世界の主要大学の研究室を探索 — 研究分野と主要論文を一目で確認できます。
Professor Beom Sun Chung's research lab specializes in digital and educational anatomy, focusing on the development of innovative visual and interactive tools for anatomy education. The lab pioneers the creation of 3D volume models, virtual dissection platforms, and educational comics from high-resolution, serially sectioned cadaveric images, enhancing self-learning and accessibility in medical education. Key research directions include the integration of free software with virtual dissection tables, the reconstruction of anatomical structures for digital learning, and the production of open-access educational resources for students and researchers worldwide. The lab emphasizes user-friendly, visually intuitive materials that bridge traditional anatomy with modern digital technology.
Professor Min Jae Ko's research lab specializes in advanced materials for renewable energy applications, with a strong focus on perovskite solar cells, flexible and stretchable optoelectronic devices, and energy storage materials. The lab develops novel functional materials such as doped perovskites, polymeric hole-transport layers, shape-recoverable substrates, and MXene-based composites to enhance device efficiency, stability, and mechanical robustness. Key research directions include improving moisture tolerance in perovskite solar cells, enabling low-temperature processing for flexible devices, and overcoming conductivity and ion diffusion limitations in 2D nanomaterials. The lab also employs molecular dynamics simulations to understand fundamental crystallization processes in polymers, supporting materials design at the atomic level.
Professor Sungkyu Jung's research lab specializes in high-dimensional statistics, statistical signal processing, and manifold-based data analysis, with a strong focus on dimension reduction, principal component analysis in high-dimensional settings, and geometric modeling of symmetric positive-definite matrices. The lab develops novel methodologies for clustering angular data on toroidal manifolds, particularly motivated by biological applications such as protein structure analysis, and advances interference management techniques in wireless communications through innovative interference alignment and cancellation schemes. Their work bridges theoretical statistics with practical applications in bioinformatics, signal processing, and wireless networks.
Professor Hun Ho Park's research lab specializes in skull base surgery and neurosurgical endoscopy, with a focus on minimally invasive approaches for complex intracranial and spinal pathologies. The lab investigates innovative surgical techniques such as endoscopic transorbital approach (ETOA) for trigeminal schwannomas and paraclinoid meningiomas, emphasizing brain-sparing trajectories and improved visual outcomes. It also explores long-term tumor behavior after incomplete resection of vestibular schwannomas and develops reliable methods for managing cerebrospinal fluid leaks. Additionally, the lab contributes to spinal stabilization technologies, particularly dynamic systems that preserve motion and reduce adjacent segment degeneration.
Professor Jongbum Seo's research lab specializes in ultrasound-mediated drug delivery and biomedical ultrasound applications, focusing on the development of advanced microbubble and liposome-based carriers for enhanced transdermal and targeted drug delivery. The lab investigates cavitation dynamics, ultrasound-induced tissue permeability, and the design of ultrasound contrast agents (UCAs) with tailored mechanical and structural properties for both diagnostic and therapeutic use. A key research direction involves engineering microbubbles and echogenic liposomes to optimize cavitation activity and genetic material protection, enabling efficient ultrasound-triggered delivery. The lab also explores focused ultrasound safety mechanisms, such as anti-foci, to improve therapeutic precision and reduce unintended tissue effects.
Professor Dae Ho Yoon's research lab specializes in the design and synthesis of advanced nanomaterials for energy conversion and storage applications. Key research directions include the development of doped and defect-engineered graphene-based heterostructures for supercapacitors, perovskite quantum dot films for efficient white-light LEDs, and novel oxide crystals for nonlinear optical applications. The lab also investigates functional materials for lithium-air batteries and transparent conductive electrodes, emphasizing structural control and interface engineering to enhance device performance.
尿素教授の研究室は、がんの術中診断を支援するための高感度で選択性の高い蛍光プローブの開発を主軸としています。特に、がん特異的な酵素（例如：γ-グルタミルトランスペプチダーゼ、β-ガラクトシダーゼ）を標的にした、即時活性化型の蛍光プローブの設計・合成に注力しています。従来のプローブでは達成できなかった低背景・高速反応性を実現し、1mm未満の微小ながん巣の可視化にも成功しています。
Professor Dukhyun Choi's research lab specializes in the development of advanced nanogenerators and energy harvesting systems, with a focus on triboelectric and piezoelectric nanogenerators for self-powered devices. The lab explores innovative materials and nanostructures—such as graphene, ZnO nanorods, and nanoporous arrays—to enable flexible, transparent, and wearable energy harvesters that convert mechanical and fluidic energy into electricity. Key research directions include interfacial engineering, structural tunability, and scalable fabrication for real-world applications in smart textiles, microfluidics, and environmental energy harvesting. The lab also emphasizes practical integration of these devices into autonomous sensing systems and portable electronics.
Professor Gao-Feng Han's research lab specializes in the development of advanced electrocatalysts and nanomaterials for sustainable energy conversion and storage. The lab focuses on fundamental and applied research in electrocatalysis, particularly for hydrogen evolution, oxygen reduction, and hydrogen peroxide synthesis, using earth-abundant and cost-effective materials. Key research directions include single-atom catalysis, nanostructured carbon materials, and the design of durable, high-performance catalysts for fuel cells and green hydrogen production. The lab integrates experimental synthesis with advanced theoretical calculations, such as density functional theory, to elucidate reaction mechanisms and guide rational catalyst design.
Professor Junsik Park's research lab focuses on translational and clinical oncology, particularly in gynecologic malignancies such as epithelial ovarian cancer (EOC). The lab investigates immune microenvironment dynamics, especially the role of CD8+ T cells and response to immune checkpoint inhibitors like anti-PD-1, with a strong emphasis on how *BRCA1/2* mutation status influences treatment outcomes. They also explore the efficacy and safety of novel therapeutic strategies, including bevacizumab-containing neoadjuvant chemotherapy, aiming to improve progression-free and overall survival in advanced ovarian cancer. Their work bridges pathology, immunotherapy, and clinical trial design, with a focus on identifying biomarkers and personalized treatment approaches.
Professor Bennett Holman's research lab focuses on the epistemology and ethics of science in the context of industry funding, particularly within medical and pharmaceutical research. The lab investigates how financial incentives and institutional structures can systematically bias scientific communities without necessarily corrupting individual researchers, using formal modeling and historical analysis. A central theme is the tension between veritistic (truth-seeking) and commercial aims in science, and how this dynamic undermines the reliability of scientific inquiry. The lab also explores institutional solutions—such as citizen participation and independent funding—that may inadvertently exacerbate biases if not carefully designed.
Professor Cheorl-Ho Kim's research lab focuses on molecular mechanisms underlying cardiovascular diseases, cancer metabolism, viral pathogenesis, and inflammatory responses. The lab investigates key signaling pathways regulating matrix metalloproteinase-9 (MMP-9) in vascular smooth muscle cells, explores the metabolic reprogramming in cancer cells—particularly the Warburg effect—and examines host-virus interactions, including SARS-CoV-2 entry mechanisms via sialic acid receptors. Additionally, the lab studies natural compounds such as tanshinone IIA and ascochlorin for their therapeutic potential in modulating inflammation, migration, and apoptosis in disease models.
Professor Seongmin Heo's research lab specializes in process systems engineering with a focus on sustainable process design, advanced process monitoring, and energy-integrated systems. The lab develops data-driven and model-based methodologies for fault detection and classification using deep learning, particularly in unsupervised and semi-supervised settings. It also conducts techno-economic and life cycle analyses to evaluate the sustainability and commercial viability of novel chemical processes, such as one-step lactide synthesis and carbon capture and utilization (CCU) technologies. The lab further investigates control-relevant decomposition and model reduction of complex process networks to enable efficient and robust process control.
Professor Sukhoon Pyo's research lab specializes in sustainable and high-performance concrete technologies, focusing on the development of eco-friendly construction materials through the utilization of industrial by-products such as steelmaking slag, electric arc furnace (EAF) oxidizing slag, and supplementary cementitious materials (SCMs). The lab investigates the rheological behavior, mechanical performance, and environmental impacts of ultra-high-performance concrete (UHPC) and pervious concrete, with an emphasis on reducing cement content and CO₂ emissions. Key research directions include optimizing mix designs for structural durability and sustainability, enhancing workability and filling capability, and evaluating pore structure and acoustic properties in porous concrete systems.
Professor Hyun-Kyu Kim's research lab specializes in the development of advanced simulation techniques for microstructural evolution in materials, particularly using phase-field modeling combined with grain boundary energy databases to study phenomena such as grain growth and phase transformations in metals like bcc iron. In parallel, the lab focuses on integrated photonics and photonic-electronic systems, designing compact, intelligent, and self-calibrating silicon photonic integrated circuits for high-speed optical communication, including WDM receivers, modulators, and optical switch fabrics. The lab emphasizes real-time control systems—implemented via FPGAs and on-chip feedback mechanisms—to maintain optimal performance under environmental fluctuations such as temperature and optical power variations. These interdisciplinary efforts bridge materials science, computational modeling, and integrated photonics for next-generation functional devices.
Professor Ji-Hyun Jang's research lab specializes in the design and fabrication of advanced nanomaterials for sustainable energy and environmental applications. Key research directions include developing high-performance aqueous zinc-ion batteries using covalent organic frameworks (COFs) to suppress dendrite growth and corrosion, engineering efficient solar evaporators based on 3D graphene networks and bio-inspired materials for solar desalination, and creating multifunctional nanostructures for energy storage and shape-memory applications. The lab emphasizes scalable, low-cost fabrication techniques such as dip-coating, 3D printing, and chemical vapor deposition to enable practical deployment of these materials.
Professor Zhiqun Lin's research lab specializes in the design, synthesis, and application of advanced nanomaterials for sustainable energy and environmental technologies. Key research directions include the development of noble metal and metal oxide nanohybrids for photocatalysis and solar energy conversion, transition metal-based electrocatalysts for water splitting and fuel cells, and conductive hydrogels for flexible and wearable electronic devices. The lab emphasizes structure-property relationships and in situ characterization to understand dynamic surface processes in catalytic systems.
Mayumi教授の研究室では、スライドリング（Slide-Ring）をはじめとする動的自己修復性を持つ超分子ゲルやポリロタキサン系材料の分子設計と物性の解明を主なテーマとしています。特に、可動性クロスリンクがもたらす力学的・破壊的性質のメカニズムを、分子動力学シミュレーションや散乱測定を用いて解明しています。また、ゲルの柔ららかさ、弾性、靭性といった macrosopic 特性と、ミクロなクロスリンクのスライドダイナミクスとの関係を理論的に構築しています。
Professor Jihoon G. Yoon's research lab specializes in clinical and translational genomics, focusing on the genetic basis of neurogenetic and metabolic disorders. The lab employs advanced bioinformatics and molecular diagnostics to identify pathogenic repeat expansions and rare genetic variants associated with diseases such as spinocerebellar ataxias, myotonic dystrophy, and drug-induced liver injury. A key focus is on optimizing diagnostic pipelines using machine learning and targeted sequencing to improve precision medicine in complex conditions. The lab also investigates pharmacogenomic determinants of drug response, particularly in transplant and tuberculosis therapies.
Hamachi教授の研究室では、生体に重要なリン酸エステル誘導体の分子認識と蛍光センシングに注力しています。特に、水中でも安定に機能する小分子センサーの開発を進め、リン酸化タンパク質やヌクレオシドポリリン酸の高感度・高選択性検出を目指しています。金属イオンを配位子として用いた人工受容体の設計や、蛍光プローブの分子設計が中心的テーマです。
