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 Liwei Lin's research lab specializes in advanced functional materials and their applications in biomedicine and energy technologies. The lab focuses on developing smart hydrogels, 3D-printed biomaterials, and nanostructured composites for wound healing, tissue engineering, and personalized medical devices. Key research directions include stimuli-responsive hydrogels, conductive polymer composites for wearable sensors, and heteroatom-doped porous carbon for high-performance energy storage. The lab integrates materials science, biomedical engineering, and sustainable fabrication techniques to create next-generation solutions for healthcare and energy challenges.
Professor Jae Hong Kim's research lab specializes in cementitious materials and concrete technology, with a strong focus on rheology, durability, and sustainable concrete solutions. The lab investigates the flow behavior and formwork pressure of self-consolidating concrete, the role of mineral admixtures in reducing lateral pressure, and the impact of CO₂ curing on strength development and carbonation. Key research directions include optimizing concrete mix designs for improved workability and formwork performance, advancing rheological measurement techniques, and exploring carbon utilization through CO₂ curing to reduce environmental impact. The lab also contributes to the development of predictive models for concrete pumping and the evaluation of lubricating layers in pipeline flow.
Professor Dae-Ok Kim's research lab specializes in the comprehensive analysis of natural polyphenolics in plant-based foods, focusing on their antioxidant capacities, phenolic profiles, and biological activities. The lab employs advanced analytical techniques such as HPLC and spectrophotometric assays to quantify total phenolics, flavonoids, and anthocyanins, while evaluating their health-promoting potential using vitamin C equivalent antioxidant capacity (VCEAC) as a standard metric. A key research direction involves linking the chemical composition of fruits—such as apples, plums, cherries, and others—to their neuroprotective and antioxidant effects, particularly in relation to chronic disease prevention. The lab also explores the design of functional materials, including hierarchical porous metal–organic frameworks and carbon nitride foams, for applications in catalysis and environmental technologies.
Iwatsubo教授の研究室は、アルツハイマー病をはじめとする神経変性疾患の病態解明を目的としており、特にアミロイドベータ蛋白（Aβ）の異常な蓄積とその病態への関与を分子神経病理学的手法を用いて解明しています。Down症候群患者脳を用いたAβ40とAβ42の時間的・空間的蓄積パターンの解析を通じて、病態発症の初期段階におけるAβ42優位の蓄積が神経変性の原因である可能性を示しています。また、特異的抗体を用いたアミロイドプラグの精確な識別技術の開発にも貢献しています。
神田知人教授の研究室では、金属酸化物および層状水酸化物を用いた環境浄化技術に注力しています。特に、尿素や塩酸、アンチモン(V)などの水中汚染物質を効果的に除去する吸着・置換反応のメカニズムを解明しています。活性炭やMg-Al酸化物、層状水酸化物（LDH）を応用したナノ構造材料の開発が中心であり、反応機構の解明と実用化に向けた基盤技術の確立を目指しています。
Kato教授の研究室では、プラチナ(II)および銅(I)を含む金属錯体を用いた発光性結晶材料の開発を主軸としています。特に、環境刺激（蒸気、圧力、温度変化など）に応じて色や発光が著しく変化する「ソフト結晶」の創出とそのメカニズム解明に注力しており、結晶の秩序性と柔軟性を両立する新規機能材料の創出を目指しています。発光のメカニズムとしての金属-金属相互作用や電荷移動状態の制御も深く関与し、センシングやディスプレイ応用に向けた応用研究も展開されています。
Professor Sang-Bae Ko's research lab specializes in cerebrovascular and critical brain injury, with a focus on optimizing neurological outcomes following subarachnoid hemorrhage, ischemic stroke, and cardiac arrest. The lab investigates hemodynamic and metabolic monitoring strategies—such as cerebral perfusion pressure (CPP) and brain tissue oxygenation (PbtO2)—to guide individualized treatment and prevent secondary brain injury. A key research direction involves understanding and mitigating ischemia-reperfusion injury through mechanisms like oxidative stress and cellular senescence, with emerging interest in senolytic therapies as potential neuroprotective interventions. The lab also contributes to evidence-based guidelines for endovascular recanalization therapy in acute ischemic stroke, particularly in extended time windows for selected patients.
Professor Hokyou Lee's research lab specializes in cardiovascular and metabolic health, with a focus on identifying early risk factors for cardiovascular disease in young and middle-aged adults. The lab investigates the interplay between hypertension subtypes, socioeconomic factors, and metabolic liver disease in predicting cardiovascular outcomes. Key research directions include risk stratification using blood pressure phenotypes, the impact of lifestyle and socioeconomic status on treatment adherence and mortality, and the role of liver fibrosis in systemic cardiovascular complications among patients with type 2 diabetes. The lab employs large-scale national cohort studies to translate clinical and epidemiological insights into preventive strategies.
Professor Taeyoon Lee's research lab specializes in advanced functional materials and flexible electronics, with a focus on stretchable conductive fibers, wearable sensors, and bioinspired surface engineering. The lab develops next-generation electronic textiles and interconnects by integrating nanomaterials such as silver nanowires and graphene into elastomeric matrices, enabling high conductivity, mechanical robustness, and long-term reliability under deformation. Key research directions include the design of capacitive pressure sensors inspired by natural porous structures, ultrathin graphene diffusion barriers for copper interconnects, and energy-harvesting textiles for sustainable wearable applications.
Professor Kyeounghak Kim's research lab specializes in the design and mechanistic understanding of advanced functional materials for sustainable energy and environmental applications. The lab focuses on heterogeneous catalysis, particularly the development of ceria-based and perovskite-type oxides for CO oxidation, dry reforming of methane, and nitrous oxide reduction. By integrating advanced theoretical calculations—especially density functional theory (DFT)—with precise synthesis and characterization techniques, the lab uncovers structure-activity relationships at the atomic level. A key research direction involves engineering surface and electronic structures through doping, shell thickness control, and oxygen vacancy engineering to enhance catalytic activity and stability.
Professor Yongteng Qian's research lab specializes in the design and synthesis of advanced functional nanomaterials for sustainable energy and environmental applications. The lab focuses on developing novel photocatalysts, electrocatalysts, and nanogenerators based on metal-organic frameworks (MOFs), transition metal dichalcogenides, and heterostructured nanomaterials. Key research directions include phase engineering, defect modulation, and interfacial microenvironment control to enhance catalytic and energy conversion performance. The lab also explores applications in hydrogen evolution, water splitting, environmental remediation, and high-performance flexible energy harvesters.
Professor Muhammad Abdul Basit's research lab specializes in the design and synthesis of advanced nanomaterials for next-generation energy storage and conversion technologies. The lab focuses on atomic layer deposition (ALD) as a key technique to engineer functional nanocoatings and nanostructured materials, particularly metal sulfides and electrode materials for rechargeable batteries. Research directions include enhancing structural stability, energy density, and cycle life of battery components through precise nanoscale engineering. The lab also explores novel nanomaterial synthesis strategies to address challenges in sustainable and high-performance energy systems.
Professor Jae Su Yu's research lab specializes in the design, synthesis, and application of advanced functional materials for energy conversion and storage, with a strong focus on luminescent phosphors and electrochemical energy devices. The lab explores novel oxide-based materials—particularly rare-earth doped phosphors and vanadium-based oxides—for applications in solid-state lighting, temperature sensing, and next-generation batteries such as aqueous zinc-ion and multivalent ion batteries. Key research directions include nanostructure engineering, interface modulation, and the integration of carbon materials to enhance electrochemical performance and thermal stability.
Professor Goo Taeg Oh's research lab focuses on the role of oxidative stress and redox regulation in inflammatory and degenerative diseases, particularly in cardiovascular and neurodegenerative conditions. The lab investigates how antioxidant enzymes such as SOD1, PRDX1, and other redox-sensitive molecules modulate autophagy, immune cell function, and endothelial inflammation in diseases like colitis, ischemic stroke, atherosclerosis, and myocardial injury. Using advanced techniques including single-cell RNA sequencing, lineage tracing, and genetic models, the lab explores the functional heterogeneity of immune cells—especially macrophages, dendritic cells, and microglia—under oxidative stress. Their work bridges innate immunity, redox biology, and metabolic regulation in tissue homeostasis and pathology.
佐藤恒行教授の研究室では、セルロースをナノスケールで解体・機能化することで、高強度・高耐久性を有するセルロースナノファイバーの創出をめざしています。TEMPO触媒酸化を用いた選択的ケイ酸化とその後の機械的分散処理により、水に分散可能な高結晶性セルロースナノファイバーの効率的合成を実現。その応用として、透明で高粘度の分散液や、力学的特性に優れたセルロースナノファイバー膜・エアロゲルの開発も進めています。
大島貴志教授の研究室は、有機合成化学の分野において、特に酸化的・触媒的反応の開発に注力しています。特に、化学選択性を制御する新しい触媒系の設計、特に亜鉛クラスターを用いた高効率なO-アシル化や、白金触媒を用いたアリルアルコールの直接的アミナート化反応の開発が特徴です。また、不斉反応を用いた天然物の全合成や、エナンチオ選択性を高める反応条件の最適化にも貢献しています。環境に配慮した原子効率の高い反応手法の開発も重要な研究テーマです。
Professor Joon Hak Oh's research lab specializes in the design, synthesis, and application of advanced organic semiconductors for next-generation electronic devices. The lab focuses on developing high-performance n-channel organic field-effect transistors and phototransistors using tailored molecular structures such as naphthalene tetracarboxylic diimides (NDIs) and perylene diimides (PDIs), with an emphasis on structural control, charge transport optimization, and solution-processable fabrication. Key research directions include the creation of nano/microwires and chiral supramolecular architectures for flexible, wearable, and bioelectronic applications, with a strong focus on stability, mobility, and real-time sensing capabilities. The lab also explores the structure–property relationships in organic semiconductors to enable practical deployment in point-of-care diagnostics and sustainable electronics.
Professor Haksoo Ko's research lab focuses on the intersection of law, technology, and public policy, with a particular emphasis on data privacy, artificial intelligence governance, and the legal implications of machine learning in regulatory and economic contexts. The lab explores how emerging technologies—especially AI and big data—challenge traditional legal frameworks, particularly in areas such as algorithmic discrimination, corporate insolvency reform, and the enforcement of data protection laws. Drawing on comparative law and Asian legal systems, the lab investigates both forward-looking regulatory design and the practical limitations of judicial remedies in complex technological contexts. The research also examines the transformation of legal institutions, such as Korea’s Unified Bankruptcy Act, to adapt to modern economic and technological realities.
Professor Hyunjoo J. Lee's research lab specializes in the development of advanced micro- and nanoscale sensors for biomedical and environmental applications. The lab focuses on creating highly sensitive, miniaturized resonant sensors—particularly capacitive micromachined ultrasonic transducers (CMUTs)—for real-time detection of gases, vapors, and biomolecules at ultra-trace levels. Key research directions include the integration of mesoporous materials and biocompatible adhesives (e.g., calcium-modified silk fibroin) to enhance sensor performance and biointerfacing, as well as the design of implantable and wearable neuromodulation systems using focused ultrasound. The lab also emphasizes system-level integration, including low-power CMOS circuits and noise-reduction techniques, to enable practical deployment in consumer, defense, and clinical settings.
Professor Hye Hyun Yoo's research lab specializes in pharmaceutical and biomedical sciences, with a strong focus on drug metabolism, pharmacokinetics, and the role of gut microbiota in drug response. The lab investigates drug repurposing for infectious diseases such as COVID-19, explores the impact of host-microbe interactions on drug bioavailability, and examines the effects of natural compounds—particularly citrus flavonoids—on drug transporters like P-glycoprotein. Additionally, the lab develops advanced biomaterials, such as GelMA-silica composites, for tissue engineering and 3D bioprinting applications.
