research lab focuses on the molecular and genetic mechanisms underlying retinal development and cell fate determination in the vertebrate central nervous system. The lab investigates key transcription factors such as Rax, Otx2, Crx, and Blimp1, as well as ion channels and synaptic organizers like TRPM1 and dystroglycan, to understand how retinal neurons—particularly photoreceptors and bipolar cells—develop and function. Using mouse genetics, including conditional knockout and knockin models, the lab elucidates the roles of these molecules in retinal circuit formation, photoreceptor specification, and synaptic connectivity.
Professor Ambara R. Pradipta's research lab specializes in the development of innovative chemical and analytical tools for biomedical applications, with a focus on oxidative stress biomarkers, cancer diagnostics, and targeted prodrug therapies. The lab pioneers click chemistry-based probes—particularly for acrolein detection—to enable sensitive, real-time visualization of pathological conditions in live cells and tissues. Key research directions include the design of selective, cost-effective sensing platforms for disease diagnosis and the development of stereocontrolled organic transformations for bioactive molecule synthesis. The integration of physical organic chemistry with translational medicine defines the lab’s interdisciplinary approach.
Professor Daiki Miyahara's research lab specializes in the design and analysis of physical zero-knowledge proof (ZKP) protocols using playing cards and tangible objects, focusing on secure, human-verifiable cryptographic protocols for logic puzzles and real-world privacy-preserving applications. The lab explores the theoretical foundations of zero-knowledge proofs in the context of popular Nikoli-style puzzles—such as Sudoku, Kakuro, Slitherlink, Masyu, Suguru, Nurikabe, Hitori, and Heyawake—while ensuring information-theoretic security and minimal computational assumptions. A key direction is the development of card-based protocols that are both practical for human execution and provably secure, with applications extending to secure multi-party computation, such as privacy-preserving ranking systems. The lab emphasizes simplicity, correctness, and usability, bridging theoretical cryptography with tangible, accessible implementations.
Professor Ziyi Zhang's research lab specializes in the design, epitaxial growth, and device engineering of wide-bandgap semiconductor materials, with a primary focus on AlGaN-based deep-ultraviolet (UV-C) laser diodes. The lab pioneers innovative approaches such as polarization-induced doping and undoped p-type cladding layers to achieve efficient hole injection and low operating voltages, enabling continuous-wave lasing at room temperature. Key research directions include optical modeling, modal loss reduction, and structural optimization of laser diodes grown on single-crystal aluminum nitride substrates. The lab also explores advanced characterization techniques and computational modeling to enhance device performance and understand fundamental carrier and optical behaviors in UV optoelectronic devices.
Professor Keita Kohno's research lab focuses on the cellular and molecular mechanisms underlying neuropathic pain, with a central emphasis on the role of spinal microglia in pain modulation and resolution. The lab investigates how specific microglial subsets, particularly CD11c+ microglia, contribute to endogenous pain recovery and how signaling pathways such as IGF-1 and IL-4 regulate these processes. Using rodent models of nerve injury, including spinal nerve transection and spared nerve injury, the lab aims to uncover novel therapeutic targets for chronic pain that are resistant to current treatments. Their work bridges neuroimmunology and neuroscience to identify endogenous mechanisms that promote pain resolution rather than just symptom suppression.
Professor Ding Sheng's research lab specializes in materials processing and mechanical behavior, with a strong focus on metal forming processes such as cold rolling and texture evolution. The lab also conducts advanced numerical simulations using finite element methods and multi-scale analysis to predict material anisotropy and thermo-mechanical responses under extreme conditions, such as high-energy laser irradiation. Additionally, the lab applies quantitative methods like principal component analysis and multi-criteria evaluation to assess regional socio-economic development and resource sustainability, particularly in provincial and urban agglomeration contexts.
Professor Kei Murakami's research lab specializes in the development of innovative transition-metal-catalyzed and photocatalyzed transformations for the efficient synthesis of complex aromatic and heteroaromatic compounds. The lab focuses on regioselective C–H functionalization, annulative coupling processes, and divergent synthesis strategies to access structurally diverse and biologically relevant molecules. Key research directions include the design of novel catalytic systems—particularly Pd/NHC and photocatalytic systems—for C–H activation, cross-coupling, and Pummerer-type annulations, enabling the synthesis of pharmaceuticals, natural products, and functional materials.
Professor Seiji Yamashita's research lab specializes in advanced ceramic materials and thermal energy storage systems, with a focus on developing high-performance composites and macrocapsules for extreme-temperature applications. The lab investigates self-lubricating ceramic composites, such as B₄C-SiC, to enhance wear resistance and friction performance under unlubricated conditions, while also pioneering innovative thermal storage materials like NaCl-Al₂O₃@SiC@Al₂O₃ macrocapsules for industrial waste heat recovery and concentrated solar power. Additionally, the lab explores smart navigation systems using visual sensing, demonstrating interdisciplinary innovation in materials science and applied technology. Their work consistently targets material stability, thermal efficiency, and practical scalability in energy and mechanical systems.
Professor Michiyo Hirano's research lab focuses on promoting the health and well-being of older adults, particularly older women, through social engagement, meaningful participation in community activities, and technology-based interventions. The lab investigates concepts such as ikigai (life purpose), social connectedness, and care prevention group activities, emphasizing their roles in enhancing physical, psychological, and social health in aging populations. Research directions include developing and validating measurement scales for social activity, assessing the impact of digital tools (e.g., smartphone apps) on social connectedness, and exploring the factors that sustain long-term participation in health-promoting programs. The lab’s work bridges gerontology, public health nursing, and health promotion with a strong emphasis on community-based, person-centered interventions.
Professor Ahmed A. Serageldin's research lab specializes in sustainable energy systems, with a strong focus on enhancing the efficiency and performance of ground source heat pump systems, advanced heat exchanger designs, and innovative thermal comfort solutions. The lab conducts cutting-edge research in computational fluid dynamics (CFD) simulations, experimental validation of geothermal heat exchangers, and integrated building energy systems for zero-energy buildings. Key research directions include optimizing borehole heat exchangers with novel geometries (e.g., oval U-tubes), developing automatic fouling cleaning systems for heat pumps, and advancing radiant cooling and ventilation systems for improved indoor environmental quality. The lab also emphasizes the integration of renewable energy sources and thermal energy storage in large-scale building applications.
Professor Plamen Akaliyski's research lab specializes in the cultural dimensions of political and economic integration, particularly within the European Union. The lab investigates how institutional frameworks, such as the EU, influence cultural value convergence and divergence across nations, with a focus on emancipative values, individual autonomy, gender equality, and liberal democracy. Using large-scale survey data from the European Values Study and World Values Survey, the lab explores the interplay between socioeconomic development, institutional isomorphism, and national cultural trajectories, especially in post-communist and Eastern European societies. The lab also critically examines the role of collective cultural identities in shaping political legitimacy and societal cohesion in times of crisis.
Professor Tatsuya Okubo's research lab specializes in the design and synthesis of advanced porous materials, with a focus on zeolites and related semiconductors. The lab pioneers ultrafast and sustainable synthesis methods for high-silica zeolites—such as SSZ-13 and Beta—using seed-assisted crystallization and OSDA-free approaches to enable industrial scalability and environmental benefits. A key direction involves engineering hierarchical porosity in MFI-type zeolites through controlled intergrowth, while also developing functional materials like Ta₃N₅ nanoparticles and ordered g-C₃N₄ for photocatalytic and energy conversion applications. The lab emphasizes both fundamental understanding of crystallization mechanisms and practical innovation for catalysis and renewable energy technologies.
Professor Keiichi Hirano's research lab specializes in the development of novel organocatalytic and transition-metal-catalyzed methodologies for the construction of complex organic molecules with high efficiency and selectivity. The lab focuses on N-heterocyclic carbene (NHC) catalysis, particularly in enabling unique C–C and C–heteroatom bond formations, including hydroacylations, umpolung reactions, and tandem processes. A key direction involves the design of robust, modular catalysts and reagents—such as NHCs and perfluoroalkylzinc species—for applications in synthesizing pharmaceutically relevant scaffolds and fluorinated compounds. The lab also emphasizes practical, scalable, and functional group-tolerant transformations suitable for complex molecule synthesis.
Professor Yoshihiro Okamura's research lab specializes in quantum materials and topological electronics, focusing on the interplay between magnetism, topology, and electronic responses in quantum materials. The lab investigates emergent phenomena such as topological magnonics, chiral spin textures (e.g., skyrmions and soliton lattices), and topologically protected responses like the anomalous Hall effect and shift current photocurrents. Using advanced spectroscopic and scattering techniques—including broadband microwave spectroscopy, resonant soft x-ray scattering, and magneto-optical measurements—the lab explores electric- and field-induced control of magnetic order and topological states in materials like magnetic Weyl semimetals and multiferroic chiral magnets.
