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 Il Sohn's research lab specializes in the thermophysical properties and structural evolution of complex oxide slags and molten glasses, particularly in ironmaking and steelmaking processes. The lab focuses on understanding the viscosity, structure, and phase behavior of multi-component calcium-silicate-based slags, with an emphasis on how oxide additions (e.g., BaO, CaF₂, B₂O₃, alkali oxides) influence slag polymerization and flow characteristics. Advanced spectroscopic techniques (Raman, FTIR, XPS, NMR) and rheological measurements are combined with thermodynamic modeling to correlate molecular-level structure with macroscopic properties.
Professor Hui Joon Park's research lab specializes in next-generation optoelectronic devices, with a primary focus on perovskite and polymer solar cells, photonic color filters, and high-efficiency tandem solar cells. The lab develops advanced materials and scalable fabrication techniques—such as nanostructured photonic filters and hole-transporting materials with tailored energy levels—to enhance power conversion efficiency, stability, and processability. Key research directions include interface engineering, morphology control in bulk heterojunction systems, and the integration of photovoltaics with color display technologies for energy-efficient electronics.
当研究室では、酸化物半導体や金属ナノ粒子を担持した触媒を用いた環境浄化反応、特にメタン燃焼およびNOx除去反応の触媒機構解明を主眼としています。PdやAgを酸化アルミニウムなど金属酸化物上へ均一に分散させ、粒子サイズや支持体の結晶相、金属-酸化物相互作用の違いが反応活性に与える影響を、高分解能電子顕微鏡やXAFS、FT-IRを用いて精密に分析しています。また、固体酸性触媒の設計や反応条件最適化によるグリーンケミストリー応用の可能性にも注力しています。
Ueki教授の研究室は、インスリン抵抗性やメタボリックシンドロームの分子メカニズムに焦点を当てており、特にSOCSタンパク質がインスリンシグナル伝達に与える影響を解明しています。肥満や慢性炎症状態におけるサイトコイニンの上昇が、SOCS-1およびSOCS-3の発現を亢進させ、インスリン受容体のチロシンリン酸化を阻害することでインスリン抵抗性を引き起こすメカニズムを解明しています。また、マクロファージの機能評価やPI3Kinase-Aktシグナル伝達経路の制御機構についても、代謝疾患の病態解明に貢献しています。
マーティン・マッツォク教授の研究室は、哺乳類の卵巣における卵母細胞の発生と機能を解明するため、TGF-βスーパーファミリーに属する成長因子（特にGDF-9やBMP15）の機能を分子・遺伝子レベルで解析しています。特に、卵母細胞と周囲の支持細胞との双方向的コミュニケーションが卵子形成や排卵にどのように寄与するかを、ノックアウトマウスや遺伝子操作モデルを用いて解明しています。また、卵子由来のシグナル分子が卵巣のホメオスタシスをどのように調節するのかも重要な研究テーマです。
大野真之教授の研究室は、全固体リチウムイオン電池やリチウム硫酸塩電池の開発を柱とし、高イオン伝導性を示す固体電解質の材料設計と、界面挙動・電気化学的安定性の解明に注力しています。特にリチウムイオンの高速移動を実現するリチウムチオリン酸塩系材料や、アーゲイロサイト系電解質の構造・物性関係の解明が中心です。また、電極・電解質界面の化学的・機械的劣化機構の解明を通じて、長寿命で高効率な全固体電池の実現に貢献しています。
Professor Yong-Hwan Lee's research lab focuses on understanding the molecular mechanisms underlying fungal pathogenesis, particularly in *Magnaporthe oryzae* (formerly *M. grisea*), the causal agent of rice blast. The lab investigates fungal development, including appressorium formation and morphogenesis, and identifies key virulence factors such as transcription factors, secreted effectors, and pathogenicity genes that enable pathogens to overcome host immunity. A central theme is the characterization of effector proteins—especially nuclear effectors—that manipulate host gene expression to promote infection. The lab also explores fungal-plant interactions through functional genomics, reverse genetics, and host-induced gene silencing approaches.
Professor Rezzy Eko Caraka's research lab specializes in environmental and spatial data science, focusing on air quality monitoring, climate change impacts, and disaster vulnerability assessment. The lab integrates advanced statistical and machine learning methods—such as LSTM neural networks and spatial statistics— to analyze environmental time series and geospatial data. Research directions include pandemic-related air pollution dynamics, weather forecasting, and social vulnerability modeling in disaster-prone regions like West Papua. The lab also emphasizes practical applications through open-source tools, particularly using R software for spatial and spatio-temporal analysis.
福井守教授の研究室は、半導体材料を用いた光触媒反応の効率化に注力しており、特に可視・近赤外光を効率的に吸収する新規ナノ材料の開発と、光誘起電荷分離のメカニズム解明を柱としています。Tetrathiophene-C60系分子における電荷分離・再結合の動的挙動や、ブラックホワイトリン酸化物/チタニアヘテロ構造を用いた水素発生触媒の研究を通じて、太陽エネルギー変換の高効率化を追求しています。また、ニッケルドーピングによる硫黄原子の触媒活性化など、表面状態制御による反応性向上の研究も展開しています。
Professor Yong-Jin Yoon's research lab specializes in advanced materials and microfluidic technologies with a focus on biomedical applications and environmental sensing. The lab develops innovative 3D-printed microfluidic devices and tissue engineering scaffolds using biocompatible polymers like polycaprolactone (PCL) and PCL-CNT composites, emphasizing structural precision, mechanical performance, and biological compatibility. Additionally, the lab investigates the hygroscopic behavior of airborne particulate matter and its impact on atmospheric visibility, employing statistical modeling and sensor technology. A significant portion of the research also involves the design of efficient, catalyst-free acyl transfer agents for synthetic chemistry, particularly in the formation of carbamates and ureas with broad functional group tolerance.
Professor So Hee Kwon's research lab focuses on epigenetic regulation in cancer and disease, with a central emphasis on chromatin-modifying proteins such as HP1 and KDM4 histone demethylases. The lab investigates how these proteins regulate gene expression, chromatin dynamics, and cell fate decisions in both heterochromatin and euchromatin contexts. Key research directions include the molecular mechanisms of HP1 in transcriptional regulation and DNA damage response, as well as the development of selective inhibitors for KDM4 enzymes as potential therapeutic agents. The lab integrates biochemical, cell biological, and proteomic approaches to uncover novel epigenetic targets in cancer and neurodevelopmental disorders.
Professor Seok Hoon Jeong's research lab specializes in antimicrobial resistance (AMR) mechanisms, particularly focusing on the molecular epidemiology and genetic dissemination of carbapenem-resistant and extended-spectrum beta-lactamase (ESBL)-producing Gram-negative pathogens such as *Pseudomonas aeruginosa*, *Klebsiella pneumoniae*, *Escherichia coli*, and *Acinetobacter baumannii*. The lab investigates the role of mobile genetic elements—including integrons, plasmids, and transposons—in the horizontal spread of resistance genes like *bla*<sub>NDM</sub>, *bla*<sub>VIM-2</sub>, *bla*<sub>OXA-23</sub>, and *bla*<sub>CTX-M-14</sub>. Utilizing molecular diagnostics, MALDI-TOF MS, and advanced genotyping techniques, the lab contributes to understanding resistance mechanisms and improving clinical diagnostics for multidrug-resistant infections in Korea and beyond.
Professor Wan Ki Bae's research lab specializes in the design, synthesis, and application of colloidal quantum dots for optoelectronic devices. The lab focuses on developing high-performance, solution-processable quantum dot materials with tailored optoelectronic properties, emphasizing enhanced photoluminescence quantum yield, stability, and device efficiency. Key research directions include core/shell heterostructures with composition gradients, interfacial alloying engineering, and surface passivation strategies to suppress non-radiative recombination. The lab applies these materials to practical optoelectronic devices such as light-emitting diodes (QLEDs), photodetectors, and solar cells, with a strong emphasis on structure-property relationships and scalable fabrication methods.
鈴木孝紀教授の研究室は、π電子系分子の赤外応答性と赤色反応性を活用した新規エレクトロクロミック材料の設計を柱としています。特に、硫化水素（H₂S）に応答する蛍光プローブや、スピン状態や分子構造を外部刺激で制御できる過剰立体障害性エチレン誘導体の開発が進んでいます。これらの材料は生体イメージングやスマートマテリアル応用に向けた基盤技術を提供しています。
Professor Eue-Keun Choi's research lab specializes in cardiovascular epidemiology and digital health, focusing on real-world evidence from national health claims databases and wearable device data. The lab investigates atrial fibrillation (AF) mechanisms, risk factors, and outcomes, with particular emphasis on arrhythmia triggers like intra-atrial conduction abnormalities (ICNA), the impact of comorbidities such as cancer, and the role of lifestyle factors like exercise. Advanced analytics, including deep learning for photoplethysmographic (PPG) signal interpretation, are employed to improve early AF detection, especially in challenging cases with premature atrial complexes.
Hayato Tsurugi教授の研究室では、希土類元素を用いた新規触媒系の開発に注力しており、特にセリウム(IV)錯体を用いた光酸化的なC–HおよびC–COOH結合の機能化反応が中心です。青色LEDを用いた可視光誘導反応により、アルキルカルボン酸からアルデヒドやケトンを効率的に合成する新規な脱カルボキシル化酸化反応が確立されています。また、バナジウムやタナールなどのd-区金属錯体を用いたC–H結合の直接的機能化や、マグネシウムを用いた新しい均一触媒反応の可能性についても探求しています。
Professor Jung-Hoon Kim's research lab specializes in intelligent robotics and biomechatronics, focusing on the development of advanced assistive devices and humanoid robots for human-centered applications. Key research directions include wearable robotic systems such as exoskeletons and prostheses, with an emphasis on human-robot interaction, real-time control strategies, and energy-efficient actuation using smart materials like magnetorheological fluids. The lab also investigates electromagnetic modeling for biomedical applications and sustainable construction technologies through 3D concrete printing, reflecting a multidisciplinary approach combining robotics, biomechanics, and smart materials.
Hideko Koshima教授の研究室では、分子結晶の光力学的挙動に着目し、光照射によって生じる微小な分子配列の変化が、マクロな機械的運動にどのように変換されるかを解明しています。特に、UV光照射による分子の異性化反応が結晶内部に応力勾配を生じさせ、可逆的な曲げ運動を引き起こすメカニズムをX線結晶構造解析を用いて解明しています。この研究は、光駆動型マクロなアクチュエータやスマートマテリアルの開発に応用可能です。
Professor Yong Soo Cho's research lab specializes in advanced functional ceramics and thin films, with a strong focus on materials for energy conversion and electronic applications. Key research directions include the development of perovskite-based solar cells, piezoelectric thin films for energy harvesting and sensing, and low-temperature co-fired ceramics (LTCC) with tailored dielectric and mechanical properties. The lab also investigates the mechanical flexibility and strain engineering of halide perovskites, aiming to enhance their performance in flexible and wearable electronics.
Professor Ick Chan Kwon's research lab specializes in nanomedicine and nanobiotechnology, focusing on the design and application of multifunctional nanoparticles for cancer diagnosis and therapy. The lab develops advanced nanoscale systems that enable tumor-targeted delivery of imaging agents and therapeutic drugs, supporting precision medicine and theranostics. Key research directions include multimodal imaging, personalized cancer treatment, and the integration of diagnostic and therapeutic functions within a single nanoparticle platform. The lab leverages nanotechnology and molecular imaging to enhance early cancer detection and improve treatment efficacy.
