Research labs at Japan's QS Top 10 universities including Tokyo, Kyoto, and Osaka.
Professor Hiroshi Takayanagi's research lab specializes in osteoimmunology, focusing on the intricate crosstalk between the immune and skeletal systems. The lab investigates molecular mechanisms underlying osteoclast differentiation and bone destruction, particularly the role of RANKL/RANK signaling and its regulation by interferons and other immune mediators. Key research directions include identifying novel therapeutic targets for autoimmune arthritis, osteoporosis, and other bone-related diseases through detailed dissection of signaling pathways such as NFATc1 autoamplification and TRAF6 activation. The lab also explores how immune cells, especially T cells, contribute to bone homeostasis and pathological bone loss.
Professor Shingo Fukuma's research lab focuses on aging, cardiovascular health, and health systems resilience, particularly in the context of disaster response and chronic disease management. The lab investigates lifestyle interventions for obesity and cardiovascular risk factors, screening tools for acute aortic syndromes, and the impact of dialysis-related factors on patient outcomes. A key emphasis is on improving quality of life and survival in hemodialysis patients through psychosocial and functional health strategies, as well as identifying modifiable risk factors—such as visual impairment—for falls in older adults.
Professor Susumu Miyamoto's research lab specializes in cerebrovascular diseases, with a primary focus on moyamoya disease, intracranial hemorrhage, and cerebrovascular interventions. The lab investigates cerebrovascular hemodynamics, revascularization techniques such as extracranial-intracranial bypass, and the long-term outcomes of surgical and medical management in stroke patients. Their work is deeply rooted in clinical trials and evidence-based guidelines, including the Japan Adult Moyamoya Trial, which evaluates the efficacy of revascularization in preventing recurrent bleeding.
Professor Daron M. Standley's research lab specializes in computational structural biology and bioinformatics, focusing on the atomic-level modeling of immune receptors such as B cell and T cell receptors. The lab develops advanced computational tools for protein structure prediction, functional site identification, and evolutionary analysis of viral glycoproteins like the SARS-CoV-2 spike protein. By integrating structural data with evolutionary and functional insights, the lab aims to uncover mechanisms of immune recognition and viral immune evasion. Their work supports vaccine design, therapeutic development, and the understanding of protein evolution in host-pathogen interactions.
Professor Kenji Ishikawa's research lab specializes in the synthesis, characterization, and fundamental understanding of functional oxide nanomaterials, particularly perovskite-type ferroelectrics such as PbTiO₃ and BaTiO₃. The lab investigates size-dependent phenomena, including ferroelectric phase transitions and surface lattice relaxation, using advanced techniques like Raman spectroscopy and X-ray diffraction. Their work also extends into plasma-based nanofabrication technologies and the biological implications of cellular proteins in cancer, reflecting a multidisciplinary approach bridging materials science, nanotechnology, and biomedicine.
Professor Kenta Iyoki's research lab specializes in the design, synthesis, and stabilization of porous aluminosilicate and related zeolitic materials, with a strong focus on defect engineering, seed-directed crystallization, and organic structure-directing agent (OSDA)-free synthesis. The lab explores advanced strategies such as defect healing, postsynthetic composition tuning via the pore-opening migration process (POMP), and the use of metastable seed crystals to enable sustainable and scalable production of high-performance zeolites. Their work bridges fundamental understanding of nucleation and crystallization mechanisms with practical applications in catalysis and adsorption.
Professor Teppei Araki's research lab specializes in advanced materials and devices for flexible, wearable, and bio-integrated electronics. The lab focuses on developing transparent and stretchable conductive materials—such as silver nanowires and conductive elastomers—enabling next-generation wearable sensors and implantable bioelectronics. Key research directions include non-contact patterning techniques like laser-induced transfer, photonic sintering of metal inks, and the fabrication of ultrathin, fully transparent organic electrochemical transistors for multimodal biosensing. The lab emphasizes practical applications in health monitoring, brain-computer interfaces, and in-home diagnostics.
Professor Daisuke Aoki's research lab specializes in the design and synthesis of advanced functional polymers with dynamic and mechanically interlocked architectures. The lab focuses on developing novel synthetic strategies for cyclic, star, and topologically complex polymers using stimuli-responsive and dynamic covalent chemistry. Key research directions include the controlled synthesis of macromolecular rotaxanes and catenanes, topology transformation of polymers, and the application of mechanical bonds to enhance the mechanical properties of elastomers and polymers. The lab also explores the use of supramolecular interactions and dynamic linkers—such as disulfide-based systems and ammonium/crown ether interactions—for creating smart, responsive, and tough polymeric materials.
Professor Tiago Koketsu Rodrigues' research lab focuses on optimizing Mobile and Edge Computing systems for future 5G/6G networks, with an emphasis on reducing latency and enhancing Quality of Service through intelligent task offloading and resource management. The lab investigates the deployment and configuration of edge cloudlets to improve scalability and efficiency in high-density, mobile environments, particularly in scenarios involving massive device connectivity and real-time applications. A key research direction involves the integration of satellite-based edge computing to extend coverage to remote areas while addressing data processing and transmission challenges. The lab also explores distributed machine learning and virtualization techniques to enable low-latency, scalable computation at the network edge.
Professor Toshinori Kinoshita's research lab focuses on the molecular mechanisms regulating plasma membrane H⁺-ATPase in plant guard cells, particularly its role in stomatal opening and ion homeostasis. The lab investigates how this essential proton pump is activated by environmental signals such as blue light and phytohormones like brassinosteroids, through post-translational modifications including phosphorylation and 14-3-3 protein binding. Calcium signaling and the action of small molecules such as fusicoccin are also central to understanding the dynamic regulation of H⁺-ATPase activity. The research integrates cell biology, biochemistry, and molecular physiology to elucidate signal transduction pathways in plant cells.
Professor Shunsuke Yamada's research lab focuses on the pathophysiology of chronic kidney disease (CKD), with a particular emphasis on the interplay between mineral and bone metabolism, vascular calcification, and systemic complications such as cardiovascular disease, malnutrition, and chronic inflammation. The lab investigates the roles of hyperphosphatemia, oxidative stress, and uremic toxins in driving vascular calcification and organ dysfunction in CKD. Using animal models and clinical cohort studies, the lab aims to elucidate the mechanisms linking CKD-mineral and bone disorder (CKD-MBD) with adverse outcomes, especially in dialysis populations. Their work also evaluates nutritional and inflammatory biomarkers as predictors of mortality, contributing to precision management strategies in CKD patients.
Kiyotake Suenaga 교수의 연구실은 해양 생물에서 유래한 생활물질, 특히 해게(Dolabella auricularia)로부터 신규 자연물의 구조 규명과 항암 활성 평가를 중심으로 연구를 진행하고 있습니다. 특히, 복잡한 구조를 가진 매클로라이드, 사이클로데시펩타이드, 브로모트리테르펜 등의 항암성 자연물의 효능 기반 합성 및 입체화학 확정에 중점을 두고 있으며, 이는 약리학적 기반의 신약 개발에 기여하고자 합니다.
Professor Anna Ściążko's research lab specializes in the development and characterization of advanced materials for solid oxide cells (SOCs), with a focus on electrode microstructure engineering, degradation mechanisms, and long-term stability. The lab combines experimental materials science with cutting-edge computational methods, including machine learning and 3D microstructure reconstruction from FIB-SEM tomography, to predict and optimize electrochemical performance. Key research directions include the design of Ni-free and Ni-based anodes, understanding phase stability under operating conditions, and creating synthetic 3D microstructures from 2D imaging data using generative adversarial networks (GANs).
Professor Jibril Ben Achour's research lab specializes in theoretical high-energy physics, focusing on degenerate higher-order scalar-tensor theories (DHOST) that evade the Ostrogradsky instability despite possessing higher-order equations of motion. The lab investigates the mathematical structure and physical viability of scalar-tensor theories beyond Horndeski, particularly those with cubic and quadratic dependence on second derivatives of the scalar field, and explores their behavior under disformal and conformal transformations. A key direction involves identifying conditions for stealth black hole solutions—vacuum solutions with non-gravitating scalar hair—and assessing their compatibility with observational constraints such as $ c_{ ext{grav}} = c_{ ext{light}} $.
Professor Hiroyuki Yoshitomi's research lab focuses on the immunological mechanisms underlying chronic inflammatory diseases, particularly rheumatoid arthritis (RA). The lab investigates the roles of innate and adaptive immune cells—such as T cells, B cells, and fibroblast-like synoviocytes—in driving inflammation and tissue destruction. Key research directions include the identification of pathogenic T cell subsets (e.g., Tph and PD-1⁺CXCR5⁻ T cells) that promote ectopic lymphoid structure formation and CXCL13 production, as well as the role of pattern recognition receptors and microRNAs as biomarkers and therapeutic targets. The lab integrates human tissue studies with in vitro and in vivo models to uncover novel immunoregulatory pathways in autoimmunity.
Professor Akira Uruno's research lab focuses on the molecular mechanisms of the Nrf2-Keap1 signaling pathway in regulating cellular defense against oxidative stress, with a strong emphasis on its roles in metabolic diseases, neurodegenerative disorders, and diabetic complications. The lab employs advanced genetic mouse models to dissect tissue-specific functions of Nrf2, particularly in pancreatic β-cells, skeletal muscle, and the central nervous system. Key research directions include understanding how Nrf2 activation protects against diabetes, Alzheimer’s disease, and diabetic kidney disease through redox homeostasis and metabolic regulation. The lab also investigates the therapeutic potential of targeting the Keap1-Nrf2 axis for chronic diseases linked to oxidative stress.
마츠오 매토 씨의 연구실은 조직 내 학습과 성장을 중심으로 한 인간자원개발, 경영교육, 조직학습 이론을 탐구합니다. 특히 경험학습 이론(Kolb 모델)의 보완과 응용, 역량 기반 학습 촉진 요소(예: 비판적 반성, 목표 지향성, 팀 리플렉시비티)의 역할을 중심으로 연구를 전개하고 있습니다. 실무 현장에서의 학습 효과를 높이기 위한 실천적 모델 개발과 정책 제언도 연구의 핵심입니다.
Professor Yasunori Kikuchi's research lab specializes in sustainable energy systems and environmental assessment, focusing on the integration of renewable resources—particularly biomass and hydrogen—into regional energy networks. The lab emphasizes life-cycle assessment (LCA), industrial symbiosis, and techno-economic analysis to evaluate the environmental and socioeconomic impacts of energy and chemical production systems. Key research directions include optimizing distributed energy systems, enhancing the sustainability of bio-based materials like bio-PE, and supporting regional energy transitions in isolated communities such as Tanegashima, Japan.
Professor Teppei Yamada's research lab specializes in the design and synthesis of functional metal-organic frameworks (MOFs) and coordination polymers for advanced energy and environmental applications. The lab focuses on developing proton-conductive materials for fuel cells and sensors, exploring the role of functional groups and hydration in enhancing proton transport. Additionally, the group investigates MOFs as high-performance electrode materials for lithium-ion batteries and examines host-guest systems for thermoelectric energy conversion. Their innovative synthetic strategies, such as the protection-complexation-deprotection (PCD) method, enable precise functionalization of MOFs to tailor their physicochemical properties.
Professor Yuwei Sun's research lab specializes in privacy-preserving machine learning, with a strong focus on federated learning and its applications in cybersecurity and edge computing. The lab develops advanced decentralized learning frameworks to enable collaborative model training across distributed, sensitive data environments—particularly in critical domains like finance, healthcare, and network intrusion detection. Key research directions include robustness against model poisoning attacks, adaptive detection for evolving threats such as phishing emails, and integrating blockchain for secure and verifiable model aggregation. The lab emphasizes practical, secure, and scalable solutions for real-world deployment in 5G and IoT ecosystems.
