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。
Takashi Kobayashi教授の研究室は、前立腺がんや尿路上皮癌をはじめとする泌尿器がんの発症・進行メカニズムを、シグナル伝達経路（特にAR・cSrc・aPKC・Rheb/mTOR経路）の解析を通じて解明しています。特に、ホルモン療法耐性化のメカニズムや免疫チェックポイント阻害剤の予後予測因子の確立を目指しており、臨床応用に結びつく個別化医療の基盤を構築することを目的としています。
岡土健生教授の研究室は、膵がんのがん細胞と腫瘍微小環境の相互作用に注目し、放射線治療ががんの侵襲性を促進するメカニズムを解明しています。特に、線維芽細胞とがん細胞の共役培養やS100A6、miR-17-5p、CXCL5-CXCR2シグナルなど、がんの転移・浸潤に関与する分子標識の同定を進めています。また、生検組織や細胞画像解析を用いたがんの早期診断・予後予測のためのバイオマーカーの開発も重要な研究テーマです。
Ikramy A. Khalil教授の研究室は、非ウイルス性遺伝子デリバリー系の開発に注力しており、特に脂質ナノ粒子（LNP）やミネラルデリバリー系を用いた標的性の高い核酸医薬の送達技術の向上を目的としています。特に肺内皮細胞への標的送達や、siRNA・mRNAの効率的かつ安全な細胞内導入に向けたナノデバイスの設計・最適化が主な研究テーマです。pH応答性脂質やペプチド修飾を用いた内因性の細胞内シグナル制御や、内因性のエンドサイトーシス経路の制御も重要な研究分野です。
Professor Kuk-Jin Yoon's research lab specializes in advanced sensing technologies and computer vision, with a strong focus on developing low-power, high-performance sensor systems and intelligent image processing algorithms. The lab pioneers innovations in electronic nose (e-nose) systems using semiconductor metal oxide (SMO) gas sensors combined with deep learning to enhance selectivity and real-time detection in environmental monitoring. In parallel, the lab develops novel computer vision techniques for challenging tasks such as stereo matching and reflection separation, emphasizing robustness to image ambiguity and computational efficiency. The integration of nanomaterials, smart sensing, and artificial intelligence defines the lab’s interdisciplinary approach to solving real-world sensing and perception problems.
Professor Soojin Park's research lab specializes in the design and synthesis of advanced silicon-based nanomaterials for next-generation energy storage applications, particularly in high-performance lithium-ion batteries. The lab focuses on developing innovative nanostructures—such as porous silicon, core-shell architectures, and covalent triazine frameworks—that enable high specific capacity, exceptional rate capability, and long-term cycling stability. By employing scalable and cost-effective processes like metal-assisted chemical etching, thermal annealing, and chemical activation, the lab creates binder-free, self-supporting electrodes with enhanced volumetric and gravimetric performance. Their work bridges fundamental materials science with practical battery engineering, targeting applications in fast-charging electric vehicles and high-energy-density storage systems.
Professor Ki Jae Kim's research lab specializes in advanced energy storage materials and systems, with a primary focus on next-generation batteries such as aqueous zinc-ion, lithium-metal, and solid-state batteries. The lab investigates novel electrode materials, electrolyte engineering, and interfacial stabilization strategies to enhance cyclability, safety, and energy density. Key research directions include suppressing dendrite growth in lithium metal anodes, mitigating polysulfide shuttling in lithium–sulfur batteries, and developing high-performance solid electrolytes and cathode coatings using functional oxides and ionic liquids. The lab also explores cost-effective and scalable solutions for large-scale energy storage applications, emphasizing practical viability and long-term stability.
Professor Hyung Mo Jeong's research lab specializes in the design and engineering of advanced nanomaterials for next-generation energy storage technologies. The lab focuses on developing high-performance electrodes and catalysts for ultracapacitors, lithium-ion batteries, and solid-state batteries, with an emphasis on enhancing capacitance, cycle life, and scalability. Key research directions include nitrogen-doped carbon and graphene architectures, silicon-based anodes with core-shell structures, and atomic-scale engineered copper catalysts for CO2 reduction. The lab integrates advanced synthesis techniques with in situ characterization and computational modeling to achieve fundamental insights into ion-to-atom redox mechanisms and interfacial stability.
Professor Jong-Won Lee's research lab specializes in advanced energy storage materials, with a primary focus on solid-state batteries and sustainable electrochemical systems. The lab develops innovative materials and architectures—such as surface-engineered graphite anodes, quasi-solid-state electrolytes, and carbon-free cathodes—to enhance the performance, safety, and scalability of lithium-ion and lithium-oxygen batteries. A key research direction involves designing high-conductivity, stable solid electrolytes like LATP and exploring novel fabrication methods for all-solid-state batteries. The lab also pioneers bio-based electrochemical processes, including microbial production of green solvents, demonstrating a multidisciplinary approach to sustainable energy and chemical technologies.
Professor Miji Kim's research lab specializes in geriatric health and aging, focusing on the assessment and management of sarcopenia, frailty, and sarcopenic obesity in older adults. The lab employs advanced body composition analysis, such as DXA and bioelectrical impedance, to evaluate muscle mass, fat mass, and physical function in community-dwelling older populations. Key research directions include identifying reliable and accessible tools for diagnosing sarcopenia and frailty, understanding the interplay between muscle health and cognitive function, and evaluating the utility of anthropometric indices in predicting cardiometabolic risk. The lab’s work contributes to improving early detection and intervention strategies for age-related physical decline.
Professor Sangmin‐Michelle Lee’s research lab specializes in technology-enhanced language learning, with a focus on integrating emerging technologies such as machine translation, context-aware augmented reality, and digital games into EFL/FL education. The lab investigates how these tools support second language writing, foster learner autonomy, and enhance motivation and creativity in authentic learning contexts. Current research directions emphasize the pedagogical potential of AI-driven translation tools and immersive technologies in promoting meaningful, context-rich language acquisition.
Professor Jin-Byung Park's research lab specializes in synthetic biology and systems metabolic engineering, focusing on the sustainable production of high-value chemicals from renewable feedstocks such as fatty acids and plant oils. The lab develops innovative whole-cell biocatalysts using engineered enzymes and microbial hosts—particularly *Escherichia coli* and *Saccharomyces cerevisiae*—to enable multi-step cascades for the synthesis of dicarboxylic acids, hydroxy- and aminocarboxylic acids, epoxides, and long-chain amines. A central theme is the optimization of enzyme stability and catalytic efficiency to enhance productivity and scalability in biotransformations.
伊万仲教授の研究室は、医療の質と公平性の向上を目的として、医師の分布格差や医療資源の最適配分、特に高齢化社会における医療制度の持続可能性に焦点を当てた研究を推進しています。特に、地域間の医療格差やICUにおける予後予測、抗生物質耐性感染症の実態把握、がん末期医療の費用対効果など、政策に直結する実証的研究が特徴です。COVID-19下での医療行動の変化や、治療の質と費用の両立に関する分析も進んでいます。
Yaokai Feng教授の研究室は、IoT環境におけるサイバー攻撃、特にボットネットや分散型スキャン攻撃の早期検出に注力しています。特に、リソース制限のあるIoTデバイスに適した軽量で効率的な機械学習ベースの侵入検知システムの構築を主眼としています。特徴選択技術の最適化や、C&C通信の検出、リアルタイム性を重視した検出アーキテクチャの開発が進められています。
Professor Soo Lim's research lab focuses on the pathophysiological mechanisms linking body fat distribution, particularly visceral and ectopic fat depots, to cardiometabolic diseases such as insulin resistance, type 2 diabetes, and nonalcoholic fatty liver disease (NAFLD). The lab investigates the role of adipose tissue heterogeneity, mitochondrial dysfunction, and environmental toxins—especially persistent organic pollutants (POPs)—in driving metabolic syndrome and its complications. Using advanced body composition assessment tools like BIA and DXA, the lab evaluates the accuracy of clinical measurements in aging and obese populations to improve risk prediction and early intervention strategies.
Professor Sangtae Kim's research lab specializes in low-Reynolds-number hydrodynamics, particulate suspensions, and energy conversion systems. The lab focuses on theoretical and computational modeling of hydrodynamic interactions in complex fluids, with applications in porous media flow, particle dynamics, and microfluidic systems. Additionally, the lab explores advanced energy harvesting technologies based on stress-voltage coupling in electrochemically alloyed electrodes and investigates the fundamental mechanisms governing ion insertion and structural stability in alkali-ion battery materials. These interdisciplinary efforts bridge fluid mechanics, materials science, and energy engineering to address challenges in sustainable energy and microscale systems.
Professor Jin Woo Chang's research lab specializes in the development and clinical application of magnetic resonance-guided focused ultrasound (MRgFUS) for the treatment of movement disorders. The lab focuses on stereotactic ablation of specific brain targets—such as the thalamus and globus pallidus—to treat conditions like essential tremor and Parkinson’s disease-related dyskinesia. Their work emphasizes long-term efficacy, safety, and the optimization of thermal lesioning techniques, with a strong commitment to translational research and patient-centered outcomes. The lab also investigates the technical and biological limitations of MRgFUS, particularly in achieving consistent lesion formation.
Professor Tae Hyun Baek's research lab specializes in consumer behavior, with a focus on the psychological and emotional influences on consumer decision-making in digital and emerging technology contexts. Key research directions include the impact of personalized advertising, brand credibility, and emotional framing in advertising on consumer intentions, as well as the role of augmented reality and AI anthropomorphism in shaping self-perception and prosocial behaviors. The lab integrates theories from social psychology and marketing to explore how technology-mediated experiences affect brand perception, trust, and ethical consumer behavior.
Professor Jung Tae Lee's research lab specializes in advanced materials for next-generation energy storage systems, with a primary focus on lithium-sulfur and lithium-selenium batteries. The lab develops novel nanostructured carbon composites, such as carbide-derived carbon (CDC) and mesoporous carbon architectures, to enhance ion transport, suppress polysulfide shuttling, and improve electrochemical performance. Key innovations include in situ formation of solid electrolyte interphases, scalable electrode fabrication via thermally induced phase separation (TIPS), and the utilization of sustainable biomass-derived materials like lignin for battery components. The lab emphasizes practical, cost-effective solutions to challenges such as capacity fading, poor rate capability, and electrode processing difficulties.
Tan Van Vu教授の研究室では、量子・古典的オープン系における熱力学的非可逆性とエネルギー散逸のメカニズムを、情報幾何学と最適輸送理論を融合して解明しています。特に、マコフ過程に従う系におけるエントロピー生成量の下界を、一般化されたワッサーシュタイン距離に基づく幾何的評価で定式化しており、量子・古典の両分野に普遍的に適用可能な理論的枠組みを構築しています。また、単一の軌道からのエントロピー生成推定や、熱的・運動的不確実性関係の統一的枠組みの確立にも貢献しています。
石沢教授の研究室は、金属触媒を用いた炭素酸化物の効率的かつ選択性の高い反応開発を柱としています。特にCO₂をリソースとして活用する新規反応機構の確立に注力しており、C–H結合の直接的機能化や光誘導反応系の構築が顕著です。また、自己集合系の設計やニッケル触媒を用いたCO₂のアルキン・アレーンとのカップリング反応など、多様な分野にまたがる創薬的・触媒的アプローチを展開しています。
