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 Jayoung Kim's research lab specializes in the development of wearable, noninvasive bioelectronic systems for real-time health monitoring. The lab focuses on designing flexible, printable electrochemical sensors for continuous detection of biomarkers in various biofluids—such as sweat, interstitial fluid, saliva, and tears—using enzyme-based transduction and advanced materials. Key innovations include wearable platforms for simultaneous multi-fluid sampling, iontophoretic drug delivery for sweat induction, and soft, implantable-like devices for continuous monitoring. The lab's work bridges materials science, bioelectronics, and biomedical engineering to enable point-of-care diagnostics and personalized health monitoring.
Professor Woo-Sik Kim's research lab specializes in the mechanics and transport phenomena in biological and soft materials, with a focus on hemodynamics and crystallization processes. The lab investigates macromolecular transport in arterial walls using coupled mechano-hydraulic and fiber matrix models, aiming to understand how hemodynamic forces influence solute distribution and vascular permeability. Additionally, the lab explores the role of Taylor vortex flows in enhancing crystallization efficiency, particularly in controlling nucleation, growth, and particle size distribution in various crystallization processes. These interdisciplinary studies bridge fluid mechanics, biophysics, and materials science to address challenges in cardiovascular health and industrial crystallization.
Professor Ho-Jin Song's research lab specializes in terahertz (THz) wireless communications and high-frequency electronic systems, focusing on advancing ultra-broadband wireless connectivity for future 6G networks. The lab develops advanced semiconductor devices, such as uni-travelling carrier photodiodes and high-speed modulators, to enable data transmission rates exceeding 100 Gbps at THz frequencies. Key research directions include the design of high-performance THz transceivers, integrated circuit packaging for millimeter- and sub-millimeter-wave systems, and the development of low-loss, high-gain antennas and components for short-range, high-capacity communication links. The lab also explores photonic and electronic integration techniques to overcome the challenges of signal integrity and bandwidth limitations at extremely high frequencies.
Professor Hiroyuki Ohbe's research lab focuses on critical care medicine, with a primary emphasis on understanding and improving outcomes for critically ill patients, particularly those with chronic critical illness (CCI) and post-acute critical illness conditions. The lab investigates the clinical, economic, and long-term functional burdens associated with prolonged critical illness, including outcomes related to mechanical ventilation, weaning, and post-ICU dependence. Using large-scale national databases and systematic reviews, the lab contributes to evidence-based care strategies, optimal use of critical care resources such as HDUs and ICUs, and improved prognostic communication with patients and families. The lab also examines trends in in-hospital cardiac arrest (IHCA) and their implications for healthcare system performance and patient survival in Japan.
Professor Hongruixuan Chen's research lab specializes in advancing deep learning and computer vision techniques for remote sensing applications, with a strong focus on change detection in very-high-resolution and multimodal satellite imagery. The lab explores innovative architectures—such as Transformers, Mamba, and Siamese networks—tailored to address challenges like domain shift, modality heterogeneity, and long-range spatial dependencies in geospatial data. Key research directions include unsupervised and self-supervised learning for data-efficient change detection, structural representation learning, and the integration of OpenStreetMap with optical imagery for enhanced land-cover monitoring.
Professor Tomoki Ebata's research lab specializes in hepatobiliary and pancreatic surgery, with a focus on improving outcomes for patients with biliary tract cancers. The lab investigates innovative surgical techniques such as hepatico-pancreato-duodenectomy (HPD) and portal vein embolization (PVE) to enhance resectability and reduce postoperative complications. Key research directions include optimizing surgical margins for curative resection, modulating immune and inflammatory responses through preoperative synbiotics, and refining the classification and management of perihilar cholangiocarcinoma. The lab also emphasizes evidence-based surgical strategies to improve long-term survival and quality of life in advanced biliary cancer patients.
Professor Ibrahim Mahariq's research lab specializes in computational electromagnetics and advanced materials for sustainable energy and environmental applications. The lab focuses on developing high-accuracy numerical methods—particularly the spectral element method (SEM)—for solving complex electromagnetic problems, with applications in photonic devices, floating photovoltaic systems, and electromagnetic scattering. Additionally, the lab investigates trihybrid nanofluids and functional nanomaterials for enhanced heat transfer and photocatalytic processes, targeting clean energy and water purification solutions.
Professor Takaya Terashima's research lab specializes in the design and synthesis of functional polymeric materials through controlled radical polymerization, with a focus on creating smart, self-assembled nanostructures in aqueous and non-aqueous environments. The lab develops stimuli-responsive and catalytically active polymers, particularly those incorporating transition metal complexes such as ruthenium, to achieve precise control over nanoarchitecture and reactivity. Key research directions include the formation of unimolecular micelles, core-shell microgels, and hierarchical supramolecular structures via intramolecular self-folding and crystallization-driven assembly. The lab also explores applications in catalysis, particularly oxidation reactions, leveraging the unique microenvironments created by these nanostructured polymers.
Professor Taku Obara's research lab focuses on clinical pharmacology and maternal-fetal medicine, with a strong emphasis on medication use during pregnancy and the accurate diagnosis of hypertension in clinical practice. The lab investigates drug exposure patterns before and during pregnancy using large-scale cohort data, such as the Japan Environment and Children's Study (JECS), to assess safety and inform clinical guidelines. Another key research direction involves identifying and managing challenging hypertension phenotypes, such as white-coat hypertension and masked uncontrolled hypertension, to improve patient outcomes through early detection and appropriate treatment. The lab integrates epidemiological data with clinical insights to enhance patient care and public health strategies in Japan and beyond.
Professor Osamu Suzuki's research lab specializes in biomaterials science and regenerative medicine, with a primary focus on synthetic calcium phosphate compounds and their applications in bone regeneration. The lab investigates the biological responses to various calcium phosphate materials—particularly octacalcium phosphate (OCP)—and their transformation into apatitic phases in vivo, demonstrating superior osteoconductive and bioresorbable properties. Research also extends to the molecular mechanisms of bone mineralization, including the role of proteoglycans and growth factors in osteoblast differentiation and mineralization. Additionally, the lab develops highly sensitive analytical methods for detecting drugs in biological samples, such as methamphetamine in human hair.
Professor Ki-Uk Kyung's research lab specializes in intelligent soft robotics and wearable assistive devices, focusing on the development of advanced tactile sensing and actuation technologies. The lab explores dielectric elastromers, shape memory alloys, and flexible polymer waveguides to create responsive, lightweight, and biologically inspired systems for human-machine interaction. Key research directions include soft robotic actuators for rehabilitation, transparent and flexible tactile sensor arrays, and tunable optical systems for dynamic vision applications. The lab emphasizes real-world applicability in healthcare, human augmentation, and human-centric robotics.
Professor Hyunjin Park's research lab specializes in medical image analysis and radiomics, with a focus on advancing diagnostic and treatment planning tools in oncology and neurology. The lab develops innovative imaging techniques such as probabilistic atlases, parametric PET/MRI, and radiomics signatures to improve the detection and prognosis of diseases like prostate cancer and breast cancer. It also investigates brain network alterations in neurodevelopmental disorders such as autism spectrum disorder using advanced fMRI analysis. The lab emphasizes reproducible, data-driven methodologies by integrating cutting-edge neuroimaging software pipelines.
Professor Baotao Kang's research lab specializes in the theoretical design and electronic property analysis of novel two-dimensional carbon allotropes, particularly graphyne and its derivatives, with a focus on their applications in energy conversion and storage. The lab employs advanced density functional theory (DFT) calculations to explore the electronic structures, catalytic activities, and surface reactivity of carbon-based nanomaterials, including oxygenated graphynes and doped perovskites. Key research directions include optimizing electrocatalysts for oxygen reduction and evolution reactions in fuel cells and aqueous zinc-ion batteries, as well as enhancing charge transfer and stability in next-generation energy devices. The lab also investigates the role of atomic doping and surface functionalization in tuning electronic properties for improved performance.
Professor Hiromi Sanada's research lab specializes in clinical gerontology and wound care, focusing on improving the health and quality of life in older adults. The lab investigates skin integrity, pressure ulcer healing, and nutritional assessment using advanced imaging and clinical tools, with an emphasis on preventive strategies and objective evaluation methods. Key research directions include the development and validation of clinical scoring systems like DESIGN and DESIGN-R for pressure ulcers, ultrasonographic assessment of tissue properties, and risk prediction models for complications in long-term care and surgical populations. The lab also explores patient-reported outcomes and psychosocial factors affecting health-related quality of life in chronic conditions such as lymphedema and skin fragility in the elderly.
Professor Vincent Tung's research lab specializes in the design, synthesis, and application of advanced two-dimensional and nanostructured materials for energy conversion, flexible electronics, and sustainable technologies. Key research directions include the development of solution-processable carbon nanomaterials—such as graphene, carbon nanotubes, and fullerenes—for transparent conductive films and optoelectronic devices; the engineering of multifunctional e-skin systems with high sensitivity and durability using 2D materials like MXene and conductive hydrogels; and the creation of stable, high-performance nanomaterials for energy storage and electrocatalysis, particularly focusing on molybdenum disulfide (MoS₂) in its metallic 1T phase. The lab emphasizes scalable, low-temperature fabrication methods that preserve intrinsic material properties while enabling integration into flexible and biocompatible platforms.
Professor Kazunari Akiyoshi's research lab specializes in the design and application of functional nanomaterials based on self-assembled polysaccharide-based hydrogels and polymers. The lab focuses on developing cholesterol-bearing pullulan and other hydrophobized polysaccharides to create stimuli-responsive, monodisperse nanoparticles with applications in drug delivery, protein refolding, and tissue engineering. A key research direction involves mimicking molecular chaperone mechanisms using nanogels to prevent protein aggregation and enhance refolding efficiency, particularly in conjunction with cyclodextrin-based disassembly. The lab also explores thermoresponsive and biodegradable hydrogel systems for regenerative medicine, especially in bone repair using growth factor delivery.
Professor Min Jae Lee's research lab focuses on the molecular mechanisms of protein degradation, particularly the N-end rule pathway and ubiquitin-proteasome system in mammalian cells. The lab investigates how N-terminal modifications and E3 ubiquitin ligases regulate the stability of key signaling proteins involved in development, angiogenesis, and disease. They also explore the role of proteasome dynamics, autophagy, and extracellular vesicles (exosomes) in cellular homeostasis and metabolic disorders. Their work integrates biochemistry, cell biology, and translational approaches to identify novel biomarkers and therapeutic targets in acute kidney injury and metabolic diseases.
Professor Jongsik Chun's research lab specializes in microbial genomics and bioinformatics, focusing on the development of computational tools and databases for prokaryotic taxonomy and systematics. The lab pioneers the use of 16S rRNA gene and whole-genome sequence data to improve the identification, classification, and evolutionary understanding of bacteria, particularly through the creation of reference databases like EzTaxon and UBCG2. Their work emphasizes the integration of genomic data with traditional microbiological methods to establish robust, standardized approaches for bacterial species delineation and phylogenetic analysis.
Professor Joon Ho Wang's research lab specializes in orthopedic tissue engineering and regenerative medicine, with a focus on developing advanced 3D bioprinted constructs for musculoskeletal repair. The lab investigates bioactive hydrogels—particularly those based on atelocollagen and supramolecular hyaluronic acid—engineered for mechanical stability and cellular integration to regenerate complex tissues such as osteochondral defects in the knee. Their work also extends to surgical biomechanics, including the evaluation of posterior cruciate ligament and posterolateral corner injuries, aiming to improve clinical outcomes through precise anatomical reconstruction and biomechanical assessment.
Professor Yuan Gao's research lab focuses on human-computer interaction, user behavior analysis, and the psychological and cognitive aspects of technology use, particularly in digital environments such as mobile gaming, e-commerce, and online education. The lab explores affective computing through touch behavior analysis, develops cognitive models of trust and user attitude in virtual settings, and investigates the role of entrepreneurship education and self-efficacy in shaping student intentions. Additionally, the lab applies advanced machine learning techniques, including interpretable deep learning models like KAN, to improve prediction accuracy and transparency in renewable energy forecasting.
