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。
Ueda教授の研究室では、リチウムや亜鉛をドープしたvanadate系酸化物の磁気的・構造的性質を低次元スピン系の観点から研究しています。特に、スピンギャップ系やスピンペイアリング遷移を示す物質において、電子相関や格子揺らぎがスピン状態に与える影響を解明しています。また、金属的・絶縁的相の境界付近におけるスピンガラスや短距離秩序の発現も重要なテーマです。
Professor Hyung-Ryong Kim's research lab focuses on the molecular mechanisms underlying endoplasmic reticulum (ER) stress, redox homeostasis, and their roles in metabolic and age-related diseases. The lab investigates the interplay between ER stress, reactive oxygen species (ROS) production, and cellular signaling pathways such as the unfolded protein response (UPR) and autophagy. A key focus is on identifying 'ER stress response or sensing failure' as a central mechanism in the pathogenesis of conditions like obesity, diabetes, and other chronic diseases. The lab also explores the development of patient-friendly diagnostic and therapeutic platforms, integrating advanced materials into point-of-care biosensors and implantable devices.
Professor Joo Myung Lee's research lab specializes in interventional cardiology and structural heart disease, with a primary focus on optimizing percutaneous coronary intervention (PCI) strategies using advanced intravascular imaging and functional assessment. The lab investigates the role of fractional flow reserve (FFR)-guided revascularization and intravascular ultrasound (IVUS) or optical coherence tomography (OCT) guidance in complex coronary artery disease to improve clinical outcomes. Additionally, the lab explores respiratory support strategies in critical care, particularly prone positioning in acute respiratory distress syndrome (ARDS), highlighting its impact on mortality and complications. The research is consistently grounded in large-scale clinical trials and evidence-based interventional cardiology.
Aoki教授の研究室は、一般相対性理論の拡張としての高次元・高スカラー・高曲率理論の構築に注力しています。特に、4次元におけるEinstein-Gauss-Bonnet重力の整合的極限や、ビグリビティ理論における重力波・暗黒物質の関係を解明しています。また、ゲージ不変性の破れや接続自由度の導入を通じて、ゴーストを避ける新しい重力理論の構造を解明しています。
Takashi Hirose教授の研究室は、分子科学と有機合成を基盤とし、ヘリセネやグラフェンアナログを用いた新規ナノ材料の設計・合成を主眼としています。特に、ヘリカルにねじれたπ共鳴系を有する分子が示す特異な光学的・機械的性質に注目し、分子スプリングやキラル発光材料の開発を目指しています。また、C. elegansを用いた遺伝子機能解析を通じて、体積調節に関与するシグナル伝達経路の解明も行っています。
阿部義隆教授の研究室では、酸化物半導体やペロブスカイト型酸化物を用いた次世代エレクトロニクス・エネルギー変換材料の開発を主眼としています。特に、酸化ジルコニウムやジルコニウム含有酸化物を基盤とした高κゲートエッチングや、水素・酸素・陽イオンを同時に伝導する三重伝導性酸化物を用いた中温型プロトン導電セラミック燃料電池の開発が進んでいます。溶液プロセスを用いたナノスケールの高品質酸化膜形成技術の確立も特色であり、薄膜デバイスの高効率化に貢献しています。
Professor Do-Nyun Kim's research lab specializes in DNA nanotechnology and computational biophysics, focusing on the design, simulation, and application of DNA-based nanostructures. The lab develops advanced multiscale modeling frameworks to predict the 3D shape, mechanical flexibility, and dynamic properties of DNA origami with atomic-level accuracy, enabling precise control over nanoscale mechanics. Key research directions include engineering mechanical stiffness through programmed defects, designing auxetic nanostructures for tunable mechanical responses, and leveraging DNA nanostructures as cryoprotectants for biomedical applications. The lab bridges computational modeling with experimental validation to advance functional nanomaterials for biomedicine and materials science.
Yusuke Nasu教授の研究室は、光ファイバーやプランラーリング光回路を用いた低損失・高効率な光デバイスの開発を柱としています。特に、レーザー加工を用いた波ガイド作製技術や、光信号の高密度集積を可能にする波長多重技術の研究が進んでいます。また、神経生物学的・代謝的応用を視野に入れた、遺伝子的にコードされた蛍光バイオセンサーの開発も並行して実施しており、細胞内・細胞外の代謝物質（Lラクテート）のリアルタイム可視化に貢献しています。
中澤松彦教授の研究室は、ナノスケールの金属ナノチューブや導電性ポリマーを用いた機能性膜・デバイスの開発を柱としています。特に、イオン選択性を制御できるナノチューブ膜や、皮膚への最小侵襲な薬物送達を実現するマイクロニードル、生体適合性の高い導電性ハイドロゲルを用いた生体電気刺激デバイスの開発が進んでいます。これらの研究は、医療分野における持続的でスマートな治療技術の実現を目指しています。
Professor Byeong-Joo Lee's research lab specializes in the development and application of empirical many-body potentials, particularly the Modified Embedded-Atom Method (MEAM), for accurate modeling of structural, mechanical, and thermodynamic properties of metals and alloys. The lab focuses on improving interatomic potentials to correctly describe complex behaviors in transition metals—especially body-centered cubic (bcc) and face-centered cubic (fcc) metals—such as surface energies, defect properties, and phase stability. Their work bridges atomistic simulations with experimental data to predict material behavior under extreme conditions, including high pressure and temperature. The lab also extends these potentials to diverse materials systems, enabling reliable simulations for materials design and engineering applications.
Professor Seung Goo Lee's research lab specializes in the design and fabrication of advanced functional materials and flexible electronic systems, with a focus on smart surfaces, wearable sensors, and electronic skin (e-skin). The lab pioneers innovations in tunable wettability, self-cleaning and antireflective coatings, and stretchable, multimodal sensors through techniques such as surface wrinkling, nanocoating, and electrostatic layer-by-layer assembly. Key research directions include the development of transparent superhydrophobic coatings, stimuli-responsive materials, and human-machine interactive therapeutic devices with visual and tactile feedback.
Professor HyukSu Han's research lab specializes in the development of advanced functional materials for sustainable energy applications, with a primary focus on electrocatalysts for water splitting and radiation detectors based on halide perovskites. The lab investigates colossal permittivity in ferroelectric ceramics like barium titanate, exploring conduction mechanisms and polarization dynamics through advanced dielectric spectroscopy. A key research direction involves engineering earth-abundant, durable electrocatalysts—particularly nickel-iron hydroxides and transition metal borides—for efficient oxygen evolution reactions in both acidic and saline environments. The lab also pioneers materials for high-performance gamma-ray detectors, emphasizing defect control and electrical stability through doping and surface reconstruction strategies.
Professor Xiangzhou Yuan's research lab specializes in sustainable materials development and environmental remediation, focusing on converting biomass and plastic waste into high-performance functional materials for carbon capture, heavy metal removal, and waste-to-energy conversion. The lab integrates machine learning and experimental validation to optimize the synthesis of biochar and activated carbon with tailored porosity and surface chemistry for enhanced environmental applications. Key research directions include CO₂ capture using waste-derived porous carbons, life cycle assessment of waste valorization processes, and data-driven design of advanced materials for environmental sustainability.
Professor Je-Hyung Kim's research lab specializes in integrated quantum photonics, focusing on the deterministic integration of solid-state quantum emitters—such as InAs/InP quantum dots and transition metal dichalcogenide monolayers—into photonic integrated circuits. The lab pioneers hybrid integration techniques, including pick-and-place assembly, to achieve high-efficiency, phase-stable, and scalable quantum photonic devices. Key research directions include on-chip control of single-photon sources with precise spatial and spectral tuning, photon-mediated quantum interactions between multiple emitters, and the development of telecom-wavelength single-photon sources for long-distance quantum communication. The lab's work aims to enable scalable, high-performance quantum information technologies through advanced nanophotonic platforms and strain engineering.
久野義央教授の研究室では、レニウム、ルトゲン、ロジウム、マンガン、銅など多様な遷移金属を用いたC–H結合活性化反応の開発を柱としています。特に、レニウムカルボニル錯体を用いた高収率で選択的なアリールアルドキシムとアセチレンの反応により、インデン誘導体やフタリミジン誘導体を効率的に合成する新規な反応機構の解明が進んでいます。また、不斉C–H活性化やスケールアップ可能な反応系の構築にも注力しており、有機合成化学の分野で革新的な手法の確立を目指しています。
Kitagawa教授の研究室は、有機・金属錯体を用いた機能性光材料の開発を柱としています。特に、キラルな発光特性を示すレアアースイオン錯体や、磁気場と光の相互作用を示すマグネトキラルディクロイズム現象の解明に注力しています。これらの研究は、次世代の光通信・セキュリティデバイスや、生命のキラリティの起源解明にも寄与する基盤技術の構築を目的としています。
Professor Jeong Min Baik's research lab specializes in the design and fabrication of advanced nanomaterials and nanostructured devices for sustainable energy conversion and environmental sensing. The lab focuses on triboelectric nanogenerators (TENGs) with novel architectures—such as inverse opal and ion gel nanofiber structures—aimed at enhancing energy harvesting efficiency under diverse environmental conditions. It also explores piezoelectric nanogenerators and electronic nose systems based on functionalized nanowires and mesoporous films, targeting applications in wearable electronics, biomedical devices, and smart sensors. The lab emphasizes scalable, low-cost fabrication techniques, including electrospinning and top-down microfabrication, to advance practical deployment of nanodevices.
Professor Kyoung-Mee Kim's research lab specializes in gastrointestinal oncology, with a focus on the molecular pathogenesis of colorectal and gastric cancers. The lab investigates serrated polyp pathogenesis, particularly the serrated neoplasia pathway involving sessile serrated adenomas and traditional serrated adenomas, and explores molecular drivers such as SLC34A2-ROS1 rearrangements in gastric cancer. They also examine tumor mutational burden and biomarkers for immunotherapy response in advanced gastric cancer, contributing to precision oncology. Additionally, the lab studies rare gastric conditions like granulomatous gastritis in the context of Helicobacter pylori and inflammatory bowel disease, especially in Asian populations.
Professor Cheol-Young Park's research lab focuses on metabolic and endocrine disorders, with a strong emphasis on the pathophysiology of metabolic syndrome, hepatic steatosis, and neurodegenerative diseases such as Alzheimer’s and vascular dementia. The lab investigates molecular mechanisms linking metabolic markers—like the TyG index and RGZ— to disease progression, particularly through pathways involving Sirt6 and AMPK. A key research direction involves understanding somatostatin receptor regulation in pituitary tumors, aiming to improve therapeutic strategies for acromegaly. The lab integrates clinical endocrinology with molecular biology to identify novel therapeutic targets and biomarkers.
Professor Zonghoon Lee's research lab specializes in the design, synthesis, and characterization of advanced nanomaterials with a focus on nano-electromechanical systems (NEMS), 2D materials, and functional catalysts. The lab pioneers novel fabrication techniques—such as room-temperature co-sputtering and substrate-free graphene growth—to create ultrathin metallic and alloy films, graphene-based supports, and nanostructured catalysts for energy and environmental applications. Key research directions include the microstructure-property relationships in ultrafine-grained and bimodal metals, atomic-resolution imaging of soft-hard interfaces, and electrocatalytic CO₂ conversion to value-added chemicals. The lab integrates advanced electron microscopy, thin-film deposition, and materials engineering to develop next-generation functional materials at the nanoscale.
