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 Jung Tak Park's research lab specializes in nanomaterials synthesis and their biomedical applications, with a strong focus on kidney disease mechanisms and therapeutic interventions. The lab investigates the role of microRNAs, growth factors like TGF-β1, and signaling pathways in diabetic nephropathy and acute kidney injury, aiming to identify novel biomarkers and therapeutic targets. Recent work includes the development of functional nanoparticles and the evaluation of erythropoietin's renoprotective effects in fibrosis and epithelial-to-mesenchymal transition.
Professor Ghang Lee's research lab specializes in Building Information Modeling (BIM) and digital transformation within the architecture, engineering, and construction (AEC) industry. The lab focuses on critical success factors for BIM adoption, interoperability of BIM data through Industry Foundation Classes (IFC), and performance optimization of BIM data management systems. Key research directions include BIM implementation strategies, model data extraction without schema dependencies, and enhancing query efficiency in IFC-based databases using object-relational database technologies.
Professor Ik-Jyae Kim's research lab specializes in next-generation memory and neuromorphic computing technologies, focusing on hafnia-based ferroelectric materials, oxide semiconductors, and 3D integrated memory architectures. The lab pioneers CMOS-compatible, high-density, and low-power memory devices such as ferroelectric FETs, 3D FeNAND arrays, and compute-in-memory systems for artificial intelligence applications. Key research directions include overcoming interfacial layer challenges, enhancing polarization switching, and enabling scalable, flexible, and energy-efficient neuromorphic hardware. The lab also explores advanced device integration for high-performance computing and data-centric electronics.
Professor Taekyung Yu's research lab specializes in the design, synthesis, and application of advanced nanomaterials with tailored morphologies and surface structures. The lab focuses on developing novel synthetic methodologies—particularly low-temperature and nonhydrolytic routes—for creating metal and metal oxide nanocrystals, including platinum, ceria, and manganese oxide, with controlled shapes, sizes, and high-index facets. A key research direction involves engineering hybrid nanostructures such as Pt/CeO₂ to enhance catalytic performance and stability, especially in energy-related and environmental catalysis. The lab also investigates quantum confinement effects in two-dimensional nanomaterials, such as ultrathin ceria nanosheets, for optoelectronic and catalytic applications.
Professor Sohyune Sok's research lab focuses on integrative health interventions, particularly acupuncture and complementary therapies, for improving mental and physical health outcomes in aging populations and specific clinical groups such as nurses and adolescents. The lab investigates non-pharmacological approaches to managing insomnia, chronic pain, and cognitive decline, while also exploring psychosocial factors like emotional support, communication competence, and workplace violence in healthcare professionals. A key emphasis is placed on promoting long-term well-being and health-promoting behaviors in older adults, especially those living alone, and on developing tailored, evidence-based interventions for diverse populations in South Korea.
Przemysław Data教授の研究室では、π-共有構造を有する有機半導体材料の設計・合成を軸に、機械的刺激で発光色が変化する多色発光性（機械クロミックルミネッセンス）や、熱的に励起された遅延発光（TADF）を示す新規有機発光材料の開発を進めています。特にU字型D-A-D構造やマクロサイクル型のπ-コンジュゲート系が特徴で、分子の立体障害や自己集合性が発光特性に与える影響を精密に制御しています。また、室温でリンパ発光を示す材料の発見や、非ドーピング型励起体混合系におけるTADFのメカニズム解明にも貢献しています。
Professor Jechan Lee's research lab specializes in the development of advanced heterogeneous catalysts for sustainable biomass conversion and renewable fuel production. The lab focuses on aqueous-phase hydrogenation (APH) and hydrodeoxygenation (HDO) reactions, employing bimetallic and core-shell catalysts to enhance activity, selectivity, and stability. Key innovations include the use of atomic layer deposition (ALD) to protect and stabilize active metal nanoparticles—particularly cobalt—against leaching and sintering, enabling efficient transformation of biomass-derived oxygenates into valuable chemicals and fuels.
Professor Sunghoon Park's research lab specializes in microbial biotechnology and metabolic engineering, focusing on optimizing microbial cell factories for sustainable production of high-value chemicals and bioproducts. Key research directions include enhancing methane monooxygenase (MMO) expression in methanotrophs for bioremediation and biofuel precursor synthesis, developing advanced fermentation processes for recombinant protein production, and exploring quorum-sensing regulation in pathogenic bacteria for novel therapeutic strategies. The lab integrates systems biology, synthetic biology, and bioprocess engineering to improve microbial productivity and plasmid stability in industrial biotechnology applications.
Satoshi Uchida教授の研究室は、mRNAやプラスミドDNAの非ウイルス的細胞内送達を効率的・安全に行うための新規ナノキャリアの設計を柱としています。特に、リドキシス環境で分解可能なジスルフィド架橋や、カテニオンポリマーの構造微調整によって、核酸の安定化と細胞内解放を両立するスマートなポリプレックスシステムを開発しています。また、肝臓での非特異的クリアランスを回避するための「イン・サイト・ステルスコーティング」技術の開発も進めており、がんや遺伝疾患の治療への応用が期待されています。
Professor Hyunjoon Song's research lab specializes in the design, synthesis, and application of advanced nanomaterials for energy conversion and environmental sensing. The lab focuses on developing shape-controlled noble and transition metal nanoparticles, metal oxide heterostructures, and core-shell nanoarchitectures with tailored morphologies and surface properties. Key research directions include electrocatalysis for sustainable energy conversion—particularly CO₂ reduction and hydrogen evolution—alongside the development of high-performance chemiresistive sensors for volatile organic compounds. The lab emphasizes fundamental understanding of structure-property relationships to enable practical applications in energy storage, catalysis, and environmental monitoring.
Professor Tae Hyun Kim's research lab specializes in sustainable bioenergy and advanced materials, focusing on the development of efficient pretreatment technologies for lignocellulosic biomass to enhance biofuel production. The lab investigates ammonia-based pretreatments—such as soaking in aqueous ammonia (SAA)—to selectively remove lignin while preserving cellulose and hemicellulose, thereby improving enzymatic digestibility and ethanol yields in processes like simultaneous saccharification and co-fermentation (SSCF). Additionally, the lab explores bio-based UV-protective materials derived from biomass, such as lignin and natural fibers, to address environmental and health concerns related to conventional UV filters. The research integrates renewable energy systems, particularly microgrid optimization with energy storage, using advanced mathematical modeling and parallel computation techniques.
桑田慎介教授の研究室は、核酸を用いた高感度で特異的なバイオセンシング技術の開発を柱としています。特に、蛍光を「点灯」させる自己活性化型プローブ（QUALプローブ）や、標的RNAやDNAのシーケンス差を酶や洗浄工程を要せず、混ぜるだけで検出可能な新規プローブ技術の創出に注力しています。また、蛍光アプタマーを用いたトランスクリプションモニタリングや、蛍光性を制御する新しい分子設計も展開しており、診断・生命科学研究への応用が期待されています。
Hideo Ohkita教授の研究室は、有機太陽電池の効率向上を目的として、ポリマーとフルーレンのヘテロジャンクション系における光物理的挙動や界面挙動の解明を主な研究テーマとしています。特に、トランジエンス・ア装置スペクトロスコピーを用いた超高速プロセスの観察や、三成分系ブロックヘテロジャンクション太陽電池における染料の界面選択的配置メカニズムの解明が進んでいます。また、ナノスケールの材料設計と界面制御を通じて、高効率で安定な有機太陽電池の実現を目指した材料開発も行っています。
Professor Hyun-Joong Kim's research lab specializes in advanced functional materials and sustainable composite technologies, with a strong focus on stretchable electronics, eco-friendly biocomposites, and air purification systems. The lab develops innovative stretchable interconnects using liquid-metal-filled elastomeric microchannels for wearable and flexible electronics, while also advancing the use of renewable materials like polylactic acid (PLA) and paper sludge in high-performance, low-environmental-impact composites. Additionally, the lab designs energy-efficient electrostatic precipitators for indoor air quality improvement, applying fundamental principles of particle charging and collection efficiency. The overarching research direction emphasizes sustainability, mechanical performance, and real-world applicability in emerging green technologies.
Professor Byung-Gook Park's research lab specializes in next-generation nanoelectronics and emerging memory technologies, with a focus on resistive random-access memory (ReRAM) and tunneling field-effect transistors (TFETs). The lab explores CMOS-compatible fabrication processes, nanostructured electrodes (such as nano-cone silicon), and innovative material architectures—like double-layered silicon nitride (SiN) stacks—to achieve low-power, high-performance devices. Key research directions include enhancing device reliability, reducing switching voltage and current, and enabling energy-efficient neuromorphic computing through spike-based neural networks and advanced device simulation. The lab combines experimental fabrication with advanced TCAD simulations to optimize device performance and scalability.
Professor Chulmin Joo's research lab specializes in developing advanced optical imaging and nanomaterial synthesis techniques for biomedical and materials science applications. The lab focuses on quantitative phase imaging, label-free live-cell dynamics, and polarization-sensitive microscopy to study cellular mechanics and intracellular processes with high resolution and sensitivity. Additionally, the lab pioneers scalable synthesis methods for functional nanomaterials, particularly copper-based chalcogenides, for potential use in optoelectronics and biomedicine. Their work bridges innovations in optical instrumentation, computational imaging, and nanomaterials engineering to enable non-invasive, high-performance diagnostic and analytical tools.
Professor Md. Ataur Rahman's research lab focuses on the molecular mechanisms underlying cancer biology and neurodegenerative diseases, with a particular emphasis on autophagy, apoptosis, and tumor suppressor pathways such as p53. The lab investigates the therapeutic potential of bioactive phytochemicals in modulating these cellular processes to develop novel, complementary strategies for cancer chemotherapy and neuroprotection. Environmental neurotoxicants like arsenic are also studied for their role in triggering neurodegeneration, especially in Alzheimer’s disease. The lab integrates molecular biology, cell signaling, and natural product pharmacology to explore disease mechanisms and identify promising therapeutic targets.
Professor Rui Cao's research lab specializes in the design and development of advanced functional materials for sustainable energy conversion and storage. The lab focuses on electrocatalysts for key reactions such as the hydrogen evolution reaction (HER), oxygen evolution reaction (OER), and oxygen reduction reaction (ORR), with applications in artificial photosynthesis and fuel cells. A central theme is the rational engineering of nanostructured materials—particularly metal-organic frameworks (MOFs), covalent organic frameworks (COFs), and transition metal oxides/hydroxides—to achieve high activity, stability, and atom efficiency. The lab also investigates structure-function relationships and reaction mechanisms at the molecular level to guide the creation of next-generation energy materials.
Makoto Kurano教授の研究室は、リピッドメディエーターであるスフィンゴシン-1-リン酸（S1P）やリソホスファチジルイノシトール（LPI）をはじめとするグリセロール系リン脂質が循環器疾患や代謝異常、炎症反応に与える影響を、分子・細胞・臨床の多角的アプローチで解明しています。特にS1Pを運搬するアポリポタンパク質M（apoM）とHDLの関連性が、動脈硬化やインスリン抵抗性の病態に果たす役割に注目しています。また、LPAやGPR55を介する炎症制御機構の解明も進めており、感染症や代謝性疾患における治療的アプローチの可能性を模索しています。
Yuki Yamada教授の研究室は、次世代リチウムイオン電池やリチウム酸素電池に不可欠な安定で高機能な電解質の開発を主眼としています。特に、超濃縮電解質の溶液構造と界面挙動の解明を通じて、高速充電・高電圧対応の電池実現に向けた基盤技術を確立しています。グラファイト電極におけるリチウムイオンの高速挿入やアルミ集電体の酸化腐食抑制といった革新的な発見も多数報告されており、電池材料の根本的設計原理の再考を促しています。
