探索全球顶尖大学的研究室——研究领域与主要论文一览无余。
Professor Hiroshi Arima's research lab focuses on neuroendocrinology and hypothalamic regulation of homeostasis, with a particular emphasis on the roles of neuropeptides such as vasopressin, orexigenic peptides like NPY and AGRP, and stress-related hormones including CRH and glucocorticoids. The lab investigates the molecular and cellular mechanisms underlying energy balance, osmoregulation, circadian rhythms, and the pathophysiology of central diabetes insipidus. Using advanced techniques such as in situ hybridization, organotypic brain slice cultures, and in vivo models, the lab explores signaling crosstalk in the hypothalamus and the clinical implications of endocrine-related immune-related adverse events in cancer therapy.
Professor Anatoly Zinchenko's research lab specializes in the design and characterization of DNA-based hybrid nanomaterials, focusing on the self-assembly of DNA with metal ions and nanoparticles to create functional nanostructures. The lab investigates the fundamental principles of DNA compaction and condensation using cationic nanoparticles and multivalent cations, exploring their structural and dynamic behavior at the single-molecule level. Key research directions include the synthesis of metal nanoparticles within DNA hydrogels for catalytic applications, the formation of DNA-templated nanostructures such as silver-coated toroids, and the development of biomimetic models of chromatin using defined nanoparticles to mimic histone interactions. The lab combines advanced techniques such as fluorescence microscopy, electron microscopy, and molecular dynamics simulations to understand and control nanostructure formation with high precision.
Professor Tomoo Ogi's research lab focuses on DNA damage response and repair mechanisms, particularly translesion synthesis (TLS) polymerases and their roles in maintaining genomic stability. The lab investigates how specialized DNA polymerases such as Polkappa bypass bulky DNA adducts—like those induced by environmental carcinogens such as benzo[a]pyrene—with high fidelity, thereby preventing mutagenesis. They also explore the molecular basis of human genetic disorders linked to DNA repair deficiencies, including Xeroderma pigmentosum, Seckel Syndrome, and novel syndromes like AMeD, which arise from defects in aldehyde detoxification and DNA repair pathways. Their work integrates molecular biology, cell biology, and clinical genetics to uncover fundamental mechanisms of genome maintenance and disease pathogenesis.
Professor Yong Min Ahn's research lab focuses on identifying objective biomarkers for psychiatric disorders, particularly depression and bipolar disorder, using multimodal approaches such as voice analysis, neuroimaging, and molecular signaling pathways. The lab investigates the neurobiological underpinnings of mood and psychotic disorders, with a strong emphasis on translational research that bridges clinical phenotypes with biological mechanisms. Key research directions include the development of machine learning models for early diagnosis using interview speech and the role of GSK-3beta signaling in schizophrenia-like states. The lab also explores clinical risk factors for suicide, especially in bipolar disorder, aiming to improve early detection and intervention strategies.
Professor Yu Rang Park's research lab specializes in health data science and artificial intelligence, focusing on the development of privacy-preserving, blockchain-based platforms for personal health records (PHR) and patient-generated health data (PGHD). The lab explores data-driven approaches to identify biomarkers in ion channel genes for cancer diagnostics and prognostics, while also advancing machine learning models for handling vertically incomplete medical data without compromising data privacy. A key emphasis is on improving health outcomes in underserved populations through technology-enabled interventions, such as the 'Smart Walk' program for rural older adults.
Professor Takeshi Ishihara's research lab specializes in wind energy and environmental fluid dynamics, focusing on advanced modeling and simulation of turbulent flows in complex atmospheric and offshore environments. Key research directions include the development of analytical and numerical wake models for wind turbines, extreme wind speed prediction using statistical and stochastic methods, and validation of mesoscale simulations using LiDAR measurements. The lab also investigates hydrodynamic responses of floating offshore wind turbines under combined wave and current conditions, emphasizing accurate modeling of hydrodynamic coefficients and dynamic behavior.
Professor Yoshiji Takemoto's research lab specializes in the development of innovative organic catalysts for asymmetric synthesis, with a strong focus on hydrogen-bonding and halogen-bonding catalysis. The lab pioneers the design of multifunctional organocatalysts—such as urea, thiourea, and novel heterocyclic scaffolds—enabling highly enantioselective and diastereoselective transformations in complex molecule synthesis. Key research directions include the activation of substrates through non-covalent interactions, the application of these catalysts in C–C and C–heteroatom bond-forming reactions, and the mechanistic understanding of catalytic cycles using spectroscopic and computational methods. The lab also explores the synergy between multiple catalytic functionalities, such as acid-base and hydrogen-bonding sites, to achieve high reactivity and selectivity under mild conditions.
Professor Yuichiro Tada's research lab specializes in theoretical cosmology, focusing on primordial black holes, inflationary dynamics, and quantum corrections in early Universe models. The lab investigates the formation mechanisms of primordial black holes across diverse mass scales, including their role as dark matter candidates and sources of gravitational waves. It also explores the interplay between quantum fluctuations, non-Gaussianities, and the breakdown of slow-roll conditions in inflation, particularly in non-attractor and transient inflation scenarios. A central theme is the application of advanced field-theoretic techniques—such as the stochastic-δN formalism and one-loop computations—to understand the statistical properties of cosmological perturbations and their observational signatures.
Professor Jin-Woo Lee's research lab specializes in the development of next-generation organic photovoltaics with a strong focus on stretchable and mechanically robust solar cells for wearable and portable electronics. The lab pioneers innovative molecular designs—such as flexible spacers, hydrogen-bonding interactions, and dimerized small-molecule acceptors—to simultaneously achieve high power conversion efficiency and exceptional mechanical durability in all-polymer and stretchable organic solar cells. Key research directions include enhancing morphological stability, tuning crystallinity and glass transition temperatures, and enabling intrinsic stretchability through rational polymer engineering. The lab's work bridges the gap between high performance and real-world applicability in flexible electronics.
Professor Young-Soo Yoon's research lab specializes in advanced construction materials and sustainable energy technologies. The lab focuses on developing high-performance concrete composites—particularly high-strength lightweight concrete (HSLC) and ultra-high-performance fiber-reinforced concrete (UHPFRC)—by incorporating nano-reinforcements like carbon nanotubes and steel fibers to enhance mechanical properties, durability, and ductility. In parallel, the lab investigates electrocatalysts for sustainable energy applications, such as palladium-based catalysts supported on carbon nanotubes for direct urea fuel cells, aiming to improve electrochemical efficiency and reduce reliance on precious metals. The research integrates materials science, structural engineering, and energy conversion technologies to address challenges in civil infrastructure and clean energy systems.
Professor Kenji Chamoto's research lab focuses on the metabolic regulation of T cells in the tumor microenvironment, particularly how mitochondrial function and cellular metabolism influence the efficacy of cancer immunotherapies such as PD-1 blockade. The lab investigates how metabolites like spermidine enhance T cell function and overcome immunosenescence in aging, with a strong emphasis on mitochondrial trifunctional protein (MTP) as a key metabolic target. They also explore combination therapies and biomarkers to improve response rates and reduce immune-related adverse events in cancer immunotherapy. Their work bridges immunometabolism, T cell differentiation, and translational cancer therapy.
Professor Shuji Nakanishi's research lab specializes in the development of advanced electrocatalysts and electrochemical systems for sustainable energy conversion and storage. The lab focuses on designing atomically dispersed metal catalysts, such as platinum on covalent triazine frameworks, and novel nanomaterials like nitrogen-rich tungsten carbonitrides for efficient hydrogen evolution and oxidation reactions. A key research direction involves understanding the fundamental electrochemistry at the atomic level, including surface structure effects on reaction dynamics and the role of redox mediators in lithium-oxygen batteries. The lab also investigates electron transfer mechanisms in microbial systems, linking bioelectrochemistry with materials science.
Professor Yukinori Kurokawa's research lab specializes in gastrointestinal oncology, with a primary focus on targeted therapies and neoadjuvant treatment strategies for advanced and locally advanced gastrointestinal stromal tumors (GISTs) and gastric cancer. The lab investigates HER2-targeted agents like trastuzumab in combination with chemotherapy for HER2-positive advanced gastric cancer, as well as the use of imatinib as a neoadjuvant therapy to improve resectability in large GISTs. Their work emphasizes optimizing treatment efficacy while minimizing toxicity, contributing to improved surgical outcomes and patient survival.
Professor Tomoyuki Akutagawa's research lab specializes in the design and fabrication of functional molecular materials with tailored electronic, magnetic, and dynamic properties. The lab focuses on constructing low-dimensional conductive and semiconductive materials through charge-transfer complexes, supramolecular architectures, and organic salts, often leveraging hydrogen bonding, π-conjugation, and ion-templating effects. Key research directions include molecular rotors in crystalline solids, stimuli-responsive fluorochromic systems, and nanostructured organic semiconductors via Langmuir-Blodgett techniques. The lab also explores structure-property relationships in soft matter and hybrid materials, emphasizing dynamic molecular motions and their coupling to electronic and magnetic phenomena.
Professor Ki Taek Nam's research lab specializes in developing innovative therapeutic and diagnostic strategies for cancer and infectious diseases, with a strong focus on targeted drug delivery, photodynamic therapy, and molecular mechanisms underlying carcinogenesis. The lab investigates tumor-suppressive proteins like Rab25 in cancer progression and explores activatable photosensitizers for tumor-specific imaging and therapy. It also designs selective antimicrobial agents targeting Gram-positive bacteria using redox-responsive photosensitizers. The integration of nanomaterials, enzyme-responsive systems, and molecular targeting defines the lab’s translational approach to precision medicine.
Professor H. M. Srivastava's research lab specializes in complex analysis, with a primary focus on analytic and univalent functions, special functions, and integral operators. The lab investigates advanced topics such as differential subordination, fractional calculus, and zeta functions, particularly their applications in geometric function theory. Key research directions include the study of coefficient estimates for bi-univalent functions, generalized integral operators involving the Hurwitz–Lerch Zeta function, and connections between special functions and univalent mappings.
Professor Sang-gi Lee's research lab specializes in the design and application of functionalized ionic liquids and metal complexes for sustainable catalysis and materials science. The lab focuses on developing task-specific ionic liquids and immobilized catalysts—particularly those based on imidazolium salts and transition metals like Pd and Rh—for highly efficient, reusable, and selective transformations in organic synthesis. Key research directions include synergistic catalysis, enantioselective hydrogenation, and the creation of recyclable ionic liquid-based catalytic systems with enhanced stability and reduced leaching. The lab also explores applications in metal ion separation, nanostructure assembly, and ion-conductive materials.
Professor Renhe Jiang's research lab specializes in urban dynamics modeling and intelligent prediction using big mobility and spatio-temporal data. The lab focuses on advancing AI-driven solutions for citywide crowd and traffic forecasting, with an emphasis on handling rare events, non-stationarity, and spatio-temporal heterogeneity. Key research directions include graph-based deep learning, meta-learning for dynamic urban systems, and ROI-aware modeling for scalable and interpretable urban mobility prediction.
Professor Ken-ichi Uchida's research lab specializes in spintronics and thermoelectric energy conversion, focusing on the spin Seebeck effect in magnetic materials—particularly insulators and ferrites. The lab investigates the generation and detection of spin currents from heat using spin-orbit coupling and the inverse spin-Hall effect, aiming to develop efficient, low-cost thermoelectric devices. Key research directions include the fundamental mechanisms of spin voltage generation, long-range spin transport, and the application of polycrystalline magnetic oxides in energy harvesting.
Professor Ruixiao Zheng's research lab specializes in the design and processing of advanced metallic materials with tailored microstructures to achieve exceptional combinations of strength and ductility. The lab focuses on nanostructured and ultrafine-grained metals, particularly magnesium and copper alloys, using innovative powder metallurgy techniques to engineer three-dimensional core–shell and harmonic microstructures. Key research directions include understanding deformation mechanisms such as twinning, slip systems, and dynamic recovery in polycrystalline metals under various loading conditions, with an emphasis on overcoming the strength–ductility trade-off.
