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。
Fuyuhiko Tamanoi教授の研究室は、メソポーラスシリカナノ粒子（MSNs）を基盤としたがん治療用ドラッグデリバリーシステムの開発を主眼としています。特に、がん細胞に特異的に集積する機能性ナノ粒子の設計や、siRNAや抗がん薬の効果的かつ安全な細胞内送達を実現する技術開発が進んでいます。また、細胞内シグナル伝達経路の制御や、リソソームからのナノ粒子排出機構の解明を通じて、ドラッグデリバリーの精度と効果を高める基盤研究も展開しています。
Ninshu Ma教授の研究室では、金属成形・接合プロセスの高度化を目的として、摩擦 stir加工や抵抗 spot溶接を含む新規加工技術の開発と、そのメカニズム解明を進めています。特に、超高強度鋼やデュプレックスステンレス鋼を対象に、微細組織制御と成形性・強度の両立を実現するための熱機械的プロセス設計と、FEMを用いたシミュレーション技術の統合的応用が特徴です。実験と数値シミュレーションの融合により、自動車用軽量化と安全性向上に貢献する材料・プロセス技術の創出を目指しています。
Yukinori Takenaka教授の研究室は、がんの病態メカニズムと治療反応予測の分子標高を解明することを柱としています。特にがん細胞のサバイバル機構に寄与するGalectin-3のリン酸化制御や、腫瘍微小環境に影響を与える血液学的バイオマーカー（NLR、PLR、血小板数など）の予後的意義を、臨床的・分子的アプローチで解明しています。また、がん患者における筋萎縮（サルコペニア）と免疫チェックポイント阻害剤の効果の関連性についても、メタアナリシスを活用した包括的評価を進めています。
Fei Xiao教授の研究室は、電力システムのリアルタイムセキュリティ評価と電力品質の異常検出を柱としたデータ駆動型研究を展開しています。特に、確率的リスク指標を用いた安全評価や、マルチヒddenマルコフモデル、ウェーブレット変換、機械学習を応用した異常検出手法の開発が特徴です。また、高エントロピー合金の相転移温度予測など、材料の物性とデータ分析の融合研究も進めています。
Masato Yoshihara教授の研究室は、卵巣がんの腹膜播種メカニズムに注目し、特にメタボリックな微小環境と腫瘍周囲環境の変化を解明しています。mesothelial細胞の異所的変換（CAMs）や脂肪細胞由来の線維芽細胞へのデディフェルティエーションが、がんの播種を促進するメカニズムを分子レベルで解明しており、ビタミンDによる細胞状態の回復や、腫瘍微小環境の再プログラミングを標的にした治療戦略の開発を目指しています。
Professor Jongheon Shin's research lab specializes in natural product chemistry, with a focus on the isolation, structural elucidation, and biological evaluation of bioactive compounds from marine and terrestrial sources. The lab investigates novel terpenoids, alkaloids, glycosides, and peptides from sponges, gorgonians, fungi, and actinomycetes, often discovering compounds with unique skeletons and significant pharmacological activities such as cytotoxicity, anti-inflammatory effects, and insulin-sensitizing properties. Their work combines advanced spectroscopic techniques, chemical degradation, and bioassay-guided fractionation to uncover structurally complex natural products with potential therapeutic applications.
Professor Geun Eog Ji's research lab focuses on the microbiome-gut-brain axis, particularly the role of commensal and probiotic bacteria in immune regulation, metabolic health, and inflammatory diseases. The lab investigates the mechanisms of action of beneficial microbes such as *Faecalibacterium prausnitzii* and *Bifidobacterium* species, emphasizing their metabolic interactions, anti-inflammatory properties, and potential as next-generation probiotics. Research also extends to functional foods like ginseng and saponins, exploring their impact on obesity, insulin resistance, and gut microbiota modulation. The lab integrates *in vitro*, animal model, and clinical studies to translate microbial insights into preventive and therapeutic strategies for metabolic and autoimmune disorders.
Professor Do Hyun Kim's research lab specializes in the design and development of advanced nanomaterials for sustainable energy, electronics, and environmental applications. Key research directions include the synthesis of magnetic and carbon-based nanomaterials for catalytic recycling of plastics, such as PET glycolysis using superparamagnetic γ-Fe₂O₃ nanoparticles, and the engineering of carbon dots with stable solid-state luminescence for optoelectronic devices. The lab also focuses on flexible and wearable electronics, demonstrated through ultrathin silicon-based NAND flash memory and flexible phase change memory arrays using novel transfer techniques and selection devices. Additionally, the lab explores hybrid nanocomposites, such as GO-manganese oxide, for enhanced catalytic and thermal properties via ultrasound-assisted synthesis.
Professor Jongduk Baek's research lab specializes in advanced x-ray computed tomography (CT) systems, with a strong focus on noise characterization, image quality optimization, and innovative CT system design. The lab investigates fundamental noise behaviors in cone-beam and fan-beam CT, particularly through noise power spectrum (NPS) analysis, to understand spatially varying noise and its impact on image fidelity. They also explore novel imaging architectures such as multi-source inverse-geometry CT and develop advanced reconstruction techniques for low-dose and metal-artifact-prone imaging, especially in dental and small-animal applications. Their work bridges theoretical analysis, simulation, and experimental validation to enhance image quality and system performance in clinical and research settings.
Professor Masoud Mofarahi's research lab specializes in adsorption-based separation technologies and carbon capture materials, with a strong focus on zeolites and amine-based solvents for CO₂ and gas mixtures (e.g., CO₂/N₂, CH₄/N₂, O₂/N₂). The lab conducts experimental and thermodynamic studies on adsorption isotherms, pressure swing adsorption (PSA) processes, and solvent-based capture systems, emphasizing material characterization, process optimization, and energy efficiency. Key research directions include the development and application of advanced adsorbents like 13X, 5A, and 4A zeolites for sustainable gas separation and carbon dioxide mitigation in flue gases and natural gas streams.
Professor Hakho Lee's research lab specializes in developing advanced magnetic and nanomaterial-based diagnostic technologies for sensitive, rapid, and quantitative detection of rare biological entities such as single cells, pathogens, and biomarkers in complex biological fluids. The lab focuses on innovative microfluidic and NMR-based platforms, integrating magnetic nanoparticles and miniaturized sensors to enable point-of-care diagnostics with high sensitivity and specificity. Key research directions include single-cell detection, pathogen identification, and molecular profiling of cancer cells using magnetic resonance techniques.
Professor Qihang Ding's research lab specializes in the design and application of advanced nanomaterials for biomedical theranostics, with a strong focus on near-infrared (NIR) fluorescence imaging and phototherapy. The lab develops smart, stimuli-responsive nanotheranostic agents—particularly those based on aggregation-induced emission (AIE) fluorophores and NIR-II window emitters—for precise targeting and treatment of infectious diseases (e.g., rabies, bacterial pneumonia) and cancer. Key research directions include blood-brain barrier penetration, tumor and infection microenvironment-responsive therapy, and the integration of nanorobots with phototherapy for real-time guidance and enhanced therapeutic precision.
Professor Uğur Korkut Pata's research lab specializes in environmental economics and sustainable development, focusing on the interplay between energy systems, environmental quality, and economic growth. The lab investigates the impacts of nuclear and renewable energy consumption, R&D expenditures, and financial development on key environmental indicators such as CO2 emissions, ecological footprint, and load capacity factor. A central theme is the empirical testing of environmental Kuznets curve (EKC) and load capacity curve (LCC) hypotheses across diverse countries and time periods. The lab employs advanced econometric methods, including ARDL, panel threshold, and Fourier-based models, to analyze long-term and nonlinear relationships in energy-environment-economy dynamics.
Professor Donghyun You's research lab specializes in computational fluid dynamics and turbulence modeling, with a strong focus on unsteady flows in turbomachinery and boundary layer dynamics. The lab investigates tip-leakage flows, vortical structures, and cavitation mechanisms in axial and centrifugal turbomachines using advanced large-eddy simulation (LES) techniques. Key research directions include the development of dynamic subgrid-scale models, the effects of geometric parameters (e.g., tip-gap size), and the influence of surface properties such as hydrophobicity on flow separation, drag, and pressure fluctuations. The lab also develops innovative numerical methods, including immersed boundary techniques on curvilinear grids, to simulate complex flow-structure interactions with high fidelity.
Professor Seok Jin Kim's research lab specializes in hematologic malignancies, with a primary focus on extranodal natural killer/T-cell lymphoma (ENKTL) and diffuse large B-cell lymphoma (DLBCL). The lab investigates optimal treatment strategies, including chemotherapy, radiotherapy, and immunotherapy, with particular emphasis on the role of surgery and immune checkpoint inhibitors like avelumab in improving survival and quality of life. The lab also explores predictive biomarkers such as CA IX and PD-L1 expression to guide personalized therapy in lymphomas and non-small cell lung cancer.
Professor Sheikh Salman Hassan's research lab specializes in next-generation wireless communication systems, with a focus on non-terrestrial networks (NTNs) and integrated space-air-ground networks for 6G. The lab explores intelligent resource allocation, reconfigurable intelligent surfaces (RIS), and mobile edge computing (MEC) using low-Earth orbit (LEO) satellites, CubeSats, and unmanned aerial vehicles (UAVs) to enhance coverage, energy efficiency, and data rates. Key research directions include optimizing trajectory and offloading for UAVs, improving satellite communication in sub-THz and THz bands, and enabling seamless, high-capacity connectivity for maritime and remote users. The lab emphasizes energy-efficient, scalable, and intelligent solutions for ubiquitous connectivity in dynamic and challenging environments.
岡本昭光教授の研究室は、蛍光を用いた核酸センシング技術の開発を柱としています。特に、塩基特異的な蛍光ヌクレオシドを設計し、SNP（単一塩基多型）や挿入多型の高感度・高特異的検出を実現する新規オリゴヌクレオチドプローブの開発が主な研究テーマです。また、励起状態の相互作用を利用したECHOプローブや、電荷移動を制御する人工塩基を用いた論理ゲート型DNAセンサーの開発も進んでいます。
Kotaro Sugawara教授の研究室は、食道がんや胃がんをはじめとする消化器がんの治療戦略に焦点を当てており、特にオナコリックウイルス療法や免疫チェックポイント阻害剤を用いたがん免疫療法の効果を解明しています。また、炎症マーカーや栄養状態を指標とする予後予測モデルの構築や、再発・残存がんに対する救命的手術の意義についても臨床的・疫学的アプローチで研究を進めています。がん治療における個別化医療の実現に向け、バイオマーカーと治療戦略の統合的アプローチを追求しています。
伊井井秀明教授の研究室では、ネットワーク化された制御システムや分散型アルゴリズムの理論的基盤を研究しています。特に、制限された通信帯域幅を持つネットワークを介した制御系の安定化、特にドアタイム制御を用いたスイッチング制御則の設計に注力しています。また、PageRankのような分散アルゴリズムの収束性や、複数のリーマン多様体を用いた非線形システムの制御理論にも関心を示しています。
田中元氏の研究室は、膜バイオフィジクスを基盤とし、細菌の外膜を模倣したモデル膜系の構築とその物理的性質の解明を主眼としています。特にリポポリサッカライド（LPS）を用いた単層膜を用い、カルシウムイオンの影響が膜構造に与える影響をX線反射とモンテカルロシミュレーションで解析しています。また、生体膜の位置選択的固定や、ポリマー スパacersを介した膜受容体の接着性向上といった、バイオセンサーや医療デバイス応用にもつながる基盤技術の開発も進めています。
