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 Tae-Hyuk Kwon's research lab specializes in the design and synthesis of advanced optoelectronic materials, with a focus on phosphorescent iridium complexes, dye-sensitized solar cells, and perovskite-based semiconductors for sustainable energy applications. The lab explores molecular engineering strategies to tune emission colors and energy transfer processes in light-harvesting systems, while also advancing the development of efficient, stable, and low-cost devices for indoor photovoltaics and light-emitting technologies. A key research direction involves understanding and manipulating surface charge transfer dynamics in lead-free perovskites, particularly Cs₂SnI₆, to enable novel applications in dye regeneration and energy conversion.
Professor Youngjoo Kwon's research lab focuses on molecular oncology and chemical biology, with a central emphasis on identifying and targeting critical molecular mechanisms in aggressive cancers such as triple-negative breast cancer (TNBC) and epithelial ovarian cancer (EOC). The lab investigates transcriptional regulation, DNA repair enzymes like topoisomerases, and hypoxia-driven angiogenesis pathways to develop novel therapeutic strategies. By integrating synthetic chemistry, structural biology, and cancer cell biology, the lab designs small-molecule inhibitors and transcription factor mimics to selectively disrupt oncogenic signaling. Their work also explores the structural and functional consequences of plasma protein modifications, particularly in human serum albumin, relevant to drug stability and delivery.
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 Yonghwan Kim's research lab specializes in marine hydrodynamics and ship seakeeping, with a strong focus on numerical simulation and experimental validation of ship motions, structural responses, and fluid-structure interactions in waves. The lab develops advanced computational tools—such as the WISH and WISH-FLEX programs—to analyze linear and nonlinear seakeeping, hydroelasticity, slamming, whipping, and sloshing effects in ships. Their work integrates time-domain panel methods, finite element modeling, and advanced measurement techniques like phase-resolved PIV to study complex flow phenomena and structural dynamics. The lab also contributes to international benchmarking efforts, enhancing the reliability and accuracy of seakeeping prediction codes.
Professor Jee-Young Lee's research lab focuses on the genetic, neurobiological, and neuroimaging mechanisms underlying non-motor and motor complications in Parkinson’s disease. Key research directions include identifying genetic susceptibility variants—particularly in dopamine, glutamate, and serotonin-related genes—that contribute to impulse control behaviors, levodopa-induced dyskinesias, and visual hallucinations. The lab integrates clinical genetics, neuroimaging (e.g., optical coherence tomography), and molecular biology to explore the structural and functional basis of visual and neuropsychiatric symptoms in PD. Their work also investigates tumor suppressor pathways involving TTP and let-7 microRNA in cancer, highlighting a translational interest in gene regulation and neurodegeneration.
Professor Seoin Back's research lab specializes in computational materials science and catalysis, focusing on the design and mechanistic understanding of advanced electrocatalysts for sustainable energy conversion. The lab employs first-principles density functional theory (DFT) calculations and machine learning techniques to investigate active sites, reaction mechanisms, and electronic structure relationships in heterogeneous and single-atom catalysts for CO2 reduction and nitrogen reduction reactions. Key research directions include breaking scaling relations in electrocatalysis, engineering defect- and vacancy-based catalysts, and developing predictive descriptors for activity and selectivity. The lab aims to bridge theoretical insights with practical catalyst design for environmentally benign production of chemicals and fuels.
Professor Gi-Dong Sim's research lab specializes in the mechanical behavior and reliability of advanced materials for flexible and stretchable electronics, with a focus on nanoscale thin films and micro/nano-structured materials. The lab investigates size-dependent mechanical responses using advanced experimental techniques such as micro-cantilever bending and micro-pillar compression, combined with high-fidelity finite element modeling to validate higher-order theories like couple stress and strain gradient elasticity. Key research directions include enhancing the stretchability and fatigue resistance of printed and evaporated silver films on polymer substrates, as well as quantifying intrinsic length scale parameters in polycrystalline materials. The lab's work bridges fundamental mechanics with practical applications in next-generation flexible and wearable electronic devices.
Professor Sangyeob Kim's research lab specializes in energy-efficient artificial intelligence hardware, focusing on ultra-low power neuromorphic computing and deep learning processors. The lab develops innovative architectures for spiking neural networks (SNNs), convolutional neural networks (CNNs), and transformer-based large language models (LLMs), emphasizing hardware-software co-design to minimize power consumption and memory access. Key research directions include on-chip learning, weight pruning, and memory-efficient inference through novel circuit techniques such as sign-extended bit gating and 1-bit comparators. The lab also investigates sensor-integrated systems for real-time signal processing, particularly in dynamic environments like sloshing fluid dynamics.
Professor Haihua Wang's research lab specializes in the design, synthesis, and application of advanced functional nanomaterials, with a strong focus on core-shell nanostructures, metal-organic frameworks (MOFs), and conductive polymer composites. The lab explores plasmonic and catalytic properties of noble metal nanostructures such as Au@Pd nanodendrites and Au nanorod-based heterostructures for energy and environmental applications. It also investigates conductive polymer-based nanocomposites, particularly waterborne and graft-modified polyaniline systems, to enhance stability and performance for sensing and electronic applications. A key research direction involves developing MOFs with tailored porosity and surface chemistry for selective gas adsorption, especially CO₂ capture.
Professor Yunjie Xu's research lab specializes in the development of innovative phototherapeutic strategies for cancer therapy, with a strong focus on light-activated cell death mechanisms such as pyroptosis and photodynamic therapy. The lab pioneers the integration of advanced nanomaterials—particularly 2D MXene and rare-earth-based photocatalysts—into targeted, bioorthogonal, and stimuli-responsive systems for precise spatiotemporal control of therapeutic responses. By leveraging the unique properties of photoredox catalysis and iron metabolism modulation, the lab aims to overcome limitations of conventional chemotherapy and immunotherapy, especially in hypoxic and drug-resistant tumors.
Professor Dohyun Moon's research lab specializes in the design and synthesis of functional metal-organic architectures, with a focus on coordination-driven self-assembly of complex nanostructures such as nanocages, metallamacrocycles, and helical coordination networks. The lab explores stimuli-responsive behavior, including fluorescence switching and redox activity, in metal-organic frameworks and discrete molecular assemblies, often leveraging unique ligand geometries and metal-ligand interactions to achieve structural complexity and functional diversity. A central theme is the development of materials with tunable optical properties and enhanced stability for applications in sensing, optoelectronics, and catalysis.
Professor Jae Joon Kim's research lab specializes in advanced electronic and biomedical systems, focusing on the development of smart, adaptive, and high-performance devices for healthcare and human-machine interaction. Key research directions include skin-interfaced electronics for personalized medicine, frequency-selective sensors for noise-resistant human-machine interfaces, and integrated circuits for high-speed, low-jitter applications. The lab also investigates molecular mechanisms in plant development and immune responses in pediatric transplantation, demonstrating a multidisciplinary approach spanning nanotechnology, biomedical engineering, and molecular biology.
Professor Tae-Hoo Yi's research lab specializes in the green synthesis of metal nanoparticles using natural plant extracts and microbial systems, focusing on their biomedical applications. The lab investigates the antioxidant, anti-photoaging, and antibacterial properties of these nanoparticles and bioactive compounds, with an emphasis on skin health and tissue repair. Key research directions include the development of eco-friendly nanomaterials for dermatological applications and the molecular mechanisms underlying UV-induced skin damage and regeneration. The lab integrates advanced characterization techniques such as FE-TEM, XRD, and FT-IR to analyze nanoparticle properties and biological responses.
Professor Dong Hae Shin's research lab specializes in structural biology and biochemistry, focusing on the molecular mechanisms of viral proteases and enzyme function in pathogenic microorganisms. The lab investigates antiviral compounds, particularly flavonoids, that inhibit key viral enzymes such as 3C-like proteases (3CLpro) from coronaviruses including SARS-CoV, MERS-CoV, and SARS-CoV-2. Using techniques like X-ray crystallography, fluorescence-based binding assays, and structural analysis, the lab aims to identify and characterize potential therapeutic candidates. Additionally, the lab explores the structural and functional properties of bacterial enzymes, such as GTPases and phosphatases, contributing to understanding fundamental cellular processes and antimicrobial targets.
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.
