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 Guangtao Duan's research lab specializes in the development and enhancement of meshfree particle methods, particularly the Moving Particle Semi-implicit (MPS) and Smoothed Particle Hydrodynamics (SPH) methods, for complex fluid dynamics simulations. The lab focuses on improving numerical accuracy and stability in simulating challenging multiphase flows, including free-surface flows, boiling phase change, and high-density ratio flows, by developing advanced corrective matrix schemes and consistent discretization models. Key research directions include boundary condition treatment, error analysis for particle instability, and efficient parallel computing for large-scale simulations.
Professor Pratik Nandy's research lab specializes in quantum many-body physics, with a focus on quantum chaos, operator growth, and non-Hermitian quantum systems. The lab develops advanced computational and analytical techniques—particularly Krylov subspace methods and tridiagonalization via SVD—to study the dynamics of quantum systems, especially in the context of the Sachdev-Ye-Kitaev (SYK) model and its extensions. Key themes include Krylov complexity, scrambling dynamics, and the spectral properties of non-Hermitian Hamiltonians and Lindbladians, with applications to quantum information and quantum gravity. The lab bridges theoretical quantum mechanics with numerical algorithms and random matrix theory.
Professor Benjamin Ducharne's research lab specializes in the modeling and characterization of ferroic materials, with a focus on ferroelectrics and ferromagnets. The lab develops advanced phenomenological and fractional-order models to describe nonlinear hysteretic behaviors under electromechanical and electromagnetic loading, particularly emphasizing frequency-dependent hysteresis and energy conversion mechanisms. A key research direction involves the optimization of energy harvesting systems—especially from environmental sources like ocean waves—using piezoelectric and magnetic materials with tailored hysteresis properties. The lab also pioneers non-destructive evaluation techniques based on local magnetic Barkhausen noise for assessing material microstructure and degradation.
Professor Norihito Nakamichi's research lab focuses on the molecular mechanisms underlying the plant circadian clock, particularly the transcriptional and post-translational feedback loops that regulate daily rhythms. The lab investigates the roles of Pseudo-Response Regulator (PRR) proteins—such as PRR5, PRR7, and PRR9—in transcriptional repression, gene expression timing, and integration of environmental cues like light and photoperiod. Using genetic, molecular, and genomics approaches in *Arabidopsis thaliana*, the lab aims to decipher how the circadian clock controls key developmental processes, including flowering time and growth. Their work reveals how clock components directly regulate output pathways through DNA binding and transcriptional control.
Professor Takashige Abe's research lab specializes in urological oncology, with a primary focus on surgical management and long-term outcomes in patients with urothelial and lung cancers. The lab investigates risk factors for surgical complications, the role of lymph node dissection in staging and survival, and the efficacy of chemotherapy regimens in elderly or frail patients with advanced non-small cell lung cancer (NSCLC). A key research direction involves evaluating metastasectomy as a curative-intent strategy for select patients with limited metastatic disease, particularly those with solitary lung or lymph node metastases. The lab also examines urinary diversion techniques, comparing outcomes such as complication rates and survival across different surgical approaches.
Professor Jun Nishioka's research lab specializes in marine biogeochemistry, with a primary focus on iron cycling and its role in regulating phytoplankton productivity in the subarctic Pacific Ocean. The lab investigates the sources, transport, and transformation of dissolved and particulate iron in oceanic intermediate waters, particularly in the Okhotsk Sea and North Pacific Intermediate Water, to understand how iron supply sustains biological production in high-nutrient, low-chlorophyll (HNLC) regions. Using long-term time-series observations, GEOTRACES expeditions, and mesoscale iron enrichment experiments, the lab explores the mechanisms of iron supply, vertical flux, and seasonal dynamics that control the spring bloom and nutrient upwelling in the western subarctic Pacific.
Professor Taichi Hara's research lab focuses on cellular quality control mechanisms, particularly autophagy and ubiquitin-proteasome system-mediated protein degradation. The lab investigates the molecular roles of key regulators such as ULK1/2 and FIP200 in autophagosome formation, as well as the E3 ubiquitin ligases Hrd1 and gp78 in endoplasmic reticulum-associated degradation (ERAD). Additionally, the lab explores the pathophysiological implications of protein homeostasis disruption in neurodegenerative diseases and metabolic disorders, including obesity-related cognitive and psychiatric phenotypes. Their work bridges cell biology, neuroscience, and metabolism through integrative molecular and behavioral approaches.
Professor Hidetoshi Takahashi's research lab specializes in micro- and nano-scale sensor development, particularly focusing on piezoresistive sensors for biomedical and biological applications. The lab investigates innovative microfabrication techniques for creating high-sensitivity pressure sensors and force measurement systems, including micro force plate arrays for insect locomotion studies. Additionally, the lab explores biomedical applications of novel compounds, such as antibiotics isolated from actinomycetes, and contributes to surgical robotics through force feedback systems for minimally invasive surgery. The research integrates microsystems engineering with neuroscience and biomedicine to address challenges in human health and physiological measurement.
Professor Yoshikuni Kawaguchi's research lab specializes in hepatobiliary and pancreatic surgery, with a primary focus on improving outcomes in patients with colorectal liver metastases (CLM). The lab investigates prognostic biomarkers—particularly RAS and TP53 mutation status—and develops practical classification systems to stratify recurrence risk, enabling personalized treatment strategies. They also pioneer advanced surgical techniques, including fluorescence imaging for real-time visualization of the portal vein territory, enhancing the precision of anatomical liver resections. Their work bridges clinical oncology, surgical innovation, and molecular pathology to optimize patient prognosis.
Professor Takuya Hayashi's research lab specializes in non-invasive neuroimaging and translational neuroscience, focusing on understanding brain microstructure, functional connectivity, and neuromodulation in health and disease. The lab employs advanced MRI techniques—such as NODDI and DTI—combined with neurostimulation (e.g., TMS) and PET to investigate neural mechanisms underlying addiction, Parkinson’s disease, and brain network organization. A key focus is translating preclinical findings into clinical applications through multimodal imaging and cell-based therapies in non-human primates. The lab also contributes to large-scale neuroimaging initiatives like the Human Connectome Project, aiming to validate and refine non-invasive brain mapping methods.
Professor Ken Albrecht's research lab specializes in the design and synthesis of advanced dendritic materials with tailored electronic and optical properties for optoelectronic applications. The lab focuses on carbazole-based dendrimers and their derivatives, exploring their use in organic light-emitting diodes (OLEDs), thermally activated delayed fluorescence (TADF) emitters, and light-emitting electrochemical cells (LECs). Key research directions include molecular engineering of dendrimers to optimize HOMO levels, photoluminescence quantum yields, thermal stability, and metal complexation behavior for applications in sustainable and high-performance optoelectronics. The lab also investigates structure-property relationships in dendronized radicals and host-guest systems for fullerenes, emphasizing molecular design for enhanced device stability and efficiency.
Professor Masahiro Yanagawa's research lab specializes in advanced medical imaging, particularly in the application of high-resolution computed tomography (CT) for early lung cancer detection and characterization. The lab focuses on improving diagnostic accuracy in lung adenocarcinoma by evaluating thin-section and ultra-high-resolution CT for predicting tumor invasiveness and pathological features. A key direction involves comparing radiological assessment with deep learning algorithms to enhance the precision of non-invasive imaging biomarkers. The lab also investigates metabolic imaging using PERCIST to better predict treatment response in esophageal cancer, aiming to refine clinical decision-making.
Professor Atsutomo Nakamura's research lab specializes in the fundamental mechanics and defect engineering of inorganic ceramics and semiconductors, with a focus on dislocation dynamics, plasticity, and their functional applications. The lab investigates how dislocations govern mechanical behavior at the nanoscale, particularly in perovskites like SrTiO3 and wide-bandgap semiconductors such as ZnS and AgCl, using innovative techniques like photoindentation and in situ electron microscopy. A key research direction involves manipulating chemical composition and crystal structure to enhance room-temperature ductility and enable dislocation-based functionalities in traditionally brittle materials. The lab also pioneers methods to exploit dislocations as templates for creating ordered nanostructures, such as conductive nanowire arrays, for next-generation electronic and functional materials.
Professor Kohei Sato's research lab specializes in the design and self-assembly of functional supramolecular nanostructures, with a focus on peptide-based and peptidic macrocyclic systems. The lab explores the controlled formation of hierarchical nanostructures—such as nanofibers, nanochannels, and liquid-crystalline phases—through precise tuning of molecular interactions including hydrogen bonding, van der Waals forces, and fluorophilic effects. Key research directions include biomimetic nanochannels for ultrafast water transport, chiral self-sorting in supramolecular polymers, and stimuli-responsive materials for biomedical and materials applications. The lab integrates advanced analytical techniques such as CD spectroscopy, dynamic light scattering, and electron microscopy to understand and engineer molecular-level order and function.
Professor V. Ryzhii's research lab specializes in theoretical and applied physics of low-dimensional semiconductor heterostructures, with a focus on graphene-based nanodevices and two-dimensional electron-hole systems. The lab investigates terahertz physics, including negative dynamic conductivity, population inversion, and plasma wave excitation in graphene and multiple-graphene-layer structures, aiming to develop coherent terahertz sources and high-sensitivity photodetectors. Key research directions include voltage-tunable terahertz devices, intersubband transitions in quantum dots, and electron-hole plasma dynamics under optical and electrical pumping. The work bridges fundamental many-body effects in 2D systems with practical applications in next-generation optoelectronics and sensing technologies.
Professor Jiuhao Ge's research lab specializes in electromagnetic non-destructive evaluation (NDE) techniques, focusing on advanced eddy current testing and alternating current field measurement (ACFM) for the detection and characterization of surface and subsurface defects in metallic structures. The lab develops innovative signal processing and imaging methods—such as rotating eddy current testing, pulsed eddy current, and wavelet packet analysis—to enhance defect detection sensitivity, improve signal-to-noise ratio, and enable real-time classification of defects like cracks, pitting corrosion, and slits. A key research direction involves understanding and optimizing the velocity-insensitive behavior of ACFM for high-speed rail inspection, alongside developing adaptive signal processing algorithms for complex defect profiling and quantification.
Professor Shuoyao Wang's research lab focuses on sustainable mobility and advanced battery technologies, with a strong emphasis on the life cycle assessment, recycling, and environmental impact of electric and hybrid vehicle batteries. The lab investigates end-of-life vehicle management, particularly for lithium-ion and nickel-metal hydride (NiMH) batteries, in rapidly growing EV markets such as China and developing countries like Mongolia. Key research directions include forecasting waste battery volumes, optimizing recycling processes, and promoting battery reuse to reduce environmental burdens and resource depletion.
Professor Kazuhiro Abe's research lab specializes in structural and cellular biology, focusing on membrane transport proteins and their roles in cellular homeostasis and disease. Key research directions include the structural characterization of P-type ATPases—particularly ATP11C, a phospholipid flippase—using cryo-EM and electron crystallography to understand phospholipid asymmetry and its regulation during apoptosis. The lab also investigates ion transport mechanisms in epithelial tissues, such as the epididymis, with a focus on microvascular architecture and sperm maturation. Additionally, the lab explores molecular targets in gastric acidification, including the H⁺,K⁺-ATPase and its inhibition by therapeutic agents.
Professor Junjie Li's research lab specializes in the design and development of smart, stimuli-responsive nanomaterials for precision medicine, with a focus on therapeutic nanoreactors and polymeric vesicles that enable site-specific drug activation and enhanced cancer therapy. The lab pioneers innovative strategies for in vivo chemical transformations, leveraging tumor microenvironment cues such as acidity, reactive oxygen species, and glucose levels to trigger therapeutic responses. Key research directions include the engineering of multifunctional nanocarriers for combined chemo- and radiotherapy, oxygen-generating systems to overcome tumor hypoxia, and advanced delivery platforms for photodynamic therapy.
Professor Megumi Yatsushiro's research lab specializes in strongly correlated electron systems, with a focus on unconventional electronic orderings driven by the interplay of multiple electronic degrees of freedom—such as spin, charge, orbital, and multipole orders. The lab employs group-theoretical classification and theoretical many-body methods to uncover the microscopic origins of exotic quantum phases, particularly in f-electron materials like CeCoSi. A central theme is the role of multipoles—especially magnetic toroidal and odd-parity multipoles—in generating novel multiferroic and nonlinear transport phenomena, often in systems lacking inversion or time-reversal symmetry. The lab also investigates emergent phenomena through NMR/NQR spectroscopy and nonlinear response theory, aiming to bridge microscopic electronic structure with macroscopic observables.
