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。
済々黒教授の研究室は、膜受容体を標的にしたペプチド医薬の開発と、その作用機構の解明を柱としています。特にパラセロモン受容体（PTH1R）やその関連シグナル伝達系を標的とした、短鎖ペプチドの構造機能関係や、アミノ酸置換による受容体活性制御の研究が進んでいます。また、天然由来の抗酸化物質を食品包装材料に応用するマイクロカプセル化技術の開発や、バイオマス由来のエネルギー資源の効率的利用についても、合成生物学的・化学的アプローチを用いて研究を展開しています。
Professor Sunkyu Han's research lab specializes in the development of innovative synthetic methodologies and their application to the total synthesis of complex natural products, with a particular focus on alkaloids. The lab emphasizes enantioselective synthesis, biomimetic transformations, and the chemical emulation of biosynthetic pathways to enable efficient and selective construction of structurally diverse natural products. A key direction involves the design of peptide-based catalysts for site-selective functionalization and the development of novel bond-forming reactions, such as visible-light-mediated cross-coupling, to streamline synthetic routes. The lab also investigates structure-activity relationships of bioactive natural products, particularly in the context of anticancer properties.
Professor Sang Ook Kang's research lab specializes in the design and synthesis of advanced organic and hybrid materials for renewable energy applications, with a strong focus on dye-sensitized solar cells, photocatalytic hydrogen and syngas production, and charge-transfer systems. The lab develops novel organic sensitizers, covalent dyads, and functionalized clusters—such as those incorporating o-carborane, triphenylamine, and transition metal catalysts—to enable efficient light harvesting, electron transfer, and catalytic activity under visible light. Their work emphasizes structure-property relationships in donor-acceptor systems, aiming to achieve high photovoltaic efficiency and stable, tunable photocatalytic performance.
Professor Woo Jong Yu's research lab specializes in advanced 2D materials and nanocarbon-based electronics, focusing on the development of flexible, transparent, and highly reliable nanoelectronic and optoelectronic devices. Key research directions include the integration of transition-metal dichalcogenides (e.g., MoS₂), graphene, and carbon nanotubes into van der Waals heterostructures for next-generation neuromorphic computing, non-volatile memory, and low-hysteresis logic circuits. The lab emphasizes innovative device architectures using defect-engineered graphene and carbon nanotube networks to achieve high performance, mechanical robustness, and optical transparency.
Professor Jong-Man Kim's research lab specializes in the design and application of stimuli-responsive functional materials, with a primary focus on polydiacetylenes (PDAs) and their supramolecular assemblies. The lab develops smart materials that exhibit reversible color and fluorescence changes in response to environmental stimuli such as temperature, light, and chemical agents, enabling applications in anti-counterfeiting, biosensing, and wearable diagnostics. Innovative fabrication techniques—such as inkjet printing and microfluidic integration—are employed to create patterned, flexible, and disposable sensors on paper and other substrates. The lab also explores hierarchical structural control of PDAs to tailor their optical and electronic properties for advanced sensing and display technologies.
Professor Jae Eun Oh's research lab specializes in cementitious materials and sustainable construction materials, with a focus on the hydration mechanisms, chloride binding behavior, and pore structure evolution in alkali-activated materials and ground granulated blast-furnace slag (GGBFS). The lab investigates the role of key phases such as monosulfoaluminate and C-A-S-H gels in anion exchange and immobilization, particularly under aggressive environments like seawater exposure. Using advanced characterization techniques like STXM, XANES, and XRD, the lab explores the long-term durability and performance of alternative cements, aiming to develop eco-friendly and durable construction materials.
Professor Yonghyun Lee's research lab specializes in the development of biocompatible, stimuli-responsive nanomaterials derived from endogenous molecules—particularly bilirubin—for targeted therapeutic applications. The lab focuses on leveraging the intrinsic biological activities of bilirubin, such as antioxidant, anti-inflammatory, and anticancer properties, to design smart drug delivery systems that respond to tumor microenvironment stimuli like reactive oxygen species (ROS) or external triggers such as light. Key research directions include nanotherapeutics for cancer immunotherapy, liver fibrosis, and inflammatory diseases, with an emphasis on enhancing drug delivery efficiency and reducing systemic toxicity. The lab also pioneers innovative prodrug strategies to improve the pharmacokinetics and safety profiles of existing drugs like celecoxib.
Ryo Tamura教授の研究室は、カーボンナノチューブやグラフェンをはじめとする二次元ナノ材料の電子構造と局所的電子状態に着目し、トポロジーと対称性の視点から欠际や欠际対がもたらす電子的性質を理論的に解明しています。特に、五員環や七員環による歪み（ディスクリネーション）が局在状態を形成するメカニズムや、その影響が電導度に及ぼす影響をシンプルなタイトバインディングモデルと数値的手法を用いて分析しています。近年では、ナノ材料の特性を制御するためのプロセス最適化や、機械学習を活用した材料開発にも展開しており、実用応用に向けた基盤研究を推進しています。
Tetsuro Majima教授の研究室では、太陽光を用いた効率的な水素生成技術の開発を主眼としており、特に2次元ヘテロ構造を用いたZ-スキーム光触媒の設計とその反応機構解明に注力しています。ブラックホワイト（BP）やビスマスバナジエート（BiVO₄）を用いた光触媒系は、外部バイアスや還元剤を一切使用せずに、自然な太陽光条件下で水を効率的に水素と酸素に分解する仕組みを実現しています。また、ナノスケールの触媒材料の電子移動挙動を高精度で解析するための時間分解光科学研究技術の応用も進んでいます。
Toshikazu Ono教授の研究室は、分子間相互作用に基づく多彩な機能性超分子系の設計と応用を柱としています。特に、B-Nダイナミック結合や電荷移動相互作用を活用した色調律可能な発光系の開発や、バイオセンシングとしての応用が目立ちます。環境中の有害揮発性有機化合物の検出や、DNA修復酵素のリアルタイム可視化といった、環境・医療分野への応用も進んでいます。
Chong Liu教授の研究室では、ゼオライトを用いた固体酸化触媒の構造・反応機構の解明を主軸としており、DFT計算と実験的手法（赤外分光法、XANES、オンライン質量分析など）を融合した包括的かつ定性的な研究が進められています。特に、銅やアルミニウムを含む金属サイトの酸性中心の性質、反応機構、および触媒反応における遷移状態の解明に注力しています。NOxの選択的還元（SCR）反応やCO2の触媒的還元反応など、環境関連触媒反応のメカニズム解明が中心的テーマです。
Professor Min Chul Suh's research lab specializes in the development of advanced organic semiconductors and optoelectronic materials for next-generation light-emitting devices. The lab focuses on designing high-efficiency phosphorescent and thermally activated delayed fluorescence (TADF) emitters, optimizing host materials for balanced charge transport and minimal energy loss, and engineering novel device architectures such as tandem and microcavity OLEDs. Key research directions include enhancing external quantum efficiency, improving device stability, and enabling scalable patterning techniques like laser-induced thermal imaging for flexible and high-resolution displays.
Professor Hunjoo Ha's research lab focuses on the molecular mechanisms underlying diabetic nephropathy and chronic kidney disease, with a central emphasis on oxidative stress and its downstream signaling pathways. The lab investigates the roles of reactive oxygen species (ROS), redox-sensitive transcription factors (such as NF-κB and Nrf2), and key mediators like TGF-β1 and MCP-1 in renal fibrosis and inflammation. Research spans cellular models, animal studies, and molecular signaling, particularly examining how high glucose, free fatty acids, and mitochondrial/peroxisomal dysfunction contribute to kidney injury. The lab also explores therapeutic strategies targeting antioxidant systems, such as the Nrf2-HO-1 pathway, for potential treatment of kidney disease.
Taro Hitosugi教授の研究室では、酸化チタンを基体とする透明導電酸化物（TCO）の開発に注力しています。特にニオブドーピングされたチタンドーオキサイド（TNO）を用いたエピタキシャル薄膜や多結晶薄膜の成長・特性評価を行い、インジウムスズ酸化物（ITO）に代わる次世代TCOの実現を目指しています。高透過率・低抵抗率・高温安定性・還元雰囲気下でも優れた耐久性を示す点が特徴で、太陽電池や発光デバイスへの応用が期待されています。
Takeda教授の研究室は、インナート免疫とそのシグナル伝達機構の解明を柱としており、特にToll様リセプター（TLR）やSTAT3、NF-κBなどの転写因子が免疫応答や発生に果たす役割を分子・遺伝子レベルで解明しています。特に、IL-6などのサイトコイシンがT細胞に与える影響や、Stat3が細胞生存と増殖を制御するメカニズムに注目し、自己免疫疾患やがんの治療戦略の基盤を築こうとしています。
Professor Dong-Kyu Kim's research lab specializes in intelligent transportation systems, with a focus on mobility-as-a-service (MaaS), shared mobility solutions, and sustainable urban transportation. The lab investigates user behavior, travel mode preferences, and demand forecasting for shared mobility services such as e-scooters and paratransit, integrating stated preference surveys and advanced data analytics. It also explores innovative technologies like UAV-based traffic monitoring and self-interference cancellation in wireless communications to enhance system efficiency and safety.
Professor Ghiseok Kim's research lab specializes in the development of advanced sensing and machine learning techniques for agricultural and environmental monitoring. The lab focuses on leveraging UAV-based imaging, thermal and spectroscopic sensing, and deep learning for automated detection, counting, and viability assessment of pests, crops, and plant health. Key research directions include intelligent pest monitoring using pheromone trap images, thermal imaging for seed viability and water stress detection in fruit trees, and spectral analysis for non-destructive quality evaluation of agricultural products.
Professor Heonjun Yoon's research lab specializes in the design, modeling, and reliability analysis of smart electromechanical systems with a focus on vibration energy harvesting and structural health monitoring. The lab develops advanced analytical and computational models for piezoelectric energy harvesters, including energy harvesting skins and phononic crystal-based devices, to enhance energy conversion efficiency and system durability. Key research directions include multi-scale feature extraction for fault diagnosis, electromechanical coupling modeling, and reliability assessment under physical uncertainties such as material variability and manufacturing tolerances. The lab also explores innovative concepts like segmented piezoelectric defects and synthetic negative capacitors to overcome limitations in bandgap tuning and energy harvesting performance.
Professor Seon-Jin Choi's research lab specializes in the design and fabrication of advanced nanomaterials for next-generation sensing applications, particularly in the field of noninvasive medical diagnostics. The lab focuses on developing highly sensitive and selective gas sensors using functionalized metal oxide nanostructures—such as WO₃ hemitubes and nanotubes—combined with noble metal nanoparticles and 2D materials like graphene. Key research directions include breath analysis for early detection of diseases like diabetes and halitosis, humidity sensing for wearable electronics, and ultrafast, low-cost fabrication techniques such as pulsed light reduction and electrospinning. The lab emphasizes real-time, portable, and wearable sensing platforms with enhanced performance through nanostructure engineering and surface functionalization.
Professor Shunan Zhang's research lab specializes in cognitive science and human-AI interaction, focusing on how individuals perceive, interact with, and become dependent on artificial intelligence in educational and decision-making contexts. The lab investigates the psychological mechanisms underlying AI usage behaviors—such as overreliance, self-disclosure in AI interactions, and learning through social media features like Danmu comments—using computational modeling and empirical methods. Key research directions include the application of Bayesian and sequential sampling models to understand human decision-making, the role of emotional and social cues in AI instruction, and the design of AI systems that support long-term learning and engagement.
