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。
Masahiro Nomura教授の研究室は、フォノン工学とナノスケール熱伝導の制御を柱として、光・熱・音の波動的性質を応用した新規デバイスの創出をめざしています。特に、フォノニクス結晶を用いた熱伝導の波動的制御や、自己組織形成量子ドットを用いた室温連続レーザーの実現が顕著です。これらの研究は、エナジー効率化、熱管理、次世代エレクトロニクスに貢献する基盤技術の開発を目的としています。
スワンナ・キットパティ・ブーンナコン教授の研究室は、環境中の微小プラスチックやPFAS（ポリフッ素化合物）をはじめとする新規汚染物質の環境挙動と効果的な除去技術の開発を主眼としています。特に、有機質が豊富な汚泥からの微小プラスチック回収法や、電気化学的酸化、膜プロセス、光触媒を組み合わせたPFAS除去技術の開発が進んでいます。また、病院下水処理施設における抗生物質の挙動や、衣類からのPFASの洗い出しも対象としており、環境と健康への影響を包括的に評価しています。
Yong Jie Wong教授の研究室は、持続可能な資源管理と環境保護を柱とした応用科学研究を推進しています。特に、発展途上国における地下水質評価や廃棄物管理の最適化、ならびに環境汚染物質の動態解明に向けたデータ駆動型アプローチを展開しています。GISと機械学習を融合した都市緑地の適応的評価や、バイオマテリアルを活用した建材開発など、環境工学と情報技術の融合が特徴です。
長野健史教授の研究室は、神経・耳鼻科領域を軸に、高品位なMR画像診断技術の開発と臨床応用に注力しています。特に、拡散強調画像（DWI）やhT2W-3D-FLAIRを用いた内リンス液の可視化、GBCMの脳内動態評価によるグリアムシステムの可視化、およびメニエール病の診断支援技術の確立が主な研究テーマです。3Tマグネティックリソナンスを活用した画像技術の最適化や、画像融合法による内リンス・外リンスの明確な分離も進めており、診断の精度向上に貢献しています。
東教授の研究室は、子宮体がん（子宮内膜がん）のがん進展と転移のメカニズムを、非コードRNAやマイクロRNA、シグナル伝達経路に着目して解明しています。特に、BMI-1やNEAT1、TWIST1といった転写因子やlncRNAが、EMT（上皮間葉移換）やがん幹細胞特性を制御するメカニズムを解明しており、がんの治療標的になる分子を同定することを目的としています。また、PI3K/AKT経路を介したがんの悪性化と化学療法耐性のメカニズムについても、miRNAの調節機能を通じて解明を進めています。
Professor Sung-Il Cho's research lab focuses on occupational and environmental health, with a strong emphasis on the impact of workplace exposures—such as organic solvents—on reproductive and psychological health. The lab investigates how socioeconomic status, family demands, and housing conditions influence health outcomes, particularly in vulnerable populations like industrial workers and the economically disadvantaged. Their work bridges environmental epidemiology with public health policy, aiming to inform interventions that address social determinants of health.
Professor Seongil Im's research lab specializes in two-dimensional (2D) van der Waals heterostructures and 2D semiconductor devices, focusing on the development of high-performance, low-voltage electronic and optoelectronic devices. Key research directions include the fabrication and characterization of 2D transition metal dichalcogenide (TMD)-based p-n diodes, Schottky junctions, and field-effect transistors with enhanced mobility, rectification, and photoresponse. The lab also investigates dielectric engineering using high-k and bilayer gate dielectrics to improve device performance and stability, particularly in air-stable p-type WSe₂ and MoS₂ transistors. Additionally, the group explores the growth and optimization of wide-bandgap oxide semiconductors such as ZnO for advanced optoelectronic applications.
Professor Hong-Seok Son's research lab specializes in microbial and metabolomic analysis, focusing on the interplay between gut and environmental microbiota and their metabolic profiles in relation to human health and food fermentation. The lab employs advanced omics technologies—such as 1H NMR, GC-MS, and 16S rRNA sequencing—to investigate microbial communities and metabolites in fermented foods (e.g., kimchi, wine), host-microbe interactions (e.g., in obesity), and oral health (e.g., halitosis). A central theme is understanding how microbial metabolites influence physiological outcomes and food quality across different environmental and dietary conditions. The lab also applies machine learning to metabolomic data for predictive modeling of biological states, such as ripening stages or disease-related shifts.
Yasuhiro Kato教授の研究室は、地球の鉱物・化学的成因とその環境変遷を解明することを目的としています。特に、古代のバンド状鉄鉱床（BIF）や深海泥中の希土類元素（REE）の挙動、ならびに海洋酸化状態の歴史的変遷に注目しています。海洋由来の金属鉱物や希土類元素の蓄積プロセスを、地球化学的・鉱物学的アプローチで解明しています。
Professor Do Kyun Kim's research lab specializes in marine structural integrity and reliability, with a strong focus on age-related degradation mechanisms in ships and offshore structures. The lab investigates corrosion damage modeling, fatigue assessment, and ultimate strength performance of ship hulls under time-dependent deterioration, particularly in aging vessels. Key research directions include developing probabilistic and data-driven models for nonlinear corrosion wastage, validating structural reliability under harsh marine environments, and improving design rules for bulk carriers and oil tankers. The lab integrates experimental data, statistical analysis, and advanced numerical simulations to enhance safety and longevity of marine structures.
Professor Wang Zhang's research lab specializes in the design and synthesis of advanced functional nanomaterials for energy conversion and storage, with a strong focus on sustainable and green fabrication methods. Key research directions include the development of graphene-based composites, metal-organic frameworks, and covalent organic frameworks for applications in supercapacitors, lithium-sulfur batteries, and hydrogen storage. The lab also investigates supramolecular systems for enhancing the stability and performance of fullerenes and other nanocarbons in aqueous environments, leveraging host-guest chemistry and microenvironment engineering to improve electrochemical and photophysical properties.
Professor Hongje Seong's research lab specializes in computer vision and deep learning, with a primary focus on video understanding, scene recognition, and semi-supervised video object segmentation. The lab develops advanced neural network architectures—such as memory-based networks, Transformers, and fusion frameworks—that emphasize spatio-temporal modeling, contextual reasoning, and efficient feature learning. Key research directions include hierarchical and kernelized memory mechanisms, attention-based feature aggregation, and end-to-end training with specialized loss functions to improve generalization and robustness.
Professor Jitendra Kumar Singh's research lab specializes in sustainable materials development with a focus on energy storage, biomass conversion, and green construction materials. The lab investigates phase change materials (PCMs) like stearic and lauric acid for thermal energy storage, employing microencapsulation techniques to enhance stability and performance. It also explores the valorization of underutilized biomass—particularly water hyacinth—into biofuels and bioproducts using advanced pretreatment methods involving ionic liquids and microbial processes. Additionally, the lab develops eco-friendly construction materials, such as geopolymer concrete incorporating bamboo ash, for high-temperature resilience and sustainability.
Professor Eun-Hee Ha's research lab focuses on environmental health, particularly the impacts of air pollution and psychosocial stressors on maternal and child health. The lab investigates critical exposure windows during pregnancy and early life, examining how pollutants like PM₁₀ and NO₂ influence adverse birth outcomes and infant health conditions such as atopic dermatitis. A key focus is on identifying effect modifiers, such as residential green space, that may mitigate these health risks. The lab employs longitudinal cohort studies and advanced epidemiological methods to assess environmental and occupational stressors on developmental and respiratory outcomes.
Takato Mitsudome教授の研究室は、持続可能な化学変換を実現するための新規触媒の開発を柱としています。特に、白金族以外の非レア金属を用いた高機能性ナノ触媒、特に金属ホスファイド（例：Ni₂P、Co₂P）や金ナノ粒子、Pdクラスターを用いた選択的水素化反応の開発が進んでいます。これらの触媒は、反応条件の温和さ、空気安定性、再利用性、および反応選択性に優れており、バイオマス誘導体の高効率な変換に貢献しています。
Professor Young Nyun Park's research lab specializes in hepatocellular carcinoma (HCC) pathogenesis, with a focus on tumor angiogenesis, stemness properties, and the role of vascular endothelial growth factor (VEGF) in hepatocarcinogenesis. The lab investigates vascular remodeling, including arterialization and sinusoidal capillarization, in preneoplastic and neoplastic liver lesions, as well as the clinical significance of vascular growth patterns such as vessels encapsulating tumor clusters (VETC). Using immunohistochemical and molecular analyses, the lab explores the epithelial-mesenchymal transition (EMT) and progenitor cell differentiation pathways in chronic liver disease and HCC progression. Their work bridges morphological, immunophenotypic, and molecular features to identify early biomarkers and therapeutic targets in HCC.
Professor Man Bock Gu's research lab specializes in the development and application of nanomaterials and biomolecular tools for environmental sensing, biocatalysis, and sustainable technology. The lab focuses on enzyme immobilization using advanced nanomaterials to enhance stability and efficiency in green chemical processes, while also pioneering label-free aptamer selection platforms using graphene oxide for high-affinity detection of small molecules and proteins. A key research direction involves understanding the biological impacts of nanomaterials—particularly silver nanoparticles—through real-time bioluminescent monitoring of oxidative stress and cellular damage mechanisms. The lab also develops ultrasensitive, colorimetric biosensors based on truncated aptamers for rapid detection of antibiotics and pesticides.
Professor Woonbong Hwang's research lab specializes in advanced composite materials and sustainable energy technologies, with a strong focus on fatigue behavior and life prediction of fiber-reinforced composites, interlaminar fracture mechanics, and eco-friendly membrane development for oily water purification. The lab also pioneers innovative energy harvesting solutions, particularly through triboelectric nanogenerators that efficiently convert low-frequency, random water wave motion into usable electrical energy. Key research directions include material degradation modeling, cumulative damage mechanics, and the design of green, scalable functional materials for environmental and energy applications.
Professor Young S. Park's research lab specializes in the design, synthesis, and characterization of advanced organic and hybrid materials for next-generation electronic and photovoltaic applications. The lab focuses on molecular engineering of charge-transport materials, particularly for perovskite solar cells and single-molecule junctions, with an emphasis on interfacial electronic structure, molecular self-assembly, and conductance mechanisms. Key research directions include the development of novel hole- and electron-transport materials, chalcogen- and tellurium-based semiconductors, and doped carbon-allotrope analogues for optoelectronic devices. The work integrates experimental measurements with theoretical calculations, particularly density functional theory, to establish structure-property relationships at the molecular level.
Kei Sato教授の研究室は、ウイルスの病原性メカニズムと宿主の免疫応答の分子機構を解明することを柱としています。特にSARS-CoV-2の変異株（オミクロンなど）におけるスパイクタンパク質の機能的変化や、ウイルスが宿主のインターフェロン応答を回避する仕組みについて、分子生物学的手法を用いて詳細に解析しています。また、抗ウイルス薬の効果やワクチンの効果のメカニズムについても、細胞・動物モデルを用いて実験的に解明しています。
