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 Seungnyun Kim's research lab specializes in next-generation wireless communication systems, with a strong focus on enhancing spectral and energy efficiency in advanced 5G and 6G networks. The lab explores cell-free massive MIMO, terahertz (THz) communications, and ultra-dense networks, emphasizing practical challenges such as CSI feedback reduction, beam management, and energy-efficient network operation. By leveraging channel reciprocity, advanced signal processing, and integration with sensing and computer vision technologies, the lab aims to enable intelligent, high-capacity, and low-latency wireless systems for future applications.
Professor Jung-Woo Park's research lab specializes in geochemistry, with a focus on the petrogenesis of metal-rich magmas and the origin of porphyry copper-gold deposits. The lab investigates chalcophile element behavior, platinum group elements (PGEs), and trace element partitioning in magmatic systems, particularly in arc and intraplate volcanic settings. Using advanced analytical techniques such as LA-ICP-MS and NiS fire assay with isotope dilution, the lab explores the controls on PGE and chalcophile element enrichment in magmas, minerals (e.g., Cr-spinel), and crustal materials like loess. Their work contributes to understanding the formation mechanisms of economically significant hydrothermal ore deposits.
Professor Jung-Suk Han's research lab specializes in advanced biomaterials and digital dentistry, focusing on the development of zirconia-based composites for dental implants and prosthetic applications, with an emphasis on mechanical performance, biocompatibility, and long-term clinical stability. The lab also pioneers the application of artificial intelligence and deep learning in dental imaging, particularly in automated detection and segmentation of anatomical structures in panoramic and periapical radiographs. Research spans from material science innovations to clinical translation, integrating cutting-edge technologies such as augmented reality and panoptic segmentation for improved diagnostic accuracy and treatment planning.
Professor Cheol-Joo Kim's research lab specializes in the synthesis, characterization, and application of low-dimensional semiconductor nanostructures, with a focus on group IV nanomaterials such as silicon-germanium alloys, germanium nanowires, and hexagonal boron nitride. The lab explores novel growth techniques for high-quality nanowires and 2D materials, emphasizing control over structural, electronic, and optical properties through precise engineering of composition, diameter, and stacking order. Key research directions include nanowire-based photodetectors, field-effect transistors, and van der Waals heterostructures for next-generation nanoelectronics and optoelectronics.
Professor Hyunggun Kim's research lab specializes in biomedical engineering and computational biomechanics, focusing on the development of personalized computational models for heart valve function and disease. The lab integrates patient-specific medical imaging, advanced finite element analysis, and innovative biomaterials to study valve mechanics, tissue degeneration, and tissue engineering applications. Research also extends to agricultural machine vision using weakly supervised deep learning and in vivo imaging techniques for early detection of vascular pathologies.
Professor Jae-Hyun Lee's research lab specializes in the development of advanced two-dimensional (2D) materials and their applications in next-generation electronic, photonic, and energy devices. The lab focuses on scalable synthesis of single-crystalline 2D materials—particularly graphene and amorphous carbon allotropes—using innovative epitaxial growth techniques on single-crystalline substrates such as germanium. Key research directions include defect engineering for enhanced ion and proton transport in 2D membranes, transparent and flexible electromagnetic shielding films, and electrochemical catalysis for sustainable chemical conversion, such as methane-to-methanol transformation. The lab also pioneers ultrasensitive pH sensors by exploiting proton permeability in engineered graphene layers, pushing beyond classical physical limits.
Professor Yong Pyo Kim's research lab specializes in atmospheric chemistry and environmental modeling, with a focus on the thermodynamics and gas-particle equilibrium of inorganic and organic aerosols. The lab develops and applies advanced computational models—such as SCAPE—to predict the phase partitioning, composition, and activity coefficients of atmospheric species, including secondary inorganic aerosols and hazardous air pollutants. Research also emphasizes the impact of policy on air quality, particularly in urban environments like Seoul, and investigates emerging pollutants such as nitrosamines and nitramines in fine particulate matter. The lab integrates experimental measurements with model validation to improve understanding of aerosol formation, transformation, and environmental health impacts.
本研究室は、深海熱水噴出孔および深海堆積物を対象とし、特に熱水システムに由来する希土類元素・レアメタルの蓄積機構や、深海熱水生態系の生物多様性・代謝機構の解明を主な研究テーマとしています。また、深海資源の効率的探査手法の開発や、量子井戸構造を用いた半導体デバイスの理論的解析についても併せて研究を進めています。
李翔沖教授の研究室は、宇宙の構造形成と暗黒物質の分布を解明するため、弱引力レンズを用いた大規模銀河赤方偏移測定を主軸としています。特に、観測データから得られる銀河形状の歪みを高精度に測定するための新しい形状推定手法の開発に注力しており、ノイズバイアスや選択バイアスの解析的補正を実現しています。この研究は、宇宙論的モデルの検証や、標準モデルの限界を明らかにする上で重要な役割を果たしています。
那珂貴志教授の研究室は、ルトエニウムを用いた高効率で選択的な酸化反応の開発を柱としています。特に、酸化的なBaeyer-Villiger反応やアルコールの酸化反応において、反応選択性と反応条件の穏やかさを実現する触媒系の構築が特徴です。また、超音波を用いた可逆的で迅速なゲル化現象の発見など、新しい反応モードの探索にも貢献しています。
Satoshi Imazato教授の研究室は、歯科修復材料のバイオアクティブ化を目的として、抗菌性を有する高分子モノマー「MDPB（メタクリロイルオキシドデシルピリジニウム臭化物）」の開発と応用を主軸としています。このモノマーを樹脂に固定することで、抗菌効果を持続的に発揮しつつ、機械的特性の低下や毒性の懸念を回避する画期的な修復材料の開発が進められています。特に、歯科用プライマーにMDPBを組み込むことで、虫歯の原因となる細菌を効果的に抑制する「抗菌接着システム」の実用化に成功しており、臨床応用に向けた実験的・臨床的評価も精力的に行われています。
東田博之教授の研究室では、シンクロトロンX線マイクロトモグラフィーを活用した材料内部の3次元微細構造観察を柱として、疲労割れ、応力腐食割れ、水素脆化、微小空孔の成長挙動など、材料の破壊挙動を高分解能で可視化・定量する研究を進めています。特に、TEMに代わるナノスケールの内部構造観察や、応力・ひずみ場の3次元マッピング技術の開発が特色です。実験的・計測的アプローチに加え、材料の破壊機構解明に貢献する革新的な画像解析手法の構築が目指されています。
白木教授の研究室は、らせん構造を有するバイオマテリアルと有機半導体の協調的相互作用を基盤に、光・電気特性を制御する新規機能性ナノ材料の創出をめざしています。特に、キラルなポリマーとカーボンナノチューブの局所修飾を組み合わせた近赤外発光材料や、外部刺激に応じて発光特性を変化させるスマートマテリアルの開発が特徴です。水中でも高いキャリブレーション発光を示すキラルナノワイヤーの創出や、分子認識に基づく発光スペクトルの精密制御も実現しています。
Wu教授の研究室は、分子磁性体と多機能分子材料の設計・創出を柱としており、特にスピンカローリング、磁気秩序、スピンクロスオーバー、および磁電効果を示す分子系の開発に注力しています。4d・5d遷移金属錯体やランタニド錯体を用いた単分子磁性体や、スピン状態の制御可能な分子スイッチの開発が進んでいます。また、光と物質の相互作用を制御するためのナノスケールの超構造設計や、電子配置の精密制御による極性変化の誘導も重要な研究テーマです。
Akihiro Takezawa教授の研究室は、Additive Manufacturing（アディティブマニュファクチャリング）を基盤として、複合材料や多孔質構造の機能的設計に注力しています。特に、熱的・機械的特性を制御するためのトポロジー最適化や、不確実性を伴う材料特性を考慮したロバスト設計手法の開発が進んでいます。金属AMにおける応力歪み低減や、熱電変換素子の効率的設計など、産業応用に直結する実用的で革新的な研究が特徴です。
Professor Ji Woon Park's research lab focuses on the intersection of orofacial pain, temporomandibular disorders (TMD), and systemic health factors, particularly sleep disorders and psychological comorbidities. The lab investigates the long-term structural changes in the TMJ using advanced imaging techniques like CT, explores the impact of oral appliance therapy on headache in OSA patients, and examines the role of somatization and psychological distress in TMD. Additionally, the lab contributes to environmental health by modeling particulate control in electrostatic precipitators, reflecting a multidisciplinary approach to health and environmental science.
Professor Soogab Lee's research lab specializes in aeroacoustics and computational fluid dynamics, with a primary focus on noise generation mechanisms in rotary-wing aircraft and complex flow systems. The lab investigates blade-vortex interaction noise, rotor blade design optimization, muzzle blast noise, and stochastic acoustic characteristics in multirotor systems using advanced numerical simulations and experimental validation. Key research directions include high-fidelity flow and noise prediction, turbulence modeling with surface transpiration effects, and community response to transportation noise. The lab integrates cutting-edge CFD methods with acoustic analysis to address real-world aeronautical noise challenges.
Professor Hak Lae Lee's research lab specializes in advanced paper science and coating technologies, focusing on enhancing the barrier, mechanical, and surface properties of cellulosic paper through innovative polymer coatings and additive formulations. Key research directions include the development of PVA-based and styrene-acrylate latex binders with functional monomers like HEMA to improve film formation and coating structure, as well as the application of advanced imaging techniques such as FIB-SEM and smart image analysis for precise characterization of coating microstructures. The lab also investigates flocculation processes in papermaking to optimize filler distribution and paper performance. Their work bridges materials science, polymer chemistry, and paper engineering to enable high-performance, sustainable paper-based materials.
Professor Hee-Chun Chung's research lab specializes in virology and molecular virology, with a focus on the environmental persistence and molecular characterization of animal and human pathogens. The lab investigates the genetic evolution, zoonotic potential, and transmission dynamics of emerging and re-emerging viruses such as porcine circoviruses, porcine parvovirus, SARS-CoV-2, and enteric viruses in oysters and environmental matrices. Their work integrates virological surveillance, nucleic acid amplification, bioinformatics, and cell culture to understand viral ecology and public health implications.
Professor Kyoungsik Kim's research lab specializes in nanophotonics, metamaterials, and sustainable energy technologies, with a focus on designing advanced nanostructured materials for efficient solar energy harvesting and conversion. The lab develops biomimetic and dielectric nanostructures—such as graded-index antireflection coatings, photonic crystal heterostructures, and 3D solar evaporators—to enhance light trapping, broadband absorption, and solar-to-vapor efficiency. Key research directions include nanofabrication techniques for photonic devices, refractive index sensing, and next-generation solar cells and desalination systems.
