东京大学、京都大学、大阪大学等日本QS前10名大学的研究室信息。
Professor Yasuo Mori's research lab focuses on hematopoiesis, particularly the identification and characterization of human hematopoietic progenitor cells, including eosinophil and erythrocyte progenitors, to understand lineage commitment and its implications in blood disorders. The lab also investigates infectious complications—especially viral reactivations like HHV-6 and invasive fungal infections such as aspergillosis—following allogeneic hematopoietic stem cell transplantation, with an emphasis on early diagnosis and risk factors. Their work integrates clinical hematology with translational research to improve outcomes in patients with hematological malignancies and stem cell transplant recipients.
Professor Ata Aditya Wardana's research lab specializes in the development of advanced bio-based materials for food preservation and safety, with a focus on edible films, coatings, and nanocomposites. The lab explores the integration of natural polymers, essential oils, and nanomaterials—such as chitosan, cellulose nanofibers, and metal oxide nanoparticles—to enhance the functional, mechanical, and antimicrobial properties of sustainable packaging solutions. Key research directions include Pickering emulsion stabilization, antifungal and antibacterial activity of essential oils, and the application of these materials in post-harvest food protection and spoilage detection. The lab emphasizes green chemistry and biodegradable materials for sustainable food systems.
Professor Thinh Van Nguyen's research lab specializes in environmental geochemistry, soil contamination, and remediation technologies, with a strong focus on heavy metal pollution in tropical and estuarine ecosystems. The lab investigates the sources, distribution, and ecological impacts of trace metals such as arsenic, cadmium, and chromium in agricultural and industrial soils, particularly in Vietnam’s estuaries and industrial zones. A key research direction involves developing sustainable, biodegradable acid-based methods for arsenic remediation in contaminated soils. The lab also explores the physiological adaptations of aquatic organisms to extreme environmental conditions, such as low ion and acidic waters, to understand ecological resilience and pollution tolerance.
Professor Chie Nakajima's research lab specializes in microbial pathogenesis and molecular parasitology, with a focus on Mycobacterium tuberculosis complex (MTC) pathogens and tick salivary gland biology. The lab investigates the genetic diversity, transmission dynamics, and host-pathogen interactions of MTC members such as *Mycobacterium orygis*, particularly in animal and zoonotic reservoirs. Additionally, the lab explores novel bioactive molecules from tick salivary glands, including thrombin-inhibiting proteins like chimadanin, with potential applications in anticoagulant and anti-inflammatory therapeutics. Their work combines molecular typing, functional genomics, and protein characterization to address infectious disease challenges in endemic regions like Bangladesh and Myanmar.
Professor Hidenori Noguchi's research lab specializes in interfacial science at electrified interfaces, with a focus on understanding the molecular-level structure and dynamics of water, electrolytes, and adsorbed species at electrode and polymer surfaces. The lab employs advanced vibrational spectroscopies—particularly sum frequency generation (SFG) and surface-enhanced Raman spectroscopy—to probe interfacial water organization, solvation structures in electrolytes, and reaction intermediates in electrochemical systems. Their work spans applications in energy conversion and storage, including fuel cells, lithium metal batteries, and metal–air batteries, with particular attention to solid-electrolyte interphase (SEI) formation and oxygen reduction reaction mechanisms. The lab also investigates the role of surface chemistry and humidity in functional materials such as Nafion and polymer electrolytes.
Professor Yoshihiko Arao's research lab specializes in advanced composite materials and nanomaterials, with a strong focus on carbon fiber-reinforced plastics (CFRP) and graphene-based nanocomposites. The lab investigates the thermal, moisture-induced, and viscoelastic behaviors of CFRP to enhance dimensional stability and mechanical performance in aerospace and structural applications. A key research direction involves developing scalable, high-yield methods for producing high-quality graphene through mechanochemical exfoliation, particularly using soluble graphite and liquid-phase exfoliation techniques. The lab also explores the fundamental mechanisms of graphene dispersion and aggregation in polymer matrices, aiming to optimize processing conditions for superior nanocomposite properties.
Professor Tomoyoshi Tamura's research lab specializes in critical care medicine, with a primary focus on improving outcomes following cardiac arrest. The lab investigates novel therapeutic strategies such as inhaled hydrogen (HI) combined with target temperature management (TTM) to mitigate post-cardiac arrest syndrome, particularly by reducing oxidative stress and inflammation. They also explore quantitative pupillary response parameters as early predictors of neurological recovery, aiming to enhance prognostic accuracy in post-resuscitation care. Their work bridges experimental physiology and clinical application, emphasizing biomarkers and non-invasive monitoring in emergency critical care settings.
Professor Yonghee Kim's research lab specializes in advanced nuclear reactor design and neutronics optimization, focusing on small modular reactors (SMRs) and micro modular reactors (MMRs) with enhanced safety, compactness, and long-life core performance. The lab explores innovative concepts such as soluble-boron-free cores, centrally-shielded burnable absorbers, and high-density fuels like U15N and UC to achieve high burnup, low reactivity swing, and improved neutron economy. Additionally, the lab investigates fundamental particle physics, particularly the spectroscopy of exotic hadrons like doubly heavy tetraquarks, using chiral quark-diquark models. The integration of advanced materials and device physics is also evident in their work on low-voltage organic transistors for next-generation wearable electronics.
Professor Minsu Han's research lab specializes in the design and synthesis of advanced functional nanomaterials with a focus on nanoarchitectonics, mesoporous structures, and transparent photothermal materials. The lab develops solution-processable materials—such as ionic salts and metal chalcogenides—for applications in energy conversion, environmental sustainability, and smart devices. Key research directions include morphological control of platinum-group metals, transparent electrochromic and photothermal films, and the creation of conductive mesoporous materials using soft-templating strategies. The lab integrates materials chemistry, electrochemistry, and nanofabrication to enable next-generation sustainable technologies.
Professor Takashi Obase's research lab specializes in paleoclimatology and climate dynamics, focusing on the mechanisms behind abrupt climate changes during glacial and deglacial periods. The lab investigates the role of Atlantic Meridional Overturning Circulation (AMOC) and ice sheet-ocean interactions in driving rapid climate shifts, such as the Bølling-Allerød warming and the Younger Dryas. Using coupled atmosphere-ocean general circulation models, the lab explores how changes in meltwater flux, sea ice, and ocean circulation influence global climate variability. A key focus is also on improving paleoclimate reconstructions through stable water isotope modeling and sensitivity analyses of past climate states.
Professor Daiji Kawaguchi's research lab specializes in labor economics, with a focus on labor market dynamics, income inequality, and institutional factors shaping employment outcomes. The lab investigates key issues such as wage rigidity, the impact of minimum wage policies, the long-term effects of youth unemployment, and the socio-economic drivers behind cross-border marriage trends in East Asia. Research is grounded in rigorous empirical analysis using longitudinal and survey data from Japan and OECD countries, often addressing behavioral and institutional channels affecting worker well-being and labor market participation.
Professor Takashi Tsuboi's research lab focuses on the cellular and molecular mechanisms underlying insulin secretion in pancreatic beta-cells, with a particular emphasis on the roles of small GTPases, calcium signaling, and vesicle trafficking proteins in dense-core secretory vesicle exocytosis. The lab employs advanced live-cell imaging techniques, such as total internal reflection fluorescence microscopy, to visualize real-time dynamics of insulin granules and associated regulatory proteins. Key research directions include the regulation of 'kiss-and-run' exocytosis, the functional interplay between Rab GTPases (e.g., Rab3A, Rab27A), and the roles of effector proteins like rabphilin and SNAREs in vesicle fusion and membrane trafficking. The lab also investigates metabolic signaling pathways, such as AMPK and GLP-1 receptor signaling, in the context of beta-cell function and insulin release.
Professor Kazuaki Kato's research lab specializes in the design and synthesis of advanced polyrotaxane-based materials, with a focus on slide-ring gels and stimuli-responsive soft materials. The lab explores the unique viscoelastic behavior arising from sliding dynamics of cyclic molecules along polymer chains, aiming to understand and control the mechanical properties of these systems through molecular architecture. Key research directions include the development of novel cyclodextrin-based polyrotaxanes, precise control of cross-link density and ring density, and the creation of gels with tunable mechanical responses and dynamic behavior.
Professor R. Uday Kiran's research lab specializes in advanced data mining techniques, with a primary focus on frequent and periodic pattern mining in temporal and quantitative databases. The lab explores innovative approaches to address challenges such as the rare item problem, combinatorial explosion of patterns, and efficient discovery of partial and fuzzy periodic patterns. Key research directions include developing intelligent algorithms for mining rare, maximal, and fuzzy periodic-frequent patterns while incorporating multiple minimum support thresholds and pruning strategies to reduce computational overhead.
Professor Tetsuro Matano's research lab focuses on HIV/SIV immunology and vaccine development, with a central emphasis on understanding and harnessing cytotoxic T lymphocyte (CTL)-mediated immunity to control lentiviral infections. The lab investigates heterologous prime/boost vaccination strategies that induce durable, virus-specific T-cell responses capable of controlling pathogenic simian immunodeficiency virus (SIV) and chimeric SHIV in non-human primates. A key research direction involves evaluating non-sterile immunity, particularly CTL responses independent of neutralizing antibodies, to achieve long-term viral control. The lab also explores mucosal immunity and novel vaccine platforms, including intranasal delivery of non-S viral antigens, to combat emerging SARS-CoV-2 variants.
Professor Bartosz Regula's research lab specializes in the foundational and operational aspects of quantum resource theories, with a focus on quantum coherence, entanglement, and their manipulation under various physical constraints. The lab develops unified frameworks for quantifying and distilling quantum resources, leveraging tools from convex geometry, semidefinite programming, and quantum information theory. Key research directions include one-shot and asymptotic resource distillation, the axiomatization of resource measures, and the identification of fundamental limitations in quantum information processing tasks. The work bridges abstract quantum theory with practical applications in quantum technologies.
Professor Kounosuke Oisaki's research lab specializes in the development of novel catalytic systems for selective C–C and C–heteroatom bond formation, with a strong focus on asymmetric synthesis and sustainable oxidation processes. The lab pioneers innovative strategies in organometallic catalysis, including the design of metal-organic frameworks (MOFs) with covalently bound organometallic complexes for enhanced stability and functionality. Key research directions include the rational design of chiral ligands and copper-based catalysts for enantioselective aldol reactions, as well as the development of mild, aerobic oxidation methods using N-oxyl radicals and copper co-catalysts. The lab also explores photoredox-catalyzed C–H functionalization using sulfonamidyl radicals, highlighting its expertise in radical chemistry and catalytic innovation.
Professor Wenli Lin's research lab specializes in the micromechanical behavior of granular materials, with a focus on understanding particle-scale failure mechanisms through advanced acoustic emission (AE) monitoring and experimental triaxial testing. The lab investigates particle crushing, shear banding, and strain localization in sands—particularly coral and silica sands—under various stress and environmental conditions, integrating AE signal analysis with microstructural characterization. A key research direction involves developing 3D AE source location techniques and correlating high-frequency AE emissions with mechanical behavior to quantify failure progression in real time.
Professor Hideyuki Doi's research lab specializes in environmental DNA (eDNA) applications for aquatic biodiversity assessment, focusing on innovative molecular techniques such as droplet digital PCR (ddPCR) and eDNA metabarcoding to improve the accuracy and reliability of species detection and abundance estimation. The lab investigates the relationships between eDNA concentrations and organismal biomass in natural freshwater ecosystems, while also addressing technical challenges like PCR inhibition and quantification bias. Their work bridges molecular ecology with ecosystem monitoring, contributing to conservation science and climate change impact assessments.
Professor Yuya Tanizaki's research lab specializes in theoretical particle physics and quantum field theory, with a focus on anomalies, topological field theories, and non-perturbative phenomena in gauge theories and QCD-like systems. The lab investigates 't Hooft anomalies, symmetry-protected topological phases, and the interplay between global symmetries, gauge fields, and compactifications, particularly in the context of finite-temperature and finite-density field theories. Using advanced mathematical tools such as Lefschetz thimbles and Picard-Lefschetz theory, the group develops computational methods to address the fermion sign problem and explore vacuum structures in strongly correlated systems.
